-------
UG-2.1-26
2.1.5 Labor Saving Features
In developing the data input forms and the data processing programs, sev-
eral labor saving features have been introduced. These features reduce
time, labor, and cost on the part of the encoder* However, misunderstand-
ing of these features may result in the entering of erroneous data. The
labor saving features are explained below. If the explanation is not
clear, the safe rule to remember is "if in doubt, fill it out."
June 1978
-------
UG-2.1-27
2.1.5.1 Repetitive Data Feature
The principal labor saving feature is the "Repetitive Data Feature." This
feature enables the encoder to eliminate the entry of repetitive data on
the data form. For example, a test series may have 20 subseries in which
there is a data element or elements which do not change value from the
first value entered. Once the data element value has been initialized for
one subseries, the remaining 19 subseries do not have to be encoded (or
keypunched) for that value. The FPEIS EDIT program will automatically du-
plicate the data when the test series is being processed for loading
into the data base. All the data elements for which the "Repetitive Data
Feature" is valid are identified by an asterisk (*) on the input forms
for the subseries level and by a double asterisk (**) on Form 6 for the
run level.
In many instances, the value of a particular data element may be constant
for some subseries, then change values or may not be known for some sub-
series. In these situations, the value of the data element must be reini-
tialized to the new value. If the data are not known, the correct way to
reinitialize the value is to enter "NA" in the first two columns of the
field for alphanumeric data or "9" in every card column for numeric data.
This is best seen through the following example:
A test series has 20 subseries. The data element for TEMPERATURE
on Form 3 has a value of 250 for subseries 1-10, a value of 230
for subseries 11-15, an unknown value for subseries 16-18, and
a value of 261 for subseries 19 and 20.
June 1978
-------
UG-2.1-28
For subseries 1, the value of 250 is entered into columns 67 to 69 of the
DOS card on Form 3. The value has now been initialized* The same field is
left blank for subseries 2 to 10 since the value is unchanged. For subse-
ries 11, the new value of 230 is entered to reinitialize the value, and
the field is left blank for subseries 12 to 15 to indicate that 230 is
now the repeating value. Now, in subseries 16, the value is not known and
the value must be reinitialized to a "null" value (not zero since zero
may be a valid value) by entering a "9" into each of columns 66 to 69. If
this data element was not a numeric value, then "NA" would be entered in
the first two (left-most) columns in the field. When the data element
value is initialized to "null," the same value may then be repeated by
leaving the field blank for subseries 17 and 18. In subseries 19, the
value of 261 is entered, and again the field is left blank for subseries
20, The same procedure may be applied at the run level as well.
In this way, with the "Repetitive Data Feature," only four unique values
must be encoded instead of 20. It is clear then that for a number of un-
changing values, this feature will save considerable time and effort.
The only exception to the encoding instructions for an unknown or "null"
value occurs when such a value is needed in the first subseries. For sub-
series 1 or run 1 within the same subseries, leave the field blank for an
unknown or "nu11" value.
June 1978
-------
UG-2.1- 29
2.1.5.2 Operating Parameter Serial Number Feature
The Serial Number (DOS card, cc 16 and 17) for the control device operat-
ing parameter is also a labor saving feature. If some operating parameters
change from subseries to subseries, only the serial number and value need
to be encoded. The EDIT program will automatically reproduce the specifi-
cation. This is shown in Figure 2»l-4.
Operating parameters which do not change will be duplicated automatically
for subsequent subseries as described previously under the "Repetitive
Data Feature."
June 1978
-------
UG-2.1-30
2.1.5.3 Measurement Equipment/Method Number Feature
To further simplify the encoding of data which may be repeated, the Measure-
ment Equipment/Method Number (lOl card, cc!4) has been keyed as a labor
saving feature. All data contained on Form 6 which is identified by the
double asterisk (**) are treated uniquely according to this number* Mea-
surement equipment types are given unique numbers when the data pertain-
ing to each type are initially encoded* Unless altered by using the Repeti-
tive Data Feature described earlier in Section 2.1.5*1, all data are assumed
to be constant for that unique equipment number throughout the test series*
This means that the user can enter just the equipment number for the measure-
ment equipment type to describe subsequent runs in any order* The EDIT pro-
gram will automatically reproduce the data*
For example, assume that a test series contains four subseries with the
following runs described:
Subseries
Location
Run
1
2
3
4
I 01
02
0 01
02
03
I 01
02
0 01
02
Measurement Equipment
SASS TRAIN - WITH CYCLONES
MRI MODEL 1502 IMPACTOR
SASS TRAIN - WITH CYCLONES
UW MARK III IMPACTOR
ANDERSEN MODEL III IMPACTOR
BRINK BMS-11 IMPACTOR
CLIMET MODEL - OPC
ANDERSEN MODEL III IMPACTOR
CLIMET MODEL - OPC
June 1978
-------
UG-2.1-31
In order of occurrence, these instruments would be assigned the following
equipment/method numbers:
1. SASS TRAIN - WITH CYCLONES
2. MRI MODEL 1502 IMPACTOR
3. UW MARK III IMPACTOR
4. ANDERSEN MODEL III IMPACTOR
5. BRINK BMS-II IMPACTOR
6. CLIMET MODEL - OPC
With the double asterisk (**) data initialized at the first occurrence of
each instrument in the test series, only the equipment/method number would
have to be encoded in the following cases:
Subseries 2, run 01 = 1
Subseries 4, run 01 = 4
Subseries 4, run 02 = 6
June 1978
-------
UG-2.1-32
2.1.6 Standard Nomenclature and Units
Computerized information systems require that some standardization of data
be present in order for specific data selection to be made. Computers search
for and select data by comparing the selected value to a known value. When
alphanumeric characters are used, such as in the name of a control device,
the known value and the selected value must match exactly. For example, if
a search is made for the value "ESP," all entries in the data base whose
value is "ESP" will be selected; however, entries having the value "ELEC-
TROSTATIC PRECIPITATOR" will not, although it is technically correct. In-
sofar as the computer is concerned, the two data are not equal and the se-
lection will fail.
To ensure that uniform selection criteria are possible, the FPEIS uses stan-
dard nomenclature for certain data elements. Whenever data from one of these
data elements is requested, it is essential that correct spelling be used or
the request will fail.
Data elements in the FPEIS data base which require the use of standard no-
menclature are given in Table 2.1-3. For these data elements, the encoder
must select terms from a specified list (or menu) to describe the data of
interest. While this list is expandable and will likely be expanded on a
continuing basis, the encoder should use only the list of names provided.
As is the case for any encoding of data, correct spelling is essential.
June 1978
-------
UG-2.1-33
The allowed data for data elements requiring standard nomenclature are given
in Tables 2.1-4 through 2.1-13. The specific use of each value is discussed
in detail in Section 2»3» however, it is appropriate here to discuss the
general criteria for using standard nomenclature on a group basis.
June 1978
-------
UG-2.1-34
2.1.6.1 Source Description
Of the five data elements shown in Table 2,1-3 requiring standard nomen-
clature, all but one (STATE) require use of the NEDS Source Classification
Codes (SCC). The allowed data values for each data element are given in
Table 2.1-4, NEDS Source Classification Codes. Note that the values to be
used are the word phrases and not the numeric code.
The reason for using the words rather than the numeric code for the SCC
data is twofold. First, the numbering scheme within Source Categories is
not unique; that is, the Source Category, Type of Operation, and Feed Ma-
terial Class are all interrelated depending upon the Source Category. For
example, the code 1-01-001-xx refers to EXTCOMB BOILER, ELECTRIC GENERATN,
and ANTHRACITE COAL; however, if the Source Category is changed to INTERNL
COMBUSTION from ELECTRIC GENERATN, the code 2-01-001-xx means that DISTIL-
LATE OIL is the fuel. This means that unless burdensome qualification was
used, major groups of sources using the same type of fuel could not be iden-
tified. By using the wording for each SCC entry, unique values may be ob-
tained which will enable unqualified sorting of all data. This greatly in-
creases the flexibility and usability of the FPEIS data base.
The data element for STATE requires use of the standard U.S. Postal Service
two-letter abbreviation as given in Table 2.1-5.
June 1978
-------
UG-2.1-35
An important feature to note is that the FPEIS can protect confidential
or proprietary source data* Such data elements as site name, source name,
street address, and city may be coded "CONFIDENTIAL" for any source whose
identity or location cannot be disclosed by the encoding group* Other data
elements such as state, UTM coordinates, ZIP code, and reference may be
left blank if the encoding group so desires* This capability is described
further in Section 2.3*1* This feature enables the FPEIS to store important
particle size data from sources which would otherwise be unavailable to the
FPEIS* EPA will have no knowledge whatsoever of the identity of the source*
June 1978
-------
UG-2.1r36
2.1.6.2 Control Device Characteristics and Design Parameters
Data elements pertaining to fine particle control devices have been grouped
to enable the user to describe the device in great detail* In order to al-
low for maximum sorting and retrieval flexibility, some data elements that
describe the device have been assigned standard nomenclature. These data
elements are: Device Category, Device Class, and Generic Device Type. The
allowed data for the Device Class and Generic Device Type are given in Table
2.1-6.
The Device Category data element allows descriptive words to be encoded
as a phrase or string of words to characterize the device. The key words
allowed are given in Table 2.1-7,
Specific allowable DESIGN SPECIFICATION TYPE nomenclature is given in Table
2.1-8 along with the units to be used to express the value. This list is
designed to be the minimum information list for each device type given.
The user may add more specifications and values if he so chooses up to a
maximum of 20 per device.
June 1978
-------
UG-2.1-37
2.1.6.3 Test Characteristics and Control Device Operating Parameters
The SAMPLING LOCATION data element is identified by its position relative
to the control device as either inlet or outlet. The allowed data to be
encoded are as follows:
I (for inlet)
0 (for outlet)
If the source has no control device applied, then an "I" should be encoded.
The FPEIS also has control device operating parameters and values in addi-
tion to the design specifications and values. Allowed data for the TYPICAL
OPERATING PARAMETER TYPE and the units in which the data values are to be
expressed are given in Table 2.1-9. As in the case of the design specifica-
tions, this is a minimum list and the user may add more information up to
a maximum of 20 parameters.
June 1978
-------
UG-2.1-38
2.1.6.4 Particulate Bioassay Data
To be added at a later date.
June 1978
-------
UG-2.1-39
2.1.6.5 Particulate Chemical Composition
Present chemical analysis techniques do not provide for real-time, in situ
analysis of the particulate matter in a gas stream* Generally, particulate
samples are extracted from the gas stream by means of some type of inertial
collection device such as a multiple cyclone collector or cascade impactor,
and chemical analyses are performed on the material collected on each stage.
In some cases, only the material collected from a mass train filter or from
the pooling of collector stages is analyzed. The FPEIS has the capability of
storing the results of chemical analyses (expressed as a concentration in
micrograms per cubic meter) either as a function of particle size or as a
mass train filter catch or pooled stages. When data are given according to
particle size, the particle diameters may be based upon the Stokes, the aero-
dynamic, or the impaction diameter definition, and may be either calibrated
or calculated values*
The FPEIS provides considerable flexibility for the identification of chem-
ical species when data are to be encoded. This flexibility is in recognition
of the fact that there presently exists a variety of ways to identify a par-
ticular element or compound* The chemical ID used in reporting chemical data
is likely to be one with which the user is most familiar. A user's familiar-
ity with a chemical ID scheme will be due largely to the nature of the project
on which he is working. The FPEIS enables users to choose from among four
chemical ID schema when they encode their data* These are the SOTDAT system,—
II "SOTDAT Final Report," EPA No. 450/3-75-070, July 1975.
June 1978
-------
UG-2.1-40
21
the Chemical Abstracts Services (CAS) Registration Numbers,— the Multimedia
3/
Environmental Goals (MEG)^ for Environmental Assessment Numbers, and the
EPA Environmental Assessment Level 1 Fractions.— Each scheme has a unique
entry code which will identify the type of chemical ID encoded to the FPEIS.
These are given in Table 2.1-10.
Where possible, the preferred ID is the CAS Registration Numberj however,
any of the four may be used.
While the input protocol requires that a specific chemical ID be used, the
FPEIS SERIES and SUMMARY Reports will give the name of the chemical species
as well as additional pertinent data. This is discussed in the FPEIS REFER-
ENCE MANUAL. A typical SERIES Report is given in Section 6.2 of this User
Guide.
General types of chemical analysis methods have been identified for the
FPEIS and are listed in Table 2.1-12. A standard one-character or two-
character alphabetic code is used to identify the chemical analysis
method when the data are encoded. As with the chemical IDs, the complete
name of the analysis method will be given on output and not the alphabetic
code.
2/ "Chemical Abstracts - Chemical Substance Index," American Chemical
Society.
3/ "Multimedia Environmental Goals for Environmental Assessment," EPA No.
~ 600/7-77-136a, November 1977.
4/ "Procedures Manual - Level 1 Environmental Assessment," EPA No. 600/2-
76-160a, June 1976.
-------
UG-2.1-41
It should be noted, however, that the chemical IDs and analysis codes are
stored in the data base itself and not the names. Selection criteria for
sorting and/or retrieval should always specify the chemical ID or analysis
code if the data are to be located.
June 1978
-------
UG-2.1-42
2.1.6.6 Measurement Particulars
The identification of the particulate measurement instrument or method name
requires the use of standard nomenclature if effective sorting or retrieval
of particle size distribution data is to be accomplished. In Table 2.1-13,
a list of standard names for measurement equipment is provided for seven
classes of equipment. Use only the data provided. Any additional commentary
may be given in the COMMENTS ON THE MEASUREMENT on the data form.
June 1978
-------
UG-2.U43
2.1.6.7 Engineering Units
As stated previously, the FPEIS uses metric units exclusively. While every
attempt has been made to use SI (International System of Units) protocol
whenever possible, some data elements are expressed in the metric equiv-
alent of a more common English unit. The specific required units for each
data element is given in Section 2.3. This is consistent with EPA policy
regarding the use of metric units.
June 1978
-------
UG-2.1,44
2,1.7 Data Preparation
The FPEIS EDIT program Is a SYSTEM 2000 PLI (Procedural Language Inter-
face) COBOL program that provides three functions before updates are made
to the FPEIS data base*
First, it processes all input cards for a series and expands the text fields
where necessary* This function allows the data collector to enter redundant
information only once and it reduces the error rate of data preparation.
Second, the EDIT program produces reports that are formatted in the same
manner as the SERIES Report which allows visual editing to be done in a
format familiar to the user*
Third, the program performs usage and value checks on input data fields.
If errors occur, the corresponding data base component and the invalid
data are printed on the exception report*
The program is designed to minimize labor intensive activities associated
with data preparation and to maximize the integrity of the data in the
FPEIS data base*
June 1978
-------
UG-2.1-45
2.1,8 Tables of Standard Nomenclature and Units
Tables in this subsection identify the standard nomenclature to be used
when encoding data for or retrieving data from the FPEIS data base*
June 1978
-------
UG-2.1-46
TABLE 2.1-3. DATA ELEMENTS REQUIRING STANDARD NOMENCLATURE
Source Description:
Source category
Type of operation
Feed material class
Operating mode class
State
Control Device Characteristics and Design
Parameters:
Device category
Device class
Generic device type
Design specification type
Test Characteristics and Control Device
Operating Parameters:
Control device location
Typical operating parameter type
Particulate Chemical Composition:
Chemical entry code
Chemical ID
Analysis method
Measurement Particulars;
Measurement instrument/method name
June 1978
-------
UG-2.1-47
TABLE 2.1-4. SOURCE CLASSIFICATION POPES
Column I - Source Category
Column II - Type of Operation
Column III - Feed Material Class
Column IV - Operating Mode Class
June 1978
-------
TABLE 2.1-4.
NATIONAL EMISSIONS DATA SYSTEM (NCOS)
SOURCE CLASSIFICATION CODE (SCC) REPORT
UG-2.1-48
1
EXTCOM8 BOILER
EXTCOH8 HOILER
EXTCOM8 BOILEH
EXTCOH8 BOILEH
EXTCOH8 dUlLEM
EXTCOHB HOILtR
EXTCOHB BOILER
EXTCOHB BOILEM
EXTCQM8 BOILER
EXTCOMB 80ILEH
EXTCOM6 BOlLtH
EXTCOM8 BOILEW
EXTCO-B 90HEH
EXTCOH8 BOILER
EITCOM8 HOILEH
EXTCQM8 H.OUER
EXTC')H8 BOILtH
ExTCOHR HOILER
tXTC'JMB t>OILE«
EXTCOHB BOILEM
EXTCOHH BOILER
EXTCOHB BOILEH
EXTCIHB BOILEH
EXTCOHB BOILER
EATC'JMB BOILEH
EXTCOMB BOILER
FXTCOMB BOILER
EXTCOnb bOIL£M
tXTCOHB BOILEH
KXTC1M6 ROILER
MTC'IHb BOILtM
EXTCOHi BOILER
FxTCGHb BOILEM
E«TC')M8 HOILEH
EXTC'JHfl BOILEH
EXTC'IMB HOlLtH
KxTC'"'Xb TOILER
ExlC<"'MB tJOlLEH
EXTCOHB hOKER
EXTCoHfa TOILER
EXTO'Ma TOILER
EXTCOHB WOILEH
E*TCfJHfc HOILEH
exTCUHb BOILER
EXTC'JHB TOILER
E»TCOH8 bOILER
EATC^HB lOILbH
££0
IELECTMIC GENEHtTNIBITUMINOUS COAL O100MHHTJ PULVfJKY 1 TONS BUMNEO
IELECTHIC 'i£NEJ4TNIHlTU-INOuS COAL l>100MMciTu CYCLONE 1 TONS BUHMEO
IELECTHIC SENEHkTNIBITUHlNOUS COAL IMOOMMHTU jfOiTKHITONS BUMNEO
IELECTHIC GENEHaTMBITUHINOUS COAL 1 > ) OOMHaTU/hH of SKI TONS bUH«£0
IELECTHIC (itNERATNIblTUHlNOUS COAL 1 1 0-lOOxHBTU PUL»T|TONS BUMNEO
lELECTUK GENEHAT.MIBITURINOUS COAL 1 1 0- 1 0«M~aTlJ PuLOY I TONS BORNEO
IELECTUIC uENEHtTNlBITUMINOUS COAL UO-IOOMB8TU OFSTKITONS BURNED
IELECTMIC oENE-iATNIblTO-INOUS COAL I10-100MMBTU U'STK ITONS BUMNEO
IELECIRIC OENE>'ATNIHITu>'INOUS COAL OOMNBTU OFSTUKtR 1 TONS BORNEO
IELECTHIC GENEKtTNIRlTU'lNOUS COAL IOOMM-TU PULV.ETITONS BUMNCO
IELECTMIC 6ENEHATNlLIGN[Tf >100MHHTU POLVOHYITONS BUMNEO
IELECTHIC DtNERtTNIL IGNITE MOONHHTU CTCLONEITONS BURNED
IELECTHIC GEN£-»rniu I&NITE . IDOHx-fu OF ST'RITONS BUHNEO
(ELECTRIC UENE-4TNILIGNI TE >100RH4TU UF StKRITONS BUMNEO
(ELECTxIC GExEnATNILIGNI TE >100HM-1U SHOSTxR I TONS BURNED
IELECTHIC GEN£R«TNlLlGN|T£ 1 1 0- 1 OOxMH Tu OYHoL 1 TONS BUR<<£0
IELECTUIC G£NE-<»TNILIGNITE 110-100— STu »(OUL ITONS BOR-EO
IELECTHIC bENEHATNILI^NITE 110-lOOxHHTo QFSTKITONS SURN£0
(ELECTRIC GENERATNILIGNITE 1 1 J-l OOxxdTd of SIX 1 TONS -bU»«£0
(ELECTRIC 100MH«TU/MM liENL 1 1000GALLONS BUHNEO
lELECr-IC otNEUATNIRESIOUAL OIL 1 10-1 00**HBTu/HRGNL 1 1 OOf.GALLONS 8URNEO
(ELECTRIC 'iENEHATNlRESI'JUAL OIL K10HMBTU/HH GtNL 1 lOOOI-ALLONS BUHNEO
ItLECT-IC GENE-ATNIOI5TILL«TE OIL l> 1UO»H1)TU/MM I.ENL 1 1 OOOC-ALLONS BUNNEO
IELECT1.IC btNE-«TNIOISTlLL«TE OIL 1 10-1 OOlxBTU/HRliNL 1 1 OOOr.«LLf>NS MUHNEO
IELECT.-IC iENE-»TNIOIST ILL«TE OIL «IOHKbTU/M- GcNL 1 1 OOOPALLONS HUHNEO
IELECTRIC GENERATNI NATURAL C.AS OlOOMMHTU/RR (MILLION CUBIC FEET BUHNtO
lELECTnlC GENEi. ATM NATURAL 5AS 1 10-1 OORXBTO/Hx (MILLION CUBIC FEET bu«»tU
IELECIH1C GENERA TNI NATURAL '-AS K10HMBIU/HM IHILLION CUBIC FEET HUHNlO
IELECTRIC GENERATNIHROCESS I>AS OlOOMMMTU/xM (MILLION CUBIC FEET HliHNEO
lELECTxIC GENENATNIRROCtSS f.AS 1 10-1 00-H8TO/H- IxlLLlON CUBIC FEET BUHNtO
IELECTUIC C-ENEH4TNIi-HOCcSS .AS 1 « 1 OHMMTU/-H (MILLION CuHIC FEET BUMNEO
IELECTRIC G£NE»ATNICOxt 1 > IOUMX-TU/-R (TONS BO«N£O
(ELECTMIC GtNERATNIMAGAsSE 1 10-lDO-HBTu/R- ITONS 3UM»EO
ItLECTRIC C.ENEPATNI0AGASSE K10WMBTU/HR ITONS BUMNEO
IELECTMIC GENEMATNISOLIO *ASTE/COAL 1 >100MM«TU/HH ITONS BUMNEO'
IELECTMIC GENEMATNISOLIO BASTE/COAL 1 10-100HMBTU/HM (TONS BUHNED
(ELECTRIC GENERATNI SOLIO BASTE/COAL KIOHMBTU/HR ITONS BUMNEO
IELECTMIC GEN£»ATNIOTHF./NOT CL ASIFOI SPECIF* IN HEMAHK (MILLION CU§IC FEET BUMrfO
(ELECTMIC GENEhATNIOTHtR/NOT CLASIFO 1 SPECIF Y IN REMARK 11 1)00 GALLON (L10UIO) BUHNEO
i ELECTMIC GENERATNI OTHER NOT CLASIFO i SPECIFY IN HE-AHKITONI BUMNEO ISOLIDI
1 INDUSTRIAL (ANTHRACITE COAL OIOOHMDTU/HM HOLY (TONS BUNNEO
(INDUSTRIAL (ANTMRjCITE COAL 1 » lOO«HSTU/«i» STKRITOWS BUMNEO
1 INDUSTRIAL (ANTHRACITE COAL 1 10-1 OOMMBTU PULVOITONS BUMNEO
(INDUSTRIAL IANTMSACITE COAL IIO-IOOMHBTU STntl ITONS BUMNEO
IINOUSTHIAL (ANTHRACITE COAL KIOHMBTU/HH PULVOITONS bUMNEO
(INDUSTRIAL (ANTHRACITE COAL K10HHBTU/HR STKM ITONS BUMNED
(INDUSTRIAL (ANTH.ACITE COAL K10HMBTU/HR hNOFRITONS BURNED
IINOUSTUIAL (ANTHRACITE COAL lOTMEri/NQT CLASIFO I TONS 8URNEO
(INDUSTRIAL IBITU-INOUS COAL OlOOMHilTU »ULV»£T I TONS BORNEO
IINOUSTHIAL IBITU»INOUS CUAL OlOOM^HTU "ULVUMY 1 TONS BUHNEO
(INDUSTRIAL (MITOMlNOOS COAL 1 > 1 OOHHbTU CYCLONE 1 TONS BORNEO
(INDUSTRIAL ItflTu-lNOUS COAL (>100«IOOHH^TU PULV«ET(TONS BUMNEO
(INDUSTRIAL II IGNITE O100MHHTU "ULVOMY 1 TONS -UHI.EO
IINOUST->IAL ILIGNITE IMOOMMnTU CTCLONEITONS HUMMED
(INDUSTRIAL (LIGNITE l>lOOMH-iTU OFSTKH ITONS BURNED
IINOUSTUIAL ILIGNITE IMOOHM*TU UFSTKR ITONS BUMNEO
(INDUSTRIAL (LIGNITE 1 > 1 OOMMnTU SPOStKR 1 TONS BUHNEO
(INDUSTRIAL (LIGNITE 1 10- 1 OOHHBTU OYPUL 1 TONS BUHNEO
IINOUST-IAL ILIGNITE I1U-100MHBTU »rPULITONS BUMNEO
(INDUSTRIAL ILIGNITE IIO-IOOMM«TU WSTMTONS MUMNEO
IINOUST-.IAL ILIPNITF. ( IO-IOOMMBTU UFSTKI TONS BUMNEO
IINOUST-IAL (LIGNITE UO-100>«*8TUSPuSTKI TONS BUMnEO
(INDUSTRIAL ILIGNITt KlOMUdTU PUL* ORYITONS bUMNEO
1 INDUSTRIAL (LIGNITE KIOHMBTU OFSTOKM (TONS BORNEO
i INDUSTRIAL ILIGNITF KIOMHBTU OFSTOKM ITONJ BURNED
IINOUSTHIAL ILIGNITE K10HH8TU FANOFIHE 1 TONS BUMNEO
IINOUSTMUL ILIGNITE KIOHH8TU SPOSTKR ITONS BUMNEO
(INDUSTRIAL 1 RESIDUAL OIL I>1 OOHMSTU/HI, 11000 GALLONS BORNEO
1 INDUSTRIAL IWESIOUAL OIL 1 lU-lOOMHBTu/HH 1 1000 GALLONS BUMNEO
INDUSTRIAL IMESIOOAL OIL |«IOHH8TU/MR 11000 GALLONS HUMMED
IINOUST-IAL (DISTILLATE OIL • 1 >lO
-------
TABLE 2.1-4. (Continued)
HATIOHAL EMISSIONS MTA SYSTEM (NEOS)
SOURCE OASSIFtCATION CODE (SCC) REPORT
UG-2.1-49
EXTCOMO
EXTCOMB
EXTCONB
EXTCO»B
EXTCO«6
Exrcoxa
EXTCOHB
EXTCO-B
EXTCQM*
EXTCQM*
EXTC4N*
ex icon*
circcx*
EXTCOM
EXTCOMO
EXTCOMH
EXTCO*»
BOILEH
BOILER
•OtLCB
MILE*
DOILEH
80ILER
AOILER
BOIUH
BOILER
»Oll£4
iOILER
dOtLEM
BUILCR
HO I LCD
*OILEH
901LIR
sec
•<
ii
IINDUSTRIAL
llMDUSTblAl
HA-CS
in
INATU«*L MS
OIL
!1*«MM«TU/MM
I IHOUSI«I*t
IIMOUSTHIAL
I iNOUSTHUc
UMOUSTbUL
I PROCESS 6*S
IMOCESS 8*S
IMOCESS MS
icour
i COKE
KIOHM«TU/HU
O100HHHTU/MH
llNOUSTMUl.
I INOUSTMUL
ItHOUSTHtM.
I»OOO
ILIO
ILIO
UNITS
UfBB BALLONS •UMiCD
t"ILLION CUBIC FtET
INIU.ION CUBIC FEET
• MILLION CUBIC FEET IW*MtO
•MILLION CUBIC FEET MMMCO
INILLION CUBIC FEET SUMMED
IMILLION CUBIC FEET MMNCO
ITOMS BUM»EO
I TOMS StMnCO
1*000 MASTC BOILMITONS BUHMEO
ISMAIL HMfO?I*C I TONS WUffvCD
•ASIIB-UtMMBTU/MU I1BOBBALLONS BWMCO
•ASKIIMMBTU/IM
K10MHOTU/1M
IBA0ASSE
KI«tM8tU/Mi
(TOMS ButmCD
I TOMS •IMftCO
autLER
cxTcn««
CXTCfX*
ExrcOt*
VOILE*
4OILER
BOIvEfl
MlLE»
MILE*
«OIL£R
HOILE*
4OILEM
I INOUST-itAi. IrtTMCu/NOT CLASIFOISMCIFV IN •EMAMIMILLJON CUBIC FtET BtMwCO
IIMMST-'IAL lOTHER/iaT CLASIFOISPCCIFV IN «£»*»« 110*« 6AU.OM tVMMCD ILlOUIO)
lINOUSTbUc IOTHEJ NOT CLASIFOISMCIF* IN XCHAInllTONS kUdxCO ISOLIOI
ICOM^MCL-IMSTUTNLIANTMOACITC COAL UB-UAwOTu MILVTITOMS BUDNCD
IIO-Ut«<«tTU
ico»«e«»ci.
ICO>WCHCL
j'«TMJ*ciTE
IMStuTNLIMtHtfkClTE
EXTCUHI *OILt*
E»TCO«B
ExTC4H.lViITU»!HOUS
iNsrurM.iiiiTu»iNOJS
FlTCflNB nOILE"
BOILED
ICOM>C4CL
ICOH"C«CL
ICOW«MCL
ICOMCHCt.
ICOMWCWCL
|irtTuTNCIHITu«tMOUS
I*sruTM.I«ITu»I*OUS
INSTurN«.la|TUl>INOUS
I1STuTN(.l4tTU»INOUS
|NSTU'NCI*ITU«1HOOS
COM.
COM.
COAL
COM.
COM.
COM.
COM.
COM.
COM,
COM.
COM.
COM.
COM.
I«IOMMBTU •ULVIZEOITOMS BUMMCO
KttMMBTU STO*E« I TONS BU*«£0
KlOHXkTU S*0$ro«M|TONS
IOTMEB/MOT CLASIFOITONS
I1B-I(*M«TU
HO-180»~«TU
BIMKEO
Ml'ONNBTU OFkTOKEMITONS
MIIIHMTU OTST04ENITONS
KIONMBTU S»OSTOK*ITONS
KIONMBTU MANOFIACITONS
IOTNEM/MOT CLASIFOITONS BUI>MO
IU-lBO-MOtU PUL'TITONS «U»*«0
EXfCiJMO
EXTCOI* «OtLt«
>"0 SOILE»
EXTCOWI
EXTCO-*
iu-i««>M«Ttj
IU-IOOOHBTU!
KltMWTU OFsTunEIIITONS
CSTCOMI
EXTCOH8 *OKt-
ICOiwCHCL-I"iTI>TUTNi.l'*.5l9UM. OIL
ICOOT
EJITCOM aoiun
»TCOM» kOlLED
EirCQ^ 30ILE*
EITCOM6 HOILE*
I»100MI»,TU/M<
Ui-i««iM«ru/Mi>
ICOMMC-CL-1 *STU TM. I "000
IIBBB MU.OMS
I1BBO ftALLONS IUMCD
I"ILLION CUBIC FEET
IOILLIOM CUBIC FECT
IMIU.IOM CUBIC FEET
i rows SHAMED
BASIK-lMM^ni/MJ IIBBB UU.0** flUNNCO
•rTDULEUM OASKtOMMIlTU/Mli I10«« VAlLOttt BUMtCO
X/NOT CL»SIFOIS«CIFT m *t**»*\BILLION CUBIC
ICO>WCMCL-1>n BU»«»CO
lNT<>MLCONilUSTtONlELeCT»IC etMtctTNINATu-M. «*S iTuTCIMF I»|LLIOM CUBIC FEET
ITMOUSAMO& OP 9AL.UOMS
BEseoATNinTMe'/NaT CLASIFOISOCCIFV IN KMAMIMILLIOM CUBIC FEET HMMfO
IN MEMAJMIIOBB 6ALLONS BU*NCO
U«B« 8ALLONS BU/NT CL»»IFOITO*«S MOOUCEO
•/METM«THt»U*«E GAS |10>«$ MODUCCD
•/METMNTN|STOw«aE/LOAOI«« I TONS MQOUCCD
«/COABS«>ai*EGENCOATC« E<|T ITOMS FHOOUCiO
itA IOTMC*/SOT CLASIFOlTOMS PTOOUCEO
lAHMOHtUW NITMATC ISEItCAAL
iNOUSTHtH.
»HOCtSlC>«MtCAL
«»o«siCwr«tc»L •*«
INOU«TM|AL HIOCESIO^NICAL 1*0
INOUSTHIAL »HOCtSICheniCM, i^O
INOUiTRUl. HoOCESICMtMICAl •*<•
•«OCtSICK€««lC«L i^O
!NOUST»tAL
IM)Usr»UL
•»*
(H.ACH
ICARBOM OV.ACK
ICA«BOM BLACK
KLACK
iMOUSTNIAl •HOCEblCMCMIC»L
JNOMTHUt. W»O«SIC«e>«IC»l.
"**
INOUSTHIAC »«occsiCHt«ic>k •**
ITOMS F*OWCtD
KMiMHttUM NITRATE IOT>^R/NOT CXASirOlTONS WtQOUCEO
i CHANNEL »«octss ITOMS PMOUCEO
MOCEbS ITOMS PttODUCEO
MOC »A$ ITOMS MOOUCtO
IFU*MACC MOC OIL ITOMS MHIPUCEO
IOTNCN/MOT aA>FO ITOMS MOOUCT
I^VWOL/VISTIUMMLITOMS PNQUUCEO
IOTMC«/MOT CLASTD I TONS MOOUCt
ITOMS IHKKiUCtO
MOOUCCV
IUtt»lFf«-OIA»'MNUBB TIN* CMLOVIMC
CELllM TOM OH.ONIM
IClBUOM M.ACK
M(B
|CMLO»INC
IC»tO»IN»
June 1978
-------
TABLE 2.1-A. (Continued)
NATIONAL EMISSIONS DATA SYSTEM (NEDS)
SOURCE CLASSIFICATION CODE (SCC) REPORT
UG-2.1r50
t
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INOUSTRIAL
INOUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INOU5TUIAL
INOUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUS TRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
IMOuSTMtAL
INDUSTRIAL
INDUSTRIAL
INOUSIRIAL
I SOUS TRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
II
PROCESICHEMICAL NFG
•ROCESiCHEMlCAL MFG
OBOCISI CHEMICAL MFG
oROCESICHEMICAL NFG
PROCES(CHEMICAL MFG
PROCESiCHEMICAL MFS
»MOC4SI CHEMICAL NFG
PROCESlCnEMICAL MFG
PtOCESICHEMICAL MFC
•WOCESI CHEMICAL HF(i
CATESOttt NAMCS
•••••••••«•••••
III
UNITS
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
!NOU*OCEs I CHEMICAL MFG
<"<*
fc!»OcE SI CHEMICAL n't.
H>iOCESIC"EMlC«L H^te
••"OCE SI CHEMICAL "fH
t^OCEs I CHEMICAL »"6
»"OCESICH£MICAL nrs
PfOCEb I CHEMICAL "'0
•WOCES I CHEMICAL «'G
CHOCtS I CHEMICAL Hf«
frtoCES I CHEMICAL H^G
-aocEsiocMtciL MFC
RROCES1CMEMICAL HT6
"MOCE si CHEMICAL MF6
•»*>OCES I CHEMICAL *rs
MUCES I CHEMICAL MF«
RROCESICHEMICAL
OOOCES I CHEMICAL
'RDCESICMEMICAL
RROCES I CHEMICAL Mf«
»«OCES I CHEMICAL M*G
PROCES ICHEMICAL
»f«
PRDCE51 CHEMICAL H*«
PRDCES1CH«MICAL »fG
RKOCCsi CHEMICAL Mfo
•ROCCSICnEMICAL •»•
KBOCES I CHEMICAL »F6
RROCti I Ck-EMICAL H'S
poocts i CHEMICAL nro
"hOCli I CHEMICAL »f»
HEMICAL Mf^O
>>ROC£SiCHEMtCAL Mfs
RROces I CHEMICAL MfG
POOCE3 1 CHEMICAL HfS
pRDcts i CHEMICAL MTS
fc>»OC£S I CHEMICAL MfG
•SOCES I CHEMICAL HfG
PROCES I CHEMICAL »'«
»»octs i CHEMICAL
MICAL
»ROCESICHEMICAL
P«OC£S I CHEMICAL »*G
RRDCtSiCHEMICAL MT6
"•••OCE SI CHEMICAL MT«
fxucts I CHEMICAL M»«
ICHLO»-AL««Ll ILOAOIN6 TNKC4MVNT1100 TONS CMLM1NC
lOLOi-ALKALI ILOAOIM6 STGTNKVNTI UO TONS CMLORINC
ICHLOR.ALHALI t»IR-«LO« MC auiNEUOO TO»i4 CMLOMItC LIUuEflEO
ICMLOU-ALXALI I or HER/NOT CLASIFOIIOO TONS CMLONtNC LtOWIU
ICLEANING CHENICLSISOAP/OET SI»«Tij«TRI TOWS PRODUCED
(CLEANING CMEMICLSISPECIALTT CLfAlflSITOMS PRODUCT
ICLEAMNC CHEMICLSIOTHERS/NOT CLASfOITO"* PRODUCED
IEXPlOSIVE$-INT INlTRAtlON REACTBJITOwJ PROOUCtD
lElPlOSIVES-TNT IHMOJ CONCTRTMS I TON* PRDOuCtO
lEXRLOSIVcS-TNT IM2SO* »E6t»«£BATHITONi MOOUCEO
IE«PLnSIVES>TNT IRfO *ATER INCIN I TOMS P«OUUCEO
lEHPLOSIVeS-TNT (OPEN HASTE BURN I TONS BUn»EO
UiPlOSIVES (OTHER/NOT CtASIFOlTONS PRODUCED
IHTOROCHLORIC ACIOIBYPaOOuCTK/OSCRUBITOMS FINAL ACID
IHTObOCHLOAIC ACIDI6YOSOOUCT n/SCRUaiTONS rinAL ACIO
IHYOROCMLOMIC ACIOIOTHER/NOT CLASIFOlTONS FINAL ACID
IHTOROFLUOHIC ACIOIROTRY«lL«M/SC> ACID
IHYDROFLUORIC ACIDIROTdYKILNI/OSCHUIlTONS ACID
ACIOIGxlNO/ORY FLUOSPRITONS FLUORSPAR
ACIDIOTHER/NOT CLASIFOI TOH.S ACIO
ACIO IAHMONIAOXIUATNXOITONS PUME ACIO P«OOUCED
INITPIC ACIO IAHMONtAOXIDATNNt»lTON$ PUvC ACIO PRODUCED
INlTwIC ACIO INITACO CONCTR QLOITONS POKE ACID PRODUCED
INITBIC ACIO INITACD CONCTR ME.I TONS PUKE ACIO PRODUCED
INJTBic »CID-«EA» IUNCONTUOLLED (TONS KUWC ACID PRODUCED
INITBIC ACID-KEAK ID/CATYL/COMOUSTENlTONS PUKE ACID PRODUCED
INITBIC ACID-STRNGIUNCONTHXLIO I TONS PU*E ACID PRODUCED
INITBIC ACID-STHH«H(/A8SO»»E«S I TONS PU»E ACID PRODUCED
INlTtrc ACID lOrxfR/NDT CLASIFDlTONS «HJ«E ACID MIOOUCEO
IBAlNf Hfr. ICENEKAL Iro«S PROOUCEO
I»HHT HFG IVItNCMT *ILN ITOHS PRODUCT
(PAINT MFG I OTHER/NOT CLASFB I TONS MOOUCT
IVARNISH >FG IBOOTIN& OIL SENL (TONS PRODUCED
(VARNISH MFG IOLEORESINOUS 4E"LITOHS PRODUCED
(VARNISH MFG IALKYO RENEWAL I TONS PMOOUCED
IVABNIbH MFG (ACHYLlC SE*>£RAL I TONS PRODUCED
I VARNISH MFG (OTHER/NOT CLASSO (TONS PROOUCEO
IPHOS'ACIU »t,TP40CiaEACTUii>UNCONTLO (TONS PHOSPHATE ROCK
1PHQS.AC10 «ETPBOCIGrPSUH PONrt I TONS PHOSPHATE rtOCK
(HMOS-ACID >£TPROCICONOENSR*U«COl>.TLDlTONS PHOSPHATE ROC*
IP-OS-AC 10 »ETPHOCiaTHEH/»OT CLASFO ITONS PRODUCED
iPHOs-Acio THERMAL i GitKRAL iroos PHOSPMOM
||>HOS-ACIU THERMAL I OTHER/NOT CLAiTO (TONS PRODUCED
IIH.ASTICS IPVC-GEN£R*L ITONS PRODUCED
(PLASTICS IPOLYPROO-4ENERAL ITONS PROOUCEO
I»LASTICS IBAKELITE-«EN£i»AL (TONS PRODUCT
IHLASTICS lOTHER/tOT CLASTO I TONS PROOUCtD
tt-THALlC ANHYDMIO«UNCONThOLLtO-<4NLItONS PDOSUCED
(PRINTING INK
(PRINTING INK
(PRINTING INK
(PRINTING INK
IPRtNTINS INK
ISOOIU* CARBONATE
ISOOIUM CARBONATE (HANDLING
ICOMIM-GENErtAL (TONS PRdOUCtO
ICOO'INn-OtLS ITONS PMOQUCED
ICOOKINO-OLEORCStN4TONS PRflOUCEO
ICOOKINfl-ALXYOS ITONS PRODUCED
(PIGMENT NlAtNSAENlTONS F1CMCNT
IOTHER/NOT CLASTD ITONS PRODUCED
IAHMONIA RECOVERY ITONS PROOUCEO
IGENERAL
1*9.7 CONVERSION
19*.S COMVEttSItIM
(SODIUM
IMJSDA -CHAMMEU
IM2SO»-CONTACT
IHZSO»-CONTACT
|MZSO«-CONTACT
1MZSO»-CONTACT
IH2SO«-CONTACT
IMJSO*-CONTACT
(MZSO»-COHTACT
(M2S04-CONTACT
(HZSO*-CONTACT
IH2SO»-COHTACT
(SYNTHETIC FIBERS INfLON GENERAL
(SYNTHETIC FIBERS IDACRON SEVERAL
iSYNTHETIC FIBERS IORLON
•SYNTHETIC FIBERS (ELASTIC
• SYNTHETIC FIKRS i TEFLON
(SYNTHETIC FIBERS I POL TESTER,
•SYNTHETIC FIBERS INCH**
• SYNTHETIC FIBERS I ACRYLIC
•SYNTHETIC FIBERS iTYve*
|SYNTȣTIC USERS IDLEFINS
(TONS PROUUCEO
IOTHER/NOT CLASFO ITONS PRODUCED
ITONS PUIHI ACID
(TONS PUME ACIO PRODUCED
ITONS PUtaE ACID P»OOVCtD
I TONS PUME ACIO PROOUCEO
ITONS PUHt ACIO PRODUCED
ITOHS PURE ACIO PROOOCIO
ITONS PUMC ACIO PROOUCfO
ITONS PU*e ACIO PRODUCED
ITONS PU«f ACIO PRODUCED
ITONS PUHC ACIO PRODUCED
K4.0 COUVfMSION
1*7,0 CONVtHSlUM,
196.0 CONVEKSION
IM.O CONVERSION
l«*.0 CONVERSION
1*3.0 CnNVEFSION
I OTHER/NOT CLAkFO ITONS PRODUCED
ITONS FIKR
ITONS FIBER
ITONS PRODUCT
I TOMS PRODUCT
ITONS PRODUCT
I TOWS PRODUCT
ITONS PROUUCT
ITONS PROMCT
ITONS PRODUCT
ISYNTHETIC FIBERS IDTMERS/NOT CL'SFDITONS PROCUCEO
ISCNISYNT-.TICFIBR IRAYON «ENE»AL ITONS FIBER
ISfHISYNTMTICFIBH (ACETATE ITONS PROOUCEO
ISENISYNTHCTICFIBRIYISCOSE (TONS PROOUCEO
ISr-ISYNT-TICFIBir (OTHERJ/NOT CLASPOITONS PRODUCED
iSTNT-eTic RUHBER iauTAOiE«-«ENe«ALiroN$ PROPUCT
ISYNT-ETIC RUBBER ("ETHYLWORENE^NLITONS PROOUCI
ISYNT-ETIC RUBBER I»UTYN£ GENE-AL ITONS P-OOUCT
ISYNT-ETIC RUHUE* IPENTAOItNE-«E«*RL ITONS PRODUCT
I-.YNT»£T!C RU48ER I01»ETHHCPTNC 6ESLITONS PRODUCT
ISYNT-itTIC -UMBER IPENTAW-«E«.£RAL TONS PRODUCT
ISYNT-FTIC RUBBEi, (ETHANENITSlLE-«EN TONS PRODUCT
ISYNT-FTIC RUHBER I»C»Y».ONIT»ILI-«ENITO>IS PROUUCT
(SYNDETIC RU8BE* (ACROLElN^ENEnC TOW PRODUCT
ISYNT-FTIC KUH8ER IAUTO TIRES GENtiL TOW PRODUCT
(SYNTHETIC RURBEH IOTMER/NOT CLASPO TONS PRODUCT
I'ERTILIZ ANONNITR(PRILT«R-N£UTRLIZ« TONS PHOOUCCD
IFIRTKI7 AMO«NITR|PH|LLIN« TO.S JSw SwouSo
AMONNITRiPMlLT»»-ORYCOomS TONS PRODUCED
N
(PERTH IZ ANONNITRI«H««OL»T-|H.YCofl».- TONS
Jime 1978
-------
TABLE 2.1-4. (Continued)
NATIONAL EMISSIONS DATA SYSTEM (NEDS)
SOURCE CLASSIFICATION CODE (SCC) REPORT
UG-2.1-51
SCC CATEGORY NA-ES
t
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INOu*I»IAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
iNousT»i»t.
INOUSrHUL
tNOUSTRI*!.
• II
PROCESICHENICAL «FG
BBocEstCH£»icAL MFG
PROCESICfENICAL «F6
CBOCIS i CONICAL "*s
»aoccsic>^Hic*t. »**
>»BOCeSIC>-tNICAL ffO
"MOCESI CHEMICAL »FG
KMOCESICxEHlCAL Mf6
FRocisiCHrmcAL we
-UMvCtSlCMENICAL NFO
PBOCESIO€"CC»I. "»G
OMOCESI CHEMICAL MFG
DBOCESI CHEMICAL MFG
Mioc^lCHCmCAU tfG
>-eOC£SICH£MJC»l. MTG
III
I*
UXITS
IFE*TILl2-NSUPPHOSI6SIOI»YE»-COOLIRS irons PRODUCED
irEMTlLlZ-OIANPHOSIAMONlAT-GHANULATEITONS MbOUCEO
IFERTILUER IOTNER/NOT CLASIFOITONS MOOUCEO
IT£RE»Tt«ALIC ACID IHHOJ-P4HAATV.ENGENITONS MOOUCEO
ITEM»THALIC «cio IOTHER/NOT CLASIFO ITOMS MOOUCEO
iSUlFuBtELEMtNTALIINOO-CLAUS ZSTAGC ITONS PRODUCT
I*ULFUR(ELE«ENTALMM«>0-CLAUS 1STAGC ITONS PRODUCT
ISULFUB (ELEMENTAL) IMOO-CLAUS «STAGE iron* PRODUCT
I>ULFUR>IC*«.
BAOC£SICH«M!CAL
i««»»t/orMt«
ICALClMtrtON
IHOUSTM1M.
INOUSTRKL
INOUSTBUL
INOUSTRIAL
INOUSTDIM.
1HOUSTBUL
iNou>raOCESIOCH(CAL »»'«
H*OCESICHt»!CH. Mf\>
fhOCESICMCNICAt. "»0
CBOCESICHCXICAL wo
i>«OCEb I C«€»IC»L. Hf«
MOCESICHCHICAL, •*«
KROCESlCxEMtCAL H»G
i>«OCf>IOeHICiL "»16-<>.T-IHOt«S»H
I4001U"
i SODIUM
I SODIUM SULFITE
IS001U* SUL/ITE
ISOOIUM tlClBS
airMtuM HTOHo«io£i«tHEi»iL
IfCftTlLlICA U^C* ICEMtSM.
IAQNCSIVCS
(ACETATE FLA»E
ItCETimE
IMALEIC AWTURtOE iGEtaCltAL/'OTMCa
H>OLVI»L »TaiLIOOniOt»£»AL/Or«t»
iron* MOOUCT
ITONS or MOOUCT
OF MOOUCT
MOOUCT
irons MOOUCT
ITONS P«oOUCT
ITOMS MOOUCT
' ITONS MQOUCr
irons MOOUCT
ITONS MOOUCT
UIMVMI TOnS PHOOOCT
IOT"<»/SOT CLASFO ITONS PMCDUCf
lOTnCN/NOT CLASfO ITONS MuOuCT
irons fttoiMJCT
I TONS
lOEMEKAL
P"OCtilCn£"IC»L »*S
tH.OCC»lCHCMlC*C >*G
G«(£N HCANS
iSToncR/coOLE* irons e«eT CLA»FO I TONS MOAUCT
trONS ««ttN »CANS
I«AL£!> COTTON
INOUSTRIAL
INDUSTRIAL
INOUSTM(AL
INOUSTRIAL
t NOUS TRIAL
l$M>*r
iux.OAOin«
iCLt»Ne-
ISTtCK/HUHH
lOTHEri/NOT CLASTO :«ALE» CuTTON
i HALES COTTO*
COTTON
INOUSTMIAL
InOUSTRIAL
INOUSTBIAL
(NOUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INOUSTMIAL
INDUSTRIAL
INOUSTHIAL
INOUSTRIAL
INOUSTBUL
INOUSTBIAL
tNOUIt TRIAL
INDUSTRIAL
INOUSTHUL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INOUSTR.IAL
INOUSTHUL
INOUSTMIAL
INDUSTRIAL
INDUSTRIAL
INOUSTRIAL
INDUSTRIAL
INDUSTRIAL
tNOUSTBIAL
INDUSTRIAL
ACio/Atsiatne«»L/or-t« ITONS
I.4SI' GAS fXABES IOTM£il/nOT CL4SIFOIHIU.ION CUIIC 'EET
lOTMEa/NOT CLASIFOISPCCIFr IN -EcAlMC I TOMS MOOUCT
ITOMS
»WOCtSlFOOO/Al>HICULTU>)ALIALrA4.rA 0£MTO»ATNlOT»tH/NOT CLASFO ITONS MOCUCT
ixocisiFooo/AGBicuLTUBAiicorrfr DUASTIMC IOIRECTFIRE »OISTR irons wem
»HOCEii''o.>o/n.»tcuLTu»»\.icorr£f woAsrina
osoctsii'ooo/xiuicin.ru-'n.icnrrif HOASTING
»«0«MFOOO/»t»»tCO>.»U»»LICO»»t» -OAST IN*
!>MOCESlFOOO/Ai>4|CVLrUrtALlCOFFe>. INSTANT
»>iOCt:>ifooo/AtieicoLru4ALiCi>rr-Mi nlN*i»«
MHic£Sirono/At>i>icuLTu0iLiC4iTui> niNNiN*
"BoctSlfOOO/»WHCW.riM»LiCOITUN C-INN|N«
FMCESlFOOO/AMICULTUtrALICOTTun VINHlNC
MOCESifOOO/»tM(CULTU>>ALirEEO/Gi>A(N
MOCESlFOOO/AiMlICULTbMALirEEO/CMAiN TCHNCUlTUANSFrR/COkVtrMirOM «NAIN WMOCESSEO
vHOCESlFOOO/AMICULTUMALlfEEO/GBAIN TEMHtLlSCfeNlMi/eXEAiMaiTONk W»IN owOCISSCO
MMCESirOOO/Afc>!CULTU>>ALirEEi>/MAlN TEONtLIOKTiMC I TONS MAIN IhiOCESSSO
>HtOCESlFoOO/A«M|CULTiHAklFrEO/GafW O.T»Tt ISfH»*«'tiECf !»•* ITONS ««AlN KROCESSCO
f~OCEalFOAO/A»riICUI.TlMALlFEEO/aHAlN CNTRTriTNAMSFtM/CONVEnMllTONS WAIN MtOCESSEO
MOCESlFOOO/Aii«iICUXruuALIFEEO/»«AlN C)|TRVCISCMEN1N«/CLCAiN MOCESSING isor IEAN ITONS GRAIN PMOCESSEO
MOCESIFOOO/MMICULTURALIGRAI* MOCESSING HA«n.ET/wSINC i»tr co«n -ILLING ITONS OF MOOUCT
»«octsirooo/A»«icm.TUB4Li«i>«t* MOCESSINC i««t»r FLOW NILV ITONS M^OWCT
"»*oetsirooo/A»aici>LTuBAtiR»AiN MOCESSING IOTMR/NOT CLASFO ITONS MOCESSIO
MOClSIFOOO/AiiBICULTUNALIFEEO MANUFACTURE IIARLET FEEO-GENL ITONS GRAIN MOCEiSEO
MOCESIFOOO/AICNTATIONHKERI S*CMI>.G irwouSANgs OF GALLONS
MOCESIFOOO/AG*!CULTURAllFE*«tNTAriON-GEEIIIOT»EM/NOr CUSFO (GALLONS MOOUCT
»ROCtStFOOO/A«aiCULTU»ALIFr>N>t«TAT10M-GEERtOTHER/NOr CLASFO ITONS GRAIN F*OCESSCO
MOCES|FOOO/A»MlCuLru<4ALirER«ENTATN-«*IS*TIC*AtN ^ANOLlM ITONS GftAtN MOCESSEO
>«OttSIFOOO/A6tfICULTUMALIFCRMeMTATNK«flSNTIORVING JF<»T GMINITONS GRAIN MOCESSEO
MOCESIFOOO/A«»|CULTUAALIFEaMENTATM-«MlSiiTIAGIN« ITONS GRAIN MOCESSEO
«RocESRicuLru«ALiFeR«cNrArN-M*tsiiriorHC»/*iar CUSFO i GALLONS MOOUCT
MOCESIFOOO/A6l«ICM.TUi)AllFEII«CNTAri«.»|Ne IGCNE*4t I GALLONS MOuuCT
»«OCESIFOOO/AGHICULTU«ALIFISM «EAL
MOCESIFOOO/AGMICVH.TURALIFISH HEAL
CROCESIFOOOVAGMICULTUXALIFISK KAI.
MOCESIFOQO/AMICULTU«ALI»IV< MEAL
oRoctsiFooo/AiMtcuLTu^ALif AT SN««ING
MOCESIFOOO/AO*ICULTU«ALI<IAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
icooneRs-»"ts>»Fis»iTO>rt FIJI* >HAL MOOUCEO
ICOOKENV»STALEFISWITONS FIV« NEAL, MQOUCCO
IOHIEBS • ITONS *is» SCMA*
IOTMEM/>«OT CLASIFOITONS PROCESSED
ISTNCRAL ITONS HCAT S*QKEO
i GENERAL ITONS STA«CH MOOUCEO
MOCCSIFOOO/AMICUt.TUflALI CANE IMtOCESIGENEMAL ITONS SU*A» MoOUCXO
BaOCESIFOOO/AGRICULTURALISUCAo CANE MOCESIOTH£R/M>T ClASIFOITONS MOCESSEO
FROCESIFOOO/AGRICUiru«ALISUGA* IEET MOCESIOttrEK ONLT ITONS RA. WETS
*RocESiFoao/ASRtcuv.TUBAi.i$uaAM WET MOCISIOTMC«/NOT CLUIFOITONS R». KETS
PROCESIFOOO/AARICULTUliALIPEAnuT MWOCESSINOIOIL/MT O.ASFU ITONS RWuOVCT
R«WCISiroOO/»GHICULTU»Atl»EANUT MOCESSING I OTHEH/NOT CLASFO ITONS PWOCESSSO
Moctsiro«J/4i.»icuLm»4LiCANOr/c8««FECTNR» IOTMC«/<>OT CLASFO ITONS MOOUCT
'NocESiFooo/AuMicuLTiMALiaAiBr MOOUCTS IMILX S»NAT*ORTER ITONS M^OUCT
'MKOIFOOO/AGRICULTuaALIOAIBr FaOOUCTS IDTnEil/NOT CLASFO ITONS MOOVCT
MOCESIFooO/A6BtCULTUWALIOTHrB/NoT CLASIFQIS>CC1FT IN RE»AH«tTONS MOCESSEO
»ROCESiFooo/A!MicuLruRALiorNei>/Nor CLASIFOI SPECIFY IN ut»tm>io*i »*VOVCEO
METALS IALU*INUI> ORC-VAUIICRUSNING/NANOLINCITONS OF ORE
UL. 0»t-€LECROnON|MES»«t au.5 ITONS ALU»INU» MOCWttB
IAL r«£-ELECMtiOEDNIMU«tZSTO SOOEu«MITONS ALUMINUM PHOOuCEO
IAL oae-CLEC»o«ONivi*rsTo SOOERMEMG ITONS ALU^INIJN MOOUCEO
IAL O'C^ELECHWEUNINATEIitALS HANULNCITOMS ALuoINUN MOOUCtO
IAL 0»E-CLECaoB£UNIAMOOe GAKC FUMiiCtlTONS ALU<*INUN MOOUCEO
IALU»INUN OPt»4T>i lOTMEH/nOT CLASFO ITONS ALU*IMUN PVOOUCEO
IAL O«*-CALC ALHtqiOLNEMAL ITONS ALU»INU» MOOUCEO
iconr »CT HTPWOOUCITGENEMAL ITON* CMC O«A»GEO
ICO«£— tT fTIMODUCIOVEN- CNARVING ITONS COAL CHAWGCO
tINRVTl
•*»OCt*JM|MA»T HCTALi
»«0C(SIMIMAMr METALS
OROCESIMIHART MCTALS
MOCESIMlMAhT MC.TALS
PROCESIMINABT MtTALS
pBO«SIP«Ii*Awr MfcTAL»
N»TALS
MIKlilMIMAttT HtTALS
-inVS"
17/O
-------
TABLE 2.1-4. (Continued)
NATIONAL EMISSIONS DATA SYSTEM (NEDS)
SOURCE CLASSIFICATION CODE (SCC) REPORT
UG-2.1-52
SCC
t
II
NAMES
III
IV
INDUSTRIAL PMOCESIPBINAMT METALS
INDUSTRIAL PBOCESlPaiMAWr METALS
INDUSTRIAL PROCESIPMIMAMT METALS
I COKE-MET 8VPBOOUCIOVEN Pu$HtN«
ICO«E-M£T 8VPBOOUCI9UENCMIN4
ICOKS-MET 8TP800UCIUNLOAD1N9
ICOǣ-ȣT
INDUSTRIAL OHOCESIPMIMAHY
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
IMOUSTHUL
INDUSTRIAL PHOCESlPHtNAHr METALS
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL PROCESIPBIMAMY METALS
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL frROCEMPaiNAMT HCTALS
INDUSTRIAL i-ROCESlPHIMAMY HCTALS
INDUSTRIAL PaoCESIPMNAhY M(.TALS
INDUSTRIAL PROCESIPRIMARY
IMOUMPIAL paoccsiPHiHAHT
INDUSTRIAL
INDUSTRIAL
INOUSTBUL
I»OUSTBUL
INDUSTRIAL
ICOKE MET-HEKWIVE IOCNEBAL
ICPPPEB S-ELTEH ITOTAL/bENCKAL
ICOPPER SMELTFR |ROASTING
iCnPO'u SMELTE* ISMCcTlN«
1COfPCB »»£LTER ICOMVERTIN6
ICQPPCa SHELTER
ICOPPiH MIHC
ICOPȣ8 SMELTEi)
IFERALlOY OPEN FNClSa* FE»I
IFEBALLOT OPCN FNClTit FCSI
IFEBALLOY OPIN FMCKUt 'ESI
IFERALLOY OPE" FNCISILICON MJTAU
IFEBALLOY OPEN F*CISILICO»AN6AMlSE
IORC OHYCR
INOUVINIAL
(SOUSTUlAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INOU*TBUL
INOUSTHUL
INDUSTRIAL
INDUSTRIAL
JNOU«TBUL
IMDUST4UL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INOUSTMUL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
METALS
>«tT»i.S
METALS
•"»OCt5IPWl»»»T
METALS
»HOCESIP»I»AHY METALS
!><)OCESi)>MIH«Hf If TitS
WA4T ȣTAL-S
»»>tT MfeTALa
UNITS
ITONS COAL CMARaCO
ITONS COAL CMARKD
ITONS COAL CMAR4ED
ITONS COAL CHANGED
CLASFO ITONS COAL CHARSCO
ITONS COAL CMARWO
(TONS CONCENTRATED U»E
ITONS CONCENTRATED ORE
I TOWS CONCENTRATED 0*C
ITONS CONCENTRATED ORf
ITONS COMCCNTKAUa ORC
ITOMi or nut
CLASFO ITONS CONCENTRATES OMC
i TOMS ctfuoucco
i TONS Moouceo
ITOMS PBOOUCIO
ITOMS PBOOUCtO
I TONS P««OUCIO
ITOMS PROCESSED
I0« OUTER ITONS PROCESSED
ILflXCABfl CR-«C«ClRirONS •RbCESStO
lOTHEB/woT CLASFO ITQNS PBDOUCEO
SEMCOvrNOFEROMANGANCSE ITOMi PMOOUCID
COVO FNC ICEHE.HAL ITONS PBOHUCEO
IBLAST FNC-OBECH« I TONS PRuOuCtO
IBLAST FNC-A6LCM (TONS PkuOUCEO
ISINTERIN6 SENE»ALlTONS fBOOUCEO
IOM£-CkuSH/»ANOL£ I TONS Uf oat
|SCABFIN« ITONS PBOCESSEO
ISANO HANDLING OPNITONS MANDLC1
(MOLD OVENS (TOMS SAND 8A«£0
(OTnCB/naT CLASFO (TONS POUOUCCO
KTEEL PBOOUCTION IOP««t»tTM U«LANC£ITONS PRdOUCCO
I STEEL PMOOUCTlON lOPNnEAHTM NOILNCEITQNS fflgOUCfO
(STEEL PRODUCTION IBOF-6EN£RAL ITuNS PRODUCED
I STEEL BooouClIOn lEkECT AtJC »/LANCEI TONS PMbOuCED
ISTEFL PBOOUCTION IELECT ABC NOLAMCClTONS PRODUCED
iOTh£«/il0T CLASFO (TONS PHOOuCtO
lSlNT£*/CBUSNlMi (TONS CONCCNTMArCD OMC
IBLAST P-UUNACE I TONS CONCEMfbATEQ OMC
ITONS CONCENTRATED ORE
(TOYS CO«C£Vr»AT£0 DUE
IHUNOO&OS or TOMS MIMED
(TONS PRODUCT
IFEBROALLOY
I FERROALLOY
I IKON PRODUCTION
11BON PBOJUCTIOM
IIBON PUOOUCTION
11BON PBOOUCTION
I ICrON PBOOUCTIOM
II»ON PUOUUCTIQN
IIBON BHOUUCTIOM
UBOu PUOOUCTION
I STEEL
ILEAP SMFLTEKS
ILEAO SMELTExS
(LEAD SMELTEMS
ILEAO SMELTEBS
IcOLTiNU- MINING
MiTlLi
Mtr^LS
HtTALS
HtTALS
»tT»L3
ItTALS
METALS
»BOCESI»«»I"A«»r
•••OCESIPBINAUT METALS
«IOCESIPWIM»W¥ METALS
•BOCES|P«IMAMT MtTALS
PBOCESIPNIHAHT
PXKESIPBIMABT McTALS
IHABIUM ~~
IP.ABIUM
I ZINC SMELTIN«
I ZINC SMCLTIN6
I ZINC SMfLTlNO
I/INC SMfLTlNC
I ZINC SMELTIN8
IZIMC
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INOUSTfeUL
INDUSTRIAL
INDUSTRIAL
INOUSTRKL
IMOUSTHIAL
INOUSTBUL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INOUSTBUL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INOUSTBUL
INDUSTRIAL
INOUSTBUL
IHOUSTMIAL
INDUSTRIAL
IHUUSTMUL
INDUSTRIAL
INDUSTRIAL
INOUSTBUL
INOUSTBUL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INOUSTBUL
INOUSTBUL
INOUSTBUL
tmOUSTHIAL
IMOU'TMUL
INDUSTRIAL
fBOCES I SECONDARY METALS
PVOCESISCCONOABT MfTALS
PBOCESISECONOAPT METALS
PROCESIS(CONUART METALS
P«OC£SISECONO««T
PROCCSISECONUAMT
PROCESISECONOAHT
PtfOCCSIStCONOAMT
OBOCtSISECO-OArfT METALS
fHOCtLStSCCONOAWr MtTALS
"tTitS
P«OCeSISECONOAMY METALS
»H>CES)SECONOAMr «£TALS
PBOCtSISECONUAUT METALS
PXOCESISECONOAHY MCTALS
P«OCtSIS£CO«H)At»Y M»TALS
PBOCJSISECONOAP.Y METALS
•»0«>ISECONOArfY METALS
»»OttSISECOMUA»Y «CTALS
fwnctS I SCCONOAUT "ETALS
»eoctsisrcoNu»-Y
""OCtSISfCONO.HY
places i secQNQWY
PHOCESISECONOAHV
»»OCESIStCOM>ABY
«"»OCESIStCONt).OT CLASFO
lOCNERAi
MILLINO IUNEHAL
PMOCEi lOCMCR/'sOT CLASIfOITOMS PMOCCSSiO .
(TITANIUM PMOCESS (C»LO»lNATtON S,TAT(TONi P««JUCT
fTIfAWIUM PHbCCS IOT»ff»/*OT CLASIFOirONS P«tt<"CS!»€0
iMiiiNe/PBoctssifcCiTONS o«t
••10*1 SMMO ITONS ""liCfSSED
CAPUfV ' IREDUCTV nILN ITONi P«WES»ED
io«irBj/cALCrNe»s ITON> Moccsseo
tOThEB/ioT CLASFO ITONS- WBOCESSEO
IStNCMAL ITONS P>HiClSSEO
ianAsTN«/MULT-wiTH|TON« WUCtSiED
ISINTEBIWi (TONS PROCESSED
IMOHIZ »ETO*TS I TOMS PRbCCSSEO
IVtBT BEToaTs (TONS PROCESSED
(ELtCTBflLYTIC MDClTOMS P*OCES«CO
IZIHC SHCLTIN6 IOTnER/NOT CLASFO I TONS P"OC£!S£0
IOTMC>«TN IJ.£tT[«i SMELT SEC
IL'.AO SMFLT SEC
ILCA& SMELT SEC
ILEAO DATTEBY
BATTC4Y
SEC
SIC
I STEEL FPUNUHY
I STEEL FOUNOMY
I STEEL FOUNOMY
ISTJEI. FOUNDRY
1-iTEEl
UINC SEC
June 1978
-------
TABLE 2.1-4. (Continued)
NATIONAL EMISSIONS DATA SYSTEM (NEDS)
SOURCE CLASSIFICATION CODE (SCC) REPORT
UG-2.L-53
SCt CATECOrt* NAMES
«*•«•«•«*•••••••••
I
tl
lit
IV UNITS
IHORIZ MUFFLE FNC ITONS PRODUCED
I POT FURNACE ITONS PRODUCED
IKETTLE-SriEAT FNC ITONS PRODUCED
ICALVANIZlNC KETTLlTONS PRODUCED
ICALCININC *ILN ITONS PRODUCED
(CONCENTRATE 0*VERlTONS PROCESSED
IRCVE48-SMAT FMC ITONS PROOUCEU
(OTHER/NOT
PROCESSED
OUWC
lOTMCH/hOT
IFLUA FuBNACt ITONS PROCESSED
lOrxERswOT CLASIFOITONS PROCESSED
IOX1DE «ILM ITONS PROCESSED
INDUSTRIAL PROCESISECONDARY METALS IZINC SEC
INDUSTRIAL PMOCESISECONUAHV METALS IZINC SEC
INDUSTRIAL PPOCESISECONOAHY M£TALS IZINC SEC
INDUSTRIAL «-BOCE41 SECONDARY 1ETAI.S IZINC SEC
INDUSTRIAL >>MOCE*ISECONDARY METALS IZINC SEC
INOUSTHIAL PROCESISECONDARY MtTALS (ZINC StC
INDUSTRIAL P*OCESISECONDARY METALS IZINC SEC
INDUSTRIAL MIOCESISECOMUOIY METALS IZINC SEC
INOUSTHIAL HHOCE*iSECONDARY «CTAL> iMALLEABLE IRON
INDUSTRIAL PROCESISECONOAHY METALS (MALLEABLE IMON
INDUSTRIAL PBOCESISECONOAMY M(T«<.S INIC«FL
INDUSTRIAL PBOCESISECONOABY "CT»\.S I«IC«EL
INDUSTRIAL PHOCESISECONOAHY M^TALS
INDUSTRIAL »<>octsiSEcoNo««» -ET^
INDUSTRIAL PROCESIStCON-JABY *£TALS IFuBNACC ELECTBOOEICALCIIiATIOM ITONS PROCESSED
INDUSTRIAL BHOCESISECONOAHY NfcTALS IFUMNACE ELECTSOOEIMIKINO ITONS PROCESSED
INDUSTRIAL RHCCESISECONOAMY N*TALS IFUHMACE ILLECTROOEI»ITCN TBCATINC ITONS PROCESSED
tINOUSTUUL PHOCESISECONOAHY *ETALS I FURNACE ELECTROOEISA.E FufcMACES ITONS PROCESSED
^INDUSTRIAL >>HOCESIStCONO*MY MCTAIS IFuBNACE ELECTROOE I OTMjR/wOT CLASIFOITONS P«OCESSEO
INDUSTRIAL PROCESISECOtrtiHY «tT»tS 1-tSC CASTfcf AftMCTNiSPECIFT IN HEiAMK I TONS PMbOuCEO
INDUSTRIAL PBOCESISECONUAAY MITM.S IOTHI-/HOT CLASIFDISPECIFY IN BCNARKITOMS
INOUSTBUL "BOCESIMINEBAC PRODUCTS IASPMAI.T »OOFINC I8to»tni» OPERATION!TOMS
INOUSTBUL PBOCESIMINERAL PHOSUCTS I*SP-««LT ROOFINC IOIPPINR ONLY ITONS SATURATED FELT PRODUCED
INDUSTRIAL PBOCLSIxtMEdAi. PuOOUCTS IASPMALT aoOFIwa ISPBAYI^C ONLY ITOMi SATUHATCO FELT PROOUCEO
INDUSTRIAL PHOCE$IMINC»AL PMOOUCTS iASP-ALT BOOFINC ioiPPiN>,/sPUAYiNit ITONS SATUHATCO FELT PRODUCED
INOUSTBIAL PBOCESIMIKCa4L PxOOUCTS IASP«ALT BOOFINC lOTHER/NOT CLA»IFOITOMS SATURATED FELT PRODUCED
INDUSTRIAL »woctsi«iHC-i*i. PMOUUCTS IA$PMALTIC C&MCRETIROTARY O»YEM ITOMS »BUCUCEO
INDOSTRIAL PBOCESIMINCilAL PRODUCTS IASPMALTIC CONCRETIOTnCH SOUMXES ITONS PMOOuCCD
INDUSTRIAL PROCESIMINEBAI. PRODUCTS IASPHALTIC CONCRCTIOTMCR/KOT CLASIFOITONS PRODUCED
ISOUSTRUL "BOCESIMIhEatL PRODUCTS IHRIC< MAWJFACTUBC IOX'tHO-flAH MTL I TOMS PRODUCED
INOuSTMUL PBOCESIMINCrlAL PMOOUCTS IBM 1C* M«NuFACTUt>EI6»lMOlN6-A>M*TL CBUS"/MCI TONS FEfcO "AfElclAL
INDUSTHUL PMOCtblMtNtUAL PMOOUCTS ICASTA4LE aCrB»CttlCkECTiiIC AMC *ELTITOM^ 'Efeu MATERIAL
INDUSTRIAL PHucE&iMiNCier
.INDUSTRIAL PROCCSIMIWCAAC PMOOUCTS ICENENT MFC «CT
INDUSTRIAL MIOCCSINIMCaAL PMOOUCTS (CEMENT MFC «tT
IMOUSTRIAL MIOCCSIMtNEItAL PRODUCTS tCCMCHT «»C »CT
INDUSTRIAL p«ocEStMINERAL PMOOUCTS ICE^CNT MFC »ET
INOUSTHIAL PBOCESIMINERAL PBOOUCTS iCERAMicvCLAt MFC
INDUSTRIAL PROCESI MINERAL PRODUCTS ICERAMIC/CLAY NFC IWINOIMC
INOUSTHIAL PHOCESI MINERAL PMOOUCTS ICERAMIC/CLAT MFC tSTOHACC
INDUSTRIAL PROCISIMINERAL PRODUCTS (CERAMIC/CLAY MFC IOTMCR/NOT auifoiTONS MOOUCCO
INDUSTRIAL PROCCSI MINERAL PBOOUCTS ICLAT/FLTASMSINTEHJFLTASM ITONS FINISHED PRODUCT
INDUSTRIAL fROCfcSIMINCIIAL PHODUCTS ICLAY/FLTASHSlNTEHICLAT/COiU ITONS FINISMEO PRODUCT
INOUSTAtAL FROCESlMlNEDAL PBOOUCTS ICLAT/FLTASMSINTCNIMATUIUL CLAT ITONS FINISHED PRODUCT
INDUSTRIAL PROCCSIMlNCiiAL PRODUCTS ICLAT/FLYASHSlNTEHIOTMCIt/NOT CLAS1FDITON3 PROOUCEO
INDUSTRIAL PMOCCSIMINERAC PRODUCTS ICOAL CLEAMINC iTHEtM/rvuio MO ITONS COAL O*IEP
INDUSTRIAL PHOCeSIMINEHAL PMOOUCTS ICOAL CLEAN INC ITHCMI/FLASM ITONS COAL OHIEO
INDUSTMIAL PHOCESININCRAL PMOOUCTS ICOAL CLEANINC iTMEMH/MULTiLOuvMaiTONS COM, OHIEO
INDUSTRIAL pRoa.iiMINERAL PHOOUCTS ICOAL CLE«NINC iOTHER/NOT CLASIFOITONS COAL CLEANED
INDUSTRIAL PROCEilNINtBAL PMOOUCTS I CONCRETE CATCMlNOIOCNCRAL ICUIIC TAKOS CONCRETE PRODUCED
INDUSTRIAL PROCLSIMINEMAL PMOOUCTS ICONCRETC •ATCMINOIASKST/CEMNT POTSITONS PRODUCT
INOUSTMIAL PBOCtMMINERAL PMOOUCTS ICONCACTE UTCHINtlOTMCR/NOT CLASFO ITONS PRODUCT
INDUSTRIAL PHOCES(NINEMAL PHOOUCTS IFISfRCLASS MFC |Hl«»»FNC-«CCENEJ«ITONS MAnRtAL PROCESSES
IHARBCLS CEMENT PROOWCED
PPOOUCU
TTONj CEMENT iWOOWCtO
ITONS CEMENT PROOUCCO
ITONS CEMEMT PROOUCEO
I OTHER/NOT CLASIFOITONS CEMEMT PRODUCED
IKILNS ICAHNCLS CEMENT PRODUCED
IDHYCHS/C*INOeHCTCUA««ICLS CEMENT PHOOUCC9
iKILNS-OIL FIRED ITONS CEMENT PRODUCED
IKILNS CAS FIRED ITONS CEMENT PRODUCED
IKILMS-COAL FI*EO ITONS CEMENT PROOUCEO
IOTHEK/NOT CLASIFOITONS CEMENT PROOUCEO
ITONS INPUT TO PROCESS
ITON* INPUT TO PROCESS
ITONS INPUT TO
INOUSTMUL HMKCilNINCMAL PRODUCTS IFtM««LASS NF»
INDUSTRIAL fROCESININCIIAL MMMUCTS IFIM«H)LASS NF|
INDUSTRIAL PBOCESIMIMEHAL MUOUCTS iFiM»*t«ss NF«
INDUSTRIAL PWOCEMMINERAL WOOUCTS iFin4a«LASS NF»
INDUSTRIAL PWCCtilMINERAL PMOOUCTS IFIH-«LASS MF«
INDUSTRIAL F4OCESININCHAL MOOUCTS IFRIT MF«
INDUSTRIAL H.OCESH-IMEWAL PUOOUCTS IFRIT MF«
INDUSTRIAL psoctsiMINERAL PMUOUCTS iCLASS MF»
INDUSTRIAL PMOCESININCAM. PNOOUCTS iCLASS MT*
INOUSTHIAL PROCESI MINERAL PNOOUCTS I CLASS MTO
INDUSTRIAL MOCISININCRAL PBOOUCTS iCLASS MFC
INOUSTHIAL "tOCESINtMEHAL MOOUCTS (CLASS HT6
INDUSTRIAL PROCESINlMeBAL PRODUCTS ICTPSUM MFC
INOUSTRtAL MtOCESIMlNCHAL PMOOUCTS I«T»5U* MFC
INOUSTRIAL *«OCtSIH(NE.MAL P*OOUCTS ICTPSUM IMFC
INOUSTHIAL «X«OCKb|MINettAL PXOOUCTS ICTPSUM MF«
INOUSTHIAL »»occsiMINIMAL PRODUCTS I»TPSU« M*»
INDUSTRIAL PMOCESIMINEMAL PMOOUCTS ILIMC Mr*
INDUSTRIAL HMXESiNistMM. PMUOUCTS ILIME MFC
INOUSTKIAL PWOCESiMINERAL PNOUUCTS ILIMC NFO
INOUSTHIAL PMCtSIMINEML PMOOUCTS I LINE *Fa.
tNOVSTRIAL PROCESI«INE«AL Pi*OO«CTS (LINE MFC
INOU^TMIAL. «*oc£SiMii*rt»L p«oowcTS
INDUSTRIAL PWOCESIMINEMAL PRODUCTS
iNOUSTdlAL P«OCeSIHI««HAL PHOOUCTS I-IN€»AL HOOL.
INDUSTRIAL MOCESIHINC.HAL PMOOUCT* IM|NE«AL »OOL
MATERIAL PROCE»SEO
IELECTRIC SNO FNC (TONS MATERIAL PROCESSED
irOBMlteC LIME ITONS P.BTERIAL PROCESSES
ICUJINC Onn I TOM MATERIAL PROCESSES
IOTMERSN4T CLASIFOITONS PMtlCESSEO
IROTART FNC CENL ITONS CHAMCE
IOTMtR/NOT CLASIFOITONS CNARCEO
ISOOALIMC CEHL FNC I TONS CLASS PRODUCED
IRA» MAT MCC/STOMCITONS PWOCESSIO
ICATCMINCyNIJtINC ITONS PROCESSED
(MOLTEN MOLD TAMKSITONS P«uCtSSED
IOTMCR/NOT CLASIFOITONS MOOUCEO
IB. MTL OTTlt* I TONS TM» PROCESSED
ICALCtHNC i»OTT»ILM|TONS PNOCESSEO
IOTHER/NOT CLASIFOITONS PHOCCSU0
I CUPOLA ITONS CMAiiCC
intvEm me ITONJ CMAME
ltLO« CMCJNJEM ITONS CMAPCC
ICUHIM Vttt ITONS O»AM*E
June 1978
-------
TABLE 2.1-4. (Continued)
NATIONAL EMISSIONS DATA SYSTEM (NEDS)
SOURCE CLASSIFICATION CODE (SCC) REPORT
UG-2.1-54
i
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INOUSTHIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INOUSTklAL
INDUSTRIAL
INDUSTRIAL
INOUSTHIAL
INOUSTN1AL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INOUSTHIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INOUSTHIAL
INDUSTRIAL
INDUSTRIAL
INbUSTMIAL
INDUSTRIAL
INDUSTRIAL
INUUSTRIAL
INUUSTRUL
IMiUSTHUL
IHOU4TBUI.,
I.NCUSTHIAL
INOUSTHIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INOUSTHIAL
INDUSTRIAL
INDUSTRIAL
SCC CATEGORY NAMES
*«•«««••«.«••«••••
II III
IV
UNITS
•COOLER tTOHS CHARGE
IOTHER/NOT CLASIFOITON1 MOCCSSCO
(VERTICAL rNC GCN (TONS CMA»«t
• OTHER/MOT CLASIFOITONS PROCESSED
(DRYING (TONS PHOSPttATC ROCK
iGHiftOiHG ITONS PMOSPMATE ROCK
I TRANSFER/STORAGE. I TONS PHOSPHATE HOCK
IOPEN STOMA6E ITONS PHOSPMAlk HOCK
IOTNCR/NOT CLAS1FDITONS PROCESSED
PROCESIMINERAL PHOOUCTS (MINERAL «OOL
PROCESIMINERAL PRODUCTS ININEUAL *OOL
PROCES(MINERAL PRODUCTS IPERLITE MFG
PMOCESIMIMCRAL PHOOUCTS IPERLITE MFG
PROCtSI MINERAL PHOOUCTS (PHOSPHATE ROCK
*«OCES(MINERAL PHOOUCTS (PHOSPHATE ROCK
>>HOCLSIHINEHAL PHOOUCTS I PHOSPHATE ROCK
PHOCES ININEHAL PHOOUCTS (PHOSPHATE ROCK
PROCEblMIkEHAL PRODUCTS (PHOSPHATE MOCK ._ . . . _ ._ .
PROCtSIMlNEHAL PHOOUCTS ISTONt OUAHT/PHOC IPHlHAHT CRUSHING ITONS *A» MATERIAL
•>»OCti (MINERAL PHOOUCTS ISTONE OUARY/PROC IS£C CRUSH/SCREEN I TONS DA* NAfEHIAt
PHOCEitMlHEHiL PHOOUCTS ISTONE 8UARY/PROC ITtRT CRUSfSCNCiNt TONS HA* MATERIAL
fBOCEilMlNERAL PRODUCTS ISTONt OUAH-V/PROC IRECRUSM/SCHEENINCI TONS NAB MATERIAL
PflOCESINIhEHAL PHOOUCTS ISTONE OUAflY/PROC (FINES MILL ITONS RAH MATERIAL
fttOCC&IMlNEHAL PHOOUCTS ISTONC OUARY/PHOC ISCMEEM/COMVY/HNOLITONS PRODUCT
PROCESIHINEH4U PRODUCTS ISTONE OUARY/PROC (OPEN STUAAM ITONS PRODUCT STOWCO
HMUCES. I MINERAL PRODUCTS ISTONC OUARRY PROCICuT STONE-GENERALI TONS PHuCESSED
PMOCESI MINERAL PHOOUCTS ISTONE OUARRY PUOCIBLASTlkG-OCNEHAL ITQNS PROCtSSCO
PHQCES(MINIMAL PUOOUCTS ISTONt UUARHY PROCIOTHER/NDT CLA&IFDITONS PROCESSED
PMOCtSIMINEHAL CHODUCTS (SALT MINING (GENERAL I TOMS MlNfO
PHOOUCTS (POTASH PMOOUCTIONIMINE-GIIINO/OHY (TONS ORC
PnOUUCTS (POTASH PHOOUCTIONIOTHER/HOT CLASlFOlTONS PftOttSSCO
(MINING/PROCESSINGI TONS' PRODUCT
(OTHER/DOT CLASlFOlTONS PROCESSED
IMINC/PbOCEsS ITONS PRODUCT
(OTHER/NOT CLASlFOlTONS PROCESSED
ICMUSMlNtt/SCMEENlNITONS PRuOUCT
(OTHER/NOT CiASXFD(TOMS PROCESSED
IHANDLING ITONS PRODUCT
PUbOUCTS ICALC1UM aOHATt
PHOOUCTS (CALCIUM BOBATE
>-ROCEilMIN£HAL PUOUUCTS IMG CARaONATE
••ROCESlMihERAL PHOOUCTS IMG CABBONAfE
PHOCESIMINEHAL PMUOUCTS ISANO/GMAvEL
CROCKS IHINEAAL P4UOUCTS ISANO/CAAVEL
fROCESIMINERAL PHOOUCTS (UlATOHACUUS tARTMIOTHER/NOT CLAalFOITONS PROCESSED
MINERAL PHUOUCTS ICE»»-IC ELECT PTSIOTMIR/NOT CLA»IFOMOHS PHOCESMO
PHOCE!>(MC«£RAt. PHOOUCTS (OTMEH/NOT
PMOCCS(PETROLEUM 1MORY (PROCESS "EATER
PKOCESI PETROLEUM INOHT
f-iCCtSIPETROUUH INOHT
t-MUCtStPCTROLtUM 1MOHT
I PROCESS "EATER
(PROCESS "EATER
(PROCESS "EATEM
CHACXEHS
INOHT
[MOHT
INOUSTHIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INOUSTHIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INOUSTHIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INOUSTHIAL
INOUSTHIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INOUSTHIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INOUSTHIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INOU»TN1AL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
INDUSTRIAL
MISCfLLANEOUS
•ISCfcLLANEOUS
•ISCELLANCOUS
MISCELLANEOUS
(FLARES
IFLARES
I SLUDGE CONVERTER (GENERAL
IAS»HA(.T OXIOlZEP. (GENERAL
ldLO»-00«S STSTM
IfWOCESS CHAINS
IKOOCE5S JHAINS
(VACUUM J£TS
IKCUU» JtTS
PROCESIPtTHULtUM INOnr (COOLING TO«t"S
PDOCESI PETROLEUM INOHT
PHOCljiPtTHOLtUH IHOHT
PHOCESIPETHOLEUM INOHT
••MOCESIPETMULtUN INOHT
PftOCEblPtTMuXtUN iNOHf
PMOCESI PETROLEUM 1NOMT
PROCES I PETROLEUM IMOhw
PROCESIPETROLEUM INORT
PMOCES I PETROLEUM I HOMY
PROCE»(PETROLEUM INOHT
PNOCESI PETROLEUM INOHT
PMOCCjIPCTRuLtUN INOHT
PHOCESIPETROLEUM INOHT
PMOCES (*OOO PHOOViCTS
PROCES(»OOO PHOOUCTS
PNOCESIWOPO PRODUCTS
PROCES1*000 PRODUCTS
CHOCtslKOOO PHOOUCTS
PROCES1*000 PRODUCTS
PROCESIHOOD PRODUCTS
PROCES1*000 PHOOUCTS
PHOCES1*000 POOOUCTS
PHOCES1*000 PUOOUCTS
PROCEftlHOOO PHOOUCTS
PMOCES I »OOO PHOOUCTS
PHOCESI»OOO PRODUCTS
HRDCES I*OOO MOOUCTS
fHOCESKOOO PWOOuCTS
PRQCE>I»OOD PRODUCTS
P«OC£>1*000 PMUOUCTS
PHOCES1*000 PMQUUCTS
K«OCE>1*000 PHOOUCTS
PHOCES1*000 PRODUCTS
PROCES(*«OO PHOOUCTS
PHOCESI*OOO PHOOUCTS
PMOCtSOOOO PRODUCTS
PMUCESI»OOO PRODUCTS
PROCESIkOOD PHOOUCT5
vDOCEaOOOO PHOOUCTS
PHOCESI*OOO PHOOUCTS
PROCESI*OOO PUOOUCTS
HHOCESI«OOO PwuObCTS
HHOCES1*000 PHOOUCTS
P«OCEal*000 HHOOUCTS
xROCESIMETAL FABUICATIONI IMOOi/STCEL
»HOCljl"tT*L FABHICATIONIIuON/STt.EL
(OIL
(GAS
(OIL
(GAS
(GENERAL
CAT-CRACK(GttEMAL ITCCI
aLO»-00»M STSTM l*/CUMruOLS
l*/0 CONTROLS
(GtN (/CONTOUL
(UiN «/0 CONTRUL
IK/CUNlUOV.
l*/0 CONlHOL
IN HC*«A«K|TONS PRODUCT
11000 BARRELS OIL GUNNED
iiooo CUBIC FEET GAS BURNCO
(1000 GALLONS OIL GUMftEO
(MILLION CUBIC FCCT IIURNEO
11000 *Atfii£Lb FHCSM FEED
11000 BAMriELS FRtSH FEU
(1000 BAMRELa RtFINERT CAPACITY
11000 »AR»ELS REFIMEHf CAPACITY
HOOD «AHNEL» >ASTE »ATtH
(1000 BAM0ELS *ASTE lATE"
(1010 »AHMELS VACUUM aiSTtLLAflOM
11000 HAR4CLS VACUUM DISTILLATION
I (MILLION fiALLONS COOLING *ATC«
IPIPC/VALVE-FLANGCI1004 BAkHELS REFINEMY CAPACITY
ivtSL HELIEF VALUE 11000 BAHMCL> REFINERY CAPACITY
(PUMP SEALS IIOOU kAHHELS RCFINEHY CAPACITY
ICUMPRESM SEALS IIOOO BAHNCLS ttEFIMEHY CAPACITY
IOTH£H-*tNL note kAHMCLS Ht/lNlHr CAPACITY
(NATURAL GAS (MILLIONS OF CUBIC FECT
(OTHER/NOT CLASIFOI-ILLIONS OF CUBIC rttt
I TON* PWuCtSSEO
ITONS PROCESSED
ISULFATE PULPNG
ISULFATE PULPNG
liULFATF PULPNO
ISULFATE PULPNG
ISULFATE PULPNG
isuxFATt PULPNG
(SULFATE PULPNO
(SULFATt PULPING
(SULFAn PULPING
ISULFtTE PULPING
ISULFITE PULPING
ISULFITE PULPING
ISULFITE PULPING
ISULFITE PULPING
ISULFtTE PULPING
ISULFITE PULPING
IPULPMARO MFG
IPULPHOARO MfO>
IPULP30ARO HFO
(ASPHALT OXIOIZER IOTMER/NOT CLASIFOIfOMS PROCESSED
(FLUID COKING (GENERAL 11000 »Ak*ELS FRCSM FEED
IOTHC9/HOT CLASIfOISPtCIfr IN HEMARKITONS P«uCCSSfO
IOTMEH/NOT CLASIFOI SPECIFY IN REMARK if ARRCLS^«OCESSCO
ISULFATE PULPNG IBLO.T*. ACCUMUI.TMUIR-OHT TON* UNGLEACXO
IMASHMS/SCREENS lAIRoORV TONS UNGH.CACMCD PVLP
IMVLT-EFFtCT EVAP |AIR-DRY TONS UMCEACMCO P«C»
IRECVY §Ol.»/PCE»A.|«i»-o»T TOM UNGtEACwCO mtP
ISMELT OISSOLV Tl«l»Ji-o«T TONS UNBLEACXO PULP
ILIHE «ILNS IAI«^)HY TONS UNtXtACMCO P«L^
•TURPENTINE CONOSRIAIR-OHT TONS UNSLEACMCD PUL*
IFLUIOBED CALClNERI AIR-CRY TONS UNHV.EACHED PULP
ILIOUOR oiiON TD*RIAIR-ORV TONS UNBLEACMCO PULP
IOTH£M/NOT C4.AMFOlAIP.-onr TONS UNGXEACMCD PULP
ILlflUO* HECOVEHY i»m-oi»Y TOMS UNtxtACMCD PULP
ISULFITE TO*ER IAIR-OHY TONS UNBLEACHED PW.P"
lOIWJTEH (AIR-ORY TONS UNGXIiCMU
ISMCLT TANK IAIR-0«Y TONS UNGXEAOEO
lEYAPOMATORS I AIR-CRY TOWS UN*LCACMCO
IPULP OI&ESTEH iTONS AIM DRY PULP
(OTHER/NOT CLASIFOlTOMi AIM 0>«Y PULP
IP«PE»BOARO-«f» (TONS FINISMEO PRODUCT
«FIBER«O*HO-GEN ITONS FINISMCO PRODUCT
(OTHfR/NOT CLA&IFOITQNS FtNlSMCO PRflOUCT
(•ASSURE TREATING ICHEOSOTE ITONS OF *OOO TREATED
(PRESSURE T«EATINGIOT«R/NDT CLAiUonOW* PF .OOO TREATED
(TALL01L/HOSIN (GENERAL (TONS OF PRODUCT
IPLY*OOO/PARTBOAROiVENEER OHYER ITONS PROCESSED
IPLT»000/PAHMOAbO|$ANO!MO I TON!, KROCCSSED
IPLT.SOO/'PART«OAROtaTBE(>/*oT CLASIFO I TONS PROCESSED
ISA.MILL OPEHATM (OTHER/NOT CLASIFOI TONS PROCCSSCO
(ElttLSIOfc MFG (OTHtH/HOT CLASlFOlTONS PRCCESSED
(CORK PROCESSING (OTHER/NOT CLAalFOlTONS pHuaSUO
(FURNITURE MF9 IOT«ER/NOT CLASlFOlTONS PROCESSED
(OTHts/NOT CLASlFniSPtCIfY IN REMARKITONS PROCEJSW
|W,SC h4fOMBf .TONS OFPRObicT
(FAR* MACHINERY ITONS OF PRODUCT
PROCESIMETAL FAHHICATIONIIRON/STtEL IOTHER/NOT CLASIFOITONS
fROCkSINKTAL FAB-ICATIONIPLATJNG OPfATONSIOT^H/ioT CLASl" TONS
PROCESJMtTAL »ABH1CATIONICAN *AKIN« OPHNS IOTNE-/NOT CLASIFO TOM MMUCT
PHOCES I METAL FAU»ICATIONlOTht.,/NOT CLASIFOISPECIFT IN HEMAHKITOM
MMJCESILeATHt*. PRODUCTS IOTH«»/NOT CLASIF? SPECIFY N REMAM TM!
PHOC£,ITEXTILE HF6 ,«Nt«L FAWICS IYAHN «.ti/.a«N JSi
PMOCeSITElTIn M»0 I.ENE9AL FABRICS IOTHtH/NOT SPECIFO TON*
«ocE»iTt»TKi MFG iRun-uea FABRICSIOT«»>NOT SiciFO TOMS
HHUClSITE»TlLi HF6 ICAHPET OPCRATNS IOTHCR/NOT 5.1^0 TONS
June 1978
-------
TABLE 2.1-4. (Continued)
NATIONAL EMISSIONS DATA SYSTEM (NEDS)
SOURCE CLASSIFICATION CODE (SCC) REPORT
UG-2.1-5JT
SCC CAU8OHY NAMCS
I
It
IV
UNITS
IMDUSTM1AL PMOCCSHMPROCCSS full.
INDUSTRIAL p»oc£iiiNP»occss FUEL
iNCusTriiAL PHOCESIINP-OCCSS FUEL
INDUSTRIAL PMOCCSIINPHOCESS FUEL
INDUSTRIAL •'oocEjiixpsocESi FUEL
INDUSTRIAL »MOCt*l!NPROC£SS FUEL
INDUSTRIAL PMOCC&llNPttOCESS FUEL
INDUSTRIAL PROCCSIINPWOCESS full.
INDUSTRIAL PROCbSIIMPflUCtJiS FUEL
INDUSTRIAL «>R«CES IINPWOCESS FUEL
INDUSTRIAL PHUCe&llMPWOCcSS FUEL
INDUSTRIAL PROC£allNPROC£S* FUEL
INOOSTUIAL pROCEstiNPRoccss FUEL
INDUSTRIAL pRocciitNpHoccss rucu
INDUSTRIAL PftOCCallNPROCCSS FUEL
INDUSTRIAL PwOCEkllNPMOCCSS FUEL
INDUSTRIAL PtoOCtMlNPttOCESS FUEL
INDUSTRIAL PNOClSIINPMOCtSS FUEL
INDUSTRIAL PROCESIINPHOCCSS FUEL
INDUSTRIAL pRoctsitNpRocess FUEL
INDUSTRIAL PROCEallNPROCCSS FUEL
INDUSTRIAL PMOCESUNPSOCSSS FUEL
INDUSTRIAL PHUCtSllNONOCESS FUIL
INDUSTRIAL PHOCESIINPBOCESS FUEL
IHOUSTHIAL OMOCCSIINPBOCESS FUEL
INDUSTRIAL PHOCESIINPROCCSS FUEL
INDUSTRIAL fRocts(INPROCCSS FUEL
INDUSTRIAL t-MOCESIIWpaoCCSS FUEL
INDUSTRIAL PMOCESIINPMOC&SS ruEL
INGuSTHlAL PROCCSIIMMOCESS FUEL
IMOUsTHlAL PMOCEsllHOBOCESS FUEL
IHOUSTRIAL PWOCEJIINPROCESS FUEL
INDUSTRIAL pRoctsiiNPRoctss FUEL
INDUSTRIAL PROCESIINPROCSSS FUEL
INDUSTRIAL "RacesIINPUOCCSS FUEL
INDUSTRIAL PSOCE5IIHPBOCESS
IOTHCR/WOT
ICEMCNT KILN
UMICK KILN/OUT
KrPSUM KlLN/EtC
I COAL DRYERS
ITOM» MIN««eO
ITOHS »UMMCO
I TOW* •UkxEO
I TOMS VUHMCO
lAiPNALT ORTER
•ICEHCMT
ILIMC KILN
(KAOLIN
IHETAL MCLTIN9
KR1CK klLN/ORT
I6TPSUH KILN/ETC
I10gO GALLONS IURNCD
11000 SALLOWS •URNCD
note SALLOWS auHNEO
11010 SALLOW ttUNNCO
1100* SALLONS tURMO
(!««• GALLONS *UfcN£0
1100* GALLONS IUHNEO
IDDUSTRIAL P»OCCSIOTHEH/>lOT CLASirOlSPECtfT IH
Ill
IANTMBACITE COAL
IHITU4IMOUS COAL
I HITUMINOUS COAL
IBITU«!NOUS COAL
)«1TU»1NOUS COAL
I0ITU41NOUS COAL
liIE
SOLID HASTE
SOLID HASTt
>OLVENT (PRrCLrANlMi
IFIXEU NOOr
(FUEU MOO*
IFIXEO HOOT
(FI1EO JOOr
I'LOAMNe ROOF
IFLOATIMB ROOF
(FLOATIMO ROOF
IFLOATIMB ROOF
IOTMER/NOT
llHC*TM!M-*Mguucritl»B BAU-OMa STOMMC CAVACITT
(HflCATHIIMJ CWMIC I1BBO OAU.ONS STORAM CAPACITY
IHOBKIMC-PROOUCT 11*00 BAU.OWS THRQWBMVVT
IHORKIPHI CPUOt (1«BB GALLONS TMRO«IBM*UT
IBREATHINB PWOOUCTI HBO HALLOWS STORAGE CAPACITY
1HOR*I*«^MOOUCT ItOtO SALLOW* TMHOU6MVAIT
IBrtEATHlNB-ChutHi 1KB* BM.LOMS STORAM CAPACITY
(HORKlNtf-CHUUE I1BBB CALLOW* TMHOUSMPUT
IN ri£*A CICAMEO
ICLCANIN6 SOLVENT IUEGU£ASINa ISTOOQ»«0 I TOMS SOLVENT USED
iCLEANlrtG SOLVENT IUESȣiSl"6 IOTMCH/MIT CLAklFDlTOMS SOL'CNT USED
ICLEANIN« SOLVENT loT»t-/NOl CLASI'DISPtCIFt Is *CMAR«ITONi SOLVENT USED
ISu»)fAC£ CDAfiN« I PA INT IBCNEBAL I TONS COAlIN*
(SURFACE COATING IVARNISH/SMCLLAC I6EMEMAL ITONS COATIWfc
(SURFACE COATINO ILAOUtD IS£NtHAL (TONS COATING
iSmtFACC CUATIN6 (tNAWCL IBEMCwAL ITONS CQATINB
ISUBFtbi CMTINtf lr>HIWiM IBCNCRAL ITONS COAT INC
(SURFACE CUATJIHi (OTnEf/itoT CLASIFOlSPECI'T
IPETMOLCUN STG
IPtTMOcCuM STB
(PETROLEUM STB
IPETROLEUM STB
IPETROLEUM STB
IPETROLEUM STB
•PETROLEUM STB
IPETROLEUM STB
IMISC ORGANIC STOBIOTHC»/NOT CLASI'OlSfECIFY tN HCMRKlTONt STgwCD-
IPHIMTIMB PRESS IOBTt»S IBCwCHAL ITONS SOLVENT
IOTMCR/MOT CLASirOIMECIfY In RCHAMilTONS PROCESSED
(MUNICIPAL INCIN (MULTIPLE O-AMUEK (TONS
IMUNICIRAL INCIN ISIN«LE CNAMBEw (TONS
I OPEN BU4NIM6 OU*P|8ENCRAL ITONS WMNCO
I OPEN auNNINB OUWPILANOSCAPE/PRgwINBlTOKS BVHMCO
I OPEN BURNING DUMP I JET FUEL IHUNONfOS OF7 BALLONS
IINClNC-ATOR IPATNXMtCAL ITONS BUuNCO
IINCINCHATOH ISLVOBC (TONS ORY SLU00C
iINCINCAATOR ICONIC«L ITONS WAIMWCD
lINCINfRATQM lOTMCH/^OT CLAMFOlTOMS BUMMCO
I»UX,FUEL/NO CMNSIRCSIDUAL OIL I1BB9 BALLONS
IAUX.FUEL/MO CMNSIOISTILLATC OIL (HBO BALLONS
lAUX.FuEL/MO EHSNSINATUMAL 8AS IWILJLION CUBIC FttT
IAUX.FUCL/NO CMSwSILP* IIBBB 4AU.OMS
IAUX.FUEL/NO E»SwSIOTMCR/NOT CUSintlMILLION CUBIC FECT
(AUX.FuCL/NO CMSNSIOTMCR/NOT CLtStrOllBBB BALLONS
tlOT»CR/NOr CLASIFOITOXS
IMULTIPLE CMAMBER ITONS
I SINGLE CNRMMM (TOMS
ICONTROXLtO MR (TONS RlMMCD
I CONICAL rcFuSI ITONS fAMMCD
(CONICAL WOOD ITONS 4URMCD
IWOOD ITONS BUMNCO
IfLWC FtO ITONS BUvMCO
IFLUC FED-MOOIFItDITONS BUBWCO
IPATWXOBICAL ITONS atMINC»
ISLUOBC ITONS ORY SLMMC
IOTMCR/NOT CLASIFDlTOMS XNMCO
IAUX.FUCL/NO CMSMSIftCSIOVAL OIL IKBB BALLONS
I AUX.FUCL/NO CMSHSIOISTILLATC OIL 11000 BALLONS
IAUX.FUEL/NO CMSNS i NATURAL MS IMILLION CUBIC rcer
IAUX.FUEL/NO LMSNS(LPB I10BB BALLONS
UUX.FUtL'MO C»S»SIOT«€t«OT CLASIFOllBB* GALLONS
IAU*.FUIL/NO EMSMSIOTKtR/HOT CUAJIFOITOWS
IINCINCRATQPj IMULTIPLC CMAMVCB ITONS WUwMCO
I INCINERATOR ISINOLC CHAJWJC* ITONS miH^tO
IINCINCMATOR ICONTROLLEO Alii ITONS •UMMCO
IINCIMCRATott ICONICM. KfUSE ITONS MMNfcO
I1NCIMERATOM ICONICA4. HOOD (TONS MUMMCP TimW iQ-fQ
IINCINCMATOR IOPIR riT ITONS OF HASTE OU«e i^/O
I60VCMMMCNT
IBOvCBMHCNT
I80VEMNMENT
lOOvERMMCNT
IOOVE>
-------
UG-2.1-56
TABLE 2.1-4. (Concluded)
NATIONAL EMISSIONS DATA SYSTEM (NEDS)
SOURCE CLASSIFICATION CODE (SCC) REPORT
SCC CATEGORY NA-tS
II III IV UNITS
SOLIO »ASTE IINDUSTMIAL (OPEN 8UBNIN6 IBOOO
SOLID BASTE (INDUSTRIAL IOPEM *U0NIM6 IHtFUSE I TON*
SOLID BASTE I INDUSTRIAL IOPF.N HUHNINC IAUTO BOOT CO*»TS I TONS MM«ID
SOLIO BA»U (INDUSTRIAL IAUTO HOOT IMCIMATIB/O AFTEftHUNNtft IAOTUS •O-'NEi)
SOLIO «AST£ I INDUSTRIAL IAUTO BOOT INCINATiv/ ArTCHDURtaiH I AUTOS BOHNEO
SOLIO 'AiTi UNOUSTKItL IM«IL CAM BURNINb lOPfcN ICA«S BUMNED
90L10 IOSTE UNOUSTrilAL I1NC1NEHATQH I SlUDltt I TONS 0»T SLUOfel
SOLID »«iTt I lNPUbT-(IAL 11 NC tNt MA TOM lOTnEH/NOT CLASIf 01 TONS
SOLIO «AiTt llNOUST^iAi, lAUX.rutL'NO exSNSlBtSlOUAL OIL 110(0
SOLID BASH I INDUSTRIAL I*UX.»UEL/NO tNSNSIDIST iLLATt UlL 110(0 GALLONS
SOLIO >ASTC I INDUSTRIAL IAU».FUEL/NO iMs«siNATu«A, GAS (MILLION CUMIC FEtT
SOLIO WASTE I INDUSTRIAL lAUI.FoEL/NO ENkNSIPhuCtSS liAk f"lLLIOH CO* 1C FEET
SOLID HAITI IINOUSTH1AL IAU».FUEL/NO EHSNSIL * <* 110(11 WALL ON*
SOLIO »AiTE (INDUSTRIAL I AUX.FUEL/MO ENSNSIOTHEH/NOT CLAiilFOIHILLZOM ClNlIC FEET
SOLIO BASTE IINDUSTMIAL IAUX.FUEL/NO CMSNSIOTHCD/NOT CLASIFDI1000 MLLOMa
SOLID BASH (INDUSTRIAL IAUX.FUEL/NO EMSNSIOTHCR/NOT CLAilFOITONJ
Other Lab Other Not Specify in Remarks
Analysis Classified
June 1978
-------
UG-2.1-57
TABLE 2.1-5. TWO-LETTER STATE ABBREVIATIONS
Alabama
Alaska
Arizona
Arkansas
California
Canal Zone
Colorado
Connecticut
Delaware
District of Columbia
Florida
Georgia
Guam
Hawaii
Idaho
Illinois
Indiana
Iowa
Kansas
Kentucky
Louisiana
Maine
Maryland
Massachusetts
Michigan
Minnesota
Mississippi
AL
AK
AZ
AR
CA
CZ
CO
CT
DE
DC
*L
GA
GU
HI
ID
IL
IN
IA
KS
KY
LA
ME
MD
MA
MI
MN
MS
Missouri
Montana
Nebraska
Nevada
New Hampshire
New Jersey
New Mexico
New York
North Carolina
North Dakota
Ohio
Oklahoma
Oregon
Pennsylvania
Puerto Rico
Rhode Island
South Carolina
South Dakota
Tennessee
Texas
Utah
Vermont
Virginia
Virgin Islands
Washington
West Virginia
Wisconsin
Wyoming
MO
MT
NE
NV
NH
NJ
NM
NY
NC
NO
OH
OK
OR
PA
PR
RI
SC
SD
TN
TX
UT
VT
VA
VI
WA
wv
WI
WY
June 1978
-------
UG-2.1-58
TABLE 2.1-6. CONTROL DEVICE DESCRIPTION NOMENCLATURE
Generic Type:
Cyclone
ESP
Wet scrubber
Fabric filter
Other
None
Device Class:
Conventional
Novel
Prototype
Pilot scale
June 1978
-------
TABLE 2.1-7. DEVICE CATEGORY KEY WORDS
ESP
1. Wet
2. Dry
3. Hotside
4. Coldside
5. Plate
6. Pipe
7. Hi voltage
8. Low voltage
9. Single chamber
10. Double chamber
11. Other
Cyclone
1. Single
2. Multiple
3. Recirculating
4. Mech. rotor
Wet Scrubber
1. Plate 1.
2. Massive packing 2.
3. Fibrous packing 3.
4. Preformed spray 4.
5. Gas atomized spray
6. Centrifugal 5.
7. Baffle 6.
8. Impingement and entrainment 7.
9. Mechanically aided 8.
10. Moving bed
11. Venturi-variable throat
12. Combination
Fabric Filter
Continuously cleaned
Intermittently cleaned
Reverse air
Mechanical shake
or vibrate
Hi pressure air
Low pressure air
High temperature
Other
•vj
00
to
•
h-
I
to
-------
TABLE 2.1-8. DESIGN SPECIFICATION TYPE
I
A
!-•
vO
09
ESP
Design volume flow rate
Design AP
Design temperature
Gross mass design
efficiency
Design inlet grain
loading
Total power consumption
Bulk linear velocity
Number of sections
Design applied voltage
Aspect ratio
Specific collecting area
Plate area
Total ESP length
Total ESP width
Number of baffled sections
Plate height
Plate-plate spacing
Number wires per section
Wire-wire spacing
Wire diameter
Rapping intensity
Design pressure (absolute)
Units
Nm3/s
cm WC
°
kWh
m/s
number
volts
dimensionless
m2/m3
m2
m
m
number
m
m
number
m
cm
m/s
mm Hg
Cyclone
Design volume flow rate
Design AP
Design temperature
Gross mass design
efficiency
Design inlet grain
loading
Total power consumption
Entrance velocity
Number of tubes
Cyclone diameter
Length/diameter ratio
Design pressure (absolute)
Units
Nm3/s
cm WC
°C
7.
M-g/ro3
kWh
m/s
number
m
dimensionless
ran Hg
-------
I
CT>
TABLE 2.1-8. (Concluded)
Scrubber
Design volume flow rate
Design AP
Design temperature
Gross mass design efficiency
Design inlet grain loading
Total power consumption
Inlet gas velocity
Demister type
Design liquid loading
Entrainment separator type
Design pressure (absolute)
Units
Nm3/s
cm WC
°C
7.
Mg/m3
kWh
m/s
text
j?/m3
text
mm Hg
Fabric Filter
Design volume flow rate
Design AP
Design temperature
Gross mass design efficiency
Design inlet grain loading
Total power consumption
Design air/cloth ratio
Number of compartments
Bag composition
Bag length
Design pressure (absolute)
Units
cm WC
°
kWh
•i 2
m /m min
number
text
m
mm Hg
00
-------
TABLE 2.1-9. DEVICE OPERATING PARAMETER TYPE
ESP
Units
Cyclone
Units
Operating AP cm WC
Gross mass operating efficiency %
Power consumption kwh
Bulk linear velocity m/s
Applied voltage volts
Gas pretreatment text
Rapping frequency number/min
Spark rate number/min
Current density (nA/cm2)
Liquid used text
Liquid loading jfc/min
Number wires per section number
Wire-wire spacing m
Wire diameter cm
Operating AP
Gross mass operating efficiency
Power consumption
Gas pretreatment
cm WC
7.
kwh
text
Scrubber Units
Operating AP cm WC
Gross mass operating efficiency %
Total power consumption kwh
Gas pretreatment text
Recycle ratio number
Liquor recycle characteristics text
Effluent liquid treatment text
e1 requirement
m Scrubbing liquor type name
K-Liquor loading i/ar
Fabric filter
Operating AP
Gross mass operating efficiency
Total power consumption
Bag composition
gas pretreatment
Cleaning frequency
Air/cloth ratio
Cloth construction
Cloth weight
Cloth thickness
Units
cm WC
7.
kWh
text
text
number/min
vr/rsr- min
text
gm/m2
cm
c;
o
ro
I
OJ
CO
-------
UG-2.1-63
TABLE 2,1-10. CHEMICAL ENTRY CODES
Chemical ID scheme Entry code
SOTDAT code S
CAS number C
Level 1 fraction F
MEG number M
June 1978
-------
TABLE 2.1-11. SAROAD PARTICULATE FOLLUTAfrt CODES
General
Fartlculate (total)
Organic (total) fraction
Benezene soluble organic fraction
Poly nuclear hydrocarbons (heterocycllc)
Water soluble organlcs
Aliphatic fraction
Aromatic fraction
Inorganic fraction
Hydrocarbon fraction
Aldehyde fraction
Organic acid fraction
Inorganic
Total element (free and coafclned)
Aluminum
Antimony
Arsenic
Argon
Beryllium
Bismuth
Barium
Lf Boron
6
(D a/ These codes are Identical to the last four
>_• S4I0AD PAUMBTEB. CODING MANUAL (APTP-0633)
*
00
Code*/
1
1101
1102
1103
1104
1105
1110
1111
1113
1114
1115
1116
2
21
2101
2102
2103
2104
2105
2106
2107
2108
digits of
Chemical Pollutant
Bromine
Cadmium
Calcium
Chromium
Cobalt
Copper
Chlorine
Carbon
Cerium
Cesium
Dysprosium
Erbium
Europium
Fluorine
Gadolinium
Gallium
Germanium
Iron
Hafnium
Lead
Holmlum
Hydrogen
the SAROAD pollutant
Code
2109
2110
2111
2112
2113
2114
2115
2116
2117
2118
2119
2120
2121
2122
2123
2124
2125
2126
2127
2128
2129
2130
codes for
Chemical Pollutant
Indium
Manganese
Irldlum
Molybdenum
Krypton
Nickel
Helium
Lithium
Lutetlum
Magnesium
Iodine
Mercury
Gold
Heodymlum
Neon
Lanthanum
Niobium
Nitrogen
Osmium
Oxygen
Palladium
Phosphorus
suspended, resplrable,
Code
2131
2132
2133
2134
2135
2136
2137
2138
2139
2140
2141
2142
2143
2144
2145
2146
2147
2148
2149
2150
2151
2152
and settled
Chemical Pollutant
Plat Inum
Se lenlum
Praseodymium
Protactinium
Radium
Rhenium
Rhodium
Tin
Titanium
Samarium
Scandium
Vanadium
Silicon
Silver
Zinc
Strontium
Sulfur
Tantalum
Tellurium
Terbium
Thallium
Thorium
partlculatea, found
Code
2153
2154
2155
2156
2157
2158
2159
2160
2161
2162
2163
2164
2165
2166
2167
2168
2169
2170
2171
2172
2173
2174
in the
Chemical Pollutant
Thulium
Rubidium
Ruthenium
Tungsten
Uranium
Potassium
Xenon
Ytterbium
Yttrium
Sodium
Zirconium
Group VII Compounds
and Ions
Bromide Ion
Fluoride ion
Chloride Ion
Iodide ion
Chlorate Ion
Perch lorate Ion
Bromate ion
Sodium chloride
Potassium chloride
Code
2175
2176
2177
2178
2179
2180
2181
2182
2183
2184
2185
22
2201
2202
2203
2204
2205
2206
2207
2210
2211
c
o
1
ro
•
1
O»
-------
TABLE 2.I'll. (Continued)
Ch*^1rtl Pollutant
Calcium chloride
Ammonium chloride
Aluminum chloride
Sodium bromide
Potassium bromide
Sodium iodide
Potassium iodide
Potassium fluoride
Sodium fluoride
Sodium f luorosilicate
Calcium fluorosillcate
Group V Compounds and
Ions
Ammonium ion
Cyanide Ion
Nitrate ion
Nitrite Ion
Hydras Ine
Hydraaolc acid
Ammonium chloride
AmmonluB nitrate
Ammonium snlfate
d Phosphoric acid
§
(0 Calcium phosphate
^ Phosphorous penta-
•«J sulflde
Code
2212
2213
2214
2230
2231
22SO
2251
2270
2271
2275
2276
23
2301
2304
2306
2309
2310
2311
2320
2321
2322
2340
2341
2342
Chemical Pollutant
Phosphorus pent oxide
Phosphate Ion
Hydrogen phosphate Ion
Dlhydrogen phosphate
ion
Group VI Compounds and
Ions
Sulflde Ion
Sulfuric acid
Sulfate ion
Thlosulfate ion
Sulflte ion
Ferrous sulfide
Ferric sulflde
Ferrous sulfate
Ferric sulfate
Barium sulfate
Chromium trloxide
Sodium dlchromata
Zinc oxide
Alumimsn oxide
Water
Croup IV Compounds and
loos
Carbonate ion
Code
2343
2345
2346
2347
24
2401
2402
2403
2404
2410
2411
2412
2413
2414
2415
2417
2418
2430
2431
2450
25
2501
Chemical Pollutant
Bicarbonate ion
Carbon boride
Silicon carbide
Silicate Ion
Silicon dioxide
Acids and Bases
Total acidity H+
Hydrogen Ion con-
centration pH
Nitric acid
Hydrochloric acid
Total alkalinity
Hydroxide ion con-
centrat ion
Calcium hydroxide
Organo-Metalllc Com-
pounds and Ions
Miscellaneous
Aliphatic Compounds
Gross hydrocarbons
Hydrocarbons
Heptane
Octane
Nonane
Code
2502
2510
2511
2550
2551
26
2601
2602
2605
2606
2650
2651
2653
27
28
6
61
62
6201
6202
6203
Chemical Pollutant
Decane
Undecane
Dodecane
Trldecane
Tetradecane
Pentadecane
Hexadecane
Hepcadecane
Octadecane
Nonadecane
Elcoaane
Hemelcosane
Docosane
Trlcosane
Tetracosane
Pantacosane
Beucosane
Heptacosane
Octacosane
Cyclohexane
Cyc loheptane
Cyclooctane
Heptene-1
Octene-1
Code
6204
6205
6206
6207
6208
6209
6210
6211
6212
6213
6214
6215
6216
6217
6218
6219
6220
6221
6222
6223
6224
6225
6226
6227
Chemical Pollutant
Alcohols and Ethers
Butyl alcohol
Iso-Butyl alcohol
sec-Butyl alcohol
tert -Butyl alcohol
n-Anyl alcohol
iso -Amy! alcohol
tert -Amy 1 alcohol
n-Hexyl alcohol
Cyclohexanol
n-Octyl alcohol
Capryl alcohol
(octanol-2)
Decyl alcohol
Lauryl alcohol
Myrlatyl alcohol
Cetyl alcohol
Stearyl alcohol
Dl-n-butrl ether
Dl-n-amyl ether
Dl-lao-amyl ether
Di-n-Hexyl ether
Di-chloromethyl
ether
Code
63
6301
6302
6303
6304
6305
6306
6307
6308
6309
6310
6311
6312
6313
6314
6315
6316
6340
6341
6342
6343
6344
c
0
I
ro
a
r
OS
CO
-------
TAW.E 2.1-1L. (Continued)
00
Chemical Pollutant
Dl-(B-chloroethyl)
ether
Ethylene glycol
dimethyl ether
Dlvlnyl ether
Dlallyl ether
Carboxyllc Ac Ida and
Eater*
Froplonlc acid
M-Butyrlc acid
l*o-Bytyrlc acid
n- Valeric acid
Trim thy lace tic acid
Caprolc acid
n-Heptyllc acid
Capryllc acid
Pelargoalc acid
Floor oacetlc acid
Ch lor oacetlc acid
Bromoacetle acid
lodoacetlc acid
Dlchloroacetlc acid
, Trlchloroacetlc acid
a-Chloroproploole acid
> B-Chloropropioale acid
1
>
Code
6346
6347
6348
6349
64
6401
6402
6403
6404
6405
6406
6407
6408
6409
6410
6411
6412
6413
6414
6419
6416
6417
Ch_i<-«l Pollutant
Clycollc acid
Lactic acid
Metboxyacetlc acid
Thloglycollc acid
Cyanoacetlc acid
Glyoxyllc acid
Acrylic acid
Vlnylacetlc acid
Pbeynlacetlc acid
Formic acid
Acetic acid
Crotonlc acid
Oxalic acid
Ha Ionic acid
Succlnlc acid
Clutarlc acid
Adlplc acid
Flmellc acid
Suberic acid
Axe laic acid
Sebacic acid
Aldehydea and Katonea
Caproaldehyde
Code
6418
6419
6420
6421
6422
6423
6425
6426
6427
6428
6429
6430
6431
6432
6433
6434
6435
6436
6437
6438
6439
65
6501
Chemical Pollutant
Heptaldehyde
Hex*none-2
Hexanone-3
Di-n-propyl ketone
Dl-lao-propyl ketone
Dl-iao-butyl ketone
Dl-n-amyl ketone
Stearone
Chloroacetone
Dlchloroacetone
Acetylacetone
Mealtyl oxide
Pnorone
Cyc lohexanone
Aero le In
Other Oxygen Compound*
Nitrogen Compound!
Trl-n-propylamlne
Hexy lamina
Laurylamtne
Trlmethylenedlamine
Tetraaethy lenedlamlne
Pentamethy lenedlamlne
Coda
6502
6504
6505
6506
6507
6508
6509
6510
6511
6512
6513
6514
6515
6516
6517
66
67
6701
6702
6703
6704
6705
6706
Cheaieal Pollutant
HexaMthy lenediamlne
Ethano lamlne
Diethanolanine
Tr lethano lamlne
Acrylonltrlle
Halogen Compound*
Hethylene Iodide
Bromoform
Carbon tetrabroid.de
Ethylene dlbromlde
1 , 1-Dlbromoe thane
1,1,2,2 -Tetrach loro-
ethane
Hexachloroethane
1,3 -Dlbromopropane
1 , 4-Dtbromobu tane
1,5-DlbroBOpentane
1 ,6-DlbromDhexane
Niacel laneou*
Aromatic Compound*
Simple and groa*
hydrocarbon*
Benzene
Toluene
Code
6707
6708
6709
6710
6711
68
6801
6602
6803
6804
6805
6806
6807
6808
6809
6810
6811
69
7
71
7101
7102
Chemical Pollutant
Ethy Ibenzene
n-Propylbenzeoe
lao-Propy Ibenzene
n-Buty Ibenzene
»ec-Buty Ibenzene
tert-Buty Ibenzene
Styrene
Ally Ibenzene
o-Xy lene
•-Xylene
£-Xylene
o-Ethyltoluene
•-Ethyltoluene
£-Ethyltoluene
£-CyBene
o-Diethylb*ncene
m-Dlethylbens*ne
£-Dlethy Ibenzene
1,2,3-Trimethyl-
benxene (heml-
•ellltene)
1,2,4-Trlmethyl-
benzene (p*eudo-
cumcne)
Code
7103
7104
7105
7106
7107
7108
7109
7110
7111
7112
7113
7114
7115
7116
7117
7118
7119
7120
7121
7122
C5
I
V
a
-------
TABLE 2.1-11. (Continued)
Cheadcal Pollutant
1,3,5-Trlawthyl-
benzene (•ealtylene)
1,2,3,4-Tetranethyl-
benzene (prehnltene)
l,2,3,5-T«traaethyl-
benzene (laodurene)
1,2,4,5-Tetraaethy1-
benzene (dorene)
Pentaaethylbenzene
ethylbenxene
§
A
1,3,5-Trlethyl-
benzene
Diphenylaethane
Trlphenylawthane
Tetrapheny laetbaoe
Stllbene
1.1-Uphenylethane
1,2-Mphenyletbane
Dlpbenyl
£-Terph«iyl
£-Quaterphenyl
1.3,5-Trlpheoyl-
benzene
HlphtalaM
cr-Meth y Inaphtha lene
Code
7123
7124
7125
7126
7127
7128
7129
7131
7132
7133
7134
713S
7136
7137
7138
7139
7140
7141
7142
7143
Pollutant
Code
7145
7146
7147
7148
7149
7 ISO
7151
Indene
Azulene
Acenaphthene
Acenaphthalene
Fluoreoe
Fhenanthrene
Anthracene
2-Meth;lanthracene 7152
Covplex Hydrocarbon* 72
Fluoranthene 7201
8-Methylfluoraotheae 7202
Pjrrene 7204
1-Hetbylpyrene 7205
4-Methylpyren«
2.7-Dlaethjrlpjrrei
Chryotx
Aathanthrene
Coronene
Ferylene
7206
7207
7208
7210
7211
7212
Haphthacene 7213
Beozo(£)phenanthrene 7214
Benzo(a_)anthracene 7215
11-h Benzo(b)fluorene 7216
Chemical Pollutant Code
11-h BenEo(a)fluoreiHi 7217
7-h Benzo(c)fluorene 7218
Dlbenco(a,l)£luorene 7219
Benro(b)fluoranthrene 7220
Benio{g,h,l)-
fluorantheoe 7221
Benzo(j)flooranttiene 7222
Benzo(k)fluoranthene 7223
Benzoorclnol 7315
Hydroqulnone 7316
Catecho1 7317
Fyrogallol 7318
Cheailcal Pollutant
Phlorogluclnol
Antsole
Pbenetole
Dlphenyl ether
o-anisidlne
£-Anlsidlne
Carboxyllc Acld» and
Eiters
Aldehyde! and Ketone*
Xanthen-9-one
7h-Benco(d,e)-
anthracene- 7 -one -
(benzanthrone)
Phenalen-1-one
Other Oxygen Coapound*
Nitrogen Ccnpounda
Aniline
•-FhenylenedlaBlne
£-Fhenylenedla«lne
o-Anltldlne
£-Anlildlne
o-Chloroaoillne
•-Chloroanlllne
Code
7319
7340
7341
7342
7343
7344
74
75
7501
7502
7503
76
77
7701
7702
7703
7704
7705
7706
7707
7708
CO
to
•
I-*
-------
TABI.E 2.1-11. (Concluded)
I
vO
««4
00
Chemical Pollutant
£-Ch loroanl line
o-Toluidine
•-Toluldlne
£-Toluldlne
Dlphenylanlne
Trlphenylanlne
Benzldlne
Halogen Compounds
Hiacellaneou*
Heterocycllc Compound*
Nitrogen Compounds
Fyrldlne
or- Picollne
P-Picoltne
T-Picollne
Qu incline
laoqulnollne
Qulnaldlne
Indole
Acrldine
Carbaxolc
Bento
-------
UG-2.1-69
TABLE 2.1-12. LIST OF CHEMICAL ANALYSIS CODES
Analysis Method Alphabetic Code
1. Atomic absorption (flame or flameless) A
2. Chemiluminescence B
3. Conductametric method (specify in comments) C
4. Colorimetric method (specify in comments) D
5. Electrometric method (coulometry, potentiometry,
etc.) E
6. Flame ionization F
7. Gravimetric method (specify in comments) G
8. Infrared absorption (IR) I
9. Nondispersive infrared absorption j
10. Gas chromatography K
11. Thin-layer chromatography L
12. Nuclear magnetic resonance (NMR) If
13. Neutron activation method N
14. Photometric method (e.g., "flame;" specify in
comments) F
15. Beta gauge (Carbon-12) q
16. Mass spectrographic method (e.g., "spark-source;"
specify in comments) R
17. Emission spectrographic method (e.g., muffle
furnace; specify in comments) S
18. Titrimetric (specify in comments) T
19. Turbidimetric (e.g., pH meter; specify in comments) U
20. "Wet Chemistry" method (e.g., Jacobs Method;
specify in comments) W
21. Optical evaluation method (e.g., reflectance,
transmittance; specify in comments) X
22. Other (specify in comments) Z
June 1978
-------
UG-2.1-70
TABLE 2.1-13. STANDARD NOMENCLATURE FOR MEASUREMENT EQUIPMENT
Generic Class Type
Imp actor BRINK BMS-11 IMPACTOR
BRINK MODEL B
IMP ACTOR
ANDERSEN MODEL II
IMPACTOR
ANDERSEN MODEL III
IMPACTOR
Description
Conventional Brink sampler (in .situ)
with a precyclone having a 7 |xm cut
size
In situ particle size distribution
sampler with five in-line stages
Andersen stack sampler with stain-
less steel collection plates
Modified Andersen sampler with
glass fiber filter collection
surface
Optical
particle
counter
MRI MODEL 1502
IMPACTOR
ANDERSEN MODEL IV
IMPACTOR
UW MARK III IMPACTOR
TAG IMPACTOR
OTHER IMPACTOR
ROYCO MODEL - OPC
CLIMET MODEL - OPC
BAUSCH & LOME MODEL
40-1 - OPC
OTHER - OPC
Manufactured by Meteorology Re-
search, Inc.
Modified Andersen sampler with
glass fiber filter collection
surfaces and a cyclone pre-
collector
University of Washington cascade
Impactor manufactured by Pollu-
tion Control Systems, Inc.
Multiple slit cascade Impactor
manufactured by Environmental
Research Corporation or Sierra
Instruments, Inc.
Any other impactor, including
modified versions of the above
Manufactured by Royco Instruments.
Inc., Menlo Park, California
Manufactured by Climet Instruments,
Inc., Sunnyvale, California
Manufactured by Bausch & Lomb,
Rochester, New York
As necessary
June 1978
-------
UG-2.1-71
TABLE 2.1-13. (Concluded)
Generic Class
Type
Condensation GENERAL ELECTRIC - CNC
nuclei counter
RICH 100 - CNC
OTHER - CNC
Diffusion
battery
Electrical
analyzer
CLUSTER TUBE - DIFF
BATTERY
RECTANGULAR TUBE -
DIFF BATTERY
CHS - DIFF BATTERY
WIRE SCREEN DIFF
BATTERY
WHITBY ELECTRICAL
ANALYZER, MODEL
3030
Miscellaneous MOBILITY ANALYZER
CNC/DIFFUSION BATTERY
CYCLONES
COULTER COUNTER
SASS TRAIN - WITHOUT
CYCLONES
ELECTRON MICROSCOPE
OPTICAL MICROSCOPE
Description
Manufactured by General Electric,
Pittsfield, Massachusetts
of David Sinclair design with
collimated hole structure
Manufactured by Thermo-Systems, Inc.
Manufactured by Thermo-Systems, Inc.
CNC used concurrently with a diffu-
sion battery
Source Assessment Sampling System
measures particulate loading,
trace metals and organics
Other
SASS TRAIN - WITH CYCLONES Regular SASS with three separate
cyclones included for particle
size distribution
Measuring equipment not otherwise
classified June 1978
-------
UG-2.2-1
2.2 General Instructions for FPEIS Data Input Forms
The FPEIS Standard Data Input Forms are shown in the Appendix* Certain in-
structions that apply to data coding include the following:
. Zeros are treated as numbers. Blank spaces in a field indicate either
a lack of data or that the pertinent data have been coded for the
preceding test subseries or test run. All numeric data shall be
right-lustified and all alphanumeric data shall be left-justified,
except where noted otherwise.
. Only specified alphabetical or numerical characters are allowed
to be entered in the columns. No unusual marks are to be made in
the spaces. No data field headings are to be changed and only data
appropriate to the field are to be entered. This rule prevents un-
necessary keypunching errors in processing the forms.
. Only the allowed coding values may be entered in columns that re-
quire coding symbols.
. Instructions for filling out each card on the form are quite spe-
cific and were designed to apply to the large majority of source/
control system combinations. Nevertheless, it is recognized that
assumptions must occasionally be made to reflect the real, physi-
cal situation for an unusual source/control system combination.
Care should be taken to make reasonable assumptions that most
nearly correspond to the true circumstances for the source/con-
trol system combination tested.
-------
UG-2.2-2
. The values used for the subseries process variables and the sub-
series operating parameters should be nominal values which are rep-
resentative of the values of these data elements throughout all
the runs of the subseries.
. When more than one source is discharging into a control system,
the description of one should be given and other data should be
indicated in the test series remarks. The criteria is to note the
source parameters which affect the physical* chemical, and biologi-
cal nature of the particulate rather than quantity of particulate.
. When more than one control device is used, use a separate data in-
put Form No. 2 for each control device used. Be sure to give the
control device number. Up to three (3) control devices in series
may be coded for a given source gas stream.
. When more than one test run is made, use a separate data input Form
No. 6 for each run. Be sure to indicate the measurement instrument/
method number.
. Whenever the data exceed the available space, it can be given in
the remarks or comments of the appropriate level (i.e., test se-
ries, subseries, or run remarks). In such cases, however, both the
data element and its value should be given and not just the data
element value.
June 1978
-------
UG-2.2-3
. Whenever there are pertinent data for which no data element exists,
such data can be given in the remarks of the appropriate level*
. Whenever text items are being completed, care should be exercised
to leave no blank cards between completed cards. Also, try to make
the text as brief as possible through the use of abbreviations,
precise words, and elimination of redundant words. The text should
always start at the leftmost column (i.e., left-justified). Table
2.2-1 gives a list of commonly accepted abbreviations which may
be used.
. The small triangle between columns represents the decimal point.
Enter the fractional decimal digits to the right of the triangle.
When + is indicated at the top of the column, enter either + or
- as appropriate.
. Leave all the hatched-out portions blank.
. The following identification data elements must be filled on the
first card of every section (data group).
Data Element Card Columns Instructions
Test series number 1-5 Enter on all forms.
Subseries number 6-8 Enter on Form Nos. 3 through 6.
Blank on Form Nos. 1 and 2.
Run number 9-10 Enter only on Form No. 6.
Blank on Form Nos. 1 through 5.
June 1978
-------
UG-2.2-4
Detailed instructions are given in Section 2.3 for completing each card
in the input forms.
June 1978
-------
TABLE 2.2-1. ABBREVIATIONS FOR STREET DESIGNATORS AND FOR WORDS THAT APPEAR FREQUENTLY IN PLACE NAMES
C-|
(D
vO
•vl
00
«*
fcryort .,
»e»
Vtei
Arcade ..
fc«'i»i
AMMO
Bateo
Btart.....
Bex)
Buck
Bo****
tun
Bottom
Mutt
Wje
Brock
BttKS
Caai
Can**
C*e
CJUOM ,
Cert.
ffl'ti
CHTII
Cnre
&::::::::::::::::::::
(HI
CM
Cefefe
Cirffr , , ,
Owrs
Cen-1
Csirii
CM
Cm* ,..-.
DeiceH
C«e
0**
Depot
Omec _
Orrre
Ul
W*H,
„ ACM
AGRCY
ARPKT
NY
, ARX
MC
AfcSl
Ml
BYU
BCH
.-... B!tO
BG
BU
BIVO
:. BU
am
BR
6RG
BG
8YP
CP
CYR
CK
cwsr
CTR
cn
CM
CHRS
OR
CY
cm
. , Clf$
CAB
Clfl
COR
CMS
CI
-.... CIS
CV
CRIt
CRfS
IiftG
W.
tat
m
ow
Wl
i
,.... IS!
ftrJ
Eitenue*
f«M
fills
farm
fern,
fields
flits
font
forest
Fan
Fountain
Furnace
GaxHit
Gatewif
aw..;.
Crart
Great
Crowo1
dove i
Hart*
Hl.W
HfiiMt
HifhMf
HiH
rfclh
Hollow
Hospital
Hot
Ho«f
Inlet
bntiMf „...
rtM
Isle
hflCtjM
(«olri
lao4M|
IMt
Utet
HfY
MI
fXI
ft
HS
(RMS
fR»
flO
FIDS
fll
fro
fRSl
IDC
FRKS
n
flR
fWY
fUW
GWS
CWY
UR
GRRO
GR
CRR
GRO
GRY
urn
HVR
HIS
W
KCIDS
HWY
II)
M!
HOIW
my
H
HH
IWI
RrSI
IS
IS
IS
1C!
IIY
MAS
UW6
IR
IRS
lit lie ,
ltd
1 KM
Itlfe
lo*er :
Minor
IkVarttM
Mennritl
Middle
Mile : ,
Mill
Mil*
Hues
MltSIO*
Mimtf
Ml UNI
Mmntan
RtllOMl
Reck
Hew
Roftk
C.ckari
ft kvif
n*
Hjn
M
tad
*IMM
Rairt
Rliitfl • ...
Rett •
Or Iff
R"rf i «M.
fc*
Ural
Sam
Si Ik
U
in
in
IF
ICKS
IDG
IWR
MRR
MOWS
MIC
MfM
MfX
Mlt
Ml
MIS
MRS
MSR
MHO
MI
MIR
Ml
RCK
NW
R
ORCM
run
fll
m
fU
fRH
PI
IW
PIRS
ft/
m
n
. . PR
RRCH
RHCHJ
RHS
RtSRI
RSI
HOG
RJV
RO
RH
R
SI
MM
SM
SMtl
SdMl
Scfflman
Shoot....
Shoals
SMc
Shore
Show
Swtk
S»oce Fh|M CeMer
Sprmf
Square
State
Street
Stream
StlolMr
Swwmt
Switch „
lamer? ,.,..
Itnace
IM
lo«...«
Irail
toiler
IMW) . .11, .
lonMHfcJ i,
U«w /
Uiwui
Uwwrtitf
ToKer
Viadotl
View
ViHtK
Vdle
Vuta
Wrier
West
eUrt*.
Tuft
, ft
SB
SR
SCH
SMART
sm
SHIS
SHO
SHR
SHRS
SOG
s
. stc
SPGS
SO
SI
SI*
SI
SfRRI
BPNR
m
SMCN
mn
ivw
KM
UR
IR
. . IWR
tw
::::::: 15.
iim
iPW
UPt
UR
URW
WT
VM
vw
we
n
m
wra
wu
w
mff
Ntt
Ml
N3
.
N)
Cn
-------
UG-2.3-1
2.3 Encoding Instructions
This section presents detailed, card-by-card encoding instructions for each
FPEIS data element. The discussion is separated into 10 groups correspond-
ing to the major groupings of FPEIS data. The FPEIS Data Input Form number
is given for each group, and an example completed form is shown for each
group of data.
Each card type has been designated REQUIRED CARD or CARD NOT REQUIRED. This
pertains to the minimum data set requirement. Some data, such as control
device design and operating parameters and bioassay or chemical analysis,
may not be available, and consequently, there would be no data to enter.
These cards, as well as those pertaining to comments, are not required to
be part of the minimum data set. Other cards may or may not be required
depending upon a previous card. For example, the 001 card describes the
applied control device. If there is no applied device (i.e., an uncon-
trolled source), then cards C02-C05 and DOS are not needed. Otherwise, all
of these cards must be present.
June 1978
-------
UG-2.3-2
2.3.1 Section A - Source Description - Form 1
Card Columns Data Element Encoding Instructions
CARD A01
1-5
(REQUIRED CARD)
Test Series Number
6-8
9-10
11-13
14-15
16-32
Subseries Number
Run Number
Card Letter and
Number
Special Code
SCO I
33-49
50-66
67-72
SCO II
SCC III
Test Series Start
Date
Enter the permanent FPEIS test series
number, right-justified, as assigned
by the FPEIS data base administrator.
If such an assignment has not been made,
enter a nonzero, sequential number for
each test series reported. This number
will be used for preliminary identifi-
cation purposes only.
Leave blank.
Leave blank.
Do not change.
Leave blank.
Enter Source Classification Code I de-
scription (source category) as text
beginning in Column 16 (see Table 2.1-
4). A new code has been added to the
NEDS codes for laboratory evaluation
of control devices, and more codes may
be added later. Note also that the FPEIS
requires the word description of NEDS
codes rather than numeric codes. Use
the exact wording given in Table 2.1-
4, left-justified.
As above for SCC II (type of operation).
Exact spelling required.
As above for SCC III (feed material
class). Exact spelling required.
Enter integer date as MM-DD-YY. This
is the source/control device or field/
laboratory test starting date.
June 1978
-------
UG-2.3-3
Card Columns Data Element
CARD A01 (continued)
73-78 Test Series Finish
Date
79-80 UTM Zone*
Encoding Instructions
As above for the field/laboratory
test finish date. Enter as integer
date as MM-DD-YY.
The Universal Transverse Mercator (UTM)
is another means of identifying the
location of the source. The UTM Zone
number, which is indicated on each USGS
map* must be cited to locate the co-
ordinates properly* Figure 2.3-1 indi-
cates that Zones 10 through 19 encom-
pass the 48 contiguous states; Zones
1 through 9, Alaska; Zones 19 and 20
Puerto Rico and the Virgin Islands;
and Zones 1 through 5, Hawaii* For a
complete description of the Universal
Transverse Mercator (UTM) system, see
the references below**•'•*/
_!/ "Universal Transverse Mercator Grid," U,S, Department of the Army,
Washington, D.C., Publication No. TM5-241-8, July 1958.
21 "Universal Transverse Mercator Grid. Zone-to-Zone Transformation Tables,"
U.S. Department of the Army, Washington, D.C., Publication No. TM5-241-2,
June 1957.
_3/ Dietz, C. H., and D. S. Adams, "Elements of Map Projection," U.S. Depart-
ment of Commerce, Washington, D.C., Special Publication No. 68 (1945).
* Leave blank for confidential or proprietary data*
June 1978
-------
114
o
CO
•
OJ
I
\o
•*J
00
Figure 2.3-1. UTM Grid Zones in the Contiguous United States,
-------
UG-2.3-5
Card Columns Data Element
CARD A02 (REQUIRED CARD)
1-10 Data Identification
11-13 Card Number
14-15 Special Codes
16-35 SCO IV
36-75 Site Name*
76-80 Blank
CARD A03 (REQUIRED CARD)
16-40 Source Name*
41-60 Street Address*
61-78 City*
79-80 State
Encoding Instructions
Leave blank* While punching the cards,
the keypuncher will duplicate the first
10 columns of the A01 card*
Do not change*
Leave blank*
Source Classification Code IV descrip-
tion (operating mode class) as text
beginning Column 16 (see Table 2*1-4).
The name of the site where the source
is located* Enter as text* beginning
in Column 36*
Leave blank.
Name of the source in text*
Number and name of the street address
in text (beginning in Column 41)*
Name of the city* township, or area,
beginning in Column 61.
Two-letter code for state in which
source is located (see Table 2.1-5).
Leave blank if confidential or pro-
prietary.
* Enter CONFIDENTIAL for confidential or proprietary data.
June 1978
-------
UG-2.3-6
Card Columns Data Element
CARD A04 (REQUIRED CARD)
16-20 Zip Code**
21-24 UTM Coords-X**
25-29 UTM Coords-Y**
30 Blank
31-80 Tested by
CARD A05 (REQUIRED CARD)
16-75 Re ference**
Encoding Instructions
Enter the zip code of source location.
The Universal Transverse Mercator X-
coordinate for the test site. The UTM
coordinates are found on USGS maps with
scales less than 1:250,000. The 1:24,000
scale is necessary to locate the point
source adequately. The decimal point
is indicated by the small triangle.*
Enter the Y-coordinate as above.*
Leave blank.
Enter the name of the testing group
or company as text.
Enter report number, date, or cite the
journal from which the data were derived
as text beginning in card Column 16.
* See references at bottom of page UG-2.3.1-2.
** Leave blank for confidential or proprietary data.
June 1978
-------
ID!
U.S. ENVIRONMENTAL PSOTECTION AGEMCT
If HI. »TF. lUondl TNH0I flrt. «£. 11711
FINE PARTICLE EMISSIONS INFORMATION SYSTEM
DATA INPUT FORMS
Form I 9/77
A - SOURCE DESCRIPTION
form Completed by
Test Series
No.
Cord
No.
SCC I (Source Category)
SCC II (Type of Operation)
SCC HI (Feed Moteriol Ckm)
Tett Series
Start Date I Finish Dote
I
I M
In [
Mo I Da I Yr I Mo I Do I Yr
|77 IT* in bo
111 I2J
33 |]4 Ij5 J36 |37 bl [39 k I 4l|42| 41J44I 4i| 4*1 47| <•! <»
67|MU?[70|71|72
SCC IV (Operating Mode Clots)
36 37[3ti> « 41 42 *3 U ii tt a Ut* SO ft 12 S3 S4 X 56 57 St S> 40 tl 4241 M
16 17 IB l» 20 ;i|22 23|24 2i 26 27 2> IT Mf]l 32 33 34 351
I7| III l>l2cl3ll22!23l24llilul27JMi
39Uo 4l|4l|43|44| 4j| 46J 47J U\t>I K1JS1
2fi 2) 22123(24125126)3712VI2?|30
Card
No. | I JZip
ID 71 n >S 74 7» '« 77 t It
mm Tom n n\n\n9iW.
I
(D
r-1
00
Figure 2.3-2. Sample Completed A-Cards—Source Description.
§
to
•
u>
I
-------
UG-2.3-8
2.3.2 Section B - Test Series Remarks - Form 1
Card Columns Data Element Encoding Instructions
CARD B01 (CARD NOT REQUIRED)
1-10 Data Identification Same as Card A01.
11-13 Card Identification Do not change.
14-15 Special Codes Leave blank.
16-80 Remarks Enter test series remarks as text.
CARDS B02-B10 (CARDS NOT REQUIRED)
16-80
Remarks
Test series remarks continued from
Card B01.
June 1978
-------
B - TEST SERIES REMARKS
oo
Figure 2.3-3. Sample Completed B-Cards—Test Series Remarks.
o
i
to
to
-------
UG-2.3-10
2.3.3 Section C - Control Device(s) Characteristics - Form 2
Card Columns Data Element Encoding Instructions
CARD C01 (REQUIRED CARD)
1-10 Data Identification Same as on Card A01.
11-13 Card Designation
14 Device Number
15 Special Code
16-48 Device Category
49-60 Device Class
61-80 Generic Type
Do not change.
Enter sequence number (1, 2, or 3)
given to the control device. For ex-
ample, if a control system consists
of a cyclone and a spray tower fol-
lowed by an ESP, there are three con-
trol devices in the system. The cy-
clone is Device No. 1, the spray tower
is Device No. 2, and the ESP is Device
No. 3. Multiple devices are numbered
sequentially from the source.
Blank.
Enter a descriptive definition of the
generic device in text form beginning
in Column 16. Use standard nomenclature
given in Table 2.1-7.
Enter the device class as text using
standard nomenclature given in Table
2.1-6, beginning in Card Column 49.
Enter the type of generic control de-
vice as text beginning in card Column
61. Use only standard nomenclature
as given in Table 2.1-6.
June 1978
-------
UG-2.3-11
Card Columns Data Element
CARD C02 (REQUIRED CARD)*
16-45 Commercial Name
46-75 Manufacturer
76-80 Blank
CARD C03 (REQUIRED CARD)*
Encoding Instructions
Enter the commercial name (and model
number) of the control device as text
beginning in card Column 16.
Enter the name of the device manufac-
turer as text beginning in card Column
46.
Leave blank*
16-75
Device Description Enter a brief description of the de-
vice as text which can include the prin-
ciple of operation, size, shape, modi-
fications to a standard unit, etc. Use
abbreviations as much as possible begin-
ning in card Column 16.
76-80
CARD C04
Blank
(REQUIRED CARD)*
Leave blank.
The instructions for this card are the
same as for Card C03.
* Not required if entry for GENERIC TYPE (C01, CC61-80) is "NONE."
June 1978
-------
10!
U.S. ENVIMNMENTAL PROTECTION AGENCY
ll.C. 27711
FINE PARTICLE EMISSIONS INFORMATION SYSTEM
DATA INPUT FORMS
Form 2 9/77
C - CONTROL DEVICE(S) CHARACTERISTICS
Form Completed by
Test Series
No.
Cord
No.
-Device No. (1,2 or 3)
Device Category
Device Clou
Generic Type
i9_7<^ 71 : n 7374 75 7«
1
2345
clohlil ic
30 31 323334_35_)4_373«^39_404^4243_444S 4t|47 «• 49 50 51 5253 54^ 55 5£ 57 5£ 59 40 61
ESKBlc
Card
No.
Commercial Name
I Manufacturer
It 17
24 25
41 42
4344
4«|47l4«|4?|50!51 i52 153154 |!5i56|57] 5l] 5»| 10\ 611 42143
65J64 ]a
Card I I j
No. I I [Device Description
nl ui 13) 14) 1511«| 17! ig| 19! 20! 21 Izi! 2
l
-------
UG-2.3-13
Card Columns Data Element Encoding Instructions
CAED COS - Control Device Design Parameters (REQUIRED CARDS)*
1-10
11-13
14
15
16-17
18-47
48-67
Data Identification Same aa on Card A01 for the first card
and blank for subsequent cards.
Card Designation Do not change.
Enter device number (from C01 card).
Control Device
Number
Special Code
Serial Number
Design Parameter
Specification
Design Parameter
Value
68-80
Blank
Leave blank*
Enter nonzero, sequential number (start-
Ing from 1) for the control device
design parameter*
Specify In alphanumeric format the
design parameter as standard nomen-
clature from Table 2.1-8 beginning
in card Column 18.
Enter the value of the design param-
eter and its units as text using the
standard nomenclature in Table 2.1-8.
Separate the value and units by two
(2) blanks. Begin entry of value in
card Column 48.
Leave blank*
* Not required if entry for GENERIC TYPE (C01, CC61-80) is "NONE."
June 1978
-------
CONTROL DEVICE(S) DESIGN PARAMETERS
TM» S.r
No.
1
i»t
1
4
i
Cord
No.
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
C
0
0
0
C
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
r
i
15
o
S-S
1/1 £-
I6J 17
Oil
!
...
!
1
\-
-Device No. (1.2 or 3)
Specifications
ie|i9
t^E
H^
--
20
5
21
T
1
,
22
^
1
-
tf
i
j
25
v
26 '27 | 21
jfliP
~ "
;
i — i
-
29|30
31
m&
i
1
i ! ' ;
; i : .
I
i
32
33
i
1
34
35
14
37
i j
M
39
40
41
42
!
]
•
43
44
4!
44
47
Value
46
7
49
fl
50
SI
fi
1
52
0
53
0
54
55
it
V
57
b
58
1
5»
y
40 41
NT
42
In
a
M
\
45
64
47
M
«t
Jt
ft
n
n
74
78
«
7>
I*
7*
»
Figure 2.3-5c Sample Completed 005 Cards—Control Device(s) Design Parameters,
i
to
CO
-------
UG-2.3-15
2.3.4 Section D - Test Characteristics - Form 3. Form 4
Card Columns Data Element
CARD D01 (REQUIRED CARD)
1-5 Test Series Number As on Card A01.
Encoding Instractions
6-8
9-10
11-13
14
15
16-21
22-25
26-29
30-59
60-76
Test Subseries
Number
Blank
Card Designation
Blank
Control Device
Inlet or Outlet
Date
Start Time
Stop Time
Source Operating
Mode
Source Operating
Rate
Enter the integer number of the sub-
series within this test series.
Leave blank*
Do not change*
Leave blank.
Enter the letter code I for inlet or
0 for outlet. When there is no control
device, indicate NONE on Card C01, Col-
umns 61 through 64, and enter I in this
column.
Test subseries starting date entered
as integer MM-DD-YY.
Test subseries start time on the basis
of 24-hr day (military time).
Test subseries finish time expressed
as above.
Specify the source operating conditions
at the time of the test as text begin-
ning in card Column 30. If the operation
of the source is cyclic, then specify
the operating mode at the time of test.
Enter the measured (not designed) op-
erating output rate of the source and
the appropriate units as text beginning
in card Column 60. Separate the value
and unit by one blank.
June 1978
-------
UG-2.3-16
Card Columns Data Element
CARD D01 (continued)
77-80 Percent Design
Capacity
CARD D02 (CARD NOT REQUIRED)
16-45 Feed Material
46-80 Feed Material
Composition
CARD D03 (CARD NOT REQUIRED)
16-55
56-61
62-65
66-69
Sampling Location
Description
Volume Flow Rate
Velocity
Temperature
Encoding Instructions
Specify the percent of the design ca-
pacity at which the source is operat-
ing during the time of test. The deci-
mal point is represented by the triangle
between Columns 79 and 80.
Specify in text (alphanumeric) begin-
ning in card Column 16 the type of source
material.
Specify briefly the major constituents
of the feed material as text beginning
in card Column 46.
Describe the sampling location in terms
of duct diameter or meters from the near-
est obstruction or bend. Enter any infor-
mation that affects the sampling and
transport of aerosol. Be brief and use
abbreviations.
Enter the total volume flow rate of ef-
fluent gas at the sampling location as
a decimal number in units of dry normal
m3/s. The decimal point is implied be-
tween Columns 60 and 61*
Enter the velocity of gas at the sam-
pling location as a decimal number in
units of m/s. The decimal point is im-
plied between Columns 64 and 65.
Enter the temperature of the gas at the
sampling location as an integer number
in units of degree Celsius* Right-justify
entry to Column 69*
June 1978
-------
UG-2.3-17
Card Columns Data Element
CARD DO3 (continued)
70-74
Pressure
75-77
Percent
78-80
Percent Isokinetic
CARD D04 (CARD NOT REQUIRED)
16-19 C02
20-23
CO
24-27
02
28-31
N2
32-80
Trace Gases in PPM
Encoding Instructions
Enter the absolute stack pressure at
the sampling location as an integer
number in units of mm Hg. Right-justify
entry to Column 74*
Enter the percent by volume of water
vapor at the sampling location as a
decimal number. The decimal point is
implied between Columns 76 and 77.
Enter the percent isokinetic sampling
achieved at the sampling location as
an integer number right-justified to
card Column 80.
Enter the amount of C02 as the percent
of total gas on a dry basis as deter-
mined by gas analysis as a decimal num-
ber. The decimal point is implied be-
tween card Columns 17 and 18.
Enter the amount of CO as the percent
of total gas on a dry basis as deter-
mined by gas analysis as a decimal num-
ber. The decimal point is implied be-
tween card Columns 21 and 22.
Enter the amount of 02 as the percent
of total gas on a dry basis as deter-
mined by gas analysis as a decimal num-
ber. The decimal point is implied be-
tween card Columns 25 and 26.
Enter the amount of No as the percent
of total gas on a dry basis as deter-
mined by gas analysis as a decimal num-
ber. The decimal point is implied be-
tween card Columns 29 and 30.
Enter the results of trace gas analy-
sis as text beginning in card Column
32. Enter the chemical symbol followed
by a dash and the value in parts per
million (ppm). Separate multiple en-
tries by commas. Use subseries remarks
for overflow space.
June 1978
-------
UG-2.3-18
Card Columns
CARD DOS
1-10
11-13
14
15
16-17
Data Element
Encoding Instructions
18-47
48-67
68-80
CARD D06
1-10
16-80
Control Device Operating Parameters (CARD NOT REQUIRED)
Data Identification Encode same as on D01 card.
Card Designation Do not change.
Device Number
Special Code
Serial Number
Specification
Value
Blank
Enter the control device number as
defined on Card C01.
Leave blank.
When encoding the first subseries,
enter the serial number for each of
the control device operating param-
eters. For the second and subsequent
subseries, enter the serial number
of the operating parameter being en-
tered as given for the first subse-
ries.
Enter the control device operating
parameter as text using standard no-
menclature from Table 2.1-9 begin-
ning in card Column 18. For second
and subsequent subseries utilize the
labor saving feature explained on
page UG-2.1.5-2.
Enter the value of the control device
operating parameter and units, using
standard nomenclature from Table 2.1-
9, as text beginning in card Column
48. The value and units should be
separated by two blank spaces*
Leave blank.
Subseries Remarks (CARD NOT REQUIRED)
Data Identification Same as D05 card.
Remarks
Enter subseries remarks as text be-
ginning in card Column 16.
June 1978
-------
sSiflg
U.S. ENVIRONMENTAL PWTECTION AGENCY
FINE PARTICLE EMISSIONS INFORMATION SYSTEM
DATA INPUT FORMS
Form 3 7/77
.
D - TEST CHARACTERISTICS
Form Completed by
•p.
Test Serin
No.
series
No.
Card
No.
—Control Device Inl.l or Outlet (I or 0)
Test Subseriei
Dole
Mo Da
Yr
Start
Time
Slop
Time
Source Operating Mode
Source Operating Rate*
% Design
Capacity'
6 I?
ie i*
JO J1 32 33 34 33 36 37 M\3t K,4< 4] A3\4t\ 43 « 47 4* 4» SO SI g|53 94 B 54 57 51 M
ololil hJolglilaihlsliltlaldiyilnd»clirkyi>UlLklialglilM
-------
CONTROL DEVICE(S) OPERATING PARAMETERS
Tei
N«
I
tf S
».
"*
I
f
Sub-
series
No.
*
[
Cord
Nc.
D
D
D
D
D
D
U
D
D
D
0
O
0
D
U
U
D
D
0
U
0
0
0
0
0
0
0
0
0
0
0
0
0
U
0
0
0
0
0
0
i>
5
5
5
5
5
b
5
5
5
5
5
i
5
5
5
5
5
5
5
r
I
o
M
9
\
^Device No. (1,2 or 3)
Specification
f
NP
T
21
^
22
23
tf
24
!r
25
24)27
Ffe
r
21
f.
»
R
30
O
31
i
32
tl
-•
33
c
34
Y
35 b.
1
•-
37
31
3«
40
41
42
43
44
43
4«
47
Valu.*
t*
z
4?
St
t
5\
t
52
r
53!
S4l55
T
5i
*»
57
U
51
T
ii
£
»
41
42
43
44
65
66
67
41
•
n
n
71
n
n
n
7*
77
3»
n
•Need not be filled if the preceding tubteriet contains the teme dMa; chaneei or modifications should be entered as neeestarv. If data
or information from preceding tubtariet it not applicable, me N A or 999; for tubaariat following use of N A or 999 where data or in-
formation it available it mutt be entered.
••Uttafr U U L±3LJVii/ FINE PARTICLE EMISSIONS INFORMATION SYSTEM
U.S. ENVIRONMENTAL PROTECTION AGENCT DATA INPUT FORMS
CONTROL DEVICE(S) OPERATING PARAMETERS (confd)
Test Series
No.
.1,1 _i — i —
Sub-
•rta
No.
IIS
Cord
No.
0
D
D
n
D
n
D
D
n
fT
0
0
6
o
n
n
0
0
0
fi
5
^
5
ij
•i
•i
5
^
5
,„,
r
§
o
5?
—Device Nio. (1.2 or 3)
Specification
^
Form 4 9/77
Form Completed by
Value '
||l4i I*ftl-*iJ wtiAl^ttl^ WltHMttlB:
-A
.'
j
u
ii
•
•=1
n
i
!
ID
Figure 2.3-7. Sample Completed DOS Cards—Control Device(s) Operating Parameters.
?
N>
-------
SUtSEKIES REMARKS
M\a\U 2?|M'Kt3o|ll|>2[33 »\a\M 31 31 3? «|«l O
Figure 2.3-8. Sample Completed DO6-D20 Cards—Subseries Remarks*
vO
»J
00
-------
UG-2.3-22
2.3.5 Section E - Mass Train Test Results - Form 4
Card Columns Data Element
CARD E01 (CARD NOT REQUIRED)
1-8 Data Identification Same as D01 card.
Encoding Instructions
16-25
Front Half
26-35
Total
36-80
Mass Train Comments
Enter the mass train front half con-
centration, in scientific notation,
in units of Ug per dry normal m3.
The exponent shall be right-justified
in card Column 25. The decimal point
is specified in card Column 18. (These
data include the mass collected in the
nozzle and probe wash and the filter.)*
Enter the total mass concentration
as the sum of the front half mass
and the impinger. Enter the value,
in scientific notation, in units of
M>g per dry normal m3. The exponent
shall be right-justified in card Col-
umn 35. The decimal point is speci-
fied in card Column 28.*
Enter any brief comments on the mass
train as text beginning in card Col-
umn 36.
* Note that these values are to be entered as exponential numbers with
exponents (following the "+") in Columns 24, 25, 34, and 35.
June 1978
-------
E - ^ARTICULATE MASS TWIN HESUlTS
Figure 2.3-9. Sample Completed E-Cards--Particulate Mass Train Results*
I
A
f*
vO
-J
0»
o
NJ
.
u
to
CO
-------
UG-2.3-24
2.3.6 Section F - Particulate Physical Properties - Form 4
Card Columns Data Element Encoding Instruction
CARD F01 (REQUIRED CARD FOR FIRST SUBSERIES)
1-8 Data Identification Same as D01.
16-19
20
21-27
28
29-30
31-80
Density
Density Determina-
tion
Resistivity
Resistivity
Determination
Blank
Other Physical
Properties
Enter density as a decimal number
in units of g/cm . The decimal point
is implied between card Columns 17
and 18. THIS DATA ELEMENT IS REQUIRED.
Enter the integer 1 for "measured,"
0 for "assumed." THIS DATA ELEMENT
IS REQUIRED.
Enter resistivity, in scientific no-
tation, in units of ohm-cm. The expo-
nent shall be right-justified in card
Column 27. The decimal point is speci-
fied in card Column 22.
Enter the integer 1 for "measured,"
0 for "assumed."
Leave blank.
Enter as text beginning in card Col-
umn 31 any additional physical prop-
erties, values, and units to be re-
ported.
June 1978
-------
f - miTICUlATi PHYSICAL PIOKtTIES
TNI Series
Sub-
•rta
Cord
No.
1—Determination
Density f j Resistivity
Other retool Properties in T*xf
ffi
FJO
*N«d not b( mi«l if tt» pcKKling tutmrie conuin. DM urn. dm: chOTf« Of modffia
or Mamnian f ram trading ubMrin a not (ppliaMt. at* HA or «•». tor MbMrin Mtamf lot of NAarlWiriMradM>oriii-
tofPiMron *• •vcilkbtc it mutt IM •nMrad.
I
n>
Figure 2.3-10. Sample Completed F-Cards—Particulate Physical Properties,
o
to
-------
UG-2.3-26
2.3.7 Section G - Particulate Bioassay Data - Form 5a
To be added at a later date.
June 1978
-------
UG-2.3-27
2.3.8 Section H - Chemical Composition Data - Form 5b
Card Columns Data Element
CAKD HOI (CARD NOT REQUIRED)
1-8 Data Identification Same as D01 card.
Encoding Instructions
16-18 Blank
19 Stokes/Aerodynamic/
Impaction Diameter
20 Calibrated or
Calculated
21-26 Blank
27-32 Upper Boundary
Diameter
33-38 Particle Boundary
Diameter-1st Stage
39-44 Particle Boundary
Diameter-2nd Stage
45-50 Particle Boundary
Diameter-3rd Stage
51-56 Particle Boundary
Diameter-4th Stage
57-62 Particle Boundary
Diameter-5th Stage
63-68 Particle Boundary
Diameter-6th Stage
69-74 Particle Boundary
Diameter-7th Stage
75-80 Particle Boundary
Diameter-8th Stage
Leave blank.
Enter the integer 0 for "Stokes" par-
ticle diameter, 1 for "aerodynamic"
particle diameter, 2 for "irapaction"
particle diameter.
Enter the integer 1 for "calibrated"
instrument cut diameters, 0 for "cal-
culated" instrument cut diameters.
Leave blank.
Enter the upper boundary diameter
value as a decimal number in units
of Mm. The decimal point is speci-
fied in card Column 29.
Enter the particle boundary diameter
value as a decimal number in units
of ilm. The decimal point is specified.
Same as 1st stage.
Same as 1st stage.
Same as 1st stage.
Same as 1st stage.
Same as 1st stage*
Same as 1st stage.
Same as 1st stage.
June 1978
-------
UG-2.3-28
Card Columns Data Element
CAKD HO2 (CARD NOT REQUIRED)
16 Entry Code
17-24
25-26
33-38
39-44
45-50
51-56
57-62
Chemical ID
Analysis ID
27-32 Mass Train Filter
or Pooled Stages
Chemical Concentra-
tion- 1st Stage
Chemical
tion-2nd
Chemical
tion-3rd
Chemical
tion-4th
Chemical
tion-5th
Concentra-
Stage
Concentra-
Stage
Concentra-
Stage
Concentra-
Stage
Encoding Instructions
Enter the chemical entry code which
determines the type of chemical ID
used. Enter the letter S for SOTDAT
code, C for CAS number, F for Level
1 fraction, and M for MEG number.
Enter the chemical code number (left-
justified) for the element or compound
using the standard nomenclature appro-
priate for the entry code.
Enter the code letter(s) (left-justified)
for the chemical analysis performed
using the standard nomenclature given
in Table 2.1-12.
Enter the chemical concentration,
as a decimal number, in units of
Hg/dry normal m^ for the mass train
filter or the pooled stages. The deci-
mal point is specified in card Column
28.
Enter in scientific notation in units
of yg/dry normal m^. The decimal point
is specified in the second column in
the field. The sign of the exponent
(+ or -) shall be entered in the fifth
column, and the value of the exponent
as an integer in the seventh column.
Same as 1st stage.
Same as 1st stage,
Same as 1st stage.
Same as 1st stage.
June 1978
-------
UG-2.3-29
Card Columns Data Element Encoding Instructions
CABD H02 (continued)
63-68 Chemical Concentra- Same as 1st stage*
tion-6th Stage
69-74 Chemical Concentra- Same as 1st stage.
tion-7th Stage
75-80 Chemical Concentra- Same as 1st stage.
tion-8th Stage
June 1978
-------
H -
CHEMICAL
'•it S«rieft
No.
l
2
1
4
|
5
*
COMPOSITION
Sub-
MTiK
No.
&
7
8
2
»
M
Cord
No.
ll
S
12
0
13
1
Entry
Card
No.
11
H
H
H
H
H
H
H
H
H
H
H
H
H
H
H
H
H
H
H
H
H
H
H
H
H
H
H
H
H
H
H
H
H
H
12
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
13
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
H
C
14
a
>de
t]
I*
1
16
s
s
$
s
1>
it 19
1
Stokei/Aerodynomic/lmpocfion Oianwter (0. 1 . or 2)
r— Calib or Calc (lorO)
20 *f
1
»
to
M
Anal/sis 1 .C
Chemical I.O.
17
z
&
fr
2.
18 19
1 0
1 1
1 1
20 21
3
0
2
*
22
23
24
TO
.-,
25
B
A
A
/I
*l
26
Upper
Bounocit y
Diameter
27
2
21
C
J?
•
30
0
31
0
32
a
MassTramFtlter
or Pooled Stages
+
27
28
29
30
31
32
0
33
M
?
35
•
36
f
37
*
33
o
©
±
15"
i
T
i
1
34
35
\
fl
1
2
36
0
0
1
37
t
t
+
1
38
1
I
*
1
Partic e Bourn
©
39
40
3
41
42
•8
43
a
44
o
©
±
39
4
4
2
40
I
4IJ42
£E
00
I
%
?
O
i
43
»
•f
t
t
44
0
I
|
bry Diameter *
®
45.44
2.
47
•
4>
J
49
0
5C
O
Chcmlca
®
+
45] *6
7
1
3
1
47
(,
4
f
|
48
0
3
f
C
49
+
*
*•
f
50
0
1
z
1
© 1 ®
51
52
/
53
•
54
£
55
0
54J57
o^
Concentration 1
®
i
51
4
«
t
52
53
/
O
4
I'
54
o
0
0
P
55
"f
4-
*•
t
56
0
1
1
1
56
59
•
60
7
61
1
62
O
Aig/m3)
®
•f
57
4-
1
z.
4
51
59
7
i
t
?
60
0
0
•?
A
61
f
•*•
•+
*
62
6
i
?
I
©
63
64
65
•
66
*
67
/
61
0
®
+
|63
I
?.
t
64
1
65
7
z
7
7
46 1*7 1 66
1
Z
A
4
1
+
t
+
o
1
&
o
©
t»
70
71
•
7J
1
73
»
74
O
®
±
69
4
i
e
9
70
71
fl
i
3
n
\
1
$
0
73
'
•*•
f
74
C
1
1
9
®
75
76
77
•
71
79
b
®
±
75
76
77
71
79
M
I k* filM if tht pnading wb««ri4» contain the urra data; chmggs
•MUn fcani priL«*ii| iiitaai Hi • «« ap|*c«bte. UM NA «r M»; to
l b MMta it n
or modifications should to wiMrad u nacwaty. If data
r Ntawta fofeMtm we of NA or M* •
Notes
n>
00
The stages (or catches) are arranged sequentially in decreasing order of cut diameter sizes for up
to a maximum of nine stages. The successive stages may be cyclone, impactor, final filter, etc.,
depending upon the configuration of the sampling train.
Figure 2.3-11. Sample Completed H -Cards— Chemical Composition Data.
N>
-------
UG-2.3-31
2,3.9 Section I - Measurement Particulars - Form 6
Card Columns Data Element
CARD 101 (REQUIRED CARD)
1-5 Test Series Number
6-8 Subseries Number
9-10
11-13
14
15
16-45
46-49
50-54
55-60
Run Number
Card Designation
Measurement Instru-
ment/Method Number
Blank
Measurement Instru-
ment/Method Name
Measurement Start-
Time
Sampling Period
Aerosol Flow Rate
Encoding Instructions
Same as on Card A01.
Same as Card D01.
Enter the nonzero, sequential integer
number of the run.
Do not change.
Each of the measurement instrument/
methods used for making particle size
distribution measurements of a test
series is given a nonzero* sequential
number. Enter the number of the mea-
surement instrument/method here.
Leave blank.
Enter the name of the measurement
instrument/method as text, using the
standard nomenclature as given in
Table 2.1-14, beginning in Column
16.
Enter the integer starting time of
measurement with this particular in-
strument. Use 24-hr clock (military
time).
Enter the measurement duration (sam-
pling period) for this instrument
as a decimal number in minutes. The
decimal point is implied between card
Columns 53 and 54.
Enter the sample flow rate as a deci-
mal number in units of liters/minute
for this instrument/method. The deci-
mal point is implied between card
Columns 58 and 59.
June 1978
-------
UG-2.3,-32
Card Columns Data Element
CARD 101 (continued)
61-64 Temperature
65-69
Pressure
70-72
73-75
76-80
Percent HO
Blank
Dilution Factor
Encoding Instructions
Enter the gas temperature at the measure-
ment location (the measurement location
may be the sairpling location for ±n situ
sampling) as an integer number in units
of degree Celsius,
Enter the gas pressure at the measure-
ment location (the sampling and measure-
ment locations will be the same for in
situ sampling) as an integer number in
units of mm Hg, right-justified to Col-
umn 69,
Enter the percent by volume of water va-
por as a decimal number. The decimal point
is implied between card Columns 71 and 72.
Leave blank.
Enter the ratio of aerosol concentration
(either on mass basis or number basis)
in the original gas stream to that of
measured sample as a decimal number. En-
ter 1 in card Column 79 if the aerosol
is not diluted as is the usual case when
sampling with impactors. Distortions in
particle size distribution due to the
dilution system should be reported in
the appropriate remarks. The decimal point
is implied between card Columns 79 and
80.
June 1978
-------
UG-2.3-33
Card Columns Data Element
CARD 102 (CARD NOT REQUIRED)
16-20
Measurement Size
Range (Lower)
21-25
Measurement Size
Range (Upper)
26-80
Collection Surface/
Substrate and Its
Sp eci fications
Encoding Instructions
Enter the lower diameter range of
the measurement instrument/method
as a decimal number in units of Urn.
The decimal point is implied between
card Columns 17 and 18.
Enter the upper diameter range of
the measurement instrument/method
as a decimal number in units of Urn.
The decimal point is implied between
card Columns 22 and 23.
Enter as text a description of ad-
hesive coating used for impactor sam-
pling, beginning in card Column 26.
For instruments for which no collec-
tion surface is needed, leave blank.
CARD 103-105 (CARDS NOT REQUIRED)
16-80 Comments on the
Measurement
Enter as text beginning in card Column
16 all the run level comments. Be
brief and use abbreviations wherever
possible* Please note if there are
comments regarding a measuring in-
strument which will apply to all runs,
enter such comments in subseries re-
marks*
June 1978
-------
SB
FINE PARTICLE EMISSIONS NFORMATION SYSTEM
Form 6 9/77
IERI BTF. taMtk
I - MEASURE
Test S.ries
No.
^
i
TriMttalMi. N.C. 27711
MENT PARTICULARS
Sur>
3
Run
No.
2
Card
No.
1
n
t
Card
No.
II
I
12
0
13
2
Card
No.
11
I
I
I
12
0
0
0
13
3
4
5
f
t
M
M
W
IS
— Measurement Instrument/Method No.
Measurement Instrument /Method Name
21
[£
W
M
A
9
r
?fr
**
Measurement Size Range
16
Lower
17
ft
18
4
19
O
20
i Upper
21
2.
22
?
23
0
24
25
oi
T
M
P
Hr
T
a
DATA
f
NPUT
FORMS
Meas.
Start Time
r
it
•t
Sampling
Period **
M
*
f
Aerosol
Flow Rate**
V
f
Form Completed by
*"?J * ^ ^> . JT
Gas Conditions at
Measurement Location
Temp.
«
7
Press.
7
*
n
%H2O
7
2
Dilution
Factor**
/
C
**
Collection Surface/Substrate and its Specifications
24
£
27
1
21
A
29
^
30
31
Comments on the Measurement
16
17
||
9
18
In
s
19
-------
UG-2.3-35
2.3.10 Section J - Particulate Size Distribution Data - Form 6
Card Columns Data Element
CARD J01 (REQUIRED CARD)*
1-10 Data Identification
14
15
16
17-23
24-25
26-31
32-33
34-39
Encoding Instructions
Enter test series, test subseries,
and test run numbers as on Card 101
Measurement Instru- Enter the same integer as on Card
ment/Method Number 101, Column 14.
Stokes/Aerodynamic/
Impaction Diameter
Blank
Particle Size Data
(Upper Boundary
Diameter)
Blank
Particle Size Data
(1st Stage Boundary
Diameter)
Blank
Particle Size Data
(2nd Stage Boundary
Diameter)
Enter the integer 0 for "Stokes" par-
ticle diameter, 1 for "aerodynamic"
particle diameter, 2 for "impaction"
particle diameter.
Leave blank*
Enter the upper boundary particle
diameter as a decimal number in units
of pn. The decimal point is specified.
This value, which depends on the aero-
sol and the sampling train, is usually
estimated (or chosen arbitrarily).
Leave blank.
Enter the particle boundary diameter
value as a decimal number in units
of U,m. This and the remaining boundary
diameters should be entered in order
of decreasing particle diameter. The
decimal point is specified. The num-
ber of digits reported should repre-
sent the precision of the measurement.
Leave blank.
Same as 1st stage.
* At least for the first run of each measurement instrument/method.
June 1978
-------
UG-2.3-36
Card Columns Data Element
CAED J01 (continued)
40-41 Blank
Encoding Instructions
42-47
48-49
50-55
56-57
58-63
64-65
66-71
72-73
74-79
80
Particle Size Data
(3rd Stage Boundary
Diameter)
Blank
Particle Size Data
(4th Stage Boundary
Diameter)
Blank
Particle Size Data
(5th Stage Boundary
Diameter)
Blank
Particle Size Data
(6th Stage Boundary
Diameter)
Blank
Leave blank.
Same as 1st stage.
Leave blank.
Same as 1st stage.
Leave blank.
Same as 1st stage.
Leave blank.
Same as 1st stage,
Leave blank.
Particle Size Data Same as 1st stage.
(7th Stage Boundary
Diameter)
Calibrated or Cal- Enter the integer 1 for "calibrated"
culated boundary diameters, 0 for "calculated"
boundary diameters.
CARDS J02 and J03 (REQUIRED CARDS)*
14-16 Blank Leave blank.
17-23
24-25
Particle Size Data Same as 1st stage (if needed).
(Next Stage Boundary
Diameter)
Blank
Leave blank.
At least for the first run of each measurement instrument/method.
June 1978
-------
UG-2.3-37
Card Columns Data Element
CARDS J02 and JOS (continued)
Encoding Instructions
26-31
32-33
34-39
40-41
42-47
48-49
50-55
56-57
58-63
64-65
66-71
72-73
74-79
80
CARD JO4
14
Particle Size Data Same as 1st stage (if needed).
(Next Stage Boundary
Diameter)
Blank
Leave blank*
Particle Size Data Same as 1st stage (if needed).
(Next Stage Boundary
Diameter)
Blank
Particle Size Data
(Next Stage Boundary
Diameter)
Blank
Leave blank*
Same as 1st stage (if needed).
Leave blank.
Particle Size Data Same as 1st stage (if needed).
(Next Stage Boundary
Diameter)
Blank
Leave blank.
Particle Size Data Same as 1st stage (if needed).
(Next Stage Boundary
Diameter)
Blank
Leave blank.
Particle Size Data Same as 1st stage (if needed)•
(Next Stage Boundary
Diameter)
Blank
Leave blank*
Particle Size Data Same as 1st stage (if needed).
(Next Stage Boundary
Diameter)
Blank
(REQUIRED CARD)
Measurement Instru-
ment/Method Number
Leave blank.
Enter the same integer as on 101 and
J01, card Column 14.
June 1978
-------
UG-2.3-38
Card Columns j)ata Element
CASD J04 (continued)
15 Mass/Number
16
17-23
24
25-31
32
33-39
40
41-47
48
49-55
Blank
Mass/Number Concen-
tration- 1st Stage
Blank
Mass/Number
tration-2nd
Blank
Mass/Number
tration-3rd
Blank
Mass/Number
t ration-4th
Blank
Mass/Number
tration-5th
Coneen-
Stage
Coneen-
Stage
Concen-
Stage
Coneen-
Stage
Encoding Instructions
Enter the integer 1 if the instrument/
method measures mass and enter 0 if
the instrument/method measures number*
Leave blank.
Enter the particle concentration in
scientific notation. The decimal point
is specified in the second column
of the field. The sign of the exponent
(either -*• or -) should be entered
in the fifth column and the exponent
as an integer (right-justified) in
the last two columns. This and sub-
sequent concentration values should
be entered in order of decreasing
particle diameter. Mass concentration
should be expressed in units of UK/
1
dry normal m . Number concentration
should be expressed in units of number/
cm . The mass concentration for each
stage is calculated by dividing the
mass by the total volume (in dry nor-
mal m-*) sampled by the instrument.
Leave blank.
Same as 1st stage.
Leave blank*
Same as 1st stage.
Leave blank.
Same as 1st stage.
Leave blank.
Same as 1st stage.
56
Blank
Leave blank.
June 1978
-------
UG-2.3-39
Card Columns Data Element Encoding Instructions
CARD J04 (continued)
57-63 Mass/Number Coneen- Same as 1st stage.
tration-6th Stage
64 Blank Leave blank.
65-71 Mass/Number Concen- Same as 1st stage.
tration-7th Stage
72 Blank Leave blank.
73-79 Mass/Number Concen- Same as 1st stage.
tration-8th Stage
80 Blank Leave blank.
CARDS JOS and J06 (REQUIRED CARDS)
14-16 Blank Leave blank.
17-23 Mass/Number Concen- Same as 1st stage (if needed).
tration-Next Stage
24 Blank Leave blank.
25-31 Mass/Number Concen- Same as 1st stage (if needed).
tration-Next Stage
32 Blank Leave blank.
33-39 Mass/Number Concen- Same as 1st stage (if needed).
tration-Next Stage
40 Blank Leave blank.
41-47 Mass/Number Concen- Same as 1st stage (if needed).
tration-Next Stage
48 Blank Leave blank.
49-55 Mass/Number Concen- Same as 1st stage (if needed).
tration-Next Stage
56 Blank Leave blank.
57-63 Mass/Number Concen- Same as 1st stage (if needed).
tration-Next Stage
June 1978
-------
UG-2.3f40
Card Columns Data Element
CARDS JOS and J06 (continued)
64 Blank
65-71 Mass/Number Concen-
tration-Next Stage
72 Blank
73-79 Mass/Number Concen-
tration-Next Stage
80 Blank
Encoding Instructions
Leave blank.
Same as 1st stage (if needed).
Leave blank*
Same as 1st stage (if needed),
Leave blank*
June 1978
-------
J - PARTICULAR SIZE DISTRIBUTION DATA
Test Serin
No.
1
<
k
\
Sub-
feriei
No.
2
Run
No.
10
2
Cord
No.
n
J
J
J
12
0
0
0
13
1
2
3
Cord
No.
^7
j
j
j
12
0
0
0
13
4
5
6
r
14
1
r
14
|
I"
IS
1
r
t5
f
—Measurement Insrrurr
— Stakes/ Aerod/"01"
I«|l7
IS
?
19
o
20
•
•
•
21
o
22
0
23
— Measurement Insfrum
—Mass/No. (1 or 0)
4-
M
17
3
ii
19
•9
•
•
20
ff
21
1-
22
c
n
£
•enr/Merhod No. |
c/lmpoction Diomefer (0, 1 , or 2)
I
J4
23
26
/
27
?
21
•
•
[•
29
7
X
1
31 Hi
OF
r
•nt/ Method No.
+
94
25
Z.
26
•
•
•
27
|
21
-------
UG-3.0-1
SECTION 3
OFF-LINE REQUEST PROCEDURES
Contents
Number Item Page
List of Figures UG-3.0-2
3.0 Introduction • UG-3.0-3
3.1 Submittal of New Data UG-3.1-1
3.2 Data Retrieval Using System Request Commands • • • • • UG-3.2-1
3.3 Special Data Retrieval Requests* ••••••••••• UG-3.3-1
3.4 FPEIS User Support UG-3.4-1
June 1978
-------
UG-3.0-2
SECTION 3
LIST OF FIGURES
Number Title Page
3.1-1 Sample FPEIS Data Submittal Acknowledgement Memo. • UG-3.1-4
3*1-2 Sample FPEIS Data Submit tal Error Memo UG-3.1-5
3*1-3 FPEIS Quality Assurance Program ••«••••••. UG-3.1-6
June 1978
-------
UG-3.0-3
3.0 Introduction
The purpose of this section and the section to follow is to provide users
with instructions for submitting new data for entry to the FFEIS and for
retrieving existing data from the FPEIS. In particular* Section 3 addresses
such procedures for those users who do not have direct access to the EPA
National Computer Center at Research Triangle Park, North Carolina* Section
4 will discuss direct interactions with the computer*
It is likely that many users of the FPEIS will have neither the time nor
the inclination to pursue the direct access methods described in Section
•
4. Since federal regulations do not permit the sale of computer services
by government data centers like the NCC, most users will not be authorized
to access the NCC unless they are under EPA contract* For this reason, proce-
dures have been established which will enable those "off-line" users to
retrieve information by written or telephone request instead*
It should be noted that there is no charge for "off-line" data retrieval;
however, EPA makes no guarantee regarding the completeness of the data or
the promptness of the response* In all likelihood, simple data requests
will be processed quickly, but the staff response will depend upon their
current work load and on the complexity of the request* Special data re-
quests which require computer program development will take longer* Reques-
ters will be appraised of any expected delays*
June 1978
-------
UG-3.1-1
3.1 Subniittal of New Data
All new source testing data for the FPEIS should be sent to the EPA project
officer, IERL/RTP, for input to the data base* These data must be encoded
on the FPEIS Data Input Forms in accordance with the data input instruc-
tions described previously, and punched on computer cards where directed*
The user shall also send a cover letter identifying each test series, sub-
series, and run in the data set submitted*
Remember; Unique Test Series Numbers will be assigned to each series by
the FPEIS data base administrator from a master file listing*
Data for input to the FPEIS data base should be sent to the following address:
FPEIS Project Officer
U*S* Environmental Protection Agency
Special Studies Staff (MD-63)
Industrial Environmental Research Laboratory
Research Triangle Park, North Carolina 27711
When the data set has been received by IERL/RTP, a letter of acknowledge-
ment will be sent to the submitter (see Figure 3*1-1)* The letter will also
identify the unique Test Series Number(s) assigned to his data set*
In some instances, however, the Test Series Number(s) may be preassigned
to a submitter prior to the encoding of the data* Usually a block (or range)
of Test Series Numbers will be preassigned to a submitter when several po-
tential test series have been Identified from one submitter*
June 1978
-------
UG-3.1-2
The user is requested to exhibit care in the preparing of the data forms
in order to minimize the encoding of errors* Furthermore, all punched cards
submitted must be verified prior to submitting them. While it is not ex-
pected that all data sets submitted will be error free, those which have
been encoded sloppily or not verified will be returned to the submitter
for correction (see Figure 3.1-2). In most cases, though, the corrections
will be implemented by the FPEIS Support Staff, subject to verification
by the encoder*
Figure 3*1-3 shows the principal steps in the FPEIS quality assurance (Q&)
program for new data* Data are received and acknowledged by the FPEIS Data
Base Administrator at Research Triangle Park* The data are then loaded into
a special edit file in the NCC UNIVAC 1100 computer. The edit checking of
the data are done by the FPEIS Support Staff (Midwest Research Institute).
The Support Staff will work directly with the data submitter to implement
any necessary changes to the test series* Ultimate approval for the data
are the responsibility of the submitter. No data will be entered into the
data base until the submitter is satisfied with the data as shown on the
EDIT report* The EDIT program} which produces the EDIT report for user
review, takes the data submitted and adds automatically all repeating data,
blank cards, etc*, in addition to checking for proper encoding and formatting
of data. The EDIT report produces a list of all the data submitted in SERIES
report format (see Section 6*2 for example) and a list of all of the card
images in the data set*
June 1978
-------
UG-3.1-3
After the data have been approved by the user for final verification, the
FPEIS UPDATE program will be used to load the data into the data base* Once
loaded, the data will be printed in a SERIES report and sent to the user
for his records* Then, and only then, will the test series be available
for public access*
June 1978
-------
UG-3.1-4
Dr. John A. Doe
Ozone National Laboratory
1234 Anystreet Drive
Hometown, PA 12345
Dear Dr. Doe:
This letter is to acknowledge our receipt of source testing data for the
Fine Particle Emissions Information System (FPEIS) from you. The data forms
have been examined and have been found to be acceptable for input to the
FPEIS database.
In a short time, we will return to you a print-out containing the data
which you have submitted for your review and comment. The test series
numbers which have been assigned to your data are: 61, 62, 63, and 64.
Thank you very much for your support of the FPEIS. Please feel free to
call me if you have any questions.
Sincerely,
FPEIS Project Officer
Special Studies Staff
Figure 3.1-!• Sample FPEIS Data Submittal Acknowledgment Memo.
June 1978
-------
UG-3.1-5
Dr. John A. Doe
Ozone National Laboratory
1234 Anystreet Drive
Hometown, PA 12345
Dear Dr. Doe:
This letter is to acknowledge our receipt of source testing data
from you for the Fine Particle Emissions Information System (FPEIS).
The data forms have been examined and several omissions of key data were
noted. We are returning the data forms to you for correction. The
omitted data items have been noted on the data forms.
If you have any questions regarding the data forms, please feel free
to call me. Thank you very much for your support of the FPEIS.
Sincerely,
FPEIS Project Officer
Special Studies Staff
Figure 3.1-2. Sample FPEIS Data Submittal Error Memo.
June 1978
-------
UG-3.1-6
CFPEIS\
Data }
User submits data
to IERL for entry
Test Series Numbers
Assigned & reviewe by
Support Staff initiated
Send EDIT Report to
User for verification
Support Staff
implements
corrections
No
Have all errors J
been found? J
EDIT
Report
Yes
Send EDIT Report to User
for final verification
I
EDIT
Report
Support Staff
implements
final changes
No
/ Is the data set
1 ready to be
V loaded?
Yes
Load data into
FPEIS Data Base
Send SERIES Report to
User for his records
SERIES
Report
C End J
Figure 3.1-3. FPEIS Quality Assurance Program
June 1978
-------
UG-3.2-1
3*2 Data Retrieval Using System Request Commands
The simplest method of retrieving data for an off-line user is to request
one of the System Request Commands (SRC's). Section 5 contains a catalog
of System Request Commands which may be utilized to retrieve FPEIS data
in a specified manner* Each request command is described separately and
has its own requirements for data input or qualification by the user* To
simplify their use, the SRC's have been numbered sequentially* In this way,
the user needs only to identify the conmand number in order to request a
certain procedure, and to supply any required qualification data*
FPEIS SRC's may be requested by off-line users by telephone or in writing.
The requester should supply all information in accordance with the require-
ments of the System Request Command and send the completed request to the
following address:
FPEIS Project Officer
U.S. Environmental Protection Agency
Special Studies Staff (MD-63)
Industrial Environmental Research Laboratory
Research Triangle Park, North Carolina 27711
Users should send separate requests for different runs even if the same
command is being used repeatedly* For example, if a user wishes to inter-
rogate the data base according to a specific access criteria, any change
to that criteria must be shown in a separate request* Receipt of the re-
quest will be acknowledged to the requester in writing. If there are any
June 1978
-------
UG-3.2-2
errors in the request or some information is missing, the requester will
be contacted to clarify the problem* When the request has been processed,
the output will be sent to the requester for verification.
June 1978
-------
UG-3.3-1
3,3 Special Data Retrieval Requests
It is recognized at the outset that the System Request Commands are not
likely to be diverse enough to satisfy all user needs for data. For this
reason, a special data retrieval request category was established* There
is no specific form to be used for special requests; there is merely a
set of general guidelines to follow in preparing the request. These guide-
lines are as follows:
1. Be explicit: Be thoroughly familiar with the FPEIS data base
structure. Identify each data base element to be sorted and/or re-
trieved by name. Should additional work on the request be required,
consultation with the requester will be initiated, and, upon comple-
tion, the printout will be returned to the requester for verifica-
tion.
2. Plan the request: Be sure that the access criteria applies to
the proper type of data element. Remember that only key values may
be retrieved directly and that nonkey values must be qualified for
data access (see Section 6.4). Specify all needed qualifications and
identify all input data for comparative evaluation.
3. Define the output: Determine how you wish the data to be dis-
played on output. Identify how data elements are to be ordered. Spec-
ify column headings. Define any calculations to be performed on the
accessed data.
June 1978
-------
UG-3.3-2
The completed definition of the request should be sent to the FPEIS proj-
ect officer at IERL-RTP. The user should be sure to include his telephone
number with the request. If there are any problems encountered with the
request, the user will be contacted by telephone to resolve the problem.
When the request has been received, a letter of acknowledgment will be
sent to the requester. The letter will include a preliminary estimate of
the length of time required to process the request. As emphasized previ-
ously, the length of time needed to process a special request will depend
upon the complexity of the request. The simpler the request, the faster
it can be processed.
If no problems are encountered that require consultation with the requester
the results will be sent to the requester when the processing is completed.
The requester should review the output to verify that it satisfies the re-
quest. If it does not, the printout should be returned with corrections to
IERL for reworking. If the printout is satisfactory, the requester should
notify the FPEIS project officer of his acceptance.
June 1978
-------
UG-3.4-1
3.4 FPEIS User Support
IERL/RTP is committed to the on-going support of the FPEIS data base and
its associated software. The administrative functions relative to the FPEIS
are provided by the Special Studies Staff in IERL* Technical development
and maintenance is provided by the FPEIS Support Staff, which is composed
of Government contractors under the direction of the FPEIS Project Officer.
The FPEIS Support Staff has the responsibility for conducting the data
QA program, updating documentation, developing analytical software specifi-
cations, conducting information transfer activities, etc. This function
is being provided by Midwest Research Institute in Kansas City, Missouri.
Data processing activities are performed by MRI Systems Corporation of
Austin, Texas, from offices at Research Triangle Park, North Carolina.
Any questions regarding the FPEIS should be directed in writing to the
following address:
FPEIS Project Officer
U.S. Environmental Protection Agency
Special Studies Staff (MD-63)
Industrial Environmental Research Laboratory
Research Triangle Park, North Carolina 27711
or by telephone to:
FTS: 629-2745
Commercial: 919/541-2745
June 1978
-------
UG-4.0-1
SECTION 4
ON-LINE REQUEST PROCEDURES
CONTENTS
Number Item Page
List of Figures uG-4.0-2
List of Tables uc-4.0-2
4.0 Introduction UG-4.0-3
4.1 NCC User Qualifications and Services Registra-
tion .. UG-4.1-1
4.1.1 Registration Procedures .......*... UG-4.1-2
4.1.2 User ID and Password* ............ UG-4.1-6
4*2 Interactive Terminal Operation* ••••••••• UG-4.2-1
4.2.1 Initiating a Demand Processing Session. • • • UG-4.2-7
4.2*2 Terminating a Demand Processing Session ... UG-4.2-10
4.2.3 Accessing the FPEIS Data Base UG-4.2-U
4.3 Remote Batch Terminal Operation ......... UG-4.3-1
4*3*1 Initiating a Remote Batch Processing
Session ••••••••••••••••••• UG-4.3-4
4*3*2 Terminating a Remote Batch Processing
Session • • UG-4.3-6
4.4 FPEIS User Support UG-4.4-1
June 1978
-------
UG-4.0-2
Number
SECTION 4
LIST OF FIGURES
Title
4.1-1 Application Form for NGC Services UG-4.1.1-3
4.3-1 Request for Batch Terminal Support Form. ... UG-4.3-3
SECTION 4
LIST OF TABLES
Number Title page
4.2-1 Remote Interface Control Statements. • • • • . UG-4.2-5
4.2-2 NCC Demand Access Telephone Numbers* • • • . . UG-4.2,1-3
4.3-1 NCC Remote Batch Access Telephone Numbers. . . UG-4.3.1-2
June 1978
-------
UG-4.0-3
4.0 Introduction
The phrase "on-line request" in the title of this section implies that the
user intends to establish direct communication with the FPEIS data base
through some type of terminal-to-computer link* The procedure described in
this section may be used by a qualified user of EPA's National Computer
Genter to access the FPEIS directly through an interactive data communica-
tions (demand) terminal or a remote job entry terminal* The specific qual-
ifications for NCC user access is discussed in Section 4.1.
On-line users of the FPEIS are presumed to have a reasonably working knowl-
edge of UNIVAC 1100 series computers and, in some cases, of SYSTEM 2000
natural language. Special data retrieval procedures, called System Request
Commands, or SRC's, have been developed to minimize the data processing
knowledge required to use the FPEIS. The SRC's are discussed in Sections
4.2, 4.3, and 5. Any user unsure of his familiarity with the UNIVAC or
SYSTEM 2000 is urged to request information through the off-line procedures
described previously in Section 3.
On-line users are granted READ-ONLY access to the FPEIS data base. No up-
dating of data are permitted. New data must be submitted through the EPA
project officer. In the READ-ONLY mode, the user may retrieve for sorting
and evaluation any data stored in the system. The user may take advantage
of the wide array of features offered by SYSTEM 2000 for data sorting and
retrieval. For reference purposes, the FPEIS data base definition is given
in Section 6.3, and lists of key and nonkey data elements are given in Sec-
tion 6.4.
June 1978
-------
UG-4.1-1
4.1 NCC User Qualifications and Services Registration
Qualified users are defined as those who have valid accounts with the National
Computer Center at Research Triangle Park, North Carolina* In most cases,
NOG users are either EPA personnel or contractors who are under EPA con-
tract. The NCC is not available to public subscribers* Federal regulations
prohibit the marketing of computer time by government data centers which
may be in competition with commercial computer services vendors. Thus, it
is not usually possible for FPEIS users who are not under EPA contract to
obtain account numbers in order to access the NCC directly* Exceptions to
this may be found with user access through interagency agreements or grants*
The qualifications of a potential NGG user are determined by EPA's Management
Information and Data Systems Division*
Any questions regarding the qualification of a user should be addressed
to:
MIDSD TSSMS Office
U*S. Environmental Protection Agency
National Computer Center (MD-34B)
Research Triangle Park, North Carolina 27711
or by telephone to 919/541-3629 (FTS: 629-3629).
June 1978
-------
UG-4.1-2
4.1.1 Registration Procedures
All users of the NCC UNIVAC 1100 must be registered for accounting and
security purposes. Application for NCC services is made by submitting a
completed EPA Form 2800-3 (Figure 4.1-1) to the appropriate ADP coordina-
tor for approval and signature. Each EPA office or laboratory which uses
the NCC or other computing facilities has a designated person (or persons)
who serves as the ADP coordinator. All procedural matters pertaining to
the use of the NCC should be directed to the ADP coordinator. Effective
Thursday, June 1, 1978, the MIDSD Time Sharing Services Management Sys-
tem (TSSMS) Office was relocated to the National Computer Center. Requests
for EPA user account modifications processed through the ADP coordinators
to authorize new accounts or add new users to existing accounts, normally
submitted using the EPA Form 2800-3, should then be forwarded to the fol-
lowing address:
MIDSD TSSMS OFFICE
Environmental Protection Agency
National Computer Center (MD-34B)
Research Triangle Park, North Carolina 27711
In instances where a user organization requires immediate access to com-
puter facilities, temporary authorization can be achieved by telephone
contact with the TSSMS Office. Effective June 1, 1978, requests for tem-
porary authorization should be directed to 919/541-3629 (FTS: 629-3629).
Upon receiving temporary authorization, a completed Form 2800-3 must be
forwarded to the TSSMS Office. The temporary authorization obtained by
telephone is valid for a 2-week period pending receipt of the Form 2800-3
June 1978
-------
UG-4.1-3
for processing permanent authorization* Requests for cancellation of specific
users authorized under a given account or changes in user address/telephone
numbers will be processed by telephone using the TSSMS telephone number
listed above.
Non-EPA users (e.g., contractors, grantees, etc.) should submit all required
forms to their EPA project officer, who in turn will forward the information
to the ADF coordinator. Account authorizations/modifications for Interagency
Agreement User Accounts (non-EPA users) should be forwarded for approval to:
W. G. Allen, Computer Specialist
Environmental Protection Agency
National Computer Center (MD-34)
Research Triangle Park, North Carolina 27711
Upon approval of Interagency requests, the TSSMS Office will complete im-
plementation of the authorization and notify the respective project manager.
Any questions concerning the above should be directed to the TSSMS Office
at 919/541-3641 (FTS: 629-3641). Please note that, in regard to EPA Form
2800-3, the organization titles and codes and the EPA DIPS organization titles
and codes, and the program element titles and codes are assigned by the Office
of Planning and Programming. The account number will be assigned to the user
by MIDSD and must appear on all transactions attempted with the NCC UNIVAC
1100.
June 1978
-------
UG-4.1-4
EDP SERVICES REGISTRATION
(Fh-ase Print or Type)
SERVICE (Chuck one)
D TIME SHARING
P, TECHNICAL
LJ ASSISTANCE
D OTHER
SUPPLIER (Specify) SOI
1
JRCEOF FUNDS
3 US. EPA
QREIMBURSIBLE
D SPONSORED
MIDSD USE ONLY
DATE RECEIVED ~"
PROJECT
CODE
ENVIRONMENTAL
SYSTEM IDENTIFI-
CATION NUMBER
PROJECT TITLE (Limit: 60 characters, Including spaces)
PROJECT DESCRIPTION
ORGANIZATION
PROGRAM ELEMENT TITLE
ORGANIZATION CODE -
PROGRAM ELEMENT CODE ~
DOLLAR AMOUNT DATE TO BEGIN
PROJECT MANAGER
MAIL CODE (or room)
DURATION SYS
NAME (Last, First, M.I.)
TEM _ DAILY"""
Q RETRIEVAL ONLY STORAGE
D FULL ACCESS
PHONE (Include area code)
OFFICE OR LOCATION
ADDRESS (Street or P.O. Box)
USER {NAME (Last, First, M.I
MAIL CODE (or room)
ADDRESS (Street or P.O. Box)
USER NAME (Lait, F.rn, M.
MAIL CODE (or room)
)
CITY
STATE ZIP CODE
PHONE (Include area code)
OFFICE OR LOCATION
.)
CITY
STATE ZIP CODE
PHONE (Include area Code)
OFFICE OR LOCATION
ADDRESS (Street or P.O. Box)
TO:
U.S. Environmental Protection Agency
Director, Management Information and
Data Systems Division (PM 218)
Washington, D.C. 20460
CITY
ORIGINATED BY
CONCURRENCE (Funding)
CONCURRENCE (Other)
STATE ZIP CODE
DATE
DATE
DATE
MIDSD USE ONLY
POSTED
UPDATED
PRC
IOFED
DISTANCE
CODE
MAI
M [
P C
C [
DISTANCE
CODE
MAI
p r
p L
C [
F C
DISTANCE
CODE
«EF|R. LOGON" 1
INITIALS
LING LIST CODE '
D S Q
D T Q
DKi n
ITHJ
REFER- LOGON "
ENCE «-"»ON
INITIALS
LING LIST CODE
D SQ
J T Q
3 N Q
REFER- LOQOM
ENCE I-««ON
INITIALS
MAILING LIST CODE
P D . TQ
c D uQ
F D NQ
MAILING LIST KEY^ — ~~
M — Mf
P — PR
C - CC
F - FE
S - ST
u — ur<
N - SY
\NAGEMENT PANEL
OPERTY
NTRACTOR
DERAL NON-EPA
ATE OR LOCAL GOVT
RMINAL CONTACT
IIVERSITY
STEM NEWS
(continued on A**!
Figure 4.1-1. Application Form for NCC Services.
-------
UG-4.1-5
PLEASE PRINT OR TYPE
(Additional liner*)
OSER!NAME First- M-'-
MAIL CODE (or room) OFFICE
ADDRESS (Street or P.O. Box)
USER) NAME (Last, First. M.I.
MAIL CODE (or room) OFFICE
ADDRESS (Street or P.O. Box)
U-gR NAME (Last. First. M.I.)
MAIL CODE (Of room) OFFICE
ADDRESS (Street or P.O. Box)
• _R|NAME (Last. First, M.I.)
MAIL CODE (or room) OFFICE
ADDRESS (Street or P.O. Box)
U$EB|NAME (Lastl Firstl M'L>
MAIL. CODE (or room) OFFICf
ADDRESS (Street or P.O. Box)
-— TTTNAME (Last. First. M.I.)
JBEHJ
MAIL. CODE (or room) OFFIC
SODRESS (Street or P.O. ur>xj
-• INA./IE (La«. Fim, M.I.)
MAIL. CODE (or room) OFFIC
ADORES^ (Street or P.O. Box
-• _|NAME (Last, First. M.I.
-JiA7l7cODE (or room) OFFIC
•jrJjORESS (Street or P.O. Box)
1
'HONE (include area code)
OR LOCATION
CITY •
iTATE
ZIP CODE
PHONE (Include area code)
OR LOCATION
CITY
STATE
ZIP CODE
PHONE (include area code)
OR LOCATION
CITY
STATE
ZIP CODE
PHONE (Include area code)
OR LOCATION
CITY
STATE
ZIP CODE
PHONE (Include area code)
I OR LOCATION
CITY ~~~ '
STATE
PHONE (1
E OR LOCATION
CITY
STATE
ZIP CODE
ZIP CODE
E OR LOCATION
STATE
PHONE (Include area code)
E OR LOCATION
CITY
STATE
•A Fe.™ 2800-3 {R.v. 2-77) (R.v.rie)
ZIP CODE
DISTANCE
:ODE
REFER- I
ENCE
NITIALS
.OGON
MAILING LIST CODE
M n s D
p n TQ
c D u D
F D NQ
DISTANCE
CODE
REFER-
ENCE
INITIALS
LOGON
MAILING LIST CODE
M D S D
P D TQ
DISTANCE
CODE
REFER-
ENCE
INITIALS
LOGON
MAILING LIST CODE
P D T D
c Q u O
F D N Q
DISTANCE
CODE
REFER-
ENCE
INITIALS
LOGON
MAILING LIST CODE
M D s D
p D T n
C Q U D
F D N D
DISTANCE
CODE
REFER-
ENCE
INITIALS
LOGON
MAILING LIST CODE
c D u D
F n ND
DISTANCE
CODE
REFER-
ENCE
INITIALS
LOGON
MAILING LIST CODE
M n s n
c S u S
F D N n
DISTANCE
CODE
MAI
M [
c I
DISTANCE
CODE
MA
M
c
F
REFER-
ENCE
INITIALS
LOGON
LING LIST CODE
D s n
D T D
3 N G
REFER-
ENCE
INITIALS
LOGON
LING LIST CODE
ID S D
D T D
D N n 1
Figure 4.1-1. (Concluded)
June 1978
-------
UG-4.1-6
4.1.2 User ID and Password
The NCC UNIVAC 1100 has a comprehensive, multi-level security system which
is designed to prohibit unauthorized use of the computer. A feature of this
security system is the Time Sharing Services Management System (TSSMS) which
requires that all users be identified by a unique USERID and PASSWORD before
access to the computer is granted. The USERID/PASSWORD must appear on all
demand and batch job requests. This will be discussed in detail later in
Sections 4.2 and 4.3, respectively.
The USERID/PASSWORD is assigned to each individual user of the NCC by
MIDSD. Requests for a USERID/PASSWORD should be submitted to the appropriate
ADP coordinator (through the EPA project officer, if necessary) for approval
and signature.
June 1978
-------
UG-4.2-1
4.2 Interactive Terminal Operation
Demand processing, or interactive terminal operation, is defined as a mode
of operation in which processing is dependent on manual interface with the
central processor during processing* Basically, it is a conversational mode
of operation requiring a demand and response type of activity. Conversational
operation via a remote terminal causes the Executive System, a demand proces-
sor, or an active program to immediately react and respond* Demand processing
terminals are generally thought of as being remote from the computer site
and as having a printer or a cathode-ray tube and keyboard. An example of
a demand terminal is the teletype-writer keyboard and printer.
The distinction between batch-mode processing and demand processing lies
in the frequent interaction with the user that occurs during demand process-
ing. The terminal user is considered to be in conversation with the Execu-
tive System, special demand function, user programs, or the batch functions
of the Executive System on a unit basis.
Tasks executed by the demand terminal user normally have frequent but short
bursts of computation. To process a substantial amount of computation may
require a long period of time. Access to computation is a percentage of
the total computing facility and is scheduled in small increments of time
at frequent intervals to provide immediate responses. This action gives the
appearance of total system control to the user and the impression of being
the only user currently running. The more a user is required to interact
with a demand program the shorter the bursts of computation required to
June 1978
-------
UG-4.2-2
service a given request. The bursts of computation are time-shared within
the Executive System to provide an apparent immediate response, with the
program placed in a dormant mode during idle periods awaiting response from
the user*
While a demand program is in a dormant mode, it may be necessary to swap
the program from main storage* Normally* this transfer happens only when
main storage is full and another program currently on mass storage has work
to do.
The demand terminal has three distinct modes of operation. They are described
below:
. Terminal Inactive Mode
The initial mode of the terminal following the sign-on procedure*
The terminal will return to this mode at the completion of the
other two modes*
Demand Run Mode
This mode is achieved by submitting a
-------
UG-4.2-3
• Batch Mode
The demand terminal may be switched from demand mode to batch mode
for input or output.
The "B" sub-option on the @RUN control statement (<§RUN,/B) will place
the terminal in batch input mode* Input will not be solicited as
in demand run mode* The terminal will be returned to the terminal
inactive mode following a ©FIN control statement* Another ©RUN con-
trol statement will be accepted while in the remote batch run whether
it contains a 'B* option or not* Output files generated by the batch
run, as well as those SYM'd (via @SYM) to the terminal can be displayed
at the terminal by entering the statement, ©@SEND* The terminal is
returned to the inactive mode when the output process of the file
is complete*
Interactive (or demand) processing with the NCC UNIVAC 1100 is supported
for a variety of low-speed data conmunications terminals* Generally speak-
ing, most 30 character/second (CPS) terminals which have ASCII character
sets will be able to access the NCC* The NCC does not support any terminals
which operate at 10 CPS or 15.5 CPS. Also, the NCC does not support IBM 2741
or similar EBCDIC code set terminals.
A partial list of terminals supported by the NCC for demand processing include
the following:
June 1978
-------
UG-4.2-4
Anderson-Jacobson Models 630 and 840
General Electric TermlNet 300 or equivalent
UNIVAC UNISCOPE 100
UNIVAC DOT 500 or equivalent
Texas Instruments Silent 700 series
Hazeltine (most models)
LA36 DEGwriter II
If you are uncertain about the compatability of a particular terminal with
the NCC UNIVAC 1100, you should contact the following:
NGC User Services
919/541-3649
FTS: 629-3649
All UNIVAC supported demand terminals use a common interface (device rou-
tines providing the user interface with unit record peripherals) for input
and output processing* This provides several controls and features to all
demand terminals in a uniform manner* Control of remote symbionts is regu-
lated by control statements prefixed with a double master space (®9). These
control statements do not require the input solicitation* They may be
entered after an output interrupt (break-key) or any other time the terminal
operator finds the need* The control statements are given in Table 4*2-1*
For more details on demand processing, the user should refer to the National
Computer Center User Reference Manual, Vol. V, Section 2, This manual may
be obtained from NGG User Services at the telephone numbers listed above*
The remainder of this section will address demand processing as it applies
to the FPEIS.
June 1978
-------
UG-4.2-5
TABLE 4.2-1. REMOTE INTERFACE CONTROL STATEMENTS
Statement
Mode
Description
@§X TIOC
-------
UG-4.2-6
TABLE 4.2-1. (Concluded)
Statement
Mode
Description
All
Demand Run
©§TERM
All
W,n
All
Terminates special input mode, i.e., ©SCQUE
or @@INQ. The ©SEND returns the terminal
to demand run from @@CQUE and will process
the mass storage buffered input of O9INQ.
Allows the input to be passed to the re-
quester unaltered from the format of
which it was entered; that is, all com-
munication envelope characters are not
removed nor is the image translated*
Directs the Executive System to terminate
the terminal. It is recommended that the
remote operator enter ©STEBM only while in
the terminal inactive mode. However, if
entered while a run is active, the run
and terminal will be terminated. ®STERM
is equivalent to sign off.
Changes the maximum character width of the
page from the default 80 characters to n
characters wide. In most cases, the maxi-
mum page width should be set to 132.
June 1978
-------
UG-4.2-7
4.2.1 Initiating a Demand Processing Section
Communications are established with the NCC UNIVAC 1100 through data com-
munication modems or couplers over voice-grade telephone lines. Users
should follow the steps given in the equipment user manual for their ter-
minal in order to establish the data link to the computer. A list of nation-
wide telephone access numbers for the NCC is given in Table 4.2-2. Once
the data link is established, the following sequence of commands should
be entered (for clarity, the information printed by the computer is shown
in capital letters; the input required from the user in small letters).
Note that the pound sign (#) denotes a carriage return;
Command
#nccdemd#
READY TO NCC ON 9fi
ENTER USERID/PASSWORD:
> xxx/xxxxxx#
*DESTROY USERID/PASSWORD
ENTRY
*UNIVAC 1100 OPERATING
SYSTEM VER.
33R0030-315A(RSI)*
Description
This identifies the NCC to the communications
network*
Response indicates that communication is estab-
lished on Port 9fi«
Enter the approved USERID and PASSWORD fol-
lowing the input solicitation symbol (>).
This header message is usually followed by
several lines of text indicating special news
which can be obtained. When the solicitation
symbol (>) is received you are ready to enter
a valid @RUN card.
June 1978
-------
UG-4.2 -8
> ©run nnxxx,account
number,fpels,15#
where nnxxx = the RUNID. Usually this begins with a number that desig-
nates an output receiving bin at the NCC followed by
the user's initials* Please consult the NCC User Refer-
ence Manual or call User Services for more information*
account no* = the NCC account number as given.
fpeis = the project code which enables access to the FPEIS
data base and software* No other project code may be
used*
DATE: 060179 TIME: 135248 This is the system response if a
> valid <§RUN card has been entered,
followed by the >• NOTE: if your
terminal can print more than 80 char-
acters across the page, you may wish
to expand the page width as shown
below*
@@tty w,nnn#
where nnn = the maximum width of the page in characters (usually
132.
-©^COMPLETE Indicates that the @§TTY command
> has been executed*
At this point, the computer is ready to receive instructions for access-
ing the data base or for executing FPEIS retrieval or analytical soft-
ware (e.g., System Request Commands)* For users who are knowledgeable
in SYSTEM 2000 natural language, Section 4*2*3 describes the accessing
procedure* Use of the System Request Commands is described in Section
5.
June 1978
-------
UG-4.2 -9
TABLE 4.2-2. NCC DEMAND ACCESS TELEPHONE NUMBERS
State
Alabama
California
Colorado
Connecticut
District of Columbia
Georgia
Illinois
Louisiana
Massachusetts
Michigan
Minnesota
Missouri
Nevada
New York
North Carolina
Ohio
Pennsylvania
South Carolina
Tennessee
Texas
Washington
City
Montgomery
San Francisco
Denver
Wethersfield
Washington
Athens
Atlanta
Chicago
New Orleans
Boston
Grosse lie
Lansing
Minneapolis
Kansas City
St. Louis
Las Vegas
New York
Raleigh /Durham
Cincinnati
Philadelphia
Columbia
Nashville
Dallas
Seattle
Telephone
205/277-9390
415/391-0970
303/837-0843
203/529-3378
202/966-9510
404/549-3882
404/873-6431
312/663-1640
504/566-0041
617/742-0420
313/675-8936
517/485-3220
612/861-7451
816/474-3540
314/569-3150
702/736-1988
212/233-1604
919/541-2000
513/751-5800
215/925-4407
803/256-1018
615/244-8020
214/651-1723
206/682-6456
All other locations
(toll free)
800/424-3690
June 1978
-------
UG-4.2-10
4.2.2 Terminating a Demand Processing Session
Two commands are required to end a demand processing session—the ©FIN
and the ©@TERM. The ©FIN command ends the run and results in the printing
of summary usage and accounting data, and places the terminal in the in-
active mode* The <§@TERM command ends the session by disconnecting the
terminal from the computer.
A typical sequence is as follows (# denotes carriage return):
>@f in# Enter the ®FIN command
RUNID: XXXXX AGCT: XXXXXXXXXX PROJECT: FPEIS
TIME: TOTAL: 00:00:35.510 GBSUPS: 001854139
GAU: 00:00:00.177 I/O: 00:00:08.822
GC/ER: 00:00:26.509 WAIT: 00:02:36.079
SRC: PS = 000130352 ES » 000276035
SRUS: 00:01:41.027 COST: $005.05
IMAGES READ: 78 PAGES: 3
START: 13:52:47 MAY 17, 1978 FIN: 13:57:50 MAY 17, 1978
*TERMINAL INACTIVE*
>@@texm# Enter the @§> TERM command
June 1978
-------
UG-4.2-11
4.2,3 Accessing the FPEIS Data Base
Read-only access to the data base is granted to users of the FPEIS who
use this procedure. Users are cautioned not to attempt to use this proce-
dure unless they are familiar with SYSTEM 2000 natural language.
The sequence is as follows (# denotes carriage return):
>®add fpeis.start# Enter the ©ADD command.
05/17/78 17:09:07 BEGIN SYSTEM 2000 VERSION 2.80D
-556- ASSIGNED...TFPEISC 12 28443 05/09/78 11:44:14
ENTER *C4010* AND WHERE CLAUSE ON NEXT LINE FOR DIAMETER REPORT
05/17/1978
At this point, the system is ready to accept valid SYSTEM 2000 commands.
The session may be ended by using the EXIT: command, which produces the
trailer banner and returns to control mode with the input solicitation
character (>) given.
>exit:#
05/17/78 17:14:52 END SYSTEM 2000 VERSION 2.80D
The demand processing session may be terminated by using the procedure
given in Section 4.2.2.
Any attempts to change or modify the data base in any way will result
in the following diagnostic message:
-864- COMMAND NOT AVAILABLE IN SHARED MODE -
> June 1978
-------
UG-4.3-1
4.3 Remote Batch Terminal Operation
Batch processing, whether remote or local submittal, implies that dis-
crete jobs are submitted to the NCC UNIVAC 1100 from cards or some similar
form. If local, card decks are submitted to the I/O Control Clerk and
then loaded into the computerj if remote, cards are read into the computer
through a high-speed remote job entry (RJE) terminal which has been con-
nected to the computer via telephone data link*
Remote batch terminal operation with the NCC UNIVAC 1100 is currently sup-
ported under the UNIVAC 1004 and NTR (9000 Remote) terminal protocols.
This means that a variety of commercial RJE terminals which are capable
of emulating (or looking like) a U-1004 or NTR terminal may be used to
access the NCC UNIVAC 1100. A partial list of RJE terminals which satisfy
one or more of these conditions includes the following:
DATA 100 Models 74, 76, and 78
COPE RJE Terminals
Harris RJE Terminals
UNIVAC 1004
UNIVAC 9200 NTR
If you are uncertain regarding the compatibility of a particular terminal
with the NCC UNIVAC 1100, you should contact the following:
NCC User Services
919/541-3649
FTS: 629-3649
June 1978
-------
UG-4.3-2
All RJE terminals are identified to the NGC UNIVAC 1100 by a unique SITE
ID which is assigned by the MIDSD TSSMS Office at Research Triangle Park,
North Carolina* Figure 4.3-1 gives an example of the form required for
batch terminal support* The completed form is submitted to the appropriate
ADP coordinator (through the EPA project officer if required) for approval
and signature*
The batch SITE ID is of the form DATAXX and must be transmitted to the
NOG UNIVAC 1100 at sign-on before any processing can be initiated*
June 1978
-------
UG-4.3-3
Organization:
Terminal manufacturer £ model number:
If programmable, what UNIVAC terminal does the terminal emulate?
Hours of Operation: From To EOT
Person responsible:
Name
Title
Mailing Address
Telephone -- FTS Ext.
-- Commercial Ext,
Comments:
ADP Coordinator Date
THE FOLLOWING TO BE COMPLETED BY NCC
SITE-ID Central Computer Operations:
Day:
Telephone numbers to use:
FTS Night;
Mailing Address:
National Computer Center
Commercial U.S. EPA
Research Triangle Park
North Carolina 27711
Contacts: User Services Hours available for operation:
FTS 629-3649 Weekdays: to EOT
919/541-3649 Saturday: to EOT
Sunday: to EOT
Holidays: to EOT
Comments:
Figure 4.3-1. Request for Batch Terminal Support Form.
June 1978
-------
UG-4.3-4
Initiating a Remote Batch Processing Session
Communications are established with the NCC UNIVAC 1100 through data com-
munication modems over voice-grade telephone lines* The NCC UNIVAC 1100
will support RJE processing at either 2000 bits/second (EPS) transmission
rate or at 4SOO EPS transmission rate. A list of nationwide RJE telephone
access numbers for the NCC is given in Table 4*3-1.
Batch processing through a RJE terminal essentially means that the
terminal-to-computer data link must be established and the computer card
deck must be read into the computer in a prescribed manner. Since this
procedure varies dramatically among terminal vendors, the user should
refer to his terminal hardware operating manual for the appropriate proce-
dure. If any problems or questions arise* the user should contact NCC
User Services.
June 1978
-------
UG-4.3-5
TABLE 4.3-1. NCC REMOTE BATCH ACCESS TELEPHONE NUMBERS
Location Transmission Rate (BPS) Telephone
North Carolina only
Continental U.S. (except NC)
(toll free)
FTS (all locations)
2000
2000
4800
2000
919/549-8970
800/334-8581
800/334-8582
800/334-8585
800/334-8586
629-2363
629-2364
629-2471
629-2472
Note: 2000 BPS transmission requires Bell 201A dataset or equivalent.
4800 BPS transmission requires Bell 208B dataset or equivalent.
June 1978
-------
UG-4.3-6
4*3*2 Terminating a Remote Batch Processing Session
The termination of a remote batch processing session depends upon which
UNIVAC RJE terminal is being used (or emulated)* The user should consult
his terminal hardware operations manual for the correct procedure*
June 1978
-------
UG-4.4-1
4.4 FPEIS User Support
IEBL/RTP is committed to the on-going support of the FPEIS data base and
its associated software. The administrative functions relative to the
FPEIS are provided by the Special Studies Staff in IERL. Technical develop-
ment and maintenance is provided by the FPEIS Support Staff, which is
composed of government contractors under the direction of the FPEIS project
officer. The FPEIS Support Staff has the responsibility for conducting
the data QA program, updating documentation, developing analytical soft-
ware specifications, conducting information transfer activities, etc.
This function is being provided by Midwest Research Institute in Kansas
City, Missouri. Data processing activities are performed by MRI Systems
Corporation of Austin, Texas, from offices at Research Triangle Park,
North Carolina.
Any questions regarding the FPEIS should be directed in writing to the
following address:
FPEIS Project Officer
U.S. Environmental Protection Agency
Special Studies Staff (MD-63)
Industrial Environmental Research Laboratory
Research Triangle Park, North Carolina 27711
or by telephone to:
FTS: 629-2745
Commercial: 919/541-2745
Problems relating to the operation of the NCC UNIVAC 1100, to data com-
munications, etc., are beyond the scope of the FPEIS Support Staff. These
questions should be addressed to:
June 1978
-------
UG-4.4-2
User Services
National Computer Center (MD-34B)
U.S. Environmental Protection Agency
Research Triangle Park, North Carolina 27711
FTS: 629-3649
Commercial: 919/541-3649
June 1978
-------
UG-5.0-1
SECTION 5
CATALOG OF SYSTEM REQUEST COMMANDS
CONTENTS
Number Item Page
5.0 Introduction. ..... ........ UG-5.0-1
5.1 FPEIS SERIES Report • UG-5.1-1
5.1.1 Demand Processing Procedure ....••••• UG-5.1-3
5.1.2 Batch Processing Procedure. ......... UG-5.1-10
5.1.3 Example of FPEIS SERIES Report UG-5.1-11
5.2 FPEIS SUMMARY Report UG-5.2-1
5.2.1 Demand Processing Procedure ».••••••• UG-5.2-2
5.2.2 Batch Processing Procedure. ••»•••••• UG-5.2-3
5.3 Fractional Penetration Program (PENTRA) UG-5.3-1
5.3.1 Demand Processing Procedure ......... UG-5.3-3
5.3.2 Batch Processing Procedure. ... UG-5.3-4
5.4 TALLY WHERE, TALLY ALL UG-5.4-1
5.4.1 Demand Processing Procedure UG-5.4-3
5.4.2 Batch Processing Procedure. ......... UG-5.4-I1
5.5 PRINT WHERE UG-5.5-1
5.5.1 Demand Processing Procedure ...•••••• UG-5.5-3
5.5.2 Batch Processing Procedure. ...••«••• UG-5.5-19
5.6 Chemical Data Search (CHEMSEARCH) UG-5.6-1
5.6.1 Demand Processing Procedure ......... UG-5.6-2
5.6.2 Batch Processing Procedure. ......... UG-5.6-26
June 1978
-------
UG-5.0-2
5*0 Introduction
In order to simplify the retrieval of data from the FPEIS data base, a
catalog of pre-defined (or "canned") programs has been developed as a
user aid* Each program or procedure is identified by a unique number and
is called a System Request Command, or SRC* The SRC's will allow users to
obtain reports without having special expertise in either UNIVAC data process*
ing or SYSTEM 2000 data base management system natural language* This feature
will greatly enhance the usefulness and usability of the FPEIS to a wide
audience of users*
Each entry in the SRC catalog is identified by the unique SRC number, as
noted previously, and by the title of the activity to be performed* A
brief abstract of the SRC is given which identifies in general terms the
input required and the output to be expected* Since most SRC's will be ap-
plicable to both demand and batch processing, step-by-step procedures for
executing the SRC in both modes are given* For demand processing, it is
assumed that the user has successfully established communications with the
UNIVAC 1100 computer as described in Section 4* It is assumed that batch
users have established communications with the UNIVAC 1100 through a remote
job entry terminal or have the capability of submitting jobs locally at the
National Computer Center at Research Triangle Park, North Carolina* All in-
put requirements are given and a sample (or typical) output produced by
the SRC is included* Any comments pertaining to the use of the SRC which
may be helpful to the user in executing the SRC are also given*
As new SRC's are developed and made available to users, this section will
be updated. June 19?8
-------
UG-5.1-1
5.1 SRC NUMBER; SRC-1
TITLE; FPEIS SERIES Report
ABSTRACT;
The FPEIS SERIES Report (SRC-1) is the basic report for the FPEIS. The
only input parameter required by the SERIES Report is the unique Test
Series Number which identifies the particular test series of interest.
The SERIES Report lists all of the data contained in the test series
in subseries and run number order. A typical SERIES Report is shown
later in this section and is discussed below*
The first page of the SERIES Report lists the data pertaining to the
source, the test series remarks, and the control device. Depending
upon the number of control devices in series on the gas stream and
the number of design specifications given, these data may carry over
to page 2. The next page begins with data from the subseries level.
The data contained here are, in order, test characteristics, control
device operating parameters, particulate mass train results, parti-
culate physical properties, bioassay results, and chemical composi-
tion data. Following these data, all data at the run level are given.
The SERIES Report uses the particle concentrations and stage boundaries
stored in the data base to calculate a particle size distribution as
well as DM/DlogD, DN/DlogD, and CUMULATIVE MASS % LESS THAN SIZE.
Usually, one run will be reported on a single page. The total SERIES
Report, then, will be of varying length, depending upon the number of
runs and subseries.
June 1978
-------
UG-5.1-2
USER INPUT DATA REQUIRED;
Test Series Number (C310)
DATA QUALIFICATION REQUIRED;
None
June L978
-------
UG-5.1-3
5.1.1 Demand Processing Procedure
The user shall establish coranunications with the NCG UNIVAC 1100 computer
according to the procedure given in Section 4.2,1 of this document. At the
completion of that procedure, the computer is then ready to proceed with
SRC-1. The command sequence follows:
NOTE: For clarity, all user-supplied data is shown in lower case letters;
all computer-printed data are shown in capital letters. User-supplied
carriage returns are indicated by the pound sign, #. All user-supplied
data are entered following the input solicitation symbol, >•
>@add fpeis.series#
GTS 6R1 13:53:21
THE ASSUMED MODE IS FIELDATA
FILENAME = 53
ENTER YOUR ACCOUNT NUMBER >
xxxxxxxxxx#
ENTER SERIES NUMBER > n#
ENTER USER-ID FOR DEMAND TERMINAL
PRINT, SITE-ID FOR REMOTE
BATCH PRINT. IF NCC JUST PRESS
RETURN > xxx#
ENTER NUMBER OF COPIES DESIRED.
IF 1, JUST PRESS RETURN > n#
IF NO MORE SERIES, ENTER LAST
FOR SERIES NUMBER
ENTER SERIES NUMBER > n# or last#
Enter the ©ADD command for the SERIES
report•
Computer prints header information
similar to this.
Enter your account number.
Enter the Test Series Number n of
the test series to be printed.
This is self-explanatory.
Self-explanatory.
June 1978
-------
UG-5.1-4
If you enter another Test Series Number at this point, the computer will
again ask for the print location and number of copies to be printed* This
sequence will be repeated until the value "LAST" is entered for Test Series
Number* The following trailer (or similar) will appear for each SERIES
Report requested:
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED — ACCEPTED
ED 15R2-WED-05/17/78-13:55:42-(,0)
INPUT
EDIT
LINES: 7 FIELDATA
FURPUR 27R3 E33 SL73R1 05/17/78 13:56:08
At this point, user input for SRG-1 has been satisfied* The user may proceed
to invoke another SRC or terminate the demand processing session as shown
in Section 4*2.2*
SRG-1 creates a batch run for each SERIES report requested and submits
them for processing by the Executive System* The output is not returned
to the user's print site instantaneously but will be available after the
batch job is finished*
June 1978
-------
UG-5.1-5
Output Retrieval
USERID print site: SERIES reports queued for demand terminal output are
retrieved by entering the USERID/PASSWORD at the start of a new ses-
sion, followed by the command @@SEND»U. Remember; a page width of
132 characters is required*
Remote Batch print site: SERIES reports queued for remote batch terminal
output will be transmitted to the receiving terminal immediately
following the establishment of the data link and recognition of the
SITEID by the NCC UNIVAC 1100.
NCC print site: SERIES reports printed at the NCC are delivered to Bin
30 for pick-up by IERL/RTP staff. Users may send output to the NCC
and the output will be mailed to the user on the next work day. Users
must notify the FPEIS Project Officer before doing this. Failure
to do so will result in the printout being discarded.
Examples of demand processing use of SRC-1 follow* An example of a complete
SERIES report may be found in Section 5.1.3.
Error Recovery
If an error occurs in responding to the computer query, the user may abort
the SRC by typing "KILL" in response to the request for series number-
The sequence of comnands would appear as follows:
ENTER SERIES NUMBER > kill#
JOB KILLED
IN EXEC MODE
The user may now restart SRC-1 with the ©ADD command or input another EXEC
command.
June 1978
-------
UG-5.1-6
EXAMPLE 5.1-1: SRC-1 Runstream (Output to Demand Terminal)
Execution of SRC-1
>@add fpeis.series#
GTS 6R1 10:27:19
<66> 30GLJ HAS BEEN ROLLED OUT
<65> 30GLJ IS TEMPORARILY UNAVAILABLE
THE ASSUMED MODE IS FIELDATA
FILE NAME =27
ENTER YOUR ACCOUNT NUMBER >63022fpeis#
ENTER SERIES NUMBER >6#
ENTER USER-ID FOR DEMAND TERMINAL PRINT,
SITE-ID FOR REMOTE BATCH PRINT.
IF NCC JUST PRESS RETURN >glj#
ENTER NUMBER OF COPIES DESIRED.
IF 1, JUST PRESS RETURN >#
IF NO MORE SERIES, ENTER LAST
FOR SERIES NUMBER
ENTER SERIES NUMBER >last#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED—ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-FRI-05/19/78-10:28:24-(,0)
INPUT
EDIT
LINES:6 FIELDATA
FURPUR 27R3 E33 SL73R1 05/19/78 10:28:32
>
Retrieval of output:
ENTER USERID/PASSWORD:
>xxx/xxxxx
*DESTROY USERID/PASSWORD ENTRY
*UNIVAC 1100 OPERATING SYSTEM VER. 33R0030-315A(RSI)*
CURRENT NEWS IS AVAILABLE VIA @ED,R HOT*NEWS. COMNET NETWORK
INFORMATION IS AVAILABLE VIA @US*ER.NETWORK.
X8@send,u#
June 1978
-------
UG-5.1-7
EXAMPLE 5.1-2: SRC-1 Runstream (Output to RJE Terminal)
Execution of SRC-1:
>®add fpeis.series#
GTS 6R1 13:53:21
THE ASSUMED MODE IS FIELDATA
FILE NAME = 53
ENTER YOUR ACCOUNT NUMBER >63022fpeis#
ENTE.i SERIES NUMBER >1#
ENTER USER-ID FOR DEMAND TERMINAL PRINT,
SITE-ID FOR REMOTE BATCH PRINT.
IF NCC JUST PRESS RETURN >datalj
ENTER NUMBER OF COPIES DESIRED.
IF 1, JUST PRESS RETURN >1#
IF NO MORE SERIES, ENTER LAST
FOR SERIES NUMBER
ENTER SERIES NUMBER >last#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED--ACCEPTED
ED 15R2-WED-05/17/78-13:55:58-(,0)
INPUT
EDIT
LINES:7; FIELDATA
FURPUR 27R3 E33 SL73R1 05/17/78 13:56:04
June 1978
-------
UG-5.1-8
EXAMPLE 5*1-3; SRC-1 Runstream (Output to NCC)
Execution of SRC-1
>@add fpeis.series#
GTS 6R1 10:20:59
<66> 30GLJ HAS BEEN ROLLED OUT
<65> 30GLJ IS TEMPORARILY UNAVAILABLE
THE ASSUMED MODE IS FIELDATA
FILE NAME = 21
ENTER YOUR ACCOUNT NUMBER >63022fpeis#
ENTER SERIES NUMBER >6#
ENTER USER-ID FOR DEMAND TERMINAL PRINT,
SITE-ID FOR REMOTE BATCH PRINT.
IF NCC JUST PRESS RETURN >#
ENTER NUMBER OF COPIES DESIRED.
IF 1, JUST PRESS RETURN >1#
IF NO MORE SERIES, ENTER LAST
FOR SERIES NUMBER
ENTER SERIES NUMBER >last#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED—ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-FRI-05/19/78-10:23:23-(,0)
INPUT
EDIT
LINES:6 FIELDATA
FURPUR 27R3 E33 SL73R1 05/19/78 10:23:32
June 1978
-------
UG-5.1-9
EXAMPLE 5. 1-4; SRC-1 Runstreain (Error—Job Killed)
Execution of SRC-1:
fpeis.series#
GTS 6Rl 10:28:58
<66> 30GLJ HAS BEEN ROLLED OUT
<65> 30GLJ IS TEMPORARILY UNAVAILABLE
THE ASSUMED MODE IS FIELDATA
FILE NAME = 29
ENTER YOUR ACCOUNT NUMBER >63022fpeis#
ENTER SERIES NUMBER >1#
ENTER USER-ID FOR DEMAND TERMINAL PRINT,
SITE-ID FOR REMOTE BATCH PRINT.
IF NCC JUST PRESS RETURN >#
ENTER NUMBER OF COPIES DESIRED.
IF 1, JUST PRESS RETURN >24# *Error occurs here.
IF NO MORE SERIES, ENTER LAST
FOR SERIES NUMBER
ENTER SERIES NUMBER >kill#
JOB KILLED
IN EXEC MODE
June 197ft
-------
UG-5.1-10
5.1.2 Batch Processing Procedure
Remote or local batch processing of SRC-1 from card input is accomplished
by entering an Executive System runstream in a given order. All cards
must use 029 keypunch codes. Output may be printed at the remote batch
site, a demand terminal, or at the NCC.
In order to execute SRC-1, the following card sequence is required:
<§RUN,R/RS runid/65,accountnumber/userid, FPEI3,5,300/100
OPASSWD pw where pw = password
@M)D TFPEISC.RUN
REPORT FOR SERIES NO nn where nn = Test Series Number
OUTPUT FILE IS OUTnn
PRINT k COPIES AT xxxxx where k = number of copies to be
printed
@EOF where xxxxx = userid for demand terminal
@FIN = siteid for remote batch
terminal
= PR for NCC
Output Retrieval
This is the same as that described in Section 5*1.1, Demand Processing
Procedure.
June 1978
-------
UG-5.1-11
5.1.3 Example of FPEIS SERIES Report
The following is an example of a FPEIS SERIES Report. Such a report would
be the result of a user requesting a specific test series using SRC-1.
June 1978
-------
F1NF, PARTICLE EMISSIONS INFORMATION SYSTEM
FPEIS SERIES REPORT
TEST SERIES NO:
16 TEST SERIES AT SITE FROM TO
REFERENCE: J.APCA, 25(6)>605, JUN 1975
BY STATNIC.R.M., AND D.C. DREHMEL, CSL/EPA.RTP,N.C.
SOURCE CHARACTERISTICS-
NEDS SCC SOURCE CATEGORY:
TYPE OF OPERATION:
FEED MATERIAL CLASS:
OPERATING MODE CLASS:
EXTCOMB BOILER
ELECTRIC CENERATN
SITE NAME
SOURCE NAME
ADDRESS
UTM ZONE
SHAWNEE STEAM PLANT
UTM X-COORD
UTM Y-COORD
TEST SERIES REMARKS-
CONTROL OEVICE(S) CHARACTERISTICS-
UNIT 1
DEVICE GENERIC TYPE:
CATEGORY:
CLASS:
DESCRIPTION:
COMMERCIAL NAME: VENTURI SCRUBBER
MANUFACTURER: CHEMICO
WET SCRUBBER
GAS ATOMIZED SPRAY
CONVENTIONAL
ACTUAL SYSTEM INCLUDED A SPRAY TOWER (AFTER-SCRUBBER) WHICH
WAS NOT USED DURING TEST
CONTROL DEVICE DESIGN SPECIFICATIONS
01 VOLUMETRIC FLOW RATE
14.2 M3/SEC
r
ID
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00
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-------
TEST SERIES HO: 16 SUB-SERIES HO: 1 TEST LOCATION: I
TEST CHARACTERISTICS-
SOURCE OPERATING NODE: COAL
FEED MATERIAL:
SUB-SERIES TEST DATE:
SOURCE OPERATING RATE:
FEED MATERIAL COMPOSITION:
FROM TO HOURS
PCT IIF.S1CN CAP:
PERCENT ISOKINETIC SAMPLINC- 100
SAMPLING LOCATION DESCRIPTION:
PROCESS CONDITIONS AT SAMPLINC LOCATION
VOL. FLOW RATE- 9.4 DNM3/S VELOCITY- . M/S TEMPERATURE- 135 C PRESSURE- 756 MM HC
GAS COMPOSITION
WATER VAPOR (PERCENT BY VOLUME)- .
ORSAT ANALYSIS— C02 - .1 CO - .X O2 - .Z N2 - .1
TRACE CASES (PPM):
SUB-SERIES REMARKS-
PARTICULATE MASS TRAIN RESULTS
FRONT HALF- .E+ TOTAL- .£+
MASS TRAIN REMARKS:
I
(D
PARTICULAIE PHYSICAL PROPERTIES
DENSITY- 1.000 C/CM3 (ASSUMED ) RESISTIVITY- E+ OHM-CM (
OTHER PHYSICAL PROPERTIES:
§
in
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00
-------
TEST SERIES NO: 16 SUB-SERIES NO: 1 TEST LOCATION: I
CONTROL DEVICE OPERATING PARAMETERS
UNIT 1 01 LIQUID RATE 227* LPM
02 PRESSURE DROP 16.8 MMHG
<£>
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TEST SERIES MO: 16 SUB-SERIES HO: 1 TEST LOCATION: I
RUN NUMBER: 01
SIZE RANGE- .110 TO 5.000 MICROMETERS
MEASUREMENT PARTICULARS
MEASUREMENT INSTRUMENT/METHOD NO: 1 NAME: BRINK IMPACTOR
COLLECTION SURFACE/SUBSTRATE:
MEASUREMENT START TIME: SAMPLING PERIOD: . MIN SAMPLING RATE: .L/MIN DILUTION FACTOR: 0001.0
GAS SAMPLING CONDITIONS- TEMPERATURE: 0177 C PRESSURE: 00756 MM HG PCT. WATER VAPOR: .
COMMENTS ON THE MEASUREMENT
DIAMETER BASIS
CONCENTRATION BASIS - MASS
CLASSIC AERODYNAMIC DEFINITION
CALCULATED BOUNDARY DIAMETERS
I
(D
NO
-J
00
CLASSIC AERODYNAMIC
STOKES-DIA (UH) AERODYNAMIC DIA (UM) IMPACTION D1A (UM)
BNDRY
5.000
1.700
.990
.650
.290
.110
TOTAL
MID FT BNDRY MID PT BNDRY MID PT
5.000 5.080
2.915 1.700 2.915 1.779 3.006
1.297 .990 1.297 1.068 1.378
.802 .650 .802 .726 .881
.434 .290 .434 .362 .513
.179 .110 .179 .173 .250
MASS 8.005-1-05 TOTAL NUMBER 4.240+06
DM DM/DLDAE ON DN/DLDAE CUM M Z
(UG/DNM3) (UG/DNM3) (NO/CM3) (NO./CM3) LESS SIZE
5.100+05 1.089+06 3.930+04 8.389+04 36.290
1.418+05 6.039+05 1.240+05 5.282+05 18.577
1.144+05 6.261+05 4.233+05 2.316+06 4.286
2.516+04 7.178+04 5.871+05 1.675+06 1.143
9.148+03 2.173+04 3.066+06 7.284+06 .000
a
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en
-------
TEST SERIES NO: 16 SUB-SERIES NO: 1 TEST LOCATION: t
RUN NUMBER: 02
SIZE RANGE- .110 TO 5.000 MICROMETERS
MEASUREMENT PARTICULARS
MEASUREMENT INSTRUMENT/METHOD NO: 1 NAME: BRINK 1MPACTOR
COLLECTION SURFACE/SUBSTRATE:
MEASUREMENT START TIME: SAMPLING PERIOD: . MIN SAMPLING RATE: .L/M1N DILUTION FACTOR: 0001.0
GAS SAMPLING CONDITIONS- TEMPERATURE: 0177 C PRESSURE: 00756 MM HG PCT. WATER VAPOR: .
COMMENTS ON THE MEASUREMENT
DIAMETER BASIS
CONCENTRATION BASIS
CLASSIC AERODYNAMIC DEFINITION
MASS
CALCULATED BOUNDARY DIAMETERS
ILI.LIC :>16B uibiKi.Bui.iun URIA— ------
CLASSIC AERODYNAMIC
STOKES-DIA (UM) AERODYNAMIC DIA (UM) IMPACTION DIA (UN)
BNDRY
5.000
1.700
.990
.650
.290
.110
TOTAL
MID FT BNDRY
5.000
2.915 1.700
1.297 .990
.802 .650
.434 .290
.179 .110
MASS 4. 322+05
MID PT BNDRY MID PT
5.080
2.915 1.779 3.006
1.297 1.068 1.378
.802 .726 .881
.434 .362 .513
.179 .173 .250
TOTAL NUMBER 2.910-1-06
DM DM/DLDAE DN DN/DLDAE CUM M I
Mir/nuMii fur/nMMil fNO/rMii fun /rui^ i FQ«? <;T7ir
\ v\» / van j t \u\* t unn j t \HVJ/I_.FI.J/ \n\t»/\*njj L* it&s D L 6 c*
2.7444-05 5.857-1-05 2.115+04 4.514+04 36.511
8.462+04 3.604+05 7.402+04 3.152+05 16.932
5.260+04 2.879+05 1.946+05 1.065+06 4.762
1.372+04 3.914+04 3.202+05 9.134+05 1.587
6.861+03 1.630+04 2.300+06 5.463+06 .000
C
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-------
TEST SERIES NO:
16 SUB-SERIES NO: 2 TEST LOCATION: 0
TEST CHARACTERISTICS-
SOURCE OPERATING MODE: COAL
FEED MATERIAL:
SUB-SERIES TEST UATE:
SOURCE OPERATING RATE:
FEED MATERIAL COMPOSITION:
FROM TO HOURS
PCT DESIGN CAP:
PERCENT 1SOKINETIC SAMPLING- 100
SAMPLING LOCATION DESCRIPTION:
PROCESS CONDITIONS AT SAMPLING LOCATION
VOL. FLOW RATE- 9.4 DNM3/S VELOCITY- . M/S TEMPERATURE- 135 C PRESSURE- 756 MM HC
GAS COMPOSITION
WATER VAPOR (PERCENT BY VOLUME)- .
ORSAT ANALYSIS— CO2 - .Z CO - . Z O2 - .Z N2 - .Z
TRACE GASES (PPM):
SUB-SERIES REMARKS-
I
vO
-J
oo
PARTICIPATE MASS TRAIN RESULTS
FRONT HALF- .E+ TOTAL- . E+
MASS TRAIN REMARKS:
PARTICULATE PHYSICAL PROPERTIES
DENSITY- 1.000 G/CH3 (ASSUMED ) RESISTIVITY- E+ OHM-CM (
OTHER PHYSICAL PROPERTIES:
l/i
-------
TEST SERIES NO: 16 SUB-SERIES NO: 2 TEST LOCATION: 0
RUN NUMBER: 01
SIZE RANGE- .110 TO 5.000 MICROMETERS
MEASUREMENT PARTICULARS
MEASUREMENT INSTRUMENT/METHOD NO: 1 NAME: BRINK 1HFACTOR
COLLECTION SURFACE/SUBSTRATE:
MEASUREMENT START TIME: SAMPLING PERIOD : . MIN SAMPLING RATE: .L/MIN DILUTION FACTOR: 0001.0
GAS SAMPLING CONDITIONS- TEMPERATURE: 0177 C PRESSURE: 00756 MM HG PCT. WATER VAPOR: .
COMMENTS ON THE MEASUREMENT
DIAMETER BASIS -
CONCENTRATION BASIS
CLASSIC AERODYNAMIC DEFINITION
MASS
CALCULATED BOUNDARY DIAMETERS
I
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H*
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00
ILUUE. Slit U IS 1 K LBU 1 JLUH UA I A— --- — — - — -- — -- — -
CLASSIC AERODYNAMIC
STOKES-DIA (UM) AERODYNAMIC DIA ( UM ) U1PACTION DIA ( UM )
BNDRY MLD FT BNDRY
5.000 5.000
1.700 2.915 1.700
.990 1.297 .990
.650 .802 .650
.290 .434 .290
.110 .179 .110
TOTAL MASS 1.029+05
HID PT BNDRY MID PT
5.080
2.915 1.779 3.006
1.297 1.068 1.378
.802 .726 .881
.434 .362 .513
.179 .173 .250
TOTAL NUMBER 3.839+06
DM DM/DLDAE ON DN/DLDAE CUM M Z
Mir'/nNMli Mir/nNMIl fNn/rMi) fun fct4'\\ i PQC CT?P
\\i\j/uvtnj/ \uu/£jnnj/ \ n\t f \*nj t \n\j»j\jnj/ ij&oo 9L&b
4.574+03 9.763+03 3.525+02 7.524+02 95.556
1.830+04 7.793+04 1.601+04 6.817+04 77.775
4.574+04 2,503+05 1.692+05 9.262+05 33.334
2.516+04 7.178+04 5.871+05 1.675+06 8.888
9.148+03 2.173+04 3.066+06 7.284+06 .000
s
1
01
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00
-------
TEST SERIES 1IO: 16 SUB-SERIES NO: 2 TEST LOCATION: O
RUN NUMBER: 02
SIZE RANGE- .110 TO 5.000 MICROMETERS
MEASUREMENT PARTICULARS
MEASUREMENT INSTRUMENT/METHOD NO: 1 NAME: BRINK IMPACTOR
COLLECTION SURFACE/SUBSTRATE:
MEASUREMENT START TIME: SAMPLING PERIOD: . MIN SAMPLING RATE: .L/M1N DILUTION FACTOR: 0001.0
GAS SAMPLING CONDITIONS- TEMPERATURE: 0177 C PRESSURE: 007S6 MM HC PCT. WATER VAPOR: .
COMMENTS ON THE MEASUREMENT
DIAMETER BASIS -
CONCENTRATION BASIS
CLASSIC AERODYNAMIC DEFINITION
MASS
CALCULATED BOUNDARY DIAMETERS
1 L\f LtT, OLffft 1SJ.DAKA.DU1..
STOKES-DIA (UN)
BNDRY
5.000
1.700
.990
.650
.290
.110
MID PI
2.915
1.297
.802
.434
.179
CLASSIC
AERODYNAMIC DIA ( UM )
BNDRY
5.000
1.700
.990
.650
.290
.110
MID PT
2.915
1.297
.802
.434
.179
AERODYNAMIC
IMPACT ION DIA (UM)
BNDRY
5.080
1. 779
1.068
.726
.362
.173
MID PT
3.006
1.378
.881
.513
.250
DM
/ iin /nNM 1 )
\u\ffwnjf
3.431+04
2.287+03
6.861+03
6.861+03
1.144+04
DM/DLDAE
/ nr; /RNM l )
V u w f i/nru /
7.323+04
9.740+03
3.755+04
1.957+04
2.717+04
DN
( NO /TM1 )
\ n v / \rn j i
2.644+03
2.001+03
2.538+04
1.601+05
3.835+06
DN/DLUAE
fNO /CM\\
\ n w • t \ffij i
5.644+03
8.520+03
1.389+05
4.568+05
9.109+06
CUM M Z
lECC QT7F
IjbdO O L I* ft
44.445
40.742
29.633
18.524
.000
04
TOTAL MASS
6.176+04
TOTAL NUMBER
4.025+06
I
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-------
UG-5.2-1
5.2 SRC NUMBER; SRC-2
TITLE; FPEIS SUMMARY Report
ABSTRACT;
The FPEIS SUMMARY Report (SRC-2) provides a listing of all data in
the data base for a specific Source Category in SERIES Report format*
Allowable Source Category values are given below* The data are ordered
by Test Series Number within the given Source Category; that is, the
SUMMARY Report consists of several SERIES Reports for the same Source
Category.
The SUMMARY Report produces a large volume of computer output, possibly
several thousand pages. There are several restrictions on the use of
this SRC which are discussed later*
USER INPUT DATA REQUIRED;
Source Category (ClOO)
Allowed values for Source Category are as follows:
EXTCOMB BOILER
INTERNLCOMBUSTION
INDUSTRIAL PROCES
POINT SO EVAP
SOLID WASTE
OTHER
DATA QUALIFICATION REQUIRED:
None
June 1978
-------
UG-5.2*2
5.2.1 Demand Processing Procedure
SRC-2 is not available to demand users*
Due to the large volume of computer printout produced by this SRC, demand
processing is prohibited. Users wishing to obtain a SUMMARY report should
contact the FPEIS Project Officer (CML: 919/541-2745; FTS: 629-2745)
for further information.
June 1978
-------
UG-5.2-3
5.2.2 Batch Processing Procedure
SRC-2 may be processed only for printing at the NCC with limited excep-
tions.
Users who wish to obtain a SUMMARY report should contact the FPEIS Project
Officer (CML: 919/541-2745; FTS: 629-2745) for runstream details. This
is necessary because the SUMMARY report produces several thousand pages
of output in some source categories. The FPEIS Project Officer will advise
the user regarding the best means of acquiring the report. In most cases,
the report will be run and printed at the NCC, then mailed to the user.
For those source categories in which only a few test series exist, RJE
access may be allowed*
(See SRC-1 for an example of one test series in SERIES report format.)
June 1978
-------
UG-5.3-1
5.3 SRC NUMBER; SRC-3
TITLE: Fractional Penetration Program (PENTRA)
The Fractional Penetration Program PENTRA (SRC-3) enables users to
calculate the efficiency of fine particle control devices (expressed
as penetration) for specific test series, subseries, and runs. The
FPEIS PENTRA has been adapted from a series of data reduction proce-
dures developed for impactor measurements by Southern Research Institute.
FPEIS PENTRA is, however, independent of measurement equipment since
equipment-dependent parameters have already been accommodated when
the data are loaded into the FPEIS data base originally*
The input requirements for FPEIS PENTRA are very simple* First, it is
assumed that the user has access to and has studied the SERIES report
(see SRC-1) prior to executing this program* The user will identify
the inlet and outlet runs to be compared by specifying the inlet
subseries and run, and the outlet subseries and run* The capability
also exists to enable the user to average groups of inlet or outlet
runs in order to obtain conposite data*
The PENTRA program will retrieve the specified data from the data base.
The mass (or number) concentrations and stage boundary diameters will
be used to calculate cumulative mass loadings and differential size
distributions* A curve is fitted to the inlet and the outlet values
of the cumulative mass concentrations less than the stage diameter
•n
versus the diameter.
June 1978
-------
UG-5.3-2
Next, the derivative of each of these curves is calculated at speci-
fied diameters and the average and standard deviation of the differential
mass distributions are calculated. The control device efficiency (ex-
pressed as penetration) is determined by comparing the two curves at
the same diameter*
The output from PENTRA will include basic process and control device
data, and a tabulation of the inlet and outlet data* A computerized
plot of control device efficiency as a function of particle size will
be given for each of three types of boundary definitions used in the
FPEIS; e.g., Stokes, classic aerodynamic, and aerodynamic impaction.
USER INPUT DATA REQUIRED;
Test Series Number (C310), Subseries Number (C610), Run Number (C1505).
DATA QUALIFICATION REQUIRED;
(To be added at a later date*)
June 1978
-------
UG-5.3-3
5.3.1 Demand Processing Procedure
(To be added at a later date.)
June 1978
-------
UG-5.3-4
5»3.2 Batch Processing Procedure
(To be added at a later date*)
June 1978
-------
UG-5.4-1
5.4 SRC NUMBER; SRG-4
TITLE; TALLY WHERE, TALLY ALL
ABSTRACT;
One of the conmand features of SYSTEM 2000 natural language is the
TALLY command. This command enables a user to determine the frequency
of occurrence of a particular data element and how many unique values
it assumes. The TALLY conmand actually has two options: the TALLY/EACH
and the TALLY/ALL. The TALLY/EACH option produces a list of each unique
value for the specified element along with the frequency of occurrence
for that unique value. The TALLY/ALL option, on the other hand* lists
only the minimum and maximum unique values, not each value*
The natural language TALLY command is limited to key data elements;
that is, those which have been specifically identified for sorting
keys. To broaden the applicability of the TALLY command for the FPEIS,
SRC-4 has been developed to provide the TALLY WHERE and TALLY ALL
commands. The output is the same as for the TALLY/EACH and TALLY/ALL
commands, respectively. SRC-4 does, however, allow the user to qualify
the data element to be tallied. Examples of the TALLY WHERE and TALLY
ALL commands are given on the following pages.
USER INPUT DATA REQUIRED;
The user must supply the component number of the data element to be
tallied. Both key and nonkey data elements may be selected. Data ele-
ments and component numbers for the FPEIS data base are listed in
Section 6.3. The user must also identify whether he wants a TALLY
WHERE or a TALLY ALL. June 1978
-------
UG-5.4-2
DATA QUALIFICATION REQUIRED;
Data elements to be tallied must be qualified by one or more key data
elements in the qualification clause* Multiple data elements in the
qualification clause may be separated by Boolean logic operators (AND,
OR) and may use the logical operators: EQ, NE, GT, LT, GE, and LE«
Data may also be qualified on the basis of the presence (EXISTS) of
a data element or its absence (FAILS)* A tabulation of key data ele-
ments is given in Section 6.4.
June 1978
-------
UG-5.4-3
5.4.1 Demand Processing Procedure
SRC-4 should be executed using a demand (interactive) terminal* Since the
possible combinations of data to be printed and qualified are almost in-
finite, the use of SRC-4 is best shown by example. In the following examples,
it is assumed that the user has established communications with the computer
in accordance with the procedure described in Section 4*2, and is ready to
enter a command. For clarity, all user-supplied data are shown in lower case
letters and all computer responses in capital letters. A user-supplied
carriage return is shown by the # sign.
June 1978
-------
UG-5.4-4
Example 1; TALLY with System-Initiated Abort
©add fpeis.tally#
GTS 6R1 10:33L04
THE ASSUMED MODE IS FIELDATA
FILE NAME = 53
ENTER 'W1 IF TALLY-WHERE, 'A1 IF TALLY-ALL >w#
ENTER COMPONENT NUMBER OF DATA
ELEMENT TO BE TALLYED >300# *Error occurs here**
ENTER QUALIFIER DATA AS COMPONENT NUMBER,VALUE
IF NO MORE, ENTER LAST >C310 spans 1*10#
ENTER QUALIFIER DATA AS COMPONENT NUMBER,VALUE
IF NO MORE, ENTER LAST >last#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED—ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-WED-05/24/78-10:35:15-(,0)
INPUT
EDIT
LINES:6 FIELDATA
05/25/78 10:36:55 BEGIN SYSTEM 2000 VERSION 2.80D
-556- ASSIGNED...TFPEISC 12 28443 05/09/78 11:44:44
•••••••••••«.2
-454- ILLEGAL TERM IN IF-CONDITION -
1 ERRORS HAVE OCCURRED
-397- ALL REPORTS HAVE ERRORS -
C -801- MISSING STRING OR DATA TERMINATOR -
EXIT:
*WAIT-LAST INPUT IGNORED*
05/25/78 10:42:31 END SYSTEM 2000 VERSION 2.80D
FURPUR 27R3 E33 SL73R1 05/24/78 10:43:27
June 1978
-------
UG-5.4-5
The error here is that the user has requested a TALLY for a repeating group
data element, which is not allowed since these data elements never have
values assigned to them. NO REPEATING GROUP DATA ELEMENT MAY BE TALLIED*
See Section 6*3 for a list of the FPEIS data base structure which will iden-
tify repeating groups* Use of the SPANS operator means that all values in
the range given will be checked*
June 1978
-------
UG-5.4-6
Example 2; TALLY With User-Initiated Abort
©add fpeis.tally#
GTS 6R1 10:44:11
THE ASSUMED MODE IS FIELDATA
FILE NAME = 44
ENTER 'W' IF TALLY-WHERE, 'A1 IF TALLY-ALL >w#
ENTER COMPONENT NUMBER OF DATA
ELEMENT TO BE TALLYED >G1410#
ENTER QUALIFIER DATA AS COMPONENT NUMBER,VALUE
IF NO MORE, ENTER LAST >C310 spans#
ENTER QUALIFIER DATA AS COMPONENT NUMBER, VALUE
IF NO MORE, ENTER LAST >kill#
JOB KILLED
IN EXEC MODE
This shows that the SRC may be aborted by the user simply by entering
the command "KILL*"
June 1978
-------
UG-5.4-7
Example 3; TALLY WHERE With Single Qualifier
©add fpeis.tally#
GTS 6R1 10:46:05
THE ASSUMED MODE IS FIELDATA
FILE NAME = 46
ENTER 'W1 IF TALLY-WHERE, 'A1 IF TALLY-ALL >w#
ENTER COMPONENT NUMBER OF DATA
ELEMENT TO BE TALLYED >1410#
ENTER QUALIFIER DATA AS COMPONENT NUMBER,VALUE
IF NO MORE, ENTER LAST >C310 spans 1*10#
ENTER QUALIFIER DATA AS COMPONENT NUMBER,VALUE
IF NO MORE, ENTER LAST >last#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED—ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-WED-05/24/78-10:49:29-(,0)
INPUT
EDIT
LINES:6 FIELDATA
05/24/78 10:50:24 BEGIN SYSTEM 2000 VERSION 2.80D
-556- ASSIGNED...TFPEISC 12 28443 05/09/78 11:44:44
NO ERRORS HAVE OCCURRED
-399- SELECTED SG IS 1400
************************
TALLY WHERE FOR (CHEMICAL ID)
** A A A A A Ar******** A A A'A A A A A
FREQUENCY VALUE
96
3
3
3
3
3
2
3
-NULL-
2103
2110
2112
2114
2128
2142
2167
8 UNIQUE VALUES
116 OCCURRENCES
June 1978
-------
UG-5.4-8
05/24/78 10:53:12 END SYSTEM 2000 VERSION 2.80D
FURPUR 27R3 E33 SL73R1 05/24/78 10:53:35
The SPANS operator means that C1410 will be tallied where C310 assumes all
values between 1 and 10.
June 1978
-------
UG-5.4-9
Example 4; TALLY ALL With Multiple Qualifier
©add fpels.tally/
GTS 6Rl 10:54:14
THE ASSUMED MODE IS FIELDATA
FILE NAME = 54
ENTER 'W1 IF TALLY-WHERE, 'A1 IF TALLY-ALL >a#
ENTER COMPONENT NUMBER OF DATA
ELEMENT TO BE TALLYED >1410#
ENTER QUALIFIER DATA AS COMPONENT NUMBER,VALUE
IF NO MORE, ENTER LAST >Cl410 exists and#
ENTER QUALIFIER DATA AS COMPONENT NUMBER,VALUE
IF NO MORE, ENTER LAST >C3lO Spans 1*10#
ENTER QUALIFIER DATA AS COMPONENT NUMBER,VALUE
IF NO MORE, ENTER LAST >last#
IN EXEC MODE
CASE UPPSER ASSUMED
FILE IN FIELD 1 DISABLED—ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-WED-05/24/78-10:56:55-(,0)
INPUT
EDIT
LINES:? FIELDATA
05/24/78 10:57:19 BEGIN SYSTEM 2000 VERSION 2.80D
-556- AS SIGNED...TFPEISC 12 28443 05/09/78 11:44:44
NO ERRORS HAVE OCCURRED
-399- SELECTED BG IS 1400
*************** *********
TALLY ALL WHERE FOR (CHEMICAL ID)
***A-A-*-A-A-****************
MINIMUM 2103
Maximum 2167
************************
7 UNIQUE VALUES
20 OCCURRENCES
June 1978
-------
UG-5.4-10
05/24/78 10:58:15 END SYSTEM 2000 VERSION 2.80D
FURPUR 27R3 E33 SL73R1 05/24/78 10:58:19
This example uses the EXISTS operator as well as the SPANS operator* Com-
par!son with Example 3 shows that the 96 -NULL- values have been eliminated*
June 1978
-------
UG-5.4-U
5.4.2 Batch Processing Procedure
SRC-4 is not available to batch users since it utilizes the UNIVAC 1100
Conversational Time Sharing (GTS) processor.
June 1978
-------
UG-5.5-1
5.5 SRC NUMBER; SRC-5
TITLE; PRINT WHERE
ABSTRACT;
The PRINT WHERE command (SRC-5) enables the user to screen data in the
FPEIS while searching for a specific piece of information; that is,
it aids data searching by allowing users to move from general to more
specific selection criteria* This concept is best illustrated by an
example: a user wants to know if there are any data, in the FPEIS from
copper smelters that use electrostatic precipitators as control devices.
The PRINT WHERE command will enable the user to obtain a list of Test
Series Numbers that meet the given selection criteria* The user may
then obtain SERIES reports for each Test Series Number using SRC-1*
In using the PRINT WHERE command, the user has available a variety of
data elements to select for both sorting and qualification. Up to
three levels of qualification are permitted* For example, a user may
print the measurement equipment method/name where the Test Series
Number equals a given value and the Subserles Number equals a given
value and the Run Number equals a given value*
USER INPUT DATA REQUIRED;
The user must supply the component number of each data element to be
printed. Both key and nonkey data elements may be selected* Data ele-
ments and component numbers for the FPEIS data base are given in Section
6.3.
June 1978
-------
UG-5.5-2
DATA QUALIFICATION REQUIRED:
Data elements to be printed must be qualified by one or more KEY data
elements in the WHERE clause* Multiple data elements in the WHERE clause
may be separated by AND or OR, and nay use the logic operators: EQ,
NE, GT, LT, GE, and LE. Data may also be qualified by determining the
presence (EXISTS) of a data element or its absence (FAILS)* A tabulation
of key data elements is given in Section 6.4.
For more details on the attributes of the qualification data (e.g.,
WHERE clause), the user should refer to the SYSTEM 2000 REFERENCE
MANUAL.
June 1978
-------
UG-5.5-3
5.5.1 Demand Processing Procedure
SRG-5 should be executed using a demand (interactive) terminal* Since the
possible combinations of data to be printed and qualified are almost in-
finite) the use of SRG-5 is best shown by example* In the following examples,
it is assumed that the user has established cotnmmications with the computer
in accordance with the procedure described in Section 4*2, and is ready to
enter a command. For clarity, all user-supplied data are shown in lower case
letters and all computer responses in capital letters. A user-supplied carriage
return is shown by the # sign* Note that the first four examples illustrate
aborted runstreams.
June 1978
-------
U6-5.5-4
Example 1; Missing Qualification Data
fpeis.print-where#
GTS 6Rl 09:51:45
THE ASSUMED MODE IS FIELDATA
FILE NAME = 51
ENTER COMPONENT NUMBER OF DATA ELEMENT
TO BE PRINTED, IF NO MORE, ENTER LAST >310#
ENTER THE COMPONENT NUMBER OF DATA ELEMENT
TO BE PRINTED, IF NO MORE, ENTER LAST >last#
ENTER COMPONENT NUMBER OF DATA ELEMENT
BY WHICH DATA ARE TO BE ORDERED
IF NO ORDER, JUST PRESS RETURN >#
ENTER QUALIFICATION DATA AS COMPONENT NUMBER
IF NO MORE, ENTER LAST >#
JOB KILLED (No QUALIFICATION DATA INPUT)
IN EXEC MODE
June 1978,
-------
UG-5.5-5
Example 2; No Data Input
©add fpeis.print-where#
GTS 6R1 09:41:15
THE ASSUMED MODE IS FIELDATA
FILE NAME = 41
ENTER COMPONENT NUMBER OF DATA ELEMENT
TO BE PRINTED. IF NO MORE, ENTER LAST >#
JOB KILLED (NO COMPONENT NUMBER INPUT)
IN EXEC M3DE
June 1978
-------
UG-5.5-6
Example 3 t User Initiated Abort
@add fpeis.print-where#
GTS 6R1 10:41:20
THE ASSUMED MODE IS FIELDATA
FILE NAME = 41
ENTER COMPONENT NUMBER OF DATA ELEMENT
TO BE PRINTED. IF NO MORE, ENTER LAST >310#
ENTER COMPONENT NUMBER OF DATA ELEMENT
TO BE PRINTED, IF NO MORE, ENTER LAST >last#
ENTER COMPONENT NUMBER OF DATA ELEMENT
BY WHICH DATA ARE TO BE ORDERED
IF NO ORDER, JUST PRESS RETURN >310#
ENTER COMPONENT NUMBER OF DATA ELEMENT
BY WHICH DATA ARE TO BE ORDERED
IF NO ORDER, JUST PRESS RETURN >#
ENTER QUALIFICATION DATA AS COMPONENT NUMBER
If NO MORE, ENTER LAST >kill# *Note*Enter KILL
JOB KILLED to abort the SRC
IN EXEC MODE
June 1978
-------
UG-5.5-7
Example 4; User Initiated Abort
©add fpeis.print-where#
GTS 6Rl 10:42:36
THE ASSUMED MODE IS FIELDATA
FILE NAME = 42
ENTER COMPONENT NUMBER OF DATA ELEMENT
TO BE PRINTED. IF NO MORE, ENTER LAST >300#
ENTER COMPONENT NUMBER OF DATA ELEMENT
TO BE PRINTED, IF NO MORE, ENTER LAST >last#
ENTER COMPONENT NUMBER OF DATA ELEMENT
BY WHICH DATA ARE TO BE ORDERED
IF NO ORDER, JUST PRESS RETURN >310#
ENTER COMPONENT NUMBER OF DATA ELEMENT
BY WHICH DATA ARE TO BE ORDERED
IF NO ORDER, JUST PRESS RETURN >C310 gt 5 and#
ENTER COMPONENT NUMBER OF DATA ELEMENT
BY WHICH DATA ARE TO BE ORDERED
IF NO ORDER, JUST PRESS RETURN >C310 It 7#
ENTER COMPONENT NUMBER OF DATA ELEMENT
BY WHICH DATA ARE TO BE ORDERED
IF NO ORDER, JUST PRESS RETURN >last#
ENTER QUALIFICATION DATA AS COMPONENT NUMBER
IF NO MORE, ENTER LAST >kill#
JOB KILLED
IN EXEC MODE
June 1978
-------
UG-5.5-8
Example 5; Single Data Element Print, Single Qualification Value, Single
Ordering
©add fpeis«print-where#
GTS 6R1 10:23:23
THE ASSUMED MODE IS FIELDATA
FILE NAME = 23
ENTER COMPONENT NUMBER OF DATA ELEMENT
TO BE PRINTED, IF NO MORE, ENTER LAST >310#
ENTER COMPONENT NUMBER OF DATA ELEMENT
TO BE PRINTED, IF NO MORE, ENTER LAST >last#
ENTER COMPONENT NUMBER OF DATA ELEMENT
BY WHICH DATA ARE TO BE ORDERED
IF NO ORDER, JUST PRESS RETURN >310#
ENTER COMPONENT NUMBER OF DATA ELEMENT
BY WHICH DATA ARE TO BE ORDERED
IF NO ORDER, JUST PRESS RETURN >#
ENTER QUALIFICATION DATA AS COMPONENT NUMBER
IF NO MORE, ENTER LAST >C310 eq 98#
ENTER QUALIFICATION DATA AS COMPONENT NUMBER
IF NO MORE, ENTER LAST >last#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 IN USE BY ANOTHER RUN
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-THU-05/18/78-10:24:34-(,0)
INPUT
EDIT
LINES:10 FIELDATA
05/18/78 10:24:45 BEGIN SYSTEM 2000 VERSION 2.80D
-556- ASSIGNED...TFPEISC 12 28443 05/09/78 11:44:44
PRINT/NAME/
C310
, OB
C310
WHERE
C310 EQ 98
June 1978
-------
UG-5.5-9
TEST SERIES NUMBER * 98
EXIT:
05/18/78 10:25:27 END SYSTEM 2000 VERSION 2.80D
FURPUR 27R3 E33 SL73R1 05/18/78 10:25:36
June 1978
-------
UG-5.5-10
Example 6; Multiple Data Element Print, Single Qualification Value, Single
Ordering
©add fpeis.print-where#
GTS 6R1 10:25:56
THE ASSUMED MODE IS FIELDATA
FILE NAME = 26
ENTER COMPONENT NUMBER OF DATA ELEMENT
TO BE PRINTED, IF NO MORE, ENTER LAST >310#
ENTER COMPONENT NUMBER OF DATA ELEMENT
TO BE PRINTED, IF NO MORE, ENTER LAST >320#
ENTER COMPONENT NUMBER OF DATA ELEMENT
TO BE PRINTED, IF NO MORE, ENTER LAST >last#
ENTER COMPONENT NUMBER OF DATA ELEMENT
BY WHICH DATA ARE TO BE ORDERED
IF NO ORDER, JUST PRESS RETURN >#
ENTER QUALIFICATION DATA AS COMPONENT NUMBER
IF NO MORE, ENTER LAST >310 eq 98#
ENTER QUALIFICATION DATA AS COMPONENT NUMBER
IF NO MORE, ENTER LAST >last#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED—ACCEPTED
FILE IN FIELD 1 IN USE BY ANOTHER RUN
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-THU-05/18/78-10:26:53-(,0)
INPUT
EDIT
LINES:9 FIELDATA
05/18/78 10:27:11 BEGIN SYSTEM 2000 VERSION 2.80D
-556- ASSIGNED...TFPEISC 12 28443 05/09/78 11:44:44
PRINT/NAME/
C310
,C320
WHERE
C310 EQ 98
TEST SERIES NUMBER* 98
TEST SERIES REFERENCE* MONSANTO REPORT OF 17 MARCH 75 FOR EPA CONTRACT
68-02-1816
June 1978
-------
UG-5.5-11
EXIT:
05/18/78 10:27:31 END SYSTEM 2000 VERSION 2.80D
FURFUR 27R3 E33 SL73R1 05/18/78 10:27:35
June 1978
-------
UG-5.5-12
Example 7; Multiple Data Element Print, Single Qualification Value, Multiple
Ordering
©add fpeis.print-where#
GTS 6R1 10:38:45
THE ASSUMED MODE IS FIELDATA
FILE NAME = 38
ENTER COMPONENT NUMBER OF DATA ELEMENT
TO BE PRINTED, IF NO MORE, ENTER LAST >310#
ENTER COMPONENT NUMBER OF DATA ELEMENT
TO BE PRINTED, IF NO MORE, ENTER LAST >320#
ENTER COMPONENT NUMBER OF DATA ELEMENT
TO BE PRINTED, IF NO MORE, ENTER LAST >last#
ENTER COMPONENT NUMBER OF DATA ELEMENT
BY WHICH DATA ARE TO BE ORDERED
IF NO ORDER, JUST PRESS RETURN >310#
ENTER COMPONENT NUMBER OF DATA ELEMENT
BY WHICH DATA ARE TO BE ORDERED
IF NO ORDER, JUST PRESS RETURN >320#
ENTER COMPONENT NUMBER OF DATA ELEMENT
BY WHICH DATA ARE TO BE ORDERED
IF NO ORDER, JUST PRESS RETURN >#
ENTER QUALIFICATION DATA AS COMPONENT NUMBER
IF NO MORE, ENTER LAST >C310 eq 98#
ENTER QUALIFICATION DATA AS COMPONENT NUMBER
IF NO MORE, ENTER LAST >last#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED--ACCEPTED
FILE IN FIELD 1 IN USE BY ANOTHER RUN
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-THU-05/18/78-10:39:52-(,0)
INPUT
EDIT
LINES:12 FIELDATA
05/18/78 10:40:05 BEGIN SYSTEM 2000 VERSION 2.80D
-556- ASSIGNED...TFPEISC 12 28443 05/09/78 11:44:44
PRINT/NAME/
C310
,C320
, OB
0310
June 1978
-------
UG-5.5^-13
,0320
WHERE
C310 EQ 98
TEST SERIES NUMBER* 98
TEST SERIES REFERENCE* MONSANTO REPORT OF 17 MARCH 75 FOR EPA
CONTRACT 68-02-1816
EXIT:
05/18/78 10:40:41 END SYSTEM 2000 VERSION 2.80D
FURFUR 27R3 E33 SL73R1 05/18/78 10:40:54
June 1978
-------
UG-5.5-I4
Example 8; Multiple Data Element Print, Multiple Qualification Values,
Multiple Ordering
©add fpeis.print-where#
GTS 6Rl 11:01:30
THE ASSUMED MODE IS FIELDATA
FILE NAME = 01
ENTER COMPONENT NUMBER OF DATA ELEMENT
TO BE PRINTED, IF NO MORE, ENTER LAST >310#
ENTER COMPONENT NUMBER OF DATA ELEMENT
TO BE PRINTED, IF NO MORE, ENTER LAST >320#
ENTER COMPONENT NUMBER OF DATA ELEMENT
TO BE PRINTED, IF NO MORE, ENTER LAST >last#
ENTER COMPONENT NUMBER OF DATA ELEMENT
BY WHICH DATA ARE TO BE ORDERED
IF NO ORDER, JUST PRESS RETURN >310#
ENTER COMPONENT NUMBER OF DATA ELEMENT
BY WHICH DATA ARE TO BE ORDERED
IF NO ORDER, JUST PRESS RETURN >320#
ENTER COMPONENT NUMBER OF DATA ELEMENT
BY WHICH DATA ARE TO BE ORDERED
IF NO ORDER, JUST PRESS RETURN >#
ENTER QUALIFICATION DATA AS COMPONENT NUMBER
IF NO MORE, ENTER LAST >C310 gt 5 and#
ENTER QUALIFICATION DATA AS COMPONENT NUMBER
IF NO MORE, ENTER LAST >C310 It 7#
ENTER QUALIFICATION DATA AS COMPONENT NUMBER
IF NO MORE, ENTER LAST >last#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED—ACCEPTED
FILE IN FIELD 1 IN USE BY ANOTHER RUN
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-THU-05/18/78-11:03:10-(,0)
INPUT
EDIT
LINES:13 FIELDATA
05/18/78 11:03:27 BEGIN SYSTEM 2000 VERSION 2.80D
-556- ASSIGNED...TFPEISC 12 28443 05/09/78 11:44:44
PRINT/NAME/
C310
,0320
June 1978
-------
UG-5.5-I5
, OB
C310
,C320
WHERE
G310 GT 5 AND
C310 LT 7
TEST SERIES NUMBER* 6
TEST SERIES REFERENCE* STATNICK, R.M., EPA-650/2-74-111 OCT
74
EXIT:
05/18/78 11:04:07 END SYSTEM 2000 VERSION 2*800
FURPUR 27R3 E33 SL73R1 05/18/78 11:04:19
Note that the AND which appears on the first line of qualification data fol-
lows the C310 GT 5. The same is true for the Boolean OR. Both must appear
on the same line as the qualification statement*
June 1978
-------
UG-5.5-16
Example 9; User of Qualifier EXISTS
©add fpeis.print-where#
GTS 6Rl 10:22:27
THE ASSUMED MODE IS FIELDATA
FILE NAME = 24
ENTER COMPONENT NUMBER OF DATA ELEMENT
TO BE PRINTED, IF NO MORE, ENTER LAST >1520#
ENTER COMPONENT NUMBER OF DATA ELEMENT
TO BE PRINTED, IF NO MORE, ENTER LAST >last#
ENTER COMPONENT NUMBER OF DATA ELEMENT
BY WHICH DATA ARE TO BE ORDERED
IF NO ORDER, JUST PRESS RETURN >#
ENTER QUALIFICATION DATA AS COMPONENT NUMBER
IF NO MORE, ENTER LAST >C310 eq 6 and#
ENTER QUALIFICATION DATA AS COMPONENT NUMBER
IF NO MORE, ENTER LAST >C1505 exists#
ENTER QUALIFICATION DATA AS COMPONENT NUMBER
IF NO MORE, ENTER LAST >last#
IN EXEC MODE
AUTO FILE CONTAINS FPEIS*TSTART(1)«PRINT(0)
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED—ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-WED-05/24/78-10:28:01-(,0)
INPUT
EDIT
LINES:9 FIELDATA
05/24/78 10:28:22 BEGIN SYSTEM 2000 VERSION 2.80D
-556- ASSIGNED...TFPEISC 12 28443 05/09/78 11:44:44
PRINT/NAME/
C1520
WHERE
C310 EQ 6 and
C1505 EXISTS
•
•
MEASUREMENT INSTRUMENT/METHOD NAME* ANDERSEN MODEL III IMPACTOR
EXIT:
05/24/78 10:29:03 END SYSTEM 2000 VERSION 2.80D
FURPUR 27R3 E33 SL73R1 05/24/78 10:29:10
> June 1978
-------
UG-5.5-17
Example 10; Use of Qualifiers FAILS and SPANS
©add fpeis.print-where#
GTS 6R1 10:29:28
THE ASSUMED MODE IS FIELDATA
FILE NAME = 29
ENTER COMPONENT NUMBER OF DATA ELEMENT
TO BE PRINTED, IF NO MORE, ENTER LAST >310#
ENTER COMPONENT NUMBER OF DATA ELEMENT
TO BE PRINTED, IF NO MORE, ENTER LAST >last#
ENTER COMPONENT NUMBER OF DATA ELEMENT
BY WHICH DATA ARE TO BE ORDERED
IF NO ORDER, JUST PRESS RETURN >310#
ENTER COMPONENT NUMBER OF DATA ELEMENT
BY WHICH DATA ARE TO BE ORDERED
IF NO ORDER, JUST PRESS RETURN >#
ENTER QUALIFICATION DATA AS COMPONENT NUMBER
IF NO MORE, ENTER LAST >Cl410 fails and#
ENTER QUALIFICATION DATA AS COMPONENT NUMBER
IF NO MORE, ENTER LAST >C310 spans 1*10#
ENTER QUALIFICATION DATA AS COMPONENT NUMBER
IF NO MORE, ENTER LAST >last#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED--ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-WED-05/24/78-10:31:44-(,0)
INPUT
EDIT
LINES:11 FIELDATA
05/24/78 10:31:59 BEGIN SYSTEM 2000 VERSION 2.80D
-556- ASSIGNED...TFPEISC 12 28443 05/09/78 11:44:44
PRINT/NAME/
C310
, OB
C310
WHERE
C1410 FAILS AND
June 1978
-------
UG-5.5-18
C310 SPANS 1*10
TEST SERIES NUMBER* 1
TEST SERIES NUMBER* 2
TEST SERIES NUMBER* 3
TEST SERIES NUMBER* 4
TEST SERIES NUMBER* 5
TEST SERIES NUMBER* 8
TEST SERIES NUMBER* 9
TEST SERIES NUMBER* 10
EXIT:
05/24/78 10:32:27 END SYSTEM 2000 VERSION 2.80D
FURPUR 27R3 E33 SL73R1 05/24/78 10:32:31
June 1978
-------
UG-5.5-19
5 .5 .2 Batch Processing Procedure
SRC-5 is not available to batch users since it utilizes the UNIVAC 1100 Con-
versational Time Sharing (GTS) processor*
June 1978
-------
UG-5.6-1
5.6 SRC NUMBER: SRC-6
TITLE; Chemical Data Search (CHEMSEARCH)
The CHEMSEARCH command (SRC-6) enables the user to search all or part
of the FFEIS data base for the presence of a particular chemical
species. The user must supply a chemical identification number, and,
if he wishes to search only a part of the data base, he must also
specify the Test Series Number(s). Chemical ID'S permitted include
SAROAD/SOTDAT, Multi-Media Environmental Goals (MBG's), Chemical
Abstracts Services (CAS) Registration Numbers, and Level 1 Fractions.
Any of these chemical ID'S may be used*
The output from SRC-6 will identify the particular test series in which
the chemical species of interest appears* The user may then retrieve
the SERIES report using SRC-1.
USER INPUT DATA REQUIRED;
. Valid Chemical Entry Code (C1405). Select from:
S = SAROAD/SOTDAT ID
M = MEG Number
C - CAS Registration Number
F = EA Level 1 Fraction
. Valid Chemical ID Code (C1410) which corresponds to the entry code
selected*
DATA QUALIFICATION REQUIRED;
The user must indicate whether he wishes to scan the entire data base,
or part of the data base as indicated by entering a range of Test
Series Numbers*
June 1978
-------
UG-5.6-2
5*6*1 Demand Processing Procedure
The user shall establish communications with the NCC UNIVAC 1100 computer
according to the procedure given in Section 4*2 of this document* Since
the possible combination of chemical species to be located and Test Series
Numbers to be scanned are almost infinite, the use of SRC-6 is best shown
by example* For clarity, all user-supplied data are shown in lower case
letters and all computer responses in capital letters* A user-supplied
carriage return is shown by the pound (#) sign*
June 1978
-------
UG-5.6-3
5.6.1.1 Use of SABPAD/SOTDAT CHEMICAL ID
The following examples illustrate the use of SRC-6 with the SASDAD/SOTDAT
CHEMICAL ID system being employed.
June 1978
-------
UC-5.6-4
Example 1; Invalid SAROAD/SOTDAT Number
>@add £peis.chemsearch#
GTS 6R1 14:30;11
THE ASSUMED MODE IS FIELDATA
FILE NAME = 3013
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F) >s#
ENTER SAROAD NUMBER >3333#
ENTER TEST SERIES NUMBERS TO BE SCANNED
AS FIRST,LAST. IF ENTIRE DATA BASE
IS TO BE SCANNED, JUST PRESS RETURN >#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED—ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-THU-05/25/78-14:30:43-(,0)
INPUT
EDIT
LINES:2 FIELDATA
INVALID CHEMICAL DATA
FURPUR 27R3 E33 SL73R1 05/25/78 14:31:00
This means that no such SAROAD number exists*
June 1978
-------
UG-5.6-5
Example 2; Invalid Entry Code with Correction Applied
> ©add fpeis.chemsearch#
GTS 6R1 14:18:43
THE ASSUMED MODE IS FIELDATA
FILE NAME = 1847
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F) >r#
INVALID ENTRY CODE
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F) >s#
ENTER SARD AD NUMBER >2103
ENTER TEST SERIES NUMBERS TO BE SCANNED
AS FIRST,LAST. IF ENTIRE DATA BASE
IS TO BE SCANNED, JUST PRESS RETURN 5#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED—ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-THY-05/25/78-14:l9:19-(,0)
INPUT
EDIT
LINES:2 FIELD ATA
SARD AD NUMBER* 2103
MEG NUMBER* 49AOOO
PREFERRED NAME* ARSENIC
EMPIRICAL FORMULA* AS
MOLECULAR WEIGHT* 0074.92
CAS NUMBER* 07440-38-2
OTHER NAMES*
METALLIC ARSENIC
BLACK ARSENIC
THE FOLLOWING SERIES WERE FOUND IN THE ENTIRE DATA BASE.
00006
00007
FURPUR 27R3 E33 SL73R1 05/25/78 14:19:48
Note that SRC-6 allows the user to re-enter the entry code if a bad value
has been entered.
June 1978
-------
UQ-5.6-6
Example 3; Invalid SARDAD Number Length with Correction Applied
>add fpeis.chemsearch#
GTS 6R1 13:53:28
THE ASSUMED MODE IS FIELDATA
FILE NAME = 530
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F) >s#
ENTER SAROAD NUMBER >21034#
INVALID LENGTH FOR SABDAD NUMBER (NOT 4)
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F) >s#
ENTER SAROAD NUMBER >2103#
ENTER TEST SERIES NUMBERS TO BE SCANNED
AS FIRST, LAST. IF ENTIRE DATA BASE
IS TO BE SCANNED, JUST PRESS RETURN >#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED—ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-THU-05/25/78-13:53:33-(,0)
INPUT
EDIT
LINES:2 FIELDATA
SAO)AD NUMBER* 2103
MEG NUMBER* 49AOOO
PREFERRED NAME* ARSENIC
EMPIRICAL FORMULA* AS
MOLECULAR WEIGHT* 0074.92
CAS NUMBER* 07440-38-2
OTHER NAMES*
METALLIC ARSENIC
BLACK ARSENIC
THE FOLLOWING SERIES WERE FOUND IN THE ENTIRE DATA BASE.
0000|6
00007
FURPUR 27R3 E33 SL73R1 05/25/78 13:53:55
June 1978
-------
UG-5.6-7
Example 4; Miscellaneous Input Errors with Correction Applied
XSadd fpeis.chemsearch#
GTS 6R1 13:09:01
THE ASSUMED MODE IS FIELDATA
FILE NAME = 0903
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F) >a#
ENTER SAROAD NUMBER >2128
ENTER TEST SERIES NUMBERS TO BE SCANNED
AS FIRST, LAST. IF ENTIRE DATA BASE
IS TO BE SCANNED, JUST PRESS RETURN X),0000009#
INVALID LAST SERIES NUMBER
ENTER TEST SERIES NUMBERS TO BE SCANNED
AS FIRST,LAST. IF ENTIRE DATA BASE
IS TO BE SCANNED, JUST PRESS RETURN X)000000,0000009#
SCANNED FIELD TOO LARGE (GREATER THAN 11)
ENTER TEST SERIES NUMBERS TO BE SCANNED
AS FIRST,LAST. IF ENTIRE DATA BASE
IS TO BE SCANNED, JUST PRESS RETURN X)000000,9#
INVALID FIRST SERIES NUMBER
ENTER TEST SERIES NUMBERS TO BE SCANNED
AS FIRST, LAST. IF ENTIRE DATA BASE
IS TO BE SCANNED, JUST PRESS RETURN >1,9#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED--ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-FRI-05/26/78-13:10:19-(,0)
INPUT
EDIT
LINES:2 FIELDATA
SAROAD NUMBER* 2128
MEG NUMBER* 46AQOO
PREFERRED NAME* LEAD
EMPIRICAL FORMULA* PB
MOLECULAR WEIGHT* 0207.22
CAS NUMBER* 07439-92-1
OTHER NAMES*
PLUMBUM
THE FOLLOWING SERIES WERE FOUND BETWEEN SERIES 00001 AND 00009
0006
0007
FURPUR 27R3 E33 SL73R1 05/26/78 13:10:40
June 1978
-------
UG-5.6-8
Example 5: Partial Data Base Scan (No Errors)
fpeis.chemsearch#
GTS 6R1 13:52:21
THE ASSUMED MODE IS FIELDATA
FILE NAME = 5223
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F) >s#
ENTER SARD AD NUMBER >2103#
ENTER TEST SERIES NUMBERS TO BE SCANNED
AS FIRST, LAST. IF ENTIRE DATA BASE
IS TO BE SCANNED, JUST PRESS RETURN >1,6#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED- -ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-THU-05/25/78-13:52:45-(,0)
INPUT
EDIT
LINES: 2 FIELDATA
SARD AD NUMBER* 2103
MEG NUMBER* 49AOOO
PREFERRED NAME* ARSENIC
EMPIRICAL FORMULA AS
MOLECULAR WEIGHT* 0074.92
CAS NUMBER* 07440-38-2
OTHER NAMES*
METALLIC ARSENIC
BLACK ARSENIC
THE FOLLOWING SERIES WERE FOUND BETWEEN SERIES 00001 AND 00006
00006
FURPUR 27R3 E33 SL73R1 05/25/78 13:53:05
June 1978
-------
UG-5.6-9
Example 6; Full Data Base Scan (No Errors)
XSadd fpeis.chemsearch#
GTS 6R1 12:58:51
THE ASSUMED MODE IS FIELDATA
FILE NAME = 5852
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F) >s#
ENTER SARDAD NUMBER >2103#
ENTER TEST SERIES NUMBERS TO BE SCANNED
AS FIRST,LAST. IF ENTIRE DATA BASE
IS TO BE SCANNED, JUST PRESS RETURN >#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED--ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-FRI-05/26/78-12:59:22-(,0)
INPUT
EDIT
LINES:2 FIELDATA
SARDAD NUMBER* 2103
MEG NUMBER* 49AOOO
PREFERRED NAME* ARSENIC
EMPIRICAL FORMULA* AS
MOLECULAR WEIGHT* 0074.92
CAS NUMBER* 07440-38-2
OTHER NAMES*
METALLIC ARSENIC
BLACK ARSENIC
THE FOLLOWING SERIES WERE FOUND IN THE ENTIRE DATA BASE.
00006
00007
FURPUR 27R3 E33 SL73R1 05/26/78 13:00:15
June 1978
-------
UG-5.6-10
5.6.1.2 Use of Multimedia Environmental Goals (MEG) Numbers
The following examples illustrate the use of SRC-6 with the Multimedia Environ-
mental Goals chemical ID system being employed.
June 1978
-------
UG-5.6-11
Example It Invalid MEG Number
>§tatdd fpeis.chemsearch#
CIS 6R1 16:14:12
THE ASSUMED MODE IS FIELDATA
FILE NAME = 1414
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F)
ENTER MEG NUMBER >49al25#
ENTER TEST SERIES NUMBERS TO BE SCANNED
AS FIRST, LAST. IF ENTIRE DATA BASE
IS TO BE SCANNED, JUST PRESS RETURN 5#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED— ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-FRI-05/26/78-16:13s21-(,0)
INPUT
EDIT
LINES: 2 FIELDATA
INVALID CHEMICAL DATA
FURPUR 27R3 E33 SL73R1 05/26/78 16:13:40
This indicates that 49A125 ia not a valid MEG Number even though it is
in the proper format.
June 1978
-------
UG-5.6-12
Example 2; Invalid MEG Number Length With Correction Applied
>@add fpeis»chemsearch#
GTS 6R1 13:02:51
THE ASSUMED MODE IS FIELDATA
FILE NAME = 0254
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F)
ENTER MEG NUMBER >123-12-3#
INVALID LENGTH FOR MEG NUMBER (NOT 6)
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F)
ENTER MEG NUMBER >49aOOO#
ENTER TEST SERIES NUMBERS TO BE SCANNED
AS FIRST,LAST. IF ENTIRE DATA BASE
IS TO BE SCANNED, JUST PRESS RETURN >#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED—ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-FRI-05/26/78-13:03:54-(,0)
INPUT
EDIT
LINES:2 FIELDATA
SARDAD NUMBER* 2103
MEG NUMBER* 49AOOO
PREFERRED NAME* ARSENIC
EMPIRICAL FORMULA* AS
MOLECULAR WEIGHT* 0074.92
CAS NUMBER* 07440-38-2
OTHER NAMES*
METALLIC ARSENIC
BLACK ARSENIC
THE FOLLOWING SERIES WERE FOUND IN THE ENTIRE DATA BASE.
00006
00007
FURPUR 27R3 E33 SL73R1 05/26/78 13:04:17
June 1978
-------
UG-5.6-13
Example 3; Partial Data Base Scan (No Errors)
fpeis.chemsearch#
GTS 6Rl 13:04:46
THE ASSUMED MODE IS FIELDATA
FILE NAME = 0447
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F)
ENTER MEG NUMBER :>46aOOO#
ENTER TEST SERIES NUMBERS TO BE SCANNED
AS FIRST, LAST. IF ENTIRE DATA BASE
IS TO BE SCANNED, JUST PRESS RETURN >1,50#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED- -ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-FRI-05/26/78-13:05:15-(,0)
INPUT
EDIT
LINES: 2 FIELDATA
SARD AD NUMBER* 2128
MEG NUMBER* 46AOOO
PREFERRED NAME* LEAD
EMPIRICAL FORMULA* PB
MOLECULAR WEIGHT* 0207.22
CAS NUMBER* 07439-92-1
OTHER NAMES*
PLUMBUM
THE FOLLOWING SERIES WERE FOUND BETWEEN SERIES 00001 AND 00050
00006
00007
00013
00025
00026
00027
00032
00043
00044
00045
00046
FURPUR 27R3 E33 SL73R1 05/26/78 13:05:47
June 1978
-------
UG-5.6-14
Example 4: Full Data Base Scan (No Errors)
>@add fpeis.chemsearch#
GTS 6R1 14:02:47
THE ASSUMED MODE IS FIELDATA
FILE NAME = 0250
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F) >m#
ENTER MEG NUMBER >49aOOO#
ENTER TEST SERIES NUMBERS TO BE SCANNED
AS FIRST,LAST. IF ENTIRE DATA BASE
IS TO BE SCANNED, JUST PRESS RETURN ~>#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED—ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-THU-05/25/78-14:03:17-(,0)
INPUT
EDIT
LINES:2 FIELDATA
SARD AD NUMBER* 2103
MEG NUMBER* 49AOOO
PREFERRED NAME* ARSENIC
EMPIRICAL FORMULA* AS
MOLECULAR WEIGHT* 0074.92
CAS NUMBER* 07440-38-2
OTHER NAMES*
METALLIC ARSENIC
BLACK ARSENIC
THE FOLLOWING SERIES WERE FOUND IN THE ENTIRE DATA BASE.
00006
00007
FURPUR 27R3 E33 SL73R1 05/25/78 14:04:38
June 1978
-------
UG-5.6-15
5.6.1.3 Use of Chemical Abstracts Services Registration Numbers
The following examples illustrate the use of SRC-6 with the Chemical Abstracts
Services chemical ID system being employed.
June 1978
-------
UG-5.6-16
Example 1: Invalid GAS Number Length with Correction Applied
f peis.chemsearch#
GTS 6R1 13:06:04
THE ASSUMED MODE IS FIELDATA
FILE NAME = 0606
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F) >c#
ENTER CAS NUMBER >123-12-3#
INVALID LENGTH FOR CAS NUMBER (NOT 10)
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F) >c#
ENTER CAS NUMBER X)7439-92-l#
ENTER TEST SERIES NUMBERS TO BE SCANNED
AS FIRST, LAST. IF ENTIRE DATA BASE
IS TO BE SCANNED, JUST PRESS RETURN >#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED— ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-FRI-05/26/78-13:06:46-(,0)
INPUT
EDIT
LINES: 2 FIELDATA
SAROAD NUMBER* 2128
MEG NUMBER* 46AOOO
PREFERRED NAME* LEAD
EMPIRICAL FORMULA* PB
MOLECULAR WEIGHT* 0207.22
CAS NUMBER* 07439-92-1
OTHER NAMES*
PLUMBUM
THE FOLLOWING SERIES WERE FOUND IN THE ENTIRE DATA BASE.
00006
00007
00013
00025
00026
00027
00032
00043
00044
00045
00046
FURPUR 27R3 E33 SL73R1 05/26/78 13:07:11
June 1978
-------
UG-5.6-17
Example 2: Invalid CAS Number
XDadd fpeis.chemsearch#
GTS 6R1 09:15:15
THE ASSUMED MODE IS FIELDATA
FILE NAME = 1518
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F) >c#
ENTER CAS NUMBER X)7459-99-9#
ENTER TEST SERIES NUMBERS TO BE SCANNED
AS FIRST,LAST. IF ENTIRE DATA BASE
IS TO BE SCANNED, JUST PRESS RETURN >#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED--ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-TUE-05/30/78-09:l5:55-(,0)
INPUT
EDIT
LINES:2 FIELDATA
INVALID CHEMICAL DATA
FURPUR 27R3 E33 SL73R1 05/30/78 09s16:34
June 1978
-------
UG-5.6-18
Example 3: Partial Data Base Scan (No Errors)
>§>add fpeis.chemsearch#
GTS 6R1 09:17:07
THE ASSUMED MODE IS FIELDATA
FILE NAME = 1710
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F) >c#
ENTER CAS NUMBER X>7439-92-l#
ENTER TEST SERIES NUMBERS TO BE SCANNED
AS FIRST,LAST. IF ENTIRE DATA BASE
IS TO BE SCANNED, JUST PRESS RETURN >25,35#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED—ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 1.5R2-TUE-05/30/78-09:19:22-(,0)
INPUT
EDIT
LINES:2 FIELDATA
SAROAD NUMBER* 2128
MEG NUMBER* 46AOOO
PREFERRED NAME* LEAD
EMPIRICAL FORMULA* PB
MOLECULAR WEIGHT* 0207.22
CAS NUMBER* 07439-92-1
OTHER NAMES*
PLUMBUM
THE FOLLOWING SERIES WERE FOUND BETWEEN SERIES 00025 AND 00035
00025
00026
00027
00032
FURPUR 27R3 E33 SL73R1 05/30/78 09:22:26
June 1978
-------
UG-5.6-19
Example 4: Full Data Base Scan (No Errors)
fpeis.chemsearch#
CTS 6R1 13:07:29
THE ASSUMED MODE IS FIELDATA
FILE NAME = 0731
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F) >c#
ENTER CAS NUMBER >07440-38-2#
ENTER TEST SERIES NUMBERS TO BE SCANNED
AS FIRST, LAST. IF ENTIRE DATA BASE
IS TO BE SCANNED, JUST PRESS RETURN >#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED— ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-FRI-05/26/78-13:08:23-(,0)
INPUT
EDIT
LINES:2 FIELDATA
SAROAD NUMBER* 2103
MEG NUMBER* 49AOOO
PREFERRED NAME* ARSENIC
EMPIRICAL FORMULA* AS
MOLECULAR WEIGHT* 0074.92
CAS NUMBER* 07440-38-2
OTHER NAMES*
METALLIC ARSENIC
BLACK ARSENIC
THE FOLLOWING SERIES WERE FOUND IN THE ENTIRE DATA BASE.
00006
00007
FURPUR 27R3 E33 SL73R1 05/25/78 14:02:30
June 1978
-------
UG-5.6-20
5.6.1.4 Use of Environmental Assessment Level 1 Fractions
The following examples illustrate the use of SRC-6 with the EA Level 1 Frac-
tion chemical ID system being employed*
The Level 1 Fraction data are identified as FRAC-1 through FRAO8. Only
these values may be used.
June 1978
-------
UG-5.6-21
Example 1: Invalid Identifier
>3*add fpels.chemsearch#
GTS 6R1 16:17:58
THE ASSUMED MODE IS FIELDATA
FILE NAME = 1800
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F) >f#
ENTER LEVEL I FRACTION CHEMICAL ID >level i fraction-3#
ENTER TEST SERIES NUMBERS TO BE SCANNED
AS FIRST, LAST. IF ENTIRE DATA BASE
IS TO BE SCANNED, JUST PRESS RETURN >#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED--ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-FRI-05/26/78-16:18:41-(,0)
INPUT
EDIT
LINES:2 FIELDATA
NO SERIES FOUND IN THE ENTIRE DATA BASE
FURPUR 27R3 E33 SL73R1 05/26/78 16:18:57
June 1978
-------
UG-5.6-22
Example 2; Input Error in Fraction Identifier
X&add fpeis.chemsearch#
CIS 6R1 16:16:28
THE ASSUMED MODE IS FIELDATA
FILE NAME = 1631
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F) >f#
ENTER LEVEL I FRACTION CHEMICAL ID >frac 1#
ENTER TEST SERIES NUMBERS TO BE SCANNED
AS FIRST,LAST. IF ENTIRE DATA BASE
IS TO BE SCANNED, JUST PRESS RETURN >#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED--ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED !5R2-FRI-05/26/78-16:17:07-(,0)
INPUT
EDIT
LINES:2 FIELDATA
NO SERIES FOUND IN THE ENTIRE DATA BASE
FURPUR 27R3 E33 SL73R1 05/26/78 16:17:23
June 197$
-------
UG-5.6-23
Example 3: Partial Data Base Scan (No Errors)
fpeis.chemsearch#
CIS 6R1 16: 19; 10
THE ASSUMED MODE IS FIELD ATA
FILE NAME = 1912
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F) >f#
ENTER LEVEL I FRACTION CHEMICAL ID >frac-3#
ENTER TEST SERIES NUMBERS TO BE SCANNED
AS FIRST, LAST. IF ENTIRE DATA BASE
IS TO BE SCANNED, JUST PRESS RETURN >105,110#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED— ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-FRI-05/26/78-16:19:57-(,0)
INPUT
EDIT
LINES: 2 FIELDATA
THE FOLLOWING SERIES WERE FOUND BETWEEN SERIES 00105 AND 00110
00108
FURPUR 27R3 E33 SL73R1 05/26/78 16:20:16
June 1978
-------
UG-5.6-24
Example 4; Full Data Base Scan (No Errors)
fpeis.chemsearch#
CTS 6R1 16:15:19
THE ASSUMED MODE IS FIELDATA
FILE NAME = 1521
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F) >f#
ENTER LEVEL I FRACTION CHEMICAL ID >frac-l#
ENTER TEST SERIES NUMBERS TO BE SCANNED
AS FIRST, LAST. IF ENTIRE DATA BASE
IS TO BE SCANNED, JUST PRESS RETURN >#
IN EXEC MODE
CASE UPPER ASSUMED
FILE IN FIELD 1 DISABLED— ACCEPTED
WARNING: NEW ELEMENT WILL REPLACE EXISTING ELEMENT
ED 15R2-FRI-05/26/78-16:l5:51-(,0)
INPUT
EDIT
LINES: 2 FIELDATA
THE FOLLOWING SERIES WERE FOUND IN THE ENTIRE DATA BASE.
00001
00108
FURPUR 27R3 E33 SL73R1 05/26/78 16:16:14
June 1978
-------
UG-5.6-25
5.6.1.5 Use of User-Initiated Abort
Users may abort the CHEMSEARCH SRC by entering "KILL" FOR ANY ENTRY. This is
shown in the following example.
fpeis.chernsearch#
GTS 6R1 10:52:27
THE ASSUMED MODE IS FIELDATA
FILE NAME = 5233
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F) >kill#
JOB KILLED
IN EXEC MODE
>§add fpeis.chemsearch#
GTS 6R1 10:52:58
THE ASSUMED MODE IS FIELDATA
FILE NAME = 5300
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F) >s#
ENTER SAROAD NUMBER >kill#
JOB KILLED
IN EXEC MODE
>@add fpeis.chemsearch
GTS 6R1 10:53:22
THE ASSUMED MODE IS FIELDATA
FILE NAME = 5323
ENTER CHEMICAL ENTRY CODE (S,C,M,OR F) >s#
ENTER SAROAD NUMBER >2103#
ENTER TEST SERIES NUMBERS TO BE SCANNED
AS FIRST,LAST. IF ENTIRE DATA BASE
IS TO BE SCANNED, JUST PRESS RETURN >kill#
JOB KILLED
IN EXEC MODE
June 1978
-------
UG-5.6-26
5.6.2 Batch Processing Procedure
SRC-6 is not available to batch users since it utilizers the UNIVAC 1100
Conversational Time-Sharing (CTS) processor.
June 1978
-------
UG-6.0-1
SECTION 6
APPENDIX
CONTENTS
Number Item Page
6.1 Standard FPEIS Data Input Forms . . . UG-6.1-1
6.2 Example of FPEIS SERIES Report Output • UG-6.2-1
6.3 FPEIS Data Base Structure ............ UG-6.3-1
6.3.1 SYSTEM 2000 Data Base Structure UG-6.3-2
6.4 Key/Nonkey Data Elements UG-6.4-1
6.4.1 Key Data Elements UG-6.4-2
6.4.2 Monkey Data Elements. ......••.••• UG-6.4-4
V /
6.5 Summary of Contents of Che FPEIS Data Base. ... UG-6.5-1
June 1978
-------
UG-6.1-1
6*1 Standard FPEIS Data Input Forms
Standard data input forms for the FPEIS may be found following this dis-
cussion. There are six forms in all* These forms may be reproduced for
use in encoding emissions testing data* Specific encoding instructions
are given in Section 2,
June 1978
-------
** n=
SB Lr
U.S. EMVIKMNEH
IEBI HIT. ItaMRk In
A - SOURCE DE
Test Series
No.
I .
*
1
D)
E=
y®
IAL PROTECTION AGENCY
•fbPwt, ».(.. 27711
SCRIPTION
7
8
»),o
Card
No.
.1,2
A1P_
Card
No.
n
A
12
0
,3
1
13
2
Cord
No.
n
A
12
0
.3
3
Card
No.
"
«
»
PO|4
Card
No.
M
A
11
a
13
14
'
14
14
15
15
15
II
•4»
1
M
5
15
SCC
16
FINE PARTICLE EMISSIONS INFORMATION SYSTEM
DATA INPUT FORMS Forn
[For*
1 (Source Category)
4"
SCC
16
17
IV
18
Source
16
17
Zip
16
Rt
16
17
18
18
feren
^
"
20
21 22] 23
24
25
26
27
28
29
30
31
32
SCC 11 (Type of Operation)
33
34
35
(Operating Mode Claw)
19
20
,2I_ 22
a
24
25
26
27
28
29
30
31
32
33
14
35
36
37
38
39
«|4,
n
42
43
44
45
46
47
48
49
SCC III (Feed Material Class)
50
51
52
53
54
55
56
571 SB
59
60
61
62
63
64
65
66
1 9/77
Completed by
Test Series
Start Dote
Mo
67
61
Da
69
70
Yr
71
72
Site Name
31
37
38
39
4(1
Name
19
19
ce
,9
!
20
20
21 22
23
24
25
26
27
28
29
UTM Coords
X
21 22
20
2,|22
23
24
Y
25
26
27
28
29
30
3,
32
33
34
35
36
37
38
39
40
4T
42
4)
44
4!
46
47
484,505,
52
53
54
55
56
57
56
59
60
Street
41
42
43
44
4!
46
47
48
49
30
SI
52
53
54
55
56
57
58
59
60
61
62
63
64
63
64
67
68
69
70
71
72
Finish
Mo
73J74
1.
73
74
Date
Da
75
1
76 1
Yr
77
78
UTM
Zone
79 10
75 ft
]
City
61
62
63
64
65
66
67
61
69
70
71
72
73
74
75
Tested By
»J31
32
33
34
35
36
37
38
39
4C
41
42
43
44
4]
46
47
48
49
SO
51
52
53l54|55
56
57
SB
59
60
6,
62
63
64
65
66
67
61
69
70
71
72
73
74
75
s.
24
25
26
27
18
29
30
31
32
33
34
35
16 37
18
39
40
41
42
43
44
4}
46
47
48
49
st
1.
52
53
54
55
56
57
58
59
69
61
61
61
64
65
66
67
68
69
70
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7273
|
74
75
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77
78
r
State
79 BO
'6
77
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79 M
1
ta
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*
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» - TEST SERIES REMARKS
T«t S«in
No.
i
2
3
1
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C<
M
M
B
B
B
B
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B
B
e
B
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3rd
,2
-3
0 1
0
0
0
0
0
0
0
0
1
2
3
4
5
o
7
8
9
0
j*
15
Remarks in Text
16
17
11
19
20
21
22
23
24
25
26
27
28
29
30
31
32
!
33
34
35
36
37
38
39
4oj4l
42
43
44
45
46
47
48
49
50
51
52
53
54
55
56
57.
58
59
40
61
62
63
64
65
66
67
68
69
70
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77
t
79
»
s
-------
U.S. ENVIRONMENTAL PROTECTION AGENCY
IERlflTF.Ittu>«tTriw0»F«li.ll.C. IT711
C - CONTROL DEVICE(S) CHARACTERISTICS
FIN: PARTICLE EMISSIONS I NFORMATION SYSTEM
DATA INPUT FORMS
9/77
Form Completed by
Teit Series
No.
\
Cord
No.
C
0
Cord
No.
II
C
12
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21
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CONTROL DEVICE(S) DESIGN PARAMETERS
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lEfll RTF. R«OTtb TnMfli Pirt. *.C. 17711
D - TEST CHARACTERISTICS
Test Series
No.
^n-
\
Sub
series
No.
,
Cord
No.
D
0
1
Card
No.
n
D
12
0
13
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M
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15
No" 1 1
77
D
12
0
13)14)15
3
Card
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n
D
0
4
FINt PARTICLt FMISSIONS INFORMATION SYSTEM
DATA INPUT FORMS
— Co»tro! Devic
T«tl SubMrio
Date
Mo~T Da ] Yr"
Fe
16
"
"
e
nlet or C
Start
Time
Juliet (I or
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Time
0)
Source Operating t
ed Mated a
17
IB
19
20
2.122
23
24
JjJ 26 27
28 29
30 31 32 33 14 35 36
A*
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37
ie
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38 3
..1 . ..1 .
> 40
41
42
43
44
*
r~T 1 1 1 —
Form 3 9/77
Form Completed fay
Source Operating Rate*
|Fe*d Material Composition*
4«
47
48
49
50
3!
52
53
54
55
Sampling Location Description*
16
17
,8,9
C02*
,
20
21
22
23
CO*
20
21
22
A
23
24
25
26 17 \lS\n
02*
24
25
26 27
30 31 132 13 34 35 36
^r-,
37
38 3
N2 Trace Gases in pom
28 29j
30 31 32 a 34 35 36
37
38 3
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4<
42
43
44
45
w
47
48
49
50
51
52
53
54
55
56
57
58
59
60
61
Volume
Flow Rate*
56
57
58
59
60
61
62
a
«
Velocity*
62
63
64
65
66
;TT^t
'*!•*.
67
68
69
Temp*
66
67
68
69
70
71
72
73
74
Press *
70
71
72
n
74
75
,
75
(Text)*
r* 40
41
42
43
44
45
46
47
48
49
50
51
52
53
54
55
56
57
58
59
60
61
62
63
M
65
66
67
68
69
70
71
72
7J
74
75
—
% Design
Capacity
1 t .
76
77 78 79 80
• 1 %lso-
H2O| kinetic"
76
77(78 79 80
JI
'»
77 b» 79 »
CONTROL DEVICE(S) OPERATING PARAMETERS
Test Series
No.
1
2
3
4
5
1
Stib-
•eries
No.
6
7
8
9
ID
Card
Nc.
11
D
D
0
D
D
D
D
D
D
D
0
0
D
D
D
D
U
D
D
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12
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
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0
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13
5
5
5
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5
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5
5
5
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5
5
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5
5
5
f
14
tt
a
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16
17
-Device No. (1,2 or 3)
Specification
18
19
20
21
22
23
24
25
26
27
28
29
30
31
32
33
34
35
36
j
37
38
39
40]
-------
•vl
00
FINE PARTICLE EMISSIONS I NF ORMAII ON S YST t M
Form 4 9///
IIRI HIP. ItaOTd Tl»-yt M, »X 2IJ1I
CONTROL OEVICE(S) OPERATING PAfiAMtTtRS (confd)
Teit Series
No.
1
Sub-
terns
No.
CorJ
No.
0 0
D
D
D
D
D
D
0
D
D
0
0
0
0
0
0
0
0
0
5
5
5
5
5
5
5
S
5
5
f
o
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-
—Device No. (t. 2 of 3)
Specification
-
-
-1
--
-
-
--
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21
a
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UAIA INPUT I-UKM:, |Fo,m Complete by
31
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SUBSERIES REMARKS
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0
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1
1
1
1
2
6
7
8
9
0
I
2
3
4
5
6
7
a
9
0
Remarks in Text
IV
20
21
22
\
23
i i ""
24
25
26
-
27
28
19
j
X
31
12
33
34
35
36
37
58
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42
43
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49
70
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73
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77
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E - PAKTICULATE MASS T«A(N 8ESULTS
Test Series
No.
I 2
3
Sub-
seriflf
No.
t|M
1
Cord
No.
II
12
E 0
13
1
14
13
Front Half
16
17
]»
•
19
20
21
22
E
23
*-
24
a
Total
26
(7
a
•
29
30
31
1
32
E
33
t
^4
3!
Mass Train Comments (Text)
36
37
M
M
40
41
42
43144
|
4;
46
47
41
4t
59
51
52
53 54
J
55
M
57
51
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60
61
a
63
64
65
66
67
»
»
n
71
71
73
74
73
ft
77
nln
D
F - PASTICULATE PHYSICAL PROPERTIES
Test Series
No.
1 2
Sub-
Mriei
No.
1
K
Cord
No.
n
F
12
0
13
1
M
li
Density
16
17
It) 19
I
L 1
<"
20
— Determination —
Pesistivity*
21
22|2J
•1
24
25
+
26
27
1
21
2?
30
Other Physical Properties tn Text
31
32
33
34
35
It
37
36
3»|40|4I
1 1
42
43J44
4!
46
47
4)4?l5«51
n
52
53
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55
56
57
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5»
60
6i 'a
63
64
65
66
47
61
0
70
71
72
73
74
7S
'6
77
n
T» n
•Need not be filled if the precxding lubieries contains the same dm; ctwngel or modiriMtions should be entend as nenKarv. If dati
or information from preceding subsets is not applinble. use NA or 999; for sutneria following use of NA or 999 ohere data or in-
fonnation is available it mult be entered.
Oi
-------
U.S. ENVIRONMENTAL PDOTECTION ACENCr
ItlUBTf Rtu«r^Tr«^,Nrt.l.C 27)11
FINE PASTICLE EMISSIONS I NFO B MATI ON S YST E M
DATA INPUT FORMS
Form 5b 2//B
ro»m Complvlt-d by
H •
- CHEMICAL
Test Series
No.
1
1
COMPOSITION
Sub-
series
No.
*|»
1
Card
No.
n
K
12
0
13
1
Entr/
Card
No.
II
H
H
H
H
H
H
H
H
H
H
H
H
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H
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H
H
H
H
H
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H
H
H
H
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H
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H
H
H
H
12
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
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0
0
0
0
0
0
0
0
0
0
0
0
0
13
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
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16
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i — Colib or Calc ( 1 or 0)
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Diameter
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Analysis I.C
Chemical I.D.
17
18 19 1
1
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23
24
M
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25
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1
26
26
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31
32
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or Pooled Stages
±
27
28
.
.
•
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•
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29
30
31
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33
34
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33
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36
37
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38
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39
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40
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41
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43
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43
44
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45 46
47
•
48
49
50
Chemica
45i 46J 47
•
•
•
.
•
•
•
•
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51
52
53
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54
55
56
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4-
51
52
.
•
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•
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53
54 55
56
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57
58
59
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60
61
62
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±
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sals?
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•
•
•
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60
61
62
63
64
-------
iO
uTa^»oi^iau.rmfci,oHi^ri FINE PARTICLE EMISSIONS INFORMATION SYSTEM
lERl'^F HMi.cSiTrt.1* fertile n GBICT DATA NPUT FORMS
I - MEASUREMENT PARTICULARS
Test
No.
i
Series
I
Sub-
tenet
No.
kun
No.
Cord
No.
1
0
1
Card
No.
II
I
12
0
13
2
Cord
No.
[77
I
1
!
12
0
0
0
13
3
4
5
f
14
*4
*3
ITS
- Measurement Instrument/Method No.
Measurement Instrument/Method Nome
K
21 22,
23
24 '25
Measurement Size Range
Lower
16
17
t
18
19
20
Upper
21 22
i
23
24
25
26
27
28
29
X
31
32
33
34
35
36
37
38
39
40
41
42
43
44
45
Meos.
Start Time
46
47
48
49
Sampling
Period **
50
51
52
53
54
Aerosol
Flow Rote
55
56
57
58
59
60
Form 6 « '7
Form Completed by
Gos Conditions at
Measurement Location
Temp.
61
62
63
64
Press.
65
6*
67
68
69
"-- HjO
78
'1
»J
7J
M
a
Dilution
Factor"
76
77
78
79
80
**
Collection Surface/Substrate and its Specifications
26
27
28
29
M
31
32
33
34
35
36
37
38
39
40
41
Comments on the Measurement
6
17
IB
19
20
21 22
i
23
24
25
26
27
28
29
30
31
32
33
34
35
36
37
38
39
40
«
42
43
44
45
46
47
48
49
50
SI
52
53
54
55
56
57!
58
59
<0
61
62
63
64
6S
66
67
68
69
70
71
72
73
74
75
76
77
78
79
80
41
43
44
45
46
47
48
49
I
50
51
52
53
54
55
56
57
58
59
to
61
62
63
64
65
tt
67
68
69
70
71
72
73
74
75
76
77
78
79
80
J - PARTICULATE SIZE DISTRIBUTION DATA
Test Series
No.
1
1
Sub-
series
No.
Run
No.
10
Card
No.
11
J
J
J
12
fl
0
0
13
1
2
3
Card
No.
n
J
J
J
12
0
0
0
13
4
5
6
I
14
r
14
r
15
r
15
—Measurement Instrurr
— Stokes/ Aerodynom
1*1 17
18
19
20
•
•
•
21
22
23
— Measurement Inttrumc
—Mass/No. (1 or 0)
+
l«
17
18
19
• i
• I
•|
20
21
22
23
•nt/Method No.
c/lmpaction Diamere
M
35
26
27
28
•
•
•
29
30
31
nt/Method No.
-f
ft
25
26
•
•
•
27
28
29
30
31
r (0. 1. or 2)
u
i
i
i
*i
!si^
^
m
34
35
36
•
•
•
37
38
39
+
K
33
34
•
•
•
35
36
37
38 b.
r
Particle
»
7»
1
H
M
•Need not be (MM if the preceding subsorio or run with this imtrument/melhod contain! the same data; changes or modifications
should be antarad as neoanary. If data or information from praoading uibseries or run it not applicable, uw MA or 999; for sub-
series or run following me of N A or 999 where data or information is available it must be entered.
I
n
r-»
vO
00
I
•vl
-------
UG-6.2-1
6.2 Example of FPEIS SERIES Report Output
This section includes a typical FPEIS Series Report* The use of SRC-1 (see
Section 5*1) would result in the printing of one such report, while the use
of SRC-2 (see Section 5*2) would result in the printing of many such reports*
June 1978
-------
FINE PARTICLE EMISSIONS INFORMATION SYSTEM
FPE1S SERIES REPORT
TEST SERIES NO:
46 TEST SER1KS AT SITE FROM 09211973 TO 10051973 BY YOST, K.J. ET AL, PURDUE UNIVERSITY
REFERENCE: PROGRESS REPORT NSF(RANN) GRANT GI-35106
SOURCE CHARACTERISTICS-
NEDS SCC SOURCE CATEGORY:
TYPE OF OPERATION:
FEED MATERIAL CLASS:
OPERATING MODE CLASS:
SOLID WASTE
GOVERNMENT
SITE NAME NICOSIA MUNICIPAL INCINERATOR
SOURCE NAME FURNACE NO. 1
ADDRESS GARY AVENUE
EAST CHICAGO , IN
UTM ZONE 16 UTM X-COORD . UTM Y-COORD .
TEST SERIES REMARKS-
CONTROL DEVICE(S) CHARACTERISTICS —
UNIT 1
DEVICE GENERIC TYPE: SETTLING CHAMBER
CATEGORY:
CLASS: CONVENTIONAL
DESCRIPTION:
COMMERCIAL NAME:
MANUFACTURER:
I
CONTROL DEVICE DESIGN SPECIFICATIONS
8
10
to
-------
TEST SERIES NO: 46 TEST SERIES AT SITE FROM 09211973 TO 10051973 BY YOST, K.J. ET AL, PURDUE UNIVERSITY
UNIT 2
DEVICE GENERIC TYPE: SPRAY CHAMBER COMMERCIAL NAME:
CATEGORY: MANUFACTURER:
CLASS:
DESCRIPTION:
CONTROL DEVICE DESIGN SPECIFICATIONS
TEST SERIES NO: 46 TEST SERIES AT SITE FROM 09211973 TO 10051973 BY YOST. K.J. ET AL, PURDUE UNIVERSITY
UNIT 3
DEVICE GENERIC TYPE: WET SCRUBBER COMMERCIAL NAME:
CATEGORY: PLATE MANUFACTURER:
CLASS: CONVENTIONAL
DESCRIPTION:
CONTROL DEVICE DESIGN SPECIFICATIONS
! »
vO ON
00
10
-------
TEST SERIES NO:
46 SUB-SERIES NO: 1 TEST LOCATION: 0
SUB-SERIES TEST DATE: 09211973 FROM TO HOURS
TEST CHARACTERISTICS-
SOURCE OPERATING MODE:
FEED MATERIAL:
SOURCE OPERATING RATE:
FEED MATERIAL COMPOSITION:
PCT UKSIGN CAP:
PERCENT ISOKINETIC SAMPLING- 10(1
SAMPLING LOCATION DESCRIPTION: 8 STACK DIA FROM THE ID FAN INLET
PROCESS CONDITIONS AT SAMPLING LOCATION
VOL. FLOW RATE- 28.2 DNM3/S VELOCITY- 16.8 M/S TEMPERATURE- 71 C PRESSURE- MM HG
CAS COMPOSITION
HATER VAPOR (PERCENT BY VOLUME)- .
ORSAT ANALYSIS— C02 - .Z CO - .X 02 » . X N2 - .1
TRACE GASES (PPM):
SUB-SERIES REMARKS-
I
(D
-J
00
PARTICULATE MASS TRAIN RESULTS
FRONT HALF- 4.117E+OS TOTAL- .E+
MASS TRAIN REMARKS:
PARTICULATE PHYSICAL PROPERTIES
DENSITY- 1.000'C/CM3 (ASSUMED ) RESISTIVITY- E+ OHM-CM (
OTHER PHYSICAL PROPERTIES:
-------
TEST SERIES MO:
46 SUB-SERIES NO: 1 TEST LOCATION: 0
CHEMICAL ANALYSIS-
PARTICLE DIAMETERS IN MICROMETERS
STAGE NUMBER: 0123
PARTICLE DIAMETER BOUNDARY: 20.OOO 16.480 10.220 6.800
DIAMETER BASIS - CLASSIC AERODYNAMIC DEFINITION
4 5 6 ; 8
4.660 3.010 l.SSO .960 .660
CALCULATED BOUNDARY DIAMETERS
CHEMICAL DATA ARE LISTED IN THE FOLLOWING ORDER:
SAROAD NUMBER MEG NUMBER CHEN ABSTRACTS REG. NO.
PREFERRED NAME
OTHER NAMES COMMONLY USED
EMPIRICAL FORMULA MOLECULAR WEIGHT
ANALYSIS METHOD
CONCENTRATION (UG/M3) BY STAGE
2110
CADMIUM
CD
ATOMIC ABSORPTION
2128 46AOOO
LEAD
CH PLUMBUM
g PB
(D ATOMIC ABSORPTION
^ 2167 81AOOO
vO ZINC
ZN
ATOMIC ABSORPTION
2114 78AOOO
COPPER
CUPRUM
CU
ATOMIC ABSORPTION
CHEMICAL DATA
82AOOO . 07440-43-9
112.42
00
07439-92-1
207.22
07440-66-6
65.38
07440-50-8
63.55
FILTER STAGE STAGE STAGE STAGE STAGE STAGE STAGE STAGE
/TOTAL 12345678
6.34+0 2.11-1 2.11-1 7.6H-0 1.23+1 6.34+0 1.23+1 4.67+1
2.11 + 0 2.U+0 2.11+0 2.11+0 9.51+1 2.24+2 5.14+2 1.29 + 3
2.28+2 1.23+2 9.51+1 7.19+1 1.29+2 1.61+2 4.93+2 1.35+3
2.11-1 2.11-1 2.11-1 2.11-1 2.11-1 1.33+1 1.86+1 2.68+1 ^
-------
TEST SERIES NO:
46 SUB-SERIES NO: 1 TEST LOCATION: 0
RUN NUMBER: 01
MEASUREMENT PARTICULARS
MEASUREMENT INSTRUMENT/METHOD NO: I NAME: ANDERSEN IMPACTOR
COLLECTION SURFACE/SUBSTRATE:
MEASUREMENT START TIME: SAMPLING PERIOD: 0004.3 MIN SAMPLING RATE: 0011.06 L/M1N
GAS SAMPLING CONDITIONS- TEMPERATURE: C PRESSURE: MM HG PCT. WATER VAPOR: .
COMMENTS ON THE MEASUREMENT
SIZE RANGE- .030 TO 20.000 MICROMETERS
DILUTION FACTOR: 0001.0
DIAMETER BASIS -
CONCENTRATION BASIS - MASS
CLASSIC AERODYNAMIC DEFINITION
PARTICLE SIZE DISTRIBUTION DATA-
§
00
04
STOKES-DIA (UM)
CLASSIC
AERODYNAMIC DIA (UM)
AERODYNAMIC
IMPACTION UIA (UM)
BNDRY
20.000
16.480
10.220
6.800
4.660
3.010
1.550
.960
.660
.030
MID PT
18.155
12.978
8.336
5.629
3.745
2.160
1.220
.796
. 141
BNDRY
20.000
16.480
10.220
6.800
4.660
3.010
1.550
.960
.660
.030
MID PT
18.155
12.978
8.336
5.629
3.745
2. 160
1.220
.796
.141
BNDRY
20.081
16.561
10.301
6.881
4.740
3.090
1.629
1.038
.737
.076
MID PT
18.236
13.061
8.419
5.711
3.827
2.244
1.300
.874
.236
TOTAL MASS
1.163+05
TOTAL NUMBER
1.335+05
CALCULATED BOUNDARY DIAMETERS
DM
(UG/DNM3)
2
1
I
8
1
8
I
3
0
. 114+04
.057+04
.057+04
.457+03
.480+04
.457+03
.057+04
.171+04
.000
DM/DLDAE
(UG/DNM3)
2.
5.
5.
5.
7.
2.
5.
1.
0.
514+05
094+04
974+04
153+04
797+04
934+04
080+04
949+05
000
ON
(NO/CM3)
6
9
3
9
5
1
1
I
0
.747+00
.236+00
.484+01
.055+01
.381+02
.603+03
. 112+04
.201+05
.000
DN/DLDAE
(NO./CM3)
8
4
1
5
2
5
5
7
0
.025+01
.451+01
.969+02
.517+02
.835+03
.561+03
.345+04
.379+05
.000
CUM M I
LESS SIZE
81.819
72. 728
63.638
56.364
43.636
36.362
27.272
.000
.000
C
o
ON
ro
ON
-------
UG-6.3-1
6.3 FPEIS Data Base Structure
Direct access to the FPEIS requires that the user have a working knowledge
of the SYSTEM 2000 Data Base Management System* The key to the sorting
and retrieval of data is the data base definition* This is a list of all
of the data elements which are identified by unique component numbers and
which are arranged in a hierarchical structure* Section 6*3*1, which fol-
lows, gives the SYSTEM 2000 data base definition for the FPEIS*
June 1978
-------
UG-6.3-2
6.3.1 SYSTEM 2000 Data Base Structure
10* FPEIS (name X (5))
50* Category (KG)
100* Source category (name X (17) in 50)
110* Source characteristics (BG in 50)
120* Type of operation (name X (17) in 110)
130* Feed material class (name X (17) in 110)
140* Operating mode class (name X (20) in 110)
150* Source name (name X (25) in 110)
160* Site name (name X (40) in 110)
170* Zone location (integer number 99 in 110)
180* UTM-X (decimal number 999.9 in 110)
190* UTM-Y (decimal number 9999.9 in 110)
200* Address (nonkey name X (20) in 110)
210* City (name X (18) in 110)
220* State (name XX in 110)
230* Zip code (nonkey integer number 9(5) in 110)
300* Test series (R3 in 110)
310* Test series number (integer number 9(5) in 300)
320* Test series reference (name X (60) in 300)
330* Name of testing group (name X (50) in 300)
340* Series start date (nonkey date in 300)
350* Series finish date (nonkey date in 300)
355* Date FPEIS entry (date in 300)
360* Test series remark 1 (nonkey text X (65) in 300)
361* Test series remark 2 (nonkey text X (65) in 300)
362* Test series remark 3 (nonkey text X (65) in 300)
363* Test series remark 4 (nonkey text X (65) in 300)
364* Test series remark 5 (nonkey text X (65) in 300)
365* Test series remark 6 (nonkey text X (65) in 300)
366* Test series remark 7 (nonkey text X (65) in 300)
June 1978
-------
UG-6.3-3
367* Test series remark 8 (nonkey text X (65) in 300)
368* Test series remark 9 (nonkey text X (65) in 300)
369* Test series remark 10 (nonkey text X (65) in 300)
400* Control devices (HG in 300)
410* Generic device type (name X (20) in 400 with many
future additions)
420* Device class (name X (12) in 400 with many future
additions)
430* Device category (nonkey text X (33) in 400)
440* Device commercial name (name X (30) in 400)
450* Manufacturer (name X (30) in 400)
460* Device description 1 (nonkey text X (60) in 400)
461* Device description 2 (nonkey text X (60) in 400)
500* Design specification (RG in 400)
510* Device number (integer number 9 in 500 with many
future additions)
520* Specification number 2 (integer number 99 in 500)
530* Specification type (nonkey name X (30) in 500)
540* Specification value (nonkey name X (20) in 500)
600* Test characteristics (RG in 300)
610* Subseries number (integer number 999 in 600)
620* Subseries test date (nonkey date in 600)
630* Subseries start time (nonkey integer number 9(4)
in 600)
640* Subseries stop time (nonkey integer number 9(4)
in 600)
650* Sampling location (name X in 600 with many future
additions)
660* Sampling location description (name X (40) in 600)
670* Source operating mode (nonkey text X (30) in 600)
680* Source operating rate (nonkey text X (17) in 600)
June 1978
-------
UG-6.3-4
690* Percent design capacity (nonkey decimal number 999.9
in 600)
700* Source feed material (nonkey text X (30) in 600)
710* Feed material composition (nonkey text X (35) in
600)
720* Volumetric flow rate (nonkey decimal number 9(5).9
in 600)
730* Gas velocity sampling location (nonkey decimal num-
ber 999.9 in 600)
740* Gas temperature sampling location (nonkey integer
number 9999 in 600)
750* Pressure sampling location (nonkey integer number
9(5) in 600)
760* Moisture content (nonkey decimal number 99.9 in
600)
770* Percent isokinetic sampling (nonkey integer number
999 in 600)
780* CO-2 (decimal number 99.99 in 600)
781* CO (decimal number 99.99 in 600 with many future
additions)
782* 0-2 (decimal number 99.99 in 600)
783* N-2 (decimal number 99.99 in 600 with some future
additions)
790* Trace gases in PPM (nonkey text X (49) in 600)
800* Mass train - total mass concentration mantissa (non-
key decimal number 99.999 in 600)
810* Mass train - total mass concentration exponent (non-
key integer number 99 in 600)
820* Mass train - front half mass concentration mantissa
(nonkey decimal number 99.999 in 600)
830* Mass train - front half mass concentration exponent
(nonkey integer number 99 in 600)
June 1978
-------
UG-6.3-5
840* Mass train comments (nonkey text X (45) in 600)
850* Density (decimal number 99.99 in 600)
860* Density determination (nonkey text X in 600)
870* Resistivity-mantissa (nonkey decimal number 9.99
in 600)
880* Resistivity-exponent (nonkey integer number 99 in
600)
890* Resistivity determination (nonkey text X in 600)
900* Physical properties comments (nonkey text X (50)
in 600)
910* Subseries remark-1 (nonkey text X (65) in 600)
911* Subseries remark-2 (nonkey text X (65) in 600)
912* Subseries remark-3 (nonkey text X (65) in 600)
913* Subseries remark-4 (nonkey text X (65) in 600)
914* Subseries remark-5 (nonkey text X (65) in 600)
915* Subseries remark-6 (nonkey text X (65) in 600)
916* Subseries remark-7 (nonkey text X (65) in 600)
917* Subseries remark-8 (nonkey text X (65) in 600)
918* Subseries remark-9 (nonkey text X (65) in 600)
919* Subseries remark-10 (nonkey text X (65) in 600)
920* Subseries remark-11 (nonkey text X (65) in 600)
921* Subseries remark-12 (nonkey text X (65) in 600)
922* Subseries remark-13 (nonkey text X (65) in 600)
923* Subseries remark-14 (nonkey text X (65) in 600)
924* Subseries remark-15 (nonkey text X (65) in 600)
1000* Control device operating parameters (RG in 600)
1010* Control device number (integer number 9 in 1000
with many future additions)
1020* Parameter number 2 (integer number 99 in 1000 with
many future additions)
1030* Parameter type (nonkey name X (50) in 1000)
1040* Parameter value (nonkey name X (20) in 1000)
June 1978
-------
UG-6.3-6
1100* Bioassay analysis (EG in 600)
1110* Bioassay test type (name X (20) in 1100)
1120* Bioassay test remarks (nonkey name X (45) in 1100)
1200* Chemical calibration/calculation (integer number
9 in 600)
1205* Diameter basis (integer number 9 in 600)
1210* Upper boundary limit (nonkey decimal number 99.999
in 600)
1220* Stage-1 limit (nonkey decimal number 99.999 in 600)
1230* Stage-2 limit (nonkey decimal number 99.999 in 600)
1240* Stage-3 limit (nonkey decimal number 99.999 in 600)
1250* Stage-4 limit (nonkey decimal number 99.999 in 600)
1260* Stage-5 limit (nonkey decimal number 99.999 in 600)
1270* Stage-6 limit (nonkey decimal number 99.999 in 600)
1280* Stage-7 limit (nonkey decimal number 99.999 in 600)
1290* Stage-8 limit (nonkey decimal number 99.999 in 600)
1400* Chemical analysis (RG in 600)
1405* Chemical entry code (name X in 1400)
1410* Chemical ID (name X (10) in 1400)
1420* Analysis method (name XX in 1400)
1430* Filter/total (nonkey text X (6) in 1400)
1432* Stage-1 (nonkey text X (6) in 1400)
1434* Stage-2 (nonkey text X (6) in 1400)
1436* Stage-3 (nonkey text X (6) in 1400)
1438* Stage-4 (nonkey text X (6) in 1400)
1440* Stage-5 (nonkey text X (6) in 1400)
1442* Stage-6 (nonkey text X (6) in 1400)
1444* Stage-7 (nonkey text X (6) in 1400)
1446* Stage-8 (nonkey text X (6) in 1400)
1500* Run group (RG in 600)
June 1978
-------
UG-6.3-7
1505* Run number (Integer number 99 in 1500 with many
future additions)
1510* Measurement instrument/method number (integer num-
ber 9 in 1500 with many future additions)
1520* Measurement instrument/method name (name X (30)
in 1500 with many future additions)
1530* Measurement start time (nonkey integer number 9999
in 1500)
1540* Sampling period duration (nonkey decimal number
9999.9 in 1500)
1550* Sampling flow rate (nonkey decimal number 9999.99
in 1500)
1560* Sampling train temperature (nonkey integer number
9(4) in 1500)
1570* Sampling train pressure (nonkey integer number 9(5)
in 1500)
1580* Percent moisture (nonkey decimal number 99.9 in
1500)
1590* Dilution factor (nonkey decimal number 9(4).9 in
1500)
1600* Measurement size range - lower limit (decimal num-
ber 99.999 in 1500 with many future additions)
1610* Measurement size range - upper limit (decimal num-
ber 99.999 in 1500 with many future additions)
1620* Collection surface/substrate (nonkey text X (55)
in 1500)
1630* Run remark-1 (nonkey text X (65) in 1500)
1631* Run remark-2 (nonkey text X (65) in 1500)
1632* Run remark-3 (nonkey text X (65) in 1500)
1640* Particle diameter basis (integer number 9 in 1500
with many future additions)
June 1978
-------
UG-6.3-8
1645* Concentration basis (integer number 9 in 1500)
1650* Upper diameter boundary (decimal number 9(3).9(3)
in 1500)
1700* Particle size distribution data (EG in 1500)
1710* Diameter boundary (decimal number 9(2).9(3) in 1700
with some future additions)
1715* Calibration/calculation (nonkey integer number 9
in 1700)
1720* Concentration value - mantissa (nonkey decimal number
9.999 in 1700)
1730* Concentration value - exponent (nonkey integer number
99 in 1700)
1800* SAROAD table (RG)
1810* SABDAD number (integer number 9(4) in 1800)
1820* MEG number (name X (6) in 1800)
1830* CAS number (name X (10) in 1800)
1840* Preferred name (nonkey name X (50) in 1800)
1850* Synonyms (BG in 1800)
1851* Other names (nonkey name X (50) in 1850)
1860* Empirical formula (nonkey name X (20) in 1800)
1870* Molecular weight (decimal number 9(4).9(2) in 1800)
1900* Chemical analysis type table (BG)
1910* Chemical analysis code (name X in 1900)
1920* Chemical analysis method (name X (75) in 1900)
June 1978
-------
UG-6.4-1
6.4 Key/Nonkey Data Elements
Data elements in a SYSTEM 2000 data base may be either KEY or MONKEY. This
designation determines whether a particular data element may be accessed
directly or must be qualified by including additional information. KEY
elements may be selected directly; NONKEY elements require qualification
by a KEY element. For example, the data element GENERIC DEVICE TYPE is
KEY and may be used to directly access the data of interest, such as in
the following:
PRINT TEST SERIES NUMBER WHERE GENERIC DEVICE TYPE EQ ESP:
If, however, the data element is NONKEY as in the case of SERIES START
DATE, then qualification will be required:
IF SERIES START DATE GT 1/1/76 THEN PRINT TEST SERIES NUMBER WHERE
NAME OF TESTING GROUP EQ XYZ LABORATORY:
In this case, the KEY element, NAME OF TESTING GROUP, is used to qualify
the request regarding a NONKEY element.
Sections 6.4.1 and 6.4.2 which follow list the KEY and NONKEY data ele-
ments, respectively, along with their SYSTEM 2000 component numbers.
June 1978
-------
UG-6.4-2
6.4.1 KEY Data Elements
Component Number
100
120
130
140
150
160
170
180
190
210
220
310
320
330
355
410
420
440
450
510
520
610
650
660
780
781
782
783
850
1010
1020
1110
Data Element
Source Category
Type of Operation
Feed Material Class
Operating Mode Class
Source Name
Site Name
Zone Location
UTM-X
UTM-Y
City
State
Test Series Number
Test Series Reference
Name of Testing Group
Date FPEIS Entry
Generic Device Type
Device Class
Device Commercial Name
Manufacturer
Device Number
Specification Number 2
Subseries Number
Sampling Location
Sampling Location Description
CO-2
CO
0-2
N-2
Density
Control Device Number
Parameter Number 2
Bioassay Test Type
June 1978
-------
UG-6.4-3
Component Number
1200
1205
1405
1410
1420
1505
1510
1520
1600
1610
1640
1645
1650
1710
1810
1820
1830
1870
1910
1920
Data Element
Chemical Calibration/Calculation
Diameter Basis
Chemical Entry Code
Chemical ID
Analysis Method
Run Number
Measurement Instrument/Method Number
Measurement Instrument/Method Name
Measurement Size Range - Lower Limit
Measurement Size Range - Upper Limit
Particle Diameter Basis
Concentration Basis
Upper Diameter Boundary
Diameter Boundary
SABOAD Number
MEG Number
CAS Number
Molecular Weight
Chemical Analysis Code
Chemical Analysis Method
June 1978
-------
UG-6.4-4
6.4.2 NONKEY Data Elements
Component Number
200
230
340
350
360-369
430
460-461
530
540
620
630
640
670
680
690
700
710
720
730
740
750
760
770
790
800
810
820
830
Data Element
Address
Zip Code
Series Start Date
Series Finish Date
Test Series Remark 1-10
Device Category
Device Description 1 and 2
Specification Type
Specification Value
Subseries Test Date
Subseries Start Time
Subseries Finish Time
Source Operating Mode
Source Operating Rate
Percent Design Capacity
Source Feed Material
Feed Material Composition
Volumetric Flow Rate
Gas Velocity Sampling Location
Gas Temperature Sampling Location
Pressure Sampling Location
Moisture Content
Percent Isokinetic Sampling
Trace Gases in PPM
Mass Train - Total Mass Concentration
Mantissa
Mass Train - Total Mass Concentration
Exponent
Mass Train - Front Half Mass Concentra-
tion Mantissa
Mass Train - Front Half Mass Concentra-
tion Exponent June 1978
-------
UG-6.4-5
Component Number
840
860
870
880
890
900
910-924
1030
1040
1120
1210
1220
1230
1240
1250
1260
1270
1280
1290
1430
1432
1434
1436
1438
1440
1442
1444
1446
Data Element
Mass Train Gorments
Density Determination
Resistivity - Mantissa
Resistivity - Exponent
Resistivity Determination
Physical Properties Comments
Subseries Remark 1-15
Parameter Type
Parameter Value
Bioassay Test Remarks
Upper Boundary Limit
Stage - 1 Limit
Stage - 2 Limit
Stage - 3 Limit
Stage - 4 Limit
Stage - 5 Limit
Stage - 6 Limit
Stage - 7 Limit
Stage - 8 Limit
Filter/Total
Stage - 1
Stage - 2
Stage - 3
Stage - 4
Stage - 5
Stage - 6
Stage - 7
Stage - 8
June 1978
-------
UG-6.4-6
Component Number Data Element
1530 Measurement Start Time
1540 Sampling Period Duration
1550 Sampling Flow Rate
1560 Sampling Train Temperature
1570 Sampling Train Pressure
1580 Percent Moisture
1590 Dilution Factor
1620 Collection Surface/Substrate
1630-1632 Run Remark 1, 2, and 3
1715 Calibration/Calculation
1720 Concentration Value - Mantissa
1730 Concentration Value - Exponent
1840 Preferred Name
1851 Other Names
1860 Empirical Formula
June 1978
-------
UG-6.5-1
6.5 Summary of Contents of the FPEIS Data Base
This section provides a summary of the contents of the FPEIS data base.
As new testing results are added to the FPEIS, this master listing will
be updated.
June 1978
-------
Test Series
No.
•J
00
Report's Author and Name
Testing Equipment
Source
Control Equipment No. of Runs
Harris, D. B., and D. C. Drehroel,
"Fractional Efficiency of Metal
Fume Control as Determined by
Brink Impactor," EPA/CSL
(1973)
Harris, D. B., and D. C. Drehmel,
"Fractional Efficiency of Metal
Fume Control as Determined by
Brink Impactor," EPA/CSL
(1973)
Harris, D. B., and D. C. Drehmel,
"Fractional Efficiency of Metal
Fume Control as Determined by
Brink Impactor," EPA/CSL
(1973)
Harris, D. B., and D. C. Drehmel,
"Fractional Efficiency of Metal
Fume Control as Determined by
Brink Impactor," EPA/CSL
(1973)
Harris, D. B., and D. C. Drehmel,
"Fractional Efficiency of Metal
Fume Control aa Determined by
Brink Impactor," EPA/CSL
(1973)
Statnlck, R. H., "Measurement of
SC*2, Particulate, and Trace
Elements in a Copper Smelter
Converter and Roaster/
Reverberatory Gaa Streams,"
EPA/CSL
Statnick, R. M., "Measurement of
SC-2, Particulate, and Trace .
Elements in a Copper Smelter
Converter and Roaster/
Reverberatory Gas Streams,"
EPA/CSL
Brink lopactor
7,n Roaster
Wet ESP
Brink Impactor
Cu Converter
Wet ESP
Brink Impactor
Zn Sintering
Dry ESP
Brink Impactor
Pb Sintering
Baghouse (Orion)
Brink Impactor
Pb Blast Furnace
Baghouse (wool felt)
Brink and Andersen Impactors
Cu Roaster and Re-
verberatory Furnace
(ASARCO)
Dry ESP (pipe) and
Parallel Type ESP
Brink and Andersen Impactors Cu Converter
Plate Type ESP
ro
-------
Test Series
Ho. -
Report'a Author and Ha
Testing Equipment
Source _ Control Equipment
No. of Runs
I
(t>
h-
NO
00
8 McCain. J. D., and U. B. Smith,
"Lone Star Steel Steam-Hydro
Air Cleaning System Evalua-
tion," EPA-650/2-74-028 (1974)
9 Cooper, D. W., and D. P. Andersen,
"Dynactor Scrubber Evaluation,"
GCA Corporation (1974)
10 Harris, D. B., "Tests Performed
at Celotex Corporation,
Goldaboro, North Carolina
11 Harris, D. B., and J. A. Turner,
"Participate and SO2/SO3 Mea-
surement Around aa Anthracite
Steam Generator Baghouse,"
EPA/CSL (1973)
12 HcKeona, J. D., "Applying Fabric
Filtration to Coal-Fired Indus-
trial Boilers: A Preliminary
Pilot Scale Investigation,"
Envlro-Systems and Research,
Inc. (1974)
13 Cowherd, C. et al., "Hazardous
Emission Characterization of
Utility Boilers," EPA-650/2-
75-066
15 Statnick, R. M., and D. C.
Drehmel, "Fine Partlculate
Control Using SX>2 Scrubbers,"
EPA (1974)
16 Statnick, R. M., and D. C.
Drehmel, "Fine Partlculate
Control Using SOj Scrubbers,"
EPA (1974)
Brink and Andersen Inpactors.
Optical Particle Counter
and Diffusion Battery
Andersen Impactor
Pllat Impactor
Brink Impactor
Andersen lapactor
Brink Impactor
Brink and Andersen Impactors
Brink and Andersen Impactors
Open Hearth Furnace lane Star Steel Stea
Hydro Scrubber
Test Aerosol from
Dust Feeder
Asphalt Roofing
Utility Boiler
Coal-Fired Utility
Boiler
Coal-Fired Utility
Boiler
Dynactor Scrubber
Afterburner
Pulverized Coal-Fired Baghouse
Boiler
Coal-Fired Industrial Baghouse
Boiler
Cyclone
TCA Scrubber
Venturi Scrubber
38
50
0»
•
ISI
I
-------
Test Series
Ho.
I
(D
Report's Author and Name
Testing Equipment
Source
Control Equipment
No. of Runs
17 Statnick, R. M., and D. C.
Drehnel, "Fine Partlculate
Control Using SOj Scrubbers,"
EPA (1974)
18 Riggenbach, J. D., E. D. Johnson,
and M. K. Ramlin, "Measurement
of Particulate Grain Loadings,
Particle Size Distribution, and
Sulfur Gas Concentrations at
Hoerner Waldorf's Pulp and
Papennill No. 3 Recovery Sys-
tem, Vols. I, II, and III, En-
vironmental Science and Engi-
neering, Inc.
19 Shannon, L. J. et al., "St. Louis/
Union Electric Refuse Firing
Demonstration Air Pollution Test
Report"
20 McCain, J. D., "Evaluation of
Aronetics Two-Phase Jet Scrub-
ber," EPA-650/2-74-129
21 Bosch, J. C., M. J. Pilat, and
B. F. Hrutflord, "Size Distri-
bution of Aerosols From a Kraft
Mill Recovery Furnace," Tappl,
54(11):1871 (1971)
22 McCarry, F. J., and C. J.
Gregory, "A Comparison of the
Size Distribution of Partlcu-
lates Emitted from Air, Me-
chanical, and Steam Atomized
Oil-Fired Burners," JAPCA.
22(8):636 (1972)
Brink and Andersen Impactors Oil-Fired Boiler
Brink Impactor
Pulp and Papermill
Recovery Boiler
Venturl MgO Scrubber
ESP
Brink and Andersen Impactors
Brink and Andersen Impactors.
Optical Particle Counter,
Diffusion Battery + CNC
Pilat Impactor
Coal-Fired Utility
Boiler
Ferro-Alloy Electric
Arc Furnace
Kraft Mill Recovery
Furnace
ESP
Aronetics Two-Phase
Jet Scrubber
ESP
26
Andersen Impactor
Air Atomized Oil-Flred ESP
Boiler
Ov
•
Ui
I
•P-
-------
Teat Series
(to.
Report's Author and Name
Testing Equipment
Source
Control Equipment
Ho. of Runs
23 HcCarry, F. J., and C. J.
Gregory, "A Comparison of the
Size Distribution of Partlcu-
lates Emitted from Air, Me-
chanical, and Steam Atomized
Oll-Fired Burners." JAPCA.
22(8) :636 (1972)
Andersen Impactor
Mecnanical Atomized
Oil-Fired Boiler
ESP
I
(D
»-"
vO
«»J
00
24 McGarry, F. J., and C. J.
Gregory, "A Comparison of the
Size Distribution of Partlcu-
lates Emitted from Air, Me-
chanical, and Steam Atomized
Oil- Fired Burners," JAPCA.
22(8) :636 (1972)
25 Lee, R. E., Jr., H. L. Crist,
A. E. Riley, and K. E. MacLeod,
"Concentration and Size of Trace
Metal emissions from a Power
Plant, a Steel Plant, and a Cot-
ton Gin," Env. Sci. and Tech.,
9(7):643 (1975)
26 Lee. R. E., Jr., H. L. Crist.
A. E. Rilejr, and K. E. MacLeod.
"Concentration and Sire of Trace
Metal Emissions from a Power
Plant, A Steel Plant, and a Cot-
ton Gin," Env. Sci. and Tech..
9(7):643 (1975)
27 Lee. R. E., Jr., H. L. Crist.
A. E. Riley, and K. E. MacLeod,
"Concentration and Size of Trace
Metal Emissions from a Power
Plant, a Steel Plant, and a Cot-
ton Gin," Env. Sci. and Tech..
9(7):643 (1975)
Andersen Impactor
Steam Atomized Oll-
Fired Boiler
ESP
UW Mark III Impactor
Emissions from a Power ESP
Plant
Mark III Impactor
Emissions from a Steel
Plant
Baghouse
UW Hark III Impactor
Emissions from a Cot-
ton Gin
Wet Scrubber
/I
a,
-------
Test Series
Mo.
Report's Author and Name
Testing Equipment
Source
I
(D
28 "St. Louis/Union Electric Refuse
Fuel Project," MR1 Project No.
3821-C(4), January 1975
29 "St. Louis/Union Electric Refuse
Fuel Project," HRI Project No.
4033-C, Monthly Report No. I
30 "Test and Evaluation Program for
St. Louis/Union Electric Refuse
Fuel Project," MRI Project No.
4033-C, Monthly Report Mo. 4
31 "Test and Evaluation Program for
St. Louis/Union Electric Refuse
Fuel Project," MRI Project No.
4033-C, Monthly Report Ho. 11
32 Toca, F. M., "Lead and Cadmium
Distribution in the Participate
Effluent from a Coal-Fired
Boiler," Ph.D. Thesis, Uni-
versity of Iowa, Ames, Iowa,
July 1972
33 Baladi, E., "Particle Size Dis-
tribution Testa for Beker In-
dustrie* Corporation," KRI
Project No. 5-1379-C
34 Gooch, J. P., and J. D. McCain,
"Partlculate Collection Effici-
ency Measurements on a Wet
Electrostatic Precipitator,"
EPA-650/2-75-033
35 Bradway, R. M., and R. W. Case,
"Fractional Efficiency of a
Utility Boiler Baghouse," EPA-
600/2-75-013-a
Brink and Andersen Impactors
Brink and Andersen Impactors
Brink and Andersen Impactors
Brink and Andersen Impactors
Andersen Ambient Impactor
Brink Inpactor
Brink and Andersen Impactors.
Optical Particle Counter,
Diffusion Battery, and CN
Counter
Andersen Inpactor
Coal-Fired Utility
Boiler
Coal-Fired Utility
Boiler
Coal-Fired Utility
Boiler
Coal-Fired Utility
Boiler
Coal-Fired Boiler
Control Equipment
ESP
ESP
ESP
ESP
ESP
Ho. of Runs
Phosphate Rock Calciner Venturl Scrubber
Aluminum Reduction
Cells
Coal-Fired Boiler
ESP Preceded by Spray
Towers
Baghouse
67
12
43
19
17
86
J/t
-------
Teat Series
Ho.
Report'a Author and Name
Testing Equipment
36 McKenna, J. D., J. C. Mylock, and
V. 0. Lipscomb, "Applying Fab-
ric Filtration to Coal-Fired
Industrial Boilers," EPA-650/2-
74-05B-a
Andersen Impactor
Source
Coal-Fired Boiler
Control Equipment Mo. of Runs
Baghouse 28
37 McKenna, J. 0., J. C. My lock, and
V. O. Lipscomb, "Applying Fab-
ric Filtration to Coal-Fired
Industrial Boilers," EPA-650/2-
74-058-a
Andersen Impactor
Coal-Fired Boiler
Baghouse
38 McKenna, J. D., J. C. Mylock, and
W. O. Lipscomb, "Applying Fab-
ric Filtration to Coal-Fired
Industrial Boilers," EPA-650/2-
74-058-a
Andersen Impactor
Coal-Fired Boiler
Baghouse
39 McKenna, J. 0., J. C. Mylock, and
W. 0. Llpaconb. "Applying Fab-
ric Filtration to Coal-Fired
Industrial Boilers," EPA-650/2-
74-058-a
40 McKenna, J. D., J. C. Mylock, and
V. 0. Lipscomb, "Applying Fab-
ric Filtration to Coal-Fired
Industrial Boilers," EPA-650/2-
74-058-a
41 McCain, J. D., "Evaluation of
Centrlfield Scrubber," EPA-650/
2-74-129-a
42 Cooper, D. W., "Pentapure Impinger
Evaluation," EPA-650/2-75-024-a
Andersen Impactor
Coal-Fired Boiler
Baghouse
11
Andersen Impactor
Coal-Fired Boiler
Brink and Andersen Inpactors,
Diffuslonal, Optical, and
Electrical Methods
Andersen Impactor
Asphalt Dryer
Gray Iron Foundry
Baghouse
1. Coarse Cyclone
2. Secondary Collector
3 . Scrubber
Pentapure Impinge r
31
12
I
\o
Ol
i
-------
Teat Series
Mo.
Report's Author and Name
Testing Equipment
Source
Control Equipment
No. of Rune
43 Tost. K. J. et al., "The Environ-
mental Flow of Cadmium and
Other Trace Metals," Progress
Report NSF (RANN) Grant CI-
35106. Purdue University, West
Lafayette, Indiana
44 Tost. 1C. J. et al., "The Environ-
mental Flow of Cadmium and
Other Trace Metals," Progress
Report NSF (RAKN) Grant CI-
35106, Purdue University, West
Lafayette, Indiana
Andersen Impactor
Zinc Coke Plant
Andersen Impactor
Zinc Vertical Retort Baghouse
I
•si
00
45 Toat, K. J. et al.. "The Environ-
mental Flow of Cadmium, and
Other Trace Metals," Progress
Report NSF (RANN) Grant GI-
35106,Purdue University, West
Lafayette, Indiana
46 Yost, K. J. et al., "The Environ-
mental Flow of Cadmium and
Other Trace Metals," Progress
Report NSF (RAKN) Grant GI-
35106, Purdue University, West
Lafayettt. Indiana
48 Calvert, S., N. J. Jhaverl, and
S. Tung, "Fine Particle Scrub-
ber Performance Tests," EPA-
650/2-74-O93
49 Calvert, S., N. J. Jhaverl, and
S. Tung, "Fine Particle Scrub-
ber Performance Teats, EPA-
650/2-74-093
Andersen I*pactor
Steel Hill Open Hearth ESP
Furnace
Andersen lapactor
Municipal Incinerator Scrubber
UW Hark II and Andersen
Inpactora
UW Nark III and Andersen
Impactors
Urea Prilling Tower Valve Tray
Potash Dryer
Scrubber
12
17
I
0v
•
m
OD
-------
Tot Series
No.
Report'a Author and Hame
Testing Equipment
Source
Control Equipment
Ho. of Runs
50 Calvert, S., N. J. Jhaverl, and
S. Yung, "Fine Particle Scrub-
ber Performance Tests," EPA-
650/2-74-093
UW Hark III and Andersen
Impactora
Coal-Fired Boiler
TCA Scrubber
51 Calvert, S., N. J. Jhaverl, and
S. Yung, "Fine Particle Scrub-
ber Performance Tests," EPA-
650/2-74-093
UW Mark III and Andersen
Impactora
Coal-Fired Boiler
Venturl Scrubber
52 Calvert, S., N. J. Jhaverl, and
S. Yung, "Fine Particle Scrub-
ber Performance Tests," EPA-
650/2-74-093
UW Hark III and Andersen Salt Dryer
Impactora
Wetted Fiber Scrubber
16
r
A
S3 Calvsrt, S., N. J. Jhaverl, and
S. Yung, "Fin* Particle Scrub-
ber Performance Tests," EPA-
650/2-74-093
54 Calvert, S., H. J. Jhaverl, and
8. Yung, "Fine Particle Scrub-
ber Performance Testa," EPA-
650/2-74-O93
55 Calvirt, S. et ml., EPA-600/2-76-
282
56 EPA Contract No. 68-02-181*.
Bechtel Corporation, Son
Francisco, California
57 EPA Contract Mo. 60-02-1814,
Bechtal Corporation, San
Franclaco. California
58 Hunter, 8. C. et al., EPA Con-
tract Mo. 68-02-1074
UW Mark III and Anderaen
Impactors
UW Mark III and Anderaen
Imp actori
UW Hark III Impactor
MRI Model 1502 and Brink
Impactors
MRI Model 1502 and Brink
Impact on
Brink Impactor
Salt Dryer
Iron Wetting Cupola
Impingement Plate
Scrubber
Venturl Rod Scrubber
Cray Iron Process Wet Scrubber
Coal-Fired Boiler Wet Scrubber
Coal-Fired Boiler Wet Scrubber
Coal-Fired Boiler Rone
12
18
35
101
75
Ok
o>
I
-------
Test Series
No.
59
60
61
62
63
64
65
66
67
68
73
74
e-, 75
g
3
a>
,_,
*o
Report's Author and Name
Hunter, S. C. et al., EPA Con-
tract No. 68-02-1074
Hunter, S. C. et al., EPA Con-
tract No. 68-02-1074
Hunter, S. C. et al., EPA Con-
tract No. 68-02-1074
Hunter, S. C. et al., EPA Con-
tract No. 68-02-1074
Hunter, S. C. et al., EPA Con-
tract No. 68-02-1074
Hunter, S. C. et al., EPA Con-
tract No. 68-02-1074
Hunter, S. C. et al., EPA Con-
tract No. 68-02-1074
Hunter, S. C. et al., EPA Con-
tract No. 68-02-1074
Hunter, S. C. et al., EPA Con-
tract No. 68-02-1074
Ensor, D. S. et al., EPA-600/2-
75-074
Bradway, R. M. et al., EPA-600/
2-76-077A
Bradway. R. M. et al., EPA-600/
2-76-077A
Bradway, R. M. et al., EPA-600/
2-76-077A
Testing Equipment
Brink Impactor
Brink Impactor
Brink Impactor
Brink Impactor
Brink Impactor
.
Brink Impactor
Brink Impactor
Brink Impactor
Brink Impactor
Impactor and Wire Screen
Diffusion Battery
Andersen Impactor
Andersen and UM Mark III
Impactors
Andersen and UM Mark III
Impactors, Rich 100-CNC
Source
Residual OU-Flred
Boiler
Residual 011-Flred
Boiler
Residual Oil-Fired
Boiler
Residual Oil Boiler
Coal-Fired Boiler
Coal-Fired Boiler
Coal-Fired Boiler
Distillate Oil-Fired
Boiler
Residual Oil-Fired
Boiler
Coal-Fired Boiler
Nonclassified Boiler
Nonclassified Boiler
Nonclassified Boiler
Control Equipment No. of Runs
None 5
None 2
None 1
None 3
None 1
None 3
ESP 5
ESP 2
None 2
Wet Scrubber 33
Fabric Filter 38
Fabric Filter 39
Fabric Filter 82
O
1
ON
Ut
1
00
-------
Test Series
No.
Report's Author and Name
Testing Equipment
Source
_Control Equipment _
C-4
g
ffi
76 Cass, R. W., and J. E. Langley,
EPA-600/7-77-023
77
78
79
80
81
82
83
85
86
87
Rei. M. T., and D. W. Cooper,
EPA-600/2-76-202
Dennis. R. et al., EPA-650/2-74-
036
Werner, A. S. et al., EPA-600/7-
76-017
Nichols et al., "Collection Ef-
ficiency on Three ESP's," EPA-
600/2-75-056
Gooch, J. P. et al., SORI-EAS-76-
471, Draft, September 1976
Nichols, G. B. et al., SORI-EAS-
76-511
Gooch, J. f. et al., EPA-600/2-
76-141
Gooch, J. P. et al., EPA-600/2-
76-141
Nichols, G. B., and J. D. McCain,
EPA-600/2-75-056
McCain, J. D., "Evaluation of
Rexnord Gravel Bed Filter,"
EPA-600/2-76-164
UW Hark III and Andersen
Impactors, Rich 100-CNC,
Bauach and bomb Model
OPC
Andersen Impactor, Bauscn
and Lomb Model OPC, Rich
100-CNC
Andersen Impactor
UN Mark III Impactor
Brink Impactor, Other CCNC,
Andersen Impactor, ROYCO
Model OPC
Brink Inpactor, Whitby Elec-
trical Analyzer 3030,
Andersen Impactor
Brink Inpactor
Brink Impactor, Whitby Elec-
trical Analyzer Model 3030
Brink and UW Mark II
Impactors
Brink and Andersen Impactors
Electric Arc Furnace Fabric Filter
Laboratory Analysis Wet Scrubber
Prototype Test
Novel
Residual Oil Boiler Cyclone
Rotary Kiln in Cement ESP
Manufacture
Coal-Fired Boiler ESP
Copper Smelter ESP
Sulfate Pulping ESP
Sulfate Pulping ESP
Unclassified Boiler ESP
Andersen Impactor, Other CNC Clinker Cooler in Novel
Cement Manufacture
No. of Runs
332
52
32
22
Harriaburg Municipal Incinerator Brink and Andersen Impactors Solid Waste Incinerator ESP
23
13
12
49
10
f
00
-------
§
n
vO
00
Test Series
No.
88
89
90
91
98
99
100
101
10Z
103
104
105
106
Report's Author and Name
McCain, J. II., SORI-EAS-73-052
Gooch, J. P., and G. B. Nichols,
SORI-F.AS-77-098
EPA Contract No. 68-02-1869
EPA Contract No. 68-02-1869
Monsanto Research Corporation,
EPA Contract No. 68-02-1816
Monsanto Research Corporation,
EPA Contract No. 68-02-1816
Monsanto Research Corporation,
EPA Contract No. 68-02-1816
Monsanto Research Corporation,
EPA Contract No. 68-02-1816
Monsanto Research Corporation,
EPA Contract No. 68-02-1816
Monsanto Research Corporation,
EPA Contract No. 68-O2-1816
Monsanto Research Corporation,
EPA Contract No. 68-02-1816
Monsanto Research Corporation,
EPA Contract No. 68-02-1816
Monsanto Research Corporation,
EPA Contract No. 68-02-1816
Testing Equipment
Other
Brink and Andersen Impacfovs,
Wliitby Electrlr.il Analyzer
Model 3030
UW Mark III Impactor
IIW Mark III Inpactor, Wire
Screen Diffusion Battery
Brink Impactor
Brink Impactor
Andersen Impactor
Brink Irapactor
Brink Irapactor
Brink Irapactor
Brink Irapactor
Brink Irapactor
Andersen Inpactor
Ceramic/Clay Dryer
Coal-Fired Boiler
ControJ__B
-------
Test Series
No.
Report's Author and Na
Testing Equipment^
Source
n>
vO
-J
00
107 Monsanto Research Corporation,
EPA Contract No. 68-02-1816
108 TRC
109 TRC
110 TRC
111 TRC
112 Coal and Refuse Test, SORI-EAS-
75-316
113 Confidential
114 McCain, J. D., and W. B. Smith,
Final Report, SORI-EAS-74-158
115 McCain, J. D. et al., SORI-EAS-
74-418 and SORI-EAS-75-062
116 Bird, A. N., SORI-EAS-73-124
117 Bird, A. N., SORI-EAS-73-200
118 Nichols, G. B., SORI-EAS-74-009
119 Nichols, G. B., Company Cor-
respondence, A1402-3005-IF
120 Nichols, G. B.. and J. D. McCain.
EPA-600/2-75-056
121 Nichols, G. B., and J. P. Cooch,
A1364-2975
Brink Impaotor
Sierra Impactor, Optical
Particle Counter
Sierra Impactor
Andersen Impactor
Sierra Impactor, Optical
Particle Counter
Andersen and Other Inpactor
Brink Impactor
Andersen Inpactor
Lime-Recovery Kiln
Coke-Gas Boiler
Bark-Fired Boiler
Incinerator
Coal-Fired Boiler
Solid Wastes Coal-
Fired Boiler
Steel Foundry
Unclassified Boiler
Andersen and Other Impactors, Coal-Fired Boiler
Other OPC
Brink Iropactor
Coal-Fired Boiler
Brink Impactor, Climet CMC, Steel Foundry
Other CNC
Brink and Andersen Impactors Unclassified Boiler
Brink Impactor Unclassified Boiler
Andersen and Other Impactors Unclassified Boiler
Brink Impactor
Unclassified Boiler
Conit ro 1_ Et^u I proo in
Mobile Fabric M I tor
None
Baghouse
Other
Cyclone
ESP
Mechanical Collector
Cyclone
ESP
Wet Scrubber
Hone
ESP
ESP
ESP
ESP
Ho. of Runs
12
9
2
20
52
7
7
69
12
8
10
6
24
10
I
«
Ol
I
I-1
UJ
-------
Test Series
No.
Report's Author and Name
Testing Equipment
Source
123 McCain, J. D., SORI-EAS-73-127
124 McCain, J. D., SORI-EAS-73-127
127 Dlsmukes, E., SORI-EAS-75-311,
EPA-600/2-75-015
128 Dismukes, E., SORI-EAS-75-311,
EPA-600/2-75-015
Modified Brink Impactor
Modified Brink Impactor
Andersen trapactor, Other CNC
Modified Brink and Andersen
Impactors
Other/Not Classified
Mineral Wool Cupola
Unclassifed Boiler
Unclassified Boiler
_ Control Equlpmcnt
Cyclone
Cyclone
ESP
ESP
No. of Runs
8
6
15
47
I
(D
5
00
I
I-1
•p>
-------
UG-6.5-15
1. REPORT NO. 2.
EPA-600/8-7 8-006
4, TITLE AND SUBTITLE
Fine Particle Emissions Information System
User Guide
7. AUTHOR(S)
M.P. Schrag, Editor
9. PERFORMING ORGANIZATION NAME ANO ADDRESS
Midwest Research Institute
425 Volker Boulevard
Kansas City, Missouri 64110
12, SPONSORING AGENCY NAME AND ADDRESS
EPA, Office of Research and Development
Industrial Environmental Research Laboratory
Research Triangle Park, NC 27711
. RECIPIENT'S ACCESSION NO,
6. REPORT DATE
June 1978
8. PERFORMING ORGANIZATION CODE
8. PERFORMING ORGANIZATION REPORT NO.
10. PROGRAM ELEMENT NO.
EHE624A
11. CONTRACTA3RANT NO.
68-02-2641
13. TYPE OF REPORT AND.PERIOO COVERED
User Guidej 1-5/78
14. SPONSORING AGENCY COOt
EPA/600 /13
is. SUPPLEMENTARY NOTES jfiRL-RTP project officer is Gary L. Johnson, Mail Drop 63. 919/
541-2745. This Guide replaces EPA-600/2-76-172 in its entirety.
is. ABSTRACT The j^p^ jg y^ extensive user guide to the Fine Particle Emissions Infor-
mation System (FPEIS), a computerized database on primary fine particle emissions
TECHNICAL REPORT DATA
(Please read Instructions on the reverse before completing)
:o the atmosphere from stationary point sources. The FPEIS is a component of the
Environmental Assessment Data Systems (EADS) which is designed to aid research-
ers in environmental assessment and fine particle control technology development
activities. The FPEIS will contain source test data including particle size distribu-
tions; chemical, physical, and bioassay testing results performed on particulate
samples; design and typical operating data on particle control systems applied; pro-
cess descriptions of the sources; and descriptions of the sampling equipment and
techniques employed. The FPEIS, a successor to the MRI Fine Particle Inventory
developed in 1971, report gives detailed instructions for encoding FPEIS datasets,
along with a copy of the FPEIS data input form, ft discusses procedures which will
provide users with access to the FPEIS either by direct computer request for author-
ized National Computer Center (NCC) accounts or by written request to the EPA
project officer. It gives a list of standard data inquiry and retrieval requests, with
instructions for their use.
7.
KEY WORDS AND DOCUMENT ANALYSIS
a. DESCRIPTORS
Air Pollution Environmental
Instructions Biology
Dust
Data Storage
Sampling
Size Determination
1S. DISTRIBUTION STATEMENT
Unlimited
b.lDENTIFIERS/OPEN ENDED TERMS
Air Pollution Control
Stationary Sources
User Guide
Fine Particle Emissions
Information System
Fine Particulate
19. SECURITY CLASS (This Rtportf
Unclassified
20. SECURITY CLASS (Thb page)
Unclassified
c. COSATi Field/Group
13B
06F
11G
09B,05B
14B
21. NO. OF PAGES
301
22. PRICE
EPA Form 2220-1 (9-73)
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