United States
Environmental Protection
Agency
.
nvironmental Sciences Research
Laboratory
Research Triangle Park NC 27711
EPA-600/8-78-016b
November 1978
Research and Development
User's Guide
For RAM
Volume II.
Data Preparation
and Listings
-------
RESEARCH REPORTING SERIES
Research reports of the Office of Research and Development, U.S. Environmental
Protection Agency, have been grouped into nine series. These nine broad cate-
gories were established to facilitate further development and application of en-
vironmental technology. Elimination of traditional grouping was consciously
planned to foster technology transfer and a maximum interface in related fields.
The nine series are:
1. Environmental Health Effects Research
2. Environmental Protection Technology
3. Ecological Research
4. Environmental Monitoring
5. Socioeconomic Environmental Studies
6. Scientific and Technical Assessment Reports (STAR)
7. Interagency Energy-Environment Research and Development
8. "Special" Reports
9. Miscellaneous Reports
This report has been assigned to the SPECIAL REPORTS series. This series is
reserved for reports which are intended to meet the technical information needs
of specifically targeted user groups. Reports in this series include Problem Orient-
ed Reports, Research Application Reports, and Executive Summary Documents.
Typical of these reports include state-of-the-art analyses, technology assess-
ments, reports on the results of major research and development efforts, design
manuals, and user manuals.
EPA REVIEW NOTICE
This report has been reviewed by the U.S. Environmental Protection Agency, and
approved for publication. Mention of trade names or commercial products does
not constitute endorsement or recommendation for use.
This document is available to the public through the National Technical Informa-
tion Service, Springfield, Virginia 22161.
-------
EPA-600/8-78-016b
November 1978
User's Guide For RAM
Volume II.
Data Preparation and Listings
by
D. Bruce Turner and Joan Hrenko Novak
Meteorology and Assessment Division
Environmental Sciences Research Laboratory
Environmmental Sciences Research Laboratory
Office of Research and Development
U.S. Environmental Protection Agency
Research Triangle Park, NC 27711
-------
DISCLAIMER
This report has been reviewed by the Environmental
Sciences Research Laboratory, U. S. Environmental Protection
Agency, and approved for publication. Mention of trade names
or commercial products does not constitute endorsement or
recommendation for use.
AUTHORS' AFFILIATION
The authors are on assignment with the U. S. Environmental
Protection Agency from the National Oceanic and Atmospheric
Administration, U. S. Department of Commerce.
-------
FOREWORD
Within the Office of Air, Land, and Water Use, the Environ-
mental Sciences Research Laboratory conducts a research program
in the physical sciences to detect, define, and quantify the
effects of air pollution on urban, regional, and global atmos-
pheres and the subsequent impact on water quality and land use.
This includes research and development programs designed to
quantitate the relationships between emissions of pollutants
from all types of sources and air quality and atmospheric
effects.
The Meteorology and Assessment Division conducts research
programs in environmental meteorology to describe the roles and
interrelationships of atmospheric processes and airborne pollu-
tants in effective air, water, and land resource management.
Developed air quality simulation models (in Fortran computer
code) are made available to dispersion model users in computer
compatible form by availability of a magnetic tape from NTIS
(See Preface).
RAM is one of the five dispersion algorithms added to
UNAMAP in March 1978. RAM is based upon Gaussian dispersion
concepts of steady-state modeling. Limitations are imposed on
use of the algorithm by the assumptions of non-reactive pollu-
tants and one wind vector and one stability class as representa-
tive of the area being modeled. Also computations made under
light wind conditions should be interpreted skeptically. In
spite of these limitations RAM provides a useful short-term
(hours to a day) algorithm for point and area sources for air
pollution impact assessment.
rology and Assessment Division
m
-------
PREFACE
One of the research activities of the Meteorology and
Assessment Division focuses on the development, evaluation,
validation, and application of air quality simulation, photo-
chemical, and meteorological models capable of describing air
quality and atmospheric processes affecting the disposition of
airborne pollutants, on scales ranging from local to global.
Within the Division, the Environmental Applications Branch
adapts and evaluates new and existing meteorological dispersion
models and statistical technique models, tailors effective
models for recurring user application, and makes these models
available through EPA's computer network system.
RAM, an adaptation of Gaussian techniques previously used
in point source modeling, uses a rapid executing algorithm for
area sources based on the narrow plume hypothesis and has numer-
ous options available to increase user utility. RAM is one of
the atmospheric dispersion models on the User's Network for
Applied Modeling of Air Pollution (UNAMAP) system. The UNAMAP
system may be purchased on magnetic tape from the National
Technical Information Service (NTIS) for use on the user's
computer system.
Although attempts are made to thoroughly check out computer
programs with a wide variety of input data, errors are occasion-
ally found. In case there is a need to correct, revise, or up-
date this model, revisions may be obtained as they are issued by
completing and sending the form on the last page of this guide.
Comments and suggestions regarding this publication should
be directed to:
Chief, Environmental Applications Branch
Meteorology and Assessment Division (MD-80)
Environmental Protection Agency
RESRCH TRI PK, NC 27711
Technical questions regarding use of the model may be asked
by calling (919) 541-4564. Users within the Federal Government
may call FTS: 629-4564. Both volumes of the User's Guide are
available from NTIS, Springfield, Va. 22161.
The magnetic tape containing all Fortran source codes for
RAM, as well as for ten other dispersion models, may be ordered
from Computer Products, NTIS. Ask for UNAMAP (Version 3),
PB 277 193.
IV
-------
ABSTRACT
The information presented in this user's guide is directed
to air pollution scientists having an interest in applying air
quality simulation models. RAM is the three letter designation
for this system of efficient Gaussian-plume multiple-source air
quality algorithms and also the primary algorithm for urban
areas. RAM is a method of estimating short-term dispersion using
the Gaussian steady-state model. These algorithms can be used
for estimating air quality concentrations of relatively non-
reactive pollutants for averaging times from an hour to a day
from point and area sources. The algorithms are applicable for
locations with level or gently rolling terrain where a single
wind vector for each hour is a good approximation to the flow
over the source area considered. Calculations are performed
for each hour. Hourly meteorological data required are wind
direction, wind speed, temperature, stability class, and mixing
height. Emission information required of point sources consists
of source coordinates, emission rate, physical height, stack
diameter, stack gas exit velocity, and stack gas temperature.
Emission information required of area sources consists of south-
west corner coordinates, source side length, total area emission
rate and effective area source-height. Computation time is kept
to a minimum by the manner in which concentrations from area
sources are estimated using a narrow plume hypothesis and using
the area source squares as given rather than breaking down all
sources into an area of uniform elements. Options are available
to the user to allow use of three different types of receptor
locations: 1) those whose coordinates are input by the user,
2) those whose coordinates are determined by the model and are
downwind of significant point and area sources where maxima are
likely to occur, and 3) those whose coordinates are determined
by the model to give good area coverage of a specific portion of
the region. Computation time is also decreased by keeping the
number of receptors to a minimum. Volume I considers the use
and capabilities of RAM, its basis, the organization of the
computer program, and data requirements. Volume II presents RAM
example outputs, typical run streams, variable glossaries, and
Fortran source codes.
-------
CONTENTS VOLUME II
Foreward iii
Preface iv
Abstract v
Figures ix
Acknowledgements x
1. Introduction 1
2. System overview and glossary 2
3. RAMQ 20
Input data formats (RAMQDOC) 20
Run-stream example 21
Output example 22
Fortran source program listings 26
4. RAMMET 36
Input data formats (RAMMETDOC) 36
Run-stream example 38
Output example 40
Fortran source program listings 41
5. RAM 47
Input data formats (RAMDOC) 47
Run-stream example 52
Output examples 53
Fortran source program listings 72
Program to read the partial concentration out-
put file (PARTC) Ill
Format of punch card output (PUNCHCARD) 113
6. RAMF 115
Input data formats 115
Run-stream examples 120
Output example 126
Fortran source program listings 132
Program to read the hourly output file (RAMFHOUR) . 146
Program to read the daily output file (RAMFDAY) . . 148
7. RAMR 150
Fortran source program listings 150
8. RAMFR 176
Fortran source program listings 176
9. CUMF 188
Input data formats 188
Run-stream example 188
Output example 189
Fortran source program listings 201
10. RAMBLK 207
Input data formats 207
Run-stream example 207
Output example 208
Fortran source program listings 212
-------
CONTENTS VOLUME I
Foreward iii
Preface iv
Abstract v
Figures ix
Acknowledgements x
1. Introduction 1
2. Recommendations 3
Uses 3
Algorithm Assumptions 3
Proper use of RAM 8
Special problems that may be encountered using
the frequency distribution version (RAMF) of
RAM 9
3. Theoretical Basis for RAM 11
Dilution by the wind 11
Dispersion results in Gaussian distributed cross
sections 11
Steady-state conditions 11
Concentration - sum of individual contributions . 11
Plume rise for point sources 12
Effluent rise for area sources 17
Concentrations from point sources 17
Concentrations from area sources 18
4. Organization of Computer Programs 19
Interrelationship of eight main programs 19
Brief descriptions of programs 22
Brief descriptions of subroutines 28
5. Data Requirements 32
RAMBLK 32
RAMQ 32
Meteorological data and RAMMET 35
RAM and RAMR 37
RAMF and RAMFR 42
CUMF 43
6. Algorithm Capabilities 44
Typical use of RAM 44
Discussion of RAM example 46
Typical RAMR use 50
Typical RAMF use 50
References 52
Appendix 54
vm
-------
FIGURES
Number Page
1. System flow for RAM or RAMR 3
2. System flow for RAMF or RAMFR 4
3. Locations of point sources
and significant point
receptors for example problem 54
4. Locations of area sources and
significant area receptors
for example problem 55
5. Locations of input receptors
and honeycomb receptors for
example problem 56
-------
ACKNOWLEDGMENTS
The authors appreciate the assitance of Adrian D. Busse for placing RAM
into the UNAMAP system, and the helpful discussions with John S. Irwin and K.
L. Calder.
We appreciate the suggestions for changes received from the Regional
Meteorologists and other contributors in EPA regions. These suggested
changes arose from their experience in running provisional versions of RAM.
RAM bears the initials of Robert A. McCormick who directed the meteor-
ology program of the Federal air pollution control effort from June 1958
until the time of his retirement in January 1973. His dedicated leadership,
encouragement, advice, and counsel throughout this peirod are greatly appre-
ciated.
The assistance of Theresa Burton, Caryl Whaley, Lea Prince, Nancy
Beasley, Bonnie Kirtz, Carolyn Johnston, Sandy Bryant, Tom Pierce, and
especially that of Pamela Hinton and Joan Emory is gratefully acknowledged.
We thank Ralph Seller for the use of his slide showing point and area sources
for the cover.
-------
1, INTRODUCTION
The purpose of Volume II of the RAM User's Guide is to supply the user
with technical information necessary to execute all programs in the RAM
system. Detailed explanations of the preparation of input data are given as
well as corresponding example outputs. Core, time, and page estimates are
provided in several example run streams. The form of the run cards is as
follows:
@RUN,priority/options runid/core,accnt,proj-id,run-time(min),pages/cards
A glossary contains the definition of all variables used in the RAM programs,
and, for completeness, all unique routines in the RAM system are listed below.
The following table indicates which routines are necessary for execution of
specific programs in the RAM system:
RAMQ
RAMMET
RAM
RAMF
RAMR
RAMFR CUMF
RAMBLK
RAMQ
BLKQU
BLKQR
RAMMET
RAM
ANGARC
JMHPOL
JMHARE
JMHPTU
JMH54U
JMHCZU
DBTRCU
JMHFIN
JMHREC
JMHOUR
JMHHON
BRSZ
BRSYSZ
BLOCK
RAMF
ANGARC
JMHPOL
JMHARE
JMHPTU
JMH54U
JMHCZU
DBTRCU
JMHFD
BRSZ
BRSYSZ
BLOCK
RAMR
ANGARC
JMHPOL
JMHARE
JMHPTR
JMH54R
JMHCZR
DBTRCR
JMHFIN
JMHREC
JMHOUR
JMHHON
PGSZ
PGSYSZ
BLOCKR
RAMFR
ANGARC
JMHPOL
JMHARE
JMHPTR
JMH54R
JMHCZR
DBTRCR
JMHFD
PGSZ
PGSYSZ
BLOCKR
CUMF RAMBLK
GRAPH JMHCZB
PROB DBTRCB
CALCOMP PGSZ
SOFTWARE PGSYSZ
BRSZ
BRSYSZ
-------
2, SYSTEM OVERVIEW AND GLOSSARY
Figures 1 and 2 for the RAM system illustrate that control cards and
either point or area source emissions or both are required input to RAMQ --
the emissions preprocessor. The generated output file is required for all
versions of RAM.
Control and possibly receptor and meteorological data are input into the
RAM versions on cards. If the user chooses to input meteorological data on
cards, then execution of the meteorological preprocessor, RAMMET, may be
omitted; otherwise one year's hourly surface observations and corresponding
mixing height data is required by RAMMET to prepare the necessary meteoro-
logical input file for the RAM versions.
Finally, in addition to the average emissions data from RAMQ, all RAM
versions will accept hourly emissions data.
Output from RAM or RAMR consists of printed output and, if specified
by the user, punch cards for contouring and hourly contributions from each
source to each receptor. Output from RAMF or RAMFR consists of printed out-
put and hourly and daily concentration files. The daily concentration file
can be used as input to the program CUMF in order to produce printed and
plotted cumulative frequency distributions.
-------
' _A.'iEA_EMjss]p_Ns
POINT EMISSIONS
CONTROL
CARDS
R A M Q
MIXING HT. DATA
NCC
SURFACE
MET. DATA
CONTROL
CARD
PREPROCESSED
MET. DATA
HOURLY
POINT
EMISSIONS
HOURLY
AREA
EMISSIONS
PREPROCESSED
EMISSIONS
DATA
PUNCHED CARDS
FOR CONTOURING
PRINTED
OUTPUT
HOURLY
PARTIAL
CONCENTRATION'
FILE
DOTTED LINE MEANS OPTIONAL
Figure 1. System flow for RAM or RAMR
-------
I AREAEMSKJNS
'MIXING HT. DATA
NCC
SURFACE
MET. DATA
CONTROL
CARD
CONTROL
CARDS
RECEPTOR DATA
PREPROCESSED
MET. DATA
PREPROCESSED
EMISSIONS
DATA
CONTROL
CARDS
HOURLY
POINT
EMISSIONS
R A M F
OR
R A M F R
STORAGE OF
SUMMATION
DATA
HOURLY
AREA
EMISSIONS
HOURLY
CONCEN-
TRATION
FILE
DAILY
CONCENTRATION
FILE
PRINTED
OUTPUT
DOTTED LINE MEANS OPTIONAL
PRINTED
CUMULATIVE
FREQUENCY
DISTRIBUTIONS
/CALCOMP
/ PLOTTED
( CUMULATIVE
\ FREQUENCY
NDISTRIBUTIONS
Figure 2. System flow for RAMF or RAMFR
-------
GLOSSARY
VERSION 78124 OF RAM DOCUMENTATION
***GLOSSARY OF TERMS FOR RAM
AND R A M R
C RAM IS AN URBAN SHORT TERM STEADY-STATE GAUSSIAN DISPERSION MODEL THAT
C DETERMINES HOURLY CONC. AND AVG. CONC. FOR NAVG HOURS AT A NUMBER OF
C RECEPTOR POINTS . RAMR IS THE RURAL VERSION OF RAM.
C
C ACHI CONCENTRATION DUE TO AREA SOURCES AT EACH RECEPTOR(G/M**3)
C AHCHI SAME AS ACHI BUT FOR THIS HOUR ONLY.
C AHSIGS SAME AS ASIGS BUT FOR THIS HOUR ONLY.
C ANGARC SUBROUTINE- DETERMINE THE ARCTAN(DELM/DELN)
C ASIGS PARTIAL CONC. DUE TO EACH SIGWIF. AREA SOURCE AT EACH RECEPTOR
C ASORC(1,NAS) EAST COORD. OF 3W CORNER OF AREA SOURCE (USER UNITS)
C ASQRC(2,NAS) NORTH COORD. OF SW CORNER OF AREA SOURCE (USER UNITS)
C ASORC(3,NAS) SULFUR DIOXIDE EMISSION RATE FOR ENTIRE AREA (GRAMS/SECOND)
C ASORC(4,NAS) PARTICULATE EMISSION RATE FOR ENTIRE AREA (GRAMS/SECOND)
C ASORC(5,NAS) SIDE LENGTH OF AREA SOURCE (USER UNITS)
C ASORC(6,NAS) AREA SOURCE HEIGHT (METERS)
C AXCOF AREA SOURCE DISTANCE COEFFICIENTS FROM RAMBLK
C AXEXP AREA SOURCE DISTANCE EXPONENTS FROM RAKBLK
C BPH HEIGHTS SEPARATING AREA HEIGHT CLASSES(METERS)
C CIN ARRAY CONTAINING INTEGRATED VALUES FOR AREA SOURCES
C COEFFS NAMED COMMON FOR COEFFICIENTS GENERATED BY RAMBLK
C CONONE MULTIPLIER CONSTANT TO CONVERT LENGTH IN USER UNITS TO KM
C CONTWO MULTIPLIER CONSTANT TO CONVERT LENGTH IN INTERNAL UNITS TO KM
C COST COSINE OF rfIND DIRECTION FOR THIS HOUR
C C1 DUMMY VARIABLE FREQUENTLY USED IN PRINTING
C C2 DUMMY VARIABLE FREQUENTLY USED IN PRINTING
C C3 DUMMY VARIABLE FREQUENTLY USED IN PRINTING
C C4 DUMMY VARIABLE FREQUENTLY USED IN PRINTING
C DAY1 JULIAN DAY OF MET DATA.
C DEC DEGREES FOR DETERMINATION OF QUADRANT
C DELM EAST COMPONENT OF RESULTANT wIND FOR NAVG HOURS.
C DELN NORTH COMPONENT OF RESULTANT WIND FOR NAVG HOURS.
C DSAV ARRAY OF DISTANCES TO FINAL RISrX.KM)
C DUMR DUMMY VARIABLE TO SKIP PAST WIND DIRECTION TO 10 DEGREES.
C FH FRACTION OF AREA SOURCE HEIGHT MICH IS PHYSICAL HEIGHT
C GRIDSP DISTANCE BETWEEN RECEPTORS GENERATED BY JMHHON (USER UNITS)
C HAFL POLLUTANT HALF-LIFE (SECONDS)
C HCGRID NAMED COMMON CONTAINING BOUNDS FOR HONEYCOMB GRID
C HC1 HEIGHT CLASS DESIGNATIONS FOR RAMbLK DATA
C HEIGHT NAMED COMMON , VARIABLES CONCERNED folTH AREA SOURCE HEIGHTS
C HINT REPRESENTATIVE HEIGHTS FOR AREA SOURCES(METERS)
C HL MIXING HEIGHT(METERS) FOR THIS HOUR
C HLH MIXING HEIGHTS (METERS) FOR 24 HOURS
C HRMIN,HRMAX,HSMIN,HSMAX LIMITS FOR HONEYCD'-lb RECEPTOR GENERATION-USER UNIT
C H3AV AH.^Y OF PLUXE RISES ALREADY CALCULATED (KCTER5)
C I DUriMY VARIABLE FRKQUE,\TLY USED
C IA AREA SOURCE MAP ARhAY (CONTAIN? IJTEGER MAPPING OF AREA
C SOURCES BY SOURCE uUl'.cEri).
C IASIGS ARRAY CONTAINING RA.-iK FOR EACH ARbA SOURCE I* Ir^KiS OF
C SIGNIFICANCE
C ICHAfi AN 'I' TO INDICAT.-: I'iPUT KL-Cf.PTOh .
-------
C ICODE NUMBER OF SIGNIFICANT SOURCE MICH GENERATED THIS RECEPTOR
C ID SURFACE METEOROLOGICAL STATION IDENTIFICATION FROM DISK
C IDATK YEAR AND STARTING JULIAN DAY TO APPEAR ON OUTPUT.
C IDATA DATE(YYDDBHH) ON HOURLY AREA SOURCE EMISSION RECORD
C IDATP DATE(YYDDDHH) OH HOURLY POINT SOURCE EMISSION RECORD
C IDAY NUMBER OF DAYS PREVIOUSLY PROCESSED BY A PRECEDING RUN.
C IDCK INTERNAL DATE USED FOR CHECKING DATE ON HOURLY EMISSION
C IHSTRT START HOUR OF RUM
C IDM IDENTIFICATION FOR RADIOSONDE STATION USED TO DETERMINE
C MIXING HEIGHT FROM DISK
C IFREQ FREQUENCY TABLE OF OCCURRENCE OF EACH STABILITY CLASS.
C IKST STABILITY CLASS FOR THIS HOUR
C ILH DO LOOP INDEX ON HOUR LOOP
C IMAS ARRAY OF ORIGINAL AREA SOURCE NUMBERS IN ORDER OF SIGNIFICANCE
C IMO MONTH ON MET DATA.
C IMOD INDICATOR FOR RURAL=1, OR URBAN=2 VERSION OF MODEL
C IMPS ARRAY OF ORIGINAL POINT SOURCE NUMBERS IN ORDER OF SIGNIFICANCE
C IHXD IDENTIFICATION FOR RADIOSONDE STATION USED TO DETERMINE
C MIXING HEIGHT. FROM CARD IMPUT.
C IMXYR YEAR FOR MIXING HEIGHT DATA - 2 DIGITS FROM CARD INPUT.
C IN INPUT UNIT NUMBER, CARD READER
C IMAS THE NUMBER OF USER SPECIFIED SIGNIF. AREA SOURCES, COUNT
C INPT THE NUMBER OF USER SPECIFIED SIGNIF. POINT SOURCES, COUNT
C 10 UNIT NUMEER(6) - PRINTER OUTPUT
C lOPfd) CONTROL OPTION, POINT SOURCE INPUT?
C IOPT(2) CONTROL OPTION, AREA SOURCE INPUT?
C IOPT(3) CONTROL OPTION, SPECIFIED RECEPTORS?
C IOPT(4) CONTROL OPTION, SIGNIFICANT POINT RECEPTORS?
C IOPT(5) CONTROL OPTION, SIGNIFICANT AREA RECEPTORS?
C IOPT(6) CONTROL OPTION, FILL IN HONEYCOKS RECEPTORS?
C IOPT(7) CONTROL OPTION, HOURLY OUTPUT?
C IOPT(8) CONTROL OPTION, SOURCE CONTRIBUTIONS TO DISK?
C IOPT(9) CONTROL OPTION, HOURLY SUMMARIES ONLY?
C IOPT(10) CONTROL OPTION, PUNCH CARDS FOR CONTOURS?
C lOPT(H) CONTROL OPTION, INPUT MET DATA ON CARDS?
C IOPT(12) CONTROL OPTION, SPECIFY SIGMF. SOURCE NUMBERS? 0
C IOPT(13) CONTROL OPTION, READ HOURLY EMISSIONS?
C IP DUMMY VARIABLE USED FOR PROPER POLLUTANT TITLE
C IPOL INDEX FOR POLLUTANT, j = S02 , 4 = PARTICIPATE.
C IPSIGS ARRAY CONTAINING RANK FOR KACK POINT SOURCE IM TERMS OF
C SIGNIFICANCE
C IPl DUMMY VARIABLE USED FOR LOOP dOUNDS
C IQ LOOP INDEX FOR MET DATA
C IRSIZE RAST-WEST SIZE OF AREA SOURCE REGION (IK INTERNAL UNITS).
C ISFCD SURFACE METEOROLOGICAL STATION IDENTIFICATION - FROM
C CARD I\PUT.
C ISFCYR YEAR FOR SURFACE DATA - 2 DIBITS. FROM CARD INPUT.
C ISSIZE NORTH-SOUTH SIZE OF AREA SOURCE nEGIOH(IN INTERNAL UNITS)
C ISTDAY START DAY OF CURRENT AVERAGING PERIOD
C ITYPE ALPHANUMERIC CHARACTER TO INDICATE HOd A RECEPTOR IS GENERATED.
C Iw'D WIND DIRECTION CONTROL, QUADRANT FriOM toh'ICH WIND BLOWS.
C IYEAR YEAR FOR SURFACE DATA - 2 DIGITS. FRO'-' DISK.
C IY!"i YEAR FOR MIXING HEIGHT DATA - 2 DIGITS FROM DISK.
C J DUMMY VARIABLE FREQUENTLY USED
C JDUM DUMMY VARIABLE USED IM PRINTING AREA ARRAY KAP(IA)
C JHR "OUR SUBSCRIPT USED i.'IT4 HFT DATA
C JLIK DUMMY VARIABLE USED IK' PRINTING AREA ARRAY MAP(IA)
C JMHARE SUBROUTINE- INTEGRATES FOh CONC. FROM AREA SOURCES
C JMHFIN SUBROUTINE- PRODUCES OUTPUT FOR T-1E BASIC AVG. TIME
C JMHHOM SUBROUTING- GE.MF HATES HONEYCOMB PATTERN OF KECEPTORS
C JMHOUH SUBROUTINE- PRODUCES HOURLY OUTPUT
C JMHPTU SUBROUTINE- DGTERMI.x'iS CONC FHO' POI.'iT SOURCES
0
0
0
0
0
0
0
0
0
0
0
0
0
=
=
=
=
=
=
=
=
=
r
=
=
=
NO,
NO,
NO,
NO,
NO,
NO,
NO,
NO,
NO,
NO,
NO,
MO,
NO,
1 =
1 =
1 =
1 =
1 =
1 =
1 =
1 =
1 =
1 =
1 =
1 =
1 =
YES
YES
YES
YES
YES
YES
YES
YES
YES
YES
YES
YES
YES
-------
C (JMHPTR IN RURAL VERSION)
C JMHREC SUBROUTINE- GENERATES RECEPTORS DOWNWIND OF SIGNIF. SOURCES
C JMH54U SUBROUTINE-GENERATES TABLES OF CALCULATED CONC. FOR AREA SOURCES
C (JHHS^R ri RURAL VERSION)
C JYR YEAR OF MET DATA.
C K DUMMY VARIABLE FREQUENTLY USED
C KST STABILITY CLASS FOR THIS HOUP.
C KSUM VARIABLE USED Ii\ DETERMINING AVERAGE STABILITY
C L DUMMY VARIABLE USED IN PFIMTING POINT IDENTIFICATION
C LH INDEX USED FOR SUBSCRIPTING DATA IF! HOUR LOOP
C LINE! FIRST LINE OF TITLE USUALLY IDENTIFIES USER AND
C AFFILIATION.
C LIME2 SECOND LINE OF TITLE, CAN IDMiTIFY EMISSIONS SOURCE AND
C DATE.
C LINE3 THIRD LINE OF TITLE, CAN INDICATE METEOROLOGICAL DATA
C LOCATION AiMD PERIOD OF RECORD.
C LSMAX MAXIMUM STABILITY CLASS FREQUENCY.
C LST VARIABLE USED IN DETERMINING MODAL STABILITY
C LSTAB VARIABLE USED IN DETERMINING MODAL STABILITY
C MAS AREA SOURCE NUMBERS USER kANTS TO CONSIDER AS SIGNIFICANT
C METCON NAMED COMMON, CONC. ARRAYS AND CURRENT MET. CONDITION'S
C METDAT NAMED COMMON, HOURLY MET. DATA FOP EACH DAY.
C MODEL MODEL(1) = 'RURAL'; MODEL(2) = 'URBAN'.
C MODL MODL=1 FOR RURAL VERSION, MODL=2 FOR JRBAN VERSION
C MPS POINT SOURCE NUMBERS USSR WANTS TO CONSIDER AS SIGNIFICANT
C NAS NUMBER OF AREA SOURCES, COUNT
C NAVG NUMBER OF HOURS IN THE AVERAGING TIME
C NB THE BEGINNING HOUR OF THE CURRENT AVERAGING TIME LOOP
C NEP NUMBER OF HEIGHTS SEPARATING HEIGHT CLASSES
C WE THE ENDING HOUP OF THE CURRENT LOOP
C NHRS COUNT ; USED TO DETERKIfJE WHEN A DAY(24 HOURS) IS COMPLETE
C NUTS NUMBER OF HEIGHT CLASSES
C NID UNIT NUMBER(9) - DISK UNIT OF EMISSION DATA AMD OTHER
C INFORMATION FROM RAMQ.
C NIP UNIT NUMBER(IO) - DISK OUTPUT OF PARTIAL CONCENTRATIONS AT
C EACH RECEPTOR.
C NIT UNIT NUMBER(11) FOP INPUT OF MET DATA.
C NP CURRENT NUMBER OF COMPLETED PERIODS
C NPER THE NUMBER OF PERIODS TO BE RUN.
C NPREC NUMBER OF PERMANENT RECEPTORS
C NPT NUMBER OF POI*T SOURCES, COUNT
C NRECEP TOTAL NUMBER OF RECEPTORS
C NSIGA MO. OF SIGNIFICANT AREA SOURCES,MAY BE LESS THAN IN RAKQ
C NSIGP HO. OF SIGNIFICANT POINT SOURCES,MAY BE LESS THAN IN RAMO
C PARTC ARRAY OF PARTIAL CONCENTRATIONS,CONTRIBUTION FROM EACH SOURCE
C PCHI CONCENTRATION DUE TO POINT SOURCES AT EACH RECEPTOR(G/M**3)
C PERSI3 WIND PERSISTENCE FOR NAVG HOURS. (RESULTANT SPEED/AVG. SPEED)
C PHCHI SAME AS PCHI BUT FOR THIS HOUR ONLY.
C PHSIGS SAME AS PSIGS BUT FOR THIS HOUR ONLY.
C PL ARRAY CONTAINING EXPONENTS FOR WIND PROFILE
C PMAME 12 CHARACTER POINT SOURCE IDENTIFICATION.
C PSAV ORIGINAL ANNUAL EMISSION RATE FOR ALL SOURCES.
C PSIGS PARTIAL CONC. DUE TO EACH SIGNIF. POINT SOURCE AT EACH RECEPTOR.
C PXCOF POINT SOURCE DISTANCE COEFFICIENTS FROM RAMBLK
C PXEXP POINT SOURCE DISTANCE EXPONENTS FROM RAMBLX
C PXUCOF POINT SOURCE CONCENTRATION COEFFICIENTS FROM RAMBLK
C PXUEXP POINT SOURCE CONCENTRATION EXPONENTS FROM RAMBLK
C QHL ARRAY OF HOURLY MIXING HEIGHTS(METERS).
C QTEMP ARRAY OF AMBIENT AIR TEMPERATURES(KELVIN)
C QTHETA ARRAY OF WIND DIRECTION'S (DEGREES)
C QU ARRAY OF WIND SPEEDS (METERS/SECOND)
C RDUM INTERMEDIATE STORAGE
-------
c
c
c
c
c
c
o
^
c
c
c
c
c
c
c
c
/-I
l^
c
c
c
c
r>
w
c
c
c
c
c
c
c
c
c
c
c
c
c
c
RELC
RMAX
RMIN
RMIN i
RNAKE
RRCC
3DUM
BF
SINT
SMAX
NAMED COMMON
POR RELATIVE CONCENTRATION ARRAY.
COORD. OF AREA SOURCES .( INTERN AL -UNITS)
COORD. OF AREA SOURCES .( INTERN AL UNITS)
COORDINATE OF AREA SOURCES
OF RECEPTOR.
SMINI
SORC
SOURCEd
SOURCE(2
SOURCE (3
SOURCES
SOURCE(5
SOURCE(6
SOURCE(?
SOU'RCE(8
30URCE(9
SREC
TEMP
THETA
TITLE
TLOS
TRAD
U
UNITS
UR
URES
URREC
USREC
Vfi
XL IX
MAXIMUM EAST
MINIMUM EAST
MINIMUM, EAST
8 DIGIT ALPHANUMERIC DESCRIPTOR
EAST RECCPTOR CO-ORDINATES(USER UNIT CONVERTED TO INTERNAL UNIT)
INTERMEDIATE STORAGE
SIDE LENGTH OF AREA SOURCE IN METERS.
SIN OF WIND DIRECTION FOP THIS HOUR
MAXIMUM NORTH COORD. OF AREA SOURCES.(INTERNAL UNITS)
MINIMUM NORTH COORD. OF AREA SOURCES.(IMTERNAL UNITS)
MINIMUM NORTH COORDINATE OF AREA SOURCES
NAMED COMMON CONTAINING SOURCE AND CONTROL INFORMATION
,NPT) EAST COORDINATE OF POINT SOURCE (USER UNITS)
,NPT) NORTH COORDINATE OF POINT SOURCE (USER UNITS)
,NPT) SULFUR DIOXIDE EMI.SSIOn RATE (GRAMS/SECOND)
,NPT) PARTICULATE EMISSION RATS (GRAMS/SECOND)
,NPT) PHYSICAL STACK HEIGHT (METERS)
,KPT) STACK GAS TEMPERATURE (KELVIN)
,HPT) STACK INSIDE TOP DIAMETER (METERS)
,NPT) STACK GAS EXIT VELOCITY (METERS/3ECOMD)
,NPT) BRIGGS F WITHOUT TEMP, THAT IS: 3-12139*VF
NORTH RECEPTOR CCORDINATES( USER UMT CONVERTED TO INTERNAL UNIT)
AVERAGE AMBIENT AI li TEMPERATURE FOR iMAVG HOURS. ALSO
TEMPERATURE FOR THIS HCUR(KELVIN)
RESULTANT WIND DIRECTION FOR NHOURS(DCGHESS).ALSO WIND
DIRECTION FOR THIS HOUR
TITLE(1)=' 502 ', TITLb(2)=' PART '
PARTIAL COMPUTATION RELATED TO POLLUTANT LOSS.
ANGLE OF THE WIND THIS HOUR IN RADIANS.
AVERAGE WIND SPEED. ALSO WI>
-------
C JMHFD SUBROUTINE- PRODUCES OUTPUT FOR THE BASIC AVG. TIME
C LDRUH DAY NUMBER OF LAST DAY TO BE PROCESSED IN THIS RUN
C MDAYS NUMBER OF DAYS TO BE RUM
C SUM NAMED COMMON CONTAINING SUMMARY ARRAYS
C UMAX FIVE HIGHEST HOURLY CONCENTRATIONS, DATE AND HOUR OF
C OCCURRENCE FOR EACH RECEPTOR
C HMAX(1,J,K) CONCENTRATION
C HMAX(2,J,K) JULIAK DAY
C KMAX(3,J,K) HOUR
C J IS THE FIRST THRU FIFTH HIGHEST INDICATOR
C K IS THE RECEPTOR NUMBER
***GLOSSARY
0 F
TERMS
0 R
RAM MET***
C
C
n
ly
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
RAMMET RE
CLIMATIC
INFORMAT
RANDOMIZ
IN DAILY
AFV
ALAT
ALF
ALFSIN
ALONG
A MM
ANGL
CONST
COSD
COSLAT
COSTD
DAY1
DAYNO
DCOS
DSIN
DUM
FV
FVR
HCOS
HI
HLH
H2
I
ICEIL
ICN
ICOVER
ID
IDAY
IDC
IDFAC
IDG
IDIG
IDIR
IDM
IDY
IFLAG
IHOUR
IHR
IMO
IMONTH
READS SURFACE OBSERVATION HOURLY CARD IMAGES FROM THE NATIONAL
CENTER (NCC) FOR ONE YEAR'S DATA, READS MIXING HEIGHT
ON FROM CARDS, CALCULATES STABILITY CLASS AND
D FLOW'VECTOR, AND WRITES HOURLY MET, DATA ARRAYS
RECORDS.
FLOW VECTOR (ARRAY)
LATITUDE OF SITE
SOLAR ELEVATION ANGLE(DEGREES)
SINE OF SOLAR ELEVATION ANGLE
LONGIDUTE OF SITE
TIME OF MERIDIAN PASSAGE
TEST ELEVATION ANGLES
THE NUMBER OF DEGREES IN A RADIAN
COS OF DAYNO
COSINE OF LATITUDE
COS OF TDAYNO
JULIAN DAY OF MET DATA.
ANGULAR POSITION FOR THIS DAY.
COSINE OF SOLAR DECLINATION
SINE OF SOLAR DECLINATION
DUMMY VARIABLE FOR TEMPORARY STORAGE
FLOW VECTOR (DEGREES)
RANDOMIZED FLOW VECTOR
COSINE OF SOLAR HOUR ANGLE OF SUNRISE AND SUNSET
ELEVATION ANGLE
MIXING HEIGHTS (METERS) FOR 24 HOURS
SOLAR HOUR ANGLE OF SUNRISE AND SUNSET
FREQUENTLY USED DUMMY FOR DO INDEX
INPUT CEILING(HUNDREDS OF FEET)
DUMMY RELATED TO SOLAR RADIATION INDEX
OPAQUE CLOUD COVER(TENTHS)
SURFACE METEOROLOGICAL STATION IDENTIFICATION FROM DISK
DAY FROM MET. TAPE
MET TAPE IDENTIFICATION
NUMBER OF DAYS FROM FIRST OF YEAR TO END OF PREVIOUS
MONTH.
NUMERICAL DATA CORRESPONDING TO ICEIL
ALPHA DIGITS TO COMPARE WITH ALPHA.VARIABLES ON MET CARD
WIND DIRECTION CATEGORY (10 DEGREES)
IDENTIFICATION FOR RADIOSONDE STATION USED TO DETERMINE
MIXING HEIGHT FROM DISK
INDEX FOR DAY LOOP
INDICATOR THAT END OF FILE HAS BEEN REACHED
HOUR
INTEGER HOUR
MONTH ON MET DATA.
MONTH
9
-------
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
r>
u
c
c
c
c
c
^
c
c
c
c
c
c
c
c
c
c
c
c
IN
IND
10
IRADX
IRAND
IREC
IROOF
ISKY
ISPEED
ITEMP
IYEAR
IYM
IYRC
J
JI
JK
KHR
KHRC
KST
KSTSP
LDAY
LMON
LST
LSTAB
LWD
LYS
RAND(24)
RANDU
S
SIGMA
SIND
SINLAT
SINTD
SPEED
TDAYNO
TEMP
TEMPZ
TSR
TSS
XAF
XAFM1
XAFP1
XDIR
XHR
XMN
XMMM1
XMNP1
ZONE
INPUT UNIT NUMBER, CARD READER
INDICATOR FOR WIND SPEED
UNIT NUMBER(6) - PRINTER OUTPUT
RADIATION INDEX
RANDOM DIGIT FROM 0 TO 9.
CURRENT RECORD ON MET. TAPE
CEILING HEIGHT CODE
SKY COVER(TENTHS)
INPUT WIND SPEED(KNOTS)
INPUT TEMPERATURE(DRY BULB - FARENHEIT)
YEAR FOR SURFACE DATA - 2 DIGITS. FROM DISK.
YEAR FOR MIXING HEIGHT DATA - 2 DIGITS FROM DISK.
YEAR
DUMMY VARIABLE FOR OUTPUT LISTS
DUMMY VARIABLE FOR DO LOOP INDEX
DUMMY FOR DO LOOP INDEX
INDEX FOR HOURLY DO LOOP
HOUR
ARRAY OF CALCULATED HOURLY STABILITIES FOR EACH DAY
TEMPORARY STABILITY CLASS
DAY OF MONTH FROM CARD FOR LAST HOUR
MONTH FROM CARD FOR LAST HOUR
STABILITY CLASS FOR LAST HOUR
TABLE OF STABILITES INDEXED BY IND AND IRADX
LAST WIND DIRECTION(DEGREES)
INDICATOR: 1 FOR NORMAL YEAR, 2 FOR LEAP YEAR.
INITIAL RANDOM NUMBER.
SUBROUTINE TO GENERATE RANDOM NUMBERS
WIND SPEED (KNOTS)
VARIABLE TO ACCOUNT FOR ELLIPTICITY OF EARTH'S ORBIT
SIN OF DAYMO
SINE OF LATITUDE
SIN OF TDAYNO
WIND SPEED (METERS/SECOND)
TWO TIMES DAYNO
ARRAY OF HOURLY TEMPERATURES FOR EACH DAY
INTERMEDIATE CALCULATION INVOLVING ZONE AND LONGITUDE
TIME OF SUNRISE
TIME OF SUNSET
TODAY'S MAXIMUM MIXING HEIGHT(METERS)
YESTERDAY'S MAXIMUM MIXING HEIGHT(METERS)
TOMORROW'S MAXIMUM MIXIMG HEIGHT(METERS)
WIND DIRECTION (DEGREES)
FLOATING POINT HOUR
TODAY'S MINIMUM MIXING HEIGHT!METERS)
YESTERDAY'S MINIMUM MIXING HEIGHT(METERS)
TOMORROW'S MINIMUM MIXING HEIGHT(METERS)
TIME ZONE OF SITE( GREENWICH MEAN TIME- LOCAL STANDARD TIME)
***GLOSSARY
0 F
T E R
FOR
R A M Q
* * *
C
C
C
C
C
c
c
c
c
c
RAMQ PROCE
MAP ARRAY
IMPACT.
A
ASVAL
AXCOF
AXCOR
RANKS POINT
INVENTORY INFORMATION. CONSTRUCTS AREA SOURCE
AMD ARSA SOURCES ACCORDING TO EXPECTED
FOR VARIABLES APPEARING IN THE PROGRAM BUT NOT LISTED
IN THIS GLOSSARY, SEE GLOSSARY FOR RAM.
TEMPORARY COEFFICIENT
SIGNIFICANCE- EMISSION RATE TIMES SIDE LENGTH.
URBAN COEFFICIENT FOR DI3T. TO AREA MAX
RURAL COEFFICIENT FOR DIST. TO AREA MAX
10
-------
C AXEXP URBAN EXPONENT FOR DIST. TO AREA MAX.
C AXEXR RURAL EXPONENT FOR DIST. TO AREA MAX
C B TEMPORARY EXPONENT
C COEFFR NAMED COMMON-ARRAYS OF RURAL COEFFICIENTS AND EXPONENTS
C COEFF" NAMED COMMON-ARRAYS OF URBAN COEFFICIENTS AMD EXPONENTS
C C1 DUMMY TO WRITE OUTPUT IN USER UNITS
C C2 DUMMY TO WRITE OUTPUT IN USER UNITS
C C3 DUMMY TO WRITE OUTPUT IN USER UNITS
C D TEMPORARY SIDE LENGTH VALUE
C F BRIGGS 3UOYAKCY FLUX PARAMETER
C HC TEMPORARY HEIGHT CLASS AT 5 METER INTERVALS
C HC1 HEIGHT CLftSS SEPARATIONS(METERS)
C HF FINAL PLUME RISE(METERS) FOR CURRENT POINT SOURCE
C HFIN ARRAY OF FINAL RISE(METERS) FOR EACH POINT SOURCE
C IH DO INDEX TO DETERMINE HEIGHT INDEX
C IH1 HEIGHT VALUES FOR TABLE OUTPUT
C IH2 HEIGHT VALUES FOR TABLE OUTPUT
C IR EAST IA INDEX FOR SOURCE NUMBER STORAGE
C IRDIM EAST MAXIMUM DIMENSIONS OF IA ARRAY (AREA SOURCE INDEX)
C IRMAX MAXIMUM INTEGER EAST COORD. OF AREA SOURCES.
C IRMIN MINIMUM INTEGER EAST COORD. OF AREA SOURCES.
C IRX MAXIMUM EAST IA INDEX FOR SOURCE NUMBER STORAGE
C IS HEIGHT CLASS INDEX AND NORTH IA INDEX FOR SOURCE NUMBER STORAGE
C ISDIM NORTH MAXIMUM DIMENSIONS OF IA ARRAY (AREA SOURCE INDEX)
C ISMAX MAXIMUM INTEGER NORTH COORD. OF AREA SOURCES.
C ISMIN MINIMUM INTEGER NORTH COORD. OF AREA SOURCES.
C ISX MAXIMUM NORTH IA FOR SOURCE NUMBER STORAGE
C ITITLE 80 COLS OF INFORMATION TO BE USED AS OUTPUT TITLE
C IWA INTEGER AREA SOURCE SIDE LENGTH(USER UNITS)
C LMAX TEMPORARY NUMBER OF SOURCE WITH HIGHTEST CONCENTRATION
C MAXA MAXIMUM NUMBER OF AREA SOURCES.SECOND DIMENSION OF ASORC
C MAXP MAXIMUM NUMBER OF POINT SOURCES.SECOND DIM. OF SOURCE
C NDIMA MAXIMUM NUMBER OF AREA SOURCES
C NDIMP MAXIMUM NUMBER OF POINT SOURCES
C NIN INPUT DATA UNIT NUMBER(UNIT 5 ON THE UNIVAC 1110)
C NS TEMPORARY SOURCE NUMBER INDEX IN DO LOOP
C PSVAL SIGNIFICANCE VALUE
C PXCOF URBAN COEFFICIENT FOR DIST. TO POIWT MAX
C PXCOR RURAL COEFFICIENT FOR DIST. TO POINT MAX
C PXEXP URBAN EXPONENT FOR DIST. TO POINT MAX
C PXEXR RURAL EXPONENT FOR DIST. TO POINT MAX
C PXUCOF URBAN COEFICIENT FOR CHI-U/Q POINT MAX
C PXUCOR RURAL COEFFICIENT FOR CHI-U/Q POINT MAX
C PXUEXP URBAN EXPONENT FOR CHI-U/Q POINT MAX
C PXUEXR RURAL EXPONENT FOR CHI-U/Q POINT MAX
C RC TEMPORARY WEST BOUNDARY OF AREA SOURCE
C RCHECK TEMPORARY EAST BOUNDARY OF AREA SOURCE
C SC TEMPORARY SOUTH BOUNDARY OF AREA SOURCE
C SCHECK TEMPORARY NORTH BOUNDARY OF AREA SOURCE
C SF AREA SIDE LENGTH (METERS)
C SIGMAX TEMPORARY LOCATION OF MAXIMUM CONC.
C SIGNIF DUMMY VARIABLE FOR TEMPORARY STORAGE OF SIGNIFICANCE VALUES.
C TABLE ARRAY CONTAINING FREQUENCY DISRTIBUTIONS
C TITLE S02 OR PART FOR LEGENDS
C TS STACK TEMPERATURE(KELVIN)
C WA SIDE LENGTH(USER UNITS)
C
C
C ***GLOSSARY OF TERMS FOR JMHREC**»
C SUBROUTINE JMHREC DETERMINES LOCATIONS OF RECEPTORS DOWNWIND IN
C THE RESULTANT DIRECTION FOR THE PERIOD FROM SIGNIFICANT POINT
11
-------
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
AND AREA SOURCES.
FOR VARIABLES APPEARING IN THE PROGRAM BUT NOT LISTED
IN THIS GLOSSARY, SEE GLOSSARY FOR RAM.
A TEMPORARY COEFFICIENT
AB TEMPORARY DISTANCE(INTERNAL UNITS)
B TEMPORARY EXPONENT
C TEMPORARY COEEFICIENT
C1 EAST COORD. IN USER UNITS FOR PRINTOUT
C2 NORTH COORD. IN USER UNITS FOR PRINTOUT
CONM MAXIMUM ESTIMATED CONCENTRATION FROM A POINT SOURCE(G/M«*3)
D TEMPORARY EXPONENT
DTHDZ D THETA/ DZ, CHANGE OF TEMPERATURE WITH HEIGHT.
F BRIGGS BUOYANCY FLUX PARAMETER
H EFFECTIVE AREA SOURCE HEIGHT(METERS)
HC1 BREAK POINT HEIGHTS FOR HEIGHT CLASSES(METERS)
HF FINAL EFFECTIVE HEIGHT.
IH DO LOOP INDEX TO FIND HEIGHT CLASS
IP DO LOOP INDEX
IOPT(1) CONTROL OPTION, POINT SOURCE INPUT? 0 = NO, 1 = YES.
IOPT(2) CONTROL OPTION, AREA SOURCE INPUT? 0 = NO, 1 = YES.
IOPT(t) CONTROL OPTION, SIGNIFICANT POINT RECEPTORS? 0 = NO, 1 = YES.
IOPT(5) CONTROL OPTION, SIGNIFICANT AREA RECEPTORS? 0 = NO, 1 = YES.
IS HEIGHT CLASS INDEX
JCHAR AN 'A' TO INDICATE RECEPTOR GENERATED BY AREA SOURCE.
PL EXPONENT FOR INCREASE OF WIND SPEED WITH HEIGHT.
Q SOURCE EMISSION RATE(GXSEC)
RS EAST CO-ORDINATE OF SOURCE
S STABILITY PARAMETER
SS NORTH CO-ORDINATE OF SOURCE
TS STACK GAS TEMPERATURE(DEG-K)
UPL WIND DIRECTION AT STACK HEIGHT.
WA 0.5*SOURCE SIDE LENGTH IN INTERNAL UNITS.
X DISTANCE OF MAXIMUM CONCENTRATION(KILOMETERS)
""•GLOSSARY OF TERMS FOR JMHHON***
SUBROUTINE JMHHON DETERMINES LOCATIONS OF A HEXAGONAL OR HONEYCOMB
ARRAY OF RECEPTOR POINTS SPACED GRIDSP APART AND ADDS TO THE
RECEPTOR LIST THOSE NOT HAVING ANOTHER RECEPTOR WITHIN 0.5 GRIDSP
OF THEIR LOCATION.
FOR VARIABLES APPEARING IN THE PROGRAM BUT NOT LISTED
IN THIS GLOSSARY, SEE GLOSSARY FOR RAM.
DISQ SQUARE OF DISTANCE BETWEEN RECEPTOR AND HONEYCOMB POINT.
DLIM SQUARE OF HALF THE DISTANCE BETWEEN HONEYCOMB RECEPTORS.
DUM TEMPORARY STORAGE
DUM1 TEMPORARY STORAGE
DUM2 TEMPORARY STORAGE
HCOMBR EAST COORDINATE OF CANDIDATE HONEYCOMB RECEPTORS.
HCOMBS NORTH COORDINATE OF CANDIDATE HONEYCOMB RECEPTORS.
ICHAR AN ALPHABETIC 'H' TO INDICATE RECEPTOR GENERATED BY
HONEYCOMB ROUTINE.
M DO LOOP INDEX
N DO LOOP INDEX
NBEES NUMBER OF RECEPTORS GENERATED
NCOLS1 ESTIMATE OF THE NUMBER OF HONEYCOMB RECEPTORS IN ODD
NUMBERED ROWS.
NCOLS2 ESTIMATE OF THE NUMBER OF HONEYCOMB RECEPTORS IN EVEN
NUMBERED ROWS.
NROWS ESTIMATED NUMBER OF HONEYCOMB RECEPTOR ROWS.
NULIM TEMPORARY NUMBER OF RECEPTORS.
R TEMPORARY EAST COORD. OF RECEPTOR
12
-------
c
c
c
c
c
c
c
c
c
c
c
c
c
RH
S
SH
XCD1
XCD2
XING
YCD
YINC
« • <
C
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
TEMPORARY EAST COORD. OF CANDIDATE HONEYCOMB RECEPTOR.
TEMPORARY NORTH COORD. OF RECEPTOR.
TEMPORARY NORTH COORD. OF CANDIDATE HONEYCOMB RECEPTOR.
EAST COORDINATE OF HONEYCOMB RECEPTOR(ODD ROWS)
EAST COORDINATE OF HONEYCOMB RECEPTOR(EVEN ROWS)
EAST SPACING INCREMENT
NORTH COORDINATE OF HONEYCOMB GENERATED RECEPTOR.
NORTH SPACING INCREMENT
THE FOLLOWING ARE DUMMY VARIABLES USED IN JMHHON FOR TEMPORARY
STORAGE: DUM.DUM1, AND DUM2.
•GLOSSARY OF TERMS FOR J M H 5 4 U(R) » » *
JMH54U(R) CALCULATES TABLES OF CONCENTRATIONS FROM AREA SOURCES THAT
EXTEND UPWIND FROM A RECEPTOR TO VARIOUS DISTANCES. A TABLE IS
PRODUCED FOR EACH SOURCE HEIGHT (FROM ONE TO THREE).
FOR VARIABLES APPEARING IN THE PROGRAM BUT NOT LISTED
IN THIS GLOSSARY, SEE GLOSSARY FOR RAM.
CI INTEGRATED CHI » U/QA.
CL CHI » U/QA FOR LAST ITERATION.
CP CHI » U/QA AT THIS DISTANCE.
DELX DISTANCE INCREMENT (KILOMETERS).
H TEMPORARY STORAGE OF AREA SOURCE HEIGHT(METERS)
HARE ARRAY OF MODIFIED AREA HTS. FOR WHICH CONC. TABLES ARE GENERATED.
ID INDEX FOR CIN STORAGE.
IH INDEX FOR HEIGHT CLASS LOOP
JD CONTROL FOR SIZE OF DISTANCE INCREMENT.
JMHCZU SUBROUTINE TO CALCULATE CONCENTRATIONS FROM INFINITE LINE SOURCES
AT A DISTANCE,X,UPWIND FROM A RECEPTOR(JMHCZR FOR RURAL VERSIONS)
N INCREMENT FOR INITIAL STORAGE.
NC INCREMENT LIMIT FOR INITIAL STORAGE.
PL EXPONENT FOR INCREASE OF WIND SPEED WITH HEIGHT.
SZ SIGMA Z, STANDARD DEVIATION OF CONCENTRATION IN THE
VERTICAL DIRECTION(METERS)
TT TRAVEL TIME FROM SOURCE TO THIS RECEPTOR(KM-SEC/M)
UPL WIND SPEED AT AREA SOURCE HEIGHT(METERS/SECOND)
X DISTANCE UPWIND (KILOMETERS).
* * *
GLOSSARY OF TERMS FOR JMHCZU(R)
» * *
C JMHCZU(R) CALCULATES CONCENTRATIONS FROM INFINITE LINE SOURCES AT A
C DISTANCE, X, UPWIND FROM A RECEPTOR.
C FOR VARIABLES APPEARING IN THE PROGRAM BUT NOT LISTED
C IN THIS GLOSSARY, SEE GLOSSARY FOR RAM.
C AN THE NUMBER OF SUMMATIONS CALCULATED
C BRSZ SUBROUTINE CALLED TO OBTAIN SIGMA-Z(PGSZ IN RURAL VERSION)
C H AREA SOURCE HEIGHT(METERS)
C IWRI OUTPUT UNIT (6).
C • KST STABILITY CLASS FOR THIS HOUR.
C RCZ RELATIVE CONCENTRATION NORMALIZED FOR WIND SPEED FROM AN
C INFINITE LINE SOURCE.
C SZ SIGMA Z, STANDARD DEVIATION OF CONCENTRATION IN THE
C VERTICAL DIRECTION(METERS)
C THL TWICE THE MIXING HEIGHT
C X UPWIND DISTANCE FROM RECEPTOR TO SOURCE (KILOMETERS).
C THE FOLLOWING ARE ALL DUMMY VARIABLES USED IN JMHCZU(R) FOR
C TEMPORARY STORAGE: A1,A2,A3,A4,A5,A6,A?,C1 ,C2 ,C3,C4,C5,C6,C7,C8,
C C9,CA,CB,CC,CD,CE,CF,SUM,AND T.
13
-------
**GLOSSARY
0 F
TERMS FOR
3 R S. Z
* * #
C BRSZ DETERMINES URBAN SIGMA-Z FOR THE SOURCE-RECEPTOR DISTANCE, X.
C KST STABILITY CLASS FOR THIS HOUR.
C SZ SIGMA Z, STANDARD DEVIATION OF CONCENTRATION IN THE
C VERTICAL DIRECTION(METERS)
C X SOURCE-RECEPTOR DISTANCE IN METERS.
C XK SOURCE-RECEPTOR DISTANCE IN KM.
**GLOSSARY
0 F
TERMS FOR PGSZ***
PGSZ DETERMINES RURAL SIGMA-Z FOR THE SOURCE-RECEPTOR DISTANCE, X,
KST STABILITY CLASS FOR THIS HOUR.
SZ SIGMA Z, STANDARD DEVIATION OF CONCENTRATION IN THE
VERTICAL DIRECTION(METERS)
X SOURCE-RECEPTOR DISTANCE (KILOMETERS)
***GLOSSARY
0 F
TERMS
FOR JMHARE
* * »
JMHARE INTEGRATES ALONG THE LINE UPWIND FROM THE RECEPTOR IN ORDER
TO OBTAIN THE EFFECT OF ALL AREA SOURCES ALONG THIS LINE.
SUBROUTINE JMHARE DETERMINES THE CONCENTRATION FROM AREA SOURCES
ALL RECEPTORS FOR A GIVEN HOUR. THE 'NARROW PLUME HYPOTHESIS'
USED, I.E., AREA SOURCES DIRECTLY UPWIND ARE ASSUMED
REPRESENTATIVE OF AREA SOURCES AFFECTING THE RECEPTOR.
JMHARE CALLS SUBROUTINE JMHPOL FOR INTERPOLATION OF THE
INTEGRATED VALUE TABLES GENERATED BY SUBROUTINE JMH5^U(R)
FOR VARIABLES APPEARING IN THE PROGRAM BUT NOT LISTED
IN THIS GLOSSARY, SEE GLOSSARY FOR RAM.
SMALL EAST-WEST INCREMENT TO STEP INTO NEXT UPWIND AREA
SOURCE.
SMALL NORTH-SOUTH INCREMENT TO STEP INTO NEXT UPWIND AREA
SOURCE.
ARRAY CONTAINING MODIFIED BREAK POINT HEIGHTS
INTEGRATED CONCENTRATION FROM X = 0 TO DIST.
INTEGRATED CONCENTRATION FROM X = 0 TO XL.
HALF SIDE LENGTH(USER UNITS)
EAST INCREMENT, FUNCTION OF WIND QUADRANT.
NORTH INCREMENT, FUNCTION OF WIND QUADRANT.
INTEGRATED CONG. BETWEEN XL AND DIST.
DISTANCE IN INTERNAL UNITS FROM RRE.SRE TO BOUNDARY
DIST(INTERNAL UNITS) FROM RRE.SRE TO LOCUS.
DISTANCE TO CLOSEST LOCUS(INTERNAL UNITS)
TEMPORARY STORAGE OF A BREAKPOINT HEIGHT
AREA EFFECTIVE HEIGHT(METERS)
NUMBER OF LOCI FOUND.
HEIGHT CLASS
LAST HEIGHT CLASS USED.
CONTROL OPTION, SOURCE CONTRIBUTIONS TO DISK? 0- = NO, 1 = YES.
DUMMY VARIABLE FOR EAST-WEST INDEX.
DUMMY VARIABLE FOR NORTH-SOUTH INDEX.
SUBROUTINE TO INTERPOLATE CONC. FROM JMH5^U(R) GENERATED TABLES.
INDEX FOR RECEPTOR LOOP
SIGNIFICANCE RANK OR ZERO.
DUMMY DO INDEX TO LOCATE LOCI
SOURCE NUMBER (FROM IA ARRAY).
PHYSICAL AREA SOURCE HEIGHT(METERS)
EXPONENT FOR INCREASE OF WIND SPEED WITH HEIGHT.
PARTIAL CONC. AT KTH RECEPTOR FROM THIS(NS) AREA SOURCE.
AREA EMISSION RATE (G/SEC-M**2).
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
SUBR
AT
IS
REP
JMHA
IN
ADELR
ADELS
BPHM
CONC
TONCL
D
DELR
DELS
DIFF
DIST
DX
DXMIN
H
HA
ICNT
IH
IHL
IOPT(8)
IR
IS
JMHPOL
K
KSIG
L
NS
PHT
PL
PROD
QA
14
-------
EAST COORD OF LOCUS: THE RAY THETA AND SM.
R UPWIND BOUNDARY FOR THIS SOURCE.
EAST COORD OF SOURCE CENTER.
EAST COORD OF POINT JUST INSIDE NEXT AREA SOURCE
EAST COORD OF CLOSEST LOCUS
EAST COORDINATE OF BOUNDARY.
MINIMUM EAST COORDINATE OF AREA SOURCES
EAST DISTANCE FROM RRE.SRE TO BOUNDARY RM
EAST RECEPTOR COORDINATE
NORTH COORD OF LOCUS: THE RAY THETA AND RM
S UPWIND BOUNDARY FOR THIS SOURCE.
NORTH COORD OF SOURCE CENTER.
NORTH COORD OF POINT JUST INSIDE NEXT AREA SOURCE
NORTH COORD OF CLOSEST LOCUS
NORTH COORDINATE OF BOUNDARY.
MINIMUM NORTH COORDINATE OF AREA SOURCES
NORTH DISTANCE FROM RRE.SRE TO BOUNDARY SM.
NORTH RECEPTOR COORDINATE
TEMPORARY HEIGHT FOR WIND SPEED COMPUTATION.
WIND SPEED AT AREA SOURCE HEIGHT(METERS)
UPWIND DISTANCE FROM RRE.SRE TO RB
UPWIND DISTANCE FROM RRE.SRE TO SB
UPWIND DISTANCE(KM) TO LAST POINT WHERE INTEGRATION WAS
CALCULATED.
GLOSSARY OF TERMS FOR JMHPOL*»*
JMHPOL CALLED BY JMHARE INTERPOLATES THE TABLES GENERATED BY JMH5MU(R)
GIVEN UPWIND DISTANCE.
FOR VARIABLES APPEARING IN THE PROGRAM BUT NOT LISTED
IN THIS GLOSSARY, SEE GLOSSARY FOR RAM.
VALUE INTERPOLATED FROM TABLE.
DUMMY TO CALCULATE DISTANCE, XL.
HEIGHT INDEX, BETWEEN 1 AND 3-
INDEX TO OBTAIN CIN FOR DISTANCE LESS THAN X.
INDEX TO OBTAIN CIN FOR DISTANCE GREATER THAN X.
CURRENT RECEPTOR NUMBER
UPWIND DISTANCE(KM),
DISTANCE LESS THAN X.
DISTANCE GREATER THAN X.
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
c
R
RB
RC
RDUM
RLOC
RM
RMINI
RMR
RRE
S
SB
SC
SDUM
SLOC
SM
SMINI
SMS
SRE
THT
UPL
XD1
XD2
XL
« « »
JMHPOL
FOR A G
CONC
D
IH
J
K
KREC
X
XL
XU
C *»»GLOSSARY OF TERMS FOR JMHPT U(R) * * *
C JMHPTU(R) DETERMINES CONCENTRATIONS FROM ALL POINT SOURCES AT ALL
C RECEPTORS FOR A GIVEN HOUR.
C FOR VARIABLES APPEARING IN THE PROGRAM BUT NOT LISTED
C IN THIS GLOSSARY, SEE GLOSSARY FOR RAM.
C BUOY PARTIAL CALCULATION OF BRIGGS F
C D STACK TOP INSIDE DIAMETER
C DBTRCU SUBROUTINE THAT DETERMINES RELATIVE CONCENTRATION AT A RECEPTOR
C FROM A POINT SOURCE AT A GIVEN UPWIND AND CROSSWIND DISTANCE.
C (DBTRCR FOR RURAL VERSIONS)
C DELHF STABLE MOMENTUM PLUME RISE
C DELT STACK GAS TEMPERATURE MINUS AMBIENT AIR TEMPERATURE
C DHA UNSTABLE MOMENTUM PLUME RISE
C DISTF DISTANCE OF FINAL RISE(KILOMETERS)
C DTHTZ D THETA/DZ, CHANGE OF TEMP. WITH HEIGHT
C DTMB DELTA-T FOR BUOYANCY-MOMENTUM DELTA-H CROSSOVER
C DUM INTERMEDIATE STORAGE
C F BRIGGS BUOYANCY FLUX PARAMETER
15
-------
C FP ARRAY OF F'S FOR EACH SOURCE
C HF FINAL EFFECTIVE HEIGHT (METERS).
C HPR ARRAY OF H-PRIMES FOR EACH SOURCE.
C HPRM H-PRIME, CORRECTED STACK HEIGHT FOR STACK DOWNWASH
C HX PLUME HEIGHT FOR DISTANCE X
C IOPT(8) CONTROL OPTION, SOURCE CONTRIBUTIONS TO DISK? 0 = NO, 1 = YES.
C IOPT(13) CONTROL OPTION, READ HOURLY EMISSIONS? 0 = NO, 1 = YES.
C J POINT SOURCE INDEX.
C K RECEPTOR INDEX.
C KSIG SIGNIFICANT POINT SOURCE INDEX.
C PL EXPONENT FOR INCREASE OF WIND SPEED WITH HEIGHT.
C PROD CONCENTRATION CONTRIBUTION FROM JTH SOURCE TO KTH RECEPTOR
C RQ EAST COORDINATE OF SOURCE.
C S STABILITY PARAMETER
C SCALE VALUE TO SCALE EXIT VELOCITY ACCORDING TO EMISSIONS
C SQ NORTH COORDINATE OF SOURCE.
C SY SIGMA Y, STANDARD DEVIATION OF CONCENTRATION IN THE
C CROSSWIND DIRECTION(METERS)
C SZ SIGMA Z, STANDARD DEVIATION OF CONCENTRATION IN THE
C VERTICAL DIRECTION(METERS)
C THT TEMPORARY PHYSICAL STACK HEIGHT
C TS STACK GAS TEMPERATURE(K)
C TT TRAVEL TIME FROM SOURCE TO RECEPTOR(KM-SEC/M)
C UPH ARRAY OF WIND SPEEDS AT STACK TOP FOP EACH POINT SOURCE.
C UPL WIND SPEED AT STACK HEIGHT(METERS/SECOND)
C VS STACK GAS VELOCITY(METERS/SECOND)
C X UPWIND DISTANCE FROM RECEPTOR TO SOURCE (KILOMETERS).
C XDUM SOURCE EAST COORD. MINUS RECEPTOR EAST COORD.
C Y CROSSWIND DISTANCE FROM RECEPTOR TO SOURCE (KILOMETERS).
C YDUM SOURCE NORTH COORD. MINUS RECEPTOR NORTH COORD.
* * *
GLOSSARY OF TERMS FOR DBTRCU(R)***
C DBTRCU(R) DETERMINES RELATIVE CONCENTRATION AT A RECEPTOR FROM A POINT
C SOURCE AT A GIVEN UPWIND AND CROSSWIND DISTANCE.
C FOR VARIABLES APPEARING IN THE PROGRAM BUT NOT LISTED
C IN THIS GLOSSARY, SEE GLOSSARY FOR RAM.
C AN THE NUMBER OF SUMMATIONS CALCULATED.
C BRSYSZ CALLED TO OBTAIN SIGMA-Y AND SIGMA-Z(PGSYSZ IN RURAL VERSION)
C H EFFECTIVE POINT SOURCE HEIGHT(METERS)
C HL HEIGHT OF THE MIXING DEPTH(METERS)
C IWRI OUTPUT UNIT (UNIT 6 ON THE UNIVAC 1110).
C RC RELATIVE CONCENTRATION, CHI/Q.
C SY SIGMA Y, STANDARD DEVIATION OF CONCENTRATION IN THE
C CROSSWIND DIRECTION(METERS)
C SZ SIGMA Z, STANDARD DEVIATION OF CONCENTRATION IN THE
C VERTICAL DIRECTION(METERS)
C THL TWO TIMES THE MIXING HEIGHT
C U WIND SPEED FOR THIS HOUR(METERSXSECOND)
C X UPWIND DISTANCE FROM RECEPTOR TO SOURCE (KILOMETERS).
C Y CROSSWIND DISTANCE FROM RECEPTOR TO SOURCE(KILOMETERS).
C YD CROSSWIND DISTANCE IN METERS.
C Z RECEPTOR HEIGHT(METERS)
C THE FOLLOWING ARE ALL DUMMY VARIABLES USED IN DBTRCU(R) FOR
C TEMPORARY STORAGE: A1,A2,A3,A4,A5,A6,A7,C1,C2,C3,CH,C5,C6,C7,C8,
C C9,CA,CB,CC,CD,CE,CF,DUM,SUM,T,AND TEMP.
c ***r, LOSSARY OF TERMS FOR BRSYSZ***
C BRSYSZ DETERMINES URBAN SIGMA-Y AND SIGMA-Z FOR THE SOURCE-RECEPTOR
16
-------
c
c
c
c
c
c
c
c
DISTANCE, X.
KST STABILITY CLASS FOR THIS HOUR.
SY SIGMA Y, STANDARD DEVIATION OF CONCENTRATION IN THE
CROSSWIND DIRECTION(METERS)
SZ SIGMA Z, STANDARD DEVIATION OF CONCENTRATION IN THE
VERTICAL DIRECTION(METERS)
X SOURCE-RECEPTOR DISTANCE IN METERS.
XK SOURCE-RECEPTOR DISTANCE IN KILOMETERS.
***GLOSSARY OF TERMS
FOR
PGSYSZ***
C PGSYSZ DETERMINES RURAL SIGMA-Y AND SIGMA-Z FOR THE SOURCE-RECEPTOR
C DISTANCE, X.
C KST STABILITY CLASS FOR THIS HOUR.
C SY SIGMA Y, STANDARD DEVIATION OF CONCENTRATION IN THE
C CROSSWIND DIRECTION(METERS)
C SZ SIGMA Z, STANDARD DEVIATION OF CONCENTRATION IN THE
C VERTICAL DIRECTION(METERS)
C X SOURCE-RECEPTOR DISTANCE (KILOMETERS)
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
c
c
c
c
c
c
c
c
c
c
c
c
c
***GLOSSARY OF TERMS FOR JMHOUR***
SUBROUTINE JMHOUR WRITES OUTPUT FOR EACH HOUR.
FOR VARIABLES APPEARING IN THE PROGRAM BUT NOT LISTED
IN THIS GLOSSARY, SEE GLOSSARY FOR RAM.
C1 RECEPTOR EAST COORD.(USER UNITS)
C2 RECEPTOR NORTH COORD.(USER UNITS)
CMAX TEMPORARY STORAGE OF MAXIMUM CONCENTRATION.
GRANDS TOTAL CONCENTRATION FOR THIS RECEPTOR(G/M**3)
GRANDT TOTAL CONCENTRATION FOR THIS RECEPTOR, USED FOR RANKING
CONCENTRATIONS(G/M**3)
IOPT(1) CONTROL OPTION, POINT SOURCE INPUT? 0 = NO, 1 = YES.
IOPT(2) CONTROL OPTION, AREA SOURCE INPUT? 0 = NO, 1 = YES.
IOPT(9) CONTROL OPTION, HOURLY SUMMARIES ONLY? 0 = NO, 1 = YES.
IRANK CONCENTRATION RANK OF RECEPTOR.
K RECEPTOR INDEX.
LMAX RECEPTOR NUMBER OF TEMPORARY MAXIMUM.
* * *
GLOSSARY OF TERMS FOR JMHFIN
« » *
SUBROUTINE JMHFIN WRITES OUTPUT AVERAGED FOR NAVG.
FOR VARIABLES APPEARING IN THE PROGRAM BUT NOT LISTED
IN THIS GLOSSARY, SEE GLOSSARY FOR RAM.
AWU CONCENTRATION FOR THIS RECEPTOR FROM AREA SOURCE(MICRO-G/M**3)
BPHM ARRAY CONTAINING MODIFIED BREAK POINT HEIGHTS
C1 EAST COORD. OF RECEPTOR(USER UNITS)
C2 NORTH COORD. OF RECEPTOR(USER UNITS)
CMAX TEMPORARY STORAGE OF MAXIMUM CONCENTRATION.
GRANDS TOTAL CONCENTRATION FOR THIS RECEPTOR(G/M»*3)
GRANDT TOTAL CONCENTRATION FOR THIS RECEPTOR, USED FOR RANKING
CONCENTRATIONS(G/M«»3)
GWU TOTAL CONC. FOR THIS RECEPTOR(MICROGRAMS/M«*3)
HARE ARRAY OF MODIFIED AREA-HTS. FOR WHICH CONC. TABLES
IOPT(1) CONTROL OPTION, POINT SOURCE INPUT? 0 =
IOPT(2) CONTROL OPTION, AREA SOURCE INPUT? 0 =
IOPT(10) CONTROL OPTION, PUNCH CARDS FOR CONTOURS? 0 =
IPOLT ALPHA ARRAY: 'S02' OR 'PART1.
IPOLU ALPHA DESIGNATOR FOR. POLLUTANT USED: 'S02' OR 'PART'.
IRANK RANK OF CONCENTRATION FOR THIS RECEPTOR.
ARE GENERATED
NO, 1 = YES.
NO,
NO,
= YES..
= YES.-
17
-------
C LMAX RECEPTOR NUMBER OF TEMPORARY MAXIMUM.
C PWU CONCENTRATION FOR THIS RECEPTOR FROM POINT SOURCES(MICRO-G/M»»3)
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
•••GLOSSARY OF TERMS FOR JMHFD«««
SUBROUTINE JMHFD WRITES OUTPUT AVERAGED FOR NAVG
AND ACCUMULATES SUMS FOR ANNUAL AVERAGES, HIGHEST DAY AND HIGHEST
HOUR TABLES. FOR VARIABLES APPEARING IN THE PROGRAM BUT NOT LISTED
HERE SEE GLOSSARY FOR RAM.
ANNSUM AN ARRAY CONTAINING CUMULATIVE DAILY CONC. SUM AT EACH RECEPTOR
BPHM ARRAY CONTAINING MODIFIED BREAK POINT HEIGHTS
C1 EAST COORD. OF RECEPTOR(USER UNITS)
C2 NORTH COORD. OF RECEPTOR(USER UNITS)
CMAX TEMPORARY STORAGE OF MAX. CONCENTRATIONS
DMAX AN ARRAY CONTAINING THE 5 HIGHEST DAILY CONCENTRATIONS
AND THE DAY OF OCCURRENCE FOR EACH RECEPTOR
GRANDS TOTAL CONCENTRATION FOR THIS RECEPTOR(G/M«»3)
GRANDT TOTAL CONCENTRATION FOR THIS RECEPTOR, USED FOR RANKING
HARE ARRAY OF MODIFIED AREA HTS. FOR WHICH CONC. TABLES ARE GENERATED
HMAX AN ARRAY CONTAINING THE 5 HIGHEST HOURLY CONCENTRATIONS , DATE'
AND HOUR OF OCCURRENCE FOR EACH RECEPTOR
IJ DUMMY VARIABLE USED IN SUBSCRIPTING OF DMAX AND HMAX AKRAYS
IJP1 DUMMY VARIABLE USED IN SUBSCRIPTING OF DMAX AND HMAX
IPOLT ALPHA ARRAY: 'S021 OR 'PART'.
IPOLU ALPHA DESIGNATOR FOR POLLUTANT USED: 'S02' OR 'PART'.
IRANK RANK OF CONCENTRATION FOR THIS RECEPTOR.
LMAX MARKS THE RECEPTOR NO. OF THE HIGHEST CONC. IN THAT SEARCH
SUM NAMED COMMON AREA CONTAINING ANNSUM,HMAX AND DMAX
•••GLOSSARY OF TERMS
FOR
C U M F * * »
CUMF PRINTS AND PLOTS CUMULATIVE FREQUENCY DISTRIBUTIONS OF 21-HOUR
CONCENTRATIONS.
ALOG LIBRARY FUNCTION TO OBTAIN LOGS TO BASE 10.
AMIN CANDIDATE MINIMUM
CHI ARRAY OF CONCENTRATION PLOTTING POSITIONS.
CJI CONCENTRATION ARRAY (DAYS BY STATIONS)
CON LIST OF DAILY CONCENTRATIONS IN MICROGRAMS PER CUBIC
METER FOR ONE STATION.
CONC ARRAY OF CONCENTRATIONS FOR PLOTTING,
DAY1 DAY NUMBER ON MODEL OUTPUT DISK RECORDS
F LIST OF FREQUENCIES TO TEST FOR PLOTTING POINTS.
FA FREQUENCY POSITION FOR EACH DAY.
FQ ARRAY OF PROBABILITY PLOTTING POSITIONS.
FREQ FREQUENCIES CORRESPONDING TO EACH CONCENTRATION.
GRAPH SUBROUTINE TO DRAW THE BASE CHART FOR LOG-PROBABILITY PLOTS.
HD1.HD2 ALPHA CHARACTERS FOR PLOTTING.
HD3.HDY ALPHA CHARACTERS FOR PLOTTING
IMAX NUMBER OF STATIONS FOR WHICH CONCENTRATIONS WERE
TRANSMITTED ON DISK.
INT1 SYMBOL CODE, '4' = 'X'.
IRD READ INPUT UNIT (5)
IWRI WRITE OUTPUT UNIT (6)
JDAY JULIAN DAY NUMBER OF THIS DISK RECORD.
JDYR NO. OF DAYS IN TriE YEAR.
JM1 ONE LESS THAN THE NUMBER OF DAYS IN A YEAR.
KNTR COUNT OF PLOTTING POSITIONS.
NBEG FIRST LINE WITH ? ITEMS PER LINE.
ND LIST OF DAY NUMBERS.
18
-------
C NEND NUMBER OF LINES WITH 8 ITEMS PER LINE.
C NLOG THE NUMBER OF LOG CYCLES ON THE CONCENTRATION SCALE.
C NPLOT PLOT NUMBER
C PROB FUNCTION TO CONVERT FROM FREQUENCY TO PROBABILITY
PLOTTING POSITION.
C R EAST COORDINATE OF STATION.
C S NORTH COORDINATE OF STATION.
C SCALE CONVERSION FROM GIVEN UNITS TO MICROGRAMS PER CUBIC METER.
C STA STATION NUMBER.
C SUM CUMULATIVE SUM OF CONCENTRATIONS TO DETERMINE ANNUAL MEAN
C TEST HIGHEST CONCENTRATION VALUE THAT CAN BE PLOTTED.
C TITLE 80 CHARACTER TITLE.
C TLN1 TITLE, TRANSFERRED FROM RAMF (SAME AS LINED
C TLN2 TITLE, TRANSFERRED FROM RAMF (SAME AS LINE2)
C TLN3 TITLE, TRANSFERRED FROM RAMF (SAME AS LINES)
C XE EAST COORDINATES OF STATIONS
C XDIM THE HORIZONTAL DIMENSION OF THE PLOT IN INCHES.
C YBASE THE MINIMUM VALUE ON THE CONCENTRATION SCALE.
C YDIM THE VERTICAL DIMENSION OF THE PLOT IN INCHES.
C YN NORTH COORDINATES OF STATIONS
C THE FOLLOWING ARE DUMMY VARIABLES USED IN CUMF: A,ADUM,B,D,DENOM,1,J,K,
KBEG,L,LF,LN,M,N,N2,N3,N4,N5,N6,N7,N8,NA
C THE FOLLOWING ARE PLOTTER SUBROUTINES: GRAPH,LINE,NUMBER,PLOT,PLOTS,SYMBOL
19
-------
3-
RAMQ - INPUT FORMATS AND EXAMPLE RUNSTEAMS
RAMQDOC
C RAMQ PREPARES EMISSION INVENTORY INFORMATION FOR INPUT INTO RAM, CONSTRUCTS
C AN AREA MAP ARRAY, AND RANKS POINT AND AREA SOURCES ACCORDING TO EXPECTED
C IMPACT. OUTPUT FROM RAMQ IS REQUIRED AS INPUT TO ALL THE RAM VERSIONS.
**»»* CARD INPUT TO RAMQ ****»
CARD 1 (13A6.A2) ITITLE 80 CHARACTER TITLE
EXAMPLE:
RUN OF RAMQ, ED KRENSHAW, REGION XV, EPA, TEST CITY DATA (1 JAN 78)
CARD 2 (FREE FORMAT) NDIMP,NDIMA,IPOL,MOD
NDIMP ESTIMATED NUMBER OF POINT SOURCES. NDIMP MUST BE SET TO ZERO IF RUN IS
JUST FOR AREA SOURCES(NO POINT SOURCES).
NDIMA ESTIMATED NUMBER OF AREA SOURCES. NDIMA MUST BE SET TO ZERO IF RUN IS
JUST FOR POINT SOURCES(NO AREA SOURCES).
IPOL POLLUTANT INDICATOR: USE 3 FOR S02 OR 4 FOR SUSPENDED PARTICULATE
MOD DISPERSION PARAMETER INDICATOR: USE 1 FOR RURAL, 2 FOR URBAN
EXAMPLE:
12, 15, 3, 2
CARD 3 (FREE FORMAT) UNITS,CONONE
UNITS NUMBER OF USER UNITS PER SMALLEST AREA SOURCE SQUARE SIDE LENGTH.
CONONE MULTIPLIER CONSTANT TO CONVERT LENGTH IN USER UNITS TO KILOMETERS.
EXAMPLE:
2.0, 1.609344
CARD TYPE 4 (2A6,8F8.2) (PNAME(I,NPT),1=1,2),(SOURCE(I,NPT),1=1,8)
ONE CARD FOR EACH POINT SOURCE
(PNAME(I,NPT),1=1,2) UP TO 12 ALPHANUMERIC CHARACTERS FOR SOURCE IDENTIFICATION
SOURCE(I.NPT) EAST COORDINATE OF POINT SOURCE (USER UNITS)
" NORTH COORDINATE OF POINT SOURCE (USER UNITS)
SULFUR DIOXIDE EMISSION RATE (G/SEC)
PARTICULATE EMISSION RATE (G/SEC)
PHYSICAL STACK HEIGHT (METERS)
STACK GAS TEMPERATURE (DEGREES KELVIN)
STACK INSIDE TOP DIAMETER (METERS)
STACK GAS EXIT VELOCITY (METERS/SEC)
SOURCE(2,NPT)
SOURCE(3,NPT)
SOURCE(4,NPT)
SOURCE(5,NPT)
SOURCE(6,NPT)
SOURCE(7,NPT)
SOURCE(8,NPT)
NOTE: IF NDIMP=0 NO POINT CARDS ARE READ.
EXAMPLE:
PLANT 1
579.50 4406.75 232.365 13-335 82.9
513.1 3.5
13.7
CONTROL CARD TO SIGNAL END OF POINT SOURCE CARDS.
HAS 'END POINTS' IN CARD COLUMNS 1 TO 10.
EXAMPLE:
END POINTS
CARD TYPE 5 ( FREE FORMAT)
20
-------
ONE CARD FOR EACH AREA SOURCE
ASORC(1,NAS) EAST COORD. OF SW CORNER OF AREA SOURCE (USER UNITS)
ASORC(2,NAS) NORTH COORD OF SW CORNER OF AREA SOURCE (USER UNITS)
SIDE LENGTH OF AREA SOURCE (USER UNITS)
SULFUR DIOXIDE EMISSION RATE FOR ENTIRE AREA (G/SEC)
PARTICULATE EMISSION RATE FOR ENTIRE AREA (G/SEC)
AREA SOURCE HEIGHT (METERS)
(NOTE THAT ASORC(5,NAS) - SIDE LENGTH IS READ OUT OF ORDER TO CONFORM WITH THE
EXISTING ORDER OF IPP EMISSIONS DATA. IF NDIMA =0 NO AREA CARDS ARE READ.)
EXAMPLE:
570., 4400., 4., 1.25, 0.0, 10.
ASORC(5,NAS)
ASORC(3,NAS)
ASORC(4,NAS)
ASORC(6,NAS)
»»»««DISK OUTPUT FROM RAMQ*****
THE OUTPUT EMISSIONS DATA IS WRITTEN IN UNFORMATTED FORTRAN
RECORDS TO UNIT 9 AND IS REQUIRED INPUT TO ALL RAM VERSIONS.
*»*«»EXAMPLE RUN STREAM*****
0RUN.D/R JOBNAME/15,ACCNT-NO/USERID,PROJ-ID
0PASSWD PASSWORD
0ASG.CP RAMQOUT.
@USE 9,RAMQOUT
@XQT A999*UNAMAP.RAMQ
RUN OF RAMQ, ED KRENSHAW, REGION XV, EPA,
12, 15, 3, 2
2.0, 1.609344
PLANT 1 579.50
4402.25
4403.25
4400.89
4407.50
4401.35
4400.70
4412.00 299.5
4400.90 16.74
4398.00 226.2
,1,10
. OUTPUT FILE FROM RAMQ
. PROGRAM FILE
TEST CITY DATA (1 JAN 78)
PLAN1
PLAN!
PLAN!
PLAN!
PLAN1
PLAN1
PLAN1
PLAN!
PLAN!
PLAN!
PLAN!
END I
570.
574.
576.
578.
578.
574.
570.
574.
578.
580.
582.
580.
582.
580.
582.
' 2
' 3
1 4
1 5
1 6
1 7
1 8
1 9
1 10
r 11
n 12
'OINTS
4400.
4400.
4400.
4400.
4402.
4402.
4404.
4406.
4406.
4406.
4406.
4404.
4404.
4402.
4402.
575
571
571
579
567
564
577
576
580
583
574
4.
2.
2.
2.
2.
4.
4.
2.
2.
2.
2.
2.
2.
2.
2.
25
25
75
50
14
70
45
75
10
0
0
4406.75 232.365 13-335
4405.25 150,465 57.005
4407.00 19.005
81.060
26.145
2.56
36.43
33.64
38.8
82.9
76.2
3.255
:8.350
5.145
0.
0.
0.
0.
0.
0.
0.
25.9
40.8
18.3
26.5
48.8
26.5
6.
93.
18.1
93.6
513.1
464.3
477.6
499.8
533.2
505.
464.
428.
654.
405.
506.
483.
3-5
3-2
1.0
2.8
0.6
1.04
3-05
1.68
.79
4.88
1.37
4.88
13.7
12.5
15.8
17.6
14.7
3.81
18.6
5.02
24.89
12.59
4.23
12.59
1.25, 0.0, 10.
3.05, 0.0, 10.
6.25, 0.0, 12.
8.85, 0.0, 15.
3.15, 0.0, 10.
0.00, 0.0, 0.
4.25, 0.0, 15.
2.60, 0.0, 10.
3.10, 0.0, 12.
2.76, 0.0, 20.
.83, 0.0, 20.
1.66, 0.0, 20.
1.90, 0.0, 20.
.51, 0.0, 20.
1.48, 0.0, 20.
0**********************tt*****«*****«***********«*«**X*******«***»*«
C
C THE PRECEEDING RUN STREAM HAD A RUN TIME OF 5.11 SECONDS ON THE
C UNIVAC 1110 AND REQUIRED 15-K WORDS OF MEMORY(APPROXIMATELY 5,534 WORDS
C FOR INSTRUCTIONS AND 8,523 WORDS OF DATA)
21
-------
Z«-l 1*1 (VJ M Kl •» •»
3 «•»
•**
_J I UJ 1*1
< I- ooo- U lul w • •••••••••••
uj 3 I- Ol r-«—
< c/»
O < K
x we ••••••••••••
U f- M
OC K
-------
Z •">
< u
O UJ
•t -» Ki r»i -^
ooooo
I I I I I
ooooooooo
I I I I I I I I I
z
3
> r- to OOOOOOOOOOOOOOO
HI X OC ...............
KvCUl CD O OJ in O inOPJOOOOOO
u. X C
Xi-< OOOOOOOOOOOOOOO
UJ t- Z •••••.•••••••••
o ID 3 •*rwt\i(\j<\i«»'*rvi<\j<\icjrvjf\i<\irvj
to uj oc
_i UI
to
3
(/> «•»
X
o
H OOOOOOOOOOOOOOO
t- I/I f* OOOOOOOOOOOOOOO
Z Q: CO O OOOOOOOOOOOOOOO
O « H» Ul OOOOOOOOOOOOOOO
M O. r 00 « •
K Ul*« OOOOOOOOOOOOOOO
« IM
c «
u. to •* ooooo ooooocooo
Z Z M I I I I I I I I I I I I I I
at MW >*•••••••••••••
O ui
<
Ul OOOOOOOOOOOOOOO
ac x a ** ««•.«.....«.«. 4
QC O r- OOOOOOOOOOOOOOO
a
ae
au ooooooooooooooo
H-ocin •••*••••••••»••
Ul
w
ae
3 i
o
^ o
o o
o •
(I
X
O N- C/l
o
• o
>» o
JO t
(NJ W O
o
*"» CO QC l-l
< M at x.
1-1 < V)
k(^ (/)
K Ul O
^ »— K>iAO f^ MOO
<•-«-«- z at •
OC 3 3 (M
Q£ oru^o *o oo^
< «-«-»— -J irt rvi
O. O* O ^\ ^ U"v
<
s:
O -O -O K1 -»
Ul
u
z «
a: uj II
iU Ct X
X
Z K O
t-t O
O
(/> N.Nuj(Nj
« IH N
< ac »<
O V> II
X X K
23
-------
1-1 UI Z
ui > o
X MM
H- t- Or-OOOOOOOOOOOOOOOOOO
O < O O-JOOOOOOOOOOOOOOOOOOO
H «J < OfVJNOOOOOOOOOOOOaoOOO
aoe .••.<••.«....•••<...
DC V)
O X
O IS
O < w
< UJ «n
a: z
Z < O Oinin^OOOOOOOCjOaOOOOOO
O M OO>T«-OOOOOOOOOOOOOOOO
>1 -J Irt «««.«•••••••.«•«•«..
K < O
M O Z
C Cl. O OOOoOOOOOOf*1OOOOOr*-«aOO «-
_JW> .................... .
«t c/s QO rg LA «~ *O Orsjin f\j
r\iHM KI*XU"V uoro mKifM *o
O O C r- fy m r-
(/> H- UJ r-
U> I I I I I I I I I I I I I I I I I I I I
M
ut OOr--Of— o*"'O'r--Or-'Ot— -O«"">Or->O
X *-^»f\*r\jKiroooo^-
24
-------
s s
S o
«> ••» «>
r»»
UJ « «
u « >u
at • ^rOT-r->OM«-OOOO»> «J MKl«»-*sr>»i*^.*<»
a x >. T-in»roo«oc09-mr-hoo> oe oooooooooo
O < vt ••• ...... ••• 3 X <-. I I I I I I I I I I
V) KK W«-OOO-O>»-U-v>rr-M(Mr- O H>W rooo>r-in Uitu »«-«
M <_> o ui«j«: ••••••••••
O a oe«*.(M»-a-o-o>oooo-ou>in
a. u < a VD
use
M
-------
RflMQ PROGRAM LISTING
C*»»» PROGRAM R A n Q «»»«•»»»««« 78124 VERSION
C THIS IS THE EMISSIONS PREPROCESSOR USED IN CONJUNCTION WITH RAM.
C RAMQ IS RESPONSIBLE FOR MAKING THE NECESSARY DATA CONVERSIONS ON
C THE RAW EMISSIONS DATA IN ORDER TO ESTABLISH A STANDARD DATA BANK
C WHICH WILL BE ACCEPTABLE TO RAM.
C IN ORDER TO MAKE THE PREPROCESSOR FLEXIBLE ENOUGH TO ACCEPT
C SOURCE INPUT IN ANY COORDINATE SYSTEM AND YET COMPLY WITH THE
C PROGRAM RESTRICTIONS, ALL COORDINATES ARE CONVERTED TO AN
C INTERNAL GRID SYSTEM WHICH DEPENDS ON A USER SPECIFIED GRID
C SQUARE SIZE. MOST CALCULATIONS ARE PERFORMED USING THIS
C INTERNAL COORDINATE SYSTEM . A CONVERSION FACTOR FROM USER
C UNITS TO KILOMETERS IS APPLIED WHEN NECESSARY.
C RAMQ USES 2 SUBROUTINES:
C BLOCK -BLOCK DATA FOR URBAN SIGMAS
C BLOCKR -BLOCK DATA FOR RURAL SIGMAS
COMMON /COEFFU/ PXCOF(6,9),PXEXP(6,9),PXUCOF(6,9),PXUEXP(6,9),AXCO
1F(6,9),AXEXP(6,9),HC1(10)
COMMON /COEFFR/ PXCOR(6,9),PXEXR(6,9),PXUCOR(6,9),PXUEXR(6,9),AXCO
1R(6,9),AXEXR(6,9)
DIMENSION IA(25,25), SOURCE(9,250), ASORC(6,100), TITLE(2), MPS(25
1), MAS(10), TABLE(4,21), SIGNIF(250), ASVAL(IOO), PSVAL(250), ITIT
2LE(14), HFIN(250), PNAME(2,250), MODEL(2)
DATA MAXP /250/ ,MAXA /100/ ,IRDIM /25/ ,ISDIM /25/
C***MAXP EQUALS SECOND DIMENSION OF SOURCE.
C***MAXA EQUALS SECOND DIMENSION OF ASORC.
C***IRDIM AND ISDIM EQUAL THE TWO DIMENSIONS OF IA.
DATA TITLE /'S02 '.'PART'/ ,IRSIZE,ISSIZE /1,1/
DATA MODEL /'RURAL '.'URBAN '/
C**»
c**»
C**»
C***SOURCE(9, PT SOURCES)
C**«
c*»*
c*»*
c**»
C***
c**»
c*»*
C***
C***PNAME - 12 CHARACTER PLANT IDENTIFICATION
C*** AREA SOURCE INFORMATION
C***ASOFiC(6, AREA SOURCES) 1=EAST CO-ORD(USER UNITS)
C*** 2=NORTH CO-ORD(USER UNITS)
C**» 3 = S02 EMISSION RATE(G/SEC)
C**» 4=PART EMISSION RATE(G/SEC)
C**» 5=SIDE LENGTtKUSER UNITS)
C*** 6=AREA SOURCE HEIGHT(M)
C***INITIALIZATIONS
C«**THE UNIVAC 1110 AUTOMATICALLY ZEROS ALL VARIABLES. IF THE USER'S
C***COMPUTER SYSTEM DOES NOT ASSUME ALL VARIABLES ARE INITIALLY ZERO,
C***THE FOLLOWING VARIABLES MUST BE ZEROED: IA.SOURCE,ASORC,MPS,MAS,RMAX
C**»,SMAX,NPT,NAS, AND TABLE.
POINT SOURCE INFORMATION
1=EAST CO-ORD(USER UNITS)
2=NORTH CO-ORD(USER UNITS)
3=S02 EMISSION RATE(G/SEC)
4=PART EMISSION RATE(G/SEC)
5=STACK HEIGHT(M)
6=STACK TEMP(K)
7=STACK DIAM(M)
8=STACK VELOCITYCM/S)
9=PARTIAL BUOYANCY CALCULATION
RMQ0010
RMQ0020
RMQ0030
RMQ0040
RMQ0050
RMQ00150
RMQ0070
RMQ0080
RMQ0090
RMQOTOO
RMQO 11,0
RMQ0120
RMQO130
RMQO140
RMQ0150
RMQO160
RMQO*170
RMQ0880
RMQ0190
RMQ0200
RMQ0210
RMQ0220
RMQ0230
RMQ0240
RMQ0250
RMQ0260
RMQ0270
RMQ0280
RMQ0290
RMQ0300
RMQ0310
RMQ0320
RMQ0330
RMQ0340
RMQ0350
RMQ0360
RMQ0370
RMQ0380
RMQ0390
RMQ0400
RMQ0410
RMQ0420
RMQ0430
RMQ0440
RMQ0450
RMQ0460
RMQ0470
RMQ0480
RMQ0490
RMQ0500
RMQ0510
RMQ0520
RMQ0530
26
-------
RMIN=99999. RMQ0540
SMIN=99999. RMQ0550
IN=5 RMQ0560
10=6 RMQ0570
NSIGP=25 RMQ0580
NSIGA=10 RMQ0590
NIN=5 RMQ0600
NID=9 RMQ0610
C«**READ RUN IDENTIFICATION - TITLE CARD RMQ0620
READ (IN,180) ITITLE RMQ0630
C***READ IN THE MAXIMUM NUMBER OF POINT SOURCES AND AREA SOURCES RMQ0640
C***EXPECTED . ALSO SIGNIFY POLLUTANT TO BE MODELED, 3=S02 4=PARTICULATE RMQ0650
C*«*AND TYPE OF AREA TO BE MODELED,RURAL OR URBAN. RMQ0660
C*»* MOD=1 FOR RURAL SIGMAS, MOD=2 FOR URBAN SIGMAS. RMQ0670
READ (IN,490) NDIMP,NDIMA,IPOL,MOD RMQ0680
C***NDIMP AND NDIMA CAN NOT EXCEED DIMENSIONS OF POINT AND AREA SOURCE RMQ0690
C***INFORMATION RESPECTIVELY. RMQ0700
WRITE (10,510) ITITLE RMQ0710
WRITE (10,450) MODEL(MOD) RMQ0720
WRITE(IO,710) NDIMP,NDIMA RMQ0730
C«**INPUT GRID SQUARE SIZE, NUMBER OF USER UNITS EQUAL TO SIDE LENGTH OF RMQ0740
C***SMALLEST AREA SOURCE SQUARE, AND APPROPRIATE CONVERSION FACTOR. RMQ0750
C***CONVERSION IS ALWAYS FROM SPECIFIED USER UNITS TO KILOMETERS*** RMQ0760
C***EXAMPLE CONVERSION FACTORS: RMQ0770
c««» FEET T0 KM 3.048E-04 RMQ0780
C*»* MILES TO KM 1 .609344E+00 RMQ0790
C*»* METERS TO KM 1.0E-03 RMQ0800
C*»* RMQ0810
READ (IN,490) UNITS,CONONE RMQ0820
C***DETERMINE CONVERSION FROM INTERNAL UNITS TO KILOMETERS. RMQ0830
CONTWO=CONONE*UNITS RMQ0840
IP=IPOL-2 HMQ0850
WRITE(IO,720) UNITS,CONONE,CONTWO,TITLE(IP),IPOL RMQ0860
C***READ POINT SOURCES*** RMQ0870
C***IF NOT EXPECTING POINT SOURCES, SKIP. RMQ0880
IF (NDIMP.EQ.O) GO TO 170 RMQ0890
10 NPT=NPT+1 RMQ0900
IF (NPT.GT.MAXP+1) GO TO 120 RMQ0910
READ (NIN,470) (PNAME(I,NPT),1=1,2),(SOURCE(I,NPT),1=1,8) RMQ0920
C*»*CARD WITH 'END POINTS' IN COL 1-10 IS USED TO SIGNIFY END OF POINT RMQ0930
C***SOURCES. RMQ0940
IF (PNAMEd,NPT).EQ.'END PO') GO TO 130 RMQ0950
C***SOURCE CO-ORDINATES ARE TRANSFORMED INTO INTERNAL UNITS. RMQ0960
SOURCEd,NPT)=SOURCE(1,NPT)/UNITS RMQ0970
SOURCE(2,NPT)rSOURCE(2,NPT)/UNITS RMQ0980
C***CALCULATE BUOYANCY FACTOR RMQ0990
D=SOURCE(7,NPT) RMQ1000
SOURCE(9,NPT)=2.45153*SOURCE(8,NPT)*D*D RMQ1010
C***2.45153 IS GRAVITY OVER FOUR. RMQ1020
C***STORE POINT EMISSIONS ACCORDING TO HEIGHT CLASS RMQ1030
DO 20 1=1,20 RMQ1040
HC=I*5. RMQ1050
IF (SOURCE(5,NPT).LE.HC) GO TO 30 RMQ1060
20 CONTINUE RMQ1070
C***POINT SOURCES WITH PHYSICAL HEIGHTS GT 100 METERS ARE LISTED RMQ1080
C***SEPARATELY. RMQ1090
WRITE (10,500) NPT,SOURCE(5,NPT),SOURCE(IPOL , NPT) RMQ1100
GO TO 40 RMQ1110
C***ADD EMISSION RATE INTO TABLE AND TOTAL. RMQ1120
30 TABLE(1,I)=TABLE(1, I) + SOURCE(IPOL,NPT) RMQ1130
40 TABLEd,21)=TABLE(1,21)+SOURCE(IPOL,NPT) RMQ1140
C***DETERMINE SIGNIFICANT POINT SOURCES RM01150
27
-------
C***SIGNIFICANCE IS DETERMINED BY SELECTING A SPECIFIED NUMBER RMQ1160
C***OF POINT SOURCES (N < OR - 25) CONTRIBUTING TO THE HIGHEST RMQ1170
C***PREDICTED MAXIMUM CONCENTRATIONS. MAX CONCENTRATION IS RMQ1180
C***PREDICTED BY CHI(MAX) - (A*H**B)*Q/U WHERE A AND B ARE THE RMQ1190
C***COEFFICIENT AND EXPONENT,RESPECT IVELY, OF A MAXIMUM CHI*U/Q RMQ1200
C***VALUE PRECALCULATED FOR B STABILITY AND A SPECIFIC EFFECTIVE RMQ1210
C***HEIGHT CLASS. THE FINAL PLUME RISE OF THE SOURCE IS CALCULATED RMQ1220
C*** WITH B STABILITY AND A 3 M/SEC WIND SPEED. RMQ1230
C*** Q IS THE SOURCE STRENGTH IN G/SEC. U IS THE WIND RMQ1240
C***SPEED SET TO 3 M/SEC. RMQ1250
U-3.0 RMQ1260
TEMP-293. RMQ1270
TS-SOURCE(6,NPT) RMQ1280
I.F (TS.GT.TEMP) GO TO 50 RMQ1290
HF-SOURCE(5,NPT) R"Q1300
GO TO 70 RMQ1310
50 F-SOURCE(9,NPT)*(TS-TEMP)/TS RMQ1320
IF (F.GE.55) GO TO 60 RMQ1330
HF-SOURCE(5,NPT)+21.425*F**0.75/U RMQ1340
GO TO 70 RMQ1350
60 HF-SOURCE(5,NPT)+38.71*F**0.6/U RMQ1360
70 HFIN(NPT)»HF RMQ1370
C***DETERMINE HEIGHT INDEX. RMQ1380
DO 80 IH-2,9 RMQ1390
IF (HF.LT. (HCl(IH)-.OD) GO TO 90 RMQ1400
80 CONTINUE RMQ1410
IH-10 RMQ1420
90 IS-IH-1 RMQ1430
IF (MOD.EQ.l) GO TO 100 RMQ1440
A-PXUCOF(2,IS) RMQ1450
B-PXUEXP(2,IS) RMQ1460
GO TO 110 RMQ1470
100 A-PXUCOR(2,IS) RMQ1480
B-PXUEXR(2,IS) RMQ1490
110 SIGNIF(NPT)-(A*HF**B)*SOURCE(IPOL,NPT)/U RMQ1500
C***GO BACK AND READ DATA FOR ANOTHER POINT SOURCE. RMQ1510
GO TO 10 RMQ1520
120 WRITE (10,430) MAXP RMQ1530
CALL EXIT RMQ1540
130 NPT-NPT-1 RMQ1550
WRITE (10,520) RMQ1560
C***LIST POINT SOURCE INFORMATION. RMQ1570
DO 140 I-l.NPT RMQ1580
Cl-SOURCEd ,1) *UNITS RMQ1590
C2-SOURCE(2,I)*UNITS RMQ1600
140 WRITE (10,530) I, (PNAME(J , I),J-l,2),Cl,C2,(SOURCE(K,I),K-3,8),SIGN RMQ1610
1IF(I),HFIN(I) RMQ1620
C***RANK 25 HIGHEST POINT SOURCES*** RMQ1630
IF (NPT.LT.NSIGP) NSIGP-NPT RMQ1640
DO 160 I-l.NSIGP RMQ1650
SIGMAX—1.0 RMQ1660
DO 150 J-l.NPT RMQ1670
IF (SIGNIF(J).LE.SIGMAX) GO TO 150 RMQ1680
SIGMAX-SIGNIF(J) RMQ1690
LMAX-J RMQ1700
150 CONTINUE RMQ1710
MPS(I)-LMAX RMQ1720
PSVAL(I)-SIGMAX RMQ1730
160 SIGNIF(LMAX)—1.0 RMQ1740
C***READ AREA SOURCES*** RMQ1750
C***IF NOT EXPECTING AREA SOURCES, SKIP. RMQ1760
170 IF (HDIMA.EQ.O) GO TO 340 RMQ1770
-------
NAS=NAS+t RMQ1780
IF (NAS.GT.MAXA+1) GO TO 210 RMQ1790
READ (NIN,490,END=220) ASORC( 1 ,NAS),ASORC(2,NAS),ASORC(5,NAS),ASOR RMQ1800
1C(3,NAS),ASORC(4,NAS),ASORC(6,NAS) RMQ1810
C»»»CO-ORDINATES ARE TRANSLATED TO INTERNAL UNITS. RMQ1820
ASORC(1,NAS)=ASORC(*,NAS)/UNITS RMQ1830
ASORC(2,NAS)=ASORC(2,NAS)/UNITS RMQ1840
C»«»STORE AREA EMISSIONS ACCORDING TO HEIGHT CLASS RMQ1850
DO 180 1=1,20 RMQ1860
HC=I*5. RMQ1870
IF (ASORC(6,NAS).LE.HC) GO TO 190 RMQ1880-
180 CONTINUE RMQ1890"
C**»AREA SOURCES WITH HEIGHTS GT 100 METERS ARE LISTED SEPARATELY. RMQ1900
WRITE (10,540) NAS,ASORC(6,NAS),ASORC(IPOL,NAS) RMQ1910
GO TO 200 RMQ1920
C»««ADD EMISSION RATE INTO TABLE AND TOTAL. RMQ1930
190 TABLE(3,I)=TABLE(3,I)+ASORC(IPOL,NAS)' RMQ1940
200 TABLE(3,21)=TABLE(3,21)-t-ASORC(IPOL,NAS) RMQ1950
C*»*CALCULATE SIDE LENGTH IN UNITS RMQ1960
ASORC(5,NAS)=ASORC(5,NAS)/UNITS RMQ1970
WA=ASORC(5,NAS) RMQ1980
C***CONVERTS SIDE LENGTH IN INTERNAL UNITS TO METERS AND ADJUST EMISSION RMQ19?0
C*»*RATE RMQ200D
SF=WA*1000.»CONTWO RMQ20fD
C***DETERMINE EMISSION RATE IN G/SEC-M*»2. RMQ2020
ASORC(3,NAS)=ASORC(3,NAS)/(SF»SF) RMQ2030
ASORC(4,NAS)=ASORC(4,NAS)/(SF*SF) RMQ2040
C***FOR AREA SOURCES SIGNIFICANCE IS DETERMINED BY SELECTING -A RMQ2050
C*»*SPECIFIED NUMBER OF AREA SOURCES (N < OR = 10) WHICH HAVE RMQ2060
C***THE HIGHEST EMISSION RATE TIMES THE SIDE LENGTH OF THE AREA RMQ2070
C***SOURCE. RMQ2080
SIGNIF(NAS)=SF*ASORC(IPOL,NAS) RMQ2090
C***READJUST AREA SOURCE REGION BOUNDARIES AS REQUIRED(INTERNAL UNITS). RMQ2100
RC=ASORC(1,NAS) RMQ2110
SC=ASORC(2,NAS) RMQ2120
IF (RC.LT.RMIN) RMIN=RC RMQ2130
IF (SC.LT.SMIN) SMIN=SC RMQ2140
RCHEK=RC+WA RMQ2150
SCHEK = SC-t-WA RMQ2160
IF (RCHEK.GT.RMAX) RMAX=RCHEK RMQ2170
IF (SCHEK.GT.SMAX) SMAX=SCHEK RMQ2180
C***GO BACK AND READ DATA FOR ANOTHER AREA SOURCE. RMQ2190
GO TO 170 RMQ2200
210 WRITE (10,440) MAXA RMQ2210
CALL EXIT RMQ2220
220 NAS=NAS-1 RMQ2230
C***LIST AREA SOURCE INFORMATION. RMQ2240
WRITE (10,550) RMQ2250
DO 230 1=1,NAS RMQ2260
C1=ASORC(1,I)*UNITS RMQ2270
C2=ASORC(2,I)*UNITS RMQ2280
C3=ASORC(5,I)*UNITS RMQ2290
WRITE (10,560) I.C1,C2,(ASORC(K,I),K=3,4),C3,ASORC(6,I),SIGNIF(I) RMQ2300
230 CONTINUE RMQ2310
C***DETERMINE SIZE OF AREA ARRAY RMQ2320
RDUM=RMAX-RMIN+.0005 RMQ2330
IRSIZE=RDUM RMQ2340
IF(RDUM-FLOAT(IRSIZE).GT.0.001) GO TO ?30 RMQ2350
SDUM = SMAX-SMIN-f .0005 RMQ2360
ISSIZE=SDUM RMQ2370
IF(SDUM-FLOATdSSIZE) .GT.0.001) GO TO 740 RMQ2380
C***CHECK SIZE OF AREA SOURCE REGION WITH DIMENSIONS OF IA ARRAY. RMQ2390
29
-------
IF (IRSIZE.GT.IRDIM) GO TO 240 RMQ2400
IF (ISSIZE.LE.ISDIM) GO TO 250 RMQ2410
240 WRITE (10,570) IRSIZE,ISSIZE RMQ2420
CALL EXIT RMQ243Q
C**ttZERO IA ARRAY(AREA SOURCE MAP ARRAY) RMQ2440
250 DO 260 1=1,IRSIZE RMQ2450
DO 260 J=1, ISSIZE RMQ2460
260 IA(I,J)=0 RMQ2470
C***LOOP THROUGH ALL AREA SOURCES AND STORE SOURCE NO'S IN IA. RMQ2480
C***THERE CAN BE NO OVERLAPPING OF AREA SOURCES. LOCATIONS ARE RMQ2490
C***DEFINED BY THE INTERNAL GRID SYSTEM. RMQ2500
RMINI=RMIN-1. RMQ2510
SMINI=SMIN-1. RMQ2520
DO 280 NS=1,NAS RMQ2530
IR=ASORC(1 ,NS)-RMINI+.0005 RMQ2540
IS=ASORC(2,NS)-SMINI+.0005 RMQ2550
IWA=ASORC(5,NS)+.0005-1. RMQ2560
ISX=IS+IWA RMQ2570
IRX=IR+IWA RMQ2580
DO 270 I=IR,IRX RMQ2590
DO 270 J=IS,ISX RMQ2600
C***CHECK TO SEE IF IA ALREADY HAS A SOURCE IN THE I,J TH POSITION RMQ2610
IF (IA(I,J).EQ.O) GO TO 270 RMQ2620
WRITE (10,590) IA(I,J),I,J,NS RMQ2&30
CALL EXIT RMQ2640
C***STORE SOURCE NO. IN APPROPRIATE POSITION RMQ2650
270 IA(I,J)=NS RMQ2660
280 CONTINUE RMQ2670
C***PRINT OUT AREA SOURCE MAP ARRAY(IA) IF NOT TOO LARGE TO FIT ACROSS RMQ2680
C***PAGE. RMQ2690
IF (IRSIZE.GT.41) GO TO 300 RMQ2700
WRITE(IO,700) RMQ2710
JLIM=ISSIZE+1 RMQ2720
DO 290 JDUM=1,ISSIZE RMQ2730
J=JLIM-JDUM RMQ2740
290 WRITE (10,610) J , (IA(I,J) , 1=1,IRSIZE) RMQ2750
WRITE (10,620) (1,1=1.IRSIZE) RMQ2760
GO TO 310 RMQ2770
300 WRITE (10,460) RMQ2780
C***PRINT OUT ORIGIN CO-ORDINATES RMQ2790
310 WRITE (10,580) RMINI.SMINI,IRSIZE,ISSIZE RMQ2800
WRITE (10,600) RMIN,RMAX,SMIN,SMAX RMQ2810
C**« RMQ2820
C***RANK HIGHEST 10 AREA SOURCES RMQ2830
IF (NSIGA.GT.NAS) NSIGA=NAS RMQ2840
DO 330 I=1,NSIGA RMQ2850
SIGMAX=-1.0 RMQ2860
DO 320 J=1,NAS RMQ2870
IF (SIGNIF(J).LE.SIGMAX) GO TO 320 RMQ2880
SIGMAX=SIGNIF(J) RMQ2890
LMAX=J RMQ2900
320 CONTINUE RMQ2910
MAS(I)=LMAX RMQ2920
ASVAL(I)=SIGMAX RMQ2930
330 SIGNIF(LMAX)=-1.0 RMQ29T4O
C**»OUTPUT SOURCE-STRENGTH-HEIGHT TABLE RMQ2950
C***THIS TABLE DISPLAYS THE TOTAL EMISSIONS FOR BOTH POINT AND RMQ2960
C**aAREA SOURCES AND THE CUMULATIVE FREQUENCY ACCORDING TO RMQ29JO
C**«HEIGHT CLASS. REQUIRED INPUT TO RAM, SUCH AS HEIGHT CLASS BOUNDARIES RMQ29SO
C*»*FOR AREA SOURCES AND REPRESENTATIVE HEIGHTS FOR EACH RMQ2990
C*»* HEIGHT CLASS, CAN BE DETERMINED FROM THESE TABLES. RMQ3000_
340 WRITE (10,630) TITLE(IP) RMQ30
-------
C»»»HEIGHT CLASS EMISSIONS ARE IN 1 AND 3.
C»«»DETERMINE CUMULATIVE PERCENT IN 2 AND 4.
IF (TABLE(1,21).EQ.O.O) TABLE( 1 ,21)=1 .0
IF (TABLE(3,21).EQ.O.O) TABLE(3,21)=-1 .0
350
IH2 = 5
TABLE(2,1)=TABLE(1,1)/TABLE(1,21)
TABLE(4,1)=TABLE(3,D/TABLE(3,21)
WRITE (10,640) IH1,IH2,(TABLE(J,l),J=1,n)
DO 350 1=2,20
IH2=I»5
IH1=IH2~4
TABLE(2,I)=TABLE(1,I)/TABLE(1,21)+TABLE(2,I-1)
TABLE(4,I)=TABLE(3,I)/TABLE(3,21)+TABLE(4,I-1)
WRITE (10,640) IH1,IH2,(TABLE(J,I) ,J=1,4)
CONTINUE
IF (NDIMP.EQ.O) TABLE(1 ,21)=0.0
IF (NDIMA.EQ.O) TABLE( 3 ,21 ) =0 .0
WRITE (10,650) TABLE(1,21) ,TABLE(3,21)
C***OUTPUT TABLES 'FOR SIGNIFICANT SOURCES
IF (NDIMP.EQ.O) GO TO 370
WRITE (10,660) TITLE(IP)
DO 360 1=1 ,NSIGP
WRITE (10,670) I,PSVAL(I
CONTINUE
IF (NDIMA.EQ.O) GO TO 390
WRITE (10,690) TITLE(IP)
DO 380 1=1 ,NSIGA
WRITE (10,680) I,ASVAL(I),MAS(I)
CONTINUE
360
370
,MPS(I)
380
C*»*CREATE OUTPUT FILES TO BE USED AS INPUT TO RAM.
C«»«OUTPUT POINT SOURCE INFORMATION TO DISK OR TAPE
390 WRITE (NID) UNITS,CONTWO,CONONE,IPOL.NPT,MPS,PNAME,MOD
DO 400 1=1,9
400 WRITE (NID) (SOURCE(I,J),J=1,NPT)
C»«»OUTPUT AREA SOURCE INFORMATION AND MAXIMA
WRITE (NID) NAS,MAS,RMIN,RMAX,SMIN,SMAX,IRSIZE,ISSIZE
DO 410 1=1 ,6
410 WRITE (NID) (ASORC(I,J),J=1,NAS)
DO 420 I=1,IRSIZE
420 WRITE (NID) (IA(I,J),J=1,ISSIZE)
CALL EXIT
730 WRITE(IO,735)
735 FORMATC AREA SOURCES, UNITS OR SIDE LENGTH SPECIFIED INCORRECTLY;
* ERROR ON EAST MAX BOUNDARY.')
STOP
740 WRITE(IO,745)
745 FORMATC AREA SOURCES, UNITS OR SIDE LENGTH SPECIFIED INCORRECTLY;
* ERROR ON NORTH MAX BOUNDARY.')
C
430 FORMAT C USER TRIED TO INPUT MORE THAN ',14,' POINT SOURCES. THIS
1 GOES BEYOND THE CURRENT PROGRAM DIMENSIONS.1)
440 FORMAT (' USER TRIED TO INPUT MORE THAN ',14,' AREA SOURCES.',' TH
1IS GOES BEYOND THE CURRENT PROGRAM DIMENSIONS.1)
450 FORMAT(10X,' RAMQ RUN USING ' ,A6 ,'COEFFICIENTS'/1X)
460 FORMAT (' AREA ARRAY IS TOO WIDE FOR PAGE SIZE, THEREFORE WILL NOT
1 BE PRINTED')
470 FORMAT (2A6.8F8.2)
480 FORMAT (13A6.A2)
490 FORMAT ()
500 FORMAT (1X,'HEIGHT ABOVE 100M FOR POINT SOURCE ',14,' HEIGHT=',F6
RMQ3020
RHQ3030
RMQ3040
RMQ3050
RMQ3060
RMQ3070
RMQ3080
RMQ3090
RMQ3100
RMQ31 >u
RMQ3120
RMQ3130
RMQ3140
RMQ3150
RMQ3160
RMQ3170
RMQ3180
RMQ3190
RMQ3200
RMQ3210
RMQ3220
RMQ3230
RMQ3240
RMQ3250
RMQ3260
RMQ3270
RMQ3280
RMQ3290
RMQ3300
RMQ331Q
RMQ3320
RMQ3330
RMQ3340
RMQ3350
RMQ3360
RMQ3370
RMQ3380
RMQ3390
RMQ3400
RMQ3410
RMQ3420
RMQ3430
RMQ3440
RMQ3450
RMQ3460
RMQ3470
RMQ3480
RMQ3490
RMQ3500
RMQ3510
RMQ3520
RMQ3530
RMQ3540
RMQ3550
RMQ3560
RMQ3570
RMQ3580
RMQ3590
RMQ3600
RMQ3610
RMQ3620
RMQ3630
31
-------
1.2, EMISSIONS-',F10.2) RMQ3640
510 FORMAT ('1'/1IX,13A6,A2//1X) RMQ3650
520 FORMAT ('0',TAO,'POINT SOURCE INFORMATION'//IX,T8,'SOURCE',T24,'EA RMQ3660
1ST',T32,'NORTH',T40,'S02(G/SEC) PART(G/SEC) STACK STACK STACK RMQ3670
2 STACK',7X,'SIGNIFICANCE',4X,'EFF'/IX,T24,'COORD',T32,'COORD',' RMQ3680
3 EMISSIONS EMISSIONS HT(M) TEMP(K) DIAM(M) VEL(M/SEC) (MIC RMQ3690
4ROG/M**3) HT(M)'/1X,T24,'(USER UNITS)'/1X) RMQ3700
530 FORMAT (1X.T3,13,IX,2A6,2X,2F9.2,FlO.2,Fl1.2,IX,4F8.1,6X,6PF11.2,0 RMQ3710
1PF10.2) RMQ3720
540 FORMAT (IX,'HEIGHT ABOVE 100M FOR AREA SOURCE ',14,' HEIGHT-',F6. RMQ3730
12,' EMISSIONS"',FlO.2) RMQ3740
550 FORMAT ('1'//1X,T20,'AREA SOURCE INFORMATION'//IX,T2,'SOURCE',T9,' RMQ3750
1EAST',T17,'NORTH',T29,'SO2',T40,'PART',T51,'SIDE',T59,'EFFECTIVE S RMQ3760
2IGNIFICANCE'/IX,T9,'COORD',T17,'COORD',T26,'EMISSIONS',T39,'EMI SSI RMQ3770
30NS',T50,'LENGTH',T61,'HEIGHT',T70,'(G/M/SEC)'/1X,T10,'(USER UNITS RMQ3780
4)',128,'(GRAMS/M**2/SEC) ',T47,'(USER UNITS) (METERS)'/IX) RMQ3790
560 FORMAT (IX,T2,13,2F9.1,IX,2(IX,1PE11.4),2X,OPF6.1,5X,F6.1,2X,1PE11 RMQ3800
1.4) RMQ3810
570 FORMAT (' DIMENSIONS TOO SMALL TO HOLD ARRAY ',13,' BY ',13) RMQ3820
580 FORMAT ('OTHE ORIGIN IN INTERNAL UNITS IS ( ' , F10.2,',',F10 . 2 , ' ) ' / 1 RMQ3830
IX,'THE SIZE OF THE AREA SOURCE ARRAY IS (',I 5,',',15 , ' ) ' ) RMQ3840
590 FORMAT (' SOURCE ',13,' IS ALREADY LOCATED AT POSITION (',13,',',! RMQ3850
13,') CHECK SOURCE ',13) RMQ3860
600 FORMAT (' RMIN-',F8 . 2 , ' RMAX-',F8 . 2 , ' SMIN-",F8.2,' SMAX-',F8.2, RMQ3870
1' (IN INTERNAL UNITS)'//1X) RMQ3880
610 FORMAT (IX,13,2X,4113/IX) RMQ3890
620 FORMAT (/6X,41I3/1X) RMQ3900
630 FORMAT ('1',4X,'TOTAL ',A4,' EMISSION AND CUMULATIVE FRACTION ACCO RMQ3910
1RDING TO HEIGHT'//1X,T12,'TOTAL POINT CUMULATIVE TOTAL AREA RMQ3920
2 CUMULATIVE'/IX,'HEIGHT(M) EMISSIONS(G/S) FRACTION EMISSI RMQ3930
30NS(G/S) FRACTION'/1X) RMQ3940
640 FORMAT (1X.T2.I2,' -',13,T11,F8.2,T26,F7.3,T41,F8.2,T56,F7.3) RMQ3950
650 FORMAT ('0',T2,'TOTAL',2X,FlO.2,T39,FlO.2/IX) RMQ3960
660 FORMAT ('1',T3,'SIGNIFICANT ',A4,' POINT SOURCES'//IX,T8,'RANK',T2 RMQ3970
12,'CHI-MAX',T33,'SOURCE NO.'/IX,T17,'(MI CROC RAMS/M**3)'/1X) RMQ3980
670 FORMAT (1X.19,I3.T18,6PF12.2,135,13) RMQ3990
680 FORMA1 (1X.19,13,118,1PE12.4,135,13) RMQ4000
690 FORMAT ('0'///1X,13,"SIGNIFICANT ',A4,' AREA SOURCES'//IX,T8,'RANK RMQ4010
1",120,"Q*LENGTH',T33,"SOURCE NO.'/IX,T19,'(G/M/SEC)'/IX) RMQ4020
700 FORMAT('1',5X,"AREA SOURCE MAP ARRAY (IA)'/1X) RMQ4030
710 FORMAK'O', 10X, "THIS RUN EXPECTS ',13,' POINT SOURCES AND ',13, RMQ4040
*' AREA SOURCES.'///) RMQ4050
720 FORMAT (IX,T21,'GENERAL INFORMATION FROM RAMQ, VERSION 78124'//2X, RMQ4060
X 'UNITS - THERE RMQ4061
1ARE',F14.7," USER UNITS(INPUT UNITS) PER SMALLEST AREA SOURCE SQUA RMQ4070
2RE SIDE LENGTH (INTERNAL UNIT)'/2X,'CONONE - THERE ARE',F14.7," KI RMQ4080
3LOMETERS PER USER UNIT'/2X,'CONTWO - IT IS CALCULATED THAT THERE A RMQ4090
4RE',F14.7," KILOMETERS PER SMALLEST AREA SOURCE SQUARE SIDE LENGTH RMQ4100
5 (INTERNAL UNIT)'/2X,"THIS RUN IS FOR ',A6,'SINCE IPOL-',12//IX) RMQ4110
C RMQ4120
END RMQ4130
BLOCK DATA
C***COEFFICIENTS GENERATED WITH URBAN SIGMAS USING BRSYSZ & BRSZ
BKQU010
BKQU020
C***DISTANCE OF MAX. CONC. FROM PT SOURCE-PXCOF(KST,IH)*H**PXEXP(KST,IH) BKQU030
C***RELA1IVE CONC. NORMALIZED FOR WIND SPEED FROM PI SOURCE, CHI*U/Q, - BKQU040
C*** PXUCOF(KS1,IH)*H**PXUEXP(KST,IH) BKQU050
C***DIS1ANCE OF MAX. CONC. FROM DOWNWIND EDGE OF AREA SOURCE - BKQU060
C*** AXCOF(KST,IU)*H**AXEXP(KST,IH) BKQU070
32
-------
C**» IH=1 FOR H LESS THAN 20 METERS.
C*** IH = 2 FOR H FROM 20 TO 30 METERS.
C*** IH=3 FOR H FROM 30 TO 50 METERS.
C*** IH = 4 FOR H FROM 50 TO 70 METERS.
C*** IH=5 FOR H FROM 70 TO 100 METERS.
C**» IH=6 FOR H FROM 100 TO 200 METERS.
C*** IH=7 FOR H FROM 200 TO 300 METERS.
C*** IH=8 FOR H FROM 300 TO 500 METERS.
C*** IH=9 FOR H GREATER THAN 500 METERS.
COMMON /COEFFU/ PXCOF( 6 , 9 ) , PXEXP( 6 ,9) ,
*AXCOF(6,9),AXEXP(6,9),HC1(10)
DATA PXCOF/ .29000E-02, .29000E-02
* .76841E-02, .76841E-02, .31586E-02
* .50285E-02, .65931E-02, .65931E-02
* .36114E-02, .45861E-02, .51435E-02
* .34513E-02, .34298E-02, .43860E-02
* .36196E-02, .36196E-02, .33575E-02
* .19672E-02, .41677E-02, .41677E-02
* .63291E-03, .63291E-03, .50465E-02
* .21446E-02, .19145E-03, .19145E-03
* .30537E-02, .12214E-02, .12483E-03
* .77521E-02, .29817E-02, .39130E-03
DATA PXEXP/ .10000E+01, .10000E+01
* .10829E+01, .10829E+01, .97149E+00
.10080E+01, .11340E+01, .11340E+01
.99634E+00, .10350E+01, .12070E+01
.94836E+00, .10095E+01, .10465E+01
.93716E+00, .93716E+00, .10145E+01
.14421E+01 , .90654E+00, .90654E+00
.16884E+01, .16884E+-01, .870U3E+00
.11920E+01, .igi'HE+OI, .19TME+01
.10327E+01, .12907E+01, .19890E+01
.79879E+00, .10365E-I-01, .H738E+01
DATA PXUCOF/ .16808E+00, .16808E+00
.18861E+00, .18861E+00, . 15945E+00
.20229E-I-00, .21253E+00, .21253E+00
.19871E+00, .20011E+00, .24888E+00
.13262E+00, .18908E-1-00, .19685E+00
.11745E+00, .11745E+00, .17767E+00
.34521E+00, .91943E-01, .91943E-01
.34368E+00, .3^368E+00, .65533E-01
.17MJ45E+00, .23640E+00, .23640E+00
.89821E-01, .16720E+00, .15537E-I-00
.29993E-01, .56100E-01, .16747E+00
DATA PXUEXP/ -.19722E+01, -.19722E+01
-.20649E+01, -.20649E+01, -.19546E+01
-.19940E+01, -.21047E+01, -.21047E+01
-.19736E+01, -.19908E+01, -.21512E+01
-.19045E+01, -.19609E+01, -.19867E+01
-.18759E+01, -.18759E+01, -.19462E+01
-.22320E+01, -.18228E+01, -.18228E+01
-.22310E+01, -.22310E+01, -. 17589E+01
-.19617E+01, -.21604E+01, -.2160UE+01
-.18172E+01, -.19543E+01, -.20868E+01
-.16284E+01, -.17MHE+01, -.195M5E+01
DATA AXCOF/ .44505E-02, .44505E-02
.10026E-01, .10026E-01, .145289E-02
.68258E-02, .76276E-0'2, .76276E-02
.50000E-02, .63099E-02, .51380E-02
.52938E-02, .50000E-02, .59067E-02
.57593E-02, .57593E-02, .50000E-02
.16889E-02, .68765E-02, .68765E-02
PXUCOF(6,9) ,PXUEXP(6,9),
, .33389E-02,
, .31586E-OZ,
, .31977E-02,
, .51435E-02,
, .33140E-02,
, .39506E-02,
, .32748E-02,
, .50465E-02,
, .60289E-02,
, .12483E-03,
, .11337E-03,
, .10205E+01,
, .97149E+00,
, .96787E+00,
, .12070E+01 ,
, .13194E+01,
, .10711E+01,
, .10200E+01,
, .87043E+00,
, .83924E+00,
, .19890E+01,
, .20045E+01,
, .20927E+00,
, .15945E-hOO,
, .14777E+00,
, .24888E+00,
, .30041E+00,
, .19301E+00,
, .15327E+00,
, .65533E-01,
, .47345E-01,
, .15537E+00,
, .11009E+00,
, -.19896E+01,
, -.195M6E+01,
, -.19322E+01,
, -.21512E+01,
, -.21993E+01,
, -.19820E+01,
, -.19142E+01,
, -.17589E+01,
, -.17019E+01,
, -.20868E+01,
, -.20314E+01,
, .50000E-02,
, .45289E-02,
, .47786E-02,
, .51380E-02,
, .29303E-02,
, .52626E-02,
, .50000E-02,
. 49374 E-02,
.34293E-02,
•31977E-02,
.34513E-02,
.33140E-02,
.19672E-02,
•32439E-02,
.31556E-02,
.60289E-02,
.77521E-02,
.11337E-03/
.10141E+01,
.10116E+01,
.96787E+00,
.94836E+00,
.1319tE+01 ,
.14421E+01,
.11139E+01,
.10270E+01,
.83924E+00,
.79879E+00,
.20045E-t-01/
.20378E-fOO,
.20527E+00,'
.14777E+00,
.13262E+00,
.30041E+00,
.34521E+00,
.18499E+00,
.11984E+00,
.47345E-01,
.29993E-01,
.11009E+00/
-.19965E+01,
-.19831E+01,
-.19322E+01,
-.19045E+01,
-.21993E+OT,
-.22320E+01,
-.19728E+01,
-.18677E+01,
-.17019E+OT,
-.16284E+01,
-.20314E+01/
.68776E-02,
.50000E-02,
.47786E-02,
.52938E-02,
.29303E-02,
.16889E-02,
.39429E-02,
BKQU080
BKQU090
BKQU100
BKQU110"
BKQU120
BKQU130
BKQU140
BKQU150
BKQU160
BKQU170
BKQU180
BKQU190
BKQU200
BKQU210
BKQU220
BKQU230
BKQU240
BKQU250
BKQU260
BKQU270
BKQU280
BKQU290
BKQU300
BKQU310
BKQU320
BKQU330
BKQU340
BKQU350
BKQU360
BKQU370
BKQU380
BKQU390
BKQU400
BKQU410
BKQU420
BKQU430
BKQU4.40
BKQU450
BKQU460
BKQU470
BKQU480
BKQU490
BKQU500
BKQU510
BKQU520
BKQU530
BKQU540
BKQU550
BKQU560
BKQU570
BKQU580
BKQU590
BKQU600
BKQU6J(3
BKQU620
BKQU630
BKQU640
BKQU650
BKQU660
BKQU670
BKQU68D
BKQU690
33
-------
.74769E-03,
.22800E-02,
.50000E-02,
.12206E-01,
DATA AXEXP/
.11356E+01,
.10224E+01,
.10000E+01,
.91659E+00,
.89676E+00,
.16163E+01,
.17932E+01,
.12557E+01,
. 10000E+01 ,
. 75807E+00,
DATA HC1/10.,20
END
.74769E-03,
.39161E-03,
.10882E-02,
.50000E-02,
.96437E+00,
.11356E+01,
.12269E+OI,
. 10455E+01 ,
.10000E+01,
.89676E+00,
.85826E+00,
.17932E+01,
.19153E+01,
. 13853E+01 ,
.10000E+01,
.,30. ,50. ,70.
.82988E-02
.39161E-03
.29900E-03
.28165E-03
.96437E+00
.95855E+00
. 12269E+01
. 13430E+01
.10624E+01
.10000E+01
.85826E+00
.82277E+00
.19153E+01
. 19626E-(-01
. 16028E+01
,100. ,200.
.82988E-02,
.99556E-02,
.29900E-03,
, .25538E-03,
, . 10000E+01,
, .95855E+00,
.94276E+00,
.13430E+01,
.14866E+01,
.10896E+01,
.10000E+01,
.82277E+00,
. 79086E+00,
.19626E+01,
.19880E+01,
, 300. ,500. , 1000.
.50000E-02,
.99556E-02,
.12206E-01,
.25538E-03/
.10199E+01,
.10000E+01,
.94276E+00,
.91659E+00,
.14866E+01,
.16163E+01,
.11523E+01,
.10000E+01,
.79086E+00,
.75807E+00,
.19880E+01/
/
BKQU700
BKQU710
BKQ0720
BKQU730
BKQU740
BKQU750
BKQU760
BKQU770
BKQU780
BKQU790
BKQU800
BKQU810
BKQU820
BKQU830
BKQU840
BKQU850
BKQU860
BLOCK DATA
C***COEFFICIENTS GENERATED WITH RURAL SIGMAS
C***DISTANCE OF MAX. CONC. FROM PT SOURCE=PX(
C***RELATIVE CONC. NORMALIZED FOR WIND SPEED
C*** PXUCOR(KST,IH)*H**PXUEXR(KST, IH)
C***DISTANCE OF MAX. CONC. FROM DOWNWIND EDGI
C***
C***
C***
C***
C***
C***
C***
C***
C***
C***
AXCOR(KST.IH)*H**AXEXR(KST,IH)
IH»1 FOR H LESS THAN 20 METERS.
IH-2
IH-3
IH-4
IH-5
IH-6
IH = 7
IH
FOR H
FOR H
FOR H
FOR H
FOR H
FOR H
FOR H
FOR H
FROM
FROM
FROM
FROM
FROM
FROM
FROM
20 TO 30 METERS.
30 TO 50 METERS.
50 TO 70 METERS.
70 TO 100 METERS.
100 TO 200 METERS.
200 TO 300 METERS.
•8 FOR H FROM 300 TO 500 METERS.
IH=9 FOR H GREATER THAN 500 METERS.
COMMON /COEFFR/ PXCOR(6,9),PXEXR(6,9),P)
*AXCOR(6,9),AXEXR(6,9),HC1(10)
DATA PXCOR/ .38964E-02, .54607E-02,
.21051E-01, .59088E-02,
.10152E-01, .10867E-01,
.14437E-01, .79376E-02,
.75237E-02, .22618E-02,
.10509E-01, .75283E-02,
.37139E-01, .10418E-01,
.14422E-03, .51107E-01,
.13842E-03, .43952E-09,
.84890E-03, .10930E-06,
.74961E-02, .19441E-03,
.10995E+01, .10757E+01,
.12577E+01, .96054E+00,
.13228E+01, .14784E+01,
.10843E+01, .13951E+01,
.10966E+01, .15582E+01,
.91238E+00, .10965E+01,
.53282E+00, .91427E+00,
.25085E+01, .47257E+00,
.22426E+01, .49057E+01,
.17455E+01, .34951E+01,
.10971E+01, .19827E+01,
.10401E+00, .12133E+00,
.12743E-01 ,
.87095E-02,
.76095E-02,
.67199E-02,
.14425E-01,
.79956E-03,
.15400E-02 ,
.12670E-02 ,
.75225E-02,
.10401E-01,
DATA PXEXR/
.12469E+01 ,
.12329E+01,
.10937E+01,
.10176E+01 ,
.73818E+00,
.21366E+01,
.17878E+01,
.16753E+01,
.10966E+01,
.91440E+00,
DATA PXUCOR/
ING PGSYSZ &PGSZ
(KST.IH) *H**PXEXR(KST,IH)
OM PT SOURCE,
F AREA SOURCE
CHI*U/Q, -
»
COR(6,9) ,PXUEXR(6,9) ,
.75278E-02,
.50774E-02,
.59366E-02,
. 10552E-01 ,
.38170E-02,
.22489E-02,
.75363E-02,
. 10468E-01 ,
.50921E-01 ,
. 13979E-02,
.10859E-04,
. 10965E+01 ,
. 1 1000E+01 ,
.95916E+00,
. 14870E+01 ,
.15823E+01 ,
.15595E+01,
. 10963E+01 ,
.91337E+00,
.47321E+00,
.22807E+01 ,
.27551E+01 ,
.14273E+00,
.11563E-01,
.74442E-02,
.67049E-02 ,
.10739E-01 ,
.13053E-02,
.24006E-02 ,
. 17287E-02 ,
. 75324E-02 ,
.10472E-01 ,
.50996E-01 ,
.20000E+04/
.1 1383E + 01 ,
.1 1002E+01 ,
. 10182E+01 ,
.80763E+00,
.20212E+01 ,
.16914E+01 ,
.16166E+01 ,
.10964E+01 ,
.91331E+00,
.47297E+00,
.OOOOOE+00/
.15351E+00,
BQROOJO
BQR0020
BQROObo
BQR0040
BQR0050
BQR0060
BQR0070
BQR0080
BQR0090
BQR0100
BQR0110
BQR0120
BQR0130
BQR0140
BQR0150
BQR0160
BQR0170
BQR0180
BQR0190
BQR0200
BQR0210
BQR0220
BQR0230
BQR0240
BQR0250
BQR0260
BQR0270
BQR0280
BQR0290
BQR0300
BQR0310
BQR0320
BQR0330
BQR0340
BQR0350
BQR0360
BQR0370
BQR0380
BQR0390
BQR0400
BQR0410
34
-------
.18855E+00,
.18239E+00,
.13963E+00,
.75308E-01,
.28539E-01,
.569^3E+01 ,
.28818E+01 ,
.10826E+01,
.12546E+00,
* .60615E-01,
DATA PXUEXR/ -
* -.21822E+01, -
* -.21317E+01, -
* -.20017E+01 , -
* -.18468E+01, -
* -.15940E+01, -
* -.31511E+01, -
* -.28678E+01, -
* -.25514E+01, -
* -.19799E+01, -
* -.18012E+01, -
DATA AXCOR/
* .17234E-01,
* .13875E-01,
* .11079E-01,
* .13824E-01,
* .32619E-01,
* .73510E-06,
* .20868E-04,
« .11204E-02,
* .11153E-01,
* .13881E-01,
DATA AXEXR/
* .13211E+01,
* .12332E+01,
* .10949E+01,
.91206E+00,
.58703E+00,
.41392E+01,
.29494E+01,
.18483E+01,
.10932E+01,
.91129E+00,
DATA HC1/10. ,20
END
.18668E+00,
.20458E+00, '
.19162E+00,
.13784E+00,
.66936E-01 ,
.14792E-01,
.40940E+03,
.77Q20E+02,
.15580E+01 ,
.11952E+00,
.19460E+01, -
.22176E+01, -
.22094E+01, -
.21462E+01 , -
.19984E+01, -
.18191E+01, -
.14513E+01, -
.40795E+01, -
•34879E+01, -
.26152E+01, -
.19721E+01, -
.68365E-02,
.19793E-01,
.91114E-02,
.53876E-02,
.11267E-01,
.13833E-01,
. 53521* E-01,
.28987E-05,
.21361E-05,
.61078E-03,
.11140E-01,
.10103E+01 ,
.14994E+01 ,
.15339E+01,
.15113E+01,
.10906E+01,
.91191E+00,
.47949E+00,
.38412E+01,
•33796E+01,
.19546E+01,
.10933E+01,
. ,30. ,50. ,70.
.77533E-01
.34326E+00
.38998E+00
.54357E+00
.13615E+00
.65799E-01
.12403E-01
.23011E+05
.68810E+03
.22517E+01
.19774E+01
.18479E+01
.24209E+01
.23991E+01
.24128E+01
.19955E+01
.18153E+01
.14181E+01
.48399E+01
-38719E+01
.26744E+01
.791 34E-0.?
.92054E-0?
.65416E-0/.
.48999E-02
.42195E-02
.11119E-01
.13821E-01
.55881E-01
.20000E+04
.10114E-03
.61554E-03
.10748E+01
.91095E+00
.18689E+01
.17163E+01
.15738E+01
.1093?E+01
.91210E+00
.47136E+00
.OOOOOE+00
.27Q33E+01
.19534E+01
,100. ,200.
, .11728E+00,
, .67228E-01,
, .76271E+00,
, .72550E+00,
, .52790E+00,
, .13315E+00,
, .64321E-01,
, .12340E-01,
, .46522E+06,
, .42842E+03,
, -.20086E+01 , -
, -.19661E+01, -
, -.18060E+01, -
, -.26556E+01, -
, -.25578E+01, -
, -.24059E+01, -
, -.19907E+01, -
, -.18111E+01 , -
, -.14172E+01, -
, -.53670E+01, -
, -.37956E+01 , -
, .11062E-01,
, .94211E-02,
, .12311E-01,
, .17087E-02,
, .17526E-02,
, .30122E-02,
, .11115E-01,
, .13920E-01,
, .55160E-01,
, .20000E+04,
, .20000E+04,
, .10960E+01,
, .10166E+01,
, .82547E+00,
, .22636E+01,
, .19791E+01,
, .16531E+01,
, .10938E+01,
, .91075E+00,
, .47363E+00,
, .OOOOOE+00,
, .OOOOOE+00,
,300. ,500. ,1000.
.14120E+00,
.10013E+00,
.40484E-01 ,
.22936E-.01,
. 12908E+01 ,
.74832E+00,
.12927E+00,
.62874E-01 ,
.12245E-01 ,
.OOOOOE+00/
.20742E+01 ,
.20050E+01 ,
.19196E+01 ,
.16763E+01 ,
.29371E+01 ,
. 2 6 9 3 4 K r 0 1 ,
.24817E+01 ,
.19851E+01 ,
.18071E+01 ,
.14160E+01 ,
.17020E+02/
.14818E-01,
.11254E-01 ,
.1 1151E-01 ,
.19297E-01 ,
.13715E-03,
.11144E-02,
.22334E-02 ,
.11152E-01 ,
.13838E-01,
.55799E-01,
.20000E+04/
.12112E+01,
.10903E+01,
.96699E+00,
.71059E+00,
.29084E+01 ,
.20856E+01,
.17181E+01,
.10932E+01 ,
.91178E+00,
.47178E+00,
.OOOOOE+00/
/
BQR0420
BQR0430
BQR0440
BQR0450
BQR0460
BQR047Q
BQR0480
BQR0490
BQR0500
BQR0510
BQR0520
BQR0530
BQR0540
BOR0550
BQR0560
BQR0570
BQH0580
BQR0590
BQR0600
BQR0610
BQR0620
BQR0630
BQR0640
BQR0650
BQR0660
BQR0670
BQR0680
BQR0690
BQR0700
BQR0710
BQR0720
BQR073Q
BQR0740
BQR075Q
BQR0760
BQR0770
BQR0780
BQR0790
BQR0800
BQR0810
BQR0820
BQR0830
BQR0840
BQR0850
BQR0860
35
-------
RAMMET - INPUT FORMATS ANu EXAMPLE RUNSTEAMS
RAMMETDOC
C RAMMET READS HOURLY SURFACE MET. OBSERVATIONS FROM THE NATIONAL
C CLIMATIC CENTER (NCC) FOR ONE YEAR'S DATA, READS MIXING HEIGHT
C INFORMATION FROM CARDS, CALCULATES STABILITY CLASS AND
C RANDOMIZED FLOW VECTOR, AND WRITES HOURLY MET. DATA ARRAYS
C IN DAILY RECORDS.
*****CARD INPUT TO RAMMET*****
CARD 1 (15,12,IX,2F10.1,F2.0,14,F10.0) IDC,IYRC.ALAT,ALONG,ZONE,
NDAYS,RAND(24)
C IDC STATION IDENTIFICATION FOR SURFACE OBSERVATION TAPE
C IYRC YEAR OF METEOROLOGICAL DATA
C ALAT LATITUDE OF SITE
C ALONG LONGITUDE OF SITE(POSITIVE FOR WEST LONGITUDE, NEGATIVE FOR EAST
C LONGITUDE)
C ZONE TIME ZONE OF SITE.(GREENWICH MERIDIAN TIME- LOCAL STANDARD TIME)
C NDAYS NUMBER OF DAYS TO BE PROCESSED - SAME AS NUMBER OF DAYS
C IN THE YEAR.
C RAND(24) THE INITIAL RANDOM NUMBER (SEED) USED TO GENERATE THE SEQUENCE OF
C RANDOM NUMBERS FOR THE RANDOMIZED FLOW VECTOR. IF THE SAME SEED
C IS USED IN DIFFERENT EXECUTIONS OF RAMMET, THE SAME SET OF
C RANDOM NUMBERS WILL BE GENERATED FOR THE ENTIRE YEAR. ANY ODD
C NUMBER GREATER THAN 3 DIGITS CAN BE USED AS THE SEED.
C THE RESULTING RANDOM INTEGERS GENERATED ON THE UNIVAC 1110 FOR
USE IN TESTING THIS RUNSTREAM FOR TWO DAYS ARE THE FOLLOWING:
052799197626221028209349
250994853068489903100516
EXAMPLE:
9381573 39.9
84.200
05 365 65549.
CARD 2 (12X.F5.0,13X.F5.0) XMNM1.XAFM1
XMNM1
XAFM1
EXAMPLE:
93815721231
YESTERDAY'S MINIMUM MIXING HEIGHT.(METERS)
YESTERDAY'S MAXIMUM MIXING HEIGHT.(METERS)
YESTERDAY INITIALLY IS THE LAST DAY OF THE PREVIOUS
YEAR.
0077
0723
CARD 3 (15,12,5X.F5.0,13X.F5.0) IDM,IYM,XHN,XAF
C IDM IDENTIFICATION FOR RADIOSONDE STATION USED TO DETERMINE
C MIXING HEIGHT. FROM MIX HT CARD.
C IYM YEAR FOR MIXING HEIGHT DATA - 2 DIGITS FROM MX HT CARD.
C XMN TODAY'S MINIMUM MIXING HEIGHT.(METERS)
C XAF TODAY'S MAXIMUM MIXING HEIGHT.(METERS)
INITIALLY TODAY IS THE FIRST DAY OF THE YEAR
EXAMPLE:
93815730101P 0250 P 0155
36
-------
CARD 4 AND FOLLOWING (12X,F5.0,13X,F5.0) XMNP1.XAFP1
C
C
XMNP1
XAFP1
TOMORROW'S MINIMUM MIXING HEIGHT.(METERS)
TOMORROW'S MAXIMUM MIXING HEIGHT.(METERS)
INITIALLY TOMORROW IS THE SECOND DAY OF THE YEAR
EXAMPLE:
93815730102
0396
0584
INITIALLY THREE MIXING HEIGHT CARDS ARE READ:
FOR YESTERDAY, TODAY, AND TOMORROW. IN THE LOOP FOR DAYS AFTER
INTERPOLATING MIXING HEIGHTS, MIXING HEIGHTS FOR TODAY AND TOMORROW ARE
SHIFTED AND NEW MIXING HEIGHTS FOR NEXT DAY'S TOMORROW READ IN.
A TOTAL OF THE NUMBER OF DAYS IN THE YEAR PLUS TWO(DEC 31 OF YEAR BEFORE,
AND JAN 1 OF YEAR AFTER) MIXING HEIGHT CARDS ARE EXPECTED AS INPUT TO
RAMMET.
TAPE OR DISK INPUT OF SURFACE METEOROLOGICAL DATA *****
C
C
C
C
C
C
C
C
C
C
c*****
C
C A FULL YEARS' HOURLY SURFACE OBSERVATIOHS(24* NUMBER OF DAYS IN THE YEAR)
C ARE EXPECTED IN CARD DECK 144 FORMAT FROM THE NATIONAL CLIMATIC CENTER ON
C UNIT 8. NO DATA CAN BE MISSING.
FORMAT OF EACH CARD IMAGE RECORD - (I 5,412,3A1,22X,212,4X,13,29X,Al)
ID,IYEAR,IMONTH,IDAY,IHOUR,ICEIL,IDIR,ISPEED,ITEMP,ICOVER
C ID SURFACE METEOROLOGICAL STATION IDENTIFICATION - FROM
C MET DATA.
C IYEAR YEAR FOR SURFACE DATA - 2 DIGITS. FROM MET DATA
C IMONTH MONTH
C IDAY DAY
C IHOUR HOUR
C DATA FROM THE NATIONAL CLIMATIC CENTER(NCC) ARE LABELED WITH
C HOURS 00 TO 23 FOR OBSERVATIONS FROM MIDNIGHT TO 2300. IN RAMMET
C AND ITS OUTPUT, HOURS 01 TO 24 REPRESENT OBSERVATIONS FROM 0100
C TO MIDNIGHT.
C ICEIL INPUT CEILING(HUNDREDS OF FEET)
C SINCE MINUS SIGNS(11-PUNCHES) REPRESENT SPECIAL CODING ON CARD
C IMAGE DATA FROM NCC, ICEIL AND ICOVER ARE READ IN ALPHA FORMAT
C AND CONVERTED IN RAMMET.
C IDIR INPUT WIND DIRECTION (10'S OF DEGREES, THAT IS, 27 = 270 DEGREES)
C ISPEED INPUT WIND SPEED.(KNOTS)
C ITEMP INPUT TEMPERATURE.(DEG-F)
C ICOVER OPAQUE CLOUD COVER.(TENTHS)
EXAMPLE:
9381573010100120 0507 021
9381573010101070800008000000000026200907062919023020055--7070
9381573010102040580008000000000023401004102911024020055-6004047070-
9381573010103014580006000010000021501203092906025022058-6201440045-
9381573010104011580005000000003019601203122900026022055-7K01 130032-
9381573010105011 80004000010003017701602092895029025058-4 6K011-
9381573010106010-00000900010000016301836142891027024069 010
9381573010107006-00000400030000016501936122891022021088 006
9381573010108004-00000700020000014102036162885028026072 004
9381573010109003-00000400030000013202001182882026024078 003
938157301 0110004-00000700020000012602001182880023022088 004
9381573010111004-00000700020000012002034182878023022088 004
9381573010112004-00000700020000011502134142877023023092 004
37
-------
9381573010113008800001700010000009002234142870024024092—K008
9381573010114017800002700010000008002232102867024024092—3017
9381573010115015800001000010000008302331122868026025088—3015
9381573010116008 58000900010000009002428132870026026092-3 5K00882K010-
9381573010117015580003000010000009802027092872024023085-6301543040-
938157301011888825000700000000001030182606287302302208163710039888600 600 5
9381573010119 10000800000000001100152210287502001908133888800 300 300 0
9381573010120 10000800000000001140142012287601701708822888800 200 200 0
9381573010121090800007000000000011501521152877021020078—7090
9381573010122070800015000000000011801621152878024022071—7070
9381573010123 20001500000000001180142115287802502206322707000 200 200 2
9381573010200035800012000000000011101520162876025022066--3035
9381573010201035800012000000000011101621172876026023066—3035
9381573010202033800012000000000010901621162875027024063--3033
9381573010203 20001200000000001070152017287502602306322302500 200 200 2
9381573010204 20001200000000001080142017287502302106811301500 100 100 1
9381573010205 000012000000000010501421182874022020071003 00 000 000 0
9381573010206 000012000000000010701421182874023021068000 00 000 000 0
9381573010207 10001200000000001090152018287502302107133888800 300 300 0
9381573010208 000010000000000011801620182878024022071007 00 000 000 0
9381573010209 20001200000000001250172016287902502307211714000 100 100 1
9381573010210 20001200000000001280202016288102702507511714000 100 100 1
9381573010211 21001200000000001310212018288202902707231714029888300 300 1
9381573010212 24001500000000001280222116288103102806961714059888600 600 2
9381573010213120800015000000000012002420162879035031064 — 7120
9381573010214 22001500000000001150262018287803603206741712039888400 400 3
938157301021512055001000000000001100282016287604003506296712039888900 900 9
9381573010216120580010000000000010902820182876041036060-8712029888-00 00 9
938157301021712055000700000000001100271918287604003506086712029888800 800 6
9381573010218 40000700000000001060281817287604103606066988800 600 600 2
9381573010219 10000700000000001050291816287504103606233988800 300 300 1
9381573010220 20000700000000001050291816287504003606533988800 300 300 3
9381573010221 20000800000000000950291922287203903506744988800 400 400 4
9381573010222 000012000000000009402920202872042037060000 00 000 000 0
9381573010223 000012000000000009402919182872042037060000 00 000 OO't) 0
9381573123123017800002700010000008002232102867024024092—3017
9381574010100004-00000700020000011502134142877023023092 004
*****DISK OUTPUT FROM RAMHET*****
THE OUTPUT MET DATA IS WRITTEN IN UNFORMATTED FORTRAN RECORDS TO UNIT 9.
THE RAM VERSIONS WILL READ MET DATA DIRECTLY FROM THIS FILE OR FROM CARDS,
WHICHEVER IS SPECIFIED BY THE USER.
*****EXAMPLE ECL STREAM*****
IN THIS EXAMPLE RUNSTREAM THE FILE, S9381573, IS A DISK FILE
CONTAINING HOURLY SURFACE MET OBSERVATIONS IN THE CARD FORMAT RECEIVED FROM
THE NATIONAL CLIMATIC CENTER IN ASHEVILLE, NC. THE FILE, METDATA, WILL
CONTAIN THE PROCESSED MET DATA WHICH IS OUTPUT FROM RAMMET.
THE UPPER AIR DATA WHICH IS INPUT ON CARDa IS USED IN
CONJUNCTION WITH THE SURFACE DATA TO CREATE THE PROPER MET INPUT INTO RAM.
@RUN,D/R JOBNAME/9,ACCNT-NO/USERIu,PROJ-ID,2,70
@PASSWD PASSWORD
@ASC,A S9381573. . NCC FORMATTED SFC MET DATA
@USE 8,59381573.
38}
-------
@ASG,CP METDATA.
@USE 9,METDATA.
@XQT A999*UNAMAP.RAMMET
9381573 39.9
93815721231
93815730101P
93815730102
93815730103
93815730104
93815730105
84.200
0077
0250
0396
042214.
708.8
110812.006.7
011605.605.6
RAMMET OUTPUT FILE
05 365 65549.
0723
P 0155
0584
037610.307.5
110809.806.9
024306.506.2
93815731228 086602.802.7
93815731229 031609.304.6
93815731230P 130113.805.4
93815731231
93815740101
048302.701.4
048302.701.4
081806.504.4
046712.308.2
085411.309.8
M 0854
M 0854
C********************************************************************
C
C THE PRECEEDING RUN STREAM HAD A RUN TIME OF 1 MINUTE AND 58 SECONDS
C ON THE UNIVAC 1111 AMD REQUIRED 10-K WORDS OF MEMORY(APPROXIMATELY 5,706
C DWORDS OF INSTRUCTIONS AND 3,206 WORDS OF DATA)
39
-------
(M
o> a •
N - « KIO
P> O •
K
is. O •
M O Kl in
•* • ru ir\
in O •
f « « « t
H *
UJ *
X *
K *
« *
oe «
41
C *
O *
oc *
u. +
a
o
in
• i
O O •
1- <5 «I 00
in • ro KI
00 O •
•O >O OO ^
in • 9- oo
* • IM oo
-o
• •
z o o •
O T- IS. Kl is.
t- in t- o * O •*
V) (\t (M *Q •* OO
• «* • I\J «- Kl
KI
•
O
»• • •
is- O •
Kl IS. fM M
O> O •
Kt N «- is,
O
r* • •
O O »
Kt IS, IM r-
-«- o
<* • CM
oo
00 O •
ro rs. o *j
s» • (M KI in
00 Kl
OO O •
4 • IM KI in
00 Kl
oo o •
Kl |s. Kl fs. Kl
in o • in in in
I (M Is- Csl ^~
I sC • IM CM
N.KI|S-KI»-
UJ Is.
v>
ii rj|s.(MOininm
K •* • 04 i\t
uJ 00
• •
in a •
•c f>- oo «r
4- • IM rvjoo
•* (M
in o •
^O f^ 00 O
sT • »
in • fsi ru r-
o r- •* is.
>» • ry (M Kl
ru rsi
00 O •
T- fs. rsi «~
-* • IM (M M
Kt (M
i • •
O> O •
in is- KI rsi
KI»rslPslKI««»«
r- ro f^ ^ O> sr
KI • • >o in ru in
rsi o is. o o>
• rsj • IM ru o*
r- • • Kl ^ (s. ^
f>- o • r\j in •a m
K ro • rsi IM in
UJ I- IM
' .
X ut f •iMT-oosroo
00 O • • • •
00 • •
Kl O •
II «» • rvj r- in -4 •* M KI
LU (M «— in in oo o
' 10 • • oo oo •* is.
>H rg o •
oc «- r- in (\j
Zin •rM«~in • • • •
3 rsi T- ^ «i Kl OO
trt • • in in ou in
o^ o • ou oo ^ r—
in -o • ro KI
KI • • >* ^j; KI KI
O O • in in oo r-
II IT. f«- s» O 00 O) .» 00
f Is. • rsi ^T
< r-
o • • • • • •
o o • •» •* KI ^r
• IM
• •
OO
ou
UJ
(A
rsi
00
V)
ac
UJ
Z Kl < • •
O II K II O O •
^ ae. v> >• so|s.«-Ki««««
r- LUKO ^ (Mtnininin
00 KlinKI
• •
OO O •
fs. O fM in • • •
O t> Z <
II Kl it t- II
oc < x
JJ {/) Q ^*
QQ >• Z O* O •
3 a u E >r •rururvj
z < 1-1 KI rsi
II U. Sk • •
in r\j^4~m*?tn
•• OUinJ3M"l
oo
oo
inootn
Z U O OC Kl
o a =2 r-
i-f30C(/>limi|fMfM-4v
K h- ui oc a u rsi M
< •-< O) Kl < U ui O. II II r-
K^-*:is-UJHujJC>OiX
C>>»C/1O.UJU.>I^
r-h-ik£v)K'»T-Z OO'KlinKI
E «T • ro M
• •••!*( 00 •••
rooro •• lAKim
O O • r- «O r-
N- Ki oo KI in ^^
II •* n i\j IM
u ae OH n II
rsi < II oj a. H II T- IM
x w *~ ui £ > ac x x
_i >- i/> a. uj u. > _i _i
OOO •r-oOmflOKt
Kt
II
>-
rg
T-
n
z
O
KI
oo oo -
oo O
ac
Q.
in in JO in ui
OO 00 >* 00 UJ
-O f~ O O
• O
II -O l| rg r* r- UJ
a: on <- n n oc
< n uj o. n n «- (M
iu i- iu c > ac i x _i
>- 1^ U- UJ U. > _J J J
I-. »^ W t- « U. I X
-------
RAMMET PROGRAM LISTING
C***RAMMET-PREPROCESSOR~ WRITTEN BY JOAN HRENKO NOVAK
C*** BASED ON METHODS SUGGESTED BY TURNER , ZIMMERMAN, AND IRWIN.
C*** VERSION 78124
C"**RAMMET ASSUMES THERE IS NO MISSING DATA ON THE MET. TAPE.
C*»*IF MISSING DATA IS DETECTED, THE LOCATION OF THE MISSING DATA IS
C***PRINTSD. MISSING DATA MUST BE FILLED IN BEFORE PROCEEDING .
DIMENSION LSTAB(12,7), IDFAC(12,2), ANGL(3), ICEIL(3), IDG(3), ID I
C***
C»»*
C*»*
DIMENSION KST(24), SPEED(24), TEMP(24), AFV(24), FVR(24), HLH(2,24
1), RAND(24)
DATA IDIG /'O','1','2',13','4','5','6','7','8','9','-'/
DATA IREC /!/ ,IMO /1/ ,ANGL /60. ,35.,15./ .CONST /57.29578X
DATA IDFAC /0,31,59,90,120,151,181,212,243,273,304,334,0,31,60,91,
1121,152,182,213,244,274,305,335/
DATA LSTAB /7,7 ,7 ,6 ,6 ,6 ,5 ,5,5,5,4,4,6,6,6,5,5,5,4,4,4,4,4,4,4,4,4,
14,4,4,4,4,4,4,4,4,3,3,3,4,4,4,4,4,4,4,4,4,2,2,2,3,3,3,3,3,3,4,4,4,
21,2,2,2,2,2,2,3,3,3,3,*, 1,1,1,1,1,2,2,2,2,3,3,3/
UNIT 8 = SURFACE DATA
UNIT 9 = OUTPUT FILE
UNIT 5 = UPPER AIR DATA IN CARD FORMAT
IN=5
10=6
IFLAG=0
C»**READ CARD TO INITIALIZE MET TAPE ID,YEAR.LATITUDE,LONGITUDE,
C*** TIME ZONE ,NO. OF DAYS IN YEAR, INITIAL RANDOM NUMBER.
C»**RAND(24) IS THE INITIAL RANDOM NO. USED TO GENERATE THE SEQUENCE OF
C***NUMBERS FOR THE RANDOMIZED FLOW VECTOR. IF THE SAME NO. IS USED IN
C»**DIFFERENT EXECUTIONS OF THE PREPROCESSOR, THE SAME SET OF RANDOM NOS
C***WILL BE GENERATED. ANY ODD NUMBER GREATER THAN 3 DIGITS CAN BE USED
C***AS THE SEED. THIS SEED IS MULTIPLIED BY 10,000 INTERNALLY.
C*»»ZONE IS GMT-LST.
READ (IN.400) IDC,IYRC,ALAT.ALONG,ZONE,NDAYS,RAND(24)
WRITE (10,410) IDC,IYRC.ALAT,ALONG,ZONE,NDAYS,RAND(24)
DUM=ALAT/CONST
SINLAT=SIN(DUM)
COSLAT=COS(DUM)
DUM=ALONG/15.-ZONE
TEMPZr15."ZONE-ALONG
C**»RESET SUBSRIPT IF LEAP YEAR
LYS=1
IF (NDAYS.EQ.366) LYS=2
C**»READ MET DATA
C*»*THIS READ ASSUMES AN INPUT TAPE WITH HOURLY DATA FROM THE
C***NATIONAL CLIMATIC CENTER, ASHVILLE, NC. IN THEIR STANDARD
C***HOURLY CARD FORMAT.
C»*»SKIP 00 HOUR OF MET DATA.
READ (8,420) ID,IYEAR,IMONTH,IDAY,IHOUR,ICEIL,IDIR,ISPEED,ITEMP,IC
10VER
LWD=IDIR
C***BEGIN PROCESSING WITH HOUR 01
READ (8,420) ID,IYEAR,IMONTH,IDAY,IHOUR,ICEIL,IDIR,ISPEED,ITEMP,IC
10VER
C*»*MIXING HEIGHT VALUES ARE DETERMINED TWICE A DAY FROM RADIOSONDE DATA
MET0010
MET0020
MET0030
MET0040
MET0050
MET0060
MET0070
MET0080
MET0090
MET0100
MET0110
MET0120
MET0130
MET0140
MET0150
MET0160
MET0170
MET0180
MET0190
MET0200
MET0210
MET0220
MET0230
MET0240
MET0250
MET0260
MET0270
MET0280
MET0290
MET0300
MET0310
MET0320
MET0330
MET03*»0
MET0350
MET0360
MET0370
MET0380
MET0390
MET0400
MET0410
MET0420
MET0430
MET0440
MET0450
MET0460
MET0470
MET0480
MET0490
METO5-00
MET0510
MET0520
MET0530
41
-------
C***USING THE PROCEDURES OF HOLZWORTH. MET0540
C***READ PRIOR DAYS MIXING HEIGHT VALUES MET0550
READ (IN,430) XMNM1.XAFM1 MET0560
C***PRESENT DAY MET0570
READ (IN,440) IDM,IYM,XMN,XAF MET0580
C***WRITE IDENTIFYING INFORMATION ON OUTPUT FILE MET0590
WRITE (9) ID,IYEAR,IDM,IYM MET0600
WRITE (10,450) IYEAR,ID,IYM,IDM MET06tO
C**» READ NEXT DAY'S MIXING HEIGHT VALUES MET0620
READ (IN,430) XMNP1,XAFP1 MET0630
C»»*START DAY LOOP. MET064.0
DO 380 IDY=1,NDAYS MET0650
C***CALCULATE THE DAY NO AND THE TIME OF SUNRISE AND SUNSET MET0660
DAY1 = IDAY-t-IDFAC(IMONTH,LYS) MET0670
C***CONSTANT 0.0172028=360./365.242*57.29578 MET0680
C***DETERMINE THE ANGULAR(RADIANS) FRACTION OF A YEAR FOR THIS DATE. MET0690
DAYNO=(DAY1-1.0)*0.0172028 MET0700
TDAYNO=2.*DAYNO MET0710
SIND=SIN(DAYNO) MET0720
COSD=COS(DAYNO) MET0730
SINTD=SIN(TDAYNO) MET0740
COSTD=COS(TDAYNO) MET07-50
C***ACCOUNT FOR ELLIPTICITY OF EARTH'S ORBIT. METOT^O
SIGMAr279.9348 + (DAYNO*CONST) + 1.9l4827*SIND-0.079525*COSD-t-0.019938* METOT70
1SINTD~0.00162*COSTD MET0780
C***CONSTANT 0.39785=31N(.4091720193=23.44383/57.29578) METO^go
C***FIND THE SINE OF THE SOLAR DECLINATION. MET0800
DSIN=0.39785*SIN(SIGMA/CONST) MET0810
DCOS=SQRT(1-0~DSIN*DSIN) MET0820
C***DETEHMINE TIME(HRS) OF MERIDIAN PASSAGE MET0830
AMM=12.0+0.12357*SIND~0.004289*COSD+0.153809*SINTD+0.060783*COSTD MET0840
HCOS=(-SINLAT*DSIN)/(COSLAT*DCOS) MET0850
C***DETERMINE SOLAR HOUR ANGLE OF SUNRISE-SUNSET. MET0860
H2=(ATAN2(SQRT(1.-HCOS*HCOS),HCOS)/15.0)'CONST MET0870
C***TIME OF SUNRISE(TSR) AND TIME OF SUNSET(TSS) ARE EXPRESSED IN MET0880
f***LOCAL STANDARD TIME SINCE THE ZONE CORRECTION HAS ALREADY BEEN MADE. MET0890
C***OTHERWISE THEY WOULD BE IN GREENWICH MEAN TIME. MET0900
TSR=AMM~H2+DUM MET0910
TSS=AMM+H2+DUM MET0920
RAND(1)=FAND(24)»100000. MET0930
C***THIS CALL TO THE UNIVAC RANDOM NO. GENERATOR PROVIDES 24 UNIFORMLY MET0940
C***DISTRIBUTED NUMBERS BETWEEN 0 AND 1. MET0950
C***IF THIS ROUTINE IS NOT RUN ON A UNIVAC MACHINE, THE RANDOM NO. MET0960
C***GENERATOR FOR THE USER'S SYSTEM MAY BE SUBSTITUTED. MET0970
CALL RANDU (RAND,24) MET0980
C***START HOUR LOOP MET0990
DO 370 KHR=1,24 MET1000
KHRC=KHR MET1010
C***INITIALIZE STABILITY BEFORE IT IS CALCULATED MET1020
KST(KHR)-0 MET1030
IF (KHR.EQ.24) GO TO 7Q MET1040
C***CHECK DATA FOR CORRECTNESS & CONTINUITY MET1050
C***CHECK STATION NUMBER. MET1060
IF (ID.EQ.IDC) GO TO 10 MET1Q70
WRITE (10,460) IREC,ID,IDC MET1080
WRITE (10,510) MET1090
CALL EXIT METHOD
C***CHECK YEAR. MET1110
10 IF (IYEAR.EQ.IYRC) GO TO 20 MET1120
WRITE (10,470) IYEAR,IYRC,:REC METIISO
WRITE (10,510) MET1140
CALL EXIT MET1150
42
-------
C«»«CHECK MONTH
20
C**»
IF (IMONTH.EQ.IMO) GO TO 40
IF (IMONTH.EQ.(IMO+D) GO TO 30
WRITE (10,480) IMONTH.IMO.IREC
WRITE (10,510)
CALL EXIT
30 IMO=IMONTH
C***CHECK DAY
40 IF (IFIX(DAYD.EQ.IDY) GO TO 50
WRITE (10,490) DAY1,IDY,IREC
WRITE (10,510)
CALL EXIT
C*»»CHECK HOUR
50 IF (IHOUR.EQ.KHRC) GO TO 80
WRITE (10,500) IHOUR,KHR,IREC
WRITE (10,510)
GO TO 370
60 WRITE (10,520) KHR,IREC,IHOUR
CALL EXIT
70 IF (IHOUR.NE.O) GO TO 60
KHRC=IHOUR
C»**UPDATE MIXING HEIGHTS- STARTING NEW DAY.
XMNM1=XMN
XAFM1=XAF
XMN=XMNP1
XAF=XAFP1
C***READ NEXT DAYS MIXING HEIGHTS.
READ (IN,430,END=80) XMNP1,XAFP1
80 DO 90 JK=1,11
IF (ICOVER.EQ.IDIG(JK)) GO TO 100
90 CONTINUE
JK=11
WRITE (10,530) ICOVER
100 ISKY=JK-1
IF (ICEIL(1).NE.IDIG(11)) GO TO 110
IDG(1)=9
IDG(2)=9
IDG(3)=8
GO TO 150
110 DO 140 JI=1,3
DO 120 JK=1,10
IF (ICEIL(JI).EQ.IDIG(JK)) GO TO 130
120 CONTINUE
130 IDG(JI)=JK-1
140 CONTINUE
150 IROOF=IDG(1)*100+IDG(2)*10+IDG(3)
C***IROOF IS CEILING HEIGHT IN HUNDREDS OF FEET.
C***CONVERT TEMP FROM FAHRENHEIT TO KELVIN
TEMP(KHR)=0.5556*(ITEMP-32.)+273.15
C»**CONVERT WIND SPEED FROM KNOTS TO METERS/SEC
S=ISPEED*0.51444
C***WIND SPEED IS SET TO 1 METER/SEC
IF (S.LT.1.0) S=1.0
SPEED(KHR)=S
C***CHECK FOR CALMS
IF (IDIR.EQ.O) GO TO 160
C***WIND DIRECTION IS ASSUMED TO BE THE SAME AS FOR THE LAST HOUR
C***IF THE WIND DIRECTION IS REPORTED AS "CALM".
LWD=IDIR
GO TO 170
160 IDIR=LWD
MET1160
MET1170
MET1180
MET1190
MET1200
MET1210
MET1220
MET1230
MET1240
MET1250
MET1260
MET1270
MET1280
MET1290
MET1300
MET1310
MET1320
MET1330
MET1340
MET1350
MET1360
MET1370
MET1380
MET1390
MET1400
MET1410
MET1420
MET1430
MET1440
MET1450
MET1460
MET147Q
MET1480
MET1490
MET1500
MET1510
MET1520
MET1530
MET1540
MET1550
MET1560
MET1570
MET1580
MET1590
MET1600
MET1610
MET1620
MET1630
MET1640
MET1650
MET1660
MET1670
MET1680
MET1690
MET 1700
MET1710
MET1?20
MET1730
MET1740
MET175Q
MET1760
MET177Q
43
-------
170 XDIR=IDIR*10.
C***CALCULATE FLOW VECTOR AND RANDOM FLOW VECTOR
IF (XDIR.GT.180.) GO TO 180
FV=XDIR+180.
GO TO 190
180 FV=XDIR-180.
190 AFV(KHR)=FV
IRAND=RAND(KHR)*10.
C*»*IRAND IS SINGLE DIGIT FROM 0 TO 9.
FVR(KHR)=FV+IRAND-4.0
IF (FVR(KHR).GT.360.) FVR(KHR)=FVR(KHR)-360.
C***DETERMINE RADIATION INDEX.
IF (ISKY.EQ.10.AND.IROOF.LT.70) GO TO 200
IF (IHOUR.GT.TSR.AND.IHOUR.LT.TSS) GO TO 210
IRADX=2
IF (ISKY.LE.4) IRADX=1
GO TO 280
200 IRADX=3
GO TO 280
C***DETERMINE THE ANGLE OF ELEVATION
C***DETERMINE SOLAR HOUR ANOLE(RADIANS)
210 HI=(15.*(KHRC-AMM)+TEMPZ)/CONST
ALFSN=SINLAT*DSIN+DCOS*COSLAT*COS(HI)
C***DETERMINE SOLAR ELEVATION ANGLE(DEG).
ALF=ATAN2(ALFSN,SQRT(1.-ALFSN*ALFSN))*CONST
DO 220 1=1,3
220 IF (ALF.GT.ANGL(D) GO TO 230
1 = 4
230 ICN=5-I
IF (ISKY.GT.5) GO TO 240
IRADX=ICN+3
GO TO 280
240 IRADX=ICN-1
IF (IROOF.LT.70) GO TO 250
IF (IROOF.LT.160) GO TO 260
IF (ISKY.EQ.10) GO TO 270
IRADX=ICN
GO TO 270
250 IRADX=ICN-2
GO TO 270
260 IF (ISKY.EQ.10) IRADX=IRADX-1
270 IF (IRADX.LT.1) IRADX=1
IRADX=IRADX+3
280 IND=ISPEED
IF (ISPEED.GT.12) IND=12
IF (ISPEED.LE.1) IND=1
C«»»DETERMINE STABILITY.
KST(KHR)=LSTAB(IND,IRADX)
C»*»DO NOT ALLOW STABILITY TO VARY RAPIDLY
IF (IDY.EQ.1.AND.KHR.EQ.1) LST=KST(KHR)
IF ((KST(KHR)-LST).GT.I) KST(KHR)=LST-t-1
IF ((LST-KST(KHR)).GT.1) KST(KHR)=LST-1
LST=KST(KHR)
IF (KST(KHR).LT.1) WRITE (10,540) KST(KHR),IND,IRADX,IREC
C*»»CALCULATE MIXING HEIGHT
IHR=KHRC
XHR=IHR
IF (IHR.GT.14.AND.XHR.LE.TSS) GO TO 300
IND=2
IF (XHR.LE.TSS) GO TO 310
IF (KST(KHR).EQ.4) GO TO 290
HLH(2,KHR)=XAF+(XMNP1-XAF)*((XHR-TSS)/(24.-TSS))
MET1780
MET 1^90
MET1800
MET1810
MET 1820
MET1830
MET 1840
MET1850
MET 1860
MET187Q
MET1880
MET1890
MET1900
MET1910
MET1920
MET1930
MET1940
MET1950
MET1960
MET1970
MET1980
MET1990
MET2000
MET2010
MET2020
MET2030
MET2040
MET2050
MET2060
MET207Q
MET2080
MET2090
MET2100
MET2110
MET2120
MET2130
MET2140
MET2150
MET2160
MET217Q
MET2180
MET2190
MET2200
MET2210
MET2220
MET2230
MET2240
MET2250
MET2260
MET2270
MET2280
MET2290
MET2300
MET2310
MET2320
MET2330
MET2340
MET2350
MET2360
MET2370
MET2380
MET2390
44
-------
IND=1 MET2HOO
290 HLH(lND.KHR)=XAF+(XAFP1-XAF)»((XHR-TSS)/(38.-TSS)) MET2410
IF (IND.EQ.2) HLHd,KHR)sHLH(2,KHR) MET2420
GO TO 360 MET2430
300 HLH(1,KHR)=XAF MET2440
HLH(2,KHR)=XAF MET2450
GO TO 360 MET2460
310 IF (XHR.GT.TSR) GO TO 330 MET247Q
KSTSP=KST(KHR) MET2480
IF (KST(KHR).EQ.4) GO TO 320 MET2490
HLH(2,KHR)=XMN MET250CT
IND=1 MET2510
320 HLH(lND,KHR)sXAFM1+(XAF-XAFM1)«((24.-TSS+XHR)/(24.-TSS+l4.)) MET2520
IF (IND.EQ.2) HLH(1,KHR)=HLH(2,KHR) MET2530
GO TO 360 MET2540
330 IF (KSTSP.EQ.4) GO TO 350 MET2550
flLH(2,KHR)=XMN+(XAF-XMN)«((XHR-TSR)/(l4.-TSR)) MET2560
HLH(1,KHR)=XAF«(XHR-TSR)/(14.-TSR) MET2570
GO TO 360 MET2580
340 IFLAG=1 MET2590
IHOUR=0 MET26QO
GO TO 370 MET2610
350 HLH(1,KHR)sXAFM1+(XAF-XAFM1)»((24.-TSS+XHR)/(24.-TSS+14.)) MET2610
HLH(2,KHR)=HLH(1,KHR) MET2630
C«»»READ NEXT HOUR'S MET DATA MET2640
360 IF (IFLAG.EQ.1) GO TO 390 MET2650
C««»STORE CORRECT MONTH AND DAY FOR DAILY PRINTOUT, SINCE 24TH HOUR LABE MET2660
IF(KHR.NE.23) GO TO 365 MET2670
LMON=IMONTH MET2680
LDAYsIDAY MET2690
365 READ (8,420,END=340) ID,IYEAR,IMONTH,IDAY,IHOUR,ICEIL,IDIR,ISPEED, MET2700
1ITEMP.ICOVER MET2710
IRECsIREC+1 MET2720
C»»«END OF HOUR LOOP. MET2730
370 CONTINUE MET2740
C***WRITE DAYS CALCULATION ON TO FILE MET2750
C*»*EACH ARRAY CONTAINS THE COMPLETE INFORMATION FOR ONE DAY ORDERED MET2760
CONSEQUENTIALLY FROM HOUR 01 THRU 24 MET277Q
WRITE (9) IYEAR,LMON,DAY1,KST,SPEED,TEMP,AFV.FVR.HLH MET2V80
WRITE (10,550) IYEAR,LMON,LDAY,DAY1,TSR,TSS MET2790
WRITE (10,560) KST MET2800
WRITE (10,570) SPEED,TEMP,AFV,FVR,((HLH(I,J),J = 1,24) ,1=1 ,2) MET2810
C***END OF DAY LOOP. MET2820
380 CONTINUE MET2830
390 WRITE (9) IYEAR,LMON,DAY1,KST,SPEED,TEMP ,AFV ,FVR ,HLH MET2840
WRITE (10,550) IYEAR,LMOM,LDAY,DAY1,TSR,TSS MET2850
WRITE (10,560) KST MET2860
WRITE (10,570) SPEED,TEMP,AFV,FVR,((HLH(I,J),J = 1 ,24),1=1,2) MET2870
WRITE (10,580) MET2880
CALL EXIT MET2890
C MET2900
400 FORMAT (15,12,1X,2F10.1,F2.0,14,F10.0) MET2910
410 FORMATC1',1 RAMMET - VERSION 78124V1X, MET2911
*' STATION NUMBER=',I5,5X,'YEAR OF DATA=',I2/1X, MET2920
•'LATITUDES',F10.1,' LONGITUDE=',FIO.I,' ZONE=',F4.o/ix, MET2930
*!NUMBE;H OF DAYS IM YEAR=',i3,' RANDOM SESD=' .FIO.O) MET2940
420 FORMAT (15,412,3A1,22X ,212,4X,13,29X,A1) rtfcT2950
430 FORMAT (12X,F5.0,13X,F5.0) MET2960
440 FORMAT (15,12,5X,F5.0,13X.F5 .0) MET297Q
450 FORMAT (1X , '19' , 12 , ' SURFACE DATA AT STATION ',15,1 OX , '19' , 12 , ' MI MET2980
1XING HEIGHT DATA AT STATION ',15) MET2990
460 FORMAT (' ID DOES NOT MATCH IM RECORD ',14,' ID ON TAPE IS ',15 MET3000
45
-------
*,' ID REQUESTED IS ',15) MET3010
470 FORMAT (' YEAR IS',13,' INSTEAD OF ',12,' IREC=',I4) MET3020
480 FORMAT (' MONTH ',12,' DOES NOT AGREE WITH LOOP ',12,' IREC=',I4) MET3030
490 FORMAT (' DAY ',F4.0,' DOES NOT AGREE WITH LOOP ',12,' IREC=',I4) MET3040
500 FORMAT (' HOUR ',12,' DOES NOT AGREE WITH LOOP ',12,' IREC=',I4) MET3050
510 FORMAT (' *****DATA IS MISSING. PLEASE CORRECT INPUT FILE*****') MET3060
520 FORMAT (' ERROR: MISSING HOUR LOOP VALUE= ',13,' WHILE VALUE ','ON MET3Q7Q
1 RECORD ',17,' IS = ',13) MET3080
530 FORMAT (' THE CHARACTER ',A1,' IS NOT ALLOWABLE.',' CLOUD COVER DE MET3090
1FAULTS TO 10.') MET3100
540 FORMAT (' STABILITY:',414) MET3110
550 FORMAT (' IYEAR=',I2,' IMONTH=',12,' DAY=',I2,' JULIAN DAY=', MET3120
*F5.0,' SUNRISE=',F7.3,' SUNSET=',F7.3) MET3130
560 FORMAT (' KST= ',24(11,4X)) MET3140
5?0 FORMAT (' SPEED= ',24(F4.1,1X)/' TEMP=',24(F4.0,1X)/' AFV= ',24(F MET3150
14.0.1X)/' FVR=',24(F4.0,1X)/' HLH1=',12(F5.0,1X)/6X,12(F5.0,1X)/' MET3160
2HLH2=',12(F5.0,1X)/6X,12(F5.0,1X)) MET3170
580 FORMAT (' ALL RECORDS HAVE BEEN PROCESSED') MET3180
C MET3190
END MET3200
46
-------
5.
RAM - INPUT FORMATS AND EXAMPLE RUNSTEAMS
RAMDOC
C***RAM IS AN EFFICIENT GAUSSIAN-PLUME MULTIPLE-SOURCE
C***AIR QUALITY ALGORITHM. RAM IS DESCRIBED IN: NOVAK,J.H., AND
C***TURNER,D.B., 1976: AIR POLLUTION CONTROL ASSOC. J., VOL. 26, NO. 6,
C***PAGES 570-575(JUNE 1976). RAM'S PRINCIPAL USE IS TO DETERMINE
C***SHORT TERM(ONE-HOUR TO ONE-DAY) CONCENTRATIONS FROM POINT AND
C***AREA SOURCES IN URBAN AREAS.(RAMR FOR RURAL AREAS)
C***THREE SYSTEMS OF LENGTH AND COORDINATES ARE USED IN RAM:
C*** THE FIRST SYSTEM, USER UNITS, IS SELECTED BY THE USER AND
C*** NORMALLY USES THE COORDINATE SYSTEM OF THE EMISSION INVENTORY.
C*** ALL LOCATIONS INPUT BY THE USER(SUCH AS SOURCES AND RECEPTORS)
C*** ARE IN THIS SYSTEM. ALSO AS A CONVENIENCE TO THE USER ALL
C*** LOCATIONS ON OUTPUT ARE ALSO IN THIS SYSTEM.
C*** THE SECOND SYSTEM, INTERNAL UNITS, IS USED INTERNALLY IN RAM
C*** FOR COORDINATE LOCATIONS AND DISTANCES. ONE INTERNAL UNIT IS THE
C*** SIDE LENGTH OF THE SMALLEST AREA SOURCE SQUARE. THIS LENGTH MUST
C*** BE IDENTIFIED AND SPECIFIED BY THE USER. THE PURPOSE OF USING
C*** INTERNAL UNITS IS TO HAVE A CORRESPONDENCE BETWEEN LOCATION(GRID
C*** COORDINATES) AND PARTICULAR AREA SOURCE POSITIONS. THIS IS
C*** ACCOMPLISHED THROUGH THE USE OF THE AREA SOURCE MAP ARRAY(IA ARRAY
C*** ). THIS ALLOWS DETERMINATION AS TO WITHIN WHICH AREA SOURCE ANY
C*** COORDINATE POINT RESIDES.
C*** THE THIRD SYSTEM,X,Y, IS AN UPWIND, CROSSWIND COORDINATE SYSTEM
C*** WITH REFERENCE TO EACH RECEPTOR. THE X-AXIS IS DIRECTED UPWIND
C*** (SAME AS WIND DIRECTION FOR THE PERIOD). IN ORDER TO DETERMINE
C*** DISPERSION PARAMETER VALUES AND EVALUATE EQUATIONS FOR
C*** CONCENTRATIONS, DISTANCES IN THIS SYSTEM MUST BE IN KILOMETERS.
C***
***** CARD INPUT TO RAM (OR RAMR) *****
CARD 1 (13A6.A2) LINE1 80 CHARACTER TITLE
EXAMPLE:
RUN BY: ED KRENSHAW, AIR & HAZARDOUS MATER. DIV., REGION XV, EPA(1 JAN 78)
CARD 2 (13A6.A2) LINE2
EXAMPLE:
EMISSIONS: TEST CITY, 1973
80 ALPHA CHARACTERS OF INFORMATION
CARD 3 (13A6.A2) LINE3 80 ALPHA CHARACTERS OF INFORMATION
EXAMPLE:
SFC MET DATA: TEST CITY 1973; UPPER AIR: TEST CITY 1973.
CARD 4 (FREE FORMAT) IOPT,NPER,NAVG,Z,HAFL,NSIGP,NSIGA,IDATE,IHSTRT
IOPT - OPTIONS (THIRTEEN DIFFERENT ONES) CODED: 1= USE OPTION, 0= DON'T USE.
IOPT(1) POINT SOURCE INPUT?
IOPT(2) AREA SOURCE INPUT?
IOPT(3) ENTERING PERMANENT RECEPTOR COORDINATES?
47
-------
IOPT(4) SIGNIFICANT POINT RECEPTORS GENERATED?
IOPT(5) SIGNIFICANT AREA RECEPTORS GENERATED?
IOPT(6) HONEYCOMB RECEPTORS GENERATED?
IOPT(7) HOURLY OUTPUT?
IOPT(8) PARTIAL CONCENTRATIONS WRITTEN TO DISK?
THE PARTIAL CONCENTRATION FILE IS A RECORD OF THE CONTRIBUTION
OF EACH SOURCE TO EACH RECEPTOR FOR EACH HOUR.
SEE PARTC FOR DESCRIPTION OF FILE FORMAT.
IOPT(9) PRINT HOURLY SUMMARIES RATHER THAN FULL HOURLY OUTPUT?
THIS OPTION SHOULD BE USED ONLY IF OPTION 7 IS REQUESTED.
THE EFFECT IS TO REDUCE THE AMOUNT OF PRINTOUT FROM 3 OR MORE
PAGES/HOUR TO 1 PAGE/HOUR BY ELIMINATING OUTPUT OF SOURCE-
RECEPTOR CONTRIBUTION TABLES.
IOPT(10) PUNCH CONCENTRATIONS OH CARDS FOR EXTERNAL USE (SUCH AS PLOTTING)
ONE CARD IS PUNCHED FOR EACH RECEPTOR FOR EACH AVERAGING PERIOD.
IT CONTAINS RECEPTOR COORDINATES IN USER UNITS, TOTAL CONCENTRATION,
THE CONTRIBUTION FROM AREA SOURCES, AND THE CONTRIBUTION FROM POINT
SOURCES(!1ICROGRAMS/M**3).SEE PUNCHCARD FOR DESCRIPTION OF OUTPUT FORMAT
IOPT(11) INPUT METEOROLOGICAL DATA ON CARDS?
IOPT(12) SPECIFY SIGNIFICANT SOURCES?
RAM INTERNALLY DETERMINES THE ORDER OF SIGNIFICANCE FOR BOTH POINT AND
AREA SOURCES. THE USER SHOULD EMPLOY OPTION 12 ONLY IF THERE IS A
PARTICULAR SOURCE OF INTEREST WHICH WAS NOT CONSIDERED TO BE
SIGNIFICANT BY RAM(I.E. IS HOT INCLUDED ON THE PRINTOUT). IF THE USER
WISHES TO ADD A SIGNIF. POINT SOURCE BUT NOT A SIGNIFICANT AREA SOURCE,
BOTH CARD TYPE 6 AND 9 MUST BE INCLUDED IF BOTH POINT AHD AREA SOURCES
ARE BEING CONSIDERED AND INAS SHOULD BE SET TO 0.
IOPT(13) READ HOURLY EMISSIONS?
NPER THE NUMBER OF PERIODS TO BE RUN
NAVG THE NUMBER OF HOURS IN THE AVERAGING TIME(PERIOD)
IF THE AVERAGING TIME IS 24 HOURS, HPER IS EQUIVALENT TO THE NUMBER OF
DAYS TO BE RUN.
Z RECEPTOR HEIGHT ABOVE GROUND (METERS) (ALL MUST BE AT SAME HEIGHT).
HAFL POLLUTANT HALF-LIFE (SECONDS).
NSIGP NO. OF SIGNIFICANT POINT SOURCE(MAX-25), MAY BE LESS THAN IN RAMQ
NSIGA NO. OF SIGNIFICANT AREA SOURCES(MAX-10), MAY BE LESS THAN IN RAMQ
IDATE(l) 2 DIGIT YEAR
IDATE(2) STARTING JULIAN DAY FOR THIS RUH
IHSTRT STARTING HOUR FOR THIS RUN
RESTRICTIONS OH INPUT PARAMETERS FOR RAM
1) IF METEOROLOGICAL DATA HAS BEEN PREPROCESSED USING RAMMET OR THE
CRSTER PREPROCESSOR:
(A) THE STARTING HOUR(IHSTRT) MUST EQUAL 1.
(B) THE STARTING JULIAN DAY(IDATE(2)) MUST BE BETWEEN 1 AND 366.
THE MET. FILE WILL AUTOMATICALLY BE POSITIONED TO THE CORRECT DAY
(C) IF MULTIPLE DAYS ARE TO BE RUN, THE AVERAGING TIME(NAVG) MAY BE
1,2,3,4,6,8,12, OR 24. FOR OTHER AVERAGING TIMES<=24, THE TOTAL
NUMBER OF HOURS RUN(HAVG*NPER) MUST NOT EXCEED 24.
(D) NON-CONSECUTIVE DAYS OR PERIODS MUST BE RUN SEPARATELY.
2) IF METEOROLOGICAL DATA IS TO BE INPUT ON CARDS:
(A) THE STARTING HOUR(IHSTRT) MAY RANGE BETWEEN 1 AND 24 INCLUSIVELY.
(B) THE STARTING JULIAN DAY (IDATE(2)) MUST AGREE WITH THE DATE ON THE
FIRST INPUT CARD. NO FILE MANIPULATION IS DONE.
(C) THE AVERAGING TIME(NAVG) MAY ALSO RANGE BETWEEN 1 AND 24.
(D) NON-CONSECUTIVE DAYS OR PERIODS CAN BE PROCESSED IN THE SAME RUN.
HOURS WITHIN A PERIOD MUST BE CONSECUTIVE AND EACH PERIOD MUST
HAVE THE SAME AVERAGING TIME.
48
-------
EXAMPLE:
1,1,1,1,1,1,1,1,0,1,1,1,1, 1, 2, 0.0, 14400., 5, 10, 73, 001,1
CARD TYPE 5 (FREE FORMAT) ISFCD,ISFCYR,IMXD,IMXYR
THIS CARD IS REQUIRED ONLY IF IOPT(11)=0
ISFCD SURFACE METEOROLOGICAL STATION IDENTIFICATION.
ISFCYR YEAR OF SURFACE DATA - 2 DIGITS.
IMXD IDENTIFICATION OF RADIOSONDE STATION USED TO DETERMINE
MIXING HEIGHT.
IMXYR YEAR OF MIXING HEIGHT DATA - 2 DIGITS.
EXAMPLE:
93815, 73, 93815, 73
CARD TYPE 6 (2613) INPT.HPS
THIS CARD IS REQUIRED ONLY IF IOPT(1)=1 AND IOPT(12)=1
IHPT THE NUMBER OF USER SPECIFIED SIGNIFICANT POINT SOURCES, COUNT(MAX-25)
MPS POINT SOURCE NUMBERS USER WANTS TO CONSIDER SIGNIFICANT(I.E., CONC.
CONTRIBUTIONS FROM SIGNIF. SOURCES ARE PRINTED OH OUTPUT)
EXAMPLE:
1 7
CARD TYPE 7 (FREE FORMAT) FH,XLIM,NHTS,(HINT(I),1=1,NHTS)
THIS CARD IS REQUIRED ONLY IF IOPT(2)«1
FH FRACTION OF AREA SOURCE HEIGHT WHICH IS PHYSICAL HEIGHT
XLIM DISTANCE LIMIT ON INTEGRATION FOR AREA SOURCE(USER UNITS). IN ORDER
FOR CALCULATED CONCENTRATIONS FROM AREA SOURCES TO BE DETERMINED
CORRECTLY, XLIM SHOULD BE EQUIVALENT TO THE GREATEST DISTANCE FROM
ANY RECEPTOR(INCLUDING THOSE GENERATED BY THE ALGORITHM) TO ANY PART
OF AN AREA SOURCE. IF RECEPTORS ARE OUTSIDE THE AREA SOURCE REGION,
XLIM WILL BE THE DISTANCE FROM THE RECEPTOR FARTHEST FROM THfi AREA
SOURCE REGION ACROSS THE AREA SOURCE TO THE CORNER FARTHEST AWAY
FROM THE RECEPTOR. IF ALL RECEPTORS ARE INSIDE THE AREA SOURCE
REGION, XLIM IS THE GREATEST POSSIBLE DISTANCE FROM A RECEPTOR TO A
CORNER OF THE AREA SOURCE REGION. XLIM IS ENTERED IN USER UNITS.
IF XLIM IS TOO SHORT THE CALCULATED CONCENTRATIONS WILL BE TOO LOW.
IF XHM IS TOO LARGE COMPUTATION TIME IS INCREASED. XLIM CANNOT
EXCEED 116 KM.
NHTS INTEGER NUMBER OF HEIGHTS TO BE USED FOR AREA SOURCES(MIN-1,MAX-3)
HINT HEIGHT(S) (METERS) FOR AREA SOURCE INTEGRATIONS. THIS IS AN ARRAY OF
FROM ONE TO THREE ELEMENTS.
EXAMPLE:
.75, 25., 3, 11.,15.,20.
CARD TYPE 8 (FREE FORMAT) (BPH(I),1-1,NBP)
THIS CARD IS REQUIRED ONLY WHEN CARD TYPE 7
IS USED
BPH BREAKPOINT HEIGHTS (METERS) BETWEEN AREA SOURCE HEIGHTS. THESE VALUES
DEFINE THE BOUNDS OF HEIGHTS CLASSES. ANY AREA SOURCE FALLING
WITHIN THE HEIGHT CLASS WILL USE THE SPECIFIED REPRESENTATIVE
HEIGHT(HINT) FOR -THAT CLASS DURING THE INTEGRATION. BPH IS AN
ARRAY OF TWO ELEMENTS. ONE VALUE WILL BE READ IF NHTS ON PREVIOUS
CARD IS 1 OR 2. TWO VALUES READ FOR NHTS • 3. BPH AND HINT CAN
USUALLY BE CHOSEN BY EXAMINING THE QUANTITY OF AREA SOURCE EMISSIONS
WITH HEIGHT WHICH IS GIVEN AS PART OF THE RAMQ OUTPUT. IT IS
DESIRABLE TO CHOOSE AS REPRESENTATIVE HEIGHTS FROM AREA SOURCES AS
POSSIBLE.IF NHTS IS 1, THE VALUE OF BPH MUST BE LARGER THAN
ANY AREA HEIGHT IN THE DATA SET FOR THE RUN.
-------
EXAMPLE:
13., 17.
CARD TYPE 9 (2613) INAS.MAS
THIS CARD IS REQUIRED ONLY IF IOPT(2)-1 AND IOPT(12)-1
INAS THE NUMBER OF USER SPECIFIED SIGNIFICANT AREA SOURCES, COUNT(MAX-10)
MAS AREA SOURCE NUMBERS USER WANTS TO CONSIDER SIGNIFICANT(I.E. CONC.
CONTRIBUTIONS FROM SIGNIF. SOURCES ARE PRINTED ON OUTPUT)
EXAMPLE:
0
CARD TYPE 10 (2A4.2F10.3) (RNAME(J.NRECEP),J-l,2),RREC(NRECEP),SREC(NRECEP)
ONE CARD FOR EACH INPUT RECEPTOR; LAST RECEPTOR CARD MUST BE BLANK.
REQUIRED ONLY IF IOPT<3)-1
RNAME ALPHA-NUMERIC STATION IDENTIFIER (8 CHARACTERS).
RREC EAST COORDINATE OF RECEPTOR (USER UNITS).
SREC NORTH COORDINATE OF RECEPTOR (USER UNITS).
NOTE : THE SUM OF RREC AND SREC EQUAL TO ZERO IS USED TO TRANSFER
CONTROL SIGNALING THAT THE LAST RECEPTOR CARD HAS BEEN READ.
A COORDINATE SCHEME SHOULD BE SELECTED PRIOR TO RUNNING RAMQ SO THAT ALL
SOURCES AND RECEPTORS HAVE POSITIVE EAST(R) AND NORTH(S) COORDINATES.
EXAMPLE:
RECEP 1 566.00 4405.0
CARD TYPE 11 (FREE FORHAT) GRIDSP,HRMIN,HRMAX,HSMIN,HSMAX
THIS CARD IS REQUIRED ONLY IF IOPT(6)=1
HONEYCOMB BOUNDARIES (HONEYCOMB RECEPTORS WILL BE GENERATED ONLY FOR
THE AREA DEFINED BY THESE BOUNDS)
NOTE, IF BOUNDARY VARIABLES ARE INPUT AS ZERO BOUNDARIES WILL BE THE SAME AS
THE AREA SOURCE REGION. HOWEVER IF NO AREA SOURCES ARE INPUT AND IF
HONEYCOMB RECEPTORS ARE TO BE GENERATED, THIS CARD MUST BE INCLUDED
TO PROVIDE THE BOUNDS FOR RECEPTOR GENERATION.
CRIDSP GRID SPACING (DISTANCE BETWEEN) FOR HOtiEYCOMB RECEPTORS (USER UNITS).
MINIMUM EAST COORDINATE (USER UNITS).
COORDINATE (USER UNITS).
HRMIN
HRMAX
HSMIN
HSMAX
EXAMPLE:
2.0, 570., 578
MAXIMUM EAST
MINIMUM NORTH COORDINATE (USER UNITS).
MAXIMUM NORTH COORDINATE (USER UNITS).
4400., 4408.
CARD TYPE 12 (FREE FORMAT) JYR,DAY 1,JHR,IKST(JHR),QU(JHR),QTEMP(JHR),
QTHETA(JHR) , QI1L (JUR)
THESE CARDS CONTAIN HOURLY SURFACE METEOROLOGICAL OBSERVATIONS AND ARE
REQUIRED ONLY IF IOP(11)=1. THERE SHOULD BE A CARD FOR EACH HOUR TO BE
MODELED. IF IOPT(11)=0 THE MET DATA IS ASSUMED TO COME FROM RAI1MET.
YEAR OF MET. DATA
JULIAN DAY OF MET. DATA
HOUR OF tlET. DATA
STABILITY CLASS FOR THE JHR-TH HOUR
WIND SPEED(M/SEC) FOR THE JHR-TH HOUR
AMBIENT AIR TEMPERATURE (DEG-KELVIII) FOR THE JHR-TH HOUR
WIND DIR.(DEG) FOR JHR-TH HOUR(FROli WHICH THE WIND IS BLOWING)
MIXING HEIGHT(METERS) FOR THE JHR-TH HOUR
JYR
DAY1
JHR
IKST(JHR)
QU (JHR)
QTEIiP (JHR)
QTHETA(JHR)
QHL(JHR)
EXAMPLE:
73,1,1,4,6.17,269.82,33.0,429.11
50
-------
*********poSSIBLE DISK OR TAPE INPUr TO RAM *****
1) ANNUAL OR AVERAGE EMISSION DATA IS REQUIRED FOR THE EXECUTION OF RAM.
THE MODEL EXPECTS THESE EMISSIONS ON UNIT 9 IN THE FORMAT AS OUTPUT FROM THE
EMISSIONS PREPROCESSOR, RAHQ. SEE RAMQDOC FOR A DESCRIPTION OF THE INPUT DATA
FORMAT.
2) HOURLY METEOROLOGICAL DATA CAN BE INPUT VIA CARDS AS DESCRIBED ABOVE, OR
CAN BE INPUT FROM DISK/TAPE ON UNIT 11 IN THE FORMAT AS OUTPUT FROM THE MET.
PREPROCESSOR, RAMMET. THIS OUTPUT FORMAT IS EXACTLY THE SAME AS THE OUTPUT FILE
FROM THE MX24SP( ALSO CRSTER) PREPROCESSORS. THE ONLY DIFFERENCE BETWEEN THE
RAMMET PREPROCESSOR AND THE CRSTER PREPROCESSOR IS THE GENERATED RANDOM NUMBERS.
SEE RAMMETDOC FOR A DESCRIPTION OF THE INPUT DATA FORMAT.
3) HOURLY POINT SOURCE EMISSION DATA CAN BE INPUT FROM DISK OR TAPE ON UNIT 15.
RAM EXPECTS EMISSIONS, ONE RECORD FOR EACH HOUR, AS FORTRAN WRITTEN UNFORMATTED
RECORDS CONTAINING THE FOLLOWING DATA:
VARIABLE
IDATP
SOURCE(IPOL,I),I-1,NPT
DESCRIPTION
DATE(YYDDDHH) WHERE YY-YEAR,DDD>JULIAN DAY, HH=HOUR
THE HOUR'S POINT SOURCE EMISSIONS(GRAMS/SECOND)
FOR EACH OF THE POINT SOURCES IN THE ORDER IN WHICH THEY
WERE INPUT INTO RAMQ.(IPOL HERE IS THE POLLUTANT TYPE AS
SPECIFIED AS INPUT TO RAMQ, 3=S02, 4"PARTICULATE)
4) HOURLY AREA SOURCE EMISSION DATA CAN BE INPUT FROM DISK OR TAPE ON UNIT 16.
RAM EXPECTS EMISSIONS, ONE RECORD FOR EACH HOUR, AS FORTRAN WRITTEN UNFORMATTED
RECORDS CONTAINING THE FOLLOWING DATA:
VARIABLE
DESCRIPTION
IDATA
ASORC(IPOL,I),1-1,NAS
DATE(YYDDDHH) WHERE YY-YEAR,ODD-JULIAN DAY, HH=HOUR
THE HOUR'S AREA EMISSIONS(GRAMS/SECOND)
FOR EACH OF THE AREA SOURCES IN THE ORDER IN WHICH THEY
WERE INPUT INTO RAMQ.
NOTE: IT IS ASSUMED THAT THE USER WILL SUPPLY HIS OWN SOFTWARE TO PRODUCE THE
HOURLY EMISSION FILES COMPATIBLE WITH THIS FORMAT.
*****POSSIBLE DISK AND PUNCHCARD OUTPUT FROM RAM*****
1) CONTRIBUTIONS (MICROGRAMS/M**3) FROM EACH SOURCE TO EACH RECEPTOR
ARE WRITTEN TO A FILE(UNIT 10) EACH HOUR IF PARTIAL CONCENTRATION OUTPUT IS
REQUESTED(IOPT(8)"1). RECEPTOR LOCATIONS ARE ALSO RECORDED EACH
HOUR SINCE THEY WILL CHANGE WITH AVERAGE WIND DIRECTION IF GENERATED.
SEE PARTC FOR FILE FORMAT.
2) PUNCH CARDS CONTAINING POINT AND AREA TOTAL CONCENTRATIONS AT EACH RECEPTOR
FOR THE PERIOD BEING MODELED MAY BE GENERATED. SEE PUNCHCARD FOR FORMAT.
*************************************************!
THE FOLLOWING ECL IS NEEDED TO EXECUTE RAM USING
THE URBAN SIGMAS. THE PREPROCESSED EMISSION FILE, REFERRED TO AS
RAMQOUT IN THE EXAMPLE , MUST CONTAIN THE PREPROCESSOR
OUTPUT FROM RAMQ WHICH SPECIFIED THE USE OF URBAN SIGMAS.
THE METEOROLOGICAL DATA CAN BE INPUT EITHER FROM DISK OR CARDS.
THE EXAMPLE ECL DEMONSTRATES MET DATA INPUT FROM CARDS IN FREE FORMAT
(PARAMETERS MAY BE SEPARATED BY COMMAS OR BLANKS).
51
-------
THE HOURLY EMISSION DATA CAN BE INPUT FROM DISK OR TAPE.
THE EXAMPLE ECL DEMONSTRATES HOURLY EMISSIONS INPUT FROM DISK.
TO FACILITATE CHECKING TEST RUNS AGAINST EXAMPLE OUTPUTS GIVEN IN THE
USERS GUIDE, THE HOURLY EMISSIONS DATA USED WITH THIS TEST RUN WAS
THE SAME AS THE AVERAGE EMISSION RATE(INPUT TO RAMQ) FOR EACH HOUR.
*****EXAMPLE ECL STREAM*****
@RUN,D/R JOBNAME/40,ACCNT-NO/USERID,PROJ-ID,1,50/60
@PASSWD PASSWORD
@ASG,A RAMQOUT. . INPUT EMISSION FILE FROM RAMQ
@USE 9,RAMQOUT.
@ASG,A PARTCON. . PARTIAL CONCENTRATION OUTPUT FILE
@USE 10,PARTCON.
@ASG,A RAMHPOINT. . HOURLY POINT EMISSION INPUT FILE
@USE 15,RAMHPOINT.
@ASG,A RAMHAREA. . HOURLY AREA EMISSION INPUT FILE
@USE 16,RAMHAREA.
@XQT A999*UNAMAP.RAM
RUN BY: ED KRENSHAW, AIR & HAZARDOUS MATER. DIV., APB, REGION XV, EPA(1 JAN 78)
EMISSIONS: TEST CITY, 1973
SFC MET DATA: TEST CITY 1973; UPPER AIR: TEST CITY 1973
1,1,1,1,1,1,1,',0,1,1,1,1, 1, 2, 0.0, 14400., 5, 10, 73, 001,1
1 7
.75, 25., 3, 11. ,15.,20.
13., 17.
0 0
RECEP 1 566.00 4405.0
RECEP 2 564.5 4401.5
2.0, 570., 578., 4400., 4408.
73,1,1,4,6.17,269.82,33.0,429.11
73,1,2,4,4.63,271.48,23.0,401.7
C
C*******************************************-**************************
C
C THE PRECEEDING RUN STREAM HAD A RUN TIME OF 16.65 SECONDS
C ON THE UNIVAC 1110 AND REQUIRED 39-K WORDS OF MEMORY
C (APPROXIMATELY 11,511 WORDS FOR INSTRUCTIONS AND 26,959 WORDS FOR DATA)
52
-------
RAM-OUTPUT EXAMPLE
Figures 3 through 5 show the spatial relations of the 12 point sources,
the 15 area sources, and the 41 receptors used in the example problem. This
emission information is used in the example run-stream for RAMQ on page 20.
The run-stream for RAM for this example is given on the previous page (p. 56).
Figure 3 shows the locations of the 12 point sources P-l to P-12 in rela-
tion to the area source region (dashed lines). Also shown in this figure are
the 10 receptors (numbers 3-12) generated downwind of the 5 significant point
sources (sources 7, 5, 8, 9, and 11).
Figure 4 shows the locations of the 15 area sources (A-l through A-15)
and the 10 receptors (13 through 22) generated downwind of significant area
sources.
Figure 5 shows the locations of the 2 input receptors (1 and 2) and the
19 honeycomb receptors (23 through 41). Note that, because of the existence
of receptors 5, 6, 7, 8, 9, and 10 due to significant points and receptors
13, 14, 15, 16, and 19 due to significant areas, a number of the receptors
that might be in a regular pattern of honeycomb receptors are not required.
Each prospective candidate position for a honeycomb receptor is examined to
see if it is within one-half the spacing between honeycomb receptors of an
already existing receptor. If it is within this distance, the candidate
position is not used.
53
-------
C/5
cc
I
111
o
CM (- ^
~Z a.
co O •
LU Q. w
CJ |_
ii
co —
0°
• O
1
1 ^CM
I ^ "~
1
1
1
1
u
! T0 "pAv. CD
! in
1
1
>~ 2<%
| ^ 2
! 2^3
r
i *"•' •
i
L
1
I
1
i
!~ *•
1 a.
1 °?
[."••
2*
i*.
d.
9 n
O ^
Q
^—
~~
_
CM
r-
0.
•
_
00
in
CM
00
in
s
in
00
in
CO
in
s
in
CM
in
o
in
^
(O
in
CD
(D
in
V*
E-
la
o
a.
c
o
Q.
4->
C
to
o
•r-
fC
o
0
in
CM
CD
ID
ro
cu
t.
CT)
CM
O
§
(O
en
54
-------
V)
cc
O
£
UJ
O
UJ
— HI
<*<
01 **•
O H
oo
Mo:
S5
tfO
< CO
O
r-
<
O
i—
<
C55
<
00
<
CO
<
S2 CM
<
~ 1
CO
<
CM
<'
o
CM
3
<
CO
S
in
CM
oo
ID
O
oo
ID
00
1^
in
(O
r^
in
in
O
r^
in
at
JQ
2
CL
o.
E
re
x
O)
S-
o
-(->
Q.
o;
o
CD
i-
(O
0)
s_
(O
c
re
o
c
CD
•o
c
re
cu
o
^
oo
to
re
cu
s-
(O
<£>
in
c
o
s
in
re
o
o
CM
u>
in
en
00
(O
o
CM
O
O
o
00
tfl
O)
CO
55
-------
o>
co
CC
5 I
co UJ
CC O
O "i
o s
ui o
CC O
11
CO
CN
CO
in
CM
l_
O)
Im
CO
PO
0
CO
CO
CN
s
in
CM
oo
in
o
oo
in
oo
in
.a
o
s_
Q.
O)
'o.
E
03
X
01
co
O
Q.
QJ
O
S-
_Q
O
O
fC
00
S-
o
•4->
Q.
O)
o
OJ
S-
co
c;
o
(O
o
o
O)
S-
CD
(O
o
3
CM
00
8
56
-------
uu ui
K -I
2
M UJ
is uj
z a
UJ <
-i a
a
in i/>
a
l-i UJ
U
ae
Ul 3
oe O
«
*
*
41
4t
4(
*
*
4t
«
*
«
41
f
*
jjt
*
41
41
*
f
*
4
41
*
*
*
*
41
*
41
41
41
*
« *
K
<;
oe
X
O
ac
u.
H-
3
O
h"
Z
HI
ct
a.
UJ
-J
OH
4
X
UJ
* «
* *
*
41
*
41
41
41
41
*
41
41
4t
*
41
41
41
41
*
«
4t
4t
4f
41
*
*
41
41
41
4t
41
41
41
4>
4C
41 41
*s
00
N°
Z
4
•^
T-
w
4^
a.
UJ
»
>
x
z
o
HI
ID
Ul
ac.
„
•
^
HI
f)
•
ae
Ul
SEVERAL DA
ae
o
UJ
z
o
o
Hi
z
o
HI
H-
ro - a.
Hi ^
HI
u ae
o
H. u.
CO
uj c
K «c
ac
*i
ae u.
HI O
Z
o
Hi
*- x
a. o
O HI
t-
UJ ft-
ac o
0
Z UJ
10 CO
HI 3
II II
O i~
«l
z
o
HI
H>
^
U
HI
U.
HI
U
UJ
0.
CO
o
HI
H-
a.
o
CO
UJ CO
a. ac
< 1- UJ
H. 3 on
-~ a. ic
U K 3
CO 3 Z
HI O
at
3
O
t-
<:
a " a
z •
<• O I- 00 Z
>- Ht uj *-i O
CD CO C I-l
CO CO I—
Z HI u HI a.
3 1C u. x O
CK UJ CO Hi
JU
r-
ae
ul
ID
a
DC
O
Z
ae
3
o
co co
Z
»- o
Z M
< co
a: co
o ae ]M
Hi O O _J CO CO
ah- >- ae a: o
ui a. 3 3 ac
U UJ Z O O «
Uj CJ UJ X h- U
co a: uj co i- z
ac ae ac t- >- o C
o ^ o HI a: o o
< H- z < i- oe< oe
Hi O- HI UJ O. SEOCU.HIHI
a. «3U.«HIUJ
UJ UJ 3 U CO I- Z
Uv OC I— Hi CE Q, Z CO « tS >-
U ZZ Hi O >• Q Q i-l J
a^Hi<-O
COZU>kkO^< EU.X
1
O >-
ae HI
u. Z
3
II
oc
3
o
X
' 10 -I
> 3
ae
O
Z 0
M O
o
_l O
< •
ae r\j
O
-J Ul
HI ac KI
* u
X II
O H -J
>» O
sr K a.
K1 < M
0~ X
O H- UJ
-o u
• a z
r- uj HI
a.
Q
O a: uj HI M
o. < a. co co
at
<
3 Cvj
O O
UJ -J CO
ac <
CJ
ae
co o
OC HI U,
X H- CO
>— M HI
I I
3
a.
z
z
Ul
co
O H.
1-1 ae
cc t- <
UJ to
a. x '
x *
to Z
oe O
UJ CJ
K- ul
Ul to
f:
O
o o
o •
o o
• o
•*
Ct .J
O u.
0, X
ae
o
co •
ae -^
3 ro
O w
X ui
<£ X
O
O HI
at
UJ I
a. i
Z
3
uj o ac
i/> z j»
t- O I- CO
i-« Z Z «
Z O O X
3 U U K
o x O
ID a.
Z CD a:
H< z o a
Ul M K UJ
< K a. e
ac ac ui 3
UJ « U CO
> Hi Ul tO
< co ac <
57
-------
Ul
CD
oe
3
o
OK>»
K h-irioo'Ois.oO'OOooiniMio
W •••••••!••••
-J Klf\Jtr\l»*-*l«-|OOin«»fVI«»M
Kl r- CM «-Kl«- «» t- >»
K a: ^
< x oooooooooooo
flt >- ^;w «-K)ro9-aopomeomoo«-o
1C ui >-i < « ••••••••»•••
T- W H H I— K f\J-Owr\OOO-OOO>O'OK10OKl
M ujzuj i/>x oor»-(Ni~j-«-rvj-j-f\j ot-o
< K 3 O l-i
a. ui ac -J
ui o to o
» v> uJ aJ u
> z M w u in in
K M UJXCK ac roooooocj
r^ WH-3 3 O.C KlOfVJMT-OOOOOOO
Z O CD O O U>« •••••••••«••
o^* afio CA^^CO K)Nroocjtr\
M coo >— >- < u. K- KCEM
UJ I- XX Z < E
ct 1-1 o M >-i a. ui
i_> en ui O O
• iu a. tv
> H- u 3 «
> to a co uio o>»-t>fi>»oo>»o
M uj aaiv) aiz Ki>roo«-Lr\^j--oojuii^-r\i
a (- OCDUJ (OO ••••••••••••
CO -I *»l-4 !MOI>'->OfM'OK)OOt>-O'O
• >• 2 O U3CO hilT.r-Puf\J KtKVKIOr-fVJ
a: a o (- K oe «co r«j»- MTsi
UJ M HI Z O fM 1-1
H. < H- M UJ OK
^ < O oe. *A co uj
K » •*"•* •« M
< •« uj z>o a ~r^r-«Nr-«^«<««r^^sr
M u r\j «» o.
< m at ^- «o K Be
3d r-- 3 uj HI auj otntntf>o%ro>Ainooo
mo o biv H- oe co
MN-t- CO OCUJKI CO O 3
o CKSW «ov
K*-V H o o z uju i
M H 2 u.to< l
« HI HI U
» U O X H w r-
• >• a. o z u. r>
31 K h- HI HI W
< HI I/I H> O Z
x o iu « a. u>
(Oh- K M O
z H- at K co
ul <0 •• O Z
K uj < u.j
^ H> I— zwO U< «- _IJ_l_!_l_l_)_l-)_f_l_l
>«Hiui cOHfOtA CVfiX&A*(L(L&CLQ»QuA»A*
CD co K 10 co
10 HI Ul *-
-------
a
a
ac
3
O
in
o
O
a
o
O
O
DC
O
a
ui
O
o
• o
O f» O
o«- o
, AIR & HAZARDOUS HATER. DIV., REGION XVfEpA(1 JAN 78 >
Y, 1973
CITY 1973 ; UPPER AIR: TEST CITY 1973
* t-
< HI
X U
bl
Z H-
UJ (/>
ex. ui
U H*
O 1*
UJ VI
Z
• • o
>- HI
in bo
bO
Z M
3 K
ac ui
H-
bO
UJ
f—
1*
•c
^*
4;
a
•
K-
UJ
C
u
u*
bl
AREA SOURCE INFORMATION
ON FOR 15 (NAS) AREA SOURCES HAS BEEN DETERMINED BY RAM8
M
*-
•c
C
(X
O
u.
Z
H-I
j£
O
M
(/)
V)
M
t
Ul
A SOURCES ARE TO BE USED FOR THIS RUN
LU
Qt
«t
f.
JE
^
O
M
U.
*1
JJ
^
M
(/)
O
r*
IF1CANCEUKAS) FOR 10 OR LESS AREA SOURCES DETERMINED BY RAMS
9 2 10 8 7 13 12
z.
uj
HI
bo in
U>
O
a. 10
Ul
o
ac
O
^
Ul
X
^—
M
H-
X
z
UJ
bO
O
H-
X
U)
HI
UJ
X
«t
UJ
QC
4(
U.
o
a.
UJ
CD
£
3
Z
r-
HI
Ul
X
^_
z
HI
0
a.
^
^
Ul
ac
CD
OURCE HEIGHT WHICH IS PHYSICAL HEI6HT(FH)= .750
bO
<
Ul
ac
•x
u.
O
^
O
HI
H>
U
<
OC
u.
FOR AREA SOURCE INTEGRATION TABLESCXLIH) IN USER UNITS = 25
UJ
(_»
z
«
H-
bO
HI
0
b»
0
h-
Hl
E
HI
_/
AREA SOURCE 6RID IN USER UNITS:
UJ
X
H.
u.
O
V)
UJ
HI
ae
•c
^
z
3
O
m
RWAX= 564.000 SHIN= 4400. QOO SHAX= 4408.000
ZE) OF AREA SOURCE MAP ARRAY(IA) IN INTERNAL UNITS = 7 EAST-W
O HI
O bO
O bO
• HI
O
Is. X
u-\
Ul
ISI
HI
II Ui
Z ac
HI HI
£ •"
ac uj
IS)
HI
I/I
H OOOOOOOOOOOOOOO
UJXK OOfMUtO lAOrsJOOOOOO
ooooooooooooooo
h- Z
U) 3
bO
3
>•
<
ac
If.
<
a.
c.
u
OC
3
o
r- ro in O
v— r- t-
Ci fM sT O
c^ o m sr
f 1 ^ ^ (IT]
AJ
W Z
UJ O
ac ui
«
a.
rvi
*
«
E Z
I O
O HI
Ul bO
(M
o
uo
ac O H-
O O HI
Z o Z
3
ac
a ul
H- OC
bO O 3
< O —
OC
3
o
bO
ooooooooooooooo
oo ooooooooooooo
oooaooooooooooo
ooooooooooooooo
ooooooooooooooo
ooooo
I I I I I
ooooooooo
I I I I I I I I I
ooooooooooooooo
oooOi\irM**O'OO'O>j>j-rM(M
OOOOOOOOOOOOOOO
ooooooooooooooo
59
-------
00
0.
Ul
X tr\
N-
Z O
O r-
U> >•
UJ »-
•
a:
UJ
O
o
(si
X
a.
a.
t- K «
ec o «fl
O O K
Z U IH
at
O UJ
H> ae v>
M o 3
< o »*
uj o
o o
O Ul
in i-
o o
•* -»
o o
o o
•o •*
K> O>
IV T-
» U (E U
. >- O M
t- I- K u.
o ui UJ H
Z t-
Ul
OC Ul •
U H I
a " :
UJ
& a.
UJ Ul
jj^jf *•
UJ U
a
a.
u o t-
1- rH UJ
O> «n K
V>
Z M U
3 K "fc
o: ui trt
o
a.
ui
w
Ul
QC
60
-------
<->
UJ
X *^ CD O i
O. K ..........
w w oooaoiC'G'Osr-4'O-u
3
00
Kl
X Kl
f.
2 l>
O r-
H»
u> >-
UJ H-
U. i~<
ac
UJ
a.
a.
X O
v»
UJ
at uj
W K
"0
»• M
ffi M
3 K
at uj
V (M 00
I ao •*
a. u> • •
E UJ &. r-
UJ O -ON.
K
UJ W T- O
Z t- t- N-
I-C I • •
x to o »-
1-1 I-H I\J O
K UJ -JJ- •*
UJ V) ^ ^
UJ >« • •
a. K o •<•
< < M O O
O I- U3 O O
UJ UJ • •
H X O Kl Kl
UJ h- ** Kl (M
3 ac
o. 3
z o
II
O tf\
UJ -O
UJ • •*
Q- O
-
O H-
Z II 1-4
M 0. _l
3 C M
UJ Qj
t- t- *
z t-
< IU «/>
I- U>
-J « -4
3 at <
CO UJ O
01 > O
cc < 1C
(A
z
o
t- o«
r» o>
M • •
t- oo II
•-C (\J O
a uJ n
Z UJ UJ
O II 0. O
0 Z M Z
O UJ
>- M a H-
UJ K Z M
VI
K
O
o.
UJ
o
a.
»
(M
•*
oc
o
OOOOOOOOOO
o
CO
<
Ul
K
OOOOOOOOOO
<
h-
_)
3
QC BC
M UJ UJ
O U> B.
o at o
Z UJ Z
Ul 31 < JB
IX
o
t-
a.
UJ
u
Ul
o
H
CL
Ul
OC
-------
tt
(U
tn
O
at
LU
ot
UJ
a.
to
<
a:
in
M
X
O l-
o
oo a.
o • o
o rvj u.
•
it jo a
>• o u uj
LU •» W) I—
•* K «
a M ac
UJ Z UJ
a II 3 z
Z X UJ *
3 < OC UJ «
o IE uj «
a> v> •
2 it a
tn o o o
H-I o «c M 1-1
ac o »«« K oc
O « • < ui
I— oc o « o a.
a. o o a o
uj t- -*• i/> -J uj
U EL •» O Z
UJ UJ ** a t^
a: o an z u>
UJ II U) < <
m a z «* tr
E i-t V>
o *: to o uj «
^ O »- ffi
UJ <-> O Q- JE u>
Z >- O UJ 3 Z
O uJ O O Z M
X Z • UJ a
oo ac f>-i*.t>-ooaotaK»K\M'O'O-otxo>c>.oo-ai:uJ
O 100 OOOOOOOOO-OMfOfOflOOO^t^-N-l^-KOuJ
uj in oj x*************>*<***h-o
< CO O KOOOOOOOOOOOOOOOOOOOuJOe
Ct O O-T^I~T~T^-~J^r-»>I>»>r'T^'^T-J>T~r-J^JOQ.
uj on f z-*f~J*t*t**-J'*-**t-i~i*r**-i-J-f*3-&m
Z UJ X UJ BC. UJ
LU Ct < Z X
U? Lu C O UJ h-
> Ct X OOOOOOOOOOOOOOOOOOOX
o ooooooooooooooooooot-
UO Z »-»«t»»«»««»««««»«»««
o uj «'M^'Ot-(omr-(NJ«»'O«r-Ki^-f\j'*'OooO"
UJO UJ uju^ininmLnmiAi/^LniAmLnmLnknLn4r\i/^tnK
OH- O
O r- uj z
h- LA 00
UJ
< uj at
UJ U O <
ct II Z h-XXXXXXXXXXXXXXZXXXXuJ
< z < a. -i
62
-------
i-i in
o uj ooo-roh-o-i\i«-(Mi-o>o>*O'O«»o>oroooom»r»o«-(vrJoOKioo<»oooo-»oe*aO'O-»rMoor>-oouiKiO'OOOoooo
t-_J3 •••••••••••••••*»•*
O.JO moorooOdji/%<\jKii"OvJ/ r- Is- ro
OC U. OOO>rAr^O(M-«O«-O>-«4(VlOOOOOOOOOOOOOOOOOOOOOOOOOOO
a _l M I- OOOOu-\-J-sOKlO-Mr--ciN.r^OT-KiocoooooooaciooooooooociooooooooGoo
UJ
u
OC
o
te
o
a.
z
<
o. ac.
uj o
• at
> u.
X M
Z o- ro
o r- « ooooooooooo-oooooooooooooooooooooooooooooo
_ « OOOOOOOOOO^TPJOOOOOOOOOOOOOOOOOOOOOOOOOOOOO
U) >- £ tn t- OOOOOOOOOOK100OOOOOOOOOOOOOOOOOOOOOOOOOOOOO
UJ K- *«. «- • ••«•««•••«•«••••«•«»«••«•«•«••«•••••«»«•
oe M trt fO >»
U C M O-
• < •* »-
• i- oe
> «n u5
W UJ O
A »- a: OOOOOOOOfMirtOOOIMOOOOOOOOOOOOOOOOOOOOOOOOOOO
W OOOOOOOOOOOOOOfVIOOOOOOOOOOOOOOOOOOOOOOOOOOO
• M HI >* O O CJ O O O O O O O- l/. C' CJ C Vi CJ O O O O O Ci O O O O O O t< O O C) O O O l~i rj CJ O O O O
ce ae K «•«•«••••••«•«•••«««««•««••«•«•««•••«•«««
K < Z O CO K>
< O N- (M
c ae M
UJ t-
v> a. a
s o. a> oooooooor-iAooo^oo 0000000000000000000000000
o 3 M oooooooi*-ooooooooooaoooooaooooc3ooooooQoo
O (K Kl OO OOOOC'O^IMO-roOOOVAOOOOOOOOOOCJOC'OCiOOOOOOOCJOOOO
ae H> ••«•••••
< •» Z r- •* I
MO 1^0
« Ki o •* ru
w (- (M U-> OOOON.OKI-»»-t-OOOineXOOOOOOOOOOOOQOOOOOOOOOOOOO
< M •••••••••«••••••••••••••••••••«•••«•••§••
* U K) 00 N
• >• (V) «O
2 I- K N- K1
< M V>
X O UJ
M K
Z I- OOO-rOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOO
UIMM OO»OOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOO
OS UJ < t- r» OOh-rviOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOO
K K K •••••§•••••»••••••••••»•••••••••••
< in ao
O >• O fo r»
uj • "1 UJ X UJ
a> K < w a.
M ae aeui*-r\iro<«in'«N>wo>OiriMKi4'm<
SEI-lO 9W »~»*»-*-»~l~(
a K u. o ui
ae ui in vi ee
63
-------
« «C OOO O* «• N •* OO O •» O«O T> «W f •* K> * Or- •» O •*
O _J O *"<-(M«M«MKI
HlAUl • «
OW«e r- ^ ru (MM M 1*1 K> ««• r- »• «-
M
r- ac
a oooG(Mm<*«or-K)OOK«*ooo>oooooooooooooe>oooeooooo
o oooo^Ktr-N-Kirooo^iA'OOO-tfOooooooooooooooooooooooo
X O M OOO OlNi MO OO OO O f- O t- O O OO OO •* O O O OO OO O O OO OO OO OO O O
M «k O O O OO O O O O O D O r- O O O O O O O O> D O O l«- O O O OO O O O O O O O OO O O
t- K> OOO OO OO OO OO O -O OO OO O O O < O O O (V OO OO O O OO OO OO OO O O
< K » Kl O O O OO O O O O O O O O O O O O O O O ITi O O O ft O O O O O O O O O O O O OO O O
ac r- •*•••••••••••••••••••»•«••••• ..... ••.*•••
0.
IU
in
t/t
ttl
W OOOOOOOGOOOOGOOOOOOlftOOOOOC-rviOOGGOOOtOOOVOOOO
•» a: OOOOOOOOOOOOOOOOOGG»OOOOO(Mr~OO«OOON«rOl p ....... i ..... ....... ........... ........ ..
OOOOOOOOOOOOOOOOOOmOOOOOOO-*f\JOO»-r^OOOCDOOK)OOO
GGOGGOOOOOOOGOOGGOOOGO*-OOr-r\JOO«-(NJOOOOGO^OOO
.
» z
K)(MO»GOON'(IOGOOOOOOiriOOOGOG«}OOOO-OOOOOOO^
X v> OOOOoOl^rgrMIMr-OOOT-MOOO-OOO-OOOOOOOrdOOOO^OOOOOOOO
O. < C
o
ac «
>
«
at o> K>
O- r- * OOOGOOGOOOOOOOOOU-tOOOOGOmQOOOOOOOOOOQOQOOO
1-1 * OOOOOOOOOOOOOOOOKIOOOOOO^OOOOOOOOOOOOOOOOO
W >• f in (M OGOOOOOGOOOOOOOOrvOGGOGGQOOOOOOaOOOGOOOOOO
Ul I- «. .................t. ........ ..... .........
ac M «rt W
M UJ O
O K OC OOOOOOOOOOGQOGGrgu>Kir-inOOOOI^-'Ol_)OOOOOCjOOOOOOOC. OOOOOOOOOOO
O O *•* OOOOOKIOOf— rNJfMOO«)-Or--OOOOOOOOOOOOOOOOOOOOOCJOOOO
O Ct K) in OOOOff.G-*«»KinOOOK)fMOOOOOOOeiOt)OOOOC)OOOOOOOOOOO
Of t~ ..!.•........ ............................
« •» Z r- .-
N O
« Kl Cl
X IV.
Kt O«
a« h- r-
O OOOOOOf<-f^aoinOOOf\JOOOOOOOOOOOOOOOOOOOOOOOOOOO
Cf r- >• OOOOOO^rirtJO-OOOOinOOOOOOOOOOOOOOOOOOOOOOOOOOO
M 1— f^ Kl OOOOOOOO^IMKlOOOKtOOOOOOOOOOOCVOOOOOOGOOOGOOOO
< M .........................................
* o r- »* (\j r\i (v
• V
"* I- K
< M
X U UJ
H
ZH OOOOOOOOOOOOCJOr>-OOOOOOOOaOOOOOOODOOOOOOOOO
uj 00 .1 OOOOOOOOOOOO^OOO-OOOOOOOOOOOOOOOOOOOOOOOOOO
Ct Uj < t- -* OOOOOOOOOOOOO-OOOOOOOOOOOOOOOOOOOOOOOOOOOO
li )_ (_ .........................................
< OC CeiU
Zi^O 3*-*
3 E a. O at
a: ui bo en ac
64
-------
K Z
Z <
LU OC
(M f\Jf\j»- u, O
OC -J
o- o O»
r- IVI
a,
LU
O <
a
3
O
X
K'I
IV.
o>
o «
CE UJ CO
%— U. ft: LU
< U
» _J fit
• < _l O
vt H -J O
r- O <
r- »- OJ (M f\J Kl
Ki Ki «- »- -i 3
K Z O
O U) CO
Q.
13
O
cc
D >-<
O
it
C
ae
ooa
co
u. h-i u
O CJ
_l Q. o:
< =1
t- -I O
O _J CO
I- <
o> o a-
r- (M
ac a; rn
t Z
O 1-1
a O v>
U. Q. UJ
O
_J U. £K
< >H 3
I- i: O
O UJ V,
OO(>^>O»-|v.T-KlOOKlKlKlNK1inOOOOOOOOOOOOOOOOOOOOOOOOOO
ooooovji^-oocj-* m«-o ^Kirvio-ooooooooooooaoooooooooooao
t O t> O u-' -4 «, K. -o •«) •» r\J ao *> h- O C_' o O O C' O O Cj O Cj C_. CJ O O O O O O O CJ Cl O O O t_J
IX
a:
Kl O
r>- <—
o-
CB C
*••* ^—
x x
O o »— r\j
ooooooooooooO'O-oacf. oooooaoooooooooooooooooo
* CJ
•• >•
.* I- t~
< »-» CO
X O u.
UJ CO r-
j co ^ m ca
i o t^u -^ CJ ^"
KI Is- <^J ^r MJ CL. o
St u.
UJ CO
o
o
< »^
I- U5
uj UJ
X O M
h- *^ Kl
O
t—
U.
UJ
o
T- r- •« r- •
o LJ o o c. o o o c> o o i
o o c. o
65
-------
O LLJ
a. <->
> r\j ro f\j >j K>
,r\j *- r\i «— rvj
u- OKl^uiOinKlO^Ou-il^OKiOjinOOOOOOOOOOOOOOOOOOOOOOO O-O O
-JHHK- OOro>rfOoCOOOOOOO*to.— O-r^lunOOOOOOOOOOOOOOOOOOOOOOO O* O O
« z ir c c <\jroNvTo«-rNOoof\j^-^f^u^N.
K 1/5 O. Mt-iX>r-C>(\jr-O-O>«- O
o
I
cc
o
o
o
a.
UJ O
• ce
> u-
i>- ^\
O r- * O CJ O O O O & O O O u-\ -C C' O O O O O O O O O O O O O O O O O O O O O O O O O C O O
1-1 * O O O O O O O O O O r'l r- O O O O O O O O O O LJ O O CJ Q LJ O O O O O O O O O O O O O
U) >- C u-> «- OOOOOOOOOCJi-OOOOOOOaOOOOOOOOOOOOOOOOOOOOOOO
uj t- >• i— •«•••••««....••.•••«•.«•••..•«••«•.««•••«
a f-< ci -«• iv-
w JE O «-
• h- Ot
> fj oooooaoooooooiv-ooooooooooooooooooooooooooa
st c» c- c, C' i_. c> 1-1 0 c iv (\, i_' i_i >. fv. L. c o o c- u.. t; c.> <_ c< ci c. c o c < o o o r" o c o o £-" o c o
(t •»•••••••••.••««••••»«•••«•••••*«•••««••«
H- < Z h- o O
< O in (\j «—
Jt. oe >-<
to a. ^3
3 O- Jj 0 O O O O C. fvi Q 1^ sr CJ O C_- ci O CJ >-J O O O O O O O O O O O CJ O O O O O O O O O C O O
O 3 i-i OO t^ r-
O- OOOOO>vr>«—»-OOOOKlr-u-iOOOCJOOOOOOOOOOOOOt>OOOOOCjOO
ae r- >> OOOOMOOOOOOOOO^OmoaOOOOOOOOOOOOOOOOOOOOOOOO
>H f- OJ i/> t_i O O O Ch |v. o O t_J O O O fv. o l/^ O O O O O O O O O O i J O O O O O O O O o C» LJ O O O O
• vj sr (v. in
• >• OO T-
j* I- h- o sr
«C fH H
X W tu
Zt- OK)«-irvOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOO
UJMII OOrOsrOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOO
CC UJ < T- h- OOfvjrv-OOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOO
< O- 00
a >< o ru r-
UJ V>
z • *
"Of- X «
>• I-I UJ Z UJ
DD V) C < U 0.
3 t u. O UJ
dc uj i/s w Q-
66
-------
UJ CO
O —J O *— r— fl ft *O K*> >TroOJc-T-*«~r- r- r-
h- « CO
t— CD UJ • ••«•.»••••«.••••*•••.••.••.•»•»••••••.••
P- t— CO <
f
• M
•
Ki
«— OE
3 O O O C • o f>.J O CD O C O O T- O vj C • O r. d C O C O C, «- O O O O O O O O C O O C O C: O O
I Ci rvi o o o o CM O O O O fi OOOOOOOOOOOOOOOOOOOOI^OOaOOOOOCOOOCCiOOGOCO
O O O O O O O O C O O O O C- O O -C O O O O Cr O a O O CI O
ct oooooooooaooooooooofi&amoo^oooKioooi^r-.ainaooo
13 00 (^ Cj O C t~ C_> O t-> <":' O C COO O O O O C. C •<' C, a r- C Ci fi O C O -c O C C -J >» C > «~ O C Ci O
o c. c, a o o o o o o o c> Ci o c> o o o r- c". o o «~ o o »» r j o o o o c> o o o o
• t- OOOOOOOOOOOOOOOOOOOOOCJ^OCDO-OOOOO«O"JOOOOfMOOO
^ • 2 N UJ O O O C C O C Ci C O O O O C1 C O C. O Kl C O O -J O O O -J C- O O si CI O l.J O O C > irv CJ O CJ
3O r- < .••«••• •••. ••••••••!. •>.4<>«>. •••>.••>•••
N r- o *<~
(-1
2 "-
< 1-H
-) " Z
c/] o
r- i— 1-1 oaoou-vu-vKi-j-ooooroorvoooooo-icjoooooooooooooooooi^-
•** x 1/1 ooaorj(M(M«-oooooo«-ooKiooo'Oooooaoooooooaocjoaoo
< -o o o c.- o r i N» ~i T- <- o r i o o sr C' »i c • o c> o c< c ' f o o c< o cj c o o ci o o c- c i o c o o o K
Q. « JE «- «««•••••««••«•••• ...... ..................
LU UJ O t~
' ue ac
> < u.
X f^l
N »s
20- rt
O «- * O O O O O O O O O C< C' O O O O O 'O O O O O O C. - I- tn (\J OOOOOOOOOCiOOOOOOW-OOOOOOKlOOOOOOOOOOOOOOOOO
ae t-t
o
i-i a! O
a H a; OOOOOOKIKI«-C>. ooounopooooooooooooot-oooroooooooo-o
O(^ c. o > c» c »_' ^ t j c t J c ' c ' c_i IA c.
^ Of, f^ .•.••••••••*•.•••••....*.......«...•....«
lu ^* ^^ ^~
»- < z
«t o
K ac i-i
UJ H
co a. 3
D a. uJ o o o C- tn ^j- r^j t- c- (^ C( o o- f^ oo cj o ct ci o o o c"j cj c.j o o o o o o c> o (j o cj c c< cj o o
O O M O O O O iri O «- i> l> f>- O O 00 O- -* O O O O O O O IJ CO i J O O O O O O O O O O O O O O CJ O
a ac. M u", o o o cj ixi (•"> -* M cj o o o -» c -o o cj c-j o c/ o o c~> o c~> o o c> o c, o o CD o o o o c. o t_- o
ac h- •«•««•«
< •» 2 «- «- »~
Nj O
X t^-
ej) r- t-
». OOOOOOOf<)-*irvOOOOOOOaOOOOOOOOOOOOOOOCJOOCjOOOO
M t— » UJ O O O O O O LJ O O O ( ' O CJ O O O C i C) C ) O O O O i-i O '.'J C) C j f j C i O C)
•< I-I <•••
» LJ fVi (\l f\J f\J Kl
J« t- e-
X O UJ
CO f-
zh- oaooooooooooT-OMOOooooooooooooooooooaooooo
UJCO" OOOOOOOOOOOOMON.OOOOOOOOOOOOOOOOOOOOOOO'DOO
aeui< «- - >-i uj z uj
ffi co I < w a.
30
O UJ
co a:
67
-------
iw O
Ki t- X
«- z<
UJ a:
o
z
.1 O
CO U
K
X (A
UJ
Z IE «•»
o one
t-i a: 3
t— it O
< V)
a: —I
« oooooOoofiu">«jl>"Of"-i/>iOKi«-«- «- «
OOKI 1*1 1*1 in KI
M «- N *• «M
•» K
• o «
o aeujc/)
IM u- a u,
< u
• _J a
• < -J a
tn K -J O
r- O < V>
C-
.00
N-
Z
OtU
QTOCI/I
u. < uu
O
Z i> O
O «- o:
oo
a. a
i o r\i i^ O- n» N. •j- i^- o »- oo ixi -» -t> r~ r\j o C' o o c r- Is- o c «- m u-\ o o ,-x, in r^ o au Ci o O n o
........................................
o-oc>riv-miAO-«-«»Kmi')Kiooro -* COM MI\JOOfOO-«-^» (\J v (M «-CVJ•
t- to t-
H-I uj
a K
jc z omoof~uio-or>jO'O(\ix)-»pj<\joooooooooooooaoooooooooooo
Oi-c o(MO-j-oo~»iMommmu-iKirjinoooooooooooocooooooooooooo
it O U) OCM»lMa,u3>«.1l.jAK,T-OKiir>OC_,t.CJC-OOOl.. C'C.'CJOC!OCjOC'OC.OCOOOtJ
U.O.UJ OC.J(\JI^Or--IO«p--O«-i£>f^-Uu-\OC! <-J O O O O O O O O O O O i_> O O O O O O O O O O O
3 Q. •
a
o
o c j i— 4
i>ooc»ooooc. ooooooooaoooaotjoocio
LJ O fl O IA O -O O
a- r\j r ) pn M M r-
>~ CJ O O O O O o O O O CJ O O O O O O O
uJ (/) »•
a: uj «t
^ »- t-
^s o •
to o O
l c\i C) O O ij (_• O ^j C. O C UJ
O L~> C-i C CJ
3 s: u.
a: ui v.
o
3.
68
-------
out ot-ir>-jD-ooooooof^«— QGo
_J O. O OO»-t«--»T-'OOOr-«»(\JOU-i
ii a Cf OOlT>«»fOO-O'KI(\Jf-f^MO-iri
IK I- -J 3 ......«.«««.«.
Z3 O — JO r\j ,O sj- ,\j Kl in r- <\l f> >O f^J rv
O t- « fO'O«-»(Nj
_
«t z z c o m -i i»- o- >o «•• o a r- ro »• «t «\ c r c r o o o o o o o o o C-1 o c C'dooococ oc
(_UJM •••••••••<•••••••••••••••••••••••••••••••
O'-'O r\ioc>rr\jiriOf-f\jroofMcc»*
O
a.
s:
o
a
< r
a. <
LU at
•• u)
> o
X II IX
IV O
2 O M
O «- ». OOOOOOOOOOCvj^OOOOOOOOOOC. ODOOOOOOOOOOOOOOQO
>-i — OOOOOOOQOO~»rvJOOOC3OOi_iOOOOOCJOOOOOOOOOOOOOOOO
U3 >- Z in T- OOOCOOOOOON-KiOOOOOOOOOOOOOOOOOOOOOOOOOOOOO
m (- o «- «•«»««••••«•••••••«••••••••«•«•••••••«••«
a; ^-< »-« *•*» o
Oh- r- O
• 3 si (\J
• >- to
> w •-<
M Ul IX
O »- t- OOOOQOOOinoOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOO
x ooooooooa-a-oooooaooooooooooooooooooooooooo
• ii o -j o- o c.r c.j o c_. LJ c> c: a.' uo o c, o WT i_> o c> o o c.i L.I ci i_> c. c. o cj o o c< C' o o o o o o o c.- o o
(x a. w .>..•.•.•.!....•••. .>•••>...»••!. •••>.<••
LU 1*1 O N O
(- « Kl 00 h-
•« r\i o PVJ
x: a. o
UJ C^)
go a.
Z> a u, CiOC.]CiOO-*u->(M'JtjCjOO-ClOCjOOOC'OOCJOOOOOClC.JCiOOOOOOO CXO
o 3 JJ oooooo-j-rsjfsjMooor-oooooooooaaoooooooooooooood
O •«; fl 00 OOOC)OO«»-O»-O-OOOOOOOOOOODOOOOCiOOOOOOOOOOOOaOO
at ac ••«•••••••••••••••«•••••••«»••••«••••••••
«-*uj u>^ost^j ^-
>s< > «~ «-
< Kl < •» M
X N-
Kl O OC
ud r^ «- 3
O- O OOOOOON-O-KlO-t-OOO^OOf^OOOOOOOOOOOOOOOOOOOOOOOOOO
«»->- 3: oooa>tt-r>-f^ivooooKivoooc)oooooooooaoooooooooooooo
M I- I f\) in OOOO(OO>«-l\jOOOO»-fMf\jOOOOOOOOOOOOOOOOOOOOOOCiOOO
< rt (\J •••••••••••«•••••••••••••••••••••«•«•••••
• O •* (\J (M •*•
» >• o o>
3; t- I- N- Kl
< t-l trt
X U UJ
t-
Z t- O»-IO-*OOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOO
aioju aor-i^-ooooooooooaoooooooooooooooooooooooooo
a LU < 1- r. OOlTlsTOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOO
^ K K •••••«••••«•••••••••••••••••••••••••••••«
< CM 00
a » a M - n aj Z UJ
ffi V) C < <-> 0.
(A OC 0:iUT-IMK)~»l
D C "• O UJ
tt. UJ
-------
Ul
at ui o
_l <
KiDlU • •••*••••••••••••••
Otiae T- •- f\J to Kl Ki •* Kl «- r- «- »-
Kl
OOOOIOINjKIK)r-«-OOO-t\JOOO<4-OOOU*tOOOOOOOOOOOOOOOOOOO
OOOOru(MOOOOOOr-Or-OOOOOOinOO«-OOOOOOOOOOOOOOOO
o:
3
o ooooooooooooooooooooo>ooo«»oooooooooooooooo
CO OOOOOOOOOOOOIOOOOOOOOIMOOO-«OOOOOaOOOOOOOOOO
O- Kl OOOOOOOOOOOOOOOOOOOOOOOOT-OOOOOOOOOOOOOOOO
< r- • >••••••••••••••••••. •..••..••!••. •!.••••
1X1
a:
<
*-
z
< OOOOOOOOOOOOOOOOOaONOO^OO^KlOOOOOOO^KiOI^-OOOO
W OOOOOOOOOOOOOOOOOOOlAOO>»OOOr\J»-O>»OOOO
t-i 00 N OOOOOOOOOOOOOOOOOOOl^OOOOOroOOOinOC!O>»«»O«-OOCiO
u. •••••••••••••4i*««««»«*««a««a**«««««**«««
»M
z
U)
l-(
«
* OOCJOOOC.OOOCiOOOOOOOr-OOOr-OOO
O OOOOOOOOOOOOOOOOOOOOOO*-OO^-s»OOinoOOOO-*OOoOOOO
a- N CO OOOOOOOOOOOOOOOOOOrMOOC'KiOOOK>OOOK)OOOOOO>rOCO
"» *
C
r- «« OOOOKl(SJKIOOOOOO(\JO^OOOOs»-OOO>rOOOOOO>a-OOOO-OOOOOOO'«)
** OOOOOOrOT--O'OOOOlA(\JOOT-OOO«-OOOOOOOOOO'»OOOOOOOoO
< C O O OC. OO^':K^^^l^J«-^r-OO(^J^-KlOOC^OCCi(^JC.OOOOOOOOOOOOOOOOO(^J
Q. < «- •••••••••••••••••••>•••••<•••••<••••••••*
LU OC
> o
X Kl O£
Z |J> M
O r- £ OCJOOOOOOOOOOOOOO-OOOOOOOmOOOOOOOOOOOOOOOOO
M w OOOOOOOOOOOOOOOO«-OOOOOOT-OOOOOOOOOOOOOOOOO
U3 >- 2 in (\J OOOOC)OOOOOOOOOOO«»OC)OOOO r* C t- C^ C. C L- C^ O O C- O ^ . O Cj O -a O C> O O O Cj i/' C.
vi a.
•^j a. Uj C' O C/ O t^ JC' -j IV •<.' »- O C^ 3 (X (Xj O t - O C O C, O O O O C. O C. O O O C- C O O CJ O O O O C'
O O JJ3 O CJ O O rw >o NJ- r-O O O CJ O yc> f-1 >o o L-J O O CJ O O O O O O O O O O O O O O O O U O O t_l O
G < PO m Ci Cj c C' i— «- sj sj r\j r\j c_ o r\ r\j s» o o o o o C-. o C' CJ o o o o o o C1 o o o o o o o c. o o
a: cc. «•«•••««.•«««••«.•«•«•••••«•••'•«•••••••••
< •* u. r- c- f
'>! >
«t Kl <
X 1^.
Kl O Or
>xJ h- »- D
J- O OOUOOOK1O«-OOGO«-OOOOOOOOOOOOOOOOOOOOOOOOOOO
rxr->- x ooooov-iui-oxoooooouooooaooooopnoaocpoooooouo
i-l K I (NJ r-) ^> L> ^} • J t J , J i,J (X) \f\ <, > . O I h- v J C J ^ ' w) t.,5 C, -! ..^ C^ d "U O ./,. Uj O C ' ~> ',^ O > '~1 O C . O O O '""I O <~
-
A (- K
< l~t i/5
X O UJ
(/> ^-
2 r- oOGOOOOOOOOOr-LiJ-iOOOOOOOOOOOOOOOOOOOOOOOOOO
.u iO •• O O O O O O O O O LJ O "3 J- O .O O O J .3 O O O 3 O O O O O O O O O O O O O O O O O O
auj«c «- -» OOOOOOOOOOOOKICJOUO^C, aoooooooooooooooaooooo
^(_(— ......«......................•..•••••••••
«t K
a •• o
tl l/>
z • «
«• O H* ^ *t
70
-------
z
O
ct
K V.
z z r-o«*u^t— i/NKit^rvjO^rxj^o-Kiu-i^riX^f^^-oo
uj< vi -* «~ t- ru ru ex* *- fv rv f KI rv
o K> *o oc t— t-oori--oo>OP''O^n>e
^ ooin-jo>oo-Ki-»O'X)>»-«-i>t>-«--oo^*sriri«->»>»
O •««••• ......... .....................
co r\joO'O>4ri*iiOKiof^-ors->oo *— KI r\j oo-o rorg^-ix) oo
r»~i *~ O O^ h ~i f"> <,«-*- O O r- r- t— r-f\- v- r*\ r-
i * «-- -C *j ^ c r-- r*t *— O <^i C <- r-J ^J" ro f^ fc u> K -^j »- O a"1
OOOttji— ls-ooojr-OOO-h-OKi»-OOoOMio-o«-T-OKiooi^vOajo<»'Mu^Ni--ja/o>i'
c. ooC'»ir>'ffO(MKir-»-r-MO-ro'CO
•• ac
> K-
x Ki z c OKioul^i7-vT<>r'NJ«-'MOKi4j-o>nOOKiu.CjOint\j(_)oro>>'O^r>o^j-i«iT-<— ~»otjr-rjh-
h- cu Ot— o *~ «* Ki &j oo -o o o oo fv* T- or c>- fvj in O c ' T- f*-> o o N- in O «— N- (NJ O r- o- •* O oo Cj ro o c 5 r- KI o
Z O- O O£j£ OO«-N-^»»-<'OO«--tfMO^i>-OmOJOK>OOO>l>-O«-rv-OO«-OOOin'OOr-OOr--»-O
O T- z u. ^-t uj o O ir> sj- K* O o P»I f\j i^ f*^ r^t o- u"i r- r^ c> o f^j o o o t* j r\j o
IH O O• o *JO.a: <\JOCvojK>tnr-roKi-o«- 000*0 Ktrusi-f*- oo o-
LUK- <3 fO«— OOflfO^t-r-OO »- r-«- fM »-K1 t— (NJ
. K-JO r^-ro-jru-OK-a-tM
<-> cc. O _l to
" < K «t
• t- ac
> en K
M lil 3 t—
O K irt Z. Z OfOoON.OO-OKlrMOO(M(MOu-vM^OOOOOOOOOOOOOOOOOOOOOOOOOO
• "• tt o « o cj *- r«- «r v- ru ui «^ ru < IM KI 4 o o o i_' c.' o o Ci LJ o c.i o o c_i o o ui o C' o c> c< o o o o o
a: a: rvj u- a. uj o o >n »» ci o o « o o r^ ro > «i <\i o o o o o o o a o GJ o o o o o o o o o o o o o o o o
UJ l-i O <^ •«•«•••••••«•••••••««•«•«••••••••••••«•••
t- < (/) «ju»a: tMco^rutA^^iMro^f^oo^
< < 1-1 3 Kl»-OO«-T-«*i>«-O IV.
£ ae ai t-zo r-ro>»r\)'O(M~r(\(
UJ O U) (/>
to a. < h- M
3 a. ix co
O 3 uj
a >
K <
^ •» oo»"rvj-ol^f"-ou^LjOo>*tri
tsi a: omoini~o<\ioui<«jui«.o>o>i
< K! S) X »......«.
I f>- O K LA»-N.vOKlKI«-T-OOOOO-O
i IK oooooooooooooo-oooooooooooooooorioooooonrioo
I o -»>»'*Nr-»'*>»«»-»'»-»«»''iriKi«*^to^^<^'*^r-*^^>4-^'*^>*-*-*-*-*~T«»-»'»>»>»
X <-> UJ « i^u>uib^iriiAinb^b^u^u^b^inb^i^u>u^b^i«irib^b^inb^irib^ir ui
Z K
uj oo "
a: ui <
^ H t- •
•c o
a»o z
UJIrt OOI^f^i^m!>C10OO>{>t-r->»MiriC>-PJOOOI*.KlMOOOOOOOOOOOOOOOOOOO
z • a «.,.
"OK O
>• •-< LU H- - «> c a.
Ui f-ruKi-*moKoOOO^<\jrO'*
ZM
-------
RAM PROGRAM LISTING
C*** URBAN BATCH VERSION(78124) OF RAM
C***RAM IS AN EFFICIENT GAUSSIAN-PLUME MULTIPLE-SOURCE
C»**AIR QUALITY ALGORITHM. RAM IS DESCRIBED IN: NOVAK,J.H., AND
C***TURNER,D.B., 1976: AIR POLLUTION CONTROL ASSOC. J., VOL. 26, NO. 6,
C***PAGES 570-575(JUNE 1976). RAM'S PRINCIPAL USE IS TO DETERMINE
C***SHORT TERM(ONE-HOUR TO ONE-DAY) CONCENTRATIONS FROM POINT AND
C***AREA SOURCES IN URBAN AREAS.
C***SEE RAM GLOSSARY FOR DEFINITIONS OF VARIABLES.
C**»
C*** POINT SOURCE INFORMATION
C***
1=EAST CO-ORD(USER UNITS)
2=NORTH CO-ORD(USER UNITS)
3=S02 EMISSION RATE(GXSEC)
4=PART EMISSION RATE(GXSEC)
5=STACK HEIGHT(M)
o=STACK TEMP(K)
7=STACK DIAM(M)
8=STACK VELOCITY(M/S)
9=PARTIAL CALCULATION OF BUOYANCY
C***SOURCE(9,#PT SOURCES)
C***
C***
c**»
C***
c**»
c**»
C***
c**»
C***PNAME 12 CHARACTER PLANT IDENTIFICATION
C*** AREA SOURCE INFORMATION
C***ASORC(6,#AREA SOURCES) 1=X CO-ORD(USER UNITS), SOUTHWEST CORNER
C*** 2=Y CO-ORD(USER UNITS), SOUTHWEST CORNER
C*** 3=S02 EMISSION RATE(G/SEC)
C*** 4=PART EMISSION RATE(G/SEC)
C*** 5=SIDE LENGTH(USER UNITS)
C*** 6=STACK HEIGHT(M)
COMMON /COEFFS/ PXCOF(6,9) ,PXEXP(6,9) ,PXUCOF(6,9) ,PXUEXP(6,9) ,AXCO
1F(6,9) ,AXEXP(6,9) ,HC1(10)
COMMON /RELC/ CIK(3,200)
COMMON /SORC/ IA(25,25) , SOURCE ( 9 ,250) , ASORC(6 , 100) , UNITS, CONTWO , RR
1 EC (150) ,SREC(150) ,MPS(25) ,MAS(10) ,IOPT(13) , IPOL , NRECEP , RMIN , RMAX ,S
2MIN,SMAX,IRSIZE,I3SIZE,NPT,NAS,NSIGP,NSIGA,PNAME(2,250) ,PSAV(250)
COMMON /METCON/ ACHI(150) ,PCHI(150) ,ASIGS(150,1 1) , PSIGS( 1 50 , 26 ) ,IA
1SIGS(100) ,IPSIGS(250) ,THETA ,U ,KST ,HL ,TSMP ,STNT, COST , 3PH(2) , IhD.PAR
2TC(250) ,AHCHI( 150) , PHCHI( 150) , AHSIGS (1 50 , 1 1) , PHSIGS( 1 50 , 26 ) ,PL(6)
COMMON /HEIGHT/ HIKT( 3 ) ,H ARE( 3) , bPHM( 2 ) , FH
COMMON /METDAT/ QTHETA(2l) ,aU(2H) ,IKST(24) ,QHL(2U) ,QTEMP(2it) , IDAT'-i
1(2)
COMMON /HCGRID/ HRMIK , riHHAX , HS MI,^! , HSMAX
COMMON ITYPE(150) , ICODE(150) , IN , TO , NIP , MD , N AVG
DIMENSION IFREQ(7), DEG(3), HSAV(250), RH A ME ( 2 , 50) , DUMR(24), HLH(
12, 2M), LTNEK14), L:ME2(1i|), LINF.3(14), MODEL(2), DSAV(250), I'-1PS(
225), IMAS(IO), UPRECdSO), USREC(150), TITLE(2)
DATA IFREQ /7*Q/ ,DEG /90 . , 1 80 .
DATA PL /O. 15, 0.15, 0.20, 0.25,0
DATA MODEL /'RURAL
NRECEP=0
MPREC=0
MP = 0
IN = 5
10 = 6
. / ,ICHAR /'I'/
40, 0.60/
RAM0010
RAM0020
RAM0030
RAM0040
RAM0050
RAM0060
RAM0070
RAM0080
RAM0090
RAM0100
RAM0110
RAM0120
RAM0130
RAM0140
RAM0150
RAM0160
RAM0170
RAM0180
RAM0190
RAM0200
RAM0210
RAM0220
RAM0230
RAM0240
RAM0250
RAM0260
RAM027Q
RAM0280
RAM0290
HAH0300
R-AM0310
RAM0320
R AMD 3 30
RAM0340
RAK0350
RAM0360
RAM0370
RAK0380
RAM0390
RAM0400
RAMOU 10
RAM0420
RAM0430
RAM0440
RAKiOf 50
R A HO '4 60
'UHiMN '/ .TITLR /' S02
PART '/
RAM0480
RAM0490
HA '''0500
R A 110510
R A '-10 5 20
RA'10530
72
-------
C***NID-DISK OR TAPE INPUT OF PREPROCESSED EMISSION DATA. LIMITED TO:
Cs**150 RECEPTORS,250 POINT SOURCES AND 100 AREA SOURCES
C***KIP-DISK OUTPUT OF PARTIAL CONCENTRATIONS AT EACH RECEPTOR
C***NIT-DISK I'lPUT OF f-'ET DATA
C***UNIT 15 - TAPE/DISK INPUT OF HOURLY FCI\T SOURCE EMISSIONS
C***LINIT 16 - TAPE/DISK INPUT Or HOURLY AREA SOURCE EMISSIONS
fj ID = 9
NIP=10
NIT=1 1
C***THREE SYSTEMS OF LENGTH AND COORDINATES ARE USED IN RAK:
C*** THE FIRST SYSTEM, USER UNITS, IS SELECTED BY THE USER AND
C*** NORMALLY USE THE COORDINATE SYSTEM OF THE EMISSION INVENTORY.
C*** ALL LOCATIONS INPUT BY THE USER(SUCH AS SOURCES AND RECEPTORS)
C*** ARE IN THIS SYSTEM. ALSO AS A CONVENIENCE TO THE USER ALL
C*** LOCATIONS ON OUTPUT ARE ALSO IM THIS SYSTEM.
C*** THE SECOND SYSTEM, INTERNAL UNITS, IS USED INTERNALLY IN RAK
c*»* FOR COORDINATE LOCATIONS AND DISTANCES. ONE INTERNAL UNIT IS THE
SIDE LENGTH OF THE SMALLEST AREA SOURCE SQUARE. THIS LENGTH MUST
DE IDENTIFIED AND SPECIFIED BY THE USER. THE PURPOSE OF USING
INTERNAL UNITS IS TO HAVE A CORRESPONDENCE BETWEEN LOCATION(GRID
C*** COORDINATES) AMD PARTICULAR AREA SOURCE POSITIONS. THIS IS
C**** ACCOMPLISHED THROUGH THE USE OF THE AREA SOURCE MAP ARRAY(IA ARRAY
C*** ). THIS ALLOkS DETERMINATION AS TO U'lTHIN WHICH AREA SOURCE ANY
C*** COORDINATE POINT RESIDES.
c*** THE THIRD SYSTEM,X,Y, IS AN UPWIND, CROSS;iIND COORDINATE SYSTEM
C*** WITH REFERENCE TO EACH RECEPTOR. TdE X-AXIS IS DIRECTED UPWIND
(SAMK AS WIND DIRECTION FOR THE PERIOD). IN ORDER TO DETERMINE
DISPERSION PARAMETER VALUES AND EVALUATE EQUATIONS FOR
CONCENTRATIONS, DISTANCES IN THIS SYSTEM MUST BE IN KILOMETERS.
***
C
c*»*
***
C***
C***HEAD CARDS 1-3, IDENTIFICATION FOR TITLES.
READ (IN, 940) LINE1 ,LINE2, LINES
WHITE (10,950) LINE1 ,LINE2,LINE3
C***MODL IS INDICATOR FOR JR3AN VERSION.
!',ODL = 2
WRITE (10,960)
C***READ RAMQ OUTPUT FROM DISK OR TAPE; DATA IN INTERNAL UNITS.
READ (NID) UNITS, CONTWO , CONONE , IPOL , NPT , IMPS, PNAME.IMOD
C***VERSION COMPATIBLE WITH RAMQ OUTPUT?
IF (IMOD.EQ.MODL) GO TO 10
WRITE (10,1000) MODEL(IMOD),MODEL(MODL)
CALL EXIT
C***CONTINUE READING DATA TRANSFERRED FROM RAMQ.
10 DO 20 1=1 .9
20 READ (NID) (SOURCE( I , J ) , J= 1 , NPT)
READ (NID) NAS,TMAS,RMIN,RMAX,SMIN,SMAX,IRSIZE,ISSIZE
DO 30 1=1 ,6
30 READ (NID) (ASORC(I.J) ,J=1 ,NAS)
DO 40 1=1 ,IRSIZE
40 READ (NID) ( IA( I , J ) , J= 1 , ISSIZE)
C***
C***READ CARD 4.
C***OPTION LIST***(SEE RUN STREAM EXAMPLES OF RAM FOR DETAILED
C***DESCRIPTION OF INPUT VARIABLES).
C*»*NAVG IS INTERMEDIATE AVERAGING TIME IN HOURS
C»**HAFL IS POLLUTANT HALF-LIFE IN SECONDS
READ (IN, 970) IOPT,NPER.NAVG,Z,HAFL,NSIGP,NSIGA,IDATE,IHSTRT
WRITE (10,1030) (I,IOPT(I)-,I=1,13)
TLOS=693./HAFL
C***693. = 0.693*1000 METERS/KM, TLOS IN METERS/KM-SEC.
IF (NAVG.EQ.O) CALL EXIT
C***READ SFC MET. STATION ID AND 2-DIGIT YEAR,
RAM0540
RAH0550
RAM0560
RAM0570
RAM0580
RAM0590
RAM0600
RAM0610
RAM0620
RAM0630
RAM0640
RAi"0650
RAM0660
RAM0670
RAM0680
RAM0690
RAMO^OO
RAM0710
RAM0720
RAM0730
RAMOV40
RAM0750
RAMQ760
RAM0770
RAM0780
RAM0790
RAM0800
RAM0810
RAM0820
RAM0830
RAM0840
RAM0850
RAM0860
KAM087Q
RAM0380
RAM0890
RAM0900
RAM0910
RAM0920
RAM0930
RAM0940
RAM0950
RAM0960
RAM0970
RAM0980
RAM0990
RAM1000
RAM1010
RAM1020
RAM1030
RAM1040
RAM1050
RAM1060
RAM1070
RAM1080
RAH1090
RAM1100
RAM1110
RAM1120
RAM1130
RAM1140
RAM1150
73
-------
C***MIXING HEIGHT STATION AND 2-DIGIT YEAR RAM1160
C***ONLY IF MET DATA IS FROM RAMMET RAM1170
IF (lOPT(H).EQ.I) GO TO 60 RAM1180
C***READ CARD TYPE 5 UNLESS USING OPTION 11. RAM1190
READ (IN,970) ISFCD,ISFCYR,IMXD,IMXYR RAM1200
C***THE ABOVE FORMAT IS UNIVACS FREE FIELD INPUT. RAM1210
C***VARIABLES MUST BE SEPARATED BY COMMAS. RAM1220
C***THIS IS SIMILAR TO IBM'S LIST DIRECTED 10. RAM1230
C***CHECK TO INSURE CORRECT SURFACE DATA, MIXING HT. DATA, AND RAM1240
C***PREPROCESSOR ARE BEING USED. RAM1250
C**»READ IDENTIFICATION RECORD FROM PREPROCESSED MET DISK OR TAPE FILE RAM126Q
READ (NIT) ID,IYEAR,IDM,IYM RAM127Q
IF (ISFCD.EQ.ID.AND.ISFCYR.EQ.IYEAR) GO TO 50 RAM1280
WRITE (10,980) ISFCD,ISFCYR,ID,IYEAR RAM1290
CALL EXIT RAM1300
50 IF (IMXD.EQ.IDM.AND.IMXYR.EQ.IYM) GO TO 60 RAM1310
WRITE (10,990) IMXD,IMXYR,IDM.IYM RAM1320
CALL EXIT RAM1330
60 IP=!POL-2 RAM13HO
WRITE (10,780) UNITS, CONONE, CONTWO, TITLE(IP) ,IPOL RAM1350
C***ECHO INPUT PARAMETERS RAM1360
WRITE: (10,790) NPER.NAVG.IDATSU) ,IDATE( 1) ,IHSTRT,Z,HAFL RAM137*0
IF (lOPT(H).EQ.O) WRITE (10,800) ISFCD , ISFCYR , IMXD , IMXYR RAM13&3
WRITE (10,810) RAM1390
C***IOPT(1) CONTROL OPTION, POINT SOURCE INPUT? 0 = NO, 1=YES. RAM1400
C***IF NO POINT SOURCES, SKIP DOWN TO AREft SOURCE CODE. RAM1410
IF (IOPT(1).EQ.O) GO TO 150 RAM1420
C***.IOPT(12) CONTROL OPTION, SPECIFY SIGNIFICANT POINT SOURCE NUMBERS RAMU30
C***0=NO, 1=YES. RAM14140
IF (IOPT(12).EQ.O) GO TO 80 RAM1M50
C***READ CARD TYPE 6 IF USING OPTIONS 1 AND 12. RAM1460
C***READ THE NUMB2R OF SIGNIFICANT POINT SOURCES THAT USER WANTS TO RAM147Q
C***SPECIFY AND THE NUMBER DESIGNATIONS OF THOSE SOURCES. RAMU80
READ (IN,870) II'iPT,(MPS(I) ,1= 1 ,INPT) RAM1H90
IF (INPT.EQ.O) GO TO 30 RAM1500
IF (MPS(IIJPT) .EQ.O) WRITE (10,880) RAM1510
J=INPT+1 RAM1520
K=1 RAM1530
C**i«ADD SIGNIFICAM1 SOURCES DETEhKINED FROM SIGNIFICANT SOURCE LIST RAM1540
C***IF NSIGP GREATER TH.AN INPT. RAM1550
IF (J.GT.NSIGP) GO TO 100 RAM1560
DO 7Q I=J,MSIGP RAM1570
MPS(I)=IMPS(K) RAH1580
70 K=K+1 RAM1590
GO TO 100 RAM1600
GO DO 90 I=1,MSIGP RAM1610
90 ;1PS(I)=IMPS(I) RAM1620
100 WSITE (10,950) LINiil ,LINE2,LINE3 RAM1630
WRITS (10,820) NPT,MSIGP,(I''1PS(I) ,1=1 ,KS:GP) RAM1610
WHITE (10,1050) RAM1650
IF (IOPT(13).EQ.O) GO TO 120 RAM1660
C***SAVb AVERAGE EMISSION HATE RAM167Q
DO 110 1=1,MPT RAM1680
110 PSAV(I)=30U3CE(IPOL,I) RAM1690
C***V;KITE OUT POINT SOURCE LIST. RAM^OO
120 DO 130 1=1,MPT RAM171Q
C***CONVERT TO JSEfi JillTS FOH PRIMT OUT. RAM1720
C1=SOURCE( 1 ,I)*'JMITS RAM1730
C2 = SOUHCE(2,I)*IJMT3 RAM17HQ
WRITc, (10,1060) I,(P,1A;':E(L,I) ,L= : ,2),C1 ,C2,(SOURCE(K,I) ,K = 3,8) RAM175Q
I?SIGS(I)=0 RAK1760
130 CCMJTI'MCE RAM177Q
74
-------
140 'PSIGS v J/- -
C*»-*IOPT(2) CCuThCL Orll., , ''rEA SOJ^CE I;.PUT? 0 = .iC, 1=YES.
C***IF .»Q ARE;' S-Jl'RCE.-, Or'IP rO/,.i TO I..PUTTING RECEPTORS.
153 IS- (IGPT(2) . "X .01 j.j TO 260
C*i"*READ CARD TYPE 7 I -" USING OPTIu: 2.
REAP ( Ii: ,^70) F ; , L::'-XLT ^COMOM:-,
TE (XLT •' .L.T. ! 16 . 1 GO TO 160
'.VHTTi:, (10,1040) XL!-'.
CALL KXTT
C*«*IOFT(12) OOt.TROL jPTTun, SPECIFY OI'TilEICArlT POINT SOURCES? C-.JO,
C*** 1-YES.
1'oO IF (lOTTf, 12) .iv'i.O) 00 TO 1&0
C;***FLAD THE NUV.3EP OF oltJMFICAi-IT AFbA SOURCES T-^AT USSR
C***.vAiJTS TO SPECIFY 4i;D Tiic, MUI'.BER DESIGfiATIOH3 OF THOSE SOURCES.
C***RI-:AD CARD TYPE y IF USI:JG OPTIONS 2 AJD 12.
READ (Iu,870) liiAS, (f^AS( I) ,1- 1 ,INAS)
IF (IriAS.EO.O) 00 TO 130
IP' (liAS(IiiAS) .Ew .0) WRITE (10,890)
J = UAS+1
i<=1
IF (J.GT.i.'SIGA) 00 TO 200
DO 170 I=J,NSIGA
;1AS(I) = IMAS(K)
170 K=K+1
GO TO 200
C*xjtADD SIOrilEICANT SOURCES LJ E TEPXINED FRO"! SIGNIFICANT SOURCE LIST
C***IF NSIGA GREATER THAN IMAS.
180 DO 190 1=1,NSIGA
190 MAS(I")=IMAS(I)
200 WRITS (10,830) NAS,MSIGA,(r-1AS(l) ,1=1 ,MSIGA)
VJRTTE (10,840) NHTS, (HINT(I) ,1=1 ,NhT3)
WRITE (10,850) (BPH(I),1=1,NBP)
WRITE (10,860) FH,C5,C1,C2,C3,C4,IRSIZE,ISSIZE
C***IF IA ARRAY TOO LARGE TO BE PRINTED AS A HAP, PRINT!JQ IS SKIPPED.
IF (IRSIZE.GT.4 I) GO TO 220
C***PRIMT OUT AREA SOURCE MAP ARRAY.
WRITE (10,1010)
JLIf-UISSIZE+1
DO 210 JDUM=1 ,ISSIZE
J=JLIM-JDUM
210 WRITE (10,1020) J , (TA(I,J),1=1,TR3IZE)
WRITE (10,1190) (1,1=1 , IRSIZE)
GO TO 230
220 WRITE (10,930)
C***WRITE OUT THE AREA SOURCE LIST.
230 WRITE (10,1070)
DO 240 1=1,NAS
i< A . ! 1 7 G 0
R A 1-11790
-i A .-. 1 3 0 0
« A ' ' 1 a 1 c
rAI- 1 320
RA'-:1>J JO
RAI'1 b'lO
RAK1350
RA: 11560
R A i " 1 P) 7 0
i; A •: 1 o t; o
R A : • i c 9 o
;' A '-11900
R A f, 1 9 1 0
R A' .1920
RA':1930
'< /i ". 1 -3 4 0
RA 11950
R A ;•! 1 9 6 0
RAM 199 3
RAi-12000
RA: 12010
RAM2020
PAM2Q JO
RAM2040
RAK2050
RAM2060
RAK2Q7Q
RAM2030
R A -12 090
RAM2100
RAM2110
RAF12120
RA^,2130
RAI12140
RA112150
RAH2160
RAI1217Q
RAM2180
RAM2190
RAH2200
RAM2210
RAM2220
RAH2230
RAK2240
RAI12250
RAK2260
RAK227Q
RAH2280
RAK2290
RAM2300
RAM2310
RAM2320
RAH2330
RAM2350
RAM2360
RAM2370
RAM2380
RAM2390
75
-------
C***CONVERT TO USER UNITS FOR PRINT OUT RAM2400
C1=ASORC(1,I)«UNITS RAM2410
C2=ASORC(2,I)*UNITS RAM2420
C3=ASORC(5,I)*UNITS RAM2430
WRITE (10,1080) I,C1,C2,(ASORC(K,I),K = 3,1O,C3,ASORC(6(I) RAM2l(HO
C**»SIDE LENGTH IS MULTIPLIED BY .5 TO SAVE TIME IN LATER COMPUTATIONS RAM2H50
ASORC(5,I)=ASORC(5,I)*0.5 RAM2460
IASIGS(I)=0 RAM2470
240 CONTINUE RAM2480
C***FILL IN SIGNIFICANT AREA SOURCE MARKER ARRAY RAM2490
DO 250 1=1,NSIGA RAM2500
J=MAS(I) RAM2510
250 IASIGS(J)=I RAM2520
C***INPUT PERMANENT RECEPTORS RAM2530
C***IOPT(3) CONTROL OPTION, SPECIFIED RECEPTORS? 0 = NO, 1 = YES. RAM2540
260 IF (IOPT(3).EQ.O) GO TO 300 RAM2550
270 NRECEP=NRECEP+1 RAM2560
IF (NRECEP.GT.150) GO TO 280 RAM2570
C***READ COORDINATES IN USER UNITS RAM2580
C***ATTENTION USER: DON'T SPECIFY A RECEPTOR AT ORIGIN AS A BLANK CARD RAM2590
C***IS USED TO INDICATE ALL RECEPTORS HAVE BEEN READ. RAM2600
C***READ CARD TYPE 10 IF USING OPTION 3. RAM2610
READ (IN,1090) (RNAME(J,NRECSP),J=1,2),RREC(NRECEP),SREC(NRECEP) RAM2620
C***BLANK CARD OR RECEPTOR AT ORIGIN SIGNALS ALL PERMANENT RECEPTORS RAM2630
C***HAVE BEEN ENTERED. RAM2640
IF (RREC(NRECEP)+SREC(NRECEP).LE.0.001) GO TO 280 RAM2650
GO TO 270 RAM2660
280 NRECEP=NRECEP-1 RAM2670
C***SAVE NUMBER OF PERMANENT RECEPTORS RAM2680
NPREC=NRECEP RAM2690
C***PRINT OUT TABLE OF PERMANENT RECEPTORS*** RAM27QO
WRITE (10,950) LINE1.LINE2,LINES RAM2710
WRITE (10,1100) RAM2720
C***THE CHARACTER "I" INDICATES THAT THESE RECEPTORS WERE INPUT INTO RAi12730
C***THE MODEL. RAi!27l|0
DO 290 K=1,MRECEP RAM2750
ITYPE(K) = ICH:AP RAM2760
WRITE (10,1110) K,ITYPE(K),(RNAME(J,K),J=1,2),RREC(K),SREC(K) RAH277Q
C***CONVERT TO INTERNAL UNITS RAM2?80
RREC(K)=RREC(K)/UMTS RAM27go
SREC(K)=SREC(K)/UNITS RAM2800
290 ICODE(K)=0 RAM2810
C***IF NEITHER POINT OR AREA SOURCES WERE SPECIFIiO,EXIT PROGRAM. HAM2820
300 IF ((IQPT( 1) + IOPT(2) ) ,'lh.O) GO TO 310 RAM2630
WRITE (10,1120) RAM28HO
CALL EXIT RAM2850
310 IDAY=IDATE(2)-1 RAM2860
C***IOPT(11) COtlTROL OPTION, IKPUT '1ET DATA ON CARDS? 0 = NO, 1 = YES. RAH2870
IF (IDAY.LE.O.OS.IOPT(11).EC.1) GO TO 330 RAM2830
C***POSITIOM MET FILS TO CORP.hCT POSITION RAM2890
DO 320 1=1,IDAY RAM2900
320 READ (NIT) JYR RAM2910
C***!OPT(6) CONTROL OPTION, FILL I'J .IOUEYCOMB RECEPTORS? 0 = KO, 1=YES. RAM2920
330 IF (IOPT(6).EQ.O) GO TO 360 RAM2930
C***PEAD Iti SPACING BETWEEN HOTiYCOM^ RECEPTORS AND VARIABLE HONEYCOMB RAK2940
C***GRID BOUNDARIES I'J USSR UNITS. RAM2950
C***L'SER CAN INPUT ZERO MEHK FOR BOUNDARIES IF Hli ,-,'Ai;TS THE BOUNDARIES PA'12960
C***OF THE AREA SOURCE REGIO:' TO DEFINE THE AREA COVERED BY HONEYCOMB RAM2970
C***RECEPTORS. RAM2930
C***READ CARD TYPE 11 IF USIVG OPTION 6. PAM2990
READ (IN,970) GHIDSP.HF •*,] , Hh ^ AX , HSMIN , HSt'AX RA:-13000
IF (HRMAX.Nh.0.0) GO TO 340 RAM3010
76
-------
C***R
HIM,RKAX,STUN,SMAX
HRMAX=PKAX
HSHIM=SHIM
ARE IN INTERNAL UNITS
GO TO 350
C***CONVERT INPUT GRID bOUNDARI'" S( USSR UNITS) TO INTERNAL UNITS
340 HRMIN = HRMIi\i/U.N!rrS
HRMAX=HRKAX/UNITS
HSMIN = HSMIN/'JNITS
HSMAX=HSMAX/UNITS
C***CONVERT GRIDSP FROM USER UNITS TO INTERNAL UNITS.
350 GRIDSP = GPIDSP/UMTS
C***INITIALIZATION
360 IDAY=IDAY+1
NHRS=0
IF (IOPT(11)
C***INPUT MET DATA
.EQ.1) GO TO 400
FOR EACH DAY FROM DISK CREATED BY R AMMET , IOPT( 1 1 ) =0
READ (NIT) JYR,IMO,DAY1 , IKST , QU ,QTEMP , DUMR .QTHETA ,HLH
IF (JYR.NE.IDATSd)) GO TO 370
IDATE(2)=DAY1
IF (IDATE(2) .SQ.IDAY) GO TO 330
C***DATE ON MET TAPE DOES NOT MATCH INTERNAL DATE
3^0 WRITE (10,740) JYR,ID4TE(2) ,IDATE(1) ,IDAY
CALL EXIT
C***MODIFY WIND VECTOH 3Y 180 DEGREES.
C***FROK RAMMET, THIS CONVERTS BACK TO
330 DO 390 IQ=1 ,24
IF (IKST(IQ).EQ.7) I.
-------
IF(IKST(JHR).EQ.7) IKST(JHR)=6 RAM3640
WRITE (10,1140) JHR,QTHETA(JHR),QU(JHR),QHL(JHR),QTEMP(JHR),IKST(J RAM3650
1HR) RAM3660
SINT=SIN(TRAD) RAM3670
COST=COS(TRAD) RAM3680
C***CALCULATE WIND COMPONENTS RAM3690
URES=QU(JHR) RAM3700
UR=URES*SINT RAM3710
VR=URES*COST RAM3720
DELM=DELM+UR RAM3730
DELN=DELN+VR RAM3740
TEMP=TEMP+QTEMP(JHR) RAM3?50
U=U+URES RAM3?60
KST=IKST(JHR) RAM3770
440 IFREQ(KST)=IFREQ(KST)+1 RAM3780
C***REDEFINE NB AND NE IN CASE NON-CONSECUTIVE DAYS ARE BEING RUN RAM3790
IF(IOPT(11).EQ.O) GO TO 441 RAM3800
NB=IHSTRT RAM3810
NE=IHSTRT+NAVG-1 RAM3820
C***CALCULATE RESULTANT WIND DIRECTION THETA RAM3830
441 DELN=DELN/NAVG RAM3840
DELM = DELM/NAVG RAM3850*
THETA=ANGARC(DELM,DELN) RAM3860i
C***CALCULATS AVERAGE AND RESULTANT SPEED RAM387Q
U=U/NAVG RAM3880
TEMP=TEMP/NAVG RAM3890
URES=SQRT(D£LN*DELN+DELM*DELM) RAM3900
PERSIS=URES/U RAM3910
C***DETERMINE MODAL AND AVERAGE STABILITY RAM3920
LSMAX=0 RAM3930
DO 450 1=1,7 RAM3940
LST=IFREQ(I) RAM3950
IF (LST.LE.LSMAX) GO TO 450 RAM3960
LSMAX=L3T RAM3970
LSTAB=I RAM3980
450 CONTINUE RAM3990
IP1=LSTA3+1 RAM4000
KST = LST/\B RAM4010
DO 460 I=IP1,7 RAM4020
IF (LSMAX.EQ.IFREQ(I)) GO TO 4?0 RAM4030
460 CONTINUE RAM4040
GO TO 490 RAM4050
C*«*IF TIE POR MAX MODAL STABILITY CALCULATE AVERAGE STABILITY RAM4060
470 KSUM=0 RAM407Q
DO 480 J^l,7 RAM4080
480 KSUM=KSUM+IFREQ(J)*J RAM4090
KST = FLOAT(KSUM)/FLOAT(!
-------
C2=HRMAX*UN!TS
C3=HSMIN*UWITS
C4=HSMAX*UNITS
C5=GRIDSP*UNITS
WRITE (10,1170) C1,C2,C3,C4,C5
CALL JMHHOM (GRIDSF)
510 IF U'RECEP.NE.O) GO TO 520
WRITE (10,1180)
CALL EXIT
C***INITIALIZE CONCENTRATION' SUMS
C***IF SIGNIFICANT OR HOKEYCOK.3 RECEPTORS,riRITS CAUTIONING STATEMENT.
520 IF ((IOPT(4)+IOPT(5)+IOPT(6)).GT.O) WRITE (10,900)
C***IrJlTIALIZE FOR AVERAGING TI.^E
DO 550 K=1 ,'IRECEP
ACHI(K)=0.0
PCHI(K)=0.0
DO 530 1=1,11
530 ASIGS(K,I)=0.0
LIU 540 1=1 ,26
540 PSIGS(K,I)=0.0
550 CONTINUE
C***IF SAVIMG PARTIAL CONCENTRATION'S, WRITE NOS. OF PFCSPTORS SOURCES.
IF (IOPT(8).EQ.O) GO TO 57C
DO -560 1=1 ,NRECEP
URREC(I)=RREC(I)*UNIT3
USREC(I)=SRSC(I)*UNITS
560 CONTINUE
WRITE (MP) NHECkP,NAS,>iPT,(Ur;i;iC(I) ,1=1 .r'RECiF) ,(USREC(I) ,1=1 /,Rf
1CGP)
C***LOOP Ci-i HOURS
RA/14260
DO 7QO ILH=NH,NE
LH=ILH
IF (LK.LE.2l!) GO TO 580
LH = MOU(ILri,2l»)
IF (LH.EQ.1) IDATE(2)=DAY1
C***INITIALIZE HOURLY ARRAYS
580 DO 610 K=1.NRECEP
AHCHI(K)=0.0
PHCHI(K)=0.0
DO 590 1=1,11
590 AHSIGS(K,I)=0.0
DO 600 1=1,26
600 PHSIGS(K,I)=0.0
610 CONTINUE
C***SET MET CONDITIONS FOR THIS HOUR***
THETA=QTHETA(LH)
U=QU(LH)
HL=QHL(LH)
TEMP=QTEMP(LH)
KST=IKST(LH)
C***DETERMINE WIND DIRECTION CONTROL, IWD, 90 DEG. QUADRANT OF WIND
C***
DO 620 1=1,3
IF (THETA.LE.DEG(D) GO TO 630
620 CONTINUE
1 = 4
630 IWD=I
TRAD=THETA*0.01745329
SINT=SIN(TRAD)
COST=COS(TRAD)
RAK4280
HA Mil 290
RAM4300
RA'14310
RA!i4320
RAM4330
RAM4340
RAK4350
RAM4360
RAM4380
RAM4390
PAM4400
RAH4410
RAK4420
HAI 14430
RAH4440
RAM4450
RAM4460
RA;i4480
RA"14490
RA"!4500
HAi.4t>00
R At' 4620
R A ^4630
RAK4640
RA/:4650
RAM4660
RAM467Q
RA. 14680
RAK4690
RAM47QO
RAM4710
RAM4720
RAI14730
RAH4740
RAI1477Q
RAH4780
RAM4790
RAH4800
RAM4810
RAI44820
RAM4830
RAH4840
RAM4850
RAM4860
RAM487Q
79
-------
C»**CHECK FOR POINT SOURCES RAM4880
IF (IOPT(1).NE.1) GO TO 650 RAM4890
C***IOPT(13) CONTROL OPTION, HOURLY EMISSIONS INPUT? 0=NO, 1=YES RAM4900
IF (IOPT(13).EQ.O) GO TO 640 RAM4910
IDCK=IDATE(1)*100000+IDATE(2)*100+LH RAM4920
C***READ HOURLY POINT SOURCE RECORD RAM4930
READ (15) IDATP,(SOURCE(IPOL,I),1=1,NPT) RAM4940
C***CHECK DATE RAM4950
IF (IDCK.EQ.IDATP) GO TO 640 RAM4960
WRITE (10,910) IDCK.IDATP RAK497Q
CALL EXIT RAM4980
C***CALCULATE POINT SOURCE CONTRIBUTIONS RAM4990
640 CALL JMHPTU (HSAV,DSAV,Z,TLOS,LH) RAM5000
C***CHECK FOR AREA SOURCES RAM5010
650 IF (IOPT(2).NE.l) GO TO 690 RAM5020
C**»IOPT(13) CONTROL OPTION, HOURLY EMISSION INPUT? 0=NO, 1=YES RAM5030
IF (IOPT(13).EQ.O) GO TO 680 RAM5040
IDCK=IDATE(1)*100000+IDATE(2)*100+LH RAM5050
C***READ HOURLY AREA SOURCE EMISSION RECORD RAM5060
READ (16) IDATA,(ASORC(IPOL,I),I=1,NAS) RAM507Q
C***CHECK DATE RAM5080
IF (IDCK.EQ.IDATA) GO TO 660 RAM5090
WRITE (10,920) IDCK.IDATA RAM5100
CALL EXIT RAM5110
C***CONVERT HOURLY AREA EMISSIONS FROM G/SEC TO G/SQ. M/SEC RAM5120
660 DO 670 1=1,NAS RAM5130
C***CONVERT SIDE LENGTH TO METERS. RAMS 140
C***NOTE: SIDE LENGTH HAD BEEN MULTIPLIED BY .5 ABOVE FOR TIME RAM5150
C***CONSIDERATIONS RAM5160
SF = ASORC(5,I)*2000*CONTWO RAMS HO
67Q ASORC(IPOL,I)=ASORC(IPOL,I)/(SF*SF) RAM5180
C***SET UP INTEGRATION TABLES FOR AREA SOURCE CALCULATIONS*** RAM5190
680 CALL JMH54U (NHTS,Z ,XLIM,TLOS) RAM5200
C***CALCULATE AREA SOURCE CONTRIBUTIONS RAM5210
CALL JMHARE (WHTS,XLIM ,LH) RAM5220
C***OUTPUT RESULTS EACH HOUR RAM5230
C***IOPT(7) CONTROL OPTION, HOURLY OUTPUT? 0 = NO, 1 = YES. RAM5240
690 IF (IOPT(7).EQ.O) GO TO 7QQ RAM5250
CALL JMHOUR (LH,LINE1,LINE2,LIME3) RAM5260
700 CONTINUE RAK527Q
IF(NE.GT.24) IDATE(2)=ISTDAY RAM5280
C***OUTPUT FINAL RESULTS RAM5290
CALL JMHFIN (NB,LINE1,LINE2,LINE3) RAM5300
NP=NP+1 RAM5310
NHRS=NHRS+NAVG PAM5320
IF(NP.GE.NPER) GO TO 720 RAM5330
IF(NHHS.GE.24) GO TO 360 RAH5340
NB=NE+NAVG RAM5350
ME=NE+NAVG RAM5360
IF(NB.LE.24) GO TO 410 RAM5370
NB=MOD(MB,24) RAM53BO
ME=HB+NAVG-1 RAH5390
GO TO 410 HAM5400
C***IOPT(8) CONTROL OPTION, SOURCE CONTRIBUTIONS TO DISK? 0=NO, 1=YES. RAM5410
720 IF (IOPT(8).EQ.O) GO TO 730 PAM5420
END FILE NIP RAM5430
END FILE NIP RAK5440
730 CALL EXIT RAK5450
C RAM5460
740 FORMAT (' DATE ON MET. TAPt, ',12,13,' ,DOES MOT MATCH INTERNAL 04 RAM547Q
1TE, ',12,13) RAM5480
750 FORMAT (' HOUR ',13,' IS i,"3T PER.'.ITTSD. HOURS XUST BE DEFIi^RD PET>i RAM5490
710
80
-------
1EEN 1 AND 24' ) RAM5500
780 FORMAT (1X,T21,'GENERAL INFORMATION FROM RAMQ'//2X,'UNITS - THERE RAM5510
1ARE',F14.7,' USER UNITS(INPUT UNITS) PER SMALLEST AREA SOURCE SQUA RAM5520
2RE SIDE LENGTH (INTERNAL UNIT)'/2X,'CONONE - THERE ARE',F14.7,' KI RAM5530
3LOMETERS PER USER UNITV2X, ' CONTWO - IT IS CALCULATED THAT THERE A RAM5540
4RE',F14.7,' KILOMETERS PER SMALLEST AREA SOURCE SQUARE SIDE LENGTH RAM5550
5 (INTERNAL UNIT)V2X,'THIS RUN IS FOR ',A6,'SINCE IPOL=',I2//1X) RAM5560
790 FORMAT (1X,T21,'GENERAL INPUT DATA'//2X,'NUMBER OF PERIODS TO BE S RAM5570
1IMULATED(NPER)= ',I3/2X,'AVERAGING TIME IN HOURS FOR EACH PERIOD(N RAM5580
2AVG)= '.I5/2X,'STARTING DATE(IDATE(2),IDATE(1),IHSTRT): JULIAN DAY RAM5590
3 ',14,', YEAR 19',12,' HOUR= ',I2/2X,'RECEPTOR HEIGHT FOR ALL RECE RAM5600
4PTORS(Z) ',F6.3,' METERSV2X,'ASSUMED POLLUTANT HALF-LIFE(HAFL) ', RAM5610
5F10.2,' SECONDS') RAM5620
800 FORMAT (2X,'SURFACE MET DATA FROM STATION(ISFCD) ',16,', YEARdSFC RAM5630
1YR) 19',I2/2X,'MIXING HEIGHT DATA FROM STATION(IMXD) ',16,', YEAR( RAM5640
2IMXYR) 19',12) RAM5650
810 FORMAT (//1X) RAM5660
820 FORMAT ('0',T21,'POINT SOURCE INFORMATION'//2X,'EMISSION INFORMATI RAM5670
10N FOR ',14,' (NPT) POINT SOURCES HAS BEEN DETERMINED BY RAHQV2X, RAM5680
212,' SIGNIFICANT POINT SOURCES(NSIGP) ARE TO BE USED FOR THIS RUN' RAM5690
3/2X,'THE ORDER OF SIGNIFICANCE^IMPS) FOR 25 OR LESS POINT SOURCES RAM5700
4DETERMINED BY RAMQ IS LISTED BY POINT SOURCE NUMBER:'/2X,2515) RAM5710"
830 FORMAT (//1 X ,T2 1 , ' AREA SOURCE INFORMATIONV/2X ,'EMISSION INFORMATI RAM572»
10N FOR ',14,' (NAS) AREA SOURCES HAS BEEN DETERMINED BY RAMQ'/2X,I RAM5730
22,' SIGNIFICANT AREA SOURCES(NSIGA) ARE TO BE USED FOR THIS RUNV2 RAM5740
3X,' THE ORDER OF SIGNIFICANCE(IMAS) FOR 10 OR LESS AREA SOURCES D RAM5750
4ETERMINED BY RAMQ IS LISTED BY AREA SOURCE NUMBER:'/2X,1015) RAM5760
840 FORMAT (2X,'NUMBER OF AREA HEIGHT CLASSES(NHTS)=',I2/2X,'REPRESENT RAM5770
1ATIVE AREA SOURCE HEIGHTS FOR EACH HEIGHT CLASS(HINT) IN METERS=', RAM5780
23F10.2) RAM5790
850 FORMAT (2X,'BREAK POINT HEIGHT BETWEEN THE AREA HEIGHT CLASSES(BPH RAM5800
1) IN METERS=',2F10.2) RAM5810
360 FORMAT (2X,'FRACTION OF AREA SOURCE HEIGHT WHICH IS PHYSICAL HEIGH RAM5820
1T(FH)='.F10.3/2X,'LIMIT OF DISTANCE FOR AREA SOURCE INTEGRATION TA RAM5830
2BLESULIM) IN USER U5IIT3 =', F10.3/2X,'BOUNDARIES OF THE AREA SOURC RAM5840
3E GRID IN USER UNITS:'/1X,T6,'RMIN=',F10.3,5X,'RMAX=',F10.3,5X,'SM RAM5850
4IN=',F10.3,5X,'SMAX=',F10.3/2X,'SIZE(IRSIZE X ISSIZE) OF AREA SOUR RAM5860
5C& MAP ARRAY(IA) IN INTERNAL UNITS =',13,' EAST-WEST BY ',13,' NOR RAM5870
6TH-30UTH'//U) RAM5880
8?0 FORMAT (2613) RAM5890
880 FORMAT (' ***ERROR IN SPECIFYING SIGNIF. POINT SOURCES***') RAM5900
890 FORMAT (' ***ERROR IN SPECIFYING SIGNIF. AREA SOURCES***') RAM5910
900 FORMAT (' ***PLEASE NOTE: THE RECEPTOR NUMBERS AND LOCATIONS GENER RAM5920
1ATED FOR THIS AVERAGING TIME PERIOD ARE DIFFERENT FROM THOSE GENER RAM5930
2ATED FOR'/13X,' THE PRECEEDING AVERAGING PERIOD.***') RAM5940
910 FORMAT (' DATE BEING PROCESSED IS= ' , I8/1X,'DATE OF HOURLY POINT E RAM5950
1 MISSION RECORD is = ' , I8/1X,'***PLEA3E CHECK EMISSION RECORDS***') RAM5960
920 FORMAT (' DATE BEING PROCESSED IS= ' , I8/1X, ' DATE OF HOURLY AREA EM RAM5970
1ESSIOM RECORD IS = ' ,I8/1X,'***PLEASE CHECK EMISSION RECORDS***') RAM5980
930 FORMAT (' AREA ARRAY IS TOO WIDE FOR PAGE SIZE, THEREFORE kilLL HOT RAM5990
1 EE PRINTED.') RAM6000
940 FORf-'.AT ( 13A6,A2/13A6,A2/13A6,A2) RAM6010
950 FORMAT ( T ,13A6,A2/1X,13A6,A2/1X,13A6,A2) RAM6020
960 FORMAT ('OTHIS IS THE NORMAL URBAN VERSIOM(78124) OF RAM FOR APPLI RAM6030
1CATIOH TO ONE OR SEVERAL DAYS DATA.V1X) RAM6040
970 FORMAT () RAM6050
960 FORMAT (' SURFACE DATA IDEMTIFERS READ INTO MODEL (STATION:',15,' RAM6060
1 ,YEAR=' ,12, ' ) DO MOT AGREE V.'ITH THE PREPROCESSOR OUTPUT FILE',/1X, PAM6070
2' (STATIOM=' ,15, ' ,YSAR=',[2) RAM6080
990 FORMAT (' MIXING HEIGHT IDENTIFERS READ INTO MODEL (STATION=' , 15 , ' RAH6090
1 ,YEAR=',12,') DO NOT AGREE WITH THE PREPROCESSOR OUTPUT FILE',/1X RAM6100
2,' (STATION^1 ,15, ' ,YEAR=',I2) RAM6110
81
-------
1040
1050
1060
1070
1 ObO
1090
1 100
1110
1 120
1130
1 140
1 150
1 160
170
1180
1190
C
FOf:"AT (' *** THE-, ', A6 ,'VERSION OF THE PREPROCESSOR CAN NriT BE I'SE
1D v.IT,I THfJ ' ,A6,'VERSION OF T.lE MODEL***')
FORMAT ( '0' , 13X, ' ARiiA SOURCE MAP ARRAY( IA ) ' / 1 X )
FORMAT ( 1X, I3,2X,41I3/1X)
FORMAT (1X.TJ,'OPTIOii ', T1 6,'OPTION LIST' , T46,'OPTION SPECIFICATL
10ti : 0= IGNORE OPTION '/ 1 X , T65 ,' 1= USE OPTION'/1 X , T7 , 12 , T 1 6 ,'POINT
2 SOURCE DATA' ,T51 , I1/1X,'!7, 12, T16, 'AREA SOURCE DAT A ' , T5 1 , 11 / 1 X , T7 ,
3I2.T16, 'PERMANENT htCEtTORS' ,T51 , 11/1X , T7,12,T16 , 'SIGNIFICANT PC IN
4T RECEPTORS' ,T51 , 11/1X,T7,I2,T16,'SIGNIFICANT AREA RECEPTORS', T5 1 ,
5I1/1X,T7.I2,T16, 'HGK'EYCO'i.4 RECEPTORS' , T5 1 ,I1 / 1 X , T7 , 12 , T 1 6 , ' hOURL Y
60UTPUT' ,T51 , I1/1X,T7,I2,T16, 'PARTIAL CONC. V.RITTEN TO DISK/TAPE,' ,T
751 ,I1/1X,T7,I2,T16,'PRINT ONLY SUMMARY HOURLY OUTPUT',, T51 , 11/1X , T
87,12,T16, 'PUNCH CARDS FOR CONTOURS' ,T51,11/1X,T7,12 , T16 , 'RE AD MET
9DATA FROM CARDS' ,T51,11/1X,T7,12 , T16, 'SPECIFY SIGNIFICANT SOURCE N
AUMSERS' ,T51 ,I1/1X,T7,I2,T16,'READ UOUPLY - MISSIONS',T51,11/1X)
FORMAT (' THE INPUT LI'-'IT OF MAX DISTANCE FOR AREA INTEGRATION ','
1 CONVERTS TO '.F10.3,' KM WHICH EXCEEDS STORAGE '.'LIMITATION'S. UP
2 TO 116 KM DISTANCES ARE ALLOWED.')
FOPt-AT ( '0' ,TbO, 'POINT SOURCE LISTING '// 1 X , T8 ,' SOURCE ', T25 ,' FAST ',
1T33, 'hCRTH' .TitO, 'S02(G/SEC) PAhT(GXSEC) STACK STACK STACK
2 STACK'/1 X.T25, 'CCORU' ,T33,'COORD E'-TSSIONS EMISSIONS HT(M)
3 TEMP(K) VDIAM(M) VEL(M/SEC) '/ix,T26,' (USER UMTS)'/IX)
FORMAT (1X.T3.I3,1X,2A6,2X,2F9.2,F10.2,F1 1 .2,2X,4F3.2)
FORMAT (/1X,T20,'AREA SOURCE LISTING'//1X,T2,'SOURCE',T10,'EAST',T
116, 'NORTH' ,T26, '302(G/SEC-M**2) ' ,144,'PART(G/S5C-M**2) SIDE
2EFFECTIVE'/1X,T10, 'COORD COORD' ,T29,'EMISSIONS' , T46 , 'EMISSIONS' ,
3T61 , 'LENGTH HEIGHT ' / 1 X , T 1 1 , ' ( USZR UN'ITS) ' , T58 , ' ( USER UNITS)',!7
44, ' (i:) V1X)
FORMAT (1X,T3,I3,2X,2F9.1 ,3X,1Pt;i 1 .4,7X,1PE11.4,3X,OPF7.1 ,3X,F7.1)
FORMAT (2A4,2F10.3)
FORMAT ('0',T9,'INPUT RECEPTORS'//1X,'RECEPTOR IDENTIFICATION
1EAST NORTH '/1X,T30,'COORD',T39,'COORD'/1X , T31 ,'(USSR UNITS
2) V1X)
FORMAT
FORMAT
FORMAT ('OIMPUT MET DATA ' , 12 , '/ ' , I4/1X,T2,'HOUR THETA SPEED
1 MIXING TEMP STABILITYV1X.T9, ' (CEG) (M/S) HEIGNT(M) (
2DEG-K) CLASSV1X)
FORMAT ( 1X,T3,I2,4F9.2,oX,11)
FQR-AT ( '0' ,'RESULTANT MET CONDITIONS'/1X)
FORMAT (2X,'WIND DIRECTIOiJ= ', F7 . 2 , T36 ,' RESULTANT WIND SPEED= ' , F7 . 2
1/2X, 'AVERAGE IvIND SPEED=', F7 . 2 , T36 ,'AVERAGE TE^P= ' , F7 . 2/2X , ' WIND P
2ERSI3TENCE=' ,F6.3,T36,'MODAL STABILITY:' ,12)
FORMAT ('0',T20,'GENERATED HONEYCOMB RECEPTORS'/1X,/1X,'THE AREA T
10 BK COVERED BY HONEYCOMB RECEPTORS IS BOUNDED BY:'/1X,' RMIM=',F1
20.3,' RMAX-' ,F10.3, ' SMIN=' .F10.3, ' SMAX=',F10.3//1X,'DISTANCE BET
3JEEN HONEYCOMB RECEPTORS(GKIDSP) IN USER UNITS=',F7.3//1X,'RECEPTO
4R EAST ilOfiTH' )
FORMAT (1X,'NO RLCtPTORS HAVE I3EEN CHOSEN")
FORMAT (/6X,41I3/1X)
( 1X,Tt,I2, 1X.A1 ,8X,2fl4,7x,F6.2,3X,F7.2)
(1X,':10 SOURCES SPECIFIED')
TAM6120
HAM6130
RAM6140
RAK6150
HAM6160
RAM617Q
HAM6180
RAM6190
PAM6200
RAM6210
RAM6220
RAH6230
RAMD 240
RAM6250
RAM6260
RAM627Q
RAM6280
RAM6290
RAM6300
RAM6310
RAM6320
RAM6330
RAM6340
PAM6350
HAM6360
RAM6370
RAM6380
HAM6390
RAM6400
RAM6410
PAM6420
RAM6430
RAM6440
PAM6450
RAM6460
RAM647Q
RAM6480
RAM6490
RAM6500
RAM6510
RAM6520
RAM6530
RAM6540
RAM6550
RAM6560
RAM6570
RAM6580
RAK6590
RAM6600
RAM6610
RAM6620
HAM6630
FUNCTION ANGARC (DELM.DELN) ANGOOIO
C DETERMINES APPROPRIATE ANGLE OF TAN(ANG) = DELM/DELN ANGOO?0
C WHICH IS REQUIRED FOR CALCULATION OF RESULTANT WIND DIRECTION. ANG0030
C DELM IS THE AVERAGE WIND COMPONENT IN THE EAST DIRECTION. ANG0040-
C DELN IS THE AVERAGE WIND COMPONENT IN THE NORTH DIRECTION. ANG0050
C NO COMMON REQUIREMENT, NO ARRAYS, USES LIBRARY FUNCTION ATAN ANG0060
82
-------
10
20
30
40
50
60
C
70
30
90
100
1 10
IF (DELN) 10,40,60
IF (DELM) 20,30,20
RETURN
ANGARC=;80.
RETURN
IF (DELf.) 50,50,70
RETUHM
ANGARC=0.
ANGARC=0. INDICATES I ;jDETriRf':I,>; ATE AKGLii
HETURK
ANGARC=090.
RETURN
IF (DELM) 90,100,110
RETURN
AMGARC=360.
RETURN
AHGARC=57.29573*ATAM(DELr/DELK)
RETURN
END
AMG0090
AN 30100
Ai.'GOIIO
ANG0120
ANG0130
AI\GOHO
AKGO 150
ANG0160
AhGG170
ANGOloO
AMG0190
ANG0200
ANGC210
At;G0220
AMG0230
ANG0240
ANG0250
ANG0260
ANG0270
AMG0280
ANG0290
INTEGRATED VALUES
RECEPTOR FROM AH AREA SOURCE
AT
SUBROUTINE JKHPOL ( X , Iri , CONG , MS ,KR EC , XLIM)
C INTERPOLATE FROM PRSCALCULATED AREA TABLES.
C***THIS SUBROUTINE INTERPOLATES FROM A TABLE OF
C***TO DETERMINE THE CONCENTRATION AT A
C***A GIVEN DISTANCE AMD HEIGHT
C INPUT VARIBALES ARE...
C X - UPWIND DISTANCE IN KM.
C IH - THE HEIGHT INDEX.
C CONG - RELATIVE CONG. NORMALIZED FOR WIND SPEED, CHI*U/Q.
C NS - CURRENT SOURCE NUMBER
C KREC - CURRENT RECEPTOR NUMBER
C XLIM - MAXIMUM DISTANCE FOR INTERPOLATION IN AREA TABLES
COMMON /RELC/ CI.N(3,200)
COMMON ITYPE(150) ,ICODE(150) , IN , 10 , NIP , MID , N AVG
IF (X.LT.0.01) GO TO 50
IF (X.GE.0.5) GO TO 10
C***FOR DISTANCES < 500M, CONC. WAS STORED EVERY 10M.
C***STORAGE LOCATIONS 1-50 CONTAIN INTEGRATED CONC. FOR 10 TO 500M.
J=100.*X
D=J
XL=D/100.
XU=XL+0.01
GO TO 40
10 IF (X.GE.3.) GO TO 20
C***FOR DISTANCES FROM 500 TO 3.000KM CONC. WAS STORED EVERY 100M.
C***STORAGE LOCATIONS 50-75 CONTAIN INTEGRATED CONC. FOR 0.5 TO 3. KM.
J=IFIX(10.*X)+45
D=J-45
XL=D/10.
XU=XL+0.1
GO TO 40
20 IF (X.GE.15.) GO TO 30
C***FOR DISTANCES 3 TO 15 KM, CONC. WAS STORED EVERY 500M.
C***STORAGE LOCATIONS 75-99 CONTAIN INTEGRATED CONC. FOR 3 TO 15 KM.
J=IFIX(2.*X)+69
POL0010
POL0020
POL0030
POL0040
POL0050
POL0060
POL0070
FOL0080
POL0090
POL0 100
POL0 110
POL0 120
POL0130
POL0140
POL0150
POL0160
POL0170
POL0180
POL0190
POL0200
POL0210
POL0220
POL0230
POL02' ^
POL0250
POL0260
POL0270
POL0280
POL0290
POL0300
POL0310
POL0320
POL0330
POL0340
POL0350
83
-------
D=J-69
XL=D/2.
XU=XL-t-0.5
GO TO 40
C***FOR DISTANCES > 15,DOOM CONG. WAS STORED EVERY 1000M.
C***STORAGE LOCATIONS 99-200 CONTAIN INTEGRATED CONC. FOR 15 TO 116KM.
30 IF (X.GT.XLIM) GO TO 60
J=IFIX(X)+84
XL=J-84
XU=XL+1 .
40 K=J+1
C***RETRIEVE CONCENTRATIONS FOR INTERPOLATION ACCORDING TO HEIGHT CLASS
C***AND DISTANCE OUT.
C1=CIN(IH,J)
CONC=CU((X-XL)/(XU-XL))*(CIN(IH,K)-C1)
RETURN
C***FOR DISTANCES < 100M, CONC. WAS STORED IN CIM EVERY 10 M.
C***STORAGE LOCATION 1 CONTAINS INTEGRATED CONC. FOR 10 M.
50 CONC=100.*X*CIN(IH,1)
RETURN
60 WRITE (10,70) XLIM,NS,KREC
CALL EXIT
C
70
FORMAT (' ***THE INPUT VALUE OF XLIK, ' ,F10.2 , ' , IS SMALLER THAN TH
1E CALCULATED DISTANCE FROM AREA SOURCE ',14,' TO RECEPTOR ',14,'**
2*'/1X,'PLEASE REDEFINE XLIM')
END
POL0360
POL0370
POL0380
POL0390
POL0400
POL0410
POL0420
POL0430
POL0440
POL0450
POL0460
POL0470
POL0480
POL0490
POL0500
POL0510
POL0520
POL0530
POL0540
POL0550
POL0560
POL0570
POL0580
POL0590
POL0600
POL0610
POL0620
POLO&30
SUBROUTINE JMHARE ( NHTS , XLIM ,LH)
C***THE FUNCTION OF THIS SUBROUTINE IS TO CALCULATE THE CONCENTRATIONS
C***AT EACH RECEPTOR DUE TO AREA SOURCES. THE HANNAH TECHNIQUE
C***IS USED TO EXAMINE THE AREA SOURCES ALONG AN UPWIND LINE FROM
C***THE RECEPTOR. SUBROUTINE JMHPOL IS CALLED TO INTERPOLATE CONC.
C INPUT VARIABLES ARE ...
C NHTS- THE NUMBER OF AREA SOURCE HEIGHTS.
C XLIM- DISTANCE LIMIT OH AREA INTEGRATION
C IDATE - YEAR AND JULIAN LAY (IN COMMON/METDAT/ )
C LH- HOUR
COMMON /SORC/ IA(25,25) , SOUPCE( 9 , 250) , ASORC( 6 , 1 00) , UNITS , CONTWO , RR
1 ECU 50) , SPEC (150) ,MPS(25) , MAS(10) ,IOPT( 13) , IPOL , NRSCEP , RMI.M , PMAX , S
2MIN,SMAX,IRSIZFJ,ISSIZE,NPT,\IAS,M3IGP,NSIGA,PMAME(2,250) , PSAV(250)
COMMON /METCON/ ACHI(150) ,PCHI(150) ,ASIGS( 150,1 1) , PSIGS( 1 50 , 26 ) ,IA
1SIGS(100) ,IPSIGS(250) , THET A , U , KST , HL , TEMP , SI. NT , COST , BPH( 2 ) , IWD.PAR
2TC(250) ,AHCHI( 150) ,PHCHI(150) ,AHSIGS(150, 1 1 ) , PtiSIGS( 1 50 , 26 ) , PL( 6 )
COMMON /MF.TOAIV QTHETA(24) ,QU(24) ,IKST(24) ,QtlL(24) ,QTEMP(24) , IDATE
1(2)
COMMON /HEIGHT/ HIMT( 3 ) , HARE( 3 ) , BPKM( 2) , FH
COMMON ITYPE ( 1 5C) , ICODE( 1 50) , III , 10 , NIP , NID , :IAVG
DIMENSION ADELR(4), ADCLS(4)
DATA ADELR
DATA ADELS
C***CALCULATING
DO 10 IH=1 ,
H=3PH(IH)
BPHM(IH)=H
IF (FH.SQ.1
PHT=FH*H
•JPL-U*(PHT/10.
/O . 00 1 , 0 . 00 1 , -0 . 00 1 ,-G . 00 1 /
/O . CO 1 ,-G .00 1 ,-0 . 00 1 , 0 . 00 1 /
ODIFIED BREAK-POUT HEIGHTS,
,2
) GO TO 10
**PL(KST)
IF KCCESSARY
ARE0010
ARE0020
ARE0030
ARE0040
ARE0050
ARE0060
AREOO^O
ARE0080
ARE0090
ARE0100
ARE0110
ARE0120
ARE0130
ARE0140
ARE0150
ARE0160
APE017Q
ARE0180
ARE0190
ARE0200
ARE0210
ARE0220
ARE0230
ARE0240
ARE0250
ARE0260
ARE0270
ARE0280
ARE0290
ARE0300
84
-------
IF (UPL.LT.1 .) UPL=1 .
BPHf"(IH) = ( (H-PHT)*5. )/UPL+PHT
10 CONTINUE
C***DELR: S.1ALL iAST~.vE.ST INCREMENT DEPENDENT ON WIND DIRECTION
C**»USED TO STEP INTO NEXT UPWPID AREA SOURCE.
DF,LR=ADSLfi(IV;D)
C***DELS: SMALL NORTH-SOUTH INCREMENT DEPENDENT ON /JIND DIRECTION
C***UGED TO STEP IiMTO NEXT UPwIMD A.REA SOURCE
DELS = ADSLS(r,nD)
C***SUETRACTION OF 1 SO THAT POINT I.I SOUTHWEST CORNER OF AREA SOURCE
C**-fREGIOtJ WILL HAVE IA I\DEX OF (1,1).
ARE Ii^TEHtvAL UNITS.
SOURCES
TtiE K-TM
WHICH CONTRIBUTE TO THE K-TH
RECEPTOR LOCATION.
C***LOOP ON RECEPTORS
C***U?IITS FOR CEOKETRIC CALCULATIONS
DO 310 K=1 , NRECEP
C***ZERO PARTIAL CONCENTRATION ARRAY
DO 20 1=1,NAS
20 PARTC(I)=0.0
XL-0.0
CONCL=0.0
IHL = 0
C***SEAKCii FOR UPWIND AREA
C***RF.CF_PTOR, BEGINN'IMG AT
RRE=RREC(K)
SHE-SREC(K)
C***SUBTHACT MINIMUM AND STEP UPWIND INTO AREA SOURCE,
C***THIiN IMTEGERIZE TO ACCESS SOURCE N'UMBER IN IA ARRAY.
TR=RRE-RKINI+DELR
IS=SRE-SHINI+DELS
C*** IS RECEPTOR WITEIN DEFINED LIMITS ***
IF ((RRE.LE.RMI\0 .OR.(RRK.GE.RMAX)) GO TO 230
IF ((SRE.LE.St'IN) .OR.(SRE.GE.SMAX) ) GO TO 230
C***
C***RECEPTOR IS rtlTHIN AREA SOURCE REGION.
C***DETERMIME SOURCE NUMBER,NS, SOURCE CENTER(RC,SC),
C**1'HALF OF SOURCE SIDE LENGTH,D, SOURCE STRENGTH,QA, AND SOURCE HEIGHT,
C***HA.
30 IF ((IR.LE.O).OR.(IR.GT.IRSIZE)) GO TO 300
IF ((IS.LE.O).OR.(IS.GT.ISSIZE)) GO TO 300
NS=IA(IR,IS)
C***SKIP HEIGHT CALCULATIONS IF NS = 0.
IF (NS.EU.O) GO TO 60
D=ASORC(5,NS)
RC=ASORC(1,NS)+D
SC=ASORC(2,MS)+D
QA=ASORC(IPOL,NS)
HA=ASORC(6,NS)
IF (QA.LE.0.0) GO TO 70
C***USE POWER LAW DEPENDENT ON STABILITY CLASS TO MODIFY WIND SPEED
C*W*AT EFFECTIVE HEIGHT OF STACK.
C*** VARY EFFECTIVE HEIGHT(M) ACCORDING TO WIND SPEED
C»**HA~ EFFECTIVE AREA SOURCE HEIGHT(M)
C***FH- FRACTION OF HA WHICH IS PHYSICAL HEIGHT
CI(*)(PHT- PHYSICAL STACK HEIGHT(M)
C***(HA-PHT) IS PLUMF, RISE
PHT=FH*HA
THT=PHT
IF (PHT.LT.1.) THT=1.
UPL=U*(THT/10.)*»PL(KST)
ARE0310
ARE0320
APE0330
ARE0340
ARE0350
ARE0360
ARE0370
APE0380
ARE0390
ARE0400
ARE0410
ARE0420
ARE0440
ARE0450
ARE0460
ARE047Q
ARE0480
ARE0490
ARE0500
ARE0510
ARE0520
ARE0530
ARE0540
ARE0550
ARE0560
ARE0570
ARE0580
ARE0590
ARE0600
ARE0610
ARE0620
ARE0630
ARE06MO
ARE0650
ARE0660
ARE0670
ARE0680
ARE0690
ARE0700
ARE0710
ARE0720
ARE0730
ARE071*0
ARE0750
ARE0760
ARE077Q
ARE0780
ARE0790
ARE0800
ARE0810
ARE0820
ARE0830
ARE0840
ARE0850
ARE0860
ARE0870
ARE0880
ARE0890
ARE0900
ARE0910
ARE0920
85
-------
IF (UPL.LT.1.) UPL=1.
HA=((HA-PHT)*5.)/UPL+PHT
C***DETERMINE HEIGHT CLASS
IH=NHTS
GO TO (70,50,40), NHTS
40 IF (HA.LT.BPHM(2)) IH=2
50 IF (HA.LT.BPHM(O) IH=1
GO TO 70
C***SINCE SOURCE NO. IS ZERO, CALCULATE COORDINATES OF SOURCE CENTER
C**»AND DEPENDING ON WIND DIRECTION BRANCH TO CODE WHICH DETERMINES
C***THE NEXT AREA SOURCE IN THE UPWIND DIRECTION.
60 D=.5
RC=FLOAT(IR)+RMINI+D
SC=FLOAT(IS)+SMINI+D
C*»»IWD IS 1 FOR THETA LESS THAN 90 DEC., 2 FOR 90-180 DEC, ETC.
70 GO TO (80,90,110,120), IWD
C***rWD=1*****»
C***DETERMINE TWO UPWIND BOUNDARIES(NORTH AND EAST).
80 SB=SC+D
GO TO 100
C***IWD=2******
C***DETERMINE TWO UPWIND BOUNDARIES(SOUTH AND EAST).
90 SB=SC-D
100 RB=RC+D
GO TO 140
C***IWD=3******
C»»*DETERMINE TWO UPWIND BOUNDARIES(SOUTH AND WEST).
110 SB=SC-D
GO TO 130
C***IWD=4******
C***DETERM1NE T'vtO UPWIND BOUNDARIES(NORTH AND WEST).
120 SB=SC+D
130 RB=RC-D
C***FIND LOCUS OF UPWIND RAY AMD CLOSEST BORDER
140 IF (SINT.EQ.O.) GO TO 160
C***IF SIN=0. NORTH OR SOUTH BOUNDARY IS APPROPRIATE.
XD1=(RB~PRE)/SIMT
C***XD1 IS DISTANCE(USER UNITS) TO EAST OR WEST BOUNDARY,
C***WHICHEVER 13 UPWIND.
IF (COST.EO.O.) GO TO 170
C***IF COS=0. EAST OR WEST BOUNDARY IS APPROPRIATE.
XD2=(SB-SRli)/COST
C***XD2 IS DISTAHCE(USSR UNITS) TO NORTH OR SOUTH BOUNDARY,
C***WHICHEVER IS UPWIND.
IF (XD1.LT.XD2) GO TO T/o
150 RDUf;=RRE+XD2*SINT+DELR
C***RDU!1,SDUM ARE COORDINATES OF INTERSECTION WITH BOUNDARY PLUS
C***3iXALL IMCREMEIJT3 TO STEP INSIDE NEXT UPWIMD SOURCE.
DIST=XD2
C***DIST IS DISTANCE TO NEAREST BORDER.
GO TO 180
160 XD2=(SB-SRE)/COST
GO TO 150
170 RDUM = ;iB+DELR
D1ST=XD1
180 DIST=DIST*CONTWO
C***D13T IS lv-1 KM.
C***IF sounc.^ i;o. is ZERO, PASS
IF (fJS.Et'.O) GO TO 210
C***IF fci;iISSIC!i RATE < 10E-10, POL
OH TO MEXT UPWIND AREA SOURCE
UTANT CONTRIBUTION WILL BE IMSIGN1F
ARE0930
ARE0940
ARE0950
ARE0960
ARE0970-
ARE0980
ARE0990
ARE1000
ARE1010
ARE1020
ARE10;30
ARE1040
ARE1050
ARE1060
ARE1070
ARE1080
ARE1090
ARE1100
ARE1110
ARE1120
ARE1130
ARE1140
ARE1J50
ARE1160
ARE117Q
ARE1180
ARE1190
ARE1200
ARE1210
ARE1220
ARE1230
ARE1240
ARE1250
ARE1260
ARE1270
ARE1280
ARE1290
ARE1300
ARE1310
ARE1320
ARE1330
ARE1340
ARE1350
ARE1360
ARE1370
ARE1380
ARE1390
ARE1400
APE1410
ARE1420
ARE1430
ARE1440
ARF1450
ARE1460
AHE147Q
ARE1480
ARE1490
ARE1500
ARE1510
ARE1520
ARE1530
ARE1540
86
-------
C***lCAi\IT, GO ON TO NEXT UP'.-il'iD AREA SOURCE.
IF (QA.LE.10.0E-10) GO TO 210
C***(A SUBSTANTIAL SAVINGS I>, CO^PUT^ TlO'i TDiC IS
C***AREA WITH HO EMISSIONS IS DEFIED MT-: A ZERO
C***AS OPPOSED TO LEAVING THE AREA JKDEFI.-JED ,THIK
C* **!•':! MIMUM GRID SQUARE SIZE /.'HZ ! SEARCriliG FOR T'
EFFECTED IF A LARGE
SOURCE STRENGTH
DEFAULTING TO THE
E MEXT ;JPVJI;:D SCURCI
C***USK THIS SOURCE TO RF.CEPTO* DISTANCE
C»**FOR INTEGRATED XU/Q TO T-IIS DISTANC
VnLULS. S'JBRCU
A'iD HEIGHT CLASS T
?Y INTEr.POLAII'IG
I'\E J"KPOL PFFFOR"
C1
PARTIAL CONCENTRATION
C***PRECALCULATED CH
C***INTEHPOLATION.
CALL Ji'lHPOL (DIST,I;I,CO";C,:,S,K,XLI")
C***XL(KK) IS THE UPWIND DISTANCE TO THE
C***BOUNDAEY POINT.
IF (XL.LE.O) GO TO 190
IF (IH.NE.IHL) CALL J'-IHPOL (XL.IH.i
190 DIFF = COHC-COtJCL
C***THE CHI*U/Q DIFFERENCE IS MULT
C***3Y rtlMD SPEED '.vHICrl HAS BEE
C***HEIGriT. THIS CALCULATED
C***riS TO THE TOTAL POLLUTANT
PROD=QA*DIFF/UPL
ACH1(X)=ACH1(K)+PROD
AHCHI(K)=AHCHI(K)+FROD
KSIG=IASIGS(MS)
IF (KSIG.EQ.O) GO TO 200
C***IF THE SOURCE IS SIGUIF ICal.T, STORE
AS1GS(K,KSIG)=ASIGS(K,K3IG)+FROD
AHSIGS(K,KS1G)=AHS1GS(K,K3IG)+PROD
A3IGS(K,11)=ASIGS(K,1D+PPOD
AHSIGS(K,11)=AHSIGS(K,1D+PROD
200 CONCL=CONC
C***SAVE PARTIAL CONCENThATIO;, FOR ALL SOURCES
PARTC(KS)=PROD
II;L=IH
GO TO 220
210 IHL=0
220 XL-DIST
C***IS THIS POINT OUTSIDE SOURCE REGION?
IF ((RDUM.LE.RMIN) .OR.(RDUil.GE.RXAX) ) GO TO 300
IF ((SDUM.LE.3MIM).OR.(SDUM.GE.3MAX)) GO TO 300
C***IR,IS IA INDICES FOR NEXT SOURCE
1R=RDUM~RMINI
I3=SDUM~SMINI
GO TO 30
C***
C***RECEPTOR IS OUTSIDE LIMITS OF GRID***
C***
230 DXM1W=99999.
C***FIND THE INTERSECTION
C***THE NEAREST BORDER OF
ICMT=0
RM=RMIN
C*** FIND LOCUS FOR RMIN,
DO 260 L=1 ,2
RMR=RM-RRE
C*** IF SINT IS ZERO, THERE IS NO LOCUS rflTH THIS BOUNDARY
IF (SINT.EQ.O.) GO TO 250
C***FIND NORTH COORDINATE OF LOCUS.
S=RMR*COST/SINTH-SRE
IF (S.GT.SMAX) GO TO 250
IF (S.LT.SM1N) GO TO 250
C***FIND DISTANCE FROM RECEPTOR TO LOCUS.
GET A V ;
i TA^LE I
Tt:E
EMISSION FATE A -D DIVIDED
THE PO/;ER LAI-: TO THE PROPER
3 T-iE CONTiUhUTIOi. OF 30UPCE
AT ME K-TH RECEPTOR.
OF THE UPWIND AZIMUTH FROM
THE AREA SOURCE REGION.
THEN RMAX
THE RECEPTOR TO
ARE1550
ARE1560
ARE1570
ARE1580
ARF1590
A RE 1C 00
ARE1610
APE 1620
ARE 16 30
ARE16HO
ARE 1650
ARE1660
ARE1670
ARE16SO
ARE1690
ARE1700
A R E 1 7 1 0
ARS1720
ARF1730
ARE1740
AHE1750
A RE 177Q
A«E1800
A R E 1 3 1 0
ARS1320
ARF1830
ARElRitO
APE 1850
A RE 18 60
APE18VQ
ARE1830
A RE 1890
ARE1900
A R E 1 9 1 0
ARE1920
A RE 19 30
A RE 19*10
ARE1950
A R E 1 9 6 0
ARE 19 30
AHE1990
ARE2000
ARL2010
ARE2020
ARE2030
AKE2010
ARE2050
ARK2060
ARE207Q
ARE2080
ARK2090
ARE2100
ARE21 10
ARE2120
ARG2130
ARE2UO
ARE2150
ARE2160
87
-------
IS A DOWNWIND LOCUS,
A PREVIOUS LOCUS?
DX=RMR*SINT+(S-SRE)«COST
C*»*IF DISTANCE IS NEGATIVE, THIS
IF (DX) 250,240,240
C***IS THIS DISTANCE SHORTER THAN
240 IF (DX.GE.DXMIN) GO TO 250
RLOC=RM
SLOC=S
DXMIN=DX
C*»*COUNT THE NUMBER OF LOCI FOUND.
ICNT=ICNT+1
250 RM=RMAX
260 CONTINUE
SM=SMIN
C***FIND LOCUS FOR SMIiM, THEN SMAX.
DO 290 L = 3,4
SMS=SM-SRE
C***IF COSINE IS ZERO, THERE IS NO LOCUS WITH THIS BOUNDARY.
IF (COST.EQ.O.) GO TO 280
C***FIND EAST COORDINATE OF LOCUS.
R=SMS*SINT/COST+RRE
IF (R.GT.RMAX) GO TO 280
IF (P.LT.RMIM) GO TO 280
C***FIND DISTANCE FROM RECEPTOR TO LOCUS.
DX=(R-RRE)*SINT+SMS*COST
C***IF DISTANCE IS NEGATIVE, THIS
IF (DX) 280,270,270
C***IS THIS DISTANCE SHORTER
NOT UPWIND.
IS A DOWNWIND LOCUS, MOT UPWIND.
270
GO TO
THAN
280
A PREVIOUS LOCUS?
(DX.GE.DXM1N)
RLOC=R
SLOC=SM
DXMIN=DX
ICMT=1CNT+1
280 SM=SMAX
290 CONTINUE
C***IF ICNT=0 NO LOCI WERE FOUND, THEREFORE NO AREA SOURCE CONTRIBUTION
C***AT THIS RECEPTOR.
IF (ICNT.EQ.O) GO TO 300
DIST=DXMIW
C***FIND THE DISTANCE TO THE NEAREST SOURCE IN KM
C***FIND CO-ORDINATES TO LOCATE SOURCE
C***DIST IS IN INTERNAL UNITS.
XL=D1ST*CONTWO
C***XL IS IN KM.
C***IR AND IS NOW ARE COORDINATES OF A POINT
C***ARBA SOURCE.
IR = RLOC + DELR-RMIM
1S=SLOC+DELS-SMINI
GO TO 30
C***WRITE PARTIAL CONCENTRATIONS TO DISK
.EQ.O) GC TO 310
IDATE,LH,N,(PARTC(J) ,J=1 ,t-,AS)
LYING IN THE NEXT UPWIND
300
IF
310
(IOPT(8)
(NIP)
CONTINUE
RETURN
ARE2170
ARE2180
ARE2190
ARE2200
ARE2210
ARE2220
ARE2230
ARE2240
ARE2250
ARE2260
ARE227Q
ARE2280
ARE2290
ARE2300
ARE2310
ARE2320
ARE2330
ARE2340
ARE2350
ARE2360
ARE2370
ARE2380
ARE2390
ARE2400
ARE2410
ARE2420
ARE2430
AHE2440
ARE2450
ARE2460
ARE247Q
ARE2480
ARE2490
ARE2500
ARE251C
ARE2520
ARE2530
ARE2540
ARE2550
ARE2560
ARE2570
ARE2580
ARE2590
ARP'2600
ARE2610
ARE2620
AKE2630
ARE2640
ARE2650
ARE2660
ARE2680
AR22690
ARE2700
AKE2710
SUBROUTINE JKKPTU ( HS <\V , DSAV , Z , TLOS , Lil)
THE PURPOSE OP THIS ROUTI ,'E 13 IJ CALCULali
POINT SOURCES.
PTU0010
PTJ0020
PTU0030
88
-------
C INPUT VARIABLES ARE...
C HSAV- AN ARRAY OF EFFECTIVE HEIGHTS FOR POINT SOURCES(METERS)
C DSAV-AN ARRAY OF DISTANCES TO FINAL RISE(KM)
C Z- RECEPTOR HEIGHT.
C TLOS- PARTIIAL COMPUTATION RELATED TO POLLUTANT LOSS.
C IDATE- YEAR AND JULIAN DAY(IN COMMON/METDAT/ )
C LH- HOUR
COMMON /SORC/ IA(25,25) ,SOURCE(9 ,250) , ASORC(6 , 1 00) , UNITS, CONTWO, RR
1EC(150) ,SREC(150) ,MPS(25) ,MAS(10) ,IOPT(13) ,IPOL,NRECEP ,RMIN,RMAX ,S
2MIN,SMAX,IRSIZE,ISSIZE,NPT,NAS,NSIGP,NSIGA,PNAME(2,250),PSAV(250)
COMMON /METCON/ A CHI (150) ,PCHI(150) , ASIGS( 150, 1 1 ) ,PSIGS( 150 ,26) ,IA
1SIGS(100) ,IPSIGS(250) ,THETA,U,KST,HL)TEMP,SINT,COST,BPH(2),IWD,PAR
2TC(250) ,AHCHI(150) ,PHCHI( 150) , AHSIGS( 150, 1 1 ) ,PHSIGS( 150 ,26) ,PL(6)
COMMON /METDAT/ QTHETA(24) ,QU(24) ,IKST(2H) ,QHL(24) ,QTEMP(24) , IDATE
1(2)
COMMON ITYPE(150) ,ICODE(150) , IN, 10, NIP ,NID ,NAVG
DIMENSION HSAV(NPT), DSAV(250), UPH(250), HPR(250), FP(250)
C***
C***ZERO EFFECTIVE STACK HEIGHT FOR EACH SOURCE
C***
DO 10 J=1 ,NPT
10 HSAV(J)=0.0
C***LOOP ON RECEPTORS***
DO 120 K=1 ,NRECEP
C***
C***CALCULATE CONCENTRATIONS FROM POINT SOURCES***
C*** LOOP ON POINT SOURCES
DO 110 J = 1 ,MPT
PARTC(J)rO.O
RQ=30URCE(1 ,J)
SQ=SOURCE(2,J)
C***DETERMIK!E UPWIND DISTANCE
C***XDUM,YDUM IN INTERNAL UNITS. X,Y IN KM.
XDUM=RQ-RREC(K)
YDUM=SQ-SREC(K)
X=(YDUM*COST+XDUM*SIJT)*COMWC
C*** X IS THE UPWIND DISTANCE OF THE SOURCE FROM THE RECEPTOR.
C***IF X IS NEGATIVE, INDICATING THAT THE SOURCE IS DOWNWIND OF
C***THb RECEPTOR, THE CALCULATION IS TERMINATED ASSUHIMG NO
C** "CONTRIBUTION FROM THAT SOURCE.
IF (X.LE.0.0) GO fO T10
C5f**
C***DETFJHMliME CRCSSWIND DISTANCE
Y=(YDUM*S1UT-XDUM*COST)*CONT.JC
i!F = HSAV(J)
CJ'**SKIP PLJHE HISS CALCULATION IF EFFECTIVE HEIGHT 4AS ALREADY BEEN
C*** CALCULATED KO n THIS SOURCE
IF (ilF.GT.0.0) GO TO '6ICHCASE OF VilKD SPEED ^'ITH HEIGHT.
CJ-**ASSUI/!.' '.vIliD /iEASUREMENTS A.^E REFPESLNTATl VIL FOR A 10 r'STER HEIGHT.'
THT = SCUHC.:-;(5,J)
C***PO!.i'T 3&UPCiL 'iClGHT NOT ALLOWED TO r;H LESS THAn 1 ^ETER.
IF (Ti/T.LT. 1 . ) THT-i .
UPL=Ui(THT/13.)**PL(KGT)
C***>
-------
L;UOY-SOUnCE(9,J)
TS=SOURCE(6,J)
^ iii L T1 - T S — T ^' 1P
F=BUOY*D!iLT/TS
C*** IOPT(13) HOURLY EMISSION I.iPUT FROM TAPE/DISK? 0=110, 1=YES.
IF (IOPT(13).EQ.O) GO TO 20
C***MODIFY EXIT VELOCITY At,D BUOYANCY BY PATIO OF HOURLY EMISSIONS
C***TO AVERAGE EMISSIONS
SCALE=GOUKCE(IPOL,J)/PSAV(J)
TAKES INTO ACCOUNT STACK DOWMWASH
- .
F = FSSCALE
20 D=SOUHCE(7,J)
C*«*CALC'JLATE K PRIME nHI
C***BR1GGS(1973) PAGE 4
HPRM=THT
DUM=VS/UPL
IF (DU'i.LT.1 .5) KPRr;=TKT+2.
IF (HPfiy.LT.O.) HPRh = 0.
C***CALCULATE PLUME ^ISE AMD ADD H PRIME TO 03TAIM EFFECTIVE
C***STACK HEIGHT.
C***
C***PLUMK RISE CALCULATION
IF (KST.GT.4) GO TO 40
C***PLUKE HISE FOR UNSTABLE CONDITIONS
IF (TS.LT.TEMP) CO TO 50
IF (F.GE.55.) GO TO 30
C*);*DETEfif''l NE DELTA-T FOR BUG
C***FOUND BY EQUATING BR1GGS(1969) EG 5.2, PAGE 59
C***bRIGGS(1971) EQUATIONS 6 AND 7, PAGE 1Q31 FOR F<55.
DT'1B=0.0297*TSWVS**0.33333/D**0.66667
IF (DELT.LT.DTMB) GO TO 50
C***DI3TA.MCE OF FINAL BUOYANT R1SE(0.049 IS 14*3.5/1000)
C***BR1GGS( iyn) AQUATION 7,F<55, AND DIST TO FINAL RISE IS 3.5 XSTAR
C30SSOVER(F<55)
COMBINATION OF
G***COMB1NATICN OF BRIGGS(1971) EQUATION'S 6 AND 7, PAGE 1031 FOR F<55.
HF = ilPH.-l+21 .42':>itF**0.75/UPL
GO TO 70
C***DETEHHI^E DELTA-T FOR BUOY ANCY-MOf'iENTUM CROSSOVEfi( F>55)
C***FOUND BY EOUATING BRIGGS(1969) EQ 5.2, PAGE 59 WITH COMBINATION OF
C*** B1UGGS(1971) EQUATIONS 6 AND 7, PAGE 1031 FOR F>55.
30 DTf!B=0.0057S*TS*VS**0.66667/D**0.33333
IF (DELT.LT.DTfIB) GO TO 50
C***DISTANCE OF FINAL BUOYANT RISE (0.119 IS 34*3.5/1000)
C***bRICGS(197D EQUATION 7, F>55, AND DIST TO FINAL RISE IS 3.5 XSTAR.
DISTFrO.119*F**0.4
C***COKB1NATION OF BRIGGS(1971) EQUATIONS 6 AND 7, PAGE 1031 FOR F>55.
UF=HPnM+38.71*F**0.6/UPL
GO TO 70
C***PLUME 'RISE FOR STABLE CONDITIONS.
40 DTHDZ=0.02
IF (KST.GT.5) DTHDZ=0.035
S = 9.80616*DTilDZ/TEMP
IF (TS.LT.TEMP) GO TO 60
C***DKTERMINE DELTA-T FOR BUOYANCY-MOMENTUM CROSSOVER(STABLE)
C***FOUND BY EQUATING BRIGGS(1975) EQ 59, PAGE 96 FOR STABLE BUOYANCY
C***R1SE WITH 3RIGGS(1969) EQ 4.28, PAGE 59 FOR STABLE MOMENTUM RISE.
DTMB=0.019582*TEMP*VS*SQRT(S)
IF (DELT.LT.DTMB) GO TO 60
C***STABLE BUOYANT RISE FOR WIND CONDITIONS.(WIND NOT ALLOWED LOW
C***ENOUGH IN RAM TO REQUIRE STABLE RISE IN CALM CONDITIONS.)
C***BRIGGS(1975) EQ 59, PAGE 96.
PTU0660
PTU0670
PTU0630
PTU069C
PTU0700
PTU0710
PTU0720
PTU0730
PTU0740
PTU0750
PTU0760
FTU0770
PTU07SO
PTU0790
PTU0800
PTU0810
PTU0820
PTU0830
PTU0840
PTU0850
FTU0360
PTU087Q
PTU08SO
PTU0890
PTU0900
PTU0910
PTU0920
PTU0930
PTU0940
PTU0950
PTU0960
PTU0970
PTU0980
PTU0990
PTU1000
PTU1010
PTU1020
PTU1030
PTU1040
PTU1050
PTU1060
PTU1070
PTU1080
PTU1090
PTU1100
PTU1110
PTU1120
PTU1130
PTU1140
PTU1150
PTU1160
PTU1170
PTU1180
PTU1190
PTU1200
PTU1210
PTU1220
PTU1230
PTU1240
PTU1250
PTU1260
PTU1270
90
-------
HF=HPRM+2.6*(F/(UPL*S))**0.333333
C***COMBINATION OF BRIGGS(1975) EQ 48 AND EQ 59. NOTE D13TF IN KM.
DISTF=0.0020?15*UPL/SQRT(S)
GO TO 7Q
C***UNSTABLE-NEUTRAL MOMENTUM RISE
C***BRIGGS(1969) EQUATION 5.2, PAGE 59 NOTE: MOST ACCURATE WHEN VS/U>4;
C***TENDS TO OVERESTIMATE RISE WHEN VS/U<4 (SEE BRIGGS(1975) PAGE 78,
C*** FIGURE 4.)
50 HF=HPRM+3.*VS*D/UPL
D1STF=0.
GO TO 7Q
C***STABLE MOMENTUM RISE
60 DHA=3.*VS*D/UPL
C***BRIGGS(1969) EQUATION 4.28, PAGE 59
DELHF=1.5*(VS*VS*D*D*TEHP/(4.*TS*UPL))**0.333333/S**0.166667
IF (DHA.LT.DELHF) DELHF=DHA
HF=HPRM+DELHF
DISTF=0.
C***STORE OFF PLUME HEIGHT(ETC.) FOR THIS SOURCE FOR USE WITH
C***OTHER RECEPTORS.
70 rfSAV(J)=HF
DSAV(J)=DISTF
UPH(J)=UPL
HPR(J)=HPRI1
FP(J)=F
C***IF SOURCE-RECEPTOR DISTANCE IS GREATER OR EQUAL TO DISTANCE TO FINAL
C***SK1P PLUME RISE CALCULATION AMD USE FINAL RISE.
80 IF (X.GE.DSAV(J)) GO TO 90
C***PLUME RISE FOR DISTANCE X(160 IS 1 .6*1000**.67 BECAUSE X IN KM)
HX=HPR(J)+160.*FP(J)**0.333333*X**0.666667/UPH(J)
IF (HX.LT.HF) HF=riX
C***SUBROUTINE DBTRCU RETURNS THE DISPERSION PARAMTERS,SY AND SZUET5RS)
C***AND RELATIVE CONCENTRATION VALUE CHI/Q (SEC/l-:**3)
90 UPL=UPH(J)
CALL DBTRCU ( UPL,Z,HF,HL,X,Y,KST,SY,SZ,PROD)
C***CALCULATS TRAVEL TIME IN KM-SEC/M TO INCLUDE DECAY RATE OF POLLUTANT
TT=X/UPL
C***TLOS IN METERS/KM-SEC, SO TT*TLOS IS DMEhSIOWLSSS
PROD=PROD*30URCE(1POL,J)/EXP(TT*TLOS)
C***INCREMENT CONCENTRATION AT K-TH PEC^PTOR( G/f"* *1)
PCHI(K)=PCKI(K)+PROD
PHCHI(K)=PHCH1(K)+PROD
KSIG=1PSIGS(J)
IF (KSIG.SQ.O) GO TO 100
C***STORli COKCEKTKATIO'JS FRO.1] SIGNIFICANT SOURCtS. (G/.'i**3 )
PSIGS(K,KSIG)=PS1GS(K,KSIG)+PHOD
PSlGS(K,26)=PSlGS(K,26)-fFROD
FHSlGS(K,26) = PHSIGS(K,26)-i-PRGD
TOO PARTC(J)=PfiOD
110 COM1NUL
Ck**EiM'D OF LOOP tOh SOURCES
C***«RIT£ PARTIAL CONCS'JTKATIOiiS 0.\ DIS
IF (IOPT(6) .Eg.O) GO TO 120
CH**USiR PLSAS?: ,>jOTi: PARTIAL COivC. 1,\ G/r:kii3, KOI
h'hlTE (NIP) IDATL\LH,X,(PARTC(J) ,J=1 ,npr)
120 COMTIhUE
C*rf*t,IlD OF LOOP FOR RECEPTORS
RETJRfv
C
END
PTU1280
PTU1290
PTU1300
PTU1310
PTU1320
PTU1330
PTU1340
PTU1350
PTU1360
PTU1370
PTU1380
PTU1390
PTU1400
PTU1410
PTU1420
PTU1430
PTU1440
PTU1450
PTU1460
PTU147Q
PTU1480
PTU1490
PTU1500
PTU1510
PTU1520
PTU1530
PTU1540
PTU1550
PTU1560
PTU1570
PTU1580
PTU1590
PTU1600
PTU1610
PTU1620
PTU1630
PTU1640
PTO'1650
PTU1660
PTU167Q
PTJ1680
PTU1690
PTU17QO
DT.J171Q
PTU1720
PTU173Q
PTU1740
PTU17bO
PTU1760
PTU177Q
PTU1730
PTU1790
PIU1300
PTU1&10
PTU1820
PTL1333
PTIM 640
PTU1350
PTU1860
PTU187Q
PTU1880
91
-------
SUBROUTINE J'';!54u (/.liTS , Z , YLi" , TLCS)
C***TrfE PURPOSE OF THIS POUTIRE IS TO CALCULATE Trtr;LE3 OF
C***C01!CEKTRAT10r KOR* ALIZED "On ,TF AIIC:'.
C INPUT VARIAPLES
C HINT- REPRES
C KHTS- NbKBER
0 Z- RECEPTOR EEIGt:T(';)
C XLl."'- DISTA/.CE Li'ilT 0", I:,TEGr,ATIO,\ OF AREA COU?CESU;0
C TLOS- PARTIAL CCMPUTAT LO-; DELATED TO POLLUTANT LOSS
COMMON A'iETCO:;/ ACF-K150) ,?C.-;i(15C) ,ASIGS( 150,1 1) ,P3IG3(150,26) ,1A
1 SIGS ( 1 00 ) , IPSIG3 ( 250 ) , THET A , U , .<3T , HL , T E::p , SI ^T , COST , RP U( 2 ) , I w'D , PA R
2TC(250) ,AHC.il(150),PHCHI(150),AH3IGS(150,11),PK3IG3(150,26),PL(6)
COMMON /HEIGHT/ M1\'T(3) ,HARE(3) ,EPH!'(2) ,"4
COMMON /RELC/ CI.'i(3,200)
C***COrlCENTRATIOh TABLES ARE GE'.'ERATEL FOR UP 10 3 "CIG-1T3.
DO 190 IK=1 ,rJHT3
:I = HINT(IH)
1ARE(1H)-!I
54U0010
5iIU0020
5^00030
IF (FJ1.EQ.1 .)
TO 10
P!IT = FH*H
UPL=U*(PHT/10.
IF (UPL.LT.1.) UPL=1.
H=( (H-PHT)*5.)/'JPL-i-PHT
HARE(IH)=H
GO TO 20
C***MODIFY V,'I>jD SPEED LY PG'./FH LAW PROFILE.
10 IF (H.LT.1 .0) :i = 1 .0
UPL = U*(H/ I 0.)**PL(KST)
IF (UPL.LT.i.0) UFL= i .0
C***ZERO CO.MCEtlTPATIOJ ARRAY
20 DO 30 J=1,200
30 C1N(IH,J)=0.0
HC=10
CP^O.O
01=0.0
JD=1
C***D15TArJCE IN KM.
X = 0.0
DELX=0.001
ID=1
40 CL=CP
X=X+DELX
C***SUBROUTIME JMHCZU DETERMINES THE RELATIVE CONCENTRATION AT
C«**VARYING DOWNWIND DISTANCES.
CALL JMHCZU ( Z , H , X , SZ , CP)
C***CALCULATE TRAVEL TIME IN KM-SEC/M.
TT=X/UPL
C***ADJUST RELATIVE COMCKNTRATION BY POLLUTANT DECAY RATE.
C***TLOS IN METERS/SM-SEC, SO TT*TLOS IS DIMEMS10NLESS.
CP=CP/EXP(TT*TLOS)
C***INTEGRATED RELATIVE CONCEMTRATiOH IS DIMENSIOMLESS.
C***MULTIPLICATION 3Y 500. CONVERTS TO METERS AND DIVIDES BY 2.
CI=500.*DELX*(CL+CP)+CI
GO TO (50,90,120,150,180), JD
C***NORMALIZED CONCENTRATIONS ARE STORED IN TABLES FOR VARYING
C**»DISTANCES AT VARYING TIME INTERVALS. THE FOLLOWING COMMENTS DETAIL
54U0050
54U0060
54U0080
54U0090
5MU01 10
54U012C
54U0130
54U0140
54U0150
5UU0160
54U0130
54U0190
54U0200
54U0210
5^400220
54U0230
51U0260
5*400280
5^10290
54U0310
54U0320
54U0330
5^0350
54U0360
5HU0330
54U0390
54U0420
54U0430
54U0450
ilUOit80
54U0500
S1U0510
54(10520
54U0530
54U0540
54U0550
54U0560
54U0580
54U0590
92
-------
C***Tt:E TOLL'S CC:!S7:iuC7IC:,. 54U0600
C***DISTAi\CFX1GC"; CALCULATE EVEHY 1 .-I, STORE EVERY 10 H, 0.01KH. 54U0610
50 IF (X-0.0993) 60,30,50 54U0620
60 K = :i+1 54U0630
IF (;j.LT.\C) GO TC 40 54U0640
N=0 54U0650
70 ID=(100.*X)+O.OOOt 54U0660
C***STORAGK LOCATIONS 1-9 CCi.'TAi:.' INTEGRATIONS FOR 10-90 M. 54U067Q
CIN(IH,1D)=CI 54U0680
GO TO 40 54U0690
C***DI3TAl'iCl- 100-500^!: CHA\'GS DELX TO 10M; STORE EVERY 10 M, 0.01KM. 54UQ7QO
60 JD=2 54U0710
DF.LX = 0.01 54U0720
GO TO 7o 54U0730
C***STORAGE LOCATIONS 10-49 CONTAIN INTEGRATIONS FOR 100 M TO 490 M. 54UQ740
90 IF (X-0.497) 70,100,100 54UQ750
C*** DISTANCE 500 -3000N.; CHANGE D?LX TO 100 M; STORE EVERY 100 M, G.1KM 54UQ760
100 JD=3 54U077Q
DELX=0.1 54UQ780
110 IP=(10.*X)+45.C8 54U0790
C***STORAGE LOCATIONS 50-74 CONTAIN INTEGRATIONS FOR 500 M TO 2900 H. 54U0800
CIN(lh,ID)=Ci 54U0810
GO TO 40 54U0820
120 IF (X-2.95) 110,13C,;30 54U0830
C**" DISTANCE 3000- 15.000M. ; CHANGE DELX TO 500 II; STORE EVERY 500 M, 54U0840
C*** 0.5K-1. 54U0850
130 JD=4 54U0860
DELX=.5 54U087Q
140 ID=(2.*X)+69.08 54U0880
C***STOHAGl-: LOCATIONS 75,98 COKTA1N INTEGRATIONS FOR 3000 M TO 14.5 KM. 54U0890
C1N(IH,ID)=CI 54U0900
GO TO 40 54U0910
150 IF (X-14.95) 140,160,160 54U0920
C**K DISTANCE >15,OOOH.; CHANGE DELX TO 1000M; STORE EVERY 1000 M, 1KM. 54U0930
160 JD=5 54U0940
DELX=1. 54U0950
17o ID=X+84.08 54U0960
C***STORAGE LOCATIONS 99-200 CONTAIN IMTEGRATIONS FOR 15 KM TO A 54U097Q
C***MAX1MUH OF 116 KM. 54U0980
ClN(IH,ID)rCl 54U0990
GO TO 40 54U1000
180 IF (X-XLIM) 170,190,190 54U1010
190 CONTINUE 54U1020
RETURN 54U1030
C 54U1040
END 54U1050
SUHROUTLNK JHHCZU (Z , H,X,SZ , RCZ) CZU0010
COMMON /MKTCON/ ACHI( 1 50) , PCH1(150),ASIGS(150,11),PSIGS(150,26),IA CZU0020
UUGS(IOO),LPS1GS(250),THETA,U,KST,HL,TBMP,SINT,COST,BPH(2).IWD.PAR CZU0030
2TC(250),AHC1I1(150),PHCHI(150),AHSIGS(150,11),PHSIGS(150,26),PL(6) CZU0040
C SUBROUTINE JMHCZU CALCULATES CHI*U/Q, RELATIVE CONCENTRATION CZU0050
C NORMALIZED FOR WIND SPEED AND EMISSION RATE, FOR A CROSSWIND CZU0060
C 1NFINTE SOURCE UPWIND OF A RECEPTOR (IN UNITS OF: PER METER CZUOQ7Q
C JMHCZU CALLS SUBROUTINE .BRSZ CZU0080
C THE INPUT VARIABLES ARE CZU0090
C Z RECEPTOR HEIGHT (M) CZU0100
C H EFFECTIVE STACK HEIGHT (M) CZU0110
C HL MIXING HEIGHT- TOP OF NEUTRAL OR UNSTABLE LAYER(M) CZU0120
93
-------
C (THROUGH COMMON/METCON/)
C X DISTANCE SOURCE IS UPWIND OF RECEPTOR (KM)
C KST STABILITY CLASS (THROUGH COMMON /METCON/)
C THE OUTPUT VARIABLES ARE....
C SZ VERTICAL DISPERSION PARAMTER.
C RCZ RELATIVE CONCENTRATION HAS UNITS OF: PER METER.
C THE FOLLOWING EQUATION IS SOLVED —
C RC = (1/2.5066 *SIGMA Z) * ((EXP(-.05*((Z-H)XSIGMA Z)**2)
C + (EXP(-0.5*((Z+H)/SIGMA Z)**2))
C PLUS THE SUM OF THE FOLLOWING 4 TERMS K TIMES (N=1,K) —
C FOR NEUTRAL OR UNSTABLE CASES:
C TERM 1- EXP(-0.5*((Z-H-2NL)/SIGMA Z)**2)
C TERM 2- EXP(-0.5*((Z+H-2NL)/SIGMA Z)**2)
C TERM 3- EXP(~0.5*((Z-H+2NL)/SIGMA Z)**2)
C TERM 4- EXP(-0.5*((Z+H+2NL)/SIGMA Z)**2)
C 2.5066 IS THE SQUARE ROOT OF 2 * PI
C***NOTE THAT MIXING HEIGHT- THE TOP OF THE NEUTRAL OR UNSTABLE LAYER-
C***HAS A VALUE ONLY FOR STABILITIES 1-4, THAT IS, MIXING HEIGHT
C***DOES NOT EXIST FOR STABLE LAYERS AT THE GROUND SURFACE- STABILITY
C***5 OR 6.
C STATEMENTS 190 TO 330 CALCULATE RC, THE RELATIVE CONCENTRATION,
C USING THE EQUATION DISCUSSED ABOVE. SEVERAL INTERMEDIATE
C VARIABLES ARE USED TO AVOID REPEATING CALCULATIONS.
C CHECKS AKE MADE TO BE SURE THAT THE ARGUMENT OF THE
C EXPONENTIAL FUNCTION IS NEVER GREATER THAN 50 (OR LESS THAN
C -50). IF 'AM' BECOMES GREATER THAN 45, A LINE OF OUTPUT IS
C PRINTED INFORMING OF THIS.
C CALCULATE MULTIPLE EDDY REFLECTIONS FOR RECEPTOR HEIGHT Z.
C 1WR1 IS CONTROL CODE FOR OUTPUT
IWRI=6
C***1F STABLE, SKIP CONSIDERATION OF MIXING HEIGHT.
IF (KST.GE.5) GO TO 40
C IF THE SOURCE IS ABOVE THE LID, SET f!C = 0., AND RETURN.
IF (H-HL) 10,10,20
10 IF (Z-HL) 40,40,180
20 IF (Z-HL) 180,30,30
30 WRITE (IU'fiI,43G)
RETURt-i
C IF X IS LESS THAiJ 1 METER, SET RC = 0. AND RETURN. THIS AVOIDS
C PROBLEMS OF INCORRECT l/ALUSS NEAR THE SOURCE.
40 IF (X-0.001) 180,50,50
50 CALL BRSZ (X,KST,SZ)
C SZ = SIGMA Z, THE STANDARD DEVIATION OF1 CONCENTRATION IN THE
C Z-DlRECTlOiM (M)
IF (KoT-M) 60,60,^0
60 IF (HL-5000.) 150,70,70
C IF STABLE CONDITION OR UNLIMITED MIXING HEIGHT:
70 C2=2.*SZ*SZ
It (Z) 130,80,100
C***BCii Z = ZhRO:
BO C3 = il*!i/C2
IF (C3-50.) 90,180,160
'jO A2 = 2./EXP(C3)
nCZ=42/(2.5U66*GZ)
J
C***FOI: '!0'J-Zi:i-0 Z:
10u
CZU0130
CZU0140
CZU0150
CZU0160
CZU0170
CZU0180
CZU0190
CZU0200
CZU0210
CZU0220
CZU02JO
CZU0240
CZU0250
CZU0260
CZU0270
CZU0280.
CZU0290
CZU0300
CZU0310
CZU0320
CZU0330
CZU0340
CZU0350
CZU0360
CZU0370
CZU0380
CZU0390
CZU0400
CZU0410
CZU0420
CZU0430
CZU0440
CZU0450
CZU0460
CZU0470
CZU0480
CZU0490
CZU0500
CZU0510
CZU0520
CZU0530
CZU0540
CZU0550
CZU0560
CZU0570
CZU0580
CZU0590
CZU0600
CZU0610
CZU0620
CZU0630
CZU0640
CZU0650
CZU0660
CZU0670
CZU0680
CZU0690
CZU0700
CZU0710
CZU0720
CZU0730
94
-------
IF (C3-50.) 110,120,'20
110 A2=l./EXP(C3)
120 IF (04-50.) 130,140, 140
130 A3=l./EXP(C4)
140 RCZ=(A2+A3)/(2.5066*SZ)
RETURN
C IF 3IGMA-Z IS GREATER THAN 1.6 TIDIES T.-II NIXING HEIGHT,
C THE DISTRIBUTION 3ELOW THE NIXING iiTLGHT LS dN170PM >,ITH
C HEIGHT REGARDLESS OF SOURCE HEIGHT.
150 IF (SZ/HL-1.6) 170,170,160
160 RCZ=1./KL
RETURN
C INITIAL VALUE OF AK SET = 0.
C AM THE NUMBER OF TIMES THE SUMMATION TE?'-' IS EVALUATED
C AMD ADDED IN.
17>0 AK = 0.
IF (Z) 180,340,190
C***NOTE: AIM ERRONEOUS NEGATIVE Z i'.'ILL FESULT IN ZERO CONCENTRATIONS.
180 RCZ=0.
RETURN
C***CALCULATE MULTIPLE EDDY REFLECTIONS FOR ELEVATED RECEPTOR HEIGHT.
190 A1 = 1 ./(2.5066*SZ)
C2=2.*SZ*SZ
A2 = 0.
CA=Z-H
CB=Z+H
C3=CA*CA/C2
C4=CB*CB/C2
IF (03-50.) 200,210,210
200 A2=1 ./EXP(C3)
210 IF (04-50.) 220,230,230
220 A3=1./EXP(C4)
230 SUM=0.
THL=2.*HL
240 AN=AK+1.
C5=AN*THL
CC=CA-C5
CD=CB-C5
CE=CA-t-C5
CF=CB+C5
C6=CC*CC/C2
C7=CD*CD/C2
C8=CE*CE/C2
C9=CF*CF/C2
IF (06-50.) 250,260,260
A4=1 ./EXP(C6)
IF (C7-50.) 2^0,280,280
A5= 1 ./EXP(C7)
IF (C8-50.) 290,300,300
A6=1 ./EXP(C8)
IF (C9-50.) 310,320,320
A7=1 ./EXP(C9)
250
260
280
290
300
310
320
330
CZU0750
CZUQ760
CZU077Q
CZU0730
CZU0790
CZU0800
CZ/J0310
CZU0820
CZU0831'
CZU0340
CZU0650
CZU0860
CZU087Q
CZU0880
CZU0890
CZU0900
CZU0910
CZU0920
CZU0930
CZU0940
CZU0950
CZU0960
CZU0970
CZU0980
CZU0990
CZU1000
CZU1010
CZU1020
CZU1030
CZU1040
CZU1050
CZU1060
CZU1070
CZU1080
CZU1090
CZD1 100
CZU1 110
CZU1 120
C7.U1 130
CZ/J1 TIO
CZU1 150
C7.U1 160
C7.U1 170
CZU1180
CZU1 VjO
CZIJ1200
C/.U 1210
CZU1220
CZU1P30
C7U1240
C/.II12r;0
C7,ui?r,o
SUM=SUM+T
IF (T-0.01) 330,240,240
RCZ=A1*(A2+A3+SUM)
RETURN
C7.II1PHO
C/II1?90
C/JJ1 JOO
CZU1310
CZU1 J20
CZU1330
CZU1340
CZU1350
CZU1360
95
-------
C CALCULATE MULTIPLE EDDY REFLECTIONS FOR
340 A1 = 1 ./(2.5066*SZ)
A2 = 0.
C2=2.*SZ*SZ
C3=H*H/C2
IF (C3-50.) 350,360,360
350 A2=2./EXP(C3)
360 SUM=0.
THL=2.»HL
370 AN=AN+1.
A4 = 0.
A6 = 0.
C5=AN*THL
CC=H-C5
CE=H+C5
C6=CC*CC/C2
C8=CE*CE/C2
IF (C6-50.) 380,390,390
380 A4=2./EXP(C6)
390 IF (C8-50.) 400,410,410
400 A6=2./EXP(C8)
410 T = A4-i-A6
SUM=SUM+T
IF (T-0.01) 420,3?0,370
420 RCZ=A1*(A2+SUM)
RETURN
GROUND LEVEL RECEPTOR HEIGHT
C
430
FORMAT (1HO,'BOTH H AND Z ARE ABOVE
1E COMPUTATION CAN NOT BE MADE.')
END
THE MIXING HEIGHT SO A RELIABL
CZU1370
CZU1380
CZU1390
CZU1400
CZU1410
CZU1420
CZU1430
CZU1440
CZU1450
CZU1460
CZU1470
CZU1480
CZU1490
CZU1500
CZU1510
CZU1520
CZU1530
CZU1540
CZU1550
CZU1560
CZU1570
CZU1580
CZU1590
CZU1600
CZU1610
CZU1620
CZU1630
CZU1640
CZU1650
CZU1660
CZU167Q
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
SUBROUTINE DBTRCU ( U , Z , 4 , HL , X , Y , KST ,SY ,SZ , RC).
DETERMINE RELATIVE CONCENTRATION FROK POINT SOURCES.
SUBROUTINE DBTRCU CALCULATES CHI/Q CONCENTRATION VALUES;
CALLS UPON BRSYSZ TO OBTAIN' STAUDAPD DEVIATIONS.
THE INPUT VARIABLES ARE
U WIND SPEED (M/SEC)
Z RECEPTOR HEIGHT (M)
H EFFECTIVE STACK HEIGHT (h)
HL MIXING HEIGHT- TOP OF NEUTRAL OH UI'-'STrtBLE LAYLR(M)
X DISTANCE RECiiPTOP IS DO./MvI JD OF SOURCE (KM)
Y DISTANCE RECEPTOR IS CROSS.JI.MD FRO'i SOURCE (KM)
KST STABILITY CLASS
THE OUTPUT VARIABLES ARE
SY HORIZONTAL DISPERSIO/I PARAIltilr-,1
SZ VERTICAL DISPERSION PARAMETER
RC RELATIVE COMCEKTRATI0i\ (SEC/M*»3) ,C.U/Q
Iiwhl IS CONTROL CODE FOR "vASril'IG OUTPUT.
IWR1=6
THS FOLLOWING EQUATION IS SOLVED --
RC = (1/(2*PI*U*SlGi'A Y*SIGM-l Z)1* ( TXP (-0 . 5* (Y/SIGMA
(EXP(-0.5*((Z-H)/?IGrA Z)*K2) + rXF(-0.5*(0
PLUS THE SUM OF TrlE FCLLCu'IX'G 4 >T-O, .; - T:
FOR HSUTSIL Ch oiiSIAPLT CAS IS:
TERf! 1- SXP(-0.5*((Z-n-2r,L)/SIG'A Z)**2)
2- EXP(-0.5*((Z + H-2.JLV3iG .-\ Z)**2)
3- SXP(-0.5*((Z-H+2NL)/S1G
AND
TERM
TERM
TERM
4- EXP(-0.5*((Z+'->2r.L)/SIG
7 1
RCU0010
RCU0020
RCU0030
RCU0040
RCU0050
RCUC060
RCUOO^O
RCU0080
RCU0090
RCU0100
RCUG110
RCU0120
KCU0130
RCUC140
RCU015G
RCU0160
RCU017Q
RCU0180
RCU0190
RCU0200
RCU0210
RCU0220
RCU0230
RCU0240
RCU0250
RCU0260
RCU027Q
96
-------
10
20
30
40
C
C
50
C
60
C
C
C
C
C KOTS THAT MIXING HEIGHT- THE TOP OF THE NEUTRAL OR UNSTABLE LAYER-
C HAS A VALUE OiiLY FCn STABILITIES 1-4, THAT IS, MIXING HEIGHT DOES
C ,\OT EXIST FOR STABLE LAYERS AT THE GROUND SURFACE- STABILITY 5 CR 6.
C THE AbOVE EQUATION IS SIKILAR TO EQUATION (5.6) P 36 IN
C i.'ORKEOCK OF ATMOSPHERIC DISPERSION ESTIMATES '.-/ITH THE ADDITION
C OF THu, EXPONENTIAL INVOLVING Y.
C***IF STABLE, SPCIF CONSIDERATION OK KIXIiJG HEIGHT.
IF (KST.&E.5) CO TO 50
C IF IKE SOURCE IS ABOVE THE LID, SET RC = 0., AMD RETURN.
IF (H-HL) 10,10,20
LF (Z-HL) 50,50,40
IF (Z-HL) 40,30,30
WRITE (Ii/RI,460)
RC=0.
RETURN
IF X IS LESS THAN 1 rlETER, SET RC = 0. AND RETURN. THIS AVOIDS
PROBLEMS OF INCORRECT VALUES t.;EAF THE SOURCE.
IF (X-0.001) 10,60,60
CALL oKSYSZ TO OBTAIN VALUES FOR SY AMD SZ
CALL BRSYSZ ( X , KST , SY , SZ)
SY - SIGMA Y, THE STANDARD DEVIATION OF CONCENTRATION IN THE
Y-DIRECTIGN (M)
SZ - SIGh'A Z, THE STANDARD DEVI AT [Of, OF CONCENTRATION IN THE
Z-DIRECTIOH (M)
C1 = 1 .
IF (Y) 70,90,70
YD=ICOO.*Y
YD IS CROSSNLND DISTANCE L vl :;ET^RS.
80
90
100
C
C
C
1 10
C
120
130
C
140
150
160
170
C
180
C
C
IF (TEhP-50.) 60,40,40
C1=EXP(TEt1P)
IF (KST-4) 100,100,110
LF (KL-5000.) 190, : 10,1 10
Ir STABLE CONDITION OR UNLIMITED MIXING HEIGHT,
USE AQUATION 3.2 IF Z = 0, OR EQ 3.1 FOR NON-ZERO Z.
(EQUATION NUMBERS REFER TO ,,'ORKEOOtC OF ATMOSPHERIC DISPERSION
ESTIMATES.)
C2=2.*SZ*SZ
IF (Z) 40,120,140
NOTE: AN ERRONEOUS NEGATIVE Z V/ILL RESULT IN ZF.PO CONCENTRATIONS
C3=n*H/C2
IF (C3-50.) 130,40,40
A2=1 ,/EXP(C3)
WADE EQUATION 3.2.
RC=A2/(3.14159*U*SY*SZ*C1)
RETURN
A3 = 0.
CA=Z-H
CB=Z+H
C3=CA*CA/C2
C4=CB*CB/C2
IF (C3-50.) 150,160,160
A2=1 ,/t:XP(C3)
IF (C4-50.) 170,180,180
A3=1 ./EXP(C4)
WADE EQUATION 3.1.
RC=(A2+A3)/(6.2331S*U*SY*SZ*C1)
RETURN
IF SIGMA-Z IS GREATER THAN 1.6 TIMES THE MIXING HEIGHT,
THE DISTRIBUTION BELOW THE MIXING HEIGHT IS UNIFORM WITH
RCU02SO
RCU0290
RCU030G
RCU0310
RCU0320
RCU0330
RCU0340
RCU0350'
RCU0360
RCU0370
RCU0380
RCU0390
RCU0400
PCU0410
RCU0420
RCU0430
RCU0440
RCU0450
RCU0460
RCU047Q
RCU0480
RCU0490
RCU0500
RCU0510
RCU0520
RCU0530
RCU0540
RCU0550
RCU0560
RCU0570
RCU0530
RCU0590
RCU0600
RCU0610
RCU0620
RCU0630
RCU0640
RCU0650
RCU0660
RCU067Q
RCU0680
RCU0690
RCUQ7QO
RCUQ710
RCU0720
RCU0730
RCUQ740
RCU0750
RCU0760
RCUQ77Q
RCU0780
RCU0790
RCU0800
RCU0810
RCU0820'
RCU0830
RCU0840
RCU0850.
RCU0860-
RCU0870
RCU0880
RCU0890
97
-------
C
C
190
C
200
C
C
C
210
C
C
C
C
C
C
C
C
220
230
240
250
260
280
290
300
310
320
330
340
350
360
C
C
HEIGHT REGARDLESS OF SOURCE HEIGHT BECAUSE OF REPEATED EDDY
REFLECTIONS FROM THE GROUND AND THE MIXING HEIGHT.
IF (SZ/HL-1.6) 210,210,200
WADE EQUATION 3-5.
RC=1./(2.5066«U»SY*HL»C1)
RETURN
INITIAL VALUE OF AN SET = 0.
AN - THE NUMBER OF TIMES THE SUMMATION TERM IS EVALUATED
AND ADDED IN.
AN=0.
IF (Z) 40,370,220
STATEMENTS 220-260 CALCULATE RC, THE RELATIVE CONCENTRATION,
USING THE EQUATION DISCUSSED ABOVE. SEVERAL INTERMEDIATE
VARIABLES ARE USED TO AVOID REPEATING CALCULATIONS.
CHECKS ARE MADE TO BE SURE THAT THE ARGUMENT OF THE
EXPONENTIAL FUNCTION IS NEVER GREATER THAN 50 (OR LESS THAN
-50). IF 'AN' BECOMES GREATER THAN 45, A LINE OF OUTPUT IS
PRINTED INFORMING OF THIS.
CALCULATE MULTIPLE, EDDY REFLECTIONS FOR RECEPTOR HEIGHT Z.
A1=1 ./(6.28318*U*SY*SZ*C1)
C2=2.*SZ*SZ
A2=0.
A3=0.
CA=Z-H
CH=Z+H
C3=CA*CA/C2
C4=CB*Cb/C2
IF (C3-50.) 230,240,240
A2=1 ./EXP(C3)
IF (C4-50.)' 250,260,260
A3=1 ./2XP(C4)
SUt'! = 0.
THL=2.*HL
AN' = AN+1.
A'UO.
A5 = 0.
A6=0.
AH*THL
CA-C5
CB-C5
CA+C5
CU+C5
CC*CC/C2
CD*CD/C2
CE*CE/C2
CF*CF/C2
(C6-50.) 280,290,290
1 ./EXP(C6)
(C7-50.) 300,310,310
1 ./EXP(C7)
(C3-5C.) 320,330,330
1 ./LXP(C8)
(C9-50.) 340,350,350
=1 ./EXP(Cy)
C5
CC
CD
CE
CF
C6
C7
C8
IK
A5
IF
Ao
IF
3JK=SUM+T
IF (T-0.01) 360,2^0,270
CALCULATE .'1ULTIPLH; EDDY REFLECTIONS FOR GROUND LEVEL RECEPTOR
RCU0900
RCU0910
RCU0920
RCU0930
RCU0940
RCU0950
RCU0960
RCU0970
RCU0980
RCU0990
RCU1000
RCU1010
RCU1020
RCU1030
RCU1040
RCU1050
RCU1060
RCU1070
RCU1080
RCU1090
RCU1100
PCU1110
RCU1120"
RCU1130*
RCU1140
RCU1150
RCU1160
PCU1170
RCU1180
RCU1190
RCU1200
RCU1210
RCU1220
RCU1230
RCU1240
RCU1250
RCU1260
RCU1270
RCU1280
RCU1290
RCU1300
RCU1310
RCU1320
RCU1330
RCU1340
RCU1350
RCU1360
RCU1370
RCU1380
RCU1390
RCU1400
RCUI'410
RCU1420
RCU1430
RCU1440
RCU1450
RCU1460
.RCU147Q
ECU1480
RCU1490
RCU1500
RCU1510
98
-------
370
380
390
MOO
'410
420
430
440
450
C
460
A1 = I ./(6.2S3 !8*U*SY*SZ
A2rO.
C 2 = 2 . * ? Z * S Z
C3 = 'l*il/C2
IF (C3-50.) 380,390,35
A2=2./EXF(C3)
SUK=0.
TIIL = 2.*HL
CC=h~C5
CE=H+C5
C6=CC*CC/C2
C8=CE*CE/C2
IF (C6-50.) 410,420,420
A4=2./SXP(C6)
IF (C6-50.) 430,44>j,440
A6=2./EXP(C8)
T=A4+AG
SUM=SU:-I+T
IF (T-0.01) 450,400,400
PC = A1*(A2+3U:i)
RETUHK
GiIT SO /• "ELLAf, 24 iiOURS) FIJ0050
C***1S ALSO FR1UTED. COIiCEuT RA 1'IONS ARE FRI-if,:!, I'i 'JICriOG RA!-,S PER CUfLC FINOO&O
C***METER. FIK0070
C INPUT VARIABLES ARE: FLl.'OOBC
C MB- START HOUR OF AVERAGING TI/.E FLM0090
C LIHE1- FIRST LI.'^E OF TITLE FIM0100
C LINE2- SECOND LIMC OF TITLE FIM0110
C LINES- THIRD LIME OF TITLE FTJ0120
COMMOM /SORC/ I A (25 , 25 ) , SOURCE ( 9 , 250) , ASORC ( 6 , 1 00 ) , U li ITS , CO NT .'.'0 , R l> F I 'IO 1 30
1EC(150) ,SREC(150) ,MPS(25) ,KAS(10) ,LOPT(1 3) , IPOL , rl P''Cr,p , i"U " , R.'l AX , S HMO 140
2MIN,SMAX,IRSIZE,ISSIZE,riPT,NAS,fISIGP,n5LGA,Pt:A'1E(2,?50) ,PSAV(250) F1M0150
COMMON /METCON/ ACHI(150),PCHI(150),ASIGS(150,11) , FSIG3(150,26) ,I A EUJ0160
1SIGS(100) ,IPSIGS(250) , THETA , U , KST , HL , TEMP , S I NT , COST , P,PH( 2 ) , L'/ID, PAR FII,0170
2TC(250),AHCHI(150),PHCHI(150),AHSIGS(150,11).PHSIGSC150,26),PL(6) STI0180
COMMON /METDATY QTHETA(24),QU(24) , 1KST(24),GHL(24) , OTiCKPC24),[DATE FIN0190
1(2) FltlO?00
COMMON ITYPE(150) ,ICODE(150) , IN , 10 , NIP , MI D , f'AVG FIM0210
DIMENSION GRAMDT(150), LRANK(ISO), GRAMDS(150), LPOLT(?), LINE1(14 FLIJ0220
1), LINE2C14), LIME3(14) FLK0230
DATA IPOLT /'S02 ','PARTV FIN0240
IPOLU=IPOLT(1) FIN0250
IF (IPOL.EQ.4) 1POLU=IPOLT(2) FIN02&0
C***AVERAGE CONCENTRATIONS OVER SPECIFIED TIME PERIOD FIH0270
DO 30 K=1,MRECEP FIN0280
99
-------
10
ACHI(K)=ACHI(K)/NAVG
PCHI(K)=PCHI(K)/NAVG
GRANDT(K)=ACHI(K)+PCHI(K)
GRANDS(K)=GRANDT(K)
DO 10 1=1 ,11
ASIGS(K,I)=ASIGS(K,I)/NAVG
DO 20 1=1,26
PSIGS(K,I)=PSIGS(K,I)/NAVG
CONTINUE
20
30
C**»
C***WRITE POINT SOURCE TABLE
IF (lOPT(D.EQ.O) GO TO 110
WRITE (10,180) LINE1.LINE2,LINES
WRITE (10,190) NAVG,IPOLU,IDATE,NB
IF (NSIGP.GT.10) GO TO 50
C***PRINT FIRST PAGE OF OUTPUT AND TOTALS
WRITE (10,200) (1,1=1,NSIGP)
(10,210)
(10,220) (MPS(I),1=1,NSIGP)
(10,230)
K=1,NRECEP
(10,240) K,(PSIGS(K,I),1=1,NSIGP)
PSIGS(K,26),PCHI(K)
WRITE
WRITE
WRITE
DO
WRITE
C***PRINT TOTALS***
WRITE (10,250)
40 CONTINUE
GO TO 110
C***PRINT FIRST PAGE
50 WRITE (10,200) (1,1=1,10)
WRITE (10,260) (MPS(I),1=1,10)
WRITE (10,230)
DO 60 K=1.NRECSP
60 WRITE (10,240) K , (PSIGS(K,I),1=1,10)
IF (NSIGP.GT.20) GO TO 80
C***PRINT SECOND PAGE AND TOTALS
WRITE (10,180) LINE1,LIME2,LINES
WRITE (10,190) NAVG,1PCLU,IDATE,NB
WRITE (10,200) (1,1=11 ,NSIGP)
WRITS (10,210)
WRITS (10,220) (MPS(I),1=11.NS1GP)
WRITE (10,230)
DO 70 K=1.NRECEP
WRITE (10,240) K,(PSIGS(K,I),1=11,NS1GP)
70 WRITS (10,250) PS1GS(K,26),PCHI(K)
GO TO 110
C***WRITE SECOND PAGE***
80 WRITE (10,180)
WRITE (10,190)
WRITE (10,200)
WRITE (10,260)
WRITE (10,230)
DO 90 K=1,NRtCEF
90 WRITE (10,240) K
WRITE (10,180) L
WRITE (10,190) NAVG
,LIKE2,LI?JE3
IIAVG.IPGLU, IDATtl.NB
(1,1=1 i ,20)
(i-.PS(l) ,1=1 ; ,20)
(PS1GS(K,L),1=11,20)
, IPOLU.IDATc,"
C***WR1TE LAST FAG5 A^D TOTALS***
WRITE (10,200) (L, 1 = 21 ,'ISIGF)
WRITE (10,210)
WRITS (10,220) (KPS(I) ,1 = 21,NSIGP)
WRITE CIO,230)
DO 100 K=1.NRhCEP
WRITE (10,240) rC,(FSIGS(K,i)II = 21,
100 WRITE CO, 250) PSIGSU.26) ,PC:!L(K)
FIN0290
FIN0300
FIN0310
FIN0320
FIN0330
FIN0340
FIN0350
FIN0360
TIN0370
FIN0380
FIN0390
FIN0400
FIN0410
FIN0420
FIN0430
FIN0440
FIN0450
FIN0460
FIN047Q
FIN0480
FIN0490
FIN0500
FIM0510
FIN0520
FIN0530
F1N0540
FIN0550
F1N0560
FIN0570
FIN0580
F1N0590
FIN0600
F1M0610
FI'I0620
F1M0630
FIN0640
FIM0650
FIM0560
F I NO 670
F1K0680
FIN0690
FINO^OO
FIH0720
FIMQ730
FIM0740
F1M0760
F1KOT7Q
F1M0790
FIN0300
FINOS 10
FIK0320
F1M0630
FIN0840
FIM0850
F1M0360
FIN0830
FIN0890
FIK0900
100
-------
c**»
C***WRITE
AREA SOURCE TABLE
110 IF (IOPT(2).EQ.O) GO TO 130
WRITE (10,180) LINE1,LINE2,LINE3
NAVG,IPOLU,IDATE,NB
(1,1=1.NSIGA)
WRITE
WRITE
WRITE
WRITE
WRITE
DO 120
WRITE
WRITE
(10,270)
(10,200)
(10,280)
(10,220) (MAS(I),1=1,NSIGA)
(10,230)
K=1.NRECEP
(10,240) K,(ASIGS(K,I),I=1,NSIGA)
(10,250) ASIGS(K,11),ACHI(IO
LINE1,LINE2,LINE3
NAVG,IPOLU,IDATE,NB
120
C***
C***OUTPUT SUMMARY TABLE
C***
130 WRITE (10,180)
WRITE (10,290)
WRITE (10,300)
C***CALCULATE GRAND TOTALS AND RANK CONCENTRATIONS
DO 150 1=1,NRECEP
CMAX=-1.0
DO 140 K=1.NRECEP
IF (GRANDT(K).LE.CMAX) GO TO 140
CMAX=GRANDT(K)
LMAX=K
140 CONTINUE-
IRANK(LMAX)=I
GRANDT(LMAX)=-1.0
150 CONTINUE
DO 160 K=1.NRECEP
C1=RREC(K)*UNITS
C2=SREC(K)*UNITS
WRITE (10,310) K.ITYPE(K),ICODE(K),C1,C2,PSIGS(K,26),PCHI(K).ASIGS
1(K,11),ACHI(K),GRANDS(K),IRANK(K)
160 CONTINUE
IF (IOPT(10).EQ.O) RETURN
C***PUNCH CONCENTRATIONS FOR CONTOURING(MICROGRAMS/CUBIC METER)
C***RECE;PTOR COORDINATES IN USER UNITS.
DO 170 K=1.NRECEP
C1=RKEC(K)*UNITS
C2=SREC(K)*UNITS
GWU=GRANDS(K)*1 .OE+06
AWU=ACHI(K)*1.OE+06
PWU=PCHI(K)*1.OE+06
WRITE (1,320) C1,C2,GWU,AWU,PWU,K
170 CONTINUE
RETURN
C
180
190
200
210
220
230
240
250
260
FORMAT ('1',13A6,A2/1X,13A6,A2/1X,13A6,A2)
FORMAT ('0'.T22.I2,'-HOUR AVERAGE ',A4,' CONTRIBUTION^ KICROGRAMS/M
1**3) FROM SIGNIFICANT POINT SOURCES',5X,12,V,13 ,' START HOUR: '
2,I2//1X,T5,'RANK')
FORMAT ('+',T12,10(I3,7X))
FORMAT (' + ' ,T113, 'TOTAL TOTAL ' / 1 X , T1 1 3 , ' SIGNIF ALLPOINTV1
1X.T113,'POINT SOURCES'/1X,'SOURCE #')
FORMAT ('+',T12,10(13,7X) )
FORi'lAT (1X, 'RECEP #' )
FORMAT (1X,T3,13,1X , 6P1OF10 . 3)
FORMAT ('+',T109,6P2F10.3)
FORMAT (1X,'SOURCE #' ,T12 , 10(13,7X))
FORMAT CO',T22,I2,'-HOUR AVERAGE ',A4,' CONTRIBUTIONMICROGRAMS/M
1**3) FHOM SIGNIFICANT AREA SOURCES',5X,12,'/',13 ,' START HOUR: ',
FIN091Q
FIN0920
FIN0930
FIN0940
FIN0950
FIN0960
FIN0970
FIN0980
F1N0990
FIN1000
FIN1MO
FIN 1020
FIN1030
FIN1040
FIN1050
FIN106.0
FIN1070
FIN1080
FIN1090
FIN1100
FIN1110
FINT120
FIN VI 30
FIN1140
FIN1150
F1N1160
FIN117Q
FIN1180
FIN1190
FIN1200
FIN1210
FIN1220
FIN1230
FIN1240
F1N1250
FIN1260
FIN1270
F1N1280
FIN1290
FIN1300
FIN1310
F1N1320
FIN1330
FIN1340
FIN1350
FIN1360
FIN1370
FIN1380
FIN1390
FIN1400
F1N1410
FIN1420
FIN1430
FIN1440
FIN1450
F1N1460
FIN147Q
FIN14&0
FIN 1490
FIN1500
FIN1510
FIN1520
101
-------
280
290
300
310
320
C
'ALL AREA'/IX
2I2//1X.T5,'RANK')
FORMAT ('+',1113,'TOTAL TOTAL'/1X,T113,'SIGNIF
1,T113,'AREA SOURCES'/IX,'SOURCE #')
FORMAT ('0',T25,I2,'-HOUR AVERAGE ',AA,' SUMMARY CONCENTRATION TAB
1LE(MICR'OGRAMS/M**3) ' ,5X,I2,'/',I3, ' START HOUR: '.I2//1X)
FORMAT (IX,'RECEPTOR NO. EAST 1JORTH ',2X,5('TOTAL FROM
1'),'COHCENTRATION'/1X,T36,'SIGNIF POINT ALL POINT SIGNIF AREA
2 ALL AREA ALL SOUKCES',5X,'RANK'/1X,T38,4('SOURCES',6X)//1X)
FORMAT (1X,T3,I3,1X,A1,I3,6X,F7.2,2X,F7.2,1X,6P5F13.4,6X,I3)
FORMAT ('CNTL',IX,5F10.3,14)
END
FIN1530
FIN1540
FIN1550
FIN1560
FIN1570
FIN1580
FIN1590
FIM1600
FIN1610
FIN1620
FIH 1 6 3 0
FIN1640
SUBROUTINE JMHREC REC0010
C***THE PURPOSE OF THIS SUBROUTINE IS TO DETERMINE RECEPTORS FROM REC0020
C***SIGNIFICANT SOURCES. REC0030
COMMON /COEFFS/ PXCOF(6,9),PXEXP(6,9),PXUCOF(6,9),PXUEXP(6,9),AXCO REC0040
1F(6,9),AXEXP(6,9),HC1(10) REC0050
COMMON /SORC/ IA(25,25),SOURCE(9,250),ASORC(6,100).UNITS,CONTWO,RR REC0060
1ECU50) ,SREC(150) ,MPS(25) ,MAS(10) , IOPT(13) , I POL , NRECEP , RMIN , RMAX, S REC0070
2HIH,SMAX,IRSIZE,ISSIZE,HPT,HAS,NSIGP,NSIGA,PNAME(2,250),PSAV(250) REC0080
COMMON /METCOH/ ACHI(150),PC HI(150),ASIGS(150, 11),PSIGS(150,26),IA REC0090
1SIGS(100),IPSIGS(250),THETA,U,KST,HL,TEMP,SINT,COST,BPH(2),IWD.PAR REC0100
2TC(250),AHCHI(150),PHCHI(150),AHSIGS(150,11),PHSIGS(150,26),PL(6) REC0110
COMMON ITYPE(ISO) ,ICODE (150) ,IN,10,NIP,NID,NAVG REC0120
DATA ICHAR /'P'/ .JCHAR /'A'/ REC0130
IF (lOPT(l).EQ.O) GO TO 110 REC014G
IF (IOPT(4).EQ.O) GO TO 110 REC0150
WRITE (10,200) REC0160
C REC0170
C***LOOP ON SIGNIFICANT POINT SOURCES REC0180
C REC0190
DO 100 IP=1,NSIGP REC0200
X=0.0 REC0210
I=MPS(IP) REC0220
C***EAST AND NORTH COORDINATES OF THE SOURCE REC0230
RS = SOURCE(1 ,1) REC0240
SS=SOURCE(2,I) REC0250
Q=SOURCE(IPOL,I) REC0260
C***MODIFY WIND SPEED BY POWER LAW PROFILE IN ORDER TO TAKE INTO REC0270
C***ACCOUNT THE INCREASE IN WIND SPEED WITH HEIGHT. REC0280
UPL=U*(SOURCE(5,I)/10.)**PL(KST) REC0290
C***CALCULATE PLUME RISE REC0300
TS=SOURCE(6,I) REC0310
IF (TS.GT.TEMP) GO TO 10 REC0320
HF=SOURCE(5,I) REC0330
GO TO 70 REC0340
10 F=SOURCE(9,I)*(TS-TEMP)/TS REC0350
GO TO (20,20,20,20,40,50), KST REC0360
20 IF (F.GE.55.) GO TO 30 REC0370
HF=SOURCE(5,I)+21.425*F**0.75/UPL REC0380
GO TO 70 REC03-90
30 HF=SOURCE(5,I)+J8.71*F**0-6/UPL REC0400
GO TO 70 REC0410
40 DTHDZ=0.02 REC0420
GO TO 60 REC0430
50 DTHDZ=0.035 REC04~40
60 S=9.80616*DTHDZ/TEMP REC0450
HF=SOURCE(5,I)+2.6*(F/(UPL*S))**0.333333 REC0460"
102
-------
C***DETERMINE PROPER HEIGHT CLASS
70 DO 80 IH-2,10
IF (HF.LT.(HCl(IH)-.Ol)) GO TO 90
80 CONTINUE
IH-10
90 IS-IH-1
C***CALCULATE RELATIVE CONC. NORMALIZED FOR WIND SPEED
A«PXUCOF(KST,IS)
B=PXUEXP(KST,IS)
CONM=A*HF**B*Q/UPL
C***CALCULATE DISTANCE TO MAX. CONC. FROM POINT SOURCE.
C=PXCOF(KST,IS)
D=PXEXP(KST,IS)
C*** X IN KM.
X=C*HF**D
C***DO NOT ALLOW RECEPTORS BEYOND 1000 KM.
IF(X.CT. 1000.) GO TO 100
NRECEP=NRECEP+2
IF (NRECEP.GT.150) GO TO 190
C
C***TWO RECEPTORS ARE GENERATED FOR EACH SIGNIFICANT POINT SOURCE.
C***RECEPTORS ARE LOCATED AT A DISTANCE OF X AND AT 2X.
C***X IS THE LOCATION WHERE THE HIGHEST CONCENTRATION FROM THE IP-TH
C***POIHT SOURCE IS EXPECTED. A RECEPTOR IS LOCATED AT A DISTANCE OF 2X
C*** TO ALLOW FOR THE INTERSECTION OF PLUMES FROM SEVERAL POINT SOURCES.
C***THE CHARACTERS "A" FOR AREA SOURCE AND "P" FOR POINT SOURCES
C***SIGNIFY WHICH TYPE OF SOURCE CAUSED THE GENERATION OF A
C***SPECIFIC RECEPTOR.
K=NRECEP-1
ITYPE(K)=ICHAR
ICODE(K)=I
C***CALCULATE EAST AND NORTH COORDINATES(INTERNAL UNITS) OF THE RECEPTOR
C***SINT AND COST REFER TO THE SINE AND COSINE OF THE RESULTANT WIND DIR
RREC(K)=RS-X*SINT/CONTWO
SREC(K)=SS-X*COST/CONTWO
C***CONVERT TO USER UNITS FOR PRINT OUT.
C1=RREC(K)*UNITS
C2=SREC(K)*UNITS
WRITE (10,210) K.ICUAR,I,C 1 ,C2,CONM,X,HF,UPL
X=2.0*X
ITYPE(NRECEP)=ICHAR
ICODE(NRECEP)-I
RREC(NRECEP)=RS-X*SINT/CONTWO
SREC(NRECEP)=SS-X*COST/CONTWO
C***CONVERT TO USER UNITS FOR PRINT OUT.
C1=RREC(NRECEP)*UNITS
C2=SREC(NRECEP)*UNITS
WRITE (10,220) NRECEP,ICHAR,I,C1,C2,X,HF,UPL
100 CONTINUE
C
C***LOOP ON SIGNIFICANT AREA SOURCES
C***ONE RECEPTOR IS LOCATED ON THE DOWNWIND AZIMUTH FROM THE CENTER OF
C***EACH SIGNIFICANT AREA SOURCE AT A DISTANCE WHERE MAXIMUM
C***CONCENTRATIONS IS EXPECTED.
C
180
180
110
IF (IOPT (2) .EQ.0) GO TO
IF (IOPT (5).EQ.0) GO TO
WRITE (10,230)
DO 170 IP-l.NSIGA
I=MAS(IP)
WA=ASORC(5,I)
C***LOCATE SOURCE CENTER
REC0470
REC0480
REC0490
REC0500
REC0510
REC0520
REC0530
REC0540
REC0550
REC0560
REC0570
REC0580
REC0590
REC0600
REC0610
REC0611
REC0612
REC0620
REC0630
REC0640
REC0650
REC0660
REC0670
REC0680
REC0690
REC0700
REC0710
REC0720
RE£0730
REC0740
REC0750
REC0760
REC0770
REC0780
REC0790
REC0800
REC0810
REC0820
REC0830
REC0840
REC0850
REC0860
REC0870
REC0880
REC0890
REC0900
REC0910
REC0920
REC0930
REC0940
REC0950
REC0960
REC0970
REC0980
REC0990
REC1000
REC1010
REC1020
REC1030
REG 1040
REC1050
REC1060
103
-------
RS=ASORC(1,
SS=ASORC(2,I)+UA
H=ASORC(6,I)
C***DETERMINE HEIGHT CLASS
C***IS = 1 FOR H LESS
C***IS = 2 FOR H FROM
C***IS - 3 FOR H FROM
DO 120 IH-2,3
IF (H.LT.HCl(IH)-O
THA 20 METERS.
20 TO 30 METERS.
30 TO 50 METERS.
01) GO TO 130
120
130
CONTINUE
IH-A
IS-IH-1
C***CALCULATE DISTANCE(KM) TO MAXIMUM CONCENTRATION.
C=AXCOF(KST,IS)
D=AXEXP(KST,IS)
X-C*H**D
IF (COST.EQ.O.) GO TO 140
A=ABS(WA/COST)
IF (SINT.EQ.O.) GO TO 150
B=ABS(WA/SINT)
AB=AMIH1(A,B)
GO TO 160
140 AB=ABS(WA/SINT)
GO TO 160
150 AB=A
160 X=X+AB*COUTWO
NRECEP=HRECEP+1
C***NO MORE THAN 150 RECEPTORS ARE ALLOWED.
IF (NRECEP.GT.150) GO TO 190
RREC(HRECEP)=RS-X*SINT/CONTWO
SREC(NRECEP)=SS-X*COST/CONTWO
Cl=RREC(NRECEP)*UNITS
C2=SREC(HRECEP)*UNITS
WRITE (10,210) NRECEP,JCHAR,I.C1,C2
ITYPE(NRECEP)=JCHAR
ICODE(NRECEP)=I
170 CONTINUE
180 RETURN
190 WRITE (10,240)
NRECEP=150
RETURN
C
200
210
220
230
240
FORMAT (1X////1X.T9, 'SIGNIFICANT POINT RECEPTORS '// 1 X, ' RECEPTOR #
1 EAST NORTH PREDICTED MAX CONG . MAX. DIST EFF. HT U(PH
2Y HT)'/1X,T34,' (MICROGRAMS /M* *3 ) ' ,T 55 , ' (KM) ' ,T 66 , ' (M) ' ,T76,' (M/SEC
FORMAT (1X,T2,I3,1X,A1,I3,4X,F6.2,3X,F7.2,4X,6PF12.2,5X,OP3F10.3)
FORMAT (1X,T2,I3,1X,A1,I3,4X,F6.2,3X,F7.2,21X,3F10.3)
FORMAT (1X////1X.T9, 'SIGNIFICANT AREA SOURCE RECEPTORS '// IX, 'RECEP
1TOR # EAST NORTH '//1X)
FORMAT (' THE MAXIMUM NO. OF RECEPTORS HAS BEEN GENERATED '/ /1X, ' N
10 OTHERS WILL BE ACCEPTED')
END
REC1070
REC 1080
REC 1090
REC1100
REC1110
REC1120
REC1130
REC 11 40
REC 1150
REC1160
REC 11 70
REC1180
REC 1190
REC1200
REC1210
REC1220
REC1230
REC1240
REC1250
REC1260
REC1270
REC1280
REC1290
REC1300
REC1310
REC1320
REC1330
REC1340
REC 1350
REC1360
REC1370
REC1380
REC1390
REC1400
REC1410
REC1420
REC1430
REC1440
REC1450
REC1460
REC1470
REC1480
REC1490
REC1500
REC1510
REC1520
REC1530
REC1540
REC1550
REC1560
REC1570
REC1580
REC1590
REC1600
SUBROUTINE JMHOUR (LH,LINE 1,LINE 2,LINE3) HOUR010
C***THE PURPOSE OF THIS SUBROUTINE IS TO OUTPUT A TABLE OF PARTIAL HOUR020
C***CONTRIBUTIONS FROM SIGNIFICANT POINT AND AREA SOURCES FOR THE HOUR030
C***CURRENT HOUR. OR, IF DESIRED, A SUMMARY TABLE LISTING FOR EACH HOUR040
104
-------
C***KECEPTOK: THE TOTAL CONCENTRATION FROil SIGNIFICANT POINT SOURCES,
C***SIGHIFICANT AREA SOURCES, TOTALS FROM ALL POINT AND AREA SOURCES
C***At:i> FINALLY THE TOTAL CONTRIBUTIONS FR011 ALL SOURCES, CAN BE'
C***015TAINED INSTEAD OF OR IN ADDITION TO THE PARTIAL CONCENTRATION
C***TABLE. CONCENTRATIONS ARE PRINTED IN MICROGRAMS PER CUBIC METER..
C INPUT VARIABLES. . .
C LH-CURRENT HOUR
C LINE1-FIRST LINE OF TITLE
C LIHEZ-SECOti'J LIME OF TITLE
C LISE3-THIRD LINE OF TITLE
COMMON /SORC/ IA(25, 25) , SOURCE (9 , 250) , ASORC(6 , 100) .UNITS, CON TWO, RR
1EC(150) , SREC( 150) ,:IPS (25) ,MAS (10) , IOPT(13) , I POL , IIRECEP , UMIH.RMAX, S
2HIN, SMAX, IRSIZE, I S3 IZ E , NPT , NAS , I1SIGP.NSIGA , PliAME (2 , 250) ,PSAV(250)
' C01IMON /METCON/ ACHI ( 1 50 ) , PCtll ( 1 50 ) , ASICS ( 1 50 , 1 1 ) , PS IGS ( 1 50 , 26 ) , IA
1SICS(100),IPSIGS(250) ,THETA,U, KST , HL , TEMP , SINT , COST , BPH ( 2 ) , IWD , PAR
2TC(250) , AHCKI (150),PHCHI(150),AHSIGS(150,11),PIISIGS(150,26),PL(6)
COMMON /HEIGHT/ HINT ( 3 ) , HARE (3 ) , BPHM ( 2 ) , FH
COMMON /METUAT/ (JTHKT A ( 2 4 ) , QU ( 2 4 ) , IKS T ( 2 4 ) , (1HL(24) , QTEMP(24) , I DATE
1(2)
COMMON ITYPE (150) , I CODE (150) , IN, IO.MIP, NID.MAVG
DIMENSION GRAIiDT (150) , IRANK(150), GRANDS(ISO), LINEl(lA), LINE2(1
14), LINE3(14)
IF (IOPT (9) .EQ. 1) GO TO 100
C***
C***WRITE
POINT SOURCE TABLE
IF (IOPT(1
WRITE (10,
WRITE (10,
IF (NSIGP.
C***PRINT FIRST
WRITE (10,
WRITE (10,
WRITE (10,
WRITE (10,
DO 10 K=l,
WRITE (10,
C***PRINT TOTALS
WRITE (10,
10 CONTINUE
GO TO 80
C***PRINT FIRST
20 WRITE (10,
WRITE (10,
WRITE (10,
DO 30 K=l,
30 WRITE (10,
IF (NSIGP.
C***PRINT SECOND
WRITE (10,
WRITE (10,
WRITE (10,
WRITE (10,
WRITE (10,
WRITE (10,
DO 40 1C = 1,
WRITE (10,
40 WRITE (10,
GO TO 80
).EQ.O) GO TO 80
150) LINE1.LINE2.LIME3
160) IDATE.LH
GT. 10) GO TO 20
PAGE OF OUTPUT AND TOTALS
170) (I,1=1,NSIGP)
180)
190) (MPS(I),1=1,NSIGP)
200)
NRECEP
210) K,(PHSIGS(R,I),I=1,NSIGP)
***
220) PHSICS(K,26).PUCHI(K)
C***,JRITE SECOND
50 WRITE (10,
WRITE (10,
PAGE
170) (1,1=1,10)
230) (MPS(I),1=1,10)
200)
HRECEP
210) 1C, (P11SIGS (K, I) ,1 = 1 , 10)
GT.20) GO TO 50
PAGE AND TOTALS
150) LINE1 ,LINE2.LIHE3
160) IDATE.LH
170) (I,1=11,NSIGP)
180)
190) (MPS(I),1=11,NSIGP)
200)
NRECEP
210) K,(PHSIGS (K.I),1 = 11,NSIGP)
220) PHSIGS(K,26),PHCHI(K)
PAGE
150) LINE1.LINE2.LINE3
160) IDATE.LH
HOUR050
HOUR060
HOUR 070
HOUROSO
HOUR090
HOUR100
110UR1 10
HOUR 120
HOUR 130
HOUR 140
HOUR 150
HOURl60
HOUR 170
HOURl80
HOUR 190
HOUR200
HOUK210
HOUR220
UOUR230
HOUR240
HOUR250
HOUR260
HOUR270
HOUR280
HOUR290
HOUR300
HOUR310
HOUR320
HOUR330
HOUR 340
HOUR 350
IIOUR360
IIOUR370
HOUR380
110UR390
HOUR 400
HOUR410
HOUR420
HOUR430
HOUR440
HOUR450
HOUR460
HOUR470
HOUR480
HOUR490
HOUR500
HOUR510
HOUR520
HOUR530
HOUR540
HOUR550
HOUR560
HOUR570
HOUR580
HOUR590
HOUR600
HOUR610
HOUR620
HOUR630
HOUR640
HOUR650
HOUR660
105
-------
(1,1-11,20)
(MPS(I),1-11,20)
WRITE (10,170)
WRITE (10,230)
WRITE (10,200)
DO 60 K-l.NRECEP
60 WRITE (10,210) K,(PHSIGS(K,I),1-11,20)
WRITE (10,150) LINE1,LIHE2,LINE3
WRITE (10,160) IDATE.LH
C***WRITE LAST PAGE AND TOTALS
WRITE (10,170) (I,I-21.NSIGP)
WRITE (10,180)
WRITE (10,190) (MPS(I),I-21,NSIGP)
WRITE (10,200)
DO 70 K-l.NRECEP
WRITE (10,210) K,(PHSIGS(K,I),1-21,NSIGP)
WRITE (10,220) PHSIGS(K,26),PHCHI(K)
70
C***
C***WRITE
C***
80
AREA SOURCE TABLE
,0) GO TO 100
LINE1.LINE2,LINES
HARE,BPHM
IDATE.LH
(I,1=1.NSIGA)
(KAS(I),1=1,NSIGA)
90
C
C***OUTPUT
C
IF (IOPT(2).EQ.
WRITE (10,150)
WRITE (10,300)
WRITE (10,240)
WRITE (10,170)
WRITE (10,250)
WRITE (10,190)
WRITE (10,200)
DO 90 K = 1,11RECEP
WRITE (10,210) 1C, (AUSICS (K, I) ,1=1 ,HSIGA)
WRITE (10,220) AHSICS(K,11),AHCHI(K)
SUMMARY TABLE
100
W RITE
WRITE
I/RITE
WHITE
(10,150)
(10,260)
(10,270)
(10,280)
LINE1.LINE2,LINES
IDATE.LH
LH,QTHETA(LH),QU(LH),QHL(LH),QTEMP(LH),IKST(LH)
IF(IOPT(2).EQ.1) WRITE (10,300) HARE,BPHM
WRITE (10,290)
C***CALCULATE GRAND TOTALS ADD RANK CONCENTRATIONS
DO no i; = i ,I;RECEP
GRAKUT (K)=AUCUI(K.)+PHCUI(K)
110 GRANDS(K)=CRAHDT(K)
C***DETERHIHE RANKING ACCORDING TO CONCENTRATION
DO 130 I=1,NRECEP
CMAX=-1.0
DO 1 20 K = l .1JRECEP
IF (GRANUT(K).LE.CMAX) GO TO 120
CMAX=GRANUT (K)
LMAX=K
120 CONTINUE
IKANK(LilAX) = I
CRANDT(LHAX)=-1.U
130 CONTINUE
DO 140 K=1,HRECEP
C 1=UREC (tl) *UNITS
140
C
150
C2=SUEC(K)*UNITS
WRITE (10,310) 1C
1IGS (K, 1 1 ) , AI1CH I (K) , GRANDS (K)
CONTINUE
RETURN
ITYPE(K),ICODE(K),C1,C2,PHSIGS((C,26),PHCHI(K),AHS
IRANK(iC)
FORMAT ( ' 1 ' , 13A6,A2/1X, 13A6,A2/1X, 13A6.A2)
HOUR670
HOUR680
HOUR690
HOUR700
HOUR710
HOUR720
HOUR730
HOUR740
HOUR750
HOUR 760
HOUR770
HOUR780
HOUR790
HOUR800
HOUR810
HOUR820
HOUR830
HOUR840
HOUR850
HOUR860
HOUR870
HOUR880
HOUR89Q
HOUR900
HOUR910
HOUR920
HOUR930
HOUR940
1IOUR950
HOUR960
1IOUR970
HOUR980
HOUR990
HOUROOO
HOUR010
UOUR020
HOUR030
HOUR 040
HOUR050
HOUR060
HOUR070
HOUR080
HOUR090
HOUR 100
HOUR1 10
HOUR120
HOUR 130
HOUR 140
HOUR 150
HOUR 160
HOUR170
HOUR 180
HOUR190
110UR200
HOUR210
HOUR220
HOUR230
HOUR 240
HOUR250
UOUR260
HOUR 270
IIOUR280
106
-------
160 FORMAT ( '0 ' ,T30, 'CGMRIBUT
11 N T SOURCES ',5x,i2,'/',i4
170 FORMAT ('+',112,10 (13, 7X))
180 FORMAT ('+',T113,'TOTAL
1 X , T 1 1 J , ' P 0 I N T S 0 U R C L S '
190 FORMAT ( ' + ' , T 1 2 , 10 (I j , 7X) )
200 FORMAT (1X,'RF.CCP if)
210 FORMAT (1X,T 1 , 1J, 1X, 6P 1 OF 1
220 FORMAT ( ' + ' , 1 1 0 () , 61' 2 F 1 0 . 3 )
230 FORMAT (IX,"SOURCE << ' , T 1 2 ,
240 FORMAT ( ' 0 ' , T JO , ' COM1 ;U !1 U T
1 E A S 0 U R C E S ' , 5 X , I 2 , ' / ' , I 4 , '
250 FORMAT ('+',T113,'TOTAL
1,T 113, 'AREA SOURCES'/
260 FORMAT ( ' 0 ' , T 2 5 , ' S U'l MARY C
1,I2,'/',I4,' : HOUR ' ,12 /I
270 .FORMAT ( 1 X , T 2 , ' HO UR THET
1 IX, T 9, ' (DEC) (M/S ) HEIG
280 FORMAT (1X,73,I 2,4F9.2,6X,
290 FORMAT ('ORECCPTOR 110. L
1 , 'CONCENTRATION' /1X.T36, 'S
2ALE AREA ALL SOURCES',
300 FORMAT (' ',T60,'AREA UTS:
1011 UTS : ',F4.0,',',F4.0)
310 FORMAT ( 1 X,T 3,I 3, 1 A,A 1 ,I 3,
C
ION (MICROGRAMS/M** 3) FROM
, ' : HOUR ' , I2//1X,T5, 'RAJ
TOTAL'/1X,T113, 'S IGNIF
/ IX, ' SOURCE ;.' ' )
0 . 3 )
10(I3,7X))
ION OIICRGCHAMS/M**3) FRO1'
: HOUR ' , I2//1X.T5,'RANK'
TOTAL'/ IX,Tl13, 'S IGNI!
IX,'SOURCE if)
ONG ENTRAT 10!,' T A,i L E ( M I C kO O'l
X)
A SPEED MIXING TEH?
tlT(M) (R) CLASS'/1X)
II )
AST NORTH ',2X,5('T
IGNIF POINT ALL POINT S
5X, 'RANK'/1X,T38,4 ( 'SOURCE
' , F 4 . 0 , ' , ' , F 4 . 0 , ' , ' , f 4 . u
SIGNIFICANT PO
R')
I'/l
GUBROIJTIl.L JiMIllON (CPIDSP)
C***TllIS ROUTINE CEI.'ERATF. S RECEPTORS IN A
C INPUT VAP IAULE. . .
C GRIDSH- DISTANCE BCT\.'i:rj! GENERATED
COMMON /SORC/ IA(25, 25 ) , SOURCE(9, 250 ) ,
1EC ( 1 50 ) , SREC ( 1 50) ,MPS (2 5 ) ,:IAS (1 0) , 10 FT
2MIN, SMAX, IRSIZE, ISSIZH, N PT , IIA S , !,' S I GP , K S IGA , PtiAME (
COMMON /METCOti/ ACH I ( 1 5 0 ) , PC ill ( 1 5 0 )
1SIGS (100) , IPS ICS (250) ,THETA, U, RST, ill, , TEI1P, S I.IT , CO ST , 15 i'!! ( 2 )
2TC(250) .AHC11I ( 150) , PHCHI (1 50) , AHSIGS ( 1 50, 1 1 ) ,PI!
COMMON /HCGRID/ HR1II N , II RMAX , I! SM I N , H SMAX
COMMON ITYPE (150) , I CODE (1 50) , IN, 10 , X I P , N II) , NA VG
DIMENSION :iCOMBR(250) , HCOMBS(250)
C***THE CHARACTER 'H' IDENTIFIES A RECEPTOR WHICH 1'AS
C*** ROUTINE.
DATA IGHAR / ' 11 ' /
C
C***I!IITIALIZE SPACING PARAMETER FOR RECEPTOR GENERATION
C***THE HORIZONTAL LOCATIONS OF ODD AND EVEN ROWS ARE
C***TUE FIRST HORIZONTAL RECEPTOR (EVEN ROW) IS AT A
C***OF ,5 CRIDSP FROM THE MINIMUM HORIZONTAL DISTANCE
C***TO A DISTANCE OF GRIDSP FOR ODD ROWS.
XINC=GRIDSP*0.5
YINC=GRIDSP*0.866
YCD=HSMIN+YINC/2.
DUM=HRHAX-HRMIN
NCOLS 1=DUM/CRIDSP
NCOLS 2=(DUM+XINC)/GRIDSP
NROWS=(HSMAX-HSHIN)/(2.*YINC)+l.
NBEES=0
DO 50 J=1,NROWS
(US ER UNI ;;• •>
0) , UNITS , CONTWO , '-' K
NREC FP , RMT 'i , \M^'.\ S
(2,250), PSnV(2 5;: ,
) , P S I 0 S ( 1 5 0 , 2 <-. ) , I A
OST , !5i'H (2 ) , H.'j , PAT
ICS (150,26) ,PL (6 )
GENERATED BY THIS
ON .
STAGGERED .
ISTANGE
IN CONTRAST
F:OJ', 0040
I' ON 00 30
NGN 00 JO
HON0070
not: oo ao
110:10000
H 0 U 0 1 0 0
HON01 10
HON0120
H ON 01 30
HON0140
HON0150
110110 160
HOIiO 1 70
110N0180
110N0190
110N0200
HON0210
HON0220
HON0230
IION0240
HON0250
1IOH0260
11 0 N 0 2 7 0
MONO 2 80
H 0 N 0 2 9 0
HON 0300
HON03 10
107
-------
C***THli STARTING LOCATION FOR THC GENERATION OF POSSIBLE HONEYCOMB
C***RECEPTORS IS THE SOUTH WEST CORNER OF THE DEFINED HONEYCOMB GRID
C***AREA.
XCDI-HRIIIK
XCD2-URHIN-XIHC
C
C***GENERATION OT ODD ROWS.
C***THE FIRST POINT (ODD ROW) IS LOCATED AT THE DISTANCE OF GKIDSP
C***EAST FROM THE SOUTH WEST CORNER.
C
DO 10 I-1.1JCOLS1
XCD1-XCD1+GRIDSP
IF (XCD1.GT.HRMAX) GO TO 20
C***NO MORE THAN 250 POSSIBLE RECEPTORS ARE ALLOWED.
IF (ilBEES.GT. 250) CO TO 110
HCOn3R(lIBEES)=XCDl
HC011BS(!3BEES)=YCD
10 CONTINUE
C***ROWS ARE LOCATED AT A PERPEliD ICULAK DISTANCE OF .366 HUES CRIDSP
C***AEOVE THE PRECEEDIHG ROW.
20 YCD=YCD+YIHC
IF (YCU.GT.HSiiAX) GO TO 60
C
C***GEKERATION OF EVEN ROWS
C
DO 30 I = l,:iCOLS2
XC1J2=XC1)24-GRIDSP
IF (XCD2.CT. iHUIAX) GO TO 40
r:J3EES=IIIJEES + l
IF (NBEES.GT. 250) CO TO 110
HC01li)R(t!BEES)=XCD2
HCOilUS (11!3EES)=YCU
COilTI.iUE
YCD=YCD+YIl-iC
II' (YCD.GT. HSKAX) GO TO 60
CONTINUE
30
50
C
C***LLIMIMATE POSSIBLE HONEYCOMB RECEPTORS THAT ARE CLOSE TO OTHER
C***P.LCEPTORS.
C
60
90 ;; = I,NBEES
c***ir t:o PREVIOUS RECEPTORS, TJT.RI: KILL BE ::o COMPARISONS
IT (NRECEP.LE.O) CO TO CO
DO 70 :: = ! ,1!ULI!!
S=SRI:C(I.)
IT (DUM.CT.-\i:.C) GO To 70
IF (;,u:<2.CT.;:i:;c) cc T( 70
'ur.( =i;u--i*'jj; i+;:j: 2*ou! 2
c**-'ij;:r.YC')';:: n;;c: i'Tui-. i:; i,r,:s TI;A.: TALT TIL c\:i >rjv.f.I:;G,
C--«**T;;C i'ossiF.L,: HU:;;;YCO'I:, I.;C;:PTOI. n; r I::CAI:^!:I;.
ir (lust.. L.T. :JLI\) f,•-) I;- "'i
7C CGI.7i:.LIE
UON0320
110110330
HOH0340
IIOH0350
110110360
ilON0370
HOH0330
UON0390
HON0400
110H0410
HON0420
IIOH0430
H0i;0440
I10H0450
HON0460
UON0470
HON04SO
IION0490
110110500
110110510
UOK0520
r.OII0530
110110540
.10N0550
no;;o560
IION0570
;iON0580
not: os 90
:iot:o60o
i',01,0610
HON0620
:ioi:o6 jo
'!0 1.01)40
iioi:o6co
i:o:;oo70
;:o;;o*oO
not; co oo
!! 01.0700
':OuU720
;:o::G730
;:c:,o74C
i'O'J'J Jl 0
108
-------
C***TiiC TOTAL UUniiKK OF RECEPTORS CAt; i;OT EXCEED 150.
IF (I;RECEP. GT. 150) GO TO 100
0***ALD 1,EW RECEPTOR COORDINATES
SREC(I.'RECEP)=S!i
ITYPE (:IRECEP) = IC'.IAR
ICOr>E(llRKCEP)=0
CI=RREC OIRECEP) *U;IITS
c 2=s REG ( I;REC EP ) *u n IT c
'.'RITE (10,120) 'JREGEP, IC1IA1L, Cl ,C2
CO;iTIKUE
R ETURii
URITE (10,130)
IiREGEP = 150
RETURN
\;RITE (io, 140)
CALL EXIT
hO!!0940
i;o;!0(J50
'10110960
HOII097U
'JO
100
1 10
C
120
130
UO
C
FO;MAT (ix,T3,i3, IX.AI , ex,r6. 2, 3x, r?. 2)
FORMAT (' T:K; HAXI:ILH iio. or RECEPTORS HAS ISEEI; GEiiciiArE
1 OTIIEKb WILL 15 E ACCEPTED.')
ro;u;AT (' TOO :IA;;Y POSSIBLE noiiLYCoiic RECEPTOR LOCATION'S RAVE
lIJEE.i GE:iERATED. PLEASE ICDEFIiIli SOUIIDAHIES OR GRID SPACI1IG.')
;;o;;o990
;:o;:iooo
•;oi, 101 :)
no:il020
"u:ii030
''OTJlOAO
i;o:no50
;: or; 1060
;;o:;i070
:ion 10 so
I10J1090
!;oiu 100
roni 1 10
h o n 1 1 2 o
lion 1 130
uo:a 140
iiOlil 150
H01I1100
tlOtll 170
!ioi;l 1GO
in; URSZ (XK.KST.SZ)
C ilCLLKOY-POOLER URiiAH SIGHA Z.
C XR IS DISTANCE III K1I.
C 1CST IS PASQUILL STABILITY CLASS.
G SZ IS Hi tiKTEilS.
C CONVERT X TO 11ETERS
x=iooo.*:;i:
GO TO (10,10,20,30,40,40), KST
10 liZ = 0. 24*X*SQRT(1 .+0. 001*X)
GO TO 50
20 SZ=0.2*X
GO TO 50
30 SZ=0.14*X/SQRT(1.+0.0003*X)
GO TO 50
40 SZ = O.Oa*X/SO.RT(l .+0. 0015*X)
50 IF (SZ.GT.5000.) SZ=5000.
RETURN
EUD
r.Rzooio
3RZ0020
15RZ 00 30
r>RZ0040
wUZOOSO
i; n z o o 6 o
BRZ0070
ERZOOSO
ERZ0090
DRZ0100
DRZ0110
BUZ 0120
CRZ013Q
BRZ0140
CRZ0150
BRZ0160
SRZ0170
DRZ01SO
BUZ 0190
SUBUOUTIIiE BRSYSZ (XK, KST , SY , SZ )
C MCELROY-POOLER URBAK UISPERSIOH PARAUETERS FROM ST.
C EXPERIMENT AS PUT IN EQUATION FORM BY BRIGGS.
C XK IS DISTANCE IN KM.
C KST IS PASQUILL STABILITY CLASS.
C SY A1ID SZ ARE IN IIETERS.'
C CONVERT X TO METERS
X=1000.*XK
GO TO (10,10,20,30,40,40), KST
10 SY-0.32*X/SQRT(1.+0.0004*X)
LOUIS
BRYZ010
BRYZ020.
BRYZ030"
BRYZ040
BRYZ050
BRYZQ60-
BRYZ070"
BRYZ080
BRYZ090
BRYZ100
109
-------
20
30
40
50
C
SZ-0.24*X*SQRT(1
GO TO 50
SY-0.22*X/SQRT(1
SZ-0.2*X
GO TO 50
SY"0.16*X/SQRT(1
SZ-0.14*X/SQRT(1
GO TO 50
SY-0.11*X/SQRT(1
SZ-0.08*X/SQRT(1
IF (SZ.GT.5000.)
RETURN
END
+0.001*X)
+0.0004*X)
+0.0004*X).
+0.0003*X)
+0.0004*X)
+0.0015*X)
SZ-5000.
BRYZ110
BRYZ120
BRYZ130
BRYZ140
BRYZ150
BRYZ160
BRYZ170
BRYZ180
BRYZ190
BRYZ200
BRYZ210
BRYZ220
BRYZ230
BRYZ240
BLOCK DATA
C***COEFFICIENTS GENERATED WITH URBAN SIGMAS USING BRSYSZ & BRSZ
C***DISTANCE OF MAX. CONC. FROM FT SOURCE-PXCOF(KST,IH)*H**PXEXP(KST,IH)
C***RELATIVE CONC. NORMALIZED FOR WIND SPEED FROM PT SOURCE, CHI*U/Q, -
C*** PXUCOF(KST,IH)*H**PXOEXP(KST,IH)
C***DISTANCE OF MAX. CONC. FROM DOWNWIND EDGE OF AREA SOURCE -
C***
C***
C***
C***
C***
C***
C***
C***
C***
C***
AXCOF(KST,IH)*H**AXEXP(KST,IH)
IH-1
IH-2
IH-3
IH-4
IH = 5
IH-6
IH-7
IH-8
IH-9
FOR H
FOR H
FOR H
FOR H
FOR H
FOR H
FOR H
FOR H
LESS THAN 20 METERS.
FROM 20 TO 30 METERS.
FROM 30 TO 50 METERS.
FROM 50 TO 70 METERS.
FROM 70 TO 100 METERS.
FROM 100 TO 200 METERS.
FROM 200 TO 300 METERS.
FROM 300 TO 500 METERS.
FOR H GREATER THAN 500 METERS.
COMMON /COEFFS/ PXCOF(6,9),PXEXP(6,9),PXUCOF(6,9),PXUEXP(6,9),
*AXCOF(6,9),AXEXP(6,9),HC1(10)
DATA PXCOF/
* .76841E-02,
* .50285E-02,
* .36114E-02,
* .34513E-02,
* .36196E-02,
* .19672E-02,
* .63291E-03,
* .21446E-02,
* .30537E-02,
* .77521E-02,
DATA PXEXP/
* . 10829E4-01 ,
* .10080E+01,
* .99634E+00,
* .94836E+00,
* .93716E+00,
* .14421E+01,
* .16884E+01,
* .11920E+01,
* .10327E+01,
* .79879E+00,
DATA PXUCOF/
* .18861E+00,
* .20229E-I-00,
* .19871EfOO,
.29000E-02,
. 76841E-02,
.65931E-02,
.45861E-02,
.34298E-02,
.36196E-02,
.41677E-02,
.63291E-03,
.19145E-03,
.12214E-02,
.29817E-02,
.10000E+01 ,
.10829E+01,
.11340E+01,
.10350E+01,
.10095E+01,
.93716E+00,
.90654E+00,
.16884E+01 ,
.19141E+01,
.12907E+01,
.10365E+01,
.16808E+00,
. 18861E+00,
.21253E+00,
.20011E+00,
.29000E-02,
.31586E-02,
.65931E-02,
.51435E-02,
.43860E-02,
.33575E-02,
.41677E-02,
.50465E-02,
.19145E-03,
.12483E-03,
.39130E-03,
.10000E+01,
.97149E+00,
.11340E+01,
.12070E+01,
.10465E+01,
.10145E+01,
.90654E+00,
.87043E+00,
.19141E+01,
.19890E+01,
.14738E+01,
.16808E+00,
.15945E+00,
.21253E+00,
.24888E+00,
.33389E-02,
.31586E-02,
.31977E-02,
.51435E-02,
.33140E-02,
.39506E-02,
.32748E-02,
.50465E-02,
.60289E-02,
.12483E-03,
.11337E-03,
.10205E+01,
.97149E+00,
.96787E+00,
.12070E+01 ,
.13194E+01,
. 10711E+01,
.10200E+01,
.87043E+00,
.83924E+00,
.19890E+01 ,
.20045E+01,
.20927E+00,
.15945E+00,
.14777E+00,
.24888E+00,
.49374E-02,
.34293E-02,
.31977E-02,
.34513E-02,
.33140E-02,
.19672E-02,
.32439E-02,
.31556E-02,
.60289E-02,
.77521E-02,
.11337E-03/
. 10141E+01,
. 10116E+01,
.96787E+00,
.94836E+00,
.13194E+01,
.14421E+01,
.11139E+01,
.10270E+01,
.83924E+00,
.79879E+00,
.20045E+01/
.20378E+00,
.20527E+00,
.14777E+00,
.13262E+00,
BLK0010
BLK0020
BLK0030
BLK004.0
BLK0050
BLK0060
BLK0070
BLK0080
BLK0090
BLK0100
BLK0110
BLK0120
BLK0130
BLK0140
BLK0150
BLK0160
BLK0170
BLK0180
BLK0190
BLK0200
BLK0210
BLK0220
BLK0230
BLK0240
BLK0250
BLK0260
BLK0270
BLK0280
BLK0290
BLK0300
BLK0310
BLK0320
BLK0330
BLK0340
BLK0350
BLK0360
BLK0370
BLK0380
BLK0390
BLK0400
BLK0410
BLK0420
BLK0430
BLK0440
110
-------
A
*
A
*
X
A-
A
*
:\-
•ft
A
*
A
A
A
A
*
A
A
A
A
A
A
A
A
A
A
A
A
A
A
A
A
A
A
A
A
. 132G2L+00,
. 11745E+00,
. 34521E+QO,
. 343GCE+00,
. 17445E+00,
. o 9 1, 2 1 :: - a ,
.29'jy3;;-)i,
DATA PXL'L Ci'/ -.
-.20640;:+)!, -.
-. 19940E+J1 , -.
-. 19736E+01, -.
-. 19045E+01, -.
-. 1.3759L + 01, -.
-.22320E+U1, -.
-.22310E+01, -.
-.19617L+01, -.
-. 131 72::+oi, -.
-. 1&234E+01, -.
TATA /.::cor/
. 1002GC-01,
. G3253L-02,
,5JU'JOb-02,
.5293 3 3 9 E - 0 2 ,
39429L-U2,
50000E-02,
9 9 5 5 6 1; - 0 2 ,
12206C-01 ,
25533E-03/
10199E+01 ,
10000E+01 ,
0427GE + OC),
91&59E+00,
14356E+01 ,
161G3E+01 ,
11523E+01,
10000E+01,
79036E+00,
75G07E+00,
19880E+01/
I3L!;045U
.JLU04GO
BLi:04 7U
:'.Li:o4SO
uLi;o4';u
ULi;0300
LLi:C510
ULK0520
^LI'.0530
'3 L i . 0 3 4 0
i;Li'.0550
LL ICO 3 CM)
EL:;o570
2Li;0530
iiLi:0590
2 L K 0 6 0 0
!;Lku61 0
hL..;OG20
:;LLOG30
DLr.OG40
uLKOGSO
oL::OGGO
liLi:OG70
5LI.OG30
oL;COG90
r,L::o7oo
!',Li:0710
T;Ll',072C
15LX0730
;iLi:074o
VLr.0750
I, LI". 0750
CLr.0770
ULK0730
GLIC0790
DLi:0300
JLK0310
r,L[;o82C
ULKOS30
ELI' 0340
':,Li:o850
Ij L UO 8 & 0
DESCRIPTION OF PARTIAL C OHC EriTRATIOH FILE
PARTC
PARTC IS AH EXAMPLE PROGRAtl WHICH READS THE PARTIAL CONCENTRATION
FILE PRODUCED BY RA1I OR RAMR. IT IS GIVEN HERE ONLY AS AN EXA11PLE OF
HOW THE PARTIAL.CONCENTRATION FILE CAM BE READ.
A
A
A*AAAPROCRAII LISTING*****
111
-------
*
*
C***PROGRAM TO READ PARTIAL CONCENTRATION FILE PRODUCED BY RAM OR RAMR
DIMENSION PARTC(250),IDATE(2),RREC(150),SREC(150)
C***READ NO. OF HOURS IN AVERAGING TIME AHD NO. OF PERIODS TO OUTPUT
READ(5,10) NAVG.NPER
10 FORMATO
DO 50 ND=1,HP£R
C***READ HEADER RECORD
READ(10,END=99) NRECEP , HAS , NPT , (RREC ( I ) , 1 = 1 , NRECEP ) ,
* (SREC(I) ,1=1 .HRECEP)
WRITE (6, 100) NRECEP,HAS,NPT,(I,RREC(I),SREC(I),I = 1,1IRECEP)
100 FORMAT('1NO. OF RECEPTORS = ',13,' HO. OF AREA SOURCES = ',
*I3,' 110. OF POINT SOURCES= ',I 3//I X,'RECEPTOR LOCATIOHS'/IX,
*150(I2,2F10.2/1X))
DO 40 IK=l,tlAVG
C***READ POINT CONTRIBUTIONS
WRITE(6,112)
112 FORMAT (' POINT SOURCE COHTRIBUT IONS (MICROGRAliS /M* *3 ) ' )
DO 30 JK-1,NRECEP
READ(10) IDATE.LH.K,(PARTC(J),J=l,HPT)
WRITE (6, 110) IDATE,LH,K, (PARTC(J),J = l,NPT)
30 CONTINUE
C***READ AREA CONCENTRATIONS
WRITE(6,111)
111 FORMAT (' AREA SOURCE CONTRIBUTIONS(MICROGRAMS/M**3)')
DO 20 JK=1.NRECEP
READ(10) IDATE.LH.K,(PARTC(J),J=1,HAS)
WRITE (6 , 110) IDATE.LH.IC, (PARTC(J ) , J = 1,HAS)
110 FORMAT(IX,'YEAR= 19',12,' JULIAN DAY= ',13,' 110UR= ',12,
*' RECEPTOR 110.- ' ,I3/1X,250(&P10F10.2/1X))
20 COIJTIIiUE
40 CONTINUE
50 CONTINUE
99 CALL EXIT
E11D
INPUT TO PARTC
*
CARD 1 (TREE FORMAT) KAVG.NPER
1IAVC IS THE NUMBER OF HOURS It! THE AVERAGING TIME
NPER IS THE NUMfiCR UF PERIODS TO READ.
EXAMPLE:
24,2
*
*
***** CXAUPLE RUN STRLA1L *****
*
ft
GRUi.'.D/R JO 13 NAME, ACCNT -I* 0 /U S ERI13 , PRO J-l 0 , 1 , 10
GPASSWL) PASSWORD
k]A3G, A PA ITC .
>JASG,T/r.
C'USL 10,
GX<;T ?AKT
24,2
*
TGR..AT ;;E3CRIPTIi)r OF PARTIAL COIIC ENT HAI'IOt: FILL
ARTCOt. . , 1 ')'.', , REEL-::0
"ARTCUII
112
-------
EACH RECORD IS UNFORMATTED AND FORTRAN WRITTEN.
T!1E HEADER RECORD IS WRITTEN AT THE BEGINNING OF EACH PERIOD.
THEN FOR EACH HOUR IN THE PERIOD 'HRECEP' POINT SOURCE RECORDS ARE
WRITTEN FOLLOWED BY 'NRECEP' AREA RECORDS.
HEADER RECORD AT START OF EACH PERIOD
VARIABLE DESCRIPTION
KRECEP NUMBER OF RECEPTORS FOR THIS HOUR
NAS NUMBER OF AREA SOURCES
ilPT NUIIBER OF POINT SOURCES
RREC (I) ,1 = 1 .I1RECEP EAST COORDINATE OF ALL REGEPTORS(USER UNITS)
SREC (I) ,I = 1,NRECEP NORTH COORDINATE OF ALL RECEPTORS (U SER UNITS)
FOR EACH HOUR IN THE PERIOD THE FOLLOWING RECORDS ARE WRITTEN:
POINT SOURCE CONCENTRATION RECORDS (1 FOR EACH RECEPTOR)
VARIABLE DESCRIPTION
IDATE(l) 2-DIGIT YEAR
IDATE(2) JULIAN DAY
Lil HOUR
K RECEPTOR NU1IBER
PARTC(J) , J = l ,NPT THE CONTRIDUT ION (IUCROGRAHS /!!* *3 ) FROM POINT SOURCE
J TO RECEPTOR K
AREA CONCENTRATION RECORDS(1 FOR EACH RECEPTOR)
VARIABLE DESCRIPTION
IDATE(l) 2-DIGIT YEAR
IDATE(2) JULIAN DAY
LH HOUR
K RECEPTOR NUIiBER
PARTC(J) , J-l.MAS THE CONTRIB UTION (MIC ROGRAIIS/U* *3 ) FROli AREA SOURCE
J TO RECEPTOR K
EXAMPLE PUHCHCARD OUTPUT FROII RAM
PUHCHCARD
PUNCHCARD CONTAINS THE FORMAT OF THE PUNCH CARD OUTPUT FROM RA1I OR RAMR.
COLUMN FORMAT DESCRIPTION
1-4 A4 'CNTL'
6-15 F10.3 EAST RECEPTOR COORDINATE(USER UNITS)
16-25 F10.3 NORTH RECEPTOR COORDINATE(USER UNITS)
113
-------
2 - - 3 5
J&-45
46-55
56-59
ilU.3 TOTAL CONCENTRATION (I1IC ROGRA11 S/M* *3 )
110.3 TOTAL COt.C. FROM AREA S 0 URC E S (MI C R-QCRAIIS / :i* *3 )
I'lO.j TOTAL CONG. FROM POINT S OUUCES (MIC ROGRAI1S /M* *3 )
14 RECEPTOR MJtlBER
c-=**E/A:n>LE OUTPUT FKOJI RAH TEST RUN
CIITL
CIITL
CIITL
CNTL
c i; i L
CiITL
C11TT
C:;TL
c i>; T L
C1ITL
CIITL
CNTL
CIJTL
CIITL
C i, T L
C.NTL
c n T L
CI.'TL
CIITL
CNTL
CNTL
CiNTL
CNTL
C::TL
c n T L
CIITL
CIITL
CIITL
CUT i.
CNTL
CNTL
C tl T L
CNTL
C H T L
CTITL
CilTL
CIITL
CIITL
C N T L
566.
504.
563.
562.
579.
578.
577.
576.
576.
576.
5 8 2 .
582.
577.
575.
5/7.
577.
573.
579.
573.
569.
581 .
579.
572 .
530.
5 /I .
5 73.
575.
577.
572.
574.
576.
573.
571 .
575.
572 .
574.
576.
57S.
580.
000
000
563
427
229
957
0 70
690
395
040
702
404
896
9 1 y
934
919
934
856
934
896
856
856
UOO
000
000
000
0 0 0
000
G 0 0
000
000
000
000
000
000
000
000
000
000
4 4 0 5 .
4401.
4406.
4405.
4403.
4402.
4401.
4400.
4400.
4 400.
4400.
4400.
4400.
4400.
4 4 0 2 .
4406.
4400.
4406.
4406.
4404.
4 4 0 4 .
4404.
4400.
4400.
4402.
4402.
4402.
4402.
4404.
4404.
4404.
4404.
4406.
4406.
4407.
4407 .
4407.
4407.
4407.
000
500
353
615
0 2 5
800
035
720
406
1 12
653
406
085
104
1 17
104
1 17
052
1 17
256
052
052
866
866
598
598
598
598
330
330
330
330
062
062
794
794
794
794
794
11.
1 .
3.
1 .
61 .
19.
44.
19.
80.
32.
31.
8.
8.
26.
5.
53.
26.
2.
7.
1 .
1 .
1 .
10.
.
25.
20.
5.
5.
8 .
51 .
1 .
6.
1 .
13.
10.
1 .
13.
1 .
.
425
379
362
795
939
872
640
401
632
471
675
834
321
434
153
255
366
565
658
924
382
637
433
417
163
314
293
082
&92
828
231
786
575
158
620
169
959
416
640
3
3
7
8
9
9
8
9
3
3
6
2
T
1
1
1
1
1
2
1
1
1
2
1
1
.275
.699
. 000
.000
.012
. 290
. 869
. 482
. 043
.333
.010
.015
. 255
.138
. 833
.550
. 250
.565
.724
.860
. 382
.637
. 356
.417
. 331
. 645
. 724
. 215
.718
.138
.876
. 809
.560
.550
. 337
.148
.000
. 281
. 640
1 1.
,
3.
1 .
58.
16.
36.
10.
71 .
23.
31.
3.
.
1 7.
1.
49.
20.
.
4.
.
,
.
9.
.
23.
19.
4.
2 .
6.
50.
,
5.
.
15.
10.
.
1 3.
.
.
150
680
362
795
926
531
771
91 9
589
138
665
819
066
295
320
705
116
000
934
064
000
000
077
000
332
669
569
867
974
690
404
977
015
608
282
021
959
135
000
1
2
3
4
5
6
7
3
9
10
11
1 2
13
14
15
16
1 7
18
19
20
21
22
23
24
25
26
27
28
29
30
31
32
33
34
35
36
37
38
39
114
-------
6.
RAMF - INPUT FORMATS AND EXAMPLE RUNSTEAMS
RAMFDOC
C***RAMF IS THE LONG TERM VERSION OF RAM,
C***AN EFFICIENT GAUSSIAN-PLUME MULTIPLE-SOURCE
C***AIR QUALITY ALGORITHM. RAM IS DESCRIBED IN: NOVAK,J.H., AND
C***TURNER,D.B., 1976: AIR POLLUTION CONTROL ASSOC. J., VOL. 26, NO. 6,
C***PAGES 570-575(JUNE 1976). RAMF'S PRINCIPAL USE IS TO DETERMINE
C***FREQUENCY DISTRIBUTIONS AND LONG TERM(UP TO A YEAR) CONCENTRATIONS FROM
C***POINT AND AREA SOURCES IN URBAN AREAS BY CALCULATING AND AVERAGING 1 HOUR
C* ^CONCENTRATIONS.
C***THREE SYSTEMS OF LENGTH AND COORDINATES ARE USED IN RAMF:
C*** THE FIRST SYSTEM, USER UNITS, IS SELECTED BY THE USER AND
C*** NORMALLY USES THE COORDINATE SYSTEM OF THE EMISSION INVENTORY.
C*** ALL LOCATIONS INPUT BY THE USER(SUCH AS SOURCES AND RECEPTORS)
C*** ARE IN THIS SYSTEM. ALSO AS A CONVENIENCE TO THE USER ALL
C*** LOCATIONS ON OUTPUT ARE ALSO IN THIS SYSTEM.
C*** THE SECOND SYSTEM, INTERNAL UNITS, IS USED INTERNALLY IN RAMF
C*** FOR COORDINATE LOCATIONS AND DISTANCES. ONE INTERNAL UNIT IS THE
C*** SIDE LENGTH OF THE SMALLEST AREA SOURCE SQUARE. THIS LENGTH MUST
C*** BE IDEMTIFIED AND SPECIFIED BY THE USER. THE PURPOSE OF USING
C*** INTERNAL UNITS IS TO HAVE A CORRESPONDENCE BETWEEN LOCATION(GRID
C*** COORDINATES) AND PARTICULAR AREA SOURCE POSITIONS. THIS IS
C*** ACCOMPLISHED THROUGH THE USE OF THE AREA SOURCE MAP ARRAY(IA ARRAY
C*** ). THIS ALLOWS DETERMINATION AS TO WITHIN WHICH AREA SOURCE ANY
C*** COORDINATE POINT RESIDES.
C*** THE THIRD SYSTEM,X,Y, IS AN UPWIND, CROSSWIND COORDINATE SYSTEM
C*** WITH REFERENCE TO EACH RECEPTOR. THE X-AXIS IS DIRECTED UPWIND
C*** (SAME AS WIND DIRECTION FOR THE PERIOD). IN ORDER TO DETERMINE
C*** DISPERSION PARAMETER VALUES AND EVALUATE EQUATIONS FOR
C*** CONCENTRATIONS, DISTANCES IN THIS SYSTEM MUST BE IN KILOMETERS.
C***
CARD INPUT TO RAMF (OR RAMFR)
CARD 1 (13A6.A2) LINE1 80 CHARACTER TITLE
EXAMPLE:
RUN BY: ED KRENSHAW, AIR & HAZARDOUS MATER. DIV., REGION XV, EPA(1 JAN 78)
CARD 2 (13A6.A2) LINE2
EXAMPLE:
EMISSIONS: TEST CITY, 1973
80 ALPHA CHARACTERS OF INFORMATION
CARD 3 (13A6.A2) LINE3 80 ALPHA CHARACTERS OF INFORMATION
EXAMPLE:
SFC MET DATA: TEST CITY,1973; UPPER AIR: TEST CITY, 1973
CARD 4 (FREE FORMAT) IOPT,NPER,NAVG,Z,HAFL,HSIGP,NSIGA,IDATE,IHSTRT
IOPT - OPTIONS (THIRTEEN DIFFERENT ONES) CODED: 1= USE OPTION, 0= DON'T USE.
IOPT(1) POIKT SOURCE IKPUT?
115
-------
IOPT(2) AREA SOURCE INPUT?
IOPT(3) ENTERING PERMANENT RECEPTOR COORDINATES?
IOPT(4) NOT AVAILABLE IN THIS VERSION
IOPT(5) NOT AVAILABLE IN THIS VERSION
IOPT(6) NOT AVAILABLE IN THIS VERSION
IOPT(7) NOT AVAILABLE IN THIS VERSION
IOPT(8) MOT AVAILABLE IN THIS VERSION
IOPT(9) HOT AVAILABLE IN THIS VERSION
IOPT(10) NOT AVAILABLE IN THIS VERSION
IOPT(11) INPUT MET DATA OF, CARDS?
IOPT(12) SPECIFY SIGNIFICANT SOURCES?
RAMQ INTERNALLY DETERMINES THE ORDER OF SIGNIFICANCE FOR BOTH POINT AND
AREA SOURCES. THE USER SHOULD EMPLOY OPTION 12 ONLY IF THERE IS A
PARTICULAR SOURCE OF INTEREST WHICH WAS NOT CONSIDERED TO BE
SIGNIFICANT BY RAMQ. IF THE USER WISHES TO ADD A SICNIF. POIHT SOURCE
BUT NOT A SIGNIFICANT AREA SOURCE, BOTH CARD TYPE 6 AND 9 MUST BE
INCLUDED IF BOTH POINT AND AREA SOURCES ARE BEING CONSIDERED AND IHAS
SHOULD BE SET TO 0.
IOPT(13) READ HOURLY EMISSIONS?
NPER THE NUMBER OF PERIODS TO BE RUN
NAVG THE NUMBER OF HOURS IN THE AVERAGING TIME
IF THE AVERAGING TIME IS 24 HOURS, NPER IS EQUIVALENT TO THE NUMBER OF
DAYS TO BE RUN. HAVG=24 IS THE STANDARD RECOMMENDED AVERAGING TIME.
IF ANOTHER AVERAGING TIME IS USED 1) THE FINAL TABLE LABELED
'FIVE HIGHEST 24-HOUR CONCENTRATIONS' GENERATED BY RAMF OR RAMFR
WILL BE INCORRECT, 2) THE DAILY OUTPUT WILL BE NAVG OUTPUT INSTEAD OF
DAILY AND WILL HAVE TO BE READ IN A FORMAT DIFFERENT THAN
ILLUSTRATED IN RAMFDAY.
Z RECEPTOR HEIGHT ABOVE GROUND (METERS) (ALL MUST BE AT SAME HEIGHT).
HAFL POLLUTANT HALF-LIFE (SECONDS).
NSIGP NO. OF SIGNIFICANT POINT SOURCES.
NSIGA NO. OF SIGNIFICANT AREA SOURCES.
NOTE:ONLY THOSE SOURCES DESIGNATED AS SIGNIFICANT APPEAR ON THE PRINTOUT
IDATE(l) 2 DIGIT YEAR
IDATE(2) STARTING JULIAN DAY FOR THIS RUN
IHSTRT STARTING HOUR
RESTRICTIONS ON INPUT PARAMETERS FOR RAMF
1) IF METEOROLOGICAL DATA HAS BEEN PREPROCESSED USING RAMMET OR THE
CRSTER PREPROCESSOR:
(A) THE STARTING HOUR(IHSTRT) MUST EQUAL 1.
(B) DAYS MUST BE RUN IN ORDER STARTING WITH DAY l.BUT CAN BE BROKEN
INTO SEPARATE RUNS IF CONVENIENT. SEE RUNSTREAM EXAMPLES FOR USE.
(C) IF MULTIPLE DAYS ARE TO BE RUN, THE AVERAGING TIME(NAVG) MAY BE
1,2,3,4,6,8,12, OR 24. FOR OTHER AVERAGING TIMES<=24, THE TOTAL
NUMBER OF HOURS RUN(NAVG*NPER) MUST NOT EXCEED 24.
NAVG MUST BE 24 IF 1)CUMF IS TO BE RUN, 2) IF FINAL TABLES ARE TO
BE INTERPRETED CORRECTLY, 3) IF DAILY OUTPUT IS TO BE READ AS
SHOWN IN EXAMPLE.
(D) NON-CONSECUTIVE DAYS OR PERIODS MUST BE RUN SEPARATELY.
2) IF METEOROLOGICAL DATA IS TO BE INPUT ON CARDS:
(A) THE STARTING HOUR(IHSTRT) MAY RANGE BETWEEN 1 AND 24 INCLUSIVELY.
(B) THE STARTING JULIAN DAY(I DATE (2)) MUST AGREE WITH THE DATE ON THE
FIRST INPUT CARD. NO FILE MANIPULATION IS DONE.
(C) THE AVERAGING TIME(NAVG) SHOULD BE A MULTIPLE OF 24 IF MULTIPLE
CONSECUTIVE DAYS ARE TO BE RUN.
(D) NON-CONSECUTIVE DAYS OR PERIODS CAN BE PROCESSED IN THE SAME RUN.
HOURS WITHIN A PERIOD MUST BE CONSECUTIVE AND EACH PERIOD MUST
HAVE THE SAME AVERAGING TIME.
116
-------
EXAMPLE:
1,1,1,0,0,0,0,0,0,0,0,1,1, 1, 24, 0.0, 14400., 5, 10, 73, uul.l
CARD TYPE 5 (FREE FORMAT) I SFCD , I SFC YR , I11XD , IMXYR
THIS CARD IS REQUIRED ONLY IF IOPT(11)=0
ISFCD SURFACE METEOROLOGICAL STATION IDENTIFICATION.
ISFCYR YEAR OF SURFACE DATA - 2 DIGITS.
IHXD IDENTIFICATION OF RADIOSONDE STATION USED TO DETERMINE
MIXING HEIGHT.
I11XYR YEAR OF MIXING HEIGHT DATA - 2 DIGITS.
EXAMPLE:
93815, 73, 93815, 73
CARD TYPE 6 (2613) INPT.MPS
THIS CARD IS REQUIRED ONLY IF IOPT(1)=1 AND IOPT(12)=1
IKPT THE NUMBER OF USER SPECIFIED SIGNIFICANT POINT SOURCES, COUNT(MAX=25)
MPS POINT SOURCE NUMBERS USER WANTS TO CONSIDER SIGNIF1CANT(I.E., COHC.
CONTRIBUTIONS FROM SICNIF. SOURCES ARE PRINTED ON OUTPUT)
EXAMPLE:
1 7
CARD TYPE 7 (FREE FORMAT) FH,XLIM,NETS, (HINT(I),I=1 ,NUTS )
THIS CARD IS REQUIRED ONLY IF IOPT(2)=1
FH FRACTION OF AREA SOURCE HEIGHT WHICH IS PHYSICAL HEIGHT
XLIM DISTANCE LIMIT ON INTEGRATION FOR AREA SOURCE(USER UNITS). IN ORDER
FOR CALCULATED CONCENTRATIONS FROM AREA SOURCES TO BE DETERMINED
CORRECTLY, XLIM SHOULD BE EQUIVALENT TO THE GREATEST DISTANCE FROM
AtiY RECEPTORUNCLUDING THOSE GENERATED BY THE ALGORITHM) TO ANY PART
OF AN AREA SOURCE. IF RECEPTORS ARE OUTSIDE THE AREA SOURCE REGION,
XLIM UILL BE THE DISTANCE FROM THE RECEPTOR FARTHEST FROM THE AREA
SOURCE REGION ACROSS THE AREA SOURCE TO THE CORNER FARTHEST AWAY
FROM THE RECEPTOR. IF ALL RECEPTORS ARE INSIDE THE AREA SOURCE
REGION, XLIM IS THE GREATEST POSSIBLE DISTANCE FROM A RECEPTOR TO A
CORNER OF THE AREA SOURCE REGION. XLIH IS ENTERED IN USER UNITS.
IF XLIM IS TOO SHORT THE CALCULATED CONCENTRATION WILL BE TOO LOW.
IF XLIM IS TOO LARGE COMPUTATION TIME IS INCREASED. XLIM CANNOT
EXCEED 116 KM.
NUTS NUMBER OF HEIGHTS TO BE USED FOR AREA SOURCES(MIN=1,MAX=3)
HINT HEIGHT(S) (METERS) FOR AREA SOURCE INTEGRATIONS. THIS IS AN ARRAY OF
FROM ONE TO THREE ELEMENTS.
EXAMPLE:
.75, 25. , 3, 11. ,15. ,20.
CARD TYPE 8 (FREE FORMAT) (BPH(I),I=1,NBP)
THIS CARD IS REQUIRED ONLY WHEN CARD TYPE 7
IS USED.
BPH BREAKPOINT HEIGHTS (METERS) BETWEEN AREA SOURCE HEIGHTS. THESE VALUES
DEFINE THE BOUNDS OF HEIGHT CLASSES. ANY AREA SOURCE FALLING WITHIN
THE HEIGHT CLASS WILL USE THE SPECIFIED REPRESENTAVIE HEIGHT(HINT)
FOR THAT CLASS DURING THE INTEGRATION.
ARRAY OF TWO ELEMENTS. ONE VALUE WILL BE READ IF NUTS ON PREVIOUS
CARD IS 1 OR 2. TWO VALUES READ FOR NHTS - 3. BPH AND HINT CAN
USUALLY BE CHOSEN BY EXAMINING THE QUANTITY OF AREA SOURCE EMISSIONS
WITH HEIGHT WHICH IS GIVEN AS PART'OF THE RAMQ OUTPUT. IT IS
DESIRABLE TO CHOOSE AS REPRESENTATIVE HEIGHTS FROM AREA SOURCES AS
POSSIBLE. IF NHTS IS 1, THE VALUE OF BPH MUST BE LARGER THAN
117
-------
ANY AREA HEIGHT IN THE DATA SET FOR THE RUN.
EXAMPLE:
13., 17.
CARD TYPE 9 (2613) INAS.MAS
THIS CARD IS REQUIRED ONLY IF IOPT(2)=1 AND IOPT(12)=1
IHAS THE NUMBER OF USER SPECIFIED SIGNIFICANT AREA SOURCES, COUNT(MAX=10)
MAS AREA SOURCE NUMBERS USER WANTS TO CONSIDER SIGNIFICANT(I.E. CONC.
CONTRIBUTIONS FROM SIGNIF. SOURCES ARE PRINTED Oil OUTPUT)
EXAMPLE:
0
CARD TYPE 10 (2A4,IX,2F10.3) (RNAME(J,NRECEP),J=l,2),RREC(NRECEP),SREC(NRECEP)
ONE CARD FOR EACH RECEPTOR. THESE CARDS ARE REQUIRED FOR RAMF AND RAMFR
VERSIONS. LAST RECEPTOR CARD MUST BE BLANK.
RNAME ALPHA-NUMERIC STATION IDENTIFIER (8 CHARACTERS).
RREC EAST COORDINATE OF RECEPTOR (USER UNITS).
SREC NORTH COORDINATE OF RECEPTOR (USER UNITS).
NOTE THAT THE SUM OF RREC AND SREC EQUAL TO ZERO IS USED TO TRANSFER
CONTROL SIGNALING THAT THE LAST RECEPTOR CARD HAS BEEN READ.(I.E. A BLANK
CARD). A COORDINATE SCHEME SHOULD BE SELECTED PRIOR TO RUNNING RAMQ SO
THAT SOURCES AND RECEPTORS HAVE POSITIVE EAST(R) AND HORTH(S) COORDINATES
EXAMPLE:
RECEP 1 575.25 4409.0
CARD TYPC 11 (FREE FORMAT) IDAY.LDRUH
REQUIRED FOR ALL RUNS
IDAY
LDRUH
EXAMPLE:
0,1
NUMBER OF DAYS PREVIOUSLY PROCESSED
LAST JULIAN DAY NUMBER TO CE PROCESSED(JULIAN DAY OF LAST HOUR
PROCESSED WHEN START HOUR 13 MOT EQUAL TO 1).
BE MODELED.
RAftUET OUTPU
CARD TYPE 12 (FREE FORMAT) J YK , IMO , DAY 1 , IK.ST (Jllll) , QU (JHK ) .QTEMP (JHR ) ,
QTHETA(JllR) ,QHL (JUT.)
THESE CARDS CONTAIN HOURLY SURFACE OBSERVATIONS AND ARE REQUIRED ONLY IF
A CARD FOR EACH HOUR TO
IS ASSUMED TO COME FROM
YEAR OF MET. DATA
JULIA1! DAY OF ili'.T. DATA
HOUR OF MET. DATA
STABILITY CLASS FOR THE JHR-TH HOUR
WIIID SPEED (M/SEC) FOR THE JHR-TH HOUR
AUBIENT AIR TEMPERATURE (D EG-KELVIM ) FOR THE JIIR-Tfl HOUR
WIND Din I;CTION (DI;G) FOR JHR-TH HOUR(FROM WHICH WIND is BLOTILH;)
IOPT(11)=1. THERE SHOULD BE
IF(IOPT (1 1 ) = 0 TllC MET. DATA
JYR
DAY1
J H R
IKST(JUR)
QU (JiliO
QTEMP(JHR)
QTHETA(JIIR)
MIXI'.IG HEIGHT (METLRS) FOR THE JHR-TH HOUR
QHL (J11R)
EXAMPLE:
73,1,1,4,6. 17,269.G2,33.0,429.11
**ft******POSSIBLE DISK OR TAPE INPUT TO RAMF OR RAMFR*****
1) ANNUAL Oil AVERAGE EMISSION DATA IS REQUIRED FOR THE EXECUTION OF RAMF.
THE KODI.L EXPECTS THESE EMISSIONS ON UNIT ') HI THE FORMAT AS OUTPUT FROM THE
EMISSION PREPROCESSOR, KAMQ. SEC RAMODUC FOR A DESCRIPTION OF THE IliPUT DATA.
118
-------
FORMAT.
2) HOURLY METEOROLOGICAL DATA CAN BE INPUT VIA CARDS AS DESCRIBED ABOVE, OR
CAN BE INPUT FROM DISK/TAPE ON UNIT 11 I ,V THE FORMAT AS OUTPUT FROM THE MET.
PREPROCESSOR RA11MET. THIS OUTPUT FORMAT IS EXACTLY THE SA11E AS THE OUTPUT FILE
FROM THE MX24SP( ALSO CRSTER) PREPROCESSORS. THE ONLY DIFFERENCE BETWEEN THE
RAMMET PREPROCESSOR AND THE CRSTER PREPROCESSOR IS THE GENERATED RANDOM NUMBERS.
SEE RAMMETDOC FOR A DESCRIPTION OF THE INPUT DATA FORMAT.
3) HOURLY POINT SOURCE EMISSION DATA CAN BE INPUT FROM DISK OR TAPE ON UNIT 15.
RAM EXPECTS EMISSIONS, ONE RECORD FOR EACH HOUR, AS FORTRAN WRITTEN UNFORMATTED
RECORDS CONTAINING THE FOLLOWING DATA:
VARIABLE
DESCRIPTION
IDATP DATE(YYDDDHH) WHERE YY=YEAR,DDD=JULIAN DAY, HH=HOUR
SOURCE(IPOL,I),1=1,NPT THE HOUR'S POINT SOURCE EHISSIONS(GRAMS/SECOND)
FOR EACH OF THE POINT SOURCES IN THE ORDER IN WHICH THEY
WERE INPUT INTO RAMQ.(IPOL HERE IS THE POLLUTANT TYPE AS
SPECIFIED AS INPUT TO RAMQ, 3=S02, 4=PARTICULATE)
4) HOURLY AREA SOURCE EMISSION DATA CAN BE INPUT FROM DISK OR TAPE OH UNIT 16.
RAM EXPECTS EMISSIONS, ONE RECORD FOR EACH HOUR, AS FORTRAN WRITTEN UNFORMATTED
RECORDS CONTAINING THE FOLLOWING DATA:
VARIABLE
IDATA
ASORC(IPOL,I),1=1,NAS
DESCRIPTION
DATE (YYDDDHH) WHERE YY=YEAR,ODD=JULIAN DAY, HH = HOUR
THE HOUR'S AREA EMISSIONS (GRAMS/SECOND)
FOR EACH OF THE AREA SOURCES IN THE ORDER IN WHICH THEY
WERE INPUT INTO RAMQ.
NOTE: IT IS ASSUMED THAT THE USER WILL SUPPLY HIS OWN SOFTWARE TO PRODUCE THE
HOURLY EMISSION FILES COMPATIBLE WITH THIS FORMAT.
C
C**********DISK AND TAPE OUTPUT FROM RAMF OR RAMFR**********
1) HOURLY CONCENTRATIONS(GRA1IS/M**3 ) AT EACH RECEPTOR ARE WRITTEN TO TAPE
EACH HOUR OF THE ENTIRE MODELING PERIOD. SEE RAMFHOUR FOR THE FORMAT OF THIS
TAPE OUTPUT(UHIT 12).
2) DAILY CONCENTRATIONS(GRAMS/M**3) AT EACH RECEPTOR ARE WRITTEN TO DISK
EACH AVERAGING PERIOD OF THE ENTIRE MODELING PERIOD.
SEE RAMFDAY FOR THE FORMAT OF THIS DISK OUTPUT(UNIT 13).
3) A RUNNING SUM OF THE CONCENTRATION AT EACH RECEPTOR IS KEPT AND IF A LONG RUN
IS BROKEN INTO MULTIPLE RUNS, THE CURRENT CONCENTRATION SUMS AREA WRITTEN
TO DISK(UNIT 14).
C*****DESCRIPTION OF FINAL OUTPUT TABLES IN RAMF AND RAMFR*****
TWO SUMMARY TABLES ARE PRINTED AT THE END OF EACH RUN OR SEQUENCE OF
RUNS OF RAMF AND RAMFR. THE FIRST TABLE CONTAINS THE FIVE HIGHEST 24-HOUR
CONCENTRATIONS(MICROGRAHS/M**3) FOR EACH RECEPTOR FOR THE ENTIRE PERIOD MODELED,
, AND IN PARENTHESIS THE JULIAN DAY OH WHICH THESE CONCENTRATIONS OCCURRED.
THE FINAL COLUMN IN THE TABLE CONTAINS THE MEAN CONCENTRATION FOR THE TOTAL
NUMBER OF DAYS BEING ANALYSED, EVEN IF THEY ARE RUN AS SEPARATE JOBS.
TECHNICALLY THE SUMMARY TABLES ARE ONLY PRINTED IF LDRUN- THE DAY NUMBER OF THE
LAST DAY TO BE PROCESSED DURING THIS SEQUENCE OF RUNS- IS EQUAL TO NDAYS - THE
TOTAL NUMBER OF DAYS TO BE RUN. (SEE EXAMPLE 3 OF RUN STREAMS FOR RAMF).
119
-------
THE SECOND TABLE CONTAINS THE FIVE HIGHEST 1-HOUR CONCENTRATIONS AT EACH
RECEPTOR, AND THE JULIAN DAY AND HOUR OH WHICH THESE CONCENTRATIONS OCCURRED.
C
c
C
ECLSTREAM: EXAMPLE 1.
THE FOLLOWING ECL IS NEEDED TO EXECUTE RAMF FOR ONE 24-HOUR PERIOD USING
THE URBAN SIGMAS. THE PREPROCESSED EMISSION FILE, REFERRED TO AS
RAMQOUT IN THE EXAMPLE , MUST CONTAIN THE PREPROCESSOR
OUTPUT FROM RAMQ WHICH SPECIFIED THE USE OF URBAN SIGMAS.
THE METEOROLOGICAL DATA CAN BE INPUT EITHER FROM DISK OR CARDS.
THE EXAMPLE ECL DEMONSTRATES MET DATA INPUT FROM THE DISK FILE,METDATA, CREATED
BY THE MET. PREPROCESSOR, RAHMET.
THE HOURLY EMISSION DATA CAN BE INPUT FROM DISK OR TAPE FILES.
THE EXAMPLE ECL DEMONSTRATES HOURLY EMISSIONS INPUT FROM DISK FILES, RAMHPOINT
AND RAMHAREA.
TO FACILITATE CHECKING TEST RUNS AGAINST EXAMPLE OUTPUTS GIVEN IN THE
USERS GUIDE, THE HOURLY EMISSIONS DATA USED WITH THIS TEST RUN WAS
THE SAME AS THE AVERAGE EMISSION RATE(INPUT TO RA11Q) FOR EACH HOUR.
*****EXAMPLE ECL STREAM*****
@RUN,D/R JOBNAME/41,ACCNT-NO/USERID,PROJ-ID,1,50/60
@PASSWD PASSWORD
@ASG,A RAMQOUT.
@USE 9.RAHQOUT.
@ASG,T/W RAHHOUR,16N,REEL-NO.
@USE 12,RAHHOUR.
@ASG,A METDATA.
@USE 11,METDATA.
@ASG,CP RAM24.
@USE 13.RA1I24.
@ASG,CP ANSUM.
@USE 14,AN SUM.
@ASG,A RAMHPOINT.
@USE 15,RAMHPOINT.
@ASG,A RAMHAREA.
@USE 16,RAMHAREA
@XQT A999*UHAMAP.RAMF
RUN BY: ED KRENSHAW, AIR & HAZARDOUS MATER. DIV., REGION XV,EPA(1 JAN 78)
EMISSIONS: TEST CITY, 1973
UPPER AIR
EMISSION FILE FROM RAMQ
HOURLY CONCENTRATION OUTPUT TAPE
MET. DATA FILE FROM RAMMET
DAILY CONCENTRATION OUTPUT FILE
STORAGE OF INTERMEDIATE ANNUAL -SUMS
HOURLY POINT EMISSIONS DATA
HOURLY AREA EMISSIONS DATA
TEST CITY 1973
5, 10, 73, 001,1
SFC MET. DATA: TEST CITY 1973
1,1,1,0,0,0,0,0,0,0,0,1,1, 1, 24, 0.0, 14400
93815,73,93815,73
1 7
. 75, 25. , 3, 11. ,15. ,20.
13., 17.
0 0
4409 . 0
4404.0
4403. 1
4400.56
4399.95
4403. 16
0,1
C
C***************** * ********* >'( * ********* * A *****************************
C
C THE PRECLEDIIIG RUU STKCAI! HAD A RUM TIME OF 16.61 SECONDS
RECEP 1
RECEP 2
RECEP 3
RECEP 4
RECEP 5
RECEP 6
575. 25
576.0
579. 53
576. 79
577. 29
579.53
120
-------
C 01J THE UNIVAC 1110 AND REQUIRED 41-K WORDS OF MEMORY
C (APPROXIMATELY 10,446 WORDS FOR INSTRUCTIONS AND 29,721 WORDS FOR DATA)
ECLSTREAM: EXAMPLE 2.
THE FOLLOWING ECL IS NEEDED TO EXECUTE RA1IF FOR AN ENTIRE YEAR USING THE
URBAN SIGHAS. ANNUAL EMISSIONS ARE USED. FILE DESCRIPTIONS ARE SAME AS ABOVE.
*****EXAMPLE ECL STREAM*****
@RUH,D/R JOBNAME/41,ACCNT-NO/USERID,PROJ-ID,30,2000
0PASSHD PASSWORD
OASG.A RAMQOUT.
@USE 9.RA11QOUT.
@ASG, T/W RAifHOUR, 1 611, RE EL-HO.
@USE 12.RAHHOUR.
0ASG.A METDATA.
(3USE ll.METDATA.
@ASG,CP RAM24.
@USli 13.RAM24.
tUSG.CP ANSUM.
@USE 14,ANSUM.
@XQT A999*UNA11AP. RAMF
RUN BY: ED KRENSHAH, AIR & HAZARDOUS MATER
EMISSIONS: TEST CITY, 1973
SFC MET. DATA: TEST CITY 1973 ; UPPER AIR: TEST CITY 1973
1,1,1,0,0,0,0,0,0,0,0,1,0, 365, 24, 0.0, 14400., 5, 10, 73, 001,1
93815,73,93815,73
1 7
EMISSION FILE FROM RAL1Q
HOURLY CONCENTRATION OUTPUT TAPE
MET. DATA FILE FROM RAMMET
DAILY CONCENTRATION OUTPUT FILE
STORAGE OF INTERMEDIATE ANNUAL SUMS
DIV., REGION XV,EPA(1 JAN 78)
.75,
13. ,
0
RECEP
RECEP
RECEP
RECEP
RECEP
RECEP
25.
17.
0
1
2
3
4
5
6
, 3,
575.
576.
579.
576.
577.
579.
11.
25
0
53
79
29
53
, 15. ,20.
4409. 0
4404. 0
4403. 1
4400. 56
4399.95
4403. 16
:*************************
0,365
C
C
C'
C
C
THE PRECEEDING RUN STREAM HAD A RUN TIME OF 29 MINUTES AND 5 SECONDS ON THE
UMIVAC 1110 AND REQUIRED 41-K WORDS OF MEMORY
C
C
ECLSTREAM: EXAMPLE 3.
THE FOLLOWING SEQUENCE OF 6 JOB STREAMS CAN BE USED TO EXECUTE RAMF
FOR AN ENTIRE YEAR USING URBAN SIG-MAS. THEY ARE PRESENTED HERE TO ILLUSTRATE
THE FACT THAT RUNS OF RAMF AND RAMFR CAN BE BROKEN DOWN INTO CONSECUTIVE JOBS
OF MORE CONVENIENT PROCESSING TIMES. ALL FILE MANIPULATION OF TAPE
AND DISKS ARE DONE INTERNALLY . ESPECIALLY NOTE THE USE OF THE
INPUT VARIABLES IDATE(2),NDAYS,IDAY, AND LDRUN.
121
-------
*****EXAMPLE ECL STREAMS*****
0RUN.D/R RMF1/41,ACCNT-NO/USERID,PROJ-ID,10,400
@PASSWD PASSWORD
@ASC,A RAMQOUT.
QUSE 9,RAMQOUT.
@ASG,T/W RAMHOUR,16N,REEL-NO.
0USE 12,RAMHOUR.
@ASG,A HETDATA.
@USE ll.METDATA.
@ASG,CP RAH24.
@USE 13.RAM24.
(3ASG.CP ANSU1I.
@USE 14.ANSUM.
QXQT A999*UNAMAP.RAMF
RUN BY: ED KRENSHAW, AIR & HAZARDOUS HATER.
EMISSIONS: TEST CITY, 1973
SFC MET. DATA: TEST CITY 1973 ; UPPER AIR:
EMISSION FILE FROM RAMQ
HOURLY CONCENTRATION OUTPUT TAPE
MET. DATA FILE FROM RAMMET
DAILY CONCENTRATION OUTPUT FILE
STORAGE OF INTERMEDIATE ANNUAL SUMS
DIV., REGION XV,EPA(1 JAN 78)
TEST CITY 1973
1,1,1,0,0,0,0,0,0,0,0,1,0, 365, 24, 0.0, 14400., 5, 10, 73, 001,1
93815,73,93815,73
1 7
.75,
13. ,
0
RECEP
RECEP
RECEP
RECEP
RECEP
RECEP
25.
17.
0
1
2
3
4
5
6
, 3,
575.
576.
579.
576.
577.
579.
11.
25
0
53
79
29
53
,15. ,20
4409.
4404.
4403.
4400.
4399.
4403.
•
0
0
1
56
95
16
0,57
0START RAHTEST.RMF2
£*********:
THE PRECEEDING RUN STREAM HAD A RUN TIME OF 4 MINUTES AND 48 SECONDS
OH THE UHIVAC 1110 AND REQUIRED 41K WORDS OF MEMORY .
EMISSION FILE FROM RAMQ
HOURLY CONCENTRATION OUTPUT TAPE
MET. DATA FILE FROM RAMMET
DAILY CONCENTRATION OUTPUT FILE
QRUH.D/R RI1F2/4 1 , ACCNT-MO/USERID , PROJ-ID , 10, 400
0PASSWD PASSWORD
0ASG.A RAMQOUT.
0USE 9,RAMQOUT.
0ASG.T/W RAMHOUR, 1 611, RE EL-NO.
OUSE 12,RA11HOUR.
(?Asc,A MI:TDATA.
C'USE ll.METDATA.
C'ASG.A RAM24.
@USE 13.RA1124.
@ASG,A ANSUM. . STORAGE OF INTERMEDIATE ANNUAL SUMS
C'USE 14, AN SUM.
QXQT A999*UNAMAP.RAMF
RUN BY: ED KRENSHAW, AIR & HAZARDOUS MATER. DIV., REGION XV,EPA(1 JAN 78)
EMISSIONS: TEST CITY, 1973
SFC MET. DATA: TEST CITY 1973 ; UPPER AIR: TEST CITY 1973
1,1,1,0,0,0,0,0,0,0,0,1,0, 365, 24, 0.0, 14400., 5, 10, 73, 058,1
93815,73,93815,73
1 7
.75, 25., 3, 11.,15.,20.
122
-------
13. ,
0
RECEP
RECEP
RECEP
RECEP
RECEP
RECEP
17.
0
1
2
3
4
5
6
575.
576.
579.
576.
577.
579.
25
0
53
79
29
53
4409.
4404.
4403.
4400.
4399.
4403.
0
0
1
56
95
16
57,114
3 START
RA11TEST.RHF3
C ********* **********************************************************************
THE PRECEEDINC RUN STREAli HAD A RUN TIME OF 5 MINUTES AMI) 5 SECONDS
ON THE UNIVAC 1110 AND REQUIRED 41K UORDS OF MEMORY .
C*'
EMISSION FILE FROM RALIQ
HOURLY CONCENTRATION OUTPUT TAPE
:iET. DATA TILE FRO" RAMMET
DAILY CONCENTRATION OUTPUT FILE
@RUN,D/R RMF3/41,ACCNT-NO/USERID,PROJ-ID, 10,400
0PASSWD PASSWORD
CUSC.A RAMQOUT.
UUSE 9.RAMQGUT.
CJASG, T/W KAMHOUK, 1 6N , RE EL-110.
O'USE 12,RAMiIOUU.
t>ASC,A I'ETDATA.
^USE 1 l,;iETL-ATA.
f'ASG.A 1,Ail 24.
QUSE 13,RA:i24.
OAGG.A AIJSUM. . STORAGE OF INTERMEDIATE ANNUAL suits
(JUSE 14, ANSUli.
QXQT A999*UNAMAP. RAMF
RUH BY: ED KRENSHAW, AIR & HAZARDOUS MATER. DIV., REGION XV,EPA(1 JAN 73)
EMISSIONS: TEST CITY, 1973
SFC MET. DATA: TEST CITY 1973 ; UPPER AIR: TEST CITY 1973
1,1,1,0,0,0,0,0,0,0,0,1,0, 365, 24, 0.0, 14400., 5, 10, 73, 115,1
93815,73,93315,73
1 7
.75, 25., 3, 11.,15.,20.
13., 17.
0 0
RECEP 1
RECEP 2
RECEP 3
RECEP 4
RECEP 5
RECEP 6
575.25
576.0
579.53
576. 79
577.29
579.53
4409.0
4404. 0
4403. 1
4400.56
4399. 95
4403. 16
114,169
@START RAMTEST.RMF4
THE PRECEEDING RUN STREAM HAD A RUN TIME OF 5 MINUTES AND 0 SECONDS
ON THE UNIVAC 1110 AND REQUIRED 41K WORDS OF MEMORY .
C*******************************************************************************
@RUN,D/R RMF4/41,ACCHT-NO/USERID,PROJ-ID,10,400
@PASSWD PASSWORD
@ASG,A RAMQOUT.
@USE 9,RAMQOUT.
EMISSION FILE FROM RAIIQ
123
-------
HOURLY CONCENTRATION OUTPUT TAPE
MET. DATA FILE FROM RAMMET
DAILY CONCENTRATION OUTPUT FILE
STORAGE OF INTERMEDIATE ANNUAL SUMS
@ASG,T/W RAMHOUR,16N,REEL-NO.
@USE 12,RAMHOUR.
@ASG,A METDATA.
@USE 11,METDATA.
@ASG,A RAM24.
@USE 13.RAM24.
@ASC,A AHSUM.
@USE 14.ANSUM.
@XQT A999*UNAMAP.RAMF
RUN BY: ED KRENSHAW, AIR & HAZARDOUS MATER. DIV., REGION XV,EPA(1 JAN 78)
EMISSIONS: TEST CITY, 1973
SFC MET. DATA: TEST CITY 1973 ; UPPER AIR: TEST CITY 1973
1,1,1,0,0,0,0,0,0,0,0,1,0, 365, 24, 0.0, 14400., 5, 10, 73, 170,1
93815,73,93815,73
1 7
.75,
13.,
0
RECEP
RECEP
RECEP
RECEP
RECEP
RECEP
25.
17.
0
1
2
3
4
5
6
, 3,
575.
576.
579.
576.
577.
579.
11.
25
0
53
79
29
53
,15. ,20
4409.
4404.
4403.
4400.
4399.
4403.
.
0
0
1
56
95
16
169,224
@START RAMTEST.RMF5
THE PRECEEDING RUN STREAM HAD A RUN TIME OF 4 MINUTES AND 5 SECONDS
ON THE UNIVAC 1110 AND REQUIRED 41K WORDS OF MEMORY .
c********************************
@RUN,D/R RMF5/41,ACCNT-MO/USERID,PROJ-ID,10,400
@PASSWD PASSWORD
(5ASG,A RAMQOUT.
@USE 9,RAMQOUT.
@ASG,T/W RAMHOUR, 1 611, REEL-NO .
QUSE 12,RAMHOUR.
@ASG,A METDATA.
@USE 11,METDATA.
QASG.A RAM24.
@USE 13.RAM24.
@ASG,A ANSUM.
@USE 14,AN SUM.
@XQT A999*UNAMAP.RAMF
RUN BY: ED KRE1ISHAW, AIR & HAZARDOUS MATER.
EMISSIONS: TEST CITY, 1973
SFC MET. DATA: TEST CITY 1973 : UPPER AIR:
EMISSION FILE FROM RAMQ
HOURLY CONCENTRATION OUTPUT TAPE
MET. DATA FILE FROM RAMMET
DAILY CONCENTRATION OUTPUT FILE
STORAGE OF INTERMEDIATE ANNUAL SUMS
DIV., REGION XV,EPA(1 JAN 78)
TEST CITY 1973
1,1,1,0,0,0,0,0,0,0,0,1,0, 365, 24, 0.0, 14400., 5, 10, 7J, 225,1
93815,73,93815,73
1 7
.75, 25., 3, 11. ,15. ,20.
13. , 17.
0 0
RECEP 1 575.25 4409.0
RECEP 2 576.0 4404.0
RECEP 3 579.53 4403.1
JIECLP 4 576. 79 4400.56
RECEP 5 577.29 4399.95
124
-------
RECEP 6
579.53
4A03. 16
224,274
('START RAMTEST. RMF6
(j*******************************************************************************
Till; PROCEEDING RU1I STREA11 HAD A RU1I TI11E OF 4 IlINUTES AND 53 SECONDS
ON THE UNIVAC 1110 AND REQUIRED 41K. WORDS OF MEMORY .
C*:
0RUN.D/R RMF6/41,ACCNT-NO/USERID,PROJ-ID,10,400
(JPASSUD PASSWORD
EMISSION FILE FROM RA11Q
CJASG,A RAMOOUT.
QUSE 9.RAMQOUT.
QASG , T/W RAI1HOUR, 16M .REEL-NO.
QUSE 12.RA11HOUR.
QASG.A METDATA.
t'USE 11,METDATA.
OASG.A RAa24.
3USE 13.KA1124.
GASG.A AN SUM.
@USE 14,AHSU;i.
QXQT A999*U1IA:IAP.RA!IF
RUN BY: ED KHENSHAW, AIR & HAZARDOUS HATER. DIV., REGION XV,EPA(1 JAN 78)
EMISSIONS: TEST CITY, 1973
SFC MET. DATA: TEST CITY 1973 ; UPPER
HOURLY CONCENTRATION OUTPUT TAPE
MET. DATA FILE FROM RAMMET
DAILY CONCENTRATION OUTPUT FILE
STORAGE OF INTERMEDIATE ANNUAL SUMS
1,1,1,0,0,0,0,0,0
93815,73,93815,73
1 7
AIR: TEST
,0,0,1,0, 365, 24, 0.0, 14400.,
CITY 1973
5, 10, 73,
275,1
.75,
13. ,
0
RECEP
RECEP
RECEP
RECEP
RECEP
RECEP
25.
17.
0
1
2
3
4
5
6
, 3,
575.
576.
579.
576.
577.
579.
1 1.
25
0
53
79
29
53
,15. ,20.
4409. 0
4404. 0
4403. 1
4400.56
4399.95
4403. 16
274,365
THE PRECEEDING RUN STREAM HAD A RUN TIME OF 8 MINUTES AND 49 SECONDS
ON THE UNIVAC 1110 AND REQUIRED 41K WORDS OF MEMORY .
C*'
125
-------
z
ac.
z u>
tt z
UJ UJ
t- -J
z
HH UJ
K
<
UJ V>
a
PH JJ i
-
2
<
a;
u.
* i-
« •**
* «t
« a.
« UJ
* •
* >
* x
*
z
o
»H
U>
UJ
>
*-4
0
* * * *
>
UJ
a:
o
r
o
o
*-*
I-
a_
a.
a
o
a:
u.
o
a. o
O M
K
uj a.
a: O
O
II M
O r-
a:
U
o
II
a.
O
X
Kl
N-
O
oc o
UJ _J
(1. H- *-l
o
03
00
*-r-«r-OOOOOOOOt-r-
a.
o
< OH Ol
•• O
X O UJ
"
UC UJ «t
z •
" O t-
>• ^-t LU
as e
-J
£
,j£
O
a.
o
*£
lj— «(
< l~
O <
a
UJ
O UJ
tf u*
Z> a
O 3
CO O
GO
h"
jE «t
M UJ
O a:
a. «r
QC
o
>—
a.
UJ
w
UJ
a.
H-
2
>— t
O
a.
h"
j£
•C
U
t— 1
U-
»— I
2£
*J
t^
Vi
CO
cc
o
t-
a.
dJ
O
UJ
oz
•f.
UJ
ac
i<
h-
Z
«c
u
M
Lk.
^-4
^£
U?
HH
(/)
O")
C£
O
h-
a.
UJ
o
UJ
cc
ill
3E
O
U
>•
UJ
3Z
O
X
a.
*t
^_
"K*
)K.
1/5
»-*
o
O
H"
ijti
UJ
h-
H>
«-^
Q£
^,
h- *
3 t*
a z
t- o
^3 O
O
j
>* «(
«j ^*
Q£ )»
o a:
O
o
>•
-i
01
Z)
o
X
^
£ir,
•t
f^
at
ID
!^
>-
«J
2
O
H-
2
(««
0£
O.
4O
o:
O
O
h-
3T
O
<^j
(^
O
u.
V)
a
C£
^
U
X
tj
2:
o
CL
c/1
o
uc
<
o
f
o
C£
u.
«t
H*
«C
O
K
UJ
£
O
<[
UJ
uc
cc
uJ
CD
£:
=>
z
UJ
<->
ac
3
O
t/"<
K
Z
<
U
t— i
u.
»-^
Z
ej
M<
V>
V
u.
!•»«
^J
UJ
a.
v>
vi
<£
O
H4
t^l
t/J
H
£
UJ
>•
-J
Cvt
2
O
X
Q
«t
UJ
Or:
X.
O
ct
i.
Qd
a
w*
Z
3 Ot
a. uj
z a.
O
Lt _J Ul
LU *-l CC fO
Vj ^ UJ
3 X II
O »- J
o ~» o
i_i •* H- a.
O l»1 < M
O O- X
O O t- UJ
O -
< UJ U) >-
J O •• IfS
3 o a u-i t-
« -I C) • «- u •
Z O O OO K>
II ^ '• • O fi l>
<^ a « -j- o-
CE O f- >I
uJ t-i tr: *- *-*
a. or H »•> ^ o
Z UJ
X »~ l-l l-i
2" O O X
3 o o fr-
3
X. £T
»H O
CO U.
UJ (/>
01 OE ,
O O
I- X
V) Ji
£J I—t
o
H-t LU
ue E
UJ t-l
O. r-
«- Q- X Z M
UJ UJ ^ O H
o y.
O; O
UJ
w < O '
ui a: x ac.
i- O u.
< u. (— t-
a z « <
"H t- «t I— Q
«- X t- <
UJ kJ3 3 O H*
I- 1-1 _J X
< UJ _J h- U3
O X O UJ t~t
u» KL UJ
tD tjt X
Z O O UJ
t-i r- uj o ^D
t~ a, sc « z
IX UJ 3 u, l-l
< «j to ac x
H UJ tO 3 M
t/j o: < w) £
126
-------
3
Z
QC
3
O
o
a.
Goooo«-oiNjoo>roo
h u~, OO <» (^ 00 >O O CO in (\j w.
X.
<
cu
IX
»
-J^
•-I
t
IX
UJ
H
£
CO
o
o
(X
^
rsi
^
X
Kl
** _
OC -
< «
x o
V)
Z 1-
Ul CO
OC UJ
X *-
A II
LU CO
z
ii o
>- -1
a> v>
CO
Z *••*
3 r
<£ uj
f^
T~
*•
K
»-i
(_i
^*
t/i
UJ
H-
cg:
i^
<
cc
UJ
a.
QL
««
K>
N-
O
*~
>•
M
U
k_
CO
LU
H
• 1
<
^
O
•
D-
LU
c
u
u.
CO
_,
o
l«4
K
^
I
(r
0
z
*•*
UJ
Cl
a:
3
O
CO
1—
M
o
a.
UJ K S 3
ffl O O
OC CO CO
to O
u.
Z M
^^ CO >**
Z CO
CM >^ a.
»- CO JC
UJ M
O w
a: 3 u
O O Z
u
Z »- l-l «-
O Z u. •-
I- 0 Z
«t O. CD
C MO
CC ^" CO
O Z
u. < cu
i-l 11 00
u. at
Z M UJ
O Z 0
H-i CO Q£
CO M O u">
CO CO
M UJ
e ^ x
UJ K-
«» O (•> O (M Ki r- C) O O O O C. O
iS in K 1^ Ki ou IT,
H" CO «~ lA f\J
Q: M
< *
& Uj
Ceo Of-«-'t>.*-OK)-J-OO»xO
ui z to •* O o «- m ~» •« ,xj ji (^ (%j
O V) 1*" • L" ^ v~ tt (\j Jv ' f* i )v i £jf. (^- (\j
*-^ t/> f\j r- PU (\J
ru IH
o x.
(/I LU
ITi inOlAU^ChOl'^OOOO
xcj--* f^fyooofMoomforv-ot^o
O O M OOOOOOOOCJt-OO^
Z O 3E •J'sj-sJ--J'-^-^j-^j-^-^-^-^'K»
£j sJTi^''J'1*TSr'^'-«T*4'*4'^^ooo
ujo i^.r-is.Ni^'0>or<~h-«)(X3N.
in in in in in m
O «- (M
uj T- «*m-oKajO>>«-»-«-
CC. (-^Kt-h-h-HKKHKh-
2 ZZZZ2ZZZZZZZ
O <<<«<<<<<<<<
CO _J_J-J_J_I_I_I-J_J_IJ_I
0.0.0.0.0.0.0.0.0.0.0.0.
*— ojto>3j>*nofwooo«OT*<\j
«~ «— «—
127
-------
ac
UJ
01
w
l_)
ct
o
V)
<
UJ
o
o
o
rsi
a
o
O
O
oc
o
no
(V.
z o
o «~
10
UJ
a:
h-
PH
U
CiO
LU
tt ac
UJ •->
CO
v>
CD
z u;
1-1 t-
X. UJ
ac a
UJ Z
»- 3 CO
UJ OC UJ
Q <->
UJ X O
UJ t- fcO
CD
ct <
co o uj
o
o
•
ON.
O «-
•
O
O
II K)
40 T-
UJ
t-
O
o
o
•
ITi
-
CD
V)
LU
a
I
O (-
o u>
o <
• uj
OO
O iv
II fcO
X t-
K UJ Z <
Z E II IH Z
1-1 /-> Of
X Z X *•» O UJ
to w M O Z
< X X X O
-J Q. tfl v O Z
WJ CO *-< V> ^4" >-i
in
3
O
ct
UJ
a.
a
Z
O
QC
O
O
(/>
X -1
LU CO CO M(/)«Ch-h-Z«-'
O O CO Lu < U 1-1 i-, >-
ae CUM x_jwzzs:«
^ LU _J »- u CO O D CO CE
o CD x. >• >-t ac.
O O «t X O. «t UJ
«CH* f"~ UJLO £EbO CL
UJ O *-l OO CJ3 3 <
Ct LU »- M Ui UJ 1-1 UJ OK
< x ox i- z o
«U II u, X Z 1-1 Cj UJ
COW CO M CCXCt
UJ UJ COCUZUJ o i— o <
IO»"4 f— CO UJ Q£ tt UJ ^%
z u-o>x cc=>ca LU
O < 1-1 <£« o "- < M
a:
j.
Q.
<
e
LU
Ct
o
UJ X C
U. U) w
UJ UJ
X
X t-i
UJ I- Z
O U3 3
M Z
I I/J
U Z
LU O
CO ri
"•« 10
C9 CO
a: LU
<
u.
t: 2
i o
vU (/>
CO lO
ooooooooooooooo
OOrvjmo tnoisioooooo
ooooooooooooooa
ooooooooooooooo
ooooooooooooooo
oocicoooooooooocr
ooooooooooooooc
ooooooooooooooo
& r- r^- i^- iv.
Ci O C) O C.
I I I I I
O O C.i O O O O C' O
I I I I I I I I I
* >c r^- (*~i »- >o ^. o ao >o
LU
U
a:
CO
-i co
X U UJ
W K
Z K
J/ 01 •>
CE UJ <
*; K i-
<
a i" o
aJ (/>
Z •
<• O I-
>• n uj
m £
v>
Z M <->
O X u.
CE UJ M
UJCt
LULUOCO
X<*-
u. < o ct i-. co
Z<_> «t t- f- u. M
OZCK UJ Q. O O -JC Z at
I^LSO CtCO l"t >--•
UJ W
o
CO
oooooooooooooao
o a ca o I'M CM ~t o o o >o -a ~i M IM
O C- O O O O O C O O O O O O O
O CJ O O O • J O t j O O O O O O O
0-** OX'UO^O ^tuOOr\»Or\joru
iv.r^-r-r-r--i^.(>-N-|s-,x-uGiXJaO'JOo
-------
z
3
at
0.
K.
O
CD
O
o
o
t-l
ae.
UJ
o.
oo
Z
<
a.
o
»-(
CD
o
c>
a.
a
z
a.
u-
O O O -o in -o
O O r- tn O- «-
I o i> >* ro O !>• ro
t-Ol'^ OOOOO-O
CK o 1/1 >i--*sj>^f"isa-
i o- O-
f^ (\j
-J
1-1 (/)
« <
I- -I
CO W
a.
a
o
cc
<
O-
UJ
a.
0.
O
o
CE
II
a in
a. cxJ
to .o II
(NJ >•
O t-
Z II M
t-i CL _j
Jt t M
UJ CD
UJ > O
a < *.
x
•Xl f
< *-*
X U
O-
Q.
a. i- a. a. a. 0-
LJ U* UJ tjj klj UJ
ct CL a az u:
3
a.
o
ct
o
t-
o.
r- INJ f^ *^
i. O t—
>• >H UJ
01 « c
in
.£ 1-1 U>
3 C vi.
Oi: UJ 1*0
Z K
ft X
X ^i
000000000000000000000000
000000000000000000000000
in
z
o
o
*;
o
JL
(-
3 OC
a. 3
Z Q
I-. X
o co
CVl X>
INJ fl
f<> UJ II
u. uj
ii a. <_>
z in z
O UJ
>-< a f-
t- z
O M l-t
UJ _* (/I
o a: a
2 uj ^:
129
-------
O uj
-J O. <->
«. fle
<• r- n o a,1
o- oo o oo
i- ft r- «-
o
X
13
O
X
Of i «- N- ir\ r-
a.
O
o
I— CD UJ
O *i a
O u-> -* m -o o
r^ ** u~> <\j cs LA
r~ Ki O f- rv O
fvj K-r (\j (V
o
x
t^
«£
LXJ
•>
>
x:
2:
O
tfl
a
»
*
>
o
•
LLj
h-
»
j: K
X t-»
d ti
Ua iO
aa t/>
ar Lii
r*.
j»
r-
>-
O
t—
00
K
*t
a:
UJ
a,
a.
O
'*
N-
h-
O
h-
UJ
t—
<.
O
•
t—
E
u.
oo
UJ
w
J£
D
O
CO
1— 1
o
CL
t—
o
£t
r*
*
fc.
w
£
QC
O
ex.
o
Z i<"» t- OOOOOO
t—
at
Q:
t- o o r- 1 r\j KI (v-
,£ O O Oj r- CO Kl
C, "J O i, !>_. t C S7 t
rvj »*
(\i
,\j ,-
o
00
u> C_< i-J -J -J i - f^ i
< 1*1 O O C. C f\* *J L ">
•JJ .' >'\t
>
cc
15
O O O O OJ sj O
X k_) O CO '-J iA 0
t t -J *j « O ^ t\i >\J ut sj
(M t- C'
t-
a., <- 0 -O M O
CVJ O ^3 r- f»i O
T- r- csj O O O O O
-tt
« +t
O*J at
&
<
«t
Lu
>
X
O
0
or
•
>
o
UJ
h-
*t
^
CO
O
*t
r*^
a
i3: r-
»
j£
2- h-
UJ OO
Q£ UJ
O .1
UJ OO
2
<2J co
00
a: LLJ
f>
r~
>-
o
h~
00
UJ
•—
«t
.ir
UJ
a.
CL
JD
• *
>-
t—
0
H-
UJ
<
«l
a
*
f-
£
ON »- C C' %»
O O >O t™ ' f\J MJ
C) r., o o c- o o c^
(jr
O O C> -O C> K <•
CO a O Ki O O rO
UJ
cc
•t
K
3*
^ j1 r* t o o c c c
~
o
to
ac r~ a/ o Cj o o o c~!
P
•"x o o h i ro O sr
t/> (^J f*") ^ (w-^ ^ ^J
*. >c L.I r;f ui o c e.> o
tr
O
«jt
O
>. c j r*- o N , o o
Z IT. Pu Oc-OOJt-C
t—
o
Oj
HH
at
t— LJ CO O O T— CX
o - t . i c . c • c.i i.
C\J
o
v~>
uj c i. t ij- r j rs. r'<
tO O O >* «C O- ~*
C..f\>
> *"
or
O O O Uj ^1 •*> LA
X O O 0 ro -0 «-
1 '.1 fi O ' r- Kl -0 «-
rvp t\j r-
o o r* . -j- oj •* ro
*t
^ «c
< 0 Q_
13 (J
O UJ
00 CC
r^
2
<
*—
w
<
UJ
*
>
X.
df
0
tf
a
»
>
r-H
O
O:
UJ
•a.
sc
WO
J
o
o
"U,
1
IX
*
C R t N S H /
i*
0)
cc
r*
r-
i>
>•
o
t—
O1)
»-
<
a:
u.
Q.
a
U
'*
f i >•
-Jh
r- >-
H-
*• c->
^ (-
t—
(~
oo *•
UJ <
" Q
O f-
00 C
UJ CO
ct
<
H
-N»
K-
r*.
(£**W/S
i:
C^I CROGR/
U'
-j
a-
<
0
N' C E N T R A
w
>-
a:
<:
00
("•i
m F A G £ so
a
o
X
I
-T
r\j
UJ «r
«-» ct
2:
u
*/>
*- u,
O (_>
or ct
~*
«r
f— -i
o .j
t— <
£
O
M. UJ LU
_J < LL
*f 13
h- -J 0
O _J i/i
(— <
cr a oo
U. t in O O t- O
O- O O O t- «—
oi; fv. f-o f\j pr) >o
Cu f*"i (\j (NJ
f\i (\i O O (\j O-
r- ro o *- r\j o
f J fl (XI 00
r^ sj sj M oo Ci
•& •+} O O l^- Cj
r^ <> o w • r- t-
*~ flC/ OO OJ ••* «j
^ O ^J "«T *~ *J*
> M L r- 1 r- i f v r- i
O <\J (.O
;•_; :, ^' ^ ^ ^
oo '.j r.i i> co
1 "" C - IT* f*- f\J U'l
L^ >u 0 o rv a
i—! CJ L_J C . LJ O
*— Od K"t 'J' LA -fj
130
-------
Z r- O
ru •* o o ry -f>
M •* u"> Ki - ry O
t- £K
UJ £
t- X '••
vi u>
UJ P-l
I- I
• I u^
o o o o o o
o o o o o o
o o o o o o
UJ
ffi
O Kl
Z «
o *
(j ;£
Kl CC V)
r- ax
o- o <
r- X O-
I 13
>- r- O
I- ee
o >-i
uj ft^
l_ x -"
Kl K: f>
Is- sj; r*
UJ
v> a.
3 a.
o =>
O O O O O O
o o o o o o
(_. O O O O O
cc a:
UJ HI
t- <
n
o
a
cc
a.
a.
<. *O u~> <^ oo
O O CNJ O f\J r^l
<" •»! T* f\J IA Kl
>a oo f-
Kt O*
I"- «-
•
h~1 ^~
r\j C- r^^i *
ra in fsj i
z t-
UJ i/l •*
IX UJ <
O (J- O
O (v.
M C. t-
>• »-* t*J
CD 1/5 £
t/)
Z 1-1 W
a X u-
a: uj co
o
f-
o.
u- bO
Z
" O
oc.
o
»-
a.
LU
(J
131
-------
RAMF PROGRAM LISTING
C*** URBAN BATCH VERSION(78124) OF RAMF
C***RAI1F IS THE VERSION OF RAM WHICH PRODUCES OUTPUT TO
C***FOR PLOTTING CUMULATIVE FREQUENCY DISTRIBUTIONS FOR
C***RAM IS AH EFFICIENT GAUS SIA1I-PLUME MULTIPLE-SOURCE
C***AIR QUALITY ALGORITHM. RAM IS DESCRIBED IN: NOVAK,J,
C***TURNER,D.B., 1976: AIR POLLUTION CONTROL ASSOC. J.,
C***PAGES 570-575(JUHE 1976). RAM'S PRINCIPAL USE IS TO
C***SHORT TERU(ONE-HOUR TO ONE-DAY) CONCENTRATIONS FROM
C***AREA SOURCES IN URBAN AREAS.
C***SEE RAM GLOSSARY FOR DEFINITIONS OF VARIABLES.
C***
C*** POINT SOURCE INFORMATION
C***
TAPE AND/OR DISK
A GIVEN YEAR.
H., AND
VOL. 26, NO.
DETERMINE
POINT AND
6,
C***SOURCE(9,#PT
C***
C***
C***
C***
C***
C***
C***
C***
C***PNA1IE
C*** AREA
SOURCES) 1=EAST CO-ORD(USER UNITS)
2-HORTH CO-ORD(USER UNITS)
3=S02 EMISSION RATE(C/SEC)
4=PART EMISSION RATE(G/SEC)
5=STACK HEICHT(M)
6=STACK T ?(K)
7 = STACK DIAli(M)
8 = STACK VELOCITY (M/S)
9=PARTIAL CALCULATION OF BUOYANCY
12 CHARACTER .PLANT IDENT IFICATI01I
SOURCE INFORMATION
C***ASORC(6
C***
C***
.//AREA SOURCES)
c***
c***
1=X CO-ORD(UGER UNITS), SOUTHWEST CORNER
2=Y CO-ORD(USER UNITS), SOUTI1UEST CORNER
3=S02 EMISSION RATE(G/SEC)
4=PART EMISSION RATE(G/SEC)
5=SIDE LEttCTH(USEE. UNITS)
6=STACK HEIGHT(M)
COMMON /COEFFS/ PXCOF(6,9),PXEXP(6,9),PXUCOF(6,9),PXUEXP(6,9),AXCO~
1F(6,9),AXEXP(6,9),HC1(10)
COMMON /RELC/ CIN(3,200)
COMH01I /SOPvC/ IA(25, 25) .SOURCE (9 , 250) ,ASOSC(6 , 100) .UNITS, COIITUO, UK
1EC(150) , SREC( 1 50) ,11PS (25) ,MAS (10) , I OPT ( 1 3) , I POL , NRECEP , RMIIJ, RMAX, S
2MIN.SMAX.IUSIZE, I SSIZE , HPT , HAS , H S IGP , IISIGA , PNA11E ( 2 , 250),PS A V (250)
COMMON /HETCON/ ACHI(150),PC HI(150),ASICS(150, 1 1 ) , PSICS(150,26 ) , IA
1SIGS (100) , IPSIGS (250) , Til ETA, U , KST , HL , TEMP , S INT .COST, 3P;i(2) , tUD.PAR
2TC(250) ,AHCHI(150) , PHCIlI(150),AHmCS(150,ll),PHSIGS(15U,26),PL(6)
COMMON /HEIGHT/ HINT ( 3 ) , HARE ( 3 ) , BPIIM ( 2 ) , FH
COMMON /METI)AT/ QTHCTA(24),QU(24),IKST(24),CHL(24),QTEMP(24),IUATE
1(2)
COMMON /HCGRID/ IIRM IN , HRIIAX , H Sit III , IISMAX
COMMON /SUM/ A1I!!SU11(150) , DMAX ( 2 , 5 , 1 5 0 ) , UMAX (3 , 5 , 1 50 )
COMMON ITYPE(150),ICODE(150),ItI,IO,i:iP,IIID,UAVC
DIMENSION IFREQ(7), DKG(3), HSAV(250), UKAME(2,50), DUMR(24), IILH(
12,24), Li:iEl(14), LINE2(14), LINE3(14), MODEL(2), nSAV(250), IMPS(
225), IUAS(IO), UP.REC(150), US KEC ( 1 50) , TITLE(2), GRAMDS(150)
DATA IFREQ /7*0/ ,DEG /9 0 . , 1 80 . , 2 70 . / , ICILAE /'I'/
DATA PL /O. 15,0. 15,0.20,0.25,0.40,0.60/
DATA MODEL /'RURAL ','UllHAH '/ .TITLE /' S02 ',' PART '/
nr,ECEP=0
I;PREC = O
RMF0010
RMF0020
RMF0030
RMF0040
RMF0050
RMF0060
RMF0070
RMF0080
RMF0090
RMF0100
RMF0110
RMF0120
RMF0130
RMF0140
RMF0150
RMF0160
RMF0170
RMF0180
RMF0190
RMF0200
RMF0210
RMF0220
RMF0230
RIIF0240
RMF0250
RMF0260
RMF0270
RMF0280
F.MF0290
HMF0300
RMF0310
RMF0320
RMF0330
RMF0340
R!IF0350
RMF0360
RMF0370
RMF0380
r.ItF0390
PJ1F0400
IIMF0410
:ii:ro420
r.;ir0430
RMF0440
RMF0450
RM1'0460
RMF0470
RMF0430
1.MF0490
RMT0500
RHF0510
RMF0520
K:iF0530
132
-------
NP = 0
1:1 = 5
10 = 6
C***IIID-0 ISK OR TAPE INPUT OF PSEPP OC ES S ED EMISSION DATA.
C***15U RECEPTORS,250 POINT SOURCES AND 100 ARLA SOURCES
C***i;iT-DISU INPUT OF hET DATA
C***U1.'IT 12 TAPE/DISK OUTPUT OF HOURLY CO '1C ENTRAT IONS
C***UNIT 13 TAPE/DISK OUTPUT OF DAILY CONCENTRATIONS
C***UNIT 14 DISK OUTPUT OF SUMMARY TATA
C***UNIT 15 - TAPE/DISK INPUT UF HOURLY POI'lT SOURCE EMU
C***UNIT 16 - TAPE/DISK INPUT OF HOURLY AREA
LIU I TED TO:
RMF0540
RMF0550
RMF0560
RMF0570
F.MF0580
KMF0590
RMF0600
RHF0610
C***
C ft * *
c***
C*A*THREE SYSTEMS OF LENGTH AND 'COORDINATES ARE USED IN RAM:
C*** THE FIRST SYSTEM, USER UNITS, IS SELECTED BY THE USER AND
C*** NORMALLY USE THE COORDINATE SYSTEM OF THE EMISSION INVENTORY.
C*** ALL LOCATIONS INPUT P. Y T'.IE USER(SUCH AS SOURCES AND RECEPTORS)
ARE IN THIS SYSTEM. ALSO AS A CONVENIENCE TO THE USER ALL
LOCATIONS OH OUTPUT ARE ALSO IN THIS SYSTEM.
E;:E SECOND SYSTEM, INTERNAL UNITS, is USED INTERNALLY
FOR COORDINATE LOCATIONS AND DISTANCES. ONE INTERNAL
SIDE LENGTH OF THE SMALLEST AREA SOURCE SQUARE. THIS
EE IDENTIFIED AND SPECIFIED BY THE USER. THE PURPOSE
INTERNAL UNITS IS TO HAVE A CORRESPONDENCE BETWEEN LOG AT ION (CRID
COORDINATES) AND PARTICULAR AREA SOURCE POSITIONS. THIS IS
ACCOMPLISHED THROUGH THE USE OF THE AREA SOURCE MAP ARRAY(IA ARRAY
). THIS ALLOWS DETERMINATION AS TO WITHIN WHICH AREA SOURCE ANY
COORDINATE POINT RESIDES.
THE THIRD SYSTEM,X,Y, IS AN UPWIND
WITH REFERENCE TO EACH RECEPTOR.
(SAM.E AS WIND DIRECTION FOR THE
DISPERSION PARAMETER VALUES AND
IN PAH
UNIT IS THE
LENGTH MUST
OF USING
c***
c***
c***
c***
CONCENTRATIONS, DISTANCES IN THIS SYSTEM
CROSSUIND COORDINATE SYSTEI!
THE X-AXIS IS DIRECTED UPWIND
PEPvIOD). IN ORDER TO DETERMINE
EVALUATE EQUATIONS FOR
MUST BE 111 KILOMETERS.
C* A*
c***
C A 'A A
(J * * *
C***READ CARDS 1-3, IDENTIFICATION FOR TITLES.
READ (IN,940) L INE 1 , LINE2,LIHE3
WRITE (10,950) LINE1 ,LINE2,LINE3
C***IiODL IS INDICATOR FOR URBAN VERSION.
MODL=2
WRITE (10,960)
C***READ RAMQ OUTPUT FROM DISK OR TAPE; DATA IN INTERNAL UNITS.
READ (HID) UNITS ,COHTWO, CO NONE, I PO L ,NPT, IMPS, PNAME, IMOD
C***VERSIO» COMPATIBLE WITH RAMQ OUTPUT?
IF (IMOD.EQ.MODE) GO TO 10
WRITE (10,1000) MODEL(IMOD),MODEL(MODL)
CALL EXIT
C***CONTINUE READING DATA TRANSFERRED FROM RAMQ.
10 DO 20 1=1,9
20 READ (NID) (SOURCE(I,J),J=l,KPT)
READ (NID) HAS, I1IAS , RMIN , R1IAX, SMIH , SHAX, IRSIZE , I S SIZ E
DO 30 1=1,6
30 READ (NID) (ASORC(I,J),J=l,NAS)
DO 40 1=1,IRSIZE
40 READ (NID) (IA(I,J),J=l.ISSIZE)
C***
C***READ CARD 4.
C***OPTION LIST***(SEE RUM STREA11 EXAMPLES OF RAM FOR DETAILED
C***DESCRIPTION OF INPUT VARIABLES).
C***NAVG IS INTERMEDIATE AVERAGING TIME IN HOURS
C***HAFL IS POLLUTANT HALF-LIFE IN SECONDS -
READ (IN,970) IOPT,NPER,NAVG,Z,HAFL,NSIGP,NSIGA,IDATE,IHSTRT
WRITE (10,1030) (I,IOPT(I),I=1,13)
RMF0630
RMF0640
RMF0650
RMF0660
RMF0670
RMF0680
RMF0690
RMF0700
R11F0710
RMF0720
RMF0730
RMF0740
RMF0750
RMF0760
RMF0770
RMF0780
RMF0790
RMF0800
RMF0810
RMF0320
RMF0830
RMF0340
RUF0850
RMF0860
RM.F0870
Rf IF 08 80
RMF0890
RMF0900
RMF0910
RMF0920
RMF0930
RMF0940
RMF0950
RMF0960
RMF0970
RUF0980
RMF0990
RMF100G
RMF1010
RMF1020
RMF1030
RMF1040
RMF1050
RMF1060
RMF1070
RMF1080
RI1F1090
RMFl 100
RMF1 1 10
RMF1120
RMF1130
RMF1140
RMFl 150
133
-------
TLOS IN METERS/KM-SEC.
DATA, AND
50
60
NDAYS=NAVG*NPER/24
TLOS=693./HAFL
C***693. •= 0.693*1000 METERS/KM,
IF (NAVG.EQ.O) CALL EXIT
C***READ SFC MET. STATION ID AND 2-DIGIT YEAR,
C***HIXING HEIGHT STATION AND 2-DIGIT YEAR
C***ONLY IF MET DATA IS FROM RAMMET
IF (IOPT(11).EQ. 1) GO TO 60
C***READ CARD TYPE 5 UNLESS USING OPTION 11.
READ (IN,970) ISFCD,ISFCYR,IMXD,IMXYR
C***THE ABOVE FORMAT IS UNIVACS FREE FIELD INPUT.
C***VARIABLES MUST BE SEPARATED BY COMMAS.
C***THIS IS SIMILAR TO IBM'S LIST DIRECTED 10.
C***CHECK TO INSURE CORRECT SURFACE DATA, MIXING HT.
C***PREPROCESSOR ARE BEING USED.
C***READ IDENTIFICATION RECORD FROM PREPROCESSED MET DISK OR TAPE FILE
READ (NIT) ID.IYEAR,IDM.IYM
IF (ISFCD.EQ.ID.AND.ISFCYR.EQ.IYEAR) GO TO 50
WRITE (10,980) ISFCD,ISFCYR,ID.IYEAR
CALL EXIT
IF (IMXD.EQ.IDM.AND.IMXYR.EQ.IYM) GO TO 60
WRITE (10,990) IMXD,IMXYR,IDM.IYM
CALL EXIT
IP=IPOL-2
WRITE (10,780) UNITS,COMONE,COHTWO,TITLE(IP) ,IPOL
C***ECL10 INPUT PARAMETERS
WRITE (10,790) NPER,NAVC,IDATE(2),IDAIE(1),IHSTRT, Z.HAFL
IF (IOPT(11).EQ.0) WRITE (10,800) ISFCD,ISFCYR,IMXD,IMXYR
WRITE (10,810)
C***IOPT(1) CONTROL OPTION, POINT SOURCE INPUT? 0=NO, 1=YES.
C***IF NO POINT SOURCES, SKIP DOWN TO AREA SOURCE CODE.
IF (IOPT(1).EQ.0) GO TO 150
C***IOPT(12) CONTROL OPTION, SPECIFY SIGNIFICANT
C***0=NO, 1=YES.
IF (IOPT(12).EQ.O) GO TO 80
C***READ CARD TYPE 6 IF USING OPTIONS 1 AND 12.
C***READ THE NUMBER OF SIGNIFICANT POINT SOURCES
C***SPECIFY AND THE NUMBER DESIGNATIONS OF THOSE
READ (IN.U70) INPT, (MPS(I),1 = 1,INPT)
IF (INPT.EQ.O) GO TO 80
IF (MPS(INPT).EQ.O) WRITE (10,880)
J-INPT+1
C***ADD SIGNIFICANT SOURCES DETERMINED FR011 SIGNIFICANT SOURCE LIST
C***IF IJSICP GREATER THAN INPT.
IF (J.GT.NSIGP) GO TO 100
DO 70 I = J , 1! S I CP
UPS (I )=IMPS (1C)
POINT SOURCE NUMBERS
THAT USER
SOURCES.
WANTS TO
70
80
90
100
CO TO
DO 90
MPS (I )
WRITE
WHITE
WRITE
100
I=1,NSIGP
= i;jPS (I)
(10,950) LIJIE1,LI1IE2,LII1E3
(10,820) NPT ,NSIGP, (KIPS (I) ,1 = 1 ,KSICP)
(10,1050)
IF (IOPT (13) .EQ. 0) CO TO 120
C***SAVE AVERAGE EMISSION MATE
DO 110 1=1, HPT
110 PSAV(I)=SOURCE(IPOL,I)
C***URITE OUT POINT SOURCE LIST.
120 DO 1 3 U I = 1 , II PT
C***COi;VERT TO USER UiSITS FOR PP.ItlT OUT.
RMF1160
RMF1170
RHF1180
RMF1190
RMF1200
RMF1210
RMF1220
RMF1230
RMF1240
RMF1250
RMF1260
RMF1270
RMF1280
RMF1290
RMF1300
RMF1310
RMF1320
RMF1330
RMF1340
RMF1350
RMF1360
RMF1370
RMF1380
RMF1390
RMF1400
RMF1410
RMF1420
RMF1430
RMF1440
RMF1450
RMF1460
RMF1470
RMF1480
RMF1490
RMF1500
RMF1510
RMF1520
RMF1530
RMF1540
RMF1550
RMF1560
RMF1570
RMF1580
RMF1590
RMT1600
RMF1610
RMF1620
RMF1630
R11F1640
RMF1650
UMF1660
RMF1670
RMF1680
RMF1690
UMF1700
RMF1710
R11F1720
RMF1730
RMF1740
K11F1750
RMF1760
RMF1770
134
-------
C1 = SOURCE(1 ,I)*UNITS
C2=SOUUCE(2,I)*UNITS
WRITE (10,1060) I, (PUAME(L,I),L=1,2) ,C1,C2, (SOUUCE(K,I),K = 3,8)
1PSIGS(I)=0
130 CONTINUE
C***FILL IN SIGNIFICANT POINT SOURCE ARRAY
JO 140 I=1,NSIGP
J=:;PS (i)
140 IPSIGS(J)=I
C***IOPT(2) CONTROL OPTION, AREA SOURCE INPUT? 0=liO, 1=YEG.
C*.**ir NO AREA SOURCES, SKIP DOUN TO INPUTTING tlEC Ei'TdRS.
150 IF (IOPT(2).EQ.0) CO TO 260
C***READ CARD TYPE 7 IF USING OPTION 2.
REAiJ (IN,970) rii, XLIII, NUTS, (HINT (I ) ,1 = 1 , NUTS)
:IP>P=NI;TS-I
C***KEAD CARD TYPE u IF USING OPTION 2.
REAJJ (IN, 970) (l)Pll(I ) , 1 = 1 ,NBP)
C***CONVERT TO USER UNITS FOR PRINT OUT. XLI1I IS CONVERTED TO Kit.
CI=RMIN*UNITS
C2 = PJIAA*UL:ITS
c3=s:ii;;*uiiiTs
C5=XLIIi
URITE (10,950) LINE1,LINE2,LINE3
XLi:i = XLIM*CONOIIE
IF (XLIM.LT. 1 16.) CO TO 160
URITE (10,1040) XL III
CALL EXIT
C***IOPT(12) CONTROL OPTION, SPECIFY SIGNIFICANT POINT SOURCES? 0-iIO,
C*** 1=YES.
160 IF (IOPT(12).EQ.0) CO TO 1UO
C***READ THE NUMBER OF SIGNIFICANT AREA SOURCES THAT USER
C***WAUTS TO SPECIFY AND THE NUMBER DESIGNATIONS OF THOSE SOURCES.
C***READ CARD TYPE 9 IF USING OPTIONS 2 AND
READ (IN,870) INAS,(HAS(I),I=1,IHAS)
IF (IHAS.EQ.O) GO TO 180
IF (IIAS(INAS) .EQ. 0) URITE (10,890)
J=INAS+1
K=l
IF (J.GT.HSIGA) GO TO 200
DO 170 I=J,HSICA
UAS(I)=IMAS(K)
170 IC=K+1
GO TO 200
C***ADD SIGNIFICANT SOURCES DETERMINED
12.
SIGNIFICANT SOURCE LIST
FROM
C***IF HSIGA GREATER THAU INAS.
ISO DO 190 I-l.NSIGA
190 MAS(I)=IMAS(I)
200 WRITE (10,830) HAS,HSIGA,(IMAS(I),1=1,NSIGA)
URITE (10,840) NUTS, (HINT (I) , 1 = 1 ,NIITS)
URITE (10,850) (BPH(I),1=1,NBP)
WRITE (10,860) FH,C5,C1,C2,C3,C4,IRSIZE,ISSIZE
C***IF IA ARRAY TOO LARGE TO BE PRINTED AS A MAP, PRINTING
IF (IRSIZE.GT.41) GO TO 220
C***PRIHT OUT AREA SOURCE MAP ARRAY.
WRITE (10,1010)
JLIM=ISSIZE+1
DO 210 JDUM^l.ISSIZE
J-JLIII-JDUM
210 WRITE (10,1020) J,(IA(I,J),1=1,IRSIZE)
WRITE (10,1190) (I,1=1,IRSIZE)
IS SKIPPED.
RMF1 730
RMF1790
iinnsoo
r.aFloio
unriC20
R1IF1G30
.".I1F1840
KMF1850
U:1F 1060
il.iri870
LMF1SUO
Riir 1900
RMF1910
r.:iFi
-------
GO TO 230 RMF2400
220 WRITE (10,930) RMF2410
C***WRITE OUT THE AREA SOURCE LIST. R11F2420
230 WRITE (10,1070) RMF2430
DO 240 1=1,HAS RMF2440
C***CONVERT TO USER UNITS FOR PRINT OUT RMF2450
C1=ASORC(1,I)*UNITS R1IF2460
C2=ASORC(2,I)*UNITS RMF2470
C3=ASORC(5,I)*UNITS RMF2480
WRITE (10,1080) I,C1,C2,(ASORC(K,I),K=3,4),C3,ASORC(6,I) RMF2490
C***SIDE LENGTH IS MULTIPLIED BY .5 TO SAVE TIME IN LATER COMPUTATIONS R11F2500
ASORC(5,I)=ASORC(5,I)*0.5 RMF2510
IASIGS(I)=0 RMF2520
240 CONTINUE RMF2530
C***FILL IN SIGNIFICANT AREA SOURCE MARKER ARRAY R11F2540
DO 250 I-l.NSIGA RHF2550
J=MAS(I) RI1F2560
250 IASIGS(J)=I R11F2570
C***INPUT PERMANENT RECEPTORS RMF2580
C***IOPT(3) CONTROL OPTION, SPECIFIED RECEPTORS? 0 = NO, 1 - YES. RMF2590
260 IF (IOPT(3).EQ.O) GO TO 300 RMF2600
270 NRECEP=MRECEP+1 RMF2610
IF (NRECEP.GT. 150) GO TO 280 RMF2620
C***READ COORDINATES IN USER UNITS RMF2630
C***ATTENTION USER: DON'T SPECIFY A RECEPTOR AT ORIGIN AS A BLANK CARD RMF2640
C***IS USED TO INDICATE ALL RECEPTORS HAVE BEEN READ. RMF2650
C***READ CARD TYPE 10 IF USING OPTION 3. RMF7660
READ (IN,1090) (RNAME(J,NRECEP),J=l,2),URREC(NRECEP),USREC(NRECEP) RMF2'i70
C***BLANK CARD OR RECEPTOR AT ORIGIN SIGNALS ALL PERMANENT RECEPTORS RllF2o80
C***HAVE BEEN ENTERED. RMF2690
IF (URREC(IIRECEP)+USREC(NRECEP) .LE. 0. 001) GO TO 280 RMF2700
CO TO 270 RMF2710
280 HRECEP-ilRECEP-1 RMF2720
C***SAVE NUMBER OF PERMANENT RECEPTORS RMF2730
NPREOHRECEP RMF2740
C***PRINT OUT TABLE OF PERMANENT RECEPTORS*** RMF2750
WRITE (10,950) LIHE1,LINE2,LINE3 RMF2760
WRITE (10,1100) RMF2770
C***THE CHARACTER "I" INDICATES THAT THESE RECEPTORS WERE INPUT INTO R1IF2730
C***THE MODEL. RMF2790
DO 290 1C = 1,11RECEP RMF2300
ITYPE(K)-ICHAR RMF2810
WRITE (10,1110) K,ITYPE(K),(RNAME(J,K),J=l,2),URREC(K),USREC(K) RMF2820
C***COHVERT TO INTERNAL UNITS RMF2330
RREC(K)=URREC(K)/UNITS RMF2840
SREC(K)=USREC(K)/UN ITS RMF2850
290 ICODE(K)=0 RMF2860
C***IF NEITHER POINT OR AREA SOURCES WERE SPECIFIED,EXIT PROGRAM. RMF2370
300 IF ( (IOPT(1) + IOPT(2) ) .1IE.O) CO TO 301 RI1F23BO
WRITE (10,1120) KUF2390
CALL EXIT PMF2900
C***READ IN THE NUMBER OF DAYS ALREADY PROCESSED AND LAST DAY TO BE RI!F2910
C***PROCESSED THIS RUN HMF2920
301 READ( IN, 970) IDAY.LDRUN R11F2930
WRITE(IO, 1200) IDAY.LDRUII RMF2940
IF(IDAY.LE.0) GO TO 310 RMF2950
C***POSITION OUTPUT FILLS PAST LAST DAY PROCESSED RMF2960
ISKIP=IDAY+2 RMF2970
DO 302 I = 1,ISUIP RIU'2980
302 READ (13) R1IF2990
ISi:iF = IDAY*24 + 2 RUF3000
DO 303 1 = 1 , I31UF RMF3010
136
-------
303 READ(12)
C***KKAO SUnilARY IHFOKMATICIJ
READ (14) IDAYS , A1IIISUI1 , DJ'AX, UMAX
REWIND 14
I?(IDAY.Eg.IDAYS) GO TO 304
WRITE( 1210) I KAY,I DAYS
CALL EXIT
304 IF(IOPT(13).EQ.O) GO TO 303
C***POSITIOI) J10URLY EMISSION FILES
ISKIP = ISi;iP-2
IF(IOPT (1 ).EQ.0) CO TO 306
DO 305 I=1,ISKIP
305 HEAL) (15)
306 IF(IU1'T (2) .EQ. 0) GO TO 303
DO 307 I=1,ISKIP
307 KEAJ)(16)
C***IOPT(11) CONTROL OPTION, READ MET. DATA FROM CARDS? 0=110, 1=YES.
308 IF(IOPT(1 1).EQ. 1) GO TO 360
C***POSITIOil MET FILE TO CORRECT POSITION
DO 309 I=1,IDAY
309 RLAD(NIT) JYR
CO TO 360
C***IiJITIALIZATION
C***UiUTE INITIAL IDENTIFICATION RECORDS ON OUTPUT TAPE & DISK
:i;;r3020
RuF3030
R'!F3040
310
360
WRITE
WRITE
WRITE
WRITE
IDAY =
(13)
(13)
(12)
(12)
IDAY+1
iiDAYS,LINEl,LINE2,LINE3
KRECEP, (URREC(I ) ,1=1,NRECEP) , (USREC(J) , J=l .NRECEP)
1IDAYS , LlilEl , LINE 2, LINE 3
NRECEP,(URREC(I),1=1.NRECEP),(USREC(J),J=l.NRECEP)
1IURS = 0
IF (IOPT(11).EQ. 1) CO TO 400
C***INPUT UET DATA FOR EACH DAY FROM DISK CREATED BY RAMHET,IOPT(11)=0
READ (HIT) JYR, 1110, DAY 1 , IK.ST, QU , QT E11P , DU1IR, qTHETA, HLH
IF (JYR.NE.IDATE(1)) GO TO 370
IDATE(2)=DAY1
IF (IDATE(2).EQ.IUAY) GO TO 330
C***DATE ON 11ET TAPE DOES NOT HATCH INTERNAL DATE
370 WRITE (10,740) JYR,IDATE(2),IDATE(1),IDAY
CALL EXIT
C***ltODIFY WIND VECTOR BY 180 DEGREES. SINCE FLOW VECTORS WERE OUTPUT
C***FROU RAMHET, THIS CONVERTS BACK TO WIND DIRECTIONS.
380 DO 390 IQ-1,24
IF (IKST(IQ).EQ.7) IKST(IQ)=6
gTHETA(lg)=QTHETA(IQ)+180.
IF (QTHETA(IQ) .GT. 360. ) QTIIETA (IQ ) -QTHETA (IQ )-3 60 .
C***URBAN MIXING HEIGHTS ARE USED FOR THIS APPLICATION
390 QHL(ig)=HLH(2,IQ)
400 NB=IHSTRT
llE-HB+NAVG-1
IF (NB.GT.O) GO TO 410
WRITE (10,750) I11STRT
CALL EXIT
410 WRITE (10,950) LIHE1 , L INE2,LINE3
U = 0.0
TE!IP = 0. 0
DELH-0.0
DELM-0.0
DO 420 1-1,7
420 IFREQ(I)=0.0
DO 440 I=tIB,NE
r.;:r3060
RI1F3070
RIIF3080
R1IF3090
R!1F3100
RIIF3110
RHF3120
;'.i!F31-30
IIMF3140
RL1F3150
R1IF3160
RMF3170
F.:iF3130
R1IF3190
RKF32UO
r.;;r32io
R;iF3220
RKF3230
RHF3240
RMF3250
R11F3260
RIIF3270
UMF3230
RUF3290
RMF3300
RMF3310
R1IF3320
RUF3330
R1IF3340
JHR=I
IF (IOPT(11),
EQ.O) GO TO 430
RMF3360
.RI1F3370
RHF3330
RHF3390
RMF3400
RHF3410
RMF3420
R1IF3430
RMF3440
RUF3450
R11F3460
RMF3470
R1IF3480
RMF3490
RMF3500
RMF3510
RMF3520
R>1F3530
RMF3540
RMF3550
RMF3560
RMF3570
R11F3580
RHF3590
RllF360a
RMF3610
R11F3620
RMF3630
137
-------
C***READ MET DATA FROM CARDS WITH FREE FORMAT
C***READ CARD TYPE 12 IF USING OPTION 11 ; JHR REDEFINED FROM HETCARD.
READ (IN,970) JYR,DAY1,JHR,IKST(JHR),QU(JHR).QTEMP(JHR),QTHETA(JHR
l).QHL(JHR)
IF (I.NE.NB) GO TO 430
IDATE(1)-JYR
IUSTRT-JHR
ISTDAY-DAY1
IDATE(2)=ISTDAY
430 IF(I.EQ.NB) WRITE (10,1130) IDATE
TRAD=QTHETA(JHR)*0.01745329
IF(IKST(JHR).EQ.7) IKST(JHR)=6
JHR.QTHETA(JHR),QU(JHR),QHL(JHR).QTEMP(JHR),IKST(J
(10,1140)
WRITE
1HR)
SINT=SIN(TRAD)
COST=COS(TRAD)
C***CALCULATE WIND COMPONENTS
URES=QU(JHR)
UR-URES*SIHT
VR=URES*COST
DELM-DELM+UR
DEL1I=DELN+VR
TEMP«TEHP+qTEMP(JHR)
U=U+URES
KST-IKST(JHR)
440 IFREQ(KST)=IFREQ(KST)+1
C***R£DEFINE MB AND tIE IN CASE NON-CONSECUTIVE DAYS ARE BEING RUN
IF(IOPT(11).EQ.O) GO TO 441
NB=IHSTRT
NE=IHSTRT+NAVG-1
C***CALCULATE RESULTANT WIND DIRECTION THETA
441 DELN-DELN/IIAVG
DELM=DELtI/NAVG
TIIETA=AIIGARC(DELM,DELN)
C***CALCULATE AVERAGE AND RESULTANT SPEED
U=U/1JAVG
TEMP-TEMP/HAVG
URES = SQRT(DELt!*DELtl+DEL!I*DELtl)
PERSIS=URCS/U
C***DETERMINE 1IODAL AND AVERAGE STABILITY
LSMAX=0
DO 450 1=1,7
LST=IFREQ(I)
IF (LST.LE.LSMAX) GO TO 450
LSMAX=LST
LSTAB=I
450 CONTINUE
IP1=LSTA3+1
KST-LSTAB
DO 460 I-IP1.7
IF (LSI'.AX.EQ. IFREQ(I ) ) GO TO 470
460 CONTINUE
GO TO 490
C***IF TIE FOR MAX MODAL STABILITY CALCULATE AVERAGE STABILITY
470 KSUM=0
DO 480 J=l,7
480 usu!i=i:su:(+iFRi:Q(j) *j
KST=rLOAT (KSUM) /FLOAT (liAVC )+0. 5
C***OUTPUT RESULTANT MET CONDITIONS***
490 l.'UITE (10, 1150)
'/RITE (10,1160) THETA,URES,U,TE!1P,PERSIS,'/.ST
T?.AD=THCTA*0 .01745329
RMF3640
RMF3650
RMF3660
RMF3670
RMF3680
RMF3690
RMF3700
RMF3710
RMF3720
RMF3730
RMF3740
RMF3750
RMF3760
RMF3770
RMF3780
RMF3790
RMF3800
RMF3810
RMF3820
RMF3830
RMF3840
RMF3850
RMF3860
RMF3870
RMF3880
RIIF3890
RMF3900
RMF3910
RUF3920
RMF3930
R1IF3940
R11F3950
RMF3960
RMF3970
-RMF3930
RHF3990
RI1F4000
R11F4010
R1IF4020
RUF4030
RMF4040
R11F4050
P.11F4060
RMF4070
UMF4080
RMF4090
RMF4100
r.MF4110
r.:IF4120
RUF4130
R11F4140
RUF4150
R!!F4160
u:;r4i70
HHF4130
RMF4190
R1JF4200
P.MF4210
RIIF4220
EMF4230
R1IF4240
RMF4250
138
-------
SINT-SIN(TRAIJ)
COST-COS(TRAD)
C***INITIALIZE CONCENTRATION SUMS
C***INITIALIZE FOR AVERAGING TIME
DO 550 K-1,NRECEP
ACHI(K)-0.0
PCHI(K)-0.0
DO 530 1=1,11
530 ASIGS(K,I)»0.0
DO 540 I=l,26
PSIGS(K,I)=0.0
CONTINUE
540
550
C***
C***LOOP ON
C***
DO
LH
HOURS
570
700 ILH=NB,NE
•ILH
IF (LH.LE.24) GO TO 580
LH«=MOD(ILH, 24)
IF (LH.EQ.l) IDATE(2)=DAY1
C***INITIALIZE HOURLY ARRAYS
580 DO 610 K-l.NRECEP
AI1CHI (K)-0. 0
PHCHI(K)=0.0
DO 590 1=1,11
590 AUSIGS (K,I)=0. 0
DO GOO 1=1,26
600 PHSIGS (K,I)=0. 0
610 CONTINUE
C***SET MET CONDITIONS
THETA=QTHETA(LH)
U=QU(LH)
FOR THIS HOUR***
TEltP=QTEIlP(LH)
KGT=IKST(LH)
C***DETCR11INE WIND DIRECTION CONTROL, IWD, 90 DEG. QUADRANT OF WIND
C***
DO 620 1=1,3
IF (TlIETA.LE.DEGd ) ) GO TO 630
620 CONTINUE
1=4
630 IUD=I
TRAD=THETA*0. 01745329
3IllT = SIi; (TRAD)
C03T=C03(TRAD)
C***C!IECK FOR POINT SOURCES
IF (IOPT (1 ) .1!E. 1 ) GO TO 650
C***IOPT(13) CONTROL OPTION, HOURLY EMISSIONS I1IPUT? 0=I!0, 1=YES
IF (IOPT (13) .EQ. 0) GO TO 640
IDC K=I DATE (1 )*100000+IDATE(2)*100+LH
C***KEAD HOURLY POINT SOURCE RECORD
READ (15) IDATP, ( SOURCE ( IPOL , I ) , 1 = 1 ,NPT)
C***C1IECK DATE
IF (IDCIC. EQ. IDATP) GO TO 640
'.JRITE (10,910) IDCK, IDATP
CALL EXIT
C***CALCULATL POINT SOURCE CONTRIBUTIONS
640 CALL JiMiPTU (I1SAV , DS AV, Z , TLOG , LH)
C***CHECK I'OU AREA SOURCES
650 If (IOPT (2 ) . t;c. 1) CO TO 630
C***IOPT(13) CONTROL OPTION, HOURLY EillSSIOK INPUT? 0=110, 1=YES
II" (IOPT (13) . EQ. 0) GO 70 675
R11F4260
RMF4270
RMF4280
RMF4290
RMF4300
RMF4310
RMF4320
RMF4330
RMF4340
RMF4350
RMF4360
RMF4370
RMF4380
RMF4330
R11F4400
RHF4410
R11F4420
RMF4430
RMF4440
R1IF4450
RI1F4460
RMF4470
RMF4480
RMF4490
RMF4500
RHF4510
RHF4520
RKF4530
R11F4540
RMF4550
RMF4560
RMF4570
RI1F4580
RIIF4590
RHF4600
RMF4610
R11F4620
RHF4630
RHF4640
R1IF4650
RIIF4660
RMF4670
RUF4680
RMF4690
RIIF4700
R1IF4710
RHF4720
RIIF4730
RMF4740
RMF47-50
RHF4760
RHF4770
R!IF4780
R1IF4790
R:iF4COO
RMF4810
R11F4320
Ii:iF4830
RMF4C40
I'.Iir4850
RMF4S60
R11F4C70
139
-------
«IDATE (1 )*10'JOOO + II)ATi:(2 )*100+L11
C***READ HOURLY AREA SOURCE EMISSION RECORD
RT.AD (16) IDATA, (ASOUC (I POL , I) ,1=1 ,1IAS)
C***ClICCi: DATE
IF (IOCK.EQ.IDATA) CO TO 660
URITE (10,920) I DC 1C, I DAT A
CALL F.XIT
C***C01«VERT hOURLY AREA EMISSIONS FROM G/SEC TO G/SQ. 11/SEC
660 DO 670 1=1,HAS
C***COt:VERT SIDE LENGTH TO HETERS.
C***i;OTE: SIDE LENGTH liAD iJEEK MULTIPLIED liY .5 ABOVE FOR HUE
c***coi;siDERATious
GF=ASORC(5 , I ) *2000*COiITUO
670 ASORC (li'OL, I ) =ASORC (I POL , I ) / (SF*GF)
_C***SET UP INTEGRATION TABLES FOR AREA SOURCE CALCULATIOUS***
675 CALL JI1U54U (H [ITS , Z , XL IM , TLOS )
C***CALCULATE AREA SOURCE C 01JTRIB UTIOii S
CALL JtUlARE (liiiTS, XLIM.LH)
C***URITE IIOURLY CONCENTRATIONS TO TAPE
680 DO 6ol I = l,i:ilECEP
681 GRANDS(I)=AHCHI(I)+PUCUI(I)
'./RITE (12) I DATE (2) ,L11, (GRAliDS (I) , 1 = 1 ,1-RECEP)
C***SAVE HOURLY IlAXIMUliS
DO 690 K=1,NRECEP
IF(GRA1IDS (K) .LE.1U1AX(1 , 5,K) ) CO TO 690
C***C011CEKTRATIor: IS OUE OF THE TOP 5
DO 682 J=l,5
IF(CRAiJDS (K) .CT.IIHAXd , J,K) ) GO TO 683
682 CONTINUE
URITEdO, 1220)
GO TO 690
C***INSERT IN PROPER POSITION
683 IF(J.EQ.S) CO TO 685
DO 604 IJ=4,J,-1
IJP1=IJ+1
HltAX(l ,IJP1 ,K)=IltlAX(l , I J,K)
UMAX (2 , IJP1 , K)=H11AX(£ , IJ.K)
1111AX(3,IJP1,K)=11UAX(3,IJ,K)
III!AX(1 , J,K)=GRAHDS (K)
KMAX(2,J,K)=DAY1
H1IAX(3, J,K.)=LH
CONTINUE
CONTINUE
IF(HE.GT.24) IDATE (2)=1STDAY
C***OUTPUT FINAL RESULTS
CALL JMHFD (NB , LINE 1,LIHE2,LIHE3)
684
685
690
700
NHRS-N11RS+HAVC
IF(NP.GE.NPER) CO TO 720
IF(NKRS.LT.24) GO TO 710
IF(IDAY-LDRUH) 360,720,720
710 NB=1!B+1IAVG
NE-NE+NAVG
IF(NB.LE.24) GO TO 410
NB=1IOD(NB ,24)
NE=NB+NAVG-1
GO TO 410
720 END FILE.12
END FILE 12
END FILE 13
END FILE 13
C***WRITE SUMMARY INFORMATION ON DISK
UIF4G90
RUF4900
IU.F4910
RUF4920
RIIF4930
P.11F4940
RUF4950
RiiF4960
RMF4970
P.:iF49SO
R!iF4990
RMF5000
RKF5010
RIIF5020
RIIF5030
P>:iF5040
RHF5050
R1IF5060
R;iF5U70
l'.r.F5080
K1',F5090
RUF5100
RIIF51 10
RIIF5120
R1IF5130
R;iF5140
PUF5150
RJIF5160
RUF5170
R11F51SO
RUF5190
RI1F5200
R11F5210
RMF5220
RMF5230
RI1F5240
RIIF5250
LUF5260
RHF527-0
PaiF5230
RMF5290
R11F5300
R11F5310
RUF5320
RI1F5330
RUF5340
RI1F5350
RHF5360
R1IF5370
R11F5380
RI1F5390
RIiF5400
RUF5410
R11F5420
RMF5430
R11F5440
RI1F5450
RMF5460
RHF5470
RMF5480
R11F5490
140
-------
830
840
850
860
870
380
C90
900
,J=l,5),ANMEAN
,J=1,5)
,13,' IS HOT PERMITTED. HOURS MUST BE DEFINED BETW
WRITE (14) IDAY,ANNSUM,DMAX,HI1AX
IF (LDRUH.NE.NDAYS) CALL EXIT
C***PRINT SUMMARY TABLES
WRITE(IO,950) LINE1.LINE2.LINE3
WRITE(IO,1230) (1,1-1,5)
DO 725 K=1,NRECEP
ANMEAN=ANNSUM(K)/NDAYS
WRITE(10,1240) K,(DMAX(1,J,K),DMAX(2,J,K)
725 CONTINUE
WRITE(10,950) LINE1.LIHE2.LINE3
WRITE(IO,1250) (1,1=1,5)
DO 730 K=1,NRECEP
WRITE(IO,1260) K,(HHAX(1,J,K),HflAX(2,J,K),HMAX(3,J,K)
730 CONTINUE
CALL EXIT
740 FORUAT (' DATE ON HET. TAPE, ',12,13,' .DOES NOT HATCH INTERNAL DA
1TE, ',12,13)
750 FORMAT (' HOUR
1EEN 1 AND 24')
780 FORMAT (1X,T21,'GENERAL INFORMATION FROM RAMQ'//2X,'UNITS - THERE
1ARE',F14.7,' USER UNITS(INPUT UNITS) PER SMALLEST AREA SOURCE SQUA
2RE SIDE LENGTH (INTERNAL UNIT)' /2X,'CONONE - THERE ARE',F14.7,' KI
3LOMETERS PER USER UNIT'/2X,'CONTWO - IT IS CALCULATED THAT THERE A
4RE',F14.7,' KILOMETERS PER SMALLEST AREA SOURCE SQUARE SIDE LENGTH
5 (INTERNAL UN IT)'/2X,'THIS RUN IS FOR ',A6,'SINCE IPOL = ',I 2//1X)
790 FORMAT (IX,T21,'GENERAL INPUT DATA'//2X,'NUMBER OF PERIODS TO BE S
1IMULATED(NPER)= ',13/2X,'AVERAGING TIME IN HOURS FOR EACH PERIOD(U
2AVG)= ' ,I5/2X,'STARTING DATE (IDATE ( 2 ) , IDATE (1 ) , IIISTRT ) : JULIAN DAY
3 ',14,', YEAR 19',I2,' HOUR= ',12/2X,'RECEPTOR HEIGHT FOR ALL RECE
4PTORS(Z) ',F6.3,' METERS'/2X,'ASSUMED POLLUTANT HALF-LIFC(HAFL) ',
5F10.2,' SECONDS')
800 FORMAT (2X,'SURFACE MET DATA FROM STATION(ISFCD) ',16,', YEAR(ISFC
1YR) 19',I2/2X,'MIXING HEIGHT DATA FROM STAT1011 (IMXD) ',16,', YEAR(
2IMXYR) 19',12)
810 FORMAT (//1X)
820 FORMAT ( ' 0 ' , T 2 1 , ' POINT SOURCE IIIFORMAT ION ' //2X, ' EMI SSION IHFORMATI
ION FOR ',14,' (NPT) POINT SOURCES HAS BEEN DETERMINED BY RAMO//2X,
212,' SIGNIFICANT POINT SOURCES(HSIGP) ARE TO BE USED FOR THIS RUN'
3/2X,'THE ORDER OF SIGNIF 1CANCE(IMPS) FOR 25 OR LESS POINT SOURCES
4DETERMINED BY RAMQ IS LISTED BY POINT SOURCE NUMBER:'/2X,2515)
FORMAT (//1X.T21,'AREA SOURCE INFORMATION'//2X,'EMISSION INFORMATI
ION FOR ',14,' (HAS) AREA SOURCES HAS RE EN DETERMINED BY RAMQ'/2X,I
22,' SIGNIFICANT AREA SOURCES (NSICA) ARE TO BE USED FOR THIS RUH'/2
3X,' THE ORDER OF SIGHIF 1CAHCE(IMAS) FOU 10 OR LESS AREA SOURCES D
4ETERMINED BY RAMQ IS LISTED BY AREA SOURCE NUMBER:'/2X, 1 015)
FORMAT (2X, 'NUMBER OF AREA HEIGHT CLASSES(NUTS) = ',I 2/2X,'REPRESENT
1ATIVE AREA SOURCE HEIGHTS FOR EACH- HEIGHT CLASS(HIt:T) IN !!ETERS = ',
23F10.2)
FORMAT (2X,'BREAK POINT HEIGHT BETWEEN THE AREA HEIGHT CLASSES (BPH
1) IN METERS=',2F10.2)
FORMAT (2X,'FRACTION OF AREA SOURCE HEIGHT WHICH lo
IT(FH)=',F10.3/2X,'LII1IT OF DISTANCE FOU AREA SOURCE
2BLES(XLIM) IN USER UNITS = ',F 1 0. 3/2X,'BOUNDARIES OF
3E GRID III USER UNITS : ' / 1 X, T 6 , ' RMIN = ' , F 1 0 . 3 , 5X, ' Ri;AX= ' , F 1 0. 3 , 3X, ' SU
4IN=' , F10. 3, 5X, 'ShAX=' , F10. 3/2X, ' S IZ E (IRS 17, E X ISSl^E) OF AREA SOUR
INTERNAL UNITS =',13 ' EAST-UES
PHYSICAL HEIGH
INTEGRATION TA
THE AREA SOURC
5CE MAP ARKAY(IA) li
6T1I-SOUTU' //!.")
FORMAT (2613)
FORMAT (' ***EUKOr
FORMAT (' ***EXROR
FORMAT (' ***PLEASi
JY
,13,
III SPECIFYING SIGNIF. POINT SOURCES***')
IK SPECIFYING G1GNIF. AREA SOURCES*"*')
MOTE: THE RECEPTOR NUMBERS A.'ID LOCATIONS
CEIIER
1ATED FOU THIS AVERAGING TIME PERIOD ARE DIFFERENT FI!i
HOSE CEtlE
RMF5500
RMF5510
RMF5520
RMF5530
RMF5540
RMF5550
RMF5560
RMF5570
RMF5580
RMF5590
RMF5600
RMF5610
RMF5620
RMF5630
RMF5640
RMF5650
RMF5660
RMF5670
RMF5680
RMF5690
RMF5700
RHF5710
RMF5720
RMF5730
RMF5740
RtlF5750
RMF5760
RMF5770
RHF57J50
RMF5790
RMF5000
RMF5810
RMF5820
RMF5830
RMF5340
RMF5850
RMF5360
RMF5370
RMF53SO
RMF5390
RMF5900
RMF5910
RMF5920
RMF5930
RMF5940
RMF5950
RMF5950
F.MF5970
K!lF59dO
KMF5990
R;:r6000
KMF601 0
RMF6020
R:.F6030
F 6 0 4 0
r 6 0 5 U
F6060
RMF6070
KMFGOSO
11MF&090
i;i:Fdl oo
RMF61 10
141
-------
910
920
930
940
950
960
970
980
990
1000
1010
1020
1030
2ATED FOR'/18X,' THE PI! F,C EE1) INC AVERACI11C PERIOD.***')
FORMAT (' DATE UEINC PROCESSED IS = ' , 18 / IX, ' DATE OF HOURLY POINT E
1UISSION RECORD IS =',I 8/1X,'***FLEASE CHECK EMISSION RECORDS***')
FORMAT (' DATE fi EIHC PROCESSED IS= ',18/1X,'DATE OF HOURLY AREA EM
1ISSIOI,' RECORD IS = ' , I 8 / 1 X, ' ***PLE ASC CHECK EMISSION RECORDS***')
FORMAT (' AREA ARRAY IS TOO WIDE FOR PAGE SIZE, THEREFORE HILL I.'OT
1 "jL PRINTED. ' )
(13A5,A2/13A6,A2/13A6,A2)
('1',13A6,A2/1X,13A5,A2/1X,13A6.A2)
('OTIIIS IS THE NORMAL URBAN VE RS ION ( 7 31 24 )
TO ONE OR SEVERAL DAYS DATA.'/IX)
OF KAltF FOR APPL
FORMAT
FOR!! AT
FORMAT
lICATIOt:
FORMAT ()
FORMAT (' SURFACE DATA IDENTIFERS READ INTO MODEL (STATION-' , 15,'
1,YEAR-',12,') DO NOT AGREE WITH THE PREPROCESSOR OUTPUT FILE',/1X,
2' (STATION-',15,' .YEAR-',12)
FORMAT (' MIXING HEIGHT IDEHTIFERS READ INTO MODEL (STATIOli-', 15,'
1 ,YEAR-',12,') DO NOT AGREE WITH THE PREPROCESSOR OUTPUT FILE',/1X
2,' (STATION-',15,' .YEAR-',12)
FORMAT (' •*** THE ' , A6 , ' VERS ION OF THE PREPROCESSOR CAN HOT BE USE
ID WITH THE ',A6,'VERSION OF THE MODEL***')
FORMAT ('0', 13X, 'AREA SOURCE MAP ARRAY(IA)'/IX)
FORMAT (IX,13,2X,4113/IX)
FORMAT (IX,T3,'OPTION ',T16,'0PTION L1ST',T46,'OPT ION SPECIFICATI
10i; : 0-= IGNORE OPT ION ' / 1 X, T 6 8 , ' 1= USE OPTION'/1X,T7,12,T16,'POINT
2 SOURCE DATA',T51.I1/1X,T7,12,T16,'AREA SOURCE DATA',T51,11/I X,T7,
3I2.T16,'PERMANENT RECEPTORS',T51,I1/1X,T7,I2,T16,'SIGNIFICANT POIN
4T RECEPTORS'.T51.I1/1X,T7,12,T16,'SIGNIFICANT AREA RECEPTORS',T51,
511/I X,T7,12,T16, 'HONEYCOMB RECEPTORS',T51,I1/1X,T7,12,T16,'HOURLY
60UTPUT',T51,I1/1X.T7,12,T16,'PARTIAL CONC. WRITTEN TO DISK/TAPE',T
751 , I1/1X.T7, 12, T16, 'PRINT ONLY SUMMARY HOURLY OUTPUT ', ,-T5 1 , 11 / 1 X, T
87,12,T16,'PUNCH CARDS FOR CONTOURS ' , T5 1,I 1/1X,T7,I 2,T16,'READ MET
9DATA FROM CARDS ' , T 5 1 , 11 / 1 X, T 7 , I 2 , T 1 6 , ' SPECIFY SIGNIFICANT SOURCE 11
AUMBERS',T51,I1/1X,T7,I2,T16,'READ HOURLY EMISSIONS',T51,11/IX)
1040 FORMAT (' THE INPUT LIMIT OF MAX DISTANCE FOR AREA INTEGRATION ','
1 CONVERTS TO '.F10.3,' KM WHICH EXCEEDS STORAGE '.'LIMITATIONS. UP
2 TO 116 KM DISTANCES ARE ALLOWED.')
1050 FORMAT ('0',T50, 'POINT SOURCE LISTING '//I X, T8, ' SOURCE',T25 ,'EAST',"
1T33,'NORTH',T40,'S02(G/SEC) PART(C/SEC) STACK STACK ' STACK
2 STACK'/1X,T25, 'COORD' ,T33, 'COORD EMISSIONS EMISSIONS HT(ll)
3 TEMP(K) ','DIAM(M) VEL(M/SEC)'/1X,T26,'(USER UNITS)'/1X)
1060 FORMAT (1X.T3,13,IX,2A6,2X,2F9.2.F10.2.F11.2,2X,4F8.2)
1070 FORMAT (/1X,T20,'AREA SOURCE LISTING'//I X,T2,'SOURCE',T10,'EAST',T
118,'NORTH',T26,'S02(G/SEC-M**2)',T44,'PART(G/SEC-M**2). SIDE
2EFFECTIVE'/1X,T10,'COORD COORD' ,T29,'EMISSIONS',T46,'EMISSIONS',
3T61,'LENGTH HEIGHT'/IX,Tl1,'(USER UNITS)',T58,'(USER UNITS)',T7
1080
1090
1 100
44,' (U)
FORMAT
FORMAT
FORMAT
1EAST
•/ix)
(lX,T3,I3,2X,2F9.1,3X,lPE11.4,7X,lPE11.4,3X,OPF7.1,3XiF7.1)
(2A4,2F10.3)
('0',T9,'INPUT RECEPTORS'//1X,'RECEPTOR IDENTIFICATION
NORTH '/1X.T30,'COORD',T39,'COORD'/I X,T31,' (USER UNITS
1110
1120
1130
FORMAT (1X,T4,I2,1X,A1,8X,2A4,7X,F6.2,3X,F7.2)
FORMAT (IX,'NO SOURCES SPECIFIED')
FORMAT ('OINPUT MET DATA ',I 2,'/',14/IX,T2,'HOUR
THETA
SPEED
1 MIXING TEMP
2DEC-K) CLASS'/IX)
STABILITY'/1X,T9,'(DEC)
(M/S) HEIGHT(M) (
1140 FORMAT ( 1:X,T3,I 2,4F9.2,6X,11>
1150 FORMAT ('0','RESULTANT MET CONDITIONS'/1X)
1160 FORMAT (2X,'WIND DIRECTION-; , F7 . 2 , T36, "'RESULTANT WIND SPEED-',F7.2
1/2X,'AVERAGE WIND SPEED-',F7.2,T36,'AVERAGE TEMP-',F7.2/2X,'WIND P
2ERSISTEHCE=',F6.3,T36,'MODAL STABILITY-',12)
1170 FORMAT ('0',T20,'GENERATED HONEYCOMB RECEPTORS'/IX,/IX,'THE AREA T
RMF6120
RUF6130
RUF6140
RMF6150
RMF6160
RMF6170
P.MF6180
RUF6190
RMF6200
RMF6210
RMF6220
RMF6230
RMF6240
RMF6250
RMF6260
RMF6270
RMF6280
RMF6290
RMF6300
RMF6310
RMF6320
RMF6330
RMF6340
RMF6350
RMF6360
RMF6370
RMF6380
RMF6390
RMF6400
RMF6410
RM F 6 4 2 0
RMF6430
RMF6440
RMF6450
R-MF6460
RMF6470
RMF6480
RMF6490
RMF6500
RMF6510
RMF6520
RMF6530
RMF6540
RMF6550
RMF6560
RMF6570
RMF6580
RHF6590
RMF6600
RMF6610
RMF6620
RHF6630
RMF6640
RMF6650
-RMF6660
RHF6670
RMF6680
RMF6690
RMF6700
RMF6710
RMF6720
RMF6730
142
-------
10 BE COVERED HY HONEYCOMB RECEPTORS is HOUNDED SY:'/I:;,' RMIN=',FI ;i:iF6740
20.3,' RMAX=',F10.3,' S MIN = ' , F 1 0 . 3 , ' SMAX= ' , F 1 0 . 3 / / 1 X, ' I) I STAN C C BET RMF0750
3UEEN HONEYCOMB RECEPTORS (CRIDSP) II! USER UN IT S = ' , T 1. 3 //I X , ' REC EFT 0 RMFG750
4R EAST MOUTH') RMF6770
1180 FORilAT (IX,'NO RECEPTORS HAVE BEEN C1IOSC11') UI1F6730
1190 FORilAT (/GX.41I3/1X) RHFG790
C RM'6300
1200 FORMAT (//1X,' THE NUMBER OF PERIODS PREVIOUSLY COMPLETED EQUAL RMFG810
113,' AIID THE LAST PERIOD TO CE COMPLETED II! THIS RUII IS ',13) RMF6820
1210 FORilAT (' NUMBER OF DAYS PREVEIOUSLY PROCESSED, ',14,' DOES NOT AC RMF6330
1REE WITH LAST DAY WRITTEN IN SUMMARY FILE, ' , I 4 / 1 X , ' NON-CONS ECUT IV RMF6340
2E DAYS CANNOT i! E PROCESSED') RMF6850
1220 FORMAT (' ERROR IN FINDING UMAX') RMF6360
1230 FORMAT ( / 1 X, T 4 1 , ' F IVC HIGHEST 24-HOUR CONC EilTRAT lOIiS ( (J UL IAN DAY M RMF6870
1AX OCCURS) ' /1X.T49, ' (MICROCRAUS / II* *3 ) ' / 12 X, ' REC EPTOR NO . ' , 3X , 4 (I 1 , RMF6880
216X) ,11 , 11X,'MEAN CONG EIJTRAT ION'/1 X) RUF6o90
1240 FORMAT (1X,T5,1 2,5X,5(4X,6PF7.2,' (',OPF4.0,')'),7X,6FF7.2} RMF6900
1250 FORMAT (/1X,T41,'FIVE HIGHEST 1-HOUR COUCENTRATIONS(JULIAN DAY MAX UMF6910
1 OCCURS, HOUR) '/1X.T49, ' (hlCROCRAMS/M**3) '//2X, 'RECEPTOR NO.'.llX, RMF6920
24(11,2 OX),I1/1X) RMF6930
1260 FORMAT (IX,T5,I 2,5X,5(4X,6PF7.2,' (' ,OPF4.0,' ,' ,F3.0,')' ) ) RMF6940
END RMF6950
SUBROUTINE JMHFD (NB , LINE 1,LINK 2,LINE3)
C***THIS ROUTINE IS RESPONSIBLE FOR PRINTING TABLES OF TOTAL AND
C***AVERAGE CONCENTRATION FROM SIGNIFICANT POINT AND AREA SOURCES.
C***A SUMMARY TABLE OF THE METEOROLOGICAL CONDITIONS FOR EACH HOUR
RESULTANT CONDITIONS FOR THE PERIOD(IF
PRINTED. CONCENTRATIONS ARE PRINTED IN
LESS THAN 24 HOURS)
MICROCRAUS PER CUBIC
C***AHD THE
C***IS ALSO
C***METER.
C INPUT VARIABLES ARE:
C NB- START HOUR OF AVERAGING TIME
C LINE1- FIRST LINE OF TITLE
C LI1IE2- SECOND LINE OF TITLE
C LINE3- THIRD LINE OF TITLE
COMMON /SORC/ IA(25,25),SOURCE(9,250),ASORC(6, 100) , UN ITS,CONTUO,RR
1EC(150),SREC(150),MPS(25),MAS(10),I OPT(13),I POL,NRECEP,RMIM.RMAX,S
2MIH.SI1AX.IRSIZE, I SSIZ E , N PT , NAS , NS IGP , I1SIGA , PNAME (2,250),PSAV(250)
COMMON /HETCON/ ACHI(150),PCHI(150),ASIGS(150,11),PSIGS(150,26),IA
1SIGS(100),IPSIGS(250),THETA,U,KST, 11L,TEMP,SINT,COST,CPU(2),IWD,PAR
2TC(250) ,AHCUI(150) ,PUC 111(150), AIISIGS(150,11), P11SIGS(150,26),PL(6)
COMMON /METDAT/ QTHETA(24),QU(24),IKST(24),QHL(24),QTEIIP(24),IDATE
1(2)
COMMON /SUM/ ANNSUM(150),DMAX(2,5,150),HMAX(3,5,150)
COMMOI1 ITYPE(ISO) ,IGODE(150) , IN , 10 , N IP , H ID , NA VG
DIMENSION GRANDT(ISO), IRANi;(150), CRANDS(150), IPOLT(2), LIHE1(14
1), LINE2(14), LINE3(14)
DATA IPOLT /'S02 ','PART'/
IPOLU=IPOLT(1)
IF (IPOL.Eg.4) IPOLU=IPOLT(2)
C***AVERAGE CONCENTRATIONS OVER SPECIFIED TIME PERIOD
DO 30 K-l.HRECEP
ACHI(K)=ACHI(K)/NAVC
PCHI(K)=PCHI(K)/NAVG
GRAHDT(K)=ACHI(K.)+PCHI(K)
GRANDS(K)-GRAND!(K)
DO 10 1 = 1, 11
10 ASIGS(K,I)=ASIGS(K,I)/HAVC
DO 20 I»l,26
FD00010
FD00020
FD00030
F D 0 0 0 4 0
FD00050
FD00060
FD00070
FDOOOOO
FD00090
FD00100
FDOOl 10
FD00120
FD00130
FD00140
FD00150
FD00160
FD00170
FD00130
FD00190
FD00200
FD00210
FD00220
FD00230
FD00240
FD00250
FD00260
FDD 0270
FD00280
FD00290
FD00300
FD00310
FD00320
FD00330
FD00340
FD00350
FD00360
143
-------
20 PSIGS(K,I)=PSIGS(K,I)/NAVG
30 CONTINUE
C***
C***WRITE POINT SOURCE TABLE
IF (lOPT(l).EQ.O) GO TO 110
WRITE (10,180) LItIEl,LINE2,LINE3
WRITE (10,190) NAVG,IPOLU,IDATE.NB
IF (NSIGP.GT.10) GO TO 50
C***PRINT FIRST PACE OF OUTPUT AND TOTALS
WRITE (10,200) (I,I-1,NSIGP)
(10,210)
(10,220) (MPS(I),1=1.HSIGP)
(10,230)
K = l.NRECEP
(10, 240) K,(PSIGS(K,I),I = 1,IJSIGP)
PSIGS (K, 26) , PCI1I (K)
WRITE
WRITE
WRITE
1)0 40
WRITE
C***PRINT TOTALS***
WRITE (10,250)
40 CONTINUE
GO TO 110
C***PRINT FIRST PAGE
50 WRITE (10,200) (1,1=1,10)
WRITE (10,260) (HPS(I),1-1,10)
WRITE (10,230)
DO 60 1C = 1,URECEP
60 WHITE (10,240) K,(PSIGS(K,I),1=1,10)
IF (IISIGP.CT. 20) GO TO 80
C***PRIIIT SECOND PAGE AKD TOTALS
WRITE (10,180) LIHE1,LIHE2,LIHE3
WRITE (10,190) NAVC,IPOLU,IDATE,LIB
WRITE (10,200) (I,1 = 1 l.NSIGP)
WRITE (10,210)
WRITE (10,220) (UPS(I),1=1l.NSIGP)
WRITE (10,230)
DO 70 IC=l,;iRECEP
WRITE (10,240) K, (PSIGS (1C,I) ,1 = 1 l.NSIGP)
70 WRITE (10,250) PS ICS (1C, 2 6 ) , PC 111 (K )
GO TO 110
C***l,'HITE SECOIiD PAGE***
30 WRITE
WRITE
WRITE
'.'RITE
WRITE
DO 90
90 WRITE
WRITE
WRITE
C***UlCITE LA
LIHE1,LIKE2,LI!1E3
liAVG , IPOLU , IDATE , 1IB
(1,1=11,20)
WRITE
WRITE
WRITE
WHITE
DO 100
WRITE
WRITE
(10,180)
(10, 190)
(10,200)
(10, 260)
(10,230)
1C = 1 , IIRECEP
(10,240) K, (PSIGS(1C,I),I=11,20)
(10, 180) LIU El , Li;iE2,LIIiE3
(10,190) I! A VC , IPOLU, 11) ATE, 11 B
ST PACE AND TOTALS***
(10,200) (I,1=2 l.NSICP)
(10,210)
(10,220)
(10,230)
IC = 1
(10,
(I!PS
1,:iSIGP)
100
C* **
C***WF.ITL
IIRECEP
40) 1C, (PSIGS (1C, I ), 1=2 1 ,1.
(10,250) PSIGS (K, 26) .PCI1I (1C)
;ICP)
SOURCE TALLE
lio ir (IOPT(2).EQ.0)
W RITE (I 0 ,' 2 7 0 )
WRITL (10,200)
WRITE (10,280)
CO TO 130
Lii:i:i ,LiNE2,LinE3
1IAVC , IPOLU, IDATE.NB
(I , 1 = 1 , tlSIGA)
FD00370
FD00380
FD00390
FD00400
FD00410
FD00420
FD00430
FD00440
FD00450
FD00460
FD00470
FD00480
FD00490
FD00500
FD00510
FD00520
FD00530
FD00540
FD00550
FD00560
FD00570
FD00580
FD00590'
FD00600
FD00610
FD00620
FD00630
FD00640
FD00650
FD00660
FD00670
FD00680
FD00690
FD00700
FD00710
FD00720
FD00730
FD00740
FD00750
FD00760
FD00770
TD00780
F D 0 0 7 9 0
FD00800
FD00310
FD00820
FD00830
FD00840
FD00350
FD00860
FD00370
FD00880
FD00890
FD00900
FD00910
FD00920
TD00930
FD0094C
FD00950
FD00060
I'D 00 9 70
FD00980
144
-------
120
C * * *
C***OUTPUT
(J * >V A
130 I'll IT E
WRITE
URITE
C***CALCULAT
DO 150
I/KITE (10,220) (MAS (I ) ,1 = 1 .II
'..'RITE (10,230)
PO 120 K = l,t:ilECEP
URITE (10,240) K, (ASIGS (K, I) ,1 = 1 .1ISIGA)
'/KITE (10,250) ASICS (K, 11) ,ACHI(IC)
SUMMARY TARLE
LINE1,LIHE2,LIHE3
NAVG,IPOLU,IDATE.HB
(10,ISO)
(10,290)
(10,300)
E GRAND TOTALS AND RANK CONCENTRATIONS
1 = 1 .IIKECEP
CMAX=-1.0
DO 140 K=1,NRECEP
IF (GRANDT(K).LE.CMAX) GO TO 140
CMAX=CRAI)DT (K)
L;IAX=K
140 CONTINUE
IRAHI:(LTIAX) = I
GRAND!(UIAX)=-1.0
150 CONTINUE
DO 160 K=1,HRECEP
C l-RUEC(K)*UNITS
C2=SREC(K)*UNITS
WRITE (10,310) K, ITYPE (K) , ICODE(K) ,C1,C2,PSIGS (1C, 26) ,PCHI(K) , ASIGS
1 (K,11),ACHI(K).GRANDS (K),IRAHK(K)
160 CONTINUE
C***WRITE DAILY CONG. TO DISK/TAPE
URITE(13) I DATE(2),(CRAKDS(I).I-l.NRECEP)
C***SAVE DAILY HAXIMUMS
DO 169 IC.= 1 .11RECEP
ANNSUM(K)=AHNSUM(K)+GRANDS(K)
IF(GRAMDS(K).LE.DMAX(l,5,K)) GO TO 169
C***COiiCEHTRATIOH IS ONE OF THE TOP 5
DO 162 J=l,5
IF(GRANDS (K) .CT.D11AX(1, J,K) ) GO TO 166
162 CONTINUE
URITE(10,163)
163 FORMAT(' ERROR IN FINDING DMAX')
GO TO 169
C***1NSERT IN PROPER POSITION
166 IF(J.EQ.S) GO TO 168
DO 167 IJ-=4,J,-1
IJP1=IJ+1
DHAX(1,IJP1,K)-DMAX(1,IJ,K)
167 DMAX(2,IJP1,K)-DMAX(2,IJ,K)
168 DMAX(1,J,K)=GRANDS(K)
DMAX(2,J,K)=IDATE(2)
169 CONTINUE
RETURN
C
180 FORMAT ('1 ',13A6,A2/IX,13A6,A2/1X,13A6,A2)
190 FORMAT ('0',122,12,'-HOUR AVERAGE ',A4,' CONTRIBUTION(MICROGRAMS/M
1**3) FROM SIGNIFICANT POINT SOURCES',5X,12,'/',13,' START HOUR: '
2,I2//1X,T5,'RANK')
200 FORMAT ('+',112,10(13,7X))
210 FORMAT (' + ',T113,'TOTAL 'TOTAL'/I X,T113,'SIGNIF ALL POINT'/l
IX,T113,'POINT SOURCES'/IX,'SOURCE #')
220 FORMAT ('+' ,T 12,10(I 3,7X) )
230 FORMAT (IX.'RECEP #')
240 FORMAT (IX,T3,13,IX-6P10F10.3)
FD00990
FD01000
FD01010
FD01020
FD01030
FD01040
FD01050
FD01060
FD01070
FD010SO
FDD 10.90
FDD 1100
FD01 110
FD01120
FD01 130
TD01140
FD01150
FD01160
FD01170
FD01130
TOO 11 90
FD01200
FD01210
FD01220
FD01230
FD01240
FD01250
FD01260
FD01270
FD01280
FD01290
FD01300
FD01310
FDJD1320
FD01330
FD01340
FD01350
FD01360
FD01370
FD01380
FD01390
FD01400
FD01410
FD01420
FD01430
FD01440
FD01450
FD01460
FD01470
FD01480
FD01490
FD01500
FD01510
FD01520
FD01530
FD'01540
FD01550
FDO 156,0
FD0157'o
FD01580
FD01590
FD01600
146
-------
250 FORMAT ('+',T109,6P2F10.3) FD01610
260 FORMAT (IX,'SOURCE #',T12,10(I 3 , 7X)) FD01620
270 FORMAT ('0',T22,12,'-HOUR AVERAGE ',A4,' CONTRIBUTION(MICROGRAMS/M FD01630
1**3) FROM SIGNIFICANT AREA SOURCES',5X,12,'/',13,' START HOUR: ', FD01640
2I2//1X,T5,'RANK') FD01650
280 FORMAT ('+',T113,'TOTAL TOTAL'/1X,T113,'SIGNIF ALL AREA'/IX FD01660
1,T113,'AREA SOURCES'/IX,'SOURCE #') FD01670
290 FORMAT ('0',T25,12,'-HOUR AVERAGE ',A4,' SUMMARY CONCENTRATION TAB FD01680
1LE(MICROGRAMS/M**3)',5X,I2,'/',13,' START HOUR: '.I2//1X) FD01690
300 FORMAT (IX,'RECEPTOR NO. EAST NORTH ',2X,5('TOTAL FROM FD01700
1'),'CONCENTRATION'/1X.T36,'SIGNIF POINT ALL POINT SIGNIF AREA FD01710
2 ALL AREA ALL SOURCES', 5X,'RANK'/ IX, T38, 4 ('SOURCES', 6X)//1X) FD0172-0
310 FORMAT (1X,T3,1 3,IX,Al,13,6X,F7.2,2X,F7.2,IX,6P5F13.4,6X,13) FD017JO
C FD01740
END FD01750
DESCRIPTION OF HOURLY OUTPUT FILE
RAMFHOUR
RAMFHOUR IS AN EXAMPLE PROGRAM WHICH READS THE HOURLY
CONCENTRATION TAPE PRODUCED BY RAMF OR RAMFR. IT IS GIVEN HERE
ONLY AS AN EXAMPLE OF HOW THE HOURLY CONCENTRATION TAPE MAY BE READ,
***** PROGRAM LISTING *****
C***READ HOURLY CONCENTRATION TAPE PRODUCED BY RAMF OR RAMFR
C***ASG TAPE TO UNIT 12
DIMENSION GRANDS(150),RREC(150),SREC(150).LINE1(14),LINE2(14),
*LINE3(14)
READ(12) NDAYS,LINE1,LINE2,LINE3
READ(12) NRECEP,(RREC(I),1=1,NRECEP),(SREC(J),J=l,NRECEP)
WRITE(6,10) LINE1.LINE2.LINE3
10 FORMAT('1',13A6,A2/1X, 13A6,A2/1X, 1 3A6,A2)
WRITE(6,11) (I,RREC(I),SREC(I),!=!,NRECEP)
11 FORI1AT(//1X,T5,'RECEPTOR LOCAT IONS ' / 1 X, 40 (I 2 , 2F 1 0. 2 / 1 X ) )
C***READ NO. OF DAYS TO PRINTOUT
READ(5,12) IDAY
12 FORMAT(13)
WRITE(6,13)
13 FORMAT('1',T30,'HOURLY CONCENTRATIONS(KICROCRAIIS/M**3)')
C***READ HOURLY CONCENTRATIONS
DO 30 1=1,IDAY
DO 20 J=l,24
READ(12,END=99) IDAY1.LH,(GRANDS(K),K-1,NRECEP)
WRITE (6, 100) IDAY1 , LH , (GRAIIDS (K ) , K=l .NRECEP)
100 FORI1AT(1X,'JULIAN DAY-',15,' HOUR- ' , I 2 / 1 X, 4 (6P 1 OF 1 1 . 2 / 1 X) )
20 CONTINUE
30 CONTINUE
99 CALL EXIT
EMI)
***** CARD INPUT TO RAMFHOUR *****
146
-------
CARD 1 (13) IDAY
C IDAY IS THE NUMBER OF DAYS TO BE USED.
EXAMPLE:
365
*****EXA11PLE RUN STKEAtl*****
C'iu;r;,D/R JOBMAHE,ACCNT-KO/USERID. , PROJ-ID,i,10
GPASSUD PASSWORD
GASC.A RA11FHOUR. . PROGRA1I FILE
QASG.T/R RA1IHOUR. , 1 6N , REEL-NO . HOURLY OUTPUT FILE
@USE 12, RAMIIOUU
0XQT RA1IFHOUR.GO
365
***** FORMAT DESCRIPTI011 OF THE HOURLY CONCENTRATION FILE *****
EACH OF THE RECORDS IS UNFORMATTED AND FORTRAN WRITTEN.
HEADER RECORD
VARIABLE DESCRIPTION
1IDAYS TOTAL NUMBER OF DAYS PROCESSED
LINE1 80 CHARACTER TITLE AS INPUT TO RAI1F
LINE2 80 CHARACTER TITLE AS INPUT TO RAMF
LINES 80 CHARACTER TITLE AS INPUT TO RAMF
RECEPTOR LOCATION RECORD
VARIABLE DESCRIPTION
NRECEP NUMBER OF RECEPTORS
RREC(I),1=1,NRECEP EAST COORDINATE OF ALL RECEPTORS (USER UNITS)
SREC(I),1-1,NRECEP NORTH COORDINATE OF ALL RECEPTORS(USER UNITS)
HOURLY CONCENTRATION RECORDS (ONE FOR EACH HOUR)
VARIABLE DESCRIPTION
IDAY1 JULIAN DAY
LH HOUR
GRANDS(K),K=1.NRECEP 1-HOUR CONCENTRATION OF EACH RECEPTOR
(GRAMS/M**3)
NOTE: SCALING TO MICROGRAMS/M**3 IS DONE WITH OUTPUT FORMAT.
DESCRIPTION OF DAILY OUTPUT FILE
147
-------
RAHFDAY
RAHFDAY IS AN EXAMPLE PROGRAM WHICH READS THE DAILY CONCENTRATION
DISK PRODUCED BY RAMF OR RAMFR. IT IS GIVEN HERE ONLY AS AN EXAMPLE
OF HOW THE DAILY CONCENTRATION DISK FILE CAN BE READ. THIS WRITE-UP ASSUMES
THE AVERAGING TIME TO BE 24 HOURS. IF A DIFFERENT AVERAGING TIME WERE
USED ADJUSTMENTS TO THIS PROGRAM WOULD BE NECESSARY SINCE THERE WOULD BE
A CONCENTRATION RECORD FOR EACH AVERAGING PERIOD INSTEAD OF FOR EACH
24-HOUR PERIOD(DAY).
***** PROGRAM LISTING *****
C***READ DAILY CONCENTRATION DISK PRODUCED BY RAMF OR RAMFR
C***ASG TAPE TO UNIT 13
DIMENSION GRANDS(150),RREC(150),SREC(150),LINE1(14),LINE2(14),
*LINE3(14)
READ(13) NDAYS,LINE1,LINE2,LINE3
READ (13) NRECEP,(RREC(I),I = 1,NRECEP),(SREC(J),J = 1,NRECEP)
WRITE(6,10) LINE1.LINE2.LINE3
10 FORMAT('1',13A6,A2/1X,13A6,A2/1X,13A6,A2)
WRITE (6,11) (I,RREC(I),SREC(I),I=1,NRECEP)
11 FORMAT(//1X,T5,"RECEPTOR LOCAT IONS'/1X,40(I 2,2F10.2/1X))
C***READ NO. OF DAYS TO PRINTOUT
READ(5,12) IDAY
12 FORMAT(I 3)
WRITE(6,13)
13 FORMATC1" ,T30, "DAILY CONC ENTRAT IONS (11ICROGRAMS /M* *3 ) ' )
C***R£AD DAILY CONCENTRATIONS
DO 30 1=1,IDAY
READ (13,END=99) IDAY1, (GRANDS(K),K = l,MRECEP)
WRITE(6, 100) IDAY1 , (GRANDS(K),K=l,NRECEP)
100 FORMAT(IX,'JULIAN DAY-',15,/1X,4(6P10F11.2/IX))
30 CONTINUE
99 CALL EXIT
END
*****CARD INPUT TO RAMFDAY *****
CARD 1 (13) IDAY
IDAY IS THE NUMBER OF DAYS TO BE READ
EXAMPLE:
365
*****EXAMPLE RUN STREAM*****
QRUN.D/R JOBNA11E, ACCNT-HO/USERID . , PRO J-ID , 1 , 1 0
0PASSWD PASSWORD
|3ASG,A RAHFDAY, . PROGRAM FILE
@ASC,A RA1124. . DAILY OUTPUT FILE FROM RA11F OR RAMFR
@USE 13.RAM24.
QXQT RAMFDAY. CO
365
***** FORMAT DESCRIPTION OF THE DAILY CONCENTRATION FILE *****
EACH OF THE RECORDS IS UNFORMATTED AND FORTRAN WRITTEN.
148
-------
HEADER RECORD
VARIABLE
NDAYS
LINE!
L IH E 2
LINE3
DESCRIPTION
TOTAL NUMBER OF DAYS PROCESSED
80 CHARACTER TITLE AS INPUT TO RAMF
80 CHARACTER TITLE AS INPUT TO RAtlF
80 CHARACTER TITLE AS INPUT TO RAMF
RECEPTOR LOCATION RECORD
VARIABLE DESCRIPTION
NRECEP
RREC(I),1=1,NRECEP
SREC(I),1=1.NRECEP
NUMBER OF RECEPTORS
EAST COORDINATE OF ALL RECEPTORS(USER UNITS)
NORTH COORDINATE OF ALL RECEPTORS(USER UNITS)
DAILY CONCENTRATION RECORDS(ONE FOR EACH AVERAGING PERIOD, I.E. DAY)
VARIABLE DESCRIPTION
IDAY1 JULIAN DAY
GRANDS(K),K=1.NRECEP 24-HOUR CONCENTRATION AT EACH RECEPTOR(GRAMS/
fl**3)
NOTE: SCALING TO MICROGRAMS/H**3 IS DONE WITH OUTPUT FORMAT.
149
-------
1.
RAMR PROGRAM LISTING
C*** RURAL BATCH VERSION(78124) OF RAMR
C***RAM IS AN EFFICIENT GAUSSIAN-PLUME MULTIPLE-SOURCE
C***AIR QUALITY ALGORITHM. RAM IS DESCRIBED IN: NOVAK, J.H., A11D
C***TURNER,D.B., 1976: AIR POLLUTION CONTROL ASSOC. J.. VOL. 26. NO.
C***PAGES 570-575(JUNE 1976). RAM'S PRINCIPAL USE IS TO DEltKMINE
C***SHORT TERM(ONE-HOUR TO ONE-DAY) CONCENTRATIONS FROM POINT AND
C***AREA SOURCES IN URBAN AREAS.
C***SEE RAM GLOSSARY FOR DEFINITIONS OF VARIABLES.
C***
C*** POINT SOURCE INFORMATION
C***
SOURCES) I'-EAST CO-ORD(USER UNITS)
2=NORTH CO-ORD(USER UNITS)
3=S02 EMISSION RATE(G/SEC)
4=PART EMISSION RATE(G/SEC)
5=STACK HEIGHT(M)
6=STACK TEMP(K)
6,
C***SOURCE(9,#PT
C***
C***
C***
C***
C***
C***
C***
C***
C***PHAI1E
C*** AREA
7-STACK DIAII(M)
8=STACK VELOCITY(II/S)
9=PARTIAL CALCULATION OF BUOYANCY
12 CHARACTER PLANT IDENTIFICATION
SOURCE INFORMATION
CORKER
CORNER
C***
c* **
C***
COLJiOlI
C***ASORC(6,#AREA SOURCES) 1=X CO-ORD(USER UNITS), SOUTHWEST
2=Y CO-ORD(USER UNITS), SOUTHWEST
3=302 EMISSION RATE(G/SEC)
4=PART EMISSION RATE(G/SEC)
5=SIDE LENGTH(USER UNITS)
6=STACK HEICHT(M)
/COEFFS/ PXCOF(6,9),PXEXP(6,9),PXUCOF(6,9),PXUEXP(6,9),AXCO
1F(6,0),AXE XP(6,9),HC 1 ( 1 0 )
COllHOIJ /KELC/ CIH(3,200)
COMI1011 /SOKC/ IA(25,25),SOURCE(9,250),ASORC(6,100) , UNITS , CONTWO , RR
1EC(150),SREC(150),MPS(25),MAS(10),IOPT(13),I POL,NRECEP,RUIN,RMAX,S
2IIIH, SMA::, IRSIZn, ISSIZE,HPT,liAS,llSIGP,lISIGA,PIIAHE(2, 250) ,PSAV(250)
COMMON /(1ETCOH/ ACI1I(150),PCHI(150),ASIGS(150,11),PSIGS(150,26),IA
IS ICG ( 1UO ) , IPSIGS (250) , TUKTA, U, KST , I1L, TEMP , SI N'T, COST, BPH(2 ) , IWD , PAR
2TC(250) , AI1CI11 (150) ,PiICUI(150) .AHSICS (150, 11) , PI1SIGS (150, 26) ,PL(6)
COMI1UI, /HEIGHT/ Hi:iT(3) ,HARE(3) ,BPHil(2) ,FH
/METDAT/ QTHETA(24),QU(24),IKST(24),QHL(24),QTEMP(24),I DATE
COMMON
1(2)
COMMON
/1IC C '.I I')/ !UUli:i,HRMAX,HSjIi:i,llSHAX
COMilOr; ITYPC ( 1 50) , I CODE ( 150) , IN, 10, NIP, HID , J1AVG
UinniSIOt; IFRE^(7), DEC(3), USAV(250), R1IA:!E(2, 50) , 1)UMR(24)
12,24), LII.E1(14), LIi)E2(14), LI11C3(14), !;03EL(2), DSAV(250),
225), IMAS(IO), UUREC(150), USREC(ISO), TITLC(2)
DATA IfliEQ /7*0/ ,DEG /90. , 1 80. , 2 70 . / , ICIIAR /'I'/
DATA P L/C. 07, 0.07, 0.10, 0.15,0. 35, 0. 55/
DATA I10DEL /'RURAL ', 'URBAN '/ .TITLE /' S02 ',' PART '/
NKECEP=0
IN = 5
10 = 6
HL1!(
RMR0010
RMR0020
RMR0030
RMR0040
RMR0050
RMR0060
RMR0070
RMR0080
RMR0090
RMR0100
RMR0110
RMR0120
RMR0130
RHR0140
RMR0150
RMR0160
RMR0170
RMR0180
RMR0190
RMR0200
R1IR0210
RMR0220
RMR0230
RMR0240
RMR0250
RMR0260
F.MR0270
RMR0280
RMR0290
RMR0300
RMR0310
RMR0320
RMR0330
RMR0340
RMR0350
RMR0360
RM1.0370
RMR0380
RHR0390
RMR0400
RMR0410
RMR0420
RMR0430
RMR0440
RMR0450
F,!;U0460
r.MR0470
RMJ10480
r.lll 0490
P. MI'. 05 00
iV.IR0510
ililR0520
T:ii:i0530
-------
C***ll ID-DISK OR TAPE INPUT OF PREPROCESSED EMISSION L/ATA. LIMITED TO:
C**ftl50 RECEPTORS , 250 POH.'T SOURCES AND 100 AREA SOURCES
C***NIP-i)ISK OUTPUT OF PARTIAL CONCENTRATIONS AT EACH HECEPTOt!
Cftftft;iiT-DISi; INPUT OF MET DATA
OF HOURLY POINT SOURCE EMISSIONS
OF I'OUl-.LY AREA SOURCE EMISSIONS
CftftftUNIT 15 - TAPE/DISK INPUT
Cftftft'JNIT 1 u - TAPE/DISK IflPUT
NIP = I o
CftftftTIM'.EE
C ft * ft
C ft ft ft
C ft ft ft
c * **
C * ft ft
C ft ft ft
C ft ft ft
ME FIRST
NORMALLY
JMS OF LENGTH AND COOtll! INAT ES ARE USED I!.' RAM:
SYSTEM, USER UNITS, IS SELECTED I5Y THE USER AND
USE THE COORDINATE SYSTEM OF T'lE EMISSION II.VEtn
ORY.
ALL LOCATIONS IIIPUT GY THE USER(SUCH AS SOURCES A.l'.li RECEPTORS)
ARL Hi THIS SYSTEM. ALSO AS A CU.'I VE U IE!iC E TO THE USER ALL
LOCATIONS 01! OUTPUT ARE ALSO li! THIS SYSTEM.
IE SECOIID SYSTEM, INTERNAL UEITS, IS USED Ii!TERI!ALLY
FOR COORD I HATE LOCATIONS Al.'D DISTAi.'CES. Ol.'K IfiTERi'.AL
SIDE LE'lCTIl OP THE SMALLEST APEA SOURCE SQUARE. TiilS
UE IDENTIFIED AND SPECIFIED BY TiiE USER. T'lE PURPOSE
IKTERil/.L UrIITS IS TO HAVE A CORRCS POllDEliCE LETUEEK LOCATION (Cllli)
COORDINATES) AND PARTICULAR AREA SOURCE POSITIONS. THIS IS
ACCOMPLISHED THROUGH THE USE OF THE AREA SOURCE MAP ARRAY (IA ARCAY
TO ',,'ITHIH WHICH AREA SOURCE Al.'Y
r-i J. .'. A
C ^ rt Jt
C* ft ft
C ft ft ft
c ft ft ft
C ft ft ft
c***
C ft ft ft
C ft ft*
C**ft
C ft ft ft
Cft ft ft
Qftftft
C***UEAI) CAi;l)S 1-3, IDENTIFICATION FOR
READ (IN,940) LItlEl ,LINE2,LINE3
WRITE (10,950) LINE1,LINE2,LINE3
C***MODL IS INDICATOR FOR RURAL VEKSIO
MODL=1
iJRITE (10,960)
C***READ RAI10, OUTPUT FROM DISK OR TAPE
Ill RAM
1/IiIT IS THE
LEIICTLi !IUST
OF USING
). THIS ALLOWS DETERMINATION AS
COORDINATE POINT RESIDES.
..E THIRD SYSTEM, X,Y, IS All UPi.'I
\;iTi! REFERENCE TO EACH RECEPTOR
(SAME AS UIND DIRECTION FOR TIIE PERIOD).
DISPERSION PARAMETER VALUES Al.'D EVALUATE
CONCENTRATIONS, DISTANCES IN THIS SYSTEM
•ID, CROSSVIND COOFJJIilATE SYSTEM
. TKE X-AXIS IS DIRECTED UPUIl-iD
IN ORDER TO DETERMINE
EQUATIONS FOR
MUST BE IN KILOMETERS.
TITLES.
DATA IN INTERNAL UNITS.
READ (HID) UNITS,COMTWO,CONOHE,I POL,HPT,IMPS,PNAME,IMOO
C***VERSIOtJ COMPATIBLE WITH RAtiO. OUTPUT?
IF (IMOD.EQ.MODL) GO TO 10
WRITE (10,1000) MODEL (IMOD)^MODEL(MODL)
CALL EXIT
C***CONTINUE READII1C DATA TRANSFERRED FROM RAMQ.
10 DO 20 1=1,9
20 READ (NIB) (SOURCE(I,J),J=l,HPX)
READ (KID) t.'AS, IMAS , R1IIII, RMAX, SMI II, SMAX, IRSIZE.ISSIZE
DO 30 1=1,6
30 READ (HID) (ASORC(I,J),J=l,NAS)
DO 40 I-l.IRSIZE
40 READ (HID) (IA(I,J),J-l.ISSIZE)
C*ft*
C***READ CARD 4.
C*ft*oPTIOH LIST***(SEE RUM STREAM EXAIIPLES OF RAM FOR DETAILED
C***DESCRIPTIOH OF INPUT VARIABLES).
C***NAVG IS INTERMEDIATE AVERAGING TIME IN HOURS
C***HAFL IS POLLUTANT HALF-LIFE IN SECONDS
READ (IN,970) I OPT,MPER,NAVG,Z,HAFL,NSIGP,MSIGA,IDATE,IUSTRT
WRITE (10,1030) (I,lOPT(I),1-1,13)
TLOS = 6.93-./HAFL
C***693. = 0.693*1000 METERS/KM, TLOS IN METERS/KM-SEC.
IF (UAVG.EQ.O) CALL EXIT
C***READ SFC MET. STATION ID AND 2-DIGIT YEAR,
RMR0540
RMR0550
RMP.0560
IMU0570
(IMP 05 80
nrr. 0590
RMR0600
Ri:r 061 0
HMH0630
R-1R0640
RMP.0650
RMR0660
Rt'R0670
U;i]'.06:JO
;'.MP.0690
RMR0700
P.MI10710
RMRG720
RMR0730
UMR0740
RMR0750
RMR0760
1.MR0770
RMR0780
RMR0790
RMROGOO
SIMR0310
11MR0820
RMROS30
RMP.0840
RMR0050
RMR0660
RIIP.0070
RlikOiJSO
P.MROS'JO
RMR0900
KMR0910
RMR0920
RMR0930
R!iR0940
R MHO 950
RMR0960
RMR0970
RIfROySO
RMR0990
RMR1000
RMR1010
RMR1020
RMR1030
RMR1040
RMK1050
RMR1060
RMR1070
RMR1080
RMR1090
RHR1100
RMR1110
RMR1 120
R11R1130
RMR11AO
RMR1150
151
-------
C***MIXING HEIGHT STATION AND 2-DIGIT YEAR
C***ONLY IF MET DATA IS FROM RAMMET
IF (lOPT(ll) .EQ. 1) GO TO 60
C***READ CARD TYPE 5 UNLESS USING OPTION 11.
READ (IN.970) ISFCD , ISFCYR , IHXD , IMXYR
C***THE ABOVE FORMAT IS UNIVACS FREE FIELD INPUT.
C***VARIABLES MUST BE SEPARATED BY COMMAS.
C***THIS IS SIMILAR TO IBM'S LIST DIRECTED 10.
C***CHECK TO INSURE CORRECT SURFACE DATA, MIXING HT. DATA, AND
C***PREPROCESSOR ARE BEING USED.
C***READ IDENTIFICATION RECORD FROM PREPROCESSED MET DISK OR TAPE FILE
READ (NIT) ID, IYEAR, IDM.IYM
IF (ISFCD. EQ. ID. AND. ISFCYR. EQ. IYEAR) GO TO 50
WRITE (10,980) ISFCD.ISFCYR, ID, IYEAR
CALL EXIT
50 IF (IMXD. EQ. ID11. AND. IMXYR. EQ. IYM) GO TO 60
WRITE (10,990) IMXL), IMXYR, IDH, IYM
CALL EXIT
60 IP=IPOL-2
WRITE (10,780) UNITS, CONONE, CONTWO, TITLE (IP) ,IPOL
C***ECHO INPUT PARAMETERS
WRITE (10,790) 1IPER,NAVG,IDATE(2 ) , IDATE(1 ) , IHSTRT , Z , HAFL
IF (IOPT (1 1 ) . EQ. 0) WRITE (10,800) I SFCD , ISFCYR , IMXD , IMXYR
WRITE (10,810)
C***IOPT(1) CONTROL OPTION, POINT SOURCE INPUT? 0=NO, 1=YES.
C***IF HO POINT SOURCES, SKIP DOWN TO AREA SOURCE CODE.
IF (IOPT (1 ) .EQ. 0) GO TO 150
C***IOPT(12) CONTROL OPTION, SPECIFY SIGNIFICANT POINT SOURCE NUMBERS
C***0=NO, 1=YES. '
IF (IOPT (12) .EQ. 0) GO TO 80
C***READ CARD TYPE 6 IF USING OPTIONS 1 AND 12.
C***READ THE NUIiBER OF SIGNIFICANT POINT SOURCES THAT USER WANTS TO
C***SPECIFY AND THE NUMBER DESIGNATIONS OF THOSE SOURCES.
READ (II), 870) IIIPT, (UPS (I ) , I = 1,INPT)
IF (INPT.EQ.O) CO TO 80
IF (UPS (IliPT) .EQ. 0) WRITE (10,380)
J = I1»PT + 1
C***ADD SIGNIFICANT SOUilCES DETERMINED FROI1
C***IF NSIGP GREATER THAN IIIPT.
IF (J.GI.NSICP) GO TO 100
DO 70 I=J,HSIGP
;iPS (I )=IMPS (K)
70 K=K+1
GO TO 100
80 DO 90 I=1,NSIGP
90 ;;PS (i ) = I:IPS (i )
100 WRITE (10,950) L1NE1 ,LINE2,LINE3
WRITE (10,1320) ili'I , NSIGP, (HIPS (I ) ,1 = 1
WRITE (10,1050)
IF (IOPT (13) .EQ. 0) GO TO 120
C***SAVE AVERAGE EUISSIOi'l RATE
DO 110 I = l,i;PT
110 PSAV(i)=souKCE(iroL,i)
C***W1UTE OUT POIiJT SOURCE LIST.
120 DO 130 I = l,:iPT
C***C01!VERT TO USEii UNITLJ TOR PiUIlT
C1=SC)URCE(1,I)*UKITS
C2 = SOURCE(2,I)*UNITS
WRITE (10,1060) I , (Pi.'AJ'.i; (L, I )
SIGNIFICANT SOURCE LIST
1,'SICP)
2) ,C1 ,C2, (SOURCC(:C, I )
130
COi.'TII.'UE
RMR1160
RMR1170
RMR1180
RMR1190
RMR1200
RMR1210
RMR1220
RMR1230
RMR1240
R1IR1250
RMR1260
RMR1270
RMR1280
RMR1290
RMR1300
R11R1310
RMR1320
RMR1330
RMR1340
RMR1350
RMR1360
RMR1370
RMR1380
r.MIU390
RMR1400
RMR1410
RMR1420
RMR1430
RMR1440
RMR1450
RMR1460
RMR1470
RMR1480
RMR1490
RMR1500
RMR1510
RI1R1520
RIIR1530
RMU1540
RUR1550
R.1P.1560
R11R1570
RLR1580
RHR1590
RMR1600
RI1R1610
Ri,ui620
R1U11630
RIIR1640
RMRIGSO
ll.r.1660
LHR1670
IIII'.IGSO
;;u'. I6yo
i;lR1700
RMIUIU
KHR1720
Ri:r. 1 730
R:!R 1 740
-U!R1750
lm:U760
r.::R1770
1B2
-------
C***FILL III SIGNIFICANT POINT SOURCE ARRAY
DO 14U I = l,i;SICP
140 IPSIGS(J)=I
C***IOPT(2) CONTROL OPTION, AREA SOURCE INPUT? 0=NO, 1=YES.
C***IF NO AREA SOURCES, SKIP DOWN TO INPUTTING RECEPTORS.
150 IF (IOPT (2) . EiO. U) GO TO 260
C***UEAD GAUD TYPE 7 IF USING OPTION 2.
iLEAO (I,!, 970) FU, XLi:i,i!l!TS, (UltiT (I ) , 1 = 1 ,NHTS)
IF (i::SP.LE. 0) NliP = l
C***RLAU CA.ID TYPE 3 IF USING OPTION 2.
READ (i;i,'J70) (i;PH(I) , 1 = 1 ,NIiP)
C***CON VERT TO USER UNITS FOR PRINT OUT. XLIM IS CONVERTED TO KM.
C l=R."'Ili*UNITS
C2 = ii:iAX*UNITS
c3=s;ii:;*u;!iTS
C4 = S<:AX*U1,ITS
c5=::Lin
WRITE (10,950) LINK1 ,LINE 2,LINE 3
XLin = :iLI'!*C01!ONE
IF ULIll.LT. 1 16. ) CO TO 160
WRITE (10,1040) XL III
CALL EXIT
C***IOPT(12) CONTROL OPTION, SPECIFY SIGNIFICANT POINT SOURCES? 0=110,
C*** 1=YES.
160 IF (IOPT (12) .EQ.0) GO TO 130
C***READ THE IJUHBER OF SIGNIFICANT AREA SOURCES THAT USER
C***i.'ANTS TO SPECIFY AND THE NUMBER DESIGNATIONS OF THOSE SOURCES.
C***READ CARD TYPE 9 IF USING OPTIONS 2 AND 12.
REAR (IN,870) INAS,(HAS(I),1=1,INAS)
IF (INAS.EO..O) CO TO 180
IF (HAS(INAS).FQ.0) WRITE (10,890)
J=INAS+1
IF (J.CT.N3IGA) CO TO 200
DO 170 I=J,iiSICA
HAS (I )=i;!AS (K)
170 1C=IC+1
GO TO 200
C***ADD SIGNIFICANT SOURCES DETERMINED
C***IF NSIGA GREATER THAN I11AS.
FROM SIGNIFICANT SOURCE LIST
130
190
200
DO 190 I=1,NSICA
I:AS (i ) = niAS(i.)
WRITE (10,330) N
WRITE (10,340) N
WRITE (10,850) (
WRITE (10,060) F
NAS,HSIGA, (III AS (I) , 1 = 1 ,HSIGA)
NHTS, (HINT(I),1 = 1,NHTS)
(BPH(I ) ,1 = 1,NBP)
F11,C5,C1,C2,C3,C4,IR'SIZE,ISSIZE
C***IF IA ARRAY TOO LARGE TO BE PRINTED AS A MAP, PRINTING
IF (IRSIZE.CT.41) GO TO 220
C***PRI11T OUT AREA SOURCE MAP ARRAY.
WRITE (10,1010)
JLI11 = ISSIZE + 1
DO 210 JDUM=1,ISSIZE
J-JLI11-JDUM
WRITE (10,1020) J,(IA(I,J),1=
IS SKIPPED.
210
1 , IRSIZ E )
220
WRITE
GO TO
WRITE
(10, 1190)
230
(10,930)
(I,1=1.IRSIZE)
C***WRITE OUT THE AREA SOURCE LIST.
230 WRITE (10,1070)
DO 240 1=1,NAS
KIIR1780
RMR1790
R;IK 1,300
;i:iRi 8io
RiiRl 320
r.i'i;iS30
JIMR1340
R;:R1850
R1H11860
RHR1870
RliRl 880
R!iulG90
?.::R-i900
:ii:R1910
1UIR1 920
RMR1940
RJK1950
R:!R1960
r,!!R1990
R1IR2000
R1IR2010
RtiK2020
RI1R2030
RI1R2040
R11R2050
R MR 20 60
RI1R2070
P.MR2030
RMR2090
RKR2100
RMR2 1 10
RMR2120
&IR2130
RMR2140
RMR2150
R1IR2160
RMR2170
RMR2130
R MR 2 190
RMR2200
RMR2210
RMR2220
RMR2230
RMR2240
RMR2250
RMR2260
RMR2270
RMR22SO
RMR2290
RMR2300
RMR2310
RMR2320
RMR2330-
RMR2340
RMR2350
RUR2360
RMR237CT
RMR2330
RMR2390
153
-------
C***CONVERT TO USER UNITS FOR PRINT Olii
C1=ASORC(1 , I)*UNITS
C2=ASORC(2,I)*UNITS
C3=ASORC(5,I)*UNITS
WRITE (10,1030) I,C1,C2,(ASORC(K,I),K-3,4),C3,ASORC(6,I)
C***SIDE LENGTH IS MULTIPLIED BY . 5 TO SAVE TIME IN LATER COMPUTATIONS
ASORC(5,I)=ASORC(5,I)*0.5
IASIGS(I)-0
240 COtiTINUE
C***FILL IN SIGNIFICANT AREA SOURCE MARKER ARRAY
DO 250 I=1,NSIGA
J=11AS(I)
250 IASIGS(J)-I
C***INPUT PERMANENT RECEPTORS
C***IOPT(3) CONTROL OPTION, SPECIFIED RECEPTORS? 0 = HO, 1 = YES.
260 IF (IOPT (3) .EQ. 0) GO TO 300
270 NRECEP=NRECEP+1
IF (NRCCEP.GT. 150) GO TO 230
C***READ COORDINATES IN USER UNITS
C***ATTEHTION USER: DON'T SPECIFY A RECEPTOR AT ORIGIN AS A BLANK CARD
C***IS USED TO INDICATE ALL RECEPTORS HAVE BEEN READ.
C***READ CARD TYPE 10 IF USING OPTION 3.
READ (IN, 1090) (RNA11E ( J , HREC EP ) , J = l , 2 ) , RREC (II REG EP ) , SREC (HRECEP )
C***BLA.HU CARD OR RECEPTOR AT ORIGIN SIGNALS ALL PERMANENT RECEPTORS
C***HAVE BECK ENTERED.
IF (RRi;C(HRECEP )+SREC (NRECEP ) .LE. 0. 001 ) GO TO 280
GO TO 270
280 NKECEP=NRECEP-1
C***GAVE NUUDLR OF PERMANENT RECEPTORS
1IPREC=URECEP
C***PRH:T OUT TABLE OF PF.RMANKNT RECEPTORS***
I.'RITE (10,950) LINE1 ,LINC2,LINE3
URITE (10,1100)
C***T1IE CHARACTER "I" INDICATES THAT THESE RECEPTORS 1,'ERE INPUT INTO
C***THE MODEL.
DO 290 )r. = l .1IRECEP
ITYPE (::)=! CHAR
I/l'.ITE (10,1110) iC., ITYPn
C***CO;IVI:RT TO INTERNAL UNITS
I.REC (r. )=u:ir.c(K) /UNITS
SREC (i:)=SREC (II) /UNITS
2'ju icoi);: (r.)=o
C***IF NEITHER roii.'T on
300 IF ( (IOPT (1 ) + IOPT
'..'RITE (10,1120)
CALL EXIT
310 IDAY=IJATE (2 )-l
C***IUPT(11) CONTROL OPTION, INPUT MET DATA
IF ( I JAY. Li;. O.OR. IOPT ( 1 1 ) .i::j. 1 ) CU TO
c***PosiTiot: ::LT FILE TO CORRECT POSITION
DO 320 I =1,1 DAY
320 READ (HIT) JYK
C***IOPT (0 ) CONTROL OPTION, FILL IN HONLYCO
, (K.NAML(J,r.) , J = l , 2) , RRL'C(K) , SRCC(U)
AREA SOURCES WERE SPECIFIED, EXI:
(2.) ) .NE. 0) CO TO 310
PROGRAM.
Ot! CARDS?
330
0"=IiO, 1=YE[
RECEPTORS? 0=;iO, 1=YES.
C'-»•'= OF
( luPT (6 ) . Lii. 0) GO TO 36U
i:, SPACING BETWEEN HONEYCOMB 11LCEPTORS AND VARIABLE HONEYCOMB
DG'JNDAUICS IN USER UNITS.
CAN INPUT ZERO HERE FOR 30UUDAUIES IF KE WANTS THE BOUNDARIES
li: AREA SOURCE RECIOii TO DEFINE THE AREA COVERED LY HONEYCOMB
:YPE 11
,970) G
I ' ) ]
Oi-it j.Ul>.iJ«
,AD CARD TYPE 11 IF USING OTTION 6.
READ (it., 97u) GRiDsr,UR;ii:i,i;;i;iAX, iisi:iN,us;[AX
ir (:;I.:;A;;.;:E. o.o) GO TO 340
RMR2400
RMR2410
RMR2420
RHR2430
RIIR2446
RMR2450
R1IR2460
RMR2470
RMR2480
RMR2490
RMR2500
RMR2510-
RMR2520"
R11R2530
RMR2540
RMR2550
RMR 2560
RHR2570
RMR2530
RMR2590
RMR2600
RHR2610
RMR262D
RMR2630
RHR2640
RMR2650
RMR2660
RMR2670
RMR2680
RMR2690
RUR2700
RMR2710
EMR2720
RI.R2730
RrR2740
UMP2750
RMR2700
RMR2770
RMR2730
RMK2790
RHU280U
RMR2810
RHR2820
RMR2330
R11R2840
R:iR2850
kill! 2860
RLR2C70
RMR2S80
RMU2390
RMR29UO
RMR2910
RMU2920
ii:iR2930
RilR2940
RMR2950
RIIR2960
:;:;R2370
!.,!?. 2 9 CO
i'.ilK2'J9u
154
-------
C***RMIN,RMAX,SMIN,SHAX ARE IN INTERNAL UNITS
HRMIll-RMIN
i!RMAX=RMAX
HS1IIN = SHIN
HSMAX=SHAX
GO TO 350
C***CONVERT INPUT GRID BOUNDARIES(USER UNITS) TO INTERNAL UNITS
340 HRHIN-HRHIN/UHITS
URMAX=HR1IAX/U1IITS
11 SMIN=H SHIN/UWITS
HSMAX=HSMAX/UNITS
C***CONVERT GRIDSP FR011 USER UHITS TO INTERNAL UNITS.
350 GRIDSP=GRIDSP/UHITS
C***INITIALIZATION
360 IDAY=IDAY+1
N1IRS = 0
IF (lOPT(ll).EQ.1) GO TO 400
C***INPUT NET DATA FOR EACH DAY FROII DISK CREATED BY RAIIHET, IOPT (1 ! ) =0
READ (NIT) JYR, 1110, DAY 1, IKST , QU , QTE11P , DU1IR, QTHETA , 1ILII
IF (JYR.NE.IDATE(l)) GO TO 370
IDATE(2)=DAY1
IF (IDATE(2).EQ.IDAY) GO TO 380
C***DATE ON 11ET TAPE DOES NOT HATCH INTERNAL DATE
370 UUITE (10,740) JYR,IDATE(2),IDATE(1),IDAY
CALL EXIT
C***1!ODIFY WIND VECTOR BY 180 DECREES. SINCE FLOU VECTORS WERE OUTPUT
C***FHOM RA11I1ET, THIS CONVERTS BACK TO WIND DIRECTIONS.
380 DO 390 IQ=1,24
IF (IKST(lq) . EQ. 7) IlCST(lg) = 6
QTHETA(IQ)=QTHETA(IQ)+180.
IF (QTUETA(IQ).CT.360.) QTHETA(IQ)=QTHETA(IQ)-360.
C***RURAL lilXIlIC HEIGHTS ARE USED FOR THIS APPLICATIOi!
390
400
410
U,HL(IQ)=11LH(1 ,IQ)
I;B=IHSTRT
NE=tIB+NAVG
IF (ilB.GT.
WRITE (10,
CALL EXIT
WRITE (10,
U=0. 0
TE:IP=O. o
DELI! = 0. 0
DEL;I=O. o
DO 420 1=1
-i
0) GO TO 410
750) IliSTUT
950) LINE1 .LIIJE2, LINES
,7
420 IFIIE^(I)=0.0
C***EACIl AVERAGING PERIOD, THE IIU1IBEK OF
C***;iUlhiER OF PERMANENT RECEPTORS.
:iRECEP = HPREC
DO 440 I=t,'B,HE
JI:R = I
IF (IOPT(11).EQ.0) CO TO 430
C***READ ;;ET DATA FRUU CARDS '.:IT:. FREL FO
C***RLAD GAUD TYPE 12 II" USING OPTION 11
. EC EFT OPS IS r. ESI',
JYR.DAYI , Jin., II:GT (Ji:;i)
430
READ (IN,970)
1 ) , JjiiL (JKK)
IF (I.liE.iiB) GO
IDATE (1)=JYR
IilSTRT = Jl!R
ISTDAY=tAY1
IDATE (2 ) = IST'JAY
ir (i. ::Q.I;S) ;.rr,i'
TIlAD=gTHLTA( JFR) *0. 0 174532V
,AT
Jill, ilEDEFIMCIj FFUjl
, gU ( JILR) ,UTE IT ( JHR) .
MET
OTII
CAr.D .
ETA( JIIK
0 430
(10,1130) IDATE
RI1R3020
RMR3030
RMR3040
RMR3050
RHR 3060
RI1R3070
R11R3080
RUR3090
R1IR3100
RI1R3110
RMR3120
RMR3130
R1IR3140
R11R3150
R11R3160
R1IR3170
RJIR3180
RHR3190
R11R3200
RMR3210
RI1R3220
R;iR3230
RMR3240
RIIR3250
R1IR3160
R11R3270
R11R3280
EUR 3290
RI1R3300
R11R3310
R11K3320
RMR3330
RI1R3340
R11R3350
li:iR3360
R111133 70
3300
3390
3400
"•:. 11134 10
i::1ii3420
K.-iR3430
RI1R3440
R'!R3450
i::i!l 3470
;>:iR3480
RltR34'JO
::;iR3500
;.;n,35iu
11I1R3520
r,i,R3540
R:iR3550
li;'K3560
P.I-R3570
I! ill
155
-------
IF(Ii;ST(JiUl) .EC,. 7) IKST(JilR)=fa
'./RITE (10,1140) JUR, qTIIETA(Jllll) , QU (JUR) ,y!!L(JHP, ) , OTEMP (JUR) , I;;
111 II)
C***CALCLLATE UINJ C OMPOii !','!T S
UP.=ULES*SI;:";
Vll=UuEG*COGT
(JUR)
RHR3640
ST(J
;)EH:=D;:L:I+VR
TE!;F=T!:rr+gT
U=U+URES
440 IFRL'Q (i'.ST) =IFREQ (KGT ) + l
C***REI/EFIi:E !T, /MID HE IN CAGE .'ION-CONGE
IT(IOPT(11).LQ.O) GO TO 441
;n; = ii!STr.T
IIE = I!iSTRT+nAVG-l
C***CALCULATE REGULTAHT Wll'i) DIRECTION TI1ETA
441 DELII=DI:LI;/:IAVG
IVE IJAYG AKE ECH;C uui;
R11R3660
pi;r.3G70
R.1R3530
T;iETA=ANCARC(DEL!l,DELiI)
C***CALCULA.TE AVERAGE AtU) RESULTAliT SPEED
U=U/NAVG
TLl'.r=TEl!P/t;AVG
UREE = S()RT (DELH*DELiI+DLLi;*])ELll)
PERSIS=URES/U
C***DETE.UiINE 'IODAL AND AVERAGE GTAP.ILITY
LS!1AX = 0
DO 450 1=1,7
IF (LST.LE.LSJIAX) GO TO 450
LS!1AX=LST
LGTAii = I
450 CONTINUE
IP1=LSTAB+1
UST=LGTAE
DO 460 I=IP1,7
IF (LGI1AX.EQ.IFREQ (I) ) CO TO 470
460 CONTINUE
GO TO 490
C***IF TIE FOR 1IAX MODAL STABILITY CALCULATE AVERAGE STABILITY
470 KSU!I = 0
DO 480 J=l,7
KST = FLOAT(KSU11) /FLOAT (HAVG) + 0. 5
C***QUTPUT RESULTANT MET CONDITIONS***
490 WRITE (10,1150)
WRITE (10,1160) THETA,URES,U,TEMP,PERSIS,KST
TRAD=THETA*0.01745329
SINT = S III (TRAD)
COST=COS(TRAD)
C***DETERUIHE RECEPTORS ACCORDING TO SIGNIFICANT SOURCES
C***IQPT(4) CONTROL OPTION, SIGNIFICANT POINT RECEPTORS? 0=110, 1=YES.
C***IOPT(5) CONTROL OPTION, SIGNIFICANT AREA RECEPTORS? 0=HO, 1=YES.
IF ((IOPT (4)+IOPT(5)).EQ.0) GO TO 500
CALL JtlllREC
C***FILL IN RECEPTORS WITH HONEYCOMB ARRAY
C***IOPT(6) C011TROL OPTION, FILL IN HONEYCOMB RECEPTORS? 0 = HO, 1 = YES
500 IF (IOPT(6).EQ.0) GO TO 510
C1=HRHIN*UNITS
!:;iR3720
U'IK 3 7 30
1*11,13740
III.R3 7 50
R:.R3760
P.:il*.3770
\..113730
:,;;R3790
Ri;R3300
RHP, 3310
R11R3820
RIiR3o30
RLR3340
R'iR3350
RMH3860
R11R3370
RHR3C30
RHR3890
RHR3900
Rf;il3910
RIIU3920
R:iR3930
R1IR3950
R1IR3960
RF1R3970
RIIR3980
RHR3990
RIIR4000
P.MR4010
RHR4020
R1IR4030
RNR4040
R11R4050
R11R4060
RMR4070
R1IR4080
R1IR4090
[II1R4100
P.I1R4110
R1IR4120
P.:iR4130
RHR4140
RUR4150
R11K4160
R11R4170
R1IR4180
RMR4190
RUR4200
R11R4210
R1IR4220
RIIR4230
RIIR4240
RMR4250
156
-------
C1,C2,C3,C4,C5
C2 = URtlAX*Ui:iTS
C3=HS;iir;*'jniTS
C4=HSltAX*UUITS
C5=CRIDSP*U!1ITS
WRITE (10,1170)
CALL JJIUHOLi (GRIDSP)
510 IF GUinCEP.IIE. 0) GO TO 520
WRITE (10,1180)
CALL L;;IT
C***IilITIALI2E COUCEHTRATI01I SUliS
C***IF SIGNIFICANT OR II01JE YCOMB RECEPTORS, UUITC CAUTIOUIliG STATEMENT.
520 IF ((IUPT(4)+IUPT(5)+IOPT(6)).GT.O) WRITE (10,900)
C***IUITIALIZE FOR AVERAGING TItlE
DO 550 R=1,NRECEP
ACHI(K)=0.0
PC III (K)=0 . 0
DO 530 1=1,11
530 ASICS(K,I)=0.0
DO 540 1=1,26
540 I'SIGS (1C, I )=0. 0
550 COlITIliUE
C***IF SAVIliG PARTIAL CONCENTRATIONS, WRITE 110S . OF RECEPTORS SOURCES.
IF (IOPT(3).EQ.0) GO TO 570
DO 560 I = 1,IJRECEP
URREC (I ) =RREC (I ) *U1IITS
USl'.EC (I )=SREC(I )*UtiITS
560 CONTINUE
V'RITE (NIP) liRECEP.IJAS.UPT, (UUREC(I ) ,1=1 .NRECEP) , (USREC(I ) ,1 = 1 ,MRE
1CEP)
C* **
C***LOOP ON HOURS
C***
570 UO 700 ILH=NU,KE
LH=1LH
IF (LH.LE.24) GO TO 580
LH=fiOD(ILH, 24)
IF (Lll.EQ.l) IDATE(2)=DAY1
C***INITIALI2E HOURLY ARRAYS
580 DO 610 K = l,:iRECEP
AHCUI(K)=0.0
PHCHI(K)=0.0
DO 590 1-1,11
590 AUSIGS(K,I)=0.0
DO 600 1=1,26
600 PHSIGS(K,I)-0.0
610 CONTINUE
C***SET MET CONDITIONS FOR THIS HOUR***
THETA=QTI1ETA(LH)
U-QU(LH)
HL-QHL(LH)
TEMP-QTEIIP (L1I)
KST=IKST(LH)
C***DETERMINE WIND DIRECTION CONTROL, IWD, 90 DEG. QUADRANT Of WIND
C***
DO 620 1=1,3
IF (THETA.LE.DEG(I)) GO TO 630
620 CONTINUE
1=4
630 IHD=I
TRAD=THETA*0.01745329
SINT=«SIH(TRAD)
COST-COS(TRAD)
R1IK4260
RIIR4270
R!1R4230
RMR4290
RI1R4300
RHR4310
RMR4320
RMR4330
RliR434Q
R1IR4350
RMR4360
RMR4370
RMR:4380
R11R4390
RI1R4400
RHR4410
R11R4420
RUR4430
RMR4440
RI1R4450
RMR4460
RMP.4470
RUR4480
RIIU4490
RMR4500
RUR4510
RIIR4520
R1IR4530
RIIR4540
RMR4550
RHR4560
RI1R4570
RMR4580
RMR4590
R^IIRACOO
RMR4610
RMR4620
RMR4630
RMR4640'
R11R4650
RMR4660
RMR4670
RMR4680
R11R4690
RMR4700
RMR4710
RMR4720
RMR4730
RMR4740
RMR4750
RMR4760
RNR4770
RMR4780
RMR4790
RHR4800
RMR481CT
RMR4820
RMR4830
RMR4840.
RMR4ff5»-
RMR4860
RMR4870
157
-------
C***CKECR FOR POINT SOURCES
ir (IOPT(I ) .NE. i) GO TO 650
C***IOPT(13) COiiTROL OPTION, HOURLY EMISSIONS INPUT? 0=110, 1=YES
IF (IOPT (13) .EQ. 0) GO TO 640
IDCK=IDATE(1 ) *100000+IDATE(2) *100+Lli
C***READ HOURLY POINT SOURCE RECORD
KEAD (15) IDATi', (SOURCE(IPOL, I) ,1 = 1 ,tlPT)
C***CHhCK DATE
IF (IDCK. EQ. IDATP ) CO TO 640
WRITE (10,910) IDCK, IDATP
CALL EXIT
C***CALCULATE POIUT SOURCE CONTRIBUTIONS
640 CALL JKIIPTR (II SAV , D S AV , Z , TLO S , Lll )
C***ChECK FOR AREA SOURCES
650 IF (IOPT(2).NE.l) GO TO 690
C***10PT (1 3) COiiTROL OPTIOtJ, HOURLY EMISSION INPUT? 0 = 110, 1=YES
IF (IOPT ( 13) .Eg. 0) CO TO 630
IDCK=IDATE(1 ) *100000+IDATE(2 )*100+LH
C***1(EAD HOURLY AREA SOURCE EMISSION RECORD
READ (16) IDATA, (ASORC(IPOL, I) ,1=1 ,NAS)
C***CHECK DATE
IF ( IDCK. Lg. IDATA) GO TO 660
WRITE (10,920) IDCK, IDATA
CALL EXIT
C***CONVERr HOURLY AREA CIIISS10NS FROII G/SEC TO G/SQ. tl/SEC
660 DO 670 1=1, HAS
C***CONVERT SIDE LENGTH TO HETERS.
C***NOTE: SIDE LENGTH HAD BEEN MULTIPLIED BY .5 ABOVE FOR TIME
C* ** COM SI DERATIONS
SF=ASORC(5,I) *2000*CONTUO
670 ASORC(IPOL, I)=ASOUC (I POL, I ) / (SF*SF)
C***SET UP INTEGRATION TABLES FOR AREA SOURCE CALCULATIONS***
680 CALL JM1154R (tJ HT S , Z , XL IM , TLOS )
C***CALCULATE AREA SOURCE CONTRIBUTIONS
CALL JMUARE (NUT S , XL 111 , L H )
C***OUTPUT RESULTS EACH HOUR
C***IOPT(7) CONTROL OPTION, HOURLY OUTPUT? 0 = NO, 1 = YES.
690 IF (IOPT (7 ) .EQ. 0) GO TO 700
CALL JilHOUR (LH,LINE1,LINE2,LINE3)
700 CONTINUE
IF(NE.GT.24) IDATE ( 2 ) =1 STDAY
C***OUTPUT FINAL RESULTS
CALL JMHFIH (NB , L INE 1 , L INE 2 , L INE 3 )
NP=HP+1
710
IF(NP.GE.HPER) GO TO 720
IF(NHRS.GE.24) GO TO 360
HB=NB+NAVG
NE=NE+HAVG
IF(NB.LE.24) GO TO 410
NB=MOD(NB,24)
HE=NB+HAVG-1
GO TO 410
C***IOPT(8) CONTROL OPTION, SOURCE CONTRIBUTIONS TO DISK? 0=NO, 1=YES.
720 IF (IOPT(8).EQ.O) GO TO 730
END FILE NIP
END FILE NIP
CALL-EXIT
730
C
740
750
FORMAT (' DATE ON MET. TAPE, ',12,13,' .DOES HOT MATCH INTERNAL DA
1TE, ',12,13)
FORMAT (' HOUR ',13,' IS NOT PERMITTED. HOURS MUST BE DEFINED BETW
RUR4030
IUIR4890
RMR4900
l'.:;R4910
RIIR4920
RMR4930
RMF.4940
RMR4950
R:iR4960
RMR4970
RUR^'930
RUR4990
RMR5000
RMR5010
RMR5020
RMR5030
RMR5040
RMR5050
RMR5060
RMR5070
RMR5030
RHR5090
RMU5-100
KMR5110
RMR5120
RMR5130
RMR5140
RMR5150
RMR5160
RMR5170
RMR5180
RMR5190
RMR5200
RMR5210
RUR5220
RMR 5230
RMR5240
RMR5250
RMR5260
RMR5270
RMR5280
RMR5290
RMR5300
RMR5310
RMR5320
RMR5330
RMR5340
RMR5350
RMR5360
RMR5370
RMR5380
RMR5390
RMR5400
RMR5410
RMR5420
RMR5430
RMR5440
RMR5450
RMR5460
RMR5470
RMR5480
RMR5
158
-------
1EEN 1 AND 24') RMR5500
780 FORMAT (IX,T21,'GENERAL INFORMATION FROM RAMQ'//2X,'UNITS - THERE RHR5510
1ARE',F14.7,' USER UNITS(INPUT UNITS) PER SMALLEST AREA SOURCE SQUA RMR5520
2RE SIDE LENGTH (INTERNAL UNIT)'/2X,'CONONE - THERE ARE',F14.7,' KI RMR5530
3LOMETERS PER USER UNIT'/2X,'CONTWO - IT IS CALCULATED THAT THERE A RMR5540
4RE',F14.7,' KILOMETERS PER SMALLEST AREA SOURCE SQUARE SIDE LENGTH RMR5550
5 (INTERNAL UNIT)'/2X,'THIS RUN' IS FOR ',A6,'SINCE IPOL-',I 2//1X) RMR5560
790 FORMAT (IX,T21,'GENERAL INPUT DATA'//2X,'NUMBER OF PERIODS TO 'BE S RMR5570
IIMULATED(NPER)- ',I3/2X,'AVERAGING TIME IN HOURS FOR EACH PERIOD(N RMR55?H
2AVG)» '.I5/2X,'STARTING DATE(IDATE(2),IDATE(1),IHSTRT): JULIAN DAY RMR5590
3 ',14,', YEAR 19',12,' HOUR- ',12/2X,'RECEPTOR HEIGHT FOR ALL RECE RMR5600
4PTORS(Z) '.F6.3,' METERS'/2X,'ASSUMED POLLUTANT HALF-LIFE(HAFL) ', RMR5610
5F10.2,' SECONDS') RMR5620
800 FORMAT (2X,'SURFACE MET DATA FROM STATION (ISFCD) ',16,', YEAR(ISFC RMR5630
1YR) 19'.I2/2X,'MIXING HEIGHT DATA FROM STATION(IMXD) ',16,', YEAR( RMR5640
2IMXYR) 19',12) RMR5650
810 FORMAT (//1X) RMR5660
820 FORMAT ('0',T21,'POINT SOURCE INFORMATION'//2X,'EMISSION IHFORMATI RMR5670
ION FOR ',14,' (HPT) POINT SOURCES HAS BEEN DETERMINED BY RAMQ'/2X, RMR5680
212,' SIGNIFICANT POINT SOURCES (NSIGP) ARE TO BE USED FOR THIS RUN' RMR569C
3/2X,'TUE ORDER OF SIGNIFICANCE(IMPS) FOR 25 OR LESS POINT SOURCES RMR5700
4DETERMINED BY RAMQ IS LISTED BY POINT SOURCE NUMBER:'/2X,2515) RMR5710
830 FORMAT (//1X,T21,'AREA SOURCE INFORMATION'//2X,'EMISSIOH IHFORMATI RMR5720
ION FOR ',14,' (MAS) AREA SOURCES HAS BEEN DETERMINED BY RAMQ.'/2X,I RMR5730
22,' SIGNIFICANT AREA SOURCES(NSIGA) ARE TO BE USED FOR THIS RUH'/2 RMR5740
3X,' TUE ORDER OF SICNIFICANCE(IMAS) FOR 10 OR LESS AREA SOURCES D RMR5750
4ETERMIHED BY RAMQ IS LISTED BY AREA SOURCE NUMBER:'/2X,1015) RMR5760
840 FORMAT (2X,'NUMBER OF AREA HEIGHT CLASSES(NUTS)-',12/2X,'REPRESENT RMR5770
1ATIVE AREA SOURCE HEIGHTS FOR EACH HEIGHT CLASS(HINT) IN METERS=', RMR5780
23F10.2) RMR5790
850 FORMAT (2X,'BREAK POINT HEIGHT BETWEEN THE AREA HEIGHT CLASSES(BPU RMR5800
1) IN METERS=',2F10.2) RMR5810
860 FORMAT (2X,'FRACTION OF AREA SOURCE HEIGHT WHICH IS PHYSICAL HEIGH RMR5820
IT(FH)=',F10.3/2X,'LIMIT OF DISTANCE FOR AREA SOURCE I1ITLCRATION TA RMR5830
2BLES(XLIM) IN USER UNITS =',F10.3/2X,'BOUNDARIES OF THE AREA SOURC RMR5840
3E GRID II) USER UN ITS:'/1X,T6,'RMIN=',F10.3,5X,'RUAX=',F10.3,5X,'SM RMR5850
4IN=',F]0.3,5X,'SMAX=',F10.3/2X,'SIZE(IRSIZE X ISSIZE) OF AREA SOUR RMR5860
5CE MAP ARRAY(IA) IM INTERNAL UNITS =',13,' EAST-WEST BY ',13,' NOR RMR5870
6T11-SOUTH'//1X) RMR5800
870 FORMAT (2613) RMR5890
880 FORMAT (' ***ERROR I1J SPECIFYING SIGNIF. POINT SOURCES***') RMR5900
890 FORMAT (' ***ERROR IN SPECIFYING SIGHIF. AREA SOURCES***') RMR5910
900 FORMAT (' ***PLEASE 1JOTE: THE RECEPTOR NUMBERS AND LOCATIONS GE1JER RMR5920
1ATED FOR THIS AVERAGING TIME PERIOD ARE DIFFERENT FROM THOSE GEIJER RMR5930
2ATED FOR'/18X,' TUE PRECEEDINC AVERAGING PERIOD.***') RMR5940
910 FORMAT (' DATE BEItSG PROCESSED IS= ' , 18 /1X, ' DATE OF HOURLY POINT E RMR5950
1MISSI01I RECORD IS =',18/1X,'***PLEASE CHECK EMISSION RECORDS***') RMR5960
920 FORMAT (' DATE BEING PROCESSED 15= ',I8/1X,'DATE OF HOURLY AREA EM RMR5970
1ISSIOIJ RECORD IS = ' , I 8 / 1 X, ' ***PLE ASE CHECK EMISSION RECORDS***') RMR5-980
930 FORMAT (' AREA ARRAY IS TOO HIDE FOR PAGE SIZE, THEREFORE WILL HOT RMR5990
1 BE PRINTED.') RMR6000
940 FORMAT (13A6,A2/13A6,A2/13A6,A2) RMU6010
950 FORMAT ('1',13A6,A2/1X,13A6,A2/IX,13A6,A2) 1U1R6020
960 FORMAT('OTHIS IS THE NORMAL RURAL VERSION(78124) OF RAMR FOR APPLI RKR6030
1CATI01I TU ONE OR SEVERAL DAYS DATA.'/IX) I1MU6040
970 FORMAT () . RI1R6050
980 FORMAT (' SURFACE DATA IDLNTIFERS READ INTO MODEL (STATION=' ,I 5,' RMR6060
i,YEAR=',12,') DO NOT AGREE I/ITH THE PREPROCESSOR OUTPUT FILE',/IX, RHR6070
2' (STATION'',15,' ,YEAR=',I2) PMK60SO
990 FORMAT <' MIXING HEIGHT IDENTIFERS READ IMTO MODEL ( STATI01!= ' , I 5 , ' RIIR6090
1 ,YCAR=',12,') DO HOT ACHEE WITH THE PREPROCESSOR OUTPUT FILE',/1X RMK6100
2,' (STATION=',15,' ,YEAR=',I2) r.l!R6110
159
-------
1000
,1010
1020
1030
1040
1050
1060
1070
1080
1090
1100
1110
1120
1130
1140
1150
1160
1170
1180
1190
C
FORMAT (' *** THE ',A6,'VERSION OT THE PREPROCESSOR CAN NOT BE USE
ID WITH THE ',A6,'VERSION OF THE MODEL***')
FORMAT ('0',13X,'AREA SOURCE MAP ARRAY(IA)'/1X)
FORMAT (1X,I3,2X,41I3/1X)
FORMAT (IX,T3,'OPTION ',T16,'OPTION LIST',T46,'OPTION SPECIFICATI
ION : 0- IGNORE OPTION'/1X,T68,' 1- USE OPTION'/IX,T7,12,T16,'POINT
2 SOURCE DATA',T51.I1/1X,T7,12,T16,'AREA SOURCE DATA',T51,I1/1X,T7,
312,T16,'PERMANENT RECEPTORS',T51,11/1X.T7,1 2,T16,'SIGNIFICANT POIN
4T RECEPTORS',T51,I1/1X,T7,12,T16,'SIGNIFICANT AREA RECEPTORS',T51,
5I1/1X,T7,I2,T16,'HONEYCOMB RECEPTORS',T51,I1/1X,T7,I2,T16,'HOURLY
60UTPUT',T51.I1/1X,T7,12,T16,'PARTIAL CONC. WRITTEN TO DISK/TAPE',T
751,I1/1X.T7,12,T16,'PRINT ONLY SUMMARY HOURLY OUTPUT', ,T51,11/IX,T
87,12,T16,'PUNCH CARDS FOR CONTOURS',T51,I1/1X.T7,12,T16,'READ MET
9DATA FROM CARDS',T51,11/IX,T7,12,T16,'SPECIFY SIGNIFICANT SOURCE N
AUMBERS',T51,I1/1X,T7,I2,T16,'READ HOURLY EMISSIONS'.T51.I1/1X)
FORMAT (' THE INPUT LIMIT OF MAX DISTANCE FOR AREA INTEGRATION ','
1 CONVERTS TO '.F10.3,' KM WHICH EXCEEDS STORAGE '.'LIMITATIONS. UP
2 TO 116 KM DISTANCES ARE ALLOWED.')
FORMAT ('0',T50,'POINT SOURCE LISTING'//I X,T8,'SOURCE',T25,'EAST',
1T33,'NORTH',T40,'S02 (G/SEC) PART(G/SEC) STACK STACK STACK
2 STACK'/1X,T25,'COORD',T33,'COORD EMISSIONS EMISSIONS HT(M)
3 TEMP(K) ','DIAM(M) VEL(M/SEC)'/1X,T26,'(USER UNITS)'/1X)
FORMAT (1X,T3,I3,1X,2A6,2X,2F9.2,F10.2,F11.2,2X,4F8.2)
FORMAT (/1X.T20,'AREA SOURCE LISTING'//IX,T2,'SOURCE',T10,'EAST',T
118,'NORTH',T26,'S02(G/SEC-M**2)',T44,'PART(G/SEC-M**2) SIDE
2EFFECTIVE'/1X,T10,'COORD COORD',T29,'EMISSIONS',T46,'EMISSIONS',
3T61,'LENGTH HEIGHT'/IX,T11,' (USER UN ITS)',T58,' (USER UNITS)',T7
44,'(M)'/1X)
FORMAT (1X,T3,I3,2X,2F9.1,3X,1PE11.4,7X,1PE11.4,3X,OPF7.1,3X,F7.1)
FORMAT (2A4.2F10.3)
FORMAT ('0',T9,'INPUT RECEPTORS'//1X,'RECEPTOR IDENTIFICATION
1EAST NORTH '/1X,T30,'COORD',T39,'COORD'/IX,T31,'(USER UNITS
FORMAT (1X,T4,I2,1X,A1,8X,2A4,7X,F6.2,3X,F7.2)
FORMAT (IX,'HO SOURCES SPECIFIED')
FORMAT ('OINPUT MET DATA ',12,'/',I 4/IX,T2,'HOUR THETA SPEED
1 MIXING TEMP STABILITY'/1X,T9,'(DEC) (M/S) HEIGHT(M) (
2DEG-K) CLASS'/1X)
FORMAT (1X,T3,I2,4F9.2,6X,I1)
FORMAT ('0','RESULTANT MET CONDITIONS'/I X)
FORMAT (2X,'WIND DIRECTION-',F7.2,T36,'RESULTANT WIMD"SPEED-',F7.2
1/2X,'AVERAGE WIND SPEED-', F7 . 2 , T36 ,'AVERAGE TEMP= ' , F 7 . 2/2X, ' l.'IND P
2ERSISTENCE=',F6.3,T36,'MODAL STABILITY=',12)
FORMAT ('0',T20,'GENERATED HONEYCOMB RECEPTORS'/1X,/1X,'THE AREA T
10 BE COVERED BY HONEYCOMB RECEPTORS IS BOUNDED BY:'/1X,' RMI1) = ',F1
20.3,' RMAX='.,F10. 3, ' SMIN-', F10. 3 , ' " SMAX= ' , Fl 0. 3//1 X,'D I3TA1ICE BKT
3WEE1! HONEYCOMB REC EPTORS (GR IDS P ) It! USER UN ITS-' , F 7 . 3 / / 1 X, ' REC EPTO
4R EAST NORTH')
FORMAT (IX,'NO RECEPTORS HAVE BEEN CHOSEN')
FORMAT (/6X.41I3/1X)
END
RMR6120
RMR6130
RMR6140
RMR6150
RMR6160
RMR6170
RMR6180
RMR6190
RMR6200
RMR6210
RMR6220
RMR6230
RMR6240
RMR6250
RMR6260
RMR6270
RMR6280
RIIR6290
RMR6300
RMR6310
RMR6320
RMR6330
RMR6340
RMR6350
RMR6360
RMR6370
RMR6380
RIIR639Q
RMR6400
RMR6410
RMR6420
RHR6430
RHR6440
RI1R6450
RMR6460
R11R6470
K11R6480
R11R&490
RMR6500
RMR6510
ii;iR6520
UMR6530
RMR6540
RHR6550
RMK6560
RMR6570
Rt'.R6530
RMR6590
R1IR6600
RMR6610
RMR6620
IV.1R6630
SUBROUTINE JMHPTR (HSAV,DSAV,Z,TLOS,LH) TTROOIO
C THE PURPOSE OF THIS ROUTINE IS TO CALCULATE CO IIC ENTKAT IONS FROli PTR0020
C POINT SOURCES. PTR0030
C INPUT VARIABLES ARE... PTR0040
C USAV- AN ARRAY OF EFFECTIVC HEIGHTS FOR POINT SOURCES CiETERS) PTR0050
C DSAV-AN ARRAY OF DISTANCES TO FINAL RISE(KM) PTR0060
160
-------
C Z- RECEPTOR HEIGHT.
C TLOS- PARTIIAL COiirUTATIOIi RELATED TO POLLUTANT LOSS.
C IDATE- YEAR AND JULIAN DAY (IN COilltON /11ETDAT/ )
C Lll- HOUR
COMMOil /SOLC/ IA(25, 25) , SOURCE (9, 250) ,ASORC(6 , 100) , Uti IT S , CONTWO , RR
1EC( 150) , SllEC ( 150) ,1IPS (25) ,UAS (10) , IOPT (13) , I POL , HREC EP , IUIIIJ, UMAX , S
2111N, SIIAX.IRSIZE, ISSIZE,tirT,:jAS,NSIGP,l,SIGA,Pi;AliE(2, 250) ,PSAV(250)
COK'.iOIi /UETCON/ ACI1I(15U),PCHI(150),ASIGS(150,11),PSICS(150,26),IA
1SIGS (100) , IPSIGS (250) ,THETA,U,KST, HL.TEllP, 31^T,COST, BPiI(2) , IWD.PAR
2TC(250) ,A;!CIU(150) , PHCHI (150) , AH SI OS (150, 11) , PltSIGS (150, 26) ,PL(6)
COMMON /11ETDAT/ QTiiETA ( 2 4 ) , QU ( 2 4 ) , I KST (2 4 ) , QHL ( 2 4 ) , QT E1IP (2 4 ) , I DATE
1(2)
COimOlt ITYPE (150) ,ICODE (150) , IN , 1C), II IP , M ID , HAVG
DIME11SIOH HSAV(NPT), DSAV(250), UPH(250), 1IPU(250), FP(250)
C***
C***
C***ZKRO EFFECTIVE STACK HEIGHT FOR EACH SOURCE
C***
DO 10 J=1,NPT
10 HSAV(J)=0.0
C***LOOP Oil RECEPTORS***
DO 120 K=l,NRECEP
C * * *
C***CALCULATE CONCENTRATIONS FROM POINT SOURCES***
C * * *
c * * *
LOOP ON POINT SOURCES
DO 110 J=1,NPT
PARTC(J)=0.0
RQ=SOURCE(1,J)
SQ=SOURCE(2,J)
C***DETERMINE UPWIND DISTANCE
C***XDU11 , YDU11 IN INTERNAL UNITS. X,Y IN KII.
XDUI1 = RQ-RREC(K)
YDUM=SQ-SREC(K)
X=(YDUH*COST+XDUU*SINT)*COHTWO
C*** X IS THE UPWIND DISTANCE OF THE SOURCE FROM THE RECEPTOR.
C***IF X IS NEGATIVE, INDICATING THAT THE SOURCE IS DOWNWIND O'F
C***THE RECEPTOR, THE CALCULATION IS TERtllNATED ASSUMING NO
C***CONTRIBUTION FR01I THAT SOURCE.
IF (X.LE.0.0) GO TO 110
C***DETERMINE CROSSWIND DISTANCE
C * * *
Y=(YDUM*SINT-XDUH*COST)*COHTWO
HF=HSAV(J)
C***SKIP PLUME RISE CALCULATION IF EFFECTIVE HEIGHT HAS ALREADY BEEN
C*** CALCULATED FOR THIS SOURCE
IF (HF.GT.0.0) GO TO 80
C*** MODIFY WIND SPEED BY POWER LAW PROFILE IN ORDER TO TAKE INXO
C***ACCOUNT THE INCREASE OF WIND SPEED WITH HEIGHT.
C***ASSUME WIND MEASUREMENTS ARE REPRESENTATIVE FOR A 10 METER HEIGHT-.
THT=SOURCE(5,J)
C***poiNT SOURCE HEIGHT NOT ALLOWED TO BE LESS THAN 1 METER.
IF (THT.LT.l.) THT-1.
UPL=U*(THT/10.)**PL(KST)
C***WI1ID SPEED NOT ALLOWED TO BE LESS THAN 1 METER/SEC.
IF (UPL.LT.l.) UPL-1.
UPH(J)=UPL
VS=SOURCE(8,J)
BUOY=SOURCE(9,J)
TS=SOURCE(6,J)
DELT=TS-TEMP
PTR0070
PTR0080
PTR0090
PTU0100
PTR0110
PTR0120
PT 110 130
PTR0140
PTR0150
PTR0160
PTR13170
PTR0130
PTR0190
PTR0200
PTR0210
PTR0220
PTR0230
PTR0240
PTR0250
PTR0260
PTR0270
PTR0280
PTR0290
PTR0300
PTR0310
PTR0320
PTR0330
PTR0340
PTR0350
PTR0360
PTR0370
PTR0380
P1R0390
P-TR0400
PTR0410
PTR0420
PTR0430
PTR0440
PTR0450
PTR0460
PTR0470
PTR0480
PTR0490
PTR0500
PTR0510
PTR0520
PTR0530
-PTR0540
PTR0550
PTR0560
P.TR0570
PTR0580
PTR0590
PTR0600
PTR0610
PTR0620
PTR0630
PTR0640
PTR0650
PTR0660
PTR0670
PTR0680
16f
-------
F=BUOY*DELT/TS
C*** IOPT(13) HOURLY EMISSION INPUT FROM
IF (IOPT(13).EQ.O) GO TO 20
C***MODIFY EXIT VELOCITY AND BUOYANCY BY
C***TO AVERAGE EMISSIONS
SCALE-SOURCE(I POL,J)/PSAV(J)
VS=VS*SCALE
F=F*SCALE
20 D=SOURCE(7,J)
C***CALCULATE H PRI1IE WHICH TAKES INTO
PAGE 4
TAPE/DISK? 0-NO, 1-YES.
RATIO OF HOURLY EMISSIONS
STACK DOWNWASH
ACCOUNT
C***BRIGGS(1973)
HPRM-THT
DUM=VS/UPL
IF (DUM.LT.1.5) HPRM=THT+2.*D*(DUM-1.5)
IF (HPRM.LT.O.) HPRM=0.
C***
C***CALCULATE PLUME RISE AND ADD H PRIME TO OBTAIN EFFECTIVE
C***STACK HEIGHT.
C***
C***PLUME RISE CALCULATION
IF (KST.GT.4) CO TO 40
C***PLUME RISE FOR UNSTABLE CONDITIONS
IF (TS.LT.TEMP) GO TO 50
IF (F.GE.55.) GO TO 30
C***DETERMINE DELTA-T FOR BUOYANCY-MOMENTUM CROSSOVER(F<55)
C***FOUND BY EQUATING BRIGGS(1969) EQ 5.2, PAGE 59 WITH COMBINATION OF
C***BRICGS(1971 ) EQUATIONS 6 AND 7, PACE 1031 FOR F<55.
DT;;B = O.0297 *TS*VS**0.33333/D**0.66667
IF (DELT.LT.DTMB) GO TO 50
C***DISTAHCE OF FINAL BUOYANT RISE(0.049 IS 14*3.5/1000)
C***3KIGGS(1971) EQUATION 7,F<55, AND DIST TO FINAL RISE IS 3.5 XSTAR
PISTF=0.049*F**0.625
C***CO:IBII;ATIOH OF RRIGGS (1971) EQUATIONS 6 AND 7, PACE 1031 FOR F<55.
IIF = HPRll+21. 425*F**0.75/UPL
GO TO 70
C***DETERMINE DELTA-T FOR BUOYANCY-MOMENTUM CROSSOVER(F>55)
C***roU!55.
30 DTMB=0.00575*TS*VS**0.66667/D**0.33333
IF (DELT.LT.DTIIB) GO TO 50
C***DISTAt;CE OF FINAL BUOYANT RISE (0.119 IS 34*3.5/1000)
C***E?.ICCS (1971 ) EQUATION 7, F>55, AND DIKT TO FINAL RISE IS 3.5 XSTAR.
DIGTF = 0. 1 19*F**0.4
C***COMBINATIO:: OF BRIGCS(1971)
'!F = IIPUlI + 38. 71*F**0. G/UPL
CO TO 70
C***PLU;iE RISE Foil STABLE CONDITIONS.
40 DT11L'Z=0. 02
IF (KST.GT.5) DT:iDZ = 0.035
G = 9. ti061 6*DTliDZ/TEMP
IF (TS.LT.TEMP) CO TO 60
C***DETEIUIII:E DELTA-T FOR BUOYAIICY-MOMENTUM
C***FuUND BY E^UA
C***P.IGE Mill. BRIGCS(1969)
DTIJ!i = 0 . 019532 *TElir*VS*SQUT (S )
IF (,)L'LT. LT. DTMH) GO TO GO
C***STA3LE BUOYANT RISK FOR WIND CONDITIONS
C***CNOUG1I IN UAM TO REQUIRE STABLE RISE IN
C***BPIGCS(1975) EQ 59, PAGE 96.
Ill- =11 PUM + 2 . 6 * ( F / (U PL *S ) ) * *0 . 3 3 3 3 3 3
C***CO;iBINATION OF URICC S (1 9 7 5 ) EQ 48 AND EQ 59. NOTE DI3TF
r>ISTF = 0. 002071 5*UPL/5QRT (S )
EQUATIONS 6 AND 7, PAGE 1031 FOR F>55.
CROSSOVER(STABLE)
IliG BRIGGS(1975) EQ 59, PACE 96 FOR STABLE BUOYANCY
4.23, PAGE 59 FOR STABLE HOHLNTUi: RISE.
(WIND NOT ALLOWED
CAL;I CONDITIONS.)
LOW
PTR0690
PTR0700
PTR0710
PTR0720
PTR0730
PTR0740
PTR0750
PTR0760
PTR0770
PTR0780
PTR0790
PTR0800
PTR0810
PTR0820
PTR0830
PTR0840
PTR0850
PTR0860
PTR0870
PTR0880.
PTR0890
PTR0900
PTR0910
PTR0920
PTR0930
PTR0940
PTR0950
PTR0960
PTR0970
PTR0980
PTR0990
PTR1000
PTR1010
PTR1020
PTR1030
PTR1040
PTR1050
PTJV1060
PTR1070
PTR10SO
PTR1090
PTR1100
PTR1110
PTR1 120
PTR1 130
PTR1140
PTR1150
PTP.l 160
PTR1.170
PTR1180
PTR1190
PTR1200
PTR1210
PTR1220
PTR1230
PTR1240
PTR1250
PTR1260
FTH1270
PTR1280
PTR1290
PTR1300
162
-------
GO TO 70
C * * *U t: S TABL E -t, ELI T Jl AL ' ,' 0.':
C***BRIGCS (1969) EQUATIO
C***TENDS ro OVERKSTI:;AT
C*ft* FIGURE 4.)
50 HF = :tPI!:! + 3. *VS*D/UP
niSTF=0.
GO TU 70
C***STAiiLE IiOnEiiTim RISE
60 l)llA = 3.*VS*n /UPL
C***GRIGGS (1969) EQUATIO
DELHF = 1 . 5* (VS*VE *D
IF (DUA.LT. DELED
Ei!T
N 5
E R
L
N 4
*u*
u:i RISE
. 2, PAGE 59 t.OTE :
ISE JREf: VS/U<4 (
.28, PAGE 59
TE;[P/(4.*TS*UFL) )
D EL ill' =1) HA
i'TJ
5T ACCURATE UHF.i; VS/'J>4
r.lICCS ( 1 975) PACE 73,
F
DISTF=0.
C***STORE OFF PLUI1E
C***OIHER RECEPTORS.
70
*0.333333/S**0. 156667
HEIGHT (ETC .) FOR TiilS SOURCE FOR USE ',/ITii
TO DISTANCE TO FINAL
PT1
1 J10
hSAV(J)=HF
DSAV(J)=OISTF
UPK(J)=UPL
IIPR (J)=HPR!1
FP(J )=F
C***IF SOURCE-RECEPTOR DISTANCE IS GREATER OR EQUAL
C***SK.IP PLlJ'iE RISE CALCULATION AND USE FINAL RISE.
HO IF (X.GE.I)SAV(J) ) GO TO 90
C***PLUI!E RISL FOR DISTANCE X(160 IS 1. 6 *1 QUO** . 6 7 BECAUSE X IN
11X = 11PR (J) + 1CO.*FP(J)**0.333333 *X**0.6666C7/UPH(J) PT1
IF (i:::.LT.HF) UF=I;:; PTI
C***SUP.ROUTIiiE DBTRCR I'.ETURNS THE DISPERSIOH PARAI'.T ERS , S Y AND SZ(IlETERS) PT1
C***AIin RELATIVE CONCENTRATION VALUE C11I/Q (SEC/.'!**3)
90 UPL=UPil(J)
CALL DHTRCR (UPL,2,HF,HL,X,Y,UST,SY,S2,PROD)
C***CALCULATE TRAVEL TIflE IU Ul-SEC/11 TO IliCLUUE DECAY RATE OF TOLLUTAN
TT-X/UPL
C***TLOS Itl IIETERS/KII-SEC, SO TT*TLOS IS DIJENSIONLE S S
PROD=PR01)*SOURCE (IPOL, J ) /EXP (TT*TLOS )
C***INCRE{1EMT CONCENTRATION AT K-T11 RECEPTOR (G /!i* *3 )
PCHI (K)=PCHI (IO+PH.OD
PUCHI (K)=PIICHI(K) + PROD
KSIG=IPSICS(J)
IF (KSIC.EQ.O) GO TO 100
C***STORE CONCENTRATIONS FROM SIGNIFICANT SOURCES.(G/It**3)
PSICS(K,KSIG)=PSIGS(K,KSIG)+PROD
PilSIGS (K,USIG)=P1ISIGS (K, KS IG )+PROD
PSIGS (K,26)-PSICS(K,26)+PROD
PHSIGS (K, 26)=PliSIGS (1C, 26)+PROU
100 PARTC(J)=PROD
110 CONTINUE
C***END OF LOOP FOR SOURCES
C***UUITE PARTIAL CONCENTRATIONS ON D IS 1C (G/1I* *3 )
IF (IOPT(8).EQ.0) GO TO 120
C***USER PLEASE NOTE: PARTIAL COHC. IN G/tI**3, NOT MICROGRA1I/H* *3
WRITE (NIP) 1DATE.LU,K,(PARTC(J),J=l,HPT)
120 CONTIHUE
C***END OF LOOP FOR RECEPTORS
RETURN
C
END
1330
1 3 4 0
1350
1360
1370
13GO
1390
P T K 1 4 0 0
PTR141 0
PTR1420
PTR1430
PTR1440
PTR1450
PTR1460
PTR1470
PTR14SO
PTR1490
PTR1500
PTR1510
PTR1520
PTR1530
PTR1540
1550
1560
1570
15GO
1590
l'TIU6uO
PTR1 51 0
PTR1620
PTR1630
PTR1640
PTR1650
PTR166C
PTR1670
PTR16SO
PTR1690
PTR1700
PTR1 710
P T R 1 7 2 0
PTR1730
PTR1 740
PTR1750
PTR1 760
PTR1770
PTR17SO
PTR1 790
PTR1800
PTR181 0
PTR1320
PTK1830
PTR1340
PTR1850
PTR1860
PTR1870
PTR1830
163
-------
SUBROUTINE JM1I54R (HHTS,Z,XLIM,TLOS)
C***THE PURPOSE OF THIS ROUTINE IS TO CALCULATE TABLES OF
C***CONCENTRATION NORMALIZED FOR WIND SPEED AND EMISSION RATE
C***FROM AREA SOURCES (CHI*U/Q). SUBROUTINE JMHCZR IS CALLED FOR
C***INTEGRATION OF RELATIVE CONCENTRATION.
C INPUT VARIABLES ARE...
C HINT- REPRESENTATIVE HEIGHTS FOR AREA SOURCES
C NHTS- NUMBER OF HEIGHT CLASSES
C Z- RECEPTOR HEIGHT(Il)
C XLIM- DISTANCE LIMIT ON INTEGRATION OF AREA SOURCES (KM)
C TLOS- PARTIAL COMPUTATION RELATED TO POLLUTANT LOSS
COMMON /METCON/ ACHI(150),PCHI(150),ASICS(150,11),PSIGS(150,26),IA
1SIGS(100),IPSIGS(250),THETA,U,KST,HL,TEMP,SINT,COST,BPH(2),IWD,PAR
2TC(250),AHCHI(150),PHCHI(150),AHSIGS(150,11),PHSIGS(150,26),PL(6)
COMMON /HEIGHT/ HINT(3),HARE(3),BPHM(2),FH
COMMON /RELC/ CIN(3,200)
C***CONCENTRATION TABLES ARE GENERATED FOR UP TO 3 HEIGHTS.
DO 190 IH = l,iniTS
H-HINT(IH)
HARE(IH)=H
IF (FH.EQ.1.) GO TO 10
PUT=FH*H
UPL=U*(PHT/10.)**PL(KST)
IF (UPL.LT.l.) UPL-1.
11= ( (H-PHT)*5. ) /UPL+PHT
HARE(IH)=H
GO TO 20
C***110DIFY WIND SPEED BY POWER LAU PROFILE.
10 IF (H.LT.1.0) H-1.0
UPL=U*(H/10.)**PL(KST)
IF (UPL.LT.1.0) UPL=1.0
C***ZERO CONCENTRATION ARRAY
20 DO 30 J=l,200
30 CIHdil, J)=0. 0
11 = 0
'•1C = 10
CP=0.0
CI=0.0
JD = 1
C***DISTA;ICE in KM.
x=o. o
DELX=0.001
ID = 1
40 CL=CP
X=X+DELX
C***SUBROUTINE JM1ICZK DETERMINES THE RELATIVE C01IC E11TILAT I0t; AT
C***VARYING DOWNWIND DISTANCES.
CALL JMHCZR (Z , II, X, SZ , CP )
C***CALCULATE TRAVEL TIME IN KM-SEC/M.
TT-X/UPL
C***ADJUST RELATIVE CONCENTRATION BY POLLUTANT DECAY RATE.
C***TLOS IN METERS/K.M-SEC, SO TT*TLOS IS D IllEilS IOULESS .
CP=CP/EXP(TT*TLOS)
C***I1ITEGRATED RELATIVE CONCENTRATION IG DIMENSIONLESS.
C***MULTIPLICATIOI1 )>Y 500. CONVLRTS TO METERS AND DIVIDES
CI=500.*DELX*(CL+CP)+CI
CO TO (50, 'JO, 120, 150, 130) , JD
C***;iORUALIZED CONCENTRATIONS ARE STORED I:.' TALLES FOR
C***DISTAUCES AT VARYING TIME INTERVALS. T:iE rOLLOUItlG
C***TUE TABLE'S COt. STRUCTIOM .
C***DISTAi:CE<100M; CALCULATE EVERY 1 (I, STORE
50 IF (X-0.0993) 60,GO,00
DY 2.
VARYING
COMilENTS DETAIL
KY 10 II, 0. OH'JI.
54R0010
54R0020
54R0030
54R0040
54R0050
54R0060
54R0070
54R0080
54R0090
54R0100
54R0110
54R0120
54R0130
54R0140
54R0150
54R0160
54R0170
54R0180
54R0190
54R0200
54R0210
54R0220
54R0230
54R0240
54R0250
54R0260
54R0270
54R0280
54R0290
54R0300
54R0310
54R0320
54R0330
54R0340
54.R0350
54R0360
54R0370
54R03SO
54R0390
54R0400
54R0410
54P.0420
54110430
54R0440
54R0450
54R0460
54R0470
54R0480
54R0490
54R0500
54R0510
54R0520
54R0530
54R0540
54R0550
54R0500
54R0570
54R0580
54R0590
5 41100 00
54R0610
54)10620
164
-------
60 l!=t; + l 54110630
IF (N.LT.NC) GO TO 40 54R0640
!i = 0 54R0650
70 !!)=( 100. *X)+0. 0008 54R0660
C***STOUAGE LOCATIOHS 1-9 CONTAIN INTEGRATIONS FOR 10-00 11. 54R0670
CIfl(IIl,ID)=CI 54R0630
GO TO 40 54R0690
C***I>ISTANCE ioo-500ii: CHANGE DEL;; TO 1011; STORE EVERY 10 H, o.omi. 54R0700
GO JD=2 54R0710
DELX=0.01 54R0720
GO TO 70 54R0730
C***STOKAGE LOCATIOHS 10-49 CONTAIN II1TEGRAT IONS FOR 100 I! TO 490 11. 54R07'40
90 IF (X-0.497) 70,100,100 54R0750
C*** DISTANCE 500 -3000H; CHAtJGE DELX TO 100 11; 3TORE EVERY 100 M, 0.1K11 54R0760
100 JI) = 3 54R0770
DELX=0.1 54R0780
110 ID=(10.*X)+45.08 54R0790
C***STORACE LOCATIONS 50-74 CONTAIN INTEGRATIONS FOR 500 It TO -2900 I!. 54R0800
CIU(IH,ID)=CI 54R0310
GO TO 40 54R0820
120 IF (X-2.95) 110,130,130 54R0830
C*** DISTANCE 3000- 15, DOOM. ; CHANGE DELX TO 500 tl ; STORE EVERY 500 II, 54R0840
C*** 0.5KH. 54R0850
130 JD=4 54R0860
DELX=.5 54R0870
140 ID=(2. *>,) + 69. 08 54R0880
C***STORAGE LOCATIONS 75-98 CONTAIN HITEGRATIONS FOR 3000 11 TO 14.5 U11. 54R0890
CI;UIH,ID)=CI 54R0900
GO TO 40 54R0910
150 IF (X-14.95) 140,160,160 54R0920
C*** DISTANCE >15,OOOH.; CHANGE DELX TO I0001I; STORE EVERY 1000 II, li'JI. 54R0930
160 JD=5 54R0940
DELX=1. 54R0950
170 ID=X + 84.08 54$'0960
C***STORAGE LOCATIOHS 99-200 CONTAIN INTEGRATIONS FOR 15 KM TO A 54R0970
C***11AXIIIUH OF 116 KM. -54R0980
CIN(I11,ID)=CI 54R0990
GO TO 40 54R1000
180 IF (X-XLI1I) 170,190,190 54R1010
190 CONTINUE 54R1020
RETURN 54R1030
C 54R1040
END 54R1050
SUBROUTINE JMHCZR (Z , H , X, SZ , RCZ ) CZR0010
COMMON /1IETCOH/ ACHI ( 1 50 ) , PCHI ( 1 5 0 ) , AS ZGS (1 50 , 1 1 ) , PS IGS ( 1 50 , 2 6 ) , IA CZR0020
1SIGS(100),IPSICS(250) ,THETA,U,KST,HL,TEMP, SIHT,COST,BPH(2) , IWD , PAR CZR0030
2TC(250),AHCHI(150),PHCHI(150),AHSIGS(150,11),PHSIGS(150,26),PL(6) CZR0040
C SUBROUTINE JMHCZR CALCULATES CHI*U/Q, RELATIVE CONCENTRATION CZR0050
C NORMALIZED FOR WIND SPEED AND EMISSION RATE, FOR A CROSSWIND CZR0060
C INFINTE SOURCE UPWIND OF A RECEPTOR (IN UNITS OF: PER METER CZR0070
C JMHCZR CALLS SUBROUTINE.PGSZ CZR0080
C THE INPUT VARIABLES ARE.... CZR0090
C Z RECEPTOR HEIGHT (M) CZR0100
C H EFFECTIVE STACK HEIGHT (M) CZR0110
C HL MIXING HEIGHT- TOP OF NEUTRAL OR UNSTABLE LAYER(M) CZR012o"
C (THROUGH COMMON/METCON/) CZR0130
C X DISTANCE SOURCE IS UPWIND OF RECEPTOR (KM) CZR0140
C KST STABILITY CLASS (THROUGH COMMON /METCON/) CZR0150
165
-------
C THE OUTPUT VARIABLES ARE.... CZR0160
C SZ VERTICAL DISPERSION PARAMTER. . CZR0170
C RCZ RELATIVE CONCENTRATION HAS UNITS OF: PER METER. CZR0180
C THE FOLLOWING EQUATION IS SOLVED — CZR0190
C RC * (1/2.5066 *SIGMA Z) * ((EXP(-.05*((Z-H)/SIGMA Z)**2) CZR0200
C + (EXP(-0.5*((Z+H)/SIGMA Z)**2)) CZR0210
C PLUS THE SUM OF THE FOLLOWING 4 TERMS K TIMES (N-l.K) — CZR0220
C FOR NEUTRAL OR UNSTABLE CASES: " CZR0230
C TERM 1- EXP(-0.5*((Z-ff-2NL)/SIGMA Z)**2) CZR0240
C TERM 2- EXP(-0.5*((Z+H-2NL)/SIGMA Z)**2) CZR0250
C TERM 3- EXP(-0.5*((Z-H+2NL)/SIGMA Z)**2) CZR0260
C TERM 4- EXP(-0.5*((Z+H+2NL)/SIGMA Z)**2) CZR0270
C 2.5066 IS THE SQUARE ROOT OF 2 * PI CZR0280
C***NOTE THAT MIXING HEIGHT- THE TOP OF THE NEUTRAL OR UNSTABLE LAYER- CZR0290
C***HAS A VALUE ONLY FOR STABILITIES 1-4, THAT IS, MIXING HEIGHT CZR0300
C***DOES NOT EXIST FOR STABLE LAYERS AT THE GROUND SURFACE- STABILITY CZR0310
C***5 OR 6. CZR0320
C STATEMENTS 190 TO 330 CALCULATE RC, THE RELATIVE CONCENTRATION, CZR0330
C USING THE EQUATION DISCUSSED ABOVE. SEVERAL INTERMEDIATE CZR0340
C VARIABLES ARE USED TO AVOID REPEATING CALCULATIONS. CZR0350
C CHECKS ARE MADE TO BE SURE THAT THE ARGUMENT OF THE CZR0360
C EXPONENTIAL FUNCTION IS NEVER GREATER THAN 50 (OR LESS THAN CZR0370
C -50). IF 'AH' BECOMES GREATER THAN 45, A LINE OF OUTPUT IS CZR0380
C PRINTED INFORMING OF THIS. CZR0390
C CALCULATE MULTIPLE EDDY REFLECTIONS FOR RECEPTOR HEIGHT Z. CZR0400
C IWRI IS CONTROL CODE FOR OUTPUT CZR0410
IWRI=6 CZR0420
C***IF STABLE, SKIP CONSIDERATION OF MIXING HEIGHT. CZR0430
IF (KST.GE.5) GO TO 40 CZR0440
C IF THE SOURCE IS ABOVE THE LID, SET RC = 0., AND RETURN. CZR0450
IF (H-IIL) 10,10,20 CZR-0460
10 IF (2-HL) 40,40,180 CZR0470
20 IF (Z-HL) 180,30,30 CZR0480
30 WRITE (IWRI,430) CZR0490
RETURN CZR0500
C IF X IS LESS THAN 1 METER, SET RC=0. AND RETURN. THIS AVOIDS CZR0510
C PROBLEMS OF INCORRECT VALUES HEAR THE SOURCE. CZR.0520
40 IF (X-0.001) 180,50,50 CZR^OSSO
50 CALL PCSZ (X.KST.SZ) CZR0540
C SZ = SIGMA Z, THE STANDARD DEVIATION OF CONCENTRATION IN THE CZR0550
C Z-DIRECTION (H) CZR0560
IF (KST-4) 60,60,70 CZR0570
60 IF (HL-5000.) 150,70,70 CZR0580
C IF STABLE CONDITION OR UNLIMITED MIXING HEIGtIT: CZR0590
70 C2=2.*SZ*SZ CZR0600
IF (Z) 180,80,100 CZR0610
C***FOK Z = ZERO: CZR0620
80 C3 = I1*H/C2 CZR0630
IF (C3-50.) 90,'.80, 180 CZRO"640
90 A2=2./EXP(C3) CZR0650
RCZ«A2/(2.5066*SZ) CZR0660
RETURN CZR0670
C***FOR HOU-ZERO Z: CZR0680
100 A2=0. CZK0690
A3=0. CZR0700
CA=Z-U CZR0710
CU=Z+H CZR0720
C3=CA*CA/C2 CZR0730
C4=CB*CD/C2 CZR0740
IF (C3-50.) 110,120,120 CZR0750
110 A2=1./EXP(C3) CZR0760
120 IF (C4-50.) 130,140,140 CZR0770
166
-------
130 A3=1./EXP(C4)
140 HCZ=(A2+A3)/(2.5066*SZ)
RETURN
C IF SIG1IA-2 IS GREATER THAU 1.6 TIHES THE
C THE DISTRIBUTION BELO'J THE IIIXIUG HEIGH:
C HEIGHT REGARDLESS OF SOURCE HEIGIiT.
150 IF (SZ/HL-1.6) 170,170,160
160 RCZ = 1./1IL
RETUIU)
IUITIAL VALUE OF All SET = 0.
All THE NUMBER OF TItli:S THE
AND ADDED IK.
0.
130,340, 190
ERRONEOUS NEGATIVE Z WILL
lilXIilG HEIGHT,
IS UNIFORM WITH
C
C
C
170 A1I =
IF (Z)
C***HOTE: All
180 RCZ=0.
RETURN
C***CALCULATE
190
SUNIlATIOi; TERH IS EVALUATED
RESULT III ZERO COHC ENTRAT IONS .
MULTIPLE EDDY REFLECTIONS FOR ELEVATED RECEPTOR HEIGHT.
A1=1./(2.5066*SZ)
C2=2.*SZ*SZ
A2 = 0.
A3 = 0.
CA=Z-1I
CB=Z+H
C3=CA*CA/C2
C4=CB*CB/C2
IF (C3-50.) 200,210,210
200 A2=l./EXP(C3)
210 IF (C4-50.) 220,230,230
220 A3=1./EXP(C4)
230 SUM=0.
TiiL = 2 . *1IL
240 AN-AN+1.
A4 = 0.
A5=0.
A6=0.
A7=0.
C5=AN*THL
CC=CA-C5
CD=CB-C5
CE=CA+C5
CF=CB+C5
C6=CC*CC/C2
C7=CD*CD/C2
C8-CE*CE/C2
C9=CF*CF/C2
IF (C6-50.) 250,260,260
250 A4-1./EXP(C6)
260 IF (C7-50.) 270,280,230
270 A5=1./EXP(C7)
280 IF (C8-50.) 290,300,300
290 A6-1./EXP(C8)
300 IF (C9-50.) 310,320,320
310 A7=1./EXP(C9)
320 T=A4+A5+A6+A7
SUM-SUM+T
IF (T-0.01) 330,240,240
330 RCZ=A1*(A2+A3+SUM)
RETURN
C CALCULATE MULTIPLE EDDY REFLECTIONS
340 Al-l./(2.5066*SZ)
A2 = 0.
FOR GROUND LEVEL RECEPTno HEIGHT
CZR0780
CZR0790
CZK0800
CZR0810
CZH0820
CZR0330
GZR0840
CZR0050
C Z R 0 8 6 0
C2R0370
CZR0830
CZR0890
C Z R 0 9 0 0
CZR0910
CZR0920
CZR0930
CZR0940
CZR0950
CZR0960
CZR0970
CZR0980
CZR0990
CZR1000
CZR1010
CZR1020
CZR1030
CZR1040
CZR1050
CZR1060
CZR1070
CZR1080
CZR1090
CZR1100
CZR1110
CZR1 120
CZR1130
CZR1140
CZR1150
CZR1160
CZR1170
CZR1180
CZR1190
CZR1200
CZR1210
CZR1220
CZR1230
CZR1240
CZR1250
CZR1260
CZR1270
CZR1280
CZR1290
CZR1300
CZR1310
CZR1320
CZR1330
CZR1340
CZR1350
CZR1360
CZR1370
CZR1380
CZR1390
167
-------
350
360
370
380
390
400
410
420
C
430
C2-2.*SZ*SZ
C3-H*H/C2
IF (C3-50.) 350,360,360
A2-2./EXP(C3)
SUM-0.
THL-2.*HL
AN-AN+1.
A4-0.
A6-0.
C5=AN*THL
CC-H-C5
CE-H+C5
C6=CC*CC/C2
C8=CE*CE/C2
IF (C6-50.) 380,390,390
A4-2./EXP(C6)
IF (C8-50.) 400,410,410
A6=2./EXP(C8)
T=A4+A6
SUM=SUM+T
IF (T-0.01) 420,370,370
RCZ=A1*(A2+SUM)
RETURN
FORMAT (IHO.'BOTH H AND Z- ARE ABOVE THE MIXING HEIGHT
IE COMPUTATION CAN NOT BE MADE.')
END
CZR1400
CZR1410
CZR1420
CZR1430
CZR1440
CZR1450
CZR1460
CZR1470
CZR1480
CZR1490
CZR1500
CZR1510
CZR1520
CZR1530
CZR1540
CZR1550
CZR1560
CZR1570
CZR1580
CZR1590
CZR1600
CZR1610
CZR1620
CZR1630
SO A RELIABL CZR1640
CZR1650
CZR1660
CZR1670
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
ADD
UNSTABLE LAYCR(M)
SOURCE (KM)
SUBROUTINE DBTRCR (U,Z,H,HL,X,Y,KST,SY,SZ,RC)
DETERMINE RELATIVE CONCENTRATION FROM POINT SOURCES.
SUBROUTINE DBTRCR CALCULATES CHI/q CONCENTRATION VALUES;
CALLS UPON PGSYSZ TO OBTAIN STANDARD DEVIATIONS.
THE INPUT VARIABLES ARE....
U HIND SPEED (M/SEC)
Z RECEPTOR HEIGHT (M)
H EFFECTIVE STACK HEIGHT (M)
HL MIXING HEIGHT- TOP OF NEUTRAL OR
X DISTANCE RECEPTOR IS DOWNWIND OF
Y DISTANCE RECEPTOR IS CROSSWIND FROM SOURCE (KM)
KST STABILITY CLASS
THE OUTPUT VARIABLES ARE....
SY HORIZONTAL DISPERSION PARAMETER
SZ VERTICAL DISPERSION PARAMETER
RC RELATIVE CONCENTRATION (SEC/M**3) ,CHI/Q
IWRI IS CONTROL CODE FOR WARNING OUTPUT.
IWRI-6
THE FOLLOWING EQUATION IS SOLVED --
RC = (1/(2*PI*U*SIGMA Y*SIGUA 2))* (EXP(-0.5*(Y/SIGMA Y)**2))
(EXP(-0. 5*( (Z-H) /SIGMA Z)**2) + EXP (-0 . 5 * ( (Z+II )/S IGMA Z)**2)
PLUS T!IE SUM OF THE FOLLOWING 4 TERMS K TIMES (N = 1,K) --
FOR NEUTRAL OR UNSTABLE CASES:
EXP(-0.5*((Z-11-2NL)/SIGMA
5*((Z+H-2NL)/SIGMA
5*( (Z-H + 21.L) /SIGMA
TERM 1- EXP(-0.5*((Z-1!-2NL)/SIGMA Z)**2)
TERM 2- EXP(-0.5*((Z+H-2NL)/SIGMA Z)**2)
7ERM 3- EXP(-0. 5*( (Z-H + 21.L) /SIGMA Z)**2)
TERM 4- EXP(-0.5*((Z+H+2NL)/SIGMA Z)**2)
NOTE T!1AT MIXING HEIGHT- THE TOP OF THE NEUTRAL OR UNSTABLE LAYER-
HAS A VALUE ONLY FOR STABILITIES 1-4, THAT IS, MIXING HEIGHT DOES
C NOT EXIST FOR STABLE LAYERS AT THE GROUND SURFACE- STABILITY 5 OR 6.
RCR0010
RCR0020
RCR0030
RCR0040
RCR0050
RCR0060
RCR0070
RCR0080
RCR0090
RCR0100
RCR0110
RCR0120
RCR0130
RCR0140
RCR0150
RCR0160
RCR0170
UCU0180
RCR0190
RCR0200
RCR0210
RCR0220
RCR0230
RCR0240
RCR0250
RCU0260
RCR0270
RCR0280
RCR0290
IlCil0300
168
-------
C TlIC ABOVE EQUATION IS SIMILAR TO EQUATION (5.8) P 36 IN RCR0310
C UOUKBOOK OF ATMOSPHERIC DISPEHSIOtl ESTIMATES UITI1 TKE ADDITION KCI10320
C OF THE EXPONENTIAL INVOLVING Y. RCR0330
C***IF STABLE, SKIP CONSIDERATION OF MIXING HEIGHT. RCR0340
IF (UST.CE.5) GO TO 50 RCR0350
C IF THE SOURCE IS ABOVE THE LID, GET RC = 0., AND RETURN. RCR0360
IT (H-hL) 10,10,20 RCR0370
10 IF (Z-HL) 50,50,40 RCK0380
20 IF (Z-HL) 40,30,30 RCR0390
30 WHITE (IURI.4GO) RCR0400
40 RC=0. RCR0.410
RETURN RCR0420
C IF X IS LESS THAN 1 METER, SET RC=0. AND RETURN. THIS AVOIDS RCR0430
C PROBLEMS OF INCORRECT VALUES NEAR THE SOURCE. RCR0440
50 IF (X-0.001) 40,60,60 RCK0450
C CALL PGSYSZ TO OBTAIN VALUES FOR SY AND SZ RCR0460
60 CALL PGSYSZ (X,KST,SY , SZ) RCU0470
C SY = SIGMA Y, THE STANDARD DEVIATION OF CONCENTRATION IN THE RCR0480
C Y-DIRECTIOIi (M) RCR0490
C SZ = SIGMA Z, THE STANDARD DEVIATION OF CONCENTRATION IN THE RCR05UO
C Z-DIRECTIOH (H) RCR0510
Cl=l. RCR0520
IF (Y) 70,90,70 RCR0530
70 YD=1UOO.*Y RCR0540
C YD IS CROSSWIND DISTANCE III METERS. RCR0550
DUM=YD/SY RCR0560
TEMP=0.5*DUM*DUM RCR0570
IF (TEMP-50.) 80,40,40 RCR0530
30 Cl-EXP(TElIP) RCR0590
90 IF (KST-4) 100,100,110 RCR0600
100 IF (IIL-5000.) 190,110,110 RCR0610
C IF STABLE CONDITION OR UNLIMITED MIXING HEIGHT, RCR0620
C USE EQUATION 3.2 IF Z = 0, OR EQ 3.1 FOR NON-ZERO Z. RCR0630
C (EQUATION NUMBERS REFER TO WORKBOOK OF ATMOSPHERIC DISPERSION RC&0640
C ESTIMATES.) RCR0650
110 C2=2.*SZ*SZ RCR0660
IF (Z) 40,120,140 RCR0670
C NOTE: AN ERRONEOUS NEGATIVE Z WILL RESULT IN ZERO CONCENTRATIONS RCR0680
120 C3 = 1I*11/C2 RCR0690
IF (C3-50.) 130,40,40 RCR0700
130 A2=1./EXP(C3) RCR0710
C WADE EQUATION 3.2. RCR0720
RC=A2/(3. 14159*U*SY*SZ*C1) RCR0730
RETURN RCR0740
140 A2=0. RCR0750
A3=0. RCR0760
CA=Z-H RCR0770
CB=Z+H RCR07SO
C3=CA*CA/C2 RCR0790
C4=CB*CB/C2 RCR0800
IF (C3-50.) 150,160,160 R.CR0810
150 A2-1./EXP(C3) RCR0820
160 IF (C4-50.) 170,180,180 RCR0830
170 A3»l./EXP(C4) RCR0840
C WADE EQUATION 3.1. RCR0850
180 RC=(A2+A3)/(6.28318*U*SY*SZ*C1) RCR0860
RETURN RCR0870
C IF SICMA-Z IS GREATER THAN 1.6 TIMES"THE MIXING HEIGHT, RCR0888
C THE DISTRIBUTION BELOW THE MIXING HEIGHT IS UNIFORM WITH RCR0890
C HEIGHT REGARDLESS OF SOURCE HEIGHT BECAUSE OF REPEATED EDDY RCR0900
C REFLECTIONS FROM THE GROUND AND THE MIXING HEIGHT. ' RCR0910
190 IF (SZ/HL-1.6) 210,210,200 " RCR0920
-------
C HADE EQUATION 3.5. RCR0930
200 RC-1./(2.5066*U*SY*HL*C1) RCR0940
RETURN RCR0950
C INITIAL VALUE OF AN SET - 0. RCR0960
C AH - THE NUMBER OF TIMES THE SUMMATION TERM IS EVALUATED RCR0970
C AND ADDED IN. RCR0980
210 AN=0. RCR0990
IF (Z) 40,370,220 RCR1000
C STATEMENTS 220-260 CALCULATE RC, THE RELATIVE CONCENTRATION, RCR1010
C USING THE EQUATION DISCUSSED ABOVE. SEVERAL INTERMEDIATE RCR1020
C VARIABLES ARE USED TO AVOID REPEATING CALCULATIONS. RCR1030
C CHECKS ARE MADE TO BE SURE THAT THE ARGUMENT OF THE RCR1040
C EXPONENTIAL FUNCTION IS NEVER GREATER THAN 50 (OR LESS THAN RCR1050
C -50). IF 'AN' BECOMES GREATER THAN 45, A LINE OF OUTPUT IS RCR1060
C PRINTED INFORMING OF THIS. RCR1070
C CALCULATE MULTIPLE EDDY REFLECTIONS FOR RECEPTOR HEIGHT Z. RCR1080
220 A1=1./(6.28318*U*SY*SZ*C1) ' RCR1090
C2=2.*SZ*SZ RCR1100
A2=0. RCR1110
A3=0. RCR1120
CA-Z-H RCR1130
CB=Z+H RCR1140
C3=CA*CA/C2 RCR1150
C4=CB*CB/C2 RCR1160
IF (C3-50.) 230,240,240 RCR1170
230 A2=1./EXP(C3) RCR1180
240 IF (C4-50.) 250,260,260 RCR1190
250 A3=l./EXP(C4) RCR1200
260 SUM-0. RCR1210
TUL=2.*HL RCR1220
270 AN=AH+1. RCR1230
A4=0. RCR1240
A5=0. RCR1250
A6=0. RCR1260
A7=0. RCR1270
C5=At:*THL RCR1280
CC=CA-C5 RCK1290
C1J=CB-C5 RCR1300
CK-CA+C5 RCR1310
CF=CB+C5 RCR1320
C6=CC*CC/C2 RCR1330
C7=CD*CD/C2 RCR1340
Co=CE*CE/C2 UCR1350
C9=CF*CF/C2 RCR1360
IF (C6-50.) 230,290,290 RCR1370
280 A4=l./LXP(C6) RCR1380
290 IF (C7-50.) 31)0,310,310 RCR1390
300 A5=1./EXP(C7) RCR1400
310 IF (C3-50.) 320,330,330 RCR1410
320 A6 = l ./i:XF (C3) RCR1420
330 If (C9-50.) 340,350,350 RCR1430
340 A7 = l ./i:xr(C9) RCR1440
350 T=A4+A5+A6+A7 RCU1450
SUi: = SU![+T RCR1460
IF (T-0.01) 300,270,270 RCR1470
360 RC=Al*(A2+A3+SUi!) RCR1480
R;:TUR:I RCR1490
C CALCULATE MULTIPLE EDDY REFLECTIONS FOR GROUND LEVEL RECEPTOR RCR1500
C HEIGHT. HCR1510
370 Al=l./(6.28318*U*SY*SZ*C1) RCR1520
A2=0. RCK1530
C2=2.*SZ*SZ RCU1540
170
-------
3SO
390
400
C3 = K*tl/C2
IF (C3-50.) 330,3'JO,390
A2 = 2./F,XP(C3)
410
420
430
440
450
C '
460
A 4=0 .
A 0=0.
C5=A;i*THL
CC=H-C5
CE=H+C5
C6=CC»CC/C2
CG=CE*CE/C2
IF (C6-50.) 410,420,420
A4=2 . /EXP (C6)
IF (CC-50.) 430,440,440
A6=2. /EXP (Ca)
T=A4+A6
IF (T-0.01) 450,400,400
RC=A1* (A2+SIT1)
RETURN
FORMAT (lhO,'30TH 11 AND Z ARE ABOVE
IE COMPUTATION CAN NOT BE HADE.')
THE lilXIUG HEIGHT SO
RELIAI5L
EliD
P.CK1550
RCRl 560
RCR1570
RCRISSO
LCI! 1590
RCR1&00
RCU1510
RCK1620
KCR1630
RCR1G40
RCR1G50
RCR1G&0
P C111 6 7 0
RCR1680
RCR1690
? C R 1 7 0 0
RCRl 710
RCR1720
RCR1730
RCRl740
RCRl 750
R C R 1 7 6 0
UCK1770
RCR1730
RCRl790
RCRloOO
RCRl310
GUBROUTItlE PGSZ (X.KST.SZ) PGZ0010
C D. a. TURNER, EH VIRON11EUTAL AP PL 1C AT 1011S BRANCH PGZ0020
C METEOROLOGY LABORATORY, ENVIRONMENTAL PROTECTION AGENCY TG:i0030
C RESEARCH TRIANGLE PARK, N C 27711 PGZ0040
C (919) 549 - 8411, EXTENSION 4565 PCZ0050
C VERTICAL DISPERSION PARAMETER VALUE, SZ DETERMINED BY PCZ0060
C SZ = A * X ** B UlIERE A AND D ARE FUNCTIONS OF BOTH STABILITY PCZ0070
C AND RANGE OF X. , PGZ0080
C HORIZONTAL DISPERSION PARAMETER VALUE, SY DETERMINED BY PGZ0090
C LOGARITHMIC INTERPOLATION OF PLUME HALF-ANGLE ACCORDING TO PGZ0100
C DISTANCE AND CALCULATION OF 1/2.15 TIMES HALF-ARC LENGTH. PGZ0110
DIMENSION XA(7),XB(2),XD(5),XE(8),XF(9),AA(3),DA(8),AB(3),BB(3), PGZ0120
1 AD(6),BD(6),AE(9),BE(9),AF(10),BF(10) PCZ0130
DATA XA/.5,.4,.3,.25,.2, . 15, .!/ PCZ0140
DATA XB/.4..2/ PGZ0150
DATA XD /30.,10.,3.,1.,.3/ PGZ0160
DATA XE /40. ,20.,10. ,4. ,2.,1.,.3,.l/ PGZ0170
DATA XF /60.,30. ,15. ,7. ,3. ,2.,1.,.7,.2/ PGZ0180
DATA AA 7453.85,346.75,258.89,217.41,179.52,170.22,153.08,122.8/ PGZ0190
DATA BA /2. 1166, 1.7283, 1.4094, 1.2644, 1. 1262,1.0932, 1.0542,.94477 PCZ0200
DATA AB /109.30.98.483,90.673/ PGZ0210
DATA BB 71.0971,0.93332,0.931987 PGZ0220
DATA AD 744.053,36.650,33.504,32.093,32.093,34.4597 PCZ0230
DATA BD 70.51179,0.56589,0.60486,0.64403,0.81066,0.869747 PGZ0240
DATA AE 747.618,35.420,26.970,24.703,22.534,21.628,21.628,23.331, PGZ0250
1 24.26-7 PGZ0260
DATA BE 70.29592,0.37615,0.46713,0.50527,0.57154,0.63077,0.75660, PGZ0270
1 0.81956.0.8366/ PGZ0280
DATA AF 734.219,27.074,22.651,17.836,16.187,14.823,13.953,13.953, PGZ0290
1 14.457,15.2097 PGZ0300
DATA BF 70.21716,0.27436,0.32681,0.41507,0.46490,0.54503,0.63227, PGZ0310
171
-------
1 0.68465,0.78407,0.815587
GO TO (10,20,30,40,50,60),KST
J STABILITY A (10)
10 IF (X.GT.3.11) GO TO 69
DO 11 ID - 1,7
IF(X.GE.XA(ID)) GO TO 12
H CONTINUE
ID - 8
12 SZ - AA(ID) * X ** BA(ID)
GO TO 71
: STABILITY B (20)
20 IF(X.GT.35.) GO TO 69
DO 21 ID = 1,2
IF (X.GE.XB(ID)) GO TO 22
21 CONTINUE
ID - 3
22 SZ - AB(ID) * X ** BB(ID)
GO TO 70
: STABILITY C (30)
30 SZ - 61. 141 *X ** 0.91465
GO TO 70
; STABILITY D (40)
40 DO 41 ID » 1,5
IF (X.GE.XD(ID)) GO TO 42
CONTINUE
ID = 6
SZ = AD(ID) * X ** BD(ID)
GO TO 70
STABILITY E (50)
DO 51 ID = 1,8
IF (X.GE.XE(ID)) GO TO 52
CONTINUE
ID = 9
SZ = AE(ID) * X ** BE(ID)
GO TO 70
STABILITY F (60)
DO 61 ID = 1,9
IF (X.CE.XF(ID)) GO TO 62
CONTINUE
ID = 10
SZ = AF(ID) * X ** BF(IB)
GO TO 70
SZ = 5000.
GO TO 71
IF (SZ.GT.5000.) SZ = 5000.
71 RETURN
END
50
60
41
42
)
51
52
)
61
62
69
70
PGZ0320
PGZ0330
PGZ0340
PGZ0350
PGZ0360
PGZ0370
PGZ0380
PGZ0390
PGZ0400
PGZ0410
PGZ0420
PGZ0430
PGZ0440
PGZ0450
PGZ0460
PGZ0470
PGZ0480
PGZ0490
PGZ0500
PCZ0510
FCZ0520
PGZ0530
PGZ0540
PCZ0550
PGZ0560
PGZ0570
PGZ0580
PCZ0590-
PCZ0600
PGZ0610
PGZ0620
PCZ0630
PGZ0640
PCZ0650
PCZ06GO
PCZ0670
PGZ0680
PGZ0690
FCZ0700
PGZ0710
FGZ0720
PGZ0730
PGZ0740
PGZ0750
PGZ0760
PGZ0770
FGZ07SO
SUBROUTINE PCSYSZ (X,KST,SY,SZ ) PGYZ010
C D. B. TURNER, ENVIRONMENTAL APPLICATIONS BRANCH PGYZ020
C METEOROLOGY LABORATORY, El. V IRONMEliTAL PROTECTION AGENCY PCYZ030
C RESEARCH TRIANGLE PARK, N C 27711 PGY7.040
C (919) 549 - 8411, EXTENSION 4565 PCYZ050
C VERTICAL DISPERSION PARAMETER VALUE, SZ DETERMINED BY PCYZ060
C SZ = A * X ** 3 WHERE A AND B ARE FUNCTIONS OF LOTH STABILITY PGY2070
C AND RANGE OF X. PGYZ080
C HORIZONTAL DISPERSION PAKAt'ETER VALUE, SY DETERMINED CY PGYZ090
C LOGAHITalilC INTERPOLATION OF PLU1IE HALF-ANCLE ACCORDING TO PGYZ100
C DISTANCE AND CALCULATION OF 1/2.15 TI.iLS UALF-ARC LENGTH. PGYZ110
172
-------
10
11
12
20
21
22
30
40
41
42
50
51
52
DIMENSION XA(7 ) , XB(2) , XI) (5) , XE (8) , XF ( 9 ) , AA(3) , BA(G) ,AB(3) ,BB<3) ,
1 AD (6) , BD(6) , AE(9 ) , BE(9) ,AF(10) ,BF( 10)
DATA XA/. 5, .4, .3, .25, .2, .15,. I/
I'ATA XE/ .4, . 21
DATA XD /30. , 10. ,3. , 1. , .37
DATA XE /40. , 20. , 10. ,4. ,2. , 1. , . 3, . I/
DATA XF /60., 30. ,15. ,7. ,3. ,2.,!., .7, . 2/
DATA AA 7453. 35, 346. 75, 258. 89, 217. 41, 179. 52, 170. 22, 158. 03, 122. 8/
DATA 13 A /2. 1166, 1. 7233, 1.40 9 4,1. 2644, 1. 1262, 1.0 932, 1.05 4 2,. 9 4 47/
DATA AB 7109.30,92.483,90.6737
DATA CB 71.0971,0.98332,0.931987
DATA AD 744.053,36.650,33.504,32.093,32.093,34.4597
DATA 13!) 70.51179,0.56589,0.60486,0.64403,0.81066,0.369747
DATA A1-: 747. 618, 35. 420, 2 6. 970, 24. 703, 22. 534, 21. 628, 21. 628, 23. 331,
1 24.267
DATA BE /O. 295 92, 0.37615, 0.46713, 0.50527, 0.57154, 0.63077, 0.75660,
1 0.81956,0.83667
DATA AF 734. 219, 27. 074, 22. 651, 17. 336, 16. 187, 14. 823, 13. 953, 13. 953,
1 14.457,15.2097
DATA 13 F /O. 217 16, 0.27436,0. 32681, 0.41507, 0.46490, 0.54503, 0.63227,
1 0.60465,0.78407,0.815537
XY=X
GO TO (10, 20, 30, 40, 50, 60) ,KST
STABILITY A (10)
TU = (24.167 - 2. 5334*ALOG(XY) )/57. 2958
IF (X.CT. 3. 11) GO TO 69
DO 11 ID = 1,7
IF (X.GE. XA(ID) ) GO TO 12
CONTINUE
ID = a
SZ = AA(ID) * X ** BA(ID)
GO TO 71
STABILITY B (20)
TH = (18.333 - 1 . 8096*ALOG(XY) )/57. 2958
IF(X.GT.35.) GO TO 69
DO 21 ID = 1,2
IF (X.GE.XB(ID) ) GO TO 22
CONTINUE
ID = 3
SZ = AB(ID) * X ** BB(ID)
GO TO 70
STABILITY C (30)
TH = (12.5 - 1.0857*ALOG(XY))/57.2958
SZ = 61.141 *X ** 0. 91465
CO TO 70
STABILITY D (40)
TU = (8. 3333-0. 72382 *ALOG (XY) ) 75 7. 2958
DO 41 ID = 1,5
IF (X.GE.XD(ID) ) GO TO 42
CONTINUE
ID = 6
SZ = AD(ID) * X ** BD(ID)
GO TO 70
STABILITY E (50)
TH - (6.25 - 0.54287*ALOG(XY))/57.2958
DO 51 ID • 1,8
IF (X.GE.XE(ID) ) GO TO 52
CONTINUE
ID - 9
SZ - AE(ID) * X ** BE(ID)
GO TO 70
STABILITY F (60)
PGYZ 120
PGYZ 130
PGYZ 140
PGYZ 150
PGYZ 160
PGYZ 170
PGYZ 130
PGYZ 190
PGYZ200
PGYZ210
PGYZ220
PGYZ 2 30
PGYZ240
PCYZ250
PGYZ 2 60
PGYZ270
PGYZ230
PGYZ290
PGYZ300
PCYZ310
PGYZ320
PGYZ330
PGYZ340
PGYZ350
PGYZ360
PGYZ370
PGYZ380
PGYZ390
PGYZ400
PGYZ410
PGYZ420
PGYZ430
PGYZ 440
PGYZ'450
PGY2460
EGYZ470
PGYZ480
PCYZ490
PGYZ500
PGYZ510
PGYZ520
PGYZ530
PGYZ540
PGYZ550
PGYZ560
PGYZ570
PGYZ580
PGYZ590
PGYZ 600
PGYZ610
PGYZ620
PGYZ630
PGYZ640
PGYZ650
PGYZ660
PGYZ670
PGYZ680
PGYZ690
PGYZ700
PGYZ710
PGYZ720
PGYZ730
173
-------
60 TH - (4.1667 - 0. 361 91 *ALOG (XYM /57. 2958
DO 61 ID - 1,9
IF (X.GE.XF(ID) ) GO TO 62
61 CONTINUE
ID - 10
62 SZ - AF(ID) * X ** BF(ID)
GO TO 70
69 SZ = 5000.
GO TO 71
70 IF (SZ.GT.5000.) SZ - 5000.
71 SY - 465.116 * XY * SIN(Ttt) / COS(TH)
C 465.116 - 1000. (M/KM) / 2.15
RETURN
END
BLOCK DATA
C***COEFFICIENTS GENERATED WITH RURAL SIGMAS USING PGSYSZ & PGSZ
C***DISTANCE OF tlAX. CONC. FROM FT SOURCE=PXCOF (KST, IH) *I1**PXEXP (KST , IH)
C***RELATIVE CONC. NORMALIZED FOR WIND SPEED FROM PT SOURCE, CHI*U/Q, =
C*** PXUCOF(KST, IH) *H**PXUEXP (KST , IH)
C***DISTANCE OF MAX. CONC. FROM DOWNWIND EDGE OF AREA SOURCE =
C*** AXCOF(KST, IH)*H**AXEXP(KST,IH)
C*** IIi=l FOR 11 LESS THAN 20 METERS.
C*** IH = 2 FOR H FR01I 20 TO 30 METERS.
C*** IH = 3 FOR tl FROI1 30 TO 50 METERS.
c*** IH = 4 FOR 11 FROM 50 TO 70 METERS.
C*** IH = 5 FOR H FROM 70 TO 100 11ETERS.
C*** 111 = 6 FOR U FROM 100 TO 200 METERS.
C*** 111 = 7 FOR 11 FROM 200 TO 300 METERS.
C*** IH = 3 FOR 11 FROU 300 TO 500 11ETERS.
C*** IH=9 FOR H GREATER THAN 500 METERS.
C011MON /COEFFS/ PXCOF(6, 9) ,PXEXP(6, 9 ) , PXUCOF ( 6 , 9 ) , PXUEXP ( 6 , 9 ) ,
*AXCOF(6 , 9) ,AXEXP(6, 9) ,HCl (10)
DATA rxcor/
* .12743E-01,
* .S7095E-02,
* .76095C-02,
* .67199E-02,
* .14425E-U1,
* . 79956E-03,
* .15400E-02,
* . 12670E-02,
* .75225E-02,
* .104011: -01,
DATA P'T"P/
* . 12469E+01,
* . 12329E+01,
* . 109 J7E+01 ,
* . 10176E+01,
* .7331SL+00,
* . 21366E+01,
* . 17G73E+01 ,
* . 16753i: + 01 ,
* .10966E+01,
* . 91440E+00,
DATA PXUCOF/
* . 13355E+00,
* .1C239E+00,
* .13963L+00,
. 3S9G4E-02,
.21051E-01,
. 10152E-01,
. 14437E-01,
.75237E-02,
. 10509E-01 ,
.37139E-01,
. 14422E-03,
. 13342E-03,
.34390E-03,
. 74961E-02,
.109 95E + 0 1 ,
. 12577E+01 ,
. 13228E+01 ,
. 10843E+01 ,
. 10966E+01,
. 91 238E+QO,
. 53232E+00,
.25085E+01,
.22426E+01,
. 1 7455E+01,
. 10971E+01 ,
. 10401E+00,
. 1066SE + 00,
. 20453E+00,
. 1 91 62E+00,
.54607E-02,
.59088E-02,
.10867E-01,
.79376E-02,
.22618E-02,
.75283E-02,
.10418E-01,
.51107E-01,
.43952E-09,
. 10930E-06,
. 19441E-03,
. 10757E+0 1 ,
.96054E+00,
. 14784E+01,
. 13951E+01,
. 15582E+01,
. 10965E+01,
. 91427E+00,
.47257E+00,
.49057E+01,
.34951E+01,
. 19827E+01,
. 12133E+00,
.77533E-01,
. 34326E+00,
.38998E+00,
.75278E-02,
.50774E-02,
.59366E-02,
.10552E-01,
.38170E-02,
.22489E-02,
. 75363E-02,
. 10468E-01,
.50921E-01,
.13979E-02,
. 10S59E-04,
. 10965E+01 ,
. 11000E+01 ,
. 95916E+00,
.14870E+01,
. 15323E+01,
.15595E+01,
. 10963E+01,
.91337E+00,
.47321E+00,
.22807E+01,
.27551E+01,
. 14273E+00,
. 1 1728E+00,
.G7223E-01 ,
. 76271E+00,
.11563E-01,
.74442E-02,
.67049E-02,
.10739E-01,
.13053E-02,
.24006E-02,
. 17287E-02,
. 75324E-02,
.10472E-01,
.50996E-01,
.20000E+04/
. 1 1383E + 01 ,
. 11002E+01,
. 10132C+01,
.80763E+00,
.20212E+01,
. 16914E+01,
. 16166E+01,
.10964E+01,
.91331C-+00,
.47297E+00,
.OOOOOE+00/
. 1535113 + 00,
. 14120E+00,
. 10013E + 00,
.40434C-01 ,
PGYZ740
PGYZ750
PGYZ760
PCYZ770
PGYZ780
PGYZ790
PGYZ800
PGYZ810
PGYZ820
PGYZ830
PGYZ840
PGYZ850
PGYZ860
PGYZ870
BLKR010
BLKR020
BLKR030
BLKR040
BLKR050
BLKR060
BLKR070
BLKR080
BLKR090
BLKR100
BLKR110
BLKR120
BLKR130
BLKR140
BLKR150
BLKR160
BLKR170
BLKR180
BLKRJ90
BLKR200
BLKR210
BLK.R220
BLKR230
BLKR240
BLKR250
BLKR260
BLK.R270
B L KR 2 8 0
BLKR290
BLKR300
BLKR3IO
BLKR320
BL1CR330
BLKR340
BLKR350
ELKR360
3L1U1370
ELKR380
BLKR390
13LKR400
BLKR410
BHIR420
CLICR430
f,Li:R440
174
-------
* .75308E-01,
* .2S539E-01,
* . 56943E+01,
* . 2331SE + 01,
* . 10826E + 01 ,
* .12546E+00,
* .00615E-01,
DATA PXUEXP/ -.
* -.21822E+01, -.
* -. 21317E+01 , -.
* -.20017E+01, -.
* -. 13468K + 01, -.
* -. 15940E+01, -.
* -.3151 1E+01 , -.
* -.28678E+01, -.
* -.25514E+01, -.
* -.197932+01, -.
* -.1S012E+01, -.
DATA AXCOF/
* .17234E-01,
* .13875E-01,
* .1107912-01,
* .I3824E-01,
* .32619E-01,
* .73510E-06,
* .20868E-04,
* .11204E-02,
* .11153E-01,
* .13881E-01,
DATA AXF.XP/
* .13211E+01,
* .12332E+01,
* .10949E+01,
* .91206E+00,
* .53703E+00,
* .41392E+01,
* .29494E+01,
* .18483E+01,
* .10932E+01,
* .91129E+00,
DATA HCl/10. ,20.
END
13784C+00,
66936E-01,
14792E-01,
40940E+03,
77020E+02,
15530E+01,
11952E+00,
19460E+01, -.
22176E+01, -.
22094E+01, -.
21462E+01, -.
19984E+01, -.
18191E+01, -.
14513E+01, -.
40795E+01, -.
34879E+01, -.
26152E+01, -.
19721E+01, -.
68365E-02,
197U3E-01,
91114E-02,
53876E-02,
11267E-01,
13833E-01,
53524E-01,
23987E-05,
21361E-05,
61073E-03,
11140E-01,
10103E+01,
14994E+01,
15339E+01,
15113E+01,
10906E+01,
91191E+00,
47949E+00,
33412E+01,
33796E+01,
19546E+01,
10933E+01,
,30. ,50. ,70. ,
54357E+00,
13615E+00,
65799E-01 ,
12403E-01,
2301 1E+05,
68810i:+03,
22517E+01,
19774E+01 ,
18479E+01,
24209E+01,
23991E+01,
24120E+01 ,
19955E+01 ,
13153E+01,
14131E+01 ,
48399E+01 ,
33719E+01,
26744E+01 ,
79134E-02,
92054E-02,
65416E-02,
48999E-02,
42195E-02,
11119E-01,
13321E-01 ,
55881E-01,
20000E+04,
10114E-03,
61554E-03,
1074SE+01 ,
91095E+00,
18689E+01 ,
17163E+01,
15738E+01 ,
10937E+01,
91210E+00,
47136E+00,
OOOOOE+00,
27033E+01,
19534E+01,
100. ,200. ,
. 72550E+00,
.52790E+00,
.13315E+00,
.64321E-01,
.12340E-01,
.46522E+06,
.42342E+03,
-.20086E+01, -.
-.196C1E+01, -.
-. 18060E+01 , -.
-.26556E+01, -.
-.25573E+01, -.
-.24059E+01, -.
-. 1990712 + 01 , -.
-.18111E+01, -.
-.14172E+01, -.
-.53670E+01, -.
-.37956E+01, -.
.11062E-01,
. 94211E-02,
.12311E-01,
,170o7E-02,
.17526E-02,
.30122E-02,
.11115E-01,
.13920E-01,
.55160E-01,
.20000E+04,
.20000E+04,
.10960E+01,
.10166E+01,
.82547E+00,
.22636E+01,
.19791E+01,
.16531E+01,
.10938E+01,
.91075E+00,
.47363E+00,
.OOOOOE+00,
.OOOOOE+00,
300. ,500. ,1000. /
22936E+01,
1290SE+01,
74332E+00,
12927E+00,
62874E-01 ,
12245E-01,
OOOOOE+00/
20742E+01 ,
20050E+01,
19196E+01 ,
16763E+01 ,
29371E+01 ,
26934E+01,
2421 7E+01 ,
19851E+U1,
13071E+01,
14160E+01 ,
17020E+02/
14818E-01 ,
11254E-01,
11 151E-01 ,
19297E-01,
13715E-03,
11144E-02,
22334E-02,
11152E-01,
13833E-01,
55799E-01,
20000E+04/
12112E+01*
10903E+01,
96699E+00,
71059E+00,
29084E+01 ,
20356E+01 ,
1 7131E+01 ,
10932E+01,
911 7SE+00,
471 78E+00,
OOOOOE+00/
B L 1CR 450
BLi:U460
BLKR470
BLUR 4 30
B L RR 490
RLKR500
BLURS 10
BL1CK520
BLKR530
B L KG 540
BLKR550
BLKR560
15 L KR 570
BLRR580
BLKR590
HLKRGOO
1SLKR610
BLKR620
BLKR630
B L RR 6 4 0
BLUR650
B L KR 660
B L RR 670
BLKR680
BLKR690
BLRR700
BLKR710
13LRR720
BLRR730
BLRR740
BLKR750
BLUR 760
B L RR 7 7 0
DLRR780
ELKR790
BLt'.RSOO
BLKR810
BLKK320
ELKRS30
DLKR840
BLKR850
BLKR860
175
-------
RAMFR PROGRAM LISTING
.H., AMD
VOL. 26, NO.
DETERMINE
POINT ANP
6,
C*** RURAL BATCH VERSIOH ( 7 3 1 24 ) OF RAMFR
C***RAMFR IS THE RURAL VERSION OF RAM WHICH PRODUCES OUTPUT TO TAPE
C***OR DISK FOR PLOTTING CUMULATIVE FREQUENCY DISTRIBUTIONS FOR A YEAR.
C***RAM IS AN EFFICIENT GAUSSIAN-PLUME MULTIPLE-SOURCE
C***AIR QUALITY ALGORITHM. RAM IS DESCRIBED IN: NOVAK, J
C***TURHER,D.B. , 1976: AIR POLLUTION CONTROL ASSOC. J . ,
C***PAGES 570-575(JU1JE 1976). RAM'S PRINCIPAL USE IS TO
C***SHORT TERM(ONE-HOUR TO ONE-DAY) CONCENTRATIONS FROM
C.***AREA SOURCES IN URBAN AREAS.
C***SEE RAM GLOSSARY FOR DEFINITIONS OF VARIABLES.
C***
C*** POINT SOURCE INFORMATION
C***
SOURCES) 1=EAST CO-ORD(USER UNITS)
2-NORTH CO-ORD(USER UNITS)
3=S02 EMISSION RATE(C/SEC)
4=PART EMISSION RATE(G/SEC)
5=STACK HEIGHT(M)
6 -STACK
7=STACK
8=STACK
C***SOURCE(9,#PT
C***
C***
C***
C***
C***
C***
C***
C***
C***PNAME
C*** AREA
TEMP(K)
DIAM(M)
VELOCITY(M/S)
9=PARTIAL CALCULATION OF BUOYANCY
12 CHARACTER PL'ANT IDENTIFICATION
SOURCE INFORMATION
C***ASORC(6 , //AREA
C***
c***
c***
c***
c***
COMMON
SOURCES) 1=X CO-ORD(USER UNITS), SOUTHWEST CORNER
2=Y CO-ORD(USER UNITS), SOUTHWEST CORNER
3=S02 EMISSION RATE(G/SEC)
4=PART EMISSION RATE(C/SEC)
5=SIDE LENGTH(USER UNITS)
&=STACK HEIGHT(M)
/COEFFS/ PXCOF(6,9),PXEXP(6,9),PXUCOF(6,9),PXUEXP(6,9),AXCO
IF(6, 9) ,AXEXP(6,9) ,HC1(10)
COMMON /RELC/ CIU(3,200)
COMM01I /SOUC/ IA(25,25),SOURCE(9,250),ASORC(6,100),UNITS,COIJTUO.RR
1EC(150),SREC(150),MPS(25),MAS(10),IOPT(13),I POL,URECEP,RMI1J,RMAX,S
2MIIJ, SMAX.IRSIZE, I SSIZ E, HPT , HAS , IISIGP , I! SIGA , PNAME ( 2 , 250),PSAV(250)
COMMOII /METCON/ ACH1(150),PCH1(150),ASICS(150,11),rSIGS(150,26),IA
1SIGS(100),IPSIGS(250).THETA.U,KST.HL.TEMP,SINT,COST,BPH(2),IWD.PAK
2TC (250) .AHCllI (150),PUC[1I(150),AI1SIGS(150,11),P11SIGS(150,26),PL(6)
COMMON /HEIGHT/ HIUT ( 3) , HARE ( 3 ) , BPHM ( 2 ) , Fll
QTHETA(24),QU(24),IKST(24),QHL(24),QTEMP(24),IDATE
/METDAT/
/11CGRID/
/SUM/ AN1
COMMON
1(2)
COMMON
COtlMON
COMMON
DIMENS
12,24), Li:iEl(
225), IMAS(IO)
1IRMIH,HRMAX,HSMIH,IISMAX
SUM (150), DMAX(2,5, 150),
UMAX ( 3 , 5 , 1 50 )
ITYPE(150),ICODE(150),IN, 10 , N IP , HID , i:AVG
ION IFREQ(7), DEG(3), HSAV(250), RHAUE(2,50)
Li:iEl(14), LINE2(14), LIIJE3(14), MODEL(2), USAV(250),
URilEC(150), USRLC(ISO), TITLE(2), GUA1!DS(150)
DUMR(24), HLH(
DATA IFREQ /7*0/ ,DEG /9 0 . , 1 SO . , 2 70 . / ,IC,'1AR /'I'/
DATA PL/0.07,0.07,0.10,0.15,0.35,0.55/
DATA MODEL /'P.URAL ",'URLAli '/ ,TITLL /' £02 ','
I1UECEP = 0
PART '/
RFR0010
RFR0020
RFR0030
RFR0040
RFR0050
RFR0060
RFR0070
RFR0080
RFR0090
RFR0100
RFR0110
RFR0120
RFR0130
RFR0140
RFR0150
RFR0160
RFR0170
RFR0180
RFR0190
RFR0200
RFR0210
RFR0220
RFR0230
RFR0240
RFR0250
RFR0260
RFR0270
RFR0230
RFR0290
R-FR0300
RFR0310
RFR0320
RFR0330
RFR0340
RFR0350
RFR0360
UFR0370
RFR0300
RFR0390
RFH0400
RFR0410
RFR0420
RFR0430
RFR0440
RFR0450
RFR0460
RFR0470
RFR0480
RFR0490
RFRU500
RFR0510
R?R0520
RFR0530
176
-------
111 = 5
10 = 6
C***NID-DISK OR TAPE INPUT OF PREPROCEGSED ElIISSIOII DATA.
C***I50 RECEPTORS, 250 POIHT SOURCES AND 100 AREA SOURCES
C***i: IT-DISK INPUT OF MET DATA
C***UiIIT 12 TAPE/DISK OUTPUT OF HOURLY CONCENTRATIONS
C***U:iIT 13 TAPE/DISK OUTPUT OF DAILY CONCENTRATIONS
C***UIJIT 14 DISK OUTPUT OF SUMMARY DATA
C***UNIT 15 - TAPE/DISK I1IPUT OF HOURLY POINT SOURCE EMIS
C***UHIT 16 - TAPE/DISK INPUT OF HOURLY AREA SOURCE EMISS
C***
C***
C***
C***
t:iT = li
C***T1IREE SYSTEMS OF LENGTH AND COORDINATES ARE USED IN
C*** THE FIRST SYSTEM, USER UNITS, IS SELECTED BY THE USER
C*** NORMALLY USE THE COORDINATE SYSTEM OF THE EMISSION
ALL LOCATIONS INPUT BY THE USER(SUCH AS SOURCES AND
ARE IN THIS SYSTEM. ALSO AS A CONVENIENCE TO THE USER
LOCATIONS ON OUTPUT ARE ALSO IN THIS SYSTEM.
THE SECOND SYSTEM, INTERNAL UNITS, IS USED INTERNALLY
FOR COORDINATE LOCATIONS AND DISTANCES. ONE INTERNAL
SIDE LENGTH OF THE SMALLEST AREA SOURCE SQUARE. THIS
BE IDENTIFIED AND SPECIFIED BY THE USER. THE PURPOSE
INTERNAL UNITS IS TO HAVE A CORRESPONDENCE BETWEEN
COORDINATES) AND PARTICULAR AREA SOURCE POSITIONS.
ACCOMPLISHED THROUGH THE USE OF THE AREA SOURCE MAP
). THIS ALLOWS DETERMINATION AS TO WITHIN WHICH AREA
COORDINATE POINT RESIDES.
THE THIRD SYSTEM, X,Y, IS AN UPWIND, CROSSWIND COOR
WITH REFERENCE TO EACH RECEPTOR. THE X-AXIS IS DI
(SAME AS WIND DIRECTION FOR THE PERIOD). Ill ORDER TO
DISPERSION PARAMETER VALUES AND EVALUATE EQUATIONS
CONCENTRATIONS, DISTANCES IN THIS SYSTEM MUST BE IN
c***
C***
C***
C***
C***
C***
C***
C***
C***
C***
C***READ CARDS 1-3, IDENTIFICATION FOR TITLES.
READ (IN, 940) LINEl,LIt!E2,LINE3
WRITE (10,950) LIHE1.LINE2.LIHE3
C***MODL IS INDICATOR FOR RURAL VERSION
MODL-1
WRITE (10,960)
C***READ RAMQ OUTPUT FROM DISK OR TAPE; DATA IN INTERNAL UNITS
READ (HID) UNITS, CONTWO , CONOHE , I POL , N PT , IMPS, PNAME , IMOD
C***VERSIOH COMPATIBLE WITH RAMQ OUTPUT?
IF (IMOD.EQ.MODL) GO TO 10
WRITE (10,1000) MODEL(IMOD) .MODEL(MODL)
CALL EXIT
C***CONTINUE READING DATA TRANSFERRED FROM RAMQ.
10 DO 20 1=1 , 9
20 READ (NID) (SOURCE ( I , J ), J = l , HPT )
READ (NID) HAS, IMAS , RMIN, RHAX, SHIN , SMAX, IRSIZE, ISSIZE
DO 30 1=1,6
30 READ (HID) ( ASORC ( I , J ) , J-l , NAS )'
DO 40 1=1, IRSIZE
40 READ (NID) (I A ( I , J ) , J-l , ISSIZ E )
C***
C***READ CARD 4.
C***OPTION LIST***(SEE RUN STREAM EXAMPLES .OF RAM FOR DETAILED
C***DESCRIPTIOH OF INPUT VARIABLES).
C***HAVG IS INTERMEDIATE AVERAGING TIME IN HOURS'
C***HAFL IS POLLUTANT HALF-LIFE IN SECONDS
READ (IN, 970) IOPT , NPER.NAVG , Z ,HAFL .NSIGP.NSICA , IDATE, IHS-TRT
WRITE (10,1030) (I, IOPT(I), 1-1,13)
LIMITED TO:
IONS
ONS
,M: „
. AND
NVENTORY.
RECEPTORS )
R ALL
IN RAM
UNIT IS THE
LENGTH MUST
; or USING
,OCATION (GRID
'HIS IS
ARRAY (IA ARRAY
SOURCE ANY
ATE SYSTEM
TED UPWIND
DETERMINE
OR
KILOMETERS.
HITS.
MOD
E
ILED
E.IHS-TRT
RFR0540
RFR0550
RFR0560
RFR0570
RFR0580
RFR0590
RFR0600
RFR0610
RFR0620
RFR0630
RFR0640
RFR0650
RFR0630
RFR0670
RFR0680
RFR0690
RFR0700
RFR071 0
RFR0720
RFR0730
RFR0740
RFR0750
RFR0760
RFR0770
RFR0780
RFR0790
RFR0800
RFR0810
RFR0820
RFR0830
RFR0840
RFR0850
RFR0860
RFR0870
RFR,0880
RFff0890
RFR0900
RFR0910
RFR0920
RFR0930
RFR0940
RFR0950
RFR0960
RFR0970
RFR0980
RFR0990
RFR1000
RFR1010
RFR1020
RFR1030
RFR1040
RFR1050
RER1060
RFR1070
RFR1080
RFR1090
RFR-1 100
RFR11 10
RFR1120
RFR1130'
RFR1140
RFR1150
177
-------
NDAYS=NAVG*NPER/24
TLOS=693. /HAFL
C***693. - 0.693*1000 METERS/KM, TLOS IN METERS/KM-SEC .
IF (NAVG.EQ.O) CALL EXIT
C***READ SFC MET. STATION ID AND 2-DIGIT YEAR,
C***MIXING HEIGHT STATION AND 2-DIGIT YEAR
C***ONLY IF MET DATA IS FROM RAMMET
IF (lOPT(ll).EQ. 1) GO TO 60 .
C***READ CARD TYPE 5 UNLESS USING OPTION 11.
READ (IN, 970) ISFCD,ISFCYR,IMXD,IMXYR
C***T11E ABOVE FORMAT IS UNIVACS FRE£--FI£tD IUPUT.
C***VARIABLES MUST BE SEPARATED BY COMMAS.
C***THIS IS SIMILAR TO IBM'S LIST DIRECTED 10.
C***CHECK TO INSURE CORRECT SURFACE DATA, MIXING HT. DATA, AND
-C**-*PREPROCESSOR ARE -BE ING USED.
C***READ IDENTIFICATION RECORD FROM PREPROCESSED MET DISK OR TAPE FILE
READ (NIT) ID, IYEAR, IDM , IYM
IF (ISFCD.EQ. ID. AND. ISFCYR.EQ. IYEAR) GO TO 50
WRITE (10,980) ISFCD.ISFCYR, ID, IYEAR
CALL EXIT
50 IF (IMXD. EQ. IDM. AND. IMXYR.EQ. IYM) GO TO 60
WRITE (10,990) IMXD, IHXYR , IDM, IYM
CALL EXIT
60 IP=IPOL-2
WRITE (10,780) UHITS, CONONE , COHTWO , T ITLE (IP ) ,IPOL
C***ECUO INPUT PARAMETERS
WRITE (10,790) NPER,NAVG,IDATE(2) ,IDATE(1 ) , IUSTRT , Z , 11AFL
IF (IOPT(11) .EQ. 0) WRITE (10,300) I SFCD , ISFC YR , IMXD , IMXYR
WRITE (10,810)
C***IOPT(1) CONTROL OPTIOII, POINT SOURCE INPUT? 0=NO, 1-YES.
C***IF NO POINT SOURCES, SKIP DOWN TO AREA SOURCE CODE.
IF (IOPT(1) .EQ. 0) GO TO 150
C***IOPT(12) CONTROL OPTION, SPECIFY SIGNIFICANT POINT SOURCE NUMBERS
C***Q=tJO, 1=YES.
IF (IOPT (12) .EQ. 0) GO TO 80
C***RLAD CARD TYPE 6 IF USING OPTIONS 1 AND 12.
C***READ THE NUMBER OF SIGNIFICANT POINT SOURCES THAT USER WANTS TO
C***SPF.CIFY AND THE NUMBER DESIGNATIONS OF THOSE SOURCES.
READ (111,870) I1IPT, (!1PS (I) , 1 = 1 ,IKPT)
IF (INPT.EQ.O) CO TO 80
IF (HPS (INPT) .EQ. 0) WRITE (10,880)
J = II1PT + 1
K = l
C***ADD SIGNIFICANT SOURCES DETERMINED FROM SIGNIFICANT SOURCE LIST
C***IF NSIG11 GREATER THAU 11IPT.
IF (J.CT.NSICP)
DO 70 I=J,NSIGP
riPS (I )=IMPS (K)
GO TO 100
70 K = K+1
GO TO 100
SO JO 90 I=1,HSIGP
90 TIPS (I )=I1!PS (I )
100 WHITE (10,950) LIN
WHITE (10,820) t!PT
WRITE (10,1050)
IF (IOPT (13) . EQ. 0) GO To'l20
C***SAVE AVERAGE EMISSION RATE
DO 110 I=l,:iPT
110 PSAV(I)=SOURCE(irOL,I)
C***WKITE OUT POINT SOURCE LIST.
120 DO 130 1=1, NPT
C***COHVERT TO USER UNITS FOR PRINT
1,LINE2,LINE3
NSIGP, ( IM P S ( I ) , I = 1 , IJ 3 IG P )
OUT
RFR1160
RFR1170
RFR1180
RFR1190
RFR1200
RFR1210
RFR1220
RFR1230
RFR1240
RFR1250
RFR1260
RFR1270
RFR1280
RFR1290
RFR1300
RFR1310
RFR1320
RFR1330
RFR1340
RFR1350
RFR1360
RFR1370
RFR1380"
RFR1390
RFR1400'
RFR1410
RFR1420
RFR1430
RFR1440
RFR1450
RFR1460
RFR1470
RFR1480
RFR1490
RFR1500
RFR1510
RFR1520
RFR1530
RFR1540
RFR1550
RFR1560
RFR1570
RFR1580
RFR1590
RFR1600
RFR1610
RFR1620
RFR1630
It FR 16 40
RFR1650
UFR1660
RFR1670
F.FR16SO
RFR1600
RFR1700
RFR1710
RFR1720
P.FIU730
RFR1740
RFR1750
KFR1760
RFR1770
178
-------
C 1 = SOURCE(1 , I ) *Ui;iTS
C2=SOURCE(2,I)*UNITS
I'RITE (10, 1060) I, (PNA;iE(L,I),L = l,2) , C 1 , C 2 , ( SOURCE (K, I ) , K=3 , J )
IPSICS(I)=0
130 CONTINUE
C***FILL IK SIGNIFICANT POINT SOURCE ARRAY
DO 140 I=1,NSIGP
SKIP DOWN
GO TO 260
USING
LIh 'I!
140 IPSIGS(J)=I
C***IOPT(2) CO.'ITROL OPTION,
.C***IF HO AREA SOURCES,
150 IF (IOPT(2).EQ.0)
C***READ CARD TYPE 7 IF
READ (111,970) FH,
NTSP=NIlTS-l
IF (HDP.LE.O) NBP=1
C***RKAD CARD TYPE 8 IF USING
KEAD (IN, 970)
C***CONVERT TO USER
C l=RHIi;*UNITS
C2 = RMAX*Ui;iTS
C3=SHIN*UNITS
AREA SOURCE 11! PUT?
INPUTTING
0=1,0, 1=YES.
RECEPTORS.
OPTION
T S , (i! 11
= 1 .IiHTS)
OPTION 2.
(BPIl(I) ,1 = 1 ,1IBP)
UNITS FOR PRINT OUT. XL IK IS CONVERTED TO Kit,
C5 = XLI»i
'./RITE (10,950) LINE1,LINE2,LINE3
XLI!! = XLIii*COi;ONE
IF (XLIK.LT. 116. ) CO TO 160
'..'RITE (10,1040) XL II!
CALL EXIT
C***IOPT(12) CONTROL OPTION, SPECIFY SIGNIFICANT POINT SOURCES? 0=NO,
C*** 1=YES.
160 IF (IOPT(12).EQ.0) CO TO 180
C***RCAD THE HUHBER OF SIGNIFICANT AREA SOURCES THAT USER
C***WANTS TO SPECIFY AND TilE NU1IKER DESIGNATIONS OF THOSE SOURCES.
C***READ CARD TYPE 9 IF USING OPTIONS 2 AND 12.
READ (IN,870) INAS,(HAS(I),I=1,INAS)
IF (INAS.EQ.O) CO TO 180
IF (HAS(INAS).EQ.0) WRITE (10,890)
J = II!AS + 1
K=l
IF (J.GT.HSIGA) GO TO 200
DO 170 I=J,HSIGA
HAS(I)=IHAS(K.)
170 K=K+1
CO TO 200
C***ADD SIGNIFICAIIT SOURCES DETERMINED FROH
C***IF HSIGA GREATER THAN IHAS.
SIGNIFICANT SOURCE LIST
180 DO 190 1=1,HSIGA
190 HAS(I)=IHAS(I)
200 WRITE (10,830)
WRITE (10,840)
WRITE (10,850)
WRITE (10,860)
C***IF IA ARRAY TOO
N AS, N SIC A, (II1AS (I) ,1 = 1 , HSIGA)
K11TS, (HINT (I ) , 1 = 1 , IJHTS)
(BPH(I),1=1,NBP)
FI1,C5,C1,C2,C3,C4,IRSIZE,ISSIZE
LARGE TO BE PRINTED AS A HAP, PRINTING
IS SKIPPED.
IF (IRSIZE.GT.41) GO TO 220
C***PRIHT OUT AREA SOURCE HAP ARRAY.
WRITE (10,1010)
JLIM=ISSIZE+1
DO 210 -JDU11 = 1 ,ISSIZE
J=JLIH-JI)UII
210 WRITE (10,1020) J,(IA(I,J),1-1,IRSIZE)
>;RITE (10,1190) (i, 1 = 1,IRSIZE)
RFP.1780
PFR1790
RFR1800
IU-R1810
KFR1820
IIFR1830
".FR1840
!'.FR1850
RFR1860
.1FR1870
RFR1300
RFR1890
RF111900
r.r'iigio
P.FR1920
I-.FR1930
UFR1940
RFR1 950
RFR1960
R F R 1 9 7 0
RFR1980
RFR1990
RFR2000
P.Fr.20 10
RFR2020
UFR2030
RFR2040
P. F R 2 0 5 0
RFP.2060
R F R 2 0 7 0
UFR2030
RFR2090
RFR2100
RFR2110
UFR2120
RFR2130
RFR2140
RFR2150
RFR2160
RFR2170
RFR2180
RFR2190
RFR2200
P.FR2210
RFR2220
RFR2230
RFR2240
RFR2250
RFR2260
RFR2270
RFR228
RFR229U
RFR2300
RFR2310
RFR232C
RFR2330
RFR2340
RFR2350
RFR2360
RFR2370
RFR2380
RFR2390
179
-------
GO TO 230
220 WRITE (10,930)
C***WRITE OUT THE AREA SOURCE LIST.
230 WRITE (10,1070)
DO 240 I-l.NAS
C***CONVERT TO USER UNITS FOR PRINT OUT
C1=ASORC(1,I)*UNITS
C2=ASORC(2,I)*UNITS
C3=ASORC(5,I)*UNITS
WRITE (10,1080) I.C1.C2, (ASORC(K, I) ,K=3,4) , C3, ASORC ( 6 , I )
C***SIDE LENGTH IS MULTIPLIED BY .5 TO SAVE TIME IN LATER COMPUTATIONS
ASORC(5,I)=ASORC(5,I)*0.5
IASIGS(I)=0
240 GONII-NUE
C***FILL IN SIGNIFICANT AREA SOURCE MARKER ARRAY
DO 250 I=1,HSICA
J=MAS(I)
250 IASIGS(J)=I
C***INPUT PERMANENT RECEPTORS
C***ioPT(3) CONTROL OPTION, SPECIFIED RECEPTORS? 0 = NO, 1 = YES.
260 IF (IOPT(3).EQ.O) GO TO 300
270 NRECEP-NRECEP+1
IF (NRECEP.GT. 150) CO TO 280
C***READ COORDINATES IN USER UNITS
C***ATTEHTION USER: DON'T SPECIFY A RECEPTOR AT ORIGIN AS A BLANK CARD
C***IS USED TO INDICATE ALL RECEPTORS HAVE BEEN READ.
C***READ CARD TYPE 10 IF USING OPTION 3.
READ (111,1090) (RNAME(J,'NRECEP) , J = l , 2) , URREC (NRECEP ) , USREC (NREC EP )
C***BLANK CARD OR RECEPTOR AT ORIGIN SIGNALS ALL PERMANENT RECEPTORS
C***HAVE BEEN ENTERED.
IF (URREC(NRECEP)+USREC(NRECEP) .LE. 0. 001 ) GO TO 280
CO TO 270
280 HRECEP-NRECEP-1
C***SAVE NUMBER OF PERMANENT RECEPTORS
NPREOMRECEP
C***PRIHT OUT TABLE OF PERMANENT RECEPTORS***
WRITE (10,950) LINE1,LINE2,LIHE3
WRITE (10,1100)
C***THE CHARACTER "I" INDICATES THAT THESE RECEPTORS WERE INPUT INTO
C***THE MODEL.
DO 290 U-l, NRECEP
ITYPE (K)-ICHAR
WRITE (10,1110) K, ITYPE (K) , (RHAME(J.K) , J-l , 2) ,URREC(K) ,USREC(K)
C***COHVERT TO INTERNAL UNITS
RREC (K)=URREC (K) /UNITS
SREC(K)=USREC(K.) /UNITS
290 ICODE(K)=0
C***IF NEITHER POINT OR AREA SOURCES WERE S PECIFI ED , EXIT PROGRAM.
300 IF ( (IOPT(1 ) + IOPT(2) ) .HE. 0) GO TO 301
WRITE (10,1120)
CALL EXIT
C***READ It! THE NUMBER OF DAYS ALREADY PROCESSED AND LAST DAY TO EC
C***PROCESSED THIS RUN
301 READ( IN, 970) IDAY.LDRUI!
WRITE (10, 1200) IDAY.LDRUN
IF(IDAY.LE. 0) CO TO 310
C***POSITION OUTPUT FILES PAST LAST DAY PROCESSED
DO 302 I = 1,IS1CIP
302 READ (13)
DO .03 I = l,ISi:iP
RFR2400
RFR2410
RFR2420
RFR2430
RFR2440
RFR2450
RFR2460
RFR2470
RFR2480
RFR2490
RFR2500
RFR2510
RFR2520
RIVR2530
RFR2540
RFR2550
RFR2560
RFR2570
RFR2580
RFR2590
RFR2600
RFR2610
RFR2620
RFR2630
RFR2640
RFR2650
RFR2660
RFR2670
RFR2680
RFR2690-
RFR2700
RFR2710
RFR2720
RFR2730
RFR2740
RFR2750
KFR2760
KFR2770
RFR2780
RFR2790
RFR2800
RFR2310
RFR2820
RFR2830
RFR2840
RFR2850
RFR2360
RFR2870
F.FR2830
RFR2C90
RFR2900
RFR2910
HFR2920
RFR2930
RFR2'J40
RFR2950
RFR2960
RFR2970
RTR2980
Itrr.2990
RFr.3000
RFR3010
180
-------
303 READ(12)
C***UEA1) SUMMARY INFORMATION
READ (14) I DAYS , ANN SUM , DMAX,H1IAX
REWIND 14
IF(IDAY.EQ.IDAYS) GO TO 304
WRITE(1210) IDAY.IDAYS
CALL EXIT
304 IF(IOPT(13).EQ.O) GO TO 308
C***POSITIOM HOURLY EMISSION FILES
ISKIP=ISKIP-2
IF(IOPT (1).EQ.0) GO TO 306
DO 305 I=1,ISKIP
305 READ(15)
306 IF(IOPT(2).EQ.0) GO TO 303
DO 307 I = 1,1 SKIP
307 READ(16)
C***IOPT(11) CONTROL OPTION, READ
303 IF(IOPT(1 1 ).EQ. 1) GO TO 360
C***POSITIOIi MET FILE TO CORRECT POSITION
DO 309 1=1,IDAY
309 READ(NIT) JYR
GO TO 360
C * * * I N IT IA L IZ A T10 N
G'***1,'RITE INITIAL IDENTIFICATION RECORDS ON OUTPUT TAPE & DISK
310 WRITE (13) NDAYS,LINE 1,LIHE2,LINE 3
NRECEP,(URREC(I),1=1.NRECEP),(USREC(J),J=1,NRECEP)
11DAYS,LINE1,LINE2,LI1IE3
MRECEP, (URREC(I) ,1 = 1,NRECEP), (USREC(J),J-l.NRECEP)
MET. DATA FROII CARDS? U=NO, 1=YES.
\;RITE
WRITE
WRITE
360
(13)
(12)
(12)
IDAY=IDAY+1
N11RS = 0
IF (IUPT(11).EQ.1) CO TO 400
C***II
-------
C***READ MET DATA FROM CARDS WITH FREE FORMAT RFR3640
C***READ CARD TYPE 12 IF USING OPTION 11 ; JHR REDEFINED FROM METCARD. RFR3650
READ (IN,970) JYR.DAY1,JHR,IKST(JHR),QU(JHR),QTEMP(JHR),QTHETA(JHR RFR3660
l).QHL(JHR) RFR3670
IF (I.NE.NB) GO TO 430 RFR3680
IDATE(1)-JYR RFR3690
IHSTRT=JHR RFR3700
ISTDAY=DAY1 RFR3710
IDATE(2)-ISTDAY RFR3720
430 IF(I.EQ.NB) WRITE (10,1130) IDA.TE RFR3730
TRAD°QTHETA(JHR)*0.01745329 RFR3740
IF(IKST(JHR) .EQ. 7) IKST(J1IR)=6 RFR3750
WRITE (10,1140) JHR,QTHETA(JHR),QU(JHR),QHL(JHR),QTEMP(JHR),IKST(J RFR3760
1HR) RFR3770
SINT=SIN(TRAD) RFR3780
COST=COS(TRAD) RFR3790
C***CALCULATE WIND COMPONENTS RFR3800
URES=QU(J11R) RFR3810
UR=URES*SINT RFR3820
VR=URES*COST RFR3830
DELM=DEL1I+UR RFR384Q.
DELt]=DELN+VR RFR3856
TEUP=TEMP+QTEMP(JHR) RFR3860
U=U+URES RFR3870
KST=IKST(JHR) RFR3830
440 IFKEQO'ST)=IFREQ(KST) + 1 RFR3890
C***REDETINE HB AND HE IN CASE NON-CONSECUTIVE DAYS ARE BEING RUN RFR3900
IF(IOPT(11).EQ.O) GO TO 441 RFR3910
NB = IIISTRT RER3920
IIE = IHSTItT+NAVG-l RFR3930
C***CALCULATE RESULTANT WIND DIRECTION TUETA RFR3940
441 DELli=DELN/NAVG RFR3950
DELil=DELU/NAVG RFR3960
THETA=AliGARC(DELH,DELM) RFR3970
C***CALCULATE AVERAGE AND RESULTANT SPEED RFR3980
U=U/11AVG RFR3990
TEIlP=TEUP/f]AVG RFR4000
URES = SQRT(DELt!*DELH+DELll*DELII) RFR4010
PERSIS=URES/U RFR4020
C***DETERUIHC 1IODAL A1ID AVERAGE STABILITY RFR4030
LS1IAX=0 RFR4040
DO 450 1=1,7 RFR4050
LST = iniEQ(I) RFR4060
IF (LST.LE.LSMAX) GO TO 450 RFR4070
LSMAX-LST RFR4080
LSTAB=I RFR4090
456 CONTINUE RFR4100
IP1=LSTAB+1 HFR4110
KST=LSTA3 RFU4120
DO 460 I=IP1,7 RFR4130
IF (LSMAX.EQ.IFREQ(1)) CO TO 470 RFR4140
460 COUTItiUE RFR4150
CO TO 490 RFR4160
C***ir TIE FOR 11AX MODAL STABILITY CALCULATE AVERAGE STABILITY RFR4170
470 KGUH=0 RFR41CO
DO 480 J = l , 7 RFR4190
4SO KSUh=KSUlI+IFRIiq(J) *J RFR4200
KST = FLOAT(KSU1I) /FLOAT (NAVG) + 0 . 5 RFR4210
C***OUTPUT REGULTAl.'T !I£T CONDITIONS*** RFK4220
490 I/RITE (10,1150) RFR4230
WRITE (10,1160) THETA,URES,U,TElir,PERSIS,KST RFR4240
TRAD=T11ETA*0 . 01745329 RFR4250
182
-------
S I1(T = S l;j (TRAD )
COST=COS (TuAD )
c'••-*"-i;;ITiALir.i: coi.ci:i;rr.AT 10;,
c*f>*i;iiTiALiZL ro;; AVLHAGIIIC
DO 550 r. = l , l.KLCEP
ACL; i (:: )=o . o
re;;i (;:)=o . u
DO 530 1=1,11
530 A:;IGS (:;, i )=o . o
DO 540 I=1,2G
540 p s i c s (;;, i) = o. o
550 CO:;TI:,UE
c * * *
C***LOGP o:; :
7uO ILI:=;::$
n;-R4260
HFR4270
!i rr. 42oG
i.rr.4290
P.I R4300
IF (Lil. LE. 24) GO TO 580
LU=:;OJ(ILH, 24)
IF (Lil.EQ.l) IDATE (2 ) =JAV1
C***Ii
-------
IDCK = IDATE(1 )*100000 + IDATE(2)*10u-rbH
C***READ HOURLY AREA SOURCE EMISSION RECORD
READ (16) IDATA,(ASORC(IPOL,I),1=1,HAS)
C***CHECK DATE
IF (IDCK.EQ.IDATA) CO TO 660
'./RITE (10,920) IDCK,IDATA
CALL EXIT
C***CONVERT HOURLY AREA EMISSIONS FROM G/SEC TO G/SQ. 1I/SEC
660 DO 6 70 1 = 1,NAS
C***CONVERT SIDE LENGTH TO METERS.
C***NOTE: SIDE LENGTH HAD BEEN MULTIPLIED BY .5 ABOVE FOR TIME
C***CONSIDERATIOtIS
SF=ASORC(5, I)*2000*CONTWO
670 ASORC(IPOL,I)=ASORC(IPOL,I)/(SF*SF)
C***SET UP INTEGRATION TABLES FOR AREA SOURCE CALCULATIONS***
675 CALL JMI154R (NUT S , Z , XL IM , TLOS )
C***CALCULATE AREA SOURCE CONTRIBUTIONS
CALL JiiHARE (HUTS , XL IM ,LH)
C***WRITE HOURLY CONCENTRATIOHS TO TAPE
680 DO 631 I=1,NRECEP
681 GRANDS (I )=A11CHI (I )+PHCHI (I)
WRITE (12) I DATE (2),LH, (GRANDS(I),1 = 1,NRECEP)
C***SAVE HOURLY MAXIMUMS
DO 690 K=l.MRECEP
IF(GRANDS (K) .LE. iiMAX(i, 5,K)) GO TO 690
C***C01ICENTRATTON IS ONE OF THE TOP 5
DO 6S2 J=l,5
IF(CRANDS(K).GT.HMAX(1,J.K)) GO TO 683
682 CONTINUE
WRITE (10,1220)
CO TO 690
C***INSERT IK PROPER POSITION
683
684
635
GO TO
,J,-1
685
IF (J. Eg. 5)
DO 684 IJ=
IJP1=IJ+1
H!1AX( I , IJPl, K)=HMAX(1 , IJ,K)
UMAX (2 , IJP1 , K)=HMAX(2 , I J,K)
UMAX (3 , IJPl,K)=imAX(3 , IJ,K)
:IUAX(1
, J , i;)=GRANDS (K)
HI! AX (2 , J , K) = DAY1
UMAX(3,J,U)=LH
690 CONTIiiUE
700 CONTINUE
IF(WE.GT.24) I DATE (2 ) =
C***OUTPUT FINAL RESULTS
CALL JMiFD (II13 , L INE 1 , L I il E 2 , L INL 3 )
NP=i; P+l
;:iIRS=!iliRS+riAVG
IF(MJ.GE.i:PER)
IF (:; HUS. LT. 24)
IF (IDAY-LDRUN)
710 m=;;n,-H;AVC
;JE = [, E+11AVC
IF ('.IB . LL. 24 ) ClJ
:;E=::OU (:;i:, 24)
•ISTDAY
CO TO 720
GO TO 710
360,720,720
10 410
720
C*
END
;;;;D
*I;RITI:
GO i 0 4 1 U
E:;D TILL 12
El.D FILE 12
FILL 13
FILE 13
SUI|.IAI.Y
on
RFR4880
RFR4890
RFR4900
RFR4910
RFR4920
RFR4930
RFR4940
RFR4950
RFR4960
RFR4970
RFR4980
RFR4990
RFR5000
RFR5010
RFR5020
RFR5030
RFR5040
RFR5050
RFR5060
RFR5070
RFR5080
RFR5090
RFR5100
RFR5110
RFR5120
RFR5130
RFR5140
RFR5150
RFR5 160
RFR5170
RFR5180
RFR5190
RFR5200
RFR5210
RFR5220
RFR5230
RFR5240
RFR5250
RFR5260
RFR5270
R F R 5 2 8 0
RFR5290
RFR53CO
RFR5310
HFL5320
RFR5330
RFR5340
RFU5350
RFR5360
P.FR5370
P.FR5320
RFR5390
RFU54CO
F. F P. 5 4 1 0
KFR5420
RFR5430
RFR5440
ILFR5450
ILFH5460
P.1T.5470
RFR5430
RFR5490
184
-------
WRITE (14) IDAY,ANNSUM,DMAX,HMAX
IF (LDRUN.NE.NDAYS) CALL EXIT
C***PRINT SUMMARY TABLES
WRITE(IO,950) LINE1.LINE2.LINE3
WRITE(IO,1230) (1,1=1,5)
DO 725 K=1,NRECEP
ANMEAN=ANNSUM(K)/NDAYS
WRITE(10,1240) K,(DtlAX(l,J,K),DMAX(2,J.K),J=l,5),ANMEAN
725 CONTINUE
WRITE(IO,950) LINE1.LINE2.LINE3
WRITE(IO,1250) (1,1=1,5)
DO 730 K=1,NRECEP
WRITE(IO,1260) K,(HMAX(1,J,K),HMAX(2,J,K).UMAX(3,J,K),J=l,5)
730 CONTINUE
CALL EXIT
740 FORMAT (' DATE ON MET. TAPE, ',12,13,' ,DOES HOT MATCH INTERNAL DA
1TE,. ' ,12,13)
750 FORMAT (' HOUR ',13,' IS NOT PERMITTED. HOURS MUST BE DEFINED BETW
1EEN 1 AND 24')
780 FORMAT (1X,T21,'GENERAL INFORMATION FROM RAMQ'//2X,'UNITS - THERE
1ARE',F14.7,' USER UNITS(INPUT UNITS) PER SMALLEST AREA SOURCE SQUA
2RE SIDE LENGTH (INTERNAL UN IT)'/2X,'CONONE - THERE ARE',F14.7,' KI
3LOMETERS PER USER UN IT'/2X,'CONTWO - IT IS CALCULATED THAT THERE A
4RE',F14.7,' KILOMETERS PER SMALLEST AREA SOURCE SQUARE SIDE LENGTH
5 (INTERNAL UN IT)'/2X,'THIS RUN IS FOR ',A6,'SINCE IPOL=',I 2//1X)
790 FORMAT (1X,T21,'GENERAL INPUT DATA'//2X,'NUMBER OF PERIODS TO BE. S
1IMULATED(NPER)= ',13/2X,'AVERAGING TIME IN HOURS FOR EACH PERIOD(N
2AVC)= ',I5/2X,'STARTING DATE (IDATE ( 2), IDATE(1),IIISTRT): JULIAN DAY
3 ',14,', YEAR 19',12,' HOUR= ',12/2X,'RECEPTOR HEIGHT FOR ALL RECE
4PTORS(Z) ',F6.3,' METERS'/2X,'ASSUMED POLLUTANT HALF-LIFE(IIAFL) ',
5F10.2,' SECONDS')
800 FORMAT (2X,'SURFACE MET DATA FROM STATION(ISFCD) ',16,', YEAR(ISFC
1YR) 19',I2/2X,'MIXING HEIGHT DATA FROM STATION(IMXD) ',16,', YEAR(
2IMXYR) 19',12)
810 FORMAT (//1X)
820 FORMAT ( ' 0 ' , T2 1 ,'POINT SOURCE INFORMATION'//2X,'EMISSION INFORMATI
ION FOR ',14,' (KPT) POINT SOURCES HAS BEEN DETERMINED BY RAMQ'/2X,
212,' SIGNIFICANT POINT SOURCES(USIGP) ARE TO BE USED FOR THIS RUN'
3/2X,'THE ORDER OF S ICtl IF 1C AN CE (IMPS ) FOR 25 OR LESS POINT SOURCES
4DETERMINEU BY RAMQ IS LISTED BY POINT SOURCE t.UMBER: '/2X, 2515)
830 FORMAT ( / / 1 X, T 2 1 , ' AREA SOURCE IUFORMAT ION ' //2X, ' EMI SSION IIJFORMATI
ION FOR ',14,' (NAS) AREA SOURCES HAS BEEN DETERMINED BY RAMQ'/2X,I
22,' SIGNIFICANT AREA SOURCES (IISIGA ) ARE TO BE USED FOR THIS RUN'/2
3X,' THE ORDER OF S ICtl IFICANCE (1'IAS ) FOR 10 OR LESS AREA SOURCES D
4ETERMIUED BY RAMQ IS LISTED BY AREA SOURCE NUMF.E R : ' /2X, 1015 )
040 FORMAT (2X,'NUMBER. OF AREA HEIGHT CLASSES (1,'IITS ) = ', I 2/2X, ' REPRESENT
1ATIVE AREA SOURCE HEIGHTS FOR EACH HEIGHT CLASS (HINT) IN METERS = ',
23F10.2)
G50 FORMAT (2X,'3Rr.AK POINT HEIGHT BETWEEN THE AREA HEIGHT CLASSES(BFiI
1) IN METCRG=',2F10.2)
G50 FORMAT (2X,'FRACTION OF AREA SOURCE
IT(FH)=',F10.3/2X,'LIMIT OF DISTANCE
2ELES(XLPl) IN USER UNITS =',F10.3/2
3E CRIJ IN USER U11ITC
4111=' ,F10. 3, 5X, 'SMAX =
5CE MAP ARRAY (IA) II.
6TII-SOUT1I'//1X)
G70 FORMAT (2GI3)
GGU FORMAT (' ***EKROR Hi SPECIFYING SIGIIIF
G90 FORMAT (' ***ERROR IN SPECIFYING SICIIIF. AREA SOURCES***')
900 FORMAT (' ***i'LCASL IIOTE: THE RECEPTOR NUMBERS AND LOCATIONS CLiiER
1ATED FOR TV. IS AVERAGING TIME PLRIuD ARE 1)1FFCRF:,'T FROM THOSE (,Ei;ER
HEIGHT WHICH IS
FOR AREA SOURCE
i, 'BOUNDARIES OF
PHYSICAL HEIGH
INTEGRATION TA
THE AREA SOURC
' /1X.TG, 'RMi:i = ' , F10. 3, 5X, 'PMAX=' ,F10. 3, 5X,.' GM
' , F10. 3/2X, 'SIZE (IRSIZE X ISSIZE) OF AREA SOUR
:;.TERI;AL UNITS =',i3,' EAST-WEST BY ',13-,' i;ou
POINT SOURCES***')
RFR5500
RFR5510
RFR5520
RFR5530
RFR5540
RFR5550
RFR5560
RFR5570
RFR5580
RFR5590
RFR5600
RFR5610
RFR5620
RFR5630
RFR5640
RFR5650
RFR5660
RFP.5670
RFR5680
RFR5690
RFR5700
RFR5710
RFR5720
RFR5730
RFR5740
RFR5750
RFR5760
RFR5770
RFR5780
RFR5790
RFR5800
RFR5810
RFR5320
RFR5830
RFU5840
RFR5850
RFR5860
RFR5870
RFR5830
RFR5390
RFR5900
RFR5910
RFR5920
RFR5930
P.FR5940
RFR5950
RFR5960
RFR5970
RFR5980
KFR5990
RFU6000
RFR6010
RFR6020
RFR6030
RFLG040
RFRG050
RFR6060
RFRGC70
RrriOOGO
P.FR6090
R F R G 1 0 0
RFRG110
185
-------
-------
10 BE COVERED BY HONEYCOMB RECEPTORS IS BOUNDED BY:'/1X,' RMIN=',F1 RFR6740
20.3,' RMAX=',F10.3,' SMIN-',F10.3,' SMAX=',F10.3//1X,'DISTANCE BET RFR6750
3WEEN HONEYCOMB RECEPTORS(GRIDSP) IN USER UNITS = ',F7.3//I X,'RECEPTO RFR6760
4R EAST NORTH') RFR6770
1180 FORMAT (IX,'NO RECEPTORS HAVE BEEN CHOSEN') RFR6780
1190 FORMAT (/6X,4II3/IX) RFR6790
1200 FORMAT (//1X,' THE NUMBER OF PERIODS PREVIOUSLY COMPLETED EQUAL ', RFR6800
113,' AND THE LAST PERIOD TO BE COMPLETED IN THIS RUN IS ',13) RFR6810
1210 FORMAT (' NUMBER OF DAYS PREVEIOUSLY PROCESSED, ',14,' DOES NOT AG RFR6820
1REE WITH LAST DAY WRITTEN IN SUMMARY FILE, ',14/IX,'NON-CONSECUTIV RFR6830
2E DAYS CANNOT BE PROCESSED') • RFR6840
1220 FORMAT (' ERROR IN FINDING HMAX') RFR6850
1230 FORMAT (/1X,T41,'FIVE HIGHEST 24-HOUR CONCENTRATIONS((JULIAN DAY M RFR6860
1AX OCCURS)'/1X.T49,' (HICROGRAMS/M**3)'//2X,'RECEPTOR NO.' ,8X,4(I 1, RFR6870
216X),11,11X,'MEAN CONCENTRATION'/1X) RFR6880
1240 FORMAT (1X,T5,I 2,5X,5(4X,6PF7.2,' (',OPF4.0,' )'),7X,6PF7.2) RFR6890
1250 FORMAT (/1X,T41,'FIVE HIGHEST 1-HOUR CONCENTRATIONS (JULIAN DAY MAX RFR6900
1 OCCURS, HOUR)'/1X.T49,'(MICROGRAMS/M**3)'//2X,'RECEPTOR NO.',MX, RFR6910
24(11,20X),I1/1X) RFR6920
1260 FORMAT (1X,T5,I 2,5X,5(4X,6PF7.2,' (' ,OPF4.0,' ,' ,F3.0,' ) ')) RFR6930
C RFR6940
END RFR6950
187
-------
9.
CUMF - INPUT FORMATS AND EXAMPLE RUNSTEAI1S
CUHF
CUMF PROCESSES 24-HOUR AVERAGE CONCENTRATION DATA(UHIT 8) CALCULATED BY
RAMF OR RAMFR TO PRODUCE CONCENTRATION FREQUENCY DISTRIBUTIONS
AT EACH RECEPTOR. BOTH PRINTER AND PLOTTER OUTPUT ARE PROVIDED.
THE PLOTTER OUTPUT FILE, REFERRED TO IN THE EXAMPLE AS PLOTl,
MUST BE SYMMED TO A CALCOMP PLOT FILE , ACTUALLY CALLED PLOT AT NCC .
***** CARD INPUT TO CUMF *****
CARD 1 (13A6.A2) TITLE 80 CHARACTER TITLE.
EXAMPLE:
CUMULATIVE FREQUENCY DISTRIBUTION OF ESTIMATED 24-HOUR SULFUR DIOXIDE.
CARD 2 (I3.3F5.0) M LOG , XD III, YD IM , YB ASE
C IJLOG
C XDIM
C YDIM
C YBASE
EXAMPLE:
4 10. 8.
THE NUMBER OF LOG CYCLES ON THE CONCENTRATION SCALE.
THE HORIZONTAL DIMENSION OF THE PLOT IN INCHES.
THE VERTICAL DIMENSION OF THE PLOT IN INCHES.
THE MINIMUM VALUE ON THE CONCENTRATION SCALE.
1 .
*****EXAMPLE ECL STREAM*****
QRUK.D/R JOBNAME , ACCIiT-ISO/U SERID .PROJ-ID , 1 , 100 . JOBNAME IS RESTRICTED TO 6 CHAR
QPASSUD PASSWORD
QASG.A RAM24 . . DISK FILE OF DAILY CONCENTRATIONS
QUSE 8.RA1124.
QPLOT PLOTl.
(JUSE 14,PLOTl.
QXQT A999*UNAMAP. CUMF
CUMULATIVE FREQUENCY DISTRIBUTIOM OF ESTIMATED 24-HOUR SULFUR DIOXIDE.
4 10. 8. 1.
0FREE PLOTl.
OSYtl PLOTl,,PLOT . PLOT MUST EE SENT TO A CALCOMP PLOTTER
C'SYM PRIHT$ ,, PRINTER-ID . SEND PRINTOUT TO YOUR PRINTER
C*********************************************************************
C
C THE PRECEEDING RUN STREAM HAD A RUN TIME OF 12.64 SECONDS
C ON THE UNIVAC 1110 AND REQUIRED 30-K WORDS OF MEMORY
C (APPROXIMATELY 8,487 WORDS FOR INSTRUCTIONS Ai.D 20,076 WORDS FOR DATA)
188
-------
r- f\j CM <\J f- (NJ r~ (M r~ fi r- OJ K) f\J K> *» T-
jOT-f\irMK'>fXi
cc o o T-- i
£0 v— w~ rvj f*"i ^~ rvj (\f ^~" fo r*~i t— f\i T™ <— »— J-t>O(>l>Cr'O-ChOO*O''OOOOOOOOOOOOC'JOO("3O r- t~ -
rvj i~vj -\j r\J f\J CJ rO f
O oO uO a> tx) TO 'X* ao
oc (Ni ru f\j t\j r\j r\j no
r\j oj f\J f\i r\j r\j
O O O O O O O O O O t~- rjrvJX3^rOr-in^t>r-
Oaf" (\j t— f i «— T- T~r-r-f\J«r~fSJ Ki
i r\, (\i r\j r\i r\i rvi r\, f
o- o T- r^j K* ^ IA sc> f^- cd o o «~ (\j
<>^r^
x.
o
00
N-
2!
3*
o
o
a
fx)Ki.OT-rMKxsjiri'^: r-oco-or-r\jfi»j-i/- sQfv-o, o cr^r- rxif.xj i/.^r- DC o o r* ro f
OOCX ChOOOOOaOOOOOOOOt-t-T-v-t-T- v-r-t— *— rurvi i\tf\jpvj r-)ojfxjr\jf\jf> ftfi
r* , r- r\j o r- o o IA o o o >
f i u~\ t—
<<, -o u ^~ c.i N- r*.
o
t—
z
>
X f*l
2 O
O *-
f\j CJ* O* AJ ^' 0s
^
to a. o
r, -O N uC O o
< "* HH
X N- UQ
O •» :
ru M
*-«- f!f-
O-
oc T- >-
at.
a
fiO- *- Po in rNy^j-Nr <
189
-------
r^
•
a Or-(Sj(^^u^O^O'<>^^O*OOOOC3OOOOO*-r-r-r-^f-r-r-r-t-OjryO^
C^ OJOJOjo^ojojoJOjOjryojojojojojo^JOj^torororororororop**'. rorororop'^roKirofO fOfOro KifOMforOfororo
•t- •^rr-roOsfsOKirofooj'jra. 0-Oj**inr-«-r-^^^sfs4-^^s*u^»A^4Ainu^u^inu^u^'OO<)^<>so^^<><>K^
CJ
z
o G^Gsor^ r-r-otoor''". >C'sOroK)t—
«J r- r-rOrO ro »-OJt— OJr-r^t— rOt— r-ro^- «— OJOJOjrOt— r-OJr-Ki Ou *— r^OJr-
5E QQ OO iX) ^- (J- O1 O* sT* 0^ O* O1* O* ff- Q* &• 0^ O* C^1 O*1 C?* O* O* O* O^ O- O* O O O O O CD C3 O O O O O O O C5 O O T~ f~ *™ t^
CNC>v>O^CK<>O^OOOOOOOOOOt-r-»-T-r-T-T-T-r-r-OJOjr^JOJ(%JnJ(%JOJOJOJ'fO
—l • «— r-r-«— tr-r-»—T— r-«— f^fviOJOJrvJOJOJOJOJOJOjOjOJOjOJAjOJrMPJOJOJruOJOJOuO^jr^
t- O
t f\j >sT »o ^ *~* ^ fO *~ -«y o sx> *^ *~ ^< Jc> r\j >T -^ IA ^j *^ T~ <*• (71 IA
uj »• OJ CM ir~ Oj ^" oj t~ r\j *"• *~ OJ f\j f\i t— KI f\j ro »~ f^J ^~ ro «r~ t™* tNj t™* v~ oj t~ ro r\> OJ *"•• fNj r\j f\j
> O •«••••••••••••••••••••••••••• .....*..•....
x r* i J5 r~- r*- p1— f*" r*- f*^ r*»- P1- r*- r** o- o- r1*- r*- JQ &> yxj oo JG no co uc Jo wj co uj JG 'XJ jo «o Xj JD >jo ou uo 1,0 JLI cc oo co «c uo uo uu ut> iJO
o~ •
o *- r«-
CJ <£
O h— 5E OJ r— Ou OJ r- OJ.r*Oj ro r" OJ rO (*"i T- OjfO «— fO |sr j r* I Ou r*"irOv— OJKif~«~OufOrj r- rvj OJ
UJ t—< «t
r- < i—
«. to
CL O ^ iJ^ ^> J^ i> O O O O O O C. O O
«i r*" ^D r- «— OJ OJ r-r-«r— OjOu f*i ropjt^r- fO K1. t- r~ *— *— ro f.Oo f\jOjr*-t~OJO>JOJOJr<"'r-Oj
ro O M •*• »••• * • .............*•
jt f~ h— cj
X O UJ UJ
C£u_i< a: (O p.,Klr-tOfOr-«-r-OJr- OJCJNi (NJ ro*- f i <*~i M^lr- t- r- --MI— h-
OvJ fSJ :"\J fNJ f\J csj ,AJ Og i \j
X -2
CLKH
190
-------
O- O O O O O
in^'Ch CO 00
OJ <\J «- r- *-
O G O O -G
s. Ki I*"! Kl K Kl K1 K Kl K" Kl ^
f\l OC -» T- -o ** O- N- O Kl t- Kl O « O OO Kl N- N"> O «, O O «- h- a1 N r- r-- O u^. O O T- CO Ki Ki O- »- O
U^Nroru^OO^^<^^f^|r~OCw^r~rOKl(<)(Nl<\J*<>^>fO %I-*J1K1OL-fOls-^"r-O>O'«a'f^i/"isJ1(J1*Ki
^in<)^ccao»^fNj^>ju^
r*»*r-«*<~v~r\ir\ji%(f^
«— o P— u^ *-*
^
<
O
OJ O-- O r-
O O r- f\t KI -4" IT> *C (V- Ot, O O *- f\l K\ -41 IA
T-rof>jrjrN4rorjfMOJrsjf\JK^K>f*lKirorO
Kir-roro
r^
T-coixrvjoo^^i^ciKii%jr-tno^r-c^in(,)^sr^rNjo
*-r\j i^r-ro Mt-fOK> rg^jryoj r\j rororjKvr- rsj
<
C
O
a
a. o i>ChOOChOooooaaOoo*-r-r-r-»— r-t^T-r-r-
- ^- CO O xJ oO IA (\J
II M
t—
uj « >
Z • i-t
• • o r- f-
>• ^ -u <
CO^ar-^
^
UJ U
191
-------
oo*-^r-or*>«-^-ON-mi O u^MrnchK>c>^Ch(>oovr-r-'*pO'»rr--(>aoK»tn-*(Nj
O **• *o aoooojKisjoaur-fv r^r-oh-O^Kir^i^^ry|^^o^o^oo«orvjt-ook^«fOQ''Ki
*-» l^iA^OcO-^OOOoO^OW^f^O P- O f-O N- Kl O aOr-«4'fiOmOO»-Or-OjN.'r-'Ooj»-OO**»OO'O-Om
CD r- r\j c- <- ^OJK tO %T -O OO O O *- r\J >T ^iriWtOOOOOfVf^r^iJOO^-Ki ^f^fs"-N-ril>-LOi>^-^r--OOO*1"v-KlfO-<)<>'OC>O»-r-
O
O oocoooooaOaoooooo-o^O-O^oo-o-oooo oooooot-r-*— T-T-«r-r-»-»-r-pjrsjfur\jr«Jojr>jr\ir\j(\j
ae rvjrurvjr\jryrvjrvjf\j(Njrvj(\jf\jrvjrurvJfsjtNir^rOh^r^Kiiof"TKifnro^
CO t/Ntnfs- •OOr-OOiAI^"rO>J"l-Ori*'N-f\Jr->j Kir- T— -
• r-f\j K>f\jKrroro fgr- t-(Nir>Jf\Jr-f\(fSJKir-
•*? -4 moo oP'-oaoo
(^^t~o^^'-^«~^l
I^r-f\jr^
r- K1! r- i*'if-rjf\iOJC>j«-r-r- jrNjf\jr\jruraroMrn^i^>TNT^^uTu^i^o<)<)O<>oo^^^
»«s 3£ T— «—«— *~r-ir-t— r-»— r-f— r»»— «— t— t— r~»— r-f-t— t— t— r-r-**-r- t— *-r-«— f— t— t— T~*—r-r-fVj{\jf\jf\Jf\j(\iryi(\j<\j
CX3 <
fv.
O
2" O ^o«^^ur^Mrl/^<)^^ofJOCt-f^ro^l^•^^^^o-o*-rsJ^^>Tl/^<^Neoo-Or-ru
< tA -OOOO^OO'OOOt>OOOOOOOOOOr'-r-r-'r-r-*— ^.^-t— ^r-r^r^jfururvlfNjOJf\jrNj(\jKlKlfOfOfOfO
— j * (T~r"^*t— r-r-r-t—r-t— *"r^irvjf\jfvjrvjrurijrNjr^jrvjrvjf\jryrvjpvjrvjr\jr^
O
r- O
«i *j H>X'^o^iu^c?cCtt;r\ju^rvji/^oj«r^r~i/^NsifOor'>^^»~ruC''^ o_m <; o f\j
-o -o ^j o -o -o o
O O
cc
f^ &* f-t • ..««••..•.«••••••••••••••••...••.••.*••«•*«.••
o- K
u: r- >• i/> -r -o
< >-" O
Ji t- t- l_l
« .-t CO JI
X U UJ Ul
a • • _jl~
li, (/3 > ^ ^
nj i/i ]L ^ ^" < *J r^l -^ in -C f^- iXj O- O ^ '^J f^ -»J u^i O ^- (JO t>- O r~ (Vj Kl ^ i/^ -O ^~ OO t^ O t" (NJ r*1 »J u i »O r*- lO O O i~ OJ f~* -4 UT xJ f^- d. ^
2 1-1
f-
«*• J
192
-------
j^^
aoccoo(X oo ou O1 O O K;
K~ K f* Kl Kl K1 Kl K K K Kt K1 K. K Ki Kl K1 M Kl K, K f" K1 K1 K1 Kt f K" Kl KI K* K K5 K K f < Kl
UJ
(/) r*>i f\ f\j fvi f\i r^i f^i t\' r\* t\> f\j fvj rvi t\i (\j fvi t\i r\j (Vt f\j t\i r\i rvi f\> K K' K K> K KI K' K* K K K KI Ki f. K K"< K1 KI K- r"v K< K KI
ZJ
, oc'D»"f^JfOsJu-l»o^•ooo•o«~•(\^Ks•j(NjrvjrNjrvjr\j^
(\J Kl O Ok
> cr •••••••••••••••••••• ...... .......i..... ..... . * *
—4 LU f*- o O- xj rvj sr KI xi Kt .o o «— r^ t> ^') fu oo T- -^r o KI Is- o «~- MJ Is- i>- r- ru ^ r-^i *— ro f-^ ~j o -*NJ r- --O -»-*-r- t- fvj *-Ki r--r-^- KiOJiMCMOJ K1f\Jr-Kir- fvjKif-r-rN; jf>j(^rijf\jrvjrNjrursj(\j^pjr*jrvryr\j
UJ KH <;
h- < t-
< 00
JL CC
UJ (r w>Or^oOO''Or-(l\JKl«»TU^ork-ajOvCj*— roKlvU^'Of^CCOOt— OJKi^jw^^jr-OOO^C- r-fMK'-'a'i'.'Cr'^ajO-Cjr-
i/l O. O ^i^C^O-O^OOOOOOOGQQr-t-^r-f-r-r-r-r-ir-rsjrsj^rSjrNjr^
3 Q. u. ^-r-«-r-t-T^T-r-T-*~r-t-r-r-r-f-t-r-T-t-T-r-r-T-»-r-r-r-r"r-r-r*^r-r-«-«-f-
O 13
o x
< •» M o^f^rOL^r-Ki*"^T-aautfi^unvr->X
»•>- >• ^>*u^u^U^u^lrtu^>^lAlAiA<)^^'O^<>^iO^^^^N-h*N-(^f^f^l^l^
3 H- H- O
< M t/> 2
I O ib UJ
Zh- O <>f\JN-!XJ<>K>^r\jOtChOt^OOKi^^(>^r-in^fVJ<\JCh^^<)f^^oOoO^
UJ(/>*> OJ ri-fNJr~fNJKl^'>a'iN'«O>OiAsf 'O'O KlOJ^O'OiAO T-i-Kl*— ^--ONJT'T*r\JfcOOCf*JO-J'(\JJ^Oi/%t-*rMOt~Ou^ II II
a:uj< a: r-MrorOKi r»fMKi Kioa rut- rot- rotorvjf-t-fu Kir- f^ror- K» r-rOKtr~ru K
< ••«.•••.........*•.....••* .......... •••«*•****• JH-
o M o uj ooooaoooocJooooooaaooooaooaoooocJoooooooooooooaao a.z
UJ W > Z ^
Z • *-l
,. O H- I- » »
>• HH UJ < X Z
cu v) C -J «-f\j»>ON*mor>.ooOi'Ot-f>jrO'*irt^>N-ooi>o»- rjKi^*n^^oo<>o^ryKi'4iiA'Of*.joi>a«f-(\jKi-*»'kn'ON- (L»-»
(/> 3 t*f*f-r*r-r*T"r"^r*ryr\jirNJrsicNj(N(f\jf\jrsi(NjrOK>rororoKiK)KtK^ <<
Z M U C QC C
3 1C M- 3 09
QC UJ V3 W
193
-------
f\i r- r- fuco
ao^f^c^^^^r-f-oGsooo
'OO»^ N.^or--of\jOKmioN.goom 'O«-rMO*o>ooa
t- «~ rg t- rvj «-Ki r- f\j rw ru rvj rvj OJ
u • »•*•»*•*•••**••*••**•••••••••••***•••••*•«•••.•
x. r-intn^or^ao(>r-ry<>r-rjr\j^^NO^^orNjro^H»^>oaQO^Or-r-M<>^^
CK:
w K*^t^^K«aOr-r\*i^^ins3l^«c^or-^jro^in,or^MQ*Or-<\*M*»^
O tOOOeo«OOoOOOC^(>CK<>C>1OsOOOOOOOOOOr-r-T-T-T-r-'r»r»f-t-fgf>afurgryryr^
<>CiOor-^
o o^«-u^r-ootAo^r-o-ry^rN-fOryrou^oa^P^oo^u^M^roN-ao sro
• rOf^r^fOf^K>*^^^u^i/^u^u^<)^^r^
^s 2C <— T-»— t-r-T-r-*— i—T-r"«~*-t~r"t— *—^-t— *— r-r"t~-r-frin<>f^ouo^or~rvj^^in<)r^ou<>o<^r^Ki>ri^
f^r\jr\jfM
ro
o
»* rvjKiOoo<>>oryr\jN^NOruN»-u-iiAuT
PTr-r^aoi^^Sf^J^^r-Ou^iA^OfisO^vro^r-O^^Ln^^JKit-Kirsjf^^-xji^
* r-OJr- r-(Sj(NJOjr- (<^r-t-rvjrvi r-(\jr-KlKtf\-r- Kir-Kir- r\Jr\jr-r-r-<\jr-fOv- Kir\jr- r- r-
ro •••••••••*•••••••••••••»• •••.•*••.*•••.••••*•..
u^ r^r^r-f^h-f^r^r^^N.f^r^r^r^*>^Jo^o^^ajix>xiiX'Ocj^
t-r\^
UJ
•>
•
0
*
<
«.
o
en
<
<
*d r-
oc r-
Jl K
X W
* 1-
X. 1—
>" —1
Of UJ
(_ ^>xsrsT^>r^N**r\Ln^u-iini^inir»u-iinsO<>>o<>
o *n
t— Z1 *- Kl K1 f-O m po *- r- r- r\JKl t- fM fO *~
t-« 0 -0 fl i/i - o^
H— *-H
K- O
o fM^,o(-.incrMini^Nou»TJr^orJo^ruln
-O -O O -O 'O ^O *(.• -O "O 'O -+.1 *4j -O O -O -O ^j '•O "fj -O P*1" f*^
•n o r-i J- t. ^ r- ro « < -J i> r«, I*, o- en m M j-i -j o- r- f. M «-r- (VJ
(s^t^r^r^f^N-^-r»N-f^oO3Ojouo3O30'Xjix?txiwOOt>^oCfs
rMM^-XVJO^T-OJ^Of l/,^^^* K» FO rO r* 1 r-o ^o fO KI *o KI
po^ijA-or— ooo-Ot— rvjK* •sj-4Aor**ouo1' o^~roKi-«4-tr\'Ofs-
194
-------
rj
"3
O
CJ
>j
,
~)
"1
3
J
J
-C
-3
3
^1
m
"o
T)
jj
7)
71
=0
7)
7)
16
!
8^9 <
i
' f S 3 EQI
(y313W 319
68^.9 5 t
13/SWt
£ 3 ,01
yooyoiw)
*
X
X
X
*
X
X
V
X
X
>
68^9 S fr £ 3 £16
zos jo NQiitjyu
^
''
^
^
sc
X
X
X
8/,9 9 V e 3 0Ql
33N03
X
o
Q
LL
_!
CO
o;
ZD
0
1
^]-
(XI
Q
UJ
1 —
CE
— '
1 —
00
LU
[ 1
o
^
o
1 — 1
1 —
HD
CD
1 '
fy
\—
CO
Q
>—
(_)
~^"
UJ
0
UJ
u_
UJ
->
1 — '
1—
cr
i
— ^
>
5Z
ZJ
o
^,
o
0
•
CD
O
•^J-
•sj
«
LD
OxJ
»
LD
[^
LD
- —
Bt
1 —
CC
Q
LU
1 —
CC
CJ
0
"-<
o
~^
oc
o
1 —
CL
LU
CJ
LU
or
oo
r-
cr
cr
0.
UJ
X
z
o
o
LU
or
P
>
t— (
Q
CC
UJ
1 —
cr
21
CO
?
0
o
cc
cr
M
cr
~r
**
CC
1 — 1
cr
^
cr
CO
LU
cc
^
Q
LU
••
>—
CD
•z.
)
ce
en
r--
co
^H
*
|
O
CO
LU
*—
»»
CO
•z.
o
1 — 1
CD
CO
i — i
s:
LU
CO
r-
cn
j_
i—
i — i
u
t—
CO
LU
1—
CC
cr
cc
LU
CL
Q_
—3
'*
CO
c^
O)
r~>
>_
1 —
i — i
CJ
1 —
CO
LU
1—
..
cr
i—
cr
o
•
i—
UJ
2;
0
Lu
CO
195
-------
o
o
o
o
0
CJ
o
in
o
o
o
o '
CJ
o
o
f>
0
C3
O
LJi
O
O
O
D
0
0 |
1
o
£
on i
~T>
O)
(7)
^
58M
"(
? £ Z 0 '
1
i
J8/, 9 9 fr £ Z ,Q 1 £
'
X
X
X
X
X
X
X
X
X
X
X
X
xx
\.
x
^
•i
*
5S/.9 9 £ £ Z 0 l'68.
ZOS JO NQIibyiNi
\
X
V
X
X
X
X
X
X
*
X
X
X
. 9 9 v £ Z C0 1
en
CJ
03 •>
S uj
Q
l/l ' '
ci X
01 O
o ' '
"« Q —
00
o *: ^
03 ' — ?•
mil -£—
^ T
o CO — i
to ~
m ce ^
Z) Q-
0 0 ^
ro 1 X CO
c\j g w
-° r-> l~<
0 Q 0 >-
<" LU UJ h-
o cc o
a 7~
^ i— , " >—
^ £
a CO Q K
10 LU
a o n«
"a LL. •"• cz &•
"i /•-, O UJ 1—1
w o H- cr
-° • cr
5 ^ •** si a:
do uj
|o >— < •* CO Q_
a h- -3 3 CL.
" — ) - O O
m § g
-° i— i . a:
g CC CD M
i— r- or. en
oo LO x r-
_ _ co en
— Q •• ^ Si "
C3 | ~~ t y__
>- cr — i i—
cj cr ^
a ^ a o
m LLJ LLJ 3-
=; i- 2 i— h-
—^ cr cr ^ co
O CJ 3= CJ uJ
LU o CO I—
.". CC -I Z 1-
" LL_ UJ CO
CM cr: uj cr
0 1 i 1 * ^ ' '
- • O CL
~ > z. d a
1 — < LLJ co
-5 h- ce z
" cr o o h-
, H- >- I-H UJ
=: CL en co xi
" =! LLJ CO
0 ^- CJ Z i—i CJ
3 LLJ ZJ SI LL-
Cj nr cc LU co
196
-------
a
a:
CL
h-
cr
00
UJ
O
LiJ
or
Cr:
1 —
CO
a
LU
rj
a
ar
U-
LU
I—
cz
21
r3
o
en
t-
LD
(X
o
1
CO
o
cc
o
I—
CL
LU
O
LU
or
CC
z:
o
a
Q:
cr
M
en
o:
or
cr
31
en
01
LU
i-
cn
z
o
CD
CO
CO
r-
CD
cj
i—
CO
a:
LU
Cu
a_
ro
en
cc
a
CJ>
LU
CO
I 68i,9 9 t> £ 3 ^ I 68/. 9 S t £
ZOS JO NOIltiyiN33N03
nOI
197
-------
3
3
J3
3
3
D
M
3
Jl
D
D
K
J
D
3
•n
3
3
D
Jj
fl
3
")
J3
3
ID
[
a
0)
O
CO
cn
a
S
01
0)
CO
o>
O)
IE
38Z.9 S fr £ Z eOI 6
*
X
X
>
V
X
X
X
X
8 1 9 9 t> £ Z ,0 I f
K
X
K
X
58^9 G
X
V
\
7 £ Z QI6
V
%
^
k
X
X
X
X
X
X
X
X
X
X
X
X
X
kg G v £ z Ooi
LU
a
X
O
t— 1
Q
CK
ID
U_
ID
CO
CC
O
X
1
a
LU
i —
cn
2;
CO
LU
Lu
O
^
O
1 — 1
h-
CO
1 '
ce
i —
CO
a
^
CJ
z
LU
O
LU
ct
JJ^
LU
^-*
I
cr
i
—
^~
ij
Cj
r-.
CD
LD
»
O
0
T^-
-st
••
r?
»
OD
r~-
LO
^>
oc
1 —
a:
o
LU
i—
cc
CJ
O
— 1
•^
O
^
0
] —
Q_
UJ
O
LU
cr
CD
r-
"Z.
cr
— >
CE
Q_
LU
X
O
0
LU
<¥
>
a
cn
LU
I—
a:
2:
cn
ID
o
a
or
cr
K4
or
X
•4
C£
i — i
or
_^
or
cn
:z:
LU
cr
*"
C3
LU
„
CD
^r
)
cr.
CO
CD
, — i
••
i —
CJ
i —
cn
uJ
*"
3«
cn
o
cn
cn
i — i
5~
UJ
CO
CD
1—
CJ
1—
cn
LU
i—
cr.
cr
cc
LU
a.
Q_
~3
i»
CO
L^
cn
^-<
>—
i —
i — i
O
1 —
cn
LU
1—
!•«
cr
cr
a
i —
UJ
SI
CJ
u_
cn
ZOS JO
198
-------
\68L9 s t- e T" eo ie
(y3i3w oiar
8/.
3
c
/
c
3
X
X
"""* £ z ,0 1 e
<
X
'>£,
X
X
X
X
^
\
'X
8A9 S fr £ 2 £ J
ZOS JO NOIiHyi
s
1
1
*,
S
x
X
xx
X
X
X
1 1 1
68^.9 S f £ 2 Q0l
N33N03
en
CD
00 c
S LU
J-> ' H
'» x
03 O
CT L-J - •
01 CO
o L"--
m ~Z-
™ U_ Q.
a CO —
uT "-•
CT ry- CT
— -j Q_
o 0 ^
"^ ~£- ->
0 1 X CO
(\j ^ en
O — '
o i — i
CD Q CD >-
10 LU LLJ H-
1- Cf i—
o CT CJ
° S :
> s
n CO Q |_
^ LU
CD * ""
o LL ~ o: cc
m Q uO LU ^-c
cn i~ cr
-^ • cr
5 ^- cn s: or
O en LU
0 1—1 ro en Q_
"s ^ t g %
m OT °
- S ^ ^
° Ct: r~- M
i— r~ cr oo
CO LO x r^-
, — CO CD
° Q „ ^ m ^
2 i- ce ^ >-
>- cr i— • t—
O or >—
o ^ Cl - CJ
— i— 3i—i—
-J cr or i— cn
'—' O X CJ LLi
LU o cn i—
°. C£ -i ^ t~
PJ LL LU CO
LO ce LU cr
o LU • ^ \~ \-
•-" z a ca
1 ' LU cn
."- i- a: ^ •
" CT o o H-
i 1— >- i— i LL!
— . CL CQ en s:
rj -^. LU en
0 -^— CJ ~2L > — i CJ
^J LU 3 s: LL
cj or ce LU cn
199
-------
o
n
^4-
"
n
o
CJ
o
in
o
a
o
s
o
o
§
a
a
CD
a
01
0
CT
O
co
01
o
o
o
Cl
CT
cn
O)
CT
on
58^9 S V £ 2 £0l
X
X
X
V
X
X
X
X
X
I
68^9 5 fr £ 2 ,01
i
6
1L
X
X
„
X
'S
3 s f e
><
X
'
^
,
*
y
k
X
X
X
X
X
X
X
X
X
X
X
I TQ I 68L9 9 fr £ 2 0Q '
en
en
CO o
S LU
Q
uT ' '
"ra X
en Cj
o ' '
a, d "
CD
o ce: r-
CD — ' ~r
» u. g
a CO —
" 5r ^
o 0 ^
05 1 X OO
^t- r-
CM z en
o «-<
0 i—, •"•
a Q CD >-
50 LU LU (_
a cr o
° S :
h° i- ^ ^
s £
a ™ "*
"o Lu ^ ce o±
« r-, CD LU >— i
o " "- ^
t-° • cr
5 ^ eo sr o±
O CD UJ
0 H— ( -*• CO Q_
ho |— •* ^ 0-
" — , • O ^3
m m a
U " U? er
° or en M
i — o en oo
CO LD 31 r-
,__ ^ co en
.° a „ ^ £i *"
2 h- a: - >-
>- cr !-< i—
o cr !-•
o -z: Q • o
. ^ LU ^ >- ^
r£ en en •— oo
c-5 CJ 3Z CJ LU
LU o en t—
_"? Ct _J Z t-
CJ 1_L_ LU CO
CD Q: LU cr
0|,| • ^ 1- 1—
- • o en
> z a en
„-, 1—l LU co
0 cr o a i—
1 h- >- i— i LU
— , Q- CD CO ST
^ _ LU CO
a f- CJ Z 1-1 0
CJ or o; uj co
ZOS dO NOIibyiN33N03
200
-------
CUMF PROGRAM LISTING
C PROGRAM TO PRODUCE CUMULATIVE FREQUENCY DISTRIBUTIONS AND CUMF0010
C PLOT DIAGRAMS. INPUT DATA IS FROM A RUN OF THE FREQUENCY CUMF0020
C VERSION OF RAM(EITHER RAMF OR RAMFR) - VERSION 78124 CUMF0030
C***THE PLOT OUTPUT IS INTENDED FOR A CALCOHP PLOTTER CUMF0040
C TWO SUBROUTINES ARE REQUIRED: CUMFOQ50
c DGRAPH CUMFOO&O
C 2)PROB CUMF0070
DIMENSION CON(370), F(83), ND(370), XE(40), YN(40) CUHF0080
DIMENSION FA(370), CONC(IOO), FREQ(IOO), CJI(3gg5mjk CUMF0090
DIMENSION FQ(400), CHK400), TITLE(14) CUMF0100
DIMENSION TLNK14), TLN2(14), TLM3(14) CUMFOUO
DIMENSION HD1(2), HD2(3) CUMF0120
DATA F /O.0001,0.0002,0.0003,0.0005,0.0007,0.001,0.002,0.003,0.004CUMF01 30
1,0.005,0.007,0.01,0.015,0.02,0.03,0.04,0.05,0.06,0.07,0.08,0.09,0.CUMFOUO
210, 0. 1 2,0.14,0.16,0.18,0.20,0.22,0.24,0.26,0.28,0.30,0.32,0.34,0.3CUMFO150
36,0.38,0.40,0.42,0.44,0.46,0.48,0.50,0.52,0.54,0.56,0.58,0.60,0.62 CUMFO160
4,0.64,0.66,0.68,0.70,0.72,0.74,0.76,0.78,0.80,0.82,0.84,0.86,0.88,CUMFO170
50.90,0.91,0.92,0.93,0.94,0.95,0.96,0.97,0.98,0.985,0.99,0.993,0.99CUMFO180
65,0.996,0.997,0.998,0.999,0.9993,0.9995,0.9997,0.9998,0.99997 CUMFO190
DATA HD1,HD2,HD3,HD4 /'RECEPT','OR NO.',' LOCAT'.'ED AT:',' ( ',',CUMF0200
I',')'/ CUMF0210
DATA FQ.CHI, /800*1.0/ CUMF0220
C***INITIATE THE PLOT FILE CUMF0230
CALL PLOTS (ADUM.1,14) CUMF0240
SCALE=1.0E06 CUI1F0250
IRD=5 CUMFO260
IURI=6 CUMF0270
READ OUTPUT FROM RAMF, NUMBER OF DAYS IN YEAR AMD THREE LINES CUMF0280
OF TITLES FOR BOTTOM OF PAGE. CUMF0290
READ (8) JDYR , TLN1 ,TLtJ2 , TLN3 CUMFO 3 00
READ STATION COORDINATES. CUMF0310
READ NUMBER OF RECEPTORS, EAST COORDINATE FOR FOR ALL RECEPTORSCUtlFO320
AND NORTH COORDINATES FOR ALL RECEPTORS. CUMF0330
READ (8) IMAX,(XE(J) ,J = l,IMAX) , (YN(J) ,J = 1 , IMAX) CUMF0340
IF (IMAX.LT.40) GO TO 10 CUMFO350
IMAX=40 CUMF0360
CUMF0370
CUMF0380
CUMF0390
LE.365) GO TO 20 CUMFO400
CUMF0410
CUMF0420
CUMF0430
CUMF0440
CUMF0450
10
>0
WRITE (IURI,170)
NEND=36
NBEG=37
IF (JDYR.
NEN1> = 3 7
NBEG=38
CONTINUE
RF.AD CARD WITH TITLE FOR GRAPH.
READ (IRD.180) TITLE
C DETERMINE PLOTTING FREQUENCY FOR EACH DAY.
DENOM=JDYR+1
DO 30 M=l,JDYR
D = M
30 FA(M)=D/DEMOM
C READ CARD WITH INFORMATION ABOUT PLOT.
READ (IRD.190) NLOC ,XDIM ,YDIM, YBASi:
C NLOC IS THE NUMBER OF LOG CYCLES.
CUMF0460
CUMFQ470
CUMF0480
CUMF0490
CUMFO500
CUMF0510
CUMFO520
CUMF0530
201
-------
C XDIM, YDI'l ARE X,Y DIMENSIONS OF PLOT IN' INCHES. CUMF0540
C YBASE IS THE. LOWEST VALUE ON THE LOG SCALE. CUMF0550
:;PLOT = 1 CUMF0560
C READ DAILY DISK FILES, JULIAN D<\Y NUMKER, AN') CONG. FOR EACH CUMF0570
C RECEPTOR. CUMF0580
DO 40 J=1,JDYR CUMF0590
READ (8) JDAY, (CJ I (J ,K) ,K = 1 ,I 1AX) CUMF0600
C***CHECK DATE CUMF0610
IF(JDAY. ;iE. J) GO TO 150 CUM FO 620
40 CONTINUE CUMF0630
JM1=JDYR-1 CUMF0640
C DO FOR EACH RECEPTOR CUMF0650
DO 140 1 = 1, IMAX CUMF0660
SUM=0.0 CUMFO670
DO 50 J=l,JDYR CUMF0680
:;i)(J)=J CUMF0690
C COUVERT THIS RECEPTOR'S CONCENTRATIONS TO MICKOCRAMS PER CUBIC GUMF0700
C METER AND STORE IN CO!!. CUMF0710
COi: (J)=SCALE*CJI (J , I) CUM FO 7 20
50 SU!l = SUri+CON (J ) CUMF0730
C ORDER CONCENTRATIONS FROM LOW TO HIGH. CUMF0740
C DO FOR ALL THE HUMMER OF DAYS IN THE YEAH HINUS ONE. CUMF0750
DO 70 M=l,JM1 CUMF0760
C SET UP A CANDIDATE MINIMUM CUHF0770
AMI\' = CON (M) CUMF0780
C L IS TilE POSITION IN THE ARRAY OF THE CANDIDATE CUMF0790
L=M CUMF0800
K!!EC = !1 + 1 CUMF0810
C DO FOR TilE REST OF THE DAYS. CUMF0820
DO 60 K=KBEO,JDYR CUMF0830
IF (CONCO ,GE. AMI^I) GO TO 60 CUMF0840
C IF KTH CONCEN. IS LESS THAN AMIN, REPLACE AMIM. CUMF0850
AMIN=CON(K) CUMF0860
C L IS NEW CANDIDATE CUMF0870
L=K CUMF0880
60 CONTINUE CUMF0890
C THE LTH CONCEN. IS THE MINIMUM OF THOSE TESTED. CUMF0900
IF (L.EQ.M) GO TO 70 CUMF0910
C L=M, NO NEED FOR EXCHANGE CUMF0920
C EXCHANGE LTH AND MT11 CON'S AND NOS. CUMF0930
CON (L) = CON(M) CUMF0940
CON(M)=AMIN CUMF0950
N = ND(L) CU1IF0960
HD(L)=ND(M) CUMF0970
ND(M)=N CUMF0980
70 CONTINUE CUMF0990
C HAVE DAILY CONCENTRATIONS RANKED FROM LOWEST TO HIGHEST IN CUMFl000
C ARRAY CON. HAVE ORIGINAL DAY NUMBERS IN ARRAY: N I). CUMFiOlO
C DETERMINE ANNUAL AVERAGE CONCENTRATION CUMF1020
SUM=SUM/JDYR CUMF1030
C PRINT PAGE OF CUMULATIVE FREQUENCY DISTRIBUTION. CUMF1040
WRITE (IWRI.200) TEN 1,TEN 2,TLN3 CUMF1050
WRITE (IWRI.210) I ,XE(I) ,YN(I) , SUM CUMF1060
DO 80 NA=1,NEND CUMF1070
N2=NA+47 CUMFl080
N3=NA+94 CUMF1090
N4=MA+141 CUMFl100
N5=NA+188 CUMF1110
N6=NA+235 CUMF1120
N7=HA+282 CUMFl130
N8=NA+329 CUMF1140
80 WRITE (IWRI.220) NA,CON(NA) ,ND(NA) , N2,CON(N2) ,ND(N2) , N3 , CON(N3) , NDCUMF1150
202
-------
90
100
110
C
C
C
C
1(N3) , N4 , CON(N4) ,ND(N4) ,N5,CON(N5) ,IID(N5)
2N7),ND(N7),N8,CON(N8),ND(N8)
DO 90 NA=NBEG,47
N2=NA+47
N3=NA+94
N4=NA+141
N5=NA+188
N6=NA+235
N7=NA+282
N6,CON(N6) ,ND(N6) ,N7,
CON(CUMF1160
CUMF1170
COMF1 180
CUMF1190
CUMF1200
CUMF1210
CUHF1220
CUMF1230
CUMF1240
WRITE (IWRI,220) NA,CON(NA),ND(NA),N2,CON(N2),ND(N2),N3,CON(N3),NDCUMF1250
1(N3),N4,CON(N4),ND(N4),N5,CON(N5),ND(N5),N6,CON(N6),ND(N6),N7,CON(CU1I Fl260
2N7) ,ND (N7)
LN IS COUNT OF CONCENTRATIONS STORED.
LF = 1
LN = 0
STORE ENOUGH CONCENTRATIONS AND FREQUENCIES TO
PLOT A REPRESENTATIVE CUMULATIVE FREQUENCY
WITHOUT PLOTTING EVERY DAY OF THE YEAR.
DO 110 M=l,JDYR
IF (FA(M) .LT.F(LF) ) CO TO 110
LF=LF+1
IF (FA(M) .GE.F(LF) ) CO TO 100
LN=LN+1
CONC(LN)=CON(M)
FREQ(LN)=FA(M)
CONTINUE
HAVE Ltl CONCENTRATIONS AND
PLOTTER PROGRAM TO PRODUCE
HPLOT IS THE NUMBER OF SIDE BY SIDE PLOTS ON THE
SUBROUTINE GRAPH DRAWS THE LOG-PROBABILITY CHART.
CALL GRAPH (XDIM,YDIM,NLOC,YBASE,NPLOT)
TEST IS THE HIGHEST Y-VALUE THAT CAN BE PLOTTED.
TEST=ALOC10(YBASE)+SLOG*1.0
TEST=10.0**TEST
STA = I
R=XE (I )
S = YN (I )
WRITE LEGENDS AT BOTTOM INCLUDING RECEPTOR NUMBER AND
CALL SYMBOL (0.0,-0.5,0 . 1 4 , TITLE,0
CALL SYMBOL (0.0,-.85,0.12,1101,0.0
(999.0,
FREQUENCIES STORED FOR PLOTTING
LOG-PROBABILITY PLOTS.
PLOTTING
. 0 ,-
, 0 ,-
.0,-
. o,-
.0,-
.85,
,85,
, 85 .
,85 ,
,85 ,
,85,
,2,0
CALL NUMBER
CALL SYMBOL
CALL NUMBER
CALL SYMBOL
CALL NUMBER
CALL SYMBOL
CALL SYMBOL
CALL SYMBOL
CALL SYMBOL
IMT1 IS
I NT 1=4
K N T R = 0
DETERMINE
DO 120 K = 1 , LM
A=FREQ(K)
H = C 0 fl C ( K )
CONC. WITHIN LIMITS
IT (K . LT . YBASE. OR. 15 .GT
INCREMENT COUNT AND
KNTR=KNTR+1
FUNCTION PKOB DETERMI
ro(KMTK)=PROR(A)
12,
12,
12,
12,
,12,
12,
STA,
H»2 ,
R,0 ,
HO3 ,
S , 0 ,
H n 4.
RECEPTOR
0,80)
12)
O.-l)
0,14)
2)
0,1)
2)
0,1)
(999
(9 9 9
(9 9 9
(9 9 9
(999
(0 . 0 , - 1
(0.0 ,-1 . 55,0 . 1 2,TLN2,0.0,80)
( 0 . 0 , - 1 . 9 , 0 . 1 2 , T L M 3 , 0 . 0 , 8 0 )
SYMBOL CODE FOR X.
PLOTTING POSITION FO, CHI FOP, EACH POINT,
, T L N 1 , 0 . 0 , 8 0 )
120
AIM)
Y PLOTTING POSITIONS.
iF.S PROBABILITY PLOTTING POSITION
CUMF1270
CUMF1280
CUMF1290
CUMF1300
CUMF1310
CUMF1320
CUMF1330
CUMF1340
CUMF1350
CUMF1360
CUMF1370
CUMF1380
CUMF1390
CUMF1400
CUMF'410
CUMF1420
CUMF1430
PAPERCUMF1440"
CUMF1450
CUMF1460
CUMF1470
CUMFl480
CUMF1490
CUMF1500
CUMF1510
CUMF1520
COORD I NATES CUMFl530
CUMF1540
CUMF1550
CUMF1560
CUMF1570
CUMF1580
CUMF1590
CUMF1600
CUMF1610
CUMF1620
CUMF1630
CUMF1 640
CUMFl650
CUMF1660
CUMF1670
CUMFl680
CUMFl690
CUMF1700
CUMF1710
CUMF1720
CUMF1730
CUfl Fl 740
CUMF1750
CUMF1760
CUMF1770
203
-------
120
130
140
C
150
160
C
170
180
190
200
210
220
230
240
C
CHI(KMTR)=ALOG10(B)
CONTINUE
FQU-.MTR+l )=PROB( 0.001)
FQ (KKTR + 2 ) = (PROB(0 . 9'J 9 ) - I1 RO [5 ( 0 . 001 ) ) /XDIM
J'RIHT 230, KflTR
CHI (KNTR+1 )=ALOC1 0 (YBASE)
CHI (K.NTR+2 )=NLOG/YDIM
PLOT POINTS.
CALL PLOT (0.,0.,-3)
CALL LItlE (rq.CHl.KNTR,I ,-1 ,IHT1)
DO 130 J=l,400
CHI (J) = l .0
FQ(J)=1 .0
SPLOT=«PLOT+1
CO NT INUC
END OF RECEPTOR LOOP.
CALL PLOT ((XDIH/2.+12.),0.,099)
GO TO 160
WRITE (IiJRI,240) JDAY.J
CALL EXIT
FORMAT
FORMAT
FORMAT
FORMAT
FORMAT
IT', E9 .
27)
FORMAT
FORMAT
FORMAT
E N D
('1 IMAX EXCEEDS 40. RESET TO 40.')
(13A6.A2)
(I3.3F5.0)
(1H1,13A6,A2/1X,13A6,A2/1X,13A6,A2)
(1HO,'CUMULATIVE FREQUENCY DISTRIBUTION FOR STATION'
3,',',F9.3,' ANNUAL CONC. =',F9.1,' MICROCRAMS/CUB IC
(111 , 8(I5,F6.0,' (' ,13,' )') )
(2X,' MAIN, KNTR =',110)
(2110)
,13,'
METER
CUMF1780
CUMF1790
CUMFl300
CUMF1810
CUMF1S20
CUM F1C30
CUMF1840
CUMTl350
CUMFl860
CUMF1870
CUMFl8 SO
CUM F1S90
CUMFl900
CUMF191 0
r"-;ri92o
CUMF1930
CUMFl940
CUMF1950
CUMFl960
CUMF1970
CUMFl980
CUMF1990
CUMF2000
CUUF2010
CU11F2020
ACUMF2030
. 'CUMF2040
CUMF2050
CUMF2060
CUMF2070
CUMF2080
CUMF2090
COMF2100
SUBROUTINE GU API1 (XD IM , YD IM , NLOC , YB AS E , NP LOT ) CRAP 110 10
C GRAPH DRAWS THE BASE CHART WITH PROBABILITY SCALE ON THE CRAPH020
C ABSCISSA AN!) LOG SCALE ON THE ORDINATE. THIS ROUTINE UAS GRAPU030
C DEVELOPED BY DALE COVENTRY. GRAPH040
DIMENSION XVAL(21) .TEXT (8) GRAPH050
DATA XVAL/0.1,0.2,0.5,1.0,2.0,5.0,10.0,20.0,30.0,40.0,50.0,60.0, GRAPH060
U 70.0,80.0,90.0,95.0,98.0,99.0,99.5,99.8,99.97 GRAPH070
DATA TEXT/'CONCEN','TRATIO','N OF S','02 (HI', GRAPH080
*'CROGRA' ,'tlS/CUB' ,' 1C MET'.'ER) '/ GRAPH090
200 FORMATdHO,' GRAPH, NPLOT=',I10) GRAPH100
IF(NPLOT.CT. 1 )GO TO 17 CRAPH110
C SET TO BASE PLOTTER POSITION AT BOTTOM OF PAGE. GRAPII120
CALL PLOT(12.0,-36.0,3) GRAPH 130
CALL PLOT( (XDIM/2.) ,-33.0,-3) GRAP11140
FCTR=ABS ((XDIH/2.)/PROB(O.OOD) GRAPH 150
GO TO 18 GRAPH160
17 ICHECK=MOD(NPLOT,3) GRAPH170
C GO TO CORRECT POSITION FOR MODULUS 3 OF PLOT NUMBER GRAPH180
C (THREE PLOTS ARE MADE ACROSS WIDTH OF PAPER.) GRAPH190
IF(ICHECK.EQ.O)CALL PLOT (5. ,11. ,-3) GRAPH200
IF(ICHECK.EQ.1)CALL PLOT(17. ,-22 . ,-3) GRAPH210
IF(IC!IECK.EQ.2)CALL PLOT (5 . , 1 1 . ,-3 ) GRAPH220
18 M=-l GRAPH230
C INDICATE ON PRINTER THAT PLOT IS BEING ATTEMPTED. GRAPH240
WRITE(6,200) NPLOT GRAPH250
204
-------
C POSITION AT CENTER OF PLOT
CALL SYMBOL((-XDIM/2.) ,0 .0 , o . i, 13, G . o ,-i)
C :>KAU CKNTEH LINT,
CALL PLOT( (-XPIM/2 . ) ,0.0,3)
CALL i'LOT ( (-XI)IM 12 . ) , YDIM ,2)
CALL SYM ",OL ( (-XI)IM/ 2 . ) , YMIM ,0 . 1 , 1 3 , U .0 ,-1 )
C LOOP I'O i)'!AU LINES AND PLOT TOP AND BOTTOM NUMBERS FOR
C PROP, ABILITY PART OF GRAPH.
•)0 2 1=2,21
n = '-»(-i )
C M IS A 'FLIP-FLOP' SUIICil TO CO FROM TOP TO BOTTOM , THEN
C T 0 TOP , E T C.
AMK!=/VAL (I )
B;:UM = I oo . O-XVAL (i)
CNUM=XVAL (I ) *(J .01
G DLTT, RlI'lE L I 'I E POSITION
KP = P 140 R ( C'xUM) * FCl'R
1F(M.LT.O)GO TO I
IF( Ai.TM.LT. 10. )GO TO 1 1
GALL NUMBER ( (XP-0 . 1 7 ) ,-0 . 1 -T , 0 . 07 , ANUM , 0 . 0 , 1 )
GO I'O 12
1 1 CAM, NUMBER ( (X P-!) . 0 7 ) , -0 . 1 5 , 0 . 0 7 , A NUM , 0 . 0 , 1)
12 GAM, SYMBOL(XP,0.0,0 . 1 , 1 3 , 0 . 0,-1)
CALL PLOT(XP,o.u,3)
CALL PLOT(XP,YDIM,2)
CALL SYMBOL (XP , Y')I.M , 0 . 1 , 1 3 , 0 .0 ,-1 )
I F( BNUM . LT. 10. )GO TO 13
CALL MJM 15 E R ( ( \ P - 0 . 1 7 ) , ( Y I) IM + 0 . 0 5 ) , 0 . 0 7 , Btl UM , 0 . 0 , 1 )
G, 0 TO 2
1 3 CALL HUM BER ( (XP-0.07) , (YDIM + 0.03) ,0.07,BNUM ,0.0,1)
G 0 T 0 2
1 I F( lit; IK! . LT . 1 0 . )GO TO 14
CALL NUM BE, R( (XP-0 . 1 7 ) , ( Y D IM + U . 0 5 ) , 0 . 0 7 , Bll UH , 0 . 0 , 1 )
GO TO 15
14 GALL NUM BER ( (XP-0.07) , (YDIM + 0.05) ,0 . 07 , BNUM,0.0, 1)
15 CALL SYMIU)L(XP , YDIM ,0 . 1 , 1 3,0.0,-1 )
CALL P L 0 T(X P,Y 'H i' ,3)
CAM, PLOT(XP,0.0,2)
CAM, SYMBOL(XP ,() . 0 ,0 . 1 , 1 3 , 0 . 0 ,-1 )
IF(ANUM.LT.10.)CO TO 16
CALL NUMBER( (XP-0 . 17) ,-0.15,0.07,ANUM,0.0,1)
G 0 TO 2
16 GALL NUM:5ER( (XP-0. 07) ,-0. 1 5, 0.07 , A Ml 1,0.0,1)
2 CONTINUE
C URITE ORDINATE L EG F, ND . ( T E XT AND NUMBERS)
CALL LGAXS ( (XI) IM/ (-2 . ) ) , 0 . 0 , T EXT , 4 8 , YD IM , 90 . , YBASE, (N LOG/YD I.
X P L 0 T = X D 1M / 2 . ()
7,PLOT = -1 .0-;XPI,OT
.! = -!
C LOOP TO DRAW LIMES OF LOG PART OF GRAPH
DO 4 1 = 1 , I! LOG
I) 0 4 .1 = 1, 9
AJ = J
C 'FLIP-FLOP' TO GO FROM LEFT TO RIGHT, T11E N RIGHT TO LEFT,
YPLOT= (1-1 ) * (YDIM/MLOC) + ALOCH)(AJ ) * (Y DIM/N LOG)
IF(M.LT.O)GO TO 3
CAM, PLOT(XPLOT,YPLOT,3)
CALL PLOT (7, PLOT, YPLOT, 2)
G 0 T 0 4
3 CALL PLOT(ZPLOT,YPLOT,3)
CALL PLOT(XPLOT,YPLOT,2)
GRAPH 260
CRAP 4270
CRAPH2(;o
GRAPH 290
CRAP1! 3 00
GRM'1131 0
GRAPH32C
GRAP'1330
CRAPM340
GRAPH350
BOTTOMGRAPH 360
CRAPH370
CRAP11380
GRAPH390
GRAP1I400
GRAPH410
CRAPH420
GRAP11430
CRAPH440
G R A P1! 4 5 0
GRAPH460
CRAPH470
GRAPH 480
G R A PII4 9 0
CRAPH500
CRAP 115 1 U
GRAPH520
GRAPH530
G R A P H 5 4 0
C R A P H 5 5 0
C R A P H 5 6 0
GRAPH 5 70
GRAPI15RO
GKAPH590
GRAPI1600
CKAP11610
CRAPH620
GRAPH630
GRAP11640
GRAPH65U
CRAPH660
G RAP IK) 70
GRAPH680
GRAPH690
GRAPH 700
) ) G RAP 117 10
GRAPH720
GRAPI1730
GRAPH740
GRAPH 750
GRAPH 760
GRAPH 7 70
GRAPH780
ETC. GRAPH790
GRAPH800
GRAPHS 10
GRAP11820
GRAPH830
GRAPH840
GRAP'1850
CRAPH860
GRAPHS 70
205
-------
4 CONTINUE
C DRAW TOP LINE
IF(M.LT.O)GO TO 30
CALL PLOT(XPLOT,YDIM,3)
CALL PLOT(ZPLOT,YDIM,2)
GO TO 31
30 CALL PLOT(ZPLOT,YDIM.3)
CALL PLOT(XPLOT,YDIM,2)
31 CALL PLOT(ZPLOT,0.0,-3)
RETURN
END
GRAPH880
GRAPH890
GRAPH900
GRAPH910
GRAPH920
GRAPH930
GRAPH940
GRAPH950
GRAPH960
GRAPH970
GRAPH980
NORMAL CURVE OF
POSITION FOR GRAPHING
JOE SANTNER AND OBTAINED
FUNCTION PROB(Z)
C***TIIE FUNCTION PROB(Z) TAKES THE INPUT Z IN FREQUENCY
C***FROH 0 TO 1.0 AND DETERMINES THE PLUS OR MINUS
C***STANDARD DEVIATIONS(PROB) ON THE
C***FREQUENCY THUS GIVING A PLOTTING
C***ON THE PROBABILITY SCALE.
C***THIS SUBROUTINE WAS DEVELOPED BY
C***FROM RALPH LARSEN.
U(A)=SQRT(ALOG(1./(A*A)))
X(A)=W(A)-((2.515517+0.802853*W(A) + 0.010328*(W (A) *W(A)))/(1.+
1 1.432788*W(A)+0.189269*(W(A)*W(A))+0.001308*(W(A)*H(A)*U(A))))
IF(Z-0.5)1,7,8
1 IF(Z-O.O)2,4,6
2 WRITE(6,3)Z
3 FORMAT(2X,'INPUT ERROR PROB =',E20.10)
GO TO 10
4 URITE(6,5)Z
5 FORMAT(2X,'AHS
CO TO 10
6 PROB=-X(Z)
GO TO 10
7 PROR=0.0
GO TO 10
8 IF(Z-1 .0)9,4 ,2
') PROB = X(1 . 0-Z)
10 RETURN
END
DEVIA EQUAL MINUS OR PLUS INFINITY PROB
,E17 ,
PROB0010
PROB0020
PROB0030
PROB0040
PROB0050
PROB0060
PROB0070
PROB0080
PROB0090
P R 0 B 0 1 0 0
PROB0110
P R 0 B 0 1 2 0
P R 0 B 0 1 3 0
PROB0140
PROB0150
PROB0160
PROB0170
P R 0 B 0 1 8 0
PROB0190
P R 015 0 2 0 0
PROB02 1 0
P R 0 B 0 2 2 0
P R 0 B 0 2 3 0
PROB0240
P R 0 B 0 2 5 0
P R 0 B 0 2 6 0
P R 0 B 0 2 7 0
206
-------
10.
RAMBLK - INPUT FORMATS AND EXAMPLE RUNSTEAMS
RAMBLK
RAI1BLK WAS EXECUTED TO PRODUCE THE BLOCK DATA SUBROUTINES FOR
BOTH THE RURAL ADD URBAN VERSIONS OF RAM. IF THE USER WISHES TO USE
AW ALTERNATE UETHOD OF CALCULATING THE DISPERSION PARAMETERS, HE SHOULD
REPLACE EITHER THE RURAL DISPERSION ROUTINES, PGSYSZ AND PGSZ, OR
THE URBAN DISPERSION ROUTINES, BRSYSZ AND BRSZ, WITH HIS OUN SUBROUTINES
WHICH HILL CALCULATE THE APPROPRIATE DISPERSION PARAMETERS. THE BLOCK DATA
SUBROUTINE PRODUCED BY RAMBLK MUST THEN REPLACE THE CURRENT BLOCK DATA
SUBROUTINES IN THE APPROPRIATE RAM VERSIONS. RAMl) REQUIRES BLOCK DATA
ROUTINES FOR BOTH RURAL AND URBAN DISPERSION PARAMETERS, THEREFORE
SOME MODIFICATION OF THE ARRAY NAMES IN THE RURAL BLOCK DATA SUBROUTINE ARE
NECESSARY.( SPECIFICALLY, CHANGE THE LAST LETTER OF EACH ARRAY NAME AND THE
COMMON AREA NAME TO AN 'R'. ALSO CHARGE THE LAST LETTER OF THE URBAN
COMMON AREA NAME TO A 'U'). ALSO ANY CALLS TO THE SIGMA ROUTINES IN THE
MODEL MUST BE CHANGED IF DIFFERENT SUBROUTINE NAMES ARE USED.
SEE THE CURRENT RAMQDOC FOR EXAMPLES.
***** CARD INPUT TO RAMBLK *****
CARD 1 (II)
IMOD=1
IMOD=2
EXAMPLE :
2
I MOD
TO USE
TO US E
RURAL
URBAN
SIGMA
SIGMA
SUBROUTINES
SUBROUTINES
THE FOLLOWING ECL STREAM IS NEEDED TO EXECUTE RAMBLK USING URBAN
DISPERSION SUBROUTINES. A CARD DECK OF THE URBAN BLOCK DATA SUBROUTINE
IS GENERATED.
******EXAMPLE ECL STREAM******
GRUN.D/R JOB NAME/13, ACCNT-NO/U SERID , PRO J-ID, 1, 25/100
0PASSWD PASSWORD
@XQT A999*UNAMAP. RAMBLK
2
C************i
THE PRECEEDING RUN STREAM HAD A RUN TIME OF 11.89 SECONDS ON THE
UNIVAC 1110 AND REQUIRED 11K WORDS OF MEMORY(APPROXIMATELY 7,038 WORDS OF
INSTRUCTION AND 3,957 WORDS FOR DATA)
1207
-------
OOOO OOOOOOOOOOOOO OOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOCJOOO
t\i tr\ UQ *f &• F+- o t\i r~ t*) t\i if\ OQ •& Q* ^~ o fNj^"Kiror"Or*«-iAu^f\jot|-rotAOi/ior*« •*? CQ r\j *~ ry t> c* ^ r^- o o u"* u~* *A p«- t> o* *- rvoou^u^i/^N-
II II II ll II II II II II II II II II II II II II II II II II II II II II II II II II II II II 11 II II II II ll II ll II II || II II II II II II II || II II II U ll II II || I)
xxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxx
ooooooooooooooooooooooooooooooocoooooooooooooooooooooooooooo
oooooooooooooooooooooooooooooooooooooooooooooooooooooooooooo
I I I I I I I I I I I I I I I I I I I I I I I I t t I I I I I I I I I I I I I I I I I t I I f I I I t I f I I I I I I I
m
II II II ll ll II II II II II If II II H II II II II II II II II II ll II II II II II II II II II |l II II II It II II II |l || II II II ll I) II II ll II II II II II II II II II
° ^ODOOOOOOOIDO^ID^OOOODIDOrDOOOrJOrDOOOD
oo oooooooooooooooooooooooooooooo oooooooooooooooooooooooooooo
t * * £ t fc i t t 3 * i. t i t ;t a_ t t S^ i £ * J J i i > f I t t 1 1 1 ? 1 E.ETZ £ X * £% 1 * * £¥ ft* ill S £ * *
ooooooooooooooooo oooooooooooooooooooooooooooooo ooooooooo oooo
GOOOOOOOOOGOOOGOOOOOOGOOOOOOOOOOOOOOOOOGOOOOGOOOOOQOOOOCOGOO
II II II II II II ll II II II II II ll II II II II II II II II II II II II II 41 II ll II II II II II II II II II II II II II II U II II II II II ll II II II II II H II II U II
tj xxxxxxxa-xxixxxxxxxxxxxxxxxxxxxxixxxxxxar-EXxxxxxxxxxxxxxxxxxxx
CC.
*- oooooooooooooooooooooooooooooooooooooooooooooooooooooooooooo
2. w(/Jdrt*/)tf)v>trtv>c/j*rtwj(/)trttfiwwiv>*rtv)(/*w>(/>t/>(/jt/>v) (/jtocrtV)(/it/iu)to(/)V)vit/>c/j(rttrtVi(/>
-------
OOOOOOOOO «"T"«~v*t~'f~T"f~*" OJOJ^JOJOJfOKlKIKt «>*'r"t™'T-vt-f™>^-«'-i'*
1000000000 ^ooooooooo oooooooooo "i* OO Kl Or-^OfyOlAKiN- OOOOK>^*K1OO*A
Qc OO fXI Otj O IA K^ ^ IA O *O O Wv Q* Kl K> 'O CC Kk i
££j OO T— ^ O "fl* "nf Kl i/"i T™ O *~ <™ *** PJ (\l <•• O O
I I I I I I I t I
OOOOOOOOO T— r-f^T-r-f^f"^**" rUf\Jf\J{\jf\l(M(\lfMK) *— r- «"• *~ »•- r~ <— r~t~
OOOC'GOOOQ OOOOOOOOO OOOOOOOOO OOOOOOOOO
.». + + + + + + + + •*«••*• + + * + **«• I I I I I I I I I + ++4-+-f + + +
CO OJ 00 00 t™* O 'O t*\ N» N- "O ""^ fc^ iA iA ^3 tf> <\l
r*- 03 ^O IA O Kl "J1 T~ (^ *t P» u"l ^ i™ Kl -»"* CD K)
f— c> K*i ^ f^- ^* O* O* P*
OOOOOT-T-rvj^
2
<
CD
Q£
X
H-
U>
Z
(/)
2
O
OJ
H-
<
o;
LLJ
if
O
UJ
LLt
Jt
C/l
h-
Z
u.
•£
O
X
LVl
J£
<
(/>
t-
Z
LLJ
I— <
O
u.
kk.
UJ
O
<_»
LU
UJ
2 oooS^'S"^* S
« M 1
i- a
^,
h- <
Z t
>-i OOOOOOOOO f- O
OI-H f— r-KiNOI^-inNjOfN-NO UJ 1— CJ
QC l/» ^^ rO t)f3 N! in INJ -O (NJ i^l O^ C^ Z i"H Kl JO
3u. _j -ofN-ooosolN-Ntoo- o -J in
O UJ *H TN| fxj ^- O -
K h- l\jCviT--«*"«~«— ^-OCjln H* *-
w O O 1
O 1-1 M
O- H- 1-
•a <
0 X
HL OOOC.OOOOO ^ O
UJ * * * * * 1 1 1 1 UJ +
bj l/^Ny'Ol/'lNt>OKlOO *-» CN.
O (VI|N-Nj-NO«-NjKiruN»Kl O CM «-
o O'NTrN-^ijNjNj-KiNro^ N-I c\j
oj NA r- cv IN. o* m KI o (^
ONnNiKir-<-inrN.,> t>-
1
CJ O CJ O CJ O C~J O O O
m NT •<. u i t— r\j
OOC>N'CxJls-C>inKlON IN-
^^^^H^IC^* ^
1
ooooooooo o
I
1
o
CC
-NT
*—
Kl
00
a-
1
o
*
NO
in
^J
if'
o-
1
o
•o
in
in
-J
tn
N>
1
t'l
I
1
o
<.
oo
in
fO
N-
i>
1
o
•f
«-
r-
OJ
f !
o-
1
o
r-
kj-
r-
ro
Kl
v>
1
o
"S
1 t
a o
O uo
O1 Kl
00 OJ
o ^
•*J •*$
O* O1
1 1
<-> o
* *
NO IN-
Ul O
sr in
C-i IN.
O i»
1 1
o o
•C 1^
r»1 vj"
in o
-jr in
O |N-
l> 3U
1 1
l_l O
52£
1 I 1
0 O 0
r^ T- N»
•O Kl N.
r- N- T-
-^ r^» N-
r- *O |r-
t> tC -X>
1 1 1
000
* * *
^» Ki 00
N- 00 00
f\j UO *-
r-j Wi c.~
cso N- N-
1 1 1
o o o
"T Kl i.'-
uu r» r»~
1^ OC OU
OJ JO t—
rw ir\ LJ
sw fv. r-
t 1 1
o o o
£
1
X
ac
*~
o c.
NO K
Kl Z
N^ LU
«— *-l
Nf U
r tt
o
Nj
Ul
o ac
* <
in h~
Nj 1-1
ijO O
CJ
•o
1
o
1/1
J
Nf
-*J
r\i
-o
1
o
0
o
NH 1
t- r-
-i Kl Kt
-t o-
l-l 00
£U K>
< Kl
t- K,
o
1
IN-
CVJ O
o
Cj
X
o
^
fNl
o
«— o
o
1C
o
°?2
o o o
1 1 1
r- o o
-O 00 i>
ru KI N-
O r- O
rvi f- (\j
-* -o ^»
K> Kl Kl
o o o
1 1 1
ru Ki fo
•o h- r\j
uO f^ r-
U • & ti%
v r- •#
Kl Kt Ki
o o o
ro r"» >>i
t— T— -O
o r*- CM
uO f1- r-
IA O tn
"~ *~ •*
o o o
£5s
000
1 1 1
IN- IN- CM
IN- O CO
NT 10 in
IN- Nt in
in N in
Kl - O
Kl NJ u-i
C. O O
1 1 1
in o ^~
in ,"Nj m
in 1*- sr
ON fN- *>
r- O NT
Kl ,» In
o o o
CM C>
o o
1 1
-O h-
r- Kl
r- r«-
K> r-
IA 00
o ^
KI f^
o o
I 1
-j r»
00 O
jc ru
C^i u .
rj i^
•^t t*-
Ct O
%* r-
•O J~i
oc o
;C "J
r\j u^i
i! £
0 0
X
QC
«t
XI
h-
z
yj
z
o
a
X
UJ
UJ
2:
<
H-
t-t
o
ooooooooo
*********
OOU-CJOOOOO
«-r-l»«-«-r-r-«-«-
(1OOOOOOOO
o o c. o o c» o o o
N- u. f
o s? r
ooooooooo
C-- O O C O O O O O
ooooo
O r>* r*i «>
OOOOUjOOOO
<— r\i r*! LA o t— (\J KI IA o T- {X Ki in o r- rvj r*~i LA o
t— «— t— T—
^ 111111111 —^ 111111111 -^ i i i i i i t r i ^ 111111111
i 4. JL i.
I— L J O «..,) O O O O O O t- O '^j UJ O -J O O O O t— ,-) O t-J O O O O O O H- O O --J O O O O v.J O
X t— f\jflU"\N-OOOO X ^rvJKli/Af^-OOOO X t— f\JKliAf*«-OCjOO X r-OJ^lu^f^-OOOO
209
-------
o ooo oooooooooooooooooooooooooooooooooooooooooooooooooooooooo
*4" OO *•" £^ >O *A 'J' O Vl O* ^ 00 *"" Ch O iA ••J1 O iA ^ *A O *A lA in O O O O O (^ »tf (\i T** (O Cf* ^ ^r *& r\J PO O 0** OO f^ 00 O* 1^1 "^T O*1 HI O O* 00 (^ ^^O O1*1 fO ^J" O1*
^~ ^J T" f\J *^ T1" f\ I U"> *~ fVj U^ CO f CM & «~ O1 ^ <^ 1\) O1 T*" O* ^1
T~ f\j tA I*O *^ u^ rO
(M fM
II I' II tt II II It II M II II M II II II II II II li II II II II If II II II II II II If II It M II II II II II II II tl || M II II || tl II II II II II II II M II H M II
XXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXX
oooooooooooooooooooooooooooooooooooooooooooooooooooooocooooo
T-t-r-rv(Vjr\j(vrviKrKi^r-»-rur>urvjoOOiA(iO«r--rOrUOir* ^ t— O
r^«~ou^^r-^^oocL.Kir*Ou^s»«-^ina:i«o^^ajNo^*oco-Kt*»K»^
C>rsju^Mr\j^Kiu^ro<5^ryu^Kirsj^row^^^<>roinror^<3roir\Ki^r^p^
Ki^r— O-b~>ir^*— ^^K'^^Q-U^sff^r-^^^r^r-^u^-^r^t—C^^sj-^^O*^^!^
<>Q^*Oooroc>a-rox}C^a^^^cQi^crc>^oQChCh<>r*TaQhO
fOr-T-l^t-Krt-t-r^K.Kit-t-r^f-r^T-r-^K^fOt-^r-r-^r-r-f^fOKif-r-^^r^
OU*T <; o :> oo •-*• ^c ^ooooo-j-o-oO'OOsi- •o^3(xiuo-srMjH3choO'*'OOoaa;NjrO'OC>co*» -o •ocoao-^o-oooo-r •o-oeooOsro-oooo-^O'OOo
ccQiccccaiccttcccececccrctctccccti: ct Q: cc LtctctacctaiQCQccc cc u. ct. az oc CK. ctteteac.Q£Ozocac.tx.tx.azQiacsi{LaL(x:ac.cx.crQcacac.a£CECc.
oooooooooooooooooooooooooooooooooooooooooooooooooooooooooooo
aoooaooooooooooaoooooooooooaooaooooooaciooaooooooooaaaoooaooa
UJ UJ uJ UJ >JJ aJ UJ UJ UJ >-U uJ iJJ .tJ Uj LjjLiJuJuJuJuJJulajUJUJajiJJ^UUJUJ LiJUJUJuJlJjUJUJUJJJUJuJLU^UJLULULUUJLiJUJbiJuJUJUJ m tvf LU 11^ \u .jj jfj
r^hsihwh*MKirsjNjfvth^Ki^h«rxj^M^r^i^h*^NjrsjM
^J^^^JU^^-J_J_J_J_l_3-l_J_l^_J_J-l_l«J_l_i-J_J_)-J-l_)_l_J_l-IJ_l_J_J_J_J^-J_/-(-J_l_l_(-JJ-J_J-J-l_l_i_l-l
<<<<<<<<<:-<<<£<<:< X t 2 t t i > > fc i. ^ * » i i >. t A: s t * t t i >: i k ^ *: ^ s 4 s - * i- i * s £ ^ i > i » *: s t * i i i_ *
&o:a:Q^a:uLa:jtLXQi:£a:uta£ixjct±Qti^QCQ£3:&Q:&u:&bCU£&
oooooooooooooooooooooooooooooooooooooooooooooooooooooooooooo
2^2^^z^zzz^^±£^2:2:£:2:zz2;2:2£zzzzzzzzz;zzzzzz2:z2!:zzz2Z2:zzz^zzzzzzzzz
zzzzzzzzz^zzz^^z^zzzzzzzzzzzzzzzzzzzzzzzzzz^rzzzzzzzzzzz^zzz^:
ooooooooooooooooooooooooooooooooooooooocoooooooooooooooooooo
ctQic^ceOiCtcti^aia-OiCta^ttiiCrQiQiaaLaiactttQrGittQ^aia^
U^(/3y)^(/7^UlWlCf>V/trtOOu^Wli/V^^^^(/)Wt/)y^COt/JV5ciO^OOtO(/DV>W
Qia:Q;£ta:acQ.ctccOLC^a.ctQ;ctQ:QiQ^Q:a:QiQ;^a:cta.ctQ;a:Q:Q-Q:ttQ:oi^
_^u.;ujyJuJuJujujUJb^i^i^ujuJuJuJi^ujujujaJiUUJaju^uJuJuju^uJ
% >^ i. >- fc > * > i x t- t i i >. k_ t. »- i. i j ^ it *. &_ £ ^ * t t * k iL i_ t t t 2 &L. ^ i- ku i x c. z: i s: ^ ^ t £: L £ £ L >L x: k. *_
O O O O v^i '— > O O O O O O O O O ^ O O O O O O O O O O O O O O O '3 O O CJ O O O O O O O O O O O O O O O O O O O O O O O O O
T- r\»K»iriN-OOOOOi_J t— f\* ro LT\ o r-
XXXXXXXIXXIXXXXXXXXXXXXXXXXXXXXXXIXXXXXXXXXXXXXXXXXXXXXXXXXX
OOi£>C><^U}C]U/CI0iJP^U)U^(^U^U>U'OOU'C'<^C&U'OlO»£U)U>O^^U>(£V£^
m 'k1 UJ U' it' ljj Ltr *rH Ul U; W UJ U-J ti^ UJ U,' kt_f m 'J.i •" Lit U1 »'.-' Uj W tj' Lt' L" "' 1A1 '-U •-*/ ^ t_iJ IJ.) U' U^ M.I* U-> 'AJ if-1 U^ t,i' ^-* ^1J LU ,^j Ui Li^ y^i m l^J ^ (A1 Lj-J ^V W UJ t-tJ *^-i
XXXXX-LXXXXXXXXXXXXXXXXIXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXX
UJUJUJUJUJuJUJUjUJ ".' UJuJLUUJLJJUJUJUJUJ UJ UJUJUJUJuJUJUJuJ LlJ m *-*J UJ UJ *-" L"-1 L1J ifc* liA^ *-*-* '" UJ UJ "J n,1 ui m tjj u i \±j nf (ji m Lff i|j IAJ Lii i^f iy LU 14^
^£E^oro£^Ccu;cta:ct:uc;ij:ttk£QtLti£ccixu;a:ceQiQ:Q:a:^QC(j:a^c^
r3O^r>I300rJOa^ZJU3D3I3Z>3^00^r>ai>Z333OI303^3r3r3^I3I3Z30^OI>OI333O^>^3ODIi3Z)I33
oooooooooooooooooooooooooooooooooooooooooooooooooooooooooooo
{rtCrti/>wt/)(/j(/3w^wtoi/j(rtww(/i»«.»Fi>**»r».»«.*«*.»»».r^*.*-«>».«-*.«>f-«^^»«.«.«-*»»»*.«.^*>^
T-^-t-»-t-*-«-*-»-i— r\jrvjouojojrvji^Jf>urynjK)pOfOKifO(v-tKifOrn r^>4>^-j-^T^r>*'-4'-c->r^>inu^iAiniAu-*ini/^u^in<)'O'O o ^o O O -O O O
11 N f| || U II If M if If II II II II II II tl |l U M tl II 11 II II II II If II tl II (I II II tl II M II tl I) H 11 II II It II II II I) II II II II M It II II II II II
aj^ffiajfflLDOjaiCLjaJajtLfCLtfiiBaiUDiiiiiJfflfflCDJQUQQ^
«<<*t-««<<<«r«c«c<<£*c<t-.^-t-t~
t/ji/>(/jt/)wtotrttrttoc«oow
210
-------
•cooooooooo oooooooooo
I I I I I I I I I +»** + + •»•*»
fNJh-OOOOO'O'OOrO
COOOOOOOO OOCJOOOOOO
IAIIIIIIIII ITV+ + + + + + + + +
o
a:
OQ
3
V)
Z
O
ooooooooo ooooocooo
I I I I I I I I I + + + + + + + + +
m
a.
£ OOOOOOOOO C£ OOOOOOOOO
>" I I I I I I I I I t- >• » + *»4. + + + +
CD H M CJ O O G O O CJ t^ ^» h~ ^* GN ^ 0s O* O* 3* 0s CU O
OO OCjO
< ( I 1 I I I 1 I I < * + + + + ++ + +
2
O
a.
oooooooc-o
I I I I I I I I I
-OUO4AO
ooooooooo ooooooooo
r"OJKllAO r- CJ r'l ijTi C_
^ I I I I I I I I I ^ I I I I t I I I I
C £
(— OOOOOOOOO t—
iS r- OJ rO iO U)
M *^
UJ LU
X X
211
-------
RAMBLK PROGRAM LISTING
C*** PROGRAM RAMBLK - VERSION 78124 BLK0010
C***THIS ROUTINE DETERMINES THE MAX. CONCENTRATION AND BLK0020
C***THE DISTANCE OF THE MAX . BLK0030
C***FOR POINT SOURCES, COEFFICIENTS EXPONENTS ARE FOUND FOR BOTH BLK0040
C***THE EQUATION FOR MAX. CONCENTRATION AND THE EQUATION FOR BLK0050
C***DISTANCE TO THE MAX. CONG. BLK0060
C*** X(MAX)=A*H**B CONC(MAX)-C*H**D BLK0070
C***FOR AREA SOURCES, COEFFICIENTS EXPONENTS ARE FOUND ONLY FOR THE BLK0080
C***EQUATION FOR DISTANCE TO THE MAX. CONC. BLK0090
C***IN BOTH CASES THE COEFFICIENTS EXPONENTS ARE FUNCTIONS OF BLK0100
C***HEIGHT CLASS AND STABILITY BLK0110
COMMON IMOD BLK0120
DIMENSION H(10), XMAX(IO), XUMAX(IO), AXCOF(6,9), AXEXP(6,9), PXUC BLK0130
10F(6,9), PXUEXP(6,9), PXCOF(6,9), PXEXP(6,9), TITLE(4,2), TYPE(2), BLK0140
2 SOURCE(2) BLK0150
DATA TITLE /' PXCOF',' PXEXP','PXUCOF','PXUEXP',' AXCOF',' AXEXP', BLK0160
1' ',' '/ .SOURCE /' POINT',' AREA'/ .TYPE /' RURAL',' U BLK0170
2RBAN'/ BLK0180
DATA 11 /10.,20.,30.,50.,70.,100.,? J. , 300. ,500. , 1000. / BLK0190
DATA ZERO /'.OOOOO'/ ,FIX /'+00'/ BLK0200
C***PUHCH HEADI1IG AND COMMON BLK0210
WRITE (1,270) BLK0220
C*^INITIALIZATIONS*** BLK0230
C BLK02.40
10=6 BLK0250
C***IMOD = 1 FOR RURAL SIGtIAS, IMOD =2 FOR URBAN SIGMAS BLK0260
READ (5,390) IMOD BLK0270
C***WHEi; ITYPE = 1 POINT SOURCE COEFFICIENTS EXPONENTS ARE CALCULATED BLIC0280
C*** WHEN ITYPE = 2 AREA SOURCE COEFFICIENTS EXPONENTS ARE CALCULATED BLK0290
DO 260 ITYPE=1,2 BLK0300
WRITE (10,280) TYPE (IMOD).SOURCE (ITYPE) BLK0310
Z=0.0 3LK0320
IIL = 5000. BLKU330
C BLK0340
C***CALCULATIOliS ARE PERFORMED FOR VARYING HEIGHTS AMD STABILITY CLASSES BLK0350
C BLK0360
C***START LOOP FOR STABILITY. BLK0370
DO 130 KST=1,6 KLK0380
C***GTART LOOP FOR EFFECTIVE HEIGHTS. BLK0390
DO 140 III-l , 10 BLK0400
HT-U(IH) BLK0410
ICON"! BLKC420
XL = 1. ;JLK0430
C***START SEARCH FOR MAXIMUM AT 1 KILOMETER. BLK0440
X = XL IJLIC0450
XLIU=10. i'iLK04CO
DELT=1. BLK0470
C j! L u 0 4 3 0
C***TUL;N DETERMINE couc^nTR^vion^** r.i,r.0490
C CLK0500
IF (ITYPE. EQ. 2) GO TO 10 DL:::0510
CALL DBTRC;1. ( 1 . , Z , HT , 11L , A, 0 . 0 , KS T , S Y , S IGZ , CL ) LLK0520
CO TO 20 • i;LK0530
212
-------
10 GALL JullCZ!; (Z ,'IT, ilL.X.ilGT, GICZ ,CL)
C***START ur FORWARD ruocE Eiu'ic LOOP.
20 GO TO (30,50), ICOli
c
C**-*IF DISTANCE LIMT HAS ECL'1 EXCEEDED INCREASE LIKIT AilD UE ETA*
C
30 IT (XL-XLi:1) 50,40,40
C<'"-*r.ECET ilCV LI.IITIliC DISTANCE AND UISTA.iCF. I iiCHE'J: NT .
40 :;L 1:^ = 1 o. *:CLI;I
DELT=I o. *DELT
C
c***i;;c.ir,iiE:ir DISTANCE A;;D CALCULATE I,EU coucci;r;iATio;.-<**
C
50 X = X+nr.LT
IT (ITVPL . C(j. 2) GO TO 60
CALL DKTRGB ( 1 . , Z , UT , 11L , X , 0 . 0 , UJT , 3 Y , S IGZ , G )
CO TO 70
60 CALL JMlCZli (Z ,!!T, HL,;,, kST, GICZ ,G)
C
c***ci'i:cK TO SEE ir :IAX coi:c. HAG BEEIJ I'Assui;***
C
70 IF (CL.CT.C) CO TO 30
CL=C
BLK0540
i;L::j550
i;m05&0
A I.LASU;;AI.L}: UISTAIICE
II" (X. LC. 1000. 0) GO TO 20
C***ITUI:ATIO:I DID HOT coiivr.iici: UIT
WHITE (iu,330) JIT, T.ST, CL,:;L
CO TO 130
C
C»**UAX CONG. ilAS KLLH PASSED, pr.OCEED OACf. TO ISOLATE VAX***
C
30 IF (OCLT.Li:. 0. 001 ) GO TO 120
JELT=. I'-'DELT
'JO CL=C
XL=X
X=X-DELT
IF (ITYPE.CQ.2) GO TO 100
CALL DBTKCB ( 1 . , Z , HT , 11 L , X , 0 . 0 , I'.ST , G Y , S IGZ , C )
GO TO 110
100 CALL JtlHCZB ( Z , KT , HL , X , US T , S IGZ , C )
110 IF (C.GT.CL) GO TO 90
C
C***MAX CONG. HAS BEEN PASSED AGAIii; PROCEED FORWARD IF DELT>1*"*
C
IF (DCLT.LE. 0.001 ) GO TO 120
CL=C
XL=X
DELT=.1*DELT
C***ICOU = 2 PREVENTS INCREASIHG DELT ADD XL 111.
ICON=2
GO TO 50
C
C***UAX COHC. HAS BEEN FOUND; PRINT AND PUNCH RESULTS
C***AHD CONTINUE CALCULATIONS FOR VARYING HEIGHT AND STABILITY***
C
120 I/RITE (10,290) KST,HT,CL,XL
130 XU11AX(IH)=GL
XII AX (I H) »XL
140 CO.HTINUE
C***E1ID OF EFFECTIVE HEIGHT LOOP
C***CALCULATE COEFFICIENTS EXPONENTS FOR tlAX. COHC .
C***AND DISTANCE TO tlAX. EQUATIONS
CLKOSIJO
HLK0590
TLKOGOO
r,Li',Cf>l(J
i'LK062u
L'LICOGAO
I,Li;0670
LLUOuGO
ELK0690
oLU0700
15LK0710
I1LKU720
BLK0740
15LK0750
3LU0760
SLK0730
ULK0790
BLICOSOO
BLU0010
HL110820
£L::0!!30
Ii L 11034 0-
BLK0350
fiLl',0860
'5LLO-370
GL ICO 880
I5Ll;Of390
HLt;0900
BLK0010
iiLK0920
BLX0930
DLK0940
BLK0950
BLIC0960
BLK0970
ULK0980
1ILK0990
BLK1000
ELK1010
BLK1020
BLK1030
BLK1040
B L K 1 0 5 0
BLK1060
BLK1070
RLK1080
BLK1090
BLK1100
!'LU1110
BLK1120
BLK1130
BLK1140
BLK1150
213
-------
U = (ALOC (XUUAX(IPl) )-ALOG(XLIllAX(I) ) )/DEi!0't
PXUEXP(i',ST, I)=D
PXUCOr (KST, I)=XU:iAX(I ) /H(I) **D
GO TO 130
C***AREA SOURCE COEFFICIENTS AUU EXPOUEIITS FOR ALL HEIGHT RAfiGKS.
100 CO 170 1=1, 'J
IT (ITYPE.L'J. 2) CO TO 160
C***pUIiiT SOURCE COLl'l'ICIiUiTS Ai<0 EXPO liL'IlT S F0i; ALL HEIGHT RAIiCKG,
DO 1 5 U 1 = 1 ,'j
11' 1 = 1 + 1
UiUiLM=ALOG (II (I?l ) )-ALOG (il (I ) )
-',= (ALOG(XiiAX(IPl ) )-ALOC(XiiAX(I) ) ) /D Eli UK
150
DEi:Oi.=ALOG (U (IP1 ) )-ALOG ( tl ( I ) )
3=(ALOC (X:; AX (I PI ) )-ALOG(XIIAX(I) ) ) /UENOli
A;:r.;:p(KST,i )=r,
170 AXCOF(K3T,I )=;C11AX(I) /I1(I )**3
C***E1I1) STABILITY LOOP.
130 CONTINUE
WHITE (10,400) TYPE(IIIOD)
IF (ITYPE.EQ.2) GO TO 230
C***PUIi;T COEFFICIE1.TS AND EXPOtlEUTS FOP, POIIIT SOURCES
WRITE (10,300) (1,1=1,6)
DO 190 1=1,9
190
200
210
WRITE (10,310) II (I) ,I1(IP1 ) , (PXEXP(J.I) , J=l , 6)
220 COKTItlUE
C
C***puiICH BLOCK DATA ROUTIHE
C
CALL PUUCH (l.PXCOF)
CALL PUHCH (2.PXEXP)
CALL PUNCH (3.PXUCOF)
CALL PUHCH (4.PXUEXP)
GO TO 260
C***PRINT COEFFICIENTS AND EXPONENTS FOR AREA SOURCES
230 URITE (10,350) (1,1=1,6)
DO 240 1=1,9
IP1-I+1
WRITE (10,310) U(I),H(IPl),(AXCOF(J,I),J-i,6)
240 CONTINUE
WRITE (10,360.) (1,1-1,6)
DO 250 1-1,9
URITE (10,310) 11(1) ,:i(IPl), (PXUCOF(J.I) ,J = 1,6)
COKTINUE
WRITE (10,320) (1,1=1,6)
1)0 200 1=1,0
WRITE (10,310) II (I) ,I1(IP1 ) , (PXUEXP(J, I) , J = l ,6)
COliTIIJUE
WRITE (10,330) (1,1=1,6)
L/0 210 1=1,0
WRITE (10,310) 11(1) ,U(IP1) , (PXCOF(J.I) , J = l , 6)
COiITIlIUE
URITE (10,340) (1,1=1,6)
DO 220 1=1,9
CLKl 160
BLK1170
D L K 1 1 U 0
JLK1190
SL1U200
LLK1210
LiLr.1220
BLi:i230
BL1U240
ULK1250
3LK1270
BLK1200
CLIC1290
ULU1300
ELK1310
BLK1320
ELK1330
BLK1340
BLK1350
BLK1360
BLK1370
BLK1380
BLK1390
3L1U400
ELI11410
BLK1420
SLIC1430
BLK1440
BLK1450
BLK1460
BLK1470
BLIC1480
WRITE (10,310) H(I),H(IP1).(AXEXP(J,I),J-1,6)
BLK1500
BLK1510
BLK1520
BLK.1530
BLK1540
BLK1550
BLK1560
BLK1570
BLK1580
BLK1590
BLK1600
BLK1610
BLK1620
BLK1630
BLK1640
BLIU650
BLK1660
BLK1670
BLK1680
BLK1690
BLK1700
BLK1710
BLK1720
BLK1730
BLK1740
BLK1750
BLK1760
BLK1770
214
-------
250 CONTINUE
CALL PUNCH (l.AXCOF)
CALL PUNCH (2.AXEXP)
260 CONTINUE
C***END OF SOURCE TYPE LOOP.
WRITE (1,370) H
CALL EXIT
FORMAT (6X, 'BLOCK DATA' /6X, 'COMMON /COEFFS/ PXCOF(6 , 9) , PXEXP (6 , 9 ) ,
l','PXUCOF(6,9) ,PXUEXP(6,9),'/5X,'*AXCOF(6,9),AXEXP(6,9),HCl(10)')
FORMAT ('l',2A6,' SOURCES.'//)
FORMAT (' STAB -',12,', SOURCE HEIGHT =',F6.0,' METERS, REL. CONG .
1 NORMALIZED FOR U - ' , E 1 6. 8 , ' ,DIST . OF MAX -'.F10.4,' KM.')
FORMAT (' ',T54, 'POINT SOURCE' /1X, T45, 'CONCENTRATION COEFFICIENT M
1ATRIX'//1X,' HEIGHT (M) ' ,T57 ,' STABILITY ' /1X, T29, 6 (II , 16X))
FORMAT (4X.F4.0,' -' , F5 . 0, 4X, 6E 16. 7)
FORMAT ( '0' ,T45, 'CONCENTRATION EXPONENT MATRIX' / /1X, ' HEIGHT (U) ' ,T5
17, '~STABILITY'/1X,T29,6(I1, 16X))
FORMAT ( ' 0 ' ,T45 , ' D ISTANCE COEFFICIENT MATRIX' / /I X, ' HEIGHT (M) ' , T 5 7 ,
1'STABILITY'/1X,T29,6(I1,16X))
FORMAT ('0' ,T45, 'DISTAHCE EXPONENT MATRIX' //1X, 'HEIGHT (M) ' ,T57, ' ST
!ABILITY'/lX,T29,6ai, 16X))
FORMAT (' ',T54,'AREA SOURCE '/ IX, T 45 , 'D ISTANCE COEFFICIENT MATRIX'
1//1X,' HEIGHT (II) ' ,T5 7, 'STABILITY'/ IX, 129, 6 (II, 16X»
FORMAT ( '0' ,T45, 'DISTANCE EXPONENT MATRIX '// 1 X, ' HEIGHT (M) ', T5 7 ,' ST
1ABILITY'/1X,T29,6(I1,16X))
FORMAT (6X,'DATA HC 1 /', 5 (F3 . 0 ,','), 4 ( F4 . 0 ,','), F5 . 0 ,'/' /6X, ' El-ID ')
FORMAT (' ITERATION DID NOT CONVERGE BEFORE A DISTANCE OF 1000KM.
1 THE NEXT CONCENTRATION BEYOND 1000. KM IS SUBSTITUTED FOR THE 1IA
2::.'/22X,'HEIGHT=',F6.0,2X,'STAB=',I2,2X,'CL=',E16.8,2X,'XL=',F10.4
C
270
280
290
300
310
320
330
340
350
360
370
380
390 FORMAT (II)
400 FORMAT ('1',10X,'THESE COEFFICIENTS AND EXPONENTS \JERE GENERATED
1 USING THE',A6,' DISPERSION SUBROUT HIES.'///1X)
C
SUBROUTINE PUNCH (IQ.LiATA)
C***T11E SOLE I'UKPOSC OF THIS SULROUTIKE IS TO PUNCH A DATA CARD UHICll
C***CA'.l KE 'IEAD I'.ACK RY THE MACHINE. 0:1 MOST MACHINES THIS SUBROUTINE
C***CAK BE REPLACED BY A SERIES OF PUNCH OR WRITE STATEMENTS.
DIMENSION DATA(54), VAL(12), CARD(12)
ENCODE (69,50,VAL,IT) TITLE(IQ,ITYPE),(DATA(I),I=1,4)
DECODE (69,60,VAL,IT) CARD
DO 10 1 = 5, 11,2
IF (CARD(I).EQ.ZEUO) FLD(0,1U,CARD(1+1)
10 COJlTItiUE
URITL (1,70) CARD
DO 30 IJ'. = 5,49,5
IE=IB+4
ENCODE (68,80,VAL,IT) (DATA(I),I=IB , IE )
DECODE (63,90,VAL, IT) CAUD
DO 20 1=3,11,2
IF (CARU(I) .nQ.ZHRO) FLD (0 , 1 G, CA.UD (I-t-1 ) ;
20 CONTINUE
l.'ilITE (1,100) GAUD
30 CONTINUE
E;:CCDE (68,110, VAL, IT) (DATA(I) ,i=5o,54)
DECODE (6iJ, 90, VAL, IT) CARD
DO 40 1=3,11,2
IF (CARD (I) . E(>. ZERO) FLD(0, 13, CARD (1 + 1 ) ) =FLD (0 , 1 8 , FIX )
40 CONTINUE
URITE (1,100) CAilI)
RETUliN
TLD (0 , 1 3, FIX)
FLD (0 , 1 3 , FIX)
BLK1780
BLK1790
BLK1800
BLK1810
BLK1820
BLK1830
BLK1840
BLK1850
BLK1860
BLK1870
BLK1880
BLK1890
BLK1900
BLK1910
BLK1920
BLK1930
BLK1940
BLK1950
BLK1960
BLK1970
BLK1980
BLK1990
BLK2000
BLK2010
BLK2020
BLK2030
BLK2040
BLK2050
BLK2060
BLK1070
BLK2080
BLK2090
ELK2100
BLK2110
BLK2120
BLK2130
BLK2131
BLK2132
BLK2132
CLK2140
BLK2150
BLK2160
BLK2170
BLK2180
BLK2190
ELK2200
BLK2210
BLi;2220
BLK2230
BLK2240
BLK2250
BLU2260
BLK2270
ULK22GO
(1LK2290
BLK2300
3LK2310
3LK2320
3LK2330
ELIC2340
BLIC2350
•',L!C2360
215
-------
c
50
60
70
80
90
100
110
C
FORMAT (12H DATA ,A6,1H/,4(E11.5,1H,),2H )
FORMAT (3A6,A3,8A6)
FORMAT (3A6,A3,4(A6,1HE,A6))
FORMAT (6H *,5(El 1.5,1H,),2H )
FORMAT (A6.A2.10A6)
FORMAT (A6,A2,5(A6,1HE,A6))
FORMAT (6H *,4(El 1.5,1H,),El 1.5,3H/ )
END
BLK2370
BLK2380
BLK2390
BLK2400
BLK2410
BLK2420
BLK2430
BLK2440
BLK2450
BLK2460
IMOD-2 CALLS BRSZ
(M)
SUBROUTINE JMHCZB (Z,H , HL,X,KST,SZ,RCZ)
C SUBROUTINE JMHCZB CALCULATES CHI*U/Q, RELATIVE CONCENTRATION
COMMON IMOD
C NORMALIZED FOR WIND SPEED AND EMISSION RATE, FOR A CROSSWIND
C INFINTE SOURCE UPWIND OF A RECEPTOR (IN UNITS OF: PER METER)
C JMHCZB CALLS SUBROUTINE PGSZ OR BRSZ, DEPENDING ON THE VALUES
C OF IMOD. IMOD-1 CALLS PGSZ,
C THE INPUT VARIABLES ARE
C Z RECEPTOR HEIGHT (M)
C H EFFECTIVE STACK HEIGHT
C HL MIXING HEIGHT- TOP OF NEUTRAL OR UNSTABLE LAYER(M)
C X DISTANCE SOURCE IS UPWIND OF RECEPTOR (KM)
C KST STABILITY CLASS
C THE OUTPUT VARIABLES ARE
C SZ VERTICAL DISPERSION PARAMTER.
C RCZ RELATIVE CONCENTRATION HAS UNITS OF: PER METER.
C THE FOLLOWING EQUATION IS SOLVED —
C RC = (1/2.5066 *SIGMA Z) * ((EXP (-.05*((Z-H)/SIGMA Z)**2)
C + (EXP(-0.5*((Z+H)/SIGMA Z)**2))
C PLUS THE SUM OF THE FOLLOWING 4 TERMS K TIMES (N»1,K) —
C FOR NEUTRAL OR UNSTABLE CASES:
C TERM 1- EXP(-0.5*((Z-H-2NL)/SIGMA Z)**2)
C TERM 2- EXP(-0.5*((Z+H-2NL)/SIGMA Z)**2)
C TERM 3- EXP(-0.5*((Z-H+2NL)/SIGMA Z)**2)
C TERM 4- EXP(-0.5*((Z+H+2NL)/SIGMA Z)**2)
C 2.5066 IS THE SQUARE ROOT OF 2 * PI
C***NOTE THAT MIXING HEIGHT- THE TOP OF THE NEUTRAL OR UNSTABLE LAYER-
C***HAS A VALUE ONLY FOR STABILITIES 1-4, THAT IS, MIXING HEIGHT
C***DOES NOT EXIST FOR STABLE LAYERS AT THE GROUND SURFACE- STABILITY
C***5 OR 6.
C STATEMENTS 190 TO 330 CALCULATE RC, THE RELATIVE CONCENTRATION,
C USING THE EQUATION DISCUSSED ABOVE. SEVERAL INTERMEDIATE
C VARIABLES ARE USED TO AVOID REPEATING CALCULATIONS.
C CHECKS ARE MADE TO BE SURE THAT THE ARGUMENT OF THE
C EXPONENTIAL FUNCTION IS NEVER GREATER THAN 50 (OR LESS THAN
C -50). IF 'AN' BECOMES GREATER THAN 45, A LINE OF OUTPUT IS
C PRINTED INFORMING OF THIS.
C CALCULATE MULTIPLE EDDY REFLECTIONS FOR RECEPTOR HEIGHT Z.
C IWRI IS CONTROL CODE FOR OUTPUT
IWRI=6
C***IF STABLE, SKIP CONSIDERATION OF MIXING HEIGHT.
IF (KST.GE.5) GO TO 40
C IF THE SOURCE IS ABOVE THE LID, SET RC - 0., AND RETURN.
IF (H-HL) 10,10,20
10 IF (Z-HL) 40,40,180
20 IF (Z-HL) 180,30,30
30 WRITE (IWRI,430)
RETURN
CZB0010
CZB0020
CZB0030
CZB0040
CZB0050
CZB0060
CZB0070
CZB0080*
CZB0090
CZB0100
CZB01 10
CZB0120
CZB0130
CZB0140
CZB0150
CZB0160
CZB0170
CZB0180
CZB0190
CZB0200
CZB0210
CZB0220
CZB0230
CZB0240
CZB0250
CZB0260
CZB0270
CZB0280
CZB0290
CZB0300
CZB0310
CZB0320
CZB0330
CZB0340
CZB0350
CZB0360
CZB0370
CZB0380
CZB0390
CZB0400
CZB0410
CZB0420
CZB0430
CZB0440
CZB0450
CZB0460
CZB0470
CZB0480
216
-------
c ir :: is LEGS THAI; i UTTER, SET r.c=o. AND RETURN. THIS AVOIDS czr,04QO
C PROBLEMS OF It.'COllP.ECT VALUES 11T.AR THE SOU'lCi;. CZuOSOO
40 IF (X-0.001) 1140,50,50 CZK0510
50 IF (li'.on. d!. 1) CALL PGSZ (X , I'.CT, 32) CZB0520
IT (ItlOD.Ei;. 2) CALL 15RG2 (X,K5T,SZ) C2!i0530
C GZ = GIC;iA Z, THE STANDARD TJ|; viATIOi; OF COuC E.'ITRATION IN THE C230540
c ;:-oir,LCTio:i (;i) c/^0550
IF (K.ST-4) 60,60,70 C2ri0560
60 IK (IIL-5000.) 150,70,70 CZ<;0570
C IT STABLE COiliJlTIOll OR UKLI11ITEU .'ilXIiJC tlEKJHT: C230530
70 C2«2.*S2*S2 CZB0590
IF (Z) 180,30,100 C2B0600
C***FOR 2 = ZERO: C2U0610
SO C3 = H*!I/C2 CZJ50620
IF (C3-50.) 90,180,180 CZ30630
90 A2 = 2./i:XP(C3) CZB0640
RC2-A2/(2.5066*52) CZ30650
RETURN CZE0660
c***roR nou-ZEUo 2: C7.;:o670
100 A2-0. CZB0680
A3=0. CZB0690
CA=2-U C2B0700
CB=2+H CZB0710
C3=CA*CA/C2 CZB0720
C4=C3*CIi/C2 CZ30730
IF (C3-50.) 110,120,120 CZ30740
110 A2-1./EXP(C3) CZB0750
120 IF (C4-50.) 130,140,140 CZ30760
130 A3=1./EXP(C4) CZB0770
140 KG2"(A2+A3)/(2.5066*32) CZB0700
'.lETUP.:i CZB0790
C IF SICMA-Z IS GREATER THAN 1.6 TI1IES THE MIXING HEIGHT, CZB0800
C THE DISTRIBUTION BELOW THE MIXING HEIGHT IS UUIFORIt WITH CZB0810
C HEIGHT REGARDLESS OF SOURCE HEIGHT. C2B0820
150 IF (SZ/UL-1.6) 170,170,160 C2B0830
160 RCZ = 1./!1L CZ30G40
RETURN CZD0850
C INITIAL VALUE OF AN SET - 0. CZD0860
C AN THE NUMBER OF TIMES THE SUMMATION TERM IS EVALUATED CZB0870
C AND ADDED IN. CZ30880
170 AW-0. CZB0890
IF (Z) 180,340,190 CZB0900
C***HOTE: AN ERRONEOUS NEGATIVE Z WILL RESULT IN ZERO CONCENTRATIONS. CZB0910
180 RCZ=0. CZB0920
RETURN CZ30930
C***CALCULATE MULTIPLE EDDY REFLECTIONS FOR ELEVATED RECEPTOR HEIGHT. CZB0940
190 Al-1./(2.5066*32) C2B0950
C2-2.*S2*SZ C2B0960
A2-0. C2B0970
A3=0. CZB0980
CA=Z-H CZB0990
CB-Z+H CZB1000
C3-CA*CA/C2 C2B1010
C4=CB*CB/C2 C2B1020
IF (C3-50.) 200,210,210 C2B1030
200 A2-1./EXP(C3) C2B1040
210 IF (C4-50.) 220,230,230 CZB1050
220 A3=l./EXP(C4) C2B1060
230 SUH-O: C2B1070
THL=2.*HL C2B1080
240 AN-AN+1. CZB1090
A4=0. CZB1100
217
-------
A5=0.
A6-0.
A7-0.
C5=AN*THL
CC-CA-C5
CD=CB-C5
CE-CA+C5
CF=CB+C5
C6=CC*CC/C2
C7=CD*CD/C2
C8=CE*CE/C2
C9=CF*CF/C2
IF (C6-50.) 250,260,260
250 A4=1./EXP(C6)
260 IF (C7-50.) 270,280,280
270 A5-1./EXP(C7)
280 IF (C8-50.) 290,300,300
290 A6«1./EXP(C8)
300 IF (C9-50.) 310,320,320
310 A7=1./EXP(C9)
320 T=A4+A5+A6+A7
SUll-SUli+T
IF (T-0.01) 330,240,240
330 RCZ=A1*(A2+A3+SU1I)
RETURN
C CALCULATE MULTIPLE EDDY REFLECTIONS
FOR GROUND LEVEL RECEPTOR HEIGHT
340
350
360
370
3SO
390
400
410
420
C
430
A1-1./(2.5066*SZ)
A2 = 0.
C2=2.*SZ*SZ
C3=H*U/C2
IF (C3-50.) 350,360,360
A2=2./EXP(C3)
SUM=0.
THL=2.*HL
All=At! + l.
A4 = 0.
A6 = 0.
C5=AN*THL
CC=H-C5
CE = II+C5
C6=CC*CC/C2
C3=CE*CE/C2
IF (C6-50.) 320,390,390
A4=2./EX?(CO)
IF (C8-50.) 400,410,410
A6-2./EXP(C8)
T =A 4 +A 6
GUK-SUM+T
IF (T-0.01) 420,370,370
UCZ=A1* (A2+SU1!)
RETURN
CZB1110
CZB1120
CZB1130
CZB1140
CZB1150
CZB1160
CZB1170
CZB1180
CZB1190
CZ31200
CZB1210
CZB1220
CZB1230
CZB1240
CZB1250
CZB1260
CZB1270
CZB1280
CZB1290
CZB1300
CZB1310
CZB1320
C Z B 1 3 3 0
CZB1340
CZB1350
CZB1360
CZB1370
CZB1380
CZB1390
CZB1400
CZB1410
CZB1420
CZB1430
CZIU440
CZ151450
CZB14GO
CZIU470
C Z !5 1 4 G 0
C Z B 1 4 9 0
CZB1500
CZS1510
C Z C 1 5 2 0
C Z B 1 5 3 0
CZK1540
CZB1550
C Z B 1 5 6 0
CZB1570
FOUUAT (1110, 'EOT
IE COKPUTATIOt, CA!
El! I)
ii A ill) I
MOT \'K
ART,
MADE,
ABOVE
')
THE :;IXII;G HEIGHT GO A IELIABL
CZ/U590
C Z 15 1600
C Z LU 6 1 0
CZIJ1620
C 2 ?, 1630
CZ;H640
CZ1H550
c ;: ;; 1 6 r, o
(u ,;;,", ii L ,::, Y , KG T , s Y , r,::, r.c)
RC1J0010
TICBU020
218
-------
c
c
c
c
c
c
-------
90
100
C
C
C
C
110
C
120
130
C
140
150
160
170
C
iao
c
c
c
c
190
c
2UO
C
C
c
210
C
C
^j
C
c
r
C
C
220
IF (KST-4) 100,100,110
IF (HL-5000.) 190,110,110
IF STABLE CONDITION OR UNLIMITED MIXING HEIGHT,
USE EQUATION 3.2 IF Z - 0, OR EQ 3.1 FOR NON-ZERO Z.
(EQUATION NUMBERS REFER TO WORKBOOK OF ATMOSPHERIC DISPERSION
ESTIMATES.)
C2=2.*SZ*SZ
IF (Z) 40,120,140
1JOTE: AN ERRONEOUS NEGATIVE Z WILL RESULT IN ZERO CONCENTRATIONS
C3 = H*1I/C2
IF (C3-50.) 130,40,40
A2=l. /EXP(C3)
WADE EQUATION 3.2.
RC=A2/(3. 14159*U*SY*SZ*C1)
RETURN
A2=0.
A3 = 0.
CA=Z-H
CB-Z+H
C3=CA*CA/C2
C4=C£*CB/C2
IF (C3-50.) 150,160,160
A2-1 ./EXP(C3)
IT (C4-50.) 170,130,180
A3=l . /EXP(C4)
UADH EQUATION 3.1.
RC=(A2+A3)/(6. 23318 *U*SY*SZ*C1)
RETURN
IF SIG11A-Z IS GREATER THAN 1.6 TIMES THE MIXING HEIGHT,
THE DISTRIBUTION BELOW THE MIXING HEIGHT IS UNIFORM WITH
HEIGHT REGARDLESS OF SOURCE HEIGHT BECAUSE OF REPEATED EDDY
REFLECTIONS FROM THE GROUND AUD THE MIXING
IT (SZ/HL-1.6) 210,210,200
WADL EQUATION 3.5.
RC = 1. / (2. 5066*U*GY*HL*C1)
R L T J 11 i i
INITIAL VALUE OF Ail SET = 0.
All - THE NUMBER OF TIMES THE SUlillATIOK TER
AND ADDED III.
HEIGHT.
IS EVALUATED
25U
260
IF (Z) 40,370,220
STATEMENTS 220-200 CALCULATE RC, THE RELATIVE CONCENTRATION,
USING THL EQUATION DISCUSSED ADOVE. SEVERAL INTERMEDIATE
VARIABLES ARE USED TO AVOID REPEATING CALCULATIONS.
C.I ECUS ARC MADE TO BE SURE THAT THE ARGUMENT OF THE
EXPONENTIAL FUNCTION IS N'LVCR GREATER THAN 50 (OR LESS THAN
-50). IF 'AN' BECOMES GREATER THAN 45, A LINE 01' OUTPUT IS
PRINTED INFORMING OF THIS.
CALCULATE MULTIPLE LDDY REFLECTIONS FOR RECEPTOR HEIGHT Z.
Al=l./(b.28318*U*SY*SZ*Cl)
C2=2.*SZ*SZ
A2 = 0.
A3 = 0.
c A=;:-n
C3=CA*CA/C2
IF (C3-50.) 230,240,240
A2=l./EXP(C3)
IF (C4-50.) 250,260,250
A3=l./EXr(C4)
RCB0650
RCB0660
RCB0670
RCB0680
RCB0690
RCB0700
RCB0710
RCB0720
RCB0730
RCB0740
RCB0750
RCB0760
RCB0770
RCB0780
RCB0790
RCB0800
RCB0810
RCB0820
RCB0830
RCB0340
RCB0850
RCB0860
RCB0870
RCB0380
RCB0390
RCB0900
RCB0910
RCB0920
RC130930
RCB0940
RCB0950
RCB0960
RCB0970
RC209GO
RCJJ0990
RCB1000
RCB1010
RCB1020
RCB1030
RCB1040
RCI51050
RCB1060
RCB1070
RCBIOSO
RCB1090
R C B 11 0 0
RCB1110
RCU1 120
RCB1130
RCB1I40
RCBl 150
RCR1160
RCB1170
R C131 1 C 0
RC^l 190
P. C131 2 0 0
RGB 12 10
:xcni22r>
RCr,1230
?CIU240
i:C,U250
!'.Ci3l260
220
-------
!70
280
290
300
310
320
330
340
350
360
C
C
370
410
420
430
440
450
C
460
TI!L=2 . *1IL
AN=AM+1 .
A4 = 0 .
A5 = 0 .
A6 = 0 .
A 7 = 0 .
C5=AII*THL
CC=CA-C5
CD=CB-C5
CE=CA+C5
CF=CB+C5
C6=CC*CC/C2
C 7 = C !) * C !) / C 2
CS=CE*CE/C2
C9=CF*CF/C2
IF (C6-50.) 280,290,290
A4=l ./EXP (C6)
IF (C7-50.) 300,310,310
A5=l ./EXP(C7)
IF (C8-50.) 320,330,330
A6=l ./ EXP (C8)
IF (C9-50.) 340,350,350
A7=l ./EXP (C9)
T=A4+A5+A6+A7
SUM=SUM+T
IF (T-0.01) 360,270,270
RC=A1 * (A2+A3+SUM)
RETURN
CALCULATE MULTIPLE EDDY
HEIGHT.
Al=l./(6. 23318 *U*SY*SZ*C1)
A2 = 0 .
REFLECTIONS FOR GROUNll LHVEL RECEPTOR
380
3 9 0
400
C 3 = H * H / C 2
IF (C3-50.) 330,
A2=2 . /EXP (C3)
SUI1 = 0 .
T!IL = 2 . *HL
AH = AN+1 .
A4 = 0 .
A6 = 0 .
C5=AN*THL
CC=H-C5
390,390
C6=CC*CC/C2
C8=CE*CE/C2
IF (C6-50.) 410,420,420
A4=2 ./EXP (C6)
IF (C8-50.) 430,440,440
A6=2 ./ EXP(C8)
T=A4+A6
SU11 = SUM+T
IF (T-0.01) 450,400,400
RC=A1* (A2+SUH)
RETURN
FORMAT (1HO,' BOTH H AND Z AR,E ABOVE THE MIXING HEIGHT SO A RELIABL
IE COMPUTATION CAN NOT BE MADE.')
END
R C B 1 2 7 0
R C B 1 2 8 0
RGB 1290
R C B 1 3 0 0
RCR1310
UCB1320
R C R 1 3 3 0
R C R 1 3 4 0
R C131 3 5 0
R C 3 1 3 6 0
R C B 1 3 7 0
R C B 1 3 S 0
RCB1390
R CB 1 4 0 0
RCB1410
RCR1420
RCB1430
RCB1440
RCB1450
RCB1460
RGB 1470
R C B 1 4 8 0
R C B 1 4 9 0
RCB1500
RGU1510
R C B 1 5 2 0
R C B 1 5 3 0
R C B 1 5 4 0
R C B 1 5 5 0
IIC B 1 5 6 0
R C B 1 5 7 0
RCB1580
R C R 1 5 9 0
RCB16QO
RCB1610
RCB1620
RCB1630
R C B 1 6 4 0
RCB1650
RCB1660
RGB1670
R C B 1 6 8 0
RCB1690
R C B 1 7 0 0
RCB1710
RCB1720
RCB1730
R C B 1 7 4 0
RCB1750
RCB1760
RCBl770
RCB1780
R C B 1 7 9 0
RCB1800
RCB1810
RCB1820
R C B 1 8 3 0
R C B 1 8 4 0
RCB1850
RCB1860
221
-------
TECHNICAL REPORT DATA
(Please read Inslructions on the reverse before completing)
1 REPORT NO.
EPA-600/8-78-016b
2.
3. RECIPIENT'S ACCESSI Oh* NO.
4 TITLE AND SUBTITLE
USER'S GUIDE FOR RAM
Vol. II. Data Preparation and Listings
5. REPORT DATE
November 1978
6. PERFORMING ORGANIZATION CODE
7 AUTHOR(S)
D. Bruce Turner and Joan Hrenko Novak
8. PERFORMING ORGANIZATION REPORT NO.
9. PERFORMING ORGANIZATION NAME AND ADDRESS
Environmental Sciences Research Laboratory
Office of Research and Development
U.S. Environmental Protection Agency
Research Triangle Park, N.C. 27711
10. PROGRAM ELEMENT NO.
1AA603 AB-25 (FY-78)
11. CONTRACT/GRANT NO.
12. SPONSORING AGENCY NAME AND ADDRESS
Environmental Sciences Research Laboratory - RTP, NC
Office of Research and Development
U.S. Environmental Protection Agency
Research Triangle Park, N.C. 27711
13. TYPE OF REPORT AND PERIOD COVERED
In-house
14. SPONSORING AGENCY CODE
EPA/600/09
15. SUPPLEMENTARY NOTES
16.ABSTRACT |he information presented in this user s guide is orrected to air pollution
scientists having an interest in applying air quality simulation models. RAM is the
three letter designation for this system of efficient Gaussian-plume multiple-source
air quality algorithms and also the primary algorithm for urban areas. These algo-
rithms can be used for estimating air quality concentrations of relatively nonreac-
tive pollutants for averaging times from an hour to a day from point and area sources.
The algorithms are applicable for locations with level or gently rolling terrain where
a single wind vector for each hour is a good approximation to the flow over the source
area considered. Calculations are performed for each hour. Computation time is kept
to a minimum by the manner in which concentrations from area sources are estimated
using a narrow plume hypothesis and using the area source squares as given rather than
breaking down all sources into an area of uniform elements. Options are available to
the user to allow use of three different types of receptor locations: (1) those whose
coordinates are input by the user, (2) those whose coordinates are determined by the
model and, are downwind of significant point and area sources where maxima are likely
to occur, and (3) those whose coordinates are determined by the model to give good area
coverage of a specific portion of the region. Computation time is also decreased by
keeping the number of receptors to a minimum. Volume II presents RAM example outputs,
typical run streams, variable glossaries, and Fortran source codes.
17.
KEY WORDS AND DOCUMENT ANALYSIS
DESCRIPTORS
b.IDENTIFIERS/OPEN ENDED TERMS C. COS AT I Field/Group
*Air pollution
*Atmospheric models
Algorithms
*Dispersion
13
14
12
13 DISTRIBUTION STATEMENT
RELEASE TO PUBLIC
19. SECURITY CLASS (This Report)
UNCLASSIFIED
21. NO. OF PAGES
232
20. SECURITY CLASS (This page)
UNCLASSIFIED
22. PRICE
EPA Form 2220-1 (9-73)
222
-------
Date
Chief, Environmental Applications Branch
Meteorology and Assessment Division (MD-80)
U.S. Environmental Protection Agency
RESRCH TRI PK, NC 27711
I would like to receive future revisions to the
User's Guide For RAM, Vol. II.
Name
Organization
Address
City State Zip_
Phone (Optional) ( ) -
* U.S. GOVERNMENT PRINTING OFFICE: 1978—740-261/4162 Region No. 4
------- |