June 4,1968
Cleveland, Ohio
PROGRESS EVALUATION MEETING
Pollution of Lake Erie and its Tributaries —
Indiana, Michigan, New York, Ohio, Pennsylvania
U.S. DEPARTMENT OF THE INTERIOR • FEDERAL WATER POLLUTION CONTROL ADMINISTRATION
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CONTENTS
Page
Call to Order 3
Introductions 3
Thomas L. Ashley 5
Charles A. Vanik 17
Arnold W. Reitze 20
Gerald Remus 34
Carl Stokes 72
Richard D. McCarthy 79
George Simpson 95
Walter Lyon 104
William Riley 125
George Harlow 140
Amos L. Wright 153
Perry Miler 1#7
Ralph Purdy 200
Ralph Locher 237
John Haberer 282
George Eagle 301
Charles Marquetta 3#7
John Chasesa 391
John Kinny 41fi
Mrs. James Angel 424
Seba Estill 427
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ii
Progress Meeting of the Conference in the
2 matter of pollution of the waters of Lake Erie and its
3 tributaries (Indiana-Michigan-New York-Ohio-Pennsylvania),
4 held at the Pick Carter Hotel, Cleveland, Ohio, on June 4,
5 1963, at 9:30 a.m.
6 - - -
7 PRESIDING:
8 Mr. Murray Stein, Assistant Commissioner
9 for Enforcement, Federal Water Pollution
10 Control Administration, Department of the
11 Interior.
12
13 CONFEREES:
14 Dwight Metzler, Deputy Commissioner, New
15 York State Department of Health, Division
16 of Pure Waters, Albany, New York
17 George H. Eagle, Chief Engineer, Ohio
18 I
Department of Health, Columbus, Ohio
19 I
Loring F. Oeming, Executive Secretary,
Michigan Water Resources Commission,
Lansing, Michigan
23 Blucher A. Poole, Technical Secretary,
24 I Indiana Stream Pollution Control Board,
Indianapolis, Indiana
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iii
CONFEREES, Continued:
Walter A. Lyon, Director, Division of
Sanitary Engineering, Pennsylvania
Department of Health, Harrisburg
Pennsylvania
H. W. Poston, Regional Director, Great
Lakes Region, Federal Water Pollution
Control Administration, Department of
the Interior, Chicago, Illinois
PARTICIPANTS:
Hon. Thomas Ashley, U. S. House of Representatives
Washington, D.C.
Hon. Charles A. Vanik, U. S. House of Representa-
tives, Washington, D.C.
Arnold Reitze, Associate Professor of Law, Case
Western Reserve University, Citizens for Clean Air and
Water, Cleveland, Ohio.
Gerald Remus, General Manager, Detroit Water
Board, Detroit, Michigan.
Hon. Carl Stokes, Mayor, city of Cleveland, Ohio.
Hon. Richard D. McCarthy, U. S. House of Repre-
sentatives, Washington, D.C.
George Simpson, Consulting Engineer, Havens and
Emerson, Cleveland, Ohio.
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PARTICIPANTS, Continued:
2
Hon. Jacob K. Javits, United States Senate,
3
Washington, D.C.
4
William Riley, Sanitary Engineer, Great Lakes
Regional Office, Federal Water Pollution Control Adminis-
6 tration, Chicago, Illinois.
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George Harlow, Director, Cleveland Program
Office, Federal Water Pollution Control Administration,
21929 Lorain Road, Fairview Park, Ohio.
Colonel Amos Wright, District Engineer,.Buffalo
Corps of Engineers, Buffalo, New York.
Perry Miller, Assistant Director, Division of
Sanitary Engineering, Indiana State Board of Health,
Indianapolis, Indiana.
Ralph Purdy, Chief Engineer, Michigan Water
Resources Commission, Lansing, Michigan.
Ralph Locher, Attorney, Izaak Walton League,
1255 Terminal Tower, Cleveland, Ohio.
John Haberer, Assistant Commissioner, New York
State Department of Health, #4 Holland Avenue, Albany,
i
New York.
Charles Marquetta, Southeast Council Civic Club,
Cleveland, Ohio.
John Chascsa, President, Lake Erie Clean-Up
Committee, 3368 Brewster Road, Dearborn, Michigan.
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PARTICIPANTS, Continued:
John E. Kinny, Consulting Engineer, Ann Arbor,
Michigan.
Mrs. James Angel, Chairman, Citizens for Land
and Water Use, Lakewood, Ohio.
Seba Estill, Izaak Walton League, 3577 Curamings
Road, Cleveland, Ohio.
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vi
ATTENDEES:
2
Donald Alexander, East Cleveland, Ohio.
3
Mrs. James H. Angel, Chairman, Citizens for
4
Land and Water Use, 20&4 Elbur Avenue, Lakewood, Ohio.
Mary C. Ansbro, Editor, Water in the News.
c
J. H. Bailey, Executive Manager, Tourist and
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Convention Bureau of Erie County, 1611 Peach Street, Erie,
8 Pennsylvania.
9 Donald E. Benedict, Chief, Mechanical Engineers
10 Branch, NASA, Plum Brook Station, Sandusky, Ohio.
11 Robert C. Black, Assistant Research Director,
12 Soap and Detergent Associations, 4#5 Madison Avenue, New
13 York City.
14 Frank Biehl, Industrial Nuisance Inspector,
15 city of Cleveland.
16 Mrs. Harold E. Boehm, League of Women Voters,
17 j Cleveland Heights Unit, 3923 Orchard Road, Cleveland
II
18 Heights, Ohio 44121.
19 | S. D. Bresler, Member, Water Pollution Control
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i
20 i Board, City Building, Lima, Ohio.
21 U. W. Boresch, Chief, Operations and Maintenance
22 Branch, Corps of Engineers, Detroit, Michigan.
23 Mrs. P. M. Brown, Water Chairman, League of
24 Women Voters of Greater Toledo, 3302 Brantford Road,
I
25 | Toledo, Ohio.
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vii
ATTENDEES, Continued:
Richard E. Butler, Technical Superintendent,
Monsanto Company, 5100 West Jefferson, Trenton, Michigan.
Frank A. Butrico, Director, Environmental
Sciences Programs, Battelle Memorial Institute, 1755
Massachusetts Avenue, N.W., Washington, D.C.
Stan Cesen, City Engineer, City of Euclid,
5#5 East 222nd Street, Euclid, Ohio.
John Chascsa, President, Lake Erie Clean-Up
Committee, 3563 Brewster Road, Dearborn, Michigan-
George A. Childress, Chief Sanitary Engineer,
Dalton and Dalton Association, The Arcade, Cleveland, Ohio.
Edward J. Cleary, Consultant, Ohio River Valley
Water Sanitation Commission, 414 Walnut Street, Cincinnati,
Ohio.
John Clark, Reporter, Cleveland Plain Dealer.
Genevieve S. Cook, Citizens for Clean Air and
Water, 25296 Hall Drive, Westlake, Ohio.
t
Robert Cottrill, District Sanitary Engineer,
Ohio Department of Health, 2025 Second Street, Cuyahoga
Falls, Ohio.
Earl H. Cunningham, Board Member, Citizens for
Clean Air and Water, Inc.
Leraont W. Curtis, Project Engineer, Havens and
Emerson, 1220 Leader Building, Cleveland, Ohio.
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ATTENDEES, continued:
Leo P. D'Arcy, News Director, WELW Radio, P.O.
Box 599, Willoughby, Ohio.
Robert E. Davies, Advertising and Public
Relations Counsel, Erie Tourist and Convention Bureau,
Erie, Pennsylvania.
David DeHaven, Clean Streams Chairman,
Pennsylvania Federation of Sportsmens Clubs, 1022 McCarter
Avenue, Erie, Pennsylvania.
William R. Diem, Editorial Writer, Cleveland
Plain Dealer, 1801 Superior Avenue, Cleveland, Ohio.
Mrs. Harry Dodds, League of Women Voters, 3$
Pinehurst Drive, Eastlake, Ohio.
Gerrit Dragt, Chemist, General Electric,
1099 Ivanhoe Road, Cleveland, Ohio.
J_ t5
Charles W. Dougherty, Lorain County Regional
Planning Commission, 21 Turner Block Building, Elyria,
Ohio.
Herbert J. Dunsmore, Engineer, United States
Steel, 133 Barbour Drive, Pittsburgh, Pennsylvania.
Miss Erie of 196£, Erie, Pennsylvania.
Seba H. Estill, Izaak Walton League, 3577
Gummings Road, Cleveland, Ohio.
Paul D. Findlay, Director, Pollution Control,
ii
H
ii City of Toledo, 600 Collins Park Avenue, Toledo, Ohio.
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ATTENDEES, Continued:
S. L. Frost, Deputy Director, Water Department
of Natural Resources, Columbus, Ohio 43215.
Joseph B. Gaghen, Sales Engineer, Dow Chemical
Company, 1S04 Illuminating Building, Cleveland, Ohio.
Merrill B. Garnet, Federal Activities Coordinator,
Federal Water Pollution Control Administration, Chicago,
Illinois.
Jack Garner, Senior Environmental Engineer,
B. F. Goodrich Chemical Company, 3135 Euclid Avenue,
Cleveland, Ohio.
Mrs. Fred Gerard, Water Chairman, League of
Women Voters, Shaker Heights, 3290 Warrington Road,
Cleveland, Ohio.
Walter E. Gerdel, Commissioner, Division of
Water Pollution Control, City of Cleveland, 1#25 Lakeside
Avenue, Cleveland, Ohio.
M. G. Glenn, Plant Manager, General Tire and
Rubber, P.O. Box 68, Ashtabula,0hio.
Charles Gullickson, Pennsalt Chemicals, Inc.,
Wyandotte, Michigan.
John Haberer, Assistant Commissioner, New York
State Department of Health, 84 Holland Avenue, Albany,
New York.
G. A. Hall, Engineer-Secretary, Ohio Water
Pollution Control Board, Columbus, Ohio.
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ATTENDEES, Continued:
2
Mrs. J. L. Hanna, League of Women Voters of
3 Euclid, 22050 Maydale, Euclid, Ohio.
George L. Barlow, Director, Cleveland Program
5 Office, Federal Water Pollution Control Administration,
6 21929 Lorain Road, Fairview Park, Ohio.
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Robert P. Hartley, Chief, Surveillance Section,
Cleveland Program Office, Federal Water Pollution Control
Administration, 21929 Lorain Road, Fairview Park, Ohio.
John Helvig, Elyria, Ohio.
Charles E. Herdendorf, Lake Erie Section Head,
Ohio Department of Natural Resources, P.O. Box 650,
Sandusky, Ohio.
Mrs. J. E. Henning, League of Women Voters,
Erie, Pennsylvania.
Kathleen S. Hostetler, National Council of State
Garden Clubs, 6950 Hilton Road, Brecksville, Ohio.
M. P. Hughes, Isotopes-Ateledyne, Company,
Box 2304, Sandusky, Ohio.
George E. Hubbell, 2709 Telegraph Road,
Bloomfield Hills, Michigan.
John Hyland, Regional Enforcement Officer,
Federal Water Pollution Control Administration, Wheeling,
West Virginia.
R. L. Ireland, Lake Erie Watershed Foundation,
Cleveland, Ohio.
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ATTENDEES, Continued:
Dr. D. F. Jackson, Professor, Syracuse
University, Syracuse, New York.
Thomas Jacobs, Editorial Correspondent, McGraw
Hill Publications, Cleveland, Ohio.
Dean Jarman, Dow Chemical Company, 2020 Abbott
Road, Midland, Michigan.
Jean T. Diraitri, Dow Chemical Company, 2020
Abbott Road, Midland, Michigan.
Paul A. Johnson, Water Quality Coordinator,
City of Akron, Ohio, 6260 First Avenue, Kent, Ohio.
Fred Jones, Pittsburgh Press, Boulevard of the
Allies, Pittsburgh, Pennsylvania.
F. Kallin, Ford Motor Company, the American
Road, Dearborn, Michigan.
Jack Kinny, Consulting Engineer, Ann Arbor,
Michigan.
W. R. King, Illuminating Company, Cleveland,
Ohio.
19
Donald G. Kirk, Senior Research Chemist,
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i
. Hammermill Paper Company, East Lake Road, Erie,
& X
Pennsylvania.
Betty Klaric, The Cleveland Pressj 901
Lakeside Avenue, Cleveland, Ohio.
24 ;
Judith Kold, Cleveland, Ohio
25 ij
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ATTENDEES, Continued:
1
Edward Kramer, Sanitary Engineer, Cleveland
2
Program Office, Federal Water Pollution Control
3
Administration, 21929 Lorain Road, Fairview Park, Ohio.
4
L. R. Kummick, Waste Control Engineer, Sun Oil
5 Company, P.O. Box 902, Toledo, Ohio.
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William C. Lang, Manager, Chemical Engineering,
General Tire and Rubber Company, Akron, Ohio.
Leonard E. Leis, City Director, 120 South Macomb
Street, Monroe, Michigan.
N. J. Lardieri, Scott Paper Company, Philadelphia,
Pennsylvania.
Ralph S. Locher, Attorney, Izaak Walton League,
1255 Terminal Tower, Cleveland, Ohio.
Arthur Marohn, Forest City Civic Association.
Charles Marquetta, South East Club.
Helen McCue, Executive Committee, Mother's
March on Pollution.
Stephen Megregian, 2522 Pierce, Ames, Iowa.
James L. Mclaughlin, National Park Service,
Great Lakes Area Office, 1405 South Harrison Road, East
Lansing, Michigan.
Dan Mclver, Dow Chemical Company, Midland,
Michigan.
Mrs. Hermine Merkle, Water Resources Chairman,
League of Women Voters, Citizens for Land and Water Use,
Citizens for Clean Water and Air.
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ATTENDEES, Continued:
2
Frank S. Merritt, Burton, Ohio.
3
Perry Miller, Assistant Director, Division of
A
Sanitary Engineering, Indiana State Board of Health,
Indianapolis, Indiana.
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Peter T. Miller, Cinematographer, WJW-TV,
Cleveland, Ohio.
R. J. Manson, District Engineer, Ohio Department
of Health, Bowling Green, Ohio.
Albert G. Moore, Wastes Management Department,
Greater Cleveland Growth Association, 690 Union Commerce
Building, Cleveland, Ohio.
Mrs. Gilbert D. Moore, Lake Erie Basin
Committee, League of Women Voters, Williamsville, New York.
Mrs. H. T. Moore, Chairman, League of Women
Voters, Lake Erie Basin Committee, Chardon, Ohio.
H. M. Mueller, Regional Manager, Neptune Micro
Floe, Elk Grove Village, Illinois.
Jeffrey Myers, Cleveland, Ohio.
Donald L. Norling, Deputy Director, Ohio
Department of Natural Resources, Columbus, Ohio.
Charles W. Northington, United States Public
Health Service, Dallas, Texas.
Edwin J. Odeul, Sanitary Engineer, Ohio Department
of Health, Cuyahoga Falls, Ohio.
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ATTENDEES, Continued:
James P. O'Keeffe, Director of Conservation and
Resources, United Auto Workers, Columbus, Ohio.
Nicholas V. Olds, Assistant Attorney General,
State of Michigan, Lansing, Michigan.
6 Laurence D. 0TLeary, Director, Detroit Program
7 Office, Federal Water Pollution Control Administration,
8 Grosse lie, Michigan.
9 Dr. Paul Olynyk, Assistant Professor, Cleveland
10 State University, Cleveland, Ohio.
11 R. H. Papenfuss, Plant Manager, Olin Mathieson,
12 Ashtabula, Ohio.
13 John Pegors, President, Clear Air, Clear Water,
14 Unlimited, No. Hopkins, Minnesota.
Charles Ownbey, Federal Water Pollution Control
16 Administration, Great Lakes Region, Chicago, Illinois.
David E. Perriman, Assistant Director, Division
of Oil and Gas, New York State Conservation Department,
J. O
lg Albany, New York.
R. J. Pickering, Associate District Chief,
United States Geological Survey, Water Resources Division.
& -L
Peter J. Piecuch, Assistant Editor, Environmental
22 » i .
Science and Technology, Washington, D.C.
Rheta Piere, Federal Water Pollution Control
24
Administration, Washington, D.C
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ATTENDEES, Continued:
Mrs. Carol Pietrykowski, Councilman, City of
Toledo, Toledo, Ohio.
P. R. Pine, Vice President, Harshaw Chemical
Company, Cleveland, Ohio.
Blucher A. Poole, Director, Bureau of Environmental
Sanitation, Indiana State Board of Health, Indianapolis,
Indiana.
D. E. Powell, Supervision Process Engineer,
Mobil Oil.
Glenn D. Pratt, Sanitary Engineer, Cleveland
Program Office, Federal Water Pollution Control Adminis-
tration, Cleveland, Ohio.
Chris Potos, Chief of Laboratories, Cleveland
Program Office, Federal Water Pollution Control Adminis-
tration, Cleveland, Ohio.
Ralph W. Purdy, Chief Engineer, Michigan Water
Resources Commission, Lansing, Michigan.
J. M. Rademacher, Director, Division of
Technical Services, Federal Water Pollution Control
Administration, Washington, D.C.
Arnold Reitze, Associate Professor of Law, Case
Western Reserve University, Citizens for Clean Air and
Water, Cleveland, Ohio.
Gerald Remus, General Manager, Detroit Water
25 :'
I Board, Detroit, Michigan
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1 ATTENDEES, Continued:
2 W. J. Riley, Sanitary Engineer, Chicago Regional
3 Office, Federal Water Pollution Control Administration,
4 Chicago, Illinois.
5 Walter Rodenberger, Waste Control, Republic Steel
6 Corporation, Cleveland, Ohio.
7 Lawrence W. Rollin, Process System Engineer,
8 NASA, Lewis Research Center, Cleveland, Ohio.
9 John J. Roosen, Superior Engineer, Detroit
10 Edison company, Detroit, Michigan.
!! ~ Aaron A. Rosen, Cincinnati, Ohio.
12 Ray Roth, Superintendent, Bureau-of Industrial
13 Waste, city of Cleveland, Cleveland, Ohio.
,. James L. Rouman, Executive Director, Michigan
United Conservation Clubs, Lansing, Michigan.
JL «0
Robert W. Ruch, NASA, Plum Brook Station,
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Sandusky, Ohio.
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Agnes V. Rupp, Parma, Ohio.
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Anthony Russo, State Representative of Ohio,
! Cleveland, Ohio.
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D. W. Ryckraan, President, Ryckman, Edgerley,
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ATTENDEES, Continued:
Robert L. Schueler, River Basins Studies
Coordinator, Bureau of Commercial Fisheries, Ann Arbor,
Michigan.
Eugene Seebald, Regional Engineer, New York
State Department of Health, Buffalo, New York.
David Scullin, Aqua Laboratories, Cleveland,
Ohio.
Bryan J. Sevey, Engineering Supervisor, Monsanto
Company, Trenton, Michigan.
A. M. Shannon, Chief, Water and Waste Water
Treatment, Detroit Metropolitan Water Services, Detroit,
Michigan.
George Simpson, Consulting Engineer, Havens
John J. Smith, Detrex Chemical Inc., Cleveland,
HMr,
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Ohio.
and Emerson, Cleveland, Ohio.
Ned Skeldon, Administrator, Clear Water, Inc.,
Toledo, Ohio.
Al Smith, Federal Water Pollution Control
Administration, Cleveland Program Office, Cleveland, Ohio.
Mrs. Richard Smith, League of Women Voters of
Ohio, Cleveland, Ohio.
Peter E. Snoek, Senior Engineer, Bechtel
w^t
Corporation, San Francisco, California.
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xviii
ATTENDEES, Continued:
A. D. Staursky, Assistant Director Public
3 Relations, United States Steel, Cleveland, Ohio.
Evelyn Stebbins, League of Women Voters,
5 Chairman, Three Rivers Group, Rocky River, Ohio.
6 Ben S. Stefanski, Utilities Director, city of
7 Cleveland, Cleveland, Ohio.
8 Edward F. Stevenson, Engineer, NASA, Lewis
9 Research Center, Cleveland, Ohio.
10 Carl Stokes, Mayor, city of Cleveland, Cleveland,
11 Ohio.
12 Mark E. Talisman, Administrative Assistant to
13 Congressman Charles Vanik, Washington, D.C.
14 John T.oth, Sanitary Engineer, Water Pollution
15 Control, Erie County Department of Health, Erie,
IQ \ Pennsylvania.
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17 I J. W. Tracht, Manager, Maintenance of Facilities,
1P | Pennsalt Chemical Corporation, King of Prussia,
19 Pennsylvania.
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on i F. E. Tucker, National Steel Corporation,
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21 Pittsburgh, Pennsylvania.
W. G. Turney, Regional Engineer, Michigan
Water Resources Commission, Lansing, Michigan.
Harry L» Vanderwoop, Technical Director,
Peerless Cement, Detroit, Michigan.
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ATTENDEES, Continued:
John F. Slambroack, Mayor, city of Monroe,
Michigan.
George Voinovich, State Representative,
Fifty-third District, Cleveland, Ohio.
Harry Von Huben, Sanitary Engineer, Headquarters
Fifth United States Army, Fort Sheridan, Illinois.
Henry J. Vyhnalek, Supervisor Plant Chemist,
Cleveland Electric Illuminating Company, Cleveland, Ohio
Adel Wagner, Lakewood, Ohio.
Fred Wampler, Regional Coordinator, Ohio
Basin Region, Federal Water Pollution Control Administration,
Cincinnati, Ohio.
Dale Warnert Parma Heights, Ohio.
Mrs. Neil Waterbury, Northwest Ohio Natural
Resource Council, Toledo, Ohio.
George H. Watkins, Executive Director, Lake
Erie Watershed Conservation Foundation, Cleveland, Ohio.
Erbin Wattles, President, Dunbar and Sullivan
20 || Dredging Company.
P. J. Weaver, Chairman, Technical Committees,
Soap and Detergent Association, New fork City.
Neil M. Waterbury, President, Northwestern Ohio
Natural Resources Council, Toledo, Ohio..
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1 ATTENDEES, Continued:
2 Gregory A. Weiss, Legal Department, Cleveland
3 Electric Illuminating Company, Cleveland, Ohio.
4 Edward Wellejus, Reporter, Erie Times, Erie,
5 Pennsylvania.
6 Thomas C. West, Director of Environmental Health,
7 Erie County Department of Health, Erie, Pennsylvania.
3 G. L. Whitney, Engineer, Dorr-Oliver, Inc.,
9 Columbus, Ohio.
10 Alfons R. Winklhofer, Chief, Field Operations
n Unit, Cleveland Program Office, Federal Water Pollution
Control Administration, Cleveland, Ohio.
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Betsey Winters, Cleveland, Ohio.
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John J. Wirts, Chemical Engineer, Easterly
Pollution Control Center, Cleveland, Ohio.
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Colonel A. L. Wright, District Engineer, Buffalo
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i Corps of Engineers, Buffalo, New York.
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| Donald J. York, Director of Public Utilities,
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i city of Toledo, Ohio.
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Opening Statement - Mr. Stein
PROCEEDINGS
CHAIRMAN STEIN: The Conference is open. This
conference in the matter of water pollution of Lake Erie
is being held under the provisions of the Federal Water
Pollution Control Act. We have had several conferences on
the lake.
We are holding this session as a progress meeting.
The conference involves the five Lake Erie States and the
Federal Government, as represented by the United States
Department of the Interior.
We will make a summary of the meeting. We will
also have a transcript made, and the transcript, of course,
as many of you know, will be available in about three or
four months. However, if you want copies of the transcript
or portions thereof earlier, contact the reporter, Mrs. Hall
and Mrs. Hall will be glad to make arrangements with you so
you can get it. You should understand that Mrs. Hall is an
independent contractor and you will make your arrangements
with her privately if you want this information.
The speakers, other than the conferees, should
identify themselves by name and affiliation and see that
the reporter receives a copy of their remarks, if they have
any, and come to the lectern to make their remarks.
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Opening Statement - Mr. Stein
We will have comments and questions by the
conferees. We are asking all of you to withhold your
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questions or remarks until you come up for your statement.
At this point, I would like to start at the
left and ask the conferees to identify themselves. Mr.
Eagle, would you begin, and I would ask you all, until the
PR system gets operating, if it does, to please raise your
voice and try to project.
MR. EAGLE: My name is George H. Eagle. I am
Chief Engineer of the Ohio Department of Health and I am
representing the State of Ohio.
MR. METZLER: Dwight Metzler, Deputy
13 j| New York State Health Department.
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MR. OEMING: Loring Oeming, Executive Secretary,
Michigan Water Resources Commission, Lansing.
MR. POSTON: H. W. Poston, Great Lakes Regional
Director for the Federal Water Pollution Control Adminis-
tration, Chicago, and I am the Federal Conferee.
TO i! MR. POOLE: I am Blucher Poole, Technical Secre-
A. '-"*!; *
2,-) '! tary of the Indiana Stream Pollution Control Board and
ij
II representing the State of Indiana.
! MR, LYON: I am Walter Lyon, Director of the
Division of Sanitary Engineering in the Department of
Health in Pennsylvania, representing Pennsylvania*
CHAIRMAN STEIN: My name is Murray Stein. I am
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Hon. Thomas L. Ashley
from Washington, D.C., and the representative of Secretary
Stewart Udall.
We are going to try to adjust the agenda as best
we can. First, we have a representative here who is ready
to make a presentation, but he has a very tight schedule
and commitments back in Washington this morning, and first
we would like to call on Congressman Thomas L. Ashley of
the Ninth District of Ohio. Congressman Ashley.
MR. ASHLEY: Thank you, Mr. Chairman.
Panel of officials, ladies and gentlemen. Any
discussion of the desperate state of pollution of Lake Erie
must take into full account that for many years both the
United States and Canada have been and continue to be in
flagrant violation of the law which exists pursuant to a
treaty entered into by the two countries in 1909 providing
for the adjustment and settlement of all questions which
might arise between the United States and Canada with re-
spect to the use of boundary waters. The treaty, which
is still in full force and effect, defines boundary waters
as "the waters from mainshore to mainshore of the lakes
and rivers and connecting waterways, or the portions
thereof, along which the international boundary between
the United States and the Dominion of Canada passes ...n
Obviously this includes Lake Erie.
Article IV of the treaty specifically provides
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Hon. Thomas L. Ashley
that "boundary waters and waters going across the boundary
2
shall not be polluted on either side to the injury of health
3
or property on the other."
4
Article VIII establishes an order of preference
c
with respect to various uses for these waters, with water
6 for domestic and sanitary purposes having highest priority,
7 followed next by water used for navigation, then for power
8 and irrigation.
9 Contrary to Article IV, providing that boundary
10 waters shall not be polluted on either side, we find that
11 six per cent of municipal waste, from a population of ten
12 million Americans living along the shores of Lake Erie in
13 1965, were deposited in the lake with no treatment at all,
14 that forty-one per cent received only primary treatment
15 and fifty-three per cent received secondary treatment.
16 About seventy-nine per cent of the municipal
17 waste from the Canadian population of 1.2 million living
18 on Lake Erie in 1965 received secondary treatment, twelve
19 per cent primary treatment and nine per cent no treatment.
20 Similarly, according to the 1965 Interim Report
of the International Joint Commission, the United States in
£JL
1965 had 271 and Canada 63 sources of industrial waste
&&
along Lake Erie, many of which were classified as being
&O
subject to inadequate treatment. The report also noted
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that waters from overland runoff and deep percolation
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7
Hon. Thomas L. Ashley
contained agricultural and other wastes which affect the
quality of the receiving waters, and of course this is
especially true of Lake Erie.
A surprising omission in the Commission Report
was the extent to which the Federal Government of the
United States is itself in constant violation of the 1909
Treaty and therefore of Federal law. It is also surprising
that the agenda of this conference, as set forth in the
Department of Interior release of May 15, 1968, fails to
list for discussion the activities of the United States
Government which continue to pollute the waters of Lake
Erie in violation of our law.
The agenda is silent on the fact that last
year — 196? — United States Government dredging projects
at fourteen Lake Erie harbors produced a total of
7,671,000 cubic yards of polluted dredged material. Of
this total, 5,43#,000 cubic yards were dumped at so-called
"authorized" disposal areas in Lake Erie.
For 1968, also according to data received from
the Office of the Chief of Engineers, Government dredging
at these same harbors is expected to proctuce 7,015,000
cubic yards of spoil material, virtually all of it
polluted. Of this total, 5,302,000 cubic yards are
planned for open lake disposal.
Since the 1965 Interim Report of the International
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Hon. Thomas L. Ashley
Joint Commission, United States efforts to bring Government
2
dredging operations within the law have been anything but
2
noteworthy or encouraging. In 1967, 2.2 million cubic
4
yards of Government dredged spoil material were consigned
to diked area disposal. For 1968, the amount of polluted
6 material resulting from Government dredging that will be
7 consigned to diked areas is expected to be only 1.7
8 million cubic yards.
9 What this means quite clearly is that about 71
10 per cent of the polluted material resulting from Federal
11 dredging activities in 1967 was dumped into Lake Erie in
12 violation of the law as againt 29 per cent that was propeidl
13 diked, and that in 1968 unlawful open lake dumping is
14 expected to increase to more than 75 per cent, as against
15 only 25 per cent that will be diked.
16 When I state that this activity is in violation
17 of the law, let me again refer to Article VIII of the
18 Treaty. If I interpret this language correctly, it means
19 that the use of lake waters for domestic and sanitary
20 purposes is given preference over other uses and no use
shall be permitted, including dredging for navigation that
rf5JL
results in the pollution of lake waters, which tends
&&
materially to conflict with the highest priority of water
£o
uses, namely for domestic and sanitary purposes.
24
Tet, completely contrary to this policy and
25
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2
3
4
5
6
9
Hon. Thomas L. Ashley
prohibition, the Department of the Army takes the position,
as stated in a letter to me, dated May 3, 1968, that
"because of severe economic hardship ... and because no
disposal areas other than the authorized deep water areas
of Lake Erie are now available, it has been determined
that dredging in 1966 must be done and the dredged material
disposed in the lake." Although fully aware that the
8
9
7
spoil material thus consigned for lake disposal is bound
to re suit in further pollution, the letter concludes with
the assurance that "the Corps of Engineers will continue
| its efforts, in coordination with FWPCA and state authori-
ties, to construct and maintain harbors in consonance with
|j the national objective of cleaning up our rivers and lakes
13 ji
!l at the lowest possible cost."
14 j;
i' With respect to Lake Erie, the Corps apparently
15 j;
i: has determined that the cheapest way to clean it up is
16 ji
! to fill it up. The fact is that the Corps is not main-
17 j:
i taining harbors on Lake Erie with the national objective
18 j!
ij of cleaning up our rivers and lakes. What it is doing is
19 i;
i; dredging at the lowest possible cost by "authorizing"
20 ji
i| so-called "deep water" disposal areas along the entire
21 j!
!J United States shoreline of Lake Erie — areas which it
i!
22
has no right to authorize and which, in point of fact, are
both shallow and in many cases in immediate proximity to
24 jl
i: municipal water intakes serving hundreds of thousands of
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10
Hon. Thomas L. Ashley
people.
2
The result of this Federal activity is to con-
3
stantly add to rather than abate the pollution of Lake
4 Erie waters. Federal justification for pursuing this
5 policy is said to be drastic hardship to navigation, a use
6 which somehow has leapfrogged in priority over the "uses
7 for domestic and sanitary purposes" that are given pref-
8 erence in the Treaty of 1909.
9 Now, let me comment on the problem of disposal
10 of materials dredged from harbors and waterways under
11 permits issued by the Corps of Engineers.
12 In 1967, such permit dredging accounted for
13 185,000 cubic yards of dredged material, all of which was
14 polluted and all of which was dumped in open lake disposal
15 areas. In 1968, contract dredging pursuant to permits
, ~ issued by the Corps of Engineers has already more than
J.D
doubled and 348,000 cubic yards of additional polluted
material have been added to Lake Erie waters so far this
18
19 year. These figures, of course, do not include a large
number of applications presently pending for approval or
expected to be filed for permit dredging this summer and
fall.
22
One permit for private dredging not yet acted
23
upon by the Corps has generated particular interest. It
24
involves the application of the Dunbar and Sullivan Dredging
25
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11
Hon. Thomas L. Ashley
Company of Detroit to dredge 295,000 cubic yards of
especially badly polluted spoil and scum from the bottom
of the Rouge River and to dump it in shallow waters in
Western Lake Erie within less than 2000 yards of the
international boundary.
The policy of the Corps of Engineers appears to
be ambivalent. The Corps itself dredges polluted spoil
from the Rouge River which, because of its condition, it
deposits on Grassey Island rather than in the lake* At
the same time, its District Office recommended approval
last year of a permit to allow private dredging of the
same contaminated material for disposal in the shallow
waters of Lake Erie.
Again in 196? the same private dredging company
was in the process of dumping into Lake Michigan, with
the Corps of Engineers' approval, some 203,000 cubic yards
of highly polluted dredging similar in character to the
spoil material in the Rouge River. In the wake of public
outcry and vigorous representations from the Illinois
Congressional delegation and the Governor of Illinois,
this dumping was found to be contrary to the public
interest and was halted.
In a letter to me, dated Hay 31, 1963, Assistant
Secretary of the Interior Max N. Edwards advised me, rela-
tive to the proposed permit dredging of the Rouge River
-------
12
Hon. Thomas L. Ashley
1 for open lake disposal, that "in view of the nature of the
2 sediments to be dredged, the Federal Water Pollution Con-
3 trol Administration Regional Office has recommended to the
4 United States Corps of Engineers that the dredgings con-
5 cerned not be disposed of in Lake Erie, but be placed in
6 upland areas so that pollution of Lake Erie will be pre-
7 vented. Recognizing the shortage of suitable on-shore
8 disposal sites for such materials, (your) suggestion that
9 this material be placed on the Grassey Island disposal
10 site appears to be appropriate from a pollution control
H viewpoint. We understand, however, that this approach has
12 been rejected by the Corps."
13 All of this suggests to me, in the strongest
14 possible terms, that the final decision with respect to
._ issuance of dredging permits, where the material to be
J.O
disposed of has been found to be polluted, should rest
16
with the Secretary of the Interior rather than the Secretary
of the Army. Under a July 13, 1967, agreement between the
18
Secretaries of these two Departments, the Secretary of the
•J. \s
Army is given the authority to evaluate the economic
20
advantages and benefits of a proposed dredging operation
21
in relation to resultant loss or damage, including viola-
22
tion of applicable water quality standards, and to either
23
24
25
deny the permit or include such conditions as he determine^!
to be in the public interest.
-------
13
Hon. Thomas L. Ashley
In my view, if Lake Erie is to be saved, strong
pollution abatement enforcement should not be subject to
a waiver based upon temporary economic convenience or
advantage. Activity which contaminates the water upon
which our very lives are dependent must be outlawed and
uniform enforcement should be in the hands of the agency
having primary responsibility for establishing water
quality standards and seeing that they are met.
Let me say in conclusion that there must be a
prompt clarification of Federal policy if the confidence,
support and commitment of our citizenry is to be sustained
in fighting pollution and achieving a national goal of
clean water*
Thank you, Mr* Chairman.
CHAIRMAN STEIN: Thank you, Congressman Ashley.
I would like to tell you that we will have an
opportunity for full discussion of the dredging problem
and the Federal installation problem at this meeting. It
is on the agenda. The Corps will make a statement, I
think, but this will be open. That has not been excluded
from the agenda.
One more factual point: Under the law, the Corps
does have the authority to determine where they are going
to dredge and the disposal of the dredged material; the
law provides that. We do not have that authority in the
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14
Hon. Thomas L. Ashley
Department of the Interior.
2 MR. ASHLEY: The question is whether the law
3 authorizing the Army to — so-called "authorizing" — use
4 these open-length disposal areas is a proper law. I
5 think it is an absolute violation of the Treaty of 1909.
6 CHAIRMAN STEIN: Thank you.
7 MR. METZLER: Mr. Chairman, may I ask the
8 Congressman a question?
9 CHAIRMAN STEIN: Surely.
10 MR. ASHLEY: Yes, sir.
11 MR. METZLER: I am Dwight Metzler from New York.
12 I am sympathetic to the point of view that you
13 present here. I want to inquire, though, do you feel that
14 Congress is sufficiently informed on this that they are
15 ready to authorize costs of perhaps three or four times
as much for disposal of dredge d materials as now is
appropriated to the Corps today?
MR. ASHLEY: I think we may be faced with those
18
increased costs. When the choice is between the salvation
•L. y
of our lakes and the increased cost, we will go in the
direction of the increased cost, yes, sir.
21
We have been approaching the whole dredging
22
situation with a myopic view. We have been concentrating
23
entirely on cost, and the Congress has insisted on this
24
and the result has been the pollution of five of the
25
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.
15
Hon. Thomas L. Ashley
greatest bodies of water on the face of the earth.
CHAIRMAN STEIN: One more point, Congressman Ashley
I think on that Lake Michigan dredging situation that the
record will also show that the conferees, many of whom are
represented here, participated in the dredging discussions
of Lake Michigan and the disposal of the spoil. This hap-
pened after the Illinois delegation came in, and I think
the discussions at our conference with the representatives
of the States bordering Lake Michigan, the Corps of Engineers
and the Department of the Interior were very useful in
working up at least a program of action to terminate dis-
posal in Lake Michigan.
MR. ASHLEY: But that disposal had been approved
and the permit granted by the Corps of Engineers, isn't
that correct? They were dumping in 100-foot water as
distinct from the shallow depths.
CHAIRMAN STEIN: No, there is much land disposal
there. Again — and I don't know that this is the time to
get into the detail, but the problem that we always have
of land disposal -- and the Corps can speak for itself —
is a very complex one. You have to find appropriate sites
and a site large enough to be able to take the spoil for
a considerable period of time, in order to make that an
efficient operation, because you can't shift your disposal
operations from place to place. We did get some of the
-------
16
Hon. Thomas L. Ashley
industries along the southern end of Lake Michigan to
cooperate, to give us land, make land available and
3 enclosed areas behind dikes available for the disposal
4 of the dredged material. I think we have a reasonable
5 program worked out there. I am hopeful that we can get
6 one here.
7 MR. ASHLEY: You brought this up, and I know
8 you don't want to go into details now. But all I said is
9 that the Corps of Engineers had issued a permit, that
10 polluted dredging was being dumped into Lake Michigan,
11 that hearings were held, protests were heard, and this
12 activity polluting Lake Michigan was found to be contrary1
13 to the public interest, despite the fact that the Corps
14 of Engineers, on the basis of all the information earlier
15 presented to it, had granted the permit for the dumping
.. in the first place.
ID
CHAIRMAN STEIN: Well, it was precisely a meeting
such as this on Lake Michigan at which we arrived at that
18
program and those conclusions; that is why we are here.
MR. ASHLEY: That is why I am recommending that
Ci\J
the authority of the Corps of Engineers be taken and placed
£±.
in the Department of Interior. (Applause)
22
CHAIRMAN STEINi At this point, we have also
23
had a previous request. We will now hear from Professor
24
Reitze from the Citizens for Clean Air and Water, Inc.
25
-------
2
3
5
6
7
8
9
10
17
Hon. Charles A. Vanik
Professor Reitze.
While you are coming up, I have another communi-
cation here and a statement from Congressman Charles A.
Vanik, who would like this included in the record, and
his schedule, he writes, precludes him from personally
presenting this statement. As you know, Congressman Vanik
is from Ohio. Without objection, I would like to give the
statement to the reporter and have it entered into the
13 i
14 |
15 !
16 !
record as if read. (Prepared statement follows.)
MR. VANIK: Mr. Chairman. Almost three years
i
i ago, on August 3, 1965, I attended the first Lake Erie
Water Pollution Conference at Cleveland. At that time,
our hopes were high that speedy action would be taken to
stop the deterioration of Lake Erie. At that time, we
were told of dramatic actions which would be taken to
clean up the lake. We were told that cleanup orders would
be issued, that injunctions would be sought against the
contaminators, that the Federal Government would move with
18 '
dispatch where it had jurisdiction.
At this fourth conference, we are still in a
talkathon on the pollution problem. Water quality is
getting worse by the hour — and the hour is late.
Since the first conference, it is important to
note that the Federal Government has granted over
$20,000,000 to help meet the water pollution problem in
-------
13
Hon. Charles A. Vanik
Ohio. As can be noted from the list of grants and the
2
benefited communities, the Lake Erie pollution problem
3
has been completely overlooked. Federal water pollution
4
funds have filtered, in the main, to small towns and
5
hamlets. It is a rural program.
c
Since the first conference, the State of Ohio
has not appropriated a single dollar toward meeting the
8 problem. It has used the contribution of local govern-
9 ments to make up the matching grant.
10 It seems to me that it is important for the
11 conference to identify and comment on the lack of state
12 participation so that the community can recognize this
13 flagrant failure of State participation and do something
14 about it.
15 At the first conference in 1965, I directed the
16 first attention in the Ration to the contribution to the
17 water pollution problem resulting from the dumping of
18 polluted dredged material into Lake Erie by the United
19 States Army Corps of Engineers. After much deliberation,
20 the Army Corps of Engineers announced they would meet
21 this problem by dumping dredged material, at least in part,
00 in diked areas. In 1967, of 7,671,000 cubic yards of
&£
dredged material, 5,43#,000 cubic yards were dumped into
-------
19
Hon. Charles A. Vanik
For fiscal 1968, Government dredging in Lake
Erie is expected to produce 7,015,000 cubic yards of
material. Of this, 5,302,000 cubic yards will be dumped
in Lake Erie, while 1,713,000 cubic yards will be consigned
to diked areas.
The above figures reveal that of total govern-
ment dredging in 1967, amounting to 7,671,000 cubic yards
of polluted material, 70.9 per cent was dumped in Lake
Erie. Of the 7,015,000 cubic yards of Government dredging
predicted for 1968, by contrast, 75.5 per cent will be
consigned to open lake disposal areas.
I am shocked that in 1968 the Federal Government
will dike approximately 500,000 cubic yards less of Lake
Erie dredgings than was diked in 1967, or a total of 1.7
million cubic yards in 1968 as compared with 2.2 million
cubic yards in 1967. It appears that the Government, under
the pressures of anti-pollution forces in 1967, responded
with a "token effort" in meeting the pollution problem
with a gradual phase out of this effort in 1968 and future
years.
The indignation of the people of my community
will not tolerate a "token effort" to solve the water
pollution problem of Lake Erie by either the Federal
Government or the State of Ohio. The public protest will
not tire or terminate. Concrete proposals must be
-------
20
Arnold Reitze
vigorously pursued to reduce the Federal Government
2
contribution to the pollution problem. Until this is
5
accomplished, the entire dredging program of the Corps of
4
Engineers will be placed in jeopardy.
5 CHAIRMAN STEIN: Professor Reitze.
6 MR. REITZE: Mr. Chairman, conferees. My name
7 is Professor Reitze, Associate Professor of Law, at Case
8 Western Reserve University. I represent today Citizens
9 for Clean Air and Water.
10 It is my pleasure to appear here today before the
11 Federal Water Pollution Control Administration as a repre-
12 sentative of Citizens for Clean Air and Water, Inc. This
13 is an organization of citizens from Greater Cleveland who
14 are interested in a dynamic program of water and air
15 pollution abatement.
16 Our program has been endorsed by: the Area
17 Council, the Cleveland Audobon Society, the Edgewater
18 Tacht Club, the Greater Cleveland Boating Association, the
19 Holy Family P.T.U., the Izaak Walton League, and the Rocky
20 River Kiwanis.
I shall discuss three subjects:
«CX
1. The Ohio water quality standards;
22 .1*1
2. The proposed application of those standards
23
to the Rocky, Cuyahoga, Chagrin and Grand River Basins
*&TC
and the consequent effect on Lake Erie;
25
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.
21
Arnold Reitze
3. The progress to date of pollution abatement
activities.
As you know, the intent of the Federal Water
Pollution Control Act (P.L. #4-660), as amended, is to
maintain high quality water where it now exists and to
upgrade and enhance water quality where degradation ia
presently found. When Secretary of the Interior Stewart
Udall testified before the Senate Subcommittee on Air and
Water Pollution, March 27, 196$, he outlined the eight
basic principles used by his Department when reviewing
state water quality standards. They are:
1. No degradation of existing water quality;
2. No waters shall be used solely or principally
as a waste carrier}
3. All wastes must receive the best practicable
treatment or control prior to discharge into any interstate
water;
4. A general acceptable range of values for key
indicators of water quality has to be developed, especially
with respect to dissolved oxygen and temperature;
5. There must be consistency among standards of
adjacent and downstream states;
6. Water quality standards must be adequate to
protect and upgrade water quality in the face of population
and industrial growth, urbanization, and technological
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22
Arnold Reitze
change;
2
7. There shall be no exemptions from the stan-
3
dards for a particular industry or area; and,
4 8. Standards must be feasible and achievable.
5 It is extremely difficult to comprehend how
6 Ohiofs standards can meet these Federal tests. Ohio has
7 created seven water quality standards. The two criteria
8 of lowest quality are Industrial Water Supply and the
9 euphemistic Aquatic Life B. These criteria allow dissolved
10 oxygen of 2.0 mg/liter, a pH between 5 cmd 9> and a temper-
11 ature not to exceed 95 degrees Fahrenheit. It is difficult
12 to imagine water of this quality not violating the Fede
13 prohibition against using water primarily as a waste
14 carrier. It is also difficult to believe this water is
15 receiving the best practicable treatment prior to discharge
,6 Not only are Ohio*s water standards low, but the
17 criteria making up the standards vary so much from category
to category that it is difficult to use them for meaning-
18
lg ful results. Thus, in the Public Water Supply category,
there is no limitation on pH, temperature or toxic sub-
£\j
stances. Neither Aquatic Life A or B has a bacteria
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23
Arnold Reitze
no limitation on pH, temperature, bacteria, or dissolved
oxygen. Finally, there are no limitations on nutrients
even though this is the most serious pollutant of Lake
Erie.
Even poor standards, if applied to maximize water
improvement, would achieve significant advances. When we
look at the application of Ohio stream quality criteria
to the Grand, Cuyahoga, Chagrin and Rocky Rivers we have
little reason for optimism. The Ohio Water Pollution
Control Board has not yet zoned the waters flowing into
Lake Erie so as to apply the water quality standards to
specific segments of the four rivers which are the subject
of this discussion. However, if the Board follows the
recommendation of the Division of Engineering of the Ohio
Department of Health, we can expect continued pollution of
these rivers and, therefore, continued pollution of Lake
Erie.
If the Health Department recommendations are
accepted, then, continued pollution will be legitimatized
by law. One example is their recommendation that the
Cuyahoga River from State Highway No. 17 to the U.S. Coast
Guard Station should have until January 1, 1975, to meet
Aquatic Life B criteria, and until January 1, 1971) to
meet Industrial Water Supply criteria. Thus, no bacteria
limitation will be placed on this body of water in the
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24
Arnold Reitze
near future. In addition, a goal of water so inferior in
quality that fish cannot live in it is accepted as a goal
3 to be pursued through government action. Even if we meet
4 this goal, in 1975 we will still be polluting the nearby
5 Lake Erie beaches — Perkins, Edgewater, White City, and
6 Wildwood. When our leaders1 vision is so myopic, we can
7 only conclude that the great society will not include
8 swimming.
9 The recommendations for the Rocky River follow
10 the same approach used toward the Cuyahoga. Minimum
11 standards are sought. A new category, Partial Body Contact,
12 is proposed. This would allow a bacteria coliform group
13 not to exceed 5,000 per 100 ml. Water of this proposed
14 quality is unsafe for swimming or for use by children.
15 There is no proposal for increasing this standard. In
addition to low quality water as a proposed goal, these
16
Rocky River proposals violate the Federal guidelines in
that the proposed standards are in some instances —
18
particularly regarding temperature, pH, and oxygen content
JL *s
— below the existing condition of the water.
20
These recommendations of the Division of Engin-
21
eering could be attacked one by one for the rest of the
22
day. This is unnecessary. These proposed quality standards
23
assume a defeatist attitude by accepting minimal standards.
24
The necessary pollution abatement controls are known by
25
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25
Arnold Reitze
everyone. The real problem is that there has been insuf-
ficient commitment to pollution abatement. Studies are
used as substitutes for standards and standards are watered
down substitutes for programs that would in fact end
pollution. You will not end pollution until you stop
putting pollutants in our waters. This simple fact has a
tendency to disappear in the haggling over the proper
criteria for water quality standards.
In August of 1965 the first of these pollution
conferences was held. The revised conclusions and recom-
mendations of the conferees issued on August 12, 1965, set
forth twenty-seven conclusions. Some of these conclusions
concern the quality of Lake Erie waters. Today, three
.years later, they could be rewritten at the conclusion of
this conference. Lake Erie is still polluted. Eutrophi-
cation or over-fertilization is still a major concern.
Many sources of waste discharge reaching Lake Erie still
have inadequate waste treatment facilities.
The 1965 report, however, makes specific recom-
mendations as to how to abate pollution. It is interesting
to read them today as nearly three years have passed for
implementing the recommendations.
Conclusion No. 7 said municipal wastes are to
be given secondary treatment, while Conclusion No. 9
called for the disinfection of municipal waste effluent
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26
Arnold Reitze
1 so as to maintain eoliform densities below 5,000 organisms
2 per 100 ml. Today, two communities still have only
3 primary treatment. Much more serious is that inadequate
4 treatment plants still abound in all four watersheds which
5 are the subject of this discussion.
6 Conclusion No. B called for treatment plants to
7 maximize the removal of phosphates. This simply is not
8 being done. Conclusion No. 18 required waste results to
9 be reported in terms of both concentration and load rates
10 with the information to be maintained in open files by the
state agencies for all those having a legitimate interest.
Not only has this not been carried out, but Ohio Revised
Statute 6111.05 states that records of a private disposal
-Lo
system may not be made public without the express permission
of the owner. The State of Ohio by statute protects the
15
polluters1 nefarious activities from public scrutiny.
16
Conclusion No. 25 gave the U.S. Army Corps of
17
Engineers six months to develop a program to end the
18
disposal of dredged material in Lake Erie. They are still
19
dumping the material in the lake.
20
These examples are by no means the only failures
21
to meet the recommendations of the conferees. If the 1965
22
recommendations are used as the measure of progress, then,
23
there has not been much progress. In fact, indications
24
are that Lake Erie is more polluted today than it was three
25
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27
Arnold Reitze
years ago.
During the past three years some industries and
some municipal governments have spent a great deal of money
on pollution abatement facilities. Many industries and
municipal governments have firm plans which will require
even greater expenditures. However, when listening to
industry or government defend their actions, we should
apply the same test that an industry applies to a sales
executive. We should look at results. Are they or are
they not ending the pollution of our waterways? We are
aware of the time it takes to put pollution abatement
equipment into operation; but, industry and government have
already had three years. Why is it that after three years
of so-called progress, a sludgeworm or a leech cannot live
in the lower Cuyahoga River? The answer is that the
commitment to pollution abatement is not a serious commit-
ment. The State of Ohio has yet to give one nickel to
the City of Cleveland for water pollution control.
The City of Cleveland has spent a great deal of
money on sanitation treatment plants, yet, inadequately
treated wastes from the Southerly Treatment Plant, storm^
water overflows, and sewage bypasses discharge large quan-
tities of oxygen-demanding wastes and bacterial contamina-
tion into the Cuyahoga River and then into Lake Erie.
While this gunk goes into the Cuyahoga and Lake Erie,
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26
Arnold Reitze
1 Cleveland can claim the dubious honor of having the lowest
2 sewage charge of any major city in the United States.
3 Industry, one of the major polluters of the Cuyahoga, has
4 spent many millions of dollars, but in terms of the value
5 added to goods manufactured in this area, the expenditures
6 have been minimal*
7 Our conclusion is that pollution abatement has
8 been moving much too slowly* If the recommendations of the
9 Division of Engineering of the Ohio Department of Health
10 are accepted, we can all look forward to a vile polluted
1]L Cuyahoga River for many, many years to come. We, there-
fore, make the following suggestions as to how to speed untt
the protection of our valuable water resources:
XO
1. An effluent tax should be placed on all
14
polluters. The rate of the tax would be a function of
15
both quantity and type of pollutant. This tax has been
16
used successfully in the Ruhr Valley of Germany for some*-
17
time. If such a tax was levied by the State as an excise
18
tax for the use of public waters, it would be constitu-
19
tional. If such an excise tax was levied by the Federal
20
Government, but limited to navigable waterways, it too
21
would be constitutionally sound.
22
2. There should be no state, real or personal
23
property tax on water pollution abatement facilities, nor,
24
should such facilities be used to determine a corporation's
25
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29
Arnold Reitze
value for excise or franchise taxation.
3. A corporation should have the option to
treat water pollution abatement facilities as a business
expense under Section 162 of the Internal Revenue Code of
1954* This could be done without denying the investment
credit under Sections 3# and 46.
4. Section 6111,05 of the Ohio Revised Code
should be modified to require full public disclosure of
all pollution sources.
5. Communities with water and sewage charges
substantially below the national average should raise
their rates immediately and apply the proceeds to
pollution abatement facilities.
6. Communities with inadequate sewage treatment
facilities should not be allowed to expand the size of
their populations. No building permits should be author-
ized until such facilities are of acceptable standards.
7. The water quality standards of the Ohio
Water Pollution Control Board should be repudiated for
failure to meet the standards set forth in 33 United
States Code Section 466 (b).
S. The revised conclusions and recommendations
of the conferees as stated August 12, 1965, together with
the recommendations of the Lake Erie Program Office of the
Federal Water Pollution Control Administration should be
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30
Arnold Reitze
implemented.
2 If these recommendations are carried out, we
3 may have a chance of seeing pure water in Lake Erie and
its tributaries within the lifetime of some of the people
5 in this room.
6 If we continue to talk about goals of water
7 with 2 rag/liter of oxygen in 1975, we might as well all
8 give up. The basic problem, I reiterate, is one of
9 philosophy. If we accept as a guiding principle the
10 concept that no one has the right to pollute our waters,
at any time, for any reason, we can develop programs
12 necessary to end pollution. The remedies will be costly
and we will all have to pay the charge, but there is no
other way. Thank you. (Applause)
15 CHAIRMAN STEIN: Thank you, Professor Reitze.
I would like to point out several things: One,
16
that in addition to the requirements set forth by the
conferees, there was a time schedule set forth specifically
-L o
i for improvements to be made in each State and this is all
iy !
set forth in detail. A lot of these plans are to be com-
pleted in 1970 and 1971. Obviously, until the plans are
& JL
completed you are not going to see the improvement.
22
Now, I have several suggestions: While all these
23
! statements are indeed appreciated, I would like to point o
24 i '
what the function of this panel here is, and I speak
25
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31
Arnold Reitze
representing the conferees. We have set up an action
program to abate pollution. We have a time schedule and
requirements to do it. There may be a lot of suggestions
which can improve water pollution control, such as changing
the law, the tax structure, economic consensus, and so
forth. I think most of the people at this table have
been in long discussions in other forums on that.
But I would suggest that any really effective
action in these areas would require the placing of this
before another forum. The only mandate that we have is to
follow out the conclusions of the conference and to see
that we are moving ahead. Again, I make a plea to you,
because this is a new aspect of water pollution control
that I think we are faced with throughout the Great Lakes.
I think both in Lake Michigan and in Lake Erie we are
probably right in the throes of the biggest municipal and
industrial waste cleanup that I have ever experienced in
this country, and I think that we have ever had.
Now, while we are in the midst of this cleanup,
what appears to be happening is we are getting the same
kind of criticism — and, by the way, I will fight to the
death for your right to make this criticism — this we
have gotten before — but I would suggest that the way to
be productive is to find out if we are meeting that
schedule.
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32
Arnold Reitze
1
Now, the analogy I used before — and let me
try to use it again — if we have a congested highway,
3
and a two-lane road, and we decide to build one of
4
these beltways or superhighways to alleviate the traffic,
you can start throwing the dirt, grading, etc.
O
But until you cut that ribbon and the cars get on the super-
7
highway, you are going to have the same traffic jam on
Q
the old road.
Now, I donft think anyone reasonably at this
table expected that we were going to have spectacular
11 results or even significant results until these plans got
12 on line, and the time schedule has to be had in mind.
13 For.example, Michigan -- we had construction
14 of all industrial and remedial facilities to be completed
15 by January 1970. In Indiana, they were to be completed
16 by December of 1963. In Ohio, construction of all remedial
17 facilities by 1971, with the exception of the Cleveland
18 Westerly Plant completed by December of 1971. In Pennsyl-
19 vania, construction of all remedial facilities to be
20 completed by December 1970. In New York, construction of
21 all remedial facilities completed by January 1971, with
22 the exception of Republic Steel at Buffalo, New Tork,
23 which is to be completed by July 1971.
24 These conclusions were arrived at after extensi
ot. analysis and discussion. As you can see, none of these
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2
3
4
5
6
7
8
9
10
11
33
Arnold Reitze
dates really have arrived yet, and to expect a change in
the water conditions which we all agree had to be improved
before these plans and these improvements go into shape,
I think is not looking at reality.
What we had to do — and maybe the conferees
were wrong in this — was set up a reasonable time schedule.
We all think that the time schedule was pretty tight —
and if you don't believe us, ask some of the cities and the
industries concerned — but I don't think that we can really
answer the question of why the water isn't getting any
better before the plarits go into operation, because it is
not going to get any better before the plants get into
operation. This is what this panel is here to try to
J.*I>
do here today.
14
Are there any other comments or questions?
15
If not, as you know, we are graced with several large
16
cities in and around Lake Erie contributing their effluent
waters which either flow into the lake directly or in-
18
directly, and I am sure we will hear from Cleveland in a
19
little. Bait we also have another large city on the
20
lake, Detroit, and I wonder if I could call on Mr. Oeming
21
for a presentation from Detroit,
22
MR. OEMING; Yes, I would like to, at this time,
call on Mr. 6. Remus, of the Detroit Water Board, to
24
present a statement.
25
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34
G. Remus
1 MR. REMUS: Conferees. I think, as you know, that
2 the Sheraton-Cleveland Hotel has got a notice down there
3 that the meeting is in the Grand Ballroom. That is where
4 we were for a while until we woke up.
5 My purpose here is to explain what progress we
6 have made in the program that we, in cooperation with the
7 area of Detroit, and with the Water Resources Commission
8 of Michigan, worked out. The basic program involved
9 114 million dollars worth of work. It involved improvement
1Q in treatment, some expansion of the system, and it involved
taking care of the area.
We, of course, had to reduce the solids we put
-L &
in the river. We had to reduce the BOD loading, and those
13
nuisances of oil, phenols, and so forth, all were included.
14
A formal contract was signed, which had been approved by
15
the City of Detroit, which I think is unusual in that it
16
documents from the Rouge River north upstream, so that the
17
Detroit municipal water services operation would be
18
responsible for meeting the new standards and also putting
19
the interceptor in the area to do the crucial job.
20
It is unusual, I think, in that there is no
21
industry in that area that discharges directly into the
22
Detroit River. All of it discharges into the public
23
system, and, as such, complicates in one way but helps
24
in another.
25
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35
G. Remus
On each phase of the operations that we have,
I would just like to briefly comment where we are. We
have quite a lengthy report here that we have presented
to the conferees, but I do not wish to pursue that.
CHAIRMAN STEIN: Mr. Remus, without objection,
that report will appear in the record as if read in its
entirety. (The above-mentioned report follows.)
MR. REMUS: Presented herein is a brief summary
of progress to date by the Detroit Metropolitan Water
Service on its Detroit Regional Watershed Pollution Control
Program launched in September 1966.
The Detroit Metropolitan Water Services Waste-
water Disposal System currently serves approximately
3,000,000 persons living in fifty-four communities,
including Detroit. The system1s service area is presently
about 360 square miles. The Detroit Metropolitan Water
Services Wastewater Disposal Plant processes an average
of 700 million gallons of sewage per day.
I. Wastewater Plant
A. Advanced Treatment
1. Test Facility
Expenditures to date - $55#,713.67
a. Demonstration Project
With the assistance of a $300,000 Federal Grant
offer, a 200 gpm advanced treatment test facility has been
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36
G. Remus
constructed and placed in operation. The activated sludge
2 portion was placed in service in September 1967, and the
3 trickling filter portion in May 196d. Federal participa-
4 tion in the project is scheduled to continue until December
5 1969» Project operating costs for the next eighteen months
6 are estimated at $200,000.
7 The primary objective of the test facility
8 operation is to obtain proven design information for an
9 economically feasible process for removal and/or reduction
10 of suspended solids, BOD, phenol, oils, bacteria and 80
per cent of the incoming dissolved orthophosphates in
12 accordance with our Hay 19, 1966, Stipulation Agreement
13 with the Michigan Water Resources Commission.
,. Other objectives are to determine: the compara-
tive economies of the activated sludge and trickling
filter processes; the suitability of various sludge dis-
16
posal methods for phosphate removal; and the development
of practical uses for industrial wastes.
18 ^
The variety of tests conducted to date on
19
activated sludge without chemical additives have not
20
demonstrated any potential for consistent phosphate
21
removal, especially insofar as the dissolved orthophos-
22
phate fraction is concerned. Total phosphate removals
23
were generally about 50 per cent, but the dissolved
24
fraction showed bleedback tendencies.
25
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37
G. Remus
Detroit is one of the world's centers of the
metal working industry and for many years we have known
that when a slug of ferrous iron appeared in the waste-
water at the plant, the phosphate content dropped to a
low level. Laboratory studies were made using various
iron salts, and it was learned that waste ferrous chloride
from the steel industry, some of which is being discharged
into the river, is very effective in removing phosphate
from Detroit wastewater. Accordingly, the use of pickle
liquor for phosphate removal was made part of the demon-
stration project.
Pickling liquor (ferrous chloride) has been
added to the wastewater in a pilot activated sludge process
for approximately two months. The indications are that
better than BO per cent of the total phosphate is being
removed. The final effluent concentration of orthophos-
phate is from 0.4 to 0.7 ag/1 of P. This does not meet
our stipulation of 60 per cent removal of orthophosphate;
however, the incoming orthophosphate is extremely low,
averaging from 1.1 to 2.0 mg/1 of P. This makes an 30
per cent removal much more difficult to obtain.
In the final analysis, it is the phosphorous
content of the effluent that really matters — not the
per cent removal. Therefore, if the waste pickle liquor
treatment process were to be incorporated into the
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G. Remus
plant design, a two-fold objective would be accomplished:
2 1. Lake Brie would be deprived of most of the
•z
phosphates from the municipal plant, and
4 2. Industry would not be compelled to develop
5 and construct treatment devices for their waste pickle
6 liquor.
7 With or without pickling liquor, the activated
8 sludge process has demonstrated the capability of consistent
9 high removals or reduction of suspended solids, BOD, and
10 TOG.
11 The plastic media trickling filter is in the
12 "shakedown" stage. No data of consequence has been obtain^i
13 during the first month of operation.
14 Phenol reduction continues to be studied and
15 analyzed.
16 Dewatering and incineration of the waste sludge
17 (primary activated) will be under study and analysis in
1 the near future.
19 b. Deep Tank Aeration
Due to ever-increasing population densities and
housing needs in urban areas, it is known that every effort
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39
G. Remus
tanks is being temporarily converted to a demonstration
aeration tank to study the feasibility of using shallow
submergence aeration systems on tanks of depths of 30 feet
or more.
The equipment for this test is installed and
ready for operation.
2. Allied Activities
a* Detergent and Soap Industry
At a recent meeting of the Industry/Government
Joint Task Force on Butrophication Research at the Detroit
Wastewater Treatment Plant, where they reviewed our
pollution control program and our pilot research plant
for phosphate removal, the detergent and soap manufac-
turers stated that they were searching diligently for a
substitute for phosphate in detergents.
3. Future Construction
Within approximately one year, it is expected
that sufficient design and cost information will have been
derived to enable proceeding with the design and construc-
tion of the first segments of the advanced treatment
facilities. It is probable the method will involve a
chemical-biological process.
Provided that 55 per cent Federal and 25 per cent
state grant assistance is forthcoming in sufficient volume
at an early date, the first full-scale segment may have a
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40
G. Remus
capacity of 100 to 200 cfs. and may cost approximately
2 $70,million for biological-chemical treatment tanks, final
3 settling tanks, pumping facilities, discharge and chlorina-
4 tion conduits and sludge disposal facilities* Upon
5 satisfactory operation of the initial units for approxi-
6 mately two years, other segments would be added to bring the
7 advanced treatment capacity up to plant load requirements.
8 B. Expansion
9 Due to enlargement of the service area of the
10 system, higher per capita water usage and interception
±1 of a greater percentage of storm runoff, it will be
12 necessary to not only provide advanced treatment but to
13 expand the basic capacity of the treatment works.
14 1. Site
We are in the process of acquiring approximately
J. D
27 acres of adjoining residential area to add to our present
16
72 acre site. Approximately SO per cent of the properties
17
have already been acquired by negotiated purchase and
18
demolition is in progress. Acquisition costs are esti-
19
mated at $2,5 million.
20
2* Construction
21
Tunnels, conduits, primary tanks, vacuum filters
22
and incinerators are being added to increase the basic
23
capacity of the plant by approximately one-third.
24
Approximately $2?mlHion of work is under con-
25
struction and another $0.5 million will be under
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a
G. Remus
construction prior to June 30, 1968.
An application for 55 per cent and 25 per cent
state grant funds has been filed for approximately
$35million, of expansion and improvement work to start
prior to June 30, 1969* Included in the work is the
installation of two fly ash collectors, which when installed
will provide for 100 per cent air pollution control from
all incinerators.
C. Product Reuse
Due to the ready availability and economy of
purified Great Lakes waters, there is currently no market
for primary effluent nor is there expected to be any
market for secondary effluent.
However, in addition to the effluent, a waste-
water plant produces two other waste products: namely,
hot exhaust gases and ash (or filter cake).
The exhaust gases are cleaned with a wet scrubber,
and this hot scrubber water is now processed through an
in-plant system for plant housekeeping, filter cleaning
and scum processing.
Pilot plant studies have been made by a cement
company (Peerless Division of American Cement Corporation)
and others using Detroit*s sewage filter cake (or incin-
erator ash) with powerhouse fly ash to produce a light
weight aggregate. The product produced is of superior
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42
G. Remus
quality. The cement company is seriously considering
p
manufacturing this product because there is a tremendous
3 market for light weight aggregate. There is also the
4 possibility that sewage sludges can be used in place of
5 filter cake in a rotary kiln.
6 D. Design Progress
7 Approximately $300,000 has been expended to date
8 for engineering and technical services (exclusive of test
9 facility) toward design of required treatment plant
10 facilities.
ll 1. Outfall diffuser - contract bids opened.
12 2. Plant tunnels (raw and settled flow) -
13 contract documents complete.
14 3» Screenings Disposal - under construction.
15 4. Primary tanks (two each) - design approxi-
mately 30 per cent complete, including soil borings.
16
5. Scum disposal - alternate processes investi-
gated. Preliminary layouts prepared.
6. Sludge disposal - alternate processes inves-
tigated. Preliminary drawings prepared for vacuum filtra-
20
tion, incineration and pneumatic ash disposal.
21
7. Intermediate lift station - alternate layouts
22
prepared.
23
8. Biological process - site arrangement plans
24
prepared.
25
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43
G. Remus
9. Final settling tanks - scale model tests
completed. Preliminary plans in process of being prepared.
10. Chlorine contact chamber and effluent
conduit - preliminary plans prepared.
11. Rouge outfall — scale model built. Hydrauli
testing started.
12* Heating and ventilating - cost studies
prepared.
13. Electrical and instrumentation - studies
underway.
14. Site improvements - preliminary planning
underway.
II. Combined Sewer Overflow Cpntrol
With the assistance of a $1 million Federal grant
offer, DWWS is currently constructing a $2,113,000 sewer
system monitoring and remote control network as a demon-
stration project for improving combined sewer overflow
quality. Other work to improve the system is also pro-
ceeding concurrently without Federal financial assistance.
A. Objectives
The storm overflows from the system are tributary
to the Detroit and Rouge Rivers. There are approximately
seventy points where overflow could occur. Presently the
exact number of spills, their duration and volume and the
quality thereof are not known.
The primary objective of this project is to reduce
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44
G. Remus
stream pollution from combined sewer overflows by reducing
2
the number and duration of spills and by controlling the
3
quality of that portion which of necessity must be spilled
4 during heavy rainstorms* This is to be accomplished by
5 practicing storm anticipation and thereby in effect gaining
6 additional temporary stormwater "storage" or retention in
7 the system. The plan is to lower the liquid level (hydrauli<
8 gradient) to the maximum degree possible by coordinated
9 pumpdowns at the wastewater plant and sanitary pumping
10 stations prior to a storm and to hold the level as low and
11 as long as possible so as to intercept the first flush of
12 the storm and as much of the entire storm as possible*
13 do this properly requires instantaneous knowledge of the
14 behavior of the system, the storm and the characteristics
15 of the sewage at all times.
16 The work consists of the furnishing and installa-
17 tion of liquid level sensing devices at numerous locations
lg throughout the system, proximity switches on all backwater
19 gates and diversion devices to denote open or closed
2Q position, rainfall intensity and accumulation gauges at
0, numerous locations throughout the metropolitan area,
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45
G. Remus
control center as well as all related electrical, mechanical
and structural work. The work also includes operation of
the sewage disposal system to maximize pollution control
and maintenance of the equipment installed under this
project.
The second objective of the project is to collect
data on the behavior of flow in the sewer and interceptor
system which will aid in the design of more adequate sewers
and interceptor systems in the future.
The work will include analysis of samples,
interpretation of data, mathematical computations, estab-
lishment of emperical formulas for use in computer pro-
gramming, and other work required to prepare the informa-
tion for use in future designs*
B. Construction
1. System Monitoring and Remote Control
The monitoring equipment and data logger for
the initial phase of the project have been delivered and
are being installed. It is anticipated that one year
will be required to complete the installation and place
the system in initial operation.
A contract for the furnishing and installation
of power driven regulator gates and "sluicing gates" has
been advertised. It is anticipated that this work will
also be completed within one year.
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46
G. Remus
A program of sewage sample collection (manual)
2 and analysis has been in operation for some time. The
3 sample collection-analysis program is providing background
4 information on the quality and characteristics of various
5 combined sewer outfalls*
6 Automatic sampling apparatus is in the process
7 of being procured to enable initiation of a 24-hour samp-
8 ling program. Three vehicles have also been ordered to
9 provide transportation for the sample collection crews.
10 2. Additions and Improvements to the Sewerage
H System
12 a. Dolson Backwater Gates (work completed)
13 Project Cost - $78,190 (33 per cent Federal)
14 In our continuing program to protect the inter-
ceptor system from flooding out from high river levels,
J.U
backwater gates were added to a sewer outlet on the Rouge
16
River south of Schoolcraft Road.
17
b. Leib and Helen Regulator Additions and
18
Improvements (work completed)
Project Cost - $213|322 (33 per cent Federal)
*£(}
To accommodate increased loads emanating from
21
Oakland County through the Pequindre Road interceptor,
22
the capacity of the Leib Regulator on the Detroit River
23
was doubled.
24
To make the Helen regulator more responsive to
25
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47
G. Remus
available Detroit River interceptor capacity, the regulator
sensing and operating system was modified and rearranged.
c. Oakwood Pumping Station
Project Cost - $105,131.$6 (33 per cent Federal)
Twenty-five per cent more sanitary pumping
capacity is being added to the Oakwood Pumping Station.
The pumps are scheduled to be in service in November 1966.
Due to the station's proximity to nearby oil
refineries along the Rouge River, a neoprene belt type oil
skimmer has been added to the pumping station wet well.
Startup testing is underway.
d. Belle Isle (work completed)
Project Cost - $268,053 (33 per cent Federal)
All sanitary wastes from Belle Isle are now
pumped to the mainland for treatment. The existing Belle
Isle Treatmeit Plant has been modified and converted to
a stormwater retention and treatment facility.
e. Sewer Program
A program of constructing additions, improvements,
replacements and modifications to the system of laterals,
trunk sewers and storm relief sewers is being performed
at the rate of several million dollars per year.
C. Operation
1. Present
a. Regulator Surveillance and Adjustment
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G. Remus
1 All regulators and backwater gates are inspected
2 and serviced regularly and after every storm by a four-man
3 crew.
4 Regulator float settings have been reviewed and
5 field adjustments made where required to optimize utiliza-
6 tion of all available interceptor capacity by present
7 operation methods.
3 b. Preventive Maintenance Inspection
9 The condition of the interior of the Detroit
10 River interceptor, the combined sewer overflow outfalls
1;L and some major combined sewers is being inspected pre-
paratory to formulating a renovation program to complement
X
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49
G. Remus
conducted from a central location.
As more knowledge of the system behavior is
derived through subsequent operation, many of the operating
functions will be adapted to direct computer control.
Quality collection, analysis and control will be
mechanized to the maximum possible degree.
III. Regional Interceptor System
Currently, DMWS serves all or portions of 54
communities in Wayne, Oakland, and Macomb Counties.
A. Service Area Expansion
The long range objective of DMWS is to provide
wastewater disposal service for all of Wayne, Oakland,
Macomb, Monroe, Washtenaw and St. Clair Counties in an
orderly and systematic manner.
Of immediate concern is the provision of
wastewater interceptor facilities for the Clinton River
drainage basin. This service is essential for the follow-
ing reasons:
(1) The waste load on the Clinton River must
be reduced to protect our Belle Isle water supply intake.
(2) The region (and Nation) will benefit from
single unified administration and operation of all pollu-
tion control efforts in the region.
(3) The area will financially benefit from the
economy of large scale operations.
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50
G. Remus
1 Accordingly, DMWS has signed service agreements
2 for all of Macomb County and all except the westerly por-
3 tions of Oakland County.
4 Communities to which service is to be extended
5 initially are:
6 Macomb County Oakland County
7 Chesterfield Township Avon Township
8 Clinton Township Orion Township
9 Fraser Pontiac Township
10 Harrison Township Waterford Township
H Macomb Township West Bloomfield Townshi
12 Sterling Township
13 Utica
. Currently, DMWS is negotiating for initial
service to three other communities in Macomb County: Mt.
15
Clemens, Shelby Township, and Warren. It is also expected
16
that several other communities from Oakland County will
17
soon be incorporated into the initial phase of the program.
18
DMWS has had preliminary discussions with Living-
ston, Washtenaw and Monroe Counties relative to service by
20
the proposed Huron River-Hannan Road Interceptor System.
21
Preliminary studies indicate that this system would serve
22
the remaining portions of Oakland County (except that
23
area outside the drainage basin), portions of Livingston
24
County, all of Washtenaw County, the remaining portions of
25
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4
G. Remus
Wayne County not presently served by DMWS, and portions
of Lenawee County.
B. Construction Program
Approximately $65 million is to be expended in
the next two years for the initial construction of the
Oakland-Maoomb Interceptor System. Soil boring and
aerial photogrammetric data are currently being collected.
The basic design of the system has been completed.
C. Future Construction
The design of the North Interceptor, the major
outlet for the Oakland-Macomb Interceptor System and other
systems in Oakland and Macomb Counties, is in the develop^
mental stage. Preliminary cost estimates for this facility
indicate an expenditure of approximately $60 million.
This facility is expected to be in operation before 1975*
A preliminary estimate indicates that at least
$200 million would be required for construction of portions
of the Huron River-Hannan Road Interceptor System, includ-
ing the Huron River Regional Wastewater Plant, in the next
20 to 25 years.
IV. Industrial Waste Control
A. Scope
The policy of the Detroit Metropolitan Water
Service is to work cooperatively with industry toward
the solution of our mutual problems.
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52
G. Remus
1 The following numbers of companies which dis-
2 charge to our sewer system have been contacted:
3 Oil Survey - 297
4 Acid Usage - 142
5 Heat Treating Industry - 12
6 Pharmaceutical Industry - 2
7 Fried Foods Industry - 6
8 Total Personal Visits - 113
9 Total Companies Contacted - 574
10 Of those contacted, the following have instituted
,, major treatment facilities:
10 General Motors Corporation Chrysler Corporation
J.<5 «.«^—r J
Ternstedt Division Mound Road Engine Plant
J.O
Chevrolet Gear and Axle Plant Eldon Avenue Axle Plant
14
Chevrolet Bumper Plant Detroit Universal Plant
15
Industrial waste control installations, now
16
operating or being built by private industry in the
17
Detroit area and whose effluent enters our system,
18
represent a cost of over $$ million. All of these opera-
19
tions have been voluntary and were instituted by industry
20
after the nature of our industrial waste control problem
21
was made clear*
22
In addition, the following companies have made
23
extensive surveys and are studying methods for the best
24
ways of treating their effluent:
25
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53
G. Remus
General Motors Corporation McLouth Steel Corporation
Detroit Diesel Engine Division Ford Motor Company
Cadillac Motor Car Division Livonia Plant
DMWS is actively working with Ford Motor Company
to solve their phenol discharge problem. DMWS has also
arranged for the Scott Paper Company plant to discharge
the paper mill waste into our system.
In our oil survey, it was found that 27 companies
reported 71.5 per cent of the unaccounted-for oil.
Accordingly, our waste oil problem is one of getting these
large contributors to remove this waste oil from their
effluent.
Personal visits have been made by our staff to
63 plants. It is estimated that 50 additional companies
have been visited for reasons apart from the above-mentioned
industry surveys.
Thus, a total of 574 companies have been con-
tacted with respect to the control of industrial waste.
From this list of contacts, there has evolved a hard core
roster of chronic contributors of acid and oil. We are
actively working with the large oil contributors and we
make a continuing survey of the acid contribution of the
companies whose records are poor in this respect*
B. Proposed Follow-up
Liquid wastes generated in the Detroit Metropoli-
tan Area are influenced by the fact that Detroit is tne
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54
G. Remus
automotive center of the world. This concentration of the
o
metalworking industry contributes oil, acid and heavy
3 metals out of proportion to the population when compared
4 with other American cities* Major sources of these wastes
5 have been determined, but their full evaluation remains
6 to be accomplished. Contacts with Detroit industries
7 have revealed a paucity of effluent data. Expressed
8 interest of Detroit Metropolitan Water Services has already
9 resulted in effluent surveys and others are being planned.
10 Several of the industries have requested assistance of
11 the Industrial Wastes Control Unit in the organization and
12 conduct of these surveys. This follow-up work is consid-
13 ered a most important element in the successful prosecu-
14 tion of the Industrial Wastes Control Program of Detroit
15 Metropolitan Water Service ,
, „ C. Forthcoming Work
16
1. Continue conferences with industry and extend
into suburban areas.
18
2. Maintain an organized follow-up on pollution
J. I/
abatement programs with those industries known to create
20
significant liquid wastes.
*cX
3. Collaborate with industry in the conduct of
22
comprehensive industrial waste surveys in an effort to
23
characterize wastes and to determine respective volumes.
24
4. Develop an effective industrial effluent
25
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55
G. Remus
monitoring system in cooperation with industry.
5* Accumulate data to serve as basis for
developing industrial waste surcharge schedules.
6. Coordinate industrial waste findings with
pilot plant investigatlonal research at Detroit Wastewater
Treatment Plant.
7. Revise "Standards and Regulations Controlling
the Discharge of Industrial or Commercial Type Wastes into
the Detroit Sewer System."
V. Community Action
A. Keep Detroit Beautiful Committee
The mayor1s Keep Detroit Beautiful Committee has
launched a vigorous campaign this spring to enlist the
help of all citizens in keeping our streets and alleys
free of litter and dirt. A recent study by our department
reveals that the dirt and debris which washes off the
roads into the combined sewer system has a costly impact
upon those we serve.
B. United Automobile Workers
The UAW has been of invaluable assistance in
alerting the people of this area to the problems and costs
of pollution control and in striving for the necessary
legislation and funding.
C. Marinas and Boats
Recent State legislation on the control of waste
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6
7
8
9
10
11
12
13
14
56
G. Remus
and litter involving boats and marinas has prompted
preliminary design work on sanitary waste disposal
facilities for the city-owned marinas. Such facilities
are to be in operation by 1970. The Province of Ontario
has passed laws similar to Michigan's for the control of
pollution from pleasure boats.
D. City Departments and Agencies
A unified and expanded street and alley cleanup
program was recently initiated by the major city depart-
ments. This will materially reduce the solids flushed into
the combined sewer system during a storm. (End prepared
report.)
I will only spend a few minutes to point to the
various things that we are doing, and in the order that
they appear in the report.
J. D
At the present time, we have 54 communities
16
ji besides Detroit on the system, about three million people.
X ( i
An additional twelve are under contract for which con-
J. G
struction is going forth.
J_ j
20
21
22
23
24
25
We have about 360 square miles of service area
to be responsible for. To attack this problem, we had
multiple things to do.: one is to find out exactly what
our improved treatment had to be, what our expansion of the
system had to amount to, what we were going to do about
stormflow to do the best we could; and we had to put this
all into some sort of practical balance so that we could
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G. Remus
plea to the city fathers to get approval so that we could
do the financing.
The wastewater treatment was improved, but the
fact remained that there were certain things we knew and
there were others we did not know, principally regarding
the phosphate removal aspects* In cooperation with grants
that we have received, we have built a wastewater plant
that has been in operation now some six months. Briefly,
it did not improve the phosphate removal situation.
However, working that in conjunction with pickling acid
from our steel mills, we have been able to get in excess
of dO per cent total phosphate removal. Our stipulation,
of course, is to orthophosphate removal and we may come
to the Water Resources Commission for some adjustment on
our contract on that in light of the information that is
being developed.
We have operated a plant for 21 days where we
met the 80 per cent removal factor by the fact that the
conglomeration of sewage came in there with a pretty good
sludge of pickling acid and a combination of this — for
laek of better English — mess took the phosphate removal
out — or took the phosphate out to the extent that total
figures were all right.
Now, what I am saying here is that in the last
analysis, the combination of chemical and bacteriological
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G. Remus
1 treatment seems to do the job. In our test station, which
2 has now been in operation for two months, we have been
3 getting the #0 per cent on total phosphate removal. We
4 will operate yet another three or four months on that to
5 make sure we have all aspects evaluated.
6 We have explored the aspect of working with
7 industry on this, and we think there are two very important
8 factors that are promising as far as the entire area is
9 concerned. If this method of handling the phosphate re-
10 moval can be finalized so that we can bet millions of
H dollars on it, then, of course, our municipal plant will
12 be handling all of the waste for the area, and indirectly
13 by that method industry will be getting the help it needs
14 in their complicated problem, and they will not have to at
least in the area we serve build their own treatment plants
XD
to get rid of those types of wastes.
16
We have some aeration problems, and we have some
17 '
tanks under test on that. We have a working arrangement
18
with the detergent industry, and I believe they are now
J. t7
becoming aware of the fact that the total cost of the
20
detergents on the shelf is what it takes, and we hope that
21
the prevention aspects there will develop.
22
We have committed a lot of construction in the
23
plant, such as: we have cleared 27 acres where 198 homes
24
were taken off, plus four industries, for the space we
25
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59
G. Remus
need for the plant improvement — that is substantially
complete.
We have committed some adjustments to the
conduits for sewage handling in the present site for the
purpose of being able to adjust increased plant capacity
when it comes.
We have committed and have installed additional
filters and additional burning equipment, and we are bound
right now in the business of committing money to do addi-
tional work on the basis of 33 per cent participation,
when in the near future we hope to have the #0 per cent
or #5 per cent participation by combination of Federal
and State help.
The reason we committed as much money as we did
to get this basic work done is that it is those incidental
things that take so much time, so that when you go into
major construction that you have to do anyway, and we
didn't want to postpone our operations any further.
A couple of interesting sidelights: One I
mentioned was that pickling has benefit which was better
than we anticipated. Another one, we have extended review
with Peerless Cement and they have concluded that the
filter cake can be burned in conjunction with fly ash from
precipitators of the power companies at a temperature in
the range of 22 to 24 hundred degrees, and you make a very
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60
G. Remus
1 effective light weight aggregate. We hope that Curtis
2 Cement will put the plant in, and if they don't we probably
3 will.
The design of the system is such that we will
have major construction underway as soon as the Federal
and State money becomes available.
7 On the combined sewer overflow problem, I just
8 briefly want to mention that we have received $1 million
9 from the Federal Government which we matched with the idea
10 of sort of escalating a storm sewer across the city of
11 Detroit. Our system is made up with a multiple of 12, 16
12 and 17 foot storraflow conduits. We are operating those
13 at an elevation that is about 35 feet below the river level
14 for the purpose of keeping those empty so the smaller
]5 storms that go across do not cause our regulators to
i
.. I function and dump directly into the river.
16 I
. _ jl We have been able to take those spills down a
I
considerable number of times. I think it was 26 times in
18
,q the last year that we had spills in the river which was
roughly half of what we had the year prior. Tou hate to
use that kind of data, however, because the weather man
& -L
might make a liar out of me in the morning.
The principal thing we are concentrating on, on
the storraflow, is that we would put in and we are now
24
having installed a good portion of the controls on our
25
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61
G. Remus
stormflow pumping station, and operate our regulators in
such a way that the first flush of the storm will go
directly to the plant and then it will be bypassed into
the river, and that way we will catch the dirty sludge
that lays in these large interceptors.
The second aspect is: we have, in cooperation'
with the Keep Detroit Beautiful Committee, a rather exten-
sive program whereby we hope to cut down the amount of dirt
from alleys and streets that gets into our catch basins
and into our sewers. The tonnage on that is very large.
We have had a great deal of evaluation of that, and we
believe we can cut that in half. The home owners, I think,
should know they can take their rubbish from in front of
their house and get it disposed of via truck in rubbish
containers at about $20 a ton — $20 to $27 is the range
we found. Also it found it is$120 a ton via the sewage
system, and, as such, we are not only keeping Detroit
clean if we follow this route, but we are saving a lot of
money.
Those types of figures do make impressions on
committees that have been working on it. All of the
departments of the city have been working on it, and we
think that will help considerably.
There are details in the report on what type of
controls we are installing on our storm system, what type
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62
G. Remus
of gates we are installing or have installed and I will
not read those.
3 We have another aspect of our program that I
4 would like to point out that is underway, and I am not
talking from what we are going to do. The points I am men-
6 tioning here are the ones that are being done. We are
7 expanding the system. There still are effluents which
8 empty into the Detroit River by some route, and if you are
9 going to take the central city and improve our treatment
10 and do not do anything about the outlying district, you
are either going to stop development or you will not be
12 making any sum total improvement.
The twelve communities that we are now doing
,. construction work for, where we build the sewage plant
outside the city of Detroit, to go into those areas
15 j
to collect the wastes, the sura total of that construction
16 I
is about $60 million. There are about $8 million
17
under construction now, where the contracts have been
18
awarded.
19 I
One of the brightest spots we have found is the
20
industrial prevention, pollution prevention. I mentioned
& .L.
the aspect of pollution prevention as far as getting it
22
off of the streets in our system, and hopefully we will
23
gradually reduce that. But in our dealing with industry,
24
we have to date worked with 574 different companies that
25 !r
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63
G. Reraus
we suspect or now know have been adding to the complica-
tions of our sewage system. Of those, 297 were on oil
survey; 142 were acid usage; 12 were heat treating industry;
two were the pharmaceutical industry; eight, the fried
foods industry; and 113 miscellaneous* I think it is of
interest that we are getting a very good cooperation from
industry.
The pressure that Murray Stein and his team have
put on apparently is getting some results along that line.
I never thought I would give him that acknowledgment
because we started a long, long ways apart, and we are
getting closer every day.
The principal companies that have really
responded were such as General Motors; Chryslerj-Ford; the
people at — well, Scott Paper — there is a large waste
problem which they could not correct in their own property
so we are taking their waste now, and they are paying us
extra which helps in our operation. The bill is a mere
$300 a day.
The point that I want to make is that on this
industrial pollution prevention is that indirectly it
helps industry a great deal; because if we can get Federal
financing, State financing, together with our local fin-
ancing, and take the industrial wastes from those plants
thereby cutting down if not eliminating the construction
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64
G. Remus
1
they have to make for their wastes, they are by that
2
method getting tax relief for their problem. This took
3
us a couple of years to work out, and we believe it is the
4
best answer that is on the market today for that partic-
5
ularly ticklish problem and we would oppose any change
because we have this one working now.
rj
The problems we have, then, in brief are based
8 on the fact that we think we are close to the final answer
9 that we will need on our treatment process. It will be
10 a combination of bacteria reduction and chemical precip-
11 itation if you want to use that kind of language. We
12 know we have the expansion of the system developing. We
13 have a better control of our stormflow situation, but I
14 | would not want to mislead anyone in thinking that
15 that problem is solved.
16 We do not, of course -- I want to repeat —
i
17 j subscribe to this business of separating sewers for two
18 major reasons: one is we are not sure that is the final
19 [ answer on the basis of dirt that runs off of the streets
i
20 as far as pollution is concerned, but more so in a city
21 like Detroit it is impractical. There is $1.7 billion
22 to do the public part of it to say nothing of what the
23 home owner would have to do, and we would have the
24 streets dug up until the year 2020 to get that kind of
25 I separation, so the best answer has to be found.
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65
G. Remus
We are taking steps on it* We have now reduced
the amount of dirt that comes in the river now in storms
already, and we hope in a systematic way to resolve this
to a better solution.
Now, on the report that I gave the conferees
there is a summarization of our 10-point program. It
involved the three I mentioned: storm flow, the improved
treatment and expansion of system.
There are some additional ones that are, however,
necessary. One is, I think,you have to recognize, whether
you like it or not, that the water supply and the protection
of that supply is one economic problem. We handle it in
two different accounts, but we know if we misapply our
efforts on one it will affect the other one.
Another point I mentioned here is this pollution
prevention which I think should be attacked on three major
fronts, which I would like to report. One is industry;
the second is with the home owner; and the third is with
the detergent industry, who, after all are the ones that
are phosphating — the principal people that are phoaphatlng
our lake.
There are other things, such as boat marinas.
There are 500,000 people on the river in the summertime.
Most of them are in marinas which have inadequate circula-
tion of water, which usually have little rubbish control,
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66
G. Remus
1 equipment and very little sanitary facilities.
2 The State of Michigan has adopted a law, as has
3 Ontario, Canada. In Michigan, in 1970, the larger pleasure
4 boats have to have appropriate facilities on them. We
5 have, however, some very serious binds* I would like to
6 point out that we have had very good cooperation from,
7 as I mentioned, the Keep Detroit Beautiful Committee and the
8 United Auto Workers. The first reaction on boats has died
9 out, and the marinas are working very cooperatively on
10 what has to be done.
11 The city government of Detroit has approved a
12 $114,000,000 commitment. If you look at that folder, tha
13 adds up to $922,000,000 by the year 2000, the normal
14 projection of that system.
15 We have our financing done to this extent: that
, the money that we need is in this form: of $114,000,000
16
we have about $19,000,000 in cash on short-term investment,
which we are using for these starts here. We have approval
18
for the bond money; when the city fathers approved this
i y
program they approved the money. Nobody in their right
&\)
mind, however, would go and commit $114,000,000 worth of
21
work with the probability of #0 per cent or 85 per cent
22
being available from the outside, and that is what we are
23
awaiting, the point being that the Federal Government is
24
now changing its financing scheme.
25
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67
G. Remus
The State of Michigan hopefully will pass that
$335,000,000 bond issue which will make the State's par-
ticipation whole. If we are to really make this program
move on the schedule that we have laid forth here and
which we have all the basic work done on, then this final-
ization of the funds has to be made promptly. I can't
emphasize that rapidly enough because in most municipali-
ties, as in ours, you cannot get city funds appropriated
except under a set of very precise conditions. By the time
that has been set, the Federal agency changes its rules, and
again you are out of step, so this boogie-woogie financing
has to stop if we are going to make progress. Thank you.
(Applause)
CHAIRMAN STEIN: Thank you, Mr. Remus.
As many of you know, Mr. Remus is the head of
one of the largest water supply and waste-disposal systems
of the country: the metropolitan area of Detroit. He has
been the past president of the American Water Works
Association which is meeting here today. Jerry, there
may be some questions or comments. The conferees may
have a question to ask you.
I just have one slight comment. I never thought
I would like to see the day when Jerry Remus would be guilty
of understatement, but he today said we started some dis-
tance apart. That was an understatement. (Laughter)
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63
G. Remus
Are there any comments or questions?
2
MR. POSTOM: I would like to comment that I think
3
Mr, Remus gave a very excellent report of the activities,
4 and they certainly have had a lot of them in connection
5 with the abatement of pollution in the Detroit area.
6 My question is: Are you essentially on the time
7 schedule at the present?
8 MR. REMUS: On parts of it we are ahead. The
9 aspect of getting the major additional treatment completed
10 depends entirely on how fast this money can be made avail*
11 able, and even then it is a very tight schedule. I would
12 think that we are somewhat behind on the improved—treatme
13 aspects in its entirety. Certain sections of the plant
14 changes are being made and those are on schedule, but
15 to finalize that last step I think is going to be a very
16 tight schedule.
CHAIRMAN STEIN: Any other comments or questions?
MR. METZLER: Detroit is very fortunate to have
18
one of the most experienced utility managers in the country
j. y
in your position.
«oU
MR. REMUS: Thank you. I wonder what that is
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69
G. Remus
we talking about here in the event the financing doesn't
become available? Are you hopeful that you can get SO
per cent phosphate removal perhaps or in this range?
MR. REMUS: Very close to that, On the basis of
the test operations of the test station, which is a good
size test station,, we have done it now for about two months?
and by a combination of circumstances, it isn't a full
plant for twenty-one days, but we had to find out by the
reverse process what really happened. We didn't know, but
we concluded that it was a rather systematic deposit of
pickling acids rather than in large solution entering
the system.
MR. METZLER: Can you give me a general idea of
what the added costs are for phosphate removal as you are
putting them in here in terms of percentage of your over-
all cost?
MR. REMUS: Well, I cannot apply that to phos-
phate alone, but we are expecting that our operating costs
will double at least.
MR. METZLER: The reason I asked the question,
it leads to my next one: j)o you feel any qualms about
putting in a lot of — well, making a major financial
commitment for phosphate removal with the possibility that
the detergent industry is going to change to something else,
or have you pretty well sold yourselves that they cannot?
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8
10
11
12
13
70
G. Remus
1 MR. REMUS: Well, hopefully we are handling this
o
in such a way that that will not break our back either way,
•7
the reason being that most of what we have committed our-
selves to now we would do in any event. Part of this
phosphate removal thing — to answer that precisely — I
wouldn't want to answer that right now, because I don't
know the answer. But before the final big slug of money
is committed, we will have to have a better evaluation,
because I think you people are practical enough to know
that unless we are sure of what we are going to get as
the result, you cannot commit that type of money.
CHAIRMAN STEIN: I would like to make one more
comment: Since this program had started, Michigan, the
14 j Federal Government and the Detroit area zeroed in on what
15
16
17 !
18
19
the objectives of the program are. Mr. Remus has moved on
the abatement time schedule in really an expeditious manner,
and I would commend some of the experience in Detroit to
! some of the other major cities, or even the smaller ones
that are considering facing the same problems.
20
21
22
23
24
25
I do think that the approach that Mr. Remus has
used and the evaluations that he has used have been out-
standing and present a real expeditious and sensible
approach to the problem. I certainly am encouraged
because I think we are finding a major city moving
| toward a solution of a pollution problem in an
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71
G. Remus
exemplary fashion that is certainly satisfactory, I am
2
pretty sure, to the State people and certainly to the
3
Federal people. I think we have to meet some of these
difficult problems one at a time.
5 MR. POOLE: Mr. Chairman.
6
7
8
9
10
11
•
13
14
15
16
17
18
19
20
21
22
•
24
25
CHAIRMAN STEIN: Yes, Mr. Poole.
MR. POOLE: Mr. Remus, I just want to be sure
that I understood you correctly on one issue, and that is:
you are saying that Detroit's rate of progress from here on
is going to depend basically on the availability of Federal
and State grant funds, am I correct?
MR. REMUS: That is correct.
The bind in our program now is the money. I
would like to make one other explanatory statement here.
The responsibility of the department I represent is from
the Rouge River up, and we have a lot of work to do in
| southwest Wayne County where we have a multiple of small
sewer systems, where industry discharges directly into the
river, and we are not responsible for that. But we are
trying to work out a program with Regional Planning and
with Wayne County and with Washtenaw and Monroe Counties,
to see if we can't handle that on an area-wide basis; but
the progress isn't very good on that right now.
CHAIRMAN STEIN: Any other comments or questions?
j If not, thank you very much for your contribution.
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72
Hon. Carl Stokes
1 At this point, may we hear from Cleveland and
2 I'd like to call on Mr, George Eagle?
3 MR. EAGLE: Mr. Chairman, I would like to invite
4 Mayor Stokes to make a statement on behalf of the city of
5 Cleveland. Mayor Carl Stokes.
6 MR. STOKES: Well, good morning, Mr. Stein and
7 conferees, and members of the Lake Erie Enforcement Com-
g mittee* It is ray pleasure, as Mayor of the city here, to
g welcome you to Cleveland and to commend you on what I hope
is going to be a progress report from all of those assembled
We want to feel that the word "progress" means that there
is some kind of positive or forward motion going on, and
it certainly is the desire of this administration to place
J.O
and to keep pollution abatement on a positive basis. So
14
I now welcome the opportunity afforded me to present what
15
we feel is Cleveland's own progress report to you this
16
morning, and I think it would be only appropriate for me
17
to acknowledge, as I talk about this, that one of those
18
who has done much during a period of five years to con-
19
tribute to what, in some sense, is a progress report, is
20
here this morning participating — Ralph Locher, our former
21
Mayor.
22
Well, ladies and gentlemen, since the total con-
23
tribution of the State of Ohio to the flow in Lake Erie i
24
only five per cent of the lake's total volume, it seems
25
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73
Hon. Carl Stokes
that the flow from Cleveland must be considered small
compared with that of the entire lake. However, we here
in this great city of ours are concerned with keeping this
small portion of the flow into the lake as clean and free
from pollutants as possible; and we do believe that our
planned water pollution control program will accomplish
this.
As far back as 1937, when only primary treatment
was demanded by the then existing criteria for plants with
effluents discharging into Lake Erie, the City of Cleveland
designed, built, and placed in operation the Easterly
Wastewater Treatment Plant. This plant provided secondary
treatment for over 90 per cent removal of pollutants.
Now, some thirty years later, present design
criteria call for secondary treatment for all plants whose
effluents discharge into Lake Erie. Additional improve-
ments on this plant will be under contract this month for
approximately $4,500,000.
The Southerly Wastewater Treatment Plant is
currently undergoing a $20,000,000 expansion program of
which approximately $13,000,000 in improvements have
already been completed. Now, these will substantially
reduce the solids loading of the Cuyahoga River.
Westerly, the last of the three Clevelandwjutewater
treatment plants, will be under contract for construction
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74
Hon. Carl Stokes
1 by the middle of this summer signifying the start of a
2 $25,000,000 new treatment plant.
3 The city of Cleveland has recognized the Cuyahoga
4 River as the major source of pollution to Lake Erie in the
5 Cleveland metropolitan area. It has now become somewhat of
6 a fairly regular thing for us, as we talk about this prob-
7 lem, to say that we have the only river that tends to con-
8 stitute a fire hazard. (Laughter)
9 But we are taking measures to abate this pollu-
10 tion that can honestly be attributed to our inadequate
11 municipal facilities by the improvements previously enum-
12 erated. In addition, all of the sanitary sewage from the
13 low lying areas along the Cuyahoga River is now being
14 collected and pumped to treatment plants for full treat-
15 ment.
16 In 1966, Cleveland created the Bureau of Industria
17 Wastes to deal specifically with the pollution of wastes
, 0 other than those of a sanitary nature and has cooperated
18
19 with the Cuyahoga River Basin Quality Committee, the State
of Ohio Health Department, the Three Rivers Watershed
Committee, and the Federal Water Pollution Control Admin-
21 *
istration in collecting and analyzing samples throughout
22
the metropolitan district.
23
In cooperation with its consulting engineers,
24
the city of Cleveland has just completed a comprehensive
25
study of the water pollution problem not only within the
-------
75
Hon. Carl Stokes
1 city but in our metropolitan area. This report is due
2 shortly and will be available to interested parties. It
3 will include data and information gathered over a two-year
4 period.
5 I might now indicate to you that before completing
6 my statement, I am going to tell you something t>hat we
7 think is — well, we certainly know that in this area —
8 is unprecedented. We are going to have available to you
9 here Mr. George Simpson of the Havens and Bnerson Consul-
10 tants, who, to the extent that you so desire, is going to
11 try to detail to you what Cleveland is going to try to be
^f doing in an unprecedented manner to tackle this problem
13 of pollution control, at least to the extent that it is
14 within our power to do, and within the realm of our
15 responsibilities.
16 But, before that, let me say that the city of
17 Cleveland is now installing two automatic water data
, 0 monitors on the Cuyahoga River which will not only provide
lo
,Q information on the river but will transmit, record and
even signal to a remote location when and where parameters
&\)
exceed predetermined levels.
21
Cleveland will consider additional installations
22
of this type at critical locations on the Cuyahoga, in
the harbor and in Lake Erie as its Master Plan calls for.
24
In my concluding remarks this morning and in the
25
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76
Hon. Carl Stokes
1 spirit of Cleveland: Now, we are going to ask for a manda£
and a commitment from this community to clean up pollution
3 in the Greater Cleveland area. This administration intends
4 to present to Council a bond issue of up to $100,000,000
5 for the control and abatement of water pollution in the
6 Greater Cleveland area. The issue will be presented to
7 the voters in November if favorably passed by the Council
8 within the next thirty days, and we have no reason to think
9 that Council would not permit us to present this kind of
10 issue for this kind of problem to the voters for their
11 approval.
12 The comprehensive study of water pollution prob-
13 lems in the metropolitan area which will be released
14 shortly indicates that $200,000,000 will have to be spent
15 to clean up pollution in this area* This sum of money is
programmed to be spent in the next four and one half years.
16
. Cleveland is taking the first and the major step to
implement this program by asking the voters to pass this
18
bond issue and these issues. The bonds themselves will, ;
J. \s
of course, be supported by the sewage revenues, and I
might indicate here that the city of Cleveland does not
21
only have the lowest sewage rates in the State of Ohio,
22
but has among the lowest of all big cities in the entire
23
United States*
24
Obviously all of us know, as the gentleman
25
ttT
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77
Hon. Carl Stokes
preceding us Just indicated, that the big hangup in water
pollution to this date has been money. Well, it is our
feeling that with this bond issue and with matching funds
by the Federal, we hope, the State, and the county govern-
ment we will have sufficient funds to complete our water
pollution program by late 1973 at the very latest.
Thank you, Mr. Stein. (Applause)
CHAIRMAN STEIN: Thank you, Mayor Stokes, for
a very excellent statement and you have brought us
encouraging news indeed.
I wonder if any of the conferees may have a
comment or question?
MR. STOKES: Mr. Simpson will be here. Where is
he? Will you stick around here in case any of the conferees
wish to question something particular on what we plan to
do? But we are going to do itl
CHAIRMAN STEIN: I know you will. Thank you very
much, sir*
MR. EAGLE: If it is in order, I would like for
Mr. Simpson, if he could, to briefly give the highlights
of the comprehensive report.
CHAIRMAN STEIN: There would be no objection.
I might point out that I think all of us in the business
know that the key point is the financial point, and once
you have gone ahead with your bond issue and that is arranged
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78
Hon. Carl Stokes
we know — we have worked for years with the people in
2 !•
Cleveland and in Ohio -- and there is no doubt in our mind
3
4 the pollution control experts in this area are as sophis-
5 ticated as any we have in the country. They know the
6
7
8
9
10
11
12
13
14
as to your technical competence in doing the job, because
problem as well as we do. So I think we are on our way.
MR. STOKES: I think we are on our way and we
would like to invite everyone to help us campaign for
this bond issue.
CHAIRMAN STEIN: We will be ready to do that.
MR. POOLE: Mr. Mayor, I am asking the same
question I did of Detroit: Am I to assume that your
entire program is hinged on, say, your $100 million in
your bond issue plus Federal grants or do you expect to
15 j go ahead if there are no Federal grants with $100
16
17
18
19
20
21
22
23
million?
MR. STOKES: We are going to have to go ahead —
obviously much of this is going to depend to a great deal
upon the Federal Government aiding and assisting us, and
I want to repeat that the State is going to have to par-
ticipate in this. It is not going to stop us — at least
whatever we can do on the local level by way of our
| financing we are going to be doing.
MR. OEMING: Mr. Stokes, I will make a deal
with you: If we help you with your bond issue, will you
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79
Hon. Richard D. McCarthy
come up and help Michigan with its bond issue?
MR. STOKES: Well, if mine passes, I will come.
If it doesn't, I won't. (Laughter and applause)
CHAIRMAN STEIN: Mr. Eagle.
MR. EAGLE: This is Mr. George Simpson of Havens
and Emerson, consulting engineers, of Cleveland.
CHAIRMAN STEIN: Mr. Eagle, I wonder if we could
interrupt, and I am sorry. Congressman McCarthy has just
arrived, and he has a commitment.
MR. EAGLE: We will yield to the Congressman.
CHAIRMAN STEIN: Thank you.
Congressman McCarthy has been an old friend of
water pollution control and a watch dog of pollution
control.
MR. POSTON: Murray, wouldn't it be better to
say that he is a young friend of longstanding?
CHAIRMAN STEIN: Let's see how friendly he is
going to be today.
Congressman McCarthy is on the Committee we go
before in the Congress and is one of the most active
congressional participants in pollution control affairs
and one of the most knowledgeable men in the legislative
branch of G-overnment in our field. Congressman McCarthy
is from Buffalo.
MR. MCCARTHY: Well, thank you, Mr. Chairman.
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Hon. Richard A. McCarthy
1 I want to preface my remarks today by expressing
2 deep personal concern for the improvement of very aggravat-
3 ing water quality conditions in Lake Erie as a priority
4 matter. Likewise, I hope it will be clearly understood
5 that I have an equally strong interest in helping to achieve
6 an equitable and wise exploitation of all natural resources
7 in the entire Lake Erie region.
8 In our national efforts of water pollution
9 abatement, the basic objective of Federal policy has been
10 to upgrade the efficiency of existing waste treatment
11 methods while simultaneously looking ahead to the preven-
12 tion of any further degrading influences on water qualityJ
13 This goal takes its form in three general ideas:
14 1. The idea of fully designing our treatment
,5 plants by incorporating the latest waste treatment tech-
16 nologies;
2. The idea of a total view of pollution
influences: municipal wastes, industrial by-products,
18
agricultural chemicals and runoff, oil spillage, and so
xy
on;
20 *
3. And, finally, the idea of using a combination
21
of integrated resources planning, water quality criteria,
22
research demonstration, government regulations, and
23
financial incentives as the means of controlling our
24
continuing pollution of the environment.
25
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3
4
5
Q
7
9
10
11
15
, sources. According to the survey report, the Northeast
16
81
Hon. Richard D. McCarthy
Nowhere is the need more urgent than here in the
Lake Erie Basin for rigorously applying these fundamental
ideas of pollution control.
This is particularly true in view of the poten-
tial polluting side-effects of the proposed oil and gas
drilling in offshore areas on the United States side of
the international boundary. In this connection, I think
there are some striking parallels that can be drawn between
the resource-oriented work of the Federal Power Commission
and the Federal Water Pollution Control Administration.
You may recall that the National Power Survey of
1964, carried out by the Federal Power Commission, summar-
13 ij ized the existing and expected trends of electric power
i
14 jj generation in the entire Northeast Sector, and also outlined
the considerations underlying the competition among fuel
Sector is quite fortunate in having close access to a
broad range of good quality coal. The largest deposits
lie in the Appalachian region of western Pennsylvania,
southeastern Ohio, West Virginia and eastern Kentucky.
The distance from coal mines to major load centers in this
region — with the exception of the New England States —
rarely exceeds 200 to 250 miles, and many of the important
centers are within 100 miles.
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82
Hon. Richard D. McCarthy
the total fossil-fueled power generation in this region
2 while fuel oil accounted for 8.1 per cent. Fuel oil
3 supplies, according to the report, are almost wholly from
4 foreign sources and are used primarily in seaboard areas.
5 On the matter of interfuel competition, the report
6 has this to say:
7 "The choice between competing fuels depends not
3 only on delivered prices but on many other facts as well
9 .... In determining the type of fuel to be used for
10 electric generation, there are a number of factors to be
-^ reviewed and evaluated. Each of these has a bearing on
cost and influences the degree to which an electric
is able to meet its obligation to provide reliable service
J.O
at a reasonable price. In locations where land costs are
14
high and areas heavily congested, these costs become a
J.JD
major consideration in selecting a proper fuel. In some
16
areas, operating conditions, such as air control regulation!
17
on the west coast, may justify a premium fuel. Therefore,
18
while a general picture can be drawn concerning the
19
availability and price of fuels, the final determination
20
in selecting a fuel or fuels .., must be based on the
21
specific facts ...."
22
As an illustrating case in point consider the
23
recent case of Scenic Hudson Preservation Conference v.
24
Federal Power Commission (354 F. 2d 608-2d Cir. 1966).
25
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S3
Hon. Richard A. McCarthy
The Commission had licensed Consolidated Edison of New
2 York to construct a pumped storage generating project
3 in New York. On appeal from a citizen group concerned
4 with the aesthetic impact of that decision, the Commission
5 was reversed and ordered to consider certain alternatives
6 posed by the citizens. The Court said:
7 "If the Commission is properly to discharge its
8 duty in this regard, the record on which it bases its
g determination must be complete. The petitioners and the
10 public at large have a right to demand this completeness.
11 It is our view, and we find, that the Commission has
jjBk failed to compile a record which is sufficient to support
its decision. The Commission has ignored certain relevant
14 factors and failed to make a thorough study of possible
alternatives to the Storm King project. While the Courts
15
have no authority to concern themselves with the policies
16
of the Commission, it is their duty to see to it that the
17
Commission's decisions receive that careful consideration
18
which the statute contemplates «..."
19
More recently, the Supreme Court sent another
20
case back to the Federal Power Commission together with
21
this guidance:
22
"The test is whether the project will be in the
public interest. And that determination can be made only
24 "
after an exploration of all issues relevant to the 'public
ii
25
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84
Hon. Richard D. McCarthy
1 interest^1 including future power demand and supply,
2 alternate sources of power, the public interest in pre-
3 serving reaches of wild rivers and wilderness areas, the
4 preservation of anadromous fish for commercial and recrea-
5 tional purposes, and the protection of wildlife."
6 The overtones of these decisions are clear. The
7 Courts have recognized that a wide range of factors should
g be considered in determining and selecting the most
9 appropriate development scheme for important natural
. resources, particularly in highly congested areas.
Now 1 believe there is no question but that the
factor of pollution in Lake Erie should be in the forefroi^
12 ™
of any discussions concerning offshore exploration for new
JLo
fuel sources. Apart from the economic, aesthetic and
14
conservation impacts one fuel choice bears on another,
15
there is the much more urgent question of whether improperly
16
controlled oil and gas drilling will aggravate what is
17
already one of the most serious pollution situations in
18
the entire country. I recognize, of course, that natural
19
gas as a fuel leaves fewer objectionable pollutants than
20
coal or oil. But we have also been told by the Federal
21
Power Commission and other experts in this field that
22
desulfurization may soon restore the superiority of coal.
23
As you know, Mr. Chairman, the whole question
24
of oil pollution control is now being considered by the
25
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35
Hon. Richard D. McCarthy
Congress in the subcommittee on which I serve. Future
enactment of legislation will have a direct bearing
on the proposed oil and gas exploration in Lake Erie,
Also the International Joint Commission is looking ahead
into the international aspects of the oil and gas
exploration problem including such matters as compensation
for damages, uniformity of regulations, and production
pooling. Both New York and Ohio have vital economic
interests in Lake Erie's submerged resources, but these
States have postponed plans to lease bottomlands pending
further investigations. Michigan has stated that it will
not lease lands in Lake Erie for mineral development.
Moreover, Michigan and the Province of Ontario have agreed
not to permit any exploratory activities in Lake Huron,
Lake St. Clair, and the St. Clair and Detroit Rivers,
which brings me to the main point of my being here, and
which I regard of sufficient importance to have induced
me to arise at 5:30 this morning to come out here from
Washington, where I must return this afternoon to be on
the Floor of the House, at my own expense.
In light of these events, I think it is most
unfortunate — indeed it borders on the scandalous —
that the State of Pennsylvania is moving ahead with the
awarding of drilling contracts. Accidental spillage of
oil on a body of water such as Lake Erie can do great
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86
Hon. Richard D. McCarthy
1 damage. Experience in other offshore drilling areas has
2 shown that spills do occur even under the best of circum-
3 stances. For example, Interior Secretary Udall recently
4 found it necessary to call upon the Western Oil and Gas
5 Association to enter into an emergency effort to cope
6 with an increasing number of water pollution incidents
7 caused by oil exploration in Alaska1s Cook Inlet. I
8 feel certain that drilling operations would also tend to
9 increase navigation hazards and be inimical to yachtsmen,
1Q swimmers, water skiers and fishermen on highly used
Lake Erie.
If the Federal Water Pollution Control Adminis-
12
tration is properly to discharge its function on the basis
J.O
of existing legislative authority, then I believe it must
14
make every effort at its disposal to intervene in the
15
proposed exploration of submerged lands. What the
16
citizens of this entire basin will expect is not after-
17
the-fact prosecution of violators of existing water
18
quality standards. Rather the public must be assured
19
that the joint Federal-State water standards are backed
20
up with appropriate mechanisms to prevent any oil and gas
21
pollution that might result from exploratory and develop-
22
ment programs. The anti-pollution stipulations Pennsyl-
23
vania decides to include in its leasing arrangements
24
simply may not be adequate in terms of the other States1
25
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87
Hon. Richard D. McCarthy
views. And existing water quality standards agreed to
by the States should probably be jointly revised in order
to meet this need as well as to anticipate the Congressiona
intent with respect to pending oil pollution legislation.
I can assure you that our committee is watching
this situation very closely. As I stated earlier, Mr.
Chairman, rapid and economical treatment of the wide
variety of waste products entering Lake Erie is a priority
matter, and I think that this whole pollution effort is
now hanging in the balance. If Pennsylvania goes ahead
with this, I think the public is going to be thoroughly
disenchanted, and the integrity and the sincerity of this
conference that has been in existence now for several
years will be seriously compromised. The public just
won»t believe that this is a serious effort, if we are
going to spend billions of dollars to clean up Lake Erie,
and at the same time permit the start on a new source of
pollution. The public just is going to say, "Well, it
is a farce."
The rapid economical treatment of the wide
variety of waste products entering Lake Erie is indeed
a priority matter, vital to the health and future well-
being of this entire region. At the same time, wider
economic interests must not be overlooked. Only in this
way will this region's total resources endowment be put
-------
Hon. Richard D. McCarthy
to its best use.
2 Thank you, Mr. Chairman, and members of the panel
3 CHAIRMAN STEIN:* Thank you, Congressman McCarthy.
4 Does anyone want to make comments or observa-
5 tions?
6 Mr. Lyon.
7 MR. LYON: Congressman, I know this isn't the
8 place nor the time to get —
9 MR. McCARTHT: I think it is.
10 MR,, LYON: Fine. — to get in a public debate
H on this, but I want to tell you, first of all, that we
12 in Pennsylvania are just as concerned with pollution of
13 Lake Erie as you are. We are just as satisfied that the
14 leases that have been issued by the Commonwealth of
Pennsylvania are the strictest leases that have ever
15
been issued in the 150 years of drilling on Lake Erie.
16
From what you aaid it would make it appear that
17
there hasn't been any drilling on this lake. I think you
18
know that the whole Ontario side of the lake has been
19
leased for drilling and that there is no evidence that
20
this has caused in the recent past any pollution what-
21
soever.
22
The leases which Pennsylvania has issued are the
23
strictest leases that Pennsylvania has ever issued, and,
24
by the way, we have issued leases and permits for drilling
25
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2
3
4
5
6
7
8
9
10
11
Hon. Richard D. McCarthy
on the lake before. The drilling was done very satis-
factorily. There was no pollution whatsoever from this
drilling, and I have copies of the key provisions of
these leases here for you to see. They are more strict
than the leases issued by the Secretary of Interior for
off-shore drilling. We are very much concerned about
pollution from drilling operations, but we are convinced
that this can be done.
We have only issued leases for a very small
area of Pennsylvania — the Pennsylvania part of the
lake — while Ontario, as I said before, has successfully
drilled for several generations without causing any
13 ! pollution.
l!
14 |i I would be happy to give you a copy of the
i
i
15 [ provisions of our leases which are here, and with the
^(, jl permission of the Chairman would like to make them a
i
.. 7 '•: part of our record.
, .. ; (The above-mentioned documents follow.)
.1. C.' i
,^ i; MR. MCCARTHY: I don't doubt the accuracy of
i
^ ii your statement as regards to Pennsylvania, and I don't
i' preclude eventually getting into this. But in light
ii
I; of what New York and Ohio and Michigan have done, and
in view of the fact that today legislation on this
subject is being considered in the Congress, and in
24 !j
I:
j- light of the Court decisions that I have cited, I think
I! it is arrogant of Pennsylvania to go ahead with this.
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M-OaS-LB-68
Oil • Natural Gas
ilth of Pennsylvania
Department of Forests and Waters Contract No.
Division of Minerals
P. O. Box 1467
Barrisburg, Pennsylvania 17120
OIL AND NATURAL GAS LEASE FOR THE LANDS BENEATH LAKE ERIE
WITHIN THE JURISDICTION OP THE COMNONNEALTH OP PENNSYLVANIA
THIS AGREEMENT made and entered into on this day of , 19 ,
by and between the COMMONWEALTH OP PENNSYLVANIA, acting through the DEPARTMENT OF
FORESTS AND HATERS, hereinafter designated "Lessor," and
, a Corporation,
hereinafter designated "Lessee," with its principal place of business at __^____
and authorized to do business
in the Commonwealth of Pennsylvania.
WITNESSETHi THAT,
WHEREAS, Lessor is authorized by Act 293, dated July 5, 1957, amending the
Administrative Code of 1929, ( P. L. 177), Article XVIII, Section 1802, paragraph
(g), to make and execute contracts or leases in the name of the Commonwealth for
the removal of oil and natural gas beneath those waters of Lake Erie owned by the
Commonwealth whenever it shall appear to the satisfaction of Lessor that it would
be for the best interests of the Commonwealth to make such removal; and
WHEREAS, Lessor made a determination that the leasing of oil and natural gas rights
in the premises hereinafter described will be for the best interests of the
Commonwealth and authorized leasing of the same; and
WHEREAS, the proposed leasing of said lands was duly advertised as required by law.
Upon the opening of the bids, submitted pursuant to such advertising, Lessee herein
was found to be the highest responsible bidder.
MOW THEREFORE, in consideration of the sum of
Dollars ($ ), paid to
Lessor by Lessee (the receipt whereof is hereby acknowledged by Lessor) and other
mutual covenants and agreements hereinafter set forth, Lessor does hereby grant,
demise, lease, and let exclusively unto Lessee for the purpose of exploring for,
drilling for, operating for, producing, removing, and disposing of oil, natural gas,
and liquid hydrocarbons; at locations subject to the approval of Lessor, the
drilling of wells, the laying of pipelines, including any and all necessary
appurtenances, attachments and cathodic protection devices and the building and
installation of approved tanks, towers, stations, and structures thereon to produce,
save, take care of, and transport said products, in lands beneath all that/those
certain block/blocks of Lake Erie comprising acres, more particularly
described on the Oil and Natural Gas Lease Attachment, identified as Exhibit "A"
and as shown on the Map, identified as Exhibit "B" which are attached hereto and
made a part hereof, hereinafter referred to as the "leased premises." It is
understood that the aforesaid acreage and the location shown on the Map,
identified as Exhibit "B" are approximate. For the purpose of calculating any
payments based on acreage, the acreage aforementioned will be used.
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M-0&G-LE-68
Oil & Natural Gas Lease
1. INTERPRETATION AND LIMITATION OF LEASE
1.1 The rights granted in this lease apply only to oil, natural
gas and liquid hydrocarbons.
Io2 In this leaset oil; natural gas, and liquid hydrocarbons
shall not mean and include helium or any sulphur produced in association with, the
foregoing.
1.3 Rights to all minerals and substances other than oil,
natural gas and liquid hydrocarbons on or beneath the bed of Lake Erie are reserved
to the nommonwealth of Pennsylvania.
1.4 The right to use any part of the leased premises for gas
or LPG (fluids) storage is expressly reserved to the Commonwealth of Pennsylvania.
2. TERM OR PERIOD
2.1 It is agreed that this lease shall remain in force for a
term of ten (10) years from the date first written above, subject to all terms and
conditions hereinafter set forth and shall continue from year to year thereafter so
long as oil or gas is produced in paying quantities from said land or as long as
Lessee is engaged in bona fide attempts to secure or restore the production of oil,
natural gas and liquid hydrocarbons by conducting drilling, or reworking operations
on the leased premises or engaged in the abandonment, or removal of equipment
therefrom.
2.2 In the event that Lessee is engaged in drilling operations
or is prevented by weather or water conditions from carrying on drilling operations
in progress at the expiration of the ten CIO) year term, Lessor may upon applica-
tion in writing within thirty (30) days following the ten (10) year term extend
the lease for a period not to exceed six (6) months.
2.3 The months from November to March, both inclusive, shall not
be computed in the extended period.
3. RENTAL
3.1 The first annual rental will be the amount of the bonus bid
for the above described premises and is payable upon execution of this lease by
Leeeee.
3.2 After the first year, Lessee agrees to pay Lessor an annual
rental in advance for the above described premises at the rate of ONE DOLLAR ($1.00)
per year for each acre of this lease retained by Lessee. The rental shall be
paid on or before the anniversary date of this lease. Each successive rental
thereafter shall be paid on or before the anniversary date of this lease„
3.3 The completion of each well on the leased premises to or
through the Ordovician Queenston Formation,, or shallower depths if approved as
stipulated, shall reduce the rental set out in the preceding paragraph by the amount
of rental on the number of acres attributable to each well as provided in the
section entitled, "SUBSEQUENT HELLS," which reduction shall become effective on the
next rental date after such well has been completed and shall apply whether the well
is a producer or a dry hole. If such wells are drilled on a unit created by a
spacing order of the Pennsylvania Oil and Gas Conservation Commission, or on a unit
created by a voluntary unitization agreement entered into with the approval of
Lessor, a well drilled on such unit shall reduce the rental prescribed above by
the amount of rental attributable to the acreage contained in the portion of the
leased premises included in such unit.
- 2 -
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M-0&G-LE-68
Oil s Natural Gas Lease
4. OIL ROYALTY
4.1 Lessee shall pay to Lessor, as royalty, one-eighth (1/8'
of the field price per barrel (42 U.S. Gallons) at 60° F. produced and saved
from the leased premises for all oil, condensate and other liquid hydrocarbons
of like grade and gravity which prevails in that area on the day such oil and
other products are run into the pipeline or into storage tanks.
4.2 Lessor may at his option, however, demand that Lessee
deliver to the credit of Lessor, as royalty, free of cost, in the pipeline to
which Lessee may connect its wells, the equal one-eighth (1/8} part of all oil,
condensate, and other liquid hydrocarbons produced and saved from the leased
premises.
4.3 If gas, oil, condensate, and other liquid hydrocarbons,
each in paying quantities, should be developed from the same wall, then the gas
and the oil, condensate and other liquid hydrocarbons shall be saved,,
4.4 Lessee shall gauge, measure, sample, and test all
petroleum and petroleum products in accordance with standard practices as outlined
in American Petroleum Institute Standard 2500, January 1, 1955, or as subsequently
amended by the same authority, and at a temperature base of 60° f. Lessee shall
provide tanks for accurately measuring the crude oil produced from the lease.
Positive copies of 100 percent capacity tank tables are to be furnished to Lessor
or other acceptable standards of measuring production.
5. GAS ROYALTY
5.1 To pay Lessor, as royalty. Four Cents ($0.04) par thousand
cubic feet (Mcf) or one-eighth (1/8) of the market value, thereof, at the mouth
of well, whichever is higher for all gas and other gaseous substances produced
and -saved from each gas well drilled on the leased premises.
6. SHUT-IN WELLS
6.1 If at any. time or times there is on the leased premises a
well or wells capable of producing oil or gas or both and the well or wells
are shut-in, suspended, or otherwise not produced and the gas is not used or
marketed therefrom during any year ending on an anniversary date of this lease;
Lessee shall pay Lessor at the expiration of each said year for that year a sum
equal to Two Dollars ($2.00) per acre for the number of acres then covered by
this lease for each such well and each such well shall be deemed to be a producing
well hereunder. The failure to make such payment shall subject the lease to
forfeiture.
7. GAS MEASUREMENT
7.1 All gas producing wells shall be equipped with adequate
facilities for continuously metering gas suitably safeguarded from weather and
from interference by unauthorized persons, and no gas shall'be produced at a well
unless it is metered, except that Lessor may give permission to dispense with
the installation of a meter or facilities for metering and permit group meter
measurements instead, The meter charts and relevant records shall be kept in a
permanent file and be made available to Lessor on request.
7.2 Where, in the opinion of Lessor, adequate measurements
are not being made of the gas produced from a well or wells, Lessor may require
that the well or wells be closed in until such time as provisions for adequate
measurements have been made.
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M-0&G-LE-68
Oil & Natural Gas Lease
7.3 The volume of gas produced, saved, and marketed shall be
measured according to Boyle's Law for the measurement of gas under varying
pressures with deviations therefrom, as provided in paragraph e. below, on the
measurement basis hereinafter specified and shall be determined as follows:
a. The unit of volume for the purpose of measurement shall be
one (1) cubic foot of gas at a temperature of sixty degrees $60®) Fahrenheit and
an absolute pressure of 14.73 pounds per square inch.
b. The average absolute atmospheric pressure shall be assumed
to be 14.4 pounds to the square inch, irrespective of actual elevation or location
of Point of Delivery above sea level or variations in such atmospheric pressure
from time to time.
c. The temperature of the gas passing the meters shall be
determined: (1) By, the continuous use of a recording thermometer so installed
that it may properly record the temperature of the gas flowing through the meters.
The arithmetic average of the temperature recorded each 24-hour day shall be used
in computing gas volumes; (2) If a recording thermometer is not installed, or if
installed and not operating properly, an average flowing temperature of fifty
degrees (50°) Farhenheit shall be used in computing gas volume.
d. The specific gravity of the gas shall be determined by
tests made by the use of an Edwards or Acme gravity balance, at intervals of
three (3) months, or at such intervals as are found necessary in practice,,
Specific gravity so determined shall be used in computing gas volumes„
e. The deviation of the natural gas from Boyle's Law shall
be determined by tests at intervals of three (3) months or at such other shorter
intervals as are found necessary in practice. The apparatus and the method to
be used in making said test shall be in accordance with the recommendations of
the National Bureau of Standards of the Department of Commerce, or Report No. 3
of the Gas Measurement Committee of the American Gas Association or any amendments
thereof, or any other mutually agreed upon method,, The results of such tests
shall be used in computing the volume of gas delivered hereunder0
7.4 No gas from, any gas well, except such as is produced in a
cleanup period not to exceed 48 hours after any completion or stimulation operation,
plus that used for the controlled testing of the well's potential in a period not
to exceed 24 hours, plus that used in any operational requirements, shall be
permitted to escape into the air. Extensions of these time periods shall be granted
by Lessor upon application if the Lessee demonstrates sufficient good cause,
7.5 All gas wells capable of production shall be equipped with
wellhead controls adequate to properly contain and control the flow thereof„
7.6 Lessor may require the periodic testing of any gas well in
such a manner as Lessor may prescribe in order to establish the producing capacity
and characteristics of the well.
8. STATEMENT
8.1 Lessee shall submit statements to the office of Lessor at
Harrisburg, Pennsylvania, by individual wells of the production and sales of oil,
gas, other hydrocarbon products, and other products not later than the twenty-fifth
(25th) day of each calendar month covering production and sales for the preceding
calendar month.
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M-OSG-LE-68
Oil s Natural Gas Lease
9. PAYMENTS
9.1 Lessee shall be held responsible for the payment of all
royalties, which shall be mailed to the office of Lessor at Harrisburg,
Pennsylvania and made payable to Lessor. Payments of royalties shall be made
not later than the twenty-fifth (25th) day of each calendar month covering
production or sales during the preceding calendar month.
10. PROTECTION AND CONSERVATION
10.1 Lessee agrees to conduct all operations in such a manner
as to comply with the provisions set fbrth in the STIPULATIONS FOR THE PROTECTION
AND CONSERVATION OF THE SUBMERGED LANDS AND THE WATERS OF LAKE ERIE, identified
as Exhibit "C" attached hereto and made a part hereof.
11. OPERATIONS
11.1 Lessee agrees that it will carry on operations under this
agreement with all due diligence and in a competent and workmanlike manner, in
accordance with the best offshore oil and gas field practices.
12. FIRST WELL
12.1 Lessee shall drill a well on each block leased or on
unitised acreage containing a portion of a lease block, but the well need not
necessarily be on the portion of the lease block contained within the unit.
Lessee agrees to commence and proceed with operations for the drilling of a well
to the Ordovician Queenston Formation, at a location approved by Lessor, within
five (S) years from the date first written above, and shall continue operations
in a workmanlike manner to complete said well, and all wells herein stipulated,
with due diligence. If, however, gas or oil or both are found in marketable
quantities in a shallower formation, that well may satisfy the first well
requirements of this paragraph upon the written approval of Lessor. In the
event, the aforesaid well is not commenced within the above mentioned five (5)
year period, the lease shall be terminated in its entirety.
13. WELL SPACING
13.1 All wells drilled in Lake Erie in the absence of a spacing
order of the Pennsylvania Oil and Gas Conservation Commission shall be subject to
a spacing density of one gas well per tract (approximately 630 acres - 1 Minute
of Latitude by 1 Minute of Longitude). Oil well spacing will be no more than
one well per approximately 40 acres, or 16 wells per tract. Exceptions to these
spacings may be allowed by Lessor upon proper justification by Lessee. Such
exceptions must be authorized in writing.
13.2 The first well in each tract (1 Minute of Latitude by
1 Minute of Longitude) is to be located in the center of the northwest quarter
of the northwest quarter (NH NW) of the tract for flexibility in well spacing
programs, subject to approval of Lessor. Exceptions to this location may be
allowed if Lessee shall submit to Lessor the information upon which such
exception is based. Such exceptions must be authorized in writing.
13,3 The spacing of wells shall also be subject to all
regulations and restrictions imposed by the United states Coast Guard and the
United States Army Corps of Engineers in regard to shipping lanes, docks, and
other areas under their jurisdiction.
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M-OSG-LE-68
Oil s Natural Gas Lease
14. SUBSEQUENT WELLS
14.1 If the well or wells required under Paragraph 12»1
hereof or any subsequent well produces oil or gas or both in marketable
quantities, then Lessee shall drill an additional well or wells through the
producing formation during the same lease year,, Lessee will commence and
proceed with the drilling of at least one (1) well to or through the producing
formation on each lease block, each and every lease year thereafter so long
as successive wells have marketable production. Wells may be drilled on a
unit containing a portion of a lease block, but not necessarily on the lease
block portion of the unit. If Lessee concludes that an additional well or
wells is not justified, then Lessee shall submit to Lessor the information
upon which the conclusion is based. If Lessor determines upon review of such
information that an additional well should be drilled, then Lessee shall have
the option of drilling an additional well within six (6) months from Lessor's
written determination or releasing all of the acreage covered by the lease
except for forty (40) acres around each well from which oil is produced as
the principal product and six hundred and thirty (630) acres around each
well from which gas is being produced as the principal product.
14.2 Lessee shall not be required under this provision to
drill more wells than required or allowed under any spacing order, rule, or
regulation of the Pennsylvania Oil and Gas Conservation Commission, or in the
absence of any such order, more than one well for each forty (40) acres where
oil is being produced as the principal product of such well, or more than six
hundred and thirty (630) acres where gas is being produced as the principal
product of such well.
14.3 The amount of acreage included in a spacing unit by the
Pennsylvania Oil and Gas Conservation Commission or in the absence of an order by
such Commission, forty (40) acres where oil is being produced as the principal
product of such well, or six hundred and thirty (630) acres where gas is being
produced as the principal product of such well, shall be referred to elsewhere
in the lease as acreage attributable to each well,,
15. RESTRICTED AMD RESERVED AREAS
15.1 The areas in Lake Erie within one-half mile of the
International Boundary, the Ohio Boundary, and the New York Boundary are
restricted drilling areas. No wells may be drilled in these areas without
written permission of Lessor. These areas may be drained without a competitive
offset program unless geological conditions warrant closer spacing. Where
feasible, these areas will be unitized for proper spacing and management.
15.2 An area in Lake Erie along the shoreline and in the
vicinity of the Presque Isle Peninsula is reserved. This area is shown on the
Map, identified as Exhibit "B" which is attached hereto and made a part hereof.
16. DEVELOPMENT
16.1 Lessee agrees to conduct the drilling of all wells as a
reasonable and prudent operator would drill under the same or similar
circumstances. After discovery of oil or gas on the leased premises, Lessee
shall develop and produce all wells from the described leased premises in an
efficient and economic manner, without waste, and to the best advantage of
Lessor. Lessee will plan and develop all wells in accordance with the rules
and regulations of the Oil and Gas Division, Pennsylvania Department of Mines
and Mineral Industries.
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16.2 It is understood and agreed that Lessee is privileged
to develop oil or gas from formations shallower or deeper than the Ordovician
Queenston Formation provided that commitments and provisions of this lease
are at all times fulfilled. The operator shall apply the same degree of
precaution and control as outlined for the Ordovician Queenston Formation
operations to drilling, casing, and completing operations of the other
formations, both below and above the Queenston Formation.
17. OFFSETS
17.1 Lessee agrees to promptly offset within ninety (90)
days any wells located on other blocks owned by the Commonwealth leased to
other parties than Lessee at a lesser royalty or owned by the States of Ohio
or New York or the Canadian Province of Ontario, which are within 2,260 feet
of any boundary described in this lease and are producing gas or oil in marketable
quantities; or any well that is completed within the radius of the drainage
area set by an order of the Pennsylvania Oil and Gas Conservation Commission.
This provision may be waived by Lessor in writing upon Lessee's application,
when evidence shows that such offsetting well is unnecessary or economically
unsound. However, if Lessor determines in writing that an offsetting well should be
drilled, Lessee will have the option of drilling the well as required or
paying to the Commonwealth compensatory .royalty on production from the offset
well. This payment shall be based on the ratio the affected acreage bears
to the total acreage drained by the well. Lessee may at its option release
all of the acreage of the leased premises except forty (40) acres around
each well from which oil is being produced as the principal, product and six
hundred and thirty (630) acres around each well from which .gas is being produced
as the principal product. Lessee may also release that drainage acreage
attributable to a well by an order of the Pennsylvania Oil and Gas Conservation
Commission if the affected acreage falls within an area subject to such a
spacing order.
17.2 In the event that Lessee is prevented by weather or
by ice conditions in the lake from drilling a required offset well during
the ninety (90) day time period, Lessee may apply to Lessor for an extension
of the time limit not to exceed six (6) months. The months from November to
March, both inclusive, shall not be computed in the extended period.
17.3 No well on the leased premises shall be shut-in if
drainage will occur through offsetting wells within the aforeprescribed distances
for oil and gas wells. If such offsetting gas wells are on compression,
the offset wells on the leased premises shall be placed on.compression.
]7.4 Lessee agrees that any well along the boundary line,
contingent to other lands where oil and gas are owned by the Commonwealth,
shall be located at least 660 feet from such boundary; or that distance from
such boundary line which will be the .radius of the drainage area set forth
by an-order of the Pennsylvania Oil and Gas Conservation Commission, if the
area is subject to such a spacing order. Upon application by Lessee, this
provision may be waived in writing by Lessor when deemed in the best interest
of the Commonwealth and not in an area subject to a spacing order of the
Pennsylvania Oil and Gas Conservation Commissiono
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18. UNZTZZATZON
18.1 Lessee shall have the right at any time, whan this
leas* is offsat by blooka on which oil and gas rights ara laasad to other
parties, to unitice this lease in whole or in part to secure the oost efficient
and economical development and production of the oil and gas resources of the
reservoir or reservoirs and in the best interests of sound management and
production practices. Lessee may participate in such joint operating and
development agreements to prevent drilling of an excessive number of wells,
or of wells located too close to the boundary of the leased premises. Such
joint operating agreements and termination thereof shall be approved in writing
by Lessor. Zf such joint operating agreements or unit agreements are entered
into pursuant to a valid Spacing or Zntegration Order of the Pennsylvania Oil
and gas Conservation Commission, the approval of Lessor shall not be required.
18.2 Drilling, or reworking operations upon, or production
of oil and gas from, any part of any such unit shall be treated for all purposes
hereunder as operations upon or production from the leased premises.
18.3 Upon production from any part of any such unit, Lessor
shall be entitled to and Lessee shall pay royalties calculated as followsi
there shall be allocated to the portion of this lease included in such unit
a fractional part of such production on the basis the ratio of the acres
from the leased premises included in such unit bears to the total number
of acres included in the unitised area and Lessor shall be entitled to the
royalties provided for in this lease on such fractional part of such production
and no more; provided, that if Commonwealth authorities shall prescribe a
different method of allocation, the method so prescribed shall prevail.
19 PIPELINES
19.1 Lessee is herewith granted the right to lay any necessary
pipelines at or below the level of the lake bottom on or under the leased
premises for the sole purpose of removing oil, gas or other materials from
the block or blocks under lease. Any pipelines under shipping lanes and
anchorages must be buried. A route map for each line .shall be submitted
to the Lessor, the United States Coast Guard, and the United States Army
Corps of Engineers for their approval in writing as to location ninety (90)
days prior to the laying of that pipeline.
19.2 Where the Lessee's pipelines cross offshore blocks
not already leased to it, Lessee must enter into a pipeline right of way
agreement with Lessor. Lessor reserves the right to grant pipeline rights
of way across the block or blocks leased to other lessees of the Commonwealth
providing the opeations of Lessee are not unduly hampered thereby.
19.3 All pipelines shall be laid on or below the lake bottom.
Before a pipeline may be used to transport any fluids not indigenous to the
waters of the lake, it shall be tested with fresh water to a pressure of
twice the anticipated working pressure. Mo gas or fluids may be transported
in pipelines until approval is given by Lessor.
20. LESSEE'S USB
20.1 Lessee shall have the privilege of using sufficient
9as from the leased premises, free of royalty, to run all machinery neoessary
for drilling thereoa.
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21. DRILLING
21.1 Prior to beginning any drilling operations, Lease*
shall submit to Lessor, the United States Coast Guard and the United States
Army Corps of Engineers, for their approval, a plan of the drilling program
to be carried out. This plan shall include:
(a) a location plat of the proposed well.
Scale 1 inch = 400 feet, which shows
and contains: (1) the proposed drill-
ing unit and its position in the lease
block; (2) its distance from the bound-
ary of the proposed drilling unit; and
(3) unitization with adjacent tracts.
The well location must be surveyed to the
nearest one-half second (1/2") of longi-
tude and latitude. The well location shall
be verified and amended as required by
precise survey with the drilling rig on
location and the elevation above sea level
provided. If the well is to be direction-
ally drilled, the projected bottom hole
location of the well is to be shown;
(b) designation of the well by number and
lease block;
(c) the geological formation to be tested or
used and the proposed total depth;
(d) the type of drilling tools or equipment
to be used;
(e) the plan for disposal of water, drilling
fluid, and other waste substances result-
ing from obtained or produced in connection
with exploration, drilling, or production
of oil and gas;
(f) a detailed plan for casing and cementing
of the proposed well;
(g) a detailed plan for plugging and abandon-
ing the proposed well if the well should
prove nonproductive.
21.2 No well shall be commenced, deepened, reopened, or
plugged back without authorization of Lessor in writing and before a permit
has been issued by the Oil and Gas Division of the Pennsylvania
Department of Mines and Mineral Industries. Lessor shall be notified at
or immediately prior to the start of drilling operations.
21.3 The location of a well shall not be changed without
prior written approval of Lessor.
21.4 With the first show of gas or oil, drilling operations
must be suspended and the casing tested and found to be free from all leaks
before drilling is continued.
21.5 At the end of every drilling or plugging operation,
Lessee shall ensure that any platform, piling, anchor post or other obstructions
arc removed as soon as is reasonably possible, and in any case within thirty
(30) days. & permanent platform of approved design may be installed for
the production of oil or gas.
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22. IDENTIFICATION
22.1 Lessee shall display a prominent sign at all structures
placed in the lake for drilling, producing, or reconditioning a well, or
for handling or processing produced fluids. This sign shall be located in
a conspicuous place and shall include the name of Lessee, the name and number
of the well or facility, and a description of the well or facility location
by latitude and longitude. The sign shall not be removed or changed without
written approval of Lessor. In case of lake bottom completions or subbottom
completions, identification satisfactory to Lessor shall be placed at the
wellhead.
23. DEVIATION AND DIRECTIONAL WELL SURVEYS
23.1 Lessee shall drill a straight hole to the betft of
his ability. The maximum point at which a well penetrates a producing formation
shall not vary unreasonably from the vertical drawn from the center of the
hole at the surface. Minor deviations will be permitted, for short distances,
to straighten the hole, to sidetrack junk or to correct other mechanical
difficulties.
23.2 Lessee shall run a device for measuring deviation
from the vertical every five hundred (500) feet and at the total depth and
shall provide Lessor with this information. If Lessor determines from this
information that a well has been deviated excessively, he shall have the
right to require Lessee to have a complete angular deviation and directional
survey made in the well by an approved well surveying company and certified
as to correctness at Lessee's sole risk and expense. In the event the survey
reveals any unreasonable violations of the applicable well location or spacing
regulations, Lessor may either require the excessively deviated well to be
redrilled or to be plugged and abandoned by Lessee.
23.3 If Lessee fails to take a deviation survey, Lessor
may order that, until the survey is made, no further drilling be done; or
if the well has been placed on production, no further production be taken.
23.4 Lessee may conduct directional drilling operations
upon the approval of Lessor in writing so long as, at depth, there is no
encroachment upon adjoining leaseholds or drilling units. Lessee shall make
written application to Lessor and provide the following information!
(a) names of field or area, pool, block,
tract and well number;
(b) description of the well location and
of the target bottomhole location in
feet from the two nearest lease bound-
aries ;
(c) reason for the proposed intentional
deviation;
(d) names and addresses of the offsetting
lessees and a statement that each has
been sent a copy of the application and
a map by registered mail, and the date
of such mailing. The map must be drawn
to a suitable scale which shows the
well; all offsetting leases and the
wells located thereon; the pool in which
they are completed; and the names of the
offsetting lessees.
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23.5 Within thirty (30) days after the completion of an
intentionally deviated well, a complete angular deviation and directional
aurvey of the well obtained by an approved well surveying company and certified
as to correctness shall be furnished to Lessor.
24. BLOWOUT PREVENTERS AND CASING HEADS
24.1 Lessee shall maintain at all times the casing control
equipment in such condition that will effectively control any oil, gas, or
water encountered during operations in a well being drilled, tested, completed,
of reconditioned. All drilling wells or wells being serviced by a rig, shall
be equipped with working blowout control equipment tested to twice normal
hydrostatic pressure for the depth drilled that will completely close off
the open hole and will completely close off around any equipment being employed
in the well, and will be equipped with a bleed-off valve of the proper size
and working pressure. If, the blowout preventer is hydraulically operated,
adequate pressure shall at all times be available for efficient operations.
Blowout control equipment must be capable in case of an emergency of shutting
in the well at a point at least fifty (SO) feet from the wellhead.
24.2 when rotary drilling equipment is used during drilling,
all wells shall be fitted with a suitable valve in proper working order for
the purpose of shutting off the hose connections should the hose blow out.
24.3 All wells shall be equipped with casing heads of rated
working pressure of twice normal hydrostatic pressure for the depth drilled,
with adequate connections and valves available to permit pumping mud-laden
fluid between any two strings of casing at the surface. Reconditioning
shall be required on any well showing pressure on the casing head or leaking
gas or oil between the oil string and next larger size casing string, when
in the opinion of Lessor such pressures or leakages assume hazardous proportions
or indicate the existence of underground waste. Mud-laden fluids may be
pumped between any two strings of casing at the top of the hole, but no cement
shall be used except by special permission of Lessor. No casing shall be
perforated until adequate control equipment has been installed and in good
working order. Such control equipment shall consist of Master Valve and
Lubricator, or their equivalent. The entire equipment shall be in good working
order and condition at all times.
24.4 while a well is being drilled, Lessee shall test control
equipment daily and record the results of such tests daily.
24.5 whenever an inspection shows that the casing or control
equipment at a well is not adequate, Lessor may prescribe remedial measures
which shall be complied with before any further drilling.
25. DRILLING MUDS
25.1 When drilling with rotary tools, drilling mud of sufficient
weight, capable of controlling formation pressures and preventing oil and
gas blowouts or flows of water, shall be maintained on the location of a
drilling well at all times.
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26. CASING PROGRAMS
26.1 All casing, tubing, and equipment used in the drilling
of a well shall be in good condition and adequate for the depths to be drilled
and the pressures that may be encountered.
26.2 Lessee shall comply with the oil and gas statutes,
rules and regulations of the Commonwealth with regard to preventing the escape
of oil, gas, or water but of one stratum into another, preventing the pollution
of any fresh water supply and preventing blowouts.
26.3 When drilling with cable tools, a conductor string
of new or reconditioned casing shall be driven into the lake bed. All wells
must be equipped with a string of surface casing which shall be set and cemented
at a sufficient depth below the top of a competent rock formation so that
all fresh water reservoirs will be confined. Lessor shall set depth requirements
for each well based on the depth of fresh water reservoirs in the area,. This
surface casing shall be new or reconditioned of sufficient tact to withstand
pressures for the depth at which it is run* Sufficient cement shall be used
to fill the calculated annular space back of the surface casing to the lake
bed plus 15%. Cement shall be allowed to stand a minimum of 12 hours under
pressure and a total of 24 hours before drilling plug or beginning tests„
The term "under pressure" as used herein shall be considered as being complied
with, when one or more back pressure valves are found to be holding. Casing
shall be tested by pump pressure to at least 1,000 pounds per square inch*
If, at the end of 30 minutes the pressure shows a drop of 50 pounds per square
inch or more, the casing shall be considered unsatisfactory for its purpose.
After the corrective operation, the casing shall be again tested in the same
manner before drilling continues.
26.4 When cable tool drilling is used, intermediate strings
of casing shall be set inside the surface casing if it is necessary to confine
any gas, oil, or water originating from intermediate horizons prior to the
Betting and cementing of the production string of casing. Intermediate casing
may be cemented through any potential producing horizon with cementing procedures
approved by Lessor.
26.5 The producing or oil string shall be new or reconditioned
seamless pipe of not less than 4-1/2 inch outside diameter with a mill test
of at least twice normal hydrostatic pressure for the depth drilled. After
cementing, the casing shall be tested by pump pressure to at least twice
normal hydrostatic pressure for the depth drilled. If at the end of 30 minutes,
pressure shows a drop of 50 pounds per square inch or more, the casing shall
be repaired sufficient to withstand the pressure test described herein. After
the corrective operation, the casing shall again be tested in the same manner.
Cementing shall be made by pump and plug method. Sufficient cement shall
be used above the shoe to fill the calculated annular space back of the casing
to the lake bed plus 15%. Cement shall be allowed to stand a minimum of
24 hours before drilling plug or initiating tests. In the event the producing
string is set through all known producing formations, a minimum of 20 feet
of cement shall remain in the bottom of the casing.
26.6 The waiting period on cement may be reduced from 24
hours upon approval of Lessor.
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27. COMPLETION OP WELLS
27.1 All reasonable preparations and precautions shall be made
before a well is drilled in for the preventing of waste and the contamination
of the lake by oil, gas or well fluids. Reasonable provision shall be made
for producing and storage equipment before a well is placed on production.
27.2 Lessee shall insure that the production casing is
cemented to surface before production commences.
27.3 Lessee shall complete and connect, all producing wells
to pipelines as near as practical to the level of the lake bottom. The wellhead
is to be encased in a cellar below lake bottom. The maximum height of the
wellhead assembly above the lake bed may be 2-1/2 feet.upon written approval
of Lessor. All wells shall be cleaned, tested, and produced in a manner
to prevent pollution of the lake. Lessee shall employ procedures and use
equipment that will eliminate or minimize any fire hazard. No productione
processing, or. any other type of platform can be erected unless Approved
in writing by Lessor, the United States Coast Guard, and the United States
Army Corps of Engineers.
27.4 When and if the area is designated as a primary trawling
area, the wellhead shall be fitted .with a trawl deflector of approved design.
When and if the area is designated for other types of commercial fishing,
the wellhead shall be fitted with a protective device of approved design*
27.5 Lessee shall not commingle the production from two
or more reservoirs unless specific written permission for such commingling
has been granted by Lessor.
27.6 An accepted device (tubing safety valves) approved
by Lessor shall be installed below the elevation of the lake bottom on all
producing wells in such a manner that will prevent the escape of oil, gas,
or water in the event the wellhead equipment is damaged.
27.8 If shown to be more practicable, other completion
methods may be used if approved.in writing by Lessor.
28. REPAIR OF EQUIPMENT AND PREVENTION OF WASTE
28.1 Lessee shall at all times during the continuance and
delivery of oil, gas and liquid hydrocarbons to the market, keep, maintain
and repair its pipelines and equipment to the end that there shall be no
leaks or waste of oil, gas and liquid hydrocarbons. Lessee shall promptly
repair or cause to be repaired any structures or other facilities' which may
be damaged by his operations.
28.2 Lessee, his agents, contractors and subcontractors,
shall not allow any well to blow open, except in case of an emergency, over
twenty-four (24) hours after drilling-in. Lessee shall pay Lessor at the
regular royalty rate for any gas allowed to escape, except in case of an
emergency, after this initial twenty-four (24) hour period. Such gas shall
be estimated by a method approved by Lessor in writing.
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28.3 After an initial open flow teat has been taken, all
future determinations of open flow potential shall be made by the United
States Bureau of Mines, Back-Pressure Test Method (USBM-Monograph 7) or by
other methods standard to the industry and approved by Lessor.
28.4 The determination of the initial open flow of a well
shall be made before any attempts are undertaken to increase the flow of
such well through mechanical or chemical stimulation„'
28.5 At least every six (6) months, Lessee shall determine
the open flow of each producing well as required in Section 28.3 and will
also take a twenty-four (24) hour reservoir pressure test and shall.furnish
Lessor with the results of all such tests. Shut-in pressures.shall be taken
with a deadweight gauge, after a minimum shut-in time period equal to the
period required to reach stabilization or twenty-four .{24) hours, whichever
is the lesser.
29. APPLICABILITY TO OTHER OPERATIONS
29.1 In addition to being applicable to newly drilled wells,
the applicable provisions of the foregoing sections shall be in effect for
deepening, plug back and conversion operations.
30. TEMPORARY ABANDONMENT
30.1 Lessee shall not temporarily abandon any well without
written permission from Lessor. Permission for such temporary abandoment may
be granted by Lessor upon written application by Lessee showing sufficient
good cause.
30.2 Upon termination of the period of temporary abandonment,
Lessee must either resume operations or permanently plug and abandon the
well as hereinafter provided.
31. PERMANENT ABANDONMENT
31.1 If a new well is found to be dry or nonproductive,
it shall be plugged and abandoned as hereinafter provided. Lessee shall
give prior notice to Lessor of the intent to plug and abandon a new well
so that plugging operations may be witnessed,
31.2 If a well that has been on production is to be plugged
and abandoned, Lessee shall notify Lessor and the Oil and Gas Division,
Pennsylvania Department of Mines and Mineral Industries, when actual plugging
and abandonment operations are to be started so that they may be witnessed.
31.3 Lessee shall not abandon any well, wells, or lease
without having plugged and abandoned such well or wells and effected the
adequate restoration of the lake bed..' A plugging certificate shall, be filed
with the Oil and Gas Division, Pennsylvania Department of Mines.and Mineral
Industries.
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32. PLUGGING METHOD
32.1 All wells shall be plugged by filling the hole completely
with cement including the inside and annulus of all casing left in the well.
Any casing left in the well shall be cut off at the lake bottom or below,
32.2 Lessee shall plug any well in a manner that:
(a) ensures protection for potential oil
and gas producing reservoirs;
(b) prevents the harmful infiltration of
water into oil, gas, water, or salt
formations;
(c) constitutes no hazard to users of the
surface;
(d) retains all fluids in their source
formations; and
(e) seals off reservoirs from those
above and below„
32.3 Lessee shall also plug and abandon all wells on the
leased premises in accordance with the requirements of the Pennsylvania Gas
Operations, Well Drilling, Petroleum, and Coal Mining Act of 1955 administered
by the Oil and Gas Division, Pennsylvania Department of Mines and Mineral
Industries, and all other applicable laws of the Commonwealth. A copy of
the plugging certificate approved by the Oil and Gas Division shall be supplied
to Lessor. Failure to comply with the above plugging requirement will be
reason for cancellation of this lease and the posted bond will be forfeited.
in order that Lessor may properly plug such wells.
34. PRODUCTION AND TRANSPORTATION
34.1 Construction of any permanent or semipermanent structures
to be utilized for production, storage, processing, or transportation of
any fluids produced from wells must be approved in writing by Lessor, the
United States Coast Guard, and the United States Army Corps of Engineers.
Detailed plans for any such structures must be submitted to Lessor at least
twenty (20) days prior to commencement of construction. No construction
shall begin until such plan is approved.
34.2 All platforms utilized for supporting pumping and
other equipment shall be firmly anchored in the lake bottom. Such platforms
shall be of fabricated steel design of rigid construction able to withstand
all adverse weather conditions including moving ice. Such platforms may
also be utilized for other operations incident to well operation such as
paraffin solvent injection, temporary oil and waste storage, oil and gas
processing equipment such as separators, gas heaters, and heater treaters.
All such platforms shall be designed in such a manner that will confine any
fluids which could escape into the lake thereby causing contamination or
pollution in any degree. All platforms shall be approved and marked with
suitable navigation markers as required by the United States Coast Guard
and United States Army Corps of Engineers.
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35. WELL RECORDS, LOGS, AND REPORTS
35.1 Lessee shall keep a daily drilling record which will
describe the formations penetrated, depth and volumes of water, oil, gas,
and liquid hydrocarbons found while drilling each well on the leased premises.
Any other data that is usually acquired in the normal procedure of drilling
shall be recorded and furnished to Lessor, such as drilling time, rate of
fill-up, lost circulation zones, caving strata, casing records, core analyses,
mud log analyses, perforation, and production test data, within thirty (30)
days after completion of each well, Lessee shall furnish Lessor an accurate
location plat, a detailed lithologic log, and history of the well including
geologic, drillers, electrical, and any other well surveys made to-obtain
subsurface information In addition, any logs, records, and data pertaining
to the completion or treatment of wells shall be made available within thirty
(30) days after they are made. A drillers log shall be furnished to the Oil
and Gas Division, Pennsylvania Department of Mines and Mineral Industries,
in accordance with the requirements of the Pennsylvania Gas Operations, Well
Drilling, Petroleum, and Coal Mining Act of 1955. Upon request; samples
of all formations penetrated and parts of cores taken, accurately labled
with the name of the well, and interval of depth shall be furnished to Lessor
at Lessee's expense. Lessee shall also ship a complete sample suite to the
Pennsylvania State Geological Survey, State Office Building, 300 Liberty
Avenue, Pittsburgh, Pennsylvania 15222, within thirty (30) days after completion
of each well.
36. AUDITS
36.1 Lessee shall furnish to Lessor, at its request, the
meter charts covering the production of each well on the lease. Lessor may
keep such charts for examination for a period not to exceed ninety (90) days.
Lessee shall furnish or secure for Department promptly any statements furnished
to Lessee by any person or corporation to whom Lessee delivers for sale or
transport any oil, gas, and other products produced from the leased premises.
36c2 Lessee further authorizes and directs any person,
association, company, partnership, corporation, or other entity to whom Lessee
sells or furnishes gas, oil, and liquid hydrocarbons, produced from any well
covered by this lease, to disclose and exhibit accounts and other instruments
to representatives of Lessor at Lessor's request having to do with the transactions
involving payments to Lessee, his heirs, administrators, executors, successors,
and assigns for gas, oil, and liquid hydrocarbons from wells covered by this
lease.
36.3 Lessee further grants to Lessor the right, at any
time, to examine, audit, or inspect books, records, and accounts of Lessee
pertinent to the purpose of verifying the accuracy of the reports and statements
furnished to Lessor, and for checking the amount of payments lawfully due
under the terms of this lease. Lessee agrees to provide every aid or facility
to enable such audit to be made by Lessor. If such audit should disclose
any gross error or fraud by Lessee in payment of royalties, then Lessee
shall pay the cost and expense of said audit together with the deficiency.
However, in case of fraud by Lessee, such payments shall not preclude Lessor
in his discretion from cancelling this lease upon delivery to Lessee of written
notice of Lessor's intention.
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37. LESSEE'S TERMINATION
37.1 Lessee may at any time surrender.this lease in its
entirety or any number of tracts, measuring 1 Minute Latitude by 1 Minute
Longitude, and comprising six hundred and thirty (630) acres more or less
of the block or blocks leased; provided, however, that such surrender must
be evidenced by written notice accompanied by a release or releases in recordable
form delivered to Lessor thirty (30) days prior to the effective date thereof,
and Lessee has performed all commitments with which Lessee is charged to
the effective date of surrender. It is also agreed that any amount paid
as an advance bonus, land rental, previous to the effective date of said
surrender, shall be deemed liquidated damages due Lessor, and shall be in
no way prorated or subject to claim by Lessee for return to Lessee. Under
no circumstance and regardless of well spacing requirements, may portions
of this lease be surrendered other than on the basis of the tracts described
above. Lessee is not then in default of any obligations under this lease.
37.2 In the event that producing wells are to be retained,
Lessee shall be entitled to retain that drainage acreage attributable to
each well as previously provided under the section entitled "SUBSEQUENT HELLS."
Lessee shall deliver to Lessor a release or releases in duly recordable form
approved by Lessor. Lessee shall be relieved of all obligations thereafter
accruing as to acreage surrendered and any rental thereafter coming due
shall be reduced in the same proportion that the acreage covered hereby is
reduced; provided, however, that Lessee shall not be relieved of any obligation
which accrues prior to such surrender.
38. REMOVAL
38.1 Lessee shall have six (6) months after termination,
abandonment, or surrender of this lease, or any part hereof, in which to
remove all machinery, well structures, equipment, platforms, pipelines, and
other materials and structures resulting from Lessee's operations.
39. RELEASE
39.1 Lessee shall not be granted a final release from the
terms of this lease until an inspection of the leased premises by Lessor
indicates the proper removal procedure has been completed.
40 ABANDONMENT AND STORAGE RIGHTS
40.1 In the event the development of .this lease demonstrates,
.in the opinion of Lessor, that this tract has potential value as a gas storage
reservoir (no storage rights are demised to Lessee under the terms of this
lease), before any well shall be plugged, the well, equipment, property,
and casing involved shall first be offered to Lessor, his nominee or assignee,
at the then fair market value of those items. Such firm offer shall be
made in writing to Lessor at least thirty (30) days prior to commencement
of removal of the equipment from the well by Lessee.
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M-OfiG-LE-68
Oil & Natural Gas Lease
41. LESSOR'S TERMINATION
41.1 If Lessee shall fail or refuse to pay-any rental or
royalty due under the terms of this lease within thirty (30) days after demand
in writing by Lessor, of if Lessee shall violate, or fail to perform any
of the covenants or provisions of this lease, Lessor shall have the right
to terminate the lease.
41.2 In case.of default in the payment of any sum of money
due under the provisions of this.lease within thirty (30) days after demand
in writing by Lessor or the breach of any other of the terms of this lease,
Lessee hereby authorizes and empowers the Attorney General of the Commonwealth
of Pennsylvania, or any attorney of any court of record to appear for it
in an amicable action of ejectment for the leased premises above described,
to be entered by the Prothonotary .in which said Lessor shall be plaintiff
and said Lessee defendant and confess judgment therein in favor of the plaintiff
and against the defendant for the said leased premises and authorize the
immediate issuing of a writ of Habre Facias Possessionem (without asking
leave of court) waiving all stay and exemption laws and release of errors.
42. INDEMNITY
42.1 Lessee shall, at all times, hereinafter indemnify
and save harmless Lessor from and against all detriment, damage, loss, claims,
demands, suits, and expenses, or other claims of any kind whatsoever, which
the said Lessor may sustain, suffer, or be subject to directly or indirectly
by reason of location, obstruction, presence, maintenance, renewal, or removal
of said operations permitted by this agreement or resulting therefrom,
43. BOND
Lessee agrees to give Lessor a surety or performance bond
with satisfactory corporate surety in the principal sum of Forty Thousand
Dollars ($40,000.00) at the time this lease is executed. Lessee shall also
give Lessor a surety bond with satisfactory corporate surety in the principal
sum of Twenty Thousand Dollars ($20,000.00) prior to the commencement of
each and every well drilled on the leased premises. Upon the satisfactory
permanent abandonment of each and every well and the adequate restoration
of the affected area of the lake, the bond deposited will be reduced by the
principal sum of Twenty Thousand Dollars ($20,000.00).. Each bond shall have
a judgment clause in a form to be approved by the Attorney General conditioned
on the faithful performance of the covenants of this lease. Said bonds shall
be further conditioned that in the event Lessee shall fail to remove his
equipment and machinery and properly abandon said well or wells, Commonwealth
can execute upon said bonds to pay for the cost of removal of said equipment
and machinery and proper abandonment of said well or wells. In addition,
each bond shall be conditioned in favor of the Commonwealth for all damages
that may arise as a result of fires, accidents, or any other causes brought
about by Lessee or Lessee's agents occupying the leased premises.
44. INSURANCE
44.1 Lessee shall maintain in force an insurance policy
of One Million Dollars ($1,000,000.00) which will cover accident and property
damage liability resulting from each adverse occurrence or accident which
may occur during any operation, including but not limited to exploration,
drilling, producing, and delivering the well product conducted pursuant to
this lease.
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M-OSG-LE-68
Oil & Natural Gas Lease
45. RELATED AGREEMENTS
45.1 Lessor will be furnished for record purposes and to
protect his interests a copy of all agreements, contracts, letters, or memoranda
entered into, made, or sent by Lessee in any way concerning the development,
operation, or sale of products from this lease.
46. ASSIGNMENTS
46.1 Lessee shall not vise or allow to be used, the leased
premises for any other purpose than authorized by this instrument, and shall
not assign or sublet, the leased premises in whole or in part at any time,
or from time to time, without the prior written consent of Lessor. Lessee
shall make application to obtain such consent in writing accompanied by a
plat to Lessor describing the land to be assigned and the interest therein
if less than the whole, together with the interest retained by assignor.
Assignee shall agree in writing to be bound by all of the terms and provisions
of the lease, and shall furnish a surety or performance bond satisfactory
to Lessor. After Lessor has consented to the assignment, assignor shall be
released from all liability under this lease arising or accruing subsequent
to the date of such assignment as to the part or parts so assigned, and assignee,
thereof, shall, thereupon, be deemed to have assumed and be responsible for
the covenants, conditions, and obligations of this lease as to the part or
parts assigned. In the event that a portion only of the leased premises
is assigned, the default of any of .the covenants, conditions, or obligations
of this lease by one of the holders of a portion of the leased premises created
by an assignment, will not affect the interests of a party not in default.
47. LIMITATION ON WARRANTY
47.1 The Commonwealth is considered to be the owner of
the oil and gas rights under the leased premises, but makes no warranty as
to the presence of oil and gas. In the event of an adverse claim to the
premises affecting title to all or a'portion of the oil and gas rights under
the leased premises, notice of such claim will be given to Lessor who may
with the approval of the Attorney General enter into an escrow arrangement
for future rents and royalties accruing to such disputed portion under terms
and conditions that he feels proper to safeguard the rights and interests
of the Commonwealth. In the event an adverse claimant files suit against
the Commonwealth or against Lessee, claiming title to all or a portion of
the oil or gas rights under the leased premises, or if Lessee, after receiving
notice of an adverse claim, institutes litigation in a court of competent
jurisdiction to secure an adjudication of the validity of the claim, the
rents and royalties accruing to the litigated portion shall be placed in
an escrow account, until such time as the ownership of the disputed interest
shall be determined by a court of competent jurisdiction. The rents and
royalties placed in escrow shall be refunded to Lessee in an amount proportionate
to the outstanding title if it is finally determined by compromise or by
a court of competent jurisdiction that all or part of such rights are not
owned by the Commonwealth.
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M-0&G-LE-68
Oil S Natural Gas Lease
48.
FORCE MAJEURE
48.1 This lease shall not be terminated, in whole or in
part, nor shall Lessee be held liable for damages, for failure to comply
with express or implied covenants hereof if compliance, therewith, is prevented
by or if such failure is the result of any Federal or State laws, executive
orders, rules or regulations whether valid or invalid. If at the. end of
the primary term, hereof, such term has not been extended by production or
drilling as in this lease provided and Lessee by reason of any of the above
recited causes is unable to drill a well on the leased premises for oil or
gas, the primary terms and the rental provision, hereof, shall be extended
automatically from year to year for a period not to exceed ten (10) additional
years unless further extension is approved by Lessor in writing so long as
Lessee meets all requirements for payments of money and other obligations
to Lessor; provided, however, upon the removal of such delaying cause, Lessee
must commence operations within six (6) months after such removal. During
any period that Lessee is unable to produce and/or market any products from
the leased premises by reason of any of the above recited causes, this lease
shall remain in force and effect.
IT IS HEREBY MUTUALLY UNDERSTOOD AND AGREED that this lease shall be legally
binding on the parties hereto, their heirs, administrators, executors, successors,
and assigns.
IN WITNESS WHEREOF, Lessor and Lessee have caused this lease to be .duly executed
and have caused their seals to be hereto affixed and attached by their proper
officer, all hereunto duly authorized, on the date first above written.
ATTEST:
COMMONWEALTH OF PENNSYLVANIA
DEPARTMENT OF FORESTS AND WATERS
"By-
Secretary
ATTEST:
By
(Seal)
Authorized Agent
APPROVED AS TO MANNER AND
FORM OF EXECUTION:
APPROVED:
Assistant Attorney General
Governor
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M-0&G-LE-68 89b
Oil & Natural Gas Lease
kpulations
COMMONWEALTH OF PENNSYLVANIA
DEPARTMENT OF FORESTS AND WATERS
OIL AND NATURAL GAS LEASE FOR THE LANDS BENEATH LAKE ERIE ATTACHMENT
EXHIBIT "C"
Attached to and made a part of Oil and Natural Gas Lease For The Lands Beneath
Lake Erie, No. , by and between: COMMONWEALTH OF PENNSYLVANIA
and
STIPULATIONS FOR THE PROTECTION
AND CONSERVATION OF THE SUBMERGED
LANDS AND THE WATERS OF LAKE ERIE
1. PROTECTION AND CONSERVATION
1.1 It is hereby fully and mutually understood and agreed
that no rights are granted in this lease which shall in any way be so construed
as to impair the powers or duties of the Commonwealth or its representatives in
the execution of the laws of the Commonwealth, having particular reference to
control, protection, maintenance, development and use of the submerged lands
e Erie and the waters covering these lands. Lessor shall have the right
at any time to take any measures necessary for the control, protection,
maintenance, development, and use of the submerged lands of Lake Erie and the
waters covering these lands. This right includes but is not limited to the
proper conservation and utilization of the oil and gas resources indigenous
to these lands and the prevention of pollution and contamination of the waters
of Lake Erie. Lessee shall not use or allow to be used the leased premises
for any other purpose than that authorized by this lease. Lessee shall conduct
all operations with deference to the purposes to which the leased premises are
dedicated as set forth in the health, park, water, fish, and game laws, rules
and regulations of the Commonwealth of Pennsylvania and in particular agrees
to the following:
1.2 Lessee shall be familiar with and abide by all
applicable laws, rules and regulations of the Water and Power Resources
Board, and the Sanitary Water Board of the Commonwealth of Pennsylvania, the
United States Army Corps of Engineers, and the United States Coast Guard.
Any and all operations of Lessee must be approved by and carried out in
accordance with all applicable laws, rules and regulations of the said
agencies and Lessee shall promptly comply with any specific rulings by the
said agencies concerning his operations.
1.3 Lessee shall be familiar with and comply with the
objectives for Boundary Waters Quality Control established by the International
Joint Commission and approved by the Governments of Canada and the United
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COMMONWEALTH OF PENNSYLVANIA PRESS RELEASE 68-14
DEPARTMENT OF FORESTS AND WATERS MARCH 14, 1968
HARR1SBURG, PENNSYLVANIA Page One
FOR IMMEDIATE RELEASE
HARRISBURG - Maurice K. Goddard, Secretary of Forests and Waters, announced
that his Department is requesting sealed bids for the leasing of thirty-seven (37)
offshore oil and gas lease blocks in Lake Erie, comprising 369,989 acres.
The proposals will be received until 2 p.m., EST, Tuesday, April 9, 1968,
at Room 409-A, Education Building, Harrisburg, Pennsylvania.
Forms of the required bid proposal, the lease agreement, and a map showing
the location of the lease blocks, may be obtained from the Department of Forests and
Waters, Division of Minerals, Room 408, Education Building, Harrisburg, Pennsylvania
17120.
Drilling and production regulations for the lake that will assure the
orderly development of the oil and gas resources - chances of finding oil are minimal,
protect Lake Erie from pollution and preserve both public and private interests -
have been developed and incorporated into the Department's lease for the lake.
The strict requirements and rigid guarantees contained in the Department's
lease were developed over a twenty-month period beginning in July, 1966. They are
the result of joint discussions held and information exchanged between the Department
and representatives of Ohio, New York, and the Province of Ontario, along with other
State and Federal agencies having jurisdiction over the lake. Periodic meetings
will be held in the future to maintain close liaison, to assure that all rules and
regulations are adhered to, and to develop any new measures necessary for the
control and protection of the lake's resources.
Some strong lease provisions for the protection and conservation of the
lake's resources are:
1. Prior to beginning any operations, plans of
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COMMONWEALTH OF PENNSYLVANIA
DEPARTMENT OF FORESTS AND WATERS
RRISBURG, PENNSYLVANIA Page Two
HAR
is permitted and all deleterious substances must be disposed of
onshore in accordance with the laws of the Commonwealth.
4. Any operation which is a source or potential source of pollution
will be stopped by the Department until it is determined that no
pollution will occur.
5. Reimbursement must be made for all damage or destruction of
property including shoreline, life, and the waters of Lake Erie.
6. For this purpose and to provide for proper abandonment, a
permanent bond of $40,000 is to be maintained. In addition,
a $20,000 bond must be provided prior to the commencement of
any well. A $1,000,000 insurance policy is to be maintained
that will cover accident and property liability resulting from
each adverse occurrence or accident during any operations.
7. Drilling mud of sufficient weight, capable of controlling
formation pressures, and preventing oil and gas blowouts or
flows of fresh water must be available at all times.
8. All casing tubing and equipment shall be in good condition
and adequate for the depths to be drilled and the pressures
that may be encountered.
9. An accepted device shall be installed below the elevation of
the lake bottom on all producing wells to prevent the escape
of oil, gas, or water if the wellhead equipment is damaged.
10. No leaks or waste of oil, gas, or other liquid hydrocarbons
is permitted at any time.
11. All wells must be abandoned by filling hole completely from top
to bottom with cement.
12. Any pipeline under shipping lanes and anchorages must be buried.
All others must be laid at or below the level of the lake bottom.
Before used to transport any fluids, they must be tested with
fresh water at twice the working pressure.
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COMMONWEALTH OF PENNSYLVANIA
DEPARTMENT OF FORESTS AND WATERS
HARRISBURG, PENNSYLVANIA Page Three
1.3. At the first show of oil or gas, drilling operations must be
suspended and the casing tested and found to be free of all
leaks before drilling is continued. Emergency oil saving equip-
ment and storage must be available at all times.
14. Blowout preventers, and casing control equipment to effectively
control any oil, gas, or water must be maintained at all times.
15. A valve must be provided to shutoff rotary hose connections if
the hose blows out.
16. No drilling is to be permitted within one mile of a public water
supply or industrial water supply intake crib, intake tunnel, or
pipeline, nor within 1,000 feet of any outfall structure, municipal
or industrial, for the discharge to lake waters of sewage or in-
dustrial waste.
17. Wellheads are to be marked with byoys, equipped with a trawl
deflector, and protected from damage by ice and boats. There
is to be no interference with any fishing rights.
18. A two to eight mile zone is reserved along the shoreline which
will not be offered for lease. This zone is designed to insure
that Presque Isle State Park and private beaches and facilities
are protected.
19. The necessary inspections will be made to insure that the lease
requirements are complied with.
The first offshore well drilled in North America was in Lake Erie, opposite
the Township of Romney, Ontario, during the summer of 1913. Since 1943, almost 500
offshore exploration and development wells have been drilled in Canadian waters with
225 being completed as gas wells. On the American side of the lake, oil and gas
exploration has been carried out only i'n Pennsylvania's waters. In 1957, the Depart-
ment of Forests and Waters leased two blocks comprising 35,710 acres. Two unsuccess-
ful wells were drilled - one on each block. No pollution of the lake has occurred as
a result of this drilling activity.
##################
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POOLING COMMITTEE-LAKE ERIE 89c
INTERNATIONAL JOINT COMMISSION
UNITED STATES AND CANADA
MINUTES OF MEETING
AUGUST 6, 1968
PURPOSE OF MEETING
The Pooling Committee consisting of representatives from the Governments
of Canada, the United States, Michigan, Ohio, Pennsylvania, New York, and the Pro-
vince of Ontario met at 9:30 a.m., Room 4008, General Accounting Office Building,
441 G Street, N.W., Washington, D. C., August 6, 1968.
At the meeting of the International Joint Commission at Toronto, Ontario,
February 28, 1968, Pennsylvania agreed to convene a group for the purpose of study-
ing problems related to pooling or combining contiguous oil or gas pools in sep-
arate jurisdictions.
A copy of the portion of the Minutes of that meeting pertaining to this
question is enclosed for your information along with the agenda of the August 6
meeting and a list of those in attendance.
DISCUSSION
Mr. Tarr opened the meeting by stating the purpose and the discussion
which followed centered on the items of the agenda. All of the problems connected
with pooling in the lake were discussed by the participants along with the possi-
»ties for developing regulations and requirements for a suitable pooling arrange-
to prevent the drilling of unnecessary and uneconomic wells, prevent physical
and economic waste, and to insure that each jurisdiction would receive its fair
share of oil and/or gas production and/or income.
The principal topics concerning the obstacles to pooling across Inter-
national Boundary discussed were:
1. Determination of the ownership of the reserves belonging to each
jurisdiction in pools straddling the International Boundary. Of immediate importance
would be the fixing of the International Boundary for resolving this and other
pooling and drilling requirements.
2. Royalty and taxes - There would have to be a provision for the
apportionment of the fair share of royalties and taxes to each jurisdiction for
its acreage included in the pool.
3. Pressure differential - The effect of production from a pool being
produced more rapidly on one side of the International Boundary on the production
capability of the portion of the pool on the other side, as a result of severe
pressure differential. Instances were cited by Mr. Byrd where this had occurred
in the Mid-Continent area.
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4. Differential in prices - Gas on the Canadian side of Lake Erie
brings a much higher price - averaging about 45C per Mcf - as opposed to about
30C per Mcf on the United States side. With this price differential, an
would want to produce and/or sell his gas in Canada unless the price for
gas is raised.
5. Ratable taking provision - This provision would be necessary to
prohibit discrimination in favor of one producer against another in separate
jurisdictions. It would obligate the buyer to purchase gas from a seller ratably
with other .purchases from other sellers so that each lessee and jurisdiction
would be able to recover his fair share of oil and/or gas.
6. Import-Export requirements - It will be necessary to reach agree-
ment with the Customs of both Canada and the United States regarding the export
and import of gas across the International Boundary.
Mr. Sharp presented a review of Canadian operations, since all pro-
duction to date in Lake Erie is located in Canadian waters under the management
of the Province of Ontario. He stated that Ontario had no pooling regulations.
He further pointed out the value of the gas reservoirs in the lake for storage
to be utilized for peak shaving requirements.
Mr. Neil, a new drilling unit, was introduced into the lake in July
by Pan American and Consummers Gas.
Mr. Sharp estimated that the rental for the piece of equipment was
$5,000 per day bringing the cost of producing wells to $60,000 as opposed to the
present cost of $40,000 to $45,000. Dry hole cost is estimated at $20,000-$25,000.
SUMMARY AND CONCLUSIONS
The meeting concluded with agreement that pooling could be accomplished
the lake across the separate jurisdictions.
in
Mr. Sharp advised that he would poll all Lake Erie operators relative
to the adoption of a uniform spacing pattern of nearly 640 acres for gas and 40
acres for oil. It was felt that this spacing requirement along with limiting
operations to a distance of one-half mile from the International Boundary would
prevent problems across the separate jurisdictions until pooling regulations
could be established.
Mr. Tarr pointed out that the Department of Forests and Waters' lease
provisions included this requirement and agreed to provide copies to the committee
showing that Pennsylvania, at this time, could require an equitable pooling arrange-
ment .
It was also felt by the participants that a policy statement be formu-
lated by the states and the Province of Ontario stating that non-unitized pro-
duction would not be permitted across the International Boundary and setting forth:
- 2 -
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(1) the limitation of production within one-half mile of the International Bound-
ary; (2) the requirements for 640 acre gas and 40 acre oil spacing; and (3) ratable
^^e
The jurisdictions could withdraw from this agreement on a thirty (30)
day written notice of intent. Such a policy statement could be made without
enacting legislation.
It was agreed that all participants would provide their comments on
the pooling problem to the Chairman by September 6. These comments would be then
circulated to the committee with the Minutes of the Meeting for review prior to
calling another meeting and making a report to the October Meeting of the Inter-
national Joint Commission.
The comments received to date are attached as a part of the minutes of
the August 6 Meeting.
Mr. Sharp has polled Lake Erie operators relative to spacing and will
soon forward the results of the poll.
Also attached is a copy of the Pennsylvania Department of Forests and
Waters lease for Lake Erie and maps.
G. Tarr, Chairman
eral Economics Director
Pennsylvania Department of
Forests and Waters
- 3 -
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POOLING COMMITTEE-LAKE ERIE
INTERNATIONAL JOINT COMMISSION
UNITED STATES AND CANADA
ATTENDANCE LIST FOR
MINUTES OF MEETING
AUGUST 6, 1968
Edward A. Albares
Lawrence R. Alley
Richard C. Byrd
Harry A. DuPont
Lee A. Keeling
John F. O'Leary
Dennis A. Sharp
Carl W. Sherman
Earl G. Tarr
Bruce E. Ziegler
Federal Power Commission, Washington, D.C. 20426
Executive Secretary, I.O.C.C., P. 0. Box 53127,
Oklahoma City, Oklahoma 73105
General Counsel, I.O.C.C., Ottawa, Kansas 66067
Regional Oil & Gas Supervisor, U.S.G.S.,
19th and F Streets, N.W., Washington, D.C. 20242
Consultant, Philtower Building, Tulsa,
Oklahoma 74103
Chief, Bureau of Natural Gas, Federal Power
Commission, Washington, D.C. 20426
Supervisor, Petroleum Resources, Department of
Energy and Resources Management, Toronto 5, Canada
Director, Division of Oil and Gas, Conservation
Department, State of New York, Albany, New York
12224
Director, Division of Minerals, Department of
Forests and Waters, Harrisburg, Pennsylvania
17120
Petroleum Engineer, Oil and Gas Division,
Department of Mines and Mineral Industries,
Pittsburgh, Pennsylvania 15222
- 4 -
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POOLING aiUMITTKE - LAKK EK 1G
INTERNATIONAL .JOINT COMMISSION
UNITED STATES AND CANADA
Meeting with rep'.'esen'.at i ves of the Federal
Government. States of Michigan, Ohio, Pennsylvania,
No.w YoH< and Province of Ontario, Canada
9:3;.) A.M.. Room 4008, Ge.ne.ral Accounting Office1 Ruilding
Vtl G Street, N.W., Washington, D.C.
August 6, 1968
AGENDA
Purpose of Meeting - Pooling or combining Canadian and United States
production from contiguous oil and gas pools.
Discussion of the purpose of pooling,, the regulations and roqui remeni. s
of Lhe several States, Province of Ontario, and the. Federal Governmeni
Laws governing pooling in and across the se.parate jurisdictions -
Conflicts States, Province of Ontario, and Federal Government.
Pooling requirements to be studied further to provide additional in-
formation and to determine common pooling practices for effective.
conservation of oil and gas in Lake Erie.
Arrangements for further meetings.
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International Joint Commission
Minutes of Meeting
Toronto, Ontario
February 28,
Pooling or combining of Canadian and United States production
from contiguous oil and gas pools
28. The Meeting, after further discussion, noted that the
Province of Ontario and the States intending or contemplating
the institution of programmes in Lake Erie intended to prohibit
drilling within one half mile of the international boundary (as
well as between state boundaries) but that other features of
territorial and Jurisdictional limitation required further con-
sideration and consultation.
Identification of questions, if any, requiring further study
and arrangements for such study
29. TheMee.ting, after further discussion, agreed-
(c) that questions related to the pooling or combining
of production from contiguous oil or gas pools In
separate jurisdictions (para 28 above) should be
considered further: Pennsylvania officials to
convene a group for this purpose, with the re-
presentatives of National Energy Board and Federal
Power Commission offering their assistance.
Commission Action
30. The Chairman, with the concurrence of those present:
(b) agreed to convene a meeting, similar to that just
concluded, in approximately six months time to
consider particularly the results of the further
discussions noted in para 29 above.
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COMMONWEALTH OF PENNSYLVANIA
DEPARTMENT OF! MINES AND MINERAL INDUSTRIES
HARRI88URO
OP tICRITARr
Tifiioute, Pa,
Angust 26, l?cd
•Mr. Earl E. Tarr, Chairman
Pooling Committee-Lake Erie
U08 Education Duilding
Harrisburg, Pa.
.Dear Mr. Tarr;
,
" •' •-> • '-•
DEW. .,.•!-..;. ..
Divr-rJM CF JW::«.i;.-,'.$
HARrlSBURG. PA.
After thinking »ver all of the discussien at «ur neetiiig in
Waahlngtra, D. 0. «n August 6, 1968, I would like t* make the felltodng
1» Due to the type ef production as reverted «n the Canadian
aide of the Lake by Mr* Dennis Sharp, it anppj.ra that using the
origienal erne mile buffer ztnt a.p present voald be most pratical,
(this is due to the marginal and spotty production to date)
2« With the small production te date, the royalty would not
warrant the administration cost* of a pooling agreement when one
oonslderes the small amount of gas thit Bight not be drained from
between the wells on each edge of this ndl« strip.
3. Pooling will probably be desirable if deeper :mrt higher
pressure gas is encountered or if an oil pool extends across these
boundaries*
U. I think the necessary framework should be set up where by
pooling could be placed in operation quickly if the need is apparent*
5>. I think the well operators should establish nr suggest the
actual pooling agreements and then the variwu gOTermantal agencies
could accept these or adjust then for more smooth operation and
regulation*
Very truly yours,
co: Hon. W. Roy Cunningham
Deputy Secretary
Oil and Oas Dirl.sira
, .
& rW*v
ZiegVerv
Bruce E. Ziej
Petroleum Engineer
Department of Mines
Tidieute, Penna.
and Minimal Industries
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OEPARTM'.M, ... .V-S'-ilS i WATERS
DIVISION 0
HARRISBURG, PA.
Tt i ri M ?'.';•
3f';r 198.1.
->'~,,^ ", -•. I ,
ON TARIO ,1. F.
C:NT of EN^FIGY AND FJESOURCF.S MANAGE.
H. M.
880 Bay Stre.ot,
Toronto 5j Ontario^
August 14} 1968.
Ref. No, 580.68.
-y
To: All Lake Brie0|)oratorK
On August 6th, the Department met with representatives
from the States of New York, Pennsylvania and Ohio and the
National Energy Board arid the Federal Powei1 Commission to
discuss pooling a/id unitization of Lake Erie production
from contiguous oil and gas pools an separate jurisdictions.
In light of the discussions to date, this Department
is giving consideration to the adoption of uniform well
spacing in Lake Erie where licence of occupation houndaries
so permit. The uniform spacing pattern being proposed is
being based on one gas well for approximately 625 acres -
one minute of Latltute by one minute of Longitude.
It has further been suggested that within each one
minute of Latitude by one minute of Longitude, the first
well be located in the centre of the northwest quarter of
the northwest quarter (NW NW) to permit on-pattern develop-
ment whore subsequent well spacing is to be baaed on some
multiple of approximately 40 acres.
The spacing of wells near the international boundary
is of immediate concern to the Department and it is our
intention to further discuss this matter with the above
mentioned jurisdictions in early September. It is important,
therefore, that the view of those Ontario operators presently
holding acreage in Lake Erie be forwarded to the Department
not later than August 31j 1968.
Yours very truly,
DAS/po
\qgo, ^
>* -------- '
D. A .^JSl ia rp , P T
Supervisor,
Petroleum Resources Section.
c.c. Mining Lands Branch
Ontario Petroleum Institute
Gas &1 Petroleum Assoc. of Ontario
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] IE C IF. fi V E [j
AUG 1 9 1968
DEPART,'.', hi ti'f'JKCilSJfc WATERS
DivilcM7EiitA5irATE OIL COMPACT COMMISSION
LAWRENCE R. ALLEY
Cxacutlv* Scrrllory
P. f>. BOX 53127 • 900 N. E. 23RD STREET • OKLAHOMA CITY, OKLAHOMA 73105
TELEPHONE JAckion 3.3536 - AREA CODE 403
August 15, 1968
Mr. Earl G. Tarr
Department of Forests and Waters
Harrisburg, Pennsylvania 17120
Dear Earl:
I again want to express my appreciation for being allowed to attend
your meeting in Washington on August 6. Listening to the discussion
among all of those present, it was easy to conclude that you have a
very real problem, and, in my opinion, it is not going to be too easily
solved.
If an arbitrary International Boundary could be established on Lake
Erie, I believe the problem could be solved by an agreement between
the states of the United States bordering on Lake Erie and the Province
of Ontario whereby a well would not be allowed to produce that did not
have the required minimum acreage. This would necessarily cause
the operator to pool this spacing unit with the area in either the Pro-
vince of Ontario or one of the four states of the United States. This
seems to me to be a relatively simple solution; however, in listening
to Mr. Dennis Sharp from Ontario, it is almost impossible to deter-
mine the International Boundary within several miles. If an arbitrary
determination could be made of the International Boundary, I think
this would solve the problem.
There seemed to be one or two who felt that poolwide unitization was
the only solution; however, I do not think you can get compulsory
unitization between lands in Lake Erie in Ontario and lands in Lake
Erie in the United States without a treaty between the two countries,
which would necessarily have to be approved by Congress.
Insofar as a price differential between gas in New York and gas in
Ontario is concerned, I have absolutely no solution, since any move-
ment of gas from New York State into Ontario would be under the
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Mr. Earl G. Tarr
August 15, 1968
Page 2
jurisdiction of the Federal Power Commission. Frorn listening to
Mr. O'Leary, I do not think they would be too ready to raise the
price of gas in New York 15 cents per thousand.
I hope this will be of some benefit to you in trying to solve what I
consider an almost insolvable situation. I do not think that the
present ruling of no drilling within one-half mile of the International
Boundary is too helpful, since there is no International Boundary
established. My recommendation would be first to see if some
means could not be obtained to settle on an arbitrary International
Boundary.
Again let me express my appreciation of being with you and the
other members of your committee in Washington.
Kindest personal regards,
{« &«:.
Lawrence R. Alley
LRA:mr (
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STATE OF NEW YORK
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September 16, 1968
Mr. Earl Tarr
Mineral Economics Director
Division of Minerals
Department of Forests and Waters
Room 408 Education Building
Harrisburg, Pennsylvania 17120
Dear Earl:
As I stated at our meeting in Washington, D.C. on August 6, I
think it is imperative that we pursue the matter of unitization across
state and international boundaries.
Conservation and economic considerations make field-wide
unitization a necessity. The many legal problems posed by the royalty
interests being state and provincial governments and the possible
importing or exporting of gas must be explored with all possible haste.
With this in mind, I would suggest that the Lake Erie Oil and
Gas Committee define a theoretical field at the junction of Ontario,
Pennsylvania, and New York bondaries and then proceed with the development
of a unitization agreement. In this instance, I think we could also assume
the roles of the working interests.
Upon completion of this document we could then ask our own
attorneys to confer on what steps must be taken to ratify such an agree-
ment and what consideration must be given to the two federal governments
and their agencies. It might also be advisable to submit the same
question to the Interstate Oil Compact Commission for their assistance.
I believe that we may soon be faced with these problems so I
again stress the need for prompt attention. Until they are solved, I think
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all the states and Ontario should continue to observe the present "unofficiaj
agreement limiting drilling to no closer than one-half mile to the various
borders.
1 hope that this brief summary of my opinions on a very complex
matter is sufficient for your immediate needs.
Sincerely,.,
f\ £ tA.7
( Carl W.v Sherman
Director
Division of Oil and Gas
CWSrch
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T'
FEDERAL POWER COMMISSION
WASHINGTON.D.C. 20426
AUG 1 4 I960
DEPART;,;,/; v., ,c-:.ws& WATERS
DIVISION OF MINERALS
HARRISBURG. PA.
IN REPLY REFER TO:
August 9,
Mr. Earl Tarr
Director, Division of Minerals
Pennsylvania Department of
Forests and Water
Harrisburg, Pennsylvania 17120
Dear Mr. Tarr:
A broad range of problems and issues were raised
in our discussion of the possibilities of pooling
arrangements for natural gas development on Lake Erie
in the meeting held under your chairmanship on August 6.
It seems to me, however, that the group arrived at the
promising conclusion that pooling could be accomplished
despite the difficulties imposed by multiple Jurisdic-
tions.
The most important issues that we discussed were:
1. The Basis for Establishing Participation in pooling
Arrangements
Discussion made it apparent that the problems of
determining proportionate participation in pooling
arrangements Involving cross-border fields are little
different from those involved in establishing con-
ventional unitlzatlon of pooling agreements.
2. Ratable Takes
It became apparent that a system for imposing ratable
takes from fields or from areas of fields that lie
across the International boundary is essential to the
development and operation of an equitable pooling
system. Participants In the discussion indicated that
this requirement could be enforced through the waste
provisions of the conservation statutes of their
respective Jurisdictions.
3. Customs Treatment
An understanding with Customs authorities of both
nations will be required to facilitate transfers
and re-transfers of gas across the international
boundary without hindering efficient operations of
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cross-boundary fields and reservoirs.
M. Prices
There Is a recognized difference in prices paid for
natural gas on the Canadian and U.S. sides of the
border. This problem should be regarded as a small
part of a larger and highly complex problem of price
administration within the U.S. The larger problem
will have to be resolved before the specific problem
relative to pricing of Lake Erie produced gas can be
handled.
5. Area To Be Covered in Pooling Arrangements
It will be necessary for supervisory Jurisdictions to
define carefully the areas that will be included as
a part of cross-border pooling arrangements. I would
suggest that immediate attention be focused on those
areas of cross-border fields that would be directly
Influenced by conservation practices of wells oper-
ating in adjacent jurisdictions. In time, agreement
may be extended beyond this narrow geographical unit;
however, Initially it seems to me that the problems
posed by attempting to obtain pooling arrangements
with regard to the total area of cross-border fields
are too complex to be solved without greater exper-
ience than is now available.
As a crude first attempt to outline the sort of vehicle
required for achieving the above, I would suggest that all
four Jurisdictions adopt simultaneously a policy statement
consisting of the following elements:
(1) A statement that production of natural gas within
one-half mile of the international boundary would not
be permitted unless pooling arrangements satisfactory
to the jurisdictions involved were adopted by the
leaseholders.
(2) The jurisdlctional authorities stood ready to provide
for uniform spacing in the cross-border producing
area. This could be handled by a flat 640-acre
spacing requirement or, on consultation between
affected Jurisdictional authorities, by a separate
field order. I would suggest that the final arrange-
ment combine both elements, requiring 640-acre spacing
unless uniform field orders calling for closer spacing
were Issued by both Jurisdictional authorities.
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(3) The statement should make provision for nomination
of allowables to determine ratable taken and for a
suitable make-up period. The ratable takes provision
would assure equitable treatment of all participants
in the pooling arrangement and avoid wasteful pro-
ducing; practices.
('I) The statement should Include a clause to the effect
that any of the Jurisdictions involved could uni-
laterally withdraw from the arrangement on thirty
days notice to the other parties.
I think that as long as we bear in mind that the
objective here is simply to achieve physically efficient
operations without Interference from the fact of the
international border-, our goal can be achieved.
Sincerely yours,
'Leary
Chief, Bureau of NaturaL-fias
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LAKE
PORT HURON
DETROIT
- GAS FIELDS
SCALE l"=25 MILES
JULY 1968
OIL AND GAS FIELDS
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IN AND NEAA LAKE ERIE
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AVAILABLE
DIGITALLY
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LAKE
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Leased in 1957
Released in 1959 a I960
"NEW YORK
PEN NSYLVANIA
10RAIN
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- AREA LEASED SY ONTARIO
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SCALE l"=25 MILES
JULY 1968
LEASED ACREAGE IN LAKE ERIE
FOR OIL AND GAS DRILLING
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— LEASED IN 19&S
::| — RESERVED AREA
PENNSYLVANIA
LEASED ACREAGE
IN LAKE ERi E
SCALE I"=25 MILES
JULY 1968
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1 Hon. Richard D. McCarthy
2 The least they could do would be to wait — you have got
3 a whole series of factors that remain to be resolved.
4 I am not saying that this should be precluded, and that
5 is the impact of my remarks, but until these issues can
6 be resolved, I would expect that Pennsylvania would at
7 least have the decency to wait.
8 MR. LTON: Mr. Congressman, you make it appear
9 as if we are just beginning to drill. There has been
,Q drilling in Pennsylvania in the past. This is not a
fait nouveau.
CHAIRMAN STEIN: Any further comment or ques-
X &
,, I tion?
13 I
Well, as you and Congressman McCarthy point out,
14 |
I think the issue has been joined. There are several
15
proposals. At least from the Federal administrative
16
level — and maybe the Congressman could make the judgment
17 !
on this — with the interests that we are going to have
18
in Lake Erie, specifically on the question of oil-well
19
drilling, I would suspect that ultimately the determination
20 |
! is going to be made by the Congress. As you well know,
21 i '
Congressman McCarthy is on the particular committee and
22
subcommittee that handles this.
23 !
j Possibly the notion, as I understand it, is
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!i that if a policy is going to be made by the Congress, it
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Hon. Richard D. McCarthy
may be the better part of valor and investment to wait
until that policy is resolved before too much money is
put into this.
The other point I think that we have adminis-
tratively before our Department is just what the alterna-
tives are for us to get into the oil-well drilling opera-
tion in Lake Erie under the present state of law. There
may be two approaches: 1) to approach that through the
standards-making process,and, 2) it may be possible for
the Secretary to consider expanding the scope of this
conference to include that specifically as a specific
charge.
Now, these are all open for discussion, and I
don't have any brief for any of them.
MR. LYON: Mr. Chairman, I don't think
Pennsylvania would have any objection at all to include
the question of oil-well drilling in this conference.
| But I think when you look at the public furor and atten-
tion that has been given that oil-well drilling problem
in relation to the real pollution sources of this lake,
the hundreds of tons of phosphates, industrial wastes
and sewage and dredgings that go in this lake, frankly,
we think this is a tempest in a teapot.
Lake Erie is polluted, but it is not polluted
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Hon. Richard D. McCarthy
because of oil wells.
2 MR. MCCARTHY: That may be true, but I think
that was at issue here and you have touched on it as the
4 credibility of this conference mechanism, and this is
5 what touches the public.
6 Of course we know where the pollution comes
7 from, but on one hand to be spending what we will be
8 spending — billions — among the States, Federal Govern-
9 raent, private industry, to clean up Lake Erie; and at
10 the same time, to enter into a new program that poses
11 the very real threat of additional pollution, the public
12 just says, "Well, it doesn't mean anything. They aren't,
13 obviously, serious and why should we make any efforts if
14 they are going to go ahead — the Government — and they
15 don't make often a distinction between the States and
16 Washington — go ahead and gran^t leases to start a new
17 ! operation that is going to cause new pollution."
lg MR. LTON: Again, Congressman -- and again I
19 think this will be the last thing I will want to say
20 because I know we don't want to get into a continuing
21 debate on this — drilling for oil or gas on Lake Erie
is not new; it has gone on for approximately 150 years.
CHAIRMAN STEIN: Walter, I would like to make
one point — you said one thing that I think is very
^vTT
I important that we look at philosophically. You said
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8
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Hon. Charles D. McCarthy
that we get pollutants such as municipal, industrial
wastes, dredgings, and compared to that, the oil-well
operations might be a tempest in a teapot.
You know this is precisely the argument that I
have heard about dredgings. Considering municipal
and industrial wastes, why worry about dredging? Now,
everyone can make that classification of what is important
and what is not. I think the view that we have taken
is that we take every pollutant no matter how large or
how small and deal with it. I also believe it is a fair
11
10
judgment to state that in view of the interest in the
operation of all kinds of material going into Lake Erie,
that unless we can work out a program — particularly
J. O
with some of the items such as dredging, and the question
1.4
of oil-well drilling — unless we can work out a program
15
that is satisfactory to most of the people concerned and
IS
17 i
18
19 I
i
i
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j
21
22
come up with a reasonable one, we have to face the very
real possibility that the Congress is going to act; and
they are going to tell us what the program is; and they
are going to give us the guidelines to do this.
Now, this is the challenge, and I don't think
there is any way out of that unless we come up with some-
thing that is going to satisfy the people in this area.
They are going to petition their Congressman, and we
24 ;
have heard from two Congressmen this morning — one on
25.
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Hon. Richard D. McCarthy
1 dredging, and one on the oil-well drilling. I am sure
2 they are going to have sympathetic ears.
3 MR. LYON: Well, we would certainly be happy
4 to work with this group or any other group on any program
5 designed to prevent pollution from any kind of drilling,
6 There is no question about that* We are convinced that
7 it can be done without causing any pollution.
8 CHAIRMAN STEIN: Are there any other comments
9 or questions?
10 Thank you very much.
n MR. MCCARTHY: Thank you, Mr. Chairman. I
appreciate your interest and attention and the trip was
JL&
worth it, based on what you have just said. Thank you.
.Lo
(Applause)
14
CHAIRMAN STEIN: Well, thank you.
15
MR. EAGLE: By way of introduction, again, of
16
Mr. Simpson, I would like to point out that his firm,
17
Havens and Emerson, have been engaged in the past couple
18
of years, I believe, in making a very comprehensive
19
study of Cleveland sewage and industrial waste prob-
20
lems, and I believe this report is just in the process
21
of being completed now, and if Mr. Simpson can, I*d like
22
him to give the highlights of his recommended plan for
23
water pollution control for the city of Cleveland as he
24
envisions it.
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George Simpson
MR. SIMPSON; Ladies and gentlemen, I don't have
a prepared statement this morning. I will make a few
extemporaneous remarks and deal briefly with a few of the
things that are contained in this rather comprehensive
report.
Mayor Stokes mentioned in his address that
programs for improvement of the waste treatment facilities
were included in this overall Master Plan program and
indeed they are. These are in keeping with the conferees1
recommendations of the 1965 and subsequent meetings.
I think it is significant that more than half
of the total program cost of $211,000,000 will deal with
an entirely different problem and one which most large
cities in this country will have to come to grips with,
and that is the combined sewer problem.
We have ten or eleven small streams, the Cuyahoga
River and Lake Erie, and all of these waterways are
polluted by combined sewer overflows and cross-sections
to a major degree. Our study found about 535 combined
sewer overflows in the metropolitan Cleveland system,
within the city itself, and we found over 100 cross-
sections and overflows in the ostensibly separated suburban
systems.
Correcting these problems or improving the
combined sewer system will account for well over half
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George Simpson
1 of the $200,000,000 program that the Mayor mentioned.
2 There are about thirty to forty separate
3 projects. They deal with all aspects of the sewer
4 system: the streams, the treatment plants, one new
5 treatment plant along the Cuyahoga River for handling
6 overflow from the Kingsbury Run and oily wastes, and
7 thirty or forty other items. I won't attempt to detail
8 them now. The entire program, of course, will be
9 delineated in the submission of our final report in the
10 next few weeks.
•Q I think that it is our feeling, having prepared
12 this report, that pollution in the metropolitan Cleveland
area has many sources. Generally, today, we have heard
J.«I>
much about sewage treatment and this is certainly one
very important source, but there are many others. There
JLo
are sources from industrial wastes, and there are many
16
sources from our sewer systems which are inadequate,
17
antiquated, overloaded and a good deal of the money
18
in Cleveland's program will go to correcting many of
19
these faults.
20
Thank you, sir.
21
CHAIRMAN STEIN: Thank you. Are there any
22
questions?
23
MR. EAGLE: Yes, I have a question, Mr. Stein.
24
George, did you attempt to set up any kind of a
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George Simpson
schedule in your report and recommendation?
MR. SIMPSON: Yea, there is a schedule that
extends through 1973* The schedules that the conferees
have been talking about generally are tied to pollution
abatement — that is wastewater treatment. Those schedules
which you already have on the books are being met or will
be met in Cleveland*
The projects going on until 1973 involve some of
the sewer system improvements which weren't originally
included in the conferees1 recommendations or conclusions.
It is necessary, we believe, for orderly con-
struction and financing of a program of this magnitude,
to put it over perhaps a five-year period, perhaps even
a little bit longer than that, in order to obtain satis-
factory financing and satisfactory construction contract
procedures.
MR. EAGLE: And that total cost is $211,000,000?
MR. SIMPSON: Those are, of course, projected
and don»t include any operating and maintenance costs, but
those are projected to the year expected for construction.
There are some escalations in that figure.
CHAIRMAN STEINt This does not include storm-
water drainage?
MR. SIMPSON: This includes treatment of
combined sewer overflows and certain remedial measures
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George Simpson
which will deal with the combined sewer overflow problem,
but it does not include complete separation.
CHAIRMAN STEIN: Are you going to treat all of
your combined sewage or overflows or just the first
5 flush?
6 MR. SIMPSON: We are going to treat all of it
7 on the first flush, yes. One major phase of this is a
8 large stabilization retention treatment basin to be con-
9 structed into Lake Erie, which was the subject of a
10 feasibility study for the Water Pollution Control Admin-
istration. And this basin will accept all flush and
12 runoff, including treatment plant effluent, from the
•J2 Easterly Works, the polluted streams, and the combined
,4 sewer overflows of about one-third the total metropolitan
._ area that is on the east side of Cleveland, so that there
, will be virtually no land runoff into Lake Erie that won't
16 .
be treated in this area.
The other programs will include runoff into the
18
harbor, and the major overflows from the west side of
Cleveland will likewise be diverted for treatment and
20
i chlorination.
21
CHAIRMAN STEIN: Supposing you have extensive
22
area-wide rain over a long period of time, will there
23
come a time in your system when you are just going to
24
bypass that and let it run out?
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George Simpson
MR. SIMPSON: There will be some overflow
because the complete separation of the system — which
incidentally this report considered — we found that the
cost of separation of Cleveland's combined sewer system
would be about $94^,000,000. We felt — and I think you
will agree — that within limits of municipal financing,
this is an infeasible type of expenditure. So our program
really has developed around less expensive alternatives.
We believe we have found them. We believe they are at
least as effective.
CHAIRMAN STEIN: Oh, yes. Most of the communi-
ties in the country have come up with a plan such as
this and have not gone — at least in larger cities —
to my mind, to complete separation. As Mr. Remus indi-
cated to you, sometimes if you go to complete separa-
tion or even if you contemplate it with all of the
money, you may close the city to automobile traffic
for the next twenty years and that alternative, par-
ticularly in Detroit, doesn't go.
But we faced that in Washington, D.C., and
decided to go to an alternate, too; but what I am getting
at — and this is, I think, to be put before the con-
ferees and technically the public ~ is the notion that
once one of these compromise systems is going to go into
24 "
effect, there will be times when some of the water does
11
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George Simpson
1 go into the lake — run into the lake — and this should
2 be understood, because once it goes in, some people will
3 get emotional about this. You should know what is hap-
4 pening beforehand to be able to appraise the situation
5 and to recognize that there will be times when some of
6 the wastes will go into the lake.
7 The notion is that these will be infrequent
8 and they will be of a character which will not degrade
9 the lake too much.
10 MR. SIMPSON: I might say that in spite of the
1;L fact that there will be some overflow to the lake, Mr.
12 Stein, there will be preliminary treatment, screening,
and chlorination of all of the discharges into Lake
13
Erie.
14
CHAIRMAN STEIN: Right. I think Mr. Poole
15
has a question.
16
MR. POOLE: Mr. Simpson, have your studies
17
proceeded to the point where you have a definite recom-
18
mendation on processes for phosphate removal?
19
MR. SIMPSON: We have made a two-pronged
20
recommendation. We have in the program about $650,000
21
to construct a 3-mgd pilot and demonstration plant at
22
the Easterly plant for demonstrating various processes
23
of not only phosphorus but also nitrogen removal at
24
thd Easterly plant.
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101
George Simpson
The construction of phosphate removal facilities
in a system as large as Cleveland's, of course, is very
expensive. We feel that the city should explore all
possible methods and have flow sheets before they under-
take this full construction.
The second part of our recommendation, however,
is that the city undertake a combined biological-chemical
treatment process in the intervening period, which
basically is the Barrett and Ettinger suggestion of using
the existing aeration and final settling tanks for chemi-
1;L j! cal precipitation, combined with biological treatment.
J^! We are recommending that the city undertake this and
j
enter into a period when they discover whether this or
|i
some other method is the optimum for Cleveland.
A third phase is that there are recommendations
on alterations to the existing wastewater treatment plants
to improve biological removal. That includes greater
quantities of air, so that the sity is going to attack
its problem we think in the way it should be attacked,
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George Simpson
CHAIRMAN STEIN: I am sorry. I don't think we
can take any questions or comments from the audience, because
if we did we would have to throw it open to everyone. You
will be given an opportunity to make a statement. I ask
you to hold your comments or questions until then.
I might say there is one indication here that
Cleveland should be proud of, and that is John Wirts in
the operation of that Easterly plant. I have heard more
proposals for pilot plants or demonstration projects and
research projects to be put in the Easterly plant, and I
| think this is a tribute to John Wirts and the way he runs
that plant.
FROM THE FLOOR: May I say something there?
CHAIRMAN STEIN: I am sorry, sir.
FROM THE FLOOR: I thought it was in the paper
— it said we could talk at this meeting.
CHAIRMAN STEIN: Let me make the rules clear:
Everyone will be given an opportunity to talk and talk
fully. We cannot take comments from the floor for each
participant. If you will hold your comments, you will
be given a full opportunity to make those comments for
the record. You will be heard. If we do otherwise,
our experience has shown that the conferees and the rest
of us will have to become semi-permanent residents of the
city we go into, like Cleveland, and I know that while
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George Simpson
we like this city, all of these people are rather busy.
I ask you to stay with us, to follow this procedure and
I am sure that everyone will be given an opportunity to
be heard and we will get all points of view on the table.
No one is going to be cut off, but we are going to do this
in an orderly manner.
Any other comments or questions?
MR. POSTON: I would like to ask Mr. Simpson
whether or not in the study of the metropolitan area
there was consideration given to the inclusion of some of
the separate outlets from industry and including them in
the treatment with municipal wastes.
MR. SIMPSON: Much of the industrial waste
in Cleveland is now treated along with the domestic waste,
Mr. Poston.
Some of the major heavy industry along the
Cuyahoga River is not* Generally these have their own
treatment facilities. The one example that I can give
of a new industrial waste treatment that we are recom-
mending is the construction of a treatment plant at
Kingsbury Run where we will be picking up certain
industrial wastes from the steel firms in that area,
which are discharged into Kingsbury Run, and that will
be treated, But the major industrial wastes which are
now in the Cuyahoga Valley will remain treated at the
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Walter Lyon
1 industrial source, principally because the treatment
2 plants that Cleveland has are not designed to handle that
3 type of waste*
4 CHAIRMAN STEIN: Are there any other comments
5 or questions? If not, thank you very much, sir.
6 I would now like to call upon Mr. Lyon for
7 Pennsylvania. Mr. Lyon.
s MR. LYON: Mr. Chairman. This report from
9 Pennsylvania has been prepared for the purpose of updating
, 0 our February 1968 status report and to provide the current
status of cases in the Pennsylvania portion of the Lake
Erie Basin.
The Borough of Girard is now following the
-Lo
revised schedule submitted on January 24, 1963. Bids
14
have been awarded for the construction of settling and
15
chlorination facilities. This schedule calls for
16
compliance by June 1, 1969.
17
Until mid-1966, the city of Erie sewage
18
treatment plant was removing an average of 85 per cent
19
of the BOD with monthly averages frequently exceeding
20
90 per cent. From that time and through 1967, the plant
21
has been averaging only a 75 per cent BOD reduction.
22
The city, on May 21, 1968, submitted the final report
23
on the pilot plant study for the joint treatment project
24
with the Hammermill Paper Company. This report is now
25
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105
Walter Lyon
being reviewed and evaluated by the Pennsylvania Department
of Health. The city's schedule seta the compliance date
for December 15, 1970, whether or not joint treatment is
carried out.
In accordance with its implementation plan
for interstate waters, the Sanitary Water Board at its
March 20-21, 1963, meeting, authorized the issuance
of orders to sixteen municipalities with combined sewer
systems serving a population greater than 30,000 (includ-
ing the city of Erie) to prepare a report on the location
and quantity of its combined sewer discharges and the
effects of these discharges on receiving water quality.
Upon receipt of orders to be issued shortly, the muni-
cipalities will be given one year to prepare and submit
the report. Where the report shows that pollution occurs
from such discharges, the Board will order the municipality
to prepare a feasibility study for a pollution abatement
program. Depending upon the size and complexity of the
project, the design and construction of abatement facili-
ties should be completed in the period 1975 to 1977. A
meeting was held on Hay 28, 1968, with representatives
of the municipalities involved to discuss the type of
report to be submitted. During the meeting, a represen-
tative of the Federal Water Pollution Control Administra-
24 ||
tion discussed the magnitude of the combined sewer
25 -
overflow problem and the objectives of control measures.
'
13
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Walter Lyon
When we reported to you last we told you that
the people of Pennsylvania would have a chance to vote on
a $500,000,000 bond issue. This bond issue was approved
by the voters on May 16, 1967. One hundred million dollars
of the $500,000,000 bond issue has been allocated under the
recently passed Land and Water Conservation and Reclamation
7
authorities for the construction, reconstruction and improve-
ment of sewage treatment plants and major interceptors.
Twenty million dollars has been made available for the two
fiscal years that began on July 1, 1967, with initial funds
to be available by early summer 1966. Combination State-
Federal grants (P.L. 660) of at least thirty percent of the
II
13 ||
j estimated eligible cost will be made in accordance with
14
I
ij rules and regulations adopted by the Sanitary Water Board.
15 i
i
Thus far, forty-nine projects have been certified for a
combination grant, including the Borough of Girard, Erie
County, which is in the order of $71,970 for sewage
treatment plant additions.
I won't go into detail on our Table No. 1 in this
report, which you can read at your leisure. It supplements
the information in the similar table which we submitted to
you in February. But, generally speaking, we need modi-
fications and additions for the treatment plant at Erie,
and it is now planned to include the remaining waste from
the Hammermill Paper Company in that plant.
16
17
18
19
20
21
22
23
24 i|
25
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*
tO tO Jfjfe lONNMH-'MI-'l-'l-'M ^_
O) *>• ^^B tO I—' O
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Walter Lyon
1 CHAIRMAN STEIN: Have Hammermill and Erie arrive!
2 at an agreement?
3 MR. LYON: No, no agreement has been arrived at.
4 The engineering report has just become available within the
5 last few months and is now being studied by our Department.
6 CHAIRMAN STEIN: The difficulty I have with this
7 —. and I don*t want to belabor this — I just want you to
3 make the record.
9 MR. LYON: Sure.
10 CHAIRMAN STEIN: At the last meeting we had, you
1:L said that by December 31, 1967, the basic negotiations for
12 an agreement between the city authority and Hammermill
13 would be concluded. Now it is considerably past December
31, 1967. I would not raise this question specifically
i
except previously in your submission — and this is well
15
known that your Board ordered Hammermill to provide complete
16
treatment of industrial wastes on February 26, 19A-6 -- the
17 !
company has been granted 10 extensions of time. The
18
eleventh request was refused by the Board, but a schedule
-J- v7
of compliance expiring July 31, 1966, was approved.
20
i Even now, the question that I have to raise —
21
and we are not dealing with a small company without
22
resources — is: when are we going to get this going?
23
The reason I am bringing this up is that this
24 .
is an anomaly in.a past excellent program. They generally
25 \\
\ have as good compliance as anyone in the country — any
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109
Walter Lyon
State program in the country. -This has been the one area
that is not, and I think we should spotlight this. We
have those problems, too, in our Federal regulatory pro-
gram. I wouldn't raise this with you if I didn't have
cases like this myself.
MR. LTON: Well, I think that both Hammermill
and the State feel that the past record is not a very happy
one, but I can assure you, Mr. Chairman, that we are con-
vinced that the company is fully intending to comply with
the schedule.
Now, it is true that we are two or three months
behind the signing of the agrement, but this has been a
matter,of pilot plant studies. They had some equipment
problems in completing these studies. The report has
been written, and we have every reason to think that we
will sti^Ll be able to stay on schedule.
Everything you have said certainly is correct.
We are convinced that Hammermill means business.
Girard, I mentioned earlier. Bids have been
let for construction. Larry's Truck Stop unfortunately
has not complied. They have the facilities they need,
but they are not being operated the way they should be
and we are going to get after them. 1 will briefly sum-
marize some of the other waste problems.
The Hammermill Paper Company submitted the final
report and the pilot plant studies on May 21, 1968. This
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Walter Lyon
1 report is now being processed and evaluated by the
2 Pennsylvania Department of Health. The company had been
3 disposing of its spent pulping liquors into two deep in-
4 jection wells which were under permit from the Sanitary
5 Water Board. On April 14, 196ft, Well No. 1 failed and
6 resulted in previously injected pulping wastes backflowing
7 from the well into Lake Erie* The company immediately
8 contacted its consultant and took prompt steps necessary
9 to temporarily plug the well and to ultimately restore it
10 to operation. The well was plugged and the backflow
ll stopped on May 7, 1968.
12 A new application for a permit for restoration
13 of Well NO. 1 was received on May 20, 1968. The company
14 has begun drilling a third deep well and submitted an
application for a permit on May 27, 1963. A time schedule
Xo
has been received which calls for restoring Well No. 1
16
to operation by July 1, 1963, and for placing Well No. 3
17
in operation by July 15, 1968. This gives us a spare
18
well if there are ever other problems on other wells*
19
I think what happened at Hammermill does not give
20
us any reason to think that this is not a good method for
21
disposing of waste.
22
A new application for a Sanitary Water Board
23
permit for additional treatment facilities at the Parker
24
White Metal Company in Fairview Township, Erie County, is
25 I
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Ill
Walter Lyon
being processed and evaluated by the Pennsylvania Departmen
of Health.
The Erie Reduction Company did not meet the
April 15, 196S, compliance date in its revised schedule
due to a delay in receiving approval for crossing a rail-
road right-of-way. All necessary approvals have now
been obtained. Bids are to be received on May 27 for
construction of a sewer line to connect to the city of
Erie sanitary sewerage system. It is expected that this
work will be completed and the discharge eliminated plac-
ing the case in compliance prior to August 1, 1966.
(See Modifications of Table II on following
page.)
One new point that we would like to make, Mr.
Chairman, is the need for a water quality management
model. One of the least understood areas in the thera-
peusis of Lake Erie is the cause and effect relationship
between hydrology, the inputs and outputs of degrading
substances, aquatic life and biochemistry of the lake.
It is essential that we establish a mathematical model
which will allow us to forecast the effect of changing
key variables on lake water quality. Once various sets
of related levels of water quality objectives and abate-
ment are determined, it is necessary to determine their
costs so that public policy decisions can properly relate
-------
CONNlOWNI-'MMI-'H'H'h-'l-'MI-'
MODIFICATIONS OF TABLE II
INDUSTRIAL WASTE STATUS
(May 24, 1963)
Receiving Adequate Trt.
Case Name Location Type Establishment Stream Fac. Provided
Hammer-mill Paper Co. Erie City Integrated Pulp Lake Erie No
Erie County and Paper
The final report on the pilot plant studies was submitted on May 21, 1963, and is now being *:
reviewed and evaluated by the Pennsylvania Department of Health. Final compliance is to be M
achieved by December 15, 1970. %
Parker White Metal Co. Fairview Twp. Metal Products Trout Run No t?
Erie County o
An application for additional treatment facilities is being processed and evaluated by the
Pennsylvania Department of Health.
Erie Reduction Erie City Rendering Plant Lake Erie No
Erie County
This case is behind schedule due to a delay in approval for sewer right-of-way. Bids to be
received May 27, 1963, for connection to the City of Erie sanitary sewerage system.
Compliance is expected prior to August 1, 1963.
IVJ
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Walter Lyon
water quality and water use improvements to dollar inputs
into the program. Admittedly this is a difficult task.
Our state of knowledge regarding such modeling is far
behind where it should be. Nevertheless, this is probably
the single most important task to which we must dedicate
ourselves if Lake Erie is to be a healthy lake again.
Now, I am not trying to say here, Mr. Chairman,
that we should not go ahead with the abatement program
that these conferees have developed. I think we should
fully implement everything we have agreed to do, but in
addition I think we should do this modeling.
CHAIRMAN STEIN: How much will it cost?
MR. LTONi We estimate very roughly somewhere
between $150,000 and $250,000, and this is assuming that
the FWPCA would have to collect possibly some additional
data for input to the model. If this is not necessary,
the cost should stay around $150,000.
The lake represents a complex ecosystem. There
are the hydrologic and biochemical subsystems. These, as
well as others, must be mathematically related in a con-
ceptual framework for public policymaking. While this
has been done for the Delaware estuary very successfully,
this has not been done for Lake Erie or any of the other
Great Lakes. Understandably, the ecologic problems of
lakes are much more complex than those of rivers and
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Walter Lyon
1 estuaries, but they should be subject to solution. It
2 should be possible to develop an adaptive computer program
3 that should give us fairly good indications of the conse-
4 quences of changing certain environmental parameters in
5 the Lake Erie ecosystem. Understandably, such a model
6 would only give very approximate solutions and safety
7 factors would have to be imposed if we want to attain the
8 goals we set. But frankly we donft know today what precisely
9 is going to be accomplished except in general we know it
10 will be improvement by the abatement program that we haw
H implemented. We don't know what the resulting water quality
12 will be with the program that we have.
13 One other area of "treatment" has not been
explored and should be. It relates to the fact that all
14 r
lakes act as traps for sediments and organic and inorganic
.LO
materials. They slowly fill up and by filling cause
16
ecologic and hydrologic changes that cannot be reversed
17
unless the trap is cleaned out by removing the trapped
18
material. To say that this is a sizeable task is indeed
19
an understatement. But one ought at least make an engin-
20
eering feasibility study of the task of removing these
21
sediments in order to reverse or halt the aging of the
22
lake. The cost and consequences of doing this should be
23
used as input to the water quality management model.
24
In summary, then, Pennsylvania is making good
25
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Walter Lyon
progress. We have 51 sources of waste on the lake; one of
them is not moving, but they have a facility — that is
LarryTs Truck Stop — and 45 are already in compliance with
the treatment requirements. The remaining five or six are
on schedule or moving satisfactorily
I would like to have you meet Miss Sherry Brockway
who is Miss Erie of 1966. She grew up along the shores of
Lake Erie. (Applause) She is going to throw out to you
some beach balls which have in them certificates that will
give those who will catch them a free week-end at Erie,
so that they can enjoy Presque Isle and see that our beaches
are clean.
Those who have received the balloons, if you
will send the certificate -- I think they have instructions
on them — you will get a free week-end including motel
and other things at Erie so you can enjoy the lake, and I
know it is a pleasant place because I went swimming there
yesterday.
MR. METZLER: May I make a point of order here,
Mr. Chairman?
CHAIRMAN STEIN: I hope it is not the one I am
thinking it is.
MR. METZLER: I want to point out that they have
imported a New Yorker here to represent Erie, Pennsylvania.
Miss Erie is actually from Buffalo, New York.
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116
Walter Lyon
MR. LTON: She may have grown up in Buffalo, but
2 she lives in Erie now and she is Miss Erie, Pennsylvania,
3 1966.
4 I»d be happy to answer any questions except
5 about Miss Brockway.
6 MR. POSTON: I have a question.
7 I wondered, Mr. Lyon, whether you gave any
8 consideration in this model or did any investigation of
9 what would be required in getting information from the
10 Canadians, whether this has been part of your investigation?
n MR. LTON: Being a member of the Lake Erie
12 Pollution Advisory Board of the International Joint Commi
sion, and knowing of the work that has been done by Ontario
X w
and the Dominion of Canada. I am confident that the Canadians
14 '
would be happy to cooperate with any model that — of course,
J.O
I can*t speak for them; but I get the feeling that the
16
Canadians would be only too happy to provide us with the
17
input that we would necessarily have to have in order to
18
make this model of the lake complete. But I frankly think
19
that the people of the land, in the long run, are going to
20
have to be entitled to know specifically what their money
21
that they are putting into pollution abatement — both
22
industries and the municipalities — the money that they
23
are putting into pollution abatement, what it will do to
24
the lake. We don't know that today. The one thing we are
25
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Walter Lyon
sure about is that what we are doing is going to do a lot
of good, but how much good we don't know, but only a model
will tell us this.
CHAIRMAN STEIN: You brought one with you.
MR. LYON: The story that Lake Erie is dead is
simply not true. If you read the pages of the sports
magazines, you can see that Lake Erie is still a very
fine lake-recreational resource. We had 3,176,000
visitors to our beaches on Presque Isle last year. Lake
Erie is a "sick" lake and some of its recreational uses
in other States may have been adversely affected. But
Lake Erie is not "dead." It is subject to resuscitation.
It is obvious that the people of Pennsylvania and the other
people who live in its watershed are gearing up to spend
the money that is needed to correct this problem.
The national publicity about Lake Erie being
"dead," because it led people to think that the recreational
uses of Lake Erie have been destroyed, cost our tourist and
recreation industry in the Pennsylvania portion of the lake
approximately $13 million in reduced income last year.
This means that this publicity has not only deprived some
sectors of our economy of this income, but more importantly
has deprived many citizens of the enjoyment of the lake.
The Pennsylvania beaches at Presque Isle are a
pleasant and healthy place to spend a lazy week or a
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2
3
118
Walter Lyon
week-end and we invite you and the people in the other Lake
Erie States to do so.
CHAIRMAN STEIN: Any other questions or comments?
MR. METZLER: Mr. Chairman, I would like to
support the concept of the model* I understood that this
actually was going to be done three or four years ago.
Wasn't there a start made on this?
8 Let me say that I am not making this facetiously
or as though I had thought about it for the first time,
10 because New York State has spent an equivalent amount of
1;L money on two of its major waterways, and I would say that
neither of these waterways are anyways as near as compli-
cated as Lake Erie* I would want to be very sure that the
-L.O
fact that such a modeling attempt was going to be made
14
would not slow down the enforcement program, but I think
15
this is entirely too complex a system for us to blithely
16
promise that we will have BO per cent phosphate removal,
17
that we are going to stop the algal blooms or that with
18
95 per cent BOD removal we are going to return the high
19
level of sport fishing that this lake might have enjoyed
20
at one time.
21
I think that when you think of the estimates that
22
you have already heard as to the amounts of money that are
23
being spent by cities like Detroit and Cleveland and
24
Buffalo, I don't see how you can justify doing this and
25
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8
10
11
13
119
Walter Lyon
not doing the model.
CHAIRMAN STEIN: Are there any other comments or
questions on that?
MR. OEMING: It seemed to me, Mr. Chairman, that
we bridged that gap when we had the original conferences,
and if you will recall, I really was the one that raised
serious questions about where we were going, and I thought
the conferees at that time were convinced that BO per cent
removal of phosphates had been supported by the record of
the conference. Now, I wonder if we are going to start
all over here again reassessing this, and with its induced
delays — whether you like it or not, there are induced
delays when you start new research projects.
14 CHAIRMAN STEIN: Well, I think that point is
well made. I think our program is established on the
notion that any pollution control program where we put in
16
secondary treatment and chlorination and have phosphate
17
removal, we know that you are going to get a significant
18
degree of improvement.
•L *J '
I think what Mr. Metzler and Mr. Lyon said is:
20
you don't have a precise degree of treatment. The one
21
question that I have — and I ask this in all sincerity:
22
given the complex situation that we have in the lake, it
is not like possibly an estuary or a river, or something
11
24
of that kind. I am not quite so sure that once we have
M
25
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Walter Lyon
done the model and done the work that we will be able to
make very much more of an accurate prediction than we can
in the program we have. We may, but I am not sure of that.
MR. METZLER: Well, I think this is an important
point, Murray. I am in the hands of the experts here, and
I expect maybe Walter Lyon is better informed than I., But
I am under the impression that we can get some much more
8
10
11
12
13
14
22
23
24
25
precise ideas of the effects of taking out various kinds
and amounts of pollutants out of the lake*
CHAIRMAN STEIN: Mr. Lyon.
MR. L70N: I would like to comment en what Mr.
Oeming from Michigan said and I think Mr. Metzler touched
on it| too.
I want to re-emphasize that I do not propose
15 this model idea for a stalling device. I think we have
all agreed on what has to be done. I think we should go
16
ahead and do it, and this is not something that would make
us wait and not go ahead and abate the pollution we are
18
planning to abate. That should go right ahead; that should
J. %J
not be stopped. But I think that without a model — and
21
20
I would have to be the first one to admit that our knowledge
in this modeling business is not as precise as we would
like it to be; it is not like a Swiss watch — but it
will —• and I have talked to people who are knowledgeable
Jnthis and they agree that it will — give us a much better
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Walter Lyon
guideline as to where we are going to get with this pollution
abatement program and whether it is enough or whether it
isn»t enough. I think this is the important thing.
This is what we have got to remember: operating
without a model now is almost like driving without a
speedometer; you just don*t know how fast you are going.
You have got to sort of guess and modeling takes some of
the guesswork out of some of it.
CHAIRMAN STEIN: Let me ask you a very practical
question if we are going to consider this, Walter; I,
and I guess at least two other conferees here, have just
been through the throes of trying to get some State and
Federal money together for the alewife removal program in
Lake Michigan, and I know how difficult and what problems
you have even dealing with relatively small amounts*
We got up $500,000 and the localities are going
16
to put out about the same amount. You might say this was
17
about the same size program for the State and Federal
people we are getting here.
19
Would you propose that the money for this come
as a State and Federal joint effort or would you propose
that this be a federally-financed project?
MR. LYON: Frankly, I haven't thought about that
particular point* I would like to recall that the modeling
24
that was done on the Delaware was done under the Comprehensive
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122
Walter Lyon
Planning Section of the Federal Water Pollution Act.
o
Frankly, I don't see why that could not also be done for
3 Lake Erie under that section of the Act.
4 Since you mentioned alewives, let me remind you
5 that part of the answers coming from such a model will
6 help us come to grips with the alewives problems. It
7 will help us understand the ecology of this lake better
8 so we can try to prevent the alewife problem, and this
9 is how it will help us in every conceivable way.
IQ CHAIRMAN STEIN: Are there other comments or
11 questions?
12 If not, I think at this point we are going to
13 plan to recess for lunch. I would like your cooperation
on this: One, as in all these sessions, we really don't
know how many people we are going to have and how long it
J.O
is going to take*
16
Now, I would suggest that participants other
17
than those from the panel make arrangements with the
18
people who are going to introduce them from their State
19
or with myself, indicate how many want to come up, and
20
try to give us an approximate time of the length of your
21
statement. This will enable us to plan an efficient
22
conference. We are trying to put this through today.
23
Now let me see if I can meet the schedule. I think with
24
Mr. Oeming's schedule we are just going to have to plan
25
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123
d Walter Lybn
on pushing on through and see if we can complete this
2 evening.
3 Now, I again want to assure you that everyone
4 will be heard and heard fully. With that, we will recess
5 until 20 after 1:00 for lunch.
6 (Whereupon, the Conference recessed for lunch.)
7
8
9
10
•
13
14 j
I
15 I
16 l!
I:
i;
li
17 i;
18 ||
19 !!
20
21
I
22
•
24 jj
11
25 il
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2
3
4
5
6
7
8
9
10
11
124
AFTERNOON SESSION
CHAIRMAN STEIN: Let's reconvene.
Let me read a telegram into the record:
"June 4, 1968
"Friends: Regret that I am unable to participate
personally in this crucial meeting on pollution in Lake
Erie. In the past months, progress has been made on this
problem, but we have far to go in saving Lake Erie and in
preserving this invaluable national resource for the future
recreational and commercial use of millions of Americans.
Most importantly, we need a firm commitment from Federal,
12
i
located in the area of Lake Erie that it can and will be
State and local officials and from the private interests
i
13
!
, saved. New York State, with the passage of its $1 billion
'pure waters' bond issue has taken the lead, but the Federal
15
Government has yet to fulfill the promise implicit in the
is II
ij
I enactment of water pollution abatement legislation, in
17 j
I recent years. We can, however, act decisively and iramedi-
18 !
i
! ately to curb municipal and industrial pollution in the
19 Ij
I
shores of the lake to stimulate the development of tech-
20
j
niques which will save Lake Erie from eutrophication as
21
the result of phosphates and restore the lake to its former
22
condition, and to take such other administrative actions as,,
23
{ will limit new sources of possible pollution. Be assured ol
24 |
my continuing commitment to work with you in this new and
25
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William Riley
crucial conservation crusade.w Signed Jacob K. Javits,
U. S. Senator.
Mr. Poston.
MR. POSTON: As the Federal presentation for
this conference, we have three five-minute reports: one
on the compliance of the Federal installations; one on
surveillance of Lake Erie; and one report on the pollution
of Lake Erie beaches. We also have Col. Wright, District
Engineer in charge of the pilot program on dredging, and
I would like to proceed with these, starting with the
report on Federal installation compliance, and Mr. Bill
Riley will give this to us.
MR. RILEY: Conferees, ladies and gentlemen.
My name is Bill Riley. I am here to present the statement
on the status of compliance with Federal installations
with the recommendations and conclusions of the Lake Erie
Conference.
The progress being made by Federal installations
in the Lake Erie conference area toward compliance with
the requirements of Executive Order 11288 and the Con-
ference Summary has been reported at previous conference
sessions. At the time of the first session of this con-
ference in August 1965, there were approximately 390
Federal installations in the Lake Erie-Detroit River
Basin. Sixteen of these had waste treatment facilities
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126
William Riley
1
inadequate to meet the requirements later adopted by the
2
conferees. All installations have since instituted satis-
3
factory abatement programs with the result that all major
4
installations, except Grosse lie Naval Air Station, which
5
is scheduled for deactivation by July 1969, are now in
&
compliance with the Conference Summary. Two small in-
7 stallations, namely, the U.S. Coast Guard Detroit River
8 Light Station and the Toledo Coast Guard Station, are not
9 yet in compliance.
10 The status of the three installations not in
11 compliance is as follows:
12 Grosse lie Naval Air Station, Grosse lie,
13 Michigan: The Department of Defense, in 1964, announced
14 plans to close Grosse lie Naval Air Station and to transfer
15 operations at the station to Selfridge Air Force Base.
16 The original target date for the move was September 1967,
17 contingent upon modification and construction of certain
18 facilities at Selfridge. Unfavorable bids for construction
19 of these facilities were received in May 1967. The project
20 scope was subsequently revised and funding reprogrammed.
21 Favorable bids were received in March 196$ for the
necessary construction. The move to Selfridge Air Force
«o*o
Base is now scheduled for July 1969.
*£o
United States Coast Guard Detroit River Light
24
Station, Monroe County, Michigan: Sanitary wastes from
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127
William Riley
four persons are discharged without treatment to Lake Erie.
2
Previous attempts to replace this station with an automated
3
light structure have been unsuccessful due to ice problems.
4
The Coast Guard has submitted a request for funds to the
5
Congress to design and construct a permanent, unmanned and
6 automated navigation light.
7 United States Coast Guard Station, Toledo, Ohio:
8 Wastes from ten persons are discharged untreated to Maumee
9 Bay. The Coast Guard has made arrangements to connect
10 this station to the city of Toledo sewer system in con-
11 junction with an adjacent yacht club. The sewer project
Jfc is presently awaiting city of Toledo action.
13 Significant progress has been made by Federal
14 installations since the March 22, 1967, session of this
15 conference.
16 The National Aeronautics and Space Administra-
17 tion, Lewis Research Center, has effected maximum pollution
18 abatement through both construction and surveillance
l9 programs. The construction of secondary treatment facili-
20 ties at the Plum Brook Station, Sandusky, Ohio, was com-
pleted during February of this year. Chemical treatment
facilities for the removal of phosphates have been incor-
22
porated into this plant. NASA is presently conducting
tests to determine plant efficiency and practical chemical
24 II
dosages for maximum phosphate removals. NASA has also
<&O
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William Riley
instituted a complete waste discharge sampling program
2 at its Cleveland facility. Results of this program
3 indicate no significant pollution originating from this
4 installation* Arrangements are now being made to
5 routinely provide the results of this sampling program
6 to the State Water Pollution Control agency.
7 The tJnited States Coast Guard has continued
8 their construction program and instituted a program to
9 maintain surveillance of sewage treatment plants serving
IQ the various stations. Secondary treatment and chlorina-
H tion facilities were installed at the Cleveland Coast
12 Guard Station during July 1967. Inadequate treatment
13 facilities aboard the Coast Guard Put-in-Bay Houseboat
14 were replaced by an incinerator unit during April 1968.
Other installations in the conference area have
15
been surveyed to insure adequate waste disposal practices.
16
This surveillance will be continued* The Federal Govern-
17
ment fully intends to keep its own house in order.
18
CHAIRMAN STEIN: Are there any questions?
19
MR. OEMING: I have a question, Mr. Chairman.
20
CHAIRMAN STEIN: Yes.
21
MR. OEMING: Mr. Chairman, I would like to ask
22
to clarify a point here. When this gentleman reports that
23
everybody is in compliance at least in thirteen points
24
here, does this include phosphate removal at all these
25
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William Riley
locations? Is the phosphate being removed?
MR. RILEY: No.
MR. OEMING: Well, then, actually this is not
in compliance with recommendations, is it?
MR. RILEY: To that degree, no.
MR. OEMING: I wonder, Mr. Chairman, if this is
the proper time to raise the question — while this relates
to Federal installations — about operations over which
Federal agencies have some control? I am referring
specifically to oil pollution problems arising from ship-
ping and particularly international shipping or interstate
commerce. Is there someplace else on the program where
this might be more appropriate?
CHAIRMAN STEIN: No, this might be the place,
but let1s try to handle the first question first on that
phosphate.
MR. POSTON: The recommendations, as I under-
stand them, on phosphate removal are rather loose.
MR. OEMING: I understand that. I asked him
if he was removing phosphates and he said, "No."
MR. RILEY: In one instance. In all of these
installations with the exception of possibly two or three,
all installations are discharging in the neighborhood of
three to five thousand gallons a day — many of these less.
ii
24
MR. OEMING: My question still stands: Is
ii
25
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130
William Riley
1 phosphate being removed from any of these installations?
2 CHAIRMAN STEIN: One of them he said.
3 | MR. OEMING: In one of them he says.
4 MR. EAGLE: Conducting tests he says.
5 MR. OEMING: Yes. Now, my question is -- and I
6 think I am right — that the conferees called for phosphate
7 removal, not at any level but for phosphate removal. So
8 if they are not removing phosphates, how can we say they
9 are in compliance?
10 CHAIRMAN STEIN: Is there any answer on that?
11 One of the things is — I'd like to get a clarification
10 on that and I think this is a major item we should consid^
j
,,, | — the Lake Michigan conference, at which two of these
lo I
I States were represented, we arrived at a recommendation
j
I of a minimum of #0 percent of phosphate removal. On Lake
lb j|
! Erie we are talking about a substantial phosphate removal.
16 j;
ij The reason for that relative lack of nonprecision is that
17 |j
!j I don't think we had as much information at that time
j as we did at Lake Michigan.
JL C7 |
I think the key point is that if we are going
20 !
! to do as well as Lake Michigan, this is something the
conferees should consider. But let's assume for the
22
moment that we are going to ask for an 60 percent phos-
23
phate removal, how many of the Federal installations meet
24 '
that?
25 !
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131
William Riley
MR. RILEY: At present?
MR. POSTON: I think that the Federal installa-
tions have secondary treatment or more, is this not right?
MR. RILEY: Right.
MR. POSTON: And insofar as phosphate removal
is concerned, we do get as much phosphate removal at these
plants as we would from any other municipal plant providing
secondary treatment.
MR. OEMING: Oh, if that is the way you want it.
CHAIRMAN STEIN: Let me rephrase the question.
I said, assuming we ask for &0 per cent phosphate removal
— I am not paraphrasing it, I am stating it again — how
many of the Federal installations will meet this at the
present time?
MR. RILEY: With present treatment facilities?
CHAIRMAN STEIN: Yes.
MR. RILEY: There is only one Federal installa-
tion with new treatment facilities designed and capable
of being operative to effect phosphate removal.
CHAIRMAN STEIN: Let me get this again. How
many Federal installations, at the present time, are
removt&g BO per cent of their phosphates?
MR. RILEY: At present how many are removing
phosphates?
24 "
CHAIRMAN STEIN: Yes, 60 per cent at least,
M
25
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William Riley
MR. RILEY: At the present, none of them are
2 removing 80 percent of the phosphates.
3 CHAIRMAN STEIN: Any other comments or questions?
4 MR. EAGLE: Yes. I think the report is in error
5 here, then, when you say NASA at the Lewis Research Center
6 has effected maximum pollution abatement through both
7 construction and surveillance programs; and then back here
8 in Conclusion No. 7 of the Conference of 1965, we say that
9 municipal wastes be given secondary treatment or treatment
10 of such nature as to effectuate the maximum reduction of
H BOD and phosphates. So I think the report is in error.
12 MR. RILEY: As far as NASA is concerned —
13 MR. EAGLE: Tell me what kind of treatment do
14 they have at NASA?
15 MR. RILEY: Originally they had r. primary plant.
They had a trickling filter, followed by a clari-floccu-
16
lator. We had chemical precipitation facilities for
phosphate removal. They are presently running Jar tests
18
to determine precisely what chemicals to use and in what
A »/
dosages to get their phosphate removal. At present, their
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133
William Riley
MR. RILEY: It is part of their construction
program.
CHAIRMAN STEIN: No, what percentage removal
are they getting, Mr. Riley?
MR. RILEY: Excuse me?
CHAIRMAN STEIN: What per cent of phosphate
removal are they getting at the NASA plant?
MR. RILEY: They haven't installed the automatic
chemical feeding equipment. They have run several full
plant scale tests.
CHAIRMAN STEIN: In other words — I don't want
to put words in your mouth — in other words, you say they
can, with the existing equipment, remove better than BO
per cent, but you don't know whether they are doing it
all of the time now?
MR. RILEY: Well, they don't have their
automated feed equipment installed yet.
CHAIRMAN STEIN: In other words, they are not
getting it.
MR. RILEY: No, they are not; but they are in
the process.
MR. POSTON: There was not a timetable set for
phosphate removal.
CHAIRMAN STEIN; We understand that, and that is
one of the major reasons we are here today, and I think
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134
William Riley
n^
this is a question that I am going to pose to the confere
We have at least a nutrient removal problem --a pretty
similar problem relating to Lake Michigan and Lake Erie.
4 The Federal conferees and two of the States here have
5 ! agreed to a minimum of 80 percent removal in Lake Michigan.
i
6 We do not have this in Lake Erie. The question here is:
7 j Should we have a program at least as good as we have in
8 Lake Michigan? Maybe we shouldn't. Maybe there are other
9 j| factors in Lake Erie or maybe you don't care as much about
10 i Lake Erie, but if we do adopt that program that we have
11 | adopted in Lake Michigan for Lake Erie, no Federal installa-
12 tion is in compliance at the present time.
Is there anything wrong with what I just said?
Are there any further comments or questions?
MR. OEMING: Did you open this up for other —
CHAIRMAN STEIN: Well, after we finish this
.,,.. phosphate question, I think that the phospate situation
is one that we will want to grasp pretty firmly before
, g this is over.
,,0 All right, Mr. Oeming.
MR. OEMING: Well, Mr. Chairman, my question to
the conferees and to you as Chairman is: what procedure
is followed in the Federal establishments to handle oil
losses' — and I am referring now to repetitive oil losses
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135
William Riley
from vessels plying the connecting channels? This
means the Detroit River and Lake Erie — and a case in point
is this: Norfolk and Western which plies between Detroit
and Windsor, Ontario. The ferry boat is called the Windsor.
We have suspected for some time that this is
a recurring oil pollution problem, and we finally nailed
it down on May 2, 1968, to a loss of oil from the storage
tanks, The situation is such on this ferry that any
time the oil is loaded on this ferry it has an overflow
device that permits overflowing of the fuel tanks into
the river.
Now, at the present time, this matter is in the
hands of the Coast Guard. I am posing the question here
to the conferees: if we are going to be concerned about
oil — and I think we are — must we rely solely upon the
Coast Guard or what mechanisms are we going to get to
establish here to get problems like this corrected?
CHAIRMAN STEIN: Do you want to try that, Mr.
Poston?
MR. POSTON: I think that the problem of oil
pollution, whether it is bilge or leaky ships, is very
difficult in that it is almost impossible to catch them
in the act most of the time.
However, we do receive reports from various
sources on such spills and we do try to follow up. Our
II
25
«
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136
William Riley
1 legislation requires that we show willful discharge of
2 oil on the part of the boat or ship if we are to obtain
3 a conviction and this is a very difficult thing to show.
4 I think our Congress has under consideration
5 legislation which would make this easier on the part of
6 the Administration to enforce some of the regulations.
7 When we find out about any of these, we will
8 proceed ourselves to investigate and get abatement and
9 stop situations such as this, and enforce in any other
10 manner that the law will provide.
n CHAIRMAN STEIN: Well, let me ask you this
12 question again. You have heard Mr. Oeming's account of
13 the situation there. Don't you think he has presented a
prima facie case for a willful discharge?
MR. POSTON: Well, I am not sure that it is
15
willful.
16
CHAIRMAN STEIN: Well, if every time that they
17
put oil in they know there is an overflow and the over-
is
flow leaks out. what would you call it?
19 ' '
MR. POSTON: If he is notified I would say it
20
is willful.
21
CHAIRMAN STEIN: Well, in a case like that, in
22
a specific case like that, don't we have a procedure for
23
getting at that?
24
MR. POSTON: Yes* sir.
25
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137
William Riley
CHAIRMAN STEEN: So I wonder — trying that
assumption — can't we work on that case, Mr. Poston?
MR. POSTON: Yes, sir, we will proceed on this.
MR. OEMINQ: That is all.
MR. POSTON: Will you give us any other informa-
tion relative to this particular situation?
MR. OEMING: I will hand it to you.
MR. POSTON: We will report back to you very
shortly as to what actions we take.
MR. OEMING: Well, my concern, Mr. Chairman, is
not that anybody is falling down here at this point, but
I am looking for a mechanism that we can follow here —
some mechanism — and if it is to be the Coast Guard,
fine. But I am not so sure in my own mind whether it is
to be the Coast Guard or the Federal Water Pollution
Control Administration or whom.
CHAIRMAN STEEN: Well, let me try to answer that
as best I understand that procedure.
You can report this to any Federal agency. Now,
the Coast Guard — and I don't know if there is a repre-
sentative of the Coast Guard here— is charged with
enforcing all of the laws of the United States as they
affect waters.
Now, it shouldn't really make any difference to
a complainant if they report this to the Coast Guard or
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1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
i
17 |
18 I
19 |
20
21
22
23
24
25
138
William Riley
to us. This is an internal matter. We are supposed to
have an arrangement in gathering the facts and referring
a case of this type to the Department of Justice for
appropriate action which would follow.
Now, without prejudging the facts — and you
know the facts in any case tend to be a little different
sometimes on investigation — but assuming a complaint
comes in like this from a responsible State agency, I
think this warrants an investigation. If the facts
indicate that the situation is as you outline it, we do
have a remedy and we do have a procedure.
Now, Mr. Poston is notified and I think we will
just follow this through and get this along and follow
the case through.
MR. OEMING: I am satisfied.
MR. POSTON: I didn't say that Mr. Oeming has
documented the occurrence, and he has two eye witnesses,
I might say. I think he has given us a very adequate
report so that we may make further investigations and
hopefully come up with elimination of this particular
situation.
CHAIRMAN STEIN: Mr. Lyon.
MR. LTON: Mr. Chairman, this incident illus-
trates maybe one other important point and that is the
fact that enforcement alone may not be the answer. It
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139
William Riley
seems to me that we would have to institute a program, or
we ought to institute a program to prevent not only oil
spills but also the pumping of bilges, and so forth.
Somebody has to figure out where these vessels should
discharge waste materials or bilge materials* You just
can't expect them not to do this if they don't have a place
to put the bilge discharges, So there is a real need, in
addition to enforcement activity, to develop a program
that will prevent this type of thing, both on on-shore
installations and on the vessels themselves.
My question basically is: Is there a Federal
program that would try to come up with answers to prevent
this type of thing?
MR. POSTON: I think we do not have an adequate
program for coping with all of the oil pollution that
comes in the lakes. I think that Congress is presently
or has held hearings, and whether they come up with
additional legislation that would be helpful in this area
only Congress knows at this point.
We are concerned and we do follow up. I know
the Coast Guard is on the scene with their watercraft
in connection with other activities, and they follow up
on some of these. The Corps of Engineers is interested
in oil pollution, but I think that the fact that we have
11
24
these spills with the frequency that we do is indicative
ii
25
*
-------
140
George Harlow
1 that we do not have ample program on this in the matter
2 of water pollution.
3 CHAIRMAN STEIN: Are there any other comments or
4 questions? If not, Mr. Poston.
5 MR. POSTON: I would ask Mr. Harlow to give the
6 report on surveillance of Lake Erie, as well as his
7 report on the pollution of the Lake Erie beaches. Mr,
8 Harlow,is in charge of our Cleveland Office, and has
9 charge of surveillance in this area and has a very active
10 program.
MR. HARLOW: Mr. Chairman, I would like to
present you with a report. If you don!t have a copy, I
-L «c
have a few here, on the efforts of our surveillance of
J_O
the lake in 196? and 1963, and I only have three copies
14
with me right now.
15
For your information, and in reading in your
16
spare time, I have some more reports here that have
17
compiled all of the analytical data and the physical,
18
chemical, biological and microbiological data on the lake
19
from the early studies at the Cleveland Program Office.
20
At this time, I would like to summarize our
21
efforts in surveillance of the lake and what the water
22
quality parameters indicate.
23
Between 1964 and the present, in the western
24
basin all chemical constituents increased except
25
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141
George Harlow
chlorides, silica, and chemical oxygen demand. The total
dissolved solids have increased five per cent.
In the central basin for the same period, all
chemical constituents have increased except chlorides,
silica, and nitrates. Dissolved solids have increased
ten per cent.
In the eastern basin all chemical constituents
have increased except silica, ammonia, and nitrates.
Dissolved solids increased fourteen per cent.
Silica is the only chemical to have decreased in
all three basins. The average decrease is 26 per cent for
the entire lake. This decrease is accompanied by increases
in diatom populations — diatoms utilizing silica in
skeletal formation.
In 1967-6d the average total dissolved solids
for the entire lake was 197 mg/1, an increase of nine
per cent over 1963-64, whereas chlorides decreased slightly
to 23 mg/1.
Sediments in 1967-6$ showed increases in nutrients
since 1964. Total phosphorous has increased in all basins
with the greatest per cent increase occurring in the
eastern basin. Ammonia increased in all basins with the
largest increase again occurring in the eastern basin.
Organic nitrogen increased in the western and eastern
basins while decreasing slightly in the central basin.
Nitrates showed decreases in the central and eastern basin
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3
4
5
11
18 |
19 ;
142
George Harlow
sediments, while remaining constant in the western.
The west to east trend with respect to decreas-
ing phytoplankton populations was again noted in 1967-68
data, however bloom conditions did not exist during the
sampling periods.
Bacterial densities in the western basin under
ice cover showed larger populations in the bottom waters,
8 whereas non-winter 1963-64 figures showed greater popula-
9 tions in the top waters.
i
10 I In summary, on the basis of our most recent
data, the over-all water quality of Lake Erie is worse
than it was in relation to the 1963-64 data. With this
qualification, this conclusion should be taken with a
word of caution; however, in order to make this statement
a true and perfect comparison all other factors which
affect water quality would have to be equal. In reality
these other factors are very unequal.
And this completes my statement on surveillance
of the lake. (Report entitled "Lake Erie Surveillance
Data Summary 1967-1968 follows.)
CHAIRMAN STEIN: What do you mean by "unequal"?
Do you have more people there?
MR. HARLOW: Well, we have different conditions
of temperature, wind, currents, waste discharges — these
other factors affect water quality as well as what is
-------
LAKE ERIE
SURVEILLANCE
DATA SUMMARY
1967 -1968
UNITED STATES
DEPARTMENT OF INTERIOR
FEDERAL WATER POLLUTION CONTROL ADMINISTRATION
GREAT LAKES REGION
CLEVELAND PROGRAM OFFICE
MAY 1968
-------
TABLE OF CONTENTS
PAGE No,
SUMMARY i
INTRODUCTION 2
ACKNOWLEDGEMENT 2
PROGRAM AND METHODS 2
PARAMETERS *
LIST OF ABBREVIATIONS FOR DATA COMPILATION ?
DISCUSSION OF /VlALYTICAL DATA 9
Water Chemistry 9
Sediment Chemistry 33
Water Biology 40
Phytoplankton 40
Chlorophyll and Seston 58
Sediment Biology 58
Water Bacteriology 59
-------
LI ST OF TABLES
TABLE No, TITLE PAGE No,
I. Cleveland Program Office, Lake Erie Routine 10
Surveillance - Mid-lake Water Chemistry
2. Detroit Program Office, Water Chemistry - 25
Western Basin - 1967
3. Water Chemistry Comparison 1963-64 - 1967-68 29
Cleveland Program Office Data
4. Detroit Program Office, Michigan Waters of Lake 31
Erie Comparative Data, 1963 and 1967
5. Detroit and Cleveland Program Offices, Comparison 32
of 1967-68 Cleveland and Detroit Data for
Western Basin
6. Cleveland Program Office, Lake Erie Routine 34
Surveillance - Mid-lake Sediment Chemistry
7. Sediment Chemistry Comparisons 1963-64 - 1967-68 39
Cleveland Program Office Data
8. Cleveland Program Office, Lake Erie Routine 41
Surveillance - Mid-lake Plankton
9. Percent Phytoplankton Types vs. Total Organisms 40
Cleveland Program Office Data
10. Average Phytoplankton Populations 57
Cleveland Program Office Data
II. Water Biology Comparisons 58
Cleveland Program Office Data
12. Cleveland Program Office, Lake Erie Routine 60
Surveillance - Mid-lake Benthic Macroinvertebrates
13. Lake Erie Water Microbiology, Winter (68) Cruise 65
Cleveland Program Office
-------
LIST OF FIGURES
FIGURE No, TITLE PAGE No,
I. Lake Erie Mid-lake Surveillance Stations 3
Cleveland Program Office
2. Lake Erie Western Basin Surveillance Stations 5
Detroit Program Office
-------
SUWARY
Although Lake Erie is still an excellent source of municipal
raw water, the effects of pollution are becoming ever more discern-
ible. The dissolved solids have increased by nine percent since
1964 with progressively higher concentrations from west to east.
Most chemical constituents in both water and sediment have increased
during the same period.
High populations of phytoplankton were noted with diatoms
the overall dominant type in spring, fall, and winter, and green
and blue-green in summer depending on the basin. Bloom conditions
were not noted during the 1967-68 sampling period. As in 1964,
the pollution-sensitive scud was all but missing in all samples.
The pollution-sensitive types, such as sludgeworms and bloodworms,
were in profusion.
The 1967-68 program was the first published study of the
chemical,, biological, and microbiological conditions under ice
cover. The limited winter program revealed higher bacterial
densities in western basin bottom waters as opposed to the non-
winter 1963-64 findings where the highest densities were found in
the surface waters.
-------
INTRODUCTION
The following report is the first of an anticipated annual series
to be prepared by the Cleveland Program Office of the Federal Water
Pollution Control Administration, Great Lakes Region. All significant
data gathered by the Cleveland and Detroit Program Offices in their
surveillance monitoring programs on Lake Erie will be included.
The purpose of the reports is to chronicle water quality changes
in Lake Erie. It is not the intent to provide detailed interpretive
evaluations. However, the compiled data, along with information col-
lected by other agencies, should be useful to those engaged in lake
water resources management including pollution control.
All water quality data of a routine nature are to be entered into
the STORET data processing system in use by the Federal Water Pollution
Control Administration.
ACKNOWLEDGMENTS
The first four surveillance cruises conducted by the Cleveland
Program Office were made with the United States Coast Guard buoy tender
Tupelo. The cooperation of the Coast Guard is gratefully acknowledged
and special thanks are given to the captain and crew of the Tupelo in
accommodating Cleveland Program Office personnel and equipment. All
waters analyzed by the Detroit Program Office were sampled with Federal
Water Pollution Control Administration equipment assigned to the
Detroit Office.
PROGRAM AND METHODS
The Cleveland Program Office surveillance program on Lake Erie was
initiated in response to a recommendation by the state-federal Confer-
ence on Pollution in Lake Erie and its Tributaries in August 1965. The
Detroit program is the result of an earlier similar conference on the
Detroit River and Michigan Waters of Lake Erie in 1963. In order to
better describe any changes in the overall quality of Lake Erie, both
programs were primarily designed for offshore water quality definition.
The Cleveland program was established to include sample collection
at thirty stations along the longitudinal midline of the lake (Figure I).
The plan called for four sampling cruises per year under the conditions
of (I) ice cover, (2) spring overturn, (3) maximum temperature stratifi-
cation and (4) fall overturn. Each station was to be sampled in three
areas, at the surface, mid-depth, and bottom. Bottom sediment samples
were also to be collected.
In accord with the Cleveland plan, midlake water and sediment were
sampled in May, August, and October 1967, and January 1968. The sampling
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83° SO'
43°OO-
IFFALC
30
(O
LAKE ERIE
MID - LAKE
SURVEILLANCE STATIONS
4.0
-------
was accomplished as planned except fbr the January cruise, which was
completed only in the western basin and a portion of the central
basin, then terminated because of severe ice conditions.
Only non-winter, western basin surface water samples were col-
lected by the Detroit Program Office. Figure 2 shows the 26 stations
included in the Detroit study.
In addition to cruise sampling data, future reports will include
data from biweekly raw water sampling at most municipal water intakes
along the south shore. The Ohio intake sampling program was initiated
in March 1968 in cooperation with the Ohio Department of Health. Sim-
ilar programs are anticipated with the States of Michigan, Pennsyl-
vania, and New York.
The water quality documentation with which data from this report
and future reports should be compared is complied in the "Lake Erie
Environmental Summary, 1963-64", prepared by the Cleveland Program
Office, and in the "Report on Pollution of the Detroit River, Michigan
Waters of Lake Erie and their Tributaries - Findings", prepared by
the Detroit Program Office in 1965.
PARAMETERS
The water quality parameters shown are those which have been con-
sidered, up to this time, as most significant in Lake Erie.
Analysis of both lake water and bottom sediments is made, since
each is part of a dynamic environment with continuous interchanges
occurring between the two. The quality of each can and does affect
the quality of the other.
The parameters included in this report are as follows:
Physical water properties
I. Temperature
2. Transparency
3. Turbidity
Water Chemistry
I. AIkaIi n i ty
2. pH
3. Conductivity
4. Dissolved sol ids
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LAKE ERIE
WESTERN BASIN
SURVEILLANCE STATIONS
(Detroit Program Office)
V
"*3 and 1967stations (Michigan waters)
1967stations o.ily
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5. Total solids
6. Dissolved oxygen
7. Biochemical oxygen demand
8. Chemical oxygen demand
9. Chlorides
10. Organic nitrogen
II. Ammonia nitrogen
12. Nitrate nitrogen
13. Soluble phosphorus
14. Total phosphorus
15. Silica
Sediment Chemistry
I. pH
2. Eh
3. Biochemical oxygen demand
4. Chemical oxygen demand
5. Volatile solids
6. TotaI Iron
7. Total phosphorus
8. Organic nitrogen
9. Ammonia nitrogen
10. Nitrate nitrogen
Water Biology
I. Plankton types and numbers
2. Organic Seston
3. Chlorophyll £ and b^
Sediment Biology
I. Benthic fauna types and numbers
Water Microbiology
I. Total col I form bacteria
2. Total bacteria at 20°C
3. Total bacteria at 35°C
The methods used by the Cleveland Program Office In the measure-
ment of each of the above are given in the "Laboratory Manual, Cleveland
Program Office" available from that office of the Federal Water Pollution
Control Administration. The significance of each water quality parameter
is detailed in "Lake Erie Environmental Summary, 1963-1964" available
from the same office, and in "Physical and Chemical Quality Conditions,
Lake Michigan Basin" available from the Federal Water Pollution Control
Administration, Great Lakes Regional Office, Chicago, Illinois.
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LIST OF ABBREVIATIONS FOR DATA COMPILATION
Abbreviations are used In this report for tabulated data accord-
ing to the following list:
• milligrams per liter
- milligrams per gram dry weight
• mlcrograms per liter
- micromhos per cm
- mi 11ivolts
Water Chemistry
ALK or Alkal - Alkalinity in mg/l CaCO
BOD5 - 5-day biochemical oxygen demand in mg/l
CL or Cl - chlorides in mg/l
COD - chemical oxygen demand in mg/l
CON - conductivity in ymhos/cm at 25°C
DO - dissolved oxygen in mg/l
Eh - oxidation-reduction potential in millivolts
FE or Fe - iron In mg/l
N - nitrogen
NH,-N - ammonia nitrogen In mg/l
NO,-N - nitrate nitrogen in mg/l
ORG-N - organic nitrogen in mg/l
P - phosphorus
pH - hydrogen Ion concentration
S i 0- - totaI s iIi ca
SO - sulfate in mg/l
SP - soluble phosphorus in mg/l
SS - suspended solids
T - temperature in degrees Centigrade
IDS - total dissolved solids in mg/l
TP - total phosphorus in mg/l
TS - total solids in mg/l
TB - turbidity in mg/l silica
Sediment Chemistry
BOD;. - 5-day biochemical oxygen demand in mg/g, initial mixing
COD - chemical oxygen demand in mg/g
Eh - oxidation-reduction potential in millivolts
NH -N - ammonia nitrogen in mg/g
NO^-N - nitrate nitrogen in mg/g
ORb-N - organic nitrogen in mg/g
pH - hydrogen ion concentration
T - temperature in degrees Centigrade
TFE - totaI i ron In mg/g
TP - total phosphorus in mg/g
VS or vol. solids - volatile solids in % dry weight
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LIST OF ABBREVIATIONS FOR DATA COMPILATION
(concluded)
Biology
Am - Amphlpoda In organisms per m
Is - Isopoda In organisms per m2
Pr - Prosobranchla in organisms per nr
Pu - Pulmonata In organisms per m2'
HI - Hirudinea in organisms per nr
01 - Ollgochaeta In organisms per nr
Ne - Nematoda In organisms per m2
Tu - Turbellarla In organisms per nr
Un - Unionidae in organisms per m2
Sp - Sphaerlldae in organisms per nr
Ch - Chironomidae In organisms per nr
Ep - Ephemeroptera In organisms per nr
Tr - Tricoptera in organisms per nr
Ot - Other in organisms per nr
CHLORO - Chlorophyll In mg/m3
No/ml - number per ml
mg/nr - milligrams per cubic meter
Blue-green, green, flagellates, and diatoms given in number of organisms
per ml
x - Qualitative only
Microbiology
T.C. - Total col I form In organisms per 100 ml
20° SPC - Total bacterial count at 20°C in organisms per ml
35° SPC - Total bacterial count at 35°C in organisms per ml
-------
DISCUSSION OF ANALYTICAL DATA
The chemical, biological, and microbiological status of Lake
Erie in 1967-68 will be compared with that in 1963-64, however, the
reader is cautioned to consider the following.
The 1963-64 Michigan waters' stations along with several others
in the western basin were the only stations reoccupied in 1967-68.
All sampling at these stations was accomplished by the Detroit Program
Office. The Cleveland Program Office made no attempt to reoccupy its
1963-64 stations. It was felt that midline sampling was the most
efficient way to determine midlake water quality.
In addition, sampling station reproduction in the central and
eastern basins can be most difficult. Although radar bearings were
made where possible, many stations were located by dead reckoning.
It is not inconceivable that the same station may be as much as a
mile at variance with that of a former cruise. Station reproduction
in the western basin is less a problem since islands and buoys are
available for sighting purposes.
WATER CHEMISTRY
Upon reviewing the 1967-68 data (Tables I and 2) it can be con-
cluded that with respect to chemical quality Lake Erie still is an
excel lent source of municipal raw water. However, upon further exam-
ination, and in comparison with historical data and the 1963-64 data
collected by both the Cleveland and Detroit Program Offices, the re-
lentless increase in most chemical concentrations can be easily de-
tected. The 1963-64 data averages include results from some tributary-
affected nearshore stations which are not included in the Cleveland
Program Office 1967-68 surveys. Since these data affect the overall
lake chemistry averages, the increase in chemical concentrations from
1964 to 1967 may be even more pronounced than indicated.
Cleveland Program Office data (Table 3) indicate that alI chemical
constituents in the western basin have increased except chloride, sil-
ica, and chemical oxygen demand. Table 4 is a comparison of chemical
concentrations in the Michigan waters of Lake Erie as sampled and
analyzed by the Detroit Program Office in 1967 with that in 1963.
These waters, adversely affected by the Detroit River to a great ex-
tent, show increases in all chemical concentrations except chloride
and organic nitrogen. Table 5 is a comparison of chemical concentra-
tions in the western basin as determined by both Program Offices.
Differences are not significant except in nitrogen data, which can be
explained by seasonal variations in this parameter.
-------
TABLE I
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE WATER CHEMISTRY
STA.NO.
D09-OI
D09-OI
D09-OI
D09-OI
D09-OI
D09-0 1
D09-0 1
D09-0 1
_ D09-OI
0 D09-OI
D09-0 1
D09-OI
DI3-OI
DI3-OI
DI3-OI
DI3-OI
DI3-OI
DI3-OI
DI3-OI
DI3-OI
DI3-OI
DI3-OI
DI3-OI
DI3-OI
D
0
0
0
0
22
32
23
42
62
42
0
0
0
0
23
36
23
23
44
47
4^
4
DATE S.D.
5/03/67 2.0
7/28/67 4.0
10/18/67 2.0
5/03/67
7/28/67
10/18/67
5/03/67
7/28/67
10/18/67
5/02/67 11.0
7/28/67 10.0
10/18/67 6.0
1/12/68 7.0
5/02/67
7/28/67
10/18/67
1/12/68
5/02/67
7/28/67
.10/18/67
1 1/12/68
T.
10.2
23.0
12.7
9.5
23.0
12.7
9.5
23.0
12.7
7.2
22.7
13.2
1.6
7.2
21.0
13.2
1.5
7.0
17.3
13.1
1.2
ALK
95
100
88
90
100
87
95
95
89
100
90
97
105
90
91
100
95
94
CON
• •
300
272
320
300
276
310
300
276
330
300
276
280
330
300
280
280
330
310
284
290
DO
11.2
8.0
10.3
10.8
8.0
10.3
10.8
8.0
10.3
12. 1
8.8
10.2
13.2
12.1
8.4
10.2
13.0
12.2
7.9
10.2
12.7
BOD
1 .3
1.8
1.7
1.6
1.8
1.2
1 .9
1.8
1 .7
0.4
1.9
1.4
0.3
0.9
1.7
0.8
1 .4
1.6
COD
1 1.7
8.7
9.3
12.3
9.6
6.0
1 1.4
8.2
4.1
8.5
10.0
5.7
9.8
8.4
8.5
5.8
7.0
9.4
7.5
5.3
6.7 '
pH
8.2
8.6
7.6
8.2
8.6
7.9
8.2
8.7
7.9
8.4
8.5
7.8
8.6
8.4
8.5
7.9
8.7
8.4
8.5
^.9
m
Eh
—
574
—
556
—
550
—
532
520
—
514
508
—
508
508
TS
164
213
169
140
239
170
162
204
169
_.
185
169
144
227
164
224
175
169
TDS
167
213
168
139
223
153
158
178
160
— —
184
163
147
227
163
233
161
166
CL
22
19
19
20
19
19
20
19
19
_.
21
21
19
24
22
20
19
24
25
21
19
NH
0.09
0.21
0.15
0.05
0.26
0.02
0.12
0.16
0.17
0.12
0.13
0.07
0.08
0.14
0.22
0.09
O.I 1
0.09
0.28
0.24
0.09
NO
N3
1.10
0.07
0.09
0.68
0.07
0.09
0.74
0.07
0.09
0.22
0.08
0.04
0.46
0.02
0.08
0.03
0.06
0.02
0.10
0.03
0.54
ORG
N
0.41
0.37
0.15
0.37
0.49
0.35
0.33
0.46
0.14
0.11
0.51
0.33
0.26
0.12
0.39
0.31
0.27
0.16
0.07
0.12
0.29
SP
.03
.06
.04
.03
.05
.04
.03
.05
.04
.00
.02
.04
.02
.00
.02
.03
.04
.00
.03
.03
.03
TP
.05
.06
.05
.05
.05
.05
.06
.07
.05
.01
.02
.04
.02
.01
.02
.04
.04
.01
.03
.03
.04
TB
..
6
10
_»
6
10
__
7
9
1
4
4
«••
0
4
3
^^
1
w
•
s,o2
0.59
0.35
1 .20
1 .20
0.50
0.80
1 .40
0.50
0.75
0.51
0.85
0.20
0.20
0.50
0.40
0.21
1.60
0 25y
1 (
-------
TABLE
continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE WATER CHEMISTRY
STA.NO.
E02-OI
E02-OI
E02-OI
E02-OI
E02-OI
E02-OI
E02-OI
E02-OI
E02-OI
E02-OI
E02-OI
E02-OI
E05-OI
E05-OI
E05-OI
E05-OI
E05-OI
E05-0 1
E05-OI
E05-OI
E05-OI
E05-OI
E05-OI
E05-OI
D
0
0
0
0
14
15
17
26
29
29
29
0
0
0
0
12
13
12
13
22
24
21
23
DATE
5/04/67
7/26/67
10/16/67
1/09/68
5/04/67
7/26/67
10/16/67
5/Q4/67
7/26/67
10/16/67
1/09/68
5/04/67
7/27/67
10/17/67
1/10/68
5/04/67
7/27/67
10/17/67
1/10/68
5/04/67
7/27/67
10/17/67
1/10/68
S.D. T.
1.5 II. 0
1.0 23.7
1.0 12.8
0.3 8.8
10.9
23.7
12.5
II. 0
23.5
12.5
8.9
2.0 9.2
4.0 23.0
3.0 13.5
5.0 0.6
9.2
23.0
13.4
0.6
9.5
23.0
13.4
0.3
ALK
105
80
97
100
7Q
99
105
75
108
95
95
88
95
90
87
90
95
87
CON
360
670
312
360
360
690
312
370
680
312
380
300
270
278
290
300
275
286
290
305
275
282
290
DO
8.7
1 1.0
12.7
11.7
8.5
II. 0
10.9
8.0
10.2
12.6
1 1.0
7.2
10.4
13.0
II. 1
7.2
10.3
12.6
1 I.I
7.2
10.3
12.4
BOD5
3.2
3.9
3.9
3.3
2.5
3.8
3.2
3.0
4.6
1.5
1.9
1.7
1.3
1.8
1.7
1.3
1.5
1.5
COD
16.2
19.6
9.3
18.6
20.0
17. 1
13.0
20.6
1 1.2
24.6
15.6
9.4
7.0
12.5
15.7
5.3
13.1
8.5
5.1
pH
9.0
7.8
8.4
8.8
8.8
7.8
8.4
8.7
7.8
8.2
8.9
8.4
8.5
8.1
8.5
8.6
8.6
7.8
8.6
8.2
8.7
7.9
8.7
Eh
538
478
508
538
460
508
490
490
490
478
490
TS
250
213
206
243
213
264
236
277
598
195
98
148
203
208
157
188
204
157
TDS
259
188
176
243
200
161
240
196
176
190
88
145
192
196
141
185
194
146
CL
23
20
21
19
22
21
21
21
20
21
19
18
18
21
23
19
18
21
22
24
18
20
23
NH3 NO,
N N
0.14 1.00
0.65 0.01
0.41 0. 12
0.31 2.12
0.36 0.93
0.04 0.00
0.52 0.13
0.27 0.95
0.37 0.00
0.76 0.12
0.99 2.20
0.03 0.44
0.36 0.03
0.08 0.14
0.12 0.37
0.05 0.47
0.28 0.00
0.06 0.14
0. 13 0.35
0.12 0.47
0.18 0.04
0.13 0. 12
0.12 0.36
ORG
N
1.36
0.50
0.69
0.71
0.27
1.03
0.58
0.49
0.66
0.78
0.64
0.43
0.27
0.54
0.27
0.49
0.38
0.44
0.17
0.35
0.45
0.30
0.23
SP
.04
.1 1
.07
.12
.03
.10
.07
.01
.08
.13
.14
.01
.04
.05
.05
.02
.03
.05
.05
.02
.05
.04
.05
TP
.09
.1 1
.12
.14
.08
.11
.16
.08
.20
.29
.17
.06
.06
.06
.05
.06
.04
.05
.06
.05
.05
.05
.05
TB
•»_
1 1
40
__
_— '
50
__
4
8
5
__
4
9
7
__
3
9
5
sio2
1 .05
0.45
0.50
1.20
0.55
0.55
2.50
0.55
1.95
1.65
1.40
0.75
1.30
1.25
0.75
1.15
1.30
0.75
-------
TABLE I (continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE WATER CHEMISTRY
STA.NO.
F03-OI
F03-OI
F03-0 1
F03-OI
F03-0 1
F03-0 1
F03-0 1
F03-OI
F03-0 1
F03-OI
F03-OI
F03-OI
F03-02
F03-02
F03-02
F03-02
F03-02
F03-02
F03-02
F03-02
F03-02
F03-02
F03-02 .
F03-02 1
D
0
0
0
0
16
17
17
16
30
32
29
30
0
0
0
0
13
12
12
16
24
23
DATE S.D.
5/04/67 2.0
7/26/67 2.5
10/16/67 2.0
1/09/68 1.5
5/04/67
7/26/67
10/16/67
1/09/68
5/04/67
7/26/67
10/16/67
1 /09/68
5/04/67 3.0
7/27/67 3.0
10/17/67 3.0
1/09/68 1.8
5/04/67
7/27/67
10/17/67
1 /09/68
5/04/67
7/27/67
10/17/67
1 /09/68
T.
10.0
23.5
14.0
0.2
10.2
23.2
--
0.3
10.0
23.2
13.4
0.3
9.9
23.0
13.2
0.5
9.9
23.0
13.2
0.3
9.9
23.0
13.2
0.3
ALK
95
95
88
100
90
89
95
90
89
105
95
88
110
90
88
100
95
86
CON
300
290
286
310
300
290
282
300
310
290
285
310
340
280
256
300
360
280
248
290
340
285
256
300
DO BOD5
1 1.6 1.9
8.5 2.0
11.2 1.9
12.8
11.6 2.0
8.3 2.1
10.6 2.2
12.6
11.5 1.7
7.7 3.1
II. 0 1.6
12.4
11.9 2.4
7.4 2.6
10.7 2.3
13.9
11.4 2.4
7.3 2.6
10.5 1.8
13.0
11.8 2.5
7.2 2.2
10.5 1.9
13.2
COD
14.4
12.0
1 1.0
14.4
13.1
7.1
13.5
10.8
8.2
12.7
10.8
4.7
12.6
8.5
6.9
13.8
10.0
5.0
4
pH
8.4
8.1
8.3
9.3
8.4
8.1
8.4
9.4
8.5
8.1
8.3
9.4
8.5
7.9
8.1
8.9
8.6
7.6
8.2
9.0
8.5
7.7
^.1
••1
Eh
—
478
436
—
460
352
—
496
418
~
550
496
—
496
472
—
538
472
TS
192
227
163
198
141
170
193
228
179
168
190
146
195
176
152
21 1
158
148
TDS
190
212
153
184
116
149
198
200
158
159
161
140
204
139
142
205
129
146
CL
16
18
20
17
19
19
22
17
18
19
22
27
18
15
20
25
18
16
21
26
18
16
21
NH, NO,
N N
0. 14 0.66
0.30 0.04
0.36 0.09
0. 1 1 0.66
0. 1 1 0.60
0.46 0.06
0. 16 0.07
0. 1 1 0.64
0.07 0.62
0.21 0.06
O.I 1 0.08
0.10 0.65
0. 12 0.48
0.30 0.06
0.04 0.13
0. 1 1 0.46
0. 10 0.38
0.20 0.05
0.04 0. 13
0.13 0.52
0.14 0.42
0.39 0.05
O.I 1 0.13
0. 14 0.63
ORG
N
0.36
0.40
0.41
0.61
0.34
0.40
0.37
0.36
0.38
0.34
0.46
0.22
0.60
0.40
0.23
0.25
0.36
0.55
0.35
0.27
0.43
0.36
0.20
0. 16
SP
.02
.06
.04
.05
.02
.06
.05
.05
.03
.06
.05
.04
.03
.04
.04
.05
.02
.06
.04
.05
.03
.04
.04
.05
TP
.05
.06
.07
.07
.06
.07
.07
.08
.06
,.07
.08
.05
.06
.05
.05
.06
.05
.08
.05
.07
.07
.05
.06
.07 '
TB SI02
— 1.05
5 0.65
10 0.50
15
~ 0.59
9 0.75
10 0.40
15
-- 1.05
10 0.90
10 0.40
15
— 0.90
8 1.35
10 0.75
10
— 1.10
7 1.40
10 0.80
15
— 1.25
8 1.45
in | . O0j
•
-------
ntinued)
TABLE
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE WATER CHEMISTRY
STA.NO.
F 1 6-0 1
F 16-01
F 16-01
F 1 6-0 1
F 16-01
FI6-OI
F 16-01
F 1 6-0 1
F 16-01
F 16-01
F 16-01
F 16-01
G04-OI
G04-0 1
G04-OI
G04-0 1
G04-0 1
G04-OI
G04-OI
G04-0 1
G04-0 1
G04-0 1
G04-0 1
G04-OI
D
0
0
0
0
30
48
30
31
59
60
56
60
0
0
0
0
14
15
15
15
26
28
26
26
DATE S.D.
5/02/67 11.0
7/28/67 13.0
10/18/67 10.0
1/13/68 7.0
5/02/67
7/28/67
10/18/67
1/13/68
5/02/67
7/28/67
1 O/ 1 8/67
1/13/68
5/04/67 2.5
7/27/67 4.0
10/17/67 4.0
1/09/68 1.0
5/04/67
7/27/67
10/17/67
1/09/68
5/04/67
7/27/67
10/17/67
1/09/68
T.
5.4
22.6
14.0
1.5
5.4
21.2
14.1
0.8
5.2
12.0
14.1
0.5
9.0
22.6
12.8
0.3
9.0
22.5
12.8
0.5
9.1
22.5
12.8
0.4
ALK
95
100
98
95
80
98
90
90
98
90
85
92
90
85
93
85
85
96
CON
320
300
320
290
320
310
328
290
320
330
330
290
300
260
288
330
280
260
292
330
270
255
292
330
DO
13.2
9.4
10.0
13.8
13.0
9.0
10.0
13.6
12.8
3.5
10.0
13.4
10.6
9.1
10.7
12.4
10.6
9.1
10.8
12.2
10.8
9.0
10.5
12.1
BOD5
1.0
1.4
1.3
0.9
0.7
1.4
0.9
0.5
1.4
0.8
1.7
1.9
1.6
1.2
1.8
2.5
1.4
0.8
2.3
2.9
1.5
COD
8.1
1 1.9
5.2
7.9
7.5
4.7
8.5
7.9
5.6
11.9
8.2
6.7
1 1.9
9.2
6.5
11.9
8.7
6.7
pH
8.3
9.1
8.3
8.6
8.3
8.9
8.0
8.7
8.2
8.7
8.1
8.9
7.7
8.7
8.2
8.3
8.0
8.7
8.2
8.3
7.9
8.7
8.1
8.4
Eh
—
514
520
—
508
490
--
496
496
—
526
478
—
526
478
—
520
472
TS
182
182
181
177
206
181
173
178
186
157
179
170
149
181
170
164
158
171
TDS
173
161
172
175
207
174
180
180
182
154
182
164
153
154
159
146
130
160
CL
24
23
27
20
23
24
26
21
23
25
26
20
16
17
22
24
15
17
22
25
16
17
22
24
NH3 N03 ORG
N N N
0.22 0.00 0.03
0.08 0.06 0.62
0. 10 0.00 0.33
0.10 0.38 0.24
0.19 0.00 O.I 1
0.05 0.02 0.53
0.08 0.00 0.37
O.I 1 0.39 0.24
0.07 0.00 0.21
0.24 0. 10 0.39
0.13 0.00 0.27
0.10 0.38 0.37
0.12 0.27 0.44
0.16 0.08 0.29
0.12 0.15 0.38
0.23 0.89 0.26
0. 16 0.25 0.41
0.20 0.10 0.50
0.15 0.16 0.25
0.24 0.91 0.21
0.17 0.32 0.33
0.41 0.10 0.00
0.12 0.14 0.29
0.24 0.93 0.34
SP
.01
.03
.02
.03
.00
.03
.03
.04
.01
.02
.02
.04
.03
.03
.04
.07
.04
.02
.04
.09
.03
.03
.04
.07
TP
.01
.03
.02
.05
.01
.03
.03
.05
.02
.03
.02
.05
.06
.04
.05
.1 1
.06
.05
.05
.12
.06
.05
.06
.11
TB SI02
— 0.25x
0 0.40N*
2 0.35
2
~ 0.25
0 0.35
2 0.45
3
— 0.50
0 0.70
2 0.50
4
— 1.55
6 0.70
6 0.45
25
— 1.95
4 0.70
5 0.45
25
— 1.50
4 0.80
7 0.40
25
-------
TABLE I (continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE WATER CHEMISTRY
STA.NO.
606-01
606-0 1
606-0 1
606-0 1
606-01
606-0 1
606-0 1
606-01
606-01
606-01
606-0 1
606-01
607-01
607-01
607-01
607-01
607-01
607-0 1
607-01
607-01
607-01
607-01
607-01
607-0 1
D
0
0
0
0
16
27
16
16
30
32
28
29
0
0
0
0
25
18
17
17
47
34
*
DATE
5/04/67
7/27/67
10/17/67
1/10/68
5/04/67
7/27/67
10/17/67
1/10/68
5/04/67
7/27/67
10/17/67
1/10/68
5/03/67
7/27/67
10/17/67
1/10/68
5/03/67
7/27/67
10/17/67
1/10/68
5/03/67
7/27/67
10/17/67
I/I 1/68
S.D.
2.0
5.5
5.0
1.0
4.0
6.0
4.5
1.5
T.
8,4
23.0
12.9
0.9
8.5
23.0
12.7
0.8
8.5
22.8
12.8
0.8
9.2
22.7
13.0
1.3
8.8
22.7
12.9
0.6
8.5
22.5
13.0
0.5
ALK
95
90
82
85
90
82
90
90
83
90
90
84
85
85
83
85
85
84
CON
250
275
236
260
250
275
240
260
250
275
240
260
260
250
268
310
270
250
264
320
260
250
268
340
DO
10.8
8.9
10.5
12,2
10.7
8.7
10.4
12.3
10.9
8.4
10.4
12.8
12.2
7.9
10.3
12.4
1 1.8
7.7
10.3
12.2
11.0
7.9
10.3
11.8
BOD5
0.4
3.2
1.4
0.4
1.9
1.2
0.5
1.8
1.5
1.3
1.2
I.I
0.2
I.I
I.F
0.6
1.0
0.9
COD
10.8
12.5
10. 1
10. 1
10.2
10.8
10. 1
9.1
10.2
10.0
12.0
9.4
9.2
7.5
8.1
12.0
9.8
11.7
8.9
1 1.8
11.4
7.9
8.1
13.2
pH
8.5
8.7
7.5
8.4
8.5
8.7
7.8
8.4
8.5
8.7
7.5
8.4
8.6
8.6
8.3
8.4
8.6
8.6
8.0
8.5
8.2
8.6
*?
Eh
--
550
502
--
562
484
— -
550
496
—
556
520
—
550
496
— -
550
508
TS
139
216
139
143
199
139
164
212
137
192
199
155
192
220
158
184
192
165
TDS
no
196
138
150
184
135
161
214
133
154
199
149
152
184
146
173
189
156
CL
10
20
14
10
21
14
13
10
19
14
14
18
16
20
23
17
16
20
23
17
15
20
27
NH, NO
N N3
0.04 0.33
0.16 0.09
0.07 0.18
0.10 0.48
0.05 0.37
0.05 0.10
0.13 0.19
0.10 0.46
0.03 0.32
0.21 0.07
0.05 0.17
0.09 0.48
0.13 0.18
0.08 0.07
0.05 0.17
0.20 0.71
0.07 0.26
0.20 0.06
0.04 0.17
0.21 0.72
0.05 0.14
0.13 0.07
0.03 0.15
0.22 0.86
ORG
N
0.34
0.46
0.17
0.36
0.49
0.50
O.I 1
0.28
0.04
0.50
0.29
0.29
0.24
0.36
0.29
0.37
0.38
0.20
0.20
0.34
0.39
0.26
0.21
0.44
SP
.03
.06
.02
.06
.02
.06
.02
.05
.02
.05
.02
.04
.02
.03
.02
.05
.01
.03
.02
.08
.01
.03
.02
.06
•TP
.04
.06
.03
.07
.04
.07
.03
.08
.04
.07
.03
.07
.03
.03
.04
.08
.03
.05
.02
.11
.04
.04
.05
.13
TB
__
3
5
20
~
3
4
20
—
5
6
20
_..
3
5
20
—
4
5
20
—
3
SI02
1.70
0.40
1.30
1.65
0.50
1.30
1.65
1.05
1.20
1.50
1.20
1.45
1.55
1.25
1.40
1.90
1 .50
Jl.50'
-------
TABLE I,
ntinued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE WATER CHEMISTRY
STA.NO. D DATE
S.D. T. ALK CON DO BODC
COD pH Eh TS TDS CL NH3 NO, ORG SP TP TB SI02
N N N
G09-OI
G09-OI
G09-OI
G09-OI
G09-OI
G09-OI
G09-OI
G09-OI
G09-OI
G09-OI
G09-OI
G09-OI
0
0
0
0
18
18
18
19
35
34
32
35
5/03/67 5.0
7/27/67 6.0
10/18/67 5.0
1/11/68 4.0
5/03/67
7/27/67
10/18/67
I/ 1 1/68
5/03/67
7/27/67
10/18/67
I/ 1 1/68
9.2
22.8
1 1.9
0.2
9.2
22.8
1 1.9
0.5
8.4
22.8
11.9
0.3
65
85
88
100
90
84
95
85
83
^•^•^H^BnaH
320
270
284
290
310
270
292
290
310
260
288
290
10.5
7.1
10.2
12. 1
1 1.0
6.9
10.2
12.1
10.5
7. 1
10.2
1 1.8
0.4
0.8
1.0
0.7
0.6
1.2
1.3
1.6
0.3
2.1
1.6
1.5
8.9
7.5
- 9.3
8.2
7.4
8.5
8.1
8.2
9.2
6.9
9.3
5.1
8.3
8.4
7.4
8.5
8.1
8.4
7.6
8.6
8.0
8.5
7.8
8.7
—
550
532
—
550
320
—
544
538
203
195
171
196
162
175
214
178
165
189
189
170
192
129
169
205
1 18
162
25 0.05
17 0. 18
24 0.02
21 0. 18
28 0. 12
17 0. 19
25 0.09
21 0. 16
23 0.06
17 0. 18
25 0.05
21 0. 16
0.23
0.03
0. 15
0.38
0.27
0.03
0.15
0.31
0.26
0.03
0. 15
—
0.36
0.17
0.50
0.25
0.48
0.85
0.38
0.31
0.45
0.35
0. 18
0.24
.03
.02
.02
.04
.03
.02
.02
.04
.02
.02
.02
.03
.03
.02
.03
.07
.03
.03
.04
.07
.03
.04
.02
.07
__
3
6
8
—
4
6
9
—
6
6
10
0.60
1.65
1.55
0.50
1.80
1.60
0.70
2.15
1.50
G10-01
GI 0-0 I
G10-01
G10-0 I
G10-0 I
GI 0-01
G10-0 I
GI 0-0 I
G10-0 I
G 10-01
G 10-0 I
G 10-0 I
0
0
0
0
19
18
20
19
36
34
36
36
5/03/67 2.0
7/26/67 4.0
10/18/67 3.0
I/I 1/68 4.5
5/03/67
7/28/67
10/18/67
1 /I 1/68
5/03/67
7/28/67
10/18/67
I/I 1/68
9.2
22.9
12.6
1.2
9.0
22.8
12.6
1. 1
8.3
22.8
12.4
0.6
80 290 10.6 0.9
95 270 7.1 I.I
93 268 10.2 1.7
270 12.8
80 300 10.5 0.8
95 270 7.1 1.2
87 268 10.2 1.4
270 12.6
90 300 10.3 0.7
90 270 7.0 1.2
90 266 10.2 1.5
270 12.3
9.2 7.6 214 192 24 0.06 0.22
8.3 8.4 — 178 164 18 0.18 0.05
9.7 7.4 538 169 163 19 0.07 0.15
4.4 8.5 514 18 0.07 0.37
8.
8.
10.
10.
4
4
7
1
7.
8.
7.
8.
9
5
9
6
—
532
502
223
182
166
186
158
162
24
19
19
19
0
0
0
0
.06
.21
.07
.05
0
0
0
0
. 16
.05
.15
.36
9.4 7.6
8.3 8.6
10.5 8.0
6.3 8.6
224
— 205
526 167
502
202
189
153
23 0.08
18 0.20
19 0.09
19 0.07
0. 13
0.05
0. 15
0.36
0.34 .01 .04 — 0.75
0.33 .02 .03 4 1.25
0.33 .02 .04 7 1.35
0.32 .01 .03 6
0.31 .03 .04 — 0.80
0.27 .02 .04 3 1.20
0.38 .02 .05 7 1.35
0.33 .02 .03 6
0.56 .02 .05 -- 0.90
0.25 .02 .04 6 1.20
0.28 .02 .04 7 1.55
0.25 .02 .06 5
-------
TABLE I (continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE WATER CHEMISTRY
STA.NO
612-01
612-01
612-01
612-01
612-01
612-01
612-01
612-01
612-01
612-01
612-01
612-01
618-01
618-01
618-01
618-01
618-01
618-01
618-01
618-01
618-01
618-01
618-01
618-01
. D
0
0
0
0
21
29
20
20
40
40
36
38
0
0
0
0
36
50
35
36
71
72
*
DATE S.D.
5/03/67 6.0
7/28/67 10.0
10/18/67 5.0
1/12/68 4.0
5/03/67
7/28/67
10/18/67
1/12/68
5/03/67
7/28/67
10/18/67
1/12/68
5/01/67 10.0
7/28/67 18.0
10/19/67 9.0
1/13/68 11.0
5/01/67
7/28/67
10/19/67
1/13/68
5/01/67
7/28/67
10/19/67
1/13/68
T.
10.3
22.5
12.8
1.6
9.3
22.0
12.8
0.8
8.7
22.0
12.9
0.7
5.0
22.5
13.5
1.3
4.8
20.0
13.6
1.0
4.8
10.2
13.4
0.7
ALK
90
90
90
85
95
91
85
100
89
90
95
96
95
95
101
90
95
too
CON
280
265
280
280
280
260
288
290
280
300
284
280
320
320
320
320
310
320
310
330
320
320
310
320
DO
10.8
7.6
10.4
13.2
10.9
7.3
10.4
13.0
10.5
3.5
10.4
12.6
12.7
9.4
9.9
14.3
12.9
8.6
9.9
14.3
12.9
5.4
9.9
14.2
BOD5
1.4
1.0
1.8
1.3
0.8
1.7
1.2
1.8
1.6
O.I
1.2
2.1
2.7
0.5
0.7
1.9
2.6
0.4
0.7
1.6
2.9
COD
7.2
8.7
II. 0
4.9
7.1
8.5
10.3
6.3
6.2
8.3
9.9
5.8
8.1
9.2
10,5
6.8
8.5
8.7
9.7
6.3
8.5
9.2
8.9
7.8
PH
8.2
8.5
7.3
8.6
8.2
8.5
7.6
8.7
8.2
8.2
7.8
8.7
7.7
9.0
8.1
8.7
7.7
9.0
8.3
8.8
7.8
7.8
m
Eh
__
550
562
__
532
568
*•
526
550
__
598
484
__
604
460
__
610
472
TS
199
!86
167
199
184
173
185
175
160
218
203
184
206
193
211
198
205
218
TDS
170
175
159
187
176
162
182
174
156
205
201
181
188
197
208
199
196
215
CL NH3 NO,
N N
21 0.14 0.23
21 0.17 0.04
21 0.25 0.00
22 0.05 0.32
21 0.13 0.24
19 0.26 0.07
21 0.12 0.00
21 0.05 0.32
20 0.10 0.21
18 0.16 0.07
21 0.19 0.00
21 0.05 0.32
22 0.08 0.44
25 0.02 0.00
24 0.06 0.02
24 0.02 0.08
22 0.08 0.43
26 0.07 0.00
24 0.22 0.02
24 0.02 0.08
22 0.12 0.42
25 0.12 0.03
24 0.06 0.02
25 0.01 0.08
ORG
N
0.29
0.33
0.37
0.24
0.44
0.10
0.25
0.30
0.38
0.25
0.15
0.24
0.51
0.34
0.34
0.41
0.51
0.21
0.12
0.31
0.47
0.30
0.33
0.34
SP
.03
.02
.02
• W*B
.03
.02
• ***•
01
* W 1
02
• Vfc
.02
.02
.02
.01
.02
.01
.01
.01
.01
.01
.01
.01
.02
.01
.01
.01
.01
TP
.03
.03
.03
.03
.03
.02
.04
.03
.03
.02
.04
.03
.02
.01
.03
.02
.01
.01
.02
.02
.02
.02
.01
.03
TB
2
4
4
•^
2
4
5
2
5
4
•••
o
V
3
1
o
2
1
o
i
sio2
0.35
1.05
0.50
0.45
1.20
0.65
w • \J ^
0.50
W • ^ V/
1 .00
1 • W
0.60
0.40
W • T W
0.05
0.40
W 9 ~*r
0.25
w • fc^
0. 10
w • i w
0.40
w • TW
0.25
1.00
|0.45
-------
TABLE
continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE WATER CHEMISTRY
STA.NO.
H20-OI
H20-OI
H20-OI
H20-OI
H20-OI
H20-OI
H20-OI
H20-OI
H20-OI
H20-OI
H20-OI
H20-OI
123-01
123-01
123-01
123-01
123-01
123-01
123-01
123-01
123-01
123-01
123-01
123-01
D
0
0
0
0
39
54
39
77
79
74
0
0
0
0
40
57
40
78
80
76
DATE
5/01/67
7/28/67
1 O/ 1 9/67
5/01/67
7/28/67
10/19/67
5/01/67
7/28/67
10/19/67
5/01/67
7/29/67
10/19/67
5/01/67
7/29/67
10/19/67
5/01/67
7/29/67
10/19/67
S.D. T.
10.0 5.0
20.0 22.5
9.0 13.4
5.0
19.2
13.6
5.0
10. 1
13.5
10.0 4.8
16.0 22.2
13.4
4.7
19.2
13.4
4.5
10.0
13.4
ALK
90
95
99
95
95
94
95
105
96
95
90
100
95
95
96
90
95
100
CON
310
310
320
310
310
320
310
320
320
320
300
320
310
310
324
310
320
324
DO
13.0
9.6
9.9
13.3
8.3
9.9
13.3
5.9
9.9
13. 1
9.0
10.0
13.2
7.2
9.9
13.1
6.1
9.9
BOD5
0.7
1.4
1.2
0.3
0.5
1 .1
0.6
0.5
1.0
0.8
1.3
1.2
0.5
0.8
I.I
0.7
0.8
I.I
COD
7.9
8.9
8.9
7.9
8.7
8.7
9.6
8.5
8.7
8.5
9.8
9. 1
1 1.7
7.3
8.7
1 1.4
7.7
9.9
ph
8.0
9.1
8.3
8.2
9.0
8.0
8.0
8.4
8.3
8.2
8.9
8.3
8.3
8.5
8. 1
8.2
8.0
8. 1
Eh
MV
628
__
610
«.—
634
412
604
490
622
490
610
TS
195
195
222
191
195
213
213
21 1
214
194
194
217
189
178
218
197
197
223
TDS
199
200
220
199
181
21 1
186
190
206
186
185
21 1
183
185
215
182
190
221
CL
23
25
25
23
24
25
23
25
25
22
23
24
22
24
25
22
25
25
NH, NO,
N N
0.14 0.07
0.04 0.00
0.06 0.02
0.08 0.09
0.13 0.02
0.06 0.02
0.15 0.09
0.18 0.02
0.08 0.02
0.16 0.20
0.16 0.05
0.07 0.02
0. 1 1 0. 18
0. 19 0.04
0. 1 1 0.02
0.08 0. 18
0. 18 0.05
0. 18 0.02
ORG
N
0.20
0.30
0.36
0.24
0. 19
0.29
0.26
0.24
0.35
0.29
0.42
0.38
0.42
0.17
0.29
0.24
0.52
0.37
SP
.01
.02
.01
.01
.01
.01
.01
.01
.03
.02
.02
.02
.01
.01
.01
.02
.01
.01
TP
.02
.04
.02
.02
.01
.02
.02
.01
.03
.02
.02
.02
.02
.01
.02
.02
.01
.02
TB SI02
— 0.25
0 0.10
2 0.60
— 0.30
0 0.20
2 0.65
— 0.25
2 0.95
2 0.60
— 0.35
0 0.25
2 0.55
— 0.55
0 0.30
2 0.55
— 0.25
0 0.95
2 0.70
-------
TABLE I (continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE WATER CHEMISTRY
STA.NO.
J25-OI
J25-OI
J25-OI
J25-OI
J25-OI
J25-OI
J25-OI
J25-OI
J25-OI
J25-OI
J25-OI
J25-OI
D
0
0
0
0
38
57
39
75
78
74
DATE
5/01/67
7/29/67
10/20/67
5/01 /67
7/29/67
10/20/67
5/01 /67
7/29/67
10/20/67
S.D. T.
II. 0 4.5
15.0 22.3
9.0 13.2
4.5
16.1
13.1
4.2
10.5
13.2
ALK
95
90
102
1 15
95
96
85
100
95
CON
310
300
320
310
320
320
320
300
320
DO BOD5
13.1 0.5 -
9.3 1.7
10.0 1.5
13.3 0.5
7.9 2.2
9.9 1.3
13.2 0.2
5.2 1.6
10.0 1.5
COD
.11.2
9.8
7.9
12.1
8.1
8.1
12.5
8.7
8.3
PH
8.3
8.8
8.1
8.2
8.4
7.7
8.2
8.0
7.8
Eh
382
538
376
514
400
562
TS
205
200
217
200
198
213
197
292
216
TDS
200
178
209
207
180
203
194
208
210
CL
24
24
24
23
25
24
24
25
24
NH3 N03
N N
0.13 0.04
0.28 0.02
O.I 1 0.03
0.05 0.04
0. 10 0.00
0. 1 1 0.02
0.07 0.02
0. 16 0.04
0.05 0.10
ORG
N
0.37
0.20
0.38
0.28
0.38
0.24
0.37
0.35
0.28
SP
.01
.02
.01
.04
.01
.01
.05
.01
.01
TP
.02
.02
.02
.05
.01
.01
.06
.-05
.01
TB
__
0
3
__
0
2
--
3
1
sio2
0.2C
0.25
0.35
0.20
0.30
0.35
0.25
1.30
0.40
K28-OI
K28-OI
K28-OI
K28-OI
0
0
0
0
4/30/67
7/29/67
10/20/67
9.0
24.0
10.5
5.5
23.3
13.1
90 320
95 310
95 320
13.3 0.4
9.2 0.8
10.0 1.2
9.6 7.7
8.5 9.0
8.1 8.0
207
372 182
604 213
204 24
191 24
209 26
0.04 0.01
0.05 0.00
0.07 0.03
0.57 .01
0.36 .01
0.29 .01
K28-OI 37 4/30/67
K28-OI 57 7/29/67
K28-OI 37 10/20/67
K28-0I 0
K28-OI
K28-OI
K28-OI
K28-OI
73
4/30/67
7/29/67
10/20/67
4.5 95 320 13.4 0.3 8.7 8.1
20.0 95 310 8.3 0.5 6.0 8.6
13.2 95 340 10.0 I.I 9.5 8.0
4.5 95 320 13.2 0.4 7.9
I 1.0 100 320 5.2 0.7 6.5
13.1 95 330 10.0 I.I 8.9
8.2
,0
364
598
394
592
204
235
207
203
203
215
207
196
207
204
187
210
24
24
25
24
25
25
0.27 0.00
0.15 0.00
0.05 0.03
0.08
0.07
0.06
0.01
0.04
0.01
0.10 .02
0.20 .01
0.27 .02
0.34
0.52
0.29
.01
.01
.02
.01 — 0.25
.01 0 0.10
.01 I 0.45
.02 — 0.25
.01 0 0.10
.02 I 0.45
.02
.01
.02
— 0.20
;.70
.60
•
-------
TABLE I
antinued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE WATER CHEMISTRY
STA.NO.
L30-OI
L30-OI
L30-OI
L30-OI
L30-0 1
L30-OI
L30-OI
L30-OI
L30-OI
L30-OI,
L30-OI
L30-OI
L33-OI
L33-OI
L33-OI
L33-OI
L33-OI
L33-OI
L33-OI
L33-OI
L33-OI
L33-OI
L33-OI
L33-OI
D
0
0
0
0
35
56
36
70
72
68
0
0
0
0
35
52
34
68
69
64
DATE
4/30/67
7/29/67
10/20/67
4/30/67
7/29/67
10/20/67
4/30/67
7/29/67
10/20/67
4/30/67
7/29/67
10/22/67
.4/30/67
7/29/67
10/22/67
4/30/67
7/29/67
10/22/67
S.D. T.
U.O 5.5
24.0 23.5
10.0 13.2
4.5
21 .0
13.2
4.5
1 1.0
13.2
10.0 4.8
20.0 23.8
14.0 13.4
5.0
21 .0
13.4
4.5
10.9
13.3
ALK
95
90
97
100
95
99
100
100
98
95
95
100
95
95
100
100
90
100
CON
320
310
330
320
310
330
320
320
330
320
310
310
320
310
320
320
320
320
DO
12.9
9.3
10.0
13.0
8.5
10.0
12.7
6.0
10.0
12.9
9.2
10. 1
13.3
7.9
10.0
12.8
5.2
9.9
BOD
O.I
1 .3
1 .1
0.2
0.7
1 .2
0.2
1.2
1 .0
O.I
1 .6
2.3
0.3
1.3
2.0
O.I
1. 1
2.0
COD
8.9
6.9
8.5
8.3
6.5
9.3
12.5
7.5
10.2
8.3
8.9
8.9
9.2
6.2
8.5
10.2
9.6
8.9
pH
8.4
8.8
8.3
8.3
8.7
8.0
8.5
8.4
8.0
8.3
8.8
8.2
8.2
8.7
8.2
8.4
8.5
8.2
Eh
358
580
372
580
406
580
358
514
358
490
352
496
TS
197
166
214
205
208
222
199
230
225
193
183
220
202
220
199
201
196
201
TDS
206
161
21 1
202
211
221
202
206
216
196
185
216
175
179
197
185
177
198
CL
24
24
24
24
24
24
24
24
24
24
24
23
23
23
23
25
24
24
NH
N3
0.08
0.05
0.10
0.03
0.09
0.09
0.04
0.12
0.24
0.06
0.12
0.09
0.07
0.05
0.16
0.04
O.I 1
0.10
NO
N3
0.00
0.00
0.00
0.00
0.00
0.01
0.00
0.04
0.01
0.01
0.04
0.01
0.00
0.00
0.01
0.02
0.06
0.02
ORG
N
0.44
0.40
0.21
0.49
0.40
0.32
0.31
0.38
0.17
0.42
0.34
0.22
1.43
0.25
0.21
0.48
0.29
0.22
SP
.01
.01
.01
.02
.01
.01
.02
.02
.01
.01
.01
.02
.01
.01
.02
.01
.01
.02
TP TB
,01 —
.01 O.I
.01 1
.02 —
.01 0.2
.01 1
.02 —
.03 1 .0
.02 1
.02 —
.01 0.2
.02 1
.02 —
.01 0.2
.02 1
.03 —
.01 0.4
.02 1
SIO
0.15
0.10
0.30
0.20
0.10
0.45
0.15
0.55
0.40
0.15
0.15
0.20
0.15
0.20
0.20
0.45
0.70
0.25
-------
TABLE I (continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE WATER CHEMISTRY
STA.NO.
L36-OI
L36-OI
L36-OI
L36-OI
L36-OI
L36-OI
L36-OI
L36-OI
L36-OI
L36-OI
L36-OI
L36-OI
M38-OI
M38-OI
M38-OI
M38-OI
M38-OI
M38-OI
M38-OI
M38-OI
M38-OI
M38-OI
M38-OI
ijio n i
D
0
0
0
0
35
53
35
68
67
66
0
0
0
0
36
54
31
72
DATE
4/30/67
7/29/67
10/22/67
4/30/67
7/29/67
10/22/67
4/30/67
7/29/67
10/22/67
4/30/67
7/30/67
10/22/67
4/30/67
7/30/67
10/22/67
4/30/67
72—7/30/67
5*^0/22/67
S.D. T.
I3.o :s;s
21.0 22.9
12.0 13.6
5.0
22.0
13.2
4.5
16.3
13.0
9.0 2.5
20.0 22.5
16.0 13.2
2.5
21.7
12.8
2.5
8.0
11.8
ALK
95
90
98
100
90
98
too
90
97
105
95
100
100
95
104
100
100
90
CON
330
310
320
310
320
330
320
310
320
320
310
320
340
310
310
320
330
310
DO
12.8
9.5
10.3
12.7
9.1
10.2
12.6
7.4
10.0
13.3
9.5
10.3
13.4
9.0
10.0
13.0
8.2
9.1
BOD
O.I
1.4
1.6
0.3
0.9
1.3
0.3
I.I
1.2
0.1
I.I
1.5
O.I
0.8
1.0
O.I
0.8
0.9
COD
11.4
10.2
9.3
10.8
8.7
9.3
8.3
7.1
9.3
8.2
8.5
8.7
7.8
3.9
9.1
7.3
7.1
8.5
pH
8.5
8.7
8.3
8.3
8.5
8.1
8.3
7.8
8.1
8.0
8.8
8.3
8.0
8.6
7.8
8.2
•
Eh
358
478
358
460
376
460
352
454
352
436
370
442
TS
184
204
240
167
216
253
162
174
251
159
187
285
159
208
29 1
227
232
298
TDS
180
189
232
152
204
221
154
176
245
156
160
282
153
203
276
226
214
291
CL
28
24
25
27
23
24
27
23
24
27
24
25
27
23
25
33
24
25
NH
N3
0.30
0.06
0.08
0.08
0.06
0.20
0.24
0.13
0.04
0.24
0.13
0.04
0.13
0.04
0.08
0.09
0.09
0.05
NO
N3
0.00
0.00
0.02
0.00
0.00
0.02
0.00
0.04
0.03
0.12
0.00
0.03
0.12
0.00
0.03
0.12
0.10
0.02
ORG SP
N
0.32 .01
0.29 .01
0.21 .01
0.35 .02
0.44 .01
0.14 .01
0.27 .02
0.52 .01
0.38 .01,
0.51 .01
0.45 .01
0.36 .01
0.35 .02
0.41 .01
0.30 .01
0.37 .02
0.38 .01
0.24 .01
TP TB
.01 —
.01 0.3
.02 0.9
.02 --
.01 0.2
.03 0.9
.03 —
.01 0.3
.02 0.9
.02 —
.01 0.2
.01 1
.02 —
.01 0.2
.02 1
.03 —
.01 0.5
.01 2 M
310
2
0.15
0.15
0.20
0.20
0.15
0.20
0.15
0.35
0.20
0.25
0.15
0.25
0.25
0.15
0.35
0.25
0.45
|D. 80
-------
TABLE/
[continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE WATER CHEMISTRY
STA.NO.
M4 1 -0 1
M4 1 -0 1
M4 1 -0 1
M4I-OI
M4I-OI
M4 1 -0 1
M4 1 -0 1
M4 1 -0 1
M4 1 -0 1
M4 1 -0 1
M4 1 -0 1
M4 1 -0 1
M43-OI
M43-OI
M43-OI
M43-OI
M43-OI
M43-OI
M43-OI
M43-OI
M43-OI
M43-OI
M43-OI
D
0
0
0
0
58
50
58
1 14
1 12
112
0
0
0
0
72
50
1 10
142
138
136
DATE
4/30/67
7/30/67
10/22/67
4/30/67
7/30/67
10/22/67
4/30/67
7/30/67
10/22/67
4/30/67
7/30/67
10/22/67
4/30/67
7/30/67
10/22/67
4/30/67
7/30/67
10/22/6?
S.D. T.
12.0 2.5
18.0 22.5
15.0 14.0
2.5
13.5
13.6
2.3
5.5
8. 1
II. 0 2.0
13.0 21.3
13.0 12.4
2.0
1 1 .0
1 1.0
2.0
5.3
6.3
ALK
96
95
100
100
95
99
100
90
103
95
100
98
95
100
98
100
100
100
CON
320
310
320
320
320
320
330
330
330
330
320
320
320
320
320
330
330
330
DO
13.1
9.4
10.3
13.2
7.8
10. 1
13.1
9.9
6.5
13.1
9.7
10.7
13.3
9.0
9.7
13.2
10.4
7.1
BOD
0.0
1.2
1.4
0.0
0.9
1.0
O.I
0.7
0.6
0.2
1 .1
1.7
0.4
I.I
0.8
O.I
0.8
0.8
COD
8.7
8.1
8.9
7.1
6.7
8.5
8.3
6.2
9.5
6.9
8.4
8.3
6.2
7.2
10.2
.8.1
6.8
9.3
pH
7.7
8.8
8.3
7.8
7.5
8.1
7.8
8.3
7.3
8.3
8.8
8.2
8.3
7.9
7.7
8.3
8.0
7.4
Eh
364
418
364
412
376
418
376
382
370
394
388
394
TS
157
203
243
143
177
255
150
225
274
152
21 1
244
222
196
263
223
216
266
TDS
144
192
242
148
173
252
152
217
257
157
205
243
220
189
241
228
200
256
CL
20
23
25
27
24
24
27
24
24
27
24
24
27
24
24
27
24
25
NH,
N
0.05
0.03
0.12
0.15
0.09
0.20
0.05
0.14
.0.06
0.07
0.08
0.12
0.05
0.10
0.06
0.03
0.06
0.06
NO
N3
O.I 1
0.00
0.02
0.12
0.05
0.02
O.I 1
0. 16
0.19
0.16
0.00
0.04
0.12
0.05
0.08
0.12
0.18
0.21
ORG
N
0.52
0.32
0.18
0.37
0.59
0.21
0.36
0.40
0.23
0.40
0.27
0.22
0.33
0.22
0.26
0.51
0.36
0.21
SP
.04
.01
.01
.01
.01
.01
.02
.02
.01
.02
.01
.01
.02
.01
.01
.02
.02
.02
TP TB
.06 —
.01 0.4
.01 1
.02 —
.01 0.2
.01 0.7
.03 —
.02 2
.02 7
.02 —
.01 0.5
.02 0.9
.02 —
.01 0.8
.01 1
.03 —
.03 2
.02 3
s.o2
0.15
0.25
0.30
0.15
0.30
0.25
0.15
0.80
1 .40
0.15
0.25
0.20
0.25
1 .25
0.50
0.20
0.70
1 .10
-------
TABLE I (continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE WATER CHEMISTRY
K>
STA.NO
N45-OI
N45-OI
N45-OI
N45-OI
N45-OI
N45-OI
N45-OI
N45-OI
N45-OI
N45-OI
N45-OI
N45-OI
047-01
047-01
047-01
047-01
047-01
047-01
047-01
047-01
047-01
047-01
047-01
047-01
. D
0
0
0
0
80
40
120
160
160
154
0
0
0
0
79
55
130
157
i
DATE
4/29/67
7/30/67
10/23/67
4/29/67
7/30/67
10/23/67
4/29/67
7/30/67
10/23/67
4/29/67
7/30/67
10/23/67
4/29/67
7/30/67
10/23/67
4/29/67
7/30/67
10/23/67
S.D. T.
II. 0 2.0
14.0 21.7
17.0 12.5
2.0
16.5
9.8
2.0
5.2
6.5
8.0 2.0
16.0 21.9
18.0 13.0
2.0
18.2
10.8
2.0
5.2
7.1
ALK
95
100
no
93
95
113
95
95
105
95
90
100
95
90
100
95
95
99
CON
340
320
320
340
320
340
310
330
340
320
310
310
320
320
320
320
320
320
DO
13.2
9.6
10. 1
13.1
8.6
8.2
13.3
10.5
7.5
13.1
9.3
10. 1
13.1
8.2
4.0
13.3
10.6
7.5
BOD
0.6
1.4
1.4
0.8
1.0
0.9
0.7
I.I
1.4
0.4
I.I
1.2
0.7
0.9
0.8
0.3
0.8
0.6
COD pH
7.1 8.2
7.2 8.8
9.3 8.7
8.1 8.2
7.8 8.2
7.2 8.4
8.1 8.3
7.6 7.8
7.0 8.3
9.6 8.0
8.2 8.2
9.5 9.5
6.7 8.2
6.6 7.4
8.1 7.9
6.9 8.1
5.6 7.0
7.6^7
Eh
358
316
358
322
370
322
358
448
370
442
394
442
TS
211
230
302
205
180
306
209
189
315
213
197
240
190
193
269
231
202
280
TDS
204
176
293
191
187
303
204
181
297
151
190
235
178
197
256
180
193
267
CL
27
23
25
27
24
24
28
24
24
27
23
25
26
24
24
27
25
23
NH
0.05
0.03
0.11
0.07
0.21
0.05
0.02
0.08
0.07
0.09
0.13
0.07
0.03
0.08
0.06
0.08
0.16
0.17
NO
N3
0.10
0.00
0.03
o.io
0.03
0.14
0.06
0.18
0.19
0.04
0.02
0.03
0.09
0.00
0.08
0.11
0.19
0.19
OR6
N
0.38
0.39
0.19
0.37
0.17
0.29
0.58
0.27
0.15
0.53
0.21
0.18
0.37
0.40
0.25
0.39
0.14
0.19
SP
.01
.01
.01
.01
.01
.01
.01
.02
.01
.01
.00
.01
.01
.01
.00
.01
.01
.02
TP TB
.01 —
.01 0.3
.01 0.9
.02 —
.01 0.8
.03 2
.06 --
.02 1
.03 3
_
.01 —
.01 0.2
.02 0.6
.02 ~
.01 O.I
.01 2
.02 —
.02 1.0
.02 4b
s,o2
0.15
0.30
0.30-
0.25
0.25
0.70
0.25
0.85
1.15
0.15
0.25
0.20
0.20
0.25
0.65
0.45
0.50,
/ SJ0
-------
TABLE
[continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE WATER CHEMISTRY
N)
STA.NO.
P49-OI
P49-OI
P49-OI
P49-OI
P49-OI
P49-OI
P49-OI
P49-OI
P49-OI
P49-OI
P49-OI
P49-OI
051-01
051-01
051-01
051-01
051-01
051-01
051-01
051-01
051-01
051-01
051-01
051-01
D
0
0
0
0
49
60
48
96
99
92
0
0
0
0
32
64
36
72
74
69
DATE
A/29/61
7/30/67
10/23/67
4/29/67
7/30/67
10/23/67
A/29/61
7/30/67
10/23/67
A/29/61
7/30/67
10/23/67
A/29/61
7/30/67
10/23/67
A/29/61
7/30/67
10/23/67
S.D. T.
8.0 3.2
20.0 21.5
12.0 13.6
3.2
19.5
13.4
3.2
6.0
13.2
6.0 3.5
18.0 21.1
10.5 14.2
3.5
18.8
13.6
3.5
13. 1
13.4
ALK
95
95
99
95
95
97
95
100
98
90
100
101
90
95
99
95
95
101
CON
330
310
310
320
310
320
320
330
320
320
320
320
320
320
320
320
320
320
DO
13.3
9.2
10.3
13.1
8.5
10.2
13.4
6.8
10.0
13.0
9.2
10.3
13.0
8.2
10.2
13.0
6.2
10.2
80^
1 .1
1 .0
1.2
1.2
0.5
1 .0
I.I
0.4
0.9
1 . 1
1.0
1.0
I.I
0.6
1.0
1.5
0.7
1.4
COD
8.5
6.4
8.5
8.7
6.0
10.3
12.9
7.8
8.3
10.7
6.6
8.5
10.7
7.0
8.5
1 1 .7
6.0
8. 1
pH
8.6
9.0
8.2
8.2
8.7
8.2
8.4
8.0
8.1
7.9
8.8
8.2
7.9
8.7
8.1
7.9
7.9
8.2
Eh
388
430
376
418
382
412
370
406
370
400
400
400
TS
229
212
244
233
211
262
238
215
216
217
210
215
214
214
216
241
225
204
TDS
189
208
243
180
197
257
222
204
210
222
21 1
214
218
192
207
205
185
203
CL
27
24
24
27
24
24
27
25
25
28
25
25
27
25
25
28
25
25
NH
N3
0.04
0.06
0.08
0.05
0.08
0.04
0.04
0.13
0.05
0.15
0.05
0.05
0.06
0.08
0.08
0.06
0.15
0.05
NO
N3
0.09
0.01
0.01
0.07
0.00
0.00
0.00
0.15
0.00
0.08
0.00
0.02
0.06
0.00
0.00
0.04
0.10
0.00
ORG
N
0.47
0.25
0.23
0.46
0.25
0.36
0.65
0.30
0.30
0.33
0.34
0.27
0.55
0.21
0.34
0.77
0.30
0.23
SP
.01
.01
.01
.01
.01
.00
.02
.03
.03
.01
.01
.01
.02
.00
.01
.02
.01
.01
TP TB
.02 —
.01 0.2
.02 1
.02 —
.cr o.i
.02 1
.05 —
.04 1.0
.02 4
.03 —
.01 O.I
.01 2
,02 ~
.01 O.I
.02 2
.03 ~
.01 0.2
.02 2
S'°2
0.2C
0.25
0.25
0.2C
0.25
0.35
0.65
0.85
0.35.
0.2C
0.15
0.35
0.2C
0.25
0.25
0.25
0.75
0.3C
-------
TABLE I (concluded)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE WATER CHEMISTRY
STA.NO. D
R53-OI
R53-OI
R53-OI
R53-OI
R53-OI
R53-OI
R53-OI
R53-OI
MR55-OI
*R53-OI
R53-OI
R53-OI
S55-OI
S55-OI
S55-OI
S55-OI
S55-OI
S55-OI
S55-OI
S55-OI
S55-OI
S55-OI
S55-OI
S55-OI
0
0
0
0
32
32
31
62
62
59
0
0
0
0
21
21
21
40
40
DATE
4/29/67
7/30/67
10/23/67
4/29/67
7/30/67
10/23/67
4/29/67
3/30/67
10/23/67
4/29/67
7/30/67
10/23/67
4/29/67
7/30/67
10/23/67
4/29/67
7/30/67
10/23/67
S.D. T.
8.0 4,0
24.0 21.1
10.0 13.8
4.0
21.1
13.2
4.0
21.0
12.9
6.0 5.0
16.0 21.3
II. 0 13.6
5.0
21.2
21.2
5.0
21.2
12.9
ALK
90
100
101
95
100
97
95
95
99
100
100
99
100
95
100
100
95
97
CON
920
310
320
320
310
320
320
310
330
330
310
320
320
310
320
330
310
320
DO
13.1
9.1
10.5
13.0
9.1
10.2
12.4
9.1
10.2
13.2
9.1
10.8
13.2
9.1
10.6
13.1
<) O.I
10.2
BOD
1.8
0.9
1.4
2.3
1.4
'•?
1.7
0.8
1.0
2.4
1.0
1.2
2.2
1.3
1.2
2.9
0.9
0.9
COD
8.5
5.6
8.9
8.4
7.2
8.9
8.9
5.6
9.3
8.7
6.8
8.9
8.7
8.6
8.9
12.5
9.2
8.3J
1
PH
8.1
8.7
a. 4
8.0
8.7
8.2
8.2
8.7
8.3
8.4
8.8
8.3
8.2
8.7
8.2
8.3
8.7
ft2
w
Eh
370
388
370
382
364
388
418
382
400
370
424
370
TS
226
238
206
155
231
202
156
229
202
173
225
205
173
218
206
179
207
217
TDS
195
234
205
144
195
200
124
170
199
126
220
191
141
215
202
147
202
207
CL
27
24
25
27
26
25
27
26
25
26
25
25
26
26
25
26
26
25
NH
N3
0.07
0.15
0.06
0.12
0.29
0.09
0.06
0.06
0.05
0.08
0.06
0.03
0.10
0.03
0.05
0.11
o.oe^
O.Q01
NO
N5
0.08
0.00
0.00
0.03
0.00
0.00
0.06
0.00
0.00
0.18
0.00
0.00
0.18
0.00
0.00
0.11
0.00
0.00
ORG SP
N
.Oi54 .01
0.23 .01
0.27 .02
0.29 .02
0.18 .01
0.23 .02
0.39 .02
0.34 .01
0.23 .02
0.39 .04
0.55 .01
0.44 .01
0.49 .04
0.58 .01
0.23 .02
0.58 .09
0.29 .00
0.23 .01
TP TB
.02 —
.02 0.2
.03 2
.03 —
.02 0.2
.02 2
.03 —
.01 O.I
..02 2
.05 —
.01 0.3
.02 2
.06 —
.01 0.3
.02 2
.13 —
.01 0.3
.02 2^
W
s,o2
0.20
0.\?
0.30
0.20
0.25
0.30
0.20
0.15
0.25
0.40
0.15
0.35
0.50
0.20
0.25
«
0.50
0.20
0.3^
-------
TABLE 2
DETROIT PROGRAM OFFICE
WATER CHEMISTRY - WESTERN BASIN - 1967
IS)
Ul
STA. NO. DATE
L6
L8
L9
LI 1
LI4
LI7
L2I
4/20/67
6/07/67
6/20/67
A/20/61
6/07/67
6/20/67
4/20/67
6/07/67
6/20/67
A/20/67
6/07/67
6/20/67
A/20/61
6/07/67
6/20/67
A/20/61
6/07/67
6/20/67
A/20/61
6/07/67
6/20/67
D
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
T
7.5
18.5
19.0
9.5
19.0
19.0
8.5
18.0
20.0
8.5
20.0
20.5
11.5
21.0
21.0
8.0
20.0
21.5
8.5
19.0
20.5
CON
220
280
240
380
260
240
315
220
260
260
270
320
540
320
300
230
290
280
350
320
260
CL Phenols D.O.
9
25
13
39
19
13
32
10
17
19
21
24
28
25
20
10
23
18
42
35
20
8
1
8
5
5
6
6
1
6
7
21
9
5
10
1
12
14
3
12
8
2
11.2
7.7
8.0
1 1.3
9.2
10.8
11.4
9.4
7.6
1 1.5
10.6
7.0
10.3
9.9
7.5
11.5
11.5
7.5
12.1
7.7
6.8
Total
P
.03
.16
.07
.06
.10
.07
.06
.09
.07
.04
.04
.13
.07
.08
,-10
.02
.07
.09
.07
.21
.16
Sol.
P
.00
.14
.05
.05
.08
.05
.01
.05
.06
.02
.07
.08
.01
.06
.07
.01
.05
.12
.05
.16
.14
N03-N
0.6
0.3
0.3
1.6
0.2
0.3
0.7
0.2
0.2
1.3
0.2
0.2
3.6
0.9
0.6
1.4
0.4
0.3
0.5
0.3
0.5
NH3-N
0.41
0.32
0.32
1.12
~
0.24
0.35
—
0.31
0.23
0.23
0.41
0.34
0.47
0.32
0.19
0.25
0.25
0.47
0.49
0.52
ORG-N
0.05
—
<0.05
0.25
0.36
<0.05
0.05
0.27
< .05
<0.05
.36
<0.05
0.18
0.23
< 0.05
< 0.05
0.31
< 0.05
0.07
—
< 0.05
Total
Col iform
490
5,400
2,200
340
130
1,900
13,000
120
300
1 10
94
490
10,000
36
3,200
70
<2
5,600
800
1,800
14,000
SS
1 1
2
26
14
1
16
14
2
20
8
4
27
70
4
28
10
6
22
17
9
8
Sulfate
—
19
17
--
19
17
—
17
17
— -
19
24
—
31
24
—
25
22
—
20
19
-------
TABLE 2 (continued)
DETROIT PROGRAM OFFICE
WATER CHEMISTRY - WESTERN BASIN - 1967
STA.
L23
L26
L40
L4I
L42
L43
L50
NO. DATE
4/20/67
6/07/67
6/20/67
4/20/67
6/07/67
6/20/67
4/20/67
6/07/67
6/20/67
4/20/67
6/07/67
6/20/67
4/20/67
6/07/67
6/20/67
4/20/67
6/07/67
6/20/67
4/17/67
6/13/67
7/10/67
8/16/67
D
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
T
10.5
21.0
20.5
10.5
20.5
21.5
8.0
20.0
21.0
8.5
20.5
21.5
8.5
20.0
22.0
9.0
20.0
22.0
8.5
21.5
23.0
21.5
CON
350
310
360
450
360
340
2.40
255
260
285
320
260
230
335
320
275
325
340
280
— •
280
340
CL
34
29
33
26
23
22
21
16
17
27
24
17
15
22
20
22
23
21
18
26
23
41
Phenols
6
6
4
4
1
68
< 2
14
30
< 2
24
130
2
20
100
2
130
1,300
180
58
730
SS
10
6
31
42
20
58
5
3
12
13
2
39
12
5
68
16
7
65
17
5
3
5
Sulfate
*«
25
31
—
42
39
_ _
19
'.9
__
31
20
__
35
27
__
32
35
__
19
17
20
-------
TABLE 2 (continued)
DETROIT PROGRAM OFFICE
WATER CHEMISTRY - WESTERN BASIN - 1967
NJ
-J
STA.
L5I
L52
153
L54
L55
L56
NO. DATE
4/17/67
6/13/67
7/10/67
8/16/67
4/17/67
6/13/67
7/10/67
8/16/67
4/17/67
6/13/67
7/10/67
8/16/67
6/13/67
7/10/67
8/16/67
6/13/67
7/10/67
8/16/67
6/13/67
7/10/67
8/16/67
D
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
T
7.5
20.0
22.0
21.0
6.5
22.0
23.0
22.0
6.0
20.0
22.0
22.0
20.0
22.0
22.0
21.0
22.0
22.0
21.5
22.5
22.0
CON
270
—
240
280
290
__
280
270
290
--
280
260
•»
280
280
__
300
280
__
320
300
CL
19
25
15
28
24
22
20
27
23
20
19
22
19
20
23
19
20
24
17
21
27
Phenol s
6
4
—
4
8
3
_
5
5
1
—
16
—
—
5
1
-
4
2
-
3
D.O.
12.0
9.7
1 1.8
9.5
12.5
9.5
10.9
9.6
12.4
9.5
9.9
10.4
9.7
8.4
II. 1
9.8
8.5
10.0
9.6
9.6
9.9
Total
P
.01
.01
.11
.01
.02
.02
.22
.01
.03
.02
.25
.02
.02
.12
.02
.03
.15
.02
.02
.17
'.02
Sol.
P
.01
.01
.09
.01
.02
.01
.13
.01
.01
.00
.12
.01
.03
.12
.01
.03
.14
.01
.02
.09
.01
NO,-N
0.7
O.I
—
O.I
0.3
0.2
—
O.I
0.2
O.I
—
0.3
0.2
--
<.l
0.2
—
<.l
0.2
—
<.l
NH -N
0.26
0.16
0.12
0.12
0.19
0.28
0.07
0.09
0.17
0.13
0.26
0.32
0.21
0.09
0.13
0.15
0.17
0.15
0.47
0.18
0.07
ORG-N
0.21
0.41
—
0.17
0.16
0.14
0.14
0.14
0.13
0.09
0.22
— -
0.14
0.13
0.23
0.18
0. 10
0.28
0.11
0.14
0.20
Total
Col If orm
2
6
26
150
1
3
1
1 1
-------
TABLE 2 (concluded)
DETROIT PROGRAM OFFICE
WATER CHEMISTRY - WESTERN BASIN - 1967
N)
00
STA.
L57
L58
L59
L60
L6I
L62
NO. DATE
6/13/67
7/10/67
8/16/67
4/17/67
6/13/67
7/10/67
8/16/67
4/17/67
6/13/67
7/10/67
8/16/67
4/17/67
6/13/67
7/10/67
8/16/67
4/17/67
6/13/67
7/10/67
8/16/67
4/17/67
6/13/67
7/10/67
8/16/67
D
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0=
0
0
0
0
0
0
0
T
22.0
22.5
22.0
7.5
23.0
23.0
23.0
8.0
24.5
23.0
24.0
8.5
25.0
— _
24.0
8.5
24.5
—
24.0
9.5
22.0
21.5
24.0
CON
320
320
275
—
330
330
255
__
280
320
265
—
280
300
310
__
290
280
310
—
320
300
CL
21
21
28
20
21
23
31
18
19
21
24
20
20
18
20
18
20
19
18
18
25
23
15
Phenols
1
—
8
7
-
_
4
6
5
—
3
8
< 1
-
5
6
21
-
5
-------
TABLE 3
WATER CHEMISTRY COMPARISONS 1963-64 - 1967-68
(Cleveland Program Office Data)
Western Basin %
max.
Central Basin
Eastern Basin
Total
min. avg. Change max. min. avg. Change max. min. avg. Change Lake Avg.
NJ
Conductivity
Dissolved Sol ids
Total Sol ids
Chlorides
S iIi ca
So IufcIe Phosphorus
TotaI Phosphorus
Total Nitrogen
Organic Nitrogen
1963-64 364 196 272
1967-68 370 238 285 +4.8
1963-64 220 110 162
1967-68 247 135 170 +4.9
1963-64 250 140 181
1967-68 356 149 188 +3.9
1963-64 34 10 21
1967-68 26 10 19 -9.5
1963-64 5.0 0.3 !.20
1967-68 1.87 0.43 I.06 -I I.7
1963-64 0.33 0.00 0.03
1967-68 0.10 0.01 0.04+33.3*
1963-64
1967-68 0.19 0.02 0.06
1963-64 2.66 0.17 0.71
1967-68 1.98 0.27 0.74 +4.2
1963-64 0.36
1967-68 0.71 0.07 0.37 +2.3
353 260 300
330 283 312 +3.7
239 137 178
283 147 196 +10.1
218 159 185
307 153 202 +9.2
46 19 24
29 19 23 -4.2
9.6 0.2 0.68
0.98 0.15 0.37 -45.6
0.07 0.00 0.01
0.03 0.00 0.02+100.0*
0.05 0.01 0.02
1.30 0.07 0.43
0.95 0.28 0.47 +9.3
0.25
0.78 0.12 0.32 +28.0*
328 284 301 298.9
333 310 318 +5.6 312.6
233 150 179 177.6
297 138 204 +14.0 197.3
240 167 188 185.8
308 175 220 +17.0 207.1
31 21 24 23.9
28 24 25 +4.2 23.4
3.5 0.2 0.47 0.64
0.72 0.18 0.37 -21.2 0.40
0.04 0.00 0.01 0.01 I
0.02 0.01 0.01 0.0 0.018
0.08 0.01 0.02 0.022
1.18 0.10 0.42 0.44
0.75 0.30 0.47 +11.9 0.48
0.24 0.25
0.55 0.21 0.34 +41.6* 0.33
-------
TABLE 3 (Concluded)
WATER CHEMISTRY COMPARISONS 1963-64 - 1967-68
(Cleveland Program Office Data)
Western Basin %
Ammonia Nitrogen
Nitrate Nitrogen
Chemical Oxygen
Demand
5-Day Biochemical
Oxygen Demand
Alkalinity
Eh
PH
1963-64
1967-68
1963-64
1967-68
1963-64
1967-68
1963-64
1967-68
1963-64
1967-68
1963-64
1967-68
1963-64
1967-68
max.
0.77
0.56
1.50
0.96
29.0
18.9
4.1
240
105
560
8.8
mm.
0.01
0.04
0.02
0.01
I.I
5.5
0.4
57
75
474
7.6
avg. Change
0.16
0.17 +6.3
0.12
0.20 66.7*
10.4
9.8 -5.8
1.7
99
90 -9.9
511
8.3
Central Basin
max.
0.39
0.21
0.84
0.43
16.0
11.9
2.7
130
102
612
8.9
min.
0.00
0.02
0.00
0.00
3.1
5.2
0.0
71
92
354
7.7
avg.
0.09
0.10
0.09
0.05
7.1
8.6
1.0
97
96
470
8.4
% Eastern Basin
Change max.
0.32
9.0 0.17
0.85
-44.4 0.16
27.0
+21.1* II. 0
2.5
134
-1.0 109
444
8.7
mln.
0.00
0.04
0.01
0.00
4.7
6.1
0.2
59
92
324
7.5
avg.
0.09
0.07
0.09
0.06
7.4
8.2
1.2
99
98
385
8.3
% Total
Change Lake Avg
0.09
-22.2 0.09
0.09
-33.3 0.06
7.36
+10.8 8.53
1.10
-1.0 96.3
445
8.36
* Eliminated from average to insure statistical validity.
-------
TABLE 4
DETROIT PROGRAM OFFICE
MICHIGAN WATERS OF LAKE ERIE
COMPARATIVE DATA - 1963 and 1967
Conductivity
Chlorides
Phenols
Total Phosphorus
Soluble Phosphorus
Nitrate Nitrogen
Ammonia Nitrogen
Organic Nitrogen
Suspended Sol ids
Sulfate
1963
1967
1963
1967
1963
1967
1963
1967
1963
1967
1963
1967
1963
1967
1963
1967
1963
1967
1963
1967
Max.
540
46
42
16
21
0.25
0.31
0.16
0.5
3.6
0.58
1.35
0.62
0.92
70
\
42
Min.
220
14
9
0
-------
TABLE 5
DETROIT AND CLEVELAND PROGRAM OFFICES
COMPARISON OF 1967-68 CLEVELAND AND DETROIT DATA
FOR WESTERN BASIN
Conductivity
Chlorides
Total Phosphorus
Soluble Phosphorus
N i trate-N
Ammon 1 a-N
Organ ic-N
Suspended Sol ids
DPO
CPO
DPO
CPO
DPO
CPO
DPO
CPO
DPO
CPO
DPO
CPO
DPO
CPO
DPO
CPO
Basin
Average
296
285
22
19
0.07
0.06
0.05
0.04
0.6
0.2
0.28
0.17
0.18
0.37
II
17
Combined
Average
290
20
.06
.04
0.4
0.22
0.27
14
32
-------
In the central basin, all chemical constituents show increases
except chlorides, silica, and nitrate nitrogen, while in the eastern
basin the only decreases are in silica, ammonia nitrogen, and nitrate
nitrogen.
The average dissolved solids have increased 9 percent during
this period in spite of the fact that chlorides and silica have de-
creased. The average specific conductance has also increased indi-
cating that the increase in dissolved solids is due to inorganic
constituents. Future work will endeavor to describe these inorganic
constituents. Silica is apparently paralleled by extensive Increases
in diatom populations in each basin. Diatoms metabolically assimilate
dissolved silica in skeletal formation.
SEDIMENT CHEMISTRY
The role of bottom sediments in Lake Erie, as in other temperate,
eutrophic lakes, has great significance especially during summer
thermal stratification. During this period, convective mixing be-
tween the temperature-density stratified water is severely limited.
The bottom layer, isolated from atmospheric replenishment, eventually
becomes depleted of dissolved oxygen due to uptake by sedimented
plankton. This leads directly to an accelerated nutrient cycle be-
tween sediment and water.
With development of anaerobic conditions at the sediment-water
interface, the reduced forms of iron, manganese, and sulfur, along
with phosphorus, ammonia, and carbon dioxide are leached from the
sediment to the overlying waters. The effect is a nutritional stim-
ulus to plankton. The death and sedimentation of these plankton
renew the sources of sediment organic matter, which are again bac-
teriological ly degraded in a succeeding stratification leading to
another hypolimnetic deoxygenation and nutritional enrichment.
It is suspected that a lake can reach a state of eutrophication
or enrichment whereby, in spite of elimination of all waste inputs,
the bottom sediments become such that the above cycle would be in-
definitely perpetuated.
In an attempt to study the state of eutrophication in Lake Erie,
bottom sediments were analyzed during the various seasons of the year,
(see Table 6). A comparison with respect to basin averages for the
years 1963-64, and 1967-68, is given in Table 7.
Substantial increases in sediment phosphorus and ammonia nitrogen
were noted in all basins. Sediment organic nitrogen increased in the
western and eastern basins while decreasing in the central. Sediment
nitrate nitrogen showed decreases in the central and eastern basins
while remaining constant in the western.
33
-------
TABLE 6
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE SEDIMENT CHEMISTRY
STA. NO
D09-0 1
D09-0 1
D09-OI
D09-0 1
DI3-OI
DI3-OI
D 13-01
013-01
E02-OI
E92-OI
E02-OI
E02-OI
E05-OI
E05-OI
E05-OI
E05-OI
F03-OI
F03-OI
F03-OI
F03-OI
F03-02
F03-02
F03-02
F03-02
D
44
64
46
46
49
46
47
28
31
34
32
24
26
25
26
33
34
32
33.5
26
25
25
32
DATE
5/03/67
7/28/67
10/18/67
5/02/67
7/28/67
10/18/67
1/12/68
5/04/67
7/26/67
10/16/67
1/09/68
5/04/67
7/27/67
10/17/67
1/10/68
5/04/67
7/26/67
10/16/67
1/09/68
5/04/67
7/27/67
10/17/67
1/09/68
pH
7.5
5. 1
7.1
7.5
5.1
7.0
7.4
7.2
—
7.8
8.5
4.4
7.3
7.3
—
—
7.8
7.6
3.7
7.4
7.9
Eh T
9.0
20.0
12.7
6.0
16.0
13.5
478 2.2
1 1 .0
23.0
12.5
274 1.8
8.5
—
12.5
370 2.0
—
21.9
13.4
418 1.5
9.0
21 .5
12.8
1 30 1.6
BODc;
_.
3.8
2.0
—
1 .6
1 .0
1.6
—
2. 1
2.1
1 .7
_ —
0.9
1 .0
3. 1
—
3.1
2.2
1.4
—
2.3
1 .6
2.2
IDOD
__
—
0.8
—
—
0.4
0.2
—
. —
0.3
0.2
—
0.4
0.5
—
—
0.5
0. 1
__
—
0.7
0.4
COD
__
80.4
65.3
—
55.0
31.4
74.9
—
109.1
74.4
74.0
_-.
27.2
30.5
83.3
—
89.2
71.3
56.5
—
84.1
70.0
82.8
$VS
__
9.7
10.2
— —
6.3
4.6
8.5
—
7.3
7.8
7.5
3. 1
6.0
8.3
—
8.0
14.5
7.2
—
8.1
10.2
9.5
TP
__
—
2.19
_._
—
0.67
0.93
__
--
1 .13
1 .26
__—
—
0.66
1.23
__
—
0.95
0.86
—
0.77
0.97
NHT-N
0.64
0.41
— _
0.17
0.15
O.I 1
0.20
0.48
0.23
^ __
0.08
0.33
0.38
— —
0.49
0.55
0.19
__
0.42
0.37
0.39
NO -N
0.0000
o.oo is
_ _
0.0002
0.0015
0.0016
—
0.0000
0.0017
0.0008
— —
0.0000
0.0007
0.0019
__
0.0005
0.0012
0.001 1
__
0.0003
0.0010
0.0012
ORG-N
„
3.79
1 .90
—
0.06
0.86
2.06
—
2.36
2.00
1 .91
__
0.90
1 .04
2.58
__
3.59
2.28
1 .38
__
2.82
1 .87
2.19
TFE
„
41 .56
__
27.51
—
30.31
__
27.78
—
28.75
_.
19.30
—
42.14
_ — .
37.80
—
29.60
_ —
35.53
_ _
36.38
-------
6 (continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE SEDIMENT CHEMISTRY
vj)
STA. NO. D
Ft 6-01
F 16-01
FI6-OI
F 16-01
G04-0 1
G04-OI
G04-OI
G04-0 1
G06-0 1
G06-0 1
G06-0 1
G06-0 1
G07-0 1
GO 7-01
G07-OI
G07-OI
G09-OI
G09-0 1
G09-OI
G09-0 1
G 10-01
GIO-OI
GIO-OI
GIO-OI
61
62
60
63
28
30
30.5
29
32
34
32
32
49
36
34
35
37
36
36
38
38
36
40
39
DA IE
5/02/67
7/28/67
10/18/67
1/13/68
5/04/67
7/27/67
10/17/67
1/09/68
5/04/67
7/27/67
10/17/67
1/10/68
5/03/67
7/27/67
10/17/67
1/10/68
5/03/67
7/27/67
10/18/67
I/I 1/68
5/03/67
7/28/67
10/18/67
l/M/68
PH
8.5
5.7
7.1
7.5
7.4
4.9
7.4
8.0
8.1
4.2
7.2
7.8
7.8
5,0
7.3
7.9
7.0
4.6
7.3
7.7
6.9
4.8
7.4
7.4
Eh T
10.0
i4.2
430 2.6
9.5
20.5
274 1.0
8.0
19.0
12.5
2.4
8.5
20.0
12.5
310 2.1
8.0
21.0
12.0
88 1.9
__
20.0
12.5
202 2.6
BODC
1.2
I.I
1.0
__
I.I
0.6
__
2.0
0.8
1.7
— _
1.9
0.7
1 .7
__
1.4
1.4
0.8
1.4
0.8
I.I
IDOD
—
0.5
0.3
__
—
0.7
O.I
__
—
0.7
0.4
__
—
0.5
0.5
—
0.5
0.2
—
0.5
0.3
COD
46.2
47.2
50.2
__
29.0
61 .4
27.1
__
76.1
94.7
78.6
— —
75.1
64.3
81.8
__
55.9
60.9
46.3
_ —
54.0
51 .6
56.3
%VS
5.6
7.4
6.7
__
3.1
8.6
4.8
— _
7.7
8.8
8.9
__
7.9
1 1 .8
10.0
__
6.3
9.6
4.9
^ _
6.1
8.0
8.3
TP
—
0.63
0.56
0.75
0.48
0.82
0.82
0.66
0.65
0.87
0.48
__
—
0.62
0.35
NH,-N
0.15
0.33
0.19
__
0.05
0.38
0.07
— p
0.24
0.38
0.32
__
0.28
0.31
0.35
__
0.24
0.41
O.I 1
__
0.28
0.29
0.18
NO,-N
_/
0.0002
0.0013
0.0024
__
0.0000
0.0010
0.0009
__
0.0003
0.0006
0.0014
__
0.0046
0.0006
0.0020
__
0.0007
0.0008
0.0005
__
0.0016
0.0005
0.0007
ORG-N
2.07
1 .64
1 .71
0.08
1 .72
0.68
2.61
1.89
1 .86
2.61
1 .62
2.44
__
0.07
1.94
1 .49
2.33
1.43
1 .72
TFE
33.62
—
37.12
34.38
15.63
20.05
__
41 .40
33.90
__
36.84
32.28
__
29.22
30.20
__
32.69
-------
TABLE 6 tcontinueo;
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE SEDIMENT CHEMISTRY
STA. NO.
GI2-OI
GI2-OI
GI2-OI
GI2-OI
GI8-OI
GI8-OI
GI8-OI
GI8-OI
H20-0 1
H20-0 1
H20-OI
H20-OI
123-01
123*01
123-01
123-01
J25-OI
J25-OI
J25-OI
J25-OI
K28-OI
K28-OI
K28-OI
D
42
73
74
72
73
79
81
78
80
82
80
77
80
78
75
76
74
DATE
5/03/67
7/28/67
10/18/67
1/12/68
5/01/67
7/28/67
10/19/67
1 / 1 3/68
5/01/67
7/28/67
10/19/67
5/01/67
7/29/67
10/19/67
5/01/67
7/29/67
10/20/67
4/30/67
7/29/67
10/20/67
pH Eh
.. _.
—
—
7.0
5.2
6.9
7.4 466
7.5
5.1
7.0
7.2
7.4
7.0
7.8
7.2
7.9
7.1
7.1
6.9
T
— —
—
—
_»
10.0
13.5
2.1
6.0
10.0
13.5
—
10.0
13.5
5.5
9.0
13.0
—
9.0
13.0
BOD^
_ —
—
—
__
0.8
I.I
1.5
—
2.8
1.3
—
2.5
1.2
__
—
1.5
__
1.4
0.8
1 DOD COD
— — __
— — — .—
71.3
0.7 48.2
0.6 74.5
__
81.9
0.9 75.9
— — __
70.7
0.8 64.4
— — __
70.8
0.7 64.9
__ —
41.5
0.3 40.0
JVS
__
--
—
__
7.1
7.4
8.4
— —
8.4
8.7
__
6.7
8.0
_._
7.8
9.0
—
4.6
6.4
TP NH,-N
--
—
__ __
0.64
0.77 0.43
0.71 0.34
— — .
0.57
0.78 0.58
__
0.55
0.90 0.47
—
0.44
0.79 0.52
__
— 0.22
0.74 0.24
NO,-N
—
—
__
0.0037
0.0014
0.0032
— —
0.0021
0.0026
__
0.0033
0.0039
__
0.0014
0.0012
__
0.0021
0.0008
ORG-N
—
—
'
3.21
1 .92
2.96
__
4.02
2.59
__
3.23
2:00
__
3.06
2.30
_ —
1 .79
1.34
TFE
40.26
42.87
36.38
78.83
36.04
28.25
-------
6 (continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE SEDIMENT CHEMISTRY
STA. NO.
L30-OI
L30-OI
L30-OI
L30-OI
L33-OI
L33-OI
L33-OI
L33-OI
L36-OI
L36-OI
L36-OI
L36-OI
M38-OI
M38-OI
M38-OI
M38-OI
M4I-OI
M4I-OI
M4I-OI
M4I-OI
M43-OI
M43-OI
M43-OI
M43-OI
D
72
74
72
70
68
70
70
74
74
63
116
114
116
144
140
140
DATE
4/30/67
7/29/67
10/20/67
4/30/67
7/29/67
10/22/67
4/30/67
7/29/67
10/22/67
4/3Q/67
7/30/67
10/22/67
4/30/67
7/30/67
10/22/67
4/JO/67
7/30/67
10/22/67
pH
8.0
6.8
7.2
7.5
—
7,2
wn
—
8.2
—
7.7
7.0
7.4
7.7
7.2
7.4
Eh T
6.0
10.0
13.0
—
—
12.5
__
—
O.I
4.0
-!-
5.5
6.0
7.0
__
4.8
6.0
BODC
0.4
0.5
—
—
0.4
__
—
O.I
__
0.03
0.2
_ _
0
0.05
__
2,7
fc,E
IDOD
__
—
0
__
—
O.I
__
—
0
_—
—
0
__
— -
0.05
__
—
0.6
COD
*.
17.4
17.2
__
—
18.4
__
—
9.8
__
9.6
6.2
18.5
15.8
__
48.2
53.7
JVS
.«*
2.5-
5.1
—
—
2.7
__
—
9.3
— —
1.7
3.3
*._
5.7
1.2
__
5.8
9.8
TP
-•_
—
0.84
— —
—
0.67
__
—
0.42
— -
—
0554
__
—
0.76
__
—
0.91
NH,-N
J
0.09
0.10
—
—
0.08
__
—
0.03
—
0.04
0.04
_.
0.04
0.09
__
0.30
0.32
NO,-N
0.0000
0.0016
_-
—
0.0002
__
—
0.0003
— —
0.0009
0.0001
— —
0.0005
0.0006
_—
0.0005
0.0007
ORG-N
w
0.70
0.51
—
—
0.49
__
—
— —
0.33
0.09
M
0.03
0.31
w
2.04
1.66
TFE
16.74
24.70
28.50
38.41
-------
TABLE 6 (concluded)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE SEDIMENT CHEMISTRY
STA. NO.
N45-OI
N45-OI
N45-OI
N45-OI
047-01
047-01
047-01
047-01
P49-OI
P49-OI
oo P49-OI
P49-OI
051-01
051-01
051-01
051-01
R53-OI
R53-OI
D
162
164
158
159
178
182
98
101
96
74
76
73
64
64
R53-OI 62.5
R53-OI
S55-OI
S55-OI
S55-OI
42
42
DATE
A/29/61
7/30/67
10/23/67
A/29/61
7/30/67
10/23/67
A/29/61
7/30/67
10/23/67
A/29/61
7/30/67
10/23/67
A/29/61
7/30/67
10/23/67
A/29/61
7/30/67
10/23/67
pH
7.4
7.0
7.3
7.5
6.8
7.2
7.4
7.5
7,3
7.7
9.1
7.6
7.1
7.2
7.1
6.8
—
7.5
Eh T
4.0
4.8
5.5
4.0
4.6
5.5
5.5
6.0
13.5
5.0
10.5
13.5
5.0
17.8
12.9
6.0
—
17.5
BODC
—
1.5
— —
4.2
1 .7
—
0.6
2.2
2.7
0.4
—
1 . 1
0.8
__
—
1 .0
1 DOD COD
__ — _
63.3
0.9 55.2
— — __
74.8
0.7 79.8
— — — _
18.7
0.5 61.8
62.2
0.8 14.8
__
40.4
O.I 26.2
____
-_
O.I 37.2
$VS
_.
7.0
1 1 .2
_ —
8.0
8.8
___
2.4
6.9
5.2
2.4
__
3.9
2.5
_ —
3.0
TP NHT-N
0.45
1 . 1 0 0 . 34
— — — —
0.71
1.49 0.55
— — — —
0.08
0.75 0.40
0.39
0.83 0.10
— _ — —
0.20
0.76 0.19
„
0.68 0.25
NO -N
0.0015
0.0007
__
0.0027
0.0016
__
0.0007
0.0009
0.0007
0.0002
— K
0.0017
0.0005
__
— —
0.0003
ORG-N
2.31
0.90
— _
3.89
2.35
__
0.83
1 .63
2.26
0.40
__
1 .44
0.68
~ —
0.87
TFE
50.67
40.88
17.55
38.39
24.60
-------
TABLE
OJ
vO
SEDIMENT CHEMISTRY COMPARISONS 1963-64 - 1967-68
mg/g
(Cleveland Program Office Data)
Western Basin
pH
BOD
IDOD
I
COD
VolatHe Solids
Total Phosphorus
Ammonia Nitrogen
Nitrate Nitrogen
Organic Nitrogen
Tota 1 1 ron
1963-64
1967-68
1963-64
1967-68
1963-64
1967-68
1963-64
1967-68
1963-64
1 967-68
1963-64
1967-68
1963-64
1967-68
1963-64
1967-68
1963-64
1967-68
1963-64
1 967-68
max.
7.8
2.9
0.8
96.0
85.8
543.0
100.0
1 .10
2.19
0.37
0.53
.0020
.0024
0.41
2.85
68.00
41.56
mm.
6.6
0.9
0.3
6.0
39.2
17.0
55.0
0.29
0.49
0.04
0.17
.0000
.0006
0.05
0.83
17.00
25.00
avg.
7.0
1.6
0.5
63.5
66.1
234.0
81.0
0.76
0.94
0.19
0.32
.0010
.0010
0.23
1.93
33.00
32.35
% Central Basin
Change max.
8.2
2.0
0.9
91.0
+4.1 78.9
748.0
-65.3 93.0
1.10
+23.7 0.90
0.22
+40.6 0.57
.0080
0.0 .0036
9.05
+752.0 3.31
72.00
-5.0 78.83
mm.
6.5
O.I
0.0
3.0
7.9
12.0
25.0
0.13
0.42
0.00
0.03
.0000
.0002
0.08
0.17
12.00
16.74
avg.
7.2
1.0
0.4
55.7
41.0
214.0
63.0
0.65
0.72
0.09
0.25
.0020
.0014
1.84
1.56
35.00
35.53
% Eastern
Change max.
8.|
3.1
0.9
79.0
-26.4 77.0
301 .0
-70.6 91.0
1.05
+10.8 1.49
0.28
+177.8 0.63
.0100
-30.0 .0022
2.41
-15.2 3.12
45.00
+1.5 50.67
min.
7.1
1 .0
O.I
1.0
33.3
6.0
30.0
0.12
0.68
0.00
0.19
.0000
.0003
0.00
0.87
0.02
17.55
Basin
avg.
7.4
1.9
0.5
27.8
48.1
74.0
57. '0
0.51
0.93
0.07
0.32
.0040
.0009
0.85
1.58
14.40
35.08
%
Change
+73.0
-23.0
+82.3
+357.1
-77.5
+85.9
+143.6
-------
The volatile solids were extremely high during the 1963-64
sampling .period indicating the probability of error.
WATER BIOLOGY
PHYTOPLANKTON
PhytopIankton productivity in Lake Erie is highly variable from
year to year. The variations result from many factors including
nutrient concentration, light intensity, turbidity, and period of
sampling (organisms may be in a logarithmic growth stage during sam-
pling period). Since the variables are many, comparison with 1963-
64 data will only superficially be made. The 1967 data (see Table 8)
will be treated generally to show ranges and to illustrate seasonal
variations in productivity and species composition. Only Cleveland
Program Office data are available; the Detroit Program Office made no
biological evaluations.
The phytoplankton data were averaged for all stations and sep-
arated according to basins and seasons. Table 9 illustrates phyto-
pIankton types as related to total phytoplankton for each basin and
season.
The data show a spring pulse in the western basin composed pri-
marily of diatoms. Another western basin pulse occurred in fall,
primarily of diatoms and green algae. Low-level diatom pulses oc-
curred in spring in the eastern basin, and in summer and winter in
the western basin. In each case the dominant diatoms were of the
CycIoteI Ia-Stephanodiscus variety. Scenedesmus was the dominant
greejn alga. Table 10 shows average total populations and algal types
with reference to basin and season.
The decreasing west to east trend is not as obvious in the 1967-
68 data as it was in 1963-64 especially when considering the averages.
However, upon further examination of the individual types and numbers,
the trend is discernible especially in spring, summer, and fall.
Table II shows slightly higher spring 1967 average phytoplankton
numbers in the western and eastern basins than in 1963-64. Lower
numbers were noted in the central basin in 1967-68. Higher numbers
of phytoplankton were noted in the western and central basins in the
fall of 1967 than in the fall of 1964. Fall, eastern basin average
phytoplankton numbers were similar during both sampling periods.
The fall 1963-64 plankton populations indicate bloom conditions
in the western basin, whereas this state of algal productivity was not
encountered anywhere during the 1967-68 sampling period. However,
conclusions with respect to changes in Lake Erie algal productivity
cannot be made without more frequent sampling.
40
-------
TA
8
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID- LAKE PLANKTON
BLUE GREEN
STA. NO. D
D09-0 1
D09-0 1
D09-04
D09-0 1
D09-OI
D09-0 1
D09-OI
D09-0 1
D09-OI
D09-OI
D09-0 1
009-01
DI3-OI
DI3-OI
DI3-OI
DI3-OI
DI3-OI
DI3-OI
DI3-OI
DI3-OI
DI3-OI
DI3-OI
DI3-OI
D 1 3-0 1
0
0
0
0
22
32
23
42
62
42
0
0
0
0
23
36
23
23
44
47
42
44
DATE Coccoid Filament
5/03/67
7/28/67
10/18/67
5/03/67
7/28/67
10/18/67
5/03/67
7/28/67
10/18/67
5/02/67
7/28/67
10/18/67
1/12/68
5/02/67
7/28/67
10/18/67
l/l?/68
5/02/67
7/28/67
10/18/67
1/12/68
330
1 1
—
132
55
66
110
77
66
506
1 1
—
22
132
—
—
22
616
22
22
—
22
44
33
22
44
33
22
22
1 1
—
1 1
__
1 1
44
1 1
66
—
—
GREEN
Coccoid Filament
242
407
374
242
110
616
352
187
528
198
44
484
165
198
33 33
550 22
176 II
198
33 1 1
704
330 1 1
D 1 ATOMS
Centric
3124
330
924
3190
319
1 100
3762
341
1012
132
1 1
88
99
132
1 10
231
88
1 10
154
220
Pennate
242
22
44
374
22
88
682
44
22
44
—
44
154
22
1 1
1 10
253
44
66
1 10
209
FLAGELLATES
Green Brown
22
66
— —
22
22
—
44
77 66
—
88 187
— —
33
— — __
22 55
__ __
55 33
• « -i— rm
22 44
TOTAL
No/ml
3982
836
1364
4004
561
1892
4994
825
1650
902
352
616
484
484
165
836
792
1012
242
968
836
CHLORO
,,,y, ,-,
24
28
33
26
30
32
29
31
24
6
20
19
12
e
6
20
13
6
18
20
13
SESTON
rpg/M5
3600
6000
1600
2800
4700
2200
4000
7500
1000
1200
1900
2300
1000
1300
1100
2000
200
4700
1000
3000
890
-------
TABLE 8 (continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE PLANKTON
BLUE GREEN
STA. NO,
E02-OI
E02-OI
E02-OI
E02-OI
E02-OI
E02-OI
E02-OI
E02-OI
E02-OI
E02-OI
E02-OI
E02-OI
E05-OI
E05-OI
E05-OI
E05-OI
E05-OI
E05-OI
E05-OI
E05-OI
E05-OI
E05-OI
E05-OI
E05-|^
D
0
0
0
0
14
15
17
26
29
29
29
0
0
0
0
12
13
12
13
22
24
21
23
DATE Coccoid i
5/04/67
7/26/67
10/16/67
1 /09/68
5/04/67
7/26/67
10/16/67
5/04/67
7/26/67
10/16/67
1/09/68
5/04/67
7/27/67
10/17/67
1/10/68
5/04/67
7/27/67
10/17/67
1/10/68
5/04/67
7/27/67
10/17/67
1/10/68
1 76
193
22
66
1 10
132
44
1 10
88
44
22
22
1 1
1 10
1 1
88
1 10
22
22
F i I ament
44
1320
1 100
—
1452
572
44
1332
220
_ _
—
44
22
22
44
33
22
22
1 1
GREEN
Coccoi d Fi 1 ament
220
198
3758
66
484
220 22
3564
418
352
2376 44
1 10
77
572
22
88
22
308
33
132
22
165
88
D 1 ATOMS
Centri c
2046
—
3476
286
2728
176
4620
3674
242
4048
132
2068
88
902
330
1804
55
220
561
1540
88
451
550
Pennate
374
66
176
55
396
132
748
374
66
1 144
55
484
44
22
286
330
--
--
231
286
1 1
—
330
FLAGELLATES TOTAL
Green Brown No/ml
2860
22 1804
22 8554
407
22 22 3718
2112
88 9724
66 4620
2102
1 76 8096
187
2706
88 319
MO 1672
1 I 660
22 — 2376
44 154
660
1 1 869
22 2112
33 1 98
649
968
CHLORO SESTON
mg/M-1
49
14
73
39
55
34
55
69
40
130
55
53
19
21
7
51
15
18
14
50
19
16
8
mg/MJ
6900
7100
7700
1400
6300
3800
6900
9700
—
31400
12000
3700
3500
300
300
1300
4300
4500
600
1500
2600
4000
^400
-------
TABll
(continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE PLANKTON
BLUE GREEN
STA. NO,
F03-OI
F03-OI
F03-OI
F03-OI
F03-OI
F03-OI
F03-OI
F03-OI
F03-OI
F03-0 1
F03-OI
F03-OI
F03-02
F03-02
F03-02
F03-02
F03-02
F03-02
F03-02
F03-02
F03-02
F03-02
F03-02
F03-02
D
0
0
0
0
16
17
17
16
30
32
29
30
0
0
0
0
13
12
12
16
24
23
20
29
DATE Coccoid Filament
5/04/67
7/26/67
10/16/67
1/09/68
5/04/67
7/26/67
10/16/67
1/09/68
5/04/67
7/26/67
10/16/67
1/09/68
5/04/67
7/27/67
10/17/67
1/09/68
5/04/67
7/27/67
10/17/67
1/09/68
5/04/67
7/27/67
10/17/67
1/09/68
44
1 10
440
66
88
352
44
—
220
264
22
—
88
—
33
1 1
88
22
88
1 1
44
154
616
1 1
22
220
484
22
1 10
1 100
22
66
22
22
—
22
1 1
1 1
—
66
22
GREEN
Coccoi d Fi 1 ament
66
132
2376
77
242
44
1892
154
242
242
3036 132
66
682
88 22
902 22
1 10
132
44
187
33
154
88
1034
55
DIATOMS
Centric
1738
264
1012
1210
1430
374
1232
1 155
2090
220
1760
1386
2288
66
1518
737
1474
176
231
341
1298
242
990
407
Pennate
286
22
176
231
286
44
220
187
154
1 10
352
253
264
22
154
236
264
66
—
297
330
44
132
264
FLAGELLATES
Green Brown
22 132
22
44
II
22
154
66
1 10
88
1 1
22
__
22
1 1
1 1
— —
44
--
22
TOTAL
No/ml
2332
704
4664
1540
2068
824
4180
1518
2618
892
6688
1716
3520
308
2618
1210
1958
330
473
704
1870
506
2266
759
CHLORO
mg/M3
44
19
22
18
47
22
15
17
51
15
94
24
51
16
24
8
53
14
16
16
51
19
21
20
SESTON
mg/M3
4800
3300
5700
2000
4400
6700
6000
5000
4800
6000
1 1300
1000
3200
4200
2300
800
2500
300
2000
1600
4000
1900
2000
1600
-------
TABLE 8 (continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE PLANKTON
BLUE GREEN
STA. NO
F 16-01
F 16-01
FI6-OI
F 16-01
FI6-OI
F 16-01
F 16-01
F 16-01
FI6-OI
F 16-01
F 16-01
FI6-OI
G04-0 1
G04-0 1
G04-OI
G04-0 1
G04-OI
G04-OI
G04-OI
G04-OI
G04-OI
G04-OI
G04-OI
G04-M*
D
0
0
0
0
30
48
30
31
59
60
56
60
0
0
0
0
14
15
15
15
26
28
26
k 26
DATE Coccoid Filament
5/02/67
7/28/67
10/18/67
1/13/68
5/02/67
7/28/67
10/18/67
1/13/68
5/02/67
7/28/67
10/18/67
1/13/68
5/04/67
7/27/67
10/17/67
1/09/68
5/04/67
7/27/67
10/17/67
1/09/68
5/04/67
7/27/67
10/17/67
1/09/68
154
—
55
154
33
—
1 1
132
1 1
—
22
22
—
132
66
88
88
44
264
1 1
33
—
—
—
1 1
—
—
1 1
__
44
154
22
44
66
22
—
88
GREEN
Coccoi d Fi lament
176
88
198
176
220
88
187
132
220
77
198
242
88
594
1782
44
66
638
858
77
66
462
2200
44
44
—
77
—
1 1
—
66
—
1 1
66
44
—
66
—
1 1
44
88
1 1
D 1 ATOMS
Centric
286
88
220
176
1 1
1 1
308
308
22
154
473
2046
1276
2354
88
1650
2048
2178
275
2816
1034
2464
88
Pennate
44
1 1
407
253
286
1 1
99
220
154
22
143
363
440
132
242
77
374
88
220
77
638
44
88
165
FLAGELLATES
Green
—
—
1 1
22
--
1 1
44
66
44
88
44
1 1
22
44
1 1
Brown
66
--
55
--
—
22
88
--
22
22
—
—
--
1 1
22
—
—
44
TOTAL
No/ml
660
242
693
770
836
220
297
715
902
220
528
1 144
2640
2178
4752
231
2090
3038
3454
462
3652
1650
5236
374
CHLORO
mg/M3
14
10
18
14
13
4
18
13
12
3
24
19
41
32
51
1 1
40
31
50
12
37
32
49
19
SESTOI
mg/M^>
1000
900
2200
300
400
1200
1000
300
1400
300
1300
100
3300
3700
13800
1000
2900
4000
5500
4700
5100
7500
5300
^700
-------
TAB*
(continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE PLANKTON
STA. NO,
G06-OI
G06-0 1
G06-0 1
G06-0 1
G06-0 1
G06-0 1
G06-0 1
G06-0 1
G06-0 1
G06-0 1
G06-0 1
G06-0 1
G03-OI
G07-OI
607-01
G07-OI
GO 7-01
GO 7-01
G07-OI
G07-OI
G07-OI
G07-OI
G07-OI
G07-OI
D
0
0
0
0
16
27
16
16
30
32
28
29
0
0
0
0
25
18
17
17
47
34
30
32
BLUE GREEN
DATE Coccoid Fi lament
5/04/67
7/27/67
10/17/67
1/10/68
5/04/67
7/27/67
10/17/67
1/10/68
5/04/67
7/27/67
10/17/67
1/10/68
5/03/67
7/27/67
10/17/67
1/10/68
5/03/67
7/27/67
10/17/67
1/10/68
5/03/67
7/27/67
10/17/67
1/10/68
44
44 154
22
66 22
132 44
176
22
1 10
22
88
66
—
22
88
22
—
1 1
110 88
II 22
GREEN
Coccoid Fi lament
44
462 110
176
1 1
22
1 320 66
220
44
44
924 22
154
II II
66
308 44
154
66
220
308
154
44 II
88
231
176
D 1 ATOMS
Centric
1 144
1584
1254
88
682
1870
1430
99
880
1518
462
165
2530
66
682
99
3278
55
264
165
2486
33
594
121
Pennate
220
44
154
143
286
66
44
88
352
220
—
1 10
418
66
22
66
484
66
22
44
374
55
—
88
FLAGELLATES TOTAL
Green Brown No/ml
1452
2398
66 1672
162
1078
3498
1870
1 1 242
22 1320
2794
638
22
22 3124
1 76 726
858
253
22 4092
220 671
440
275
22 3168
176 528
22 792
209
CHLORO
mg/M-5
21
39
13
10
17
39
16
6
21
34
15
33
14
13
13
25
13
15
17
31
13
14
8
SESTON
mg/M5
600
6000
4300
4000
4600
4300
3300
7000
5000
4000
2900
3500
4100
250
5000
2500
1800
900
.1300
4700
1800
JIOO
6700
-------
TABLE 8 (continued)
CLEVELAND PROGRAM OFFICE
LAKE: ERIE ROUTINE SURVEILLANCE
MID-LAKE PLANKTON
STA. NO.
G09-OI
G09-OI
G09-0 1
G09-0 1
G09-OI
G09-OI
G09-0 1
GG9-0 1
G09-0 1
*. G09-OI
°" G09-0!
009-0 1
GIO-OI
GIO-OI
GIO-OI
GIO-OI
GIO-OI
GIO-OI
GIO-OI
GIO-OI
GIO-OI
GIO-OI
GIO-OI
GlO-OJfc
D
0
0
0
0
18
18
18
19
35
34
32
35
0
0
0
0
19
18
20
19
36
34
36
,36
BLUE GREEN
DATE Coccoid Filament
5/03/67
7/27/67
10/18/67
I/I 1 /68
5/03/67
7/27/67
10/18/67
I/I f/68
5/03/67
7/27/67
10/18/67
1 /I 1/68
5/03/67
7/28/67
10/18/67
1 / 1 1 /68
5/03/67
7/28/67
10/18/67
1 /I 1/68
5/03/67
7/28/67
10/18/67
I/ 1 1/68
132
33
66
22
22
—
22
22
1 1 22
33
22
__
—
II II
1 1
22
7
22
I 1
— —
II II
55
1 1
GREEN
Coccoi d Fi 1 ament
1 10
99 1 1
132
22
66
—
154
33 1 1
.22
132
1 76
1 1
44
44
3 1 9
55
66
37
352
1 1
44
33
352 1 1
33
D 1 ATOMS
Centri c
308
1 1
308
132
572
—
396
198
396
308.
385
77
220
1 10
704
187
352
80
726
242
506
1 10
825
319
Pennate
44
1 1
1 10
242
66
—
44
143
44
66
77
231
22
1 1
88
264
22
—
66
99
88
1 1
66
187
FLAGELLATES
Green Brown
1 10
—
--
22
88
44
22
22
1 1
154
—
—
1 1 22
44
—
286
33 1 1
44
—
33 22
H
TOTAL
No/ml
704
165
616
440
814
—
616
385
528
561
693
352
440
165
1 133
550
506
124
1452
407
682
176
1364
561
CHLORO
mg/M3.
12
5
12
10
9
6
1 1
7
12
6
10
9
8
8
26
9
9
9
13
7
12
9
24
8
SESTON
mg/M5
1900
400
300
1200
3600
800
300
3200
1900
1000
700
1400
7200
800
500
500
7700
2700
200
500
7200
1300
200
^no
-------
TABLE
l( continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE PLANKTON
STA. NO.
GI2-OI
G 12-01
GI2-OI
G 12-01
G 12-01
GI2-OI
GI2-OI
GI2-OI
G 12-01
GI2-OI
G 12-01
GI2-OI
GI8-OI
G 18-01
GI8-OI
GI8-OI
GI8-OI
GI8-OI
GI8-OI
GI8-OI
GI8-OI
GI8-OI
GI8-OI
GI8-OI
D
0
0
0
0
21
29
20
20
40
40
36
38
0
0
0
0
36
50
35
36
71
72
68
70
BLUE GREEN
DATE Coccoid Filament
5/03/67
7/28/67
10/18/67
1/12/68
5/03/67
7/28/67
10/18/67
1/12/68
5/03/67
7/28/67
10/18/67
1/12/68
5/01/67
7/28/67
10/19/67
1/13/68
5/01/67
7/28/67
10/19/67
1/13/68
5/01/67
7/28/67
10/19/67
1/13/68
22
—
66
1 1
__
6
220
22
44
—
55 44
33
22 22
—
77 22
132
—
—
1 1
1 10
1 1
GREEN
Coccoi d Fi 1 ament
88
33
616
253
1 10
23
1 166
99
— —
1 10 II
539 1 1
154
242
121
187
132
264
68
132
88
22
121
121
1 10
DIATOMS
Centric Pennate
154
44
924
220
308
66
924
99
330
187
517
231
352
1 1
77
143
330
8
66
132
198
55
1 10
77
88
—
—
154
22
—
44
1 10
88
—
22
176
—
88
22
44
—
187
1 10
1 10
1 I
88
33
FLAGELLATES
Green Brown
220
1 1 44
66
22 22
154
6 17
—
II II
44
—
1 1
1 1
66
— —
II II
44 55
66
8
—
33 33
—
1 1
1 1 33
1 1 33
TOTAL
No/ml
572
132
1672
682
594
1 18
2354
352
506
308
1 199
605
704
132
473
396
836
84
385
407
440
209
363
264
CHLORO
mg/MJ
8
4
24
6
12
6
32
5
9
7
35
9
7
2
15
7
7
1
12
6
6
3
14
1 1
SESTON
mg/M3
4700
2600
3200
500
5100
1300
2700
1000
3800
2700
800
600
1400
1200
600
500
1 100
1800
700
200
2800
3500
500
200
-------
TABLE 8 icontinued;
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE PLANKTON
STA. NO.
H20-OI
H20-OI
H20-OI
H20-OI
H20-OI
H20-OI
H20-OI
H20-OI
H20-OI
£ H20-OI
H20-OI
H20-OI
123-01
123-01
123-01
123-01
123-01
123-01
123-01
123-01
123-01
123-01
123-01
123-Afc.
D
0
0
0
0
39
54
39
77
79
74
0
0
0
0
40
57
40
78
80
76
BLUE GREEN
DATE Coccoid Filament
5/01/67 22
7/28/67 22
10/19/67
5/01/67 44
7/28/67
10/19/67
5/01/67
7/28/67
10/19/67 66
5/01/67
7/29/67
10/19/67
5/01/67 88 88
7/29/67 — 1 1
10/19/67 22
5/01/67 66
7/29/67
10/19/67
GREEN
Coccoid Fi 1 ament
44
132 66
1 10 II
22
154
165 1 1
66
44
154
22
22 121
176
220
33 66
132 II
44
22 121
55
D 1 ATOMS
Centric
264
--
22
1 10
—
22
154
—
88
528
—
22
418
1 1
1 1
198
—
44
Pennate
154
1 1
418
88
—
759
22
1 1
1232
132
22
528
132
1 1
638
44
33
484
FLAGELLATES
Green Brown
22
22 33
1 1 88
66
1 1
1 1
22
--
44
1 10
77
66
132
22
1 1
66
1 1
1 1 66
TOTAL
No/ml
506
286
660
330
165
968
264
55
1584
792
242
792
1078
154
825
418
187
660
CHLORO
mg/M-'
15
4
13
12
2
15
14
7
16
12
6
12
a
3
13
15
3
13
SESTON
mg/M3
200
2200
500
100
1300
400
200
3300
800
200
1400
700
500
700
800
200
1300
900
-------
:ontinued)
TABLE
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE PLANKTON
STA. NO
J25-OI
J25-OI
J25-OI
J25-OI
J25-OI
J25-OI
J25-OI
J25-OI
J25-OI
J25-OI
J25-OI
J25-OI
K28-OI
K28-0 1
K28-OI
K28-OI
K28-OI
K28-OI
K28-OI
K28-0 1
K28-OI
K28-OI
K28-OI
K28-OI
D
0
0
0
0
38
57
39
75
78
74
0
0
0
0
37
57
37
73
74
70
BLUE GREEN
DATE Coccoid Filament
5/01/67
7/29/67
10/20/67
5/01/67
7/29/67
10/20/67
5/01/67
7/29/67
10/20/67
4/30/67
7/29/67
10/20/67
4/30/67
7/29/67
10/20/67
4/30/67
7/29/67
10/20/67
__
1 1
22 22
1 1
22
22
22
22
22
33 33
22 22
II II
33
22
II II
1 1
GREEN
Coccoi d Fi lament
44
66 55
88 1 1
22
33 44
99
44
99 44
55 1 1
-
154 33
66 1 1
— — _ _
154 1 1
22
1 10
55 1 1
121
DIATOMS
Centri c
176
55
49
198
1 1
55
176
44
1 1
44
--
55
1 10
33
77
1 10
55
33
Pennate
22
66
99
66
55
132
154
44
242
1 10
—
143
44
22
209
44
66
286
FLAGELLATES
Green Brown
22
55
1 1
66
1 1
22 44
44
22
1 1 33
154
—
55
66
—
i !
88
--
1 I
TOTAL
No /ml
264
308
258
396
165
374
440
275
385
330
253
330
264
242
3? 2
374
209
462
CHLORO
mq/M^
16
5
10
10
5
13
10
9
12
9
3
12
6
1
! !
7
3
13
SESTOr
mg/M5
400
1200
1 100
100
900
1300
400
1300
1400
500
400
1000
300
500
I5CO
400
100
1 200
-------
TABLE 8 (continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE PLANKTON
STA. NO. D
L30-OI
L30-0 1
L30-OI
L30-OI
L30-0 1
L30-OI
L30-0 1
L30-0 1
L30-OI
vj, L30-OI
0 L30-OI
L30-OI
L33-OI
L33-OI
L33-OI
L33-OI
L33-OI
L33-OI
L33-OI
L33-OI
L33-OI
L33-OI
L33-0^
L33-cfl
0
0
0
0
35
56
36
70
72
68
0
0
0
0
35
52
34
68
69
.64
i
BLUE GREEN
DATE Coccoid Filament
4/30/67
7/29/67
10/20/67
4/30/67
7/29/67
10/20/67
4/30/67
7/29/67
10/20/67
4/30/67
7/29/67
10/22/67
4/30/67
7/29/67
10/22/67
4/30/67
7/29/67
10/22/67
— — _*
22 374
66
33
1 1
44
66
1 1
6
66
II
6 6
44 22
—
II
GREEN
Coccoid Fi lament
•*« •.*
44
88 1 1
— —
231 22
88
22
110 22
110 II
— — __
44 55
123
44
66 44
145
22
44 44
154
DIATOMS
Centric
66
—
1 1
44
—
22
132
—
33
88
—
17
66
—
12
66
1 1
22
Pennate
22
176
165
44
22
220
44
1 1
330
44
22
39
44
22
101
22
66
55
FLAGELLATES
Green Brown
44
—
1 1
22
— —
33 66
44
1 1
22
44
33 33
28
1 10
1 1
17 12
44
22
22 22
TOTAL
Nb/ml
132
616
286
176
308
440
286
154
506
242
198
213
330
154
299
220
187
286
CHLOBO
mg/M^
3
2
1 1
7
1
9
6
3
1 1
5
3
10
7
3
1 1
4
4
14
SESTQI
mg/M3
1700
600
600
2100
__
600
2400
600
400
1500
2200
1900
1400
2300
1700
2200
6200
1500
-------
TABLE
(contlnued)
CLEVELANDPROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE PLANKTON
STA. NO
L36-OI
L36-OI
L36-OI
L36-OI
L36-OI
L36-OI
L36-OI
L36-OI
L36-OI
L36-OI
L36-OI
L36-OI
M38-OI
M38-OI
M38-OI
M38-OI
M38-OI
M38-OI
M38-OI
M38-OI
M38-OI
M38-OI
M38-OI
M38-OI
D
0
0
0
0
35
53
35
68
67
66
0
0
0
0
36
54
31
72
72
59
BLUE GREEN
DATE Coccoid Filament
4/30/67
7/29/67
10/22/67
4/30/67
7/29/67
10/22/67
4/30/67
7/29/67
10/22/67
4/30/67
7/30/67
10/22/67
4/30/67
7/30/67
10/22/67
4/30/67
7/30/67
10/22/67
22
II 33
22
44
II II
22
1 1
44
968 506
6
22
462 352
22
132 66
GREEN
Cocco i d
22
66
242
99
242
—
44
231
88
154
112
44
198
85
22
198
77
Fi 1 ament
__ —
121
1 1
__
55
22
__
77
33
_.
—
H
—
44
22
__'
66
33
DIATOMS
Centri c
154
22
1 1
154
—
22
176
22
1 1
132
—
6
— .
44
6
66
Pennate
22
—
66
22
1 1
55
22
22
55
44
88
72
66
44
34
66
231
FLAGELLATES TOTAL
Green Brown No/ml
132 352
253
22 374
110 330
33 22 242
44 1 1 396
66 286
II — 187
II 341
308
1716
6 213
132
22 1166
12 159
176
1 32 594
341
CHLORO
mg/M-'
4
2
10
7
2
6
6
1
7
6
2
8
4
2
6
7
2
6
SESTOI
mg/M3
200
1000
1600
200
1700
1200
200
1900
1300
1600
1 100
1000
1300
1700
1 100
1400
1000
4600
-------
TABLE 8 (continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE PLANKTON
Ul
STA. NO
M4 1 -0 1
M4I-OI
M4I-OI
M4 1 -0 1
M4I-OI
M4 1 -0 1
M4I-OI
M4 1 -0 1
M4I-OI
M4I-OI
M4I-OI
M4 1 -0 1
M43-OI
M43-0 1
M43-OI
M43-0 1
M43-OI
M43-0 1
M43-OI
M43-OI
M43-OI
M43-OI
M43-OI *
M43-0 1
. D
0
0
0
0
58
50
58
114
112
112
0
0
0
0
72
50
110
142
^8
9*
BLUE GREEN
DATE Coccoid Filament
4/30/67
7/30/67
10/22/67
4/30/67
7/30/67
10/22/67
4/30/67
7/30/67
10/22/67
4/30/67
7/30/67
10/22/67
4/30/67
7/30/67
10/22/67
4/30/67
7/30/67
10/22/67
44
550 1232
33
— --
374 88
II
— — — —
220 66
1 1
— ^
1870
— — — —
374 88
66
198 44
GREEN
Coccoid Ft lament
22
286 66
121 1 1
88
198 22
99 22
_ — __
22 22
56 17
«M • M
154
73 6
__ _—
44
44 1 1
22
22
33
DIATOMS
Centric Pennate
132
66
1 1
176
132
—
1 1
198
44
132
—
1 1
66
—
44
132
22
33
— .—
22
88
22
—
55
22
—
39
22
44
99
66
—
33
FLAGELLATES TOTAL
Green Brown No/ml
22 352
22 2244
209
22 286
66 770
220
154
330
150
220
2068
17 135
22 1 76
110 22 682
II II 1 87
22 242
66 330
1 10
CHLOBO
mg/M
5
2
7
3
2
7
5
1
4
4
2
9
4
4
4
4
1
3
SESTON
mg/M3
1600
1800
1000
800
2200
500
2500
2600
1300
100
2000
1000
1200
2000
900
1300
24flQ
ill
^^
-------
(continued)
PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE PLANKTON
Ul
STA. NO
N45-OI
N45-OI
N45-OI
N45-OI
N45-OI
N45-OI
N45-OI
N45-OI
N45-OI
N45-OI
N45-OI
N45-OI
047-0 1
047-01
047-0 1
047-0 1
047-01
047-01
047-01
047-01
047-01
047-0 1
047-01
047-0 1
. D
0
0
0
0
80
40
120
160
160
154
0
0
0
0
79
55
130
157
175
177
BLUE GREEN
DATE Coccoid Filament
4/29/67
7/30/67
10/23/67 6
A/29/67 66
7/30/67 77 22
10/23/67
4/29/67 44
7/30/67 22
10/23/67
4/29/67
7/30/67 22
10/23/67
4/29/67
7/30/67
10/23/67
4/29/67 22
7/30/67 ^-
10/23/67 II
GREEN
Coccoid Filament
™ — — —
154
35 6
44
187
23 1 1
66
22
12
»«• • •
132 33
6 6
_ _ __
54 30
40 6
22
—
'45 6
DIATOMS
Centric Pennate
44
33
II
22
22
154
77
6
88
1 1
88
8
17
22
—
17
22
22
78
66
22
17
110
1 1
22
22
33
23
22
8
122
22
—
84
FLAGELLATES TOTAL
Green Brown No/ml
66 1 32
209
6 23 165
22 220
II 341
51
44 418
132
40
1 10
22 253
18 53
22 1 32
120 — 220
6 6 197
88
—
163
CHLORO
mg/M3
3
2
7
3
2
4
3
1
3
0
3
5
3
2
4
3
1
5
SESTON
mg/M3
800
1 100
200
500
500
200
2100
400
400
200
2200
200
100
2200
300
200
2100
800
-------
TABLE 8 (continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE PLANKTON
STA. NO
P49-OI
P49-OI
P49-OI
P49-OI
P49-OI
P49-OI
P49-OI
P49-OI
P49-0 1
P49-OI
P49-OI
P49-OI
Q5I-OI
Q5I-OI
Q5I-OI
Q5I-OI
Q5I-OI
Q5I-OI
Q5I-OI
Q5I-OI
Q5I-OI
Q5I-Q1
Q5I-A
Q5I-OT
. D
0
0
0
0
49
60
48
96
99
92
0
0
0
0
37
64
36
72
74
69
BLUE GREEN
DATE Coccoid Fi lament
A/29/67 44
7/30/67 1 1 44
10/23/67 66
A/29/67 44
7/30/67 15
10/23/67
A/29/67
7/30/67 22
10/23/67
A/29/67 154
7/30/67 23 8
10/23/67
A/29/67 44
7/30/67
10/23/67
A/29/67 44 22
7/30/67
10/23/67 6
GREEN
Coccoid Fi lament
154
66 33
198
66
31
33
66
44
17
66
46 15
56 1 1
88
54 8
39
132
31
233 6
DIATOMS
Centric
330
1 1
374
23
1 10
220
1 1
419
8
6
308
—
1 1
1 10
23
17
Pennate
132
33
88
154
8
99
44
22
122
88
—
77
NO
—
78
NO
—
127
FLAGELLATES
Green Brown
„
II
33
66
45 8
33
44
66
15
_ —
8
6
22
— —
6
TOTAL
No/ml
660
209
385
704
130
165
264
308
150
793
1 15
150
550
70
134
440
54
185
CHLORO SESTON
mg/M3
5
2
10
7
1
8
7
1
7
10
2
7
7
1
1 1
7
1
7
mg/MJ
100
3000
500
500
1800
300
300
_ _
600
500
800
400
900
800
500
400
__
^500
-------
TAfi
18 (concluded)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE PLANKTON
VJl
VJI
STA. NO. D
R53-OI
R53-OI
R53-OI
R53-OI
R53-OI
R53-OI
R53-OI
R53-OI
R53-OI
R53-OI
R53-OI
R53-OI
S55-OI
S55-OI
S55-OI
S55-OI
S55-OI
S55-OI
S55-OI
S55-OI
S55-OI
S55-OI
S55-OI
S55-OI
0
0
0
0
32
32
31
62
62
59
0
0
0
0
21
21
21
40
40
38
BLUE GREEN
DATE Coccoid Filament
4/29/67
7/30/67
10/23/67
4/29/67
7/30/67
10/23/67
4/29/67
7/30/67
10/23/67
4/29/67
7/30/67
10/23/67
4/29/67
7/30/67
10/23/67
4/29/67
7/30/67
10/23/67
154
33 33
176
23
6
NO
44
6
6
22
II 6
II
88
30 15
GREEN
Coccoid Fl lament
220
66 22
68
154
46 15
80 22
132
II 16
91
154
34
50
NO
12
73 12
66
46 23
45 6
DIATOMS
Centric
352
II
6
418
—
34
286
—
6
2002
— -
11
1914
—
6
1870
—
II
Pennate
22
—
122
66
15
166
88
—
161
154
6
133
242
—
220
484
8
123
FLAGELLATES
Green Brown
22
II
6 6
«« __
31 23
17 6
22
II 22
6 6
1 10
28
6
132
12 17
6
22
23
TOTAL
No/ml
770
176
208
814
153
331
638
60
270
2464
74
206
2420
58
328
2530
145
185
CHLORO
mg/M3
8
2
9
9
2
9
9
2
8
17
2
14
23
2
13
23
2
12
SESTON
mg/M3
200
900
700
200
300
900
700
1 100
400
1 100
100
400
1 100
200
200
2400
300
200
-------
TABLE 9
PERCENT PHYTOPLANKTON TYPES vs. TOTAL ORGANISMS
(Cleveland Program Office Data)
Basin
Spring
Summer
Fall Winter
Annual
DIATOMS vs. TOTAL NUMBER OF ORGANISMS
Western
Central
Eastern
Western
Central
Eastern
Western
Central
Eastern
Western
Central
Eastern
87.0
51.7
76.9
BLUE-GREENS
4.0
19.8
7.6
GREENS vs
6.9
17.4
10.7
FLAGELLATES
2.1
II. 1
4.8
47.4
14.7
9.1
vs. TOTAL
20.8
32.8
60.6
52.9
56.3
56.1
NUMBER OF ORGAN
8.8
2.4
3.8
85.8
60.6*
ISMS
1.8
3.0*
66.9
46.5
52.5
8.4
14.5
23.7
. TOTAL NUMBER OF ORGANISMS
26.8
42.2
22.7
vs. TOTAL
5.0
10.3
7.6
36.9
35.7
34.7
NUMBER OF ORGAN
1.4
5.5
5.4
10.2
27.5*
ISMS
2.2
8.9*
22.6
30.2
18.1
2.3
8.8
5.8
* 3 stations sampled out of total of II stations
56
-------
TABLE 10
AVERAGE PHYTOPLANKTON POPULATIONS
Organisms per ml
(Cleveland Program Office Data)
Type of
Algae
Diatom
Bl ue-Green
Green
Flagel late
Total
D i atom
Bl ue-Green
Green
Flagel late
Total
D i atom
Blue-Green
Green
Flagel late
Total
Di atom
Blue-Green
Green
Flagel late
Total
Season
Spring
Sprl ng
Spring
Spring
Spring
Summer
Summer
S umme r
Summer
Summer
Fal
Fal
Fal
Fal
Fal
Winter
Winter
Winter
Winter
Winter
Western
1943
91
152
47
2233
468
207
265
52
992
1378
229
960
36
2603
514
1 1
61
16
602
Basin
Central
238
91
81
51
461
45
101
137
32
315
284
12
180
28
504
391*
20*
177*
58*
646*
Eastern
500
50
70
31
651
35
230
86
29
380
102
7
63
10
182
__
—
—
—
—
3 station average
57
-------
TABLE II
WATER BIOLOGY COMPARISONS
Average numbers of Organisms per ml
(Cleveland Program Office Data)
Season
Spring
Fall
1963-64
1967-68
1963-64
1967-68
Western
1805
2233
10,800
2603
Basin
Central
1170
461
1005
504
Eastern
575
651
180
182
CHLOROPHYLL AND SESTON
To supplement phytoplankton data chlorophyll and seston analyses
were instituted for the Cleveland Program Office 1967-68 study, (see
Table 8). Chlorophyll is an enzyme present in green plants. In the
presence of light, through photosynthesis, chlorophyll converts water
and carbon dioxide to sugar, a substance basic to plant metabolism
and reproduction. As a result chlorophyll is closely related to
primary production or the conversion of inorganic materials to living
plant tissue. Chlorophyll determinations are used to give an estimate
of phytoplankton productivity since the amount of chlorophyll present
Is an indicator of the type algae present. Coccoid and filamentous
green algae contain chlorophyll a_ and b_. Diatoms and brown flagellates
contain chlorophyll a_ and £ but lack chlorophyll b_. Blue-green algae
contain only chlorophyll a_.
Organic seston includes the living phytoplankton and zooplankton,
and the non-living particles of organic matter floating or held in
suspension in the water. It provides a gross estimate of algal pro-
ductivity by assuming that most of the m'hd-Lake Erie suspended organic
matter Is derived from algal sources. However, In some instances this
may not be true, and significant contamination with non-living organic
debris (tripton) is a probability. The results of Lake Erie 1967-68
chlorophyll and seston determinations are summarized in Table 8.
SEDIMENT BIOLOGY
Benthic fauna are macroscopic organisms which live on or within
lake bottom sediments. Some have been classified, rather nonprecisely,
58
-------
as "pollution-tolerant" or llpollution-sensitlve". Characteristic
of a clean water zone is the presence of many kinds of bottom
organisms. Typical clean water species are immature caddis flies
(Tricoptera), stoneflies (Plecoptera), mayflies (Ephemeroptera),
dobson flies (Megaloptera), gill-breathing snails (Prosobranchia),
scuds (Amphipoda) and pearl button clams (Unionidae). Although the
variety of organisms is great, the total population is small, because
of predation and competition for food.
In a polluted zone only a few kinds of organisms can survive in
the soft, shifting, bottom organic sludge blanket. Such organisms,
isolated from predators, reproduce to huge populations. These in-
clude sludgeworms (01igochaetea), some kinds of bloodworms (Chiron-
omldae), sowbugs (Isopoda), lung-breathing snails (Pulmonata), var-
ious leeches (Hirudinea) and the fingernail clam (Sphaeriidae).
The results of bottom fauna surveys of Lake Erie in 1967-68 by
the Cleveland Program Office are summarized in Table 12. The
pollution-sensitive scud Is found only in small numbers In the
western basin, increasing in quantity in the central basin, and
reaching a high in the west end of the eastern basin, only to de-
crease sharply in the extreme east portion of the lake. The more
pollution-tolerant sludgeworms, bloodworms, fingernail clams and
nematodes are prevalent throughout the entire lake.
WATER BACTERIOLOGY
Bacterial densities in Lake Erie under ice cover have never been
determined on a lake-wide basis. Towards this end, samples were col-
lected at two depths (top and bottom) In January 1968 for the follow-
ing parameters: Standard Plate Count, 20°C, Standard Plate Count,
35°C, and total coII forms. As mentioned previously, this cruise was
only completed in the western basin with partial sampling In the
central basin. The results are summarized in Table 13.
Under ice conditions rather large bacterial populations were
found in western basin bottom waters. In 1963-64 during non-winter
sampling, larger bacterial populations were found in western basin
surface waters. The three stations sampled in winter in the central
basin were for all practical purposes free of collform organisms.
In the western basin the sampling stations closest to Toledo and
Detroit demonstrated the highest bacterial densities. Coliforms
ranged from a high of 1,350 per 100 ml to less than one per 100 ml.
59
-------
TABLE 12
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE BENTHIC MACRO INVERTEBRATES
STA. NO.
D09-OI
D09-OI
D09-0 1
D09-0 1
D 1 3-0 1
DI3-OI
DI3-OI
DI3-OI
E02-OI
E02-OI
o E02-OI
E02-OI
E05-OI
E05-OI
E05-OI
E05-OI
F03-OI
F03-OI
F03-OI
F03-OI
F03-OI
F03-02
FG3-02
F03-02
D
44
64
46
46
49
46
47
28
31
34
32
24
26
25
26
33
34
32
33
26
25
25
32
DATE Am 1 s
5/03/67
7/28/67 38
10/18/67
5/02/67
7/28/67
10/18/67 38
1/12/68 16
5/04/67 —
7/26/67 —
10/16/67 II
1/09/68 5
5/04/67 27
7/2^/67
10/17/67
1/10/68
5/04/67 x
7/26/67
10/16/67
1/10/68
5/04/67 —
7/27/67 —
10/17/67 33
1/09/68
Pr Pu Hi
•._
5
60
6
—
65
16
22
16
16
5 1 1
X
990
1 18
16
6
—
5 42
10
01
1340
485
605
387
87
1384
1705
447
3272
9286
768
501
578
4289
686
X
13,302
7371
474
878
1570
2360
2638
Ne Tu
82
5
87
87
142
229
120
327
55
71
131
— —
—
54 1 1
49
—
22
65
Un Sp
33
5
1 1
202
65
512
512
142
38
158
65
X
1635
742
87
87
174
1 1
Ch Ep
409
98
87
354
82
305
245
__
387
97
44
1 199
349
6J5
300
—
—
721
32
452
103
262
60
Tr Ot TOTAL
1864
636
790
125 1155
376
2468
2658
780
3659
9459
833
1946
1052
5737
1 198
— _
15,927
9017
571
1423
1782
2941
2719
-------
TABLE 12 (continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE BENTHIC MACRO INVERTEBRATES
STA. NO
F 16-01
F 16-01
FI6-OI
F 16-01
G04-OI
G04-OI
G04-0 1
G04-0 1
G06-OI
G06-0 1
G06-0 1
G06-OI
G07-OI
G07-OI
G07-OI
GO 7-01
G09-OI
G09-0 1
G09-OI
G09-0 1
GIO-OI
GIO-OI
GIO-OI
GIO-OI
. D
61
62
60
63
28
30
30.5
29
32
34
32
32
49
36
34
35
37
36
36
38
38
36
40
39
DATE
5/02/67
7/28/67
10/18/67
1/13/68
5/4/67
7/27/67
10/17/67
1/09/68
5/04/67
7/27/67
10/17/67
1 / 1 0/68
5/03/67
7/27/67
10/17/67
1/10/68
5/03/67
7/27/67
10/17/67
I/I 1/68
5/03/67
7/28/67
10/18/67
I/ 1 1/68
Am 1 s
—
87
16
—
—
5
109
__
—
16
—
—
1 1
__ —
16 16
—
60 33
Pr
38
82
—
16
1 1
16
—
142
_ _
1 1
6
5
5
16
—
—
—
16
Pu Hi
66
54
156
147
1 1
21
92 48
5 38
__
5
5
1 1
22
60
1 1
37
125
01
31 1
I 14
425
436
229
687
4959
8486
109
64
2305
2807
452
561
1760
1330
403
256
828
665
409
638
289
2180
Ne Tu
507
136
283
529
5
5
5
49
—
93
16
— _
441
289
251
262
76
480
238
—
16
32
103
Un
—
5
5
__
10
5
16
—
5
5
_,
10
5
—
10
5
10
Sp
392
71
1994
954
38
371
153
82
16
103
120
272
49
169
120
16
71
71
245
121
_ _
22
44
131
6* Ep
136
33
98
76
49
289
38
365
164
1 14
93
1 14
164
567
185
33
202
283
153
142
153
223
71
387
Tr Ot TOTAL
II 1357
354
2800
1995
420
5 — 1580
5332
— 27
360
328
2761
141 3660
665
1759
2380
1630
955
701
1727
16 1230
622
952
478
5 3020
-------
TABLE 12 (continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MIP-LAKE BENTHIC MACRO INVERTEBRATES
M
STA. NO.
GI2-OI
GI2-OI
GI2-OI
GI2-OI
GI8-OI
GI8-OI
GI8-OI
GI8-OI
H20-0 1
H20-0 1
H20-0 1
H20-0 1
123-01
123-01
123-01
123-01
J25-OI
J25-OI
J25-OI
J25-OI
K28-0 1
K28-OI
K28-OI
K28-OI
D
42
42
40
41
73
74
72
73
79
81
78
80
82
80
77
80
78
75
76
74
DATE
5/03/67
7/28/67
10/18/67
1/12/68
5/01/67
7/28/67
10/19/67
1/13/68
5/01/67
7/28/67
10/19/67
5/01/67
7/29/67
10/19/67
5/01/67
7/29/67
10/20/67
4/30/67
7/29/67
10/20/67
Am Is Pr Pu
No sample
XX
X X X
X
— 22
— 54
II 49
71
981
II
207
180 5
10
Hi 01
„ _ _
X X
X X
X X
196
44
163
1635
692
507
403
349
153
305
398
5559
305
839
463
583
Ne Tu
— «
X
X
X
540
131
234
365
289
163
71
273
817
49
98
234
49
158
142
44
Un Sp
»«. n •
X
X X
X
349
109
54
245
1 15
245
1 14
360
120
512
191
229
125
93
872
49
Ch
_ —
X
X
X
87
5
98
76
109
1 1
16
27
1 1
5
65
5
Ep Tr Ot TOTAL
K 1» .1 _M_
X
X X
X
1 172
289
549
2321
27 1232
926
588
II 5031
1 144
926
785
5 7019
495
1362
1667
686
-------
TABLE 12 (continued)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE BENTHIC MACRO INVERTEBRATES
STA. NO.
L30-OI
L30-OI
L30-0 1
L30-OI
L33-OI
L33-OI
L33-OI
L33-OI
L36-OI
L36-OI
L36-OI
L36-0 1
M38-OI
M38-OI
M38-0 1
M38-0 1
M4 1 -0 1
M4 1 -0 1
M4 1 -0 1
M4 1 -0 1
M43-OI
M43-OI
M43-OI
M43-OI
D
72
74
72
70
71
68
70
69
70
74
74
63
1 16
1 14
116
144
140
140
DATE
4/30/67
7/29/67
10/20/67
4/30/67
7/29/67
10/22/67
4/30/67
7/29/67
10/22/67
4/30/67
7/30/67
10/22/67
4/30/67
7/30/67
10/22/67
4/30/67
7/30/67
10/22/67
Am
16
X
X
X
1433
3554
676
4676
4502
3526
845
II 12
698
Is Pr
109 38
60 49
240 5
174 6
X X
365
X
—
X
49
16
27 5
—
II
5
Pu Hi 01
1 09 1 384
120 1308
II I486
33 567
X X
38 3036
X
X X
X
6 262
5 1237
632
242
2365
1019
278
779
1401
Ne Tu
768
349
589
360
X
31 1
—
—
X
741
381
1 1
365
1090
316
120
185
371
Un Sp
845
191
474
153
X
518
333
—
807
71
240
109
II
—
27
Ch Ep
196
71
180
X
142
X
—
X
131
5
76
414
196
6
1 1
5
Tr Ot TXDMO
6 3455
2148
2807
33 1525
X
4410
X
XX X
X
2955
5 5203
5 2239
5768
8404
4975
1260
2087
2502
-------
TABLE 12 (concluded)
CLEVELAND PROGRAM OFFICE
LAKE ERIE ROUTINE SURVEILLANCE
MID-LAKE BENTHIC MACRO INVERTEBRATES
STA, Bo
N45-OI
N45-OI
N45-OI
N45-OI
047-0 1
047-0 1
047-01
047-01
P49-0 1
P49-0 1
P49-0 1
P49-0 1
Q5I-OI
051-01
05 1 -0 1
05 1 -0 1
R53-0 1
R53-OI
R53-OI
R53-OI
S55-OI
S55-OI
S55-OI
D
162
164
158
159
178
182
98
101
96
74
76
73
64
64
62.5
42
42
DATE
A/29/61
7/30/67
10/23/67
A/29/61
7/30/67
10/23/67
4/29/67
7/30/67
10/23/67
A/29/61
7/30/67
10/23/67
A/29/61
7/30/67
10/23/67
A/29/61
7/30/67
10/23/67
Am
1 183
774
543
—
185
8993
866
670
16
147
65
65
60
22
6
—
93
Is Pr Pu
__
II
16
229
196
44
224
103 5
583
16 121 12
38 II
5
1 1
—
5 22
Hi 01
480
365
2376
2998
1537
2572
185
1428
861
33 398
27 218
16 1068
44 578
II 1128
125 2720
632
—
33 1629
Ne
153
98
49
1 1
327
—
49
202
360
158
65
—
87
Tu Un Sp
1 1
16
1 1
_ _
—
1 1
109
147
125
104
196
243
240
218
98
251
—
234
Ch Ep
76
16
__
—
1 1
818
33
5
1417
550
736
283
480
278
—
899
Tr Of TOTAL
1903
1269
2979
2998
1733
2610
10345
2670
1705
6 2525
2254
2015
2014
2109
3608
1245
__
3002
-------
TABLE 13
LAKE ERIE WATER MICROBIOLOGY
WINTER (68) CRUISE
(Cleveland Program Office Data)
Samp
Poi
E2-I
E2-I
•F3-I
F3-I
F3-2
F3-2
G4-I
G4-I
E5-I
E5-I
G6-I
G6-I
G7-I
G7-I
G9-I
G9-I
610-
610-
612-
612-
DI3-
DI3-
FI6-
FI6-
618-
618-
1 ing
nt
Top
Bottom
Top
Bottom
Top
Bottom
Top
Bottom
Top
Bottom
Top
Bottom
Top
Bottom
Top
Bottom
1 Top
1 Bottom
1 Top
1 Bottom
1 Top
1 Bottom
1 Top
1 Bottom
1 Top
1 Bottom
Date
1/9/68
1/9/68
1/9/68
1/9/68
1/10/68
1/10/68
1/10/68
I/I 1/68
1 /I 1/68
1/12/68
1/12/68
1 / 1 3/68
1/13/68
Total Col i forms
per 100 ml
water sample
380
1,240
700
350
20
33
30
110
-------
143
George Harlow
discharged into the lake, so that when we sampled in 1963
2
we essentially sampled under different conditions than
3
you would be sampling today. You cannot make the condi-
4
tions the same.
5
CHAIRMAN STEIN: Well, when can you ever do
6 that?
7 MR. HARLOW: You can't; you can't.
8 CHAIRMAN STEIN: In other words, this is as good
9 a comparison as we could ever hope for.
10 MR. HARLOW: That is true.
11 CHAIRMAN STEIN: Isn't that what we always do
in pollution control? We take the river one year and we
13 take the river the next, and I don't know that we ever
14 find the same river*
15 All right. Are there any further comments or
16 questions?
17 MR. OEMING: Yes, I have a couple, Mr. Chairman.
18 Mr. Harlow, on the bottom of the first page you
19 mention that there is a decrease in silica and this is
20 accompanied by an increase in diatom populations.
21 Now, you don't draw any further conclusion
00 about this. Are you prepared to draw some conclusion?
Is this good or is this bad? I mean the increase in
diatom population. Have we substituted one problem for
24 II
another?
25
-------
144
George Harlow
MR. HARLOW: I don't know whether there is a
relationship there or not between the fact that the
3 silica has gone down and the diatoms have gone up.
4 MR. OEMING: Let's take the diatoms themselves,
5 Is this bad?
6 MR. HARLOW: Yes, the diatom is an algae and
7 it goes to the problem of eutrophication and overenrich-
8 ment of the lake, and that is all a part of the algal
9 population, and I think we are trying to keep that to a
10 minimum. But I don't think it is the silica necessarily
H that has caused the diatoms to increase; that is not what
12 I am saying.
13 MR. OEMING: Now, you didn't have anything to
,. say here about the depressed area in the central portion
of the lake that was found prior to the initiation of
lo
this conference. Did you study that area again this last
16
year to determine whether it has expanded or decreased or
what?
18
MR. HARLOW: Yes, we did study it, and it so
JL *7
happens that when we went through the lake with our
-------
LJL
LH
145
George Harlow
was increasing. However, we did not sample during the
severest period of oxygen depletion which usually occurs
the last of August.
MR. OEMING: Do you plan to do that this year?
MR. HARLOW: This year we are changing our sur-
veillance program slightly so that instead of doing one in
the winter, spring, summer and fall, like we did last
year, we are going to concentrate on the mid-lake during
late summer to try to define better that area of oxygen
depletion and be able to make comparisons on that basis
with earlier data.
MR. OEMING: I think that needs to be done.
I am glad you are thinking about that, because that is
one of the primary concerns in this lake aside from the
nutrients themselves, but this decreased oxygen area —
is it getting bigger or is it constant, or what is hap-
pening to it? We don't know much about it since the
original study.
MR. HARLOW: It is still there, but I can't say
categorically that it is increased or decreased.
MR. OEMING: I see.
CHAIRMAN STEIN: All right. Mr. Metzler.
MR. METZLER: I am interested with your obser-
vation that the nitrates have not increased. So do I
take it from that they are actually decreased in the
-------
146
George Harlow
central and eastern portions of the basin?
2 MR. HARLOW: In the middle of my statement on
3 the first page, talking about "In the central basin for
4 the same period, all chemical constituents have increased
5 except chlorides, silica and nitrates" — that means that
6 nitrates have decreased.
7 MR. METZLER: Now, isn't that a pretty signifi-
8 cant finding? Here is one of the two minimum nutrients
9 that we are concerned about. Do you have some explanation
10 for why the nitrates might have decreased?
H MR. HARLOW: No, I haven't looked into the data,
12 quite frankly, with that perspective. I am not so sure
13 total N has decreased. I think it has increased.
14 By the way, very deep in that surveillance
report that I handed out are individual summaries of every
J.O
basin and every constituent. We have figures, I think,
16
for the entire lake — an average for the entire lake —
and I think an average for each sub-basin: eastern,
18
western and central basins, on the increase or decrease
19 *
of each constituent.
20
I may be wrong on this., but we can dig it out
21
of the data. I think total N has increased.
22
MR. METZLER: If total N has increased, you
23
mean it is in the form of ammonia or some other form
24
than nitrates, is that what you are saying?
25
-------
147
George Harlow
MR. HARLOWs I expect it might be organic, but
2 still I am not sure. We have to look in the detailed data
3 to find this out for sure.
4 MR. METZLER: I think that is a very interesting
5 observation that ought to be followed through certainly.
6 CHAIRMAN STEIN: Are there any other comments or
7 questions?
8 MR. HARLOW: I am handing out to the conferees
9 a report on bathing beach water quality in Lake Erie.
IQ At the June 1, 196? meeting of the Lake Erie
1;L Enforcement Conferees, the five basin States and the
^^ Federal Water Pollution Control Administration requested
a report on the conditions of bathing beaches in Lake
J.O
14 Erie"
In reply to this request, this report was prepared
15
for presentation at this meeting.
16
The contents of the report are based on infor-
17
mation ascertained from local, State and Federal agencies.
18
Evaluations were not made of Michigan beaches located on
19
the Detroit River, Lake St. Glair and St. Glair River or
20
beaches not open to the public.
21
Sixty beaches are summarized with the following
22
conclusions:
Three beaches are considered unquestionably
24
acceptable for swimming. They are Cedar Point in Ohio,
25
-------
143
George Harlow
1 Presque Isle State Park in Pennsylvania and Beaver Island
2 State Park in New York.
3 Twenty-six beaches are considered generally
4 acceptable for swimming. These beaches sometimes exceed
5 acceptable swimming limits for short periods particularly
6 during and immediately after heavy rains or strong winds.
7 Eleven beaches are considered of questionable
3 water quality which indicates frequent pollution problems.
9 Eleven beaches are considered unacceptable for
IQ swimming.
H The remaining nine beaches do not have sufficient
12 data to evaluate their water quality.
13 Pollution sources to Lake Erie beaches include
sewer overflows, municipal treatment plant bypasses,
_ inadequately disinfected effluents, septic tank discharges,
15
urban and rural runoff and industrial waste discharges.
16
These sources not only contribute bacterial pollution but
17
also are causes of nuisance conditions. Many beaches
18
have severe algal problems where obnoxious and unsightly
19
conditions are present from decaying algae. Beaches that
20
are generally acceptable are in some cases encumbered by
21
decomposing algae and dead fish which, without adequate
22
maintenance, become undesirable.
23
Color, oil, garbage, trash and other debris
24
add to the physical degradation of the beaches which
25
-------
2
3
4
5
6
7
8
9
10
13
15
16
17
18
19
20 |
j
21
22
149
George Harlow
impair recreational activity.
These problems of Lake Erie beaches are curable.
With adequate monitoring programs which include intensive
sanitary surveys, the extent of problems can be adequately
defined. These problems are highly publicized and are
numerous. Such problems, which need immediate attention
if the beach situation is to be improved, are adequate
disinfection of effluents, the sewering of areas which
are presently served by spetic tanks in undesriable soils,
diversion and chlorination of stormwater outfalls and
combined sewer overflows, and regulation of bypass struc-
tures to convey the maximum flow to treatment plants.
!4 | This program is essentially what the conferees
recommended in 1965. In addition, in order to make the
beaches more attractive, increased beach maintenance
programs are essential.
This completes my statement on the beach
programs.
CHAIRMAN STEIN: Without objection, this entire
report will appear in the record as if read.
(Reports entitled "Lake Erie Bathing Beach Water
Quality" and "Lake Erie Environmental Summary 1963-1964"
1| follow.)
24 I
-------
LAKE ERIE
BATHING BEACH WATER QUALITY
JUNE 1968
-------
SUMMARY
At the June 1, 196? meeting of the Lake Erie Enforcement Conferees,
the five basin states and the Federal Water Pollution Control Adminis-
tration requested a report on the conditions of bathing beaches in
Lake Erie.
In reply to this request, this report was prepared for presenta-
tion at this meeting.
The contents of the report are based on information ascertained
from local, state and federal agencies.
Sixty beaches are summarized with the following conclusions:
Three beaches are considered unquestionably acceptable
for swimming. They are Cedar Point in Ohio, Presque Isle
State Park in Pennsylvania, and Beaver Island State Park
in New York.
Twenty-six beaches are considered generally acceptable
for swimming. These beaches sometimes exceed acceptable
swimming limits for short periods particularly during and
immediately after heavy rains or strong winds.
Eleven beaches are considered of questionable water quality
which indicates frequent pollution problems.
Eleven beaches are considered unacceptable for swimming.
The remaining nine beaches do not have sufficient data to
evaluate their water quality.
The following table summarizes these beaches by state:
LAKE ERIE BATHING BEACH SURVEY WATER QUALITY CONDITIONS BY STATE
Questionable
Generally Safe Moderate Insufficient
Safe Slight Pollution Pollution Unsafe Data
Michigan - k
Ohio 1 IT
Pennsylvania 1*
New York 1 5
1
388
1-1
6 3
* Does not include Beach #1 which is generally safe and Beach #11 which
is questionable.
-------
Pollution sources to Lake Erie beaches include sewer overflows,
municipal treatment plant bypasses, inadequately disinfected effluents,
septic tank discharges, urban and rural runoff, and industrial waste
discharges. These sources not only contribute bacterial pollution
but also are causes of nuisance conditions. Many beaches have
severe algal problems where obnoxious and unsightly conditions are
present from decaying algae. Beaches that are generally acceptable
are in some cases encumbered by decomposing algae and dead fish which,
without adequate maintenance, become undesirable.
Color, oil, garbage, trash and other debris add to the physical
degradation of the beaches which impair recreational activity.
These problems of Lake Erie beaches are curable. With adequate
monitoring programs which include intensive sanitary surveys, the
extent of problems can be adequately defined. These problems ere
highly publicized and are numerous. Such problems, which need immedi-
ate attention if the beach situation is to be improved, are adequate
disinfection of effluents, the sewering of areas which are presently
served by septic tanks in undesirable soils, diversion and chlorina-
tion of storm water outfalls and combined sewer overflows and regulation
of bypass structures to convey the maximum flow to treatment plants.
This program is essentially what the Conferees recommended in
In addition, in order to make the beaches more attractive, increased
beach maintenance programs are essential.
-------
BEAVERJSLAND STATE PARK
s:
HANOVER 8 SUNSET BAY BEACHES
SHERIDAN BAY
WRIGHT PARK BEACH
POINT GRATIOT
LAKE ERIE STATE PARK
RIPLEY BEACH
PRESOUE ISLE STATE PARK | BEACHES 2
BEACH 11
WALDAMEER BEACH
(I.D.) ILAKE CITY COMMUNITY PARKI
I.D.) ICONNEAUT TWP. PARKI
-(I.Q)IASHTABULA TWN. PARKI
(I.D.) ISAYBROOK TWN. PARKI
L,QYD RD. PARKM
ILUWUUD PAHK
AVON LAKE PARK
SHEFFIELD PARK
CENTURY PARK
IDWERMLJON PARKI
ID.) HURON CITY PKI
I.D.)|KELLEYSIS.5T.PK
.DJ PORT CLINTON PK.I
I.D.)lSQBASSIS.ST.PK.I
EDQ AREA BEAC
-------
Many state, local and private "beaches dot the Lake Erie shore-
line. These beaches vary considerably in both size and attendance.
Many of these beaches are not being used to their full potential.
Although geographical location in relation to population centers
is a factor which limits use, an unfortunate but major factor in
reducing attendance at some beaches is pollution.
Bacterial pollution, or esthetic impairment, is a problem in
almost ell areas. Even beaches with good to excellent water quality
at least occasionally have esthetic problems from algae and dead
fish. With inadequate beach maintenance programs, this situation
produces obnoxious and unsightly nuisance conditions. Dead fish,
which may have died from natural causes, are immediately associated
by bathers with pollution.
Excess nutrients in Lake Erie have contributed greatly to
extensive increases in algal production in all areas of Lake Erie,
particularly from the island chain west and the far eastern portion
of the lake.
Additional esthetic problems such as color, oil, garbage, trash
and other debris add to the physical degradation of the beaches,
further impairing recreational activity.
From a public health standpoint, of far more important concern
is the bacterial quality of the water. Beaches have become bacteri-
ally polluted from storm water outfalls, combined sewer overflows,
inadequately disinfected wastes from municipal treatment plants,
septic tank discharges, industrial waste discharges and urban and
rural runoffs.
The extent of bacterial pollution at beaches depends on location
of bathing areas in relation to pollution sources. There are very
few beaches which are not at least occasionally affected by bacterial
pollution. A number of beaches are adversely affected only periodi-
cally, such as during and immediately after rains and strong winds.
Unfortunately, many beaches are frequently or continuously contamin-
ated by bacterial pollution.
Some beaches which are unsafe for swimming have been posted as
such by the state or local health departments, but the public still
insists on swimming in these areas. This is due probably to an
unawareness on the part of the bathers as to the health hazard
present.
This report summarizes the water quality situation of beaches
both esthetically and bacterially. Many private community beaches and
small public beaches are not included in this report but should not
be ignored in the development of adequate monitoring programs.
-------
The evaluations in this report are based on information from
local, state and federal agencies. The four classifications for
evaluations are as follows:
1. Safe - Beaches with good to excellent water quality with
infrequent water quality problems.
2. Generally safe, slight pollution - Although beaches may
be safe for swimming, there are occurrences when beaches
should be temporarily posted against swimming.
3. Questionable, moderate pollution - Beaches with question-
able water quality; further studies may indicate frequent
posting against swimming.
4. Unsafe - Beaches unsafe for swimming as indicated by
excessively high coliform counts; should be posted
against swimming until analyses indicate acceptable
water quality.
MICHIGAN
Figure 1 summarizes the bacterial data collected by the Michigan
Water Resources Commission and the Monroe County Health Department.
Although the median coliform concentrations are generally below the
recommended safe limit for swimming, the maximum concentrations are
very high and indicate that pollution reaches these beaches.
The principal sources of pollution are combined sewer overflows,
municipal waste discharges, industrial wastes, and storm water outfalls
discharging in or near beach areas. The municipal wastes are primarily
from Detroit, Wyandotte, Riverview, Trenton, Monroe and some built up
inland communities. Michigan beaches, especially the ones closer to the
Detroit River, are adversely affected during winds from the north or
east. Bacterial concentrations increase greatly at this time as does
the accumulation of decaying algae and debris.
Sterling State Park and Willow Beach have good sand beaches but
out in the water the bottom contains a considerable amount of muck.
Both are plagued by algae. Sterling State Park has been posted as
unsafe for swimming by the Michigan Department of Public Health but
many people still swim there in spite of the warning signs.
Sterling State Park pollution stems from three sources: (l) wastes
from Consolidated Paper Company, Monroe Paper Products Company, and
Union Bag Camp Paper Company in Monroe, (2) the City of Monroe's muni-
cipal wastes, and (3) septic tank drainage from the unsewered Brest
Bay communities.
OHIO
The Ohio beaches vary in water quality from quite good to grossly
polluted. Figures 2, 3 and k summarize bacterial data as reported by
the local health departments.
-------
0 N T A R I 0
* COMBINED RESULTS OF SAMPLES
FROM SEVERAL LOCATIONS.
POINTE AUX PEAUX
NOTE:
DATA OBTAINED FROM MICHIGAN
WATER RESOURCES COMMISSION.
STONY POINT PARK
TOLEDO BEACH
STERLING STATE PARK
WILLOW BEACH
BACTERIAL CONCENTRATIONS
MICHIGAN BATHING BEACHES
SCALE IN MILES
-------
Toledo to Avon Lake
The "beaches in this area outside of the large pollution areas
are probably of fairly good water quality. Adequate data on most
beaches in this area (Figure 2) are not available, so conclusive
evaluations of these beaches are not possible. However, during rain-
fall these beaches can be adversely affected by combined sewer over-
flows, storm water discharges, sewage treatment plant bypasses, and
land runoff.
Beaches between Toledo snd Sandusky are subjected to periodic
fouling from accumulations of rotting algae and aquatic plants. Due
to the rocky substrate in much of the area, attached algae are better
able to grow. Algae problems are very prevalent in the island area.
The beaches in the Toledo area are polluted by the Mausiee River
(including the Toledo treatment plant effluent), storm and combined
sewer overflows and bypasses from the Toledo treatment plant. The
Lucas County Health Department does not recommend swimming at any
beach in the county except Crane Creek State Park.
The principal sources of pollution in the Lorain-Avon Lake Area
are storm and combined sewer overflows, bypasses from sewage treatment
plants, and the Black River. The Lorain County Health Department
discontinued their sampling program at Avon Lake and Sheffield Lake
in 196^ after the results of their study showed continual polluted
conditions. Century and Lakeview Parks in Lorain have had high
counts in the past and the City Health Department has recommended
against swimming in either of these beaches.
Greater Cleveland (Avon Lake to Euclid)
The beaches in this area, with very few exceptions, are grossly
polluted. Coliform counts in excess of 100,000 per 100 ml are quite
frequent (Figure 3).
Many sources of pollution affect these beaches such as: (l) com-
bined and storm sewer overflows, (2) municipal waste discharges from
treatment plants at Rocky River, Lakewood, Cleveland (Westerly,
Southerly and Easterly), Euclid and Willoughby-Eastlake, and (3) load-
ings from the heavily polluted tributaries within the area. In some
areas, storm sewers continuously overflow due to the overloading
from the rapidly developing suburbs. Raw sewage has been observed along
the shoreline during periods of no rainfall.
-------
c
31
m
ro
NO
DATA
AVAILABLE
opp
i i i
- TOLEDO AREA BEACHES
PQp
ft 10 K
si?
KELLEYS IS. ST. PARK
pop
i i *
VERMILION CITY PARK
PORT CLINTON CITY PARK
© © ©
i i i
— EAST HARBOR ST. PARK
P P ©
LAKEVIEW PARK
at (6 *~
SIX
CENTURY PARK
NOTE: DATA OBTAINED FROM
OHO KALTH DEFT, a
LOCAL KALTH DEPARTMENTS
NO
DATA
AVAILABLE
opp
« «» f-
« I I
SHEFFIELD LAKE PARK
NO
DATA
AVAILABLE
POO
i i i
I AVON LAKE PARK
© NO OF DAYS SAMPLED
BATHING SEASON
BACTERIAL CONCENTRATIONS
OHIO BATHING BEACHES
TOLEDO TO AVON LAKE
-------
CD
C
3)
m
OJ
HUNTMGTON METIKX PARK
WHITE CITY PARK
WILDWOOO PARK
I • *
EDGEWATER PARK
ROCKY RIVER PARK
PERKINS BEACH
0 NO or om s«vi£D
• UTMNO SEASON
C LEV El LAND
MOTC:
DATA 0*TA*CD FROM LOCAL MALTM
OCMHTWIITS AMI TIC CLCVCLAND
BACTERIAL CONCENTRATIONS
OHIO BATHING BEACHES
AVON LAKE TO EUCLID
-------
Euclid to Conneaut
Beaches in this area are generally of fair to good vater quality
with high bacterial counts (Figure ij-) occurring during and immediately
after rains and strong winds.
Generally, under normal meteorological conditions, the beaches
in this area are out of the pollution-affected areas of Greater
Cleveland. However, pollution problems are present at these beaches
stemming principally from municipal waste discharges and bypasses from
Ashtabula and Lake County sewage treatment plants, septic tank efflu-
ents, storm water discharges and the pollution-laden tributaries of
northeastern Ohio.
PSRI'SYLVAKTA
By far the largest beach within the Lake Erie basin is. Presque
Isle State Park located at Erie. There are also small beaches in
Pennsylvania which are used by individual communities. They are not
considered bathing areas by the Pennsylvania Health Department since
there is no lifeguard on duty at any time.
Figure 5 summarizes bacterial quality of Pennsylvania's beaches.
Beaches 2-1C at Presque Isle are generally of excellent water quality
and are heavily used. In past intensive testing, these beaches were
never found to exceed the recommended bacterial standard, though
esthetic problems from fish, algae, and paper wastes have occurred.
Beach 1 is occasionally affected by septic tank effluents from the
Kelso Beach and Beachcomber Hotel areas. The beaches at these two
locations are likewise affected. High coliform concentrations have
been recorded on Beach 11. These are caused by Mill Creek, the Erie
sewage treatment plant bypasses, and storm sewer overflows. Beach 11
is closed by park officials when bacterial problems are found to
exist. The effluent from the Kammermill Paper Co. reaches these
beaches when winds are from the east. Kammermill1s effluent contains
tannins and lignins which discolor the water and produce foul odors
and foam. A further source of pollution to Beach 11 is the. bird
sanctuary located immediately north of it.
All beaches east of Pro.;rue Isle are affected by algae. Also,
under normal conditions the effluent from Hammermill adversely affects
beaches for over ten miles east of Erie. Besides the color, odor,
taste, and foam problems associated with their wastes, wood chips are
also found on beaches adjc-cant to their plant. Several of the small
beaches east of Erie have -xcessive coliform concentrations, others
are of unknown quality.
-------
KXV9CO
IpOO-
NO
DATA
AVAILABLE
O O O
i i i
•OSBORNE BEACH
lOO/XX).
IO/XXX
It
© ®
o
« li *.
I i *
ORCHARD BEACH
LEGEND
6
O IOO/XX>
t IQjOOO.
RECOMMENDED
I-LIMIT FOR
SWIMMING
lOCsOOO
1,000. • M- «-•- •
IftA _^L_^L_^L_
5) ® ©
i i I
-MENTOR CITY
IOCVDOO-
IOJDOO.
1,000.
IOO
NO
DATA
AVAILABLE
O O O
SIS
r- PAINESVILLE CITY BEACH
opoo-
IOPOO.
ipoo -I
IOO
HEADLANDS! ATE PARK
© NO OF DAYS SAMPLED
$ BATHNG SEASON
* COMBINED RESULTS OF SAMPLES
FROM SEVERAL LOCATIONS.
NOTE:
— DATA OBTAMEO FROM OHIO AND
LOCAL HEALTH DEPARTMENTS.
SCALE IN MILES
KJCsOCO.
10000.
IOO
® ® (2)
— FAJRPORT HARBOR BEACH
IOOPOC"
lOflOO
1,000.
IOO
II
i i i
PAWESVLLE TWP. PARK
IOOJDOO.
IflOO- -
® O ©
i i i
PERRY TWR PARK
100,000.
10^00-
1,000.
IOO
NO
DATA
AVAILABLE
PQO
i i I
TUTTLE PARK BEACH
IOO/WO-
I.OOO- - --
I
O O O
• GENEVA TWP. PARK
IOO.OOO'
tofloo
ijooo- —
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LAKE ERIE
ENVIRONMENTAL
SUMMARY
1963-1964
UNITED STATES
DEPARTMENT OF INTERIOR
F.EDERAL WATER POLLUTION CONTROL ADMINISTRATION
GREAT LAKES REGION
Y 1968
-------
TABLE OF CONTENTS
PAGE No,
CHAPTER 1 '
INTRODUCTION '
Area Description I
General I
GeoIogy 8
Climate 14
CHAPTER 2 21
LAKE ERIE PHYSICAL CHARACTERISTICS 2I
Lake Bottom 21
Western Basin 21
Central Basin 22
Eastern Basin 23
Lake Water 24
Tributary Supply 24
Lake Huron Outflow 24
Major Tributaries 26
Minor Tributaries 26
Ground Water 29
Lake Water Balance 29
Lake Levels 33
Lake Water Temperatures 39
Western Basin 43
Central Basin 43
Eastern Basin 45
Nearshore Water Temperatures 45
Effects of Temperature Phenomena 47
Lake Currents 49
Western Basin Circulation 55
Central Basin Circulation 68
Eastern Basin Circulation 76
General Observation 77
-------
TABLE OF CONTENTS
PAGE No,
CHAPTER 3 78
LAKE ERIE CHEMICAL CHARACTERISTICS 73
Sediment Chemistry 78
TotaI Iron 78
Total Phosphate 81
Sulflde 81
Organic Nitrogen 81
Ammonia Nitrogen 85
Nitrite and Nitrate Nitrogen 85
Volatile Solids 85
Chemical Oxygen Demand 85
Alpha Activity of Bottom Sediments 91
Beta Activity of Bottom Sediments 91
Water Chemistry 91
Temperature 92
Dissolved Oxygen 92
Chemical Oxygen Demand 96
Biochemical Oxygen Demand 97
Conductivity and Dissolved Solids 97
Total Solids 99
Chlorides 104
SuI fates 104
Calcium 106
Magnesium 109
Sodium 109
Potassium 109
Silica 112
A Iky I Benzene Sulfonate (ABS) 115
Soluble Phosphorus 115
Total Phosphorus 119
Nitrogen 119
Other Chemical Constituents of Lake Erie Water 121
Radiochemistry 128
Alpha Activity of Lake Water Samples 128
Beta Activity of Lake Water 129
Alpha Activity of Plankton Samples 129
Beta Activity of Plankton Samples 129
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TABLE OF CONTENTS
PAGE No,
CHAPTER 4 i30
LAKE ERIE BIOLOGICAL CHARACTERISTICS iso
Lake Bottom Biology 130
Lake Water Biology 137
Algae 137
Fish 143
CHAPTER 5 ue
LAKE ERIE BACTERIOLOGICAL CHARACTERISTICS us
Water Bacteriology 148
Western Basin 150
Central Basin 153
Eastern Basin 154
Lake Erie Harbors (South Shore) 155
Ottawa River and Maumee River 155
Portage River I55j
Sandusky Harbor 156
Lorain Harbor-Black River 156
Rocky and Cuyahoga Rivers - Cleveland Harbor 156
Chagrin River 157
Grand River-Fairport Harbor 157
Ashtabula River 159
Erie Harbor - Presque Isle 159
Buffalo River 160
BIBLIOGRAPHY isi
-------
LIST OF TABLES
TABLE No, TITLE PAGE No,
I Physical Features of Great Lakes System 2
2 Runoff Statistics for Tributaries of the Lake Erie 27
Basin
3 Water Supply to Lake Erie 34
4 Water Balance in Lake Erie 35
5 Causes and Effects of Water Level Changes 39
6 Current Metering Station Description Data 57
7 Current Flows at Central Basin Meter Stations 71
8 Bottom Sediment Chemistry - Western Basin 86
9 Bottom Sediment Chemistry - Central Basin 87
10 Bottom Sediment Chemistry - Eastern Basin 88
II COD Concentrations in Lake Erie 98
12 Conductivity in Lake Erie 100
13 Dissolved Solids Concentrations in Lake Erie 101
14 Total Solids Concentrations in Lake Erie 103
15 Chloride Concentrations in Lake Erie 105
16 Sulfate Concentrations in Lake Erie 107
17 Calcium Concentrations in Lake Erie 108
18 Magnesium Concentrations in Lake Erie 110
19 Sodium Concentrations in Lake Erie III
20 Potassium Concentrations in Lake Erie 113
21 Silica Concentrations in Lake Erie 114
22 ABS Concentrations in Lake Erie 116
23 Soluble Phosphorus (P) Concentrations In Lake Erie 117
24 Chemical Analyses - National Water Quality Network 120
Stations
25 Total Nitrogen Concentrations in Lake Erie 122
26 Ammonia Nitrogen Concentrations in Lake Erie 124
27 Nitrate Nitrogen Concentrations in Lake Erie 125
28 Organic Nitrogen Concentrations in Lake Erie 126
29 Water Quality - Nearshore and Harbors 127
30 Other Chemical Constituents of Lake Erie Water 121
31 Dominant Phytoplankters during Spring and Autumn 140
32 Average Combined Annual United States and Canadian 145
Production for Specified Periods of Major
Commercial Species of Lake Erie
33 U. S. Commercial Fish Catch Statistics 146
-------
LIST O.F FIGURES
FIGURE No, TITLE PAGE No,
I LocaIi ty Map 3
2 Great Lakes Features 4
3 Bedrock Geology of Great Lakes Area 6
4 Surface Geology - Lake Erie Basin 7
5 Bottom Topography and Profile 9
6 Bottom Deposits 10
7 Physiography 13
8 Air Temperature 15
9 Monthly Precipitation 16
10 Precipitation Map 17
I I Wind Diagram 19
12 Sunshine 20
13 Monthly Tributary Flows - St. Clair, Maumee, 25
Cuyahoga
14 Ground Water AvailabiIity 30
15 Ground Water Quality 31
16 Comparative Water Inputs of Tributaries 36
17 Lake Levels and Winds 38
18 Water Temperatures - Put-in-Bay and Erie 40
19 Typical Thermocline 41
20 Temperature Development 44
21 Temperature Cyclic Development 46
22 Temperature Distribution - Western Basin 48
23 Current Metering Locations 56
24 Seabed Drifter Release Locations 58
25 Dominant Summer Surface Flow - Western Basin 59
26 Dominant Summer Bottom Flow - Western Basin 61
27 Western Basin Surface Flow - Southwest Wind 62
28 Bottom Flow Southwest Wind - Western Basin 63
29 Western Basin Surface Flow - Northwest Wind 64
30 Western Basin Bottom Flow - Northwest Wind 65
31 Western Basin Surface Flow - Northeast Wind 66
32 Bottom Flow Western Basin - Northeast Wind 67
33 Dominant Summer Surface Flow - Lake Erie 69
34 Dominant Summer Bottom Flow - Lake Erie 70
35 Prevailing Bottom Flow - Lake Erie 73
36 Bottom Sediment Sampling Stations 79
37 Total Iron Bottom Sediments 80
38 Total PO. Bottom Sediments 82
39 Sulfide Bottom Sediments 83
40 Organic Nitrogen - Bottom Sediments 84
-------
LIST OF FIGURES
FIGURE No, TITLE PAGE No,
41 Ammonia Nitrogen Bottom Sediments 89
42 Volatile Solids Bottom Sediments 90
43 Water Sampling Stations 93
44 Chemical Concentrations In Western, Central, 94
and Eastern Basins
45 Beeton's DS Curves 102
46 Soluble Phosphate - Western Basin 118
47 Nitrogen in Western Basin 123
48 Relative Abundance Benthlc Fauna 132
49 Zones of Benthlc Fauna 133
50 Low DO Area 136
51 Davis1 Phytoplankton Data 139
52 Decline of Desirable Fish 144
53 Surface Microbiology 151
54 Bottom Microbiology 152
55 Total Co Iiform Contour Map - Cleveland Shoreline 158
-------
CHAPTER 1
I NTRODUCTI ON
The Federal Water Pollution Control Administration and its ante-
cedent, the Division of Water Supply and Pollution Control of the U.
S. Public Health Service, have gathered a great amount of data on the
physical, chemical, and biological characteristics of Lake Erie. Var-
ious reports by those agencies and others have been based on the
gathered data.
This report is an attempt to summarize the information gathered
in the years 1963 through 1965. The purposes are (I) to provide a
document for validating previous reports on the pollution problems in
Lake Erie and (2) to provide a base for comparison with future lake
surveiI lance data.
Adequate understanding of the significance of the reported data
requires a knowledge of physical features and history of the basin,
as summarized In the following description.
AREA DESCRIPTION
GENERAL
Lake Erie is centered at 42°15' North Latitude and 81°15' West
Longitude, with its long axis oriented at about N70°E. The lake Is
approximately 240 miles long and more than 50 miles wide near the mid-
point of its long axis. Figure I shows the Lake Erie basin as de-
scribed In this report.
The area of the Lake Erie basin is about 32,500 square miles—
about 40,000 square miles if the Lake St. Clair drainage area is in-
cluded. Nearly one-third (9,940 square miles) of the Lake Erie basin
is covered by the lake itself, a ratio which is approximated in each
of the other Great Lakes basins. However, Lake Erie receives the
drainage of the three lake basins above It, so that the total water-
shed supplying Lake Erie is in reality 260,000 square miles.
In terms of surface area. Lake Erie ranks fourth of the five
Great Lakes. Only twelve freshwater lakes in the world are larger.
The depth of Lake Erie, however, is remarkably shallow, averaging
only 60 feet and reaching a maximum of 216 feet. Its total volu?*
is 125 trillion gallons, the smallest of the Great Lakes (see Figure
2 and Table I), storing only two percent of the total Great Lakes
vo I ume.
-------
TABLE I
PHYSICAL FEATURES OF GREAT LAKES SYSTEM
Water Area
Lake
Length
(miles)
Breadth
(miles)
(sq.
U.S.
miles)
Canada
Mean
Depth
Total (feet)
Drainage
area
(sq. mi les)
Superior
Michigan
Huron
St. Clair
Erie
Ontario
350
307
206
26
241
193
160
118
183
24
57
53
20,700
22,400
9,110
200
4,990
3,600
1 1 ,200
--
13,900
290
4,940
3,920
31,900
22,400
23,010
490
9,930
7,520
487
276
195
10
60
283
80,000
67,860
72,620
7,430
32,490
34,800
TotaIs
61,000 34,250 95,250
-------
^ ^^ -
\ ^1 X
\ ..,.*«/— I (.
NxJFT"^
>• r*
LOCALITY
OF
LAKE ERIE
-------
THE GREAT LAKES
ILLINOIS
NEW YORK
PENNSYLVANIA
ELEV. 600.4
ELEV. 578.8
LAKES
MICHIGAN f
HURON
GREAT LAKES
PROFILE
LAKE
ONTARIO
30-
777;
20-
10-
SUPERIOR
MICHIGAN
HURON
ERIE
ONTARIO
GREAT LAKES STORAGE
FIGURE 2
-------
The water of Lake Erie lies entirely above that of Lake Ontario,
into which it drains. Lake Erie owes its existence both to the
Niagara bedrock sill, which acts as a dam, and to glacial scouring
during the Ice Age. The form of Lake Erie reflects the bedrock
structure of the area, Figure 3.
The landscape of the Lake Erie basin is characterized by thou-
sands of square miles of flat terrain, broken only by occasional
ancient beach ridges and relatively steep valley walls in many of
the major tributaries. Even these features are subdued in the
western part of the basin. The terrain is less monotonous from
Cleveland eastward, along the south shore, where the basin reaches
into the northwestern perimeter of the Appalachian uplands with
their rolling hills. However, the basin there is relatively narrow
between the lake and the drainage divide.
Soils in the extensive flatlands of the Lake Erie basin are
characteristically dominated by poorly drained and relatively im-
pervious clays, derived from old lake and glacial sediments, Figure
4. These soils are fertile and, because of this, have been arti-
ficially drained to a great extent. The uplands along the southeast
edge of the basin are well-drained, rock-derived, and less fertile.
Old beach ridges throughout the basin are extensively used for high-
ways and farming.
Streams entering Lake Erie are generally low-gradient and wind-
ing but with steep-walled valleys. They carry large silt loads
where they traverse easily eroded clay flatlands and smaller loads
in the rocky hilly areas. Excluding the Detroit River input, only
two streams, the Maumee River in Ohio and the Grand River in Ontario,
supply significant quantities of water to the lake.
Lake Erie proper is unique among the Great Lakes in several of
its natural characteristics, each of which has a direct bearing on
its condition with respect to pollution. Lake Erie is by far the
shallowest of the Great Lakes and the only one with its entire water
mass above sea level. It has the smallest volume, 113 cubic miles,
and its flow-through time of 920 days is the shortest. It is the
most biologically productive and the most turbid. It has the flattest
bottom; it is subject to the widest short-term fluctuations in water
level (13 feet maximum); and its seasonal average surface levels are
the most unpredictable. It is the only one of the Great Lakes with
its long axis paralleling the prevailing wind direction and is subject
to violent storms. Lake Erie is also the southernmost, warmest,
(averaging 5I°F) and the oldest (12,000 years) of the Great Lakes.
-------
GEOLOGIC MAP
OF THE
GREAT LAKES REGION
(FROM sfoLoar of rue SREAT LAKES, HOUSH.ISSS)
LEGEND
PENNSYLVANIAN AND MISSISSIPPI* ROCKS, UNDIFFERENTIATED.
UPPER DEVONIAN ROCKS, MAINLY SHALES! ANTRIM SHALE IN MICHIGAN.
LOWER DEVONIAN ROCKS, IN UNITED STATES! DEVONIAN UNDIFFERENTIATED IN CANADA.
UPPER SILURIAN ROCKS, IN ONTARIO AND NEW YORK (MAINLY DOLOMITE.)
SILURIAN SALINA GROUP ROCKS IN NORTHERN MICHIGAN AND ONTARIO. (INCLUDES SALT BEDS.)
MIDDLE SILURIAN NIAGARAN SERIES ROCKS IN NORTHERN MICHIGAN, ONTARIO, AND NEW YORK.
SILURIAN ROCKS UNOIFFERCNTIATEO IN WISCONSIN, IOWA, ILLINOIS, INDIANA, AND OHIO.
LOWER SILURIAN ROCKS IN NORTHERN MICHIGAN, ONTARIO, AND NEW YORK.
ORDOVICIAN .ROCKS, UNDIFFERENTIATED.
CAMBRIAN ROCKS, UNDIFFERENTIATED.
PRECAMBRIAN MOCKS, UNDIFFERENTIATED. (MAINLY METAMORPHIC AND IGNEOUS ROCKS.)
BEDROCK GEOLOGY OF GREAT LAKES AREA
FIGURE 3
-------
o
m
-&
LAKE
HURON
OLD LAKE DEPOSIT , PRIMARILY
SILT AND CLAY
GLACIAL DRIFT, CLAY WITH
INCLUDED GRAVEL
WATER-LAID GLACIAL MORAINE;
MAINLY SAND AND GRAVEL.
LAND-LAID GLACIAL MORAINE;
CLAY, SAND AND GRAVEL.
OUTWASH SAND AND GRAVEL
SURFACE GEOLOGY
LAKE ERIE BASIN
SCALE IN MILES
-------
Lake Erie's shores are characterized by easily eroded banks of
glacial till and not much sand. Bluffs of limestone or shale bedrock
exist in the islands area, between Vermilion and Cleveland, Ohio, and
around the eastern end of the lake. Good sand beaches are few in
number, but where developed, are built to the extreme. Examples are
Long Point, Pointe aux Pins, and Point Pelee, Ontario; Cedar Point,
Ohio; and Presque Isle, Pennsylvania. The till and lake clay bluffs
recede by erosion at rates up to 5 or more feet per year, contribut-
ing an average of 16 million tons of sediment annually to the lake.
Topographically, Lake Erie is separated into three basins, Figure
5. The relatively small shallow western basin is separated from the
large, somewhat deeper, flat-bottomed central basin by the rocky
island chain. The deep, bow I-shaped eastern basin is separated from
the central basin by a low, wide sand and gravel ridge near Erie,
Pennsylvania. The western basin averages 24 feet deep with a maximum
of 63 feet in South Passage; the central basin averages 60 feet with
a maximum of 80 feet; the eastern basin averages 80 feet with a max-
imum of 216 feet. The areas of the western, central, and eastern
basins are approximately 1,200, 6,300, and 2,400 square miles, re-
spectively.
The bottom sediments of Lake Erie show patterns closely related
to topography and relief, Figure 6. In general, the broad, remark-
ably flat areas of the western and central basins and the deeper,
smoother part of the eastern basin have mud bottoms and are the recip-
ients of nearly all of the sedimentation in Lake Erie. Ridges and
shoreward-rising slopes are generally comprised of sand and gravel and
are characterized by either erosion or the deposition of coarse sedi-
ments. Rock is exposed in the western basin and in strips along shores
in the central and eastern basins.
GEOLOGY
It is generally believed that the antecedent of Lake Erie, prior
to the Ice Age (Pleistocene Epoch), was a major stream valley essen-
tially along the long axis of the present lake. The land topography,
although showing slightly more relief, was probably not far different
than that of today. The drainage or river system was controlled by
differential bedrock resistance and large-scale rock structural features.
Bedrock nearest the surface, as it is today, was comprised of shales
and limestones and some sandstone, laid down, long before, in epicon-
tinental seas.
The glacial history of the Great Lakes basin is described in de-
tail by Hough (1958) and by Leverett and Taylor (1915). Glaciation
by continental ice sheets began on the North American continent approx-
imately one million years ago, representing the beginning of the Pleis-
tocene Epoch of geologic history. Four great ice invasions, named the
-------
LAKE ERIE
BOTTOM TOPOGRAPHY
NOTE: CONTOUR INTERVAL 20 FEET.
CONTOURS IN FEET ABOVE
INTERNATIONAL GREAT LAKES
DATUM FOR LAKE ERIE (568.6)
- 1955.
CLEVELAND
WESTERN BASIN
CENTRAL BASIN
MEAN DEPTH so
LAKE ERIE
LONGITUDINAL
CROSS SECTION
-------
c
33
m
i^ijjr^'
_j-3^rt^r3*£"
LAKE ERIE
BOTTOM DEPOSITS
-------
Nebraskan, Kansan, Illinoian, and Wisconsin, characterized this period.
Apparently all of these Ice sheets covered the Great Lakes region.
However, each succeeding invasion obscured or obliterated most of the
evidence for the preceding one. In the Lake Erie basin the features
produced by Wisconsin glaciation are of the most concern. There are
meager remnants of Illinoian glaciation and none of previous activity.
Apparently the Wisconsin ice sheet moved Into the Lake Erie basin
from the north and northeast about 25,000 years ago. It covered the
entire lake area and nearly all of the drainage basin. In western
Ohio the Ice sheet moved south over flat lands to near the Ohio River
while it was stopped by the Appalachian uplands in eastern Ohio, Penn-
sylvania, and New York.
Upon retreat of the ice sheet, a complex series of glacially-
produced features were left behind, most of which resulted from tem-
porary readvances and retreats of the ice front. The features are
mainly ground and frontal moraines composed of crushed and reworked
local bedrock. A lesser amount of the material Is derived from bed-
rock to the north. This "erratic" material Is conspicuous In many
places as large crystalline boulders.
Lakes were generally not formed or were very transient features
while the ice front was south of the Ohio River-Great Lakes drainage
divide. A lake began its existence In the Erie basin when the Ice
front retreated from a position now represented by a frontal moraine
called the Fort Wayne moraine, passing through Fort Wayne, Indiana.
This moraine essentially lies along the shoreline of the first glacial
lake stage (Lake Maumee) in the Lake Erie basin. The Ice still cov-
ered what is now Lake Erie, Its front lying along the Defiance moraine.
The surface of Lake Maumee was at about 800 feet above sea level and
the drainage was westward into the Wabash River In Indiana.
Following the Lake Maumee stage was a long series of stages, some
draining westward and some eastward. The most significant of these
stages are marked by we 11-developed beach ridges. They were Lake
Maumee at 800 feet elevation. Lake Whlttlesey at 740 feet, Lake Warren
at 690 feet, and Lake Erie at 570 feet. All of these drained westward
except for Lake Erie.
One of the most significant points to remember In regard to the
history of the Great Lakes is that a lake has occupied the present
Lake Erie basin for a much longer time than lakes have existed in the
other basins.
The four stages mentioned above were the most Important, but
there were many intervening stages, not always successively downward,
in the Erie basin, controlled by relatively minor retreats and advances
of the ice front. Significant in this regard Is the fact that Ice
-------
occupied the eastern end of Lake Erie several times, possibly account-
ing for the present relative deepness of that part of the basin.
The water level in the Erie basin has not always been at its
present level or higher. At least two stages have been considerably
lower and did not receive drainage from the upper lakes. Both these
stages have occurred in the last 11,000 years. The first one of im-
portance was some 80 feet lower than the present lake. The lake then
rose by ice damming and uplift to a level of 100 feet above the present
lake. Ice retreat dropped the level again to 40 feet below the present
lake. That stage was the immediate predecessor of Lake Erie as we know
it today. The lake then began to rise (about 4,000 years ago) to its
present level by uplift of the Niagara outlet; that rise continues
today.
The differential resistance of the bedrock (see Figure 3) to
glacial abrasion was responsible for a major part of Lake Erie's
present form (Carman, 1946). The islands and headlands of western Lake
Erie are remnants of resistant limestone and dolomite. Resistance also
accounts in part for the shallow water depths in the west end of the
lake. The broad flat central part of the lake lies along the strike
of a broad band of uniformly resistant shales bounded on the south
shore by similar shales capped by relatively resistant sandstones. The
deeper eastern basin is also underlain by shales but has been subject
to more abrasion and less, later sedimentation.
The Lake Erie basin lies mainly in the Central Lowlands physio-
graphic province (Figure 7) near where it wedges out between the
Appalachian Plateau and Laurent Ian Upland. The southeastern part of
the drainage basin Is In the Appalachian Plateau. The boundary be-
tween the Central Lowlands and the Appalachian Plateau In the Erie
basin is a sharp rise of 200 to 300 feet in elevation called the
Portage Escarpment. From Cleveland eastward the escarpment parallels
the lake shore and lies generally less than five miles from It. At
Cleveland the escarpment turns southward across Ohio.
The part of the Central Lowlands in the Lake Erie basin is called
the Lake Plain and Is for the most part the very flat former lake
bottom. East of Cleveland it Is narrow and lies between the Portage
Escarpment and the present lake shore. West of Cleveland it widens
quickly and In western Ohio it is more than 50 miles wide. It narrows
again in Michigan to about 20 miles wide. In Canada it is 20 to 30
miles wide but is not so well defined because of the complexity of
glacial features. The lake plain Is characteristically low and com-
prised of poorly drained silt and clay with occasional sandy ridges
formed as beaches and bars in older lakes.
The streams (except the Detroit River) entering Lake Erie orig-
inate either within or just outside the boundaries of the Lake Plain.
12
-------
e
m
->j
TILL PLAIN
SCALE
10 O 10 20 30 4O 50 60 70 80 90 100 MILES
PHYSIOGRAPHY
OF
LAKE ERIE BASIN
-------
The valleys are generally narrow and winding with steep to vertical
walls. The shapes indicate that most of the valleys are in a youth-
ful stage of maturity, having been cut rapidly since the Ice Age In
a flat region but high relative to the lake.
CLIMATE
The climate of the Lake Erie basin is temperate, humid-continental
with the chief characteristic of rapidly changing weather.
The annual average temperatures for land stations in the Erie
basin range between 47°F and 50°F. Temperatures generally decrease
northeastward from the southwestern end of the basin. The highest
average temperature at recording stations is at Put-in-Bay on South
Bass Island with an annual average of 5I.2°F.
The highest average monthly temperatures occur in July, ranging
from 70°F to 74°F at land stations. These also generally decrease
northeastward across the basin, Figure 8. Put-In-Bay again Is highest
at 75.I°F. The lowest average monthly temperatures occur in January
at the west end of the basin and February at the east end, and range
from 24°F to 28°F. The extremes of temperature in the Lake Erie basin
are about -20°F and IOO°F.
Average annual precipitation at land stations in the basin is
we I(-distributed throughout the year, Figure 9, and ranges from about
30.5 inches to more than 40 inches with an overall basin average of
about 34 inches. Yearly precipitation has varied between the extremes
of 24 and 43 Inches. Precipitation shows a striking correlation to
land elevation and topography. Figure 10. Low-lying flat areas of the
basin have the lowest precipitation. Highest precipitation occurs in
the southeastern part of the basin.
Most of the precipitation in the Lake Erie basin Is derived from
the flow northeastward of warm, moisture-laden air of low pressure
systems from the Gulf of Mexico. Precipitation results when this
clashes with colder, northern air of high pressure systems, moving in
from the west and northwest. This kind of weather is characteristic
of spring, summer, and early fall, and usually occurs in cycles of a
few days. Humidity is high along with high temperatures, and south
to southwest winds persist for long periods.
In winter, however, the colder Canadian air masses push south-
eastward and dominate the weather, resulting in less precipitation and
less humidity. Heavier precipitation (usually snow) is experienced
in the southeastern part of the basin, explaining the shift In the
annual precipitation pattern In that area. This phenomenon is largely
local, caused by air moving across Lake Erie, picking up moisture en-
route, and precipitating It when the air rises along the front of the
hills on the southeastern shore. Snowfall is greater in the eastern
14
-------
20
ANNUAL AIR TEMPERATURE CURVES FOR
TOLEDO, PUT-IN-BAY AND BUFFALO
FIGURE 8
15
-------
HI
I
JAN. FEB. MAR APR. MAY JUN. JUL. AUG. SEP. OCT. NOV. DEC.
CO
UJ
JAN. FEB. MAR. APR. MAY JUN. JUL. AUG SEP. OCT. NOV. DEC.
I
u
JAN. FEB MAR. APR. MAY JUN. JUL. AUG. SEP. OCT. NOV. DEC.
JftN. FEB. MAR APR. MAY JUN. JUL. AUG. SEP. OCT. NOV. DEC.
AVERAGE MONTHLY PRECIPITATION AT LAND STATIONS
LAKE ERIE BASIN
16
FIGURE 9
-------
A V
NOTE - ISOHYET INTERVAL
ONE INCH
SCALE IN MILES
•K=BHE=
10 0 IO 20 30 4O 50
ANNUAL PRECIPITATION
LAKE ERIE BASIN
-------
part of the basin with Buffalo having an annual average snowfall of
72 Inches, as compared to less than 36 Inches for Toledo.
Southwesterly winds prevail over Lake Erie (Figure II) In all
months of the year, a characteristic common to the northern hemis-
phere temperate region. However, In fall and winter, northwesterly
winds occur frequently, reaching high velocities (40-50 mph) In
storms. In spring the same Is true of northeasterly winds except
that velocities (30-40 mph) are usually lower.
The percent of possible sunshine Is greatest In midsummer and
least in winter, Figure 12, although precipitation might indicate
otherwise. Less sunshine in winter Is due to the cloud-producing
effects of the lake. December and January ordinarily have less
than 40 percent of possible sunshine, while June and July average
more than 70 percent at most stations. The percentage over the lake
proper In summer is even greater.
Lake Erie has a marked moderating effect on the climate of the
basin, especially for a few miles inland from the shore. This Is
demonstrated by the length of the frost-free season - near shore It
is greater than 200 days, while only a few miles inland it is as
much as 30 days less. This longer frost-free season Is due to a
warming effect from the lake water. During the late fall and early
winter the lake water Is still relatively warm and delays the first
kllling frost.
18
-------
VELOCITY IN MILES PER HOUR
0 le 12
-I31o 24
25 and ovtr
"•'"I / /
looyp-X /
Ooyt
~ Dove
LEGEND
> INDICATES WIND DURATION IN PERCENT OF TIME.
•INDICATES WIND MOVEMENT IN PERCENT OF TOTAL.
NOTES:
Figure* at the end of ban indicate average yearly percentage of
Wind data from log* of the U. S. Coait Guard, Cleveland, Ohio.
WIND DIAGRAM FOR CLEVELAND, OHIO
19
FIGURE II
-------
80
20
10
0
o
cc
[777 TOLEDO
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JAN. FEB. MAR. APR. MAY JUN. JUL. AUG. SEP. OCT. NOV. DEC.
JAN. FEB. MAR. APR. MAY JUN. JUL. AUG. SEP. OCT NOV. DEC.
JAN. FEB. MAR. APR. MAY JUN. JUL. AUG. SEP. OCT. NOV. DEC.
MONTHLY PERCENT OF POSSIBLE SUNSHINE 1965
20
FIGURE 12
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CHAPTER 2
LAKE ERIE PHYSICAL CHARACTERISTICS
LAKE BOTTOM
Each of the three basins of Lake Erie contain unique physical
features. Because of this, each basin will be described separately
in some detail. Much of the description is taken from U. S. Lake
Survey and Ohio Division of Geological Survey publications.
WESTERN BASIN
The western basin of Lake Erie is that part of the lake west of
a line from Point Pelee through Kelleys Island to Marblehead, Ohio
(Figure I). Its long orientation is west-northwest, at an angle to
the main east-northeast orientation of Lake Erie. The basin averages
24.5 feet in depth and covers an area of approximately 1,200 square
miles. On its western and southern sides the bottom slopes gently
from shore out to the 24-foot depth, five to ten miles offshore. On
the north side of the basin the nearshore slope is steeper, the 24-
foot depth being only one-half to two miles offshore (Figure 5).
Beyond the 24-foot depth the bottom is very flat, reaching a maximum
depth of only about 35 feet west of the Bass Islands. The flat bot-
tom is generally mud, interrupted locally by small reefs and islands
of rock, such as Niagara Reef, West Sister, and Middle Sister Islands
(Figure I).
The inter-island bottom, also mud, has considerably more relief,
but much of it, too, is very flat. Depths are generally In the same
range as those west of the islands. Within the more restricted
channels, depths are considerably greater, due to current scour. The
deepest of these are south of South Bass Island at 63 feet and north
of Kelleys Island at 52 feet.
Reefs of bedrock are common around the Islands. They generally
have rough surfaces and steep slopes and rise to near or above lake
level. Most of the rock exposures lie in two bands, one' from Marble-
head through Pelee Island, and the other from Catawba through the
Bass Islands. Bedrock under the basin is fairly rough and in places
is 80 feet or more beneath the lake bottom (Hartley, 1961). These
depressions are filled with lake sediments.
Hard clay bottom is found in a narrow strip along the south shore
and In a broader band near the northeastern shore of the western basin
(Verber, 1957).
21
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Sand and gravel are not abundant in western Lake Erie. Most of
that which exists is found on beaches along the mainland shores, in
a relatively large area off Locust Point, Ohio, across the mouth of
Maumee Bay, and in the northern half of the eastern island chain
(Figure 6).
Beach, bank, and nearshore bottom erosion is prevalent and in
many places is a very serious problem especially in the Toledo area.
The shore banks around the western basin are mainly clay. Their
height is less than 10 feet above lake level on the south shore.
Dikes and swampjand are common. On the north shore the banks rise
to 30 feet or more above the lake. Rock bluffs, up to 30 feet high,
are found on the islands and the Catawba and Marblehead peninsulas.
CENTRAL BASIN
The central basin of Lake Erie extends from the islands eastward
to the sand and gravel bar crossing the lake between Erie, Pennsyl-
vania and Long Point, Ontario (Figures I and 6). The top of the bar
is 40 to 50 feet below water level. The central basin has an area
of about 6,300 square miles, an average depth of 60 feet, and a max-
imum depth of 80 feet. Approximately 75 percent of the central basin
is between 60 and 80 feet deep.
The bottom of central Lake Erie is extremely flat over most of
its area (Figure 5). The only relief features of any consequence are
the shoreward-rising slopes of sand, gravel, and rock, and a low wide
bar extending south-southeastward from Point Pelee, Ontario to near
Lorain, Ohio. This bar is two to six miles wide and rises 15, to 20
feet above the general lake bottom. It separates a small, triangle-
shaped, fI at-bottomed basin with 40 to 50-foot depths from the main
part of the central basin to the east. This small basin and the main
basin have mud bottoms and are connected by a broad channel near the
Ohio shore.
The mud, which covers more than two-thirds of the central Lake
Erie bottom is generally dark gray in color and contains very little
coarse material. In mid-lake it is similar In physical appearance
for several feet downward from the surface (Hartley, 1961).
Sand and gravel are found on the bottom in a strip of varying
width along the north and south shores of the basin. It reaches its
greatest width of five miles or more between Cleveland and Fairport,
Ohio.
Limestone and dolomite bedrock are found on the bottom at the
extreme western end of the basin. Shale is exposed as a narrow strip
22
-------
discontinuously from Vermilion eastward along and very near the south
shore. Otherwise bedrock does not reach the lake bottom surface in
the central basin. At some places it is known to be more than 100
feet under the lake bottom.
Natural beaches are generally narrow to nonexistent along the
south shore of central Lake Erie and along most of the north shore.
The Cedar Point spit on the south shore and the spits at Pelee Point
and Pointe Aux Pins on the north shore are exceptions. Harbor struc-
tures, such as those at Huron, Fairport, Ashtabula, and Conneaut on
the south shore have created exceptional artificial beaches but have
caused shore erosion problems on the down-drift sides (Hartley, 1964).
The north and south shores of the central basin are generally
characterized by eroding banks of glacial till and lake-deposited
silt and clay. On the south shore the banks rise in height from less
than 30 feet near the west end to more than 70 feet at the east end
of the basin. On the north shore they rise similarly to more than
100 feet at the east end. Rock bluffs are limited to shore stretches
between Vermilion and Cleveland, Ohio. Rapid erosion of the shore
banks has contributed a great amount of sediment to the central basin.
Rivers and streams emptying into the central basin are small and
ordinarily provide an insignificant amount to the lake's water supply.
In the past, however, they have contributed a very large amount to
lake sediments.
The water of the central basin of Lake Erie is generally less
turbid than that of the western basin because the basin Is larger and
deeper, and streams do not carry great loads of sediment. The western
end of Lake Erie acts as a settling basin for most of the water supply
to the central basin.
EASTERN BASIN
The eastern basin Is that part of Lake Erie lying east of the bar
between Erie, Pennsylvania and Long Point, Ontario (Figure I and
Figure 5). It has an area of approximately 2,400 square miles and an
average depth of about 80 feet. It Is by far the deepest part of Lake
Erie with a maximum depth of 216 feet (U. S. Lake Survey Chart No. 3).
The bottom of the eastern basin Is relatively smooth but not flat
like the western and central basins. Most of the bottom is mud (Figure
6) and is generally lighter-colored and more compact than that in the
other two basins.
The eastern basin is bounded on the west and south and around the
east end by relatively steep slopes on sand and gravel. Rock is ex-
posed in a strip along both the north and south shores. As In most of
23
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Lake Erie the beaches are generally narrow or absent with two notable
exceptions. Presque Isle, Pennsylvania and the massive spit at Long
Point, Ontario, are large natural accumulations of sand, together ac-
counting for a large part of the beach sand in Lake Erie. Both of
these spits have enclosed rather large shallow bays.
Rocky bluffs are found along most of the shore of the eastern
basin with shale on the south shore and limestone on the north shore.
Rivers and streams entering the eastern basin are unimportant to
the water supply of the lake even though the Grand River in Ontario
supplies more than 2,000 cfs. The streams have been relatively small
contributors of sediments.
The water in the eastern basin is clear compared to the remainder
of Lake Erie. The shores are very resistant to erosion, sediment-
laden streams are virtually nonexistent, and the water is much deeper,
thereby minimizing wave agitation of bottom sediments. Also the cen-
tral basin is a settling basin for nearly all of the eastern basin's
water supply.
LAKE WATER
TRIBUTARY SUPPLY
LAKE HURON OUTFLOW
Lake Erie receives 80 percent of its water supply from upper lake
drainage. The large volume and high quality of this inflow havsa great
dilutional effect on Lake Erie, and any significant decrease in either
the volume or quality could be disastrous.
The Lake Huron outflow is the only source of water to Lake Erie
which is not controlled by precipitation over the Erie basin, being
controlled instead by precipitation in the basins of Lakes Superior,
Michigan, and Huron. Diversion out of Lake Michigan at Chicago, diver-
sion into Lake Superior, and flow regulation from Lake Superior affect
to a minor degree the Lake Huron discharge.
According to U. S. Lake Survey measurements, the Lake Huron out-
flow has averaged 187,450 cfs between I860 and the present. The
monthly averages have ranged from a high of 242,000 cfs In June 1896
to a low of 99,000 cfs in February 1942. Lowest flows ordinarily occur
in February (average 159,000 cfs) and the highest In July or August
(average 199,000 cfs), Figure 13. Other tributary runoff to Lake Erie
Is generally at a minimum during periods of high Lake Huron outflow.
Though the variation in flow volume from Lake Huron Is great, it
Is still the most uniform of the tributary drainages to Lake Erie.
24
-------
3)
m
X
ONTARIO
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-c 'i^«1D .I!F'»•:»Vjlj' •'=':.' V,jT'W. v.f.••.••,C?1-
Ry
NOTE: FLOW SCALE IN THOUSANDS
OF CUBIC FEET PER SECOND
MONTHLY FLOWS
SELECTED TRIBUTARIES
TO LAKE ERIE
-------
This is because of the regulating effect of the upper lakes storage.
MAJOR TRIBUTARIES
Only four Lake Erie tributaries beside the Lake Huron outflow,
exceed an average discharge of 1,000 cfs to Lake Erie. These are
the Maumee and Sandusky Rivers in Ohio and the Grand and Thames Rivers
in Ontario, Table 2. The Thames discharges to Lake St. Clair. These
rivers supply a total flow of approximately 10,000 cfs - the Maumee
River accounting for about one-half of this.
All four major tributaries drain land which is largely agricultural
and rather intensively cultivated. Precipitation on the Grand and
Thames basins is slightly higher than on the Maumee and Sandusky basins,
Figure 10. However, the percentage of precipitation appearing as un-
off is considerably greater in the Canadian basins, 36 percent compared
to 28 percent, the difference being accounted for in topography and
soil characteristics. The average water yield per square mile is just
over 0.7 cfs in the Maumee and Sandusky River basins, and over 0.9 cfs
for the Grand and Thames River basins.
Drough flows are very low for the Maumee and Sandusky Rivers. Seven-
day, 10-year recurrence low flows are estimated at 86 cfs and 14 cfs,
respectively, at the mouths of these streams. Drought flows of the Grand
and Thames Rivers appear to be much higher per unit area, indicating
ground water is significant in contributing to those flows. The low
water contribution in the Maumee and Sandusky basins can be attributed to
the relatively flat topography and to the dense and relatively impermeable
clay soiIs.
In many upstream locations there is virtually no flow during the
critical low flow, high temperature, high evaporation months of July
through October. Flow is also low and time of travel is long near most N
stream mouths. For example; in the lower several miles of the Maumee
River the flow volume is low, the cross-sectional area of the river is
large, and the gradient is virtually nil. This results in a very long
time for water to travel through the Toledo area - frequently a month or
more. A similar situation, but less severe, exists in the lower several
miles of the Sandusky River. At other localities in both basins, time
of travel is lengthened by pooling effects of both natural and artificial
features.
MINOR TRIBUTARIES
All other tributaries to Lake Erie contribute only minor water flow
to the lake. The more important of the minor tributaries, with pertinent
hydrologic data, are listed in Table 2. These streams have average flows
between 200 and 900 cfs.
26
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RUNOFF STATISTICS FOR TRIBUTARIES OF THE LAKE ERIE BASIN
N)
Stream
St. Clair River
(Lake Huron outflow)
Clinton River
Rouge River
Huron River (Mich.)
Raisin River
Maumee River
Portage River
Sandusky River
Huron River (Ohio)
Vermi 1 ion River
Black River
Rocky River
Cuyahoga River
Chagrin River
Grand River (Ohio)
Ashtabula River
Conneaut Creek
Cattaraugus Creek
Buffalo River
Grand River (Ont.)
Big Creek
Otter Creek
Kettle Creek
Thames River
Drainage Period of
Area Record
(mi . ) (years)
740
467
890
1,125
6,586
587
1,421
403
272
467
294
813
267
712
137
191
436
565
2,614
281
316
200±
2,000*
106
31
35
19
28
40
33
39
15
15
21
34
34
36
40
34
28
25
25
24
7
13
-
7
Max. Flow
(cfs)
-
21,200
13,000
5,840
12,900
94,000
1 1 ,500
28,000
25,800
20,500
24,000
21,400
24,800
28,000
21,100
1 1 ,600
17,000
35,900
35,000
47,800
3,060
4,140
2,400*
38,500f
M i n . F 1 ow
(cfs)
1.8
4.0
2.0
20.0
0.3
4.4
2.2
0.0
0.0
0.2
14.0
3.0
0.0
0.0
0.2
6.0
2.8
65.0
54.0
10.8
It
58
Average Average
Flow Yield
(cfs) (cfs/mi.2)
187,450
470
235
556
714
4,794
403
1,021
296
228
302
273
850
333
784
169
257
705
784
2,405
256
312
1851
1,840
.635
.503
.625
.635
.728
.687
.719
.732
.840
.647
.929
.045
.247
.101
.234
.346
.617
.388
.920
.911
.987
.902
.902
7-Day Low
Flow, 10 yr. Runoff
Recurrence Precip
(cfs/mi .2) (cfs at mouth)* %
.052
.033
.044
.027
.013
.001
.010
.004
.051
.003
.000
.006
.129
24
7.8
24
19.3
86
0.6
14.0
5. If
0.6±
0.5f
1.0
1 12
4.0
2.2
0.0
1.2
55
28
22
27
28
29
28
28
28
33
29
35
39
46
40
45
49
58
55
36
35
37
34
36
All except Cuyahoga River and Cattaraugus Creek do not include all flows from STPs below or above gaging station,
-------
The Portage and Raisin Rivers are similar in most characteris-
tics to the Sandusky and Maumee Rivers except for much lower average
flows. The minor tributaries in Ontario are also similar to the
Grand and Thames Rivers.
The Huron River in Ohio is similar to the Sandusky in flow char-
acteristics except that it has a higher base flow per unit area and
its basin is partly in higher land, approaching the hilly section of
the lake watershed. Ground water appears to be more important as a
part of this stream supply.
From the Huron (Ohio) basin eastward along the Ohio shore, pre-
cipitation generally increases (Figure 10) and a greater share of
the precipitation reaches the lake as runoff (Table 2). Drought flows
are, however, widely variable and again reflect the ability of ground
water to support stream flow. In addition, these streams have higher
gradients and runoff is much faster. The upstream reaches of most of
these streams may be completely dry during much of the summer-fall
low flow period.
All of the streams along the south shore become sluggish in the
lower few miles, a characteristic accentuated by the harbor enlarge-
ment of stream cross-section. The time-of-travel in the dredged
channels is often a week or more. The 7-day tow flow volume for the
Cuyahoga River (Table ?) is relatively high, due to impoundments and
large waste water discharges to the river, rather than ground water
supply.
The important minor tributaries in Michigan are the Clinton,
Rouge, Huron, and Raisin Rivers. The Clinton discharges into Lake
St. Clair, the Rouge into the Detroit River, and the Huron and Raisin
directly into Lake Erie. All are highly polluted streams, passing
through the urbanized and industrialized area of southeast Michigan.
They all drain relatively flat land, and not only is precipitation
the lowest, but the proportion of runoff to precipitation is also the
lowest in the Lake Erie basin. However, their drought flows are higher
than average per unit area, indicating that perhaps there is signifi-
cant release of ground water or surface storage. The Clinton and Huron
are fed by several small natural lakes, but the Rouge and Raisin are
not. There are several low-head dams near the mouth of the Raisin
River.
The lower few miles of Michigan tributaries are dredged, sluggish,
and lake-affected. Time of travel is long and especially long in sum-
mer and fall. The streams are similar to the south shore minor trib-
utaries mentioned above in having long time-of-travel characteristics.
28
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GROUND WATER
Ground water in the soil and rocks surrounding Lake Erie varies
widely in both quantity and quality, Figures 14 and 15. Quantity
alone is not a good indicator of supply capacity because of differ-
ences in retention characteristics of the soil. For example, glacial
clays may contain much water, with the water table very near the
surface, but their low permeability makes them a poor source of water
supply.
Although characteristics vary, the basin as a whole is a ,rather
poor producer of ground water. Tills, lake clays, and shales which
are prevalent over much of the basin are not good aquifers - producers
of water. Where they do produce significant quantities, it is not
uncommon for the water to have a high sulfur content. Locally high
quantities of water may be available where deep sandy soils occur as
the result of beach-building or glacial outwash, or in old valleys
filled with gravelly soils. Porous limestones are also locally good
aquifers as are sandstones, but all of these sources, except for sand-
stones, may contain sulfur.
LAKE UATr.B BALANCE
The water balance must be considered in the hydrology of Lake Erie.
Because of a lack of precise quantitative information on some of the
factors any proposed balance is an estimate and subject to criticism.
The factors can be formulated, for a given period, in the equation:
P + R + U+ I - t D - E - 0 = AS
where:
P = precipitation directly on the lake's surface
R = runoff from the lake's land drainage area
U = ground water - considered plus in the aggregate
I = inflow from lake above
0 = outflow from lake
D = diversion; pI us if into lake, mi nus if out of lake
E = evaporation from the lake's surface
AS = change in amount of water store in the lake; pI us
if supplies exceed removal,, minus if removals
exceed suppIies
Precipitation (P) on the lake's surface is difficult to measure
and must be interpolated from perimeter land precipitation measurements.
It is generally considered that over-lake precipitation is less than that
over land and precipitation on the lake's surface approximately equals
evaporation in the long run. In the balance shown here, the precipita-
tion (29 inches annually) at Put-in-Bay has been used.
29
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GROUND WATER
AVAILABILITY
LAKE ERIE BASIN
(U.S. PORTION)
-------
o
C
3)
m
o?
10 zo so *o ao
CONTAMINATED
GROUND WATER
QUALITY
LAKE ERIE BASIN
(U. S. PORTION)
-------
Runoff (R) is measurable to a degree by stream gaging but is
highly variable due to areal differences in precipitation, topog-
raphy, soil type, and vegetation. Runoff is estimated by applying
factors, derived from stream gaging, to stream drainage basin areas.
The ground water contribution (U) is virtually unknown, is not
directly measurable, and is usually considered negligible in lake
water budget computations. It is regarded as positive in the equation,
although it may actually be a negative factor.
Inflow (I) from the lake above and natural outflow (0) are not
difficult to measure, and the U. S. Lake Survey has done this for
more than 100 years. The measurements are considered reliable and
adequate for balance calculations.
Diversion (D) in Lake Erie is of two kinds, diversion out of the
basin and consumptive, or transient, use within the basin. Water is
diverted out of the basin as a supply for the We 11 and Ship Canal. In
the balance, the U. S. Lake Survey estimate of 7,000 cfs annually has
been used. Within the basin, water is diverted for man's use out of
and back into the lake. A small portion is consumed and not returned
in this process. The total consumption is measurable, but in the
total lake water balance it is considered negligible. The diversion
factor in Lake Erie is always minus. Diversion to the lake from out-
side the basin is nonexistent.
Evaporation (E) is a net loss from the lake. Its measurement
with unquestioned accuracy is not possible with present methods. It
is usually calculated by solving the water budget equation for E.
This calculation obviously depends upon the accuracy of the other
factors. In the balance presented here it has been calculated to be
34.3 inches per year.
Changes in storage (AS) are easily measured by recording water
levels over the period. Changes in water levels at a particular site
induced by factors other than those in the equation; i.e., wind set-
up, seiches, and tides, are not considered as changes in storage.
The long-term change in storage is assumed to be nil for Lake Erie.
A Lake Erie water budget study by Derecki (1964) has been used
to determine monthly percentages of precipitation and runoff. Annual
runoff was calculated from U. S. Geological Survey and Canadian Water
Resources Branch surface water gaging data. Inflow and outflow were
calculated from U. S. Lake Survey reported measurements. Changes in
storage were calculated from average monthly water levels as reported
by the U. S. Lake Survey. Evaporation was obtained by solving the
equation for it.
The annual supply sources for the Lake Erie water balance are
32
-------
detailed in Table 3. The relative importance of each of the tribu-
taries to the Lake Erie water supply is graphically shown in Figure
16.
In the water balance table, Table 4, cubic feet per second (cfs)
has been used for the unit of volume. The values shown can be con-
verted to inches of water in Lake Erie by dividing by 735.
A study of the water balance indicates the following significant
factors: (I) annual evaporation nearly equals runoff to the lake,
(2) evaporation exceeds precipitation, (3) change In storage over a
long period is not significant, and (4) evaporation is greatest in
late winter and in autumn.
Calculations show that 80 percent of the net basin supply Is
derived from Lake Huron Inflow via the Detroit River, 9 percent Is
precipitation upon the lake's surface, and only II percent is con-
tributed by basin runoff. Loss of water from Lake Erie consists of
86 percent outflow, 3 percent diversion, and II percent evaporation.
LAKE LEVELS
Lake levels vary over short periods of time due to such phenomena
as wind set-up, seiches, and lunar and solar tides. But, lake levels
show changes in storage only when averaged over long periods of time.
Changes in storage for Lake Erie reflect precipitation fluctuations
over it and the upper Great Lakes. From I860 (the beginning of U. S.
Lake Survey records) to the present, change between minimum and max-
imum levels for Lake Erie has been 5.3 feet - almost nine percent of
the lake's average depth.
Short-period fluctuations mentioned above are manifested, not by
changes in volume, but by changes in the shape of the water mass.
Tidal effects are negligible, but wind set-up and seiches may be quite
pronounced, especially at the ends of the lake.
A wind set-up is the result of wind drag across the lake. Water
is pushed toward the leeward shore in greater quantity than can be
simultaneously returned in subsurface flow. The water rises at the
leeward side and Is depressed at the windward side. Lake Erie is par-
ticularly susceptible to high amplitude wind set-ups because of its
shallowness and the orientation of its long axis parallel to predom-
inant southwest and northeast winds. Amplitudes in excess of 13 feet
have been recorded simultaneously between the ends of the lake during
storms, with little change in level near the center of the lake.
In general the highest amplitude wind set-ups occur in spring
and fall with northeasterly and westerly winds, respectively. Flooding
and erosion are severe when high amplitude wind set-ups occur, and are
33
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TABLE 3
WATER SUPPLY TO LAKE ERIE
Source
Western Basin
St. Clair River (Lake Huron, outflow)
Black, Pine, Belle Rivers
Cl inton River
Rouge River
Thames River
Miscellaneous Runoff
Precipitation (Lake St. Clair)
Subtotal (Detroit River)
Huron River (Michigan
Raisin River
Maumee River
Portage River
Miscellaneous Runoff
Precipitation (Western Basin)
Subtotal
Total Western Basin
Evaporation
Central Basin
Western Basin
Sandusky River
Huron River (Ohio)
Vermi 1 ion River
Black River
Rocky River
Cuyahoga River
Chagrin River
Grand River (Ohio)
Ashtabula River
Conneaut Creek
Otter Creek
Kettle Creek
Miscellaneous Runoff
Precipitation (Central Basin)
Total Central Basin
Evaporation
Supply
(cfs)
187,450
688
470
235
1,840
1,799
919
193,401
556
714
4,794
403
1,271
2,564
10,302
203,703
-3,042
200,661
1,021
296
228
302
273
850
333
784
169
257
312
185
4,410
13,508
220,589
-16,023
Percent of
Total
Lake Supply
79,774
.293
.200
.100
.783
.766
.391
82.307
.237
.304
2.040
.172
.541
1.091
4.384
86.691
-1.295
85 . 396
.435
.126
.097
.129
.1 16
.362
.142
.334
.072
.109
.133
.079
.600
5.749
93.877
-6.819
Percent of
Basin
Supply
92.921
.338
.231
.115
.903
.883
.451
94.943
.273
.351
2.353
.198
.624
1.259
5.057
100.000
-1.493
90.966
.463
.134
.103
.137
.124
.385
.151
.355
.077
.117
.141
.084
.639
6.124
100.000
-7.264
34
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WATER SUPPLY TO LAKE ERIE (Concluded)
Source
Eastern Basin
Central Basin
Cattaraugus Creek
Buffalo River
Grand River (Ontario)
Big Creek
Miscellaneous Runoff
Precipitation (Eastern Basin)
Total Eastern Basin
Evaporation
Lake Outflow
Supply
(cfs)
204,566
705
784
2,405
256
2,023
5 , 1 72
215,91 1
-6,135
209,776
Percent of
Total
Lake Supply
87.058
.300 '
.334
1.024
.108
.861
2.201
91.886
-2.61 1
89.275
Percent of
Basin
Supply
94.746
.327
.363
I.I 14
.119
.937
2.395
100.000
-2.841
TABLE 4
WATER BALANCE IN LAKE ERIE
(cfs)
P + R
D -
AS
Annual
Average
22,000 25,960- 187,000 203,000 7,000 25,000 0
35
-------
o
3J
m
55
CONNEAUT CR.
169
ASHTABULA R.
1021 296"
SANDUSKY R. HURON*
BLACK R.
zn
'CUYAHOGA R.
SCALE IN MILES
228
VERMILION R.
ROCKY R.
20 SO
CATTARAUGUS CR.
LEGEND
512 - AVERAGE CFS
NOTE: SIZE OF ARROWS ARE
PROPORTIONAL TO THE
AMOUNT OF FLOW:
TRIBUTARY INPUTS
LAKE ERIE BASIN
-------
even more severe during periods of high lake levels (times of In-
creased storage), especially in the western basin where the shores
are low.
A wind set-up, which generally lasts less than 24 hours, forms
a standing wave which will persist when the wind subsides. The
standing wave, called a seiche, will persist and gradually diminish
until another wind set-up. A typical example of wind set-ups and
following seiches are shown In Figure 17 for simultaneous lake level
readings at five different stations. Influencing winds and baro-
metric pressure are also shown.
The primary seiche period of Lake Erie is 14.2 hours, that of
the uninodal oscillation between the ends of the lake. This seiche
period is nearly always apparent on water level records from west of
Cleveland and east of Ashtabula, Ohio. Any number of seiches can
exist together and each can have several nodes, giving rise to seem-
ingly unintelligible water level records. Even the harbors, where
most recorders are located, can have short-period seiches called
surges or harbor resonance.
The shortest period oscillations of water level are simple sur-
face waves caused by wind. In Lake Erie these waves ordinarily have
periods of less than six seconds. Wave heights are limited by lake
depths and fetch or length of water surface over which the wind blows.
In general, maximum possible wave heights Increase from west to east
in Lake Erie. Waves over six feet in height are rare In the western
basin, while similar conditions may produce wave heights of 15 to 20
feet in the eastern basin. Violence of waves in Lake Erie is caused
by short wave lengths and the resulting wave steepness.
Waves are destructive to shore property in Lake Erie. The shore-
line of Ohio is particularly susceptible because beaches are narrow
and most banks are clay. Waves, of course, are more destructive
during high lake stages and in areas of simultaneous wind set-up. In
the western basin, wave action is believed to be the principal agent
in maintaining the relatively high turbidity of the shallow water by
stirring up bottom sediments. Table 5 lists some of the effects and
causes of various kinds of water level disturbances.
37
-------
570 FT.
566 MONROE, MICH
570 FT.
568 MARBLEHEAD, 0
570 FT.
568 CLEVELAND, 0.
570 FT.
566 BARCELONA, N.Y,
570 FT.
568 BUFFALO, N.Y.
SIMULTANEOUS LAKE ERIE LEVELS
20MPM
WIND AT BUFFALO AIRPORT
30.00 IN.
29.50 IN
29.0O IN.
BAROMETRIC PRESSURE AT BUFFALO
9/19/641 9/20 I 9/21 I 9/22 I 9/23 I 9/24 I 9/2S I 9/26 I 9/27 I 9/28 ' 9/29 ' 9/301
LAKE LEVELS AND WINDS
SEPTEMBER, 1964
38
FIGURE 17
-------
TABLE 5
CAUSES AND EFFECTS OF WATER LEVEL CHANGES
Water Level Effects
Disturbance Cause Navigation Shore Property Pollution
Stage Precipitation High - good High - adverse None
Inflow Low - adverse Low - good
Wind Set-up Wind Same as above Same as above Lee - con-
centration
Windward -
dispersal
Seiche Wind Set-up Same as stage Same as above Dispersal
Tide Moon - Sun None None None
Waves Wind High - adverse Adverse Dispersion
Low - none and long-
shore trans-
port
LAKE WATER TEMPERATURES
Lake Erie is the warmest of the Great Lakes. Mid-lake surface
water reaches an average maximum of about 75°F (24°C) usually in the
first half of August (Figure 18). Occasionally the summer temperature
in mid-lake surface water rises above 80°F. Nearshore water normally
reaches a maximum along the south shore of 80°F or more.
The most important characteristic of lake temperatures In summer
is temperature stratification. If the water is deep enough upper warm
water (epilimnion) becomes separated from bottom cold water (hypolimnlon),
Figure 19. The transition zone between these layers is called the
thermocline.
Surface water temperatures throughout much of the ice-free seasons
reflect water depth with temperature decreasing toward deep water
(Rodgers, 1965). This inverse relationship changes to a direct re-
lationship in the fall and early winter.
Water temperature is, of course, changed by variations In air
39
-------
YEARLY WATER TEMPERATURE CURVE, PUT-IN-BAY, OHIO
AND AIR TEMPERATURE AT TOLEDO, OHIO
JAN | FEB | MAR | APR | MAY , JUN | JUL , AUG , SEP , OCT , NOV | DEC
Av. Water Temp.
Water Ttmp. Range
1918-1965
Av. Air Temp.
-30-
ui
uj
Q:
O
UJ
55 r
54
53
52
51
50
49
1920
1930
1940
1950
I960
ANNUAL AVERAGE WATER TEMPERATURES AT
PUT-IN-BAY, OHIO AND ERIE, PENNSYLVANIA 1918-1965
(FROM OHIO DIV. OF WILDLIFE AND U.S. BUR. COMM. FISH. DATA)
40
FIGURE 18
-------
u
UJ
60
ir
UJ
80
100
30
o
Q.
40
EASTERN
BASIN
u
/ I
Q.
UJ
\
CENTRAL J
BASIN
50 60
TEMPERATURE IN °F
70
80
TYPICAL SUMMER DEPTH
VS.
TEMPERATURE IN LAKE ERIE
FIGURE 19
-------
temperature, and the relationship is direct. Slight modifications
to the relationship are caused by the amount of sunshine, strength
and duration of winds, and by humidity.
Lake Erie water temperature, in the western basin, falls to 3S°F
normally about the middle of December and remains at that level until
the middle of March. Usually the western basin freezes over com-
pletely. The surface water in the remainder of Lake Erie is at 33°F
for about the same length of time, but normally about two weeks later,
or from the first of January until the first of April. The central
and eastern basins usually do not freeze over completely, but often
are almost entirely covered by floe ice.
Just after the ice breakup in spring, the ice drifts eastward
and accumulates in the eastern basin. Occasionally ice jams signifi-
cantly impede the flow of the Niagara River. Ice normally disappears
in Lake Erie by May I.
Windrows of ice are common near the shore and on reefs. Wind
exerts a significant force on the ice and can cause breakup without
thawing conditions. Occasionally with onshore winds along the south
shore of the western basin, ice piles up on shore, scouring the bot-
tom as it moves in. At times it piles to heights of 30 feet or more
and destroys buildings and other structures along the shore.
Spring ice breakup in the western basin, after it begins, occurs
rapidly, going from complete ice cover to open water in a few days.
Warming of the lake water usually begins immediately after the
ice breakup. The rate of warming is remarkably uniform until about
the first of July when the maximum temperature is being approached
and the rate flattens out.
A comparison of surface water temperature curves and air tempera-
ture curves (Figure 18) shows that during the ice-free season there is
a definite and expected parallelism. The water temperature curve lags
the air temperature by 9 to 12 days in spring and by 12 to 15 days in
fall. The greatest departure is in midsummer when the air temperature
decline begins about three weeks before the water temperature decline.
Figure 18 also shows temperature data from about 45 years of
record maintained at the Ohio State Fish Hatchery at Put-in-Bay (Ohio
Division of Wildlife, 1961). Mean monthly water temperatures are shown.
Also annual average temperatures are shown for the period for Put-in-Bay
and for the Erie, Pennsylvania water intake as compiled by the U. S.
Bureau of Commercial Fisheries. The Erie record shows a trend toward
higher temperatures during the period and the Put-in-Bay record shows
a trend toward lower temperatures. Trends appear insignificant, however,
especially since accuracy of measurement is at least questionable.
42
-------
Temperature of the surface water of Lake Erie is of less sig-
nificance than the three-dimensional temperature structure. This
structure influences circulation of the water and its dissolved and
suspended substances, and also has a marked influence on the chemical
and biochemical activity at the bottom sediment-water Interface.
WESTERN BASIN
Figures 20a, b, and c diagrammatical Iy show the development of
seasonal temperature structure in each of Lake Erie's three basins.
Figure 20a for the western basin shows the simplest thermal structure.
In spring the temperature of the entire water column rises gradually.
In summer the water is usually nearly isothermal vertically. A trans-
ient secondary thermocline of little importance can be formed near the
surface during hot calm periods. During periods of normal winds and
above average air temperatures, a thermocline can be formed near the
bottom, simultaneously with the development of a secondary thermocline
in the central basin. This thermocline is accompanied by rapid de-
oxygenation of the bottom water due to oxygen-consuming material and
the inability of oxygen to penetrate the thermocline.
Storms equalize temperatures in the western basin top to bottom.
In August when cooling begins, the western basin water is vertically
isothermal and remains so as it cools in fall and winter.
CENTRAL BASIN
The central basin water, Figure 20b, has a simple fall, winter,
and spring thermal structure. In summer the structure is more complex
than in the western basin. The temperature at the beginning of the
first summer weather cycle in early June is approximately the temper-
ature of the following hypolimnion.
The stable thermocline and hypolimnion are formed relatively sud-
denly during the first storm ending this weather cycle. The intensity
of this storm determines the depth of the thermocline, and the thermo-
cline remains at approximately its initial elevation until the lake
begins to cool in August. The thermocline is normally tilted slightly
upward to the north. During its existence the hypolimnion loses oxygen
and may lose it all because it does not mix with the water above, and
it contains oxidizable organic matter.
Summer weather cycles cause the epilimnion to alternate in struc-
ture between one layer and three layers. Storms equalize the temper-
ature of the epilimnion. During the following warming period a sec-
ondary thermocline is formed by heat input and the mixing by normal
winds to a depth of 6 or 7 meters. While this is forming the temper-
ature of the epilimnion below this temporary thermocline is not changing.
The temperature of this zone is then raised suddenly during the cycle-
ending storm when the temperature of the entire epilimnion again becomes
43
-------
LAKE ERIE -WESTERN BASIN -ANNUAL TEMPERATURE DEVELOPMENT
APR. . MAY JUN. , JUL. ! AUG. , SEP. , OCT. . NOV. , DEC. . JAN, , FEB. . MAR.
DIURNAL RISE AND FALL "-LAKE SURFACE-'
CAUSED BY DAILY RISE AND FALL OF AIR TEMPERATURE
J
C
! :
-> 0
o
' to
i- GRADUAL RISE,
D FREQUENT SMALL
7 SHARP INCREASES
c
L
J
3
INTERMITTENT THERMOCLINE
RESULT OF HOT, CALM WEATHER
GRADUAL RISE
AND OCCASIONAL
SHARP INCREASES
CAUSED BY WIND
MIXING WITH ABOVE
o
n
I ISOTHERMAL
" GRADUAL COOLING
en
I
INTERMITTENT THERMOCLiNE
CAUSED BY STEADY NORMAL WIND AND HIGH
AIR TEMPERATURE; DE-OXYGENATION MORE
RAPID AND SEVERE WITH EACH OCCURRENCE. LAKE BOTTOM
SURFACE FREEZES
*
ISOTHERMAL I
CONSTANT 33°F u
U
GRADUAL RISE
LAKE ERIE-CENTRAL BASIN-ANNUAL TEMPERATURE DEVELOPMENT
APR. , MAY JUN. , JUL. AUG. , SEP. OCT. , NOV. , DEC. JAN. , FEB. , MAR.
DIURNAL RISE AND FALL
CAUSED BY DAILY RISE AND FALL OF AIR TEMPERATURE
INTERMIT
RESULT!
J
c
D
£
§ *
Ift
Z GRADUAL RISE,
3 FREQUENT SMALL
o SHARP INCREASES
- CAUSED BY NORMAL
_ SPRING WEATHER
L
J
TENT THERMOCLINE
OF WARM, CALM WEATHER
GRADUAL RISE,
OCCASIONAL
SHARP DECLINES
CAUSED BY NORMAL
WEATHER
INTERMITTENT
THERMOCLINE
CAUSED BY NORMAL
WEATHER
CONSTANT,
OCCASIONAL
SHARP INCREASES
CAUSED BY SUMMER
gTORMS
-H
u.
o
n
K
» ISOTHERMAL
" GRADUAL
i- COOLING
«
Ul
I
O
X
STABLE THERMOCLINE FOR^ED~-a%4,x
B_Y FIRST SUMMER WEATHER CYCLE N$fj
ISOTHERMAL-CONSTANT -TEMPERATURE^
DETERMINED BY SPRING TEMPERATURE BEFORE '
FIRST SUMMER WEATHER CYCLE. DE-OXYGENATION
GRADUAL. MAY GO TO COMPLETION.
*-LAKE IURFACE— ""
ISOTHERMAL S
DECLINES TO 5
CONSTANT
?
V
,^-LAKE BOTTOM-^
SURFACE PARTIALLY FREEZES
ISOTHERMAL
CONSTANT 33°F
LAKE ERIE - EASTERN BASIN-ANNUAL TEMPERATURE
APR.
MAY
JUN.
JUL.
AUG.
SEP.
OCT.
NOV.
DEC.
"^-LAKE SURFACE—'
DEVELOPMENT
JAN. , FEB. , MAR.
DIURNAL RISE AND FALL
CAUSED BY DAILY RISE AND FALL OF AIR TEMPERATURE
CONSTANT 33°F
SLIGHT WARMING
GRADUAL^RISE
STABLr
THERMOCLINE
ISOTHERMAL
GRADUAL COOLING
NEARLY CONSTANT-ISOTHERMAL
40-42° i
TEMPERATURE DETERMINED
: BY SPRING WEATHER;
i DE-OXYGENATION SLIGHT
POSSIBLE REVERSE
THERMOCLINE
i!
it
BOTTOM^
CONSTANT 39°F
44
FIGURE 20
-------
uniform. The density gradient at the stable thermocline is thus in-
creased. The whole process is repeated several times before August.
Figure 21 shows the summer cyclic development at station E-8 (Figure
23) in the central basin. In August the epilimn ion begins to cool
and loses its three-layer structure. The density gradient at the
thermocline decreases and the thermocline deepens, disappearing
entirely by October.
Upwelling, downwelling, and internal waves are created during
summer storms in the central basin, especially during northwesters.
The hypo limn ion slides around in the basin. This water movement
probably brings bottom sediments into suspension and this may Increase
oxygen consumption, bringing about relatively sudden oxygen depletion
in the hypo limn ion. Internal waves other than up and downwelling in
the central basin probably have amplitudes of less than five feet,
as indicated by a study in the summer of 1965. Periods range from
less than five minutes to two weeks or more, with an inertial period
near eighteen hours apparently predominant.
EASTERN BASIN
The temperature structure of the eastern basin is probably like
that of the deeper Great Lakes, Figure 20c. In winter It is nearly
isothermal and may have reverse stratification. In spring It mixes
top to bottom and is vertically isothermal. The upper waters warm
gradually and a shallow thick thermocline forms early, thinning and
deepening as summer progresses. The epilimnion is mixed more often
or more constantly than in the central basin. Figure 21 shows a
typical summer thermal development at station EI2 and EI4 (Figure 23)
in the eastern basin.
Mixing in the epilimnion of the eastern basin may be aided greatly
or perpetuated by relatively high amplitude thermoclinal waves. Sig-
nificant internal wave motion is virtually constant throughout the
summer with an inertial 17 to 18-hour period dominant. The thermocline
thins and deepens rapidly after the epilimnion begins to cool. Just
before the thermocline disappears, usually in November, it has reached
a depth of 100 feet or more. With its disappearance the hypo limn ion
zone warms somewhat, due to mixing, and then begins to cool to winter
temperatures.
NEARSHORE WATER TEMPERATURES
Temperature plays an important role in nearshore waters. The
significance Is not great in winter because the temperature is nearly
uniform throughout the lake. However, during the other three seasons
waters of different temperatures are in contact and density interfaces
are formed, inhibiting mixing processes and resulting In currents
which would not otherwise exist.
45
-------
U N
1964
9 10 II 12 13 14 19 It 17 18 19 20 21 22 2]
WATER TEMPERATURES a MILES NW OF ASHT»BUL»
(CENTRAL 60SIN)
J
WATER T6MPERATURES MILES SOUTH OF LONG POINT
(EASTERN BASIN)
|Vx..v
7
iAr
AIR TEMPERATURE CLEVELAND
12 HR. AVERAGES
I! 1111
FIGURE 21
46
-------
During the spring and summer, and strongly in the spring, a tem-
perature differential may exist between nearshore and offshore waters.
The water within a mile or so off shore is usually considerably warmer.
The greatest differential appears to exist along the south shore of
the central basin. The primary reasons for this are warm tributary
discharges and the southwest winds over the lake pushing warm surface
waters toward the right of the wind or toward the south shore. North
shore nearshore waters do not appear to be greatly warmer than mid-
lake water at any time of the year. The prevailing southwest winds
here too may be largely responsible.
There is less lateral variation in the eastern basin in water
temperatures, probably because of less tributary input and deeper
nearshore water. The warmest water there is also normally along the
south shore in spring and summer.
The nearshore temperature structure in spring and summer indicates
an eastward movement of south shore nearshore water. The physics of
the system require this movement. Current measurements at several
nearshore stations have confirmed it.
In the western basin the disruptive influences of the Detroit River
inflow, bottom topography and the islands do not allow the development
of the same nearshore thermal structure. Figure 22 shows a typical
temperature distribution in the western basin in early summer.
EFFECTS OF TEMPERATURE PHENOMENA
Temperature plays a most important role in Lake Erie processes
as does the temperature-related density stratification. Some of the
more important effects are:
I. Actual temperature controls plant and animal productivity
of the lake to some degree; in general the higher the
temperature, the greater the productivity.
2. Intermittent thermal stratification near the bottom of the
western basin leads to rapid deoxygenation of the water in
the hypo limn ion, when and where it occurs. The warmer the
hypo limn ion the more rapid the deoxygenation will be.
3. Stable summer thermal stratification in the central basin
leads to the annual deoxygenation of hypolimnetic water.
4. Thermal stratification in the eastern basin does not have
serious consequences because of the much greater thickness
and less rapid circulation of the hypolimnion.
47
-------
Or, C \
TEMPERATURE DISTRIBUTION
LAKE ERIE - WESTERN BASIN
10-FT. DEPTH 6/23/63
-------
5. Temperature Is important in controlling water movements in
nearshore areas. Density barriers may confine warmer waters
and pollution substances to the nearshore zones, especially
along the south shore, in spring and summer.
6. Temperature rises in general limit top to bottom mixing;
temperature declines favor it.
LAKE CURRENTS
Two basic types of circulation exist in Lake Erie: (I) Horizontal
motion and (2) essentially vertical motion. Each of these can be gen-
etically subdivided as follows:
Horizontal Currents Vertical Currents
(I) Lake flow-through (I) Temperature gradient (convection)
(2) Wind-driven (2) Turbidity gradient
(3) Seiche (3) Dissolved solids, gradient
(4) Inertia! (4) Convergence of horizontal currents
(5) Density (5) Divergence of horizontal currents
(6) Turbulence (6) Turbulence
Generally more energy is involved in horizontal than in vertical
currents. All currents tend to relocate and disperse suspended or
dissolved constituents. The movement may be quite different between
offshore and nearshore waters because of the effects of bottom topog-
raphy and boundary conditions.
The lake flow-through current is always a net movement eastward.
This, however, does not mean that, at all places at all times, a flow-
through component is included. It is possible that this component of
water movement is found only on one side of the lake or that it wanders
from one side to the other. Throughout the water column, it should be
essentially uni-directional, with no compensating return flow. All
other types of currents are superimposed and, except In restricted
channels, the flow-through may be completely masked.
The flow-through current of Lake Erie can be considered as the most
significant agent in distribution of dissolved substances because most
of these substances are introduced near or at the source of the flow-
through. Because of its generally very low velocity, it Is not sig-
nificant in the transport of suspended material. The exceptions are
in restricted channels.
Wind-driven currents are, as the term implies, the movements of
water directly caused by wind stress at the water surface. These cur-
rents are the fastest and the most variable in direction of the large-
scale water movements. Large volumes of water can be moved in a very
short time, as in wind set-up.
-------
The first effect of wind is to produce waves. Waves, in them-
selves, are not significant transporters of water, at least in deeper
areas of the lake. Most of the motion is orbital in a vertical plane
decreasing downward from the surface to zero at a depth equal to the
wave length. There is only a slight net transport of water in the
direction of wave progress. However, when waves reach shallow ater
(half the wave length or less) they change from orbital to a to and
fro motion. The slight net transport still exists and along with the
effects of gravity on the return flow and wind drag, littoral or long-
shore currents are created. Such currents can be especially rapid
when the wave approach is toward shore at some angle other than normal.
Waves in mid-lake (also along shore) can produce turbulence and
if the water Is shallow enough, bottom sediments may be thereby brought
into suspension. In deep water this is not a significant agent, in
itself, for transport of sediment. It may be looked upon as an agent
for mixing essentially In situ. However, wave turbulence may bring
sediment up into the water to be transported by other currents.
The second effect of wind is to drag, en masse, a volume of water
more or less in the direction of the wind. This is probably the major
factor in wind set-up. The drag decreases with depth and so does the
imposed velocity. If the volume of water moved cannot escape from the
lake, two things will happen: (I) the water level will rise at the
leeward end of the lake and (2) a subsurface return flow will be
created. If there is adequate depth so that there is an unrestricted
return flow, the rise in level will be small. In Lake Erie the water
is shallow, the return flow is restricted, and the disturbance of
water level is pronounced.
The above description of wind-driven currents is greatly over-
simplified. The currents are influenced by the Coriolls effect, by
previously established wind-driven currents, by water temperature, by
air temperature, by the local and overall shape of the basin, by the
force of the wind, by the distance of wind travel over water (fetch),
and by the direction and duration of the wind.
Seiche currents are those created in the standing wave motions of
seiches. Seiches, of course, depend upon the wind (rarely atmospheric
pressure change along) for their creation. After the wind set-up, a
seiche and its currents are self-sustaining. They degenerate by fric-
tion. Degeneration is seldom, if ever, complete because seiches are
normally rejuvenated and/or changed by the wind.
The highest velocity seiche currents in a symmetrical basin occur
along and normal to the nodal line of a particular seiche, and the
velocity decreases to a minimum at the locations of maximum amplitude.
Superimposed and multinodal seiches can lead to complex and seemingly
unintelligible motions. In Lake Erie the longitudinal seiche dominates
50
-------
and the motions associated with it over-ride the others. Currents
reach significant velocities in the nodal zone (roughly across the
lake from Fairport, Ohio) and in the inter-island channels.
Seiche currents apparently do not result in a net transport of
water; the motion is to and fro and balancing.
Density currents are those resulting when water of a different
density is brought into the lake. Density differences can result from
temperature differences, differences In dissolved solids content, dif-
ferences in suspended solids content, or any combination of these.
Density currents are the most apparent and probably have their
greatest importance In boundary waters. They provide a mechanism for
a more rapid horizontal distribution of tributary inputs than would
otherwise occur. When tributaries are wanner than the lake, the in-
puts can override the lake water, and vice versa. In either case the
inputs can spread widely offshore. Density currents from differences
in dissolved solids or suspended solids content nearly always tend to
force input water to under-run lake water. If however, the solids-
laden water is of high enough temperature, it can override the lake
water, and this often happens in Lake Erie. Paradoxically, density
differences in a vertical plane can often be sustained, especially with
water temperatures near 4°C (39°F), the temperature of maximum density,
preventing lateral dispersion and confining inputs to the nearshore
zone.
Density currents are not compensating. Their movement is ordin-
arily offshore with no return of the same water.
Turbulence, to some degree, is associated with all other types of
currents. This is more or less random motion, with horizontal and ver-
tical components. Its main effect might be considered as that of mixing
or dispersion, in that a given volume of water will, after a given time,
be found throughout a much larger volume. Turbulent motion is most
pronounced when associated with wind-driven currents.
Convection is vertical circulation caused by heat transfer. It Is
important in Lake Erie during the cooling period from August to January.
The surface water loses heat to the atmosphere, becomes colder than
lower water, and sinks. Warmer water rises to replace it. This process
continues until the water column reaches 4°C, the temperature of maximum
density. This kind of circulation probably cannot be called currents
in the strictest sense, but it is highly effective in exchanging water
between the surface and bottom. Heat loss from the water is the only
factor needed to sustain this kind of motion.
Convection currents are of little consequence during the warming
months, with the possible exception of short periods of colder air
51
-------
temperatures during storms. The over-running of cold water from
tributaries can cause convection currents, but this is not common.
Turbidity and dissolved solids gradients can cause vertical cir-
culation if, like over-running of cold water, they can be formed with
the denser water on top. This situation is not normal.
Convergence of horizontal currents can cause vertical movement
if at some lower or higher level there are diverging currents. Con-
verging surface currents lead to downward movement. Diverging surface
currents lead to upward movement.
Turbulence, associated with storm activity, is the most effective
vertical motion at all seasons of the year. The result is rapid, ver-
tical mixing in unstratified water from top to bottom, and above the
density barrier if the water is stratified.
Currents in Lake Erie have been studied from time to time since
before the turn of the century. Most studies have been largely con-
fined to the western basin of the lake.
Only one attempt has been made in the past to show the general
water circulation pattern for the entire lake. This was by Harrington
(1895).
Circulation in the western basin has been investigated by several
workers, including Harrington (1895), Wright (1955), Olson (1950),
Verber (1953, 1954), and recently by the U. S. Bureau of Commercial
Fisheries. The eastern basin has been neglected except for a rather
local study in the Long Point area by Green (Fish, I960).
The Federal Water Pollution Control Administration measured cur-
rents continuously and synoptically at selected locations in the
western, central, and eastern basins. The U. S. Lake Survey has also
similarly measured currents near a few selected harbors on Lake Erie.
These programs are the first of their kind in Lake Erie.
Nearly all past work has relied upon data gathered from the re-
lease of drift cards, drift bottles, and shallow drogues. Only a
very small amount of metering has been done, and this was by manual
methods. Some attempts have been made to map chemically or physi-
cally different water masses, thereby inferring water circulation, In
the western basin.
Harrington (1895), using drift bottles, deduced the surface cur-
rents of Lake Erie. In the western basin he showed the Detroit River
fanning out from the Michigan shore to the Canadian shore. The eastern
half of the Detroit River flow went directly to Pelee Passage. The
remainder apparently flowed south and eastward to discharge through
52
-------
the South Passage with a small amount going northward to Pelee Passage.
He also showed a clockwise movement around Pelee island and a counter-
clockwise movement around Kelleys Island.
Olson (1950) made a study of surface currents in western Lake
Erie in 1948 and 1949 using drift cards. He divided the Detroit River
flow into three parts, which he called the "Colchester Convergence",
the "Pigeon Bay Drift", and the "Pelee Passage Drift" (See Figure I).
This implies that the Detroit River flow stays along the north shore,
passing into the central basin via Pelee Passage. He showed a drift
toward shore along the Michigan shore and indeterminate flow along
the south shore. He stated that Maumee River water must flow through
South Passage or between the islands, but indicated a to and fro motion
in those channels. He also showed a clockwise movement around Pelee
island which he called the "Pelee Island Gyre".
Wright (1955) studied the surface currents of western Lake Erie
in 1928 using drift bottles. He drew no conclusions except to state
that surface currents were not constant but were highly dependent
upon the wind. Most of his bottles released near the Ohio and Michigan
mainland shores went southward while most bottles released just west
of the islands went northward.
Verber (1953, 1954), using drift cards, drogues, and a current
meter in the inter-island channels, concluded that a rotational move-
nt of water existed in western Lake Erie. Measurements in Pelee
assage, at depth as well as at the surface, indicated a larger outflow
from the western basin than inflow in that channel and vice versa in
the southern channels. He also concluded that most of the Detroit
River water moved eastward through Pelee Passage.
The U. S. Bureau of Commercial Fisheries in recent work, using
drogued drift bottles for measurement, indicated that surface currents
in western Lake Erie are dependent upon winds. Southerly winds push
the surface water toward the north shore and Pelee Passage. Westerly
and northwesterly winds result in a flow pattern more or less similar
to that of Harrington with Detroit River water reaching deep into the
basin. Northeast winds push water toward the west shore with a simul-
taneous flow out of the Pelee Passage.
The Detroit Project, FWPCA, investigated currents near the mouth
of the Detroit River and along the Michigan shore with dye and drogues.
They deduced that outside the influence of river flow that currents
were controlled by and essentially followed the wind direction.
The Ohio Department of Natural Resources (Hartley, Herdendorf,
and Keller, 1966) measured conductivity and temperature in a dense
pattern in the western basin on 23 June 1963. They indicated that the
main part of the Detroit River flow extended far southward into the
53
-------
basin at the surface and at depth. The west part of the river followed
the Michigan and Ohio shores moving northward west of the Islands. The
east part of the Detroit flow appeared to be moving east along the
Canadian shore. The bulk of the western basin water was moving out
through the Pelee Passage.
The only published work attempting to describe the circulation of
central Lake Erie is that of Harrington (1895). He showed a general
down-lake surface flow with a counter-clockwise gyre between Point
Pelee and Pointe Aux Pins, Ontario, and East of Pointe Aux Pins. He
also showed the gyre around Pelee island extending several miles Into
central Lake Erie.
Green (Fish, I960) measured currents at a few isolated sites in
central Lake Erie in 1929 without showing significant movements.
The U. S. Bureau of Commercial Fisheries recent work with shallow
drogues indicates eastward flow in nearly all cases In mid-lake. They
indicate that the Pelee Passage discharge reaches the Ohio shore be-
tween Sandusky and Lorain.
The Ohio Department of Natural Resources, with some direct measure-
ments in the southeastern part of the basin indicates that complex
patterns of water movement may exist both areally and in depth. Also
their work indicates that eddies are common around harbor breakwaters
which are not shore-connected. This has been confirmed by the U. S.
Lake Survey in their harbor work.
Even less is known of eastern basin water circulation. The only
known past attempt to measure currents in the eastern basin was by
Green in 1929 as reported by Fish (I960). Green used a current pole
and a Price current meter to measure velocities in the deeper water
of the basin. He admitted that his measurements at depth were prob-
ably too high in value. In general he found, on the few occasions of
measurement, that there was a rather rapid flow eastward, especially
near Long Point. He also found that surface flow opposed the wind
quite often. Flow patterns, other than eastward dominant movement
cannot be shown from his data.
Drift bottles, drift cards and shallow drogues, released by the
U. S. Bureau of Commercial Fisheries and the Ohio Department of Natural
Resources in the western and central basins in recent years, have
arrived on Long Point and the south shore of the eastern basin in great
numbers. Only a few drifted to the north shore of the eastern basin
east of Long Point. This probably indicates an eastward cross-lake
flow of surface water.
In order to further describe the prevailing circulation patterns,
the U. S. Public Health Service (now the Federal Water Pollution Control
54
-------
Administration), in May 1964, established a system of automatic cur-
rent metering stations in Lake Erie. The metering program was main-
tained until September 1965. The station locations and kinds of
measurements are shown on Figure 23. Table 6 lists the stations, the
depths at each meter, and the time of station occupancy. Temperature
recorders were installed in conjunction with the current meters. Wind
recorders were installed on most stations, but only during summer.
The metering program could not describe currents very near the
lake bottom. Therefore, in the summer of 1965 seabed drifters were
released at selected locations in Lake Erie (Figure 24). These small
drifters contained instructions to return to the sender.
Intensive, localized, short-term drogue studies were made near
the mouth of the Detroit River and off western Cleveland in the summer
of 1964. These were made to learn something of lake dispersion and
local currents.
Dye studies of short duration were carried out near the mouths of
several tributaries along the south shore of the central basin during
the summer of 1965, using Rhodamine B dye.
The metering program and seabed drifters have shown movement
patterns very unlike the surface water movements which must exist in
Lake Erie.
It is very difficult to describe predominant flows three-dimension-
ally when directions vary with depth and location, and such is the case
in Lake Erie. Therefore the following description will deal mainly
with surface and bottom currents, and much of the interpolation between
top and bottom will be left to the reader.
WESTERN BASIN CIRCULATION
As noted previously, the water movements of the western basin have
been studied more than in any other area of Lake Erie. Combining the
facts determined in all those studies, a pattern of most probable dom-
inant summer surface currents has been compiled as shown in Figure 25.
The surface currents in the western half ot the western basin are dom-
inated by the Detroit River inflow. However, in the eastern half of
the basin the surface flow becomes more influenced by the prevailing
southwesterly winds, and this effect produces a clockwise flow around
the islands. Eddy effects along the sides of the Detroit River inflow
lead to sluggish movement of surface water west of Colchester, Ontario
and between Stony Point, Michigan and Toledo. These eddies tend to
retain waters contained within them, leading to higher concentrations
of pollutants commonly found in these areas.
The surface flow of the western basin water is often changed by
55
-------
83° 30'
83°
82
43°00
Ul
WATER TEMPERATURE STATION
O WIND STATION
• CURRENT STATION
CURRENT, WATER TEMPERATURE
AND WIND MEASUREMENT STATIONS
IN
LAKE ERIE
1964 - 1965
-------
TABLE 6
CURRENT METERING STATION DESCRIPTION DATA
(station locations on Fig. 4-7)
Station
Number
E-l
E-2
E-3
E-4
E-5
E-6
E-7
E-8
E-9
E-10
E-ll
E-12
E-13
E-14
E-15
E-16
E-17
E-18
E-19
E-20
E-22
E-23
E-24
E-2 5
E-26
E-23
E-29
E-30
E-31
E-33
E-34
Meter
depth (ft.)
30
30
30
30, 50
30, 50
30, 50
30, 50
30, 50
30, 50
30, 50
30, 50
30, 50, 75, 100
30, 50, 75, 100
30, 50, 75, 100, 185
30, 50, 75
30, 50, 75
30, 50
30
30
15
15
15
15, 30
15
15
15
15, 30
15
15, 30, 45
15
5, 7, 9, 11, 13, 14,
16, 18, 20, 22
Time of station occupancy*
5/18-10/12/64, 11/26/64-9/17/65
5/19-10/13/64, 11/26-4/20/65
5/19-8/6/64, 11/26/64-9/16/65
5/19-10/11/64, 10/14/64-9/18/65
5/19/64-5/1/65
5/19/64-4/28/65
5/19/64-9/17/65
5/20-10/15/64, 5/3-9/19/65
5/20-10/15/64, 10/16/64-5/2/65
5/20/64-8/5/65
5/20/64-9/17/65
5/20/64-9/20/65
5/20-10/15/64
5/20-9/20/65
5/21-10/23/64, 5/7-9/23/65
5/20-10/18/64
5/7-9/24/65
6/11-8/6/64, 4/21-9/16/65
4/21-9/16/65
6/12-7/17/65, 8/11-9/17/65
6/12-7/17/65
6/12-7/17/65
6/12-7/15/65, 8/8-9/17/65
6/16-7/15/65, 8/6-9/17/65
6/16-7/16/65
6/15-7/16/65
6/14-7/15/65
6/14-7/15/65
6/14-7/15/65
4/21-9/15/65
7/29-8/12/65
Record length averages about 60$ of total occupancy times.
57
-------
Ul
00
M
83° 30'
•3°
30'
•3°00'-
FFALC
30'
RETURNS DURING SPRING OF l»«6
RE
PATHS Of ARROWS 00 NOT NECESSARILY DENOTE
OHIO
SOLE IN MILES
90 IO tO
SEA-BED DRIFTER
RELEASES AND RETURNS
IN
LAKE ERIE
-------
N
m
vO
o
c
aj
m
r\>
01
DOMINANT SUMMER
SURFACE FLOW IN
LAKE ERIE - WESTERN BASIN
(DIRECTION ONLY)
SCALE
-------
changes in wind direction and intensity. The effect of strong winds
on surface circulation is to essentially skim the surface water and
move it in the direction toward which the wind is blowing. Thus with
a sufficiently strong wind most of the surface water, except along
the windward shore, may move in the same direction.
Surface flow tells nothing about bottom circulation. In summer
bottom currents in much of the western basin of Lake Erie are similar
to surface currents, being dominated by the Detroit River inflow
(Figure 26). However, in the Island area the bottom currents are
often the reverse of the surface currents with a counter-clockwise
flow around the islands. The metering station (E-19) in Pelee Passage
showed a" dominant northwestward movement of water at a depth of 30
feet between the months of April and August 1965. Three days of meas-
urement at 30 feet in South Passage (E-18) showed a dominant eastward
movement. In late August and September in Pelee Passage the bottom
flow had reversed, indicating that it had then become like the surface
flow. Apparently lake cooling is important in establishing a top to
bottom uniformity of dominant circulation. The dominant annual bottom
flow may be clockwise around Pelee Island. Seabed drifter data tend
to support this.
Records of currents at station E-34, one-half mile north of the
Toledo water intake crib, during the summer of 1965 showed a dominant
movement northwestward, compatible with the clockwise eddy movement
in the Toledo-Monroe area.
Like the surface movement, bottom currents can also be changed
by the wind, although it probably takes a stronger wind to create a
major change of pattern. With very strong winds, which cause major
changes of water level, the bottom currents are essentially the re-
verse of surface currents. This means, for example, that a strong
westerly wind will cause bottom currents toward the west and a strong
easterly wind will cause bottom currents to shift toward the east.
Continuity considerations demand that subsurface reversals occur.
In the western basin water movements are not a I I so simple as
described above. Seiches and changing winds complicate the patterns
which occur at any particular time. An ice cover will enable the ex-
istence of a more or less stable pattern which should be similar to
the dominant pattern of summer surface flow (Figure 25).
The probable surface and bottom flows under different strong wind
conditions are shown in Figures 27 through 32. The western basin
water apparently will show these kinds of responses year-round In the
ice-free period. However, the reverse response in bottom waters ap-
parently becomes less in fall and winter.
The most significant effects of current patterns in the western
basin are:
-------
N
V - V N
^ c. a\ \ \
o
c
TO
m
ro
o>
DOMINANT SUMMER BOTTOM FLOW
•C\,=iS^ -v-
N*. ^^ ^v*v~~ V-yv>f/
IN
LAKE ERIE - WESTERN BASIN
(DIRECTION ONLY)
SCALE
-------
SURFACE FLOW WITH
STRONG SOUTHWEST WIND
IN
LAKE ERIE - WESTERN BASIN
(DIRECTION ONLY)
-------
BOTTOM FLOW WITH
STRONG SOUTHWEST WIND
IN
LAKE ERIE - WESTERN BASIN
(DIRECTION ONLY)
-------
<•>" ' \ ^
>-
-------
fr / / -
&' * ^'r-1
4 T f
BOTTOM FLOW WITH
STRONG NORTHWEST WIND
IN
LAKE ERIE - WESTERN BASIN
(DIRECTION ONLY)
-------
N
o\
o\
o
c
3)
m
04
SURFACE FLOW WITH
STRONG NORTHEAST WIND
LAKE ERIE - WESTERN BASIN
(DIRECTION ONLY)
SCALE
-------
9v. / S .A
'«?'' / / 't^S
X ' ^ -f
X /* x c
.' ( S
c^v I V-s
^~A' \ ^
^^'v V
BOTTOM FLOW WITH
STRONG NORTHEAST WIND
LAKE ERIE - WESTERN BASIN
(DIRECTION ONLY)
-------
I. Concentrations of contaminants from the Detroit, Raisin, and
Maumee Rivers may build up along the west shore under the
conditions of dominant flows, both surface and bottom.
2. Concentrations of contaminants may similarly build up to
even higher values under ice cover since wind then has less
effect.
3. Winds cause mixing and redistribution of contaminants over
the entire basin in ice-free periods.
4. A portion of central Lake Erie water may recirculate in and
around the island area of the western basin.
CENTRAL BASIN CIRCULATION
The effect of wind Is over-riding in the water circulation of the
central basin of Lake Erie. The orientation of the basin, with its
long axis essentially parallel to the prevailing southwesterly winds
makes this effect especially important.
The predominant summer surface water movement In central Lake Erie
is as illustrated in Figure 33, based on the results of drift card,
drift bottle, and drogue studies made by several other agencies. This
pattern of surface movement has been determined from investigations
carried out primarily during the summer months. The pattern should be
similar for winter months but with a decided shift to movement more
toward the southeast and south as a result of the more frequent oc-
currence of northwesterly winds. It should be noted that surface cur-
rents do not exactly parallel the wind direction but move somewhat to
the right of it because of the Coriolis effect. It should also be
understood that the predominant pattern is essentially that of result-
ant movement over an extended period, and at any one time, surface
movement may be greatly different or even reversed, responding quickly
to wind changes.
Bottom currents In central Lake Erie are not similar to surface
currents. Because surface currents are generally moving water in much
greater quantity than can be removed from the basin, the balancing
movement must be subsurface and essentially a return flow over most
of the basin, responding less quickly to wind changes. The predominant
bottom flow pattern for summer is shown In Figure 34. In this case
bottom flow means the motion at the lake bottom in unstratlfled water,
but where the lake is thermally stratified it means the predominant
movement at the bottom of the epilimnion. It is this bottom flow, be-
tween 30 to 60 feet below water level, that the metering program in
the central basin of Lake Erie has measured. The stations at which It
was measured were E-l through E-ll (Figure 23). Table 7 lists, in
brief, examples of some of the monthly flows at these stations in terms
•68
-------
|43°00-
30
c
10
m
OJ
CM
v - —~
V — —
DOMINANT SUMMER SURFACE
FLOW PATTERN
IN
4,0
LAKE ERIE
(DIRECTION ONLY)
-------
•5*30'
M*
SO*
M°
30'
•1°
45°OO-
fFALC
30'
o
c
•x
m
O4
A
OHIO
NOTE: FLOW PATTERN ABOVE
THERMOCLINE WHERE
STRATIFIED.
SCALC IN MILES
to 9 O ^^^^10 tO^^^^^iO
DOMINANT SUMMER BOTTOM
FLOW PATTERN
IN
LAKE ERIE
(DIRECTION ONLY)
-------
TABLE T
CURRENT FLOWS AT CENTRAL BASIN METER STATIONS
(station locations on Figure 4-7)
Station
E 1
E 2
i
"4
E 5
E 6
E 7
E 7
E 8
E 9
E 11
Depth Net. Dir.
(ft.) from
30 118°
30
30
50
30 70°
30 141°
30 225°
50
30 77°
30 82°
30 112°
June 1964
Net. Vel.
cm/sec
0.80
—
—
—
4.15
1.49
—
—
2.31
1.82
6.52
Avg. Vel.
cm/sec
11.4
—
—
—
8.8
5.9
—
—
6.8
10.7
10.9
Net Dir
from
277°
183°
315°
257°
—
87°
—
47°
—
—
—
December
. Net Vel
cm/sec
1.41
0.83
1.53
2.44
—
1.86
—
0.52
—
—
—
1964
. Avg. Vel.
cm/sec
5.6
10.4
10.6
7.2
—
9.8
—
6.5
—
—
—
Note: To convert velocities to ft./sec. multiply by .033.
7|
-------
of net direction, net velocity, and average velocity of all measure-
ments. Figure 35 based on both current meter and drifter data, shows
the dominant annual bottom flow in Lake Erie. Note that this is a
slightly different pattern from that of Figure 34 showing summer flow
above the thermocline.
The metering program did not show, except during occasional per-
iods of hypolimnetic upwelling, what was happening below the thermo-
cline. There is no reason to believe that a predominant horizontal
circulation pattern exists in the hypolimnion. However, high vel-
ocity currents (up to 2 ft/sec.) have been measured, during storms,
in the hypolimnion. These are brought about during up and downwelllng
when the hypolimnion water Is forced to slide around in the basin.
This phenomenon becomes increasingly significant in late summer and
early fall when the hypolimnion is thin and sharply divided from the
epiIimnion.
Bottom currents near shore are pronounced In summer and are quite
different from bottom currents offshore, Indicating a separate system
of water movement. Seabed drifter returns from the summer of 1965
showed that (I) releases more than three miles from the south shore
produced no returns, (2) releases less than three miles from shore
gave many returns, (3) drifters moving westward averaged only about
one mile of travel, and (4) drifters moving eastward averaged nearly
12 miles of travel. These results indicate that, especially in summer,
there is a pronounced eastward movement of nearshore water (Figure 35).
This has been substantiated by current meter measurements at stations
E-20, E-22, E-23, E-25, E-26, and E-30 (Figure 23). Water temperature
structure also supports this conclusion with a spring and summer band
of warmer water near the south shore.
Dye studies along the south shore of the central basin in the sum-
mer of 1965 showed in general that surface water within the nearshore
zone, while moving parallel to shore, also tended to move toward shore.
This was easily noticeable when movement was toward the east. Move-
ment toward the west at times showed a simultaneous movement away from
shore .but was not so pronounced.
Transport of sediments near the water line along the south shore
of the central basin is not necessarily Indicative of prevalent flow
of water. For example, from Avon Point westward, beach sediment
accretion patterns indicate a general drift toward the west. This
results from wave action in the nearshore zone which is stronger from
the northeast. Sediments are moved toward the west during the inter-
mittent periods of northeasters. The slower but much more prevalent
water motion toward the east is unable to transport the sediments.
From Avon Point eastward the nearshore sediment drift is toward the
east, the same as prevailing water flow, because increased westerly
fetch makes waves from that direction more effective.
72
-------
PROBABALE PREVAILING FLOW
(
cz
3)
m
CJI
SCALE IN MILES
10 o 10 20 SO 40
PREVAILING
ANNUAL BOTTOM FLOW
-------
A different type of situation exists along the north shore of the
central basin. The zone of separate nearshore flow is limited in sum-
mer, if it exists at all. Temperatures indicate that the nearshore
water is cooler throughout the summer than along the south shore.
This implies removal of warm water and replenishment by lower waters.
Summer current metering data at stations E-7 and E-ll (Figure 23)
show net motion from the south-southwest toward the Canadian shore of
water at depths of 30 feet and below. Seabed drifters released off
Port Stanley as far as nine miles offshore turned up on the beach far
to the east. These also indicate a bottom water movement toward shore
and to the east.
The Canadian shore of the central basin is more irregular than
the south shore and the irregularity has a pronounced effect on wave
action and beach drift along the shore. On the east side of Pelee
Point the drift is toward the south-southwest, moving sediment to the
tip of Pelee Point. Between Wheatley and Erieau, Ontario, the drift
reverses and at Erieau it is toward the east. Along the eastern side
of Pointe Aux Pins the drift is toward the south. Eastward the drift
reverses again and at Port Stanley and eastward the drift is strongly
toward the east. All of these drift phenomena are functions of wind
and fetch and resulting wave force in the nearshore zone and are not
necessarily reflecting prevailing nearshore water movement.
The most significant change in circulation in the central basin
water in fall and winter is the disruption of the confining influences
of water temperatures. Usually in September the surface waters of
Lake Erie become nearly Isothermal and by the first of October the
thermocline has disappeared from the central basin. The higher tem-
peratures which previously existed along the south shore disappear and
there is no longer a density restriction to water movement. In effect
then, the nearshore flow is more free to move water lakeward and cooler
tributary water can under-run lake water. The bottom flow return cir-
culation in mid-lake reaches to the lake bottom where the thermal
barrier (thermocline) previously separated it from the lake bottom.
Seabed drifters tend to confirm a radical change in lake circu-
lation in late fall. Many of the drifters released in the central
basin near the south shore in the early summer of 1965 reappeared in
the fall of 1966 and the spring and fall of 1967. There were no
returns of consequence in the fall of 1965 and the summers of 1966 and
1967. The fall 1966 and later returns were unexpected but the con-
sistency of the returns pattern in both space and time indicates that
most of the drifters were probably carried across the lake and re-
transported during high velocity northerly and westerly winds. The
probability of nearshore water crossing the lake along the bottom has
been shown and it is likely that this is common in fall and winter.
74
-------
In spring when the shore water warms to several degrees above
the temperature of mid-lake water, the south shore nearshore flow
zone is reestablished. A "thermal bar" (Rogers, 1965) may be
created shortly after the spring thaw and warmer tributary discharges
may be even more confined to the nearshore zone. This condition can
exist only when a 4°C isotherm exists with colder water on one side
and warmer on the other.
Along the northern shore in fall and winter the water movement
probably is not greatly different than in summer, but supporting data
are lacking.
Drogue studies near shore, off western Cleveland In August 1964
showed that a dense pattern of drogues resulted in little dispersion,
indicating that dispersion of inputs may be slow.
Conclusions which can be made regarding the pollutlonal aspects
of currents In central Lake Erie are as follows:
I. Tributary and lake outfall discharges in spring and summer
along the south shore tend to stay near shore and move
eastward primarily as a result of the prevailing south-
westerly winds.
2. In fall and early winter the same kinds of discharges can
under-run the lake water and be distributed over the basin.
3. Contaminants reaching more than three miles off shore are
likely to be distributed over the entire basin.
4. A vertical circulation in mid-lake exists year-round with
easterly surface flow and westerly moving bottom flow.
5. The hypolimnion of mid-summer does not have a net circula-
tion flow but does have occasional high-velocity flow as
a result of up and downwelling. This flow is capable of
resuspending bottom sediments.
6. Surface waters in summer move toward the south shore and
away from the north shore.
7. Velocities at any level can be up to 2 feet per second
during storms.
8. Vertical turbulent mixing is very effective in storms.
9. Dispersion is slow and limited horizontally.
75
-------
EASTERN BASIN CIRCULATION
Water circulation in the eastern basin is also primarily wind-
controlled. Flow-through currents become important near the head-
waters of the Niagara River but otherwise are insignificant.
The surface water movement in the eastern basin appears to be
similar to that of the central basin in that the dominant flow is
eastward and toward the south shore (Figure 33). The predominant
surface flow over most of the eastern basin is probably similar
throughout the year but with a shift more toward the south in fall
and winter.
The surface flow in the nearshore zone along the south shore is
predominantly to the east, but an essentially independent summer zone
such as in the central basin is not a persistent feature and is prob-
ably most important in spring and early summer.
Subsurface flow in summer, according to current meter measure-
ment, is somewhat confused at and above the thermocline. It appears
to be predominantly toward the west at stations E-12, E-15, and E-17,
but toward the east at E-14 and toward the northwest at E-16 (Figure
23). The resulting areal pattern is apparently as shown In Figure
34 for the bottom of the epilimnion in stratified water. This pattern
is often disrupted and confused by commonly occurring internal thermo-
clinal waves. Below the thermocline another system of circulation
exists. Just below the thermocline the predominant motion is appar-
ently similar to that just above the thermocline. It appears that a
vertical circulation may be important in the hypolimnion and that the
lake bottom currents are near the reverse of currents just below the
thermocline with a horizontal clockwise motion superimposed. Vel-
ocities at the bottom are ordinarily very slow however, increasing
upward. Upwelling in the eastern basin does not cause high-velocity
currents as it does in the central basin.
The thermocline disappears in the eastern basin ordinarily in
November. The circulation changes to one system with a predominant
southeastward moving surface flow and a westward moving current at
the lake bottom again with a clockwise bottom flow superimposed.
Velocities decrease with depth and are probably insignificant at the
bottom except within a few miles of shore in shallower waters. The
assumed annual prevailing flow at the bottom is shown in Figure 35.
In summary the eastern basin circulation is similar to the central
basin and in general is as follows:
I. A vertical circulation exists above the thermocline in summer,
dominant Iy eastward at the surface and westward in the lower
part of the epilimnion.
76
-------
2. A vertical circulation, similar to above, exists, top to
bottom in early winter and perhaps all winter with very
slow movement at the bottom in deeper water.
3. Internal waves on the thermocline lead to turbulent mixing
in the epilimnion and cause currents in haphazard directions.
4. Discharges from tributaries are carried to deep water quickly
at nearly all times of the year and a separate nearshore
current is limited to spring and early summer.
5. Discharges not caught in the Niagara outflow can be distrib-
uted over the entire basin.
6. Surface water moves toward the south shore and away from the
north shore and vice versa at depth.
7. Discharges into upper waters of either the central and eastern
basins may at one time or another be found nearly anywhere in
either of these basins.
8. Water below the level reached by the summer thermocline may
be trapped there for long periods, on the order of a year or
more.
GENERAL OBSERVATIONS
During periods of quiet weather, rotational currents, related to
the Inertial period and internal waves, are created in the central and
eastern basins with no net transport involved. These are particularly
evident In summer, becoming rather rare in winter.
It appears that, at least in summer, the bulk of the drainage from
Lake Erie is from surface water, much of which has been moved to, and
is moving along the south shore of the central and eastern basins. This
tends to create two retention systems, one of which (south shore) is
much shorter than the theoretical detention time, and one which is much
longer (mid-lake).
77
-------
CHAPTER 3
LAKE ERIE CHEMICAL CHARACTERISTICS
SEDIMENT CHEMISTRY
In order to gain some knowledge of the composition of lake bot-
tom sediments, 16 samples from the western basin, 21 from the central
basin, and 23 from the eastern basin were analyzed for the following
constituents:
a. TotaI i ron
b. Total phosphate
c. Sulfide
d. Ammonia nitrogen
e. Nitrate and nitrite nitrogen
f. Organic nitrogen
g. Volatlle solids
h. Chemical oxygen demand
The samples were taken between July 28 and August 7, 1964. Sam-
pling and analyses were not of sufficient density (Figure 36) to
provide more than generalities as to areal extent of concentration
ranges.
The results of bottom sediment analyses are presented to show the
existence of substances and their abundance in each basin. The results
are listed in Table 8 for the western basin, Table 9 for the central
basin, and Table 10 for the eastern basin. The results are reported
as milligrams per gram of sediment, oven dry weight. The data cannot
be used to show rates of accumulation since the rates of sedimentation
are not known.
TOTAL IRON
Total iron in the bottom sediments is similar in concentration In
the western and central basins, averaging 33 to 35 mg/g. The concen-
tration drops In the eastern basin to an average of 27 mg/g. To mini-
mize the effects of erosion, total iron averages in the central and
eastern basin were calculated from samples obtained from depths greater
than 10 fathoms. Sources of iron in lake sediments are glacial de-
posits, soluble and colloidal inputs from basin tributaries, and from
Corps of Engineers dredging of navigable channels and harbors. As an
example of the latter, more than 70 million pounds of iron were re-
moved from the Cuyahoga River and Cleveland Harbor during 1967 and de-
posited in offshore areas. Areal patterns of iron concentration are
shown in Figure 37.
-------
83° 3
83"
SO'
13eOO-
30
o
c
3)
m
OJ
o>
BOTTOM CHEMISTRY
SAMPLE LOCATIONS
LAKE ERIE
SAMPLES TAKEN
7/28-8/7/64
FFALC
41"
-------
LAKE ONTARIO
CANADA
MICHIGAN
NEW YORK
CONTOUR INTERVAL
lOmg./g. DRY WEIGHT
PENNSYLVANIA
TOTAL IRON
IN
BOTTOM SEDIMENTS
OF
LAKE ERIE
7/28-8/7/64
-------
TOTAL PHOSPHATE
The general area I pattern of total phosphate (POJ concentrations
(divide by 3 to obtain phosphorus concentration) is shown in Figure
38. The concentrations in the bottom sediments appear to decrease
somewhat from west to east. The average for the western basin samples
was 2.29 mg/l while the samples from the central basin averaged 1.95
mg/l, and those from the eastern basin averaged 1.51 mg/l. Highest
values were found in the western basin as expected because of large
inputs of phosphates to that basin. Progressively smaller concentra-
tions were found in the central and eastern basins due to greatly re-
duced inputs. Augmentation of tributary phosphate inputs occurs from
sedimentation of planktonic occluded phosphorus.
Recycling of phosphates from lake sediments to overlying waters
will occur during summer stratification. However, the solubilized
phosphates not depleted by algal metabolism will be reprecipStated
again during fall turnover.
SVLFIDE
Sulfide concentrations in bottom sediments averaged 0.23 mg/g
in the western basin, 0.97 mg/g in the central basin, and 0.04 mg/g
in the eastern basin. In addition to a much higher average, the
central basin sediments showed a wide variation from 0.01 to 3.90 mg/g.
The very high values in the central basin were found in the sediments
below the hypolimnion which was characterized by low dissolved oxygen.
The high concentrations result from low oxidation-reduction potentials
exhibited by the sediments and overlying waters due to anaerobiasis.
Under these conditions sulfate reduction to sulfide occurs. Anaero-
biasis does not occur in the western and eastern basins. Consequently,
low sulfide concentrations are found there. Figure 39 shows the gen-
eral distribution of sulfides in Lake Erie sediments.
ORGANIC NITROGEN
Organic nitrogen is the nitrogen present in organic compounds.
Natural nitrogen organic compounds are the result of plant and animal
metabolism and decay. Relatively small amounts of synthetic nitrogen
compounds may be expected to find their way to receiving waters.
Organic nitrogen in the bottom sediments averaged 0.23 mg/g in
the western basin, 1.84 mg/g in the central basin, and 0.85 mg/g in
the eastern basin. The general distribution is shown in Figure 40.
In the shallow western basin, with a relatively short flowthrough
period, continual suspension of bottom sediments is likely, with or-
ganic nitrogen biochemically oxidized to forms readily available to
aquatic life. This is substantiated by the high algal productivity
of this basin. Published FWPCA data show prevailing bottom flow in
81
-------
85° SO'
8S
43°00
IFFALC
30
C
•JO
m
01
oo
CONTOUR INTERVAL
O.5mg./g. DRY WEIGH"!
41"
TOTAL PHOSPHATE
IN
BOTTOM SEDIMENTS
OF
LAKE ERIE
7/26- 8/7/64
-------
8 3° 30
30
«3°OO'
FFALC
3O'
o
c
•yj
m
01
CONTOUR INTERVAL
.0 mg/q. DRY WEIGHT
41°
SULFIDE
IN
BOTTOM SEDIMENTS
OF
LAKE ERIE
7/28-8/7/64
-------
83° 30'
83°
30'
82°
30
30
43°00-
30
IFFALC
O
c
•30
rn
A
o
ORGANIC NITROGEN
BOTTOM SEDIMENTS
OF
LAKE ERIE
JULY 28 -AUGUST 7, 1964
-------
the central basin to be extensively circulatory (Figure 35). It is
Indicated that a buildup of organic materials will occur as a result
of the reclrculation and the relatively long flowthrough period. The
eastern basin with an intermediate flowthrough period, low tributary
waste input and consequent low algal productivity has an average
organic nitrogen concentration intermediate with respect to the other
basins.
AMMONIA NITROGEN
Ammonia nitrogen, an end product in the degradation of protein-
aceous materials, decreased somewhat from west to east in Lake Erie
(Figure 41). The western basin sediment samples averaged 0.19 mg/g,
the central basin 0.09 mg/g, and the eastern basin samples 0.07 mg/g.
Ammonia is 45.2 percent of the total nitrogen in the western basin,
4.7 percent in the central, and 7.6 percent in the western. A much
higher organic matter degradation rate is Indicated in the western
basin due to higher water temperatures.
NITRITE AND NITRATE NITROGEN
In the nitrogen cycle, organic nitrogen is gradually converted
to ammonia nitrogen. Under aerobic conditions, the oxidation of am-
monia to nitrites and nitrates then occurs. Lake Erie nitrate-nitrite
concentrations in bottom sediments are very low since upon oxidation
these forms are quickly solubilized in overlying waters. The concen-
tration of nitrite-nitrate increased west to east in Lake Erie bottom
sediments during the survey. An explanation is that sediments are
less disturbed toward the east, allowing a greater opportunity for
retention of these substances in the oxidation microzone through the
mechanisms of adsorption. The average concentration in the samples
was .001 mg/g in the western basin, .002 mg/g in the central basin,
and .004 mg/g In the eastern basin.
VOLATILE SOLIDS
Volatile solids are shown as mg/g in Tables 8, 9, and 10, and the
general area I pattern is shown in Figure 42. The western basin showed
the highest sample average at 234 mg/g. The central basin sample av-
erage was 214 mg/g, while the eastern basin average was comparatively
low at 74 mg/g. Since organic nitrogen is relatively low, and volatile
solids are high, it is indicated that a large fraction of the total
volatile solids in the western basin is nonprotein in character. Pub-
lished FWPCA data (1968) substantiate this in work done on chlorophyll
carbon and seston.
CHEMICAL OXYGEN DEMAND
The chemical oxygen demand of the bottom sediments samples averaged
-------
TABLE 8
BOTTOM SEDIMENT CHEMISTRY - WESTERN BASIN
mg/g
Sample
Location
1
2
3
4
5
6
7
8
9
10
1 1
12
13
14
15
16
Avg.
Total
1 ron
20
22
28
43
37
17
25
39
26
27
45
39
34
29
68
27
33
Total
Phosphate
.88
2.29
2.29
2.86
3.29
1.42
2.36
3.29
2.12
1.87
3.25
2.50
2.43
2.02
2.79
1.06
2.29
Sulfide
.01
.34
.05
.56
.36
.12
.27
.40
.21
.21
.04
.06
.32
.27
.25
.21
.23
Ammonia
Nitrogen
.04
.33
.29
.13
.37
.07
.20
.33
.18
.15
.24
.16
.15
.08
.19
.12
.19
Nitrogen
.000
.001
.001
.001
.002
.000
.001
.002
.001
.001
.001
.001
.001
.001
.001
.000
.001
Organic
Nitrogen
.06
.22
.25
.27
.37
.08
.22
.41
.20
.19
.28
.27
.26
.17
.28
.05
.23
Volatile
Sol ids
56
125
252
308
543
56
137
365
297
196
451
262
298
135
253
17
234
COD
40
85
72
73
80
29
51
i
68
77
43
96
74
51
75
6
63.5
86
-------
TABLE 9
BOTTOM SEDIMENT CHEMISTRY - CENTRAL BASIN
mg/g
Samp 1 e
Location
17
18
19
20
21
22
23
01
^^^
25
26
27
28
29
30
31
32
33
34
35
36
•
Avg.
Total
1 ron
17
25
32
29
72
70
43
45
60
22
28
47
43
26
68
30
13
12
16
12
21
35
Total
Phosphate
1.37
2.30
3.30
1.98
2.23
2.35
2.23
2.57
1.76
1.09
1.75
2.62
2.78
1.90
2.78
2.51
1.66
1.51
0.38
0.65
1.21
1.95
Suit ide
.17
.22
.07
.15
.03
3.62
.01
3.90
2.21
.98
1.30
2.98
.13
.87
2.99
.05
.43
.01
.01
.01
.15
.97
Ammonia
Nitrogen
.03
.09
.12
.09
.13
.16
.09
—
.10
.06
.09
.10
.21
.05
.18
.22
.03
.00
.00
—
.06
.09
87
NO -N03
Nitrogen
.000
.000
.001
.002
.001
.005
.001
.005
.008
.005
.003
.000
.000
.003
.005
.003
.002
.OCi'
.000
.001
.002
.002
Organic
Nitrogen
.08
.18
.23
.17
.12
5.05
.17
9.05
2.86
1 .48
2.07
3.10
3.12
2.00
3.82
2.39
.71
.37
.19
.45
1.08
1.84
Volatile
Solids
47
187
276
166
284
387
251
357
267
68
748
277
326
128
390
174
42
22
12
25
67
214
COD
33
73
84
49
50
80
50
86
71
57
82
61
91
47
65
79
19
37
3
21
31
55.7
-------
TABLE 10
BOTTOM SEDIMENT CHEMISTRY - EASTERN BASIN
mg/g
Sample Total Total
Location Iron Phosphate
38
39
40
41
42
43
44
45
46
47
48
49
50
51
52
53
54
55
56
57
58
59
60
Avg.
1.2
13
38
1.2
.3
6
26
18
2.8
1.4
28
45
.02
34
24
2.1
22
.23
14
28
5.6
14
6.8
14.4
1.15
1.52
1.56
1.32
1.29
1.22
2.96
2.66
0.72
0.52
2.61
1.65
1.94
1.95
3.15
0.42
1 .05
0.35
1.86
0.57
1.21
1.74
1.38
1.51
Sulfide
.03
.01
.05
.01
.04
.07
.30
.00
.03
.01
.03
.01
.01
.28
.01
.00
.01
.01
.01
.09
.00
.01
.00
.04
Ammonia
Nitrogen
.02
.01
.07
.01
.07
.19
.14
.00
.01
—
.28
.12
.00
.00
.28
.00
.04
.01
.05
.05
.01
.03
.01
.07
NO-NO
Nitrogen
.002
.002
.002
.005
.005
.000
.000
.006
.000
.004
.010
.010
.004
.009
.010
.001
.002
.004
.001
.002
.001
.001
.001
.004
Organic Volatile
Nitrogen Solids COD
0.76
0.02
1.21
0.41
0.95
1 .44
2.08
0.57
0.33
—
2.41
—
—
2.07
1.40
0.50
0.50
0.13
0.00
0.82
0.57
0.01
—
0.85
39
22
63
43
58
87
301
90
30
32
176
205
39
126
201
37
24
7
24
40
23
23
6
74
26
1
54
13
22
27
59
14
9
«
58
43
13
52
79
19
34
8
15
32
23
20
•
27.8
88
-------
83
4S°OO-
00
g
73
CONTOUR INTERVAL
O.I mg./g. DRY WEIGHT
41°
AMMONIA NITROGEN
IN
BOTTOM SEDIMENTS
OF
LAKE ERIE
7/28-8/7/64
-------
83° 30
30'
43°00'
FFALO
O
C
2}
m
IV)
OHIO
CONTOUR INTERVAL
lOOmg./g. DRY WEIGHT
lO S O
VOLATILE SOLIDS
IN
BOTTOM SEDIMENTS
OF
LAKE ERIE
7/28- 8/7/64
-------
67.4 mg/g in the western basin, 58.3 mg/g in the central basin, and
29.7 mg/g in the eastern basin. This demand is due to organic matter
and reduced inorganic species such as ferrous Iron and sulflde sulfur.
The chemical oxygen demand will vary with the oxidation-reduction
potential of the sediment being analyzed. In the central basin, during
summer anaerobiasis in the hypo limn ion, increases in sediment COD can
be expected, due to reduced oxidation-reduction potentials. Chemical
oxygen demand values follow volatile solids and total iron directions
in each basin.
ALPHA ACTIVITY OF BOTTOM SEDIMENTS
The maximum value was 44 pc/gram. The lowest values tend to be
nearer shore, and the areas with higher activity are located in the
center of the lake and toward the western end. These high values sug-
gest accumulation following circulatory bottom flow as Illustrated In
Figure 35.
BETA ACTIVITY OF BOTTOM SEDIMENTS
The mean of all samples was about 38 pc/gram, and the maximum
value was 100 pc/gram. Most of this activity is probably due to the
long half-life, mixed-fission products of prior fallout from atmos-
pheric detonation of nuclear weapons.
WATER CHEMISTRY
In the course of this Investigation, the chemical characteristics
of Lake Erie water were measured throughout the lake and at several of
its harbors. In most cases the water at each station was sampled sev-
eral times in both 1963 and 1964; and each time samples were taken at
more than one depth, ordinarily at the surface, mid-depth, and just
above the bottom. The locations of lake water sampling stations are
shown in Figure 43.
For chemical study of the water, the following were measured:
I. Temperature
2. Dissolved oxygen (DO)
3. Chemical oxygen demand (COD)
4. Biochemical oxygen demand (BOD)
5. Conductivity (ymhos at 25°C)
6. Dissolved solids (DS)
7. Total solids (TS)
8. Total alkalinity (as CaCO,)
9. Hydrogen-ion concentration (pH)
10. Chlorides
11. Sulfate (SO )
12. Calcium (CaJ
91
-------
13. Magnesium (Mg)
14. Sodium (Na)
15. Silica (SiO )
16. Soluble phosphate (PO )
17. Total Nitrogen (N) 4
18. Ammonia Nitrogen (NH,-N)
19. Organic Nitrogen (Org-N)
20. Nitrate Nitrogen (NO,-N)
21. A Iky I benzene sulfonare (ABS)
22. Phenols
23. Toxic metals (zinc, copper, cadmium, nickel, lead, chromium)
Figure 44 depicts graphically the concentrations of major constit-
uents in each of the lake's basins along with input concentrations from
the upper lakes.
TEMPERATURE
The water temperature at at I sampling stations and at all sample
depths was measured with a laboratory thermometer. Also bathythermo-
graph measurements were made at nearly alI stations.
Excessive water temperatures were not encountered at any place in
Lake Erie proper during the surveys. Temperatures were, of course,
significant in the calculation of percent saturation of oxygen and in
the determination of the extent of thermal stratification.
Lake Erie temperatures, as reported, are of no direct significance
with regard to water quality. Indirectly, by limiting oxygen dissolu-
tion and increasing chemical and biological reaction rates, high tem-
peratures can be Important.
DISSOLVED OXYGEN
Dissolved oxygen in Lake Erie, as In all natural waters, is of
prime importance in maintaining water quality. It is essential for
reduction, purification, and stabilization of wastes. It is also
metaboIica11y essential to all types of aquatic life. Adverse effects
of high oxygen content are known only In some industrial uses, tending
to accelerate corrosion of equipment.
Dissolved oxygen is supplied to pure waters by natural, physical
aeration, or absorption from the atmosphere. Oxygen is poorly soluble
in water, and since it does not react chemically with water its sol-
ubility is directly proportional to its partial pressure. As a result,
Boyle's Law may be used to calculate the amounts present at saturation
at any given temperature.
-------
43°00-
•JO
m
42
MID-LAKE WATER
SAMPLING STATIONS
LAKE ERIE
1963-1964
-------
CD
C
3}
m
200 —
ISO —
160 —
140 —
120 —
o.
100-
E 80-
o
60-
40-
20-
0 —
V)
rsr
CO
W C E
SOLIDS
1.4 —
0.0-
Bgfl UPPER LAKES INPUT
122
W-WESTERN BASIN
C-CENTRAL BASIN
E-EASTERN BASIN
NUTRIENTS
W C E
POTASSIUM
W C E
SILICA
W C E
NITROGEN
W C E
SOL. PO4
MAJOR CONSTITUENTS
W C E
CALCIUM
W C E
MAGNESIUM
W C E
SOOHJM
W C E
CHLORIDE
W C E
SULFATE
CHEMISTRY OF LAKE ERIE WATER IN WESTERN, CENTRAL AND EASTERN BASINS
-------
Water in the pure state can become temporarily supersaturated with
oxygen with a sharp increase in temperature. Ordinarily, however, in
Lake Erie, supersaturation results from the photosynthetlc process of
aquatic plant life. During the daylight hours green algae, utilizing
energy from the sun, produce carbohydrates from carbon dioxide and
water. In the process copious amounts of oxygen are released to the
surrounding water. At night, however, aquatic plant life consumes
oxygen through normal respiration. During heavy algal blooms the oxygen
may increase to 150 percent of saturation or more, while at night it may
decrease to less than 100 percent.
Organic wastes, either natural or synthetic, will decrease the
oxyqen content of receiving waters. Biochemical oxidation of wastes
proceeds at an increased rate with an increase in temperature. The
biochemical need for oxygen becomes greater as the oxygen resources
become less due to decreased oxygen dissolution with increased tem-
peratures. Most fish also have a need for more oxygen as temperatures
rise. A compensating factor is that planktonic oxygen production is
increased as temperatures rise, if incident light levels are constant.
This can lead to large vertical differences in oxygen content in waters
in the same area.
The waters of Lake Erie are normally saturated or nearly saturated
with oxygen during the months of October through April and mixing is
prevalent from top to bottom. Exceptions may occur only in the immed-
iate vicinity of lakeshore waste outfalls and the mouths of tributaries.
Beginning usually in late May the oxygen content begins to vary
in Lake Erie both areally and vertically. Harbors show oxygen de-
ficiencies and a slight reduction occurs in bottom waters of the lake.
During the months of May and June oxygen depletions in the central and
eastern basins are not serious and 80 percent or more of saturation Is
common. During these months in the western basin, temporary thermal
stratification may occur during prolonged quiescent periods (Carr,
Applegate, and Keller, 1964). If the thermocllne is near the bottom,
oxygen below It may be exhausted for short periods due to the low dis-
solved oxygen potential of the thin hypolimnion. Reoxygenatlon occurs
when wind turbulence is sufficient to destroy the thermocllne.
Stratification In the central basin may occur during the same
periods in May and June but the thermocllne is shallow and. the oxygen
content below It is high. Only slight depletion may occur. Saturation
values remain essentially constant In the eastern basin during this
time.
In June stable stratification Is established in the central basin
and in the eastern basin. The stratification, except for increasing
warmth of the epilimnlon waters, stays approximately the same until
the lake begins to cool in August. The epilimnlon waters normally are
95
-------
from 10 to 100 percent of saturation. Hypolimnion water, that part
below the thermocline, decreases in oxygen content throughout the
summer. It may reach zero in the central basin where the hypolimnion
is thin. It may decline to 60 or 70 percent of saturation In the
eastern basin below the thermocline. Low dissolved oxygen was first
observed in the central basin in 1929 (Fish, 1955). Since then it
has occurred more frequently and for longer periods.
In the western basin in mid-summer, dissolved oxygen in the sur-
face waters is maintained at or above 100 percent saturation while
bottom waters are somewhat lower, generally between 50 and 75 percent.
However, intermittent stratification occurs throughout the summer with
proper weather conditions. As previously described, oxygen may be
completely exhausted locally in bottom waters at these times. In
addition, the bottom waters have high temperatures, oxidation of or-
ganic sediments can be rapid, and oxygen depletion is quickly accom-
plished. Carr, Applegate, and Keller (1964) report that it now takes
only five days of meteorological and consequent hydro logical quies-
cence to result in oxygen exhaustion, whereas in 1953 it required 28
days.
The lake begins to cool in August. Stratification occurs less
frequently or not at all in the western basin from that time on.
However, in the central basin depletion becomes more severe since the
thermocline moves downward, the hypolimnion becomes thinner, and the
oxygen contained therein is biologically assimilated.
Oxygen depletion of significance occurs in nearshore waters only
in harbor areas and tributary mouths which are receptacles for large
volumes of wastes. The most severe conditions occur in Cleveland
Harbor and locally in Erie and Buffalo Harbors. Others with less
severe but still serious problems are the mouths of the Detroit,
Raisin, and Maumee Rivers. Conditions in these areas are more severe
upstream away from lake dilution.
CHEMICAL OXYGEN DEMAND
The chemical oxygen demand (COD) has been determined on several
hundred water samples taken throughout Lake Erie. Determinations were
made employing the potassium dichromate method. Although it gives the
order of magnitude of the ultimate biochemical oxygen demand (BOD), it
Is not a substitute for that determination. Indications of the rate
of natural oxidation are not provided and differentiation between bio-
logically oxidlzable, and biologically inert organic matter is not
discernible.
The COD of Lake Erie water samples Is Important in that It provides
an indication of degree of pollution and provides a basis for areal
comparison. COD results of the lake samples do not Indicate adverse
96
-------
water quality conditions. Extreme and average COD for samples from
each of the basins are shown in Table II.
The COD of western basin water during the summers of 1963 and
1964, averaged 10.4 mg/l with extremes of 6.5 and 28.0 mg/l. Highest
values were in the western one-third of the basin with a general de-
crease eastward. In the central basin the average was 7.1 mg/l with
extremes of 3.1 and 16.0 mg/l. The eastern basin ranged between 6.1
and 27.0 with an average of 7.4 or approximately the same as the
central basin. The highest values were near the south shore.
In harbor waters the highest COD of 53 mg/l was found near the
mouth of the Maumee River. High values were also found in Sandusky
Bay and Erie Harbor.
BIOCHEMICAL OXYGEN DEMAND
Determinations of 5-day biochemical oxygen demand (BODj.) were not
made on mid-lake samples except for a few on one cruise (66? In August
1964. However, numerous determinations were made in the nearshore
zone along the south shore. Samples were taken only during the summer
months in 1964, between May and September. BOD analyses were made on
Detroit River samples by the FWPCA Detroit River Project.
Highest BOD values were found in Sandusky Bay, averaging 3.8 mg/l;
Erie Harbor, averaging 3.3 mg/l; and in Ashtabula Harbor, averaging
3.2 mg/l. Lorain and Cleveland harbors averaged about one-half these
values. BODg values at the mouth of the Detroit River ranged from 2
to 5 mg/l. 3
BOD,, values decrease rapidly with distance from shore. The Bureau
of Commercial Fisheries reports that central basin hypolimnion water
averages about I mg/l BOD,.. A maximum of 1.5 mg/l was found by the
FWPCA in the hypolimnion in August 1964.
The BOD, values indicate that outside the nearshore areas (widest
along the Michigan shore and the Maumee Bay area) the water of Lake
Erie is of high quality in this respect.
CONDUCTIVITY AND DISSOLVED SOLIDS
A good general indicator of the chemica'l water quality of Lake
Erie is the dissolved solids content which is the content of dissolved
elements and compounds. Conductivity, or the capacity of the water to
conduct an electrical current, is directly related to the dissolved
solids content or the ionic concentration. In offshore waters, several
hundred measurements have shown that conductivity in micromhos/cm at
25°C divided by 1.66 equals the dissolved solids content in milligrams/
liter. This relation does not necessarily hold in nearshore and harbor
97
-------
TABLE 11
C.O.D. CONCENTRATIONS IN LAKE ERIE
mg/1
Western Basin Central Basin Eastern Basin
Cruise Date Max. Min. Avg. Max. Min. Avg. Max. Min. Avg.
9 4/63 ~
40 5/63 —
42 6/63 ~
52 10/63 10.6 3.5 6.5 8.6 3.1 6.4 20.9 4.7 6.9
55 4/64 -- — — — — — ~ ~
57 5/64 13.1 7.5 10.7
58 5/64 — -- — 16.0 3.6 8.4 27.0 5.7 8.8
61 6/64 28.0 4.2 12.3
62 6/64 — — — 6.0 5.0 5.5 7.0 6.0 6.1
66 8/64 — — — 9.0 7.0 8.1 13.0 6.0 8.0
67 9/64 29.0 1.1 12.0
Avg. 10.37 7.10 7.45
Michigan waters of Lake Erie not included.
98
-------
areas where the content of one or more salts may be excessive.
Table 12 and 13 list the conductivity values and dissolved solids
concentrations for the three basins as maxiumums, minimums, and averages
for each of the mid-lake cruises
-------
TABLE 12
CONDUCTIVITY IN LAKE ERIE
umhos/cm
at 25°C
Western Basin
Cruise
9
40
42
52
55
57
58
61
62
66
67
Avg.
Date Max. Min.
4/63 ~
5/63 300 262
6/63 -
10/63 304 216
4/64 ~
5/64 334 220
5/64 »
6/64 364 222
6/64 ~
8/64 —
9/64 310 196
Avg.
—
286
—
259
—
268
—
286
—
—
263
272
Central Basin Eastern Basin
Max. Min. Avg. Max. Min. Avg.
—
328 260 291 296 275 289
353 312 324 328 314 319
330 254 290 320 284 292
—
—
330 276 289
—
—
344 284 305 324 296 305
—
300 301
Michigan waters of Lake Erie not included.
100
-------
TABLE 13
DISSOLVED SOLIDS CONCENTRATIONS IN LAKE ERIE
mg/1
Western Basin
Cruise
9
40
42
52
55
57
58
61
62
66
67
Avg.
Date Max.
4/63 -
5/63 186
6/63 -
10/63 198
4/64 ~
5/64 200
5/64 --
6/64 220
6/64 -
8/64 —
9/64 190
Min. Avg.
—
172 177
—
135 156
—
120 152
—
120 170
—
—
110 153
162
Central Basin
Max. Min.
180 155
239 190
—
209 137
—
—
180 160
—
190 140
180 170
—
Avg.
170
204
—
175
—
—
177
—
170
171
—
178
Eastern Basin
Max.
190
233
—
205
—
—
190
—
160
190
—
Min.
160
183
—
161
—
—
160
—
150
160
—
Avg.
182
205
—
184
—
—
175
—
158
172
—
179
Michigan waters of Lake Erie not included.
101
-------
o
N>
c
•x
m
^
CJl
1900
1910
1920
1930
YEAR
1940
1950
I960
CHANGES IN CHEMICAL CHARACTERISTICS OF LAKE ERIE
(ADAPTED FROM flEETON,
-------
TABLE I1*
TOTAL SOLIDS CONCENTRATIONS IN LAKE ERIE
rag/1
Cruise
9
40
42
52
55
57
58
61
62
66
67
Avg.
Date
4/63
5/63
6/63
10/63
4/64
5/64
5/64
6/64
6/64
8/64
9/64
Western Basin
Max. Min. Avg.
—
—
—
196 147 166
—
250 150 187
—
250 150 188
—
—
230 140 181
181
Central Basin
Max. Min. Avg.
—
—
—
218 159 186
—
—
200 190 192
—
200 175 191
180 170 171
—
185
Eastern Basin
Max. Min. Avg.
—
—
—
222 167 193
—
—
200 190 192
—
200 180 191
240 170 178
—
188
Michigan waters of Lake Erie not included.
103
-------
increase during storms and periods of heavy runoff.
The minimum total solids concentration was found at the mouth of
the Detroit River in the mid-channel flow with a value of 140 mg/l.
This is 48 mg/l less than the average for the eastern basin, providing
a comparison of Detroit River inflow and Niagara River outflow.
CHLORIDES
Chlorides are among the most stable of the dissolved substances,
unaffected by chemical, biochemical, or physical reaction. Although
they are generally found in acceptably low concentrations, they are
very important in tracing sources of significant municipal and indus-
trial pollution. Chloride monitoring is useful In establishing long-
term trends in general water quality. Chlorides have increased three-
fold (Beeton, 1964) in Lake Erie since 1900 (Figure 45).
Maximum, minimum, and average values for mid-lake waters on each
cruise are shown in Table 15. During the survey period the chlorides
in the western basin away from nearshore areas averaged 21.3 mg/l.
In the central basin the average was 24.5 mg/l and in the eastern
basin 24.4 mg/l. The lowest value recorded was 10 mg/l at the mouth
of the Detroit River in the mid-channel flow. If this is used as a
base, or inflow concentration, then 11.3 mg/l are gained in the western
basin and 3.2 in the central and eastern basins. Thus 77 percent of
the gain is derived from inputs to the western basin (see Figure 44).
In nearshore waters chloride values are higher (Table 29). Along
the west side of the Detroit River and along the Michigan shore, values
of more than 40 mg/l are common. It is from this area of the basin
that most chlorides originate. Maumee Bay, Sandusky Bay, and Lorain
Harbor do not show concentrations much above the average lake values.
Cleveland Harbor averages 35 mg/l and ranges up to about 90 mg/l.
Ashtabula and Erie Harbors both average more than 30 mg/l. By far the
highest values have been found in Fairport Harbor, with concentrations
up to 350 mg/l in the upper water and up to ten times this amount in
the bottom waters. Chloride concentrations are so high that they
create a permanent density stratification in and around Fairport Harbor.
High concentrations and subsequent stratification dissipate to back-
ground lake values within a few miles.
SULFATES
Sulfates, like chlorides, are among the more persistent of dis-
solved compounds and are generally found in acceptably low concentra-
tions. They can be useful as tracers for pollution sources if natural
background levels are known. They are also important in establishing
long-term trends in water quality. They have increased in concentra-
tion by 90 percent in Lake Erie since 1910 (Figure 45) but now appear
to be level ing off.
104
-------
TABLE 15
CHLORIDE CONCENTRATIONS IN LAKE ERIE
mg/1
Western Basin
Cruise
9
40
42
52
55
A
*8
61
62
66
67
Avg.
Date
4/63
5/63
6/63
10/63
4/64
5/64
5/64
6/64
6/64
8/64
9/64
Max.
—
22
—
29
34
32
—
31
—
—
32
Min.
—
16
—
10
15
12
—
13
—
—
11
Avg.
—
19
—
18
21
22
—
25
—
—
23
21.3
Central Basin
Max.
31
33
—
31
46
—
28
—
26
—
—
Min.
21
20
—
19
23
—
26
—
25
—
—
Avg.
24
24
—
22
24
—
27
—
26
—
—
24.5
Eastern Basin
Max.
25
28
—
25
31
—
27
—
28
29
—
Min.
22
21
—
21
22
—
27
—
24
23
—
Avg.
23
24
—
22
24
—
27
—
26
25
—
24.5
Michigan waters of Lake Erie not included.
105
-------
Table 16 lists maximum, minimum, and average concentrations in
each basin for each sampling cruise. In the western basin for the
periods of the surveys in 1963 and 1964, suI fates ranged from 9 to
35 mg/l in open waters with an average of 17.7 mg/l. In the central
basin the range was 15 to 43 mg/l with an average of 22.4 mg/l. The
range in the eastern basin water was 17 to 33 mg/l with an average
of 23.4 mg/l. Using the value of 9 mg/l as the concentration de-
rived from upper lakes inflow, there is a gain in Lake Erie of 14.4
mg/l. Inputs to the western basin account for 60 percent of that
gain, with 40 percent from central and eastern basin sources (Figure
44).
In the nearshore zone significant concentrations have been found
in Sandusky Bay with an average of 127.1 mg/l. Lorain and Erie Harbors
did not show high concentrations. Sulfate levels at other harbors were
low, but upstream data indicate that the Cuyahoga and Grand Rivers sup-
ply significant amounts. Obviously large quantities must be derived
from the Detroit-Monroe-Toledo area. Concentrations at the Monroe,
Michigan water intake are normally more than twice the average in the
western basin.
CALCIUM
Hardness is caused by divalent metallic ions that are capable of
reacting with soap to form precipitates and with certain anions in
the water to form scale. Calcium is the principal cation associated
with this effect, and as such, knowledge of its concentration is nec-
essary for the production of satisfactory water for domestic and in-
dustrial uses.
Calcium, in its concentration pattern, is similar to sulfates in
Lake Erie (Table 17 and Figure 44). Its average concentration in the
western basin water is 33.9 mg/l with a maximum of 43 mg/l and a min-
imum of 28 mg/l. In the central basin it ranges between 32 and 49 mg/l
with an average of 39.5 mg/l, while in the eastern basin it averages
40.5 mg/l and ranges between 36 and 49 mg/l.
If the value of 28 mg/l is near that originating in the upper lakes,
then calcium is not appreciably accumulating in Lake Erie. Compared to
most other constituents, the accumulation from western basin sources is
rather low, being only 47 percent of the total accumulating in Lake Erie
exclusive of upper lakes input. An additional 45 percent accumulates
from additions to the central basin, while the remaining 8 percent
accumulates from eastern basin additions. Large quantities of calcium
have been found in Sandusky Bay, averaging 65 mg/l and ranging up to
114 mg/l.
Calcium concentrations have increased only a small amount In Lake
Erie during the past 30 years (Figure 45). Calcium will react with
106
-------
TABLE 16
SULFATE CONCENTRATIONS IN LAKE ERIE
mg/1
Western Basin
Cruise
9
40
42
52
55
57
58
61
62
66
67
Avg.
Date
4/63
5/63
6/63
10/63
4/64
5/64
5/64
6/64
6/64
8/64
9/64
Max.
—
21
25
23
—
35
—
30
—
—
28
Min. Avg.
—
11 17.7
18 21.2
14 17.7
—
11 17.1
—
9 16.6
—
—
9 16.2
17.7
Central Basin
Max.
28
43
31
25
—
—
25
—
—
22
—
Min.
22
21
18
15
—
—
20
—
—
18
—
Avg.
24.2
24.8
23.5
21.0
—
—
21.3
—
—
19.8
—
22.4
Eastern Basin
Max.
29
25
26
33
—
—
23
—
—
26
—
Min.
20
22
23
18
—
—
17
—
—
18
—
Avg.
24.1
23.7
24.3
26.4
—
—
20.1
—
—
21.8
—
23.4
Michigan waters of Lake Erie not included.
f07
-------
TABLE 17
CALCIUM CONCENTRATIONS IN LAKE ERIE
mg/1
Western Basin
Cruise
9
40
42
52
55
57
58
61
62
66
67
Avg.
Date
4/63
5/63
6/63
10/63
4/64
5/64
5/64
6/64
6/64
8/64
9/64
Max.
—
37
37
34
—
43
—
42
—
—
37
Min.
—
28
32
29
—
31
—
29
—
—
28
Avg.
—
32.4
34.5
32.2
—
36.1
—
35.4
—
—
33.3
33.9
Central Basin
Max.
38
44
39
49
—
—
47
—
—
41
—
Min.
37
34
34
32
—
—
46
—
—
38
—
Avg.
37.3
37.4
36.8
40.2
—
—
46.5
—
—
38.9
—
39.5
Eastern Basin
Max.
40
39
40
44
—
—
49
—
—
42
—
Min.
36
36
36
40
—
—
47
—
—
38
—
Avg.
38.5
37.9
. 38.0
41.4
—
—
47.6
—
—
39.9
—
40.5
Michigan waters of Lake Erie not included.
108
-------
phosphates, suI fates, and carbonates at prevailing Lake Erie hydrogen
ion concentrations (above pH 8.0) to form insoluble precipitates, thus
creating a stabilizing calcium effect.
Calcium in Lake Erie presents no known health hazard. In addition
i-t may be important in moderating phosphate concentrations by precipi-
tating them from solution.
MAGNESIUM
Magnesium also is considered as hardness but in Lake Erie is one
of the more insignificant constituents. Its content averages 8.7 mg/l
in the western basin, 10.0 mg/l in the central basin, and 10.0 mg/l in
the eastern basin (Table 18 and Figure 44).
If the minimum of 7 mg/l found at the mouth of the Detroit River
in the mid-channel flow is taken as the concentration of the upper
lakes input, then only 3 mg/l are added to Lake Erie from basin sources,
Fifty-seven percent of this amount is added from western basin sources.
Comparatively large concentrations, averaging 22 mg/l, have been found
in Sandusky Bay.
Magnesium concentrations are not expected to increase signifi-
cantly in Lake Erie.
SODIUM
Sodium has little sanitary significance in Lake Erie. It is an
indicator of relative quantities of salt being discharged to the lake
and thus an indicator to trends In chemical water quality. However,
sodium does have public health significance. In cases of cardiovas-
cular deficiency, it is imperative that sodium intake be kept at a
minimum. Waste sources to Lake Erie are from brine discharges. Max-
imum, minimum, and average concentrations for each basin are shown in
Table 19.
Sodium concentrations in the western basin water averages 9.9 mg/l
and ranges between 4.7 and 19 mg/l. In the central basin the average
concentration increases to 11.0 mg/l, ranging between 8.3 and 17 mg/l.
The eastern basin Is essentially the same as the central basin with an
average of 10.9 mg/l and a range of 9.3 to 15 mg/l.
The low of 4.7 mg/l is near the average for the discharge concen-
tration from the upper lakes. This concentration more than doubles
within Lake Erie, and 83 percent of this Increase results from dis-
charges to the western basin (Figure 44).
POTASSIUM
Potassium, like sodium, has no great sanitary significance in the
109
-------
TABLE 18
MAGNESIUM CONCENTRATIONS IN LAKE ERIE
mg/1
Western Basin
Cruise
9
40
42
52
55
57
58
61
62
66
67
Avg.
Date Max.
4/63 «
5/63 10
6/63 9
10/63 9
4/64 ~
5/64 11
5/64 »
6/64 11
6/64 —
8/64 —
9/64 11
Min. Avg.
—
9 9.3
8 8.7
8 8.1
—
7 8.5
—
8 9.3
—
—
7 8.4
8.7
Central Basin
Max. Min. Avg.
11 10 10.2
10 10 10.0
9 7 8.2
10 8 8.9
~
—
14 13 13.3
—
. —
11 9 9.7
—
10.0
Eastern Basin
Max. Min. Avg.
11 10 10.1
11 10 10.1
9 7 8.4
10 8 9.0
—
— — ^^
14 12 12^
—
— —
11 8 9.6
—
10.0
Michigan waters of Lake Erie not included.
10
-------
TABLE 19
SODIUM CONCENTRATIONS IN LAKE ERIE
mg/1
Western Basin
Cruise
9
40
42
52
55
57
58
61
62
66
67
Avg.
Date
4/63
5/63
6/63
10/63
4/64
5/64
5/64
6/64
6/64
8/64
9/64
Max.
—
9.0
11.2
13.0
—
17.0
—
17.0
— •
—
19.0
Min.
—
6.8
8.5
4.7
—
6.4
—
5.5
—
—
5.7
Avg.
—
7.78
9.80
8.47
—
10.91
—
11.24
—
—
11.27
9.91
Central Basin
Max.
12.0
12.3
14.7
13.0
—
—
17.0
—
. —
13.0
—
Min. Avg.
8.9 9.75
8.3 9.65
9.0 10.20
9.5 10.80
—
—
13.0 14.50
—
—
11.0 11.43
—
11.05
Eastern Basin
Max.
9.9
10.5
12.7
15.0
—
—
14.0
—
—
13.0
—
Min. Avg.
9.4 9.51
8.6 9.30
9.5 10.62
10.0 11.18
—
—
12.0 12.83
. —
—
11.0 11.72
—
10.86
Michigan waters of Lake Erie not included.
II
-------
Great Lakes. In most natural waters It Is reported as a part of
"sodIum-pIus-potassium" because of low concentrations and analytical
complexities. Peculiarly, as concentrations of both these elements
increase in natural waters, the proportion of sodium to potassium in-
creases. In Lake Erie the ratio of sodium to potassium Is about 8 to
I. Sodium plus potassium has approximately doubled in concentration
in Lake Erie since 1920 (Figure 45).
Potassium is an essential nutrient for aquatic life and can be
limiting in natural waters.
The potassium concentrations found in each of the basins are shown
in Table 20 and Figure 44. The concentration of potassium in the
western basin water averages 1.47 mg/l and varies from 1.0 to 4.5 mg/l.
In the central basin it averages 1.31 mg/l and ranges from I.I to 1.6
mg/l, while in the eastern basin the average is about the same at 1.34
mg/l and the range is I.I to 1.9 mg/l.
Placing the Detroit River mid-channel input concentration at 1.0
mg/l, there is a 47 percent gain in the western basin and then an II
percent drop between the western and central basins. The drop may rep-
resent uptake by aquatic life or dilution by lower-1 eve I potassium
waters.
Sandusky Bay averaged 2.6 mg/l and ranged up to 4 mg/l, indicating
it as an important source of potassium. The Michigan shore waters,
with concentrations above 4 mg/l, indicated large sources in that area.
Cleveland Harbor concentrations were similar. Other sources along the
United States shore do not appear to be significant.
SILICA
Dissolved silica (SIO ) In Lake Erie Is one of the few constituents
which shows lower concentrations, on the average, than the upper lakes.
Presumably, this is due to uptake and precipitation by aquatic organ-
isms, principally diatoms. Silica in natural waters has no known health
significance. It has some significance in industrial use, especially
in high pressure boiler feed water.
In the western basin the water averages 1.20 mg/l silica and ranges
from 0.3 to 5.0 mg/l (Table 21 and Figure 44). In the central basin the
average decreases to 0.68 mg/l, ranging from 0.2 to 3.5 mg/l. The
eastern basin water averages 0.47 mg/l and ranges from 0.2 to 3.5 mg/l.
All tributaries contribute silica, since silica is a universal
mineral. The most important sources are soil and land runoff, and
mineral refining industries.
Silica will not significantly increase the dissolved solids content
of Lake Erie.
112
-------
TABLE 20
POTASSIUM CONCENTRATIONS IN LAKE ERIE
mg/1
Weatarn Basin
Cruiae
9
40
42
52
55
57
58
61
62
66
67
Avg.
Date Max.
4/63 -
5/63 4.5
6/63 1.3
10/63 1.5
4/64 «
5/64 3.6
5/64 ~
6/64 2.3
6/64 -
8/64 —
9/64 2.0
Min. Avg.
— —
1.1 2.30
1.1 1.17
1.0 1.20
—
1.0 1.35
—
1.0 1.32
—
—
1.1 1.50
1.47
Central Baa in
Max. Min. Avg.
1.4 1.1 1.18
1.3 1.1 1.23
1.6 1.1 1.23
1.6 l.l 1.38
—
—
1.5 1.3 1.43
—
—
1.6 1.3 1.41
—
1.31
Eaatern Baain
Max. Min. Avg.
1.4 1.1 1.21
1.5 1.1 1.28
1.4 1.1 1.23
1.6 1.3 1.44
—
—
1.9 1.4 1.60
—
—
1.9 1.1 1.32
—
1.34
Michigan watera of Lake Erie not included.
13
-------
TABLE 21
SILICA CONCENTRATIONS IN LAKE ERIE
mg/1
Western Basin Central Basin Eastern Basin
Cruise
9
40
42
52
55
57
58
61
62
66
67
Avg.
Date Max. Min. Avg. Max.
4/63 -- — -- 1.4
5/63 1.8 0.8 1.36 1.1
6/63 5.0 0.7 1.87 3.5
10/63 1.6 0.4 0.83 1.2
4/64 —
5/64 2.0 0.4 1.13
5/64 — — — 0.6
6/64 2.6 0.3 1.04
6/64 ~
8/64 — — — 9.6
9/64 1.8 0.3 1.00
1.20
Min. Avg. Max. Min. Avg.
0.2 0.52 1.2 0.4 0.61
0.3 0.60 0.8 0.2 0.35
0.3 0.75 3.4 0.3 0.71
0.2 0.41 0.6 0.2 0.29
—
0.3 0.42 0.4 0.2 0.3^
—
—
0.3 1.37 3.5 0.2 0.57
—
0.68 0.47
Michigan waters of Lake Erie not included.
114
-------
ALKYL BENZENE SULFONATE (ABS)
This compound (ABS), up until July 1965, was a constituent of syn-
thetic detergents. It is difficultly degradable and is a rather stab I•
part of receiving waters. In excessive quantities, more than I mg/l,
it imparts a disagreeable taste and will foam. Much higher concentra-
tions have not produced any toxic effects on humans, however, this has
not been ascertained on aquatic life. The USPHS drinking water standards
recommend a limit of 0.5 mg/l based on taste and foam production. This
value in Lake Erie has not been exceeded.
The average concentration of ABS in the western basin water In 1963
and 1964 was 0.067 mg/l, in the central basin 0.065 mg/l, and 0.065 mg/l
in the eastern basin (Table 22). Sample values ranged from 0.01 mg/l to
0.20 mg/l. Most nearshore areas range within the same values.
SOLUBLE PHOSPHORUS
Soluble phosphorus Is a minor constituent, quantity-wise, in Lake
Erie. It has no public health significance, nor is it an important
factor in regard to chemical water quality in concentrations now found
in the lake. However, its concentration is a very important controlling
factor in Lake Erie's major water quality problem, the problem of eutro-
phication or the over-production of attached and planktonic plants.
Phosphorus is a limiting nutrient.
The maximum, minimum, and average concentrations in each basin for
all cruises are shown in Table 23. In the western basin of Lake Erie,
soluble phosphorus, during the 1963-64 surveys, averaged 0.032 mg/l and
ranged from 0.003 to 0.333 mg/l. The average was 0.010 mg/l in both the
central and eastern basins. The range in the central basin was from
0.000 to 0.066 mg/l and In the eastern basin from 0.000 to 0.033 mg/l.
Figure 44 shows phosphate (PO.) values. Phosphorus is equal to one-third
these values.
The input of soluble phosphorus from the upper lakes appears to be
approximately 0.005 mg/l. If this is true, there is nearly a six-fold
increase In the western basin of Lake Erie. However, this is followad
by a 60 percent decrease In the phosphate level of the central and eastern
basins. The decrease apparently results from both chemical and blochem-
ical precipitation and biological storage within the lake. Figure 46 shows
the soluble phosphorus distribution In the western basin for one crulsa In
September 1964 in which the west to east decrease is apparent.
Nearshore values generally are higher In the vicinity of tributaries
and harbors. Maumee Bay averaged 0.027 mg/l of soluble phosphorus during
the time of survey but apparently at times of heavy runoff the amount is
higher. Concentrations of 0.066 or more are prevalent along the Michigan
shore. Relatively high levels of phosphorus have been found in Sandusky
115
-------
TABLE 22
ABS CONCENTRATIONS IN LAKE ERIE
mg/1
Cruise
9
40
42
52
55
57
53
61
62
66
67
Avg.
Date
4/63
5/63
6/63
10/63
4/64
5/64
5/64
6/64
6/64
8/64
9/64
Western Basin Central Basin Eastern Basin
Max. Min. Avg. Max. Min. Avg. Max. Min. Avg.
0.07 0.03 0.038 0.07 0.03 0.040
0.06 0.05 0.053 0.18 0.03 0.072 0.15 0.04 0.087
0.14 0.05 0.090 0.17 0.02 0.058 0.17 0.04 0.077
0.14 0.07 0.097 0.20 0.04 0.083 0.15 0.03 0.076
—
0.10 0.5 0.075 —
0.07 0.06 0.065 0.07 0.06 0.065
0.06 0.01 0.033 --
—
0.12 0.05 0.075 0.10 0.03 0.045
0.12 0.01 0.055 --
0.067 0.065 0.065
Michigan waters of Lake Erie not included.
I 16
-------
TABLE 23
SOLUBLE PHOSPHORUS (P) CONCENTRATIONS IN LAKE ERIE
rag/1
Western Basin
Cruise
9
40
42
52
55
•
58
61
66
67
Avg.
Date
4/63
5/63
6/63
10/63
4/64
5/64
5/64
6/64
8/64
9/64
Max.
—
0.024
0.010
0.017
0.333
0.030
—
0.240
—
0.123
Min.
—
0.007
0.007
0.003
0.007
0.007
—
0.024
—
0.003
Avg.
—
0.
0.
0.
0.
0.
—
0.
—
0.
0.
014
009
008
068
013
080
034
032
Central Basin Eastern Basin
Max. Min. Avg. Max. Min. Avg.
0.020 0.003 0.009 0.017 0.003 0.009
0.020 0.003 0.011 0.017 0.007 0.011
0.040 0.003 0.005 0.033 0.003 0.009
0.023 0.000 0.008 0.027 0.000 0.006
0.027 0.007 0.014 0.017 0.010 0.014
—
0.037 o.ooo 0.012 0.037 o.ooo 0.013
—
0.066 0.000 0.013 0.024 0.000 0.006
—
0.010 0.010
Michigan waters of Lake Erie not included.
I 17
-------
SOLUBLE PHOSPHORUS (P)
LAKE ERIE - WESTERN BASIN
SEPTEMBER 9-16, 1964
CONTOUR INTERVAL ,01.t/1
-------
Bay (up to 0.056 mg/l) and Lorain Harbor (up to 0.037 mg/l). The
Cuyahoga River, in places, shows extremely high concentrations of sol-
uble phosphorus. The outer harbor has not shown these high values,
apparently because of chemical precipitation In the channel. The other
harbors along Lake Erie have not shown abnormally high concentrations.
TOTAL PH05PHOBUS
Total phosphorus analyses were not made on mid-lake waters for
this study. Total phosphorus includes both soluble and insoluble or-
ganic and inorganic phosphorus. It is apparent that phosphorus can
change in biochemical processes from the soluble to insoluble form and
vice versa. As a result, the measure of total phosphorus is more valid
in the evaluation of nutrient potential than is soluble phosphorus
determination.
Both total and dissolved phosphorus analyses were made in the
Michigan waters of Lake Erie by the FWPCA Detroit River Enforcement
Project. Those analyses showed an average concentration of 0.093
mg/l of total phosphorus and an average concentration of 0.053 mg/l
of soluble phosphorus. The Bureau of Commercial Fisheries (Carr, per-
sonal communication, 1967), in a study of central basin waters off Lorain,
Ohio in 1966, showed a total phosphorus average of 0.016 mg/l and a sol-
uble phosphorus average of 0.006 mg/l. Data from the Ontario Water Re-
Sources Commission (Steggles, personal communication, 1965) indicate
that of the total phosphorus discharged via the Grand River (Ontario),
56 percent was soluble at the time of survey. It appears then, in mid-
lake, the proportion of total to dissolved phosphates is much greater,
even though the concentrations are much less.
Analyses for total phosphorus at the National Water Quality Network
station at the Buffalo water intake show concentrations of about O.I mg/l
(Table 24). The values are reported to the nearest O.I mg/l. It is
likely that if they were reported to the nearest 0.01 mg/l, the phos-
phorus levels would be something less than O.I mg/l.
NITROGEN
Nitrogen in Lake Erie is similar to phosphorus in that its effect
on water quality is felt in its nutritional stimulus to plant growth.
Under Isothermal conditions, it is not a factor of importance in water
supplies, however, during summer stratification, where water intakes are
located beneath the thermocline, ammonia concentrations assume proportions
where large increases in raw water chlorine demand must be satisfied.
Total nitrogen includes all forms, organic and inorganic found In
water. Organic nitrogen is unavailable as a nutrient until it is oxidized
to the inorganic forms.
The inorganic forms of nitrogen are elemental nitrogen, ammonia
nitrogen (NH ), nitrate nitrogen (NO ), and nitrite riitrogen (NO ). The
M9
-------
TAfflJE
CHEMICAL ANALYSES
National Water Quality Network Stations
•TATS
MAJOR BAWN
MINOR BASIN
STATION IjOCATIOM
NEW YORK
NORTHEAST
LAKE ERIE-NIAGARA RIVER
BUFFALOt NEW YORK
OAJ1
VUJfinl
a
10
10
10
10
10
11
11
11
11
12
1
1
1
1
1
2
2
2
2
3
3
3
3
4
4
4
<»
5
5
5
5
5
6
6
6
7
7
7
7
\
3
10
17
24
31
8
14
21
28
5
2
9
16
23
30
6
13
20
27
6
12
20
27
3
10
17
24
1
8
15
22
29
4
12
19
3
10
11
17
\
62
62
62
62
62
62
62
62
62
62
63
63
63
63
63
63
63
63
63
63
63
63
63
63
63
63
63
63
63
63
63
63
63
63
63
63
63
63
63
iwr.
(»v~.
12.0
18. 0
17.0
14.5
12.0
10.5
10.0
10.0
9.5
10.0
11.0
5.0
2.0
.3
2.0
2.5
3.0
3.0
3.0
3.0
3.0
4.0
3.0
4.0
4.7
4.0
5.3
5.0
5.0
19.0
12.0
13.0
19.5
18.0
23.0
25.0
22.5
-
23.0
DKSOIVB
OZTOM
-•/I
9.4
8.9
9.0
9.3
10.0
10.0
10.8
11.0
11.2
11.2
14.0
13.5
13.4
13.5
13.0
13.5
13.6
13.7
13.0
13.5
13.5
13.5
13.6
13.4
13.0
13.0
14.0
12.6
12.0
12.2
11.2
11.8
11.5
9.0
9.5
8.0
9.0
-
8.0
p"
8.4
8.3
8.3
8.2
8.2
8.2
8.2
8.2
8.1
8.2
8.1
-
8.0
8.2
8.0
8.2
8.1
8.1
8.0
S.I
8.0
8.0
8.0
8.1
8.4
8.1
8.2
7.9
8.1
8.2
8.2
8.4
8.6
8.3
8.5
8.4
8.2
-
8.4
•.on.
-•/l
3.1
1.3
1*1
2.6
2.0
1.5
1.7
2.2
1.8
1.1
1.8
1.5
1.8
1.2
2.0
1.7
1.0
1.6
1.5
1.1
1.1
1.9
3.9
1.2
1.0
1.5
1.7
3.1
2.2
2.0
1.9
2.2
2.1
2.0
2.8
2.5
2.0
-
.8
COA.
•w<
5
15
14
14
15
10
12
16
13
10
10
11
9
12
16
16
15
14
14
14
13
141
14
11
15
il
11
15
5
18
18
17
15
17
14
7
11
-
9
ONOtlttf MMAMO
I44OUB
•W*
.9
.6
.9
.9
.9
1.2
.9
.8
.6
.8
.8
.4
.5
.1
.4
.2
.2
.8
1.4
1.4
1.4
.8
1.4
.8
.4
.6
.8
.8
.8
.6
.8
.9
.9
1.6
.9
.a
.9
-
.7
M-tKXM
-•/I
2.8
1.4
1.7
1.6
1.8
2.6
1.9
-
1.8
1.1
1.9
1.6
1.9
1.7
1.7
1.2
1.6
2*2
2.8
3.0
2.4
2.2
2.4
1.8
1.2
1.8
2.0
1.2
2.2
1.8
1.8
-
2.1
4.0
2.9
-
2.2
-
2.7
AMMONIA.
MTMOM
••/I
.0
• 0
• 0
.0
.0
.0
.0
.0
• 0
.0
.0
.0
.0
.0
• 0
.0
-
.0
.0
.0
.0
• 0
.0
.0
.0
.0
.0
.0
.0
.0
.0
-
-
.0
.0
.0
-
-
.0
emotion
-•/I
23
23
23
20
23
23
23
23
23
23
23
23
23
23
23
23
23
23
23
23
23
23
23
23
20
20
23
20
18
23
23
23
23
23
23
20
23
—
23
AlXAUMfTY
-*1
88
88
88
88
88
88
86
88
86
86
88
88
88
90
92
88
90
80
90
86
92
90
88
84
88
84
86
72
80
80
80
84
86
80
84
84
86
-
84
HAIONIU
•nfl
136
134
130
138
140
128
140
138
142
134
138
136
138
128
136
132
134
130
134
132
134
136
138
132
132
126
136
120
120
132
134
126
124
126
126
128
124
—
124
coiot
!«l.~lM)
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
-
0
TUIMHTT
(—!.-»•»
6
5
10
14
20
8
7
12
9
5
33
12
12
11
15
9
7
6
7
4
14
7
7
10
9
15
5
10
0
10
11
9
3
15
15
40
5
-
7
fuiMm
•w/1
21
24
25
27
26
28
20
20
20
20
21
21
21
21
21
20
20
20
20
22
22
21
22
20
22
20
20
20
20
20
20
21
22
21
20
20
21
—
21
ntoinvn
••/I
.1
.1
.1
.1
.1
.1
.1
.1
.1
.1
.1
.1
.1
.1
.1
.1
.0
.1
.1
• 1
.1
.1
• 1
.1
• 1
• 1
.1
.1
• 1
.1
.1
.1
.1
.1
.1
.1
.1
—
• 0
raui
OKsoiva
SOUM
•o/l
223
254
192
190
207
180
187
186
193
185
205
173
188
197
189
197
194
190
189
197
185
201
183
211
180
175
157
156
184
174
197
197
194
185
187
214
194
—
169
COUfdM
rmlofmL
•40
•40
43
40
24
60
•4
20
•4
10
•4
—
•4
—
_
—
*
•4
•10
?<>
20
•10
•40
20
•4
20
10
•4
—
«.
20
64
„
-
•4
10
—
•»
50
-------
nitrogen cycle includes all these forms. The chemical and biological
condition of the water gives rise to considerable variations in levels
of each form present.
For the periods of the 1963 and 1964 surveys the total nitrogen
content of the western basin averaged 0.71 mg/l and varied from 0.17 to
2.66 mg/l (Table 25 and Figure 44). In the central basin and the east-
ern basin, the levels were nearly identical with averages of 0.43 and
0.42 mg/l, respectively. The extremes were 0.10 and 1.30 mg/l. Figure
47 shows the total nitrogen distribution in the western basin for one
cruise in September 1964.
Nitrite nitrogen and elemental nitrogen are not significant in the
waters of Lake Erie since the oxidation-reduction potential is such to
discourage duration of these forms. Ammonia nitrogen, for the periods
of survey, averaged 0.159 mg/l In the western basin water and ranged
from 0.01 to 9.77 mg/l (Table 26). In the central basin the average was
0.086 mg/l with a range of 0.00 to 0.39 mg/l. The eastern basin average
was identical to that of the central basin and the range was nearly so,
0.00 to 0.32 mg/l.
,<
Nitrate nitrogen averaged 0.124 mg/l in the western basin with a
range of 0.02 to 1.50 mg/l (Table 27). In the central and eastern basins
the averages were Identical at 0.090 mg/l. The range in the central
basin was 0.01 to 0.50 mg/l while in the eastern basin it was 0.01 to
0.85 mg/l.
Organic nitrogen averaged 0.36 mg/l in the western basin, 0.25 in
the central basin, and 0.24 in the eastern basin (Table 28).
Nearshore areas, especially harbors, show widely varying nitrogen
concentrations in all three measured forms. In the western basin, values
approximately double the mid-lake concentrations, whereas in the central
and eastern basins, the values are only slightly higher, on the average,
than mid-lake (Table 29).
OTHER CHEMICAL CONSTITUENTS OF LAKE ERIE WATER
Analyses have been made for several metals in western basin water
where concentrations exceed those in the remainder of the lake. Table
30 shows the acceptable limits listed in the 1962 U. S. Public Health
Service Drinking Water Standards and the concentrations in western basin
water for the listed metals.
TABLE 30
SubstanceU.S. PHSConcentration
Limit (mg/l) Western Basin (mg/l)
Zinc
Copper
Cadm! urn
Nickel
|.ead
IChromi um
5.0
1.0
0.01
—
0.05
0.05
.00-. 23
<.OOI
<.OOI
<.OOI
<.OOI
<.OOI
121
-------
TABLE 25
TOTAL NITROGEN CONCENTRATIONS IN LAKE ERIE
mg/1
Cruise
9
40
42
52
55
57
58
61
62
66
67
Avg.
Date
4/63
5/63
6/63
10/63
4/64
5/64
5/64
6/64
6/64
8/64
9/64
Western Basin Central Basin
Max. Min. Avg. Max. Min. Avg.
0.68 0.13 0.47
0.67 0.53 0.59 0.93 0.07 0.33
0.71 0.60 0.65 1.09 0.26 0.42
0.72 0.31 0.50 0.89 0.18 0.45
—
2.02 0.25 0.90
1.30 0.12 0.42
2.66 0.17 0.76
—
0.83 0.20 0.50
2.30 0.20 0.86
0.71 0.43
Eastern Basin
Max. Min. Avg.
1.16 0.10 0.41
0.75 0.13 0.32
0.61 0.20 0.39
0.80 0.23 0.46
—
f__
—
—
1.00 0.21 0.47
—
0.42
Michigan waters of Lake Erie not included.
122
-------
TOTAL NITROGEN
IN
LAKE ERIE - WESTERN BASIN
SEPTEMBER 9-16, 1964
CONTOUR INTERVAL .IOmg/1
-------
TABLE 26
AMMONIA NITROGEN CONCENTRATIONS IN LAKE ERIE
mg/1
Cruise
9
40
42
52
55
57
58
61
62
66
67
Avg.
Date
4/63
5/63
6/63
10/63
4/64
5/64
5/64
6/64
6/64
8/64
9/64
Western Basin Central Basin Eastern Basin
Max. Min. Avg. Max. Min. Avg. Max. Mln. Avg.
0.10 0.02 0,055 0.32 0.01 0.104
0.09 0.04 0.055 0.11 0.00 0.031 0.27 0.00 0.046
0.26 0.09 0.160 0.23 0.06 0.128 0.29 0.08 0.135
0.19 0.03 0.083 0.17 0.02 0.068 0.22 0.02 0.058
—
0.23 0.07 0.143 —
0.23 0.01 0.089 0.27 0.01 0.082
0.60 0.04 0.256 --
—
0.39 0.04 0.144 0.31 0.02 0.094
0.77 0.01 0.258 —
0.159 0.086 0.086
Michigan waters of Lake Erie not included.
124
-------
TABLE 27
NITRATE NITROGEN CONCENTRATIONS IN LAKE ERIE
rag/1
Western Basin Central Basin Eastern Basin
Cruise
9
40
42
52
55
57
58
61
62
66
67
Avg.
Date Max. Min. Avg. Max.
4/63 — ~ — 0.13
5/63 0.25 0.02 0.113 0.13
6/63 0.06 0.02 0.040 0.84
10/63 0.29 0.09 0.157 0.42
4/64 —
5/64 -
5/64 — — — 0.50
6/64 1.50 0.03 0.287 —
6/64 ~
8/64 — « — 0.36
9/64 0.54 0.02 O.L48 —
0.124
Min. Avg. Max. Min. Avg.
0.02 0.052 0.06 0.01 0.019
0.02 0.047 0.17 0.02 0.039
0.02 0.063 0.03 0.01 0.018
0.03 0.111 0.47 0.01 0.091
—
—
0.00 0.121 0.52 0.06 0.207
—
—
0.01 0.146 0.85 0.07 0.164
—
0.090 0.090
Michigan waters of Lake Erie not included.
125
-------
TABLE 28
ORGANIC NITROGEN CONCENTRATIONS IN LAKE ERIE
mg/1
Cruise
9
40
42
52
55
57
58
61
62
66
67
Avg.
Date
4/63
5/63
6/63
10/63
4/64
5/64
5/64
6/64
6/64
8/64
9/64
Western Basin
Max.. Min. Avg.
—
0.42
0.45
0.26
—
—
—
0.21
—
—
0.45
0.36
Central Basin
Max. Min. Avg.
0.36
0.25
0.23
0.27
—
—
0.21
—
—
0.21
—
0.25
Eastern Basin
Max. Min. Avg.
0.29
0.24
0.24
0.31
—
—
0.16
—
—
0.21
—
0.24
Michigan waters of Lake Erie not included.
126
-------
TABLE 29
WATER QUALITY-NEARSHORE AND HARBORS
(rag/1 or pmhos/cm)
Parameter
Michigan
waters of
Lake Erie
Min Max
Cond (B5°C)
DS
TS
Chlor.
Sol PO,
SOjj
SiOp
K
Mg
Ca
Na
ABS
Alk
PH
Temp
D05SS
BOD
COD
Phenol
Total N
Org N
Amm N
Nit N
27 82
.05 .20
<.025
78 157
8.U 9.2
o.o 0.058
0.20 0.30
0.20 0.30
0.11 0.91
Maumee
Bay
Min Max
280
200
200
20
.02
0,6
l.H
12
35
12
.05
86
7.H
21
60
1.5
12
.82
.07
.30
.00
U60
290
350
32
-.19
—
1.7
2.6
18
U2
20
.15
120
9.7
25
95
H.O
53
—
3.H5
1.33
1.80
.80
Sandusky
Bay
Min Max
256
190
210
16
.02
25
0.3
1.2
10
38
10
.05
87
7.5
23
65
2.1
13
.82
.53
.01
800
680
760
32
.17
256
5.9
H.O
38
11H
16
.20
120
9.1
26
115
6.3
H2
—
3.50
2.30
1.80
Lorain
Harbor
Min Max
300
160
170
19
.02
27
.HO
1.3
9
3H
10
.05
83
7.5
2H
80
1.0
10
.50
.01
.12
00
3HO
230
270
25
.11
37
1.10
2.2
11
38
13
.15
99
8.7
25
95
2.3
28
—
H.20
1.10
.90
2.90
Cleveland Fairport
Harbor Harbor
Min Max Min Max
330 5920
180 370 180 6000
180 680 190 6100
1H 88
— —
__ __
_ — — _
— — __
__ __
— —
— —
— —
81 130 90 110
6.7 9.5 7.1 8.7
16 21 23 29
70 95 80 130
— —
8 22 8 12
_ _
__
—
—
—
Ashtabula
Harbor
Min Max
170
180
2H
.02
9H
8.2
15
95
2.0
7
.29
.03
__
230
250
H2
.06
__
__
..—
__
__
— _
—_
100
8.5
17
110
5.6
11
_«
.H9
1.55
Erie
Harbor
Min Max
330
180
200
26
.01
26
.3
l.H
9
17
.07
90
7.3
16
Avg.
Avg.
Avg.
.66
.30
.12
.07
360
290
290
38
.03
HH
.5
1.9
9
H7
21
.1H
96
8.1
19
60%
3.3
2k
.80
.59
.23
.1H
-------
Lake Erie contains no known chemical substances in quantities
toxic to aquatic life or sufficient to cause any sort of health
hazard to users of the water. This does not apply to tributary waters
in highly industrialized areas where concentrations may, under certain
conditions, be hazardous. Such areas exist at Detroit, Lorain,
Cleveland, Fairport, and Ashtabula.
RADIOCHEMISTPY
Radioactivity is defined as the spontaneous emission of alpha,
beta, or other radiation by the disintegration of unstable atomic
nuclei. Naturally-occurring, radioactive isotopes usually decay (dis-
integrate) by stepwise emission of alpha or beta particles to form
stable isotopes. An artificially produced radioisotope, however,
generally decays in a single step by the emission of a beta particle.
Alpha and beta particles have the ability to ionize any matter
with which they interact by the production of ion-pairs. It is the
formation of such ion-pairs in biological tissue that results in cell
destruction, impairment, or mutation.
Radioactive wastes discharged to the environment are not absorbed
in harmless fashion. Even though decay and dilution may occur, radlo-
nuclides may be concentrated physically, chemically, and/or through
biological assimilation and retention. As a result the radionucllde
concentration will increase as it passes through the environment to
the point of human contact.
Human exposure to radioactively contaminated surface water can
result when the surface water is used as a public water supply. In
addition, biologically concentrated radioactivity can be assimilated
through the ingestion of fish and other aquatic life.
Prior to cessation of atmospheric nuclear testing, fallout was
the most significant source of radioactive pollution to Lake Erie.
Other possible sources are the atmospheric and drainage discharges
of reactor plants and of licensed radioisotope users in the basin.
ALPHA ACTIVITY OF LAKE WATER SAMPLES
The annual mean concentrations of alpha radioactivity in sus-
pended and dissolved solids observed In samples from Lake Erie were
0.6 and 1.6 pc/l, respectively, for 1963.
The highest averages and maxima in 1963 occurred near the mouth
of the Black River where the suspended solids mean and maximum were
1.5 and 4.6 pc/l, respectively; and the dissolved solids mean and
maximum were 5.2 and 12 pc/l, respectively.
128
-------
All 1964 averages were low in alpha activity with none exceed-
ing 5.3 pc/l.
BETA ACTIVITY OF LAKE WATER
All suspended solids average beta activities were low for both
1963 and 1964. The 1963 means ranged from 8.9 to 18 pc/l with a
weighted mean of 14 pc/l; the 1964 mean, however, ranged from 3.9 to
9.5 pc/I with a weighted mean of 7.9 pc/l.
ALPHA ACTIVITY OF PLANKTON SAMPLES
The gross alpha radioactivity in plankton samples was less than
one to 30 pc/gram of ashed weight for 1963 with a mean value of 8.3
pc/gram, and from less than one to 20 pc/gram with a mean of 8.7
pc/gram for 1964. These ranges and means are essentially the same.
The radioactivity levels (both alpha and beta) in plankton are higher
than in water due to the concentrating effect of biological materials.
Published work (Williams, Swanson) has shown the effectiveness of
Euglena and Chlorella in decontaminating water of cesium 137. In 6*days
Euglena reduced the degree of contamination 69 percent - 96 percent in
34 days.
Since alpha activity is usually associated with naturally occur-
ring radioisotopes, and such isotopes, being of high atomic number,
seldom appear as components of plankton, low alpha activities for
plankton can be expected.
BETA ACTIVITY OF PLANKTON SAMPLES
Gross beta values range from 33 to 1200 pc/gram with a mean of
160 pc/gram for 1963, and from 76 to 400 pc/gram with a mean of 190
pc/gram for 1964. The ranges are similar except for the value of
1200 pc/gram which came from a sample collected off the tip of Long
Point toward the east end of the lake.
129
-------
CHAPTER 4
LAKE ERIE BIOLOGICAL CHARACTERISTICS
Aquatic biological life is sensitive to physical and chemical
changes in its environment. Biological effects are often relatively
extreme, and for this reason, the aquatic community is an excellent
indicator of water quality. The important considerations are the
total population, types, and relative numbers of each type. Pristine
water and its bottom sediment contain a low total population, many
types, and low numbers of each type. As water is degraded, the total
population increases, the number of types decrease, and the numbers
of a few resistant types increase greatly.
The total numbers increase because of increased nutrient content
in the water. Organisms which more readily take advantage of high
nutrient content and organic sediments begin to predominate. [Bottom
organisms which can withstand extended periods with little or no
oxygen may replace those requiring an abundant oxygen supply. Plankton
and fish populations change to those which are less desirable from a
human standpoint. Plankton may cause taste and odor problems in water
supplies and the clogging of intakes and filters. "Rough" fish may
replace those prized for their edibility.
Lake Erie is presently experiencing rather dramatic changes in
its biological productivity. These changes are not at the natural
sequence rate, and can be related directly to man's activities.
LAKE BOTTOM BIOLOGY
The benthic fauna are minute animals which live on and within the
lake bottom sediments. Some have been classified, rather non-precisely,
as "pollution-tolerant" or "pollution-sensitive". This classification
rests on the ability of an organism to withstand periods of deficiency
or absence of dissolved oxygen and does not imply that some organisms
might prefer a lack of oxygen. Accordingly, these terms will be used
in the following narrative.
Studies conducted by the U. S. Bureau of Commercial Fisheries
between 1929 and 1959 (Beeton, 1961 and Wright, 1955) and personnel at
the Franz Theodore Stone Institute of Hydrobiology (Britt, 1955 a and b)
show significant changes in population, type, and habitat of bottom-
dwelling organisms in western Lake Erie. Pollution-tolerant forms have
increased greatly along the west side of the basin and in the island
area. These include Tubificidae, Sphaeriidae, and Tendipedidae. As
130
-------
an example in the island area, Tubificidae have increased from 10 or-
ganisms per square meter in 1929 to 550 organisms per square meter in
1957. During the same period Tendipedidae increased from 60 to 300
organisms per square meter. The Sphaeriidae showed a three-fold in-
crease at two index stations near South Bass Island.
The pollution-sensitive caddis fly larvae (Tricoptera) and the
mayfly (Hexagenia spp.) have been drastically reduced in numbers.
Beeton (1961) reported that the formerly abundant Tricoptera larvae
averaged less than one per square meter in 1957. The burrowing mayfly
nymph, which lives in soft mud and feeds on detritus, was the most
common macro!nvertebrate in the western basin prior to the early I950's.
Wright (1955) found 285 and 510 nymphs per square meter in 1929 and
1930, respectively, In the island area. Chandler (1963) summarized
studies made between 1942 and 1947 and reported an average of 350
nymphs per square meter for that period. Wood (1963) found an average
of 235 per square meter for 204 samples collected in 1951 and 1952.
In June 1953 Britt (1955) found approximately 300 nymphs per square
meter. After sampling again in September following a five-day period
of thermal stratification and bottom oxygen depletion Britt found only
44 nymphs per square meter. The succeeding year showed a good re-
covery but Beeton in 1959 found only 39 per square meter. In June 1964
the U. S. Public Health Service found only two nymphs in samples from
47 island area sites. None were found in the Michigan waters of the
basin.
Published quantitative data are not available on the bottom fauna
of central and eastern Lake Erie. Newspaper articles, dating back to
1927 describe "immense swarms" of mayflies blown into the city of
Cleveland. A decline was first noted in 1949 but they reappeared in
1950 and were reported yearly through 1957. They were not reported
after 1958.
Ferguson (personal communication), on a transect between Port
Burwell and Conneaut in the spring and summer of 1958, showed popula-
tions of Tubificidae, Tendipedidae, Sphaeriidae, Amphlpoda, Tricoptera,
and Gastropoda. Gut contents of blue pike demonstrated that the pol-
lution-sensitive Tricoptera and Amphipoda were common food.
The results of bottom fauna surveys of Lake Erie by the U. S.
Public Health Service in 1963 and 1964 are summarized in Figure 48.
It shows the relative abundance of the pollution-sensitive scud to the
more tolerant sludgeworms, bloodworms, fingernail clams and nematodes.
Figure 49 divides the lake into four zones based on the benthic fauna
populations. It is evident that most of the western and central basins
were characterized by the lack of pollution-sensitive scud and prepon-
derance of pollution-tolerant species of sludgeworms, bloodworms,
fingernail clams, and nematodes. A few areas in the western basin, the
131
-------
NUMBERS CONNECTED TO STATIONS
ARE TOTAL 0«8»NIS"« PER SQUARE
METE" .
LAKE ERIE
BENTHIC POPULATIONS
SPRING, SUMMER, AND FALL
1963 AND 64 COMBINED
-------
so'
LAKE ONTARIO
CANADA
MICHIGAN
NEW YORK
LEGEND
PENNSYLVANIA A
LAKE ERIE
BENTHIC FAUNA DISTRIBUTION
1963 and 1964
-------
eastern part of the central basin, and the eastern basin support a
good population of pollution-sensitive scud and are indicative of the
more favorable environmental conditions in these areas. The four
zones shown in Figure 49 are described as follows:
Zona A - Contains only the pollution-tolerant groups, sludge-
worms, fingernail clams, nematodes, and pollution-tolerant species of
bloodworms.
Zone B - In addition to groups in Zone A, the following groups of
intermediate tolerance were found: aquatic sowbugs, snails, leeches,
and several additional species of bloodworms.
Zone C - May contain any organisms found in Zones A and B but
the two species of scuds (Gammarus faseiatus and/or Hyalella azteca)
are always present.
Zone D - May contain any group of organisms listed in Zones A,
B, and C but always contains the intolerant scud (Pontoporeia affinis).
Zones C and D had the greatest variety of bottom-dwelling organ-
isms and were characterized by the presence of scuds at each station.
Gammarus faseiatus was found regardless of bottom type and HyaIe11 a
azteca was present at many locations associated with a sand, gravel,
or rock bottom. Pontoporeia affinis which requires cold, deep, clear,
and we 11-oxygenated water occurred only in Zone D. i
The variety of bloodworms Is also important. All lakes have a
variety of bloodworm (midge) larvae as part of the benthic fauna, and
their habitats vary according to the quality of the overlying water.
Curry (Unpublished) classified the larvae according to one of four
categories depending upon their environmental requirements. The cate-
gories (I) Pollution-tolerant, (2) Cosmopolitan, (3) Clean-Water, and
(4) Others, adequately covered the 38 species identified in Lake Erie.
The Pollution-tolerant species include larvae existing even for
a short period of time in habitats having sediments with a high per-
centage of organic matter, low dissolved oxygen, rather high tempera-
tures, and possible septic conditions. The Clean Water species in-
cluded larvae that were found in the colder, deeper waters of oligo-
trophic lakes and streams. In these areas the temperatures were
lower, dissolved oxygen high, and septic conditions were never present.
Larvae classified as Cosmopolitan species were found in both pollution-
tolerant and clean-water environments. The Other species group in-
cluded larval forms found only occasionally in any bottom samples.
Usually these larvae were restricted to isolated regions of the lake.
This could be due to one or more factors including depth, temperature,
food, carbon dioxide, or oxygen.
134
-------
Of the 38 identified species in the lake, 54 percent were
Pollution-Tolerant, 43 percent Cosmopolitan, I percent Clean Water,
and 2 percent Other. The population of bloodworm larvae inhabiting
the central portion of Zone A was composed of 80 percent Pollution-
Tolerant species. Zone A is also the area that contained the fewest
number of species of bloodworm larvae. Curry, in unpublished data,
gives a more detailed treatment of the bloodworm distribution data.
Dissolved oxygen data from studies conducted by the Public Health
Service, Bureau of Commercial Fisheries, and the Great Lakes Institute
are summarized in Figure 50. This map shows that Zone A is approx-
imately the area in which dissolved oxygen concentrations of less than
2.0 mg/l have been found in the hypolimnion during the summer. Not
only was the number of species much less in the area of low dissolved
oxygen, but the following table indicates that total numbers were
lower as well. Stations chosen for this comparison were between 13
and 22 meters deep where a persistent thermocline is present from mid-
June to mid-September. Bottom deposits were mostly mud in the low
dissolved oxygen area and mud and sand in adjacent areas.
BENTHIC FAUNA
Number of Organisms per square meter
West of Low
DO area
Spring Fal 1
Low DO
Area
Spring Fal 1
East of Low
DO area
Spring Fal 1
Tub!fici dae
Tendipedidae
Sphaeri i dae
Amphi poda
Other
Total
1,850
47
350
1
121
2,369
1 ,830
407
502
7
145
2,891
354
107
162
69
73
2,300
278
307
465
221
438
765 3,571
The dissolved oxygen deficit not only limits the number of species
but limits the total numbers as well, even though the sediments are
higher in organic matter.
Zone B is a transition area where the pollution-intolerant scuds,
mayflies, unionid clams, and caddis flies were absent. Intermediately
tolerant forms such as the aquatic sowbug (Asellus militari s), snail
(Gastropoda), and leech (mostly Helobdella sp.) were found. Zone B
approximates the area where dissolved oxygen was between 2.0 and 4.0
mg/l in the hypolimnion during the summer of 1964.
135
-------
8Se50'
83°
30
43°OO-
30
42
IFFALC
c
•33
m
en
O
AREA OF THERMAL STRATIFICATION
2-4mg/l
LAKE ERIE
DISSOLVED OXYGEN
BOTTOM WATERS
AUGUST 14-31, 1964
-------
The distribution of the mayfly nymph (Hexagenia spp.) is diffi-
cult to plot graphically because of erratic occurrence. This genus
can apparently survive only a short time when dissolved oxygen in the
water is less than 4.0 mg/l and water temperature relatively high.
The genus rarely occurs in water deeper than 50 feet, and since it
requires a soft bottom its absence cannot always be attributed to poor
water quality. Data from inshore stations where bottom type and depth
were suitable for Hexagenia spp. showed the nymph was absent along the
south shore except at one station northeast of Ashtabula. Hexagenia
was abundant at all stations in Long Point Bay and in small numbers
at most suitable locations near the Canadian shore of the eastern
basin. A few Hexagenia spp. nymphs were found near the Canadian shore
at the mouth of the Detroit River in 15 feet of water and near Colchester
and Kingsville, Ontario.
A special study was conducted in the island area of Lake Erie in
June 1964, to determine Hexagenia populations where they were formerly
the most abundant macroinvertebrate inhabiting the bottom. The entire
island area was sampled at 47 stations and only two nymphs were found.
The bottom dwelling animals, except in shallow rocky areas, were pre-
dominately sludgeworms, bloodworms, and fingernail clams with only a
few unionid clams and snails.
LAKE WATER BIOLOGY
ALGAE
Algae are indicators of water quality. Increases in total pro-
ductfvity and decreasing variety indicate degradation resulting from
increased nutrient content in the water.
Increases in productivity of both phytoplankton and the filamen-
tous green alga, Cladophora sp., have been noted in the literature.
Nuisance growths of CIadophora have been reported for many years in
the island area (Langlois, 1954). However, in recent years island
residents report the problem has become worse. Reports indicate that
CIadophora nuisance problems have also increased on beaches around Erie,
Pennsylvania and on New York beaches in the last several years. Neil
and Owen (1964) report many Canadian beaches are also experiencing
increased problems.
Chandler (1940, 1944) and Chandler and Weeks (1945) evaluated
extensive phytoplankton, chemical, and physical data collected between
1938 and 1942 around the Bass Islands. It was concluded that phyto-
plankton populations were highly variable from year to year and that
phytoplankton productivity based on only one year could be misleading.
Chandler and Weeks believed these variations to be related to physical
changes such as temperature, turbidity, and solar radiation rather than
chemical changes. During the study period, diatoms never comprised
137
-------
less than 27 percent of the total, and total numbers never exceeded
1,000,000 units per liter. Blue-green algae were rarely predominant
and never exceeded 52 percent of the total. Generally, the predom-
inant spring genera were Synedra, Asterionella, Fragilaria, labellaria,
and CycIoteMa. Casper (1965) indicated that productivity had in-
creased significantly and species composition changed to a great degree
since 1942. Samples collected around the island area in September 1964
gave total counts of up to 3,500,000 units per liter with blue-greens
comprising 70 percent of the total. Samples collected in April 1964
also yielded higher counts than any reported during the 1938-1942 study.
Davis (1964) has summarized plankton data accumulated by the
Cleveland Division Avenue Filtration Plant since 1919. Although yearly
variations are large, a definite long-term increase in plankton pro-
ductivity is apparent as shown in Figure 51. The data show that plank-
ton counts have increased from a yearly average of 200-400 cells/ml
between 1920 and 1930 to a current average of 1,500-2,300 cells/ml.
This indicates an increase in algal concentration of between 500 and
700 percent in the Cleveland area. The data also indicate an increase
in duration of pulses. A pulse is a profusion of algae at a certain
period of the year. Comparing the phytoplankton abundance between
1927 and 1962, Figure 5IF, the increase in duration is very apparent.
The spring and autumn pulses in 1927 occurred from March to April and
from late August to mid-September, respectively. In 1962, the spring
and autumn pulses occurred from mid-February to mid-April and from
mid-June to mid-September, respectively. Correspondingly, the lows
are now shorter in duration and numbers of phytoplankton per milliliter
have increased considerably. There has also been a significant change
in dominant genera of the spring and autumn phytoplankton pulse as
indicated in Table 31. The dominant spring genera have changed from
Asterionella to Me Ios i ra. A corresponding shift in the fall pulse
has been from Synedra to Me Ios i ra to Fragilaria. During recent years
the autumn pulse has shown an increase in importance of green and
blue-green algae such as Pediastrum, Anabaena, and OsciIlatoria re-
placing in part the previous dominance by diatoms. Burkholder (I960),
in the central and eastern basin in 1928-29 showed that diatoms were
the dominant group of phytoplankters during June and July while in
August the ratio of diatoms to green and blue-greens decreased. By
mid-September, however, the diatoms once again were by far the dominant
group. The data also showed that concentrations of phytoplankton never
exceeded 2,000 per liter.
During the spring and summer of 1964, U. S. Public Health Service
personnel made several visits to the island area of western Lake Erie
to determine the extent of Cladophora growths. Around the islands,
the rocky shorelines and reef areas provide an ideal substrate for
Cladophora attachment. Under these conditions the major factors in-
fluencing abundance are nutrient supply, solar radiation, turbidity,
and adequate wave action.
138
-------
2SOO-
2000-
1300-
o looo-
soo-
iujl
6400-
6000-
«/) 4000
1000-
20 30 40 50 60
A. YEARS
Average phytoplankton cells per
mi Hi liter for all years with
complete records, 1920 to 1963.
J'FMAMJ j ASOHD
D. 1946
to
Ul
O
JFMAMJ JASOND
«
-------
TABLE 31
DOMINANT PHYTOPLANKTERS DURING SPRING AND AUTUMN
PHYTOPLANKTON PULSES, 1920-63*
(The dash signifies that there vas no pulse)
Spring pulse
Year
Autumn pulse
Asterionella
Asterionella
Asterionella
Synedra, Asterionella
Asterionella, Melosira
Asterionella
Asterionella
Asterionella
Melosira, Synedra
Asterionella
Asterionella
Asterionella
Asterionella, Melosira
Melosira, Asterionella
Asterionella, Cyclotella
Asterionella
?
Melosira
Melosira
Fragilaria, Melosira
Melosira
Fragilaria, Tabellaria
Melosira
Melosira
Melosira
1920
1921
1922
1923
1927
1928
1929
1930
1931
1932
1933
1935
1936
1937
19^7
19^9
1955
1956
1957
1958
1959
I960
1961
1962
1963
Synedra
Synedra
Synedra
Synedra
Melosira, Synedra
Synedra, Melosira, Stephenodiscus
Asterionelle, Melosira
Melosira
Melosira
Melosira
Melosira
Melosira
Melosira
Melosira
Synedra, Melosira
Melosira
Melosira
Synedra, Melosira
Melosira, Synedra
Melosira, Pediastrum
Melosira, Asterionella
Synedra, Pediastrum
Melosira
Synedra, Melosira
Pediastrum, Fragilaria
Fragilaria, Melosira, Anabaena
Fragilaria
Melosira
Fragilaria, Melosira, Anabaena
Melosira, Anabaena, Oscillatoria
Fragilaria, Synedra, Stephanodiscus
* Some of the included information has been adapted from an undergraduate
project written by Mr. John Wolk.
** From Chandler's (19^) report of the Filtration Plant records for
14.0
-------
Around Kelleys Island the water is usually clear and seech I disc
readings were 8-12 feet except during heavy phytoplankton blooms when
readings of less than two feet were recorded. Observations by scuba
divers revealed heavy Cladophora growths extended from the surface to
a depth of II feet and then gradually decreased until extinction at
a depth of 15 feet. At maturity In late June and early July, strands
of algae three to six feet in length were common. Growths were heav-
iest on the east side of Kelleys Island around Gull and Kelleys Island
shoals. The more turbid waters around the Bass Islands did not permit
adequate light penetration for growths in water depths greater than
5 feet. The investigation detected approximately four square miles
covered with luxurious Cladophora growth in the Island region alone.
Throughout the island region, and along the shores of Lake Erie,
where the conditions are suitable, generally along rocky shores, these
heavy growths exist. Upon maturity, wave action, etc., the strands
of algae are broken from their attachment enabling wind and currents
to deposit the massive quantities of Cladophora on beaches, in harbors,
and In deeper waters of the lake. It has also been noted that mats
of decomposing algae settle to the bottom in the central basin (Zone
A of Figure 49) and become part of the sediment after decomposition.
During Interviews, local residents reported that growths have been
increasing rapidly in the past 20 years and that each succeeding year
was becoming worse. Canada and other communities along the lake shore
are experiencing this increasing problem.
It is clear from the literature that phytoplankton productivity
in Lake Erie is highly variable from year to year and evaluation of
phytoplankton data based on one or two years sampling could be mis-
leading. Extreme care must be taken in comparing data under these
conditions. Due to limited phytoplankton analysis from 1963 and 1964
the data will be treated generally to show ranges and to Illustrate
seasonal variations in productivity and species composition.
The phytoplankton data were averaged from all stations and sep-
arated according to basins and seasons. The tables below illustrate
differences between diatoms and others which consisted of green and
blue-green algae forms for each basin and season.
PHYTOPLANKTON 1963 - 1964
Diatoms vs. Total Number of Organisms
(Percent)
Basin Diatom - Spring Diatom - Fa 11 Total Annual Average
Western 79.2 3.0 8.8
Central 44.4 12.9 27.3
Eastern 49.8 35.4 40.0
141
-------
Bas i n
Western
Central
Eastern
PHYTOPLANKTON 1963 - 1964
Greens and Blue-greens vs. Total Number of Organisms
(Percent)
G-BG - Spring
20.8
55.6
50.2
G-BG - Fa I I
97.0
87.1
64.6
Total Annual Average
91.2
72.7
60.0
The data show a spring pulse composed primarily of diatoms in the
western basin, mainly CycIote11a-Stephanodiscus. It is indicated that
diatom blooms occur in the western basin during the spring when the
dissolved silica content is high. Diatoms assimilate silica in skel-
etal formation. The spring diatom pulse was also noted in the central
and eastern basin but not to the extent of that in the western basin.
It was followed by a low level summer population composed mainly of
diatoms in the central and eastern basins and greens or blue-greens
in the western basin. Due to lack of data, a comparison was not made
with the other seasons. In late summer and early fall another pulse
developed in which greens and blue-greens were dominant over the entire
lake. Greens and blue-greens comprised a much higher proportion of the
total population in all basins as indicated by the table of percentages.
The following table shows populations and types of algae with reference
to basin and season. As expected, the decreasing west to east trend
is very pronounced when considering the total averages.
PHYTOPLANKTON
Average Numbers of Organisms per ml
Type of
Algae
Season
Basin
Western
Central
Eastern
Green
Blue-green
Diatom
Total
Green
Blue-green
Diatom
Total
Total
Spring
Spring
Spring
Fall
Fall
Fa I I
Average
375
1,430
1,805
10,475
325
10,800
8,000
650
520
1,170
875
130
1,005
I ,100
290
285
575
115
65
180
300
142
-------
An extensive blue-green and green phytoplankton bloom In western
Lake Erie was investigated in September 1964 (Casper, 1965). The
bloom, covering approximately 800 square miles, consisted primarily
of OsciIlatoria sp., Aphanlzomenon ho I sat 1 cum, Anacystls cyonea, and
Glenodlnlam sp. Average numbers were 28,600 organisms per ml with a
maximum of 170,000 organisms per ml. According to residents of the
area these massive blooms have been occurring for a number of years
but the intensity, frequency, and duration have been increasing.
FISH
The changes in the algal productivity of Lake Erie have been ac-
companied by changes in the fish populations. As far as man Is con-
cerned the changes over the years have been for the worse. Fish
desirable for human consumption have declined in abundance (Figure 52)
and have been replaced by less desirable species.
Man Is responsible for the accelerated eutrophication of Lake Erie
with its consequent changes in the quality and quantity of fish present.
He catches the desirable fish when available with great efficiency, and
returns the less desirable; he directly alters the fish habitat by
introducing his wastes to the water and sediment. The resulting tur-
bidity, oxygen depletion, and toxicity have eliminated preferred fish
food forcing the desirable fish to vacate and spawn elsewhere. The
less desirable species then proliferate since competition for available
food has decreased. Unfortunately most of man's activities have been
detrimental.
Commercial fish catch statistics, gathered by the U. S. Bureau of
Commercial Fisheries, have provided a long record of the relative abun-
dance of desirable fish species in Lake Erie (Tables 32 and 33 and
Figure 52). In recent years, continuing surveys have been introduced
by federal and state agencies on the reproductive phase of the life
cycles of fishes and limited predictions of future populations are now
possible.
The sturgeon almost disappeared from catch statistics at about the
turn of the century. The cisco, once the dominant species of the com-
mercial catch, experienced a sudden decline in 1926, showed a slight
recovery, and declined to insignificance in 1957. Whitefish declined
drastically in the commercial catch in 1955. The walleye began a drastic
decline in 1957 and is still in great distress. The blue pike, which
formerly produced several million pounds per year became nearly extinct
in 1958.
The yellow perch has managed to hold its own, but it also shows
signs of weakening in the commercial catch. It is the only plentiful
fish remaining of the former many prized varieties. The smelt Is now
commercially exploitable and it, along with yellow perch, is sustaining
the fishing industry in Lake Erie.
143
-------
20-
HIGH YEAR
0035,291,000 IBS.
16-
14-
CISCO
U.S. LAKE ERIE
FISH CATCHES
5-YEAR RUNNING
AVERAGES
o
,2-
10-
•-
6-
4-
2-
BLUEPIKE
^•M
HIGH YEAR
19,909,000 IBS.
1 || Jill :
"i» /X'X*x";'x";'x-X'!'i'i'i'i'!'i*
llllllM
:•:•:
.'.'.
*X*Z\*X'«*»v/. •.•.•.•.'.*.'.•.'.'.'.*.•.•.'.'.'.*
.%"•"• V«*/,*,V.*.*.'.'.'.'.'.*.'.'.'.'.'.'.'.*t*.*.
*«'»*•%%*•*•'•** V-'-'-'-'-'-V-!'^ !•!•!•!•!•!•.- V.
»XvX»X*>I'»" •!•.•"•> ''.',', Xi'OCuJuC**
i^xi:^yi;i:^:::.S:.:. ; ...:.: :.^ja
•:•:%
:•>:•
•.'.•.
* *.".*.
hrr^
&•;•:-:
::: HIG
:::i^^ «
si
;•.-.•> W/
^:. •*•':': — '
6,162,000 IBS.
1920
1940
YEAR
1960
FIGURE 52
-------
TABLE 32
Average combined annual Baited States and Canadian
production for specified periods of major— commercial species of Lake Erie
(thousands of pounds)
Period Stur-
geon
3/
1879-1909- 1
3/
1910-1913-
3/
Ii20-1929-
1930-1934
1935-1939
1940-1944
1345-134B
1350- IS 54
1S55-1959
U;- 50-1964
...argest catcl*6
Year of Larg-
est catch
,052
77
39
39
31
22
25
14
14
4
,187
1885
No.
Pike
1,356
1,250
77
62
29
37
21
12
.14
2
2,873
1308
Cisco
25,625
27 j 201
14,126
764
1,070
283
3,067
475
128
8
48,823
1918
ger-
3,700
3,656
2,437
1,943
1,414
878
567
354
21
1
6,181
IS 16
White-
fish
2,402
2,945
1,675
2,094
2,696
4,058
4,701
2,297
749
19
7,092
1949
Blue
Pike2
10,797-
9,277
11,292
14,623
18,526
13,517
12,509
13,535
10,078
3
26,788
1938
Wall-
eye
—
1,756
1,577
2,113
3,515
3,779
5,807
7,566
1C ,267
1,484
15,405
1956
Yellow Smelt
perch
2,791
3,017
5,356
12,382
6,444
3.86S
4,245
6 ,784 880
19,540 4,345
20,219 13,508
28,954 11,495
1959 1960
Shgeps-
hoad
1,061
2,499
2,367
2,381
3,359
3,624
3,365
3,4£2
4,020
£,770
6,566
I960
Whit!/
bass—
611
383
36C
447
655
553
701
3,485
5,C92
4,111
3,451
1954
ei—
1,350
1,120
1,030
1,462
980
£28
506
661
413
3?*
2,024
1930
Channel . Carp
catfish^
604
1,110
631
70C
641
348
1,093
1,589
1,770
1,484
2,228
1317
2,480
7,544
3,189
2,659
2,689
2,595
2,077
3,007
4,171
4 ,276
13,419
IS 14
ex—
1GG
2,015
1,476
1,594
1,934
1,744
2,226
£73
733
7S2
—
— —
Total
Production
53.923
63. $-50
45.742
43.263
44.013
36.716
44.510
45. 134
61.355
52.014
76.313
1315
_!/ Species that have had an annual production greater than 1 million pounds.
2/ Species normally less than 1 million pounds (goldfish, bullheads, burbot).
li/ Average for years of record.
4/ U.S. catch only until 1952.
_5/ Includes bullheads through 1951.
6/ Catches of walleye and blue pike combined through 1914.
~7/ Probably composed of 8-9 million pounds of blue pike and the remainder walleye.
From "Report on Commercial Fisheries Resources of the Lake Erie Basin,"
U. S. Bureau of Commercial Fisheries, 1966,
-------
TABLE 33
U. S. COMMERCIAL FISH CATCH STATISTICS
(Annual Averages in thousands of pounds)
Sau- White- Blue Wall- Yellow Sheeps- White Suck- Cat- Total
Cisco ger fish Pike eye Perch Smelt head Bass er fish Carp Other Total Canadi Catch
1955 34
1956 59
1957 23
J.958 14
°1959 16
I960 12
1961 6
1962 5
1963 1
1964 —
1965 1
19661 *
15
12
7
2
1
2
*
*
*
#
*
*
375 7,648 5,795 2,408
445 6,855 6,130 7,054
754 .3,981 5,035 8,593
177 576 3,961 7,061
32 1,168 9,348
7 1,171 6,390
2 805 3,694
46
15
6
3
6
2.8
6
2
1
*
*
#
433 7,548
800 5,822
564 1,519
438 3,157
163 3,262
* 1,614 2,931 256 1,947 3,308
* 1,924 2,368 269 1,660 3,425
2 3,795 1,424 328 1,554 3,768
1 2,816 942 244 1,472 4,880
15 4,608 818 249 1,429 4,015
28 5,098 1,739 250 1,619 4,572
16 5,764 2,192 330 1,626 4,698
74 3,524 1,390 261 1,127 4,764
306 4,126 1,153 224 1,090 3,338
446 4,549 1,535 239 1,163 2,909
3 4,086 1,110 1 990 3,191
8 2,058 1,151 140 710 2,773
465 26,796 30,285 57,080
543 30,744 44,682 75,426
442 29,706 37,105 66,811
429 22,575 30,751 53,326
238 22,433 31,597 54,030
315 21,258 29,219 50,477
424 19,563 35,698 55,261
530 19,660 44,464 64,124
372 17,238 34,233 51,471
400 13,354 25,381 38,375
542 13,525 35,096 48,621
248 10,515
Includes only Ohio catch.
-------
The capability of Lake Erie to support fish, considered as a
total population of all species, has apparently been maintained and
may be increasing. This means that the habitat is changing in favor
of such fish as carp, alewife, shad, sheepshead, etc. These are
generally considered as indicators of general water quality degra-
dation.
Massive adult and near-adult fish kills occur in Lake Erie and
have occurred on various occasions for many years. These kills are
not associated with the decline of desirable species. Species which
have been susceptible to kills have commonly been perch, white bass,
alewife, smelt, gizzard shad, and carp. Kills seem to be more common
in the months of June and August. Occasionally during times of large
commercial catches, the appearance of a local kill may be given by
the discarding of fish from commercial fishing operations. Sometimes
fish kills have been called natural die-off, but this does not appear
to be a good explanation. At any rate, it does not appear that massive
fish kills have had a measurable effect on any ppecies in Lake Erie.
Doubtless the changing benthic fauna of Lake Erie have had an
effect on the fish population because many fish are bottom feeders and
prefer certain types for food. It is also true, however, that most
fish will adapt themselves, at least up to a point, to the diet at
hand. The total effect of changing food supply is not known, but it
can be said that the effect has been detrimental to most desirable
species and these desirable species are carnivorous types.
Desirable fish species, according to the Bureau of Commercial
Fisheries, are experiencing difficulty in reproduction and this dif-
ficulty is responsible to a great degree for the decline of these
species. The cause appears to be pollutional in silting of spawning
areas and depletion of dissolved oxygen.
147
-------
CHAPTER 5
LAKE ERIE BACTERIOLOGICAL CHARACTERISTICS
WATER BACTERIOLOGY
The U. S. Public Health Service conducted microbiological inves-
tigations of Lake Erie and its drainage basin in the spring, summer,
and fall of 1963 and 1964 in order to determine present microbiological
quality of the waters. Further objectives were to determine points of
influx and extent of sewage and fecal contaminated waters and to aid
in the evaluation of microbiological water quality criteria for major
uses. The following table shows the groups measured and the frequency
of measurement.
2.
Groups used
Total coliform, 35°C
a. Membrane filter (MF)
b. MPN (most probable number)
Fecal coliform, 44.5°C
a. MF
b. E.G. (Escherichia coli.)
c. MPN - E.G.
Fecal streptococci, 35°C
a. MF (Kenner, etc.)
Total bacterial count
a. MF, 20°C
b. MF, 35°C
5. Enteric pathogens
a. Salmonella, Shi gel I a
b. Enteroviruses
3.
Frequency
a 11 routine samples
selected samples
a 11 routine samples
10-20$ of a I I samples
\Q% of all samples
a I I routine samples
all lake and inshore samples
all lake and inshore samples
Tributary & bathing beach samples
Tributary & bathing beach samples
All determinations were made in accordance with procedures set
forth in Standard Methods for the Examination of Water and Wastewater,
Nth Edition, I960, or in accordance with those established through
research at the Robert A. Taft Sanitary Engineering Center, Cincinnati,
Ohio, and described in Recent Developments in Water Microbiology, 1964.
The coli form group is defined as consisting of aerobic and faculta-
tive anaerobic, gram-negative, non-sporeforming, rod-shaped bacteria
which ferment lactose with gas formation within 48 hours at 35°C.
148
-------
The members of the coliform group are found in the feces of warm-
blooded animals, including man; in the guts of cold-blooded animals,
in soils, and on many plants. The presence of coliform bacteria de-
rived from warm-blooded animal feces in a body of water is interpreted
as indicative of the possibility of the presence of enteric pathogens.
Increased densities of coliform bacteria found in water are related to
the greater possibility of their association with enteric disease-
producing groups found in the gut of ill persons.
The fecal coliform group is that part of the coliform group asso-
ciated with fecal origin in warm-blooded animals. The purpose of the
test is to separate the members of the coliform group into those of
fecal and non-fecal origin. The test is based on the ability of coli-
form bacteria associated with warm-blooded animals to grow at 44.5°C ±
0.5°C and the failure of coliform bacteria from cold-blooded animals,
plants, and soil to grow at that temperature.
The sanitary significance of the fecal coliform bacteria in a body
of water is described (Public Health Service, 1963) as follows:
"In untreated waters, the presence of fecal coliforms
indicate recent and possibly dangerous pollution. In
the absence of fecal coliforms, the presence of inter-
mediate or aerogenes organisms suggests less recent
pollution or runoff. Present information indicates
that non-fecal subgroups tend to survive longer in
water and resist chI orination more than E. coli."
High total coliform densities, accompanied by high fecal coliform
densities, indicate the presence of human wastes and the possibility
of human enteric pathogens capable of causing enteric infection and/or
disease.
The fecal streptococcus group is any species of streptococcus
commonly present in significant numbers in the fecal excreta of humans
or other warm-blooded animals, rarely occurring in soil or in vegeta-
tion not contaminated with sewage. The Public Health Service (1963)
states that:
"The presence of fecal streptococci means that the fecal
pollution is present in amounts no greater than orig-
inally present or in reduced amounts comparable to the
combined effects of natural purification processes, for
they do not multiply in water to produce overgrowths as
sometimes occurs with the coliform groups."
Recent research studies (Geldreich et.al., 1964) indicate that
when the ratio of fecal coliforms to fecal streptococci exceeds 2:1
the fecal bacteria have originated from domestic sewage, whereas ratios
149
-------
of 1:1 or less are indicative of wastes from warm-blooded animals
other than man, such as stockyard and dairy animals.
The total bacterial count was determined after incubation at 35°C t
+ 0.5 for 24 hours ± 2 hours, and at 20°C ± 0.5 for 48 hours ± 3 hours.
The method was used to determine an approximation of all viable bacter-
ial populations able to produce colonies under the test procedures.
The tests were used to provide information applicable to water quality
evaluation and to give support to the significance of coliform test
results.
Enteric pathogens were detected according to methods described
by Edwards and Ewing (1962). The resulting data were used to demon-
strate the existence of enteric pathogenic bacteria such as Salmonella
and Shi gel la in streams draining into the Lake Erie basin. The data
were correlated with associated bacteriological data.
The presence of enteric pathogenic bacteria in a body of water
indicates a potential health hazard.
Enterovi rus studies were conducted by Dr. Norman Clark, of the
Robert A. Taft Sanitary Engineering Center. Enteroviruses such as
infectious hepatitis, polio, coxsackle, and echo viruses and adeno-
viruses may be found in large quantities in the feces of infected
individuals, and in sewage. Infections with these agents are wide-
spread in the normal population especially during the summer and
early fall. Presence of these viruses in a body of water is indica-
tive of the presence of fecal matter containing them.
WESTERN BASIN
Bacterial water quality in western Lake Erie in offshore waters
was measured in 308 samples collected in 1963 and 1964 from the fixed
depths of surface, 5, 10, and 20 meters, depth permitting. In order
to achieve a more valid picture of bacterial distribution, it was
necessary to separate the values according to "surface" and "lower-
most" conditions. Samples collected from mid-depth and deep waters
revealed a substantial reduction in bacterial densities from those of
the surface, and this was true in all three lake basins. A consistent
and significant increase in bacterial densities at all depths was
found at the inflow areas of major tributaries.
Median total coliform densities for surface and lowermost samples
are shown in Figure 53 and Figure 54, respectively. Surface coliform
concentrations are expressed in six ranges: less than I, I to 10, 10
to 100, 100 to 500, 500 to 1,000, and 1,000 to 2,400 organisms per 100
ml of sample. Lowermost coliform values include just the first five
ranges.
150
-------
SS'
4J»OO'-
IFFALCl
SO
o
c
TQ
m
Ol
ex
42'
< (ORGANISM /100ml.
1-10 ORGANISMS /100ml.
10-100 ORGANISMS /lOOml.
IOO-500 ORGANISMS /IOO ml.
5OO-lpOO ORGANISMS /100ml.
IPOO-2,4OO ORGANISMS /100ml.
MEDIAN COLIFORM
CONCENTRATION IN
SURFACE SAMPLES OF
LAKE ERIE
1963-64
-------
LAKE I ONTARIO
CANADA
MICHIGAN
< I ORGANISM /100ml.
1-10 ORGANISMS/lOOml
10-100 ORGANISMS /IOO ml.
100-500 ORGANISMS /IOO ml
500-1,000 ORGANISMS /100ml
PCNNSYLV ANIA
MEDIAN COLIFORM
CONCENTRATION IN
LOWERMOST SAMPLES OF
LAKE ERIE
1963-64
-------
It is evident that extensive bacterial pollution exists at the
mouth of the Detroit River. Off the mouth, median coliform values
of 1,000 to 2,400 organisms per ml were found in the surface samples
and 500 to 1,000 per ml in the lowermost samples. Fecal coliform
densities ranged from 18 to 54 percent of the total coliforms. Num-
bers of fecal streptococci were less than either fecal or total coli-
forms. The ratio of fecal coliform to'fecal streptococcus exceeded
2:1 at all depths, indicating the presence of human wastes derived
from domestic sewage. Total bacterial counts near the Detroit River
mouth exceeded 20,000 per ml in the maximum values, indicating the
presence of a large amount of organic matter.
From this zone southward to east of Stony Point, Michigan, both
surface and subsurface samples showed median total coliform concen-
trations between 500 and 1,000 organisms per 100 ml, exceeding this
range in maximum values. Fecal streptococci densities were below 20
organisms per 100 ml. The ratio of fecal coliform to fecal strepto-
coccus averaged 16:1, indicating the presence of domestic sewage.
Total bacterial densities at 20°C and 35°C ranged from 2,700 to 59,000
organisms per ml, with slightly higher values at 20°C.
A zone of median coliform densities of 100 to 500 per ml with
three to six percent fecal coliform, along the west shore, was shown
only in the lowermost samples, with surface samples showing median
counts of less than 100 per 100 ml. It appeared that the Raisin River
was supplying polluted water. Similar total coliform densities were
found in waters north of Pelee Island with five to ten percent fecal
coliform. Fecal streptococci showed a median of 32 organisms per 100
ml. The ratio of fecal coliform to fecal streptococcus did not exceed
2:1, indicating a source from warm-blooded animals other than man.
A zone of median coliform densities of 10 to 100 per 100 ml in
surface samples radiated south, southwest, and southeast from the
Detroit River mouth area, extending into the southern island group
and to the Canadian shore in the Pigeon Bay area. Lowermost samples
were similar in area but slightly different in zonal shape. Other
areas showed a median total coliform range of I to 10 organisms per
100 ml. Fecal streptococci median values were less than 20 organisms
per 100 ml in areas with less than 100 coliforms per 100 ml.
CENTRAL BA'JIU
Total coliforms, fecal coliforms, fecal streptococci, and total
bacterial counts at 20°C and 35°C were made on 1,228 samples from
central Lake Erie. Samples were taken at the surface and at 5, 10, 20,
30, 40, and 50 meters, depth permitting. Samples taken at mid-depth
and below are referred to as "lowermost" samples.
153
-------
Samples collected from surface waters showed higher bacterial
densities than the lowermost samples except for an area around the
mouth of the Chagrin River (see Figures 53 and 54).
The highest median total coliform values in the central basin,
100 to 500 organisms per 100 ml, were shown in deep water samples in
the offshore area near the Chagrin River. Maximum values reached
3,000 organisms per 100 ml. Fecal coliforms ranged from 4 to 14 per-
cent of the total coliform densities. The ratio of fecal coliforms
to fecal streptococci ranged from 6:1 to 15:1, indicating pollution
by domestic sewage.
Median total coliform values of 10 to 100 organisms per 100 ml
were found in surface samples from two offshore areas. One area was
around Cleveland, extending approximately 20 mi Ies north and 30 miles
northeast (Figure 53). Maximum coliform values for this area exceeded
5,000 organisms per 100 ml. Median total coliform densities in lower-
most samples (Figure 54) ranged from 10 to 100 per ml, but did not
exceed 5,000 per 100 ml. Median fecal coliform densities ranged from
4 to 70 percent of the total, indicating the presence of pollution
from domestic sources. Fecal streptococcus densities exceeded 20 or-
ganisms per 100 ml in the maximum values. The ratio of fecal coliforms
to fecal streptococci was 2:1 or greater at all depths, indicating the
presence of human wastes derived from domestic sewage. Total bacterial
counts in this area at 20° and 35°C at all depths ranged from 91 to
740 per ml in median values and from 570 to 73,000 per ml in maximum
values. The pollution effect of the Cuyahoga River was evident. The
gross pollution from the Cleveland area was apparently kept close to
the United States shore and followed the shoreline east of Cleveland.
The second area of median total coliform densities of 10 to 100
organisms per 100 ml was located along the Canadian shore near Port
Stanley and was shown in surface waters only (Figure 53).
Median total coliform values of I to 10 organisms per 100 ml were
found in a major portion of Central Lake Erie offshore surface and
lowermost waters as shown in Figures 53 and 54. Maximum coliform
densities were below 1,000 organisms per 100 ml. The ratio of fecal
coliform to fecal streptococcus was 1:1 or less. Total bacterial
counts at 20° and 35°C ranged from 5 to 110 per ml in median values
at all depths.
EASTERN BASIN
Bacterial values were also measured in 255 samples of eastern
basin water. As in the other basins, the lowermost samples showed
lesser densities than surface samples.
An area of median total coliform densities of 10 to 100 organisms
154
-------
per 100 ml In surface samples was located around Presque Isle, Penn-
sylvania. Maximum values were 3,400 coliforms per 100 ml, fecal
coliforms of 44 percent, and fecal streptococcus of 1,200 organisms
per 100 ml. In general, the coliform population from the Presque
Isle area was diffused in a fan-like pattern and dissipated in a
distance of approximately five miles from the shore. High coliform
densities in maximum values accompanied by high fecal coliform values
were indications of domestic sewage pollution.
Another major zone with median total coliform values in the sur-
face samples of 10 to 100 organisms per 100 ml extended over most of
the eastern half of the basin (Figure 53). The lowermost samples had
a median range of I to 10 coliform bacteria per 100 ml decreasing to
less than I north of the international boundary (Figure 54). Median
fecal coliform and fecal streptococcus values ranged from less than I
to 12 organisms per 100 ml. Total bacterial counts ranged from 60 to
420 at 20°C and from 10 to 50 per ml at 35°C in median values.
LAKE ERIE HARBORS (SOUTH SHORE)
Evaluation of the quality of these waters was made in 1964 from
the examination of water samples collected from representative sam-
pling points at surface and mid-depth levels. Bacterial pollution
was measured in terms of total coliforms, fecal coliforms, fecal strep-
tococci, and enteric pathogens.
Gross bacterial pollution was demonstrated at the mouths of Ottawa,
Maumee, Portage, Black, Rocky, Cuyahoga, Chagrin, Grand, Ashtabula,
and Buffalo Rivers.
OTTAWA RIVER AND MAUMEE RIVER
A median total coliform value of 90,000 organisms per 100 ml was
observed in the Ottawa River which empties into Maumee Bay. The mouth
of the Maumee River contained a median of 190,000 coliform organisms
per 100 ml. High median fecal coliform (125,000/100 ml) and fecal
streptococcus (1,000/100 ml) densities were accompanied by enteric
pathogenic bacteria. Six species of Salmonella were isolated in the
Ottawa and Maumee Rivers. The peak incidence of Salmonella occurred
from January through ApriI 1964.
Bacterial pollution in the Toledo Harbor became well diluted within
2 to 4 miles lakeward of the mouth where median coliform values ranged
from 100 to 1,000 organisms per 100 ml, with 10 to 50 percent fecal
coli forms.
PORTAGE RIVER
Results from Portage River, at its mouth, showed a median coliform
155
-------
level of 17,500 organisms per 100 ml, with 14 percent fecal coliform.
The median fecal streptococci count was 1,100 organisms per 100 ml.
Salmonella organisms were found during the spring survey.
SANDUSKY HARBOR
Sandusky Harbor median total coliform densities ranged from 800
to 6,000 organisms per 100 ml with correspondingly high fecal coliform
results. The median total coliform value of 6,000 organisms per 100
ml with a fecal coliform to fecal streptococcus ratio of 18:1 was dem-
onstrated at a sampling point east of the Sandusky sewage treatment
plant. From the tip of Cedar Point lakeward, median total coliform
values were less than 1,000 per 100 ml. In the Sandusky River highest
bacterial densities were found near the Fremont treatment plant and
the presence of Salmonella was revealed.
LORAIN HARBOR-BLACK RIVER
Results from Lorain outer harbor, lakeward of the river mouth
showed a median total coliform range of 100 to 9,000 organisms per
100 ml with 16 to 53 percent fecal coliform. Fecal streptococci
median values ranged from 19 to 340 organisms per 100 ml. Median
total bacterial counts at 20°C and 35°C ranged from 600 to 150,000
organisms per ml. The coliform numbers in the outer harbor corres-
pond to those in the Black River above the Lorain sewage treatment
plant.
The median total coliform counts at the mouth of the Black River
ranged from 6,900 to 28,000, while maximum values exceeded 2,000,000
organisms per 100 ml. Median fecal coliform densities ranged from 2
to 64 percent of the total, and median fecal streptococci showed
values of 200 to 500 organisms per 100 ml. SaImoneI I a organ i sms were
found just above the mouth of the river.
The outflow of the Black River was traced, bacteriologically,
into Lake Erie approximately one mile to the north and east. Stations
west of the breakwall showed median total coliform values of less than
1,000 organisms per 100 ml.
ROCKY AND CUYAHOGA RIVERS - CLEVELAND HARBOR
Median coliform densities greater than 5,000 organisms per 100 ml
were observed at the mouths of Rocky and Cuyahoga Rivers. Maximum
coliform densities ranged from 560,000 to 1,200,000 organisms per 100
ml. Fecal coliform population ranged from 8 to 10 percent of the
total coliform, and fecal streptococci showed values from 900 to
49,000 organisms per 100 ml. Fourteen Salmonella serotypes were
isolated from the mouth of Cuyahoga River and ten from the mouth of
Rocky River. These findings are attributed to the gross pollution of
156
-------
human wastes entering these streams. The water leaving Rocky and
Cuyahoga Rivers carries bacterial pollution into Lake Erie. Results
obtained from sampling points north and east of the Rocky River,
approximately one-half mile from the shore, showed median coliform
densities in excess of 1,000 organisms per 100 ml, reaching a level
of 86,000 in the maximum values. The total coliform results inside
and immediately outside of the breakwall in Cleveland Harbor showed
median coliform values from 3,300 to 10,000 organisms per 100 ml with
9 to 30 percent fecal coliform. The ratio of fecal coliform to fecal
streptococcus ranged from 5:1 to 30:1. Maximum total coliform values
showed a level of 520,000 organisms per 100 ml north of the breakwall.
The maximum total bacterial counts at 20°C and 35°C inside and outside
of the breakwall ranged from 13,000 to 660,000 organisms per ml.
These results indicate that the water inside and immediately outside
of the breakwall is polluted to the extent that it cannot safely be
used for municipal water source, recreational, or for other uses in-
volving body contact. A marked decrease in total coliform and an
increase in percentage of fecal coliform organisms in the harbor was
noted during the study.
The gross bacterial pollution from these two tributaries is lost
within a distance of 2 to 3 miles into the lake (Figure 55). The
pollution tends to flow northeast and east of the harbor, becoming
diffused and diluted as it moves into the lake. It is apparently
forced close to the United States shore and follows the shoreline east
of Cleveland.
CHAGRIN RIVER
Median coliform density in the Chagrin River at its mouth showed
a level of 7,300 organisms per 100 ml, reaching a maximum of 90,000,
with 23 to 50 percent fecal coliform. The ratio of fecal strepto-
coccus ranged from 2:1 to 3:1. Three species of Salmonella were
isolated from river samples indicating pollution from human wastes.
GRAND RIVER - FAIRPORT HARBOR
The highest bacterial densities in the Grand River were observed
2.3 miles above the mouth. The median total coliform value was 15,000
organisms per 100 ml with 40 percent fecal coliform. The maximum coli-
form was 340,000 organisms per 100 ml. The median ratio of fecal coli-
form to fecal streptococcus was 8:1. Two species of Salmonella were
found at this sampling point and represented the presence of pollution
from domestic fecal sources. Median coliform densities of 1,400 or-
ganisms per 100 ml with 7 percent fecal coliform were observed just
above the river mouth. The maximum total coliform densities reached
a level of 8,000 organisms per 100 ml. The median ratio of fecal coli-
form to fecal streptococcus was 1:1.
157
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DIVISION INTAKE
BALDWIN INTAKE
o
c
01
01
NOTE:
BASED ON 1*64 DATA-MEDIAN
TOTAL COLIFORM CONCENTRATION*
IN ORCANUMt PER lOOnl.
CLEVELAND SHORELINE
TOTAL COLIFORM CONTOUR MAP
-------
In the Fairport Harbor, inside the breakwalls and beyond the
river mouth, median total coliform densities ranged from 15 to 540
organisms per 100 ml with 4 to 67 percent fecal coliform. The median
fecal streptococci count exceeded the fecal coliform count at one
station. A count of 3,200 organisms per 100 ml was observed during
the study. These findings indicate pollution from sources other than
man. A maximum total coliform density encountered was 34,000 organ-
isms per 100 ml. Median total bacterial counts at 20°C and 35°C
ranged from 280 to 6,700 organisms per ml, reaching the highest level
of 710,000 organisms per ml.
ASHTABULA RIVER
Median values of total coliform levels in the Ashtabula River
at its mouth, and in the Ashtabula Harbor, inside the breakwall, ex-
ceeded 1,000 organisms per 100 ml. A range of 17,000 to 64,000 coli-
form organisms per 100 ml was demonstrated in the maximum values.
Median fecal coliform densities ranged from II to 28 percent of the
total coliform at the mouth of the Ashtabula River and from 6 to 40
percent in the Ashtabula Harbor inside the breakwall. The ratio of
fecal coliform to fecal streptococcus was as high as 176:1 in the
harbor. Salmonella he I del berg was isolated at a sampling point 0.7
miles upstream. The waters in Ashtabula River, at its mouth, and in
the Ashtabula Harbor, inside of the breakwall, were found to be in
a continual state of gross pollution in terms of microbiological
parameters. Bacterial quality of these waters were unacceptable for
recreational purposes and at times for municipal or other uses. Water
west of the breakwall was of good bacterial quality. Waters north and
northeast of the breakwall showed total coliform densities of 2,700
to 3,300 organisms per 100 ml in the maximum values.
ERIE HARBOR - PRESQUE ISLE
Study of the microbiological results of sampling in the Presque
Isle area reveals low coliform densities on the west side of the
peninsula near the shore. The results from sampling stations located
north and northeast of the isle indicate a substantial increase in
coliform densities in the maximum values. A corresponding increase
in coliform values was observed in Erie Harbor. Median total coliform
values of 2,100 to 17,000 organisms per 100 ml were demonstrated in
samples collected from Erie Harbor stations located near Mill Creek
and in the ship channel. Maximum total coliform in this area reached
a value of 520,000 organisms per 100 ml. Median fecal coliform den-
sities in waters north and east of Presque Isle ranged from 3 to 12
percent of the total coliform densities and fecal streptococci counts
averaged from I to 10 organisms per 100 ml. The ratio of fecal coli-
form to fecal streptococci ranged from 2:1 to 5:1 in the median values.
The source of this pollution is probably Mill Creek. SaJ[mone_M_a_ or-
ganisms were isolated from 80 percent of the samples collected in both
Mill Creek and the harbor. The same organisms were found in Erie's
159
-------
sewage. Generally, the water quality at the stations west of Presque
Isle was of satisfactory quality for swimming purposes. The water
quality north and east of Presque Isle varied considerably. The max-
imum total coliform values of 2,800 to 15,000 organisms per 100 ml
indicated the pollution entered the lake intermittently, constituting
a health hazard in the immediate vicinity along the eastern shore.
BUFFALO RIVER
The Buffalo River showed a median total coliform concentration
of 25,000 organisms per 100 ml near its mouth with 14 percent fecal
coliform. Salmonella was isolated from this area. The Buffalo River
is grossly polluted bacteria My.
160
-------
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170
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150
George Harlow
CHAIRMAN STEIN: Are there any questions or
comments?
MR. LION: Mr. Chairman, I think this is a good
report. There is one minor point that ought to be clari-
fied for the record.
In summary, the beaches — I think one through
ten -- on Presque Isle are shown as one beach, and they
are actually ten separate beaches and they are separately
sampled and we have separate data for all of those beaches,
and the fact is we do have ten — in fact eleven — but
you have listed one through ten as one beach, and it is
ten beaches.
MR. HARLOW: I knew you were going to ask that
question, Walter, or clarify that point.
CHAIRMAN STEIN: Any further questions or
comments?
MR. METZLER: I think as far as New York is con~
cerned we will have some specific comments in the New
York statement. Perhaps.it will be just as well to handle
it at that time.
On this matter of one beach versus ten, I would
like to know: how did you identify what was a public
beach and what wasn't? How did you count these?
MR. HARLOW: It wasn't easy, Mr. Metzler.
MR. METZLER: Of course it wasn't.
25
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2
151
George Harlow
MR. HARLOW: Because you run into the problem,
when you try to evaluate satisfactory bathing beach water
3
quality anywhere as to what is a beach and what isn't a
4
beach. We considered, of course, whether people swim
5
there and whether it was open to the public. We also
6 considered whether county departments of health considered
7 whether it was a bathing beach or not, and whether they
8 tested water quality. A number of these factors went
9 into it and I recognize that there is a certain amount
10 of judgment applied here to decide what is a bathing
11 beach and what is not a bathing beach.
12 We tried to emphasize, of course, I think, in
13 the report the beaches that are used to a great extent
14 by the public.
15 MR. METZLER: Did you then check this with some
16 of our — well, either our regional office in New York
17 or the local health departments to see what they thought
18 were public beaches for which permit might be required,
19 and what was not a public beach?
20 MR. HARLOW: We discussed it with the various
21 offices around the lake.
Another problem we run into is different States
interpret them different ways, and we tried to be uniform
in our interpretation.
MR. METZLER: Well, the problem is a very
-------
2
3
4
5
6
7
8
9
10
11
20
21
22
152
George Harlow
difficult one because I recall going all down that lakefront
in a helicopter on a holiday and the whole lake or the
beach in New York State was being used. There was hardly
a mile that somebody wasn't in the water. So you can take
that positionJ but it seems to me if you start trying to
list the beaches that are satisfactory and unsatisfactory,.
then you almost need to take whatever the local or the
State authorities have identified as a beach, subject to
permit.
MR. HARLOW: I think one of the ones that I
know I mulled around in my mind whether it was a beach or
not was Times Beach. I don't know whether you are aware
of that or not, but it is up at the mouth of the Buffalo
River. It is not a very good spot for a beach, but the
county department does sample it for coliform bacteria and
15
we might have bathing water quality standards there.
16
MR. METZLER: Well, it seems to me you determine
17
it on the basis of whether the Erie County Health Depart-
18
ment issues a permit for it. If they issue a permit,
19
it is a public beach; if they don't it is not.
MR. HARLOW: By the way, I think you might be
interested to know that in regard to New York especially,
we had comments from Mr. Seebald, I believe, and it may
have been your office — I don't quite recall — on our
24 "
original evaluations of the New York bathing beaches
25
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153
Col. Amos L. Wright
1
and there were some changes.
2
CHAIRMAN STEIN: Any further comments or
3
questions?
4
If not, thank you very much.
5
MR. POSTON: As the next part of our presenta-
c
tion, I would like to ask Col. Wright, District Engineer,
7
who is from the Buffalo office, who is in charge of the
pilot dredging program to make his presentation at this
9 time.
10 COL.WRIGHT: Thank you, Mr. Poston.
11 MR. POSTON: Would you proceed?
12 COL. WRIGHT: Yes, sir.
13 Mr. Chairman and gentlemen. I am Colonel
14 Amos L. Wright, District Engineer, U.S. Army Engineer
15 District, Buffalo. Today I am representing Brigadier
16 General Robert M. Tarbox, Division Engineer of North
17 Central Division, Corps of Engineers.
18 The United States Army Corps of Engineers
19 appreciates the opportunity to present at this meeting
20 information on our program to identify the pollution prob-
lems associated with the disposal of dredgings, and to
22 develop procedures for insuring that State water standards
are met. We believe it will be helpful in your consid-
eration of the progress made since the Enforcement
Conference of 1965 to improve and preserve the quality
-------
154
Col. Amos L. Wright
of the Lake Erie waters. The information is in two parts:
2 a. A brief narrative of the Corps1 approach
3 to identify the problem and to determine solutions that
4 are in the best public interest; and
5 b. Our program of actions during the transition
6 period, prior to determination of long-term solutions.
7 Shipping and Development:
8 To the American economy, transportation of
9 commodities on the Great Lakes is a most important use of
10 this great natural resource. There have been tremendous
11 | population growth and intensive industrial developments
along the shores of Lake Erie, in part because of low-
cost water transportation. Both have contributed to a
14 serious pollution problem which, in some localities,
, P- impairs the aesthetics and recreational aspects of the
-LD
water resource, threatens its utility as a source of
16
water supply, and pollutes the materials which we must
dredge in our harbor maintenance.
18
Maintenance Dredging:
JL */
The need to dredge arises because of the
location of harbors on the Great Lakes, predominantly at
the mouths of rivers flowing into the lakes.
22
In general, although not entirely, for more
•
24
than forty years, we have placed the dredged material
in authorized disposal areas in deep-water areas of the
25
-------
155
Col. Amos L. Wright
1 lakes. The areas were selected so as to be remote from
2 water intakes and swimming beaches. During this time
3 there is no history of contamination of beaches or water
4 supply intakes attributable to lake disposal of dredgings.
5 Now, I should make it clear that not all of the material
6 to be dredged is polluted. At the Lake Erie ports tested
7 by FWPCA, it appears that there are several areas where the
3 material to be dredged is suitable for disposal in the
9 lake.
10 The Problem:
,, Immediately after the Lake Erie Enforcement
Conference in 1965, we investigated the feasibility of
\-&
alternate disposal areas for a number of the Great Lakes
J.O
Harbors. First, we looked at the possibility of using
upland diked disposal areas. However, one does not have
lo
to look at more than a city map of any of the ports
16
which have grown and thrived with the commerce resulting
17
from our navigation projects to realize that unused land
18
above water on which dredge spoil can be placed just is
19
not available, in most cases, within a reasonable distance
20
of the harbor and channel which must be maintained each
21
year. And in most ports where there is intensive land
22
use, additional filled areas of the type that dredged
23
material would provide, are not desired by local interest^
24
In considering the use of more distant land disposal
25
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156
Col. Amos L. Wright
areas, the costs of rehandling the dredged materials and
2 transporting them rapidly drive the costs of maintenance
3 sky high.
4 So, instead of trying to find upland areas, we
5 took a look at how we could dispose of large quantities
6 of dredge spoil in the water along shore, alongside of
7 the breakwater in or near the harbor, or in shallow
8 water areas of a bay. And, let me explain, gentlemen,
9 that when I refer to "large quantities of dredge spoil,"
10 I am talking about quantities like 1,205,000 cubic yards
11 which have to be taken from Outer Harbor and Cuyahoga
River at Cleveland each year. To give you an idea of the
13 size of the problem, that amount would cover a city block
14 of Cleveland about 150 feet deep.
15 Our investigation — back in 1966 — indicated
that, at most ports where the bottom material is polluted,
16
there are possibilities for the use of diked disposal
areas in the water. When the areas are filled in they
18
might have some use. However, we estimated that the cost
J. i7
of constructing dikes to hold about ten years of dredging
20
spoil, plus the increased costs of handling the material,
£ J.
would substantially increase the cost of harbor mainten-
22
ance. The increase in cost varied considerably from
^^ harbor to harbor, but in general the net cost per cubic
24
yard Of maintenance dredging would be increased from two
25
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157
Col. Amos L. Wright
1 to five timea,
2 This raised a question concerning the responsi-
3 bilities of local interests to provide the diked disposal
4 areas at local cost. Congress authorized many of these
5 lake harbors to be constructed with the provision that
6 materials dredged in the annual maintenance of these
7 harbors would be placed in lake disposal areas* Open
8 lake disposal was specified in almost all of the author-
9 izing documents for the Great Lakes harbors before the
10 days of the Water Pollution Control Act and related legis-
11 lation.
Of course, this was because of the distinct
-L<&
economic advantage of lake disposal. In fact, if the
J.O
economics of the justification for some of the projects
had been based on use of other more expensive methods,
15
some Lake Erie ports would not have been economically
16
justified, and thus would not be in existence today.
17
It is the current United States policy, however, where
18
land disposal is required, for local interests to provide
19
the diked disposal areas without cost to the Federal
20
Government as an item of local cooperation.
21
The Pilot Program:
22
Still back in 1966, the Bureau of the Budget
23
expressed the view that, before the taxpayers were
24
requested to carry the burden of additional harbor
25
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15*
Col. Amos L. Wright
maintenance coat, there should be further study of
2 alternatives and further consideration of the public
3 benefits of using alternative methods of dredgings
4 disposal. Therefore, the Bureau requested that we and
5 the FWPCA jointly conduct a pilot study of the problem.
6 We were asked to study alternate means of disposing of
7 dredged material, the pollution effects of the alternates
8 and the costs. The FWPCA was asked to assist us in
9 determining the effects and to identify the benefits
that would be gained from the various alternatives.
In August 1966 we received $1 million to begin
^H the study, and we were granted an additional $5 million
13 in fiscal year 1963 to continue it. We expect to
receive sufficient funds to complete the study in
fiscal year 1969.
15
Early in 196? we initiated our Pilot Program
16
for Disposal of Dredgings from Great Lakes Harbors. Its
17 «" -»
objective is to develop the most economical methods for
18
management of whatever pollution problems may result
19
from dredging operations on the Great Lakes.
20
The Federal Water Pollution Control Administra-
21
tion is participating in the program by sampling, testing
22
and analyzing the materials to be dredged and the waters
surrounding them, as well as by participating in discus-
sions of various methods under study. The Fish and
-------
159
Col. Amos L. Wright
1 Wildlife Service of the Department of the Interior and
2 the Public Health Service of the Department of Health,
3 Education, and Welfare are also advising us.
4 The Corps has engaged the services of a Board
5 of five consultants to assist us in the Pilot Program,
6 Eight localities on the Great Lakes have been selected
7 for the Pilot Program. These are: Great Sodus Bay on
8 Lake Ontario; Buffalo, Cleveland, Toledo and River Rouge
9 at Detroit on Lake Erie; Calumet Harbor and River, Indiana
10 Harbor and Green Bay on Lake Michigan.
H They were selected for two basic reasons:
One, to test the effectiveness and compare costs of
JL<5
different types of disposal areas, structures, methods
-L«3
of handling the dredged material, and methods of treating
any effluent from the disposal areas; and, two, to obtain
JLo
this data at various representative harbors, with the
16
degree of pollution varying from heavy to negligible.
17
Great Sodus Bay is a harbor with no discernible
18
pollution problem. The others are considered to be
19
polluted to various degrees. This slide shows the harbor
20
at Great Sodus Bay
21
... Slide ...
22
To mention a few examples of methods under
23
investigation:
24
... Slide ...
25
-------
160
Col. Amos L. Wright
This slide shows the enclosed area we have built
2 at Buffalo; there we are looking at the suitability of
3 slag as a material for constructing dikes for a disposal
4 area where the dredged spoil from the Buffalo River is
5 placed within the enclosure in different ways.
6 ... Slide ...
7 This is a slide of our experimental area at
8 Cleveland; the dikes are made of crushed rock with a
9 filter blanket. We are experimenting with two different
10 methods of placing spoil from the Cuyahoga River in the
H area, and also filtering the water in the area to return
it to the harbor.
, ~ ... Slide ...
Here we have a picture of the diked disposal
area in Maumee Bay at Toledo.
... Slide ...
16
This slide shows our area in the River Rouge
17
at Detroit with a dredge tied up and pumping out through
18
the pipeline leading to tne discharge area.
19
At a number of locations we will test various
20
methods of treating the effluent from the disposal
21
operation. We are also investigating the feasibility
22
of disposal in pits, mines and other areas away from the
lake.
An important part of the Pilot Program consists
-------
161
Col. Amos L. Wright
of sampling water and bottom sediments at the dredging
2
areas and in the vicinity of the alternate disposal
areas and conducting various tests on the samples. The
4 samples are being taken before, during and after the
5 dredging operations.
6 While it is too early to draw any conclusions,
7 we have found thus far that it is not too difficult to
8 estimate costs of building structures, transporting and
9 handling the spoil. But it is very difficult to measure
10 the benefits of ceasing to place spoil in the open lake,
11 especially when we cannot discern any change in water
12 quality after dumping, and it is extremely difficult
13 to determine the effect on living things in the vicinity.
14 We are working to complete our investigations
15 and to render a report by the end of December 196S. In
. our report, we will present our recommendations on
alternate methods of disposing of and treating polluted
dredged materials, including the economic implications
18
of any significant changes in maintenance costs. We
^ t/
contemplate presenting recommendations for each individual
*£\J
harbor that has been designated by the FWPCA as polluted.
& J.
We will include recommendations on any cost sharing
22
required of local interests. We will include our
23
recommendations for any legislation required to carry
24
out the alternate methods of disposing and of cost
25
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162
Col. Amos L. wright
sharing.
Local Cooperation:
I emphasize local interest participation because
some people seem to feel that the disposal of dredgings
from navigation channels is solely a Corps of Engineers
problem which the Corps can solve simply by putting the
dredgings on land rather than in the authorized lake
disposal areas. However, while the Congress has assigned
to the Corps the work of providing and maintaining
navigation depths at authorized river and harbor projects,
the current congressional policy in connection with such
projects has been that, where they are needed, disposal
areas and retaining dikes or bulkheads will be provided
by local interests at local expense as a part of the
local cooperation required for the projects.
Of additional concern, to local industry and
commerce using Great Lakes harbors, is the necessity to
dispose of materials dredged from private and public
ships and alongside of docks, outside of the Federal
channel. It is the responsibility of the owner to get
this done and to pay for it. And I might emphasize that
the owner must make every effort to find suitable areas
other than in the lake to dispose of the spoil.
With reference to Congressman Ashley's remarks
24
this morning, since the agreement went into effect last
25
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163
Col. Amos L. Wright
1 year with the Department of Interior, no permit has been
2 issued to any private interest wishing to dispose of
3 materials in the lake in which items of pollutants have
4 been found.
5 Actions by the Corps:
6 At this point, it is appropriate that I set
7 forth the various actions the Corps of Engineers is taking
8 in disposal of dredged material:
9 1. Under the Pilot Program, alternate methods
,. and areas for disposal of dredged material containing
pollutants were used during the calendar year 196?
dredging program at six localities: Buffalo, Toledo,
\.&
River Rouge at Detroit, Indiana Harbor, Calument Harbor
J.O
and Green Bay. This year we added Cleveland to this
14
list on a pilot scale. Thus at four of the harbors on Lake
15
Erie that contribute most of the dredge spoil, a goodly
16
portion is being placed in enclosed areas at this time.
17
Again, here, parenthetically I might remark
18
that the figures given by Congressman Ashley were rais-
19
leading. He used total figures which we provided him,
20
but because of the lesser amount of material to be
21
dredged in Toledo, when you add up everything, there is
22
actually less dredging containing polluted material
23
going into the lake in 196& than there was in 1967,
24
contrary to the impression that he left.
25
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164
Col. Amos L. Wright
2. In addition to the Pilot Program localities,
o
arrangements are being made for the use of alternate
3 disposal areas at Monroe Harbor on Lake Erie. A land
4 disposal site has been provided by the Port Authority
5 and hopefully the diking will be completed to permit use
6 of the area in 1968.
7 3. Each district engineer or his executive
8 assistant has visited local authorities at every port
9 where the FWPCA has reported that the material to be
10 removed by dredging contains pollutants. We informed
H them of the extent of the problem and of the possible
-4M requirement for the use of suitable alternate areas and
13 methods of disposal of polluted dredged materials.
Program for the Rest of This Year - 1963:
While, at this time, we are still developing
15
long-term solutions for disposal of dredgings from
16
polluted harbor areas, interim solutions have been and
17 '
will be necessary. Our program for the remainder of
18
calendar year 1968 dredging is as follows:
1. At polluted harbors, alternate disposal
areas are being used during 1968 where arrangements can
be made for suitable areas.
2. Ports where the FWPCA has determined that
the channel and harbor contain polluted materials and
where local authorities are unable to provide a suitable
-------
165
Col. Amos L. Wright
alternate disposal area in 1968 have been individually
2
considered. Where postponement of dredging would result
3
in an economic hardship for the port and region, it is
4 being accomplished as authorized by the Congress in the
5 1968 maintenance program, with the dredged materials placed
6 in the authorized disposal area in the lake.
7 3. At three Lake Erie ports and in areas where
8 the FWPCA has determined that there are no significant
9 pollutants in the material to be dredged, the clean dredged
10 materials will be placed in the authorized disposal areas
11 ! in the lakes. Incidentally, that amounts to several
12 j thousand cubic yards. The figures that Congressman
I
13 used this morning are somewhat frightening. I might just
parenthetically remark here, too, that those measurements
15 are made on an in«place basis at the bottom of the lake.
16 The yard contains about fifty per cent water, so what he
,„ is talking about in the moving of fifty per cent of each
, _ cubic yard is moving water..
J.O
lg .f. A report on the Pilot Program for determin-
ing alternate systems for disposal of polluted dredged
materials will be completed by the end of 1968. The
feasibility and efficacy of each method of handling,
22
moving, treating and containing various types of polluted
23
dredged materials and the applicability to each local
24
port will be known.
25
-------
166
Col. Amos L. Wright
5. The Pilot Program report may recommend use
2
of alternate disposal areas for the disposal of polluted
3
dredged material at some harbors where the material is
4 now being placed in lake disposal areas. The report will
5
consider and make recommendations for legislation, where
6 appropriate, to include consideration of the share that
7 local irt, erests should bear of the costs of alternate
8 disposal methods in accordance with the current policy
9 for new projects. The report will also address itself
10 to the question of economics of alternate maintenance
11 methods.
j^fe All of us should recognize that after our report
13 is submitted it will take some time to carry out its
14 recommendations. If structures are to be built they must
15 be designed and funded, then actually constructed. Funds
IQ must be appropriated for added costs of alternate disposal
17 methods. These actions will undoubtedly take many
18 months. Thus, we will continue to be faced with the
19 necessity of disposing of some dredged materials in the
2Q open lake for some" time to come.
21 Conclusion:
In summary, the Corps of Engineers agrees that
everything possible should be done to find ways to ensure
water of acceptable quality in the Great Lakes. The
Corps is working with FWPCA and others to determine
-------
167
Col. Amos L. Wright
means of disposal and management of dredged materials so
2 that they will not degrade the water quality of the
3 lakes. We expect to complete the study in December of
4 this year. We will stop placing dredge spoil in the lake
5 from any harbor Just as quickly as lands and dikes are
6 provided; when it can be shown that a worse problem is
7 not created; and when money to pay additional handling
8 and treatment costs is provided. On the other hand, I
9 will not recommend that the taxpayers1 money be spent
10 for costlier methods of disposal where it is doubtful
11 ! that any benefit in pollution abatement or otherwise
I
12 can be derived. It is essential that everyone under-
13 stands that this problem of dredgings disposal implies
j
14 i local and State responsibilities also. Local interests
15 may have to locate and provide suitable disposal areas
if it is judged that pollutants in the dredged material
16
will degrade the lake water, and may have to share with
the Federal Government the added costs incurred. We need
18
your understanding of the problem and your assistance
j. y
in reaching a solution in the best public interest.
20
Immediate absolute interdiction of disposal of
21
any dredged materials in the Great Lakes is as imprac-
22
ticable as telling the cities discharging heavy pollutants
23
into the waters to discontinue the practice today. We
24
can introduce whatever new harbor maintenance procedures
25
-------
163
Col. Amos L. Wright
that may prove to be necessary in the same time frame that
communities are being given for adoption of improved treat-
ment plants, and our problems will be greatly reduced as
4
communities and industries effect a better treatment of
5 their wastes. A transition period is needed. We are in
6 that period, and I can assure you that whatever pollution
7 problems there are associated with the maintenance of
8 ports can be corrected in accordance with the same time
9 schedule developed for other aspects of the clean waters
10 program.
11 Thank you very much.
M CHAIRMAN STEIN: Thank you, Colonel.
13 Are there any comments or questions?
14 MR. LYON: Yes, Colonel, you said, "I will not
15 recommend that the taxpayers1 money be spent for costlier
16 methods of disposal where it is doubtful that any benefit
,„ in pollution abatement or otherwise can be derived."
, _ Could you explain how you would decide that
lo
19 there would be a pollution abatement benefit from change
2Q in practice?
COL. WRIGHT: We haven1t been able to find as
21
yet that there would be a benefit from changing the prac-
22
tice, frankly. Mow, there may be one. We have got people
studying it, and we have got people trying to find out
what the effect on fish life and bottom life is and
-------
169
Col. Amos L. Wright
whether the water quality is actually changed to any
2
great degree by the dike disposal methods. We haven't
found any yet.
MR. LYON: I assume we are both talking about
5 polluted spoil material.
6 COL. WRIGHT: This is spoil material which
7 contains pollutants*
8 MR. LTON: Yes. Well, the reason I make this
9 point is because I am sure you are aware — you heard
10 this morning the amounts of money that are being spent
11 by the city of Detroit and the city of Cleveland and the
12 industries — they are also not aware of the direct
13 pollution abatement benefit, but this is based on a general
14 assumption that by stopping to put pollution into the lake
15 we are doing something good for the lake.
,_ I did talk about the model idea. That might
ID
give us some of those answers) but the fact is that all
of what these conferees here have recommended is based
18
on a general assumption of a general benefit, and you
•L t7
are really proposing here a much more constrained evalua-
*£(}
tion of the benefit that really at this point we all agree
£L
cannot be done. We all have to agree that putting
4&*C
pollution into the lake is going to cause an adverse
23 ^
effect. That is generally the assumption we are operating
24
on.
25
-------
170
Col. Amos L. Wright
So, my basic question is: whether you would buy
2 the assumption that all of the other polluters have bought,
3 and that is that you have just got to stop putting pollution
4 in the lake.
5 COL. WRIGHT: We are not opposed to altering our
6 methods at all; and, as I say, we will start placing the
7 spoil any place tomorrow when we get a place to put it
8 and when we are convinced it doesn't cause a worse problem
9 and when somebody gives us the money.
10 Now, as to a judgment as to whether this is
11 going to be in the taxpayers1 general interest or not, I
•^M am not going to recommend that something be done which
13 I am not convinced will be of benefit to the taxpayer.
14 Now, if the intangible benefits are such that
we can't place a dollar price on them and the intangible
15
benefits indicate that it would be a good idea to spend
16
this money, then we will make that recommendation.
17
MR. LTON: But, Colonel, you are trying to apply
18
a cost benefit type philosophy to pollution abatement that
•L v7
the Corps has done effectively in flood control. We can't
20
do that in water pollution control, and because we can't
21
do it, our respective legislatures and the Congress have
22
decided that it is in the general interest to abate
pollution, and they have passed laws and made it a matter
of public policy.
-------
171
Col. Amos L. Wright
Now, the question is whether the Corps is willin
to follow that type of broad evaluation of the benefit of
3 not putting pollution into the lake.
4 COL. WRIGHT: We are certainly willing to put
5 it any place that people give us money to put it, and our
6 report will try to measure the benefits which the Bureau
7 of the Budget has asked us to measure.
8 We placed a program of a $100 million
9 before them and they turned it down. Apparently, they
10 weren't convinced that it was worth spending that kind of
•Q money. They asked us to make a study. We are making that
,„ study and we will tell them the best we can whether it i
to their benefit to appropriate the money to do it.
1.O
Now, I am not saying we won»t recommend for or
against at this point. I am saying that it is up to them
15
to decide. I am saying it is very difficult to measure
16
the benefits and that I am not going to recommend some-
17
thing that I am ultimately convinced will be a waste of
18
the taxpayers* money.
19
CHAIRMAN STEIN: Are there any further questions?
20
You know something bothers me about this whole
21
proposal and the study and maybe it needs a little clari-
22
fication.
23
As I understand the Corps* action now, their
24
policy now is when dredged materials are considered to be
25
4
-------
172
Col. Amos L. Wright
polluted by FWPCA, you find an alternate disposal site
2 if it is available and put it there. Right? And you are
3 spending extra money to do it.
4 COL. WRIGHT: No, we are not. If we can do it
5 at the same cost, we do.
6 CHAIRMAN STEIN: In other words, you don't spend
7 any extra money.
8 COL. WRIGHT: We don't have any extra to spend.
9 MR. LYON: See, this is where the problem is,
10 Mr. Chairman, that the Corps is using a completely differ-
ent philosophy in making pollution-abatement policy than
we are.
13 CHAIRMAN STEIN: I understand. But why would
, you take a polluted material and, for example, not dump
15 ,
it on the land? I don't know about the Lake Erie
situation, but I assume you have some land disposal
16
!' areas around Lake Erie now of polluted materials.
17 j
! Right?
18 |
11 COL. WRIGHT: Right.
19 I
| CHAIRMAN STEIN: And you know the specifics in
20 |
| Lake Erie. Before you began putting them on land, you
21
used to dump them in the lake, is that correct? You just
22
changed?
2A
^j COL. WRIGHT: To some extent, yes.
24
i CHAIRMAN STEIN: Why are you doing that?
25 I!
-------
173
Col. Amos L. Wright
1 COL. WRIGHT: All right. Some of this is in the
2 Pilot Program for which the Congress has provided money.
3 CHAIRMAN STEIN: Yes.
4 COL. WRIGHT: And some of it — like at Maumee
5 and Grassey Island — it is more economical to place it
6 on those areas.
7 CHAIRMAN STEIN: You haven't got an aree/^here
8 you used to put polluted material in the lake. You
9 are now putting it on the land? For example — because
10 I have been through this, I am a little more familiar with
11 it — in the past, the Corps was taking material out of
12 Indiana Harbor and dumping it in the lake. Now, they havi
13 other means of disposing of that on land. I understand
-,4 I that they are doing it, because under the terms of the
|!
15 agreement that the Corps and FWPCA has entered into, if
16 j this material that has been dredged up from Indiana Harbor
" ! is considered to be polluted, they are putting it on the
i
i
j land or in the diked area. They used to put it in the
J. o ',
j
19 lake. I believe, if I am not mistaken, that it is costing
j them a little more to do that.
i
rt, ! COL. WRIGHT: That is why we are using the Pilot
21 i
Program money in doing it.
CHAIRMAN STEIN: Now, what harm was it doing
23
when you dumped that polluted material in the lake?
24
COL. WRIGHT: We haven't been able to detect
-------
174
Col. Amos L. Wright
any harm.
2 CHAIRMAN STEIN: Then why are you spending the
3 taxpayers' money to put it on the land?
4 COL. WRIGHT: We have been told to make a
5 study.
6 CHAIRMAN STEIN: Well, but you are doing more
7 than the study. The Indiana Harbor is more than a study.
8 I think that we have to come to grips with this operation,
9 and I guess we have a copy of the agreement here, because
1Q this is the kind of thing that we may get hooked on. If
,, we are committed right now to taking what is not polluted
material and putting that in an alternate site right now
and not putting it in the lake; if you contend that it
isn't worthwhile doing unless you can demonstrate a harm
then you have to assume that the polluted material, on
which we have signed the agreement with the Corps of
Engineers, is doing the harm. If it is not doing any
harm, why do we get all of these high public officials
together and get an agrement, sign it, and decide to go
through this program, unless we adopt the notion that we
are adopting the philosophy we have asked Detroit and
Cleveland and all the other places to do: to keep the
pollutants out of the lake.
Because it seems to me we have gone beyond the
point of no return if this isn't doing anyone a bit of
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175
Col. Amos L. Wright
1 harm to put that stuff from Indiana Harbor — and I know
these Indiana boys are here — I don*t want to pick on them
3 but I am just familiar with that -- or from Calumet Harbor
4 into the lake, and it is not doing the least bit of good.
5 Why did we waste all of the taxpayers* money in going
6 through this minutiae and making alternate arrangements to
7 take the spoil from those places and putting it in alternate
8 sites?
9 COL. WRIGHT: I think there is a general uncon-
10 cern on the part of all of us — myself included — that
11 we may indeed be doing some harm and it is worth looking
12 into to find out, and that is why we are doing the study
13 and that is why we have concluded these agreements.
14 MR. LYON: You are a lawyer and I am not, but
,e to me the Federal Water Pollution Act — and I understand
15
it doesn't just cover the States but also the Federal
16 *
Government — says, in effect, that pollution shall be
abated. I donft think it says that pollution shall be
18
abated if there is a direct measurable benefit. Am I
19
correct about that? I don't think you heard me.
20
CHAIRMAN STEIN: I was looking for the agreement
21
COL. WRIGHT: Were you addressing the question
22
to me?
23
MR. LYON: No, I was asking —
24
CHAIRMAN STEIN: Go ahead.
25
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175-A
Col. Amos L. Wright
MR. LYON: The question is: Does the Federal
2 Act say that pollution shall be abated, period? Or does
3 it say pollution shall only be abated if there is a
4 measurable benefit?
5 CHAIRMAN STEIN: The Congress has not adopted
6 a cost benefit theory on pollution abatement. Neither
7 have any State legislatures. This has been proposed time
8 and time again.
9 i As you know, you have a definition of pollution
10 I in your legislature; all States have it. We have worked
11 on a Suggested State Water Pollution Control Act with many
people at this table that recommended it.
13 i Under the Federal Act, any pollution which
14 endangers health or welfare of any person is subject
15 to abatement and this is not subjected to this cost-benefit
16 theory.
17 | Now, I would hate to think that we had a
18 ! pollution measure by which we had to protect health and
i
19 I at the same time we would try to evaluate a cost-benefit
i
2Q li theory and get some child sick or cause irreparable
damage by putting that in. I would hope I wouldn't be
22 given the task of figuring what the cost of that child's
illness would be or putting that in a cost-benefit ratio.
Maybe someone else could handle that, but I would excuse
25 I myself.
MR. LYON: Of course, we don't do that. Did
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176
Col. Amos L. Wright
1 the Congress in passing the Federal Water Pollution Act
2 in any way exclude the Corps from this Federal policy?
3 CHAIRMAN STEIN: Well, now, you may have asked,
4 as we say in the law, one question too many. The problem
5 that we have in the Federal Act — and this has been
6 the problem with any Federal agency — and this is the
7 statutory construction in your State unless Congress
3 says so specifically the sovereign doesnrt regulate
9 | itself.
10 In other words, as we have pointed out many,
11 many times, we are a sister agency with the Corps. We
,rt have no authority to tell the Corps what to do. We go
before the same authorities as the Corps. Now, the
X O
Executive Order governs this or agreements govern this.
We may be able to deal with a State or an industry or a
municipality, but as far as another Federal agency our
16
law does not cover that. The Executive Order does.
17
COL. WRIGHT: Mr. Lyon, I think this question
of policy is really a fruitless debate here. We have
been asked to respond to a Bureau of the Budget request
20
that we put some kind of a dollar sign on benefits so
21
that they can, in their wisdom, decide whether it is
22
worthwhile or not to go into this amount of work.
23
Now, we are going to do our best to provide
them with that kind of a dollar sign; and in doing so —
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177
Col. Amos L. Wright
I think my statement is perfectly in order — that we don't
2
want to provide them with information on which we think
3
it is useless to spend money. That is quite aside from
4
the policy matter of the Federal Water Pollution Control
5
, Act in which the Congress has expressed what we believe to
6 be the will of the people. It certainly is my will that
we do everything possible to abate pollution. But when it
8 comes around to the next day or the next month or the next
9 year to provide the dollars to abate the pollution, they
10 must have some kind of a yardstick to decide where to
11 put the dollars* If we can give them some light which
SW will help them make that decision so that they make the
13 wisest decision, this is what we are obligated to do.
14 I have no intention of representing the Corps of Engineers
15 as being against any law that the Congress has passed or
16 any feeling on the part of anybody that we can abate
17 pollution.
18 I merely want to point out that we do have a
19 problem that is not solvable overrnight, and that it does
20 have dollar and cents aspects to it which people are going
21 to have to face up to.
CHAIRMAN STEIN: I can agree with all that. But
let me make one point clear — and I was trying to get
this document here — maybe you have it. Colonel, or
someone in the Corps — evidently we don't — over and
-------
178
Col. Amos L. Wright
above the Bureau of the Budget request for a study, and
the $1 million and the $5 million appropriations, there
has been an agreement entered into between the Corps of
4 Engineers and/or the Department of the Army and the
5 Department of the Interior on a policy
6 As I understand this agreement, it divides —
7 again, I am hesitant and I'd like the record to show
8 this because I don't like to speak to anything of a real
9 , technical nature like that without having it before me —
10 but, in general, it classifies the dredged material in
11 several classes.
I
12 |j On the one hand, you get the materials which
I
13 i are classified as polluted, and, on the other extreme
14 I are relatively benign materials if they were discharged
!
15 in the water.
16 I As I say, I have read this agreement very, very
i
17 ji carefully. The only reason I am hesitant is because I
18 |j don't have it before me. But as I recall the agreement,
ij
19 ji if there are polluted materials such as we have found in
20 j! many harbors, we are, right now, to find alternate methods
i
21 of disposal of those materials.
Is that correct?
COL. WRIGHT: If they can be found, that is ri
24 CHAIRMAN STEIN: That is right.
j| Now, the question -- and this gets me to Mr.
£o r
I Lyon's notion — in other words, it seems to me the
-------
179
Col. Amos L. Wright
2 underlying assumption, then, is that if we find the
3 polluted material, we are going to try to keep that out
4 of the lake as we ask every city and every industry and
5 every other Federal installation and the shore Federal
6 installations to do. We do that regardless of whether
7 we can find a cost-benefit ratio when that polluted material
8 hits the lake.
j
9 COL. WRIGHT: That is right.
10 CHAIRMAN STEIN: I share your doubts on that.
11 I am not sure that if we follow a barge out — and I have
done this and I have examined the material — and we see
13 that the barge dumps in the lake that we can really assess
i
14 | any tangible damage. I am not sure that this can be done.
As I understand the agreement, the views of the
X D
! State governments and the Federal Government are that
16 i
ij
j we donft apply that kind of test in pollution control
I
because what we do know — particularly in something like
18 I
I
| a lake or a river — is that if we take a lot of little
i
sources and put them together, we get one big mess and this
/T
-------
ISO
Col. Amos L. Wright
really regard for a cost-benefit. We are not doing that
2
study to justify or not justify or let somebody make a
public policy judgment on the Federal funds, but on the
4 present operation. We are operating under that under-
5 standing.
6 COL. WRIGHT: I don't know that I can agree
7 completely with you, sir, but I don't think we need to
8 take up the time.
9 There are two agreements that have been executed:
10 one is with respect to permit dredging, and in that
11 instance, we do submit every application to the Department
12 of Interior; and, as I say, not a single one has been
]_3 granted. With respect to the other agreement, it is an
14 agreement that we will undertake a study, In connection
15 with that study, we have agreed on a rather informal basis
16 that each harbor, during the period of this study and in
the subsequent months thereafter until we can implement
it, we will,with the Department of Interior, consider each
18
harbor individually and sit down and decide what is the
-------
Col. Amos L. Wright
and the Department of Interior agreed with us as to which
2 ones we could stop putting any dredging, which ones we
3 could find places to put something and which ones we could
4 go ahead and continue dumping in the lake.
5 We will presumably do that again before the
6 1969 season. I think that accurately represents what has
7 happened.
8 CHAIRMAN STEIN: Again, let me make one point.
9 We sometimes have an assumption — I think the Colonel
10 alluded to this in his statement — where we give a city
11 or an industry a reasonable amount of time to put in
abatement procedures.
13 I think when we are dealing with dredged materials
14 or the Corps of Engineers — let's adopt the assumption
i
15 j that we want a good measure of this dredging, in any event,
i
j
16 ! to be stopped — we have to, it seems to me, give the Corps
17 ! and its operations the same kind of consideration that
lg we are going to give to any city or any industry around
I
]9 this lake.
20 In other words, if we are going to give them a
reasonable time, we must consider that we are going to
give the Corps of Engineers the same reasonable time.
„ When we are asking them to do something, we are going
•fc
to have to ask them to do something that is feasible.
24 i
reasonable and technically obtainable, the same way
25
-------
Col. Amos L. Wright
1 we ask the city or an industry. On the other side, these
2 are the considerations that sometimes we begin to lose
3 sight of. The fact we are dealing with the Government
4 agencies doesn't mean that suddenly you can wave a magic
5 wand and stop this overnight. If that is the view, then
6 we should stop everyone overnight and we just don't do that.
7 From our point of view — at least I am speaking
8 from the Department of the Interior point of view — on the
9 question of a time schedule operation, we are thinking
10 of them in the same kind of framework that we think of
13_ other people.
,„ Are there any other comments or questions?
I MR. METZLER: I would like a comment.
.L O
14 | CHAIRMAN STEIN: Yes.
MR. METZLER: Well, it seems to me if we are not
15
careful that we make the Corps of Engineers or some other
16
I public agency a whipping boy in this matter. I don't see
17 |
i how we can solve this problem of dredged material and
18 |
! siltation in the lakes without going back and solving it
19 i
| just like you solve any other pollution abatement problem
20
and that is cutting it off at the source.
21
Now, this conference recognized that, at least
22
to some extent, by one of the previous meetings, in asking
23
! the United States Department of Agriculture to come in
24 !|
| with some recommendations for reducing soil erosion and
25 i
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183
Col. Amos L. Wright
the washing in of high nutrient materials including barn-
2 yard manure.
3 I think this matter has to be pressed hard and
4 I think we, as professionals, are doing a very bad service
5 to the public when we indicate that we can stop the
6 eutrophication of Lake Erie and clean up Lake Erie without
7 attacking this problem. This is what I will recommend to
8 the conferees: that we again remember that earlier request
|
9 of the United States Department of Agriculture and the
10 Soil Conservation Service; and that further, then, we go
i
11 back to our own State agencies, particularly the State
Soil Conservation Service or State Boards or Departments
of Agriculture, and whatever, the State Agency or Depart-
ment of Public Works, Transportation or Highways, because
this is where most of this silt is coming from. It is
from construction or it is agriculturally related, and
until we can cut down the source substantially we are just
going to have this problem of transferring the sediments
around and maybe we will pile them out on the land awhile
or maybe we will put them out in the water where it is
deep.
I think this is one of the items to which this
conference should give some serious attention.
CHAIRMAN STEIN: I would agree. I would like to
suggest one addendum to what you say: In many of the
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134
Col. Amos L. Wright
1 harbors, the Corps is dredging up wastes. A lot of these
2 wastes don»t come necessarily from the farms, but they are
3 industrial wastes. The Corps didnft put those in the
4 harbor. If we had — and this goes for the States and
5 the municipalities and the industries — if we had really
6 effective waste treatment facilities, we wouldn't have
7 that amount of wastes that are going in.
g Now, here we have industrial harbor after in-
Q dustrial harbor on the lake. Maintaining the economic
. viability of the harbor you have to have that channel of
a certain depth to get a boat of a certain size in there
or else it is not going to be economical, and then that
XM
channel and harbor gets filled up. and where is that waste
13 '
coming from? From the same industry that is getting the
14
benefit of that deep harbor.
15
And the point is: If you expect the Corps,
16
again, to be not only a dredger but a scavenger for this
17
kind of stuff, you have to assess the responsibility.
18
There is one other point that I really would
19
like to make because when we get off on this we begin
20
losing perspective;. Whether we deal with these peripheral
21
problems like oil-well drilling^ boat pollution, disposal
22
of soil, as far as pollution of Lake Erie and generally
23
of pollution almost anywhere these are really, really
24
minor items and don't forget it. They are intriguing
25
items but they are minor items.
-------
1*5
Col. Amos L. Wright
The big major source of pollution comes from
the fixed-shore installations, the big cities and big
industries.
If the Corps went to work and worked all year
dredging those harbors and got that maximum appropriation
and took all their wastes and just dumped it willy-nilly -
if they did that, which they don*t — into the lake, they
couldn't begin to compete with one of the real big cities
and big industries pouring out their wastes 24 hours a
day every day in the year. And this is the thing that
we have to remember: that when we are dealing with these
dredgings, we are dealing with a refinement here, and
the essential part of the pollution problem really does
not rest with any aspect, I don't think, of the Corps1
operations.
Are there any other comments or questions?
If not, thank you very much, Colonel*
MR. POSTON: That is the end of the Federal
presentation.
CHAIRMAN STEIN; Let's call on Indiana, Mr.
Poole.
MR. POOLE: Mr. Chairman, Perry Miller, who is
Director of the Bureau of Engineering, is with us, and
he will abstract the Indiana report. It is in seven
_»r
24
pages. There is a considerable amount of repetition from
ii
25
-------
1
2
3
4
5
6
7
8
9
10
17
18
19
20
21
22
23
24
25
1S6
Perry Miller
the 1967 report, and in the interest of time I hope Perry
will leave most of that out.
CHAIRMAN STEIN: All right, but the whole report
without objection will appear in the record as if read.
(The above-mentioned report follows.)
MR. MILLER: All Indiana municipalities with
recognized sewer systems have secondary type sewage treat-
ment facilities. Increased surveillance of plant opera-
tion by representatives of the Stream Pollution Control
Board has resulted in better operation, increased labora-
tory analyses and more meaningful operation reports.
Implementation of the mandatory certification program
JL &
I (effective July 1, 196$) will provide additional control
13
J| over operation of all wastewater treatment plants.
14 ,||
I The Maumee River Plant, operated by the private
15 !
jj corporation of Diversified Utilities, is designed for a
16 |i
flow of 0.5 mgd. The activated sludge-type plant with
effluent chlorination is now serving approximately 3.000
equivalent residential customers. The plant is operating
above hydraulic capacity. Although plans for expansion
have been approved, construction has not been undertaken.
Diversified Utilities has filed a petition for reorgani-
zation under the Bankruptcy Act and a trustee has been
appointed. The treatment facilities are being operated;
however, construction of improvements is not indicated in
!i the near future. Some consideration is being given by
-------
137
Perry Miller
the oity of Fort Wayne to the feasibility of taking over
2 operation of the facilities.
3 The city of Fort Wayne sewer crew provides
4 routine inspection of flow-regulating structures on com-
5 bined sewers and inspection following runoff from rainfall
6 to minimize overflow to receiving waters. Inspections
7 of all overflow structures are made at least weekly; some
8 inspections are daily or every other day in connection
9 with servicing of lift stations. In other municipalities
10 flow-regulating structures are maintained to minimize
11 overflows. Representatives of this office inspect bypass
structures during routine surveillance visits. Combined
13 sewer systems are not being proposed or approved in newly
developed urban areas.
15 Construction is underway on the facilities to
abate the discharge of lime sludge from the water treat-
16
ment plant to the Haumee River. This project should be
completed in 1968.
18
The superintendents of municipal sewage treat-
J. &7
ment plants advise this office of unusual conditions that
20 *
cause a material increase in the waste load discharged
21
to the receiving stream.
22
Effluent Chlorination
The cities of Auburn and Garrett are chlorin-
24
ating plant effluents routinely. The city of Decatur is
25
-------
18S
Perry Miller
now going over its chlorination facilities prior to
placing effluent chlorination in operation. The town of
3 Waterloo is completing construction of new effluent
4 chlorination facilities.
5 The municipalities of Avilla, Butler, and Berne
6 expect to submit plans for effluent chlorination facili-
7 ties to the Stream Pollution Control Board prior to July
8 31, 1968. The change of municipal officials as of January
9 1, 1968, delayed completion of plans for these municipal!-
10 ties. In addition, the city of Fort Wayne is completing
11 plans for effluent lagoons that will also receive flows in
12 excess of plant capacity. This project will include
13 provisions for chlorination of plant effluent. Plans
14 have been approved for plant additions, including effluent
15 chlorination, at New Haven. All of these municipalities
plan to file applications for P.L. 660 funds for fiscal
year 1969.
I might say here, in connection with the state-
is
raents that you heard this morning from Mr. Remus and Mayor
JL y
Stokes that the financing in the municipalities is con-
nected with the grants program.
Phosphate Removal
22
The city of Fort Wayne has a grant of $2#3,200
23
to help finance pilot plant studies on phosphate removal.
24
The original meeting relative to a phosphate removal
25
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189
Perry Miller
project was held with representatives of the Department of
2
Health, Education, and Welfare on August 26, 1965. Initial
3
efforts were directed towards negotiating a contract for
phosphate removal studies between the City and the Federal
5 Water Pollution Control Administration; however, this
6 approach was not finalized. A formal application was filed
7 on May 1, 1967, and the revised application which was
8 approved on March 19, 1968, was filed on July 7, 1967.
9 As studies proceed on this project, Fort Wayne and adjoin-
10 ing municipalities will have better guidelines on which
11 to base the design of plant scale projects.
^m As all municipalities with recognized sewer
^rj
13 systems had secondary treatment facilities in operation
14 (except the town of Avilla, which was under construction)
15 prior to the Lake Erie Conference, existing plants were
16 not designed to maximize the removal of phosphorous.
,„ However, as information is made available relative
, 0 to phosphorous removal at existing facilities, the
lo
19 municipalities will be required to instigate action to
improve removals. Plans submitted for new or improved
facilities will be required to provide facilities for
w J.
phosphorous removal.
Industrial
Of the 22 industries in the basin, 16 have
24
M
adequate waste control facilities and six need additional
25 '
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190
Perry Miller
1
treatment works. Of the six that have inadequate treat-
2
ment, four have waste treatment projects in the planning
3
stage and one pollution control project is under con-
4
struction. A hearing was held on April 17, 1966, con-
§
cerning the pollution of Cedar Creek by Kitchen-Quip,
£*
Inc., Waterloo. An order to abate pollution will be acted
7 on at the June Id, 1966, Board meeting.
8 Effluent monitoring programs have been established
9 and maintained at sixteen of the twenty-two industries.
10 The remainder of the industries were not required to
11 establish effluent monitoring programs because no effluent
12 is discharged to the receiving stream. The monitoring
13 program has been discontinued at Parrot Packing Company
14 because connection is being made to the Fort Wayne
15 sewerage system. The monitoring data are maintained
IQ in open files.
17 Maumee River Basin
18 Salisbury Division, Dana Corporation, Fort Wayne
19 The waste treatment facilities, reported as
20 adequate at the August 1965 Conference, continue to provide
21 a satisfactory effluent. An adequate effluent monitoring
program is being maintained.
&*£
Essex Wire Corporation, Fort Wayne
*dO
The corporation has since February 1967, dis-
24
charged all wastewater to the Fort Wayne sewerage system.
25
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191
A Perry Miller
The corporation continues to provide adequate waste control.
2
Franke Plating Works, Inc., Fort Wayne
3
Preliminary plans for cyanide destruction,
A
chromium reduction and precipitation and acid-alkali
5 neutralization facilities were considered satisfactory
6 by the Board on September 19, 196?. Final plans and
7 specifications are nearing completion by the consulting
8 engineer. A partial effluent monitoring program is being
9 maintained and will be expanded when treatment facilities
10 are completed. The industry plans to meet the December
11 31, 1968, completion date, established by the Board.
|M General Plating and Engineering, Inc., Fort Wayne
13 On October 26, 196?, the Board and the Company
14 entered into a stipulation whereby the Company is to
15 prepare plans and specifications for waste treatment
16 facilities and to complete construction of approved
17 facilities by December 1, 1968. Preliminary plans for
cyanide destruction, chromium reduction and precipitation
18
19 and acid-alkali neutralization facilities were considered
satisfactory by the Board on December 19, 1967. Final
plans and specifications are nearing completion by the
consulting engineer. A partial effluent monitoring program
is being maintained and will be expanded when treatment
facilities are completed. The industry plans to meet the
December 1, 1968, completion date established by the
-------
192
Perry Miller
Board.
Gladieux Refinery, Inc., Fort Wayne
3 The waste treatment facilities reported as
4 adequate at the August 1965 Conference continue to
provide a satisfactory effluent. An adequate effluent
monitoring program is being maintained.
7 I.T.T. Industrial Laboratories, Fort Wayne
0 The waste treatment and control facilities re-
ts
ported as adequate at the August 1965 Conference
continue to provide a satisfactory effluent. An adequate
effluent monitoring program is being maintained.
International Harvester Company. Fort Wayne
12
All contaminated wastewater from the plant has
13
been connected to the Fort Wayne sewerage system with the
14
exception of the southeast area of the plant. This
15
wastewater will be intercepted by a sewer which is under
16
contract for construction by a sewer utility for dis-
17
charge to the Fort Wayne sewerage system. An adequate
18
effluent monitoring program is being maintained.
19
The Magnavox Company, Fort Wayne
20
The waste treatment and control facilities
21
reported as adequate at the June 22, 1966, meeting of the
22
conferees continue to provide a satisfactory effluent
23
An adequate effluent monitoring program is being main-
24
tained.
25
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193
Perry Miller
Parrot Packing Company, Fort Wayne
2 An order to abate pollution of the Maumee River
3 was issued by the Board on May 3, 1967. The compliance
4 date for completion of waste control facilities was set
5 for December 31, 196$. During 1967 the Company entered
6 into an agreement with a sewer utility and the city of
7 Fort Wayne to discharge wastewater to the Fort Wayne
8 sewerage system. Construction of the sewer is nearing
9 completion, but is being delayed because of court action
10 initiated by a property owner concerning sewer connection
1]L fees. The project can be completed within 30 to 45 days
after the court case is settled.
Phelps Dodge Copper Products Corporation, Indiana
-Lo
Rod and Wire Division, Fort Wayne
The waste treatment facilities reported as
J.D
adequate at the June 22, 1966, meeting of the conferees
16
continue to provide a satisfactory effluent. An adequate
17
effluent monitoring program is being maintained.
18
Zollner Corporation, Fort Wayne
19
All contaminated wastewater continues to be
20
discharged to the Fort Wayne sewerage system as reported
21
at the June 22, 1966, meeting of the conferees.
22
B. F. Goodrich Company, Fort Wayne
The waste treatment facilities reported as
n
24
adequate at the August 1965 onference continue to
M
25
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194
Perry Miller
1 provide a satisfactory effluent. An adequate effluent
2 monitoring program is being maintained.
3 Shaw!s Dressed Poultry, Grabill
4 The waste treatment facilities reported as
5 adequate at the August 1965 Conference continue to pro-
6 vide adequate waste treatment.
7 St. Joseph River Basin
3 Crane Edmund Corporation, But-ler
9 The waste treatment facilities reported as
10 adequate at the August 1965 Conference continue to
1:L provide a satisfactory effluent. An adequate effluent
monitoring program is being maintained.
X«5
Universal Tool and Stamping Company, Inc., Butler
J.O
The conversion to a non-cyanide plating solution
14
was not successful and the use of static rinse tanks has
15
not reduced drag-out of cyanide and zinc to acceptable
16
levels. The Company is working on plans for treatment
17
facilities. The Board expects the Company to meet the
18
December 31, 196S, completion deadline and will institute
19
necessary legal proceedings to insure compliance.
20
Kitchen-Quip, Inc., Waterloo
21
On April 17, 1963, the Board held a hearing
22
concerning the pollution of Cedar Creek below the plant.
23
The hearing officer has recommended that a pollution
24
abatement order be issued. The proposed order will be
25
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195
Perry Miller
considered by the Board at the meeting scheduled for
2 June 16, 1968. The proposed order requires completion
3 of facilities by December 31, 1963.
4 T. H. Products Corporation, Waterloo
5 The waste treatment facilities listed as adequate
6 at the August 1965 Conference continue to provide
7 adequate control. No effluent is discharged to the
8 receiving stream.
9 Auburn Tankage Company, Auburn
10 The waste treatment iacilities listed as adequate
11 at the August 1965 Conference continue to provide
adequate control. No effluent is discharged to the
13 receiving stream.
County Line Cheese Company, Auburn
15 The Company has submitted preliminary plans
for additional spray irrigation facilities to augment
16
the present holding lagoon and broad irrigation facili-
ties. Recent inspections show that no effluent is dis-
18
charged to the receiving stream.
^ *7
Warner-Motive Division, Borg-Warner Corporation,
20
Auburn
21
During the fall of 1967, three oil separation
22
basins and a waste stabilization pond were completed for
treatment of 60,000 gpd of oily wastewater from the plant.
24
Adequate waste treatment is now being provided. The
25
-------
196
Perry Miller
1 effluent monitoring program is being revised to reflect
2 the operation of the new facilities.
3 Ralph Sechler and Sons, Inc., St. Joe
4 The waste treatment facilities reported as
5 adequate at the March 22, 196? meeting of the conferees
6 continue to provide a satisfactory effluent. A five hp
7 mechanical aerator was recently installed in the waste
8 holding pond to eliminate odors and improve BOD reductions.
9 An adequate effluent monitoring program is being main-
10 tained.
1]L St. Maryfs River Basin
12 Central Soya Company, Inc., Decatur
The waste treatment facilities reported as
13 ||
adequate at the August 1965 Conference continue to provide
a satisfactory effluent. An adequate effluent monitoring
J. O
program is being maintained.
16
In summary:
17
1. The Stream Pollution Control Board has
18
continued efforts to comply with recommendations of the
19
conferees.
20
2. All municipalities with recognized sewer
21
systems have secondary treatment works in operation.
22
Surveillance of plant operations by representatives of
23 ^^
the Board has increased, resulting in improved operatior^P
24
All municipalities are either disinfecting plant effluents
25
-------
197
Perry Miller
or are preparing plans to do so.
2 3. The city of Fort Wayne received a grant on
5 March 19, 1968, to help finance pilot plant studies on
4 phosphate removal which will aid in the development of
5 guidelines for the design of plant scale projects.
6 4. All industries which are required to provide
7 effluent monitoring are maintaining such monitoring pro-
8 grams.
9 5. The Board initiated legal action against
10 Parrot Packing Company, General Plating and Engineering,
H Inc., and Kitchen-Quip, Inc. An order was issued to
..^w Parrot Packing Company, General Plating and Engineering
stipulated to construct the needed treatment works, and
J. O
the Board will consider issuing an order to Kitchen-Quip
14
at its meeting scheduled for June 18, 1966. The Board
15
will initiate action to secure construction of needed
16
facilities whenever it becomes necessary.
17
6. Sixteen of the twenty-two industrial plants
18
provide adequate waste control facilities; one is con>-
19
structing facilities; and the remaining five are expected
20
to complete facilities by December 1968.
21
7. The Board has continued its stream monitor-
22
ing program of waters within the Maumee Basin.
23JL
^P Thank you.
24|
CHAIRMAN STEIN: Thank you.
25 II
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193
Perry Miller
1 Any comments or questions?
2 As usual, this is an excellent report, except
3 for the phosphate situation. As I understand it, your
4 municipalities and industries are on schedule and those
5 few that aren*t the Board will follow through with
c orders.
b
„ MR. MILLER: We are on schedule with the
exception of those on chlorination which I indicated
o
would be May of 1969.
y
CHAIRMAN STEIN: Is that because of the delays
in ordering equipment?
! MR. MILLER: No. this is a question of change
12
of administrations, and a change sometimes in engineering
13
firms as well, and new administration preparing plans,
14
and then also tied in with the financing.
15
CHAIRMAN STEIN: Let me make this general
16
statement: Aside from the question of phosphates, which
17
we will get into, I would say that Indiana represents
18
compliance with the schedule. There are a few slippages,
19
but these slippages I think even viewed themselves are
20
minor, but viewing the overall program they are rela-
21
tively minor and they are inevitable I think in getting
22
any program underway.
23
Is there any other judgment on that?
24
MR. OEMING: Very good judgment.
25
-------
2
3
4
5
6
7
8
9
10
11
fl
13
14
15
1C>
I
17 j
i
18 !
1
i
I
20 |
i
I
21
22
199
Perry Miller
MR. METZLER: Just one comment: Since it would
hardly be fitting for the member from Indiana to raise the
question that he has raised with all of the other States,
does the accomplishment of this additional work rest pretty
heavily upon some Federal participation in the construction
grants?
MR. MILLER: I attempted to answer this, Mr.
Metzler, in the presentation — that it does depend upon
the Federal grants because all of these cities are expected
to make application for Federal grants. Here I might say
that Indiana does have a grant program as well, and this
is tied in with the Federal, so they are expecting both
State and Federal money to complete these projects.
MR. METZLER: It wasn't that I didn't hear your
statement the first time you made it, I just wanted to
give you the advantage of having it highlighted the same
as the other State representatives had.
MR. POOLE: Thank you, Mr. Metzler.
CHAIRMAN STEIN: Does that complete Indiana?
MR. POOLE: Yes.
CHAIRMAN STEIN: How about Michigan?
MR. OEMING: Mr. Chairman, conferees. I would
like to introduce Mr. Ralph Purdy, Chief Engineer. With
your permission, I would like to ask him to give the report
24 |
on behalf of the Water Resources Commission, and I also
have Mr. Nicholas V. Olds, and he is the Legal Counsel
-------
200
Ralph Purdy
1 |! for the Commission, Assistant Attorney General, in case
2
3
4
5
6
7
8 i
i
9
10
11
12
be included as if read.
14
15
lo !
21 i
i
22 |
I
2'6 ;
|
24 !
j
25 i
there are any legal questions you might want to ask him.
MR. PURDY: Some place in the stack of material
before you, you will find a gray covered report and two
green reports, marked Appendix D and Appendix E.
Mr. Chairman, we would like to have the gray
report placed in its entirety in the record. The green
reports, Appendix D and Appendix E, are mentioned in the
gray report. They are furnished to the conferees for
their information. It is not necessary to have them in
the conference record.
CHAIRMAN STEIN: Without objection, this will
13
(The above-mentioned report follows. Also,
Appendix D and E are on file at the FWPCA Regional Office,
Chicago, Illinois, and the FWPCA Office, Washington, D.C.)
MR. PURDY: At the reconvened conferences in
Cleveland in 1966 and in Buffalo, New York, in 1967, the
Michigan Water Resources Commission reviewed the pollution
control program that had been developed to abate pollution
and enhance the Michigan waters of Lake Erie and its
tributaries. The reports outlined how Michigan, in 1965,
had established water quality goals for the Detroit River
and Michigan waters of Lake Erie and how a voluntary
pollution abatement program had been formed with the
help of industries and municipalities. The reports
-------
FOR RECONVENED CONFERENCE
FOURTH SESSION
ON
POLLUTION OF THE INTERSTATE AND OHIO INTRASTATE
WATERS OF LAKE ERIE AND ITS TRIBUTARIES
(INDIANA-MICHIGAN-NEW YORK-OHIO-PENNSYLVANIA)
CALLED BY
MURRAY STEIN, CONFERENCE CHAIRMAN
DEPARTMENT OF THE INTERIOR
STARTING JUNE 4, 1968
CLEVELAND, OHIO
ON BEHALF OF
THE
MICHIGAN WATER RESOURCES COMMISSION
MAY 1968
-------
MICHIGAN WATER RESOURCES COMMISSION
GEORGE F. LIDDLE, Chairman, Muskegon, Municipal Groups
R. G. RICE, M.D., Director of the Department of Public Health
John E. Vogt, Representing the Director, Vice Chairman
B. DALE BALL, Director of Agriculture
GERALD E. EDDY, for RALPH A. MAC MULLAN, Director of Conservation
JOHN P. WOODFORD, for State Highway Commission
LYNN F. BALDWIN, Eaton Rapids, Conservation Groups
JIM GILMORE, JR., Kalamazoo, Industrial Management Groups
LORING F. OEMING
EXECUTIVE SECRETARY
-------
POSE
At the reconvened conferences in Cleveland in 1966 and in Buffalo, New York
in 1967, the Michigan Water Resources Commission reviewed the pollution control
program that had been developed to abate pollution and enhance the Michigan waters
of Lake Erie and its tributaries. The reports outlined how Michigan, in 1965, had
established water quality goals for the Detroit River and Michigan waters of Lake
Erie and how a voluntary pollution abatement program had been formed with the help
of industries and municipalities. The reports further set down the effluent
restrictions and treatment facility construction time schedules required to'
achieve the desired water quality goals. Finally, the reports described the
water quality surveillance and effluent monitoring programs that have been
established by the Michigan Water Resources Commission.
This report will review the compliance status of the previously approved
abatement programs and time schedules and will present information on recent
pollution control activities affecting water quality in Michigan's waters of
Lake Erie.
-------
INDUSTRIAL AND MUNICIPAL COMPLIANCE STATUS
Appendix A summarizes the performance status of the 25 industrial plants and
II municipal governmental units having Stipulations with the Water Resources
Commission to control the polluting content of their waste discharges to the
Detroit River and Lake Erie. In 3 cases out of .1 I, municipal performance
schedules have been modified to accommodate expanded waste control projects, and
4 industrial schedules have been modified to allow for unforeseen construction
delays. The 4 paper mills in the Monroe area have decided to join the metropolitan
waste treatment system and their compliance dates are now considered to be the same
as for the City of Monroe. Even under the revised performance schedules, all
municipalities and industries are scheduled to have treatment facilities in
operation by December I, 1970. Six industries' have waste control facilities in
operation and are meeting the stipulated effluent restrictions. One municipality
and 3 industrial plants have not met the provisions of recent performance
each will be reviewed by the Water Resources Commission at an early date.
HATER QUALITY STANDARDS
Since the 1967 reconvened conference, Michigan has adopted water quality
standards for all interstate waters, including Michigan's waters of Lake Erie, along
with designated use areas and a plan of implementation. The standards, use areas
and plan of implementation have been approved by the Secretary of the Interior with
the single exception of a part of the temperature standards. This program data is
detailed in Appendix B. Michigan is also proceeding with a program to develop
comparable water quality standards for intrastate waters.
-------
WATERCRAFT POLLUTION CONTROL
The Water Resources Commission was directed by Governor Romney to develop rules
and regulations for the control of sanitary waste discharges from recreational
watercraft. The rule was developed in cooperation with the Department of Health,
the Waterways Commission and other affected state agencies; and in consultation with
neighboring states and the Province of Ontario. The rule is designed for application
to all watercraft equipped with a marine toilet, with the exception of passenger or
cargo-carrying vessels subject to the Interstate Quarantine Regulations of the U. S.
Public Health Service. The rule requires that after January I, 1970 all watercraft
having a marine toilet must be provided with either a holding tank, a sewage
incinerator or a device which has been determined by the Commission to be capable
of rendering the sewage discharges non-polIutionaI. (See Appendix C.)
WATER QUALITY SURVEILLANCE OF THE MICHIGAN WATERS OF LAKE ERIE AND ITS TRIBUTARIES
The water quality surveillance program established by Michigan was described
in detail to the conferees at Buffalo in 1967. The sampling and testing of the
Detroit River and Lake Erie at 63 locations is continuing and the data obtained
during 1966 and 1967 have been tabulated in Appendix D. Similar data for the 75
municipal and industrial waste discharges along the Detroit, Rouge, Huron and Raisin
rivers is shown in Appendix E.
-------
APPENDIX A
INDUSTRIAL AND MUNICIPAL PERFORMANCE STATUS
-------
DETROIT RIVER-LAKE ERIE GOVERNMENT;
STIPULATION DATES FOR COMPLIANCE
Unit
Preliminary Approval of
Engineering Construction
Study and Basis Plans and Complete
of Design Specifications Construction
Comments
May 1, 1967
May I, 1967
Berlin Township
Frenchtown Township
Monroe Township
Grosse lie Township
Wayne County
City of Detroit
Village of Estral Beach May I, 1967
May 1, 1968
May 1 , 1 969
(May I, 1968)* (May I, 1969)
November 30, 1968 December 1, 1970
May
Apri 1
Apri 1
Apri 1
1, 1967
1, 1967
1, 1967
1 , 1 967
(May 1 ,
November
November
November
November
1968)
1, 1968
1, 1968
1, 1968
1, 1968
(May 1 ,
May 1 ,
November '
November
November
1969)
1970
1, 1970
1, 1970
1, 1970
May I, 1968
May I, 1969
City of Luna Pier
City of Monroe
City of Riverview
City of Trenton
May I, 1967
May I, 1967
April I, 1967
April t, 1968
May I, 1968
(May I, 1968)
November I, 1968
November I, 1968
November I, 1969
May
1969
(May I, 1969)
December I, 1970
November I, 1970
November I, 1970
Preliminary design and report completed. Township has
notified the Commission that it has been unable to
proceed with final plans due to financing problems.
Commission will review problem at an early date.
Township has joined the Monroe metropolitan system with
treatment of wastes at the City plant. New compliance
dates were recently approved due to expanded service
area and coordination with the metropolitan treatment
pI ant improvement construct ion scheduIe.
Township has joined the Monroe metropolitan system with
treatment of wastes at the City plant. New compliance
dates were recently approved due to expanded service
area and coordination with the metropolitan treatment
plant improvement construction schedule.
Preliminary plans approved. In compliance.
Preliminary plans approved. In compliance.
City was also to submit a report on combined sewer
overflow control by April I, 1968. The report has been
received and approved. City is in compliance.
Preliminary engineering study report was received and
approved timely. Due to the estimated high per capita
cost of the proposed municipal system, the Village
eIected to upgrade i nd i vi duaI d i sposal systems.
Not i f i cat i on has been rece t ved f rom the V iI I age and
the Monroe County Health Department that'compIete
abatement has been achieved. Confirmation studies by
Commission staff have been scheduled.
Final plans approved. In compliance.
Contractual agreements have been reached with the three
Monroe area paper companies and two adjoining townships
for joint waste treatment in the City's plant. Compliance
dates were recently modified due to the expanded scope of
the collection and treatment project.
Preliminary plans approved. In compliance.
Preliminary plans approved. In compliance.
^Original Stipulation dates shown in parentheses with current compfiance dates shown directly below the original.
-------
DETROIT RIVER-LAKE ERIE INDUSTRY STIPULATION DATES FOR COMPLIANCE
Industry
Preliminary
Engineering
Study and Basis
of Design
Approval of
Construction
Plans and
Specifications
Complete
Construction
Comments
Al I led Chemical Corporation
Semet Solvay Division, Octroi I
Solvay Process Division,
Detroit
ApriI I , I9M> Apr!I I, 1907
November I, I'Jfifi April I, 1968
Facilities in operation. In compliance.
The Company will cease operations at this location as
of January I, 1969. Action on the Company's request
for this extension is pending.
Amej-jcan Cemenl Corporation
Peerless Cement Division,
Detroit
Mriy I , I960 May I , 1967
facilities in operation. Monitor sampling shows the
Company to be near compliance. Additional studies
are presently being'undertaken by the Company.
Consolidated Packaging Corporation
North Side Plant, Monroe Jdiiuury I, 1907
South Side Plant,-Monroe
January I , l%7
(J.inu.iry I, I'H.H)* (JnniKiry I, 1009)
November I , I 9(>H December I , 1970
(.Ijnu.iry I, I%H) (January I, 1909)
November I , \')(>fi December I , 1970
The Company has entered into a contract for secondary
1 real men 1 of wastes in the Monroe municipal metro-
politan treatment plant. Compliance dates are now
deemed to be the same as for the City of Monroe.
The Company has entered into a contract for secondary
treatment of wastes in the Monroe municipal metro-
politan treatment plant. Compliance dates are now
deemed to be the same as for the City of Monroe.
Darling and Company, Melvindalc
November I , l'>oi> (November I , 1907)
!".opt<;mtmr I , 1909
Considerable waste reduction has been accomplished
through in-plant changes. A program of equipment
conversion is now underway which, when complete, will
produce an effIuent'much better than required under
the Stipulation. Construction of an interim aerated
Ianoon is also underway which will provide near
compliance by June 1968. A final compliance date
modification was granted by the Commission in
lobru.-iry |9o8 to facilitate the plant conversio
t^. I. duPonl deNemour-j,
and Company. Inc.
Industrial and Biochemical
Division, Ecorse
April I, I9(,(, April I, I907
facilities in operation. Partial compliance
established. Operations at this location wi I
on July 31, 1908.
Firestone Tire and Rubber
Company
Firestone Steel Products
0 i v i s i on, R i verv i ew
November I, Inu0 November I, I907
The Company has entered into a contract for the
hauling away and disposition of' all the spent pickle
liquor and no longer discharges this material to the
Detroit River.
Ford Motor Company
Monroe Plant
Rouge Plant
other than iron and suspended sol ids
December I, I9h(> (OM months).
t'ohruary 15, 1909
October- I, I«)(•<,(, (+17 months)
.l.imi.iry I , I'Jir
M.irvh I , 1907
(+24 monthr.)
April 71, I^.'-J
Construction plans were submitted timely and approved
fpbruary li>, 1967 I hereby establishing the firm,
construction completion date shown.
nine months construction time was granted due to
chjnn.es in the scope of the construction project for
phenol treatment. Oil control iacilities are sub-
stantially complete except for construction of
holdinn ponds that require coordination with U.S.
Torpt o( Op i neers, RougR Ri ver improvement project,
.mil ,m extenr- ion -of t ime has been requested to
,'. i.>i'.>r I , 1969.
> I'MViTsion to hydrochloric acid steel pickling lines
wit.ti .ill spent pickle liquor returned to supplier
\-:- pxportr>d to eliminate all r.uch discharges from
thi-. nl.ml hv Iho rml ot lni>M. '-ii|v.| nut i ;> I
ickl.
I j
).!,•.
suspended sol ids
March I, 1907
(+27 months)
June I, 1969
Plans received and approved timely.
-------
rreat Lakes Steel Corporation
80" Hot Strip Mill, Ecorse
Steel Roll ing MM I, Ecorse
other than acid and Iron
other than acid and Iron,
No. 3 slabbing ml 11
acid and Iron
Blast Furnace, River Rouge
April I, 1967
November I, 1966 April I, 1968
November ), 1966 April I, 1968
October I, 1967 October I, 1968
December I, 1967 April I, 1969
November I, 1966 April I, 1968
Facilities In operation and incompliance.
Facilities In operation and in compliance.
Plans approved, facilities under construction.
Construction plans were submitted and approved
timely.
Partial compliance obtained. Oil and suspended
solids still exceed limits In some outlets.
Additional improvements being made by Company which
are expected to result In compliance.
Mclouth Steel Corporation. Trenton
MpbJ I 011 Company. Trenton
November I, 1966 April I, 1968
November I, 1966 November I, 1967
Facilities in operation and in compliance.
Facilities In operation. Company is slightly In
excess of oil concentration limits and has plans for
additlonaI treatment Iagoons.
Monsanto Company
Trenton Plant
November I, 1967
August I, 1968 November I, 1969
Plans have been approved, construction has been
completed and facilities are In operation.
Trenton Resins Plant
(November I, 1966)
September I, 1967
(April I, 1967) (April I, 1968)
December I, 1967 September I, 1968
Compliance dates were revised to allow for additional
plant studies. Plans have been submitted and
approved timely. Construction underway.
PennsaIt Chemicals Corporation
East Plant, Wyandotte
West Plant, Rlvervlew
Copper and Brass, Inc.,
itrolt
November I, 1966 April I, 1968
November I, 1966 April I, 1968
November I, 1966 November I, 1967
In compliance.
Not in compliance. Commission '
problem at an early date.
Facilities have been Installed. Coirpl iance not
fully established. Commission will review the
problem at an early date.
Scott Paper Company. Detroit
for BOD
January I, 1966
January I, 1969 January I, 1970
May I, 1967
(May I, 1968)
August 19, 1968
Preliminary plans received and approved timely.
Facilities under construction.
Time Container Corporation
Monroe Paper Products
Division
January I, 1967
(January I, 1968) (January I, 1969)
November I, 1968 December I, 1970
The Company has entered into a contract for secondary
treatment of wastes In the Monroe municipal
metropolitan treatment plant. Compliance dates are
now deemed to be the same as for the City of Monroe.
Union Camp Corporation. Monroe January I, 1967
(January I, 1968) (January I, 19691
November I, 1968 December t, (970
The Company has entered into a contract for secondary
treatment of wastes In the Monroe municipal
metropolitan treatment plant. Compliance daies are
now deemed to be the same as for the City of Monroe.
Wyandotte Chemicals Corporation
North Works, Wyandotte
South Works, Wyandotte
November I, 1966 April I, 1968
November I, 1966 April I, 1968
Additional time Is being requested to complete
certain construction Items on three of Its eight
waste outfalls to insure compliance with the
suspended solids limitation. A conference has been
scheduled for the May 28-29, 1968 Commission meeting
to discuss the Company's proposal.
Additional time is being requested to complete
certain construction Items on three of Its eight
waste outfalls to Insure compliance with the
suspended solids limitation. A conference has been
scheduled for the May 28-29, 1968 Commission meeting
to discuss the Company's proposal.
•aI Stipulation dates shown In parentheses with current compliance dates shown directly below the original
-------
APPENDIX B
WATER QUALITY STANDARDS
FOR
MICHIGAN WATERS
-------
MICHIGAN'S INTERSTATE WATERS
LE6ENO
MICHIGAN'S GREAT LAKES WATERS
INTERSTATE RIVER BASINS
MICHIGAN WATER RESOURCES COMMISSION
msmmm
-------
COMMISSION OBJECTIVE:
WATr'iS IN WHICH THE-EXISTING QUALITY IS BETTER THAN THE ESTABLISHED STANDARDS ON THE DATE WHEN SUCH STANDARDS
BECOME ELECTIVE URL NOT BE LOWERED IN QUALITY BY ACTION OF THE WATER RESOURCES COMMISSION UNLESS AND UNTIL IT HAS
BEEN AFFIRMATIVELY DEMONSTRATED TO THE MICHIGAN WATER RESOURCES COMMISSION AND THE DEPARTMENT OF THE INTERIOR THAT
THE CHANGE IN QUALITY WILL NOT BECOME INJURIOUS TO THE PUBLIC HEALTH, SAFETY, OR WELFARE, OR BECOME INJURIOUS TO
DOMESTIC, UJMERCIAL, INDUSTRIAL, AGRICULTURAL, RECREATIONAL OR OTHER USES WHICH ARE BEING MADE OF SUCH WATERS OR
BECOME INJU'MOUS TO THE VALUE OR UTILITY OF'RIPARIAN LANDS; OR BECOME INJURIOUS TO LIVESTOCK, MILD ANIMALS, BIRDS,
FISH, AQUA!1C LIFE OR PLANTS, OR THE GROWTH OR PROPAGATION THEREOF BE PREVENTED OR INJURIOUSLY AFFECTED- OR WHEREBY
THE VALUE Of FISH AND GAME MAY BE DESTROYED OR IMPAIRED,' AND THAT SUCH LOWERING IN QUALITY WILL NOT BE UNREASONABLE
AND AGAINST "UBLIC INTEREST IN VIEW OF THE EXISTING CONDITIONS IN ANY INTERSTATE WATERS OF MICHIGAN
WATER WHICH DOES NOT MEET THE STANDARDS WILL BE IMPROVED TO MEET THE STANDARDS
WATE
*&.
>Kfc
RXT
%
A
WATER SUPPLY
(| ) DOMESTIC
Such as drinking ,
culinary and food
(2.) INDUSTRIAL
Such as cool ing
Q
RECREATION
(I.) TOTAL BODY
CONTACT
Such as swimming ,
d i v i ng .
(Z.) PARTIAL BODY
CONTACT
Such as fishing'.
hunting, trapping
and boating.
FISH, WILDLIFE
AND OTHER
AQUATIC LIFE
such as
(growth and propagation
D
AGRICULTURAL
Such as 1 ivcstock
watering , I rrigation
and spraying.
E
COMMERCIAL
Such as nav :<}.'! '."<•>,
K,r!'--revent nuisance.
prevent nuisance.
Present at al 1 times in
nain dined for :
5fi*c es: Not less than 6 at
nto erant fish - warm water
pe_c_e_s: Average daily 00 not
olerant fish - warm water
ingle value be less than 3.
t greater flows the DO shall
•resent at al 1 times in
revent nuisance.
•3
SUSPENDED ,
COLLOIDAL 8
SETTLEABLE
MATERIALS
color , or deposi ts in
des i gna ted use .
color, or deposits in
des i gna ted use .
designated use.
No objectionable
desi gnated use.
color, or deposi ts in
o objectionable
esignated use.
a,
RESIDUES
(Debris and material
of unnatural Origin
and oils)
?esi_dues: No evidence
visible f i Im of oi 1 ,
of grease.
vis -bfe f i Im of oi 1 ,
materials. No globules
of grease.
Floating solids; None
visible f i Im of Oi 1 ,
materials. No globules
toati nq sol ids: None
of n"ur,rori9in""ol
gasol ine or related
materials. No globules
of grease.
rr-i'"
materials. No globules
of grease.
cfsTlFmater'ialtcrpt
gasol i ne or related
materials. No globules
of grease.
of natural origin. No
visible f ! 1m of oil,
gasol ine or related
materials. No globules
of grease,
TOXIC a
DELETERIOUS
SUBSTANCES
except:
upper 1 imi t of 0.2 mg/l .
upper 1 imi t of 0.05 <"g/l .
defined under A-8.
or"ay betL°"nj ur ious to
limited to concentrations
±
4
_i
Limited to concentrations 1
r^-^rLr
ppl i cat i on factors may be
sed in specific cases when
ustified on the basis of
gency.
hall be less than those
njurious to the designated
se .
-------
For the Great Lakes and connecting i
el fare; or wh ich
waters; or which are or may become injurious to the value or utility of i
or aquatic life or the growth or propagation thereof.
lUALITY STANDARDS
TOTAL
DISSOLVED
SOLIDS
(mg/l)
FOR GREAT LAKES & CON-
cxcecd 200.
10.
a monthly average, nor
exceed 750 at any time.
Chlorides: The monthly
average shall not exceed
125-
125.
i nj ur ious to the
des i gnated use.
des i gnated use.
beeves available on
h 700 d' 1 d
minerals. Maximum
percentage of sodium
formula (Na x 100)
lents per 1 iter.
which are or may become
in^M^us to the
d^^^Kd use.
w
7
NUTRIENTS
Phosphorus, ammonia.
from industrial ,
1 Jmi ted to the extent
may become injurious to
fr«, industrial. ^
growths of al gae , weeds
may become injurious to
frim industrial, *
limited to the extent
the st imulat ion of
growths of algae, weeds
may become injurious to
the des i gnated use.
limited to th. ..ten,
the stimulation of
growths of algae, weeds
and slimes which are or
the desi gnated use.
the stimulation of
and slimes which are or
may become injurious to
the desi gnated use.
from industrial ,
nunicipal, or domestic
NQ-3 concentrations shall
conform to USPHS Drinking
municipal, or domestic
animal sources shal 1 be
imi ted to the extent
timulation of growths of
Igae, weeds and slimes
which are or may become
njurious to the desig-
ated use.
8
TASTE a ODOR
PRODUCING
SUBSTANCES
may become injurious to
0.002 mg/l - maximum
sample.
stances of unnatural
k-y become injurious to
f i sh or game.
stances of unnatural
origin shal 1 be less
origin shal 1 be less
may become injurious to
* 9
TEMPERATURE*
(°F)
not be increased by more than ,0=F.
90°F maximum
Ambient increase limit
water spe its ""•
Intoleran 32° to 35° 15°
fish - wa m ^ ^ o
water spec.es to ^
Tolerant fish- J2° to Sgo 15°
warm water
species 60° to nat' 10° 87°
not be increased b, more than I OOF .
10
HYDROGEN
ION
(pH)
as a resul t of
range 6.5-8.8 wi th a
range 6.5-8.8 wi th a
wl thin ihi s range.
6.5 and 8.8 with a
range. Changes in
the pH of natural
values must be toward
neutrality (7.O.).
sources.
range 6.5-8.8 wi th a
variation of 0.5 uni t
wi thin this range.
II
RADIOACTIVE
MATERIALS
Stront ium-90) . 1 f thi s
limi t is exceeded the
speci fie radionucl i des
present must be identified
by complete analysis in
tion of nucl i des wi 1 1 not
produce exposures above
Radiation Counci 1 .
lished when information
lished when information
Stronti um-90) . If this
limit is exceeded the
fact that the concentra-
tion of nuclides will not
produce exposures above
established by the Federal
1 ished when information
deleterious effects.
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DESIGNATED USE AREAS
The water quality standards for the designated use areas shall not apply
during periods of authorized dredging for navigation purposes and during such
periods of time when the after-effects of dredging degrade water quality in areas
affected by dredging. (Water quality standardsfor the designated use area shall
apply in areas affected by tne disposal of spoil from dredging operations).
Where the waters are classified under more than one designated water use,
it is intended that the most restrictive individual standard of the designated
water uses shall be adhered to.
In areas adjacent to outfalls, standards for the designated water use or
uses shall apply after admixture of waste effluents with the public waters but in
no instance shall the mixing zone act as a barrier to fish migration or interfere
unreasonably with the designated water use or uses for the area. The Water
Resources Commission must have discretion in determining the extent of the mixing
zone. In genera], the Water Resources Commission encourages the use of outfall
structures which minimize the extent of the mixing zone.
Based on their existing uses and reasonable future uses the waters of the
St. Clair River, Lake St. Clair, Detroit River and Lake Erie will be protected
as described below.
1. All the above named waters will be protected for Water Supply—Domestic.
except that portion of the Detroit River from Point Hennepin to the mouth.
The individual parameters shall be measured at the point of water
wi thdrawal.
2. All the above named waters will be protected for Water Supply—Industrial.
The individual parameters shall be measured at the point of water
wi thdrawal.
3. All the above named waters, except at the mouths of tributaries, in the
immediate vicinity of enclosed harbor areas and in the immediate vicinity
of waste water treatment plant outfalls will be protected for
Recreation—Total Body Contact; except for conditions relating to
natural causes.
k. All the above named waters will be protected for Fi sh, WiIdlife and
Other Aquatic Life—Warm Water Sport Fish.
5. All the above named waters will be protected for Commercial Navigation
in the designated navigation channels as maintained by the U. S. Corps
of Engineers.
Based on their existing uses and reasonable future uses the Michigan waters
of the Maumee River basin will be protected as described below.
1. All the above named waters will be protected for Recreation—Total
Body Contact, except for conditions relating to natural causes.
2. All the above named waters will be protected for Fish. WiIdl i fe and
Other Aquatic Life—Warm Water Sport Fish.
3. All the above named waters will be protected for Agricultural Uses.
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DETROIT RIVER
a
LAKE ERIE
DESIGNATED USE AREAS
PARTIAL BODY CONTACT AREAS
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SUMMARY OF PROGRAM TO CONTROL AND ABATE POLLUTION
The Michigan Water 'Resources Commission, under the present water pollution
control law (Act 245, Public Acts of 1929, as amended), has the authority to
protect and conserve the water resources of the state and the Great Lakes, the
power to make rules and regulations governing the same, and the power to prohibit
the pollution of any waters of the state and Great Lakes.
Section 6 (B) of Act 245, Public ,Acts of 1929, as amended, makes the discharge
of any raw sewage of human origin, directly or indirectly into any waters of the
state, prima facie evidence of a violation of Section 6 (A) of the act unless said
discharge shall have been permitted by an order, rule or regulation of the Commission.
It is the Commission's intent that the identified industrial waste problems be
abated no later than June 1, 1970. Opportunity has been provided for the establishment
of voluntary programs but if such programs have not been established by June 1, 1968,
statutory proceedings will be initiated.
The existing municipal wastewater treatment plants in the basin have been
listed in a preceding section. The surveillance program previously described
will be implemented to the extent necessary to identify any existing inadequacies
of treatment of dry weather flows by March 1, 1968. In those areas where
noncompliance with the standards is determined to exist either by direct-
discharge or by discharge to tributaries which in turn flow to Lake Huron,
a program will be established which will require, no later than June 1, 1972,
treatment facilities adequate for meeting established water quality standards.
Secondary treatment will be required as a minimum at all municipal wastewater
treatment plants to meet the adopted water quality standards unless it can be
demonstrated that a lesser degree of treatment or control will provide for water
iquality enhancement commensurate with present and proposed future water uses.
Exception to the requirement for at least secondary treatment must be justified
to the satisfaction of the Michigan Water Resources Commission and the Federal
Water Pollution Control Administration. Year-round disinfection of all final
effluents from sewage treatment plants is required. Industrial waste effluents
will be required to meet the same effluent standards as municipal waste effluents.
In those instances where in the opinion of the Commission it appears that a proposed
voluntary program will not be successful or may not be accomplished within a reasonable
period of time, statutory procedures will be initiated. Final Orders adopted by the
Commission contain specific dates for approval of completed construction plans and
specifications, awarding of construction contracts and commencing of construction,
and the completion of construction and attainment of abatement. A typical time
schedule requires the completion of construction plans within 12 months from the
date of adoption of the Order, contract awards and construction start within 24
months, and construction completion and abatement within 36 to 42 months. The
Commission is pursuing a program to secure abatement of presently identified
discharges of raw sewage of human origin to public waters of the state no later
than June 1, 1972 subject to conditions which are not within the control of the
Commission.
-------
It is the Commission's intent that new sewerage systems shall be developed on
s of separate sewers for storm water and sanitary waste waters. When it is
feasible, separated sanitary waste water systems shall not be discharged into existing
combined systems. If such a discharge does occur, control facilities must be developed
on the combined system so as to provide for water quality enhancement of the receiving
waters commensurate with present and proposed future water uses and consistent with
the requirements of the Water Resources Commission statute. The problems associated
with the overflows of combined storm and sanitary waste waters from existing combined
sewerage systems to public waters will be assessed as a part of the surveillance
program identified in this report. In those areas where noncompliance with the
standards is determined to exist as the result of overflows of sanitary waste water
in storm runoff, a program will be established which will require, no later than
June 1, 1977, the best practicable treatment or control.
It is the Commission's intent to require that nutrients in public waters,
particularly with respect to phosphates, traceable to industrial or municipal waste
sources be controlled. Persons proposing to make a new or increased use of waters
of the state for waste disposal purposes will be required to utilize such technology
and processes which are known. The long-term objective is to require that phosphates
traceable to all industrial or municipal waste sources be controlled on or before
June 1, 1977.
Soil Conservation Districts have been organized in every county within the basin.
One of their primary objectives is to reduce land erosion. The State Soil Conservation
Committee, the agency which provides leadership for the district programs, is a member
of the Department of Agriculture. The Director of the Department of Agriculture is a
mei^^p of the Water Resources Commission thus providing for the coordination of mutual
ob^Ptives.
The Water Resources Commission has been directed by Governor Romney to develop
rules and regulations, under the authority of Act 245, Public Acts of 1929, as amended,
for control of the discharge of. sanitary waste from recreational watercraft. The rules
and regulations will be developed in cooperation and consultation with the Department
of Public Health, the Waterways Commission, and other affected state agencies. They
will be consistent with the Commission's statutory objectives of pollution control.
Such rules and regulations should be adopted no later than June 1, 1968 and implemented
no later than June 1, 1970, subject to such information as may be forthcoming at public
hearings prior to the adoption of the rules and regulations and subject to budgetary
requirements for enforcement.
In addition to the actions concerning existing problems, it is the Commission's
intent to prevent future problems by continued implementation of Section 8 (B) of
Act 245, Public Acts of 1929, as amended. This section reads as follows:
"Any person requiring a new or substantial increase over and above
the present use now made of the waters of the state for sewage or
waste disposal purposes shall file with the commission a written
statement setting forth the nature of the enterprise or development
contemplated, the amount of water required to be used, its source,
the proposed point of discharge of the wastes into the waters of the
state, the estimated amount so to be discharged, and a fair statement
getting forth the expected bacterial, physical, chemical and other
own characteristics of the wastes. Within 60'" days of receipt of
-------
the statement, the commission shall make an order stating such
minimum restrictions as in the judgment of the commission may be
necessary to guard adequately against such unlawful uses of the
waters of the state as are set forth in section 6. If the order
is not acceptable to the user, he may request a hearing on the
matter involved, following which the commission's final order of
determination in this connection shall be conclusive unless reviewed
in accordance with the provisions of the administrative procedures
of Act No. 197 of the Public Acts of 1952, as amended, being sections
24.101 to 24.110 of the Compiled Laws of 1948, or any amendment thereto,
in the circuit court of the county of Ingham, or for the county in which
the user resides, or for the county in which the use is contemplated,
upon petition therefor, filed'within 15 days after service upon said
user of the final order of determination."
Water treatment plant filter backwash discharges will be controlled under either
Section 7 or Section 8 (B) of Act 245, P. A. 1929, as amended. A typical time schedule
for correction of an existing problem under Section 7 would call for construction plans
within 8 months from the date of the adoption of the Final Order, contract awards and
construction start within 14 months, and construction completion and abatement within
24 months. Solids removal will be required as a minimum unless it can be demonstrated
that a lesser degree of treatment or control will provide for water quality enhancement
commensurate with proposed present and future water uses.
The criteria and plan of implementation are consistent with the recommendations
of all Federal enforcement conferences to which the State has been a party.
The Commission has as an objective the following:
"Waters in which the existing quality is better than the
established standards on the date when such standards become
effective will not be lowered in quality by action of the Water
Resources Commission unless and until it has been affirmatively
demonstrated to the Michigan Water Resources Commission and the
Department of the Interior that the change in quality will not
become injurious to the public health, safety, or welfare, or
become injurious to domestic, commercial, industrial, agricultural,
recreational or other uses which are being made of such waters, or
become injurious to the value or utility of riparian lands; or
become injurious to livestock, wild animals, birds, fish, aquatic
life or plants, or the growth or propagation thereof be prevented
or injuriously affected; or whereby the value of fish and game may
be destroyed or impaired, and that such lowering in quality will
not be unreasonable and against public interest in view of the
existing conditions in any interstate waters of Michigan.
"Water which does not meet the standards will be improved to
meet the standards."
-------
APPENDIX C
WATERCRAFT POLLUTION CONTROL ACT
-------
DEPARTMENT OF CONSERVATION
WATER RESOURCES COMMISSION
POLLUTION FROM WATERCRAFT
Filed with Secretary of State,
(By authority conferred on the water resources commission by sections 2 and
5 of Act No. 2^5 of the Public Acts of 1929, as amended, being sections
323.2 and 323.5 of the Compiled Laws of 19^8.)
R 323.501. Defini tions.
Rule 501. (1) "Act" means Act No. 2*+5 of the Public Acts of 1929, as
amended, being sections 323 •' to 323- '2a of the Compiled Laws of 19^8, and
the act which these rules implement.
(2) "Commission" means the Water Resources Commission of the Department
of Conservation.
(3) "Litter" means bottles, glass, crockery, cans, scrap metal, junk,
paper, plastic, garbage, rubbish or similar refuse discarded as no longer
useful or usable.
(k) "Marine toilet" means a toilet on or in a watercraft.
(5) "NonpoI 1utiona1" means incapable of causing unlawful pollution as
defined in section 6 of the act, as amended.
(6) "Sewage" means human body wastes, treated or untreated.
(7) "Watercraft" means a contrivance used or capable of being used
for navigation upon water whether or not capable of self-propulsion, except
a passenger or cargo-carrying vessel including those subject to the Inter-
state Quarantine Regulations of the United States Public Health Service
adopted pursuant to sections 2k\ , 2^3, 252 and 262 to 272 of Title k2 of the
United States Code.
R 323.502. Sewage; use of pollution control devices and disposal facilities.
Rule 502. (1) No person shall operate a marine toilet on a watercraft
on the waters of this state so as to discharge sewage into such waters unless
the sewage has been rendered nonpollutiona1 by passage through a device
approved by the commission.
(2) No person owning or operating a watercraft having a marine toilet
shall use or permit the use of such toilet on the waters of this state unless
the toilet is equipped with 1 of the following pollution control devices:
-------
(a) A holding tank which will retain all sewage produced on the
watercraf t .
(b) An incinerating device which will reduce to ash all sewage
produced on the watercraft.
(c) A device determined by the commission to be capable of rendering
the sewage discharges nonpol 1 ut i ona 1 in accordance with the requirements
of the act.
(3) No person shall dispose of sewage accumulated in a holding tank
or any other container on a watercraft in such manner that the sewage
reaches or may reach the waters of this state except through a sewage dis-
posal facility approved by the state Department of Public Health or its
designated representative.
R 323.503. Watercraft registration; marine toilet information.
Rule 503. An applicant for a certificate of number for a watercraft
irsuant to section 33 of Act No. 303 of the Public Acts of 1967, being
Pection 281.1033 of the Compiled Laws of 19^8, shall disclose at such time
to the commission whether the watercraft has in or on it a marine toilet,
and if so, whether the toilet is equipped with a pollution control device
as required by these rules. The commission may request the secretary of
state to provide it with the name of an applicant whose application indicates
the absence of such pollution control device on a marine toilet.
R 323.504. Litter disposal.
Rule 504. Disposal of litter is subject to the provisions of Act No.
106 of the Public Acts of 1963, as amended, being sections 752.901 to
752.906 of the Compiled Laws of
R 323.509. Effective date.
Rule 509. These rules are effective January 1, 1970.
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2
3
4
5
6
7
8
9
10
201
Ralph Purdy
further set down the effluent restrictions and treatment
facility construction time schedules required to achieve
the desired water quality goals. Finally, the reports
described the water quality surveillance and effluent
monitoring programs that have been established by the
Michigan Water Resources Commission.
This report will review the compliance status
of the previously approved abatement programs and time
schedules and will present information on recent pollution
control activities affecting water quality in Michigan
_.. waters of Lake Erie.
11 i
Industrial and Municipal Compliance Status
, Appendix A summarizes the performance status of
13 i
the 25 industrial plants and 11 municipal governmental
14
15 ii
units having stipulations with the Water Resources Commis-
sion to control the polluting content of their waste dis-
! charges to the Detroit River and Lake Erie. In three
i? !;
I cases out of eleven, municipal performance schedules have
been modified to accommodate expanded waste control
projects, and four industrial schedules have been modified
to allow for unforeseen construction delays. The four
paper mills in the Monroe area have decided to join the
metropolitan waste treatment system and their compliance
dates are now considered to be the same as for the city
of Monroe. Even under the revised performance schedules,
all municipalities and industries are scheduled to have
25 i
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202
Ralph Purdy
treatment facilities in operation by December 1, 1970. S\
2
industries have waste control facilities in operation and
3
are meeting the stipulated effluent restrictions. One
municipality and three industrial plants have not met
5 the provisions of recent performance dates and each will
6 be reviewed by the Water Resources Commission at an early
7 date.
8 Water Quality Standards
9 , Since the 1967 reconvened conference, Michigan
10 has adopted water quality standards for all interstate
11 waters, including Michigan waters of Lake Erie, along
12 with designated use areas and a plan of implementation.
13 The standards, use areas and plan of implementation have
14 been approved by the Secretary of the Interior with the
15 single exception of a part of the temperature standards.
, _ This program data is detailed in Appendix B. Michigan is
JLb
also proceeding with a program to develop comparable
water quality standards. I might add that this program
18
lg will be completed on January 1, 1969.
Watercraft Pollution Control
t£\J
The Water Resources Commission was directed by
«^ J.
Governor Romney to develop rules and regulations for the
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203
Ralph Purdy
other affected S;tate agencies; and in consultation with
neighboring States and the Province of Ontario. The rule
is designed for application to all watercraft equipped with
a marine toilet, with the exception of passenger or cargo-
carrying vessels subject to the Interstate Quarantine
Regulations of the United States Public Health Service.
The rule requires that after January 1, 1970, all water-
craft having a marine toilet must be provided with either
a holding tank, a sewage incincerator or a device which
has been determined by the Commission to be capable of
rendering the sewage discharges non-pollutional. (See
Appendix C.)
Water Quality Surveillance of the Michigan Waters
of Lake Erie and Its Tributaries
The water quality surveillance program estab-
lished by Michigan was described in detail to the
conferees at Buffalo in 1967. The sampling and testing
of the Detroit River and Lake Erie at 63 locations is
continuing and the data obtained during 1966 and 1967
have been tabulated in Appendix D. Similar data for the
75 municipal and industrial waste discharges along the
Detroit, Rouge, Huron and Raisin Rivers is shown in
Appendix E.
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204
1
2
3
4
5
6
7
8
9
10
11
APPENDIX A
12
INDUSTRIAL AND MUNICIPAL PERFORMANCE STATUS
13
14
15
16
17
18
19
20
21
22
23
24
25
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DETROIT RIVER-LAKE ERIE GOVI
AL UNIT STIPULATION DATES FOR COMPLIANCE
Unit
Preliminary Approval of
Engineering Construction
Study and Basis Plans and Complete
of Design Specifications Construction
Comments
erl in Township
May 1, 1967
May
1968
May I, 1969
Preliminary design and report completed. Township has
notified the Commission that it has been unable to
proceed with final plans due to financing problems.
Commission will review problem at an early date.
May 1 , 1967
Frenchtown Township
Monroe Township
Grosse Ile Township
Wayne County
City of Detroit
Village of Estral Beach May i, 1967
(May I, 1968)" (May I, 1969)
November -30, 1968 December I, 1970
May
Apr! 1
Apri 1
Apr! 1
1, 1967
1, 1967
1, 1967
1, 1967
(May 1 ,
November 1
November 1
November 1
November 1
1968)
, 1968
, 1968
, 1968
, 1968
(Hay 1 ,
Hay 1 ,
November 1
November 1
November 1
1969)
1970
, 1970
, 1970
, 1970
City of Luna Pier
City of Monroe
City of Riverview
City of Trenton
May I, 1967
May I, 1967
ApriI I, 1967
April I, 1968
May 1, 1968
May 1, 1969
May I, 1968
(May I, 1968)
November I, 1968
November I, 1968
November I, 1969
May I, 1969
(May I, 1969)
December I, 1970
November I, 1970
November I, 1970
Township has joined the Monroe metropolitan system with
treatment of wastes at the City plant. New compliance
dates were recently approved due to expanded service
area and coordination with the metropolitan treatment
plant improvement construction schedule.
Township has joined the Monroe metropolitan system with
treatment of wastes at the City plant. New compliance
dates were recently approved due to expanded service
area and coordination with the metropolitan treatment
plant improvement construction schedule.
Preliminary plans approved. In compliance.
Pre Ii mi nary pIans approved . In compIi anee.
City was also to submit a report on combined sewer
overflow control by April I, 1968. The report has been
received and approved. City is in compliance.
that complete
•mation studies by
Final plans approved. In compliance.
Contractual agreements have been reached with the three
Monroe area paper companies and two adjoining townships
for joint waste treatment in the City's plant. Compliance
dates were recently modified due to the expanded scope of
the collection and treatment project.
Preliminary plans approved. In compliance.
Preliminary plans approved. In compliance.
ro
O
"Original Stipulation dates shown in parentheses with current compliance dates shown directly below the original.
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206
DETROIT RIVER-LAKE ERIE INDUSTRY STIPULATION DATES FOR COMPLIANCE
Industry
Preliminary
Engineering
Study and Basis
of Design
Approval of
Construction
Plans and
Specifications
Complete
Construction
Comments
Ajjjed Chemical Corporaljon
Semot Solvay Division, Delrui
Solvay Process Division,
Detroit
Apr! I I , I9f,h Apri I I , 1967
November I , l')f,6 Apr! I I , 1908
Facilities in operation. In compliance.
The Company will cease operations at this location as
of January I, 1969. Action on the Company's request
for this extension is pending.
American Cemenl Corporation
'eerless Cement Division,
Detroit
M,jy I , I'Jf.r, . Mny | , 1967
Facilities in operation. Monitor sampling shows the
Company to be near compliance. Additional studies
are presently being undertaken by the Company.
ConsulJjteted Packaging Corporation
North Side Plant, Monroe - Jjnudry I, 196V
South Side Plant, Monroe
Jdnuary I, 1907
U.jnu.iry I , !')fjH) (.J.'inunry I , 1969)
November I, 1968 December I, 1070
I ho (;omp.iny has entered into a contract for secondary
treatment of wastes in the Monroe municipal metro-
politan treatment plant. Compliance dates are now
duemed to be the same as for the City of Monroe.
The Company has entered into a contract for secondary
treatment of wastes in the Monroe municipal metro-
politan treatment plant. Compliance dates are now
deemed to be the same as for the City of Monroe.
Darl ing and Company, Melvindalc
Novomhor I , I'Jhh (November I , I9(,;)
Considerable waste reduction has been accomplished
through in-plant changes. A program of equipment
conversion is now underway which, when complete, will
produce an effIuent'much better than required under
the Stipulation. Construction of an interim aerated
Innoun is also underway which will provide near
compliance by June I96H, A final compliance date
modification was granted by the Commission in
Iobruary IQ68 to facilitate the plant conversion
E._ J . duPonl deNemours
and Compjny, Inc.
Industrial and Biochemical
Division, Ecorse
Apr i I I , I 967 F'aci I i t i es in opera t ion . Part ia I comp I iance
established. Operations at this location will cease
on July 31, 1968.
Firestone Tire and Rubber
Company
Firestone Steel Products
Division, Riverview
November I , I (k,6 November I , I9h7
The Company has entered into a contract for the
hauling away and disposition of all the spent pickle
liquor and no longer discharges this material to the
Detroit River.
Ford Motor Company
Monroe Plant
Rouge Plant.
other than iron and suspended solids
December I, I 9dd (* i'4 months).
lebruary 15, 1969
October I, l<)6<> ( + 17 months)
J.iiui.ii y I , l'Ji.'i
(+24 months)
Apr i I ?1, i'-Ji.'J
Construction plans were submitted timely and approved
February 15, 1967 I hereby cstab I i'sh i ng the f i rm,
construction completion date shown.
- ,'iibt rue I ion p Kins have been rip proved . Add i tiona I
nine months construction time was granted due to
rh.innes in the scope of the construction project for
phenoI 1reatment. Oil cont rnI fac i I i t ies are Sub-
stant i 3 I Iy complete except for construct!on of
holdinq ponds that require coordination with U.S.
I'nrpt of Lnnineers, Rouge River improvement project,
.in,i ,in extension of time hos been requested to
A l.>i'.»r I , 1969.
iTsion to hydrochloric acid steel pickling lit
jll spent pickle liquor returned to supplier
xpodod to eliminate .ill such discharges fro
ies
,il
suspended sol ids
March I, 1967
(+27 months)
June i, 1969
Plans received and approved timely.
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207
Great Lakes Steel Corporation
Hot Strip Mill, Ecorse
el Rolling Mill, Ecorse
other than ocld and Iron
other than acid and Iron,
No. 3 slabbing ml 11
acid and iron
Blast Furnace, River Rouge
April I, 1967
November 1, 1966 April 1, 1968
November I, 1966 April I, 1968
October I, 1967 October I, 1968
December I, 1967 April I, 1969
November I, 1966 April I, 1968
Facilities In operation and incompliance.
Facilities in operation and in compliance.
Plans approved, facilities under construction.
Construction plans were submitted and approved
timely.
Partial compliance obtained. Oil and suspended
solids still exceed limits in some outlets.
Additional Improvements being made by Company which
are expected to result in compliance.
Mclouth Steel Corporation. Trenton
Mob 11 011 Compjinv, Trenton
November I, 1966 April I, 1968
November I, 1966 November I, 1967
Facilities In operation and in compliance.
Facilities in operation. Company is slightly In
excess of oil concentration limits and has plans for
additional treatment lagoons.
Monsanto Company
Trenton Plant
November I, 1967
August I, 1968 November I, 1969
Plans have been approved, construction has been
completed and facilities are in operation.
Trenton Resins Plant
(November I, 1966)
September I, 1967
(April I, 1967) (April I, 1968)
December I, 1967 September I, 1968
Compliance dates were revised to allow for additional
plant studies. Plans have been submitted and
approved timely. Construction underway.
PennsaI t ChemIca I s CorporalJ_o_n_
East Plant, Wyandotte
West Plant, Rivervlew
November I, 1966 April I, 1968
November I, 1966 April I, 1968
In compliance.
Not in compliance. Commission will review the
problem at an early date.
:evere Copper and Brass. Inc.
Detroit
November I, 1966 November I, 1967
Facilities have been Installed. Compliance not
fully established. Commission will review the
problem at an early date.
Paper Company. Detroit
for BOD
I
for sol Ids
January I, 1968
January I, 1969 January I, 1970
May I, 1967 (May I, 1968)
August 19, 1968
Preliminary plans received and approved timely.
Facilities under construction.
Time Container: Corporation
Monroe Paper Products
Division
January I, 1967
(January I, 1968) (January I, 1969)
November I, 1968 December t, 1970
The Company has entered into a contract for secondary
treatment of wastes In the Monroe municipal
metropolitan treatment plant. Compliance dates are
now deemed to be the same as for the City of Monroe.
Union Camp Corporation. Monroe January I, 1967
(January I, 1968) (January t, 1969)
November I, 1968 December I, 1970
The Company has entered into a contract for secondary
treatment of wastes In the Monroe municipal
metropolitan treatment plant. Compliance dales are
now deemed to be the same as for the City of Monroe.
Wyandotte ChemIcaIs Corporal1 gn
North Works, Wyandotte
South Works, Wyandotte
November I, 1966 April I, 1968
November f, 1966 April I, 1968
Additional time Is being requested to complete
certain construction items on three of its eight
waste outfalls to Insure compliance with the
suspended solids limitation. A conference has been
scheduled for the May 28-29, 1968 Commission meeting
to discuss the Company's proposal.
Additional time is being requested to complete
certain construction items on three of its eight
waste outfalls to insure compliance with the
suspended solids limitation. A conference has been
scheduled for the May 28-29, 1968 Commission meeting
to discuss the Company's proposal.
"Original Stipulation dates shown In parentheses with current compliance dates shown directly below the original.
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1
2
3
4
5
6
7
8
9
10
APPENDIX B
12 M
"It WATER QUALITY STANDARDS
13
FOR
14
MICHIGAN WATERS
15
16
17
18
19
20
21
22
23
24
25
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MICHIGAN'S INTERSTATE WATERS
209
INTERSTATE RIVER BASINS .
MICHIGAN WATER RESOURCES COMMISSION;
S*M$$gS
-------
COMMISSION OBJECTIVE:
WATMS IN WHICH THE-EXISTING QUALITY IS BETTER THAN THE ESTABLISHED STANDARDS ON THE DATE WHEN SUCH STANDARDS
BECOME ELECTIVE HILL NOT BE LOWERED IN QUALITY BY ACTION OF THE HATER RESOURCES COMMISSION UNLESS AND UNTIL IT HAS
BEEN AFFIRi-Y.TIVELY DEMONSTRATED TO THE MICHIGAN HATER RESOURCES COMMISSION AND THE DEPARTMENT OF THE INTERIOR THAT
THE CHANGE I'! QUALITY U1LL NOT BECOME INJURIOUS TO THE PUBLIC HEALTH, SAFETY, OR WELFARE, OR BECOME INJURIOUS TO
DOMESTIC, tfiMERCIAL, INDUSTRIAL, AGRICULTURAL, RECREATIONAL OR OTHER USES WHICH ARE BEING MADE OF SUCH WATERS, OR
BECOME IHJi:-'IOUS TO THE VALUE OR UTILITY OF'RIPARIAN LANDS; OR BECOME INJURIOUS TO LIVESTOCK, WILD ANIMALS, BIRDS,
FISH, AQUAIIf. LIFE OR PLANTS, OR THE GROWTH OR PROPAGATION THEREOF BE PREVENTED OR INJURIOUSLY AFFECTED- OR WHEREBY
THE VALUE Or FISH AND GAME MAY BE DESTROYED OR IMPAIRED, AND THAT SUCH LOWERING IN QUALITY WILL NOT BE UNREASONABLE
AND AGAINST "UBLIC INTEREST IN VIEH OF THE EXISTING CONDITIONS IN ANY INTERSTATE WATERS OF MICHIGAN
WATER kl!ICH DOES NOT MEET THE STANDARDS HILL BE IMPROVED TO MEET THE STANDARDS
210
VA 1 i
v/NTR 1 COLIFORM
EV1 1 GROUP
R^V T 1 (organ! sms/l 00ml
^pj ••">
WATER SUPPLY
(1.) DOMESTIC
processing.
(2.) INDUSTRIAL
Such as cool ing
process.
B
RECREATION
(1.) TOTAL BODY
CONTACT
Suchass-i^ing.
diving.
(2.) PARTIAL BODY
CONTACT
Such as f ishing ,
hunting, trapping
and boat ing.
FISH, WILDLIFE
AND OTHER
AQUATIC LIFE
D
AGRICULTURAL
Such as 1 i vestock
watering , irrigation
and spraying.
E
COMMERCIAL
•i.tlr-'illiCtr ' - ^ a
elq^t-ic pov^r.
.. .
|20% of the Samples examined
•exceed 2000.
•For Inland Waters: The monthl
exceed 20,000 in more than 5X
of the samples.
not exceed 5000 nor shall 20/,
not exceed 1 000.
of the samples examined exceec
5,000. The average fecal
not exceed ^000 nor shall 20%
10,000. The average fecal
A, Section 6.
The average of any series of
10,000. The average fecal
coliform density for the same
10 consecutive samples shall
not exceed 5000 nor shall 20%
of the samples examined exceed
10,000. The average fecal
0 consecutive samples shall
not exceed 1000.
2
DISSOLVED
OXYGEN
(mg/l)
ireveru nuisance.
prevent nuisance.
ingle value be less than b.
t greater flows the DO shall
e in excess of these values.
ot less than 3 at any time.
revent nuisance.
•3
SUSPENDED ,
COLLOIDAL 8
SETTLEABLE
MATERIALS
No object i enable
des I gnated use.
to interfere wi lh the
No object ionab.e
color, or deposits in
to interfere wi th the
des i gnated use .
designated use.
No objectionable
unnatural turbid! ty ,
olor , or deposi ts in
nterfere with the
es ignated use.
4
RESIDUES
(Debris and material
of unnatural origin
and oi Is)
visible film of oi 1 ,
of grease.
RL"Zs"raio",?^nc.
of natural origin. No
visible film of Oil,
materials. No globules
of grease.
F.oatinqsoiids: Hon.
lesidues : No evidence
of natural ori gin. No
visible f Mm of oil,
gasol ine or related
materials. No globules
Of grease.
tirrt^dence
visible f i )
-------
Nj/ For the Great Lakes and connecting waters no heat toad in sufficient quantity to »^ •*
or aquatic life or the growth or propagation thereof.
ALITY STANDARDS
TOTAL
DISSOLVED
SOLIDS
(mg/l)
NECTING WATERS:
Total Dissolved Solids:
exceed 200.
Chlorides: The monthly
50. A monthly average
of 10 is a desirable
conditions are less lha
10.
FOR INLAND WATERS:
Total Dissolved Solids;
a monthly average, nor
exceed 750 at any time.
Chlorides: The monthly
125.
a monthly average nor
Chlorides: The monthly
125.
injurious to the
Limited to concenira-
injurious to the
designated use.
becomes available on
minerals. Maximum
percentage of sod i urn
formula (Na x 100)
(Na+Ca+Mg+k)
lents per liter.
which are or may become
injurj^bto the
NUTRIENTS
Phosphorus, ammonia,
ni trates and sugars
from industrial ,
municipal, or domestic
1 imi ted to the extent
treatment processes or
the stimulation of
and slimes which are or
may become injurious to
municipal, or domestic
1 imi led to the extent
the stimulation of
growths of algae, weeds
and slimes which are or
may become i nj ur i ous to
the desi gnated use.
1 imi ted to the extent
the stimulation of
and slimes which are or
may become injurious to
the des i gnated use.
Nutrients originating
1 imi ted to the extent
the stimulat ion of
growths of algae, weeds
and slimes which are or
may become injurious to
the desi gnated use.
municipal, or domestic
1 imi ted to the extent
the stimulation of
and slimes which are or
may become injurious to
the desi gnated use.
rom Industrial ,
unicipal , or domestic
imi ted to the extent
nd slimes which ore or
03 concentrations shall
conform to USPHS Drinking
Water Standards.
unicipal , or domestic
nimal sources shall be
timulation of growths of
Igae, weeds and slimes
hich are or may become
njurious to the desig-
ated use.
8
TASTE 8 ODOR
PRODUCING
SUBSTANCES
ori gin shal 1 be less
may become injurious to
concentration less than
0.002 mg/l - maximum
0.005 mg/t for a 'single
sample.
ori gin shal I1 be less
may become i nj ur ious to
>»"«> °' "«7»
may become i nj ur i ou>> to
Concentrations of Sub-
nay become injurious to
the des. gnated use.
origin shal 1 be less
causing or may cause
fish or game.
stances of unnatural
or! gin shal 1 be less
may become injurious to
origin shall be less
than those which are or
9
TEMPERATURE^
(°F)
90°F maximum
Ambient increase 1 imit
H '-'cold 32° to nat- 10° 70°
wa r species ma*'
fi - warm
6 5P€C "
Tolerant fish- 32° to 59° 15°
species 60° to nat- 10° 87°
Not applicable
not be increased by more than, OOF.
10
HYDROGEN
ION
(PH)
more than 0.5 unit
as a resul t of
unnatural sources.
ma,?™* induced
wi thin this range.
range 6-5-8.8 with a
range 6.5-8.8 wi th a
variation of 0.5 unit
mJimum a£"!c?.H
1.0 uni t wi thin this
range. Changes in
the pH of natural
values must be toward
neutrality (7.O.).
pH shal 1 not have an
sources.
range 6.5-8.8 wi th a
II
RADIOACTIVE
MATERIALS
An upper limit of 1000
of alpha emi tters and
Strontium-90) . If this
1 imi t is exceeded the
tion of nucl ides wi 11 not
produce exposures above
the recommended limits
Radi ation Counci 1 .
S;shedrwhen°informat;on
deleterious effects.
becomes available on
An upper 1 imi t of 1000
Strontium-90) . 1 f this
limit is exceeded the
oraerto'.sta.llln1!^"
tion of nuclides will not
produce exposures above
the recommended 1 imi is
Radiation Counci 1 .
lished when information
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212
Ralph Purdy
1 Designated Use Areas
2 The water quality standards for the designated
3 use areas shall not apply during periods of authorized
4 dredging for navigation purposes and during such periods
5 of time when the after effects of dredging degrade water
6 quality in areas affected by dredging. (Water quality
7 standards for the designated use area shall apply in
8 areas affected by the disposal of spoil from dredging
9 operations.)
10 Where the waters are classified under more than
H one designated water use, it is intended that the most
12 restrictive individual standard of the designated water
13 uses shall be adhered to.
14 In areas adjacent to outfalls, standards for
the designated water use or uses shall apply after
iO
admixture of waste effluents with the public waters but
16
in no instance shall the mixing zone act as a barrier to
fish migration or interfere unreasonably with the desig-
18
nated water use or uses for the area. The Water Resources
19
Commission must have discretion in determining the extent
20
of the mixing zone. In general, the Water Resources
21
Commission encourages the use of outfall structures which
22
minimize the extent of the mixing zone.
23
Based on their existing uses and reasonable
24
future uses the waters of the St. Glair River, Lake St.
25
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213
Ralph Purdy
Glair, Detroit River and Lake Erie will be protected as
described below.
1* All the above named waters will be protected
for Water Supply-Domestic, except that portion of the
Detroit River from Point Hennepin to the mouth. The
individual parameters shall be measured at the point of
water withdrawal.
2. All the above named waters will be protected
for Water Supply-Industrial. The individual parameters
shall be measured at the point of water withdrawal.
3. All the above named waters, except at
the mouths of tributaries, in the immediate vicinity
of enclosed harbor areas and in the immediate vicinity
of wastewater treatment plant outfalls will be protected
for Recreation-Total Body Contact; except for conditions
relating to natural causes.
4. All the above named waters will be protected
for Fish, Wildlife and Other Aquatic Life-Warm Water
Sport Fish.
5. All the above named waters will be protected
for Commercial Navigation in the designated navigation
channels as maintained by the United States Corps of
Engineers.
Based on their existing uses and reasonable
future uses, the Michigan waters of the Maumee River Basin
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214
Ralph Purdy
will be protected as described below.
1. All the above named waters will be protected
3 for Recreation-Total Body Contact, except for conditions
4 relating to natural causes.
5 2. All the above named waters will be protected
6 for Fish, Wildlife and Other Aquatic Life-Warm Water
7 Sport Fish.
8 3» All the above named waters will be protected
9 for Agricultural Uses,
10 Summary of Program to Control and Abate
1:L Pollution
12 The Michigan Water Resources Commission, under
13 the present water pollution control law (Act 245$ Public
Acts of 1929, as amended), has the authority to protect
and conserve the water resources of the State and the
J.O
Great Lakes, the power to make rules and regulations
16
governing the same, and the power to prohibit the pollution
17
of any waters of the State and Great Lakes.
18
Section 6 (B) of Act 245, Public Acts of 1929,
19
as amended, makes the discharge of any raw sewage of
20
human origin, directly or indirectly into any waters of the
21
State, prima facie evidence of a violation of Section 6 (A)
22
of the act unless said discharge shall have been permitted
23
by an order, rule or regulation of the Commission.
24
It is the Commission's intent that the identified
25
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215
DETROIT RIVER
a
LAKE ERIE
DESIGNATED USE AREAS
LEGEND
PARTIAL BODY CONTACT AREAS
\
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216
Ralph Purdy
1 industrial waste problems be abated no later than June 1,
2 1970. Opportunity has been provided for the establishment
3 of voluntary programs but if such programs have not been
4 established by June 1, 1963, statutory proceedings will
5 be initiated.
6 The existing municipal wastewater treatment
7 plants in the basin have been listed in a preceding
8 section. The surveillance program previously described
9 will be implemented to the extent necessary to identify
10 any existing inadequacies of treatment of dry weather
-Q flows by March 1, 1966. In those areas where noncompliance
12 with the standards is determined to exist either by di
.. discharge or by discharge to tributaries which in turn
flow to Lake Huron, a program will be established which
will require, no later than June 1, 1972, treatment
15
facilities adequate for meeting established water quality
16
standards.
17
Secondary treatment will be required as a
18
minimum at all municipal wastewater treatment plants to
19
meet the adopted water quality standards unless it can be
20
demonstrated that a lesser degree of treatment or control
21
will provide for water quality enhancement commensurate
22
with present and proposed future water uses. Exception
23
to the requirement for at least secondary treatment mu
24
be justified to the satisfaction of the Michigan Water
25
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217
Ralph Purdy
Resources Commission and the Federal Water Pollution Control
2
Administration. Year-round disinfection of all final
3
effluents from sewage treatment plants is required. In-
4 dustrial waste effluents will be required to meet the same
5 effluent standards as municipal waste effluents. In
6 those instances where in the opinion of the Commission
7 it appears that a proposed voluntary program will not
8 be successful or may not be accomplished within a reason-
9 able period of time, statutory procedures will be
10 initiated.
11 Final Orders adopted by the Commission contain
1^ specific dates for approval of completed construction
13JI plans and specifications, awarding of construction con-
14 tracts and commencing of construction, and the completion
15 of construction and attainment of abatement. A typical
16 time schedule requires the completion of construction
plans within twelve months from the date of adoption of
the Order, contract awards and construction start within
18 ' ' '
twenty-four months, and construction completion and
i y
abatement within thirty-six to forty-two months. The
20
Commission is pursuing a program to secure abatement
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213
Ralph Purdy
1 It is the Commission's intent that new seweragJB
2 systems shall be developed on the basis of separate sewers
3 for storm water and sanitary wastewaters. When it is
4 feasible, separated sanitary wastewater systems shall not
5 be discharged into existing combined systems. If such a
6 discharge does occur, control facilities must be developed
7 on the combined system so as to provide for water quality
8 enhancement of the receiving waters commensurate with
9 present and proposed furutre water uses and consistent
with the requirements of the Water Resources Commission
statute. The problems associated with the overflows of
combined storm and sanitary wastewaters from existing
X«d
combined sewerage systems to public waters will be assessed
13
as a part of the surveillance program identified in this
14
report. In those areas where noncompliance with the
15
standards is determined to exist as the result of over-
16
flows of sanitary wastewater in storm runoff, a program
17
will be established which will require, no later than
18
June 1, 1977, the best practicable treatment or control.
19
It is the Commission's intent to require that
20
nutrients in public waters, particularly with respect to
21
phosphates, traceable to industrial or municipal waste
22
sources be controlled. Persons proposing to make a
23
new or increased use of waters of the State for waste
24
disposal purposes will be required to utilize such tech-
25
nology and processes which are known. The long-term
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219
Ralph Purdy
objective is to require that phosphates traceable to all
industrial or municipal waste sources be controlled on
or before June 1, 1977.
Soil Conservation Districts have been organized
in every county within the basin. One of their primary
objectives is to reduce land erosion. The State Soil
Conservation .Committee, the agency which provides leader-
ship for the district programs, is a member of the
Department of Agriculture. The Director of the Department
of Agriculture is a member of the Water Resources Commis-
sion thus providing for the coordination of mutual
objectives.
The Water Resources Commission has been directed
by Governor Roraney to develop rules and regulations, under
the authority of Act 245, Public Acts of 1929, as amended,
for control of the discharge of sanitary waste from
recreational watercraft. The rules and regulations will
be developed in cooperation and consultation with the
Department of Public Health, the Waterways Commission,
and other affected state agencies. They will be consis-
tent with the Commission1s statutory objectives of
pollution control. Such rules and regulations should be
adopted no later than June 1, 1963 and implemented no
later than June 1, 1970, subject to such information as
•
may be forthcoming at public hearings prior to the
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220
Ralph Purdy
1 adoption of the rules and regulations and subject to
2 budgetary requirements for enforcement.
3 In addition to the actions concerning existing
4 problems, it is the Commissions intent to prevent future
5 problems by continued implementation of Section 8 (B) of
6 Act 245, Public Acts of 1929, as amended. This section
7 reads as follows*
8 "Any person requiring a new or substantial
9 increase over and above the present use now made of the
10 waters of the state for sewage or waste disposal purposes
H shall file with the Commission a written statement setting
12 forth the nature of the enterprise or development conte
,3 plated, the amount of water required to be used, its
source, the proposed point of discharge of the wastes
into the waters of the state, the estimated amount so to
15
be discharged, and a fair statement setting forth the
16
expected bacterial, physical, chemical and other known
characteristics of the wastes. Within sixty days of
18
receipt of the statement, the Commission shall make an
19 *
order stating such minimum restrictions as in the judgment
20
of the Commission may be necessary to guard adequately
21
against such unlawful uses of the waters of the state
22
as are set forth in Section 6. If the order is not
23
acceptable to the user, he may request a hearing on the
24
matter involved, following which the Commission's final
25
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221
Ralph Purdy
order of determination in this connection shall be
conclusive unless reviewed in accordance with the
provisions of the administrative procedures of Act No.
197 of the Public Acts of 1952, as amended, being sections
24.101 to 24.110 of the Compiled Laws of 194#, or any
amendment thereto, in the Circuit Court of the County
of Ingham, or for the county in which the user resides,
or for the county in which the use is contemplated, upon
petition therefor, filed within fifteen days after service
upon said user of the final order of determination."
Water treatment plant filter backwash discharges
will be controlled under either Section 7 or Section 6 (B)
of Act 245, P. A. 1929, as amended. A typical time schedule
for correction of an existing problem under Section 7
would call for construction plans within eight months
from the date of the adoption of the Final Order, contract
awards and construction start within fourteen months, and
construction completion and abatement within twenty-four
months. Solids removal will be required as a minimum
unless it can be demonstrated that a lesser degree of
treatment or control will provide for water quality
enhancement commensurate with proposed present and future
water uses*
The criteria and plan of implementation are
consistent with the recommendations of all Federal
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222
Ralph Purdy
enforcement conferences to which the State has been a
2 party.
3 The Commission has as an objective the
4 following:
5 "Waters in which the existing quality is better
6 than the established standards on the date when such
7 standards become effective will not be lowered in quality
8 by action of the Water Resources Commission unless and
9 until it has been affirmatively demonstrated to the
10 Michigan Water Resources Commission and the Department
11 of the Interior that the change in quality will not
12 become injurious to the public health, safety, or welfar
13 or become injurious to domestic, commercial, industrial,
14 agricultural, recreational or other uses which are being
15 made of such waters, or become injurious to the value or
utility of riparian lands; or become injurious to live-
stock, wild animals, birds, fish, aquatic life or plants,
or the growth or propagation thereof be prevented or
18
injuriously affected; or whereby the value of fish and
J. j
game may be destroyed or impaired, and that such lowering
*£(}
in quality will not be unreasonable and against public
21
interest in view of the existing conditions in any inter-
22
state waters of Michigan.
23
"Water which does not meet the standards will
24
be improved to meet the standards."
25 I
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223
APPENDIX C
WATERCRAFT POLLUTION CONTROL ACT
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224
Ralph Purdy
1 DEPARTMENT OF CONSERVATION
2 WATER RESOURCES COMMISSION
3 POLLUTION FROM WATERCRAFT
4 Filed with the Secretary of State.
(By authority conferred on the Water Resources
6 Commission by Sections 2 and 5 of Act No. 245 of the
7 Public Acts of 1929> as amended, being Sections 323.2
8 and 323.5 of the Compiled Laws of 1948.)
9 R 323.501. Definitions.
10 Rule 501. (1) "Act? means Act No. 245 of the
11 Public Acts of 1929, as amended, being Sections 323.1 to
12 323.12a of the Compiled Laws of 194#, and the act which
13 these rules implement.
14 (2) "Commission" means the Water Resources
15 Commission of the Department of Conservation.
16 (3) "Litter" means bottles, glass, crockery,
17 cans, scrap metal, junk, paper, plastic, garbage, rubbish
lg or similar refuse discarded as no longer useful or usable.
19 (4) "Marine toilet" means a toilet on or in
20 a watercraft.
(5) "Nonpollutional" means incapable of causing
«o X
unlawful pollution as defined in Section 6 of the act,
££
as amended.
23
(6) "Sewage" means human body wastes, treated
24
or untreated.
25
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225
Ralph Purdy
(7) "Watercraft" means a contrivance used or
capable of being used for navigation upon water whether
or not capable of self-propulsion, except a passenger or
cargo-carrying vessel including those subject to the
Interstate Quarantine Regulations of the United States
Public Health Service adopted pursuant to Sections 241,
243, 252 and 262 to 272 of Title 42 of the United States
Code.
R 323,502, Sewage; use of pollution control
devices and disposal facilities.
Rule 502. (1) No person shall operate a
marine toilet on a watercraft on the waters of this state
so as to discharge sewage into such waters unless the
sewage has been rendered nonpollutional by passage
through a device approved by the Commission.
(2) No person owning or operating a watercraft
having a marine toilet shall use or permit the use of
such toilet on the waters of this state unless the
toilet is equipped with one of the following pollution
control devices:
(a) A holding tank which will retain all sewage
produced on the watercraft.
(b) An incinerating device which will reduce
to ash all sewage produced on the watercraft.
24 ;;
(c) A device determined by the Commission to be
11
25
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226
Ralph Purdy
capable of rendering the sewage discharges nonpollutional
2
in accordance with the requirements of the act.
(3) No person shall dispose of sewage accumulated
in a holding tank or any other container on a watercraft
5 in such manner that the sewage reaches or may reach the
6 waters of this state except through a sewage disposal
7 facility approved by the State Department of Public Health
8 or its designated representative.
9 R 323«503. Watercraft registration; marine
10 toilet information.
11 Rule 503. An applicant for a certificate of
12 number for a watercraft pursuant to Section 33 of Act
13 No. 303 of the Public Acts of 1967, being Section 2&L.1033
14 of the Compiled Laws of 1943, shall disclose at such time
, c to the Commission whether the watercraft has in or on it
lo
a marine toilet, and if so, whether the toilet is equipped
16
with a pollution control device as required by these
rules. The Commission may request the Secretary of State
to provide it with the name of an applicant whose
J. i/
application indicates the absence of such pollution
control device on a marine toilet.
21
R 323.504. Litter disposal.
22
Rule 504. Disposal of litter is subject to
23
the provisions of Act No. 106 of the Public Acts of 1963,
24
as amended, being Sections 752.901 to 752.906 of the
25
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227
Ralph Purdy
Compiled Laws of 1943.
R 323.509. Effective date.
Rule 509. These rules are effective January 1,
1970.
In addition to the information that we have shown
in the way of performance statutes in Appendix A, under
Berlin Township, the first one noted, under comments, the
last sentence states that the Commission will review the
problem at an early date.
At the May 1, 1963 Commission meeting the
Water Resources Commission scheduled a hearing for this
matter to be called at its June 26-27, 1963 Commission
meeting.
Under the industries section. Ford Motor
Company, Rouge Plant, it is noted that the company has
requested an extension of time to October 1 of 1969 to
provide additional oil control facilities for its Gate 11
sewer, or Gate 11 discharges.
At the May 23-29, 1963 Commission meeting this
extension of time was granted. The time was necessary so
that these facilities can be constructed on land that
will be made available as a part of the Rouge River
flood control project.
Now, in the interim period, in the way of
providing some additional protection, the Ford Motor
25
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223
Ralph Purdy
1 Company has on order and it is scheduled for delivery in
2 July an oil recovery device identical to the one
3 described by the American Oil Company at the Lake
4 Michigan Enforcement Conference in Chicago, and this
5 unit will be placed in operation on the Rouge River to
6 recover oil that may escape from the treatment facilities
7 that have now been provided, and will provide additional
8 protection during this interim period.
9 Now, under the Monsanto Company, the Trenton
10 Plant, we have noted that plans have been approved, and
11 construction has been completed, and facilities are in
12 operation.
13 I wish to call your attention to the scheduled
14 construction date, that was November 1, 1969. The
15 facilities have been placed in operation some eighteen
months ahead of schedule. This is a phosphate removal,
16
and if we would look at this in terms of equivalent
population from the standpoint of phosphate, this pro-
is
vides treatment for the phosphate equivalent of about
.L */
one million people, and this is in operation today.
«oU
Under the Wyandotte Chemicals Corporation,
<& -L
the North Works, Wyandotte: South Works, Wyandotte, we
22
have noted that the conference was scheduled for the
23
May 28-29, 1966, Commission meeting, to consider a
24
request for an extension of time to meet the solids
25
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229
Ralph Purdy
requirement for three of its gate outlets.
The Commission considered this matter at its
meeting, as noted, and the extension was granted for the
three outlets until January 1 of 1969.
Now, under the Interstate Standards and the
program to control and abate pollution, there is only
one paragraph that I would like to call attention to,
and this is with respect to phosphate removal. In the
final implementation on the Interstate Standards, the
Commission has stated it is the Commission's intent to
require that nutrients in public waters, particularly
with respect to phosphates traceable to industrial or
municipal waste sources be controlled. Persons proposing
to make a new or increased use of waters over the state
for waste disposal purposes will be required to utilize
such technology and processes which are known. The
long-term objective is to require that phosphates traceable
to all industrial and municipal waste sources be controlled
on or before June 1, 1977.
Now, in addition to this report, I would like
to mention three pieces of legislation that have been
passed by the Michigan legislature in its present session.
We have had a state grart program for two years. This
I, has operated to extend the same sort of program provided
by the Federal act; that is, when we have utilized all
25
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230
Ralph Purdy
of our Federal funds, thirty per cent state grants would
2 be made to municipalities.
3 This act has now been amended so that the
4 state will join in on a twenty-five per cent share of
5 the cost of the project, and fifty per cent, then, would
6 be the federal grant, and local government would make
7 up the other twenty-five per cent. We now have the
3 authorizing legislation to participate in that program.
9 The legislature also passed an act which will
10 place before the people of the State of Michigan the
11 question of a bond issue of $335,000,000 to finance
12 the state1s twenty-five per cent share, and to refinance
]_3 some of the fifty per cent Federal share, and hopefully
14 during the period of construction, the Federal Government
15 will authorize the appropriation or will appropriate money
... that has now been authorized in the Commission act.
JLb
The third and last piece of legislation that I
wish to mention now: first, the operation of facilities
18
that serve the public has been by a certified operator,
j. y
as required by statute, and mandatory reporting of the
&\J
effluent characteristics has been in effect for quite
£±.
some time.
22
New legislation has been passed which requires
23
the operation of industrial waste water treatment facilit^
24
by an operator certified by the Water Resources Commission
25
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2
3
4
5
6
7
8
9
10
21
22
231
Ralph Purdy
as to his competency. It also requires that the industrial
waste discharger must file monthly reports with the
Water Resources Commission which will show the quantity
and quality of the liquid wastes discharged into any public
i
lake or stream.
Mr. Chairman, that completes my prepared remarks.
report.
CHAIRMAN STEIN: Thank you for a real excellent
Before I throw this open for questions, I would
like to have, if I may, page five of this gray book, where
we talk about watercraft pollution control. That is about
the same requirement that we had in Lake Michigan. I know
Indiana agreed with this on Lake Michigan.
Indiana, is this your policy on Lake Erie,
14
too. or not?
15
MR. POOLE: Well, Mr. Chairman, the Indiana
16
law now outlaws the discharge of wastes from boats on
17
Indiana waters except Lake Michigan, so I think we could
18
say that the Indiana policy as far as Lake Erie watershed
19
is currently there can be no discharge.
20
CHAIRMAN STEIN: No discharge.
What this rule says, then, in all watercraft not
subject to Federal control, that a marine toilet has to
be provided with a holding tank, sewage incinerator or
device which has been determined by the Commission — that
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232
Ralph Purdy
1 is the Michigan Commission — to be capable of rendering
2 sewage discharges — et cetera. I understand you havenft
3 certified them as yet.
4 MR. OEMING: We are not about to certify any-
5 thing but a holding tank or incineration device.
6 CHAIRMAN STEIN: Right.
7 Now — and I am asking just for clarification —
8 how do the other States on Lake Erie feel about that kind
9 of restriction?
10 MR. LION: Well, I would say that philosophically
H that is a very good requirement. Frankly, we in Pennsyl-
12 vania have not adopted any regulations because we are
being pulled apart by a number of diverse interests. We
finally feel that this is an area under which the Federal
Government should move because boats that are immobile
15
are going to create a lot of problems by having different
16
requirements, But from a purely technical standpoint, the
17
recommendation of the regulation that Indiana has —
18
Michigan has adopted, which is apparently quite similar to
19
that of the Department of Ontario, is a good one, and
20
we would agree with that and we hope that everyone would
21
go along and we can close the gap and adopt it ourselves.
22
CHAIRMAN STEIN: Well, you know you are using
23
— we can't always use that technique. Before I poll
24
the rest of them, you say this is an area which the Federal
25
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233
Ralph Purdy
Government should approve. What we are trying to do in
2 Lake Michigan and Lake Erie, if we can, is get a group
3 of States to agree to something. If we get enough States
4 waiting back to close the gap, we are never going to close
5 it. We have gotten uniformity in the four Lake Michigan
6 States.
7 Now, my reason for going through this is to
i
8 try to see if we are even within striking distance of
9 trying to get uniformity among the five States on Lake
10 Erie. If we are, I think we are going to be a lot closer
• to a national policy on the small boat control.
Mr. Metzler, how do you feel about this?
13 MR. METZLER: Well, New York has a law which
i
requires that we have all of the boats licensed by, I
believe it is, next April 1, and we are in the process
JL tD
I of final determination by the Conservation Department,
16 j
which is the agency that will enforce it. We make the
|
i recommendation.
is
I think your concept here is a good one. I am
19
not prepared to say, at this moment — because it is a
20
two-agency operation — what we will finally come up
21
with.
22
I CHAIRMAN STEIN: It seems to me, again, the
•
> basic issue is whether we are going to get a massive
24 j
l! chlorinator or a holding tank. That doesn't say that the
25 !l
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234
Ralph Purdy
legislation, as developed by Michigan, doesnTt have a
2
theoretical escape hatch — a device which has been
3
determined by the Commission to be capable of rendering
the sewage discharges nonpollutional. I guess the notion
5 is that someone might come up with that in the future.
6 As I understood the four States bordering Lake
7 Michigan, while these were very interesting devices, they
8 hadn't found any at the present stage which was nonpollu-
9 tional as far as the effects on Lake Michigan were con-
10 cerned and the effect of the operation was complete
11 unanimity on the holding tank theory.
12 MR. OEMING: That is correct.
13 CHAIRMAN STEIN: Now, Mr. Eagle, may we have
14 your views on that?
15 MR. EAGLE: Well, I am not prepared or authorized
16 to speak for the State of Ohio on this officially. I
,„ think that some type of a holding tank, personally, would
, _ be in order, particularly on new craft. I think it would
18
19 be difficult to enforce it for existing craft. I donH
know whether Michigan expects to do that.
<&U
CHAIRMAN STEIN: Yes, all four States.
21
MR. EAGLE: I would like to counter with a
22
question to you, Mr. Stein. What are you going to do
23 ^|
about large vessels? What is the Federal Government goi^P
24
to do about the large vessels, particularly international,
25
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3
4
5
6
7
8
9
10
11
13
14
V-JJL
24
235
Ralph Purdy
and so on?
CHAIRMAN STEIN: This has come up before. I
just don't know. I stated this before. The point is
this isn't a very easy problem to handle, and I saw Mr.
Butrico, who worked for me for years in the Public Health
Service — I remember twenty years ago we used to work on
vessel sanitation. The problem here is even if you put
controls on all U.S. vessels, what do you do with the
foreign flag vessels coming in? The question that always
gets raised — and the validity of this, you can judge
for yourself— is: the effect of putting a stringent
sanitary regulation on U.S. vessels just means the flight
of those vessels to a foreign flag and a foreign registry,
and their being in the same place — and the question is:
what have you accomplished? This is, I think, a very,
very difficult operation.
Now, the Congress and the Federal authorities
are struggling with this. I don't know if this can be
arranged by any less than a treaty operation, and you know
how long that would take to go into effect.
It is clear to me that, at the present time, we
are not in a position to come up with an agreement as
we had on Lake Michigan.
But one of the questions that we might have on
this is whether it would be worthwhile for the States to get
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236
Ralph Purdy
together with us — and they did have a little technical
committee in Lake Michigan before we developed this —
3
and see if the States will come up with uniform require-
4
ments or this would be worthwhile.
5
I Just wanted to do that because you raised a
6 very interesting point.
7 MR. PURDY: That time wasn*t charged to my ten
8 minutes, was it?
9 CHAIRMAN STEIN: No, sir. No, you did well
within the ten minutes.
11 Are there any other comments or statements on
12 the Michigan report?
13 Well, again --and let me try to summarize --
14 I think we are doing very well for the three States —
15 having heard from Pennsylvania and Indiana and Michigan
16 so far, who have made their presentations. I think the
17 programs are moving apace
lg Now, of course, there is one problem that we are
obviously going to have to face up to, and that is the
20 phosphate problem. I think we have a good example with
21 one of our major chemical companies showing how they
can remove phosphates. I guess they are in business,
arenft they?
2«5
MR. PURDI: I should point out, Mr. Stein,
24
that for those that discharge directly into Lake Erie
25
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237
Ralph Purdy
or the Detroit River that our time schedules include
phosphate removal within the time schedules that we are
talking about, and that includes an 80 per cent removal*
CHAIRMAN STEIN: I think that should be noted,
and I don't know that — I think Michigan is probably in
the forefront in this in the States, and I know they have
been scrupulous about this in their stipulations and
orders.
Are there any other comments or questions?
If not, thank you very much.
If the conferees will do this -- bear with me
on this, because of schedules — I am beginning to see the
dayl.ight and I think we might get through today.. But
before we recess possibly this afternoon, I wonder if
we could hear from Mayor Locher of Cleveland, the former
Mayor of Cleveland.
Mayor Locher, would you come up?
MR. LOCHER: Thank you very much, Mr. Stein,
and members of this conference for an opportunity to speak
very briefly.
I have already appeared on behalf of the Izaak
Walton League in Columbus on two occasions with regard to
this question of drilling in the lake, and likewise
have testified with regard to the Guyahoga River only last
24
week at the hearings that were held here in Cleveland, Ohio,
25
-------
23$
Hon. Ralph Locher
on the standards, and, therefore, I would ask your per-
2
mission, Mr. Chairman, to introduce those three state-
3
ments in the record, in the interest of saving time, if
4 I may, and then to speak briefly —
5 CHAIRMAN STEIN: Yes.
6 MR. LOCHER: — to speak briefly on the subject
7 of drilling in the lake, which I believe is much more
8 serious than has been indicated. I don't believe —
9 if I may respectfully disagree with you, Mr. Chairman —
10 that it is only a peripheral or small problem. But I
11 believe that a catastrophe could very likely occur and
12 if it does, it would indeed be very serious, because I am
13 told there is no way to remove oil from the water supply
14 that has yet been developed, and for that reason it goes
15 to the very heart of the potability of the water itself
16 for the inhabitants of those in the Lake Erie watershed.
1? Furthermore, a few years ago, in the vicinity
of Hinckley, Ohio, an oil well did break loose. It was
18
,g a gusher. It did flow for many, many days and it did
a great deal of damage.,
<£\j
From knowledge which the Izaak Walton League
£ J.
has been able to acquire, wherever there has been
22 H '
drilling there has been a concomitant problem. I refer
2o
to Maracaibo. Venezuela, where a large section of a very
24
large lake indeed was so covered with crude oil that it
25
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239
Hon. Ralph Locher
posed a fire problem. I refer to Beirut, Lebanon, where
2 a break in an oil line damaged entire beaches and caused
3 a very severe problem there costing millions of dollars
4 to the American oil interests to restore.
5 I refer to Cook's Inlet in Alaska, the Gulf
6 of Mexico, the offshore drilling in California and
7 indeed I don't know of any place in the entire world
8 where there has been drilling in lakes or in rivers that
9 we have not had the problem, including some problems
10 on the northern shore of Lake Erie itself.
If Pennsylvania is going to experiment with
]^ the safety of all of us, it poses this interesting situa-
tion: If they strike it rich, they win; but if there
JL O
should be a catastrophe and if there should be a well
break loose; and if there should be a large portion of
15
Lake Erie covered with oil. I am afraid they would say,
16
"Too bad, fellows, you lose." And that is exactly the
17
situation that could happen if we were to allow this to
18
go forward.
19
We had an expert testify, Mr. Chairman, in
20
Columbus, Ohio, and as a result of those hearings the
21
State of Ohio did defer drilling, and Mr. Lee Birch, who
22
was an expert in the field, stated that no matter how
strongly you draw up these regulations, there are no
known controls to prevent an oil well from becoming a
-------
240
Hon. Ralph Locher
gusher and breaking loose. If there were, I am sure that
2
the Federal Government would have insisted that those
3
wells in the Gulf of Mexico, over which it has control,
and in Alaska, and everywhere else, would have been so
5 equipped* But there is no known technique, and for that
6 reason, we have had those terrible problems in every
7 place that I have listed.
8 Furthermore, there is no way to prevent a
9 piece of heavy debris or a boat itself from sinking to
10 the bottom of the lake, and you are not going to have this
11 oil and gas come from the well on the surface of the
12 water -- that is a cinch. It will have to come through
13 some kind of a conveyance, a pipeline, and if some boat
14 — even a small yacht — were to sink and damage such a
15 pipeline, you would have an awfully difficult time,
16 and perhaps it would take weeks to discover Just where
17 that break was. In the meantime, there goes your water
lg supply.
19 Then, again, after the fact, I am sure we would
2Q levy some rather strong and harsh penalties upon the
speculator who was drilling for oil and gas in Lake Erie,
&L.
but the damage will have been done.
22 6
Let's not gamble,the water supply of millions
23
of people for a few hundred thousand dollars of royalty.
24
I suggest, therefore, that this conference go on record
25
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241
Hon. Ralph Locher
and simplify this matter, and say that "we shall not
2 permit drilling in Lake Erie or anywhere in the Great
3 Lakes so that we would have the pollution or situation
4 where one State only is going forward in a highly specu-
5 lative and dangerous enterprise."
6 Then, with regard to dredged materials, it was
7 stated that those dredged materials, Mr. Chairman, are
3 not bad — they are only half bad because half of it is
a matter of water that comes out.
Let me read from the book which I commend to
1;L all of you. I have no interest in the royalty from the
,
-------
242
Hon. Ralph Locher
I believe, should be kept uppermost by this conference*
2
And that is best stated by a judge recently who heard a
3
case in Illinois, and this had to do with the spillage
4
of oil, and it was a relatively small spillage, as those
things go. B.ut the judge went on to say that, "I agree,"
c
he says, "with Mr. Hersod, attorney for the plaintiff,
7 when he quoted the unnamed judge that there is no such
8 thing as a little pollution. I conclude, as a matter of
9 law, that the oil slick in question was a pollution of
10 waters, as alleged in the complaint," And then he said,
"I come to the conclusion, as a matter of law, that it
12 doesn't make any difference. The cases hold that in
13 instances of this kind, the intent is not necessary."
14 And so, I urge upon this conference to take a
15 strict view with regard to this highly dangerous and
16 risky business of allowing a few speculators to gamble
17 with our precious water supply, I urge also that we
18 watch history, that we learn from history, which has
19 shown that in the Gulf, off the coast of California, at
20 Cook's Inlet, right here a few miles from Cleveland, Ohio,
where a well has broken loose, at Maracaibo, at Beirut,
all these instances would seem to argue, I believe, that
in the interest of safety, let's put the public interest
first and foremost.
Thank you.
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243
Hon. Ralph Locher
(Statement by Ralph S. Locher on behalf of the
Izaak Walton League and his own behalf before Wayne
Conner, Chief, Division of Oil and Gas, Columbus, Ohio,
February 5, 1966, follows:)
Objection to the Hearing on Rules and Regula-
tions
Objection is hereby made to the consideration of
rules and regulations for drilling in Lake Erie. The
public has had absolutely no opportunity to be heard on
the merits of oil and gas drilling in Lake Erie. There-
fore, the rules and regulations will be drafted and the
whole matter will be all wrapped up in a neat little
package without the public ever having had its say.
The proposed rules and regulations have a special
significance, in that Section 1505.99, Revised Code,
provides a penalty consisting of a fine of "not less than
$100 nor more than $500." What a weak reed that isl
Water - Our Most Vital Natural Resource
Water is paramount as a natural resource. The
area in and about Cleveland, Ohio, contains four major
water intakes serving 2,000,000 people in all of Cuyahoga
County and three adjacent counties: Lake, Summit and
Medina Counties. The water supply and fire protection
afforded by the Water Division cannot be endangered.
Indeed, we of this generation are charged with the duty
-------
244
Hon. Ralph Locher
of holding this vital natural resource of fresh water in
2
trust for posterity.
3
Water is paramount as a natural resource and is
4 the backbone of Ohio wealth, available in unlimited
5 quantity from Lake Erie and the Ohio River. We cannot
6 and should not jeopardize its quality. Furthermore,
7 national and state water quality objectives are to reduce
8 pollution at all levels. The United States Public Health
9 Service is presently engaged in evaluating water standards
10 and the Great Lakes and international agencies are working
11 toward insuring the potable character of the waters of
12 Lake Erie.
13 It should be remembered that the four Cleveland
14 water intakes are located to produce the best quality
15 water possible and these raw water intakes cannot be
16 shut down or be contaminated since they are in constant
17 USe'
Gusher Could Ruin Water Supply
18
Should an uncontrolled oil well, such as the
one which came in near Lodi, Ohio, several years ago,
pollute Lake Erie, the water supply of some 2,000,000
-------
245
Hon. Ralph Locher
the presently known filtration methods and procedures.
Beach Areas Endangered
Further, the Cleveland Regional Planning Commis-
sion points out in a recent report that 119 acres of beache
are needed in this area, but that only fifteen per cent
of the shcreline is available for public recreation. The
proposed oil and gas drilling sites would jeopardize the
shoreline of Lake Erie, including those areas not subject
to population concentration and adjacent to public land
use for recreation.
Royalties Insignificant
It has been estimated that the royalty reverting
to the State of Ohio by leasing land under the lake would
approximate $200,000 a year. We should not hazard the
prime resource of the State of Ohio for any sum. However,
the $200,000 which might accrue would never compensate
for the threatened capitalized loss to the citizens and
other beneficiaries of the waters of Lake Erie.
Water-Borne Commerce Impeded
The City of Cleveland has made real progress
toward becoming a world port and the future promises
greater gain when the harbor depth is increased to twenty-
seven feet, allowing even larger freighters to reach our
docks. Furthermore, people are finding more pleasure
in small watercrafts and water recreation, taxing our
-------
246
Hon. Ralph Locher
1 small craft harbor development to the limit. While pre-
2 cautions are attempted to be written into the proposed
3 leases, there still exists hazard to small crafts which
4 come from the very nature of drilling operations. The
5 drilling operations and the production methods will serve
6 as a hazard to the shipping vessels as well, generally.
7 The drilling rigs and the distribution facilities in and
8 of themselves would be a navigational hazard to large
9 cargo vessels as well as smaller pleasure crafts.
10 To be sure, the presently proposed leases
,., entail development off the shore in Ash tabula County.
It should be pointed out that when the lake is frozen
J.<&
and when the northeast winds prevail, which conditions
JLO
occur over a considerable portion of the year, the lake
14
currents are not clearly defined and our Nottingham Road
XO
intake is in close proximity to Ashtabula County.
16
Conclusion
17
For reasons given above, it is my firm con-
is
viction that it would be a mistake to permit off-shore
19
drilling for gas and oil in Lake Erie. In fact, it would
20
be a horrendous disservice to our state and nation, the
21
fish and water fowl life, and, above all, the people
22
who live in the Lake Erie Basin, tributary to this natural
23
resource.
24
At this point, I should like to read into the
25
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247
Hon. Ralph Locher
record a resolution adopted by the Ohio Division of the
Izaak Walton League of America at its 43rd Convention,
held in Cleveland, Ohio, on October 9, 1965.
Projected Oil Drilling Operation in Off-Shore
Waters of Lake Erie Pose Threat to Source of Supply of
Fresh Water to Millions of Users
Whereas, the State of Ohio has a projected
program of drilling for oil in off-shore areas of Ohio's
Lake Erie waters, through lease arrangements with private
industry; and
Whereas, millions of citizens are dependent
upon this source for their life-sustaining supply of
fresh water; and
Whereas, the occasion of an uncontrolled oil
well could jeopardize this water source for undetermined
lengths of time; and
Whereas, even with the exercise of great care
in the conduct of drilling operations, where can be no
assurance that such a catastrophic calamity could not
occur; and
Whereas, in the event that Lake Erie's waters
should become contaminated with oil, that oil and its
various components cannot be removed from the water supply
through presently known methods and procedures; and
Whereas, a report of the Cleveland Regional
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248
Hon. Ralph Locher
1 Planning Commission indicates that 119 acres of beaches
2 are needed in the Cleveland area alone; while less than
3 fifteen per cent of Lake Erie's shoreline is available
4 for public recreation. Projected oil drilling in Lake
5 Erie would jeopardize its shoreline, including areas not
6 subject to population concentration and adjacent to public
7 recreational land; and
8 Whereas, drilling operations, drilling rigs, and
9 the distribution facilities in and of themselves would
constitute navigational hazards to large cargo vessels
as well as to smaller pleasure crafts; and
, 0 Whereas, it has been estimated that the
12
reverting to the State of Ohio by leasing land for drilling
JLO
sites under the lake would approximate $200,000 a year;
and
15
Whereas, we believe that we should not hazard
16
this prime resource of the State of Ohio for any sum; as
17
any anticipated royalties from this source could never
18
compensate for the threatened capitalized loss to the
19
beneficiaries of the bounties which Lake Erie so gener-
20
ously bestows:
21
Nowj therefore, be it resolved, by the Ohio
22
Division of the Izaak Walton League of America in con-
23
vention assembled this ninth day of October, 1965, at
24
Cleveland, Ohio, that it is our firm belief that it would
25
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249
Hon. Ralph Locher
be a most grievous mistake to permit off-shore drilling
for gas and oil in Lake Erie.
Be it further resolved that copies of this
resolution be forwarded to the following:
Murray Stein, Chief Enforcement Officer, of
the U.S. Public Health Service of the Department of
Health, Education and Welfare, Washington, B.C.
Fred Morr, Director, Ohio Department of Natural
Resources, Columbus, Ohio.
Dr. Emmett Arnold, Chairman, Ohio Water
Pollution Control Board, Columbus, Ohio.
Mayor Ralph S. Locher, City Hall, Cleveland,
Ohio.
Mrs. James H. Angel/ Chairman, Citizens for
Land and Water Use, 2034 Elbur Avenue, Lakewood, Ohio
44107.
Mrs. Esther Smercina, Chairman, South Shore
Subcommittee on Lake Erie Basin Study of the League of
Women Voters, 2074 Alton Road, Cleveland, Ohio 44112.
Above resolution prepared and submitted upon
instructions from the Board of Directors of Western
Reserve Chapter, I.W.L.A., at a meeting held on September
22, 1965.
Very respectfully submitted, Seba H. Estill,
Committee Chairman, 3577 Cummings Road, Cleveland, Ohio
-------
250
Hon. Ralph Locher
44118.
2 Remarks
3 Water, our most important natural resource, is
4 reaching new heights of importance day by day. Ancient
5 civilizations and flourishing cities are known to have
6 perished because their supply of water became exhausted.
7 In our own generation, water is being literally fought
3 for in individual and governmental bodies. The great
g need for large supplies of water by industry makes it
,_ advisable for one area to grow and prcspsr, whereas
others have already reached their maximum potential.
The above thoughts were forceably brought to
J.4&
mind only within the past summer by two events: First,
X O
the Chicago Sanitary District Water Diversion Bill in
14
the Congress of the United States was vigorously opposed
15
by most of the cities in the Great Lakes Basin, including
16
Cleveland. Mayor Gelebreeze, Port Director Rogers, and
17
I appeared in opposition to the proposed diversion of
18
1500 cubic feet per second urged upon the Congress by
19
Chicago and the Illinois Congressmen. We pointed out
20
many other arguments that water should never be diverted
21
from one watershed to another. To do so would violate
22
one of the cardinal principles of the common law and of
23
American law on the subject of water and riparian right
24
Secondly, and by way of further illustration,
25
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251
Hon. Ralph Locher
the State of Ohio is now preparing specifications to
2 permit off-shore drilling for oil and gas in Lake Erie.
3 The City of Cleveland is faced with the prospect of
4 drilling operations in its own front yard, so to speak.
5 It is proposed to advertise for bids to allow for drilling
6 in 13»655 acres immediately north of the Cleveland harbor
7 and the City of Lakewood and part of Rocky River,
8 beginning one-half mile from shore and extending out-
9 wardly. This area includes two city water intakes
10 and terminals. These facilities constitute the sole
11 present source of supply for the west side of our city.
I call this matter to your attention because of
13 the various implications it raises. For one thing, the
14 expected oil and gas producing strata or sand only
,5 recently produced an oil gusher south of Cleveland, near
Lodi. Ohio. Should an uncontrolled oil well pollute
16 '
Lake Erie, the Cleveland water supply would be literally
destroyed overnight. I say this because the City of
Cleveland water engineers advise that oil and its various
J. i?
components cannot be removed from the water supply
20
through the presently known filtration methods and
21
procedures. A letter I just received recently from the
22
officials of Long Beach, California, carries the
information that off-shore drilling "has caused a criti-
24
cal subsidence condition in our harbor, one section of
25
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252
Hon. Ralph Locher
our inner harbor having settled 25 feet ...."
2 Consequently, when the proposed specifications
3 are made known, public officials as well as those of you
4 connected with the water supply industry, must make
5 certain that all precautions are taken to avoid possible
6 damage to intake tunnels by drilling and dynamiting;
7 that danger of drilling and well rigs to freighters and
8 pleasure craft be considered; that interference of gas
g and oil exploration and deepening of the channel for
10 deep-draft ships, which will come in greater numbers with
H completion of the St. Lawrence Seaway, will be taken into
12 account and that destruction of fish life by dynamiting
13 must not be permitted.
14 (The following article appeared in The
Cleveland Press, on Saturday, February 3» 1963:)
J. U
"More Danger for Lake
16 "
"Lake Erie already has the hapless reputation
of a 'dead sea,1 thanks to the pollution that has ruined
18
its waters.
19
"Now it is in danger of growing even more
20
polluted through oil drilling. Ohio, New York and
21
Pennsylvania plan to lease submerged Lake Erie lands
22
for oil purposes.
23
"George Harlow, head of the Lake Erie office
24
of the Federal Water Pollution Control Administration,
25
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253
Hon. Ralph Locher
categorically says there is a pollution threat from the
2'
drilling which would take place two to three miles from
3 the shoreline of Ashtabula County.
4 "Pollution from drilling can come from three
5 sources: the oil itself, brine and the lubricating oil
6 from the underwater machinery.
7 "On Monday the state will hold hearings in
8 Columbus to discuss the rules for Lake Erie drilling,
9 particularly as it affects shipping and pollution. The
IQ oil drillers should be made to prove their case, which
1:L may be difficult.
^^ "Certain questions should be asked the proponents
13 of Lake Erie drilling:
"Is the oil which may be obtained absolutely
necessary to our economy?
15
"Will it mean cheaper gasoline to Ohio motor-
16
ists?
17
"How will drilling be terminated if pollution
18
occurs?
19
"Who will pay to clean it up?
20
"Officials should be wary of such statements
21
as this from a New York official: 'The risk of any of
22
our operations pulluting are negligible.1
"Are the risks of a broken oil line negligible?
Should such an accident occur, the mess could be as
25
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254
Hon. Ralph Locher
disastrous as the tons of spilled oil that washed the
2 Cornwall coast of England last year.
3 "And once state officials let the drilling
4 commence, even with tight safeguards rigidly enforced,
5 pollution seems inevitable. This has been part of the
6 tragic history of industrial wastes in Lake Erie.
7 "It is hard to conceive of any situation which
8 would justify drilling for oil in Lake Erie."
9 (The following article appeared in The Plain
10 Dealer on February 7> 196#:)
11 "Hold Off on Lake Oil Drilling
"There is no compelling reason why the oil and
J-*&
gas reserves which lie under Lake Erie should be tapped
JLo
immediately.
14
"There is a compelling reason to preserve the
J.U
lake water. And there is some danger that oil and gas
16
drilling would add pollution to the lake at the very time
17
when large-scale efforts are underway in Ohio and, indeed,
18
throughout the Great Lakes area to reduce pollution and
19
save the lakes from ruin.
20
"Therefore, Ohio — along with Pennsylvania and
21
New Tork, which also are considering leasing state-owned
22
waters in the lake for oil and gas explorations — should
23
hold up until it can be proved that science has advanced
24
to the point that pollution will not result.
25
-------
11
1
L3
255
Hon. Ralph Locher
"Experts testifying on drilling regulations
proposed by the oil and gas division of the Ohio Department
of Natural Resources expressed grave doubts that pollution
could presently be avoided.
"Representative George V. Voinovich of Cleveland
proposes calling a halt to proposed drilling until the
Ohio House can make a thorough investigation of the
pollution threat and until the public can evaluate the
risks against the benefits that may be derived from
exploiting the oil and gas reserves.
"It is a sensible proposal and has won the
support of the resources department, whose chief concern,
after all, is protecting the stated natural resources.
"Although drilling has been authorized by the
legislature, the department has the power to hold it off
by delaying promulgation of regulations. It would be
wise to do so until pollution-free operations can be
assured."
(Statement of Ralph S. Locher on behalf of
the Izaak Walton League and in his own behalf before
a Sub-committee of the Natural Resources Committee,
chaired by the Honorable Morris Boyd, Wednesday,
February 21, 196$:)
I appreciate this opportunity to share with
your honorable body some of the views of the Izaak
-------
256
Hon. Ralph Locher
Walton League and of my own concerning the proposed
drilling for gas and oil in Lake Erie. To my knowledge,
2
there has been no public hearing proposed by the State
of Ohio affording an opportunity to the public to be
5 heard relative to drilling in Lake Erie.
6 Section 1505.OS of the Revised Code provides
that "... the Chief of the Division of Geological Sur-
8 vey, with the approval of the Director of Natural Resources
9 the Attorney General, and the Governor, may issue permits
10 and make leases to parties making application for permis-
11 sion to take and remove sand, gravel, stone, gas, and
12 other minerals from and under the bed of Lake Erie...."
13 On February 5| 196S, a hearing was had before
14 Wayne Conner, Chief, Division of Oil and Gas, to "consider
15 the adoption of rules and regulations relating to the
issuance of permits for the drilling of wells in strata
beneath the waters of Lake Erie and the operation
thereof." The rules, according to the Notice of Hearing,
18
"will establish procedures that will promote the maximum
ultimate recovery of oil and gas from reservoirs beneath
Lake Erie by application of accepted practices of
conservation...." I have quoted from the Revised Code
22
of the State of Ohio and the Notice of Hearing as a
23
foundation for two points.
24
First, a hearing was had on proposed rules and
25
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257
Hon. Ralph Locher
regulations for drilling in Lake Erie even before the
2 public could be heard on the merits of drilling. In my
3 judgment, there was a disposition on the part of the
4 Governor, the Attorney General, and the Director of
5 Natural Resources, to proceed with the issuances of
6 permits and granting of leases. According to the
7 Cleveland Plain Dealer of last Sunday, the Director of
8 Natural Resources has so indicated. Richard G. Zimmerman
9 of the Plain Dealer Bureau, in his column "Credibility
10 Gap on the Olentangy," stated, "late last year, Natural
11 Resources Director, Fred E. Morr, joyously crowed that
•4H Ohio was leading other Great Lakes states in opening
a portion of Lake Erie to private oil and gas interests."
14 Second, the proposed rules and regulations are
designed to promote the maximum, ultimate recovery of
15
oil and gas from Lake Erie. Were it not for this
16
hearing and, hopefully, others, the public interest could
not have been asserted in an official manner. Partic-
18
ularly is your hearing important, since the Revised
Code of the State of Ohio, Section 1505.99, is a weak
reed, for it provides a penalty as follows:
"1505.99 Revised Code, penalty
"(a) Whoever violates Section 1505.07 of the
Revised Code, shall be fined not less than one hundred
dollars nor more than five hundred dollars."
-------
Hon. Ralph Locher
1 Water - Our Most Vital Natural Resource
2 Water is paramount as a natural resource. The
3 area in and about Cleveland, Ohio, contains four major
4 water intakes serving 2,000,000 people in all of Cuyahoga
5 County and three adjacent counties: Lake, Summit and
6 Medina Counties. The approximate valuation of the City
7 of Cleveland water facilities is $100,000,000. The water
g supply and fire protection afforded by the Water Division
9 cannot be endangered. Indeed, we of this generation are
,Q charged with the duty of holding this vital natural
resource of fresh water in trust for posterity.
Water is paramount as a natural resource and
is the backbone of Ohio wealth, available in unlimited
13 '
quantity from Lake Erie and the Ohio River. We cannot
14
and should not jeopardize its quality. Furthermore,
15
national and state water quality objectives are to reduce
16
pollution at all levels. The United States Public Health
17
Service is presently engaged in evaluating water standards
18
and the Great Lakes and international agencies are working
19
toward insuring the potable character of the waters of
20
Lake Erie.
21
It should be remembered that the four Cleveland
22
water intakes are located to produce the best quality
23
water possible and these raw water intakes cannot be
24
shut down or be contaminated since they are in constant
25
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259
Hon. Ralph Locher
use.
Gusher Could Ruin Water Supply
Should an uncontrolled oil well, such as the
one which came in near Lodi, Ohio, several years ago,
pollute Lake Erie, the water supply of some 2,000,000
people would be literally destroyed over-night. This
statement is based upon the firm opinion of City of
Cleveland engineers who advised that oil and its various
components cannot be remove~d from the water supply through
the presently known filtration methods and procedures.
Other areas of the world which have permitted
underwater drilling and have experienced terrible loss
are Lake Maracaibo, Venezuela, and more recently the
Gulf of Mexico. Captain Charles Sebastian of Grand
Isle, Louisiana, recently was quoted in the magazine
"Industrial Research, Inc."
"'About 2,000 oil-drilling rigs now are operating
off the coast of Louisiana,1 stated Captain Charles
Sebastian, a charter boat skipper from Grand Isle,
Lousiana, 'and every one of these rigs is releasing oil
into the Gulf of Mexico.'
"That assertion was made at the twelfth annual
International Game Fish Conference, San Juan, Puerto
Rico, in late November. Several dozen aerial photographs
of oil-drilling platforms were shown to the conferees;
and in each picture an oil slick was evident around the
-------
260
Hon. Ralph Locher
1 platform.
2 "According to Sebastian, each drilling rig
3 uses a mixture of oil and mud to hold down any gas
4 pressure that may exist in the hole —• and this pressure
5 may be as great as 3)000 psi. 'The pumpings that come
up inside the well go through a shaker, or separator, and
drop into the water. The lubricating medium is diesel
oil — approximately 1,500 gallons in each hole.'
g "Production platforms also discharge oil into
1Q the water. Sebastian claims, "Tanks are used to separate
the oil from water, because nearly all wells produce some
water,' he said. 'After separation, the water goes ^^
board and carries a great deal of oil with it. Each weZL
pollutes the water to some extent, and as many as sixty-
14
four oil wells may be worked from one platform!!
15
"Sebastian further charged that, in early
16
November, one company lost over five million gallons of
17
oil as a result of a ruptured pipeline on the Gulf floor.
18
'In my boat,' he said, 'I ran through 45 miles of crude
19
oil — just as thick as you can put crude oil on the
20
surface. For several days it got worse. I reported the
21
matter to the man in charge of production at one of the
22
companies and he denied that his company had a leaking
23
pipeline. He was sincere. He simply did not know
24
the leak.
25
-------
261
Hon. Ralph Locher
"'A week later the company discovered the
break in the pipeline. They had lost about $300,000
worth of oil into the Gulf before they found out they
had a leak!1
"Sebastian's presentation was one of twelve
papers concerning problems of game fishing, marine
research, conservation, and pollution given at the meeting
held November 17-18. Other papers on aquatic pollution
were given by Dr. J. Frances Allen, Chief, Water Quality
Requirements Branch, Federal Water Pollution Control
Administration; by Dr. Frederick Kalber, Florida Atlantic
University; and by Mrs. Anne H. Bosworty, Carmel, CalifT
ornia, a member of the International Women1s Fishing
Association.
"The role and functions of the marine council
and marine commission were outlined by Dr. John Gottschalk,
Director, Bureau of Sport Fisheries and Wildlife; future
developments in sport fisheries were discussed by Henry
Lyraan, Publisher, !The Salt Water Sporsman1 magazine;
while the spawning and migrations of game fishes were
explained by Donald S. Erdman, Fish and Wildlife Division,
Department of Agriculture, Puerto Rico, and by Frank J.
Mather, III, Research Associate, Woods Hole Oceanographlc
Institution.
"Joseph W. Penfold, Conservation Director,
-------
262
Hon. Ralph Locher
Izaak Walton League of America, dealt with the subject
2 of fish conservation and public responsibility; Bori
3 Olla, Sandy Hook Marine Laboratory, discussed rhythms
4 of activity in bluefish; and William M. Stephens,
5 Managing Editor, !0ceanology International,1 gave a
6 presentation on research submarines.
7 "Following the sessions, some of the delegates
8 visited marine research facilities in the Virgin Islands
9 and dived on some of the coral reefs.
10 "The International Game Fish Conference,
11 sponsored by the International Oceanographic Foundation
12 was held in cooperation with the Gulf and Caribbean
13 Fisheries Institute."
14 Proposed Oil Drilling Operation in Off-Shore
Waiters of Lake Erie Pose Threat to Source of Supply of
J. u
Fresh Water to Millions of Users
16
Whereas, the State of Ohio has a projected
program of drilling for oil in off-shore areas of
Ohio's Lake Erie waters, through lease arrangements with
private industry; and
Whereas, millions of citizens are dependent
21 '
upon this source for their life-sustaining supply of
22
fresh water; and
23
Whereas, the occasion of an uncontrolled oil
24
well, could jeopardize this water source for undetermined
25
-------
263
Hon. Ralph Locher
lengths of time; and
Whereas, even with the exercise of great care
in the conduct of drilling operations, there can be no
assurance that such a catastrophic calamity could not
occur; and
Whereas, in the event that Lake Erie's waters
should become contaminated with oil, that oil and its
various components cannot be removed from the water
supply through presently known methods and procedures; and
Whereas, a report of the Cleveland Regional Plan-
ning Commission indicates that 119 acres of beaches are
needed in the Cleveland area alone; while less than
fifteen per cent of Lake Erie's shoreline is available
for public recreation. Projected oil drilling in Lake
Erie would jeopardize its shoreline, including areas
not subject to population concentration and adjacent to
public recreational land; and
Whereas, drilling operations, drilling rigs,
and the distribution facilities in and of themselves
would constitute navigational hazards to large cargo
vessels as well as to smaller pleasure crafts; and
Whereas, it has been estimated that the
royalty reverting to the State of Ohio by leasing
land for drilling sites under the lake would approximate
$200,000 a year; and
-------
264
Hon. Ralph Locher
Whereas, we believe that we should not hazard
2
this prime resource of the State of Ohio for any sum;
as any anticipated royalties from this source could never
4 compensate for the threatened capitalized loss to the
5 beneficiaries of the bounties which Lake Erie so gen-
6 erously bestows;
7 Now, therefore, be it resolved, by the Ohio
8 Division of the Izaak Walton League of America in
9 convention assembled this ninth day of October, 1965,
10 at Cleveland, Ohio, that it is our firm belief that it
11 would be a most grievous mistake to permit off-shore
12 drilling for gas and oil in Lake Erie.
13 Be it further resolved, that copies of this
14 resolution be forwarded to the following:
15 Murray Stein, Chief Enforcement Officer, of the
16 U.S. Public Health Service of the Department of Health,
Education and Welfare, Washington, D.C.
Fred Morr, Director, Ohio Department of Natural
1 8
Resources, Columbus, Ohio.
Dr. Emmett Arnold, Chairman, Ohio Water Pollu-
(C\)
tion Control Board, Columbus, Ohio.
21 '
Mayor Ralph S. Locher, City Hall, Cleveland,
&£
Ohio.
23 ^
Mrs. James H. Angel, Chairman, Citizens for flnd
24
and Water Use, 2084 Elbur Avenue, Lakewood, Ohio 44107.
25
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265
Hon. Ralph Locher
Mrs. Esther Smercina, Chairman, South Shore
2
Sub-committee on Lake Erie Basin Study of the League of
3 Women Voters, 2074 Alton Road, Cleveland, Ohio 44112.
Above resolution prepared and submitted upon
instructions from the Board of Directors of Western
6 Reserve Chapter, I.W.L.A., at a meeting held on
7 September 22, 1965.
8 Very respectfully submitted, Seba H. Estill,
9 Committee Chairman, 3577 Gummings Road, Cleveland, Ohio,
10 44113.
11 (The following article appeared in The Plain
Dealer on February 7, 1968:)
13 II "Hold Off on Lake Oil Drilling
14 "There is no compelling reason why the oil and
15 gas reserves which lie under Lake Erie should be tapped
16 immediately.
"There is a compelling reason to preserve the
, 0 lake water. And there is some danger that oil and gas
18
drilling would add pollution to the lake at the very
time when large-scale efforts are underway in Ohio and,
indeed, throughout the Great Lakes area to reduce
pollution and save the lakes from ruin.
'Therefore, Ohio — along with Pennsylvania and
New York, which also are considering leasing state-owned
waters in the lake for oil and gas explorations — should
«
13 II
-------
266
Hon. Ralph Locher
hold up until it can be proved that science has advanced
2
to the point that pollution will not result.
3
"Experts testifying on drilling regulations
A
proposed by the oil and gas division of the Ohio Depart-
ment of Natural Resources expressed grave doubts that
C*
pollution could presently be avoided.
rt
"Representative George V. Voinovich of
8 Cleveland proposes calling a halt to proposed drilling
9 until the Ohio House can make a thorough investigation
10 of the pollution threat and until the public can evaluate
11 the risks against the benefits that may be derived from
12 exploiting the oil and gas reserves.
13 "It is a sensible proposal and has won the
14 support of the resources department, whose chief concern,
15 after all, is protecting the state1s natural resources.
16 "Although drilling has been authorized by the
17 legislature, the department has the power to hold it off
18 by delaying promulgation of regulations. It would be
19 wise to do so until pollution-free operations can be
20 assured."
21 {The following article appeared in The Cleveland
22 Press, on Saturday, February 3, 1968:)
"More Danger for Lake
"Lake Erie already has the hapless reputation
of a 'dead sea,1 thanks to the pollution that has ruined
-------
26?
Hon. Ralph Locher
its waters.
2 "Now it is in danger of growing even more
3 polluted through oil drilling. Ohio, New York and
4 Pennsylvania plan to lease submerged Lake Erie lands
5 for oil purposes.
6 "George Harlow, head of the Lake Erie office
7 of the Federal Water Pollution Control Administration,
8 categorically says there is a pollution threat from the
9 drilling which would take place two to three miles from
10 the shoreline of Ashtabula County.
1:L "Pollution from drilling can come from three
^fe sources: the oil itself, brine and the lubricating oil
,„ from the underwater machinery.
14 "On Monday the state will hold hearings in
. Columbus to discuss the rules for Lake Erie drilling,
JL 5
particularly as it affects shipping and pollution. The
16
oil drillers should be made to prove their case, which
17
may be difficult.
18
"Certain questions should be asked the
19
proponents of Lake Erie drilling:
20
"Is the oil which may be obtained absolutely
21
necessary to our economy?
22
"Will it mean cheaper gasoline to Ohio
motorists?
"How will drilling be terminated if pollution
-------
268
Hon. Ralph Locher
1 occurs?
2 "Who will pay to clean it up?
3 "Officials should be wary of such statements
4 as this from a New York official: 'The risk of any of
5 our operations polluting are negligible.1
Q "Are the risks of a broken oil line negligible?
7 Should such an accident occur, the mess could be as
8 disastrous as the tons of spilled oil that washed the
Cornwall coast of England last year.
"And once state officials let the drilling
commence, even with tight safeguards ridigly enforced,
pollution seems inevitable. This has been part of the
tragic history of industrial wastes in Lake Erie,
13
"It is hard to conceive of any situation which
14
would justify drilling for oil in Lake Erie."
15
(The following article appeared in The Cleveland
16
Plain Dealer, on Sunday, February Id, 1968:)
17
"Credibility Gap on the Olentangy, by Richard
18
G. Zimmerman, Plain-Dealer Bureau
19
"Columbus — Yea, though I walk through the
20
credibility gap, I shall overcome and survive.
21
"First off, it is easier to keep one's sanity
22
here because fortunately our Ohio credibility gap does not
23
involve the lives of America's fighting men.
24
"Second, the gap here sometimes gets so wide
25
-------
Hon. Ralph Locher
that one cannot see the size of the abyss and happily
forgets he even is plodding along in a deep pit of poppy-
cock.
"Take the flap over whether the state was or was
not planning to permit oil and gas drilling in Lake Erie.
"Late last year, Natural Resources Director
Fred E. Morr joyously crowed that Ohio was leading other
Great Lakes states in opening a portion of Lake Erie to
private oil and gas interests.
"And earlier this month, the state held public
hearings to discuss a set of regulations to control
drilling. A lesser Natural Resources Department official
told me immediately after the hearing that advertising
material for bids on lake leases was ready to be mailed
out to newspapers the same week.
"But apparently reports of public criticism
generated by the hearing on regulations were quickly
noted in high places, for the next day a top Natural
Resources official suggested that I had been drunk on
the job for ever suggesting the state had made a decision
to permit drilling in the lake.
"At any moment I expect a Natural Resources
Department official to appear, swing a watch before my
eyes and intone:
M
"'Repeat after me — there was no hearing on
25
-------
J. .1.
«
13
269
Hon. Ralph Locher
regulations, there was no hearing on ...'"
(Statement of Ralph S. Locher on behalf of the
Izaak Walton League, delivered May 22, 1963, at public
hearing held by Ohio Water Pollution Control Board in
Cleveland:)
"The Mightiest Little River in the Nation,"
the Cuyahoga
Introduction
It is a privilege to appear and present
testimony for the Izaak Walton League, whose members
number dedicated men and women devoted to the cause of
conserving our nation's natural resources as defenders
of soil, woods, water, and wildlife.
As I look about this chamber, I see the familiar
faces of those united in the same cause, many having
appeared only two months ago at a meeting in Columbus
to oppose the proposed drilling for oil and gas in Lake
Erie. Our efforts were, I believe, helpful to the State
of Ohio, and I trust can be of further assistance at
this important hearing.
The Cuyahoga River has been termed the
mightiest little river in the nation. It is a man-made
river. Man leveled it out with the great canal,
straightened it with the cut at its mouth, dredged it
deep for ore bulkers, dammed it at numerous points to
-------
270
Hon. Ralph LOGher
1 harness its power. It is the principal reason for the
2 success of iron, oil, chemical, and rubber empires. Sam
3 Mather, John D. Rockefeller, Ben Fairless, and Cyrus
4 Eaton are associated with the Cuyahoga and its giant
5 industry. (1)
6 Currently, the value added by manufacture to
7 the products produced in the Cuyahoga Valley is in excess
©
8 of two billion dollars — a staggering sum.
g Bad Stewards
Why is it that a river which has contributed
so importantly to the affluence of the region, should
be so foul and neglected? Americans have not been good
X<£
stewards of nature's bounty. Exploitation of man and
13
resources in our frenzied search for wealth has dominated
14
our being to the end that we are now gravely concerned
15
with whether or not Lake Erie can be saved before
16
catastrophe strikes.
17
George Harlow of the Federal Water Pollution
18
Control Administration recently stated that Lake Erie
19
may face an instant biological cataclysm which would
20
make the lake's present problems seem mild by comparison.
21
The American society is a civilization wherein
22 |
we stand knee-deep in garbage and ankle-deep in sewage,
23
while our fantastic technology sends a man to the moon.i
24
Pollution Abatement — a Cost of Doing Business
25
-------
271
Hon. Ralph Locher
That same technology must be directed by
o
industry and government toward control of industrial
wastes. There is hope for the Cuyahoga if two avenues
4 of effort converge:
5 First, industry must recognize that air and
6 water conservation is a part of the cost of doing
7 business, everywhere in the country. (2)
8 If a new automobile must cost more by reason
9 of the installation of water pollution controls, the
10 public will understand. Undoubtedly there will be
11 added expense, particularly in the early years for
^fe the Republic Steel Company to discontinue its daily
13 dumping of 1£0,000 pounds of suspended solids, 120,000
14 pounds of sulfate, 32,000 pounds of chloride, 2#0 pounds
15 of phenol, 400 pounds of cyanide, 4,100 pounds of
ammonia, 1,100 pounds of magnesium, 12,000 pounds of
iron and oil and heavy metals.
United States Steel dumps into the Cuyahoga
18
daily: S4,000 pounds total solids, 30,000 pounds
JL \s
suspended solids, 510 pounds of oil, 50,000 pounds of
Cf\J
sulfate, 1,000 pounds of chlorine, 15,000 pounds of
-------
272
Hon. Ralph Locher
1 Other daily discharges into the Cuyahoga and
2 its tributaries come from: Harshaw Chemical, 550
3 pounds fluoride, 160 pounds nickel, 3,100 pounds
4 chloride, 30 pounds manganese and sulfate. Ford Motor
5 Company, 62 pounds suspended solids, 62 pounds oil,
43 pounds zirconium dioxide, 2,600 pounds chloride,
7 410 pounds of silica dioxide (sand). Sunoco Products,
8 300 pounds suspended solids, 7#2 pounds of oxygen-con-
9 suming material. Rubber Industry — B. F. Goodrich,
1Q Firestone Tire and Rubber, and Goodyear Tire and Rubber
discharge unreported quantities of solids, oxygen-con-
suming wastes, organics and oil into the Cuyahoga at
X<5
Akron.
J. O
Is it any wonder that the Cuyahoga has been
14
described as "one-third mud ... one-third sludge, and
15
one-third pickle liquor ..." (3)
16
Second, the State of Ohio must request full
17
disclosure of pollution facts from all industry in the
18
state. It is our understanding that some seventeen
19
industries which pollute the Cuyahoga River do not report
20
data on their wastes to the State of Ohio. This is a
21
ridiculous situation, unfair to those industries which
22
do report and an affront to the public of Ohio. Further,
23
the State of Ohio should adequately finance and staff .
24
the Ohio Water Pollution Control Board. It is naive to
25
-------
273
Hon. Ralph Locher
expect that one engineer with no laboratory facilities
2 in Cuyahoga County can monitor the industrial and
3 municipal discharges and singlehandedly enforce state
4 laws.
5 Massive Federal and State Aid
6 Estimates to clean up Lake Erie vary from
7 ten billion to twenty billion dollars — a prodigious
8 sum. Even the lower figure represents $1,000 for every
9 man, woman and child in the area tributary to Lake Erie.
10 Obviously, the municipalities cannot carry the
-Q burden alone. The state and the Federal Government are
ifm 100 per cent correct in calling for higher standards
,„ and multi-billion dollar programs, but they are wrong
in calling the tune without helping defray the costs.
So far, the State of Ohio has not invested a nickel in
15
the cleanup of Lake Erie. Not one of the major cities
16
in Ohio has received a penny of federal aid for
17
construction of sewage treatment facilities: although
18
many millions of dollars have been allocated to others.
19
When the interstate highway system faltered
20
in the 1950s, the automobile and gasoline industries
21
had no trouble ramming through Congress a 90-10 formula;
22
90 per cent .federal dollars and 10 per cent state and
local funds. Surely, the fisherman, the boatman, and the
family and children who would like to swim in Lake Erie,
-------
27k
Hon. Ralph Locher
i /
deserve the same attention from the Congress and the
2 state legislature; and the economic considerations
3 are equally significant. The State of Ohio, to illus-
4 trate my point, ten years ago collected 260 million
5 dollars per annum from the sales tax; 2k million
6 dollars was returned to local governments. In 196? i
7 state collections climbed to 369 million dollars; but
3 local governments are still getting only 2k million
9 dollars — the same as ten years ago.
IQ Citizens1 action is required here to convince
13_ the legislature to fairly and equitably distribute state
12 tax revenue, as well as to insist that the legislature
provide funds to beef up the staff of the Department of
J.O
Health and the Water Pollution Control Board.
14
Some Suggestions
15
The Izaak Walton League, after a cursory reading
16
of the Engineering Report (our copy arrived day before
17
yesterday) respectfully recommends the following:
18
1. Improved pre-treatment of industrial
19
wastes by industry, particularly the reduction of oils
20
and greases before the wastes empty into the public
21
sewers.
22
2* Improved operation and expansion of the
23
sewage treatment plants of the various municipalities
24
to provide tertiary treatment at all plants tributary
25
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275
Hon. Ralph Locher
to streams.
2 3. Complete treatment at the Easterly sewage
3 treatment plant of City of Cleveland instead of piping
4 sludge to the Southerly treatment plant.
5 4. Secondary treatment for all water pollution
6 control plants which discharge their effluent into Lake
7 Erie.
8 5. Compulsory periodic inspection and cleaning
9 of septic tanks to insure operational efficiency and
10 gradual elimination of septic tanks.
,, 6. Cooling towers be constructed by industry
^,-mm to prevent thermal pollution of the Cuyahoga and its
tributaries; further, thermal pollution should be ex-
JLo
pressed in terms of maximums rather than in terms of
14
averages.
15
7. Lake Erie and its tributaries should not
16
be separately considered; all should be treated as parts
17
of an interacting whole, since the more obvious water
18
degradation has taken place in the tributaries; in other
19
words, a watershed or drainage basin concept, is pre-
20
ferable.
21
6. It should be clearly understood that initial
22
f standards are not final; that standards on water quality
•
will be raised until clean water is the end result, at
.
earliest possible time.
..
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276
Hon. Ralph Locher
With vigorous enforcement, the Guyahoga River
2
and its tributaries will return to its former condition
3
and use as a spawning area for warm, fresh water fish-
4
life.
5
The Waltonian Philosophy
6 Previously, at the November 30, 1966, hearing
7 held by this honorable body, the philosophy and ideal of
8 the Izaak Walton League was expressed by Seba H. Estill,
9 Chairman of the Conservation Committee, who stated the
10 following:
11 "We concur in the recommendations of the Ohio
12 Water Pollution Control Board that the waters of Lake
13 Erie proper be made suitable to serve all uses. This
14 could generate hope for a resurrection of Lake Eriefs
15 once great commercial fishing industry and a resurgence
16 of its sport fishing, while providing fresh incentives
17 for northern Ohio's once flourishing vacation industry
lg to collaborate in the rebuilding of their industry and
the advancement of an enviable image as the outstanding
2Q vacation and watering region of our entire midwest.
21 '-'However, we believe that the water of harbors
(within the Cleveland breakwall, for instance) and
similar areas, should also be suitable for body contact
23
purposes. Then Cleveland's bathing beaches might
24
be open to the public; and that other sports, such as
25
-------
»
277
Hon. Ralph Locher
water skiing, might again be engaged in.
"To this end, we request a water quality
criteria capable of supporting the propagation of a
thriving and healthy population of warm water game
fish that are indigenous to the area...."
Thank you for this opportunity to appear on
behalf of the Izaak Walton League.
Appendix
Note 1
The red of the water is created by iron, mud,
sulphur, crude oil, and pickle liquor from the mills.
And for 100 years those who have known which side mid-
west bread is buttered on have thanked God ... also Sam
Mather, John D. Rockefeller, Ben Fairless, Cyrus Eaton,
and many other early iron men who sailed out of the Cuya-
''11
hoga Basin up to the Michigan, Menominee, and Mesabi Ranges
to find the red dirt that feeds Cuyahoga's iron furnaces
and colors its waters. (Taken from "The Cuyahoga" by
William Donohou ELlis, 1966)
Note 2
Either we voluntarily implement effective
pollution abatement programs at all levels of business
and industry, or in the near future our actions in this
area will be spelled out by Congressional legislation.
Today we still have the freedom to make a reasoned and
-------
27$
Hon. Ralph Locher
resolute response to the problem. Tomorrow our actions
n
may be tightly controlled by government regulations.
3 If our efforts are made mandatory, not only
4 will we be forced to take more costly and less efficient
5 action, but we will also forfeit our claim to being a
6 responsible segment of society. To those who say they
7 cannot afford to take effective anti-pollution measure,
8 I can only respond that they can't afford not to. By:
9 Mr. A. Wright, President of the Chamber of Commerce of
10 United States, also Board Chairman of Humble Oil and
11 Refining Co. (Taken from "Industrial Water Engineering"
12 January issue, 196?)
13 Note 3
14 Sometimes the old river seems to be a combina-
,_ 1 tion of one-third mud from the still rural headwaters,
15
j one-third sludge, and one-third pickle liquor from the
16
great mills, but it continues making history. Mile for
mile and drop for drop, it is doubtful that it can be
18 '
matched by any other river. (Taken from "The Cuyahoga"
I by William Donohou Ellis, 1966)
fC\)
CHAIRMAN STEIN: Thank you, Mayor Locher.
21
(Applause)
22 |
I heard that comment, too, about the dredged
23 -
material being half water, but I didn't comment, becausW
24
you didn't say it was clean water but —
25
-------
279
Hon. Ralph Locher
Again, let me make the record clear — and I
2 would like to talk to you people about this, because I
3 do think this is a serious matter. I didn't say that
4 pollution from oil wasn't an important problem. Every
5 time we have a catastrophe or we have a boat sunk —
6 and we had one that we were talking about just a month or
7 two ago, Mr. Oeming, in Lake Michigan — this is very,
8 very serious.
9 The question that I put here — we have to take
10 the big problems and the small ones, no matter how big
ll or how small. We take the sources — but even if all
TQ this happens, really, sir — relatively, I am saying the
13 big sources of pollution control in Lake Erie Basin have
14 been and will continue to be — unless we watch these
and put in remedial measures — are going to be the cities
JL u
and the industries.
16
Now, the difficulty that I find in this field —
17 J
and goodness knows I am with you on these campaigns, but
18
water pollution control for some reason or other is
19 *
subject to fantasy. One time we were fooling with the
20
oil well wastes, and talk about that well backfiring
— you should have seen those oil brine things backfire
22
in the old days; we used to have more gushers than wells.
First, it was oil wells. Then, I remember
packing houses. Then, pulp and paper wastes. Then,
25
-------
280
Hon. Ralph Locher
detergents. Then, the pesticides. And now, the three
big issues are: radioactive pollution from these mills;
thermo pollution and oil pollution — and there is
another one, boat pollution.
5 Now, all these are very, very important. But I
6 am saying to the people that we must meet these and meet
„ these head on, but let's not lose our perspective,
because I have seen more effort get concentrated and
8
more meetings being devoted to these issues to the
j
exclusion of really looking at the bread-and-butter issue
| of the cig cities and the big industries. That is not to
say, Mayor, that we should exclude this oil question as a
12
i very serious one, and, as Mr. Lyon knows, we have had
13
! numerous discussions on the oil problem, and I have been at
14 |
these places and up to Cook inlet, and I know what the
15
problems are. As far as I can see they are very serious,
16 I
indeed, and they have to be handled very, very carefully.
17 j
I know you have these stringent regulations
18 |
when you get on one of these islands in an oil rig and
19 |
the motor is gone and everything is shaking. Pipes
20
don't always hold together twenty-four hours a day,
21
three hundred sixty-five days a year. It requires a
22 I
I real top maintenance man to do this.
23 !
I know this, and with all deference to your
24
I statement and what you have said, I think the conferees
25
-------
231
Hon. Ralph Locher
will carefully consider this, but again I say to you and
2
everyone else: The big problem that we have to face in
3
cleaning up and controlling pollution in Lake Erie -is
4
the municipal and industrial sources. If we do that, I
5
do believe we will be able to handle these other things.
6
MR. LOCHER: Yes, and my paper does go to that.
7
I didn't read it because I wanted it as part of the
Q
record. But that is all the more reason, I believe, why
n
dream up and invent sources when we have already got a
big enough problem to keep everyone in this room going the
11 rest of their lives?
liiL CHAIRMAN STEIN: That is right.
13 I have always said, about the dredging, I didn't
14 think we cleaned up one of the Great Lakes just to make
15 it a dump, and your point is very well taken.
16 Are there any other comments?
17 Before we go on, we will recess for ten minutes.
18 (Short recess.)
19 CHAIRMAN STEIN: I will call on Mr. Metzler from
20 New York.
21 MR. METZLER: We have the two key people in our
22 organization here, so far as the water pollution abatement
is concerned in New York, as it relates to Lake Erie:
Assistant Commissioner John C, Haberer, who will make the
25 presentation; Eugene Seebald* who is the Regional
-------
232
John C. Haberer
Engineer, is also here, and in the event we get into some
2 detailed questions, he has this very much at his fingertips.
3 MR. HABERER: Commissioner Stein, conferees,
4 ladies and gentlemen:
5 I am John C. Haberer, Assistant Commissioner
6 for pure Waters of the New York State Department of Health.
7 The following resume will illustrate the
8 status of the program of New York State in water
9 pollution control as it affects Lake Erie.
10 Of the forty sources of waste discharge to
11 and-or affecting Lake Erie, twenty-two are under formal
12 orders. Of these, twelve are complying with the
13 with respect to formal dates for performance. Thirty-six
14 of the forty are in substantial compliance with the time
15 schedules.
, The discrepancy between twelve and thirty-six
has been due to problems encountered in the preliminary
evaluation of the individual problem. These unknowns
have required a readjustment of the original intermediate
dates to promote a complete and sound engineering approach.
t£\)
The final dates of abatement have not nor will not be alterec
^-L
without positive engineering evaluation, but the
*o«C
intermediate steps (originally listed in the Commissioner's
23 A
order in the absence of complete in stijations at the
24
problem level) are, and will continue to be, flexible
25
-------
233
John C. Haberer
consistent with the problem.
Only four of the forty polluters are regarded
as not having realistic terminal dates and two
additional ones have been referred to the Attorney
General's office for enforcement of the orders.
With respect to the control of bathing areas in
New York State bordering Lake Erie, only one formal bathing
beach was closed in 196? (Hamburg Town Park in Erie
County). The closing was prompted by high bacteria
counts and the unsatisfactory sanitary survey of the
area involving particularly effects of stormwater
overflows. Changes in bypass and storm overflow
arrangements inaugurated by the town of Hamburg have changed
the sanitary survey. These steps, coupled with a
statistical analysis of the water quality indicate that,
in all probability, the beach will be reopened this
year under very close health department scrutiny.
The ibrmal listing of other bathing areas on
Lake Erie from the Federal Water Pollution Control
Administration indicating unsafe bathing areas is an error
in that the areas noted do not reflect formal bathing
beaches under the acknowledged control of individuals or
municipalities.
Six hundred seventy-two samples of Lake Erie
water at twenty sites from the mouth of the Niagara River
-------
John C. Haberer
2
3
4
5
6
7
8
9
10
11
12
13
15
to the New York State-Pennsylvania state line were taken
during 196? from May through September by the New York
State, Erie County, and Chautauqua County Health
Departments.
The median coliform counts nearly always fell
within the statutory coliform limits set by the New York
State Legislature in Section 1205 of the New York
State Public Health Law and most generally were within the
limits of the recommendation No, 9 of the Enforcement
Conference dated August 12, 1965.
In the few instances where high coliforms
existed for a protracted period, the sampling site was
involved with high concentrations of decaying aquatic
life and-or in areas receiving high surface run-off from
recently occurring rains, flooding storm and sanitary
..„ systems into watercourses
16
The underwater resources of New York State in
Lake Erie (oil and gas) are about to be explored through
18
leases to private concerns under the direction of the New
York State Conservation Department with the New York State
Health Department exercising surveillance to insure against
21
water pollution resulting from these activities. It is
felt that with proper design, construction and control
effects, no adverse effects will hinder normal enjoyment of
24
the offshore waters.
25
-------
John C. Haberer
1 Any discussion of experiences as to the
2 pollution incidental to offshore drilling operation are,
3 at this time, premature with respect to New York State
4 and its pure waters program.
5 The disposal of dredged material as a result
6 of the maintenance of navigational channels by the United
7 States Corps of Engineers, particularly in the Buffalo
8 area, has been the source of concern for several years
9 past. A totally enclosed lagoon was used last year
10 to receive dredgings from highly polluted waters.
Dredgings from relatively unpolluted water continued to
be disposed in offshore Lake Erie water.
A recent application to the New York State
Water Resources Commission by the Bethlehem Steel
Corporation to permanently dike six hundred twenty acres
in Lake Erie adjacent to their plant site near Buffalo
has been received. The New York State Department of
Health, in its program responsibilities, has conferred with
plant management and has made it clear that the taking of
underwater land for solid waste disposal must be fully
justified on a benefit versus sacrifice evaluation.
The Corps of Engineers has been involved in the
conferences and have indicated an interest in the
proposal. The area of the solid waste disposal in Lake
Erie will all but completely usurp the present authorized
-------
2S6
John C. Haberer
1 offshore dumping site presently being used. The water
2 intakes of the Erie County water authority at Woodlawn
3 and the city of Buffalo may be affected by the shoreline
4 change. The steel company proposed to conduct hydraulic
5 model studies to demonstrate the potential effect on the
6 intakes and the navigation channels adjacent to the area.
7 Any recommendation to the Water Resources Commission by
8 the Health Department with respect to the Bethlehem
9 proposal will be contingent upon the details developed as
10 a result of the further study.
11 In conclusion, New York has and will continue
12 an aggressive program to insure the integrity of Lake
13 Erie's waters and will administer such controls as are
available, consistent with good engineering and public
health programming coupled with wise and equitable
15
administration of the vast natural resource of the lake.
16
17
18
19
20
21
22
23
24
25
-------
ABA
(Rl
ATEM
V
MENT STATUS
6/1/68)
POLLUTER NAME & LOCALITY
ACTION REQUIRED & DATE
Moench Tannery, Gowanda (V) Final Plans 6/1/63
Eastern TAnners Glue Div.
Gowanda (V)
Brocton (V)
Commence Construction
Commence Construction
Vl/68
Dunkirk (C)
Westfield (V)
Submit final plans
5/1/68
Submit final plans
6/1/63
ACTION TAKEN OR EXPLANATION
The Industry together with
other industries in the
Village of Gowanda and the
Village of Gowanda are in-
vestigating joint treatment
of their wastes,
Same as above.
Plans have been submitted
by the consulting engineers
for the Village. Cost
estimates indicate excessive
cost for municipal under-
taking. Industry modifica-
tions have altered the scope
of the project
Wastewater facilities report
prepared. Field conference
held.
V.'astewater facilities report
submitted. Cost estimates
and method of treatment being
restudied to provide for ade-
quate treatment consistent
with municipal financial
ability.
ADDITIONAL ACTION REQUIRED
Continual follow-up and
review of material sub-
mitted 3/1/60.
Same as above.
Follow-up with consulting
engineers.
Review of report and imple-
mentation of project.
Meeting held 5/23/68 to
discuss project with
municipal representatives.
oa
-o
-------
POLLUTER NAME & LOCALITY
ACTION REQUIRED & DATE
ACTION TAKEN OR EXPLANATION
ADDITIONAL ACTION REQUIRED
Growers Co-op.
V/estfield (V)
Submit final plans
6/1/6'
Huntley Mfg. Co.
Brocton (V)
R.C. McAteer
Ripley
Seneca V/estfield Maid
V/estfield (V)
Connect to Village
sewers as soon as
available.
Submit final plans
6/1/63
Welsh Grape Juice
Brocton (V)
To close 6/67
Welsh Grape Juice
V/estfield (V)
Submit final plans
12/31/67
Industry indicated desirabil-
ity to connect to municipal
sewers. However, cost esti-
mates indicate excessive costs
for joint municipal industrial
venture ($6,000,000)
Severs not available. Follow
up. Inspection April 196 re-
vealed insignificant problem.
No discharge to surface waters.
Inspection 4/68 revealed
discharge through municipal
sewers of minor pollutional
significance.
Industry has indicated desire
to connect to municipal
sewers. Joint municipal
industrial venture delayed
because of excessive cost
estimates.
Only storage of grape
juice at the plant at
present. Facilities being
constructed in V'estfield
to eliminate need for
storage in Brocton.
Industry has indicated desire
to connect to municipal sewert
However, excessive cost esti-
mates have delayed the project
Industry must provide for
adequate treatment either
alone or in conjunction
with the Village. See
V/estfield (V).
Follow up. Municipality
must provide additional
degree of treatment.
Industry must provide,
either alone or in con-
junction with the munici-
pality adequate waste
treatment facilities.
See also '/estfieicf (V).
Continuance of follow-up
with industry. See also
Brocton (V).
Continual contact with the
industry which must, either
alone or in conjunction with
the Village, provide for
adequate waste treatment fad
ities. See also V.'estfJeld (V
JO
Od
oo
-------
-;>-
POLLUTfl^AME & LOCALITY ACTION REQUIRED & DATE
Allegany Ludlum Steel Corp. Commence Construction
Dunkirk (C) 3/1/63
Twin Cities Asphalt
Dunkirk (C)
North Collins (V)
Submit preliminary plans
1/1/6G
Producers and Canners Co-op. Connect to Village
sanitary sewers
6/1/63
City Laundry
Dunkirk (C)
Silver Creek (V)
Silver Creek Preserving
Silver Creek (V)
Bethlehem Steel Corp,
Lackawanna (C)
Connect to City sewers
as soon as available
Plant in operation
3/1/67
Connect to village
sewers before canning
season
Commence Construction
6/1/63
N TAKEN OR EXPLANATION ADDITIONAL ACTION REQOT?ED
Industry is in the process of
connecting to municipal sewers
and have abated their discharges*
Abated
Plans submitted
Plans submitted by the Village
for additional treatment of
municipal and Industrial
wastes
Sewers not yet available
None.
Portions of the facility
have been constructed. In*
ternal modifications have
been made in areas within
the plant. Investigation of
deep well disposal by test well
currently underway.
Review of plans by State
Health Department
Continued contact with the
industry and the municipality
to provide for adequate
additional waste treatment
facilities
Advise City of need for pro-
viding additional sewer col-
lection facilities.
Installation of additional
collection facilities and
connection of individual
discharges to the sewer
system by the municipality
Field recheck
Industry must implement
approved plans being
developed in phases.
N)
oa
-------
POLLUTER NAME 5- LOCALITY
ACTION REQUIRED & DATE
ACTION TAKEN OR EXPLANATION
ADDITIONAL ACTION REQUIRED
Socony Mobil Oil
Buffalo Dye Works
Allied Chemical Corp.
Oepew (V)
Lancaster (V)
Donner-Hanna Coke Corp,
Buffalo (C)
Republic Steel Corp.
Buffalo (C)
Manna Furnace Co.
Lackawanna (C)
North Collins (T)
Lawton's Hamlet
Commence Construction
W63
Submit final plan
1/13/60
6/1/60 Start Construction
Plant in Operation
6/1/63
Refinery scheduled for close
down in June of 196?. In-
vestigation reveals facilities
to be adequate for storage
purposes and terminal use.
Plans submitted
Joint conference Buffalo
Sewer Authority, Industry
& State Health Dept.
Construction delayed by
necessity to comply with
Regional plan to permit
federal and state grants in
aid
Same as above
Submit preliminary plan Plans submitted
tO/1/67
Submit preliminary plan
Vl/67
Submit final plans
Vl/63
Plans submitted.
Portions of the final
plans have been submitted
for facilities.
Investigation reveals minor
pollutional significance.
V.'astewater facilities report
submitted.
State Health Department follow
up
Health Dept. to review
plans. Industry must nego.
tiate with Buffalo Sewer
Authority to discharge
pretreated wastes to the
Sewer Authority system.
Same as above
Review of submitted plans.
Continual contact with
industry.
Continuous follow-up and
review of submitted plans.
Continuous contact with
municipality and review of
submitted plans.
-------
POLLUTl
4E & LOCALITY
Growers and Packers Co-op.
North Collins (V)
Fredonla (V) &
Red V/ing Cannery
Dunkirk Conferenceq
Grounds
Sheridan (T)
Holy Cross Seminary
Rlpley Sewer District
Rlpley
-------
292
John C. Haberer
1 New York State is sorry that we lost Miss
2 Brockway. We do not have any dancing girls. This
3 completes my presentation.
4 CHAIRMAN STEIN: Are there any comments or
5 questions?
6 By the way, John, can we have a list of those
7 communities, or is that in a table?
8 MR. HABERER: That is in the table.
9 CHAIRMAN STEIN: Without objection, this will
IQ appear in the record as if read. Are there any other
a comments or questions?
12 MR. LYON: It is obvious, Mr. Chairman, that
13 Miss Brockway had to move to Pennsylvania because of
the beach conditions in New York!
CHAIRMAN STEIN: You know, New York should have
15
spoken earlier because evidently they are going to vie
16
with you for providing oil leases, and maybe some of the
opinions would have been directed at New York if they
18
allied themselves with this position. I know
19 •
Pennsylvania was the stalking horse, but I was interested
in one sentence, and I am not quite sure what it means.
21
MR. HABERER: Cross it out if you don't like
22
it.
23
CHAIRMAN STEIN: No, you indicate that New YorlP
24
is going to have oil and gas exploration through leases.
25
-------
293
Dwight Metzler
Then you say, "Any discussion of experiences as to the
pollution incidental to offshore drilling operation are,
at this time, premature with respect to New York State and
its pure waters program." What do you mean by that?
You mean we donft have the pollution yet?
MR. HABERER: Well, we haven't approved the
rules and regulations yet, nor have we come close to that.
So, we are talking about possibilities.
CHAIRMAN STEIN: In other words, you are really
not going to beat Pennsylvania. You are not about to issue
a lease until you have these rules and regulations put
out.
MR. HABERER: That is right.
CHAIRMAN STEIN: Are there any other comments or
questions?
Well, I think we are getting the pollutants
laid out. Are there any further questions or comments?
If not, thank you very much, Mr. Haberer.
Mr. Metzler.
MR. METZLER: Unless there are some other
questions on the New York statement, this concludes the
New York presentation.
CHAIRMAN STEIN: Now, may I make one suggestion?
think New York State, as it does pretty generally, has
this program pretty much on schedule.
-------
294
Dwight Metzler
Now, when you have an adjustment — and I am not
2 talking about an intermediate adjustment, but an
3 adjustment of the terminal dates, as you may have —
4 you point out four out of forty as not having realistic
5 terminal dates. Would it be agreeable if you could
6 make that information available to the conferees?
7 MR. METZLER: We would expect to keep up to
8 date on any changes that would have to be made.
9 There is one thing that I might point out, just
10 as a matter of interest and not to prolong the conference,
11 but we have used a technique in this area that we had not
12 used prior to the last conference, and that is: The
!3 York statute permits the Commission of Health actually to
14 hold a hearing and to fine a polluter who is not performing,
15 and we carried out such an action at least against one
._ large corporation, and as a part of our overall program
J.D
of moving swiftly with justice against flagrant violators.
CHAIRMAN STEIN: Now, I have one reservation
16
that I want to hold later for discussion. I am going to
at least open the question on the numerical removal of
phosphates, whether we think we are all working toward the
same end or not.
22
Specifically, of course, we are going to open Jap
to what Michigan is doing, whether we are asking for
24
eighty percent in all cases, and the question is whether
25
-------
295
Dwight Metaler
we should or this should be a policy for Lake Erie.
We have not done that yet. We left that a little open
because of the State of New York.
I think that this — and particularly in view
of the determinations made in other places, such as
Lake Michigan — I am going to ask that question fairly
generally later.
MR. METZLER: I don't object to your asking it
now, Mr. Chairman, as far as I am concerned.
I think if we are not careful that we will —
first, let me point out that in the one big installation
in New York State that is far enough along that we have
pretty much good cost data, we are talking about doubling
the cost of sewage treatment over the cost — the
phosphate removal cost is as much as the secondary treatment
of sewage.
Now, this is not something that you undertake
lightly, and at least in the one case where we have moved
into preliminary design of facilities we think it is
justified.
This is one of the reasons that I was particularly
responsive to the model proposal by Pennsylvania. I would
really like to know what benefits, if any, we are going
to get from the increased phosphate removal. The only
reason that we are zeroing in on phosphates like we are —
-------
I 296
Dwight Metzler
for those who are laymen in the group — is because it
2
happens that it is the nutrient that we do know how to take
out.
4 CHAIRMAN STEIN: That is right.
5 MR. METZLER: Nitrogen may be much more
6 important as far as stopping the algal blooms that we
7 are all worrying about, and I am quite concerned that
8 we say to the big cities — Cleveland, Detroit, and
9 Buffalo, and the small communities — we are going to
10 double your costs of waste treatment before you even get
11 up to the secondary treatment level.
12 CHAIRMAN STEIN: Let me just —
13 MR. METZLER: So, in answer to this question I
14 would hope that we would defer any formal recommendations
15 on this matter, refer it to a technical committee to take
16 a look at and perhaps see us in the future.
17 CHAIRMAN STEIN: This is for clarification.
18 I have heard the same figures, Mr. Metzler,
19 and as I understand it, when they are talking about
2Q doubling the cost, they didn't mean in capital improvements,
21 but in operations.,
MR. METZLER: The figure I was using was doubling
-------
297
Dwight Metzler
question Mr. Metzler asked Indiana, and that is: Will the
availability of Federal grants have anything to do with
your keeping with your timetable and schedules?
MR. METZLER: That is a real tough question and
I am going to give you a different answer than you have
heard elsewhere. It will hurt us financially. It will
hurt our communities, and it makes promotion much more
difficult, but we are committed on a course in which we
will prefinance the Federal Government thirty per cent
of the project cost as well as finance the State's share,
and we are prepared with a bond issue to finance sixty
per cent of the construction costs.
We are not willing to let New York communities
wait to start their construction, or to complete their
construction until Congress makes up its mind. (Applause)
CHAIRMAN STEIN: Are there any other comments
or questions?
MR. LYON: On the phosphate question or —
CHAIRMAN STEIN: Anything. You can choose.
MR. LYON: Well, Mr. Metzler mentioned that we
should have a technical committee on the phosphate
question, and we did have a technical committee on this,
but I frankly can't remember whether they recommended any
specific phosphate removal or not.
CHAIRMAN STEIN: Here we came up with a
-------
298
Dwight Metzler
1 substantial removal of phosphates, as I recall it, and
2 at Lake Michigan we came up with a minimum of eighty per
3 cent removal of phosphates, but I think if you will look
4 at the conclusions of the conferees, based on that, we
5 come up with substantial removal.
6 Again, as I recall — and I think I recall this
7 fairly well — the other conferees check me — one of
8 the problems that we had with specifying a number at the
9 earlier conference was the state of the art: We couldn!t
10 come up with figures, and so forth.
H After Lake Michigan, the cost figures have been
12 pretty well zeroed in on. We have been conducting meetings
13 for engineers and others where our technical staff is
14 going over the techniques of phosphate removal and cost
figures.
Several of the chemical firms and other firms
16
in the business, I understand, have techniques and products
to accomplish this, and certainly without being specific
18
as to anyone, I understand these are reliable companies.
J. j
They have reliable technicians and the methodology
&\J
works.
21
In other words, the specifics for phosphate
22
removal are not that much of a mystery anymore, and I
23
think we are committed, at least on the phosphate removal^B
24 ^
and I agree with Mr. Metzler, this is on a theory.
25
-------
299
4M Dwight Metzler
The theory is that if you remove one of the
2
essential nutrients — the same as if you are fertilizing
3
your lawn — nitrogen, potash, and phosphates — you
4
are going to inhibit the growth of algae and weeds and
plankton, and so forth, that require these elements to
c
grow. The notion is: You don't need much potash, that
•7
nitrogen is ubiquitous — try and keep it out! Even if
8 you did, you would get it in from the air. The phosphates
9 are the one thing that we can control and experiments have
1° been made to show that there is a critical level of
l1 phosphorous and when this critical level is not reached
iBF the growth really drops.
13 Now, again, I share Mr. Metzler's notion. We are
14 dealing with a whole lake and a very complex situation,
15 and this is to quote Jerry Remus: Before you get $200
16 million or half a billion dollars on something, you want to
17 be pretty darn sure it is going to work.
18 MR. LYON: Mr. Chairman, since Michigan has
19 assumed the leadership in proposing eighty per cent
20 phosphate removal for its sources, and since Michigan is
21 the major source of phosphates, why don't we consider
22 || adopting their percentage removal for the rest of the
States and see how that fits?
CHAIRMAN STEIN: Why don't you think about that?
The reason I just opened this
-------
300
Dwight Metzler
1
up, I think this should come up for discussion after Ohio
2
finishes its presentation, but I do think that this is the
3
key point, and we will get to that later. I didn't want
4
to cut off the discussion. I think it would be more
5
orderly to go on — Mr. Metzler, has New York completed
6
its presentation?
7
MR. METZLER: New York has completed its
o
presentation. I would point out the last time we conferred
g
on this matter we did have three recommendations. They
were all aimed at the fact that the technology wasn't
there, that the process is needed to be developed, and
12 the phosphates which were removed by treatment should not
13 be returned to the water system? but we would have quite
14 a leap to make from the position where we were a year ago
15 to a conclusion now at eighty or ninety or ninety-two
16 per cent phosphorous removal.
17 CHAIRMAN STEIN: Well, I think, again — and
is maybe we should have had these people here — that you
19 decide this — that our technical people indicate that
20 the technological gap has been closed.
21 Now, you have to make your own judgment on that.
22 Those were the statements we got from our people, and
23 according to them it is merely a question of cost, and
24 their prognosis is that the costs are going to keep
25 growing very, very moderately as we go on. This, is
-------
Jl
Wj George H. Eagle
something you would have to —•
2 MR. METZLER: It is also true that the costs
3 they are projecting are great enough to make drinking
4 water out of sewage, I just want to make sure that the
5 citizenry who are going to pay for this understand the
6 magnitude of what we are talking about.
7 CHAIRMAN STEIN: The difficulty of the lakes
8 and their cost is: -Even if we make drinking water out
9 of sewage discharges and leave the phosphates in, you
10 are still going to have the eutrophication problem.
11 I am not drawing any conclusion. This is for
the conferees and the point is: I do think that our
13 technical staff believes they have definitive answers now
,. that they didn't have last time. You may want to listen
to their presentation for your evaluation as to how
15
definitive these answers are.
16
Mr. Eagle, may we have Ohio's report?
MR. EAGLE: Thank you, Mr. Chairman, I thought
18
you were never going to ask me.
J. k/
CHAIRMAN STEIN: And you are the host State!
20
MR. EAGLE: Mr. Chairman, conferees, ladies and
21
ii
gentlemen:
22
11
My name is George H. Eagle. I am the Chief
Engineer of the Ohio Department of Health. My Division
of Engineering serves as the technical staff of the Ohio
-------
302
George H. Eagle
Water Pollution Control Board, and I submit this report
2 for the conferees and the Board, and I wish to submit this
3 report in its entirety for the record. However, I will
4 only read parts of it.
i
I
5 CHAIRMAN STEIN: Without objection, this report
6 will be included in the record as if read.
7 (The above-mentioned report follows.)
8 MR. EAGLE: Since the fourth meeting on pollution
9 on Lake Erie, held in Buffalo on March 22, 1967, the
10 Ohio Water Pollution Control Board has taken the following
actions relative to the establishment of water quality
standards:
,,, 1. On April 11, 196?, adopted water quality
16
standards for Lake Erie and the interstate waters
thereof (See Appendix II);
_L O
2. On June 13, 196?, adopted water quality
standards for the Ashtabula River, Conneaut Creek, and
*
Turkey Creek which are interstate tributaries of Lake
Erie (See Appendix II);
.3. On November 14, 1967, adopted water quality
standards for the following intrastate tributaries of
&.,"_
Lake Erie: The Portage River, the Sandusky River, the
Huron River, the Verraillion River, the Black River, and
23
other tributaries of Lake Erie from Maumee Bay on the
24
west to the Black River on the east (See Appendix II); and
25
4. On May 22, 196S, held a public hearing on
-------
303
George H. Eagle
water uses and water quality criteria for the Rocky
River, the Cuyahoga River, the Chagrin River, and the
Grand River (See Appendix II for Conclusions and
Recommendations of the Division cf Engineering).
In addition, I wish to submit for the record the
water quality standards for the interstate and intrastate
waters of the Maumee River and its tributaries, adopted
by the Ohio Water Pollution Control Board on January 10,
1967 (See Appendix II).
With the adoption of water quality standards for
the Rocky, Cuyahoga, Chagrin, and Grand Rivers and their
tributaries, Which is expected to be done by the Board in
the next few months, the establishment of standards for the
entire Ohio portion of the Lake Erie basin will have been
completed.
You will note the Lake Erie water quality
standards adopted by the Board on April 11, 1967, include
two important recognitions of the 1965 Recommendations
and Conclusions of these conferees:
1. "Lake Erie Water Quality Criteria for
Various Uses are:
"1. the stream water quality criteria for
various uses adopted by the Ohio Water Pollution Control
Board on June 14, 1966, which shall apply as a minimum
to all Lake Erie waters in Ohio, and
-------
304
George H. Eagle
1 "2. the existing lake water quality which
2 shall apply where better than the criteria for streams
3 adopted by the Board. The existing lake water quality
4 shall be as reported by the Federal Water Pollution
5 Control Administration in the chapter on Water Quality
6 in report 'Program for Water Pollution Control - Lake .
7 Erie - 1967.'
3 "Lake Erie outside the established harbors at
9 Lorain, Cleveland, and Ashtabula shall meet the Lake
10 Erie water quality criteria for all uses.
H "The Lorain, Cleveland, and Ashtabula harbor
12 waters in Lake Erie shall meet the Lake Erie water qualitf
13 criteria for industrial water supply and aquatic life A."
and the implementation and enforcement plan;
2. "The 'Recommendations and Conclusions, August
15
12, 1965' agreed upon by conferees from Michigan, Ohio,
16
Indiana, Pennsylvania, New York, and the United States
17
Public Health Service following conference under Section
18
£ of the Federal Water Pollution Control Act in the matter
19
of pollution of the interstate and Ohio intrastate waters
20
of Lake Erie and its tributaries held in Cleveland, Ohio,
21
August 3-6, 1965, and in Buffalo, New York, August 10-12,
22
1965, and 'Report of the Lake Erie Enforcement Conference.
23
Technical Committees, March, 196?' are included as a part
24
of this program insofar as applicable to Lake Erie waters
25
-------
305
George H. Eagle
in Ohio."
I believe these adoptions speak for themselves
with regard to furtherance of the conferees recommendations
and conclusions.
Following is Ohio's status report on the
applicable items in the Recommendations and Conclusions
of August, 1965:
-------
George H. Eagle
-4-
306
WASTE TREATMENT
Secondary T re at men t (Items 7 and 22)
Following is a summary of status of schedules placed in effect by the
Board (See Appendix I for detailed listings):
5/68
1) Number of adequate municipal and county
secondary treatment facilities completed
and placed in operation since August, 1965
2) Number of Municipalities, Counties and
other entities jiot haying adequate secondary
treatment facilities at this time
a) Under construction - completion in 1968
b) Construction to be completed not later
than end of 1969
c) Construction to be completed not later
than end of 1970
d) Construction to be completed not later
than 1971
e) Construction to be completed not later
than end of 1972
Total
18
85
10
56
15
103
3/6'
88
25
44
16
96
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307
George H. Eagle
You will note that ten new or improved
secondary wastewater treatment plants have been placed
in operation since our March, 1967, meeting. However, a
number of the plants scheduled for completion this year
had to be moved up to 1969 and later, primarily because of
problems of completing the plans and of litigation.
All of the schedules for the 103 entities reported
on have been included in Water Pollution Control Board
permit conditions. The permit conditions are regularly
reviewed by the staff and the Board. Many municipalities
and counties have been brought before the Board for show
cause hearings and many more will probably have to be
brought in before the program is completed.
Disinfection (Item 9)
As previously reported, where feasible all
sewage effluents being discharged to Lake Erie are required
to be disinfected to meet the public water supply and
recreation waters criteria. Where not feasible at this time
the municipalities and counties are required to incorporate
the necessary facilities in their plans for secondary
treatment or improvements. Four such proposals have been
approved recently.
Removal of Phosphates (Items 7 and
Under date of March 2#, 1963, the Ohio Department
24 II
of Health issued a directive to all municipal and county
25 II
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308
George H. Eagle
1 officials and designing engineers to the effect that
2 in the future all plans, both general and detail, of
3 treatment plant improvements submitted to the
4 Department for approval must make provisions for phosphate
5 treatment or removal (See Appendix II).
6 All of the major municipalities and counties are
7 continuing to study their phosphate problems in existing
plants. Several, notably Cleveland Easterly, Toledo,
Lake County Willoughby-Mentor Sewer District, Cuyahoga
*y
County Rocky River Sewer District, and Painesville, either
are or plan in the very near future to make extensive studie
11 *
of phosphate removal in their plants.
12
Bypassing and Combined Sewers (Items 10 and 11)r
13
An increasing amount of emphasis is being given
14
by the Division of Engineering, Ohio Department of Health
15
and the Ohio Water Pollution Control Board to sewer
16
construction, complete separation of new storm and sanitary
17
sewers, and solving of combined sewer overflow problems.
18
In addition to the directive on separation of sewers reports
19
in June, 1966, another directive on sewer construction
20
was issued on February 1, 1968 (See Appendix II).
21
Wapakoneta, Lima, Toledo, Findlay, Cleveland,
22
and several other municipalities and counties are having
23
engineering studies made of their combined sewer and
24
sanitary sewer overloading problems.
25
-------
309
George H. Eagle
There are two interesting proposals under
2 consideration at Cleveland:
3 One, a holding lagoon in Lake Erie at the
4 Easterly water pollution control works for retention of
5 combined sewer overflows, plant effluent, and
6 storntwaters , and
7 Two, an enclosed bathing beach area in Lake
8 Erie where all d ischarges to the area are regulated
9 and chlorinated and the lake waters within the
area are chlorinated as required to meet bathing water
criteria.
13
14
15
16
17
18
19
20
21
22
23 1
24
25
-------
George H. Eagle
310
Industrial Wastes (Item 16)
Following is a summary of the status of the required treatment or
reduction facilities. The details are given in Appendix I.
1) Number of facilities completed and placed
in operation since August, 1965
2) Number of industries not having adequate
treatment or reduction facilities
a) Under or near under construction-
completion in 1968
b) Construction to be completed not
later than end of 1968
c) Construction to be completed not
later than end of 1969
Total
5/68
28
62
24
32
90
I
3/67
13
82
•"* C
£. D
28
28
95
-------
2
3
4
5
6
7
311
George H. Eagle
The total number of industry entities has
decreased since March 196? because of plant relocations,
discontinuation of certain processes, and various other
such reasons.
You will note that the schedules as previously
reported are being fairly well maintained.
All schedules shown in the tables in Appendix I
0 are included in the permit conditions issued by the Ohio
o
Water Pollution Control Board. These permit conditions
are reviewed regularly by the staff and the Board.
Sampling and reporting of industrial waste
discharges (Items 13, 17, and
These programs are continuing as reported at
13 "
II
the fourth meeting in March 1967. Some problems in
14
connection with data processing have arisen and a
15
consulting firm has recently been employed to assist us<
16
We hope by the end of this calendar year to have all our
data as well as that received from other sources on a
satisfactory processing system.
Surveillance (Item 19)
The State of Ohio is participating in three water
quality monitoring programs for the surveillance of Lake Erie
and its tributaries.
1. A contract between Ohio and the Water Quality
24 II
Branch of the United States Geological Survey has
-------
312
George H. Eagle
established 11 automatic monitoring stations on Lake
2
.Erie tributaries. Five additional monitors will be in
-------
313
George H. Eagle
4. The staff of the Ohio Department of Health is
working with local agencies, primarily health departments
5 on programs for adequate surveillance of all Lake Erie
4 bathing beaches. It is hoped that these programs will be
5 in full operation by not later than the 1969 bathing
6 season.
7 Disposal of Refuse (Item 14)
8 New Legislation.
9 Legislation to control the disposal of solid
10 wastes was enacted by the Ohio General Assembly and became
H effective December 14, 1967. The salient features of the
new law (Sections 3734.01 to 3734.11 inclusive, and Section
13 3734.99 of the Ohio Revised Code) are:
14 1. Grant the Public Health Council (State Board
15 of Health) authority to adopt regulations having uniform
,„ application throughout the state. These regulations would
16
establish minimum standards for the location and operation
of all solid waste disposal sites and facilities,
including those installed to dispose of wastes from domestic,
JL */
commercial, agricultural and industrial establishments.
20
2. Provide for approval by the Department of
& X
Health of plans, facilities, equipment and supplies for
22
_ all solid waste disposal sites and facilities.
*£\.
^^^^m
3. Require annual licensing of all disposal
24
ii
sites and facilities.
11
25
-------
314
George H. Eagle
1
4. For all intents and practical purposes,
2
prohibit open dumping and open burning.
3
5. Provide for inspection and policing of all
4
solid waste disposal sites and facilities by the local
5
and state health departments*
6. Provide for penalties or injunctive action
7 against any person, firm, or corporation, whether public
8 or private, for failing to comply with the provisions of
9 the law or the regulations adopted pursuant thereto.
10 Regulations adopted pursuant to authority granted
11 by Section 3734.02 of the Solid Wastes Disposal Laws were
12 passed by the Public Health Council following a public
13 hearing held on May 18, 1968. The effective date of the
14 regulations is July 1, 1968.
15 In addition to the Solid Wastes Disposal Law
16 described above, the Ohio General Assembly also enacted
17 Section 3767.32 and 3767.33 of the Ohio Revised Code which
18 sections became effective September 21, 1967.
19 These new sections of Ohio law prohibit the
20 disposing of solid wastes of any kind in any manner along
21 the banks of or into any waters of the state.
22 The basic prohibitions of Section 3767.32 are
incorporated in the regulations adopted by the Public
Health Council on May 18, 1968 (effective July 1, 1968).
& T:
Actions.
-------
315
George H. Eagle
All of the eight dumps reported on at the
fourth meeting of the conferees, either have been
abandoned or are in the process of being brought up to
sanitary landfill standards. The new legislation
requires that all work be completed by January 1, 1969»
at which time they will be placed under license or ordered
to be closed.
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316
George H. Eagle
APPENDIX I
1. Municipal and County Waste Treatment Facilities
(Exhibits A-D, inclusive - Schedule of City of Cleveland, Ohio)
2. Industrial Waste Treatment Facilities
-------
31?
George H. Eagle
KEY TO ABBREVIATIONS
Treatment Facilities - Pr. = Primary
Int. = Intermediate
Sec. = Secondary
D = Disinfection by chlorination
S.D. = Sewer District of County
Type Sever System
S = Separate
C = Combined
U.C. = Under Construction
0
I.P. = Plans being -r
-------
STATUS OF MUNICIPAL WASTE TREATMENT FACILITIES
LAKE ERlfi DRAINAGE AREA IN OHIO
BLACK RIVER BASIN
Entity
Cities
Avon
Lorain
1965 Receiving Type Sew.Syat. Date
Pop, Stream Treat. & Design Built
7,651 French Crk S - Sec. 1955
800 PE
(Part of City)
76,910 Black R, S - Pr+D 1956
100,000 PE
Additional
Requirements
New treat, facils
(sec ondary ) for
entire city.
Improvements -
secondary treat.
Approved Schedule
(Completion Dates)
Detail Plans 6-15-68
Construction 12-15-69
Rep.& G.Plan 3-15-67
Detail Plans 6-20-68
Construction 12-15-70
(Yes)
o
CD
O
cw
CD
CD
M
oa
-------
STATUS OP MUNICIPAL WASTE TREATMENT FACILITIES
LAKE ERIE DRAINAGE J^B. IN OHIO
CHAGRIN RIVER MSIN
1965
Entity Pop.
Villages
Aurora 1* ,725
Sewer Districts
Qeauga County
Bainbridge Twp, 8.D.12
Ravenwood Subdiv.
Bainbridge Twp. S.D.#3
Receiving
Stream
Chagrin R.
Me Far land
Creek ,
Chagrin R.
Chagrin R,
Type Sew.Syst. Date
Treat. & Design Built
S - Sec. 1928
2,500 PE
3 - Sec, 1966
100 PE
No public
sewers.
Additional
Requirements
Improvements -
None
Sewers & connection
to Chagrin Falls
Approved Schedule
( Completion Dates)
Rep. & G. Plan - Approved
Detail Plans U-15-67 (Yes)
Construction 10-15-69
In oper. 1966
vo
-------
STATUS OF MUNICIPAL WASTE TREATMENT FACILITIES
LAKE ERfE DRAINAGE AREA IN OHIO
CUYAHOGA RIVER BASIN
Entity
Cities
Akron
1965
Pop.
298,052
Receiving
Stream
Cuyahoga R.
Type Sew.Syst.
Treat, & Design
S-Sec.+Prechl.
Date
Built
'29, '57
Additional
Reauirercents
Addtnl treat. facils
Approved Schedule
( Completion Dates)
Phase I - Under construct.
Cleveland 858,823
21 Trlb.Munic's
Independence
Kent
Maple Heights
Solon
7,769
23,286
330,000 PE
Cuyahoga R. S & C
Southerly
Sec.
680,000 PE
Cuyahoga R, No public
sewers.
Cuyahoga R. S - Sec.+D
53,000 PE
3^,612 Swan Crk
S - Seo.+D
10,000 PE
8,032 Trib.of S - Sec.+D
Cuyahoga R. 7,000 PE
7,800 PE-New
(Phase I - addtnl
second.treat.)
(Phase II - addtnl
primary treat,)
'27,'38,'56 Addtnl treat.facils
1955
1962
New treat, facils -
secondary.
Complete construct.
second.treat.facils.
Complete construct.
new facils - second.
Complete construct.
new N.E. facils.
Phase II—Det.PI.9-15-67'
Construction
early 1970
(NO i.p.y
See attached schedule -
City of Cleveland
Rep.&G.Plan 6-15-6? (Yes)
Detail Plans 6-15-68
Construction 12-15-69
6/67 (Yes)
V67 (Yes)
9/67 (Yes)
(D
O
0>
a
*
to
o>
10
M
O
-------
STATUS OF MUNICIPAL WASTTj^jEATMENT FACILITIES
LAKE ErflE DRAINAGE^WEA IN OHIO
CUYAHOGA RIVER BASIN - Contd.
Entity
Villages
Mantua
Middlefield
Munroe Falls
Northfield
1965
Pop.
1,239
1,566
2,8U9
3,156
Receiving
Stream
Cuyahoga R.
Trib.of
Cuyahoga R.
Cuyahoga R,
Trib's of
Type Sew.Syst. Date Additional
Treat. & Design Built Reouirements
S
1
C
1
2
S
- Sec.
,000 PE
- Pr.
,800 PE
,81»9 PE
- Sec.+D
1915 New Treat, facils -
secondary.
'5**, '57 Improvements -
secondary treat.
Sewers and
connection.
'59, '65 None
Approved Schedule
(Completion Dates)
Under construct. 1+/6?
Detail Plane 6-15-6?
Construction 8-15-68
Part of Summit County
Mud Brook Project.
Improvements corn-Dieted.
(Yes)
(Yes)
Oakwood 3,283
(Cuyahoga Co.)
Sewer Districts
Cuyahoga County
Brecksville 8.D.#13
(Brecksville)
Brecksville S.D.013
Southern Estates
Portage County
Aurora Acres S.D,
Ravenna S.D.01
Lakeview Gardens Allot.
Cuyahoga R, 5,965 PE
Trib.to S - Prim. 19^0
Tinkers Crk 200 PE
Cuyahoga R, S - Sec,+D 1962
10,000 PE
Cuyahoga R. S - Sec.+D 1966
300 PE
Trib.of S - Sec.+D 1958
Tinkers Crk 1*00 PE
Breakneck S - Sec.+D 1963
Creek 200 PE
New treat, facils
secondary.
1965.
Rep.fc G.Plan 3-15-6? (Yes)
Detail Plans 7-15-6? (No)
Construction 9-15-68
Improvements - Rep.& G.Plan 12-15-6? (Yes)
addtnl treat. facils. Detail Plans 1-15-69
None
None
None
Completed in 1966.
CD
-i
cm
CD
ft>
ro
-2-
-------
STATUS OF MUNICIPAL WASTE TREATMENT FACILITIES
LAKE ERIE DRAINAGE AREA IN OHIO
CUYAHOGA RIVER BASIN - Contd.
Entity
1965 Receiving Type Sew.Syst, Date Additional
Pop, Stream Treat.& Design Built Requirements
Approved Schedule
(Completion Dates)
Portage County - contd,
Shalersville S.D.#2
Bolingbrook Allot.
Streetsboro S.D.#2
Rolling Hills Acres
Summit County
Munroe Falls S.D.
Plant #11
Northampton SD-Plant #2
Hidden Valley Subdiv,
Northampton SD-Plant #3
Bellridge Subdiv.
Northeast SD-Plant #9
Macedonia Estates
Stow Twp. SD-Plant fa
Cuyahoga R, S - Sec.+D
128 PE
Trib.of S - Sec.+D
Tinkers Crk UOO PE
Trib.of S - Sec.+D
Cuyahoga R, 150 PE
Trib.of S - Sec.+D
Mud Brook UOO PE
Trib.of S - Sec.+D
Mud Brook 200 PE
Brandywine S - Sec,+D
Creek 300 PE
Cuyahoga R, S - Prim,
2,000 PE
I960
1961
1961
1958
1959
1961
None
None
None
None
None
None
Construction of
Interc.ProJ ect*
O
o>
o
CD
a
0)
Bids taken 5-1-6? (Yes)
U.C. 1-2-68
* - bummit Co,-Mud Brook Intere,ProJ.-Det,Plans apprvd & Fed.Grant Offer made,
-3-
JO
-------
STATUS OF MUNICIPAL WASTMBEATMENT FACILITIES
LAKE ERIE DRAINAG^HlEA IN OHIO
GRAND RIVEREASIN
1965
Entity Pop L
City
Painesville 17,689
Villages
Fairport Harbor 1*,260
Grand River 1*77
Orwell 830
Sever Districts
Lake County
Concord S.D.
Little Mtn Park Bubdiv.
Leroy S.D.
Sunshine Acres Bubdiv.
Willoughby-Mentor S.D,
Beaver Creek Colony
Receiving
Stream
Grand R.
Grand R.
Grand R,
Grand R.
Kellogg
Creek
Trib.of
Big Creek
Kellogg
Creek
Type Sew.Syst,
Treat. & Desipn
S - Int.+D
2l*,326 PE
S - Int.+D
6,000 PE
No public
sewers .
No public
sewers.
S - Sec.+D
1*00 PE
S - Sec.+D
250 PE
S - Sec.+D
200 PE
Date Additional
Built Reauirements
1958 Improvements -
secondary treat.
1958 Improvements -
secondary treat.
New treat, facils -
secondary.
New treat, facils -
secondary.
'62, '65 None
1963 None
1963 None
*(l) Study re: secondary underway
Approved Schedule
(Coranletion Dates)
Rep.& G.Plan 12-31-67(No*IP)
Detail Plans 9-30-63
.Construction 12-31-70
Rep. & C.Plan 7-15-67(No IP)
Detail Plans 5-15-68(No)
Construction 10-15-70
Detail Plans 12-15-67(No.IP)
Construction 12-15-69
Detail Plans 3-15-67(Yes)
Construction 11-15-63 UC
O
(D
O
cm
(D
X
t^
flj
h-1
(D
VjJ
JO
-1-
-------
STATUS OF MUNICIPAL WASTE TREATMENT FACILITIES
LAKE ERIE DRAINAGE AREA IN OHIO
GRAND RIVER BASIN - Contd,
Entity
1965
Pop.
Receiving
Stream
Type Sew.Syst.
Treat. & Design
Date
Built
Additional
Requirements
Approved Schedule
(Completion Dates)
Trumbull County
Warren Champion S,D,
Subdistrict 1-A
Durst Allotment
Trib.of
Center Crk
S - Sec.+D
UOO PE
1961
None
(D
O
(0
to
-2-
ro
-P-
-------
STATUS OF MUNICIPAL WASTE TREAT^jNT FACILITIES
LAKE ERIE DRAINAGE AREA^P OHIO
HURON RIVER BASIN
Entity
Cities
Huron
Norwalk
Villages
Milan
1965 Receiving
Pop, Stream
6.U62 Huron R.
lU ,19** Rattlesnake
Creek
1,563 Trib.of
Type Sew.Syst,
Treat. & Design
S & C (2 Pits)
Int. + D
6.UOO PE
2,100 PE
S & C
Sec. + D
26,000 PE
S - Pr.
Date
Built
196U
•31, '6U
'32, '6U
'Ul,'62
Additional
Reouirements
Improvements -
secondary treat.
Improvements -
addtnl second. treat.
New treat, facils -
Approved Schedule )
(Completion Dates)
Rep.& G.Plan 6-15-67 (No)
Detail Plans 6-15-63
Construction 11-15-70
Construction 12-15-68 u.C.
Bids 3-22-67 (Yes) U.C.
Monroeville l,Ul3
Plymouth
1,953
Huron R, 600 PE
W.Branch C - Pr.+D
1,700 PE
Huron R. C - Sec.
2,UOO PE
secondary.
1959 Improvements -
secondary treat.
1966 None
O
(D
O
(D
Rep.& G.Plan 6-15-67 (Yes)
Detail Plans 6-15-63 $
Construction 12-15-69 ^
; (0
Construct.complete 1966 ;
ro
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STATUS OF MUNICIPAL WASTE TREATMENT FACILITIES
LAKE ERIE DRAINAGE AREA IN OHIO
MAUMEE RIVER BASIN
Entity
1965 Receiving Type Sew.Syst. Date Additional
Pop. Stream Treat.& Design Built Requirements
Approved Schedule
(Comnletion Dates)
Cities
Defiance
Delphos
Findlay
St. Marys
Toledo
Van Wert
16,058 Maumee R. S & C-Int.+D
23,000 PE
7,l*0l* Jennings C - Sec.+D
Creek 7,500 PE
,061 Blanchard S & C - Sec,
River 30,000 PE
8,275
St.Mary8
River
363,297 Maumee R.
8 - Sec.
22,900 PE
S & C - Sec.+D
U20.000 PE
1957
'31, '55
'31,
Perryaburg 6,553 Oraasy Crk C-Int.+Prechl. 1959
'31,'59
11.68U TriVa to S & C - Sec.+D '35,'36
Auglaize R, 2U,200 PE (BOD)
12,U50 PE (S.S.)
Improvements -
secondary treat.
Detail Plans 9-15-6? (No IP)
Construction 0-15-69
Improvements - Rep.fc O.Plan 3-15-60 (No IP)
addtnl treat, facils. Detail Plans 3-15-69
Construction 9-15-70
Improvements -
(incl.disinfect.)
Improvements -
secondary treat.
& disinfect.
Improvements -
(incl.disinfect.)
Improvements -
Sludge Hand.Facils
Treat.Facils
Improvements -
addtnl treat.facils
Rep.& G.Plan approved
Detail Ple.ns 7-15-67
Construction 6-15-69
Rep.& G.Plan 6-15-67 (No IP)
Detail Plans 6-30-68
Construction 12-31-69
Detail Plans 6-15-6? (Yes)
Construction 6-15-69
Under Constr. 2/6?
Rep.& G.Plan 7-15-6? (Yes)
Detail Plans 8-15-68
Construction 2/72
Rep.& G.Plan 5-15-6? (No IP)
Detail Plans 8-15-68
Construction 12-15-69
Plans approved 12-29-67
-1-
M
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STATUS OP MUNICIPAL WASTE TREJ^ENT FACILITIES
LAKE ERIE DRAINAGE ARE^R* OHIO
MAUMEE RIVER BASIN - Contd.
Entity
Villages
Antwerp
1965
Pot>.
1.61U
Receiving
Stream
Maumee R,
Type Sew.Syst.
Treat.fi: Design
S & C
Date
Built
-
Additional
Requirements
New facils -
Approved Schedule
(ConrDletion Dates)
Rep.& G.Plan 6-15-6?
(Yes)
Columbus Drove 2,150
Crideraville 1,210
Elida
Forest
Hamler
Haskina
Holgate
Liberty Center
1.U12
1,370
6U8
No Treat,
Trib.of S - Sec.+D
Auglaize R, 5,000 PE
Trib's to S - Sec.
Auglaize R. 2,000 PE
Ottawa R. C - Sec.
3,000 PE
Trib.of S & C
Blanchard R.
Turkeyfoot No public
Creek sewers.
Haskins S - Pr.
Creek 200 PE
Trib.of No public
Turkeyfoot sewers.
Creek
incl.second.treat.
Dry Crk
No public
sewers.
1937
1966
1939
Detail Plans 6-15-60
Construction 12-15-69
Improvements - Now under construction.
addtnl treat.facils. Construction 12-15-6? (Yes)
None
Complete new facils
incl.second.treat.
Complete new facils
incl.second.treat.
New facils incl.
secondary treat.
Improvements -
secondary treat.
New facils incl,
secondary treat.
New facils incl.
secondary treat.
Treat,facils completed 1966.
Under construction -
In operation 7/6?. (Yes)
Under construction -
In operation 6/6?. (Yes)
Detail Plans 5-15-68(No IP)
Construction 12-15-69
Rep.& G.Plan 5-15-6? (NO)
Detail Plans 7-15-63
Construction 12-15-69
Detail Plans 3-l5-6?(No IP)
Construction 5-30-68
Rep.& G.Plan 9-15-6? (Yes)
Detail Plans 7-15-60
Construction 12-15-69
VuO
to"
-2-
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STATUS OF MUNICIPAL WASTE TREATMENT FACILITIES
LAKE ERIE DRAINAGE AREA IN OHIO
MAUMEE RIVER BASIN - Contd.
Entity
Villages - contd,
Montpelier
Northwood
Ohio City
Ottawa
Pandora
Payne
Rockford
Sherwood
1965
Pop.
U.259
3,81*3
856
3,1»75
803
1,321*
1,172
6U9
Receiving
Stream
St. Joseph
River
Grassy Crk
Trib'a to
Auglaize R,
Blanchard
River
Trib.of
Blanchard R
Trib.of
Auglaize R,
St .Marys
River
Trib.of
Sulphur
Type Sew.Syst. Date
Treat. & Design Built
C - Prim, 1958
5,150 PE
No public
sewers .
No public
sewers .
C - Sec.+D 1955
5,800 PE
No public
, sewers.
C - Sec,
2,700 PE
C - Prim, 1959
1.2UO PE
No public
sewers.
Additional
Requirements
Improvements -
secondary treat.
Negot . agreements
with Toledo and
Wood County for sewer
connect, to city sewer
system.
New facils incl,
secondary treat ,
Improvements -
addtnl capacity.
New facils incl.
secondary treat.
New facils incl,
secondary treat.
Improvements -
secondary treat.
New facils incl.
secondary treat.
Approved Schedule
(Completion Dates)
Detail Plans 2-15-68 (No IP)
Construction 12-15-69 -
Report by 9-15-67 - (Yes)
Now in County Sever Dist.
Detail Plans 8-1-67 (Yes)
Construction 12-15-68
Rep,& G.Plan 7-15-67 (Yes)
Detail Plans - approved
Construction 1-15-69
Under constr. early 1967 (Yes)
In operation -early 1968
Rep.& G.Plan 9-15-67 <-*- (NO)
Detail Plans U-15-60
Construction 8-15-69
Rep.& G.Plan 8-15-67, (NO)
Detail Plans 5-15-66
Creek
Construction 9-15-69
-3-
03-
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STATUS OF MUNICIPAL WASTE TRM»1ENT FACILITIES
LAKE ERIE DRAINAGE AR^PCN OHIO
MAUMEE RIVER BASIN - Contd.
Entity
1965 Receiving Type Sew.Syst. Date
Pop. Stream Treat.?< Design Built
Additional
Reauirements
Approved Schedule
(Conroletion Dates)
Villages - contd,
Stryker l,28l
Waterville
West Leipsic
2,175
Trib.of C - Sec.
Tiffin R. 1,600 PE
Maumee R. C - Sec.
1,500 PE
3^0 Trib's to No public
Beaver Crk sewers.
Weston
West Unity
Leipsic
1,120
1,550
1,81*
Tontogany
Creek
Trib.of
Tiffin R.
Trib. of
Maumee R.
C - Sec.
1,500 PE
No public
sewers.
C - Sec.
2,500 PE
1965 None
1958 Improvements to
treatment facils.
- Financial problem
to make tributary
to Leipsic.
Constr.of facils
pending.
New facils incl.
secondary treat.
1938 None
Treat.facils completed 1965.
Rep.& G.Plan 7-15-6? (No)
Detail Plans 7-15-68
Construction 12-15-69
12/66 Bids over estimate;
financial problem. UC 12/67
Detail Plans 6-15-67(No)
Construction 12-15-69
ro
vO
-------
STATUS OP MUNICIPAL WASTE TREATMENT FACILITIES
LAKE HUE DRAINAGE AREA IN OHIO
OTTAWA RIVER BASIN
Entity
19o5 Receiving Type Sew.Syst, Date
Pop. Stream Treat.& Design Built
Additional
Requirements
Approved Schedule
(Conroletlon Dates)
Sylvan! a
7,650
Sewer Districts
Lucas County
Metropolitan S,D.
Holland Subdist,
Metropolitan S,D,
Sylvan Woods Subdiv,
(Sewer #U59)
Tenraile Crk S - Sec.+D
3,000 PE
Trib.of
Maumee R,
Trib.to
Tenraile
Creek
No public
sewers.
S - Sec.-fD
600 PE
1957
1966
Flow in excess of
plant capac.to be
discharged to
Toledo sewer syst.
New facile incl.
secondary treat.
None
Construction complete
by 6/6? (Yes)
Rep,& G.Plan 3-15-6? (Yes)
Detail Plans 6-1-6? (No)
Construction 1-15-69
-------
STATUS OP MUNICIPAL WAST^^EATMENT FACILITIES
LAKE ERIE DRAINAGE^REA IN OHIO
PORTAGE RIVER BASIN
Entity
City
Port Clinton
Villages
Bloomdale
Elmore
Me Comb
Oak Harbor
1965
Pop.
7,352
703
1,360
1,269
3,128
Receiving
Stream
Portage R,
S , Branch
•Portage R,
Portage R.
N. Branch
Portage R,
Portage R,
Type Sew.Syst,
Treat. & Design
8 & C-Int.+D
15,000 PE
No public
sewers.
Misused storm
drains .
3 & C-Pr,+D
1,000 PE
3 - Pr.+D
Date
Built
1956
-
-
1937
1958
Additional
Requirements
Improvements -
secondary treat.
New facils incl.
secondary treat.
New facils incl,
secondary treat.
Improvements -
secondary treat.
Improvements -
Approved Schedule
(Completion Dates)
General Plans Approved 3-21-6?
Detail Plans 6-15-6? (No IP)
Construction l*-15-69
General Plan (Yes)
Detail Plans 2-15-68 (NO)
Construction 12-15-69
Detail Plans 12-15-6? (Yes)
Construction 12-15-69
Detail Plans - approved(Yes)
Construction 12-15-60
Rep.& G.Plan 8-15-6? (NO jp)
Pemberville
Woodville
U.OOO PE
1,278 Portage R, Misused storm
drains,
1,878 Portage R, Misused storm
drains.
secondary treat.
New facils incl.
secondary treat,
New facils incl,
secondary treat.
Detail Plans 8-15-68
Construction 12-15-69
Rep.& G.Plan 6-15-6? (Yes)
Detail Plans 12-15-68
Construction 12-15-69
Rep.& G.Plan 8-15-6?(No IP)
Detail Plans 8-15-63
Construction 12-15-69
Other Entity
Cainp Perry
1966 data-North Baltimore 3,150
Bowling Green 17,753
Lacarpe
Creek
S.Br.
Portage R.
Poe Ditch
S - Sec.+D
15,000 PE
C - Sec.
3,500
S,C - Sec.+D
59,127
19^2
I960
1961
None
None
None
-------
STATUS OF MUNICIPAL WASTE TREATMENT FACILITIES
LAKE E"RIE DRAINAGE AREA IN OHIO
ROCKY RIVER BASIN
Entity
Cities
Berea
Broadview Heights
Lakewood
Middleburgh Hta,
1965
Pop.
19.6U3
8,588
70,209
9,911
Receiving
Stream
E, Branch
Rocky R.
Trib.of
Rocky R.
Rocky R.
Abrara Crk
Type Sew.Syst.
Treat. & Desipn
S - Sec.+D
20,000 PE
No public
sewers .
S-C Sec.+D
130,000 PE
S - Sec.
2,000 PE
Date
Built
'36, '51
& '65
-
1965
1950
Additional
Reauirements
Improvements -
addtnl treat .facils .
New facils incl.
secondary treat.
None
New facils incl.
secondary treat.
Approved Schedule
(Convoletion Dates)
Under construct. 196? (Yes)
Construction 6-1-69
Detail plans 1-1-68 (No IP>
Construction 12-31-70
Completed new plant 1965(Yes)1
Bids h-9-67
Under construct. 5/6? (Yes)
North Royalton 11,101
Baldwin Crk S-(2 Pits)
E.Branch Sec.+D
Rocky R. Total ll.UOO PE
Strongaville
11,502
Village
Olmsted Falls 2,281*
E & W
Branches
Rocky R.
Plum Crk
W.Branch
Rocky R.
S-(3 Pits)
Sec.+D
Total 7,3^7 PE
Misused storm
drains,
Construction 12/68
(Same as Cuyahoga Co.-Middleburgh Hts.. S.D.)
1966 - (Detail Plans for *(l)
- Sew.Dist."C" to be
revised.)
1966 - Construction completed (Yes)
in 1966.
New facils incl.
secondary treat.
To advertise for bids 5/j57'
Construct 8-69 (®°
*(l) To connect to County Trunk Sewer
VjO
-1-
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STATUS OF MUNICIPAL WASTE TR«MENT FACILITIES
LAKE ERIE DRAINAGE ArSPlN OHIO
ROCKY RIVER BASIN - Contd.
1965
Entity Pop.
Sewer Districts
Cuyahop.a County
Middleburgh Hts. S.D.
Baldwin Creek
Lorain County
Sewer District #60
West River Subdiv.
Sewer District. 060
West View Park Subdiv.
Medina County
Sewer District #9
Hinckley Lake Estates
Sewer District #11
Village Homes Subdiv.
Receiving
Stream
Abram Crk
W, Branch
Rocky R.
W, Branch
Rocky R.
E, Branch
Rocky R.
W. Branch
Rocky R.
Type Sew.Syst. Date
Treat. & Design Built
S-Sec.
2,000 PE
•
S-Sec. 1959
60 PE
No public
sewers.
S-Sec. +D 1961
100 PE
S-Sec. +D 1966
123 PE
Additional
Reauirerr.ents
Approved Schedule
(Corn-Diet ion Dates)
Same as City of Middleburgh Hts. above. u.C. (Yes)
" " U.C. (Yes)
None
Sewers & new treat,
facils - secondary.
None
None
Rep.& G.Plan 3-1-6? (Yes)
Detail Plans 6-l-6?(Yes)
Construction 12/68
-------
STATUS OP MUNICIPAL WASTE TREATMENT FACILITIES
LAKE ERIE DRAINAGE AREA IN OHIO
SANDUSKY RIVER BASIN
Entity Pop.
1965 Receiving Type Sew.Syst. Date
Stream. Treat.& Design Built
Additional
Requirements
Approved Schedule
(Completion Dates)
Cities
Fremont
Tiffin
Villages
Attica
Bloomville
20,058 Sandusky R, C-Sec.+D
128,500 PE
22.U75 Sandusky R, C - Pr.+D
25,000 PE
1,012 Honey Crk
862 Honey Crk
Upper Sandusky 9,286
Sever Districts
Sandusky County
Sewer District
Seneca County
Clinton Township
Misused storm
drains,
Misused storm
drains,
Sandusky R, S-Sec,+D
7,000 PE
Muskellunge No treat.
Creek
Gibson
Creek
No treat.
19149.66 None
1956
1956
Improvements -
secondary treat,
New facils incl.
secondary treat.
New facils incl.
secondary treat.
Corn-Dieted construction 1966
(Yes)
Under construct. )4-15-6?(Yes)
Construction 7-15-68
Rep.& G.Plan 6-15-67(No IP)
Detail Plans 6-15-68
Construction 12-15-69
Rep.& G.Plan 8-15-67 (Yes)
Detail Plans 6-15-68
Construction 12-15-69
Improvements - Rep.& G.Plan 3-15-68(yes)
addtnl treat.facils. Detail Plans 3-15-69
Construction 9-15-70
Sewers & connection Detail Plans 1-15-68 (Yes)
to Fremont sew.syst. Construction 1969
Sewers & connection Detail Plans 11-15-67 (No)
to Tiffin sew.syst. Construction 1968
-------
STATUS OP MUNICIPAL WASTE TR
LAKE ERIE DRAINAGE
VERMILION RIVER BASIN
T FACILITIES
OHIO
Entity
1965 Receiving Type Sew.Syst. Date
Pop. Stream Treat.& Design Built
Additional
Reauirements
Approved Schedule
( C envoi ct ion Dates)
City
Vermilion
7,723
Vermilion
River
8-2 Pits
Pr. + D
U,000 PE
1,500 PE
1921 New facils incl.
1957 secondary treat.
Under construct. 3/6? (Yes)
Construction 3/69
O
(D
O
(D
w
0>
vn
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STATUS OP MUNICIPAL WASTE TREATMENT FACILITIES
TRIBUTARY TO LAKE ERIE
Entity
1965 Receiving Type Sew.Syst. Date
Pop. Stream Treat.& Design Built
Additional
Requirements
Approved Schedule
(ConvDletion Dates)
Cities
Amherst
Bellevue
Conneaut
Westlake 1^
Villages
Green Springs I,3l6
8,617
8.8U6
ll*,951
Madison
Walbridge
1,1*35
2,81*7
Beaver Crk S - Sec.
10,000 PE
Big Ditch
Pipe Crk
.Conneaut
Creek
No public
sewers.
S-Int.+D
17,000 PE
Porter Crk No public
sewers,
'27, '57
1957
Trib's to
Sand. Bay
Big Creek
Cedar Crk
S & C - Pr,
1,300 PE
S - Sec,
1,500 PE
S - Sec,
2,000 PE
S-Pr,+D
1,000 PE
1936
1929
1967
19U1
Improvements -
addtril treat .facils.
New facils incl.
secondary treat.
Improvements -
secondary treat.
Connection to County
Sew. Dist .System.
Improvements -
secondary treat .
Rep.& G.Plan 12-15-67 (Yes)
Detail Plans 12-15-63 (Yes)
Construction 6-15-70
Under constr. early 1967(No)
Construction 9-1-69
Rep.& G.Plan 3-15-67 (Yes)
Detail Plans l-15-68(No) *(l
Construction 10-15-69
Depends on current
litigation re financing
(Cuyahoga County project).
Detail Plans 7-15-67 (Yes)
Construction 12-15-68
Completely new facils-Construction 6/67 (Yes)
secondary treatment.
Complete sewer
connect. to Toledo
sewer system.
Under construction.
To complete connection (Yes)
6-15-67
Water Pollution Control Board approved
schedule - detail plans due U-69
-------
STATUS OP MUNICIPAL WASTBWEATMENT FACILITIES
TRIBUTARY TO LAKE ERIE - Contd.
Entity
1965
Pop.
Receiving
Stream
Type Sew.Syst.
Treat.?* Design
Date
Built
Additional
Requirements
Approved Schedule
(Completion Dates)
Sewer Districts
Erie County
Perkins-Margaretta S.D. Pipe Crk No public
Subdistrict B sewers.
Lake County
Painesville S.D. #3 Marsh Crk S-Sec.-fD
Villa Rio Subdiv, 75 PE
V/illoughby-Mentor S,D, Trib.of S-Sec.+D
French Hollow Estates #9 Marsh Crk 100 PE
Lucas County
Metropolitan S.D. Shantee S-Sec,+D
Fuller's Creekside Subdiv. Creek 1000 PE
Wood County
Main Sewer Diet, 09 Cedar Crk S-Sec.+D
Sanitary S.D. #1 260 PE
Indian Trails Estates
New treat.facils
(secondary) or
connection to City
of Sandusky sew.syst.
1963 None
196U None
1962 None
1963 None
Rep.& G.Plan early '6? (Yes)
Detail Plans 8-1-68
Construction 12-15-69
o
(D
O
*J
TO
(D
X
•
Cd
&
M
a>
-------
STATUS OF MUNICIPAL WASTE TREATMENT FACILITIES
DIRECT TO LAKE ERIE
Entity
Cities
Ashtabula
Avon Lake
Cleveland
Euolid
Oregon
Sandusky
1965
POD.
25,036
11,992
858,823
•f 1»81*,1»23
21 Trib.Munic's
66,7»*2
lU.829
33.8U1
Receiving Type Sew.Syst.
Stream Treat , & Design
L.Erie S-Int.+D
55,000 PE
L.Erie C-Int.+D
16,590 PE
S & C
L.Erie Easterly
Sec. + D
1,230,000 PE
L.Erie Westerly
Prim, + D
360,000 PE
L.Erie S-Int.+D
100,000 PE
L.Erie
L.Erie S & C Pr.+D
1*9,300 PE
Date Additional
Built Reouirements
1955 Improvements -
secondary treat.
196l Improvements -
secondary treat.
1938 Addtnl treat. facils.
'22, '57 Addtnl treat. facils.
I960 Improvements -
secondary treat.
New facils incl.
secondary treat.
(Part trib.to Toledo
1959 Improvements -
secondary treat.
Approved Schedule
(Comt>leticn Dates)
Rep.& G.Plan 3-15-6? (Yes)
Detail Plans 6-15-63
Construction 10-30-70
Rep.fc G.Plan early '6T4Yes)*(l)
Detail Plans 2-15-68
Construction 1970
See attached schedule -
City of Cleveland.
ditto
Rep.& G.Plan 5-1-67 (No IP) *1
Detail Plans 6-1-68
Construction 6-30-70
Rep.& G.Plan approved (Yes)
Detail Plans 7-30-63
Construction 12-30-69
;remainder no pub. s ever s. )
Rep.& G.Plan early '67 (Yes)
Detail Plans 6-30-68
Construction 11-30-70
*(l) Pilot study underway
-1-
03.
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STATUS OF MUNICIPAL WASTE
DIRECT TO LAKE E
ENT FACILITIES
1965 Receiving
Entity Pop. Stream
Cities - contd.
Willoughby(&) 3^,525 L.Erie
Villages
Geneva-on- 706 L.Erie '
the-Lake
Harbor View 280 L.Erie
Sever Districts
Cuyahoga County
Rocky River S.D, #6 L.Erie
Erie County
E.Erie Co. Sever & Wat.Dist, L.Erie
Ruggles Beach-Mittivanga
Lake County
Madison S.D. #1 L.Erie
Type Sew.Syst.
Treat. & Design
S-Int.+D
33,800 PE
S-Pr.+D
5,000 PE
No public
severs .
S-Int.+D
160,000 PE
8-Pr.+D
1,300 PE
S-Int,+D
9,000 PS
Date Additional
Built Requirements
196l Improvements -
secondary treat.
1928 Improvements -
secondary treat.
1962 Improvements -
secondary treat.
1921 Improvements -
secondary treat.
'2U,'62 Improvements -
secondary treat.
Approved Schedule
(Corrvoletion Dates)
Rep.& G.Plan k-15-67 (No)
Detail Plans 7-15-63
Construction 7-15-70
Rer>.& G.Plan 6-15-67 (Yes)
Detail Plans 6-15-68
Construction 12-15-69
To be tributary to
Oregon's sew.syst.
(See Oregon above.)
Rep.& G.Plan early '67 (No IP)
Detail Plans 6-15-67 (no)
Construction 9-15-69
Rep. & G.Plan 3-1-67 (Yes)
Detail Plans 8-1-68
Construction 12-15-69
Re-o.& G.Plan 1-1-63 (jjo IP)
Detail Plans 1-1-69
Willoughby-Mentor S.D,
L.Erie
S-Int.+D
1965
ditto
Construction 1-1-71
ditto (NO IP)
(a) - Eastlake - 27,525 pop. - trib.to Willoughby severage system.
*{l) Pilot study re: secondary treatment_2.underway
-------
SOUTHERLY PLANT
CITY OF CLEVELAND.. OHIO
EXHIBIT: A
CONTRACT
Completion Date
Detail Plans
Est. Total Cost
Period of Construction Incl. Engr. etc
Stfyrt Completion £ 15%
New Secondary Treatment
Facilities
Pre-Treatment Expansion
Service BldQ. Conversion
Post-Chlorination Facil.
Primary Digester Gas
Mixing
Roads anci Lighting
Jan. 1967 *(Yes) Sept 1967 Dec. 1969
June 1968 ** Sept 1968 Dec. 1969
June 1968 ** Sept 1968 Dec. 1969
June 1968 ** Sept 1968 Dec, 1969
June 1960
June 1969
* Design Authorised
** Design to be Authorized Jan. 1967
Sept 1968 Dec. 1969
Sept 1968 Dec. 1969
§5,756,000
980,000
517,000
400,000
575,000
345.000
$8,573,000
O
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.EASTERLY PLANT
CITY HI Jfc'M I li'lfl. MllTfl
EXHIBIT B
CONTRACT
Est. Total Cost
Completion .Date Period of Construction Incl. .Engr. etc
jDetnil Plans Start Completion • . ' 3 15%
New Pnnary Settling
ten'-tE 6, Enlargements
4 IZew Final Settling
Tan'-.s & Enlargements
Aeration. Tan); Irnprov
New Grease & Scum Handling
& Disposal Facilities
New Southerly Sludge
Pur.ip Facilities
New Detritus Tanks &
Comminutors
Collinwood. Interceptor
& Overflow Revisions
Miscel. Plant Improv,
June
June
June
June
June
June
June
June
1967
196b
1963
1967
1967
1968
1968
1968
*( Yes) Sept;
•** Sept
** Sept
*(Yes) Sept
* (Yes) Sept
Sept
Sept
Sept
•1967
1963
I960
1967
1967
1968
1968
1968
Dec.
Sept
Sept
Dec.
;Dec.
July
.July
July
1969
1970
1970
1969
1969
1970
1970
1970
$2,990,
1.104,
1,966,
414,
299,
1,035,
173,
460.
000
.000
000
000
000
000
000
000
o
CM
(0
ac
- *
t?d
Oj
I_J
(0
* Design Authorized
** Design to be Authorized Jan, 1967
Based on project receiving at least Federal Grant Aid
$8,441,000
VjJ
-P-
-------
WESTERLY PLANT
CITY OF CLEVELAND. OHIO
EXHIBIT C
Completion Date
Ice:r
I te:?.
Item
ICC.T.
leer1.
Item
CONTRACT
1 Site Wor>;
? Plant WorX
? Lift Stctior.
4 Digester Facilities
5 Sluc.ge Disposal
Facilities
6 Miscellaneous
Detail Plans
June
June
June
June
June
Jiine
1?6? * (No)
156d •
1969 *
1969 «
1969 *
1969 *
Est. Total
Period of Construction Incl. Engr
Stert
Sept
Sent
Sept
Sept
Sept
Sept
1967
19 6b
1969
1969
1969
1969
Completion
June
Dec.
Dec.
Dec.
Scot.
-
Dec.
1960
1970
1970
1970
1971
1971
15%
? 5,o69,
3,651,
1,505,
72B,
1.775,
202,
<•• 1 O ITT
Cost
. ere.
000
000
000
000
000
000
r\ r\ r\
(D
O
TO
(D
33
W
95
TO
* Design to oe Authorized Feb. 1967
Based on projects receiving at least Federal Grant Aid
-------
343
George H. Eagle
_KXHJBJT__D_
WATER POLLUTION' CONTROL BOARD
DATA RE CURRENT PROGRAM OF IMPROVEMENTS
DATE: January 5. I'K//
NAME OF PERMITTEE: City of Clove Lone-
ADORES3: 601 Lakeside Ave.
Cleveland, Ohio - 44114
SUBURE'.A.N TRUNK SEWKp.S PROJECT
Nci uie of Consult i nq jlrnj i peer: Consul Li mj En-j infer or Engineers
will oe retained after logislri tion authorising employment of:
consulting engineers is passed by the Cleveland City Council.
The original legislation that wa.s prepared to qo to City
Council the early part of October 1966 was withhe.lt1 so that
the City could explore more carefully and fully the possi-
bility of city forces do.incj some of the engineering wjr'<.
This legislation wil.l nov.' cjo to the City Council for their
corisif^erotj.on on January 9. 1967.
Completion. Date of General Plan; E'st.invitee? to be lv-<_ . 'U, 1.967. (no)
Completion Date of Detoil Plans.: Estimated to be Dec. ?.l,
Financina Progrs;n:_ The total cost of the Suburban trunk Sewer
Project has been estimated at $.70, 500.000.
The finnnciny of Engineeriiuj for General, anc1
Detail Plans includijicj s^eci. f ications, her- r\ I. fe.'u'y been pro-
vided for in the new three y^ar Agreement on Scweriicje Servi.cr1
Charges effective July 1, 19GG between Cleveland and the
suburbs that it service's.
The Cleveland Master Plan for water pollution
abatement and control will study the financing of construction
which is planned to start after July I, 1969. However this
will be contingent on an agreement being reached between Cleve
land and the suburbs ar. to the financing oL" these tcun- sever.'.;
which basically will serve to bring suburban .sewage direct to
the Cleveland plants.
r Start of Construct:ion: After July I. 1%'.'
Date oC Completion of Construction: Imposc.ililc to er.Liiu;jl<- c»L
th i J: t i mo.
-------
STATUS OF INDUSTRIAL WASTE TREATMENT FACILITIES
LAKE ERIE"-DRAINAGE AREA -IN OHIO
ASHTABULA RIVER BASIN
Entity
Cabot Titania Corporation
Titanium Dioxide Plant
Type of Waste
Chemical
Suspended solids
Treatment
Provided
Settling
basins
Additional
Requirements
Additional facilities
for reduction of solids
Approved Schedule
(Completion Dates)
Completed 9-1-66
Cabot Titania Corporation
Titanium Tetrachloride Unit
Detrex Chemical Industries, Inct
Chlorinated Solvents Division
Diamond Alkali Company
Semi-Works
The General Tire & Rubber
Company, Chemical Division
Olin Mathieson Chemical Corp,
TDI Facility
Reactive Metals, Incorporated
Metals Reduction Plant
Reactive Metals, Incorporated
Sodium & Chlorine Plant
Chemical
Suspended solids
Chemical
Hydrocarbons
Chemical, Acids
Suspended solids
Chemical eolids
Chemical solids
Chemical, Acids
Solids
Chemical, Susp.
Dissolved solids
Lagoons
Lagoons
settling
Neutraliz.
Additional facilities
for reduction of solids
In-plant control of
hydrocarbons
Neutraliz. Additional facilities
Chem, treat, and control for solids
settling reduction
incineration
Chemical
treatment
settling
Lagoons
Neutraliz.
settling
Settling
ponds
Additional facilities
and control for solids
Plans 1-6?
Construction 6-1-6? (Yes)
Completed 2-1-6? (Yes) *(l)
Completed 9-1-66
Completed 12-1-66
In-plant improvements Completed 12-66(Yes) *(l)
for neutralization and solids
Additional facilities
for solids removal
Additional in-plant
controls for solids
reduction
General Plans 9-1-66
Detail Plan 6-1-67 (Yes)
Construction 10-1-6? (Yes)
Completed 12-61
*(l) Additional controlled facilities required by Water Pqllution Control Board permit (U.C.)
•P-
•P-
-------
STATUS OF INDUSTRIAL WASTE TMpffiNT FACILITIES
LAKE ERIE DRAINAOE AMR IN OHIO
BLACK RIVER BASIN
List of Complete Industrial Waste Plants
Entity
Type of Waste
Treatment
Provided
Additional
Requirements
Approved Schedule
(Completion Dates)
Locke Manufacturing Company
Republic Steel Corporation
Steel and Tubes Division
Ternstedt Division
General Motors Corporation
U. S. Steel Corporation
Tubular Operations
Steel-Acid Iron
Steel-Acid Iron
Metal Finish.
Steel-Blast Furn.
Susp. solids
Neutraliz. Discharge to municipal
s ys t em. Exempt
Controlled Reduction of acids
discharge
after settling
Cyanide
oxidation
chrome re-
duction
settling
Expanded treatment
facilities under
construction
Clarification Additional reduction
of solids
Completed 7-l-66. '
Plans 6-1-68
Construction 12-31-69
Construction 11-15-67
IP
Study report 6-1-67 (No)
Construction 12-31-69
CHAORIN RIVER BASIN
Entity
Chase Bag Company
Type of Waste
Paper Mill
Treatment
Provided
Filtration
for removal
of solids
Additional
Reauirements
Secondary treatment
facilities
Approved Schedule
(Conroletion Dates)
Plans 6-1-68 (Yes)
Construction 12-31-69
VJ1
-------
STATUS OP INDUSTRIAL WASTE TREATMENT FACILITIES
LAKE ERIE DRAINAGE AREA IN OHIO
CUYAHOGA RIVER BASIN
Entity
Type of Waste
Treatment
Provided
Additional
Reauirements
Approved Schedule
(Completion Dates)
The Bailey Wall Paper Company Organic
The Cuyahoga Meat Company
Diamond Crystal Salt Company
E, I, duPont deNemours
and Company, Incorporated
Ind. and Biochemicals Dept.
Ferro Chemical
Division of Ferro Corporation
Firestone Tire &• Rubber Company
Akron Plant
General Tire & Rubber Company
Akron Plant
B. F. Goodrioh Rubber Company
Akron Plant
Meat Packing
Chemical
None
Septic tank
Settling
Company plans to move
to new location on
public sewer
New complete treatment
facilities
Additional reduction
of chlorides
Chemical, Acids, Zinc recovery Improvements to treat.
Metals Acid neutraliz. and disposal facilities
Chemical Clarification
Suspended solids
Solid, oils
and organics
Solid, oils
and organics
Solid, oils
and organics
Some waste
trib. to
mun. sewers
Some waste
tfib. to
mun. sewers
Some waste
trib. to
mun. sewers
Improvements to treat.
facilities
Reduction of all
critical constituents
Reduction of all
critical constituents
Reduction of all
critical constituents
7-1-67 (No) *(1)
Plans 4-1-67 (Yes)
Complete construction
6-1-68
Plans 6-1-67 (No) *(2)
Construction 1-1-68 (No)
/
Completed 8-1-66 [
Plans 10-1-66
Construction 4-1-67(Yes)
Plans 1-1-68 (Yes)
Construction 1-1-69
Plans 1-1-68 (No)
Construction 1-1-69
Plans 1-1-68 (Yes)
Construction 1-1-69
Plant to cease operation - 1968
*(2) Inplant recovery and deep well disposal undlfstudy
-------
STATUS OF INDUSTRIAL WASTE TS^TMENT FACILITIES
LAKE ERIE DRAINAGE AWT IN OHIO
CUYAHOGA RIVER BASIN - Contd.
Entity
Type of Waste
Treatment
Provided
Additional
Requirements
Approved Schedule
_(Completion Dates)
Goodyear Aerospace Corporation Metal Finish.
Goodyear Tire & Rubber Company Solid, oils
Akron Plant and organics
Harshaw Chemical Company
Jones & Laughlin Steel Corp.
Control
facilities
Some waste
trib. to
mun. sewers
Facilities for
pretroatment & discharge
to municipal severs
Reduction of all
critical constituents
Metal Salts
Steel-Acid Iron
Jones & Laughlin Steel, Corp. Steel-Blast Furn,
Suspended solids
Jones & Laughlin Steel, Corp. Steel-Mill Scale
Suspended solids
In-plant control Additional in-plant
control of metals &
fluorides. Settleable
solids removal
Controlled Removal or* treatment
discharge of waste pickling acids
Clarification Improved reduction of
solids
Lerkis Asphalt Company, Inc.
Master Anodizers & Platers, Inc. Metal Finish.
Asphalt
(Unclassified)
Clarification
Lagoon
Chrome
reduction
Improved reduction of
solids
Improved reduction of
suspended solids
Improved reduction of
metals and solids
Plans 6-1-6?(Yes)
Construction 6-1-68
Plans 1-1-68 (Yes)
Construction 1-1-69
Plans 7-1-67(Yes)
Construction 12-31-63
Plans 6-1-67(Yes) *(l) ^
Construction i8-!--67(No)'
Plans 6-1-68(Yes)
Construction 12-31-69
Plans 6-1-68 (Yes)
Construction 12-31-69
Construction 7-l-66(Yes)
Plans approved l-67(Yes)
Construction 7-l-6?(Yes)
*(l) Construction 12-31-68
-------
STATUS OF INDUSTRIAL WASTE TREATMENT FACILITIES
LAKE ERIE DRAINAGE AREA IN OHIO
CUYAHOOA RIVER BASIN - Contd.
Entity
Type of Waste
Treatment
Provided
Additional
Requirements
Approved Schedule
(Convpletion Dates)
Republic Steel Corporation
Polt & Nut Division
Cleveland District
Cleveland District
Cleveland District
Sonoco Products Company
Ohio Division
The Standard Oil Company
No. 1 Refinery
Sherwin Williams
Linseed Oil Mill
Steel-Acid Iron Controlled
discharge
Steel-Acid Iron
Steel-Blast Furn.
Suspended solids
Steel Mill Scale
Suspended solids
Paper Mill
Oil Refinery
Oily sludges
Plating wastes to\,
municipal sewers
Controlled
discharge
Clarification
Scale pits
Aeration and
clarification
Oil separation
and recovery
Filtration
Removal or treatment
of waste pickling liquors)
Removal or treatment of
waste pickling liquors
Improved reduction of
suspended solids
Improved reduction of
suspended solids
Connect to County
Sewer
^Construction
rPlans 6-1-68
'^Construction
Plans 6-1-68
Construction
Plans 6-1-68
Construction
Plans 6-1-68
Construction
12-31-68
(Yes)
12-31-69
(Yes)
12-31-69
(No)
12-31-69
(No)
12-31-69
Construction 1-30-69
Refinery operations discontinued. Wastes from
asphalt processing to be made tributary to
Cleveland municipal sewers. Construction 6-1-6?
(Yes)
Discharge of filtrate
to Cleveland mun. sewers
U, S, Steel Corporation
Central Furnaces
Central Furnaces
Steel-Blast Furn. Clarification
Suspended solids
Blast Furnace
(Sewage)
None
Additional reduction of
suspended solids
To municipal sewers.
Exempt
Plans 6-1-68 (No)
Construction 12-31-69
Construction 12-8-66
(Yes)
— VuO
-f^
CO-
-------
STATUS OF INDUSTRIAL WASTE TT^TMENT FACILITIES
LAKE ERIE DRAINAGE ,™A IN OHIO
CUYAHOGA RIVER PASIN - Contd.
Entity
Type of Waste
Treatment
Provided
Additional
Reouirements
Approved Schedule
(Corroletior! Dates)
Cuyahoga Works
Cuyahoga Works
Weather-Tite Company
Steel-Acid Iron
Controlled
discharge
Steel-Mill Scale Scale pits
Suspended solids
Metal Finish
Aluminum
removal
Neutralization of
pickling acids and
removal of solids
and metals
Additional reduction
of suspended solids
and oil
Neutralization and
reduction of solids
General plan 11-66
Detail plans 3-6?(Yes)
Construction 12-68
General plans 11-66
Detail pins 3-67 (Yes)
Construction 12-68 UC
Detail plans 10-66 (Yes)
Construction 7-67 (Yes)
-------
STATUS OF INDUSTRIAL WASTE TREATMENT FACILITIES
LAKE ERIE DRAINAGE AREA IN OHIO
GRAND RIVER BASIN
Entity
Type of Waste
Treatment
Provided
Additional
Requirements
Approved Schedule
(Completion Dates)
Diamond Alkali Company
The Metal Craft Company
A. E. Staley Manufacturing Co;
Chemical, Susp,
ff dissolved
solids, chromium
Metal Finish.
Chemical
Soy Bean Prod.
Settling,
neutralization
roduct. -
controlled
discharge
Reduction of chrome
wastes
Additional facilities
for neutralisation and
solids reduction
Plans 3-1-67 (Yes)
UC Construction 10-l-6?(No)
Plans 6-1-6? (Yes)
Construction 6-1-68 (Yes)
Controlled
discharge
Neutralization and
reduction of solids
Plans 4-1-67 (Yes)
Construction 6-1-67 (No)
UC
Recovery facile.Treatment by municipality 12-68
and lagoon when facilities available
UNIROYAL United States Rubber Co. Chemical
Chemical Division Plant Area #4
United States Rubber Company
Chemical Division Plant Area #1
Chemical, Susp.
& Dissolved
solids
Chem. treat.
and lagoon
Screening,
settling
lagoons
Facilities being rebuilt following explosion. *(l)
Evaluation of additional needs to follow.
Additional facilities for
solids, oxygen demanding
material and solids
General Plans l-l-69f*(i)
Detail plans 10-1-68
Construction 12-1-69
HURON RIVER BASIN
Entity
Type of Waste
Treatment
Provided
Additional
Requirements
Approved Schedule
(CompletionDates)
The Baltimore &•. Ohio Railroad Co. Railroad Oil
Clevite Corporation
Harris Division, Milan Plant
Metal Finish.
Oil Additional facilities
Separators for removal of oil
Settling Additional facilities
(lagoon) for neutralization and
reduction of metals and
solids
Plans 7-1-67 (No)
Construction 7-1-68
Plans 7-1-67 (Yes)
Construction 7-1-68(UC)
*(l) Water Pollution Control Board revised
General Plans
Detail Plans
Construction
3-1-68 (Yes)
10-1-68
12-1-69
VJ1
O
-------
STATUS OF INDUSTRIAL WASTE
LAKE ERIE DRAINAGE
MAUMEE RIVER
TMENT FACILITIES
IN OHIO
Entity
Type of Waste
Treatment
Provided
Additional
Requirements
Approved Schedule
(Completion Dates)
Campbell Soup Company
Central Foundry Division
CMC, Defiance Plant
Clevite Corporation
Harris Division
Napoleon Plant
Edgerton Metal Products, Inc.
Elite Plating Division
Dynavest Corporation
Hayes Industries, Inc.
Decorative Division
Interlake Steel Corporation
Organic
Soup Cannery
Tomato Cannery
Steel Foundry
Metal
Finishing
Inorganic
Metal Finish.
Metal Finish.
Inorganic,
Metal plating
Steel
Blast Furnace
Trickling filters Additional reduction
for so'jp produc- of solids and oxygen
tion, land spray demand
for tomato oper's
Settling
lagoons
Settling and
filtration
Cyanide
oxidation
None
Additional solids
reduction
Detail plans 1-6?(Yes)
Construction 7-1-69
Construction 7-l-6?(UC)
Additional facilities
neutralization, reduction Construction 7-1-68
of metals and solids
Treatment of chrome
wastes, neutralization,
reduction of solids
Plans 7-1-67 (Yes)
Construction 7-1-68
Construction 7-l-6?(Yes)
Reduction of metals and
cyanide, neutralization
Plans 7-1-67 (No)
Construction 7-1-68
Acid neutraliz. Additional facilities for Complete 7-1-66
settling improved reduction of solids
and neutralization
Clarification Additional reduction
of solids
Plans 5-1-68 (No IP)
Construction 8-1-69
vn
-------
STATUS OF INDUSTRIAL WASTE TREATMENT FACILITIES
LAKE ERIE DRAINAGE AREA IN OHIO
MAUMEE RIVER BASIN - Contd.
Entity
Type of Wastes
Treatment
Provided
Additional
Reouirements
Approved Schedule
(Completion Dat.es)
Johns-Manville Fiber Glass,
Incorporatedj Plant #3
Johns-Manville Fiber Glass,
Incorporated, Waterville Pit,
Libby, McNeill & Libby
National Refining Company
Division of Ashland Oil &
Refining Company
Pepsi-Cola Bottling Company
Republic Creosoting Company,
Division of Reilly Tar &
Chemical Corporation
Rusco Division
Rusco Industries, Incorporated
Phenolic
Organic
Phenolic
Organic
Tomato process,
Oil Rofinery
Food Process.
(Misc.)
Phenolic
Wood Preserving
Inorganic
Metal Finish,
Reuse system
Chemical Treat.
Swale area,
soil infilt.
Land spray
disposal
API separator
Complete
treatment
Separator and
strav; filters
Facilities for closed
recycle system under
construction
Additional facilities for
complete treatment
Additional facilities
for treatment of peak
loads
Additional facilities for
oil, solids and oxygen
demand reduction under
construction
Additional facilities for
reduction of oxygen demand
Reduction of phenolics
and oil
Acid neutraliz. Neutralization and
settling solids reduction
Completion 8-1-67 (Yes)
Completed 12-l-66(Yes)
Plans 6-1-67 (No IP)
Construction 8-1-67 (No)
Plans 9-1-66
Construction 6-1-67 (Yesi
Plans 3-1-67 *(l)
Construction 1-1-68
Plans 1-1-68 (No IP)
Construction 1-1-69
Plans 8-1-67 (Yes)
Construction 8-1-68
*(l) Area annexed to city; municipal sewers to be made available
ro
-------
STATUS OF INDUSTRIAL W. 3TE ^ATMENT FACILITIES
LAKE ERIE DRAINAGE ^A IN OHIO
MAUMEE RIVER BASIN - Contd.
Entity
Type of Wastes.
Treatment
Provided
Additional
Retirements
Approved Schedule
(Completion Dnton)
S-K Wayne Tool Company
Vistron Corporation
(formerly Sohio Chem. Co.)
Sohio Chemical Company
The Standard Oil Company
Walter & Sons, Incorporated
The Weatherhead Company
Ohio Division
Inorganic
Metal Finish.
Chemical
Organics
Petro chemicals
Oil Refinery
Organic
Inorganic
Metal Plating
In-plant control Neutralization and
monitored disch. metals reduction
Plans 3-1-67 (Yes)
Construction 1-1-
Lagoon
Chemical,
lagoon,
incineration
& biological
treatment
Additional reduction 1-1
of nitrogen compounds
Additional reduction of
nitrogen compounds and
oxygen demand
API separator, Aerated lagoon for
air flotation biological treatment
facils
Septic tank,
sand filter
Process change
Evaluate existing facil.
for present operations
Chemical, Additional reduction of
Cyanide oxid., metals and solids
sec.treat, of
sewage
(Yes )
•68En-plant controls 1-1-
Pesearch studies under
Plans 1-1-68 (Yes)
Construction 1-1-69
Completed 2-1-6? (Yes)
Evaluation 8-1-67 *(l)
Plans 6-1-67 (YSS)
Construction 9-1-68UC
*(l) Area annexed to city; municipal sewers to be provided
-------
STATUS OF INDUSTRIAL WASTE TREATMENT FACILITIES
LAKE, ERIE DRAINAGE AREA IN OHIO
OTTAWA RIVER (TENMILE CRK) BASIN
Entity
Dana Corporation
Toledo Division
Type of Wastes
Oil Treatment
(Unclass. )
Treatment
Provided
Chemical treat-
ment ft reuse
Additional
Requirements
Improvements in
facilities and
operation
Approved. Schedule
(Completion Dates)
Completed 12-1-66 £/**)
PORTAGE RIVER BASIN
Entity
The Seneca Wire and
Manufacturing Company
Swift & Company
Entity
Type of Wastes
Steel-Acid Iron
Soybean Mill
Chemical
ROCKY
Type of Wastes
Treatment
Provided
Neutraliz . ,
settling
controlled
discharge
Grease
separation
RIVER BASIN
Treatment
Provided
Additional
Requirements
Additional facilities
for metals and solids
Facilities for reduction
of oil, color and oxygen
demand. Anticipate con-
nection to mun. sewero
Additional
Requirements
Approved Schedule
(Completion Dates)
Plans 1-1-68 (No)
Construction 1-1-69
Construction 6-1-67
(No)
Approved Schedule
(Completion Dates)
Astoria Plating Corporation
Metal Finish.
Cyanide oxi-
ation, chrome
reduction
Additional facilities
for reduction of metals
and cyanide
Plans 4-1-67 (Yes)
Construction 1-1-68
(No)
-------
STATUS OF INDUSTRIAL WASTE
LAKE ERIE DRAIMAGE
SANDUSKY RIVER
.TMENT FACILITIES
BI OHIO
IN
Entity
Type of Wastes
Treatment
Provided
Additional
Reouirements
Approved Schedule
(Corripletion Da tor.)
Northern Ohio Sugar Company Beet Sugar
The Pioneer Rubber Company Rubber-
Plant No. 2 Alcohol
Holding
lagoon s
controlled
discharge
None
Additional reduction of
oxygen demand
Facilities for
reduction of oxygen
demand
Plans 12-31-68
Construction 12-31-69
Anticipate connection
to proposed municipal
sewerage
VJl
-------
STATUS OF INDUSTRIAL WASTE TREATMENT FACILITIES
TRIBUTARY TO LAKE ERIE
Entity
Pechtel-McLaughlin, Incorporated
Doehler-Jarvis Division
National Lead Company
Toledo Plant #2
Central Soya Company
Cleveland Metal Cleaning Company
Donn Products, Incorporated
General Electric Company
Bellevue Lamp Plant #242
Hirzel Canning Company
Type of Waste
Metal
Finishing
Metal
Finishing
Oils and
organic s
Acids, oil
and solids
Metal
Finishing
Sewage only
Tomato-Beet
Cannery
Treatment
Provided
Cyanide
oxidation
In-plant
controls &
recovery
Lagoons
None
Neutraliz .
Lagoon
Septic tank
Land spray
Additional
Reouirements
Facilities for
neutralization, chrome
and solids reduction
Additional facilities for
reduction of metals,
solids and cyanide
Additional facilities for
reduction of oil
Facilities for neutraliz.
and oil and solids removal
Additional facilities for
Approved Schedule
(Completion Dates)
Plans 2-1-67 (Yes)
Construction 2-1-68 *U)
Plans 6-1-67 (Yes)
Construction 6-1-68
Plans 6-1- 67 (Yes)
Construction 6-1-68
Plans 8-1-67 (Yes)
Construction 7-1-68
Plans 7-1-67 (Yes)
treatment of chromium waste Construction 1-1-68 ^^
To be made tributary to
municipal system
Additional facilities for
more positive control of
(Yes)'
Construction 9-1-69
Plans (Yes)
Construction 8-lT6?U.C.
The Lake Erie Canning Company Cannery Lagoon
Tomato, Kraut,
Cherry
Additional facilities for Plans 3-1-67 (Yes)
reduction of oxygen demand Construction 8-1-67 (Yes
Anticipate connection to public sewers
-------
STATUS OF INDUSTRIAL WASTE
TRIBUTARY TO LA
Contd.
ffMENT FACILiriES
IE
Entity
Libbey-Owens-Ford Glass Co.
East Toledo Plant
Natl. Aeron. fr Space Admin,
Type of Waste
filass Mfg.
Sewage only
Treatment
Provided
Lagoons
Primary
Additional
Requirements
Additional facilities for
solids reduction
Secondary treatment
Approved Schedule
(Coiroletion Dates)
Plans 10-l-67(No)
Construction 1-1-69
Plans ?
Plum Brook Station
(Research Center)
Norfolk & Western Railroad
Dellevue Yards
The Standard Oil Company
Toledo Refinery
Toledo Scale, Division of
Toledo Scale Corporation
True Temper Corporation
Oils
Oils
Metal
Finishing
Metal
Finishing
None
Facilities for removal
of oils and solids
Construction 12-1-6?
(Yes)
Plans 6-1-67 (Yes)
Construction 6-1-68
Oil separators Additional facilities for Plans 1-1-68 (Yes)
lagoons reduction of oil, solids, Construction 12-31-69
phenols and oxygen demand
Settling and
controlled
discharge
Chrome
reduction,
cyanide oxi-
dation
Facilities for reduction
of metals, solids and
oil
Additional facilities for
reduction of solids and
oil
Plans 7-1-67 (Yes)
Construction 7-1-68
Plans 5-66
Construction 6-1-67(Yes)
VJl
-o
-------
STATUS OF INDUSTRIAL WASTE TREATMENT FACILITIES
DIRECT TO LAKE ERIE
Entity
Type of Waste
Treatment
Provided
Additional
Requirements
Approved Schedule
(Completion Paten)
The Cleveland Electric Ilium, Co.
Ashtabula Plant Suspended solids
Lagoons
Suspended solids Lagoons
Suspended solids Lagoons
Eastlake Generating Station Suspended solids Lagoons
Lagoons
Avon Plant
Lakeshore Plant
IRC Fibers Division
Midland-Ross Corporation
The Lubrizol Corporation
TRW, Incorporated
United States Gypsum Company
United States Rubber Company
Suspended solids
Zinc, organics
Chemical
Metal
Finishing
Paper Mill
Chemical
Chemical &
Biological
Oil Removal
Additional facilities for Plans 12-67(Yes)
reduction of solids Construction 12-68
Additional facilities for Plans 7-1-67(Yes)
reduction of solids Construction 7-1-68
Additional facilities for Plans 12-67(Yes)
reduction of solids Construction 10-68
Additional facilities for Plans 7-67 (Yes)
reduction of solids Construction 4-68
Facilities for neutraliz. Plans 2-1-67(Yes)
and reduction of zinc Construction 1-1-69
and solids
Additional facilities for Plans 4-1-67(Yes)
reduction of oxygen demand Construction 12-1-67
(Yes)
Chemical ft Additional facilities for Plans 12-1-66 (Yes)
settling tanks neutralization and Construction 1-1-69
reduction of metals fr solids
Clarification Facilities for complete
fr in-plt. reuse treatment
Wastes treated in Erie Ordinance
complete facilities
Plans 9-1-68 (Yes)
Construction 12-31-69
Connected 7-15-66
VI
CC
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359
George H. Eagle
APPENDIX II
1. Water Quslitj Criteria For Lake Erie and the
Interstate Waters Thereof
2. Water Quality Standards for Ashtabula. River, Conncaut
Creek, and Turkey Creek
3. Water Quality Standards for the North Central Ohio
Tributaries of Lake Erie
A. Conclusions end Rseoissnendations for tho Rocky River,
Cuyahoga River, Chagrin Riv<;r, Grand Rive;.- and
Tributaries
5. Water Quality Standards Adopted for the Mauinee, Tiffin, St,
Joseph, and St. Marys River Basins.
of Phosphates frorr. Waste Waters
7. Sanitary Sewer Joints and Manholes
-------
36Q
WATir.'H POLLUTION CONTROL BOARD
DEPAilTMu-JT .OF HEALTH
COliUKSUS, Oil 10
WATER QUALITY CfiITEt-JA ADOPTED BY THE BOARD APRIL 11,
FOR LAO ERIE A.'(D TH2 INTERSTATE WATERS THEREOF
The Ohio Water Pollution Control Bc?.rd. hereby adopts the folloving v-i-tt-ir
quality criteria for Lake Erie and the interstate waters thereof which Ec,y
effect the State of Michigan, the Co:iimonvealth of Pennsylvania, the State of
New York, and. the Province of Ontario of the Dominion of Canr-.da.
Water Quali ty - _Conditi ons and Cr^rterj.ji
All Waters- . All the vaters considered herein shall meet the f ol.lo'.d :.i£
condition/. '• r,ll-tiraes:
(l) ' shall be free from substances attributable to municipal,
• 'ntrial, or other discharges that will settle to fora
j. . ••. escent or otherwise" objectionable sludge deposits;
(2) '> ey shall be free from floating debris, oil, scum, and
c'.lier f]. oating materials attributable to municipal, industritlj
or other discharges in amounts sufficient to be unsightly or
deleterious ;
(3) They shall be free from materials attributable to municipal,
industrial, or other discharges producing color, odor, or
other conditions in such degree as to create s, nuisance; and,
(U) They shall be free from substances attributable to municipal:
industrial, or other discharges in concentrations or combinations
vhich axe toxic or harciful to human, anitnal, plant, or aquatic
life.
Lake Erie Water Quality Criteria for Various JJses are: (l) the Stream-Water
Quality Criteria for Various Uses adopted by the Ohio Water Pollution Control
Board on June 1^, 19&6, copy attached, vhich shall apply as a niininua to ell
Lake Erie waters in Ohio, and (2) the existing lake water quality vhich shall
apply where better than the criteria for stream's s.donted. by the Board. The
existing Take water quality shall be as reported by the Federal Water Pollutic,
Control Administration in the chapter on Water Quality in report "Program for
Water Pollution Control - Lake Erie - 196?."
Lake Erie outside the established harbors at Lorairi, Cleveland, and Ash tabula
'Shall meet the Lake Erie water quality criteria for all uses.
The Lorain, Cleveland, and Ashtabula harbor waters in Lake Erie shall
Lake Erie water quality criteria for industrial water supply and- aquatic life
-1-
-------
•iicntot_ion and _Enforc_e• ne_nt Plan
The Ohio Water Pollution Control Board, under the provisions of
Scctf.ons 6111.01 to 6lll.08, 6l.ll.31 to 6lll.3o, and 6111.99, Ohio
Revised. Code, has authority to control, prevent, and abate pollution
in the waters of this state. In accordance with such authority, the
Board hereby adopts the following program and requirements for the
prevention, control, and abatement of new or existing pollution of
.the water;- of Lake Erie:
(l) The "Reconunendations and Conclusions - August 12, 1965"
rgreed upon by conferees fro-n Michigan, Indiana, Ohio,
Pennsylvania, New York, and the U.S. Public Health Service
following conference under Section 8 of the Federal Water
Pollution Control Act in the natter of pollution of the
interstate and Ohio intrastate waters of Lake Erie and its
tributaries held in Cleveland, Ohio, August 3-6, 1965, and
in Buffalo, New York, August 10-12, 1965, and "Report of
the Lake Erie Enforcement Conference Technical Cor/jnittees -
March, 196?" are included as a. part of this program insofar
t.s applicable to Lake Erie waters in Ohio (sec attached
copies);
(2) /ill plans and proposals for abatement or correction of
pollution will be approved by the Ohio Department of Health
e-s required by law and such approvals shall constitute
approval by the Board;
(3) All sewage will be given secondary treatment (biochemical.
oxidation), and the facilities to provide such treatment
vill be constructed and placed in operation without delay,
end in no instance later than the dates specified in the
attached lists;
(U) All effluents will be satisfactorily disinfected "to meet
the criteria for Lake Erie water uses and the facilities
to provide such disinfection will be installed without
delay;
(5) All industrial wastes will be adequately treated to meet
the Lake Erie water quality conditions end criteria and
the facilities to provide such treatment will be constructed
cad placed in operation without delay, and in no instance
later than the dates specified in the attached lists;
(6) Local programs will be initiated to control and reduce
pollution resulting froa (a) bypassing, (b) spillages,
end (c) discharges resulting from construction or
breakdowns;
(7) Necessary studies will be made and, where feasible, plans
and construction programs will be developed as rapidly as
possible for reducing pollution from combined sewer
overflows;
-2-
-------
362
(8) Vihcro necessary to inprovc water quality and to reduce
nl£cl f,ro-..rvhs in Lake Erie, supplementary treatment of
ve.?tev^tei E will be provided to the fullest extent
consistent with research and technological advances;
(9) V,:n.&re IK-CO", sary to protect recreatjor.nl areas of Lr.kc Erie,
studies vill be nade by the responsible agencies, and plans
end .^construction programs vill be developed as rapidly as
pc."-;ible for iiaprovenent s such as (a) elimination, treatment,
o: diversion of combined and storm sewer discharges frora
beaches end other recreational areas, (b) diversion of all
effluent discharges, both sewage and industrial wastes, fro:n
areas where they may adversely affect recreational waters ,
r.nd (c) elimination of the physical entrapment of storm
vater, mai'sh drainage, debris, and other pollutants at beach
areas;
(10) The Lake Erie water quality monitoring program vill be
expanded es outlined in the attached report to adequately
provide assurances of compliance with these criteria.
Furthermore, the Board and the Ohio Department of Health will:
(l) Encourage and assist -other agencies such as the Ohio Water
Commission and the Soil Conservation Service, U.S. Depart-
ment of Agriculture, in the implementation of effective
soil erosion control programs, and programs for the
reduction of the run-off of phosphorous, nitrogen compounds,
and pesticides;
(2) Encourage the enactment of state legislation prohibiting
the discharge of untreated vastewater from pleasure craft
to the Lake Erie waters in Ohio, and requiring adequate
vaste disposal facilities at marinas along Lake Erie; and,
(3) Seek adequate legislation prohibiting the open dumping
of garbage, trash, and other deleterious refuse along
the shores of Lake Erie.
Enforcement of these requirements will be carried out by means
of the respective permits issued to municipalities, counties,
industries, and other entities discharging to the Lake Erie waters
Of Ohio considered herein, and failure to comply with the pennit
conditions will result in legal action in accordance with the
provisions of laws.
-3-
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363
WATER POLLUTION COMTKOL V.OARl)
DEPARTMENT OF HEALTH
COLUMBUS, OHIO
WATER QUALITY STANDARDS ADOPTED HY THE BOARD JUNE 13, 196?,
FOR ASHTABULA RIVER, COKNEAUT CREEK, AND TURKEY CREEK
The Ohio Water Pollution Control Board hereby adopts water
quality standards for the following interstate waters:
(l) Ashtabula River:
(2) Conneaut Creek: and,
(3) Turkey Creek.
All of these streams originate in Pennsylvania and flow
northwesterly through Ohio to Lake Erie.
Water Quality - Conditions and Criteria
5^ All waters considered herein shall meet the follovinr
nditions at al] times:
(l) Free from substances attributable to municipal, industrial.
or other discharges, or agricultural practices that will
settle to for:n putrescent or otherwise objectionable sludge
deposits:
(2) Free from floating debris, oil, scum, and. other floatinp
materials attributable to municipal, industrial, or
other discharges, or agricultural practices in amounts
sufficient to be unsightly or deleterious:
(3) Free from materials attributable to municipal, industrial,
or other discharges, or agricultural practices producing
color, odor, or other conditions in such degree as to
create a nuisance;
(M Free from substances attributable to municipal, industrial,
or other discharges, or agricultural practices in concen-
trations or combinations which are toxic or harmful to
human, animal, plant, or aquatic life.
Stream-Water Quality Criteria for Various Uses adopted by the Ohio
Water Pollution Control Board on June lU, 1966, shall apply to all
under consideration herein and, in addition, the following
for cold-water fisheries shall aooly:
-1-
-------
364
(l) ^ij5.?-^'7^ Qxy.C?'! ~ minimum. 6.0 rn.^/J .
(2) -Tc'^er^ture - maximum 70 deg . F.
(3) pj! - not less than 6.5 nor greater than 8.5 at any tine.
Conncfiut Creek uj>st_rearn. fjorri__the ?-ew_ York_ Central Jlai^O'YL Bridge
ill Conneuut and Turkev_ Cr_e£k_ shall meet the criteria for all urns
including cold-water fisheries.
Conneaut ^reeV__dovnT_sJ1rea;r; from__the__Nev York Centra]. ^ajjjioad Bridre
in Con_neau_t_ and the Ashta'bul'a River jskov_e_ the ship channeT (approxi-
mately two miles above the mouth of__Vn_e__riveF)_ shall meet the criteria
for all uses except cold-water fisheries.
Ashta.bula River ship channel section, which extends approximately
two miles upstream from the mouth of the river, shall meet the
criteria for industrial water supply and aquatic life (A).
Imj.)l omen t ati_on_ _an_d_ _Fnfor ccrn en t_JPl an
The Ohio Water Pollution Control Board, under the provisions of
Sections 6111.01 to 6l.ll.03, 6111.31 to 6111.38, and 6111.99- Ohio
Revised Code, has authority to control, prevent, and abate pollution
in the waters of this state. In accordance with such authority, the
Board hereby adopts the following program and requirements for the
prevention, control, and abatement of new or existing pollution of
the waters of the state considered herein:
(l) The desirn or critical flow defined as the minimum annual
seven consecutive day warm weather flow which is exceeded
in 80$ of the years will be used in apply in?r the street-
water quality criteria;
(2) All plans and proposals for abatement or correction^ of
pollution will be approved by the Ohio Department of Health
as required by law and such approvals shall constitute
approval by the Board ;
(3) AID. sewage and organic industrial wastes will be given
secondary treatment (biochemical oxidation) prior to
discharge to the waters under consideration (none existing
at present) :
CO All sewage effluents will be satisfactorily disinfected,
prior to discharge, to meet the criteria for downstream
water uses (none existing at present):
(5) All other pollution constituents will be adequately treated
and/or controlled to meet the water quality conditions and
criteria, and the facilities to provide such treatment will
be constructed and placed in operation without delay, and
in no instance later than the dates specified in the
attached schedules :
-2-
-------
365
(6) Local programs will bf: initiated to control and reduce
pollution resulting from (a) bypassing, (b) spillages,
and (c) discharges resulting from construction or
breakdowns:
(7) Necessary studies will be made and, where feasible, plans
and construction programs will be developed as rapidly
as possible for reducing pollution from existing combined
sewer overflows and inadequate sewage collection systems;
(8) Where necessary to improve water quality and to reduce
algal growths , supplementary treatment of wastewaters
will be provided to the fullest extent consistent with
current research and technological advances:
(9) Ohio's stream-water quality monitoring program will be
expanded as outlined in the attached report to adequately
provide assurances of compliance with these standards.
Furthermore, the Board and the Ohio Department of Health will
encourage and assist other agencies such as the Ohio Water Commission
and the Soil Conservation Service, U.S. Department of Agriculture,
in the implementation of effective soil erosion control programs ,
and programs for. the reduction of the run-off of phosphorous,
nitrogen compounds, and pesticides.
Enforcement of these requirements will be carried out by means
of the respective permits issued .to municipalities, counties,
industries, and other entities discharging to the waters considered
herein, and failure to comply with the permit conditions will result
in legal action in accordance with the provisions of law.
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366
WATER POLLUTION CONTROL BOARD
DEPARTMENT OF HEALTH
COLUMBUS, OHIO
WATER QUALITY STANDARDS FOR THE NORTH CENTRAL OHIO
TRIBUTARIES OF L«>KE ERIE
ADOPTED BY THE BOARD ON NOVEMBER 1»<, 196?
The Ohio Water Pollution Control Board hereby adopts water
quality standards for the following intrastate waters :
(l) The Portage River;
(2) The Sandusky River;
(3) The Huron River;
(U) The Vermilion River;
(5) The Black River; and
(6) All other tributaries of Lake Erie from Maumee Bay on the
west to the Black River on the east.
The Jto^ndj^d Jjtr
-------
367
(8) The sustained stream flow plan proposed in the Northwest Ohio
Water Development Plan, January 1, 19&7, an^ adopted by the
Ohio Water Commission, is hereby made a part of this program
and the Board recognizes that the implementation of this plan
will be necessary to fully meet the water quality conditions
and criteria; and
(9) The stream-water quality monitoring proprojr, will be expanded
as recommended in the Northwest Ohio Water Development Plan,
January 1, 19&7, "to adequately provide assurances of compliance
with these standards.
Furthermore, the Board and the Ohio Department of Health will
encourage and assist other agencies such as the Ohio Water Commission
and the Soil Conservation Service, U.S. Department of Agriculture,
in the implementation of effective soil erosion control programs ,
and programs for the reduction of the run-off of phosphorous,
nitrogen compounds, and pesticides.
Enforcement of these requirements will be carried out by means
of the respective permits issued to municipalities, counties,
industries, end other entities discharging to the waters considered
herein, and failure to comply with the permit conditions will result
in legal action in accordance with the provisions of law.
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363
SCHEDULES OF CORRECTIVE MEASURES FOR KORTH CKNTRAL OHIO
TRIBUTARIES TO JAKE ERIE
Corrective measures for the abatement of water pollution from
discharges of sewage and industrial wastes will be provided for the
following discharger, according to the indicated time schedules.
Wastes from Municipalities, _Et_c_.
Pi s in feet ion
All sewage discharges to meet downstream water uses will be
adequately disinfected and the facilities for disinfection will be
installed without delay and placed in operation no later than
December 1, 1968.
Secondary Treatmc-nt
1. New secondary treatment (biochemical oxidation) plants where
no facilities are now provided or to replace existing facilities will
be provided by the following entities according to the indicated time
schedules:
Entity
Attica
Avon*
Bellevue
Bloomville
Elmore
Gibsonburg
Green Springs (replaces
Imhoff tank plant)
Pemberville
Tiffin
Woodville (to be trib.
to Toledo Sew.Syst.)
Sjandxisky Co. S.D. #1
Ballville Area
Prairie Run Area
Seneca County, Clinton Twp.
(Melmore St. Area - to be
trib.to Tiffin Sew.Syst.)
Completion Dates
Report and Det. Plans
Gen. Plan & Financing Construction
12-15-69
12-15-69
9-16-69
12-15-69
12-15-69
6-15-70
12-15-68
12-15-69
12-15-68
12-15-69
In prepar .
Approved
Approved
Completed
Approved
3-15-68
Approved
6-15-6T
8-15-67
6-15-68
6-15-68
Approved
6-15-68
.12-15-67
6-15-69
7-15-67
12-15-68
Approved
8-15-68
1-15-68
Approved
11-15-67
12-15-69
12-15-68
12-15-68
- Only subdivision in village served by extended aeration plant,
-1-
-------
369
2. New secondary treatment facilities which will be in addition
to existing facilities will be provided by the following communities
according to the indicated time schedules:
Completion Dates
Report am
Municipality
Huron
Lorain
Oak Harbor
Port Clinton
3. Enlargements of existing plants of the following communities
having secondary treatment facilities will be provided according to the
indicated time schedules:
Completion Dates
Report and
Approved
Approved
6-15-67
Approved
Det. Plans
& Financing
6-15-68
6-29-68
8-15-68
12-12-67
Construction
11-15-70
12-15-70
12-15-69
12-15-69
Report and Det. Plans
Municipality Gen. Plan & Financing Construction
Norwalk Approved 12-15-68
^Jpper Sandusky 3-15-68 3-15-69 7-15-70
Vermilion 6-1-69 (Under constr.)
U. New or improved treatment facilities completed and placed in
operation during 1967 and now adequate:
Fremont
LaGrange
—2—
-------
37-0
Inchist ri a 1 Was te_s_
Additions or iinprovcir.eiits to the facilities for treatment of
Industrie! vustes fro;?, the following establishments so that adequate
treatment or control is provided will be made in accordance vith the
indicated time schedules:
Dates
Be.ltimore & Ohio Railroad Co.
Willard
Bechtel & McLaughlin, Inc.
Erie Co.-Perkins Tvrp.
Clevite Corporation
Harris Division
Erie Co.-Milan Twp.
General Electric Company
Bellevue Lcrup Plant #2U2
Bellevue
Hirzel Canning Company
Wood Co.-Ross Twp.
Muskixlonge View Dairy
Sandusky Co.-Sandusky Twp.
Norfolk & Western Railway Co.
Bellevue
Pioneer Rubber Co.
Attica
Pittsburgh Plate Glass Co.
Richland Co.-Sandusky Twp.
Swift & Company
Hancock Co.-Washington Twp.
Ternstedt Div., G.M.C.
Elyria
U. S. Steel Corp.-Tubular Opns.
Blast Furnace - Coke Plant Sewer
Lorain
In addition - Central Soya
Huron Co.-Lyme Twp.
et&il Plans
1-1-68
Approved
Submitted
Construction
7-1-68.
12-31-67
7-1-68
To be trib.to Bellevue Sew.Syst.
5-1-68
3-1-68
3-1-68
8-1-68
1-1-69
1-1-69
To be trib. to Attica Sew.Syst.
by 12-31-69.
5-1-68
6-1-68
Approved
7-1-68
5-1-69
6-1-69
6-1-68
12-31-69
Has completed and placed adequate
disposal facilities in operation.
-3-
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Beach
Status
LAKE ERIE BATHING BEACH SURVEY (Concluded)
Problems Monitoring Remarks
Agency
Evaluation by
FWPCA
Chautauqua County (Cont'd)
Silver Creek
Beach
Hanover & Sunset
Bay Beaches
Erie County
Seneca Beach
(Millers Beach)
(Private beach
open to public)
Evangola State
Park
Evans Town Park
Buffalo Municipal
Beach (Bennett
Beach)
Hamburg Town
Park
Times Beach
Beaver Island
Closed in 1967
Open
Open
Open
Open
Open
Closed in 1966
& 1967
No information
available
Open
No information
available
Odors from decaying
aquatic plants in
late summer
Chautauqua Co.
Health Dept.
Chautauqua Co.
Health Dept.
None
None
No information available Erie Co. Health
on physical conditions Dept.
No information available Erie Co. Health
on physical conditions Dept.
No information available Erie Co. Health
on physical conditions Dept.
No information available Erie Co. Health
on physical conditions Dept.
Bacteria - algae
Erie Co. Health
Dept.
No information available Erie Co. Health
Dept.
Occasional algae
Erie Co. Health
Dept.
None
None
None
None
High coliform concentrations.
High turbidity after storms.
Location and topography makes
beach local collection basin
for surrounding pollution.
None
Only extremely unfavorable
weather causes treatment plant
and storm sewer effluent to
adversely affect bathing
quality.
Estimated as unsafe.
Questionable, moderate
pollution. Data for
1967 indicate excessive-
ly high coliform concen-
trations. Algal problem.
Generally safe, slight
pollution. Occasional
high coliform concen-
trations. Algal problem.
Generally safe, slight
pollution. Occasional
high coliform concen-
trations. Algal problem.
Generally safe, slight
pollution. Occasional
high coliform concen-
trations. Algal problem.
Generally safe, slight
pollution. Occasional
high coliform concen-
trations. Algal problem.
Unsafe. Excessively
high coliform concentra-
tions. Algal problem.
Estimated generally safe,
slight pollution. No
1967 bacterial data.
Subject to periodic flush-
ing of Buffalo River.
Safe. Generally maintains
excellent water quality
as long as City of Buff-
alo chlorinates treat-
ment plant effluent. Also
can be affected by
Buffalo storm overflow.
-------
LAKE ERIE BATHING BEACH SURVEY (Continued)
Beach
Status
Problems
Monitoring
Agency
Remarks
Evaluation by
FWPCA
NEW YORK
Chautauqua County
Ripley Beach
Westfield Beach
Lake Erie State
Park
Point Gratiot
Beach
Open
Odors from decaying Chautauqua Co.
aquatic plants in late Health Dept.
summer
Closed in 1967 No information available
Open
Open
Wright Park
Beach
Open
Bacteria, Odors from
decaying aquatic plants
in late summer
Bacteria. During August
decaying aquatic plants
create nuisance condi-
tions.
Odors from decaying
aquatic plants in late
summer
Sheridan Bay
Open
Odors from decaying
aquatic plants in late
summer
Chautauqua Co.
Health Dept.
Chautauqua Co.
Health Dept.
Chautauqua Co.
Health Dept.
Chautauqua Co.
Health Dept.
Chautauqua Co.
Health Dept.
Not an officially supervised
beach and was not officially
open, but the public used it
extensively last year.
None
High coliform concentrations.
Sanitary survey failed to indi-
cate sources of pollution.
High coliform concentrations.
Sanitary survey failed to indi-
cate sources of pollution.
None
None
Questionable, moderate
pollution. Data for
196? indicate high
median coliform concen-
trations. Algal problem.
Unsafe. Date for 1967
indicate high median
coliform concentrations.
Algal problem.
Questionable, moderate
pollution. Data for
1967 indicate high median
coliform concentrations.
Excessive algal problem.
Questionable, moderate
pollution. Data for
1967 indicate high median
coliform concentrations.
Algal problem. Intensive
study in 19&k indicated
beach affected by septic
tanks and Cans da way Cr.
Questionable, moderate
pollution. Data for
1967 indicate high nedian
coliform concentrations.
Algal problem. Inten-
sive study in 1964 indi-
cated beach affected by
stream and sevage plant.
Questionable, moderate
pollution. Data for
1967 'indicate high nedian
coliform concentrations.
Algal problem.
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LAKE ERIE BATHING BEACH SURVEY (Continued)
Beach
Status
Problems
Monitoring
Agency
Remarks
Evaluation by
FWPCA
PENNSYLVANIA
Erie County
Lake City Com-
munity Park
Open
Waldameer Park Open
(Beachcomber Hotel)
(Private beach
open to public)
Algae
Algae
Presque Isle
State Park
Beach #1
Open
Algae (periodic in fall)
Fish kill early summer.
High coliform.
Beaches #2-10 Open
Dead fish and algae
Beach #11
Beach closed
one day in 1967
Coliform, algae, dead
fish
None
Pa. Health Dept. &
Erie Co. Health Dept.
Pa. State Park &
Harbor Comm., & Erie
Co. Health Dept.
Pa. State Park &
Harbor Comm., 8c Erie
Co. Health Dept.
Pa. State Park &
Harbor Comm., & Erie
Co. Health
No nuisance conditions
Open sewage lagoon discharge
on property into bathing area.
Water quality nuisance condi-
tions are relatively unchanged
in recent years.
Insufficient data to
evaluate water quality
situation.
Questionable, moderate
pollution. Data indi-
cate high coliform
counts quite frequently.
Periodic high coliform counts
result from establishments
located west of park. Remedial
action ordered. No outfall occurs
from park facilities. Greatest
problems other than coliform are
dead fish and algae from Lake Erie,
These beaches test out good. No
outfalls occur in this area.
Dead fish and algae from lake
occasionally wash onto beaches.
High counts, are due to outfall
of Erie Sewage Disposal about
one mile away. Improper chlorin-
ation in the past, questionable
operations and inadequate treat-
ment of sewage are factors. No
outfall exists from park facili-
ties. Water quality in 196?
was better than previous.
Estimated from intensive
study in 196U as gener-
ally safe, slight pollu-
tion. Recent sampling
data is insufficient to
make evaluation but indi-
cations are that similar
conditions exist.
Estimated as safe. Inten-
sive study in 196U re-
vealed excellent water
quality. Recent sampling
date is insufficient to
make evaluation.
Questionable, moderate
pollution. Intensive
study in 196U revealed
high coliform concen-
trations quite frequent-
ly. Recent sampling data
indicate similar situa-
tion.
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IAKE ERIE BATHING BEACH SURVEY (Continued)
Beach
Lake County (Cont'd)
Painesville Town-
Bhip Park
Perry Tovnship
Park
Tuttle Park Beach
Madison Tovnship
Status
Open
Open
Open
Open
Problems
No information
available
No information
available
No information
available
Algae
Monitoring Remarks
Agency
City of None
Painesville
Lake Co. Health Dept. None
None in 196? None
Lake Co. Health Dept. Storm Creek outlet about one
Evaluation by
FWPCA
Estimated as generally
safe, slight pollution.
Generally safe, slight
pollution. Occasional
high coliform counts.
Estimated as generally
safe, slight pollution.
Generally safe, slight
Park
thousand feet east of beach.
pollution. Occasional
high coliform concen-
trations.
Ashtabula County
Geneva-on-the- Open
Lake State Park
Geneva Township Open
Park
Saybrook Tovnship Open
Beach
Walnut Beach
Open
Ashtabula Tovnship Open
Park
(Lakeshore Park)
Conneaut Tovnship
Park
Open
Algae, debris
Algae, debris, logs
Algae, logs, debris,
sewage
No information
available
Algae, logs, debris
None
Village of Geneva-on-
the-Lake & Ashtabula
Co. Health Dept.
Ashtabula Co. Health
Dept.
Ashtabula Co. Health
Dept.
City of Ashtabula
City of Ashtabula
City of Conneaut
Pollution sources are diluted
somewhat by the time they
reach beach.
None
Main source of pollution from
large trailer park and cottage
area directly to the west.
None
None
None
Estimated as generally
safe, slight pollution.
Algal problem.
Estimated as generally
safe, slight pollution.
Insufficient data to
evaluate vater quality
situation.
Estimated as generally
safe, slight pollution.
Indication of occasional
high coliform concentra-
tions.
Insufficient data to
evaluate vater quality
situation.
Insufficient data to
evaluate water quality
situation.
-------
LAKE ERIE BATHING BEACH SURVEY (Continued)
Beach
Status
Problems
Monitoring
Agency
Remarks
Evaluation by
FWPCA
Cuyahoga County (Cont'd)
Euclid Park Posted
Lloyd Road Beach Posted
Lake County
Osborne Beach
(Willoughby Beach) Open
Bacteria
Bacteria
None in recent years
None in recent years
No information
available
Presently posted against
svimming by City of Euclid
due to pollution.
Presently posted against
swimming by City of Euclid
due to pollution.
Lake Co. Health Dept. None
Unsafe - excessively
high coliform concen-
trations.
Unsafe - excessively
high coliform concen-
trations.
Estimated as generally
safe, slight pollution.
Mentor City Park Open
Orchard Beach
Open
Painesville City
Beach
Headlands State
Park
Fairport Harbor
Beach
Open
Open
Open
Algae, septic tank
effluent
No information
available
No information
available
No information
available
Trees
Lake Co. Health Dept.
Lake Co. Health Dept.
City of Painesville
Lake Co. Health Dept.
Lake Co. Health Dept.
Storm sewer carrying septic
tank wastes flow daily. By
next summer all septic tanks
should be abandoned.
Storm sewer discharge near
beach contains some septic tank
wastes. New sanitary sewers
installed this summer should
eliminate septic tank waste
discharge.
None
Flush toilets and new sewage
treatment plant under construc-
tion. Beach near mouth of Grand
River but protected by half mile
breakwall. Northeast wind might
cause increase in coliform.
Southeast of Grand River. River
receives industrial wastes,
treated sanitary wastes from
Painesville and Fairport and
untreated wastes from Grand
River Village.
Generally safe, slight
pollution. Occasional
high coliform concen-
trations. Algal problem.
Generally safe, slight
pollution. Occasional
high coliform concen-
trations.
Estimated as generally
safe, slight pollution.
Generally safe, slight
pollution. Occasional
high coliform concen-
trations.
Generally safe, slight
pollution. Occasional
high coliform concen-
trations.
-------
LAKE ERIE BATHING EEACH SURVEY (Continued)
Beach
Status
Problems
Monitoring
Agency
Remarks
Evaluation by
FWPCA
Lorain County (Cont'd)
Avon Lake Park Open
Cuyahoga County
Huntington Metro- Open
politan Park
Rocky River Park
Perkins Beach
Posted
No information
available
Algae and dead fish
High coliform
concentrations
Posted but open Bacteria, debris
None in recent
years
Cleveland Metro-
politan Park Board
City of Rocky River
& Cuyahoga County
Health Department
City of Cleveland
Repeated tests shoved continu-
ing contamination and testing
vas discontinued.
No sanitary outfall - small
stream with storm flow at east
end of beach. Water quality
in 1967 best for several years.
None
None
Estimated as questionable,
moderate pollution.
Insufficient data to
evaluate water quality
situation. Lorain Co.
Health Dept. recommends
against swlmmjng.
Generally safe, slight
pollution. Occasional
high coliform concentra-
tions. Algal problem.
Estimated unsafe. Exces-
sively high coliform
concentrations
Unsafe - Excessively
high coliform concentra-
tions.
Edgewater Park
Posted but open Bacteria, debris
City of Cleveland None
Unsafe - Excessively
high coliform concentra-
tions.
White City Park
Posted but open Bacteria, debris
City of Cleveland None
Unsafe - Excessively
high coliform concentra-
tions.
Wildwood Park
Posted but open Bacteria, debris
City of Cleveland None
Unsafe - Excessively
high coliform concentra-
tions.
-------
LAKE ERIE BATHING BEACH SURVEY (Continued)
Beach
Status
Problems
Monitoring
Agency
Remarks
Evaluation by
FWPCA
Erie County (Cont'd)
Cedar Point Open
(Private beach open
to the public)
Huron City Park
Open
Some debris & algae -
silt and oil
Ho information
available
City of Sandusky
& Ohio Dept. of
Health
None
None
Storm drain outfall in beach
area.
Estimated safe. Limited
data indicates acceptable
bacterial conditions.
Occasional algal problem.
Reported to have grease
balls washed onto beach.
Insufficient data to
evaluate vater quality
situation.
Lorain County
Vermilion City Park Open
Lakeview Park
Open
Algae, debris
Algae, logs, debris,
dead fish
None
City of Lorain
None
Outfalls at center of beach
and each end.
Century Park
Open
Algae, logs, debris,
dead fish.
City of Lorain
Outfall at east end of
beach.
Insufficient data avail-
able to evaluate water
quality situation.
Estimated generally safe,
slight pollution.
Insufficient data to
evaluate water quality
situation. Lorain City
Health Department recom-
mends beaches be closed.
Estimated as question-
able. Insufficient data
to evaluate water quality
situation. Lorain City
Health Dept. recommends
beaches be closed.
Sheffield Lake Park Open
No information avail-
able
None in recent
years
Repeated tests showed continu-
ing contamination and testing
was discontinued.
Estimated as questionable,
moderate pollution.
Insufficient data to
evaluate water quality
situation. Lorain Co.
Health Dept. recommends
against swimming.
-------
LAKE ERIE BATHING BEACH SURVEY (Continued)
Beach
Status
Problems
Monitoring
Agency
Remarks
Evaluation by
FWPCA
OHIO
Lucas County
Toledo Area Beaches
Crane Creek State
Park
No information
available.
Open
Ottawa County
Port Clinton City
Park
East Harbor State
Park
Open
Open
Bacteria
No data available
on physical conditions
of beach.
Lucas Co. Health
Department
Ohio Dept. of Nat.
Resources, Div. of
Parks & Recreation
No information
available
No data available on
physical conditions
of beach.
No information
available
Ohio Dept. of Nat.
Resources, Div. of
Parks & Recreation
No longer collects samples.
County recommends against
swimming because of polluted
conditions.
Beach closed 1-2 days after
heavy rains.
None
None
Estimated unsafe. Algal
problem.
Generally safe, slight
pollution. Occasional
high bacterial counts.
Occasional algal problem.
Reports of Jelly globular
substance after strong
north winds believed to
be of oil or grease
origin.
Insufficient data to
evaluate water quality
situation
Generally safe, slight
pollution. Occasional
high coliform concen-
trations.
So. Bass Island Open
State Park
Erie County
Kelleys Island Open
State Park
No information available
No information available
Ohio Dept. of Nat. None
Resources, Div. of
Parks & Recreation
Ohio Dept. of Nat. None
Resources, Div. of
Parks & Recreation
Insufficient data to
evaluate water quality
situation. Algal pro-
blem.
Insufficient data to
evaluate water quality
situation. Algal pro-
blem.
-------
LAKE ERIE BATHING BEACH SURVEY
Beach
Status
Problems
Monitoring
Agency
Remarks
Evaluation by
FWPCA
Monroe County
Polnte Aux Peaux
(Private beach open
to public)
Stony Point Park
(Private beach open
to public)
Willow Beach
(Private beach open
to the public)
Sterling State Park
Open
Open
Open
Algae & silt - Peat
from Lake Erie washes
ashore with easterly
winds.
Algae & silt - Peat
from Lake Erie washes
ashore with easterly
winds.
Algae & silt - Peat
from Lake Erie washes
ashore with easterly
winds.
Posted- Unsafe Bacteria, algae, trees
for Swimming silt, debris, oil,
sewage
Toledo Beach
(Private beach open
to the public)
Open
Algae - silt - Peat
from Lake Erie washes
ashore with easterly
winds.
MICHIGAN
Michigan Water Res.
Comm. & Monroe Co.
Health Dept.
Michigan Water Res.
Comm. & Monroe Co.
Health Dept.
Michigan Water Res.
Comm. & Monroe Co.
Health Dept.
Michigan Water Res.
Comm.
Michigan Water Res.
Comm. & Monroe Co.
Health Dept.
Community to be sewered
by 1970. Bacteriological
tests show safe waters
for bathing.
In 1966 this beach was declared
unsafe by the Monroe Co. Health
Dept. No storm or septic tank
discharges within immediate
area. Sewers to be in by 1969.
Stony Creek discharge and
storm water pump stations. All
beach areas should be sewered
by 1970.
Sewage collection and treatment
needed. Rest room facilities
discharge wastes to Monroe Co.
STP by pressure lines. The
park will tie into a gravity
flow sewer when it becomes avail-
able. Sandy Creek (with sewage)
discharges to Sterling State
Park Beach. Plans to correct this
situation are being evaluated.
Beach area to be sewered by 1969.
Generally safe, slight
pollution. Occasional
high coliform concen-
trations. Algal problem.
Generally safe, slight
pollution. Occasional
high coliform concen-
trations. Algal problem.
Generally safe, .slight
pollution. Occasional
high coliform concen-
trations. Algal problem.
Bottom contains consider-
able amount of muck.
Questionable, moderate
pollution. Algal problem.
Generally safe, slight
pollution. High coliform
concentrations in 1967.
Algal problem.
-------
WATER QUALITY OF LAKE ERIE BATHING BEACHES
Unsafe
Questionable
Moderate Pollution
Generally Safe
Slight Pollution
Safe
MICHIGAN
Sterling State
Pointe Aux Peaux
Stony Point
Willow
Toledo
OHIO
Toledo Area
Rocky River
Perkins
Edgewater
White City
Wildwood
Euclid
Lloyd Road
Century
Sheffield Lake
Avon Lake
Crane Creek State
East Harbor State
Lakeview
Huntington Metro.
Osborne
Orchard
Mentor City
Painesville City
Headlands State
Fairport Harbor
Painesville Tovnship
Perry Township
Tuttle
Madison Township
Geneva-on-the-Lske State
Geneva Township
Walnut
Cedar Point
PENNSYLVANIA
Presque Isle State
(Beach #11)
Waldameer
Presque Isle State
(Beach #l)
Presaue Isle State
(Bea'ches #2-10)
NEW YORK
Westfield
Silver Creek
Hamburg Town
Ripley
Lake Erie
State
Point Gratiot
Wright
Sheridan Bay
Hanover Beach
& Sunset Bay
Seneda (Millers)
Evans Town
Evangola State
Buffalo Municipal
Times
Beaver Island State
Insufficient data available to evaluate water quality at the following
beaches: South Bass Island State, Port Clinton City, Kelleys Island State,
Huron City, Vermilion City, Saybrook Township, Ashtabula Township, Conneaut
Township in Ohio and Lake City Community in Pennsylvania.
-------
CONCLUSIONS
1. All Lake Erie beaches are adversely affected at least oc-
casionally by bacterial pollution, esthetic impairment,
or both.
2. Bacterial pollution varies from major continuous problems
at some beaches to occasional or infrequent problems at
others. The following table summarizes the bacterial quality
at sixty Lake Erie beaches.
3. Pollution sources to Lake Erie beaches include sewer over-
flows, municipal treatment plant bypasses, inadequately
disinfected effluents, septic tank discharges, urban and
rural runoff, and industrial waste discharges.
k. The principal esthetic problem is that of algae fouling
beach areas. Without adequate beach maintenance programs,
obnoxious and unsightly conditions are created by the de-
composition of these algae. Other esthetic impairments are
caused by discoloration, oil, garbage, trash, and other
debris.
5. The primary purpose of a bathing beach surveillance program
is not only the determination of water quality but the
location of all pollution sources to the beach and its
effect on the water quality. The objective of the program
is not to close down presently polluted beaches but to
remove the pollutants at their source so as to eliminate
or at least reduce the need for future closures.
6. Although a necessary step for the protection of public health
is the posting of polluted beaches, this action should be
only temporary. An unsafe beach should immediately establish
an active program to abate pollution and the needed additions
and corrections to existing facilities should be a high
priority in any pollution control program.
-------
•33
m
1,000- V
-------
NEW YORK
Figure 6 summarizes the "bacterial data collected by Erie and
Chautauqua County Health Departments. Median coliform concentrations
are fairly high for beaches in Chautauqua County vhile the median
concentrations ere lower for beaches in Erie County.
Pollution sources to these beaches are primarily storm and
combined sewer overflows, pollution laden streams in the area, muni-
cipal waste treatment plant effluents and bypasses, and septic tank
effluents.
The maximum coliform concentrations were found to be associated with
meteorological conditions. Beach surveys conducted by Erie County
Health Department indicate that winds are a major factor in pollution
of the beaches. Pollution from Cattaraugus Creek is kept near shore
with high winds and affects the water quality of several Erie County
beaches. Enteric pathogens have been isolated from the Buffalo River.
All New York area beaches are affected by heavy algal growths
which are washed into long windrows along beach areas, particularly
in coves and other shoreline indentations. These algae, produced by
nutrients discharged to the lake from sources within New York and
neighboring Lake Erie states, cause extensive esthetic problems as
they decompose. As an example, at Lake Erie State Park, bathers must go to
the end of a concrete pier before attempting to enter the water to. avoid
the foul slimes of decomposing algae.
10
-------
100,000-
10,000-
1,000.
100
100,000-
IO.OOO
1,000- -
1
IOO.OOO-
10,000-
1,000.
IOO
•BEACH NO. I
_• IOOJOOO-
co,ooo<
1,000-
100
LEGEND
--RECOMMENDED LIMIT FOR SWIMMING
(an NO. OF DAYS SAMPLED
m
n BATHING SEASON
* COMBINED RESULTS OF SAMPLES
FROM SEVERAL LOCATIONS.
NOTE:
DATA OBTAINED FROM PRESOUE ISLE STATE
PARK ADMINISTRATION OFFICE AND ERIE
COUNTY DEPARTMENT OF HEALTH.
SCALE IN MILES
•^BEACHES NO. 2-10 BEACH NO. II
PRESQUE ISLE STATE PARK
LAKE CITY COMMUNITY RIXRK
BACTERIAL CONCENTRATIONS
PENNSYLVANIA BATHING BEACHES
-------
371
LETTER OF SUBMITTAL
May 1, 1968
To: Ohio Water Pollution Control Board
450 East Town Street
Columbus, Ohio 43215
Gentlemen:
Submitted, herewith, is the report and recommendations of the
engineering staff of the Ohio Department of Health on water
quality and uses for the following intrastate waters:
1. The Rocky River and its tributaries.
2. The Cuyahoga River and its tributaries.
3. The Chagrin River and its tributaries.
4. The Grand River and its tributaries.
This report is prepared for presentation at the public hearing
in Cleveland on May 22, 1968, which is being held by the Ohio
Water Pollution Control Board under the provisions of 6111. 03 (A)
of the Ohio Revised Code.
You will note detail plans and schedules for compliance are not
included in this report. Such plans and schedules will be
submitted to the Board later after the stream-water quality
criteria and uses are established. The Board will recall that
water quality standards for Lake Erie, into which the streams
under consideration discharge, were adopted on April 11, 1967.
The engineering staff wishes to acknowledge and thank the Federal
Water Pollution Control Administration and the Water Quality Branch,
Geological Survey, U.S. Department of Interior; the Ohio Department
of Natural Resources, Divisions of Water and Wildlife; the Lake
Erie Watershed Conservation Foundation; and, the Cuyahoga River
Basin Water Quality Committee for their assistance.
submitted,
George H. Eagle
Chief Engineer
-------
372
CONCLUSIONS AND RECOMMENDATIONS
1. The streams of the Rocky, Cuyahoga, Chagrin and Grand River basins
drain a triangular shaped area in northeastern Ohio of roughly 2, 180
square miles. Most of the metropolitan developments of Akron and
Cleveland are included in the western portion of the area. All of the
streams under consideration drain to Lake Erie.
The population of the four drainage basins is nearly 2,200,000 people,
80% of which reside in the Cuyahoga River basin. The principal cities
are Cleveland and suburban communities, Akron and suburban com-
munities, Painesville, Chardon, Ravenna, Kent, Medina and Berea.
The areas of rapid growth in the future are expected to be in the
corridor between Akron and Cleveland and those portions of Medina,
Portage and Geauga Counties nearest to these two cities.
The major industrial developments are centered in the Cleveland-
Akron portion of the Cuyahoga River basin and they include steel,
rubber, chemical and metal fabricating industries. Basic chemicals
is the major industry in the Grand River basin and this is near the
o
mouth of the river. Only minor industrial developments are located
in the Rocky and Chagrin River basins.
2. Two cities, Medina and Berea, obtain their water supplies from
upstream branches of the Rocky River; Akron and the area supplied
by it obtains water supply from the upper Cuyahoga River; Willoughby
uses the Chagrin River; and, the City of Geneva and the Village of
--2-
-------
373
Jefferson obtain their water supplies from the Grand River. The
total public water supply usage is less than 70 MGD.
By far the greatest water usage is for industrial and power generating
purposes. In the Akron area, this amounts to about 185 MGD; in the
Cleveland area about 120 MGD; in the Willoughby area about 2 MGD;
and, in the Painesville area about 2. 5 MGD.
Fishing, boating, wading, and in a few places swimming occur in each
of the basins. Several stretches of the Rocky, Cuyahoga and Chagrin
Risers and their tributaries are within the Cleveland Metropolitan
Park district and other park jurisdictions. The lower Cuyahoga River
from Harvard Avenue to Lake Erie is used primarily for navigation
and industrial water supply.
^^
principal pollution problems are dissolved solids, oxygen-
consuming materials, bacteria, nutrients, color and floating debris
and oil. The highly critical areas are in the Cuyahoga River below
Akron and below the Cleveland Southerly Sewage Treatment Plant,
and in the Grand River through the cities of Painesville and Fairport.
4. While good secondary wastewater treatment plants have been con-
structed or are in the process of being constructed, for many of the
municipalities and sewered areas in the river basins under consider-
ation, there are many overloaded facilities, unsewered areas, and
combined sewer problems that remain to be taken care of. Similarily,
the industrial wastes pollution loads have not been adequately reduced
^Fall instances to meet recommended water quality criteria and uses.
Much is yet to be accomplished in this area. Careful and comprehensive
-3-
-------
374
management of the water resources of the four basins, and particularly
the Cuyahoga River basin, is going to be absolutely necessary in order
to attain the water quality goals recommended herein.
5. The minimum conditions applicable to all waters and the criteria of
stream-water quality for various uses adopted by the Ohio Water
Pollution Control Board on October 10, 1907 (see Appendix C) are
proposed for all the waters under consideration except as noted in
Paragraph 6. In addition, the following criteria for higher uses in
certain streams stretches are proposed:
(a) Cold Water Fisheries in the Chagrin River above
Chagrin Falls, and the Aurora and the East Branches
of the Chagrin River.
Minimum dissolved oxygen concentration - 6. 0 mg/I
Maximum water temperature - 70°F.
pH - not less than 6. 5 nor greater than 8. 5 at anytime.
(b) Partial Body Contact (wading and boating) in the several
stream stretches and reservoirs in the public park and
recreational areas. This would be applicable, at this
time, to the Rocky River below Berea; a section of the
Cuyahoga River and its tributaries between Akron and
Tinkers Creek; and, the Chagrin River below Gates Mills.
Bacteria: coliform group not to exceed 5,000 per 100 ml.
-4-
-------
375
as a monthly average value (either MPN or MF count) nor
exceed this number in more than 20 percent of the samples
examined during any month; nor exceed 20, 000 per 100 ml
in more than five percent of such samples. (This is a proposed
tentative criteria subject to the resolution of the fecal coliform
criteria by health authorities. )
6. The stream-water quality for the specific sections listed below should
meet the minimum conditions, and the criteria for uses as follows:
(a) The Cuyahoga River from the Akron Wastewater Treatment
Plant to State Highway No. 17 bridge, should meet Aquatic
Life B criteria at all times, and Partial Body Contact criteria
where applicable, and, in addition, should meet Aquatic Life
A criteria by not later than January 1, 1975, (see requirements
in Paragraph 7);
(b) The Cuyahoga River from State Highway No. 17 bridge to
the U.S. Coast Guard Station, should meet Industrial Water
Supply criteria by not later than January 1, 1971, and, in
addition, should meet Aquatic Life B criteria by not later
than January 1, 1975, (see requirements in Paragraph 7)j
(c) The Grand River from U.S. Highway No. 20 bridge to the
U.S. Coast Guard Station, should meet Aquatic Life B
criteria by not later than January 1, 1971, and, in addition,
should meet Aquatic Life A criteria by not later than
January 1, 1975; and
-5-
-------
, 376
(d) A_H _pth_ei'l_y/aU\rs _in_thc K oj^y^_Cj!y_ah_Of(a, Chafli'j.n_a_ncl Grand
liiyj-LJ^?J? Ml?.' should meet the criteria for all applicable uses,
including those for Cold. Water Fisheries and Partial Body
Contact in the stream stretches and reservoirs specified
in 5.
To meet the minimum conditions and the criteria for the recommended
uses will require: (1) efficient secondary treatment of all organic wastes;
(2) further treatment (tertiary or advanced) in many instances where stream
characteristics and conditions arc critical by reason of low flov/s, seiches,
uses and other influencing factors; (3) a high degree of treatment and/or
control of other pollutants; (4) continuous disinfection of effluents for
protection of public water supply, recreation and partial body contact
uses in those reaches where such uses are desired and the chlorination
effect is not detrimental to the maintenance of aquatic life; and, (5) a
comprehensive program for further improvement of the water quality
by augmentation of low flov/s, instream treatment, and/or other ap-
propriate means; and, (6) an additional flow of at least 100 c.f. s. in
the Cuyahoga River below Akron is mandatory to meet the proposed
water quality criteria even after the highest degree of wastewater
treatment reasonably attainable under present technology has been
provided.
To reduce algal growths, extensive programs of nutrient control
(phosphorous and nitrogen) should be pursued throughout the basin.
Such programs to be effective should be applicable to all sewage
discharges, industrial discharges and land run-off.
-6-
-------
377
J3 All apropriatc agencies and other entities, i. e. the Ohio
Water Commission, the Soil Conservation Service, U.S.
Department of Agriculture, and Three Rivers Watershed
District will be encouraged to implement programs for
erosion control to reduce silt problems.
-7-
-------
'37S
WATER POLLUTION CONTROL BOARD
DEPARTMENT OF HEALTH
COLUMBUS, OHIO
WATER QUALITY STANDARDS ADOPTED 3Y THE BOARD JANUARY 10,
FOR THE MAUMEE, TIFFIN, ST. JOSEPH, AND ST. MARYS RIVER BASINS
The Ohio Water Pollution Control Board hereby adopts water quality
Standards for the following interstate waters:
(l) The Maumee River which flows from the State of Indiana through
northwestern Ohio to Lake Erie;
(2) The Tiffin River which originates in southern Michigan and flews
through Ohio to the Maunee River;
(3) The St. Joseph River which originates in Michigan, flows across
'the northwestern part of Ohio and into Indiana; and,
(U) The St. Marys River which originates in Ohio and flows into
Indiana.
Further, the Ohio Water Pollution Control Board hereby adopts water
quality standards for the following intrastate waters:
(l) All intrastate tributaries of the Maumee River; and,
(2) Tenmile Creek (Ottawa River in Toledo), Shantee Creek, and
Otter Creek which are tributary to Maumee Bay.
Water Quality - Conditions and Criteria
All Waters. All the waters considered herein shall meet the following conditions
at all times:
(lj They shall be free from substances attributable to municipal,
industrial, or other discharges that will settle to fora putrescent
or otherwise objectionable sludge deposits;
(2) They shall be free from floating debris, oil, scum, and other
floating materials attributable to municipal, industrial, or other
discharges in amounts sufficient to be unsightly or deleterious;
-------
379
(3) They shall be free from materials attributable to municipal,
industrial, or other discharges producing color, odor, or
other conditions in such degree a;, to create a nuisance; and,
(k) They shall be free from substances attributable to municipal,
industrial, or other discharges in concentrations or combinations
vhich are toxic or harmful to hunan, animal, plant, or aquatic
life.
Stream-Water Quality Criteria for Various Uses adopted by the Ohio Water
Pollution Control Board on June lU, 1966, shall apply to all waters under
consideration herein, vith the following two variances:
f1) Dissolved Solids: (For Public Water Supply)
Not to exceed 750 mg/1 as a monthly average value, nor exceed
1000 mg/1 at any time;
(2) pH; (For Industrial Water Supply and For Aquatic Life)
Not less than 6.5 nor greater than 9-0 at any time.
The Maumee River (l) from the Ohio-Indiana state, line to the 1-75 bridge
near Rossford, shall meet the stream-water quality criteria for all uses;
(2.) from the 1-75 bridge to Buoy Ho. 39 in Maumee Bay (the ship channel
section of the river), shall meet the vater quality criteria for industrial
vater supply and aquatic life (B); and (3-) from Buoy No. 39 to the mouth
Of Maumee-Bay which is near Buoy No. 33, shall meet the water quality
criteria for all uses.
The Tiffin River from the Ohio-Michigan state line to its confluence with
the Maumee River, and its tributaries, shall meet the stream-water quality
criteria for all uses.
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The Jit_«_. Joset)h_Riv_er_ from the Ohio-Michigan state line to the Ohio-Indiana
state line, and its tributaries in Ohio, shall meet the stream-water quality
criteria for all uses.
The St. Marys River, and its tributaries, shall meet the stream-water quality
criteria for all uses.
All tributaries of the Maumee River shall meet the stream-water quality
criteria for all uses.
Tenmile Creek from its source to the Toledo city limits shall meet the stream-
vater quality criteria for all uses.
The Ottawa River in Toledo (Tenmile Creek), Shantee Creek, and Otter Creek
shall meet the stream-water quality for industrial water supply and aquatic
life (B).
Implementation and Enforcement Plan
The Ohio Water Pollution Control Board, under the provisions of Sections
6111.01 to 6111.03, 6111.31 to 6111.38, and 6111.99, Ohio Revised Code, has
authority to control, prevent, and abate pollution in the waters of this state.
In accordance with such authority, the Board hereby adopts the following program
and requirements for the prevention, control, and abatement of new or existing
pollution of the waters of the state considered herein:
(l) The design or critical flow defined as the minimum annual seven
consecutive day warm weather flow which is exceeded in 80$ of the
years will be used in applying the stream-water quality criteria;
(2) All plans and.proposals for abatement or correction of pollution
will be approved by the Ohio Department of Health as, required by
lav and such approvals shall constitute approval by the Board;
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All sewage will be given secondary treatment (biochemical oxidation),
and the facilities to provide such treatment will be constructed and
placed in operation without delay, and in no instance later than
January 1, 1970;
AH effluents will be satisfactorily disinfected to meet the criteria
for downstream water uses and the facilities to provide such disin-
fection will be installed without delay;
(5) All organic industrial wastes will be given secondary treatment and
other constituents will be adequately treated to.meet the water
quality conditions and criteria, end the facilities to provide
such treatment will be constructed and placed in operation without
delay, and in no instance later than January 1, 1970;
Local programs will be initiated to control and reduce pollution
resulting from (a) bypassing, (b) spillages, and (c) discharges
resulting from construction or breakdowns;
(7) Necessary studies will be made and, where feasible, plans and
construction programs will be developed as rapidly as possible
for reducing pollution from existing combined sewer overflows;
(8) Where necessary, supplementary treatment of wastewaters will be
provided to the fullest extent consistent with current research
and technological advances;
(9) The sustained strean flow plan included in the Northwest Ohio
Water Plan adopted by the Ohio Water Commission is hereby made a
part of this program and the implementation of this plan will be
ipecessary to fully meet the water quality conditions and criteria;
and
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(10) Ohio's stream-water quality monitoring program will be expanded
adequately provide assurances of compliance with these standards.
Furthermore, the Board and the Ohio Department of Health will encourage
and assist other agencies such as the Ohio Water Commission and the Soil
Conservation Service, U.S. Department of Agriculture, in the implementation
of effective soil erosion control programs, and programs for the reduction
Of the runoff of phosphorous, nitrogen compounds, and pesticides.
Enforcement of these requirements will be carried out by means of the
respective permits issued to municipalities, counties, industries, and other
entities discharging to the waters of the stream basins considered herein, and
failure to comply with the permit conditions will result in legal action in
accordance with the provisions of laws.
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TO: City Officials, Consulting Engineers and Oilier Interested Persona
FROM: George H. Eagle, Chief Engineer, Ohio Department of Health
SUBJECT: Removal of Pnosphetes from Waste Waters
At the August 3-12, 19&5, conference on pollution, of Lake Erie, it war
agreed upon by bordering States and Federal Water Pollution Control Authorities
that municipal wastes be given secondary treatment and that "secondary treatment
plants be so designed and operated as to maximize the removal of phosphates" in
the Lake Erie Drainage Basin. Further, the water quality standard adopted by the
Ohio Water Pollution Control Board for other basins throughout the state require
sujrplenental treatment of wastewatcrs to the fullest extent consistent with
current research and technological advances where necessary to reduce algae growth;.-.
Subsequent to these requirements and agreements, muructipalities were
ordered by the Ohio Water Pollution Control Board to prepare general plans of
wastewater treatment facilities for compliance. Most of the major municipalities
complied with this order by employing consulting engineers to prepare general plans
of the necessary improvements.
It soon became evident that very little was known about treatment for
phosphates removal by either the consulting engineers or the state and federal
agencies. As a result, general plans of wastewater treatinent facilities subnittec
for^Jfcroval and approved by this department practically ignored the matter of
phosphite removal other than to state phosphate treatment facilities were being
deferred until more was known about the matter.
Information furnished by the Federal Water Pollution Control Administration
Indicates there is a method by which phosphates can be removed at a lo\\r capital cor.t.
fills method involves the addition of sodium aluminate to the aeration tanks. It is
•eported the phosphate precipitates formed by the addition of sodium aluminate will
lot go back into solution or interfere with the disposal of sludge. It is also re-
sorted that the addition of this chemical will improve suspended solids removal in
,he final settling tanks and thus also improve the BOD removal efficiency of the
>lant. Other methods involving high capital costs have also been demonstrated to
'unction satisfactorily.
It is recognized that the sodium alurainate phosphate removal process in-
rolves a high operation cost and it is hoped some other less expensive process will
>e developed before long. We cannot, however, continue to ignore the phosphate pro-
ilea with the hope that some better process will develop at some future date. Future
lens,., both general and detail, of treatment plant improvements submitted to this
epartment for approval will have to make some provision for phosphate treatment.
t the present time, we do not know of any treatment process involving less capita].
ost than the sodium aluminate process.
arch 28, 1968
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< 384
To: City Officials, Consulting Engineers, County Sanitary Engineers,
and other interested persons.
From: George H. Eagle, Chief Engineer, Ohio Department of Health
Subject: Sanitary Sewer Joints and Manholes
February 1, 1968
Overloading of sanitary sewers and sewage treatment plants resulting from
excessive infiltration of ground or surface water is a serious problem in. Ohio.
At places where overloading is a problem and where surface and subsurface clean
water connections are prohibited by ordinance or regulation, the overloading is
caused by infiltration through leaking joints and manholes. Leaking sewers can
be caused by unworkmanlike construction practices or by the use of unsuitable
materials. Tight sewer systems are an absolute necessity if water quality
objectives for Ohio waters are to be attained. In the future sanitary sewer
plans will not be approved by the Ohio Department of Health unless the spe
tions conform to the following:
(1) Joints for vitrified clay bell and spigot pipe shall be
compression joints as defined by ASTM Designation: C-425.
Poured joints and joints of the slip seal type will not be
approved.
(2) For concrete sanitary sewer pipe flexible watertight joints con-
forming to ASTM Designation: C-443 will be required..
(3) If satisfactory materials other than clay or concrete are used
for sanitary sewer pipe the joints shall meet standards equal
to the standards set forth above for clay and concrete pipe.
(4) Manholes shall be either poured-in-plnce concrete or precast
concrete manhole sections. Precast concrete manhole sections
shall conform to ASTM Designation: C-478 and the joints between
sections shall conform to ASTM'Designation: C-443.
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(^L Revisions of the specifications referred to herein will be
accepted provided the revisions up-grade the quality of
sever construction.
(6) Sanitary sewer specifications shall, include provisions for
testing the tightness of the sev;er by an infiltration or
exfiltration process or by any other approved process.
The testing, as well as the sewer construction, irast be
under the .direction of a qualified engineer or a competent
inspector directed by an engineer.
(7) Building severs shall be constructed in accordance v.dth
specifications equal to those indicated above.
(8) Sanitary sewer plans submitted for approval shall either
be accompanied by separate contract specifications or
specifications noted on the .plans .
0.1D.K.
—2——
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George H. Eagle
1 CHAIRMAN STEIN: Very good, Mr. Eagle.
2 This is really a comprehensive report. Just
3 for some of these people sitting up here in the front row,
4 I would like to commend this report here, and I see we
5 have a complete list of municipal and industrial sources
6 in this, and I am very happy with this report.
? MR. EAGLE: Thank you.
CHAIRMAN STEIN: Any questions?
8
Again, I think this is the only device by which
we can get this going. If you followed the pollution
control programs in the States and in the cities, I think
11
we, in listening to all these reports, are really moving
12 f
along. We have a law, for better or worse, that gives us^
13
a device for State-Federal relations. We are trying to
14
make it work, and I do think it is working and working
15
rather well. At least it is contemplated by the people
16
who wrote the law, and that is about all we can do, and
17
I think we have programs moving forth rather consistently
18
in the five Lake Erie States.
19
I think we have rather complete reporting
20
with enough specificity so that all the interested people
21
can see what is happening, and I think we are going ahead.
22
Of course, we are spotlighting these problems as we are
23
going along and will take them up.
24
I finally found that phosphate letter you had
25
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Charles Marquetta
in the back of this.
ii
MR. EAGLE: Yes.
3
CHAIRMAN STEIN: And understandably: there .was
4
no numerical figure on your statement either on how much
5
phosphates had to be removed.
6 MR. EAGLE: No, sir.
7 CHAIRMAN STEIN: It said they had to give
8 consideration, as I read it here, to phosphate removal
9 and they have to include some phosphate removal and
10 that they describe the processes that had been recommended.
11 Are there any comments or questions on Mr.
124fe Eagle's report?
13 I think that in conjunction with the report we
14 heard from Cleveland indicates we are moving apace in
15 Ohio.
16 Do you have any other people you want to call?
MR. EAGLE: No, sir.
18 CHAIRMAN STEIN: Do we have any other requests?
19 I have a request from Charles Marquetta of
Cleveland.
Now, sir, I see you are on a Council of Air
and Water Pollution Control. We are only interested in the
jurisdiction of water here.
MR. MARQUETTA: Well, this here — it gets on
your trees, roof, and in your gutters, in your sewer and
'5
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Charles Marquetta
the rain washes it to the river and the river takes it
2 down into the lakes. I would like to demonstrate what
3 this is.
4 CHAIRMAN STEIN: Would you identify yourself,
5 first?
6 MR. MARQUETTA: Charles Marquetta from the
7 Southeast Council Civic Club.
s I demonstrated this a few times and it seems
9 like it ain't getting anywhere. People don't understand
10 what toxic dust and fumes is. They call it pollution,
H but I call it toxic dust. It is a magnet there, and
12 that is out of my rain gutter. Anybody want to come up|
13 and look at it? It is right here.
14 MR. POSTON: This solid material from your
15 rain gutter?
, MR. MARQUETTA: That is from the rain gutter
16
in three months, and that is in an area of about eight
inches. That is what I was complaining about. It seems
18
like it don't drip into people's minds what the people
J. j
are breathing — our children, our dogs and cats — our
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Charles Marquetta
^P from the steel mills down there at the Saint Alexis
2 Hospital that are being pumped out every day. They take
3 them in there and they put these tubes down in their
4 throat or in their nose and they pump that black stuff
5 out of them.
6 The men don't want to quit. They can't say
7 anything, because they have been there 2,0 or 25. years. They
8 want to retire. Now, I don't know why. You take the
Saint Alexis Hospital there, the first breath of air a
i/
baby gets when he is born is that toxic dust, which goes
down into the river, then down into the lake.
11
^| I don't know why they don't say it don't belong
to water pollution because that is blown into the lake
13
right from there. And I was down at Saint Vincent Charity
14
Hospital down there — they had to close the windows down
15
there — that is right here, the subject — this same
16
way at Saint Alexis, this same way with Cleveland Clinic.
17
They smell it there.
18
Instead of getting cured, they pump that stuff
19
right into them. I don't know what you guys are all talking
20
about because they ain't done nothing to take that air
21
out, that dust*. Because if anybody comes in here with a
22
vacuum cleaner and there is dust here and you don't put a
j^.
231
bag in, you are going to spread it all over the floor here,
24 ||
and the same way with the water pollution you are talking
ii
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Charles Marquetta
about. Why should we dig up all that stuff anyway? If
2
you dump in a quart of water to a hundred gallons of
3
water — I mean that polluted water into a hundred gallon
of good water — you would have to fill in the whole
5 hundred gallon, so why not clean it right where it comes
6 from?
7 FROM THE FLOOR: Let them pay for it.
8 MR. MARQUETTA: Yes.
9 Another thing is that we want to reduce water
10 pollution. What do they do? They go out and they sell
11 garbage disposal units, grind it up, and throw it down
12 into the sewer. It goes in the river and down to the l
13 Now, it is easy for these mills or anybody to
14 put settling tanks in, and catch it right there before it
15 goes down into the river and goes down to the lake, but
16 they don't want to do that. They want us to pay for it,
17 make us sick and everything.
18 All the machinery gets that fine dust and toxic
19 fumes and air right into them — like that machinery
20 right there — it gets in your distributor; it gets in
your gas; it gets into everything you do* When you open
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John Chasesa
someplace, you stay there maybe a week, you make out a
speech you are going to tell, you get down there and they
won't let you talk.
FROM THE FLOOR: That is right here in this
great city of ours.
MR. MARQUETTA: That is what I thought you were
going to do here, too, but finally I got here, and I thank
you very much.
CHAIRMAN STEIN: You are welcome. (Applause)
Well, thank you. I told you we are here to
hear this.
MR. MARQUETTA: I am very glad you did.
CHAIRMAN STEIN: Mr. Chascsa has asked us to
put this material into the record and without objection
this will be done.
MR. CHASCSA; The wheel that squeaks gets the
grease, noted in the Plain Dealer on June 4, 1968. Seven
hundred million dollars have been asked for and $400
million have been authorized. So the Administration asks
for $225 million. What is wrong? Isn't pollution worth
the cost and fight?
How many congressmen, Senators, State
Representatives, etcetera, have had their ears pinned
back for speaking out against the very thing we are trying
to eliminate? pollution is not created by us humans. It
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392
John Chasesa
is created by Japanese beetles, farm silt, septic tanks,
improper drainage, autos, etc., if you can make yourself
believe it.
In England recently an oil tanker broke up
j
i
| creating a pollution problem; in Lake Michigan an unknown
culprit created a 75-mile long oil slick; in Lake Erie
recently at Bolles Harbor hundreds of fish were killed
and were washed up on the beach — cause unknown. Lake
Huron alewife problem closes beaches, etc., "tragic," but
isn't someone empowered to act in behalf of the people to
protect their interests in these waters? Page 5#33, Title
33, "Navigation and Navigable Waters," Chapter 407, is
quite clear on what is to be done and who for several
decades would be empowered to enforce this Act. So, for
14
, 40 or 50 years this Act has been lax, not enforced, and
10
17
18
If
22
23
24 i
25 i
I
the result is evident.
In Lake Michigan, the Army Corps of Engineers
Engineering News Record, October 26, 1967, Page 17, on
one operation created a bigger problem by removing the
filth created by Inland Steel through the removal of
this filth and depositing it eight miles out into the
lake. Does this shorten the alewives life span? Does
this cause the death of hundreds of gulls and ducks? The
Army Corps of Engineers say they are only helping to k
navigation open. Do you help navigation by dumping filthy
oil, sewage, paper pulp and other settlings of our rivers
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8
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393
John Chasesa
such as the Cuyahoga, Detroit, Rouge, Maumee and others
into shallow, dying Lake Erie? Let's resuscitate Lake Erie
while it is still possible.
i In 1967 some 7,015,000 cubic yards of this filth
went into Lake Erie. Seventy percent was not confined to
diked areas, only the thirty percent. It is estimated that
over 75 percent will find its way into unprotected areas
of the lake in 1968, and already a clamor is being raised
for permission to dump almost 500,000 cubic yards into the
lake this year from one area alone. There are 23 such
dumps in Lake Erie alone.
Will the $700 million requested from Uncle take
,, care of this problem also? No! Only the sin'cere and honest
.L o !
14 j
15
16
17
IB
efforts of the Department of the Interior, Army Corps of
Engineers, conservation departments, and health departments
and the determined efforts of our engineering sciences with
the cooperation of industries as well as John Q. Public.
Inland settling ponds were suggested to store
; water. We already have lakes; let's keep them clean and
.1 ';i ;'
; we won't need to create artificial sources of water.
21 ;:
We can build 500,000 to 1,000,000 ton capacity
31 |i
I oil tankers, ("Business Week* page 120, April 6, 1968)
22 jj
ii spend zillions to send a bunch of steel and equipment to
23^
^P the moon, and still haven't the ability to keep the very
24 ii
i:
i! necessities, that are essential to bur survivial, clean
25 !•
Ii and unadulterated, other areas and
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John Chasesa
1 countries close down offenders. Why don't we?
2 Every industry should have a method of disposing
3 of its waste before it is permitted to begin to operate.
4 It is not the responsibility of the public to provide this
5 I service. That is why we have the Army Corps of Engineers,
6 Coast Guard, conservation commissions, health departments
7 and on and on. But we also have pollution of our air and
8 water and excuses too. Long extensions to comply should be
g discharged and the Army Corps of Engineers should be the
, last to request an extension.
10 !
i| We have the know-how — let's use it.
X
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395
John Chase sa
amounts of water may be involved.1
2 "'It is hoped that hundreds of millions of gallons
3 of fresh water will be stored underground, and held in re-
4
5
6
7
8
9
10
11
13
15
16
17
& ,i.
serve for long periods of time, perhaps for several years,'
he said.
"Mr. Brown said that a test injection well was
being drilled in Norfolk that would explore the aquifiers
(water bearing sands) deep beneath the city. So far, the
well has indicated that bedrock may be as much as 2600 feet
below the surface. The well has already passed through all
the formations expected to contain useful productive water-
bearing materials.
fttlf the information from the test well is favor-
14 !j able,1 Mr. Brown said, 'other injection wells will be con-
structed, and we will begin to test the feasibility of re-
charging these aquifiers, and thus build up a fresh water
reserve.1
"The test well is being drilled at the Moore's
\\ fl
Bridge Filter Plant, reports the Times. Treated water in
excess of the daily needs of Norfolk will be supplied for
injection from the plant."
Letter from Mr. W. F. Carbine, United States
Department of the Interior, Fish and Wildlife Service,
fl) Bureau of Commercial Fisheries, 5 Research Drive, Ann
24
Arbor, Michigan, 4#103, dated April 25, 196S, to Mr.
25
John Chascsa, President, Lake Erie Cleanup Committee,
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396
John Chasesa
7231 Center, Estral Beach, Newport, Michigan, 48166:
2
"Dear Mr. Chasesa:
3
"This acknowledges receipt of your April 4 note
4
concerning the application of the Dunbar-Sullivan Dredging
Company to dredge spoil from the Route River area and
6
7
8
9
10
11
12
13
14
15
21
22
deposit it into Lake Erie west of the Detroit River Light.
We in the Bureau of Commercial Fisheries certainly do share
your alarm with respect to the effects of the proposed work
would have on Lake Erie.
"Details of this proposed dredging project are
being reviewed by this Bureau, the Bureau of Sport Fisheries
and Wildlife, and the Federal Water Pollution Control
Administration. At this writing a joint position is being
prepared for the above Department of Interior Agencies by
Mr. Charles Stoddard, Interiors Upper Mississippi-Great
16 jj Lakes Coordinator. When completed this position with
17 | recommendations will be presented to the Corps of Engineers.
ii
18 jj I am certain Mr. Stoddard would like to hear from you on
!
19 || this matter. His address is: Mr. Charles A. Stoddard,
ji
20 II Regional Coordinator, Upper Mississippi-Western Great Lakes
Area, 6201 Congdon Boulevard, Duluth, Minnesota, 55804.
"I appreciate your calling this situation to our
attention. If we can be of further assistance on this
| matter, please let us know.
;
i
25 I
23
24
i
''Very truly yours, W. F. Carbine, Regional Director."
Letter from the United States Department of the
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5
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8
9
30
21
397
John Chasesa
Interior, Federal Water Pollution Control Administration,
Washington, D.C., 20242, dated April 9, 1968, to
Honorable Marvin L. Esch, House of Representatives,
Washington, B.C., 20515.
"Dear Mr. Esch:
"This is in reply to your communication of March
25, 196S, enclosing a letter from Mr. John Chasesa, Presi-
dent of the Lake Erie Cleanup Committee, concerning effects
of dredge spoil disposal on the water quality of Lake Erie.
"Mr. Chascsa elaborates on many facets of the
problems encountered with the disposal of dredged materials
r^^ from waterways and industrial harbors that often contain
IH^^B
I high concentrations of pollutants. We agree that open
JLo
water disposal of polluted spoil material should be dis-
14
i continued. In advice given the Corps of Engineers with
15 |
I respect to requests for dredging permits in the Great
16 ii
Lakes, the Federal Water Pollution Control Administration
has consistently urged that polluted dredged spoil be
disposed in a controlled manner and not open casted.
"We also agree with Mr. Chascsa that each polluter
is primarily responsible for his own waste control. Strong
efforts are underway to control waste discharges from the
industrial and municipal complex tributary to the Detroit
23
^P River. The Federal-State Enforcement Conferences for both
24
Lake Erie and the Detroit River established January 1970 as
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393
John Chasesa
1 the date by which all pollution from these sources is to
2 be controlled.
3 "Your interest in and support of water
4 pollution control are appreciated.
5 "Sincerely yours, John M. Rademacher, Director,
6 Division of Technical Services."
y Letter from United States Department of the
8 Interior, Office of the Secretary, Washington, D.C., 20240,
dated September 19, 196?, to Honorable Marvin L. Esch,
i/
House of Representatives, Washington, D.C., 20515.
"Dear Mr. Esch:
"Secretary Udall has asked me to reply to your
X«5
letter of August 25, 1967, concerning the disposal of
J.O
material to be dredged adjacent to the Great Lakes Steel
14
Corporation dock in the Detroit River at Ecorse, Michigan.
15
"The Director of our Great Lakes Regional
16
Office, Federal Water Pollution Control Administration,
17
reviewed the application for permit submitted by Dunbar
18
and Sullivan Dredging Company, and recommended to the
19
District Engineer by letter of August 15, 1967, that the
20
dredged material be placed on land or in a diked area
21
to avoid pollution of Lake Erie.
22
"Sampling of bottom sediments in the vicinity of
23
the Great Lakes Steel Corporation dock was carried out
24
the Federal Water Pollution Control Administration in
25
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399
John Chasesa
1963. The material consisted mainly of silt, organic
ooze, and clay, mostly gray to black in color, with a
strong odor of sewage and oil. Examination of benthie
organisms showed a large population of pollution tolerant
worms. Chemical analyses indicated high concentrations of
nitrogen and phosphorous compounds.
"The potential sources of the organic materials
are not significantly changed since the 1963 samplings.
Hence, the pollutional characteristics of the materials to
be dredged would be expected to be similar to the 1963
samples and further analyses at this time would not seem
necessary to support our recommendation that the
dredged materials be disposed of in a manner that will
prevent pollution of the lake waters.
"Your sincere interest in water pollution
control is appreciated.
"Sincerely yours, Elino R. Morgan, Deputy
Assistant, Secretary of the Interior."
Letter to Michigan Water Resources Commission,
Ann Arbor, Michigan, dated February 19, 1968.
"Water Quality Conference.
"Michigan's most precious heritage, water.
"Why is it necessary to ask people what quality
water they want? Why, after all the investigations,
24
conferences, studies and experiments is it necessary to
25
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John Chasesa
1
ask: do you want safe water or prosperity through
2
industry and large cities?
3
"After seventy-five years or more we pride
4
ourselves on our know-ho in making water safe to consume
5
and air to breathe and still when we look about, we find
6 our papers, magazines, radio and television calling our
attention to the filth in our waters and air. Did it ever
8 occur to any of our health officers, conservationists,
9 public officials, engineers, scientists, industrialists and
10 developers that at times the chemicals used to safeguard
11 our waters are just as injurious to some humans as the
12 polluted water.
13 "We are aware that relaxation with water sports
14 is a growing need, clean fresh water is needed more than
15 ever for our growing population, industries are ever
IQ clamoring for sites near fresh water, commercial fishermen
17 need clean water to ply their trade and on and on* How
18 do we keep these waters in a suitable, palatable, and
19 refreshing condition? By asking the people who
20 eventually pay the bill: 'What quality of water do you
2i want?1 Then frighten them off by telling them they must
22 choose between prosperity and clean healthful water, or to
23 have these people pay for the cleanup.
"How do you use a stream, pond, river, or lake
rfdrr
as a multipurpose source?
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John Chasesa
"How can you set a standard for an area in a
2 || stream, pond, river, or lake today and expect it to be the
same two, five, or ten years from today? Huron River,
River Rouge, Raisin River, Pine, Swan Creek, Clinton, Stony
Creek, Detroit River, St. Clair Lake and Lake Erie are
prime examples of multiple uses without long-range planning
or proper supervision. There is but one solution,
enforcement of Water Resources Commission Acts of 1929,
making all State waters safe for body contact and use
the 'No Further Degradation of Our Waters' slogan and mean
"We of the Lake Erie Cleanup Committee sincerely
urge the State Water Resources Commission to-discourage
any new permits to use our waters for any
indiscriminate use or as a dump for unwanted wastes, to
lessen the danger to wildlife, fish, and humans, as well.
Make our waters safe for any and all uses, especially for
body contact, sports and human consumption.
"Respectfully submitted, Lake Erie Cleanup
Committee, Inc., John Chasesa, President."
Statement by Lake Erie Cleanup Committee, Newport,
Michigan, 46166.
"The Rape of a Water Wonderland.
"A gruesome title, no doubt, but true.
"In the July 1962, issue of the Reader's Digest
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John Chasesa '402
1 there appeared an article on Page 151, titled 'The Rape
2 of our Southern Mountains.'
3 "Every American should have read it, every
4 voting American should have read it, and every voting
5 American should have remembered it. Every penny budgeting
e housewife and sportsman and every conscientious
7 Christian should have read it and done something about it.
8 Even if he only hung his head in shame.
9 "To commercialize on the gullibility of poor
10 hill folks is not Christian. To abuse the stature of
,, being a businessman by destroying the lifeblood of those
of our citizens through so-called shrewd business manipula-
tion is certainly un-American and un-Christian.
"When we, as individuals, resign ourselves to a
14
state of deplorable complacency by accepting the do-
nothing bureaucrats who spend our money as well as set the
16
amount of tribute, we must pay to maintain these
17
bureaucrasies as something we have no power or say-so about
18
then we are lost.
19
"We elect men to represent us in various phases
20
of government to do our bidding and to help us determine
21
the best course to follow. Unfortunately, only a Very few
22
take their oath seriously, and very few attend all sessions
23
that are held in Washington and in our State and County
24
legislative capitals.
25
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403
John Chasesa
"We have created agencies and commissions and
various study groups and frankly, I believe the committee
studying the sex life of the gnat is about the most
capable of submitting an acceptable report, if there is
such a committee.
"Since the late 13?0's we have had one after
another anti-pollution committee created. We have a
geological study going on in the Great Lakes for many
years; geologists, biologists, conservationists, health
authorities, and many, many more who have compiled tons and
tons of reports. In the past forty? fifty, or sixty years
we have bragged of our intelligence and know-how, to do more
and better than any other Nation on earth. We have proven
that man can fly, send rockets and missiles anyplace on eartji
and probably to the moon and we haven't skimped on the cost
of these experiments, in spite of the staggering amount.
Yes, we should be proud of our so-called accomplishments.
We should be very proud and very humble in dealing with our
less fortunate neighbors also, no matter who they are.
"The trip to the Moon Commission has never been
denied their request for funds, these are always
available.
"The committees on pollution study, water, health,
public safety, sanitation and many environmental aspects
of our well-being have been belittled and slighted and
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404
John Chasesa
1 pushed aside after almost a whole decade of studies, un
2 today we suddenly realize the importance of safe, clean
3 water. Of what earthly use are all the facts and figures
4 gathered in the past fifty years to us? We permit
5 lobbyists to legally have our laws changed to suit their
6 clients1 wants. We disregard the riparian rights of the
7 little guy (who is all-important at election time) and
8 forgotten after election.
9 "In 1961, Governor John B. Swainson was asked
10 to call the United States Public Health Service in to
study the pollution problem in the Detroit River, Lake
Erie, Lake St. Clair, Huron River, River Raisin and many
12
smaller tributaries leading into our lakes. What was
real reason? Did someone feel sorry for the plight of
the residents along the Detroit River, Lake Erie or was
15
there another reason? Did the pipedream of the Detroit
16
and Wayne County planners backfire when they found their
17
plan for another Italian Venus type of island chain, in the
18
Harsens Island area, filtered silt into their water
19
supply station at Belle Isle? Remember the screaming
20
public demanding to know what went wrong? Why the bad
21
taste? Why the industrial waste, et cetera? Was this a
22
way to get Federal funds to pipe water from Lake Huron?
23
Perhaps it would be interesting to note the chain of eve
24
prior to and after the SOS for all the people under Federal
25
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2
'6
4
II
405
John Chasesa
jurisdiction to come to the aid of the large metropolis of
Detroit. Oh yeah, we all pay Federal taxes and only the
large cities and those with pull are worthy of getting
any finances for the things needed to maintain good health
5 j! and other necessities of which we hear and are told. We
li
8 | should have to be good citizens and healthy Americans.
7 "Most small communities cannot afford even a
8 trip to Washington to seek assistance; however, one of
9 || our more ambitious mayors requested fifty thousand dollars
10 j! to maintain an office in Washington to be nearer the source
i i
H \\ of Federal grants, loans and gifts. Thanks to Council-
I
woman Beck, it was defeated.
"You may say, what has all this to do with
pollution? Well, let us look back a bit on the 27th and
28th of March 1962, a conference was held at the Veterans
Memorial Hall in Detroit. The findings of the United States
Public Health Service substantiated that there was
definite cause for a thorough investigation into the cause
of pollution. This was substantiated by written and oral
evidence by many State agencies, the Army Corps of
Engineers, various sportsmen clubs, and a citizens' group
known as the Lake Erie Cleanup Committee who not only sub-
mitted written evidence, but also 29 jars of water in
various degrees of pollution taken at 29 separate loca-
tions, ranging from the Toledo-Ohio State line to and
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406
John Chasesa
1 including River Raisin, Lake Erie, Swan Creek, Huron
2 River, Detroit River, and River Rouge.
3 "A statement was made at this conference that
4 the people in the Lake Erie and Monroe area couldn't possibljy
5 have such a problem. One of Detroit's leading citizenry
6 even went so far as to state that a little refuse doesn't
7 hurt anyone and that perhaps he would be asked to
8 put diapers on the wild ducks flying over these waters so
9 it could stay clean. A very intelligent remark to be made
10 by a man who is looked up to by many. In a recent
1;L statement to the press he ridiculed the United States
12 Public Health personnel for doing a thorough job. (I
. know it was thorough because I personally followed all or
JLo
almost all of the study). When others of our organization
were able, they also followed the progress. According to
15
this man's statement this was all a waste of time and
16
uncalled for, the water quality is so much more improved
17
and has been on the upgrade since 1940."
18
Letter from Lake Erie Cleanup Committee, Newport,
19
Michigan, 4&L66, dated April 11, 1963, to James T. White,
20
Jr., Colonel, Corps of Engineers, District Engineer, P. 0.
21
Box 1027, 150 Michigan Avenue, Detroit, Michigan, 46231.
22
"Subject: Proposed Dredging in Detroit River,
23
No. NCECO-0-09.
24
"Dear Colonel White:
25
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407
John Chasesa
"Several weeks ago the Lake Erie Cleanup
Committee filed a protest against the March 12, 1963,
request of Dunbar and Sullivan to "be permitted to use
Lake Erie as a disposal site for waste from the Rouge River
amounting to 105,000 cubic yards. On April 10 I received
from Mrs. Finck a copy of a notice from your
Department displaying a request from Dunbar and Sullivan
for permission to dispose the waste from the Detroit River
dredging, amounting to 190,000 cubic yards, into Lake Erie,
making a total of 295i000 cubic yards of filthy, foul-
smelling, nuisance creating health hazard, which will (As
you well know) create a nuiscance and hamper navigation
and create a filthy situation on the beach at Pointe
Mouillee and Estral Beach and Stony Point. In 1962, the
first conference held in Detroit, it was agreed by all
concerned that this was a bad practice and your Department
would find other means of disposing of this so-called
'gook.' It is now 196S, and outside of the publicity
picture in the Detroit News, showing a pipeline being used
to empty a dredge and deposit the waste on Grassy Island,
the indiscriminate dumping goes on and the public still
has to be restricted from using the lake as a source of
water recreation.
"I have always held the engineering sciences in
high esteem, but today with all the errors raade in many
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<- 40$
John Chasesa
•L fields of engineering, my doubts are becoming more and
2 more aroused.
3 "If industry can spend millions to bring filth
into an area they can also spend it to take it out and not
expect the public to do it. I am sure you can see the
O
logic in this. Look at the situation created by the
6
Detroit Disposal Plant. It cannot be denied that it is
7
responsible for the necessity to dredge the Detroit River
8
in a very large degree and still, all the Federal and
9
State agencies feel they should be able to convince the
10
public to assist in enlarging the system to include more
11
industrial as well as residential users to take advantage_
12
of Detroit's offer.
13
"I don't recall your Department opposing a
14
mammoth sewer system reaching from Flint to the Huron
15
River. I don't recall your Department making suggestions
16
or recommendations to prevent industrial wastes from
17
entering the rivers or lakes by re-using their oil, acids,
18
and other industrial solvents and oil refinery wastes.
19
"It is hoped by this group lhat you will be able
20
to convince Dunbar and Sullivan that it is very much past
21
the time of free dumping grounds and time to cooperate with
22
health and conservation officials, also for the sake of
23
humanity. i
P4-
"Respectfully submitted, John Chascsa, President
25
-------
409
John Chasesa
Lake Erie Cleanup Committee."
i
o
Letter to Honorable Marvin L. Esch, Congressman,
1421 Longworth Building, Washington, B.C., 20515, dated
March 13, 1966, from Lake Erie Cleanup Committee,
Newport, Michigan, 4&L66.
6
7
8
9
10
13
14
"Dear Congressman:
"Meny thanks for the information on the Army
Corps of Engineers pilot project for Lake Erie. It is very
interesting and if properly employed could be of great
benefit to all concerned. I have a copy of the Army Corps
Trenton Channel deepening project in front of me as'I write.
The description and planning call for an expenditure of
$31,300,000 plus $15,000 additional &>r annual maintenance.
Nowhere do I see any guarantee that the proposed turning
basin will not serve the same purpose as the Port of Monroe
turning basin. The oil, refuse, and paper pulp in the
Monroe Basin is not, as is supposed, a product of siltation
and I feel the same will be and is at present in the
Trenton Channel. Another $53 million would open a channel t
the shipping lane. Is it worth it? Will steel be cheaper?
"If, as colonel Jaraee T. white, states in his
February 16, 1968; letter to you, the St. Lawrence
seaway is such a critical economic life line, why does it
behoove him to use any of the shallow or deep waters of Lake
Erie as a dvuqp for any material polluted or- nut? If the
bottom at Bolles Harbor is free of pollution it could and
-------
John Chasesa
should be deposited on a suitable shoreline site where
2 it could be carted away to an area where it would serve
3 a useful purpose, instead of hampering boating and marine
4 life, and otherwise creating an illusion of eutrophication
5 in an already overburdened Lake "Eerie" Erie? There is no
@ real deep area in Lake Erie for any type of dump. As I
have mentioned in previous statements there -;re twenty-
three dumps in Lake Erie at present, these have had the
8
blessing of the Army Corps of Engineers for many years,
*/
and the results are very evident even to the odor.
10
Let's close them all.
11
"Is Trenton Channel turning basin also to become
12 i
a catchall for all downriver industrial and municipal
13
waste, or are we going to ask each polluter to remove all
14
his waste before spending a penny of public funds to aid
15
in the so-called economic lifeline development? It is
16
time to quit kidding one ar.other or let everything and
17
anything go and forget we have a problem until large
18
scale epidemics are upon us, then raise the devil.
19
"As has been stated so many times, with all the
20
studies that have been made and are being made, our scientii
21
and engineering brains can find a much more profitable use
22
for our waste and certainly a more satisfactory one for
23 all.
24
"The Colonel states that in forty years no history
25
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411
John Chascsa
of polluted beaches exists. For the past ten years almost
2
all of the shoreline of Lake Erie is or has been
3
considered polluted vis Sterling State Park. I am
certain the Department of Interior would concur with the
5 sentiment as expressed herein.
6 "Hoping this will be considered by yourself and
7 other interested representatives and authorities as just
8 cause to take proper action, I remain,
9 "Sincerely, John Chascsa, President, Lake Erie
10 Cleanup Committee."
11
4
13
14
15
16
17
18
19
20
21
22
23
i
24
25
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DEPARTMENT OF THE ARMY
DETROIT DISTRICT, CORPS OF ENGINEERS
P. O. BOX 1027 150 MICHIGAN AVENUE
DETROIT, MICHIGAN 48231
IN REPLY RCFGN TO
NCECO-Q 09 20 March 1968
PUBLIC NOTICE
PROPOSED DREDGING IN DETROIT RIVER NEAR DETROIT,, MICHIGAN
1. When an application is received for a Department of the Army permit
to authorize work in or over a navigable water of the United States Depart-
ment regulations state that notice regarding the matter shall be sent to all
persons deemed likely to be interested in order that any protests from the
standpoint of navigation or other pertinent factors may be presented.
2, Dunbar and Sullivan Dredging .Company, 2312 Buhl Building, Detroit,
Michigan;, has applied to this office for Federal permits to dredge at the
following, locations im the Detroit River as shown on the attached sheets with
ail dredged material to be deposited on the authorized dumping ground in Lake
Erie West of Detroit River Light.
Location of Dredging Volume of Material, to be dredged
a. Detroit Processing Terminal 10,000 cubic
b. Great Lakes Steel Corporation 25,000 cubic
Co Nicholson Terminal and Dock Company 50 „ 000 .cubic yards
d. Federal Marine Terminals 10,000 cubic yards
e. Detroit Harbor Terminals 109000 cubic yards
f. Great Lakes Steel 35,000 cubic yards
g. Nicholson Transit Company 50,000 cubic yards
3, Any interested party entertaining objections to the proposed opera-
tions should file written protests thereto with this office not later than
4;30 P. M.s Eastern Standard Times 19 April 1968. The determination as to
whether a permit will be issued will be made after due consideration of the
effect upon navigation, fish and wildlife, pollution, conservation and other
pertinent factors of general public interest. Objections should be specific
in describing the reasons upon which the protest is founded.
JAMES T. WHITE, JR.
Colonel, Corps of Engineers
District Engineer
Notice to Postmasters:
It is requested that the above notice be conpsicuously and continuously
pasted until 20 April 1968. proces8 NQ ,
-------
.» r
D_K™ o i ^^|§eM!S||x\^"'
i
r.°.A:E: f«oM CHART *4/ U.S. LAKE
VICINITY MAP
SCALE
zooo S000 «0<0
Proposed Dredging and Disposal
Application by:
Dunbar S Sullivan
11' Janvrary 1968
-------
DEPARTM£NT OF THE ARMY
DETROIT DISTRICT. CORPS OF ENGINEERS
P. O. BOX 1027 ISO MICHIGAN AVENUE
DETROIT, MICHIGAN 40231
IN m:rL
NCECO-0 09
12 March 1968
PUBLIC NOTICE
PROPOSED DREDGING IN ROUGE RIVER AT DETROIT
AND RIVER ROUGE. MICHIGAN
1. When an application is received for a Department of the Army permit
to authorize work in or over a navigable water of the United States, Depart-
ment regulations state that notice regarding the matter shall be sent to all
persons deemed likely to be interested in order that any protests from the
standpoint of navigation or other pertinent factors may be presented.
2. Dunbar and Sullivan Dredging Company, 2312 Buhl Building, Detroit,
Michigan, has applied to this office for Federal permits to dredge at the
following locations in the Rouge River as shown on the attached sheets with
all dredged material to be deposited on the authorized dumping ground in
Lake Erie West of Detroit River Light.
Location of Dredging
a. International Salt Company
b. Marathon Oil Company
c. Sun Oil Company
d. Allied Chemical Company
e. Detroit Marine Terminals
f. Scott Paper Company
g. Detroit Lime Company
h.
Volume of Material to be Dredged
20,000 cubic yards
10,000 cubic yards
10,000 cubic yards
10,000 cubic yards
15,000 cubic yards
10,000 cubic yards
20,000 cubic yards
10,000 cubic yards
Marathon Oil Company
ToToPC
3. Any interested party entertaining objections t6 the proposed ope_ra-
tions should file written protests thereto with this office not later than
4:30 P. M., Eastern Standard Time. 11 April 1968. The determination as to
whether a permit will be issued will be made after due consideration of the
effect upon navigation, fish and wildlife, pollution, conservation and other
pertinent factors of general public interest. Objections should be specific
in describing the reasons upon which the protest is founded.
JAMES T. WHITE, JR.
Colonel, Corps of Engineers
District Engineer
Notice to Postmasters:
It is requested that the above notice be conspicuously and continuously
posted until 11 April 1968. Process No. 68069
-------
-~
* .'X
v£"
MICHIGA^
A /<
ERIE
^S&*
•/&ffif-\
£ ..^4r-- J-,
&-&.
-------
446
sod Preclqinq and Disposal
Application by
Dunbar S Sullivan
11 Jan (18
^o^-A.
t
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2
3
4
5
6
7
8
9
10
11
13
14
15
16
].. 7
18
T O
J. .;
20
21
22
23
24
25 i
John Kinny
CHAIRMAN STEIN: We now have Mr. Jack Kinny who
wants five minutes. That is what it says.
MR. KINNY: Conferees, I thought for the last
five minutes of this morning's session that the committee
was going to settle down to determine where it was going
and why, and then we got back into the generalizations,
and then later this afternoon Mr. Metzler brought it up
once more that we had better know a little bit more about
where we are going.
I want to commend Pennsylvania. I thought that
would be the last State I would ever hear to propose
, determining what actually was going on in the river. They
J.
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419
John Kinny
can do us more harm than good. It could be a face-saver
for the moment, but it could be a real drawback for the
whole program in the longrun.
I don't know whether you have heard the remark
that assumption and inexperience are the mother and father
of all goof-ups. We have gone through a good deal of
this kind of an approach with water pollution. I would
hate to see one more approach of juggling the financing
at this stage of the game, and I offer this with the idea
that if the conferees are going to set some time schedules,
rather than come up with something that is going to have
to be shifted once-more, that the realities of the
present financial condition bear its weight in making
the decision.
With respect to Mr. Metzler's suggestion that
says if we are going to go for the phosphate picture, we
better determine in advance that that will give us the
result. Now, I do know that there are many scientific
illiterates that argue we do whatever we can do and
anything we can do is in the right direction. But sometimes
that means digging a hole and then moving it. There are
many things we should do now before the public is
promised that SO, 85» 90 per cent removal will eliminate
algae, only to find out that it doesn't.
One last cautioni In the introduction to the
-------
John Kinny
Federal report, the first sentence was: "Although Lake
Erie is still an excellent source of municipal raw
water, the effects of pollution are becoming evermore
and more discernible." The next sentence: "That
dissolved solids have decreased by 9 per cent since 1964."
o
This, the general public could take as meaning
6
we are going from bad to worse, and it bothered me until I
took a look at the data, and I would commend to the
8
committee's attention on Page 32 a comparison between the
9
Detroit and the Cleveland offices for suspended solids;
10
the difference between the two offices themselves were
11
around sixty per cent. Some of these analyses show
12
300 per cent difference.
13
We are talking about concentrations so low
14
that these relative concentrations cannot be compared
15
with the sanctity that this kind of suggestion would
16
offer, and I would hope that what the conferees are doing
17
is promoting a program of progress rather than — well,
18
these may read well, and to some newspaper people who are
19
more interested in the headlines than the facts, these
20
kinds of things read well, they make good headlines, but
21
in terms of promoting water quality they leave us somewhat
22
behind the schedule.
23
The other caution — you heard much on the
04
dredged material today. There is an effort being made to
25
-------
421
John Kinny
remove all polluted material from the lake. What we call
polluted is a bit difficult to determine. If there is
organic material in it, I presume it is polluted.
We have that in the bottom dredgings of most lakes
unless it is in an area where it is washed clean.
The question is not whether or not the discharge
of dredged material to the lake causes pollution, but
whether or not it is polluted, per se. It is the same
argument that Mr. Lyon raises on the oil wells. Are
they pollution, per se, or could they cause pollution?
I think there the defition is not so much: Are we
dumping pollution into the lake, but: Are we causing
it?
I Sat in on the meeting of the Board of
Consultants on the subject up in Buffalo, and I had
hoped that the Colonel would report to you. He did
indicate that they haven't found adverse effects so far,
but he could have gone further.
The first preliminary data — as one of the
technical staff said, they are having difficulty to
support, or interpret the data to support the conclusions
that are drawn — this is very real.
They are also finding that the material behind
the diked area, the water quality behind the diked
25 area is the same as the water quality outside the diked
-------
422
John Kinny
1
area. This raises the question as to whether or not
2
material is by dry analysis polluted, whether it when
3
put into water actually causes new pollution. This you
4
should determine before you make your recommendations.
5
We are also into another area that indicates
6
that the dredged material located behind diked areas can
7
leach the nutrients, and the nutrient concentrations
Q
outside the diked area are higher than they are in,
q
with the resultant bloom in the shallow water.
10 I agree;with you, Mr. Chairman — your
11 comments this morning — if you are going to blaze a
12 path you should know which way it is going.
13 I don't envy you your job, but I think you have
14 got the chance to do some really good leadership.
15 Thank you. (Applause)
16 CHAIRMAN STEIN: Why don't you .wait. Maybe
17 there are some questions or comments.
18 You know, Mr. Kinny, you came up and I
19 guess if I live here long enough I am going to see
20 everything. You praised Pennsylvania, you praised
21 New York. If we both hang around these conferences
22 long enough, one of these days I am going to hear you have
23 a good word to say for a newspaper, and the next one is
1
24 going to be the Federal officials. Then I will know the
25 millenium has arrived.
-------
2
3
4
5
6
7
8
9
10
11
423
John Kinny
MR. KINNY: I am guilty here of the thing
that I have accused you of in the past, and I apologize,
and that is by my commenting I would suggest that you
have condemned all newspaper people. I said those people
who would prefer a headline to the detail of what is
going on. That is not all newspaper people; that is just
a few.
CHAIRMAN STEIN: I never even noticed it was
some newspaper people!
FROM THE FLOOR: Could I protect my headline?
CHAIRMAN STEIN: I am sorry.
Again, I would like to make one comment, because
this is recurring. When Mr. Kinny said that the funds
13 j]
i were cut back to $225 million, they weren't cut back at
14 !
I all. The last funds were $203 million. They asked for
15 !
! more money. This is the old game, again, and I hope we
10 j!
are going to be as sophisticated in dealing with these
budget figures as you expect us to be in dealing with
data. There are two arrangements in any one of our
societies and legislatures, State or Federal: an
authorization and an appropriation. They don't necessarily
match.
If we had all of the money appropriated or every
dime authorized by the Congress now, probably Jack Kinny
would be leading his cohorts in fighting the kind of i
-------
T- 424
Jack Kinny
1 tremendous budget we have. The point is: until you
2 that money appropriated, you don't have it. I have
3 heard this over and over again. If someone comes in and
4 has a program, say, for $200 million, and then they ask
i
5 for $500 million the next year and they get $300 million,
i
6 you don't say they got $100 million more, you say they
7 are cut $200 million.
8 Now, the point is this has not been cut back.
9 Funds for this are going up all of the time. Maybe they
are not going up as much as the cities and States want,
1;L but in actual funds there hasn't been a cutback.
Other comments or questions? Any other
^t
or questions?
Where is New York? Did the whole delegation
._ leave? This is Mr. Haberer of New York. I know Mr.
15 i
i
. Metzler had to leave.
16 i
Let's go on to the summary. I think we have
1 7 ;
; several points. One, I think it is only fair to say that
! the programs outlined by the five States here seem to be —
i oh, we have another speaker? I am sorry, I didn't have
20 i
!i your name. Come on up. I am sorry, and you told me
21' |
before .
22 |
MRS. ANGEL: Mr. Estill and I signed pieces of
23
24
25 |
| paper. I hope you call on Mr. Estill, too.
The pollution problem is so great that the
-------
425
Mrs. James Angel
experts can't solve it, so that is why I am here. I am
n
Mrs. James H. Angel, Chairman, Citizens for Land
3 and Water Use of the Cleveland Metropolitan Area.
4 The Federal Government is calling for 92 percent
5 removal of phosphates by 1972. During this time Citizens fo
6 Land and Water Use suggest that these things should be
7 done:
8 1. Each municipality should provide posted
9 directions to a legal dumping site; away from the lake and
10 streams.
11 2. Strict enforcement of the litter laws.
3- Installation of sanitary sewage receptacles
13 at all marinas and commercial ports.
14 4. Keep all dredge material out of the lake.
15 I would like to qualify this. I understand that
16 there is to be a lot more study on the dredged material
17 and the disposition of it. However, our reasons for saying
, 0 that we would like to keep all dredged material out of
lo
,g the lake is because we have heard so much criticism that
our Lake Erie is dying. It is true that it is the
shallowest lake, and it seems reasonable to the lay person
<& JL
that if our lake is dying, and if it is shallow and if tt
J
is becoming a marsh, it seems reasonable to keep the
dredged material out.
24
ii
5. Reroute all raw sewage that is now
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•'• 426 •••
Mrs. James Angel
1 discharging to the natural storm drainage to the sewage
2 treatment plant.
3 6. Accelerate the programs that will increase
4 the efficiency of all STPs. Clean up sewage treatment
5 plant effluent instead of or before discharging farther into
6 the lake.
7 7. Good conservation practices by all citizens
8 and all levels of government.
9 Small as these efforts may seem compared to the
10 big programs being planned, the important thing is they
H need not be studied by a committee. Action can be taken
12 now.
13 CHAIRMAN STEIN: Thank you, Mrs. Angel, for a
,> very interesting statement. I would like to make one
comment.
15
You say, "Small as these efforts may seem,"
16
yet No. 5 is, "Reroute all raw sewage that is now
discharging to the natural storm drainage to the sewage
treatment plant."
J» \s
I think we have heard some testimony this
20
morning from every city that isn't the small effluent.
£L.
MRS. ANGEL: But if you read my statement that
22
was made to the State of Ohio, we have a little bit
23
different opinion on that.
24
CHAIRMAN STEIN: I know, but you have to
25
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427
Seba Estill
recognize that rerouting the storm sewage generally is at
least as expensive as providing treatment for the older
cities. This is a very expensive program and we did hear
that Cleveland — and this is what I hope you citizens
will do — the engineers have come forward with a plan.
The plan sounds very engaging at first blush. I suggest
you look at this plan, if you haven't done so already, and
form your own judgment.
MRS. ANGEL: All right.
CHAIRMAN STEIN: Thank you, Mrs. Angel.
Mr. Estill.
MR. ESTILL: Mr. Stein, conferees, ladies and
gentlemen: This is a statement of the Ohio State Division
of the Izaak Walton League of America.
I am Seba H. Estill, a member of the Clean
Streams Committee of our State division and a member of our
national committee on clean water.
Let's save Lake Erie now! Do many of you
wonder what has happened to the "now" part of this most
commendable slogan?
The Ohio Water Pollution Control Board's
May 196,8 Report and Recommendations on Water Quality for
certain stretches of the Cuyahoga and the Grand River request|s
compliance with recommended water standards by January 1,
1975. This is getting much too close to ten years from the
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Seba Estill
issuance of the Revised Conclusions and Recommendations
2 of the conferees of the conference on pollution of Lake
3 Erie and its tributaries on August 12, 1965.
4 I quote a paragraph from my statement for the
5 Izaak Walton League at the November 30, 1966, hearing of
6 the Ohio Water Pollution Control Board relative to the
7 installation of suitable treatment works. "We realize
8 that time will be required to develop and install such
9 facilities. In the meantime, we propose that a use charge
10 be imposed upon all polluters — whether private, industrial
11 or municipal. That such charge be proportionate to the
12 quantity and the type of the particular pollutants. We
13 believe that such a charge would have a definitely dynamic
14 influence in accelerating the installation of proper and
15 effective facilities for the treatment of wastes." We
,., are still of this same opinion.
ID
In Minneapolis, on the twelfth of last month
Under Secretary of the Interior David S. Black noted
lg the importance of user charges.
If, in 1965, Ohio had instituted a use charge as
above, we believe that it would have so accelerated the
installation of proper control facilities as to render
unnecessary the close to ten year time extension permitted
for compliance with recommended water quality standards.
24
At the time of signing the Water Quality Act of
25
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Seba Estill 429
1965, President Johnson said, "No one has a right to use
America's rivers and America's waterways, that belong to all
the people, as a sewer." Also, guidelines established
by the Department of the Interior state: "No standards
of water quality will be approved which provide for the use
of any stream or portion thereof for the sole, or
principal purpose of transporting wastes."
It would appear that areas being assigned an
industrial or aquatic life B water quality standard are
being sentenced to that principal purpose of transporting
wastes. Acting as sluggish sewers, in other words, and
this function is in direct conflict withthe purpose and the
intent of the Water Quality Act. The Izaak Walton League
strongly protests this prostitution of public waters!
We have consistently advocated a water quality
standard that is capable of supporting the propagation of a
thriving and healthy population of warm water game fish that
are indigenous to the area. This proposal is advanced in
the belief that waters in which healthy game fish can survivje
and thrive should also be reasonably safe in human
applications.
Ecologists, biologists, conservationists and just
plain friends of clean water, seek future as well as
present benefits, for our children and for coming
generations of Americans. On the other hand, some
II
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Seba Estill
municipalities, some politicians and some industries
are much too prone to consider initial costs of abating
pollution, but entirely ignore the simply staggering
costs they are presently postponing and for which
future generations must literally pay through the nose
with smells that are not so sweet; with sludge and algae-
7
for public supplies. They will pay with the barren banks of
their eroded landscapes and the ecological sterility of
their countrysides. They will pay with the vanished
esthetic enjoyment of clean waters rushing between grassy
banks that were once edged by fertile fens of fragile
ferns. While these in turn were backed by gentle slopes
of wild flowers and a profusion of fascinating flora and
fauna that had once afforded pleasure to their visitors and
instilled in them an active appreciation of the wonders and
glories of God's handiwork.
Back in 1965, we were informed that if all
pollution was stopped immediately that it might be
possible to cleanse Lake Erie in fifty years. We believe
that it is necessary to see that all streams flowing into
Lake Erie are free from pollutants. Otherwise, with the
premise that all streams having low water quality standards
will carry some pollution into the lake, so that the
aggregate load of corruption contributed by all tributaries
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Seba Estill
combined, when consolidated into one overall total could
be tremendous. How, then, are we ever going to clean up
Lake Erie when authorities establish such low water quality
standards, such as Ohio's industrial and aquatic life B
classifications?
We don't think that Mr. Eagle or some of the
other members of the Water Pollution Control Board
probably like these standards any better than some of the
rest of us do and we hope and we think that they do have
in mind raising these standards later on, of course.
The flow of pollution into Lake Erie must be
stopped. Stopped before any start to clean the lake can
be effective!
The following is taken from a front page news
report in the Cleveland Press just four days ago. I
quote:
"On the basis of most recent data, the overall
quality of Lake Erie is worse than it was in relation to
1964 data. I understand that Mr. Harlow will so report
to this conference."
So, evidently Lake Erie is not holding her
own against the filthy flood that continually fouls her
waters.
Mr. Poston may be interested in this — of
the Metropolitan Sanitary District of Greater Chicago versus
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Seba Estill
.j^ The United States Steel Company, to restrain the latter
from polluting Lake Michigan, Judge George N. Leighton, of th
Circuit Court of Cook County, Illinois, agreed that there
O
is no such thing as a little pollution. The judge
continued. "I conclude as a matter of law that
5
the oil slick in question was a pollution of waters as
6
alleged in the complaint. Now, whether one characterizes
7
it as a great amount or whichever way, it doesn't matter."
8
"The other question in this case presents whether
9
on the evidence it shows that the defendant corporation
10
discharged an oil slick either willingly or accidentally.
11
I come to the conclusion as a matter of law, that it
12
doesn't make any difference."
13
The judge then granted an injunction restraining
14
the South Works of the United States Steel Company and the
15
company has appealed.
16
In his Cleveland Press column of May 23, last,
17
on Page E-12, Theodore Andrica relates an incident in the
18
village of Misilmeri, Sicily, where a villager was murdered
19
because of the terrible scarcity of water in the village.
20
Mr. Andrica also noted that this lack of water is
21
responsible for many slayings in Sicily.
22 The Creator triple-blessed our area with the
23 gift of one-third of all of the sweet fresh water in the
24 flowing right by our door steps. Just what would those
25
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Seba Estill
Sicilian villagers think of us who live around the Great
2 Lakes, who have turned that tremendous flow of fresh water
3 into a giant sewer to dispose of our unwanted wastes?
4 Just what will coming generations of Americans think of us?
5 Excerpts from remarks of the three gentlemen
6 immediately following were gleaned from the conference
7 in Detroit's Cobo Hall on November 6, 1965, on "United
Q Action for Clean Water."
9 Dr. George B. Langford, Director of Great Lakes
10 Institute, suggested that we bear in mind that clean,
,, unpolluted, fresh water is the primary and the foremost
.^ul asset of the area. None of thereat resources and/or
industries of the Great Lakes area are as important as
J.O
our water resources.
14
Water is the resource of primary importance. None
JLu
of the others are of value without water.
16
Conditions of our water are presently in a
17
serious situation. We must spend, probably billions of
18
dollars to correct these conditions.
19
The effects of many various chemical
20
constituents in water, even in trace amounts, are not
21
known; still we continue to drink the water. The drastic
22
effects suffered by mothers who had taken thalidomide
during pregnancy was cited and the suggestion put forth
that no doubt many terrible results might follow the
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Seba Estill
drinking of water containing so many harmful substances,
even in trace amounts. He mentioned the example of Can-
adian and New York mink farm operators in discontinuing
the use of perch from the areas as food for their mink,
because it had been found that mink fed with such perch
became sterile, and of no further use as breeders.
Secretary of the Interior Stewart L. Udall
remarked that our once running waters were now but stink-
ing, sluggish cesspoolsi and that rivers are very expen-
sive sewers. He remarked that present polluters must
make progress with the community, not apart from it.
Mr. Murray Stein (Now Assistant Commissioner
13 of Enforcement for the Federal Water Pollution Control
Administration; and our so efficient moderator today),
noted that Lake Erie is being made into an enormous marsh
and that when that state is consummated there is no
return for Lake Erie. We must save Lake Erie now. He
stated that industrial wastes must be treated to a degree
equivalent to municipal sewage; that, "Every day of post-
ponement of this problem makes for a much more difficult
task;" that "If the Great Lakes go, industry will go with
them. The United States will decline as a world power
if the Great Lakes are not saved. The second battle of
Lake Erie is a vastly greater problem than that of winning!
the first battle of Lake Erie."
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8
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18 !
19 !
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Closing Statements
Have we really been trying to win this second
battle of Lake Erie or have we been merely temporizing
with terminating the flow of corruption, choking away
its very life? Let's really start now to save Lake Erie.
Thank you, gentlemen. (Applause)
CHAIRMAN STEIN: Thank you, Mr. Estill.
Do we have any comments or questions?
If not, does anyone else want to make a state-
ment or have a comment? If not, let us try to get on and
see if we can come to an agreement in various areas.
EXECUTIVE SESSION
12
I think we might state, each State looking at
the other can indicate that we, I think, have a program
14 I
moving forward in all five States, that the programs are
I
15
3
f
substantially on schedule, and I don't use that word
"substantially" as a euphemism for meaining that the
schedules are not being met. The schedules are being met
and the exceptions are being dealt with on a case-by-case
basis.
Moves are being made to correct them, and there
are very few cases that I noted here as recalcitrantct and
where there are recalcitrants, the States are taking pro-
priate legal action under their State law to bring them
around. By and large, the major sources of pollution and
the major dischargers are going ahead with corrective
measures.
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Closing Statements
1 We have several problems that the conferees may
2 want to deal with. One of these is the question cf whether
3 we should have a policy for the conferees, or a recommendation
4 for the conferees on phosphates. We talked about
5 substantial removal of phosphates. Michigan is asking for
6 $0 percent removal. I suspect in the other States
7 we may be getting, they are going for somewhat less and
8 I think, as a matter of equity, we might consider whether
9 we should have something fairly uniform for all of the
T r\ otates.
1;L MR. LYON: I didn't hear what you said.
12 CHAIRMAN STEIN: As a matter of equity, I
think we should try to at least approach the question to
-Lo
see if we can get something that is rather uniform for
all the States in the basin. I understand — Mr. Poston
15
just showed me this — the standards for Ohio were
16
approved with that as an exception —
17
MR. POSTON: Phosphate removal.
18
CHAIRMAN STEIN: — with that as an exception.
19
Now, I do think, gentlemen, that the Secretary of
20
Interior is going to face up to this. I also, as I have
21
said in the past, I always think it is better if we can
22
go up and give him a unanimous recommendation from the
23
States rather than get this done in another way. Now, I| i
24
would like to hear how you feel we can best approach this
25
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Closing Statements
problem,
2 Mr. Lyon.
3 MR. LYON: Well, I will repeat my earlier
4 recommendation. It is primarily based on the fact that
5 Michigan is taking the leadership in this and has adopted
6 its standard of #0 percent phosphate removal from
7 sewage treatment plants. Michigan is the major source of
3 phosphates to the lake, It would seem appropriate for
9 the other conferees to adopt that standard.
10 CHAIRMAN STEIN: Do you care to comment now,
Mr. Poole?
MR. POOLE: Well, I don't see how we could
do otherwise than #0 percent because we adopted BO per
cent for the Lake Michigan cities, and I would have a little
trouble explaining to them that something less than that
was all right for the Lake Erie cities.
CHAIRMAN STEIN: Mr. Oeming.
MR. OEMING: No comments.
CHAIRMAN STEIN: How about Mr. Haberer?
MR. HABERER: I think Mr. Metzler explained
pretty well his feeling on it and I don't think he is
ready to adopt an* #0 percent or an #5 percent removal
at this time.
CHAIRMAN STEIN: Well, I don't think anyone
suggested 8$ as a minimum. I think, and I hope I am
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9
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Closing Statements
stating scientific testimony — if it didn't appear
in this record, correct me — that as far as I can see,
our scientists say that 80 percent is the minimum and
really that they expect that 90 percent is achievable.
How about you, Mr. Eagle?
MR. EAGLE: Well, Mr. Chairman, I would like a
point of order here now. If we are going to depart from
the conclusions and recommendations of the 1965 conference,
then I think that there are an awful lot of people that
want to be heard on this matter, and as far as I am con-
cerned, I think we are going to be back to a public
hear ing.
CHAIRMAN STEIN: By the way, I don't know if
J_ O
this is a departure. What we have talked about at the
14 i
l
, 1965 conference was a substantial removal of the phosphates.
0. O
MR. OEMING: Maximizing.
CHAIRMAN STEIN: Maximizing.
Now, the point is: When we started back at
that time, we knew we were feeling our way in the phosphate
program. The question here as I look at the proposal
is just to refine what we have done, as we have always
tried to do, to put a number on it. As I recall this
original conference, Mr. Oeming for one, and rightly, was
pushing us for numbers and what we precisely meant on aSF
24
of the conclusions.
25 I!
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Closing Statements
MR. EAGLE: One of the conclusions was that we
appoint a technical committee which was done, and they
spent several months, as you know,in considering this
problem, and came up with a report which was accepted by
these conferees, and as far as Ohio is concerned, has been
made a part of the Lake Erie standards.
I think that certainly this technical committee
should be given consideration here, and if it is the
wish of the conferees — and I would certainly go along
with that — that this matter could be referred back to
the technical committee for consideration and for further
recommendations.
CHAIRMAN STEIN: Well, now, you may want the
technical committee — again, we have several of our
scientific people, and in other States the scientific
people have made some significant advances, it seems to me,
even from the time we had this technical committee.
Now, we can accept the committee of the
conferees, or we can have, if you wish within a short
time, if you want to get the conferees together — and
I am just putting this out as a feeler — a meeting on
the phosphate question alone, where we will get the
scientific people to outline what they have to say about
phosphates and have anyone else come in, and then we can
get this information lined up.
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Closing Statements
1 Now, I think this is a question of the work
2 the committee — the scientific work — being fairly
3 straight forward and laid out. Where we set up this
4 technical committee, they were looking for analyses. I
5 think within a relatively short time we can make a —
6 and I think all of the people who have views on this
phosphate question — can make their views known to the
conferees.
MR. OEMING: Mr. Chairman, I would like to clear
i/
up something here about this committee; if my
10
recollection is correct, the assignment to that committee
11
was to determine the magnitude of the various sources.
12
This is one thing.
13
Number two, what kind of water quality in terms
14
of phosphates you wanted in the lake. This committee was
15
not the kind of committee who could then relate that
16
to processes for the removal of phosphates.
17
Now, let's take another step. This grew out
18
of the conference at Cleveland and Buffalo — the initial
19
conference — and if you will recall, nobody at that
20
time was in the position to say what degree of removal was
21
necessary, but we did establish, after a great deal of
22
discussion and probing — and I know that I probed
23
deeply — as to what quality these experts who testifie^fc
24 ^^
wanted in the lake that would remove or reduce the nutrient
25
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Closing Statements
problem to manageable levels. This is what we came out
2 with.
3 Now, somebody along the line has to decide
4 what loadings can come out of the various areas that are
5 contributing these phosphates. Now, 80 percent, is not
6 a magic number. It might have to be 90. It might have
to be #5. It so happened that in the analysis pf the
Detroit River contribution, it came out to 80 percent.
At that time we didn't know in Michigan any way to get
there , but somebody has to lay down a requirement for
people to meet. Otherwise, we drift along, and so this
is the reason that the BO percent removal was established,
because that was decided from the conference in terms of
13
s
concentration in the river that would be manageable, and
14
it came out at 80percent.
15
Now, I am a little puzzled as to what this
16
committee could do beyond what has already been in the
17
record, to a great extent, of these conferences. This: is
18
where I am in a little fog here.
19
CHAIRMAN STEIN: I am not sure that they could
20
do very much of anything. I think the question that we
21
have — and as I understood Mr. Metzler, he was talking
22
in terms of the cost of this and the reliability and so
ii
23 _
forth and so on. I think the issue we have to face is if
we have a notion of what the water quality requirements
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Closing Statements
1 are in terms of the nutrients we can put in, I think
2 there also has to be a judgment made as to the devices
3 that are available and what you have to do to get this.
4 Now, I am not sure that the committee that we
5 have set up are the people to deal with that problem. I
Q am not sure — as a matter of fact, we have done this
7 in the past with the Lake Michigan situation — we have
8 called on the experts who can supply the answers to
g these questions.
1Q MR. OEMING: Well, Mr. Stein, let's clear up
one question at a time.
Are we questioning, at this time, the limitations
X
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Closing Statements
scientific evidence, but there isn't. The only thing
that has come up new since that time is precise
information on effective treatment and costs which can
be made available to the conferees.
MR. OEMING: Well, but, Mr. Chairman, hasn't
there been two conferences within the last few weeks
to which everybody in the country has been invited —
CHAIRMAN STEIN: Yes.
MR. OEMING: — to explore all of the technical
information that is available?
CHAIRMAN STEIN: That is correct.
MR. LYON: If I may say something — I
completely share this view that there has already been a
conference. There also has been a meeting, I understand,
of the FWPCA people on this question. There were a
number of papers given that showed that phosphate removal
was possible to that level.
The basic question is: Do we move now?
After all the test quality levels that were established
by the technical committee, we don't know whether we are
going to attain those or not with that 80 percent
removal. We certainly are going to come closer to it than
we are now.
CHAIRMAN STEIN: That is right.
MR. LYON: And it seems to me we have all agreed
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Closing Statements
1 for a long time that this is a major problem in this lake
2 and it seems to me the time is now.
3 CHAIRMAN STEIN: Well, this is, again, up to
4 the conferees. Since we have three conferees — if I
5 read this correctly — who would say that to maximize the
6 phosphate removal would mean a minimum of 80 percent,,
7 and I understand that two conferees are not prepared to
go along with that. Is that correct?
o
MR. EAGLE: Yes, it is correct as far as I am
i7
concerned. I am not prepared to go along with that at
this time.
11
CHAIRMAN STEIN: Well, what would you suggest
12
as a course of action to try to get us together, if anytl
13
MR. EAGLE: Well, I suggest that we must explore
14
this thing further at this time, and that we set up a
15
special conference and have the people that are going to be
16
affected and who are going to have to pay for this — give
17
them an opportunity to be heard.
18
MR. HABERER: We don't want to be negative
19
in New York State on this subject. We just feel that we
20
have such a big problem ahead of us, we want to get out
21
the sewage J we want to get the stormwater and the
22
chlorination taken care of. Phosphorus is an important
23
part, but after all it is kind of down on the bottom of
24
the totem pole as far as the other work that we have to
25
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24
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Closing Statements
accomplish here and many of these communities have primary
plants that have just been built. We are now insisting
they go to secondary, and now to hit them again to go to
another degree of treatment, which although percentage-wise
as far as the initial cost is not as large, nonetheless
the operation is large.
We also remember in New York State they pay
one-third of the cost of the operation of the sewage
treatment plants, which I don't think any of the other
folks do, so this is kind of a hunk of money that we
have got to look forward to.
CHAIRMAN STEIN: We are asking, as I understand
it — this was a decision made to maximize the phosphate
removal here.
I think we are dealing with a very important
resource here in two of the major States who presumably
are not in complete agreement with three other major
States, i.e.. New York and Ohio. I would suggest, if
the conferees agree, that we set up this: have the tech-
nical experts indicate what the situation is — and I
don't mean one of these real technical meetings at which
they are going to explain all of the details of the process
— and give Ohio and New York and any other States and any
Bother industry or municipality that wants to come in and
talk about this; follow Mr. Eagle?s suggestion on this and
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Closing Statements
!
1 j see if we can come to a resolution of the issue because I
i
2 think this is a vital one.
3 MR. EAGLE: I would like to point out, I presume
j
4 j we are talking about the entire Lake Erie Basin?
5 CHAIRMAN STEIN: Yes.
6 MR. EAGLE: Then, we are talking about some 150
7 treatment plants and we are talking about hundreds of
8 millions of dollars a year additional expense. And going
i
9 into something like this, I think we should have certainly
10 ! as a very minimum a full-fledged hearing, an opportunity
for these people to be heard.
0 i CHAIRMAN STEIN: Mr. Eagle, I don't dispute th
at all, and I think considering what is at stake and the
,., | amount of money, the interest, and all that, let us —
if the conferees are agreed to that — we will try to get
the staff together with you, get a mutual agreeable date
and I hope we can agree on a short presentation by a few
people who can present the phosphate problem.
For example, the people that I would guess from
: the Federal Government — and I don't want to put the
I finger on any particular one now — but someone like Fritz
I Bartsch, who could talk about the biological effects —
oo '
! that is Dr. Alfred Bartsch — and Dr. Leon Weinberger, who
23 j
! probably could talk about the technical aspects and the
24 i
i application, and I know that both of these fellows could
25 j
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Closing Statements
make about fifteen-minute presentations each on this.
2 ".
By the way, I am not speaking for them,
3
because I haven't spoken to them, but someone like that,
4
and the States might want to get some people out, and
5
then we can give all of the industries and municipalities
6
and people a full-fledged opportunity to be heard.
7
MR.EAGLE: I would suggest that your report
Q
be put out in advance of the meeting so that these people
Q
who are going to be affected would have an opportunity to
study it and come to the meeting prepared to make their
^ comments, like we do on our regular conferences.
CHAIRMAN STEIN: That is right. I suggest for
those people who want to do a little advance work on
that, I think Dr. Bartsch and Dr. Leon Weinberger's
views are fairly well known, and they are available from
the group here. You people can almost make those statements
and their views on this available immediately, but this
will be done, I suggest that before the program goes
too far ahead and we have to backtrack, while we are
getting the plans in, before we have really begun to let
the contracts, that we come to a determination on this one
way or the other because this would be the way to do that.
Is this agreeable to all of the conferees?
MR. OEMING: Mr. Chairman, I am not sure I know
what the agreement is, yet. What do you expect the role of
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Closing Statements
Indiana and Pennsylvania and Michigan to be in this
2
agreement?
3 CHAIRMAN STEIN: I would expect that you would
4 participate in the meeting, listen to the arguments on all
5 sides, if there are arguments, and the views expressed
6 by all parties, and approach this with the same kind of
7 open mind that we would expect New York or Ohio or us to
8 approach it, and see if we can come up with a mutually-
9 agreed-upOn position for Lake Erie.
10 MR. OEMING: I am sorry, but I don't have an
11 open mind anymore. My mind is closed, and we have
12 decided what we need to do.
13 CHAIRMAN STEIN: Well, again, I hope you would
14 do this. The point is, Mr. Oeming, if you had more
15 rigid requirements than we decide on for the rest of Lake
16 Erie, I am sure no one will mind.
17 MR. OEMING: I don't know as I want to be put
,g in that position of beating the other States over the head,
19 Mr. Chairman. I want to be in the position that I am in
20 and Michigan is in, that it recognized its responsibility.
21 Now, if you have any criticism of it, that is
fine. We should get at that, but I don't know what else
I can offer.
Zo
CHAIRMAN STEIN: It is not a question of beating^
24
anyone over the head. We are trying to get a joint position
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5
6
7
8
9
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Closing Statements
developed by the States, by all you people, that we all
'
can live with.
Now, Mr. Oeming, we have a situation here —
you can see what we are headed for.
people.
MR. OEMING: I am in sympathy with these
CHAIRMAN STEIN: I think this is the best way to
settle this. We have standards submitted by Ohio, which
have been accepted by the Secretary of the Interior,
except for the phosphates. I would think that the best
way we can do this and help the Secretary and help the
12 IV States is try to get the five S'tates together with a
13
14
unified position, instead of letting it go to any kind of
a judgment which is going to have to be made one way or
15 the other. I am suggesting that this tradionally, while
it is a hard row to hoe, in the long run is the easiest
16
way to do business. I don't want to have a confrontation
between the Federal Government and any S tate on a
18
fundamental issue like this and I don't want to have the
JL y
States divided,
So far we have been able to come up with
unanimous suggestions. I am suggesting we make the college
try here and take Mr. Eagle's recommendation and go ahead
and see if we can achieve this.
MR. OEMING: Let me ask this question. I think
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Closing Statements
it is not appropriate, but I am going to take that chance
o
Does Mr. Eagle or Mr. Haberer feel that
3 Michigan should be a part of this conference? Is there
4 any purpose served by this in your opinion?
5 MR. EAGLE: As far as I am concerned, it is
6 all right either way, Loring, participation or not.
7 You have made your decision and if you don't wish to
8 participate, I think this is going to be all right.
9 MR. OEMING: I wondered if there was a purpose.
10 CHAIRMAN STEIN: There may be some modifications,
11 Loring.
12 You are not sure they are going to come out
13 with the view you have accepted. Wouldn't you want to try
14 that?
15 MR. OEMING: Well, I don't want to try it and
change the ground rules for the people that we have got
17 working now.
._ CHAIRMAN STEIN: No, and I think if you ~
lo
•jo this is the kind of position that would make a contribution
2 to the meeting.
MR. LYON: Mr. Chairman.
CHAIRMAN STEIN: Yes.
22
MR. LYON: May I suggest that we might have
another alternative? I am a little concerned with the
24
desirability for another hearing, because in Pennsylvania
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Closing Statements
when we order our municipalities to do this, they still
will have an opportunity for hearing, and I suspect this
may be true in the other States. In other words, the issues
can still be heard from the technical standpoint. We just
had a meeting in Chicago with the FWPCA and many others who
presented ample information about phosphate removal. Might
it not be desirable for us to consider having at some time
in the very near future an executive session of the con-
ferees where we possibly could iron this out?
CHAIRMAN STEIN: Well, this is a possibility,
fm* T 1
10
but I — listening to Mr. Eagle's proposal, and I can
sympathize with his point of view — think what we can do
. in the executive session is give you the technical views
J_ O
and the scientific views on how this is to be done.
14
i What Mr. Eagle was pointing out is that, I
15 i
think, he would like to get before establishing this an
16 jj
airing of the views from the policy standpoint of the
people who are going to have to bear the cost and pay for
this. Frankly I think that there may be something to doing
that and getting those views.
MR. OEMING: I question, though, Mr. Chairman,
i! if that is not a function of the individual State to do.
This is what each of the States were supposed to do after
the conclusions of the Secretary at the original conference,
24
and each of the States went back and decided what they
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Closing Statements
were going to do. This is how Michigan arrived at its
#0 percent. We didn't come back and ask for a conference
of all of the other States to persuade our citizens that
they had to do this.
CHAIRMAN STEIN: I understand that, sir, and if
we had been able to achieve that in other places — but it
is obvious here that we are fairly evenly split. We are
trying to look for a device to get all of the five States
operating in concert here. I don't think that we are going
to do the cause of pollution control much good if we don't
really make an effort to come up with a unanimous recom-
mendation from the five States. After all, look at all
of the good work you have done.
Now, we have been able to do that in the past.
Very frankly I would be dismayed to just go in with this
kind of split and let nature run its course without having
the States look at this again. Under the law, the Secre-
tary's duty is clear. He is going to have to make a
judgment. I would like to see if we could come up with
something, as we have always done before, where I could
say all of the States are pretty much in agreement with
thisj, xsn't this a good thing to adopt?
MR. OEMING: I will defer to your judgment so
long as this does not run the risk of changing the
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Closing Statements
Michigan program, lowering it from £0 percent to 70 or
60.
3 CHAIRMAN STEIN: We won't drop your program.
I don't think we ever have. In other words, if Walter
Lyon came in here and said that you had the minimum of
#0 and he said he wanted 96, no one would suggest that
we would drop it.
8
10
11
13
14
15
16
17
, _ point is, what we asked was: What was a reasonable degree
lo
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I don't think there is any danger that the
program can be dropped... I would suspect, given the
attitude of the two States, I don't know that your program
would be dropped, but I am sure that they are not likely
to adopt one that is higher than yours, either, so I think
you are relatively safe.
MR. HABERER-: What did we mean when we said
maximize, in the first place?
CHAIRMAN STEIN: Now, the point is, you have to
put that back to the period where we were working. The
of phosphates and what was the amount of phosphates you
could take out? At that stage, we didn't have the answers
», to these from the technical people. However, they came
up with a notion for every pound of phosphates you took
4O4& I
out you would have less of this growth, and decelerate the
eutrophication process; so we did the best we could in the
State of New York, knowing we would have to go "with this
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Closing Statements
1 again. We put in this "maximize" so that hopefully the
2 engineers would come up with plans to get the phosphates
3 removed. If you can put yourself back to those days, the
4 notion then was a little different than we have now. At
5 least the main thrust of the thinking in phosphate removal
6 was by a Detroit design and operation of the sewage
7 treatment process and taking some of the supernatant
8 off of the line at a particular point, you are going to
g achieve remarkable results.
They tried that. It worked in some places,
but they couldn't duplicate that at will in other plants,
and it just was not the kind of thing that you could
12
recommend to be sure.
13
So, now, the main thrust has shifted to chemical
14
precipitation or some kind of precipitant action or
J.ED
getting floe. In other words, we are really in a
16
different ballgame now than we were when we started this
17
thing, and we were just groping our way and hoping that
18
someone would come up with a solution.
19
As a matter of fact, the program worked out
20
sort of as we expected, because by spotlighting the problem,
21
placing a bonus on someone coming up with maximized
22
developments, they have produced it.
23
Now, our people think that 90 per cent removal
24 ^*
are going to be suitable very shortly. You know they are
25 II
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Closing Statements
always a little ahead.
Now, I think Mr. Eagle has a point, and I am
saying this for the phosphate program as a whole: *fhe
decision has been made. It is the decision that has been
made largely on^the scientific evidence. If you want to
have it on the basis of the social impact and the people
who are going to pay for it, I think it might be good to
look into it and get the other views.
What is the result of the caucus? Are we
agreed?
MR. OEMING: The caucus results are that two
of the S'tates — maybe three — are concerned about the
adverse effects on what we have already done in Lake
Michigan. We open this whole question again, and I am
concerned whether we mean it or not that that might be the
result.
MR. EAGLE: Well, Mr. Chairman, I have an
alternative. If the other conferees don't want to have
this, Ohio can have its own public hearing and following
that, then, we will be prepared to make our decision.
I am not prepared today to make any decision.
CHAIRMAN STEIN: Mr. Poole.
I MR. POOLE: I appreciate everybody's concern,
and I believe a good deal of this is over maybe not so much
the percentage you remove, but the cost of removal, and this
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Closing Statements
1 is a genuine concern to us in Indiana, I would hope
.2 that we don't have to embark on a program where next year
3 you have got to let contracts for every plant that is
4 producing phosphates in the basin, because there is
5 reason to hope that maybe within a couple.of years we will
6 have cheaper processes. But I can't see that that has a
7 great deal to do with a decision on the percentage of
3 phosphates that ought to be removed from Lake Erie.
9 Now, I have been involved in both Lake Erie
10 and Lake Michigan, and I am under the impression that the
,, phosphate levels at the present time in Lake Erie are
greater than they are in Lake Michigan, and if that is
J. &
the case, and if we concluded that you need at least
J.O
BO percent phosphate removal in Lake Michigan, I can't for
the life of me see how that, regardless of how many more
iO
conferences we have and how many more speeches we listen
16
to, that we can conclude that Lake Erie needs less than
17
BO percent..
18
I would be prepared to get into this argument —
19
if you start talking about timetables and want to
20
collapse this all into a very short period of time —
21
MR. EAGLE: Isn't that what we are talking
22
about, Mr. Poole1, putting schedules on these for
23
construction and operation?
24
MR. POOLE: Well, we haven't started that yet.
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Closing Statements
MR. EAGLE: This is what I thought was involved.
If we are just going to say it should get SO percent, sure,
we can prescribe to that. We are talking about schedules.
CHAIRMAN STEIN': I think you may be convinced
without anymore talks or speeches, but I don't think we
have the unanimity. The point is: If we are going to be
able to get you people together, we have to have some
dialogues, and I don't know where it is, and I am not sure
that just an Ohio meeting can do this. We have to have
some kind of dialogue among the conferees to try to achieve
a program that you all can agree to for Lake Erie. At
least try this, and I think this is the mechanism we are
trying to set up, and I think once you go your separate
ways, we are just not going to do it. There is some way we
are going to have to get together, and I would like to
J.O
satisfy all of the conferees on this.
MR. POOLE: I am willing for another get-together
if you will consult me and let me look at my calendar, but
I don't like these notices that you be in Cleveland on
X date. It just happens I can't be here on any day in June.
CHAIRMAN STEIN: You don't really get notices
like that from us, do you?
MR. HABERER: Could I speak for just a half
second here? I thought you were talking about immediately
putting in some kind of a schedule, and this is my belief,
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Closing Statements
1 now, as far as doing something about it. We are doing
2 something about it in New York State. Every set of
3 plans that comes in, the engineer has to show us what he
4 intends to do on phosphate removal, but we don't say when,
5 and he also has to indicate on the plans space-wise and
6 hydraulic-wise how he can get rid of the phosphates.
7 They are coming along also with a cost estimate, so we
8 are instilling this in the engineers, and they, in turn,
9 are taking it back to their people and the communities
10 realize that this day is coming, but the day is just not
H here today, that is all I am saying.
12 MR. EAGLE: I certainly concur in that, and,
13 Mr. Chairman, if we aren't talking about schedules we
14 j might as well forget the whole thing.
15 CHAIRMAN STEIN: No, we have got two points,
i
. and I think Mr. Poole pointed that out, too.
One is the amount. The question is: How much
phosphate removal? I think the group knows that you are
lei •
not going to approve it unless you get BO percent removal,
J.;?
20
and they know what they have to do and the magnitude of
the problem. That is the first step of what you are
going to require.
22
Now, in Lake Michigan it came up, and I agree
23 i
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24 i . . • .
! 1972 for phosphate removal? I think both of these
25 11 ' '
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Closing Statements
are tied up. You gentlemen were right. I sure did mean
a time schedule and an amount of removal.
Let me give you my view: I sense that we have
to think this out and talk this out a little more among
us. I would recommend that we make arrangements to get
together on a meeting of phosphates as soon as it is
reasonable.
MR. POSTON: Executive session, or otherwise?
CHAIRMAN STEIN: No, you can have both.
Now, there is no problem in that kind of thing.
If Mr. Eagle thinks it would be helpful to have the people
come in and have the industry come in, you can have that.
You can have the scientific people and you can have the
executive session. Just give us two days next time,
fellows, please, and we can have all that., if that is what
you want. There may be a reason for an executive session,
but I don't see it now.
Are there any other comments on this?
MR. LYON: Mr. Chairman, I just wanted to point
out that in our submission to the Secretary of the
Interior, we said, in connection with our abatement
implementation plans, that we would follow, as far as
Phosphates were concerned, whatever the conferees would
agree on, so it will have to be understood that if there is
a delay on a decision in this that our implementation will
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Closing Statements
^ have to be delayed.
2 CHAIRMAN STEIN: Again, let me say: I think
3 the phosphate decisions you are going to get and the
. most equitable decision is if we can get the States
together. The other alternative is a confrontation,
5
and that is what I would like to avoid.
6
MR. LYON: I certainly share your feeling.
CHAIRMAN STEIN: And I thirkwe are so close
8
together that this is not the issue.
9
Well, let's see if we can set up that meeting.
10
Now, are there any items we want to bring up
11
for the summary of this conference?
12
MR. OEMING: Mr. Chairman, you discussed quite
13
at length the boating requirements.
14
CHAIRMAN STEIN: I wanted to bring that up.
15
Do you think it would be worthwhile to do what we did —
16
I am sure I think a committee might be in order — to do wha
17
we did in Lake Michigan, and then have the States get
18
together to see if they can come up with a unified
19
recommendation on boating requirements?
20
Now, this is a very helpful operation, from
21
just administering and living in the State, because a man
22
will take a boat in one State, and problems we have on
23
Lake Michigan — drive across the waters — not Michiga^^
24
we had this in two other States where we have the problem,
25
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Closing Statements
right next to each other — one State has one requirement
and another has another, and every man who drives across
the State line finds himself subject to arrest and is
often arrested. This doesn't make for very good
relations.
Now, would it be agreeable if the people from
the States — and I don't know if you want a Federal man —
you can have him there as a consultant, but this really
is a State matter — the people from the States establish
a committee and report back to the conferees? It took
about sixty days, but they could report back to the
conferees in sixty days whether you want an agreement
on the boating regulations.
MR. POOLE: Mr. Chairman, I would like to
clarify. We have talked off and on all day about the
Lake Michigan agreement on boats, and my recommendation
of the treatment was that the four Lake Michigan States
agreed to get together to develop a uniform program which
involved legislation that was necessary for pleasure
boats, and then the State conferees recommended that the
Federal Government pick up the lead and/or the ball and
develop regulations for commercial vessels.
MR. OEMING: Right.
MR- POOLE: The Federal conferees didn't vote
on that part of the recommendation because they can't get
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Closing Statements
involved in recommendations on Federal legislation, but,
Loring, isn't this correct?
MR. OEMING: You are correct, absolutely.
CHAIRMAN STEIN: Well, if you want to do that,
that would be fine.
MR. POOLE: Well, I certainly wanted to reiterate
what I said in Chicago, and that is that this business of
commercial vessels has got to be looked at as well as the
pleasure boats that go out for a few hours or overnight
or on the weekends.
CHAIRMAN STEIN: Right. Well, I agree, and if
that is the consensus of the conferees, we will do that
and hopefully we will have a report from the States in
.L o j
two months.
MR. LYON: Mr. Chairman.
CHAIFMAN STEIN: Yes.
:• MR. LYON: What you have said about the States
1 7 :>
is equally true about Ontario, and I know they have done
18 :•
: a lot in this field, too. Isn't there some way that we
' can bring Ontario into such a meeting?
20 ;' -
CHAIRMAN STEIN: You can bring them in — off
21 ;.
i! the record.
22 i
I (Discussion off the record.)
23 !
j CHAIRMAN STEIN: Let's go back on the record.
24 | .
i MR. EAGLE: Are you going to notify us and ask
25 i
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Closing Statements
us to nominate people to this committee, then?
CHAIRMAN STEIN: Yes, we will provide the
secretary and the clerical work and the advisor, but I
would suggest that when you get to the committee, you
designate one of the State people as chairman.
MR. E\GLE: Well, yes, we have got a different
group of people on this kind of a committee.
CHAIRMAN STEIN: That is right.
MR. EAGLE: The Division of Watercraft in our
Department of Natural Resources will be very much involved
in this.
CHAIRMAN STEIN: Right.
•4i
V
MR. EAGLE: It is going to have to be pretty
much their decision.
CHAIRMAN STEIN: Yes, and the question, again,
is if we can get a decision. If we can get a decision
on this, I think —
MR. EAGLE: But you will notify us about the
committee and about the nomination?
CHAIRMAN STEIN: Yes, because it will make life
a lot easier for people who own boats on the lake if we
come up with uniform regulations. As I say, if we
are looking for a national policy, the more States we can
f
get together and the more regional operations we can get,
the farther we are up to beginning to meet this problem
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Closing Statements
throughout the country, but we may be going in through
Q
the back door, but let's do what we can.
•?
All right, are there any other comments?
4 MR. POSTON: Mr. Chairman, I would raise the
5
6
7
8
9
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question, then, on dredged material. We are comparing
this with Lake Michigan, and in the Lake Michigan confer-
ence it was the recommendation that we ask the Corps of
Engineers at the end of six months to come back with
proposals on elimination of dredged materials being
dumped into the lake.
CHAIRMAN STEIN: Do you want to do that?
You had something on agriculture, too. I don't know who
raised that question on agriculture on the run-off.
MR. EAGLE: Mr. Metzler.
CHAIRMAN STEIN: There were two things we have
worked on. We have asked the Department of Agriculture
to come back with their report for us in six months on a
program to protect the lakes from agricultural run-off
and associated materials for consideration of the
conferees to see what we can do to meet that problem.
I would hope that if we adopt that, that the Federal
, Department of Agriculture would get together with the
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Closing Statements
States or anyone, with a specific program of what they
are going to do on your lakes vis-a-vis dredging, and for
consideration of the conferees.
Do you want to adopt those as recommendations?
If there is no objection, I think that both
might be a good idea and very helpful and might save the
lake or improve the lake.
Any other suggestions on what we may take up?
Are there any more suggestions?
If not, I think at least we have demonstrated
that we have a program going to abate pollution in Lake
Erie. I think the other thing is that we grappled with
some of the more esoteric problems in handling the
is
17
lake.
15 | I think we are pretty much agreed on time
schedules and treatment for industrial and municipal
waste treatment, even for complicated processes.
This is well underway. The recognition is that there
are various other aspects of the lake pollution problem
that we would have to consider.
I think to expedite the recalling of meetings,
I would also suggest one other thing, that the meeting
be called at the call of the chairman, because at least
when it goes through me, I check with the States first.
I don't put a letter out without getting in touch with you
j. \;
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Closing Statements
on the dates first.
2 I think there is evidence of substantial
3 progress here. I can see, I think, the light at the end
4 of the tunnel, that we are going ahead. We will have to,
5 it seems to me, all of us, stay on top of all these
6 individual projects and see if they can come through.
7 With the announcement of the proposed bond
8 issue in Cleveland, I think we have a major development,
9 and this is one of these milestones we are going to have
10 to pass if we are going to clean up the lakes. Speaking
for at least the Federal Government, we and the staff
12 with all our resources intend to help Mayor Stokes in
]3 any way possible, at his request, to help him do any of
the work he wants with the bond issue. Maybe the best
help we can give is to get him to stay home, but I think
-»..
, . , we nr-" .ue able — if that is the best we can do — we
J. u
would be glad to do that, too -- but we may be able to
help. We have been experienced in bond issues in other
towns and have been called on, for example, in St. Louis
. .
when they put their bond issue across.
By the way, that is a very good campaign to
look at. That probably was one of the most successful
22 r j
sewage bond issues put forward. I think we are going
to have to watch the program very, very closely,
24 '
we are playing for big stakes. There is a lot of money,
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Closing Statements
^H and while we have an agreement and a program moving
2 forward, there are several contingencies that are lurking
3 in the program, and those of you who have listened to
4 Mr. Poole's repeated question know what the major one is,
5 and it' is a five-letter word spelled M-0-N-E-Y.
6 I think if we keep our cool and proceed as we
7 have done, we are going to abate pollution in the lake
8 and move forward.
9 I would like to thank all of you for coming
10 here, participating with us, and those who have stayed
11 with us to the end, and this conference or meeting stands
12j[ adjourned.
Thank you.
(Whereupon, the conference adjourned
15 at 6*30 p.m.)
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