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ORNL-5711
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The Bold Venture Computation System for Nuclear Reactor Core Analysis, Version III
D. R. Vondy T. B. Fowler G. W. Cunningham III
V W"" MTNWJIMIF MS NCHKiT ft MOTH 111
CONTENTS
PAGE ABSTRACT vl I. INTRODUCTION 1 II. SOME APPLICATION CONSIDERATIONS 2 A. CONSISTENCY 3 B. ACCURACY 4 C. BLACK BOXES . 4 D. NEUTRONICS. 4 E. EXPOSURE 5 III. COMPUTATICil SYSTEM 6 IV. CONTROL NODULE 8 V. INTERFACE DATA FILES 14 A. FILES REQUIRED BY THE MODULES 14 B. THE FILE ,CONTRL' 16 C. STANDARD FILES 17 D. NEWLY DEFINED FILES 17 E. FILE VERSION NUMBERS. 17 F. COMMENTS ABOUT THE FILES 20 VI. INPUT DATA PROCESSOR. 22 A. FILE AND RECORD CONTROL CARDS 26 1. File Control Cards - nVFILEID 26 2. Record Type Control Cards - nD 27 3. STOP Card ..27 4. FLAG Card 27 B. DATA FIELDS 28 1. Allowable Data Form 28 a. Numeric Word* . 28 b. Hollerith Words 29 2. Card Structure •.•••••3D 3. Control Options ...... 30 a. Repeat Option ,30 b. Skip Option 31 c. Interpolation Option...... 31 d. Section Repeat Option ..... 31 IV
contents (con't) PAGE
C. COMMENTS 32 VII. FILE EDITOR 33 VIII. SPECIAL PROCESSORS 33 A. DVENTR 36 B. DCRSPR 61 C. DMTLIN 66 D. DCMACR 67 E. DENKAN 68 F. DMISLY 72 IX. JOB CONTROL INSTRUCTIONS 76 A. THE CATALOG PROCEDURE 76 B. USER SUPPLIED JOB CONTROL INSTRUCTIONS 76 C. PROBLEM DEPENDENT DATA FILE PARAMETERS 82 X. SUPER SAMPLE PROBLEM 84 XI. RECENT EXTENSIONS , 128 A. VENTURE NEUTRONICS, VERSION III . 128 1. The Uncommon Reactor Core Neutronlcs Problem . . 128 2. Space-energy Rebalance 131 3. Other Extensions 133 4. Equilibrium Xenon 135 B. PERTUBAT PERTURBATION ANALYSIS 135 C. TEMPERATURE CORRELATION 137 D. SPECIAL MODULES 137 REFERENCES 138 APPENDIX A A-l APPENDIX B B-l APPENDIX C C-l V
LIST OF FIGURES
Figure Page
1. Components of the Computation System 7 2. User Input Instructions to the Control Nodule 9 3. Interface Data Files Required . . 14 4. Files Milch Can be Generated by the Input Processor. ... 24 5. The Catalog Procedure 78 5. User Supplied Job Control Instructions 81 7. Determining the Values of L, N, and B 83 8. Cross Section Through Core Assemblies 85 9. Zone Placement 86 10. Transmutation Scheme 87 11. Module Accesses and Results 88 12. Input For Super Sample Problem 90 13. Selected Output From Super Sample Problem 103 14. Eigenvalue Separation for the Dominant Harmonics 130 A.l. Input For VENTURE Storage Requirements *-2 A.2. Edit for Sample CalculatIon-VENTURE Storage Requirements . A-4 A.3. Input For BURNER Storage Requirements A-7 A.4. Edit For Sample Calculatlon-BURNER Storage Requirements. . A-10 B.l. JCL Required to Create the System B-? C.l. Interface File CONTRL C-2 C.2. Correspondence of Data: DYENTR-DTNINS ...... C-51 C.3. Standard Files C-53 C.4. Newly Defined Files C-101 vi
ABSTRACT
This report is a condensed docunentatiorv for VERSION III of the BOLD VENTURE COMPUTATION SYSTEM for nuclear reactor core analysis. An experienced analyst should be able to use this systea routinely for solving probleas by referring to this docuaent. Individual reports aust be referenced for details. This report covers basic Input instructions and describes recent extensions to the aodules as well as to the interface data file specifications. Soae application con siderations are discussed and an elaborate saaple problea is used as an Instruction aid. Instructions for creating the systea on IBM coa- puters are also given. 1
I. INTRODUCTION
The BOLD VENTURE COMPUTATION SYSTEM2 for nuclear reactor core ana- lysis Is a Modular system In which Individual Modules are accessed In a desired sequence by a CONTROL Module. Each Module reads Interface data files which Hay have been written ay other Modules In the system, or supplied externally to the run. Except for the Input data pro cessor and special Modules, no Input data are read froM cards. The Input oata processor reads free forn card Input In a one-to-one correspondence with the Interface data file specifications and writes the files in binary form for use by the other MDtales. Special Modules read fixed forw card Input data for direct use or to create additional files.
Individual reports documenting the Modules1'8 and the system have been published. With continuing extension of the Modules to enhance the capability has cone the need to extend the Interface data file specifications. We have found Increasing need for a compact set of user Input data Instructions and Interface data file specifications. Basic data requirements are collected here for this computation system. We do run the risk of Inconsistencies with duplicate publication. The reader 1s to assume that the document having the rest recent date Is accurate and supersedes any earlier publication. We expect never to hear the end of any discrepancy that nay have crept through. The following sections address some of the application requirements, present Input data requirements, define the Interface data file contents, address control, show an elaborate sanple problem, and describe recent extensions. Oata storage requirements for the VENTURE neutronlcs and BURNER exposure codes an discussed In Appendix A. Creation of a computation system from compiled routines on an IBM or equivalent computer Is discussed 1n Appendix B. aTh1$ system of codes was previously nt§rrtd to as VENTURE (versions I and II). Thp VENTURE ruaitronlcs nodule Is but one of the mny nodules which comprise the system. ! iI
i I 2
II. SOKE APPLICATION CONSIDERATIONS The experienced analyst needs no special instructions for appli cation in a familiar area. The novice is beyond help, lie try here to help the experienced user by pointing out certain requirements. That •ay not be obvious if the application is in a new area. He recommend that the novice be allowed or be instructed to solve a large number and wide variety of siaple and inexpensive problem to gain familiarization.
If a high level of reliability is to be placed ir» calculated results, then attention aust be paid to the following aspects: is the 1. Physical theory adequate 2. Mathematical representation of the theory adequate 3. Error associated with numerical approximations and discretizations acceptable 4. Modeling adequate 5. Problem description defining the intended problem 6. Problem solved the one Intended 7. Data transaitted and processed properly 8. Proper selection aade from among paralleled procedures 9. Error associated with termination of iterative procedures acceptable 10. Result realistic He believe that the codes in this system can be used to produce results that have a high level of reliability. The system members have been subjected to extensive verification tests. Still this does not ensure either that they are entirely error free, especiclly when auxiliary results are produced, or that the user Instructions may not be misinterpreted. You will be using that verlson of each code having the highest available level of quality assurance, along with others In the user community, not some other version.
The codes In this system Individually and collectively have been qualified for nuclear reactor core analysis over a broad range of application. Still large voids can generally not be modeled 3 accurately with diffusion theory, ami if jou tell the exposure code not to consume U235 fuel, it won't and the results will not be correct. The large amount of freedom allowed in describing core analysis problems was deemed necessary in the local environment of broad application. The result is a trcnendous amount of capability. However, the impact on the analyst is quite severe. It is essential in a specific area of application for the user(s) to establish viable decks of input data. Special attention must be paid to the geometric description, to the coupled nuclide chain descriptions, to everythioq. Quite generally a viable data deck must evolve that is known to produce reliable results. It applies the proper boundary conditions, assigns materials correctly, describes such aspects as depletion and fuel management accurately, etc. Key results may be adjusted by bias factors developed from a comparison of calculated results with experimental results.
And then there is the cross section data. We note that expertise in this area comes only from experience. No advice is offered here deliberately to avoid creating the impression that the difficulties are less than they really are.
A. CONSISTENCY To some extent many of these codes are forced to be consistent. They use and Interpret most of the input data the same way. A notable exception is the correlation of microscopic cross sections on local temperature that must be specified in each of the Instructions to the individual codes and is not available in the perturbation code (except In a macroscopic sense). The continuous fueling model assumes that the fuel moves from zone n to n + 1 starting with n - 1, and subzone m to m + 1 starting with m « 1, Obviously a problem could be described that was physi cally Impossible. 4
The available thermal hydraulics model assumes coolant flow along increasing mesh number (j = 1 at top to j = J^x at bottom). A ver tical traverse of the reactor might go up or down without altering the neutronics, but the top and the bottom might be incorrectly reversed for the thermal hydraulics, their locations depending on the direction of coolant flow, down or up.
B. ACCURACY Quite generally the accuracy %.. 1 calculation has been carefully considered and factored into the development of these codes. Double precision arithmetic (rather than IBM half-precision) has been used extensively to avoid serious loss of significance, not everywhere and not in basic data interfacing, but in iterative and series calcula tions where hexadecimal rounding to less than six digit decimal accuracy can be serious. The user is advised to heed warnings about reliability and become familiar with the available reliability tests and especially the Implications of reported estimates of absolute accuracy. A part of the cost of a computer run is devoted to reliability testing that can not be avoided by the user, so he should see that this investment pays dividends.
C. BLACK BOXES The major computer codes in this system must be used as black boxes. The FORTRAN listings are available, but the task of familiari zation with the complicated procedures is so formidable that it could not be undertaken lightly. So the codes must be used without a detailed understanding of the contents. This does not free the user from the essential responsibility of satisfying himself that a reliable solution was obtained to the problem he Intended to solve.
0. NEUTRONICS There Is the strange belief In the Industry that the value of keff my •* determined for a reactor core within at least 0.5 percent. 5
The fact is that the result of any calculation will be a value
Vlf
(kkeff eliminated because it is expected that keff * 1- Effort within a pro ject must narrow down any discrepancy to an acceptable level. Only by careful and systematic analysis can the requirements for accurate ana lysis be established. There is no way that code developers can deter mine that the data presented is garbage. Oh, a reflected boundary condition at r = 0 wLy be required for the radial coordinate, but for the axial coordinate the appropriate boundaries may be extrapolated or reflected or a combination, and if a combina'iop they may be improp erly reversed. It is not uncommon to find that a nuclide density or other datum as specified is in error by a factor of 10. How crucial are the expo nents of input data! Cross sections are often in error by orders of magnitude. Me recommend independent checking, and it should be a requirement when high reliability is needed. In solving the usual core neutronics problem we generally use only equations and procedures that produce positive neutron flux values. This avoids the serious uncertainty associated with the results when some flux values are negative. For the unusual core neutronics problems that involve negative flux values, reliability of a solution Is not so easy to test and a greater burden falls on the ana lyst In proving that the results are reliable. E. EXPOSURE The user Is reminded that only the descriptions specified will be treated. If the iron 1s to be consumed and the transmutation products followed, then these nuclide chains must be described and the necessary data such as the (n, Y) capture cross section be made available. 6 237 237 237 Consider that Np 1s a product of U decay, and U is generated by U236 capture and the (n, 2n) reaction In U238. Quite generally the full set of contributing nuclides is not treated in core exposure calculations, usually only those that have significant reac tivity effects plus any specific transmutation products of interest. We don't usually treat 1,000 fission product nuclides in 100,000 locations, but more likely 20 nuclides involving pseudo represen tations in perhaps 1,000 locations. Considerable data processing is required ahead of multi-dimensional analysis to constrain the com putational costs to within reason. The capability for such processing may not be entirely adequate and essential compromises reduce the reliability of end results. III. COMPUTATION SYSTEM Components of the computational system are shown in Figure 1. The system includes a driver program which is resident in computer memory, a control module, an input data processor, a file editor, com putational modules, and special modules that don't completely satisfy the system requirements for full membership. When the control module is first accessed by the driver, it reads input data as shown in Figure 2. Thereafter, the control module instructs the driver to access one or more modules in order before it re-accesses the control module for more instructions. Full control always returns to the control module. None of the full member computational modules read input data. They read pre-defined interface data files that were written by other modules or made available from outside of the system. The Input data processor reads free form card input in a one-to-one correspondence with the Interface file specifications and writes binary files for use by the other modules. The special processors DVENTR, DCRSPR, DUTLIN, DMISLY, and DENMAN read fixed format card Input data and write certain of the interface data files for use by the modules;w these may be used aAny of the interface files can be produced directly with the Input data processor, but In most cases these special modules read data In more straight forward manner and produce the needed Interface files. OOPEIWOOUHS 0 -| wwnr p»TAmoccgo»r © OVENTR © © •{zzzzzzzzzz: © •{zzzzzzzzzz:: OCMACft © -1 cwog SECTWW mocuum | © •1 VCWTUWI HeUTMOMC* | © •{ VAlTTMAN © -| WMCTIOIIIUTC | © •{ZZZZZZZZZZ] © ^ win i?*i'f5<^» Z Z Z J © -I CONTWOt WOO fOBTlOW | ® © •{zzzzzzzzzz:: © -j flWTUIWMTlOW \ © J FUC i MwJjbfMfWTTicowowict^ OMIftV © -£TMMML HVO*WUCI~ Z Z J © SHOOK Dtwwm VTHCH MODULI* MAV M UMO WWOB TO OR AfTM THf UOf 0» TMM) OHM Figure 1. Components of the Computation System 8 Initially before any calculation Is done and may also used during a calculation to Modify the data or Instructions between executions of computational nodules. The input data strew Mist contain a block of data for the input data processor each tine it is called. Likewise each time one of the special processors (2 or 99 in the path instructions) is called, a block of data must be available for use. Each block of input data requires a Special header card and a terminating END card. A look- ahead capability is incorporated in the control nodule procedure that causes termination if a readable block of input data is not available for the next requirement. Thus, there must be consistency between the ordered Input data and the module execution path list. If a special processor is included in the nest of a repeating loop, then as many input data blocks must be supplied for it as there are entries in the expanded table. Note that an input data block defines the special processor to be executed by its header record. Those accessed by path entry 2 are fundamentally different from those accessed by path entry 99 because the former are high QA modules using confidential address names. If the user is to add his own module(s) (with concatenation) to this system (path entry 99), special care cust be exercised to protect the interface data files and any data files supplied if they are to be viable after executing the new module. The use of separate data sets for such special modules with concatenation 1s essential to insure high (JA of the system. Anyone messing around with the data set con taining these codes can expect to become IV. CONTROL NODULE The control module "C0NTR0L1" performs certain initialization and wrap up tasks and carries out the role of directing the resident driver to execute the code modules along a path predescribed by input data. Input instructions w% shown In Figure 2. 9 Figure 2. User Input Instructions to Control Nodule 'CONTROL1' Card COlUMIS Reference Typical Number mpme Entry Use (Fomat) 1 Precedes control nodule 1 name 1 2-9 - CONTROLl Control nodule nam* 2 {MS) TITLE The run title card 3 1-6 IP1 090000 Primary •awry allocation for data (040000)° 3 7-12 IP2 0 Reserved 3 13-18 IP3 0 Reserved ? 19-24 IP4 0 Override data block size for direct access flies (4-byte words) 3 25-30 IP5 10 Processor tine allowed to be used before wrap-up procedures are executed by the control nodule (Bin); nust be less than allowed In the job control Instructions, If > 0 31-36 IP6 50 Ditto 1000 Input/Output requests if > 0 37-42 IP7 Additional Input Is Included to present Inter face data file Information, If > 0 43-48 IP8 A Mduie number. Data flits will be saved after etch access of nodule numbered IPS (set footnote "h" 1*1 3 49-54 IP9 Reserved 3 55-57 IP10 0 3 58-60 IP11 0 10 Figure 2 (con't) Card ColuMis Reference Typical Number (Format) Name Entry Use 3 61-63 IP12 1 Initial Interface data file table initialization option 0 - Use SEEK default table (sets up 15 including CONTRL as the firstp >0 - Set up this many from the list of which CONTRL is the first 3 64-66 IP13 0 Option on reinitialization of interface data file tables for any subsequent access of the input processor after the first 0 - No action (leave as is) >0 - Retail this many (plus CONTRL) 3 67-69 IP14 0 Edit level for control aodule, primarily for debugging if > 0 3 70-72 IP15* 0 PriMry termination options 0 - No action 1 - Save data files only upon successful completion before termination, per Instructions 2 - Save data files as possible before ter mination only If the first code module access completed successfully, per Instructions 4 (2413) M(I) String of Integers presenting the cone module numbers to define the calculatlonal path, terminating with a blank entry, limited to 900 entries. These numbers and trie corresponding modules »ro shown In Fig. 1. Any member special pro cessor Is accessed by the number 2 or others added 1n local application by 99. A loop over a substring of two or more code modules 1s defined by a negative entry which Is the number of 11 Figure 2 (con't) Card Columns Reference Typical number (Format) Name Entry lfce_ previous entries included in the loop and the next entry is the nuaber of passes through the loop; additional accesses May be specified in the path after these two entries which define the loop. Note that user input data Mist nonaally be processed requiring that the input processor or a special processor or both be accessed. Prior to access ing a code Module. A loop May contain as the first Module the input processor or a special pro cessor to describe a basic Multiple case run. Care must be taken in the arrangeaent of the user input data to satisfy input processor and spe cial processor requirements con sistent with these instructions and under restrictions defined elsewhere. (Note: Input to the control Module ends here unless IP7 > 0) 5+ (9(2x,A6)) H(I) lhis is a string of interface data file naaes presented in sets (sub-strings) of names for five different purposes. Termination of each set of names Is with a blank 8 column field or an entry 'X' in the last coluMn of a separating 8 column field, United to 72 entries (8 cards). Purposes of each of the sets is as follows: Set* Use Names of files Made available to be used as supplied from a previous run (normally on disk), reference data added to the data file wenaatwunt tables before any other action is taken. 12 Figure 2 (con't) C^rd Colurns Reference Typical (Format) Name Entry Use 2s Names of files to be retrieved fro* the stacked files made available on a user data set, done before any nodule access, extends the daw file Manage ment tables. 3f names of existing files (after any retrieval) for which copies are to be made, thus creating new and therefore Multiple versions, with the copies becoming the latest versfon available for use. 4? Namrs of files to be stacked on a user stack data set at wrap- up tine at the end of a run, generally requires successful completion and wrap-up by the control nodule. 5* Names of files to be stacked on a user stack data set after each access of the Module num bered | IPS | - (next (A3) - END Normal data block terminator card required (The user Input data stream continues with data as required in order of access of modules requiring Input data; generally each block of data requires a header card and a terminator END card). •Ron-zero defauU values shown for entry of zero. *These files are COICTRUlO), GRUPXS(ll), GE0DST(12), NDXSRF(13), ZRATDH(14 , SEARCH(15), RSTRTRU6), RTFLUXQ7), ATFLUX(18), R2FLUX(19), PM)INT(20), CXSPRR(30), IS0TXSJ31), IS0TXS(32), and FIXSRC(33), where the numbers In parenthesis are the logical unit numbers assigned to the files. 'Not implemented in the early version. 13 Footnotes (con't) <*Rote: For the first two sets of file names, IP2- should usually be 1; assignment of unit numbers is in increasing order starting with the first set beginning Kith unit 11 (unit 11-20, then 30-39, then 70+). «A user stack data set may be either a disk partitioned data set (POS) or a tape. Data definition (00) cards describing the stack data sets must be supplied having special ddnames. These special donates nay be READSTKA, RITESTKA, READSTKB, and RITESTKB. The data control block (DCB) parameter of the 00 cards should not be included. The stack data set from which files are to be retrieved must have the special ddname READSTKA or READSTKB, and oust contain all files listed. Retrieval of cr.'iy one version of a file will be of the first file appearing on the data set having that name, and it trill become the latest version for the run (unless a copy is made by additional instructions). If a file name appears more than once in the list, then more than on»» version Is to be retrieved and all versions requested must exist on the stack data set. If the stack data set to be read has the ddname READSTKA, it is assumed that the first appearance of a particular file on the data set is to be the latest version for this run, the second appearance of that file the next- to-latest version, etc. (see footnote "g"), and the file versions will be set up in that order for the run. If the stack data set to be read has the ddname READSTKB, then it is assumed that the first appearance of a par ticular file on the data set is to be the oldest verison, the second appearance of that file the next-to-oldest version, and the last appearance the version (see footnote "h"), and file versions will be set up In that order for the run. Provision has been made for retrieving a particular file. If the 2X field of the list contains an 12 integer N, then the Ntn appearance of that file name (not version number) Is retrieved. Care should be exercised in specifying the order of appearance of files to be retrieved (from READSTKA or READSTKB) to effect the desired version number association for the run. For retrieving files from a user stack data set, the DCB parameters for the I/O units that will be written must be the same as the KB parameters of toe I/O units from which the files were saved on the user stack data set. /riles listed here (latest version only) will be written on and then read from the stack data set having the special ddname RITESTKA If defined In the job control language (JCL), thus destroying any files that existed on this file. If this data set Is not defined, then the data set with the ddname READSTKA will be used. Repeating a name causes another version of the same file to become available, etc. TFIles listed here will be written on the stack data set with ddname RITESTKA If It Is defined, or READSTKA If not (see "/" above about destroying existing files). If a file name appears more than once 1n the list, a different version of the file must exist for each appearance of 14 Footnotes (con't) that name. The latest version of the file will be written first, the next-to-latest version written next, etc. For later retrieval of Tiles fro* this data set, It must be redefined as READSTKA to preserve the correct ordering of version mmbers. h Files listed here (latest version only) will be written on the stack data set having ddname RITESTKB if it is defined, or READSTKB if not. If this data set is a disk POS, the disposition parameter of the DO card oust not be atSP=NEM (the data set should have previously been created). If IP8>0, this data set will be re-written after each access of the nodule nuMbered IP8 destroying the files previously written. If IP8<0, the files will lie stacked one after the other, saving all files. Note that in this case, tte oldest version of the files is written first, the next-oldest version" written second, etc., and the latest version written last. This is in the reverse order to the way files are wr.cten at wrap-up. For later retrieval of files from this data set, it must be re-defined as READSTKB to preserve the correct ordering of version numbers. V. INTERFACE DATA FILES A. FIL^S REQUIRED BY THE HOOULES Figure 3 shows the files required by the Modules in the computation system. These files are listed in Appendix C. The file CONTRL Is unique in that it contains global information about an entire run and one record of control instructions that is read by each computational module. The association between the name of this record and the module 1s shown in the figure. The special processors DVENTR, DCRSPR, and DUTLIN write a record on the CONTRL file (see SPECIAL PROCESSORS below). Figure 3. Interface Data Files Required Name of Required Written Record in on on Module Number File CONTRL Required Option Option Reference CONTROL PROINS (Any) (Any) 1 DVRINS INPUT PROCESSOR 1 (Any) (Any) 1,8 FILE EDITOR 3 FPRINT (Any) 1.8 15 Figure 3. (cun't) Ham as Required Written Record in on -MI Module File COttTRL Required Option tytion Reference CROSS SECTION PROCESSOR 6 XCPINS CSXPRR GRUPXS GRUPXS Z ISOTXS ISOTXS VENTURE NEUTRONICS 7 DTNINS GEODST RTFLUX RTFLUX0 2 NDXSRF ATFLUX ATFLUX ZNATDN RZFLUX RZFLUX GRUPXS FIXSRC FIXSRC RSTRTR RSTRTR SEARCH PNDINT ZNTEK? PERTUB FISSOR ZNPOMD GEODST VALE NEUTRONICS 8 Sanes as VENTURE except TRIGOH is 10 required instead of GEODST REACTION RATE RRTINS NDXSRF GEODSTf 2 ZNATDN TRIGOM* GRUPXS ZNTEHP RZFLUX PERTUB CONTROL ROD POSITIONING 12 RODINS ROCSET ZNATDN* GEODST YNATDN NDXSRF ZNATDN YNATDIP EXPOSURE 13 EXP INS EXPOSE PTATDN PTATDN NDXSRF ZNTENP QNATDN ZNATDN GEODSTf ZNATDN GRUPXS TRIGOPP ZNPOWD RZFLUX EXPOHT EXPOHT* CFHIST CFHIST* RTFLUX PERTURBATION 15 PERINS GEODST PERTUB PERTUB NDXSRF RTFLUX ZNATDN ATFLUX 6RUPXS ZNTEMT DLAYXS* FUEL MANAGr *NT and ECONOMICS 19 REFINS REFUEL NASBAL MASBAL 11 NDXSRF FNATDN ZNATDN QNATDN 16 Figure 3 (con't) as Required Written Record In an an Nodule Number File CONTRL Required Option Option Reference THERMAL HYDRAULICS 20 PBLINS 12 DVENTR 2 DTMNS GEODST6 4 NDXSRF* ZNATDN* SEARCH DCRSPR 2 XCPINS CXSPRRC 4 DUTLIN 2 (Any) 4 DCHACR 2 4 DHISLY 99 RTFLUX RTFLUX 4 ATFLUX ATFLUX GEOOST GEODST DENHAN 99 NDXSRF NDXSRF 4 ZNATDN ZNATDN QNATDN SEARCH «Hay be created If It does not exist *W111 be used If It exists "Always written <*H111 be created if It does not exist B. THE FILE •CONTRL• Figure CI describes the file 'CONTRL1 with global Information records and a record of Information for each computational module. Each true member computational module reads Its record of Instructions from this file each time It Is accessed and many of them also use the global data. Revised Instructions may be supplied using the special processor DUTLIN at any predetermined point along the calculatlonal path (between module access).0 Thus In sowing the dominant harmonics problem, for example, it would be normal practice to Instruct tfc * This file Is created Inl 'ally by the control module and generally the Individual records for te modules are added by the special Input modules. 17 VENTURE neutronlcs nodule to solve the regular and adjoint problens for a reference state, and then provide revised instruction (via DUTLIN) for a second access of VENTURE to solve the doninant hamonic problea. Figure C.2 presents a correspondence list of data fron the VENTURE neutronlcs record DTNINS and the special processor DVENTR input ac tions 001 and 002 (see Section VIII below), which writes this record on CONTRL. Some of the data have not yet been defined leaving It available for future use. C. STANDARD FILES Figure C.3 lists the standard interface data files.8 These are the files ISOTXS, GRUPXS, GEODST, NDXSRF, ZNATDN, RTFLUX, ATFLUX, RZFLUX, FIXSRC, SEARCH, DLAYXS, PWDINT, CXSPRR, onu FPRINT. The files RTFLUX, ATFLUX, RZFLUX, FIXSRC, and SEARCH have been altered as Indicated by an asterisk dash (*-) at the end of the card. D. NEWLY DEFINED FILES The files that have been defined locally expanding the set are shown in Figure C.4. These are the files EXPOSE, EXPOHT, CFHIST, PTATDN, QNATDN, ZNTEMP, ZNPOW, PERTUB, FISSOR, RODSET, RSTRTR, REFULE, TRIGOH, MASBAL, and REFUEL, tat listed are the files XNATDN, YNATDN, and FNATDN which are identical to ZNATDK except for the file names. E. FILE VERSION NUMBERS Clarification is offered here about interface data file versien numbers as seen by the file management system. At the start of execution, the file management records are all Initialized at zero version numbers. If a file is supplied (and the system 1s Informed about this via the control module Instructions), It becomes version 1 regardless of what is written on the file. If two versions are supplied, they are assigned version numbers 1 and 2 in the Increasing order of the logical unit number. Note that these logical unit num bers are arbitrarily assigned in increasing order starting from the 18 largest known number reserved. The actual numbers must be consistent with what will be assigned. If a file Is generated by a special Input Data Processor before any calculations are made, It normally Is version 1; however, If N files were supplied and this is known to the Control Nodule, writing another one creates version N (replacing the Nth one supplied), except where special provision has been made other wise and the option is exercised to generate a new N + 1 version. Such is not possible with most of the special Input Data Processors, as they generally destroy the latest version of any file (if it exists). To supply one and create yet another version with a special Input Data Processor would require supplying two initially, and the second could be a dummy, but it must contain the correct file name. The Control Nodule must be told there are two, and it checks for agreement with names in the files as a quality assurance step, and then the second one would be rewritten by the special Input Data Processor. (Here the copying capability within the Control Nodule is especially useful to create extra copies.) The two files would then be versions 1 and 2, version 1 being the first one supplied having the lowest version number. Note that only files which become assigned logical unit numbers for which special job control Instructions are provided for the computer run can be made available from a previous calculation (or by special generation), and then these will be available at the end of the run. Often the original data file supplied or initially generated will be written over, destroying the Initial contents. Such action by the codes in this system is necessary to avoid uncontrolled proliferation when global problems are solved Involving the generation of many files, often many versions of a file having a common name. Most of the codes in this system read the latest version (version having the highest version number assigned In the Internal file management tables) of any file. The next-to-latest version may be read on demand by user option In some cases, especially where two versions are required for a calculation, but this can be done only If the latest version N and the next to latest version N-l exist and are so labeled 19 in the file management tables. Special importance may be attached to a version 1 file as initial state, i. e. the nuclide concentrations, and this version may be used at a later point in the calculation. In some instances a copy is made of a file and it is assigned a new iden tification name to allow recovery of data at a later point in a calculation. Consider a file used to interface data during a calculation. The first file will be version 1. A second file with the same name may be version 2 if written on a different unit, but usually it will be written over the first file leaving only a version 1 file in the Get and in the file management tables. The default option for writing most files in most of the com putation Nodules in this code system is to write over the existing latest version. Special Processors with few exceptions write over the existing file without increasing the version number. The user is referred to specific documentation. When the neutronics code does a criticality search on nuclide density, ft always leaves intact the available latest version N and writes a new version flh-1o f the nuclide concentrations file, ZNATDN. If only one file existed, there now become two versions N and Ntl. If there were more than one in the system, the version N-l is deleted and the new file version N+l is written leaving versions K+l and N, and any lower version numbers existing. The new version h>l would be located where the old N-l was if it existed, unless a unit with a lower logical number In the set reserved for interface file is available (not revised). If a dimension search Is done, new versions of both the geometry file GEODST and the nuclide concentration, cross section referencing file NDXSRF are always written on new logical units, extending the contents of the file management tables while pre serving the original data. The following actions are taken by the control rod positioning RODM00 code. For the reference data, YNATDN generation by request always produces a version N+l given an existing latest version N, and deletion deletes version N. File ZNATDN generation always produces a version N given an existing latest version N. File GEOOST generation always produces a version N+l. 20 F. COMMENTS ABOUT THE FILES The following comments are offered about the data contents of specific Interface data files regarding file processing and data use. ISOTXS 1) NSBLOK - the scattering blocking factor mu.it be evenly divisible Into NGROUP. 2) JBAND - the scattering band width must be greater than 0. 3) IJJ - the scattering In-group term must fall within the band. Combinations of JBAND and IJJ which cause flctltuous transfers for a given group are not allowed. 4) LTRN - must be greater than C and IMB2 * 4 second boundary of dimension 1 may repeat with second boundary of dimension 2 (XY,XYZ,T,TZ only - mesh mjst be consistent for rotation). IMB2 * 5 second boundary of dimension 1 may repeat with Itself Inverted (XY,XYZ,T,TZ only - mesh must be consistent for rotation). 3) Boundary constants Default constants: 0.4692 for extrapolated and Internal. 1.0 • 30 for zero flux. 0.0 for reflected. If boundary constants are supplied, no checV Is made to assure consistency with boundary Indicators. 4) NTRIAG - trlagonal geometry options 2, 3, and 4 are not Implemented. 5) VOLR - the region volumes are not required except for use In the reaction rate module. NPXSRF 1) NON, HNNAME, HANAME and NCLN must be the same as NISO, HISONM, HABSID and KBR, respectively, on GRUPXS. 2) NZONE - must be the same as NZONE on GEODST. 3) VOLZ - the zone volumes are not required except for use In the reaction rate module. However, a case having subzones must have both the zone volumes and subzone volumes defined. 4) ATWT - 1s not used, atomic weights are always obtained from GRUPXS. ZNATDN 1) NTZSZ - must be the same as NZONE + NXZ on NOXSRF. 2) NBLKAD - the density blocking factor must be evenly divi sible Into NTZSZ. SEARCH 1) For concentration searches - nuclide names In search data net appearing In GRUPXS (NOXSRF) or are not assigned to the zone(s) specified will be eliminated from the calculation. 22 2) For dimension searches - CIKTI, JCIMTJ, and HCIHTK nust have the sane values as the sere parameters on GEODST. FIXSRC 1) Distributed sources for IGiiT.EQ.l and NDC0MP.6T.1 trill cause vernination. 2) Surface sources capability has not been used. II. INPUT DATA PROCESSOR The Input data processor in this system wis developed at LASL8 to produce interface data files directly from user input. It has been Modified locally for use on an IBM computer and to extend its capability. Additional work on it is anticipated to produce data files fro* user Input instructions oriented toward requirements for typical probiens with de-emphasis on the actual interface data file characteristics. Additional capability continues to be incor- porat i to produce new files needed by new code nodules. The input processor is referred to in sane circles as the 'standard user input processor'. The following general cements are offered on the user input data: 1. Input for the control nodule nust cone first, 2. Requirements of the special processors mist be net within the constraints of their actions and the actions of the input processor when it is used, 3. Care wst be exercised to satisfy the requirements of the computational code Modules, so that desired actions are taken regarding the reference tables of the interface data files and assigned logical unit numbers, '., A header card nust precede the block of Input data fc the Input processor; an identifying note my be put on this card since the contents »re not used for control. Quite generally It Is assumed that special processors use the file management tables to determine the logical unit numbers asso ciated with the file names and generate the files without altering 23 these tables, except to add new files. Thus they play the game fairly. However, It Is probable that sor> which don't will come Into use, and their use oust be carefully restricted. Any specific special processor can he used for some function, but a code nodule nay carry out Its assigned task after this point inly If the actions taken allow continued communication of consistent data about the Interface data files. Generally 1t Is possible to use a special processor at the start of a run or at the end of a run successfully. Special pro cessors are Identified by the header record (see SPECIAL PROCESSORS below) of a block of data In the user input data file and access of a special processor Is Indicated by the number 2 In the calculatlonal path presented to the control nodule; successive entries to special processors nay be required In a path description. It nay be practical to use the Input processor after Initial use of one or wore of those special processors which generate Interface data files from user input." The input processor is summoned at each point in the calcula tlonal path where leference is nade to aodule 1. As implemented, the input processor generates data files as follows with a OV flag in front of the file name: 1. If the file is in the tables, the unit number associated with the latest version nunber is written destroying its old contents. 2. If the file name 1s not 1n the table, It is added and asso ciated with the next higher unit number in the allowed set, and the new file Is written. 3. If a file by this name was already generated in this access to the Input processor, a new one and an associated next higher version number are added to the table, and a new file is written, A 99V flag In front of the file name forces a new file to be created as a special option implemented locally. « For example DVENTR (see SPECIAL PROCESSORS below) might be used to create the files NDXSRF, ZNATDN, and the file 6E0DST with simple (slab) geometry. Then the input processor may be used to create a new 6E0DST with the desired geometry, i.e. trangulir-Z, which in some cases is easier to generate using the input processor than using DEVNTR. 24 The input processor has the capability to update an existing file, useful capability not extensively tested locally. Care must be taken to count REAL*8 words as double entries, as when A6 names are involved, on short word Machines, we consider that simple changes are possible, but complicated changes, as for data records in a loop structure, require special consideration; there are rather severe limitations such as the fact that record lengths cannot be changed. Thus we generally recommend against updating with new data lacking explicit description of the constraints, or only with careful testing prior to costly calculations. A general discussion about the user input data requirements for the input processor to emphasize user considerations, is presented below. Example use of the input processor is shown under Super Sample Problem. A. list of the files which can now be generated is given in Figure 4. Figure 4. Files which Can be Generated By the Input Processor Capability Edit File Mime Description Tested Capability ISOTXS Nucllde-ordered cross sections x X DLAYXS Delayed neutron data X X BRKOXS Bondarenko data X GRUPXS Group-ordered cross sections X X ISOGXS Gmmra reaction, transport data X GEODST Geometry description X X TRI60H Geometry description (mesh edge triangles) X *> , NDXSRF Nuclide referencing X X ZNATDN Nuclide concentrations X X SEARCH Criticality search data X X SHOWS Sn cosines, quadratures X FIXSRC Fixed source X X 25 Figure 4 (con't) Capability Edit File Name Description Tested Capability RTFLUX Regular total point flux X X ATFLUX Adjoint total point flux X X RAFLUX Regular angular flux X AAFLUX Adjoint angular flux X RZFLUX Regular total zone flux X X RCURNT Regular current X ACURKT Adjoint current X PUDIHT Point power density X CONTRl Computation nodule control records X X CXSPRR Cross section processing data X X PERTUB Forward, adjoint integrals X X FISSOR Fission source X X EXPOSE Exposure data X No ZCONCA Local nuclide concentrations X No RODSET Control rod positioning data X No FPRINT File editor instructions X No ZHTEMP Zone temperatures X No ZNPOWD Zone power density X No EXPOHT Exposure history X No PTATDH Point nuclide concentrations X No REFUEL Fuel Management Specifications X No The primary function of the input processor Is to create Inter face files entirely from card input. The data can be read directly from cards as free-format data blocked by file record. Interface file specifications are the input specifications. The card format specifications define rules for entering data on cards. Ttw card format 1s free form In the sense that data Items may be entered freely on a card without regard to card columns. However, certain rules for ordering data Into groups and entering data on cards are specified. 26 The card format has two distinct categories for entries on a card. These are (a) the file and record control words, and (b) the datum field for the actual data items to be loaded into a given array. The rules governing usage of these entries are given below. A. FILE AND RECORD CONTROL CARDS FOR INPUT PROCESSOR There are four types of control cards governing the input of data which are addressed in the following discussion. 1. File Control Cards - nV FILEID The unsigned integer n immediately followed by the character V denotes that version n of the file named FILEID is to be overlaid by the data on the cards that follow the nV card. If n=0 the file FILEID is to be created entirely from the cards that follow, destroying an old file if one exists. If n is 99, a new file is created. Data or comments following nV FILEID on the file control card are ignored. When the data for two files having the same name are supplied in a block, each with a OV control field, an existing old file (the latest version) will always be rewritten with the first set of data and second set creates the new file with a next higher version number. A file control card is the first card read by the processor. Processing of the named file continues until a new file control card or a STOP card (see below) is encountered. Any number of files may be processed in any order. As currently Implemented, when n*0, the latest version oT the file, if known by the file management system to exist, will be ^ rewritten; otherwise a new file wi ; be created with a version number one higher than the highest number found, version one if there is no entry of that nam in the tables. When the overlay option (n greater than 0) Is used, the old file Is purged and is not available for further use, and the new file has the version number of the old one, but It Is placed on a new logical unit. 27 2. Record Type Control Card - mD An unsigned Integer immediately followed by the alphabetic character "0" denotes a "Data" card. The first word on a card following a file control card must be an mD. Thereafter, If a card 1s encountered without the first word being an Identifier, then the last read Identifier Is used. The data on this card may be Integer, floating point, Hollerith, etc., with any Mixture being possible, but the actual requirements set out In the data speciflealtons for the specific file mist be satisfied. The * are associated with the record types appearing In the Interface file specifications. Each unique data list In the specifi cations Is assigned a specific record type. The record types are um bered consecutively beginning with the first record following the file Identification record. Data for the file Identification record are supplied on the file Identifier card. Identifying the record type of the data following. If the list for record type m IS repeated In the file. mD nust precede each repetition of the list. In overlay appli cations the ueflned ordering of records 1s followed; records to be left Intact may be skipped as desired. Skipped records are copied unmodified from the reference file onto the new file. For the overlay option, any »*rameter that controls the length or number of records In the file nay not be changed. 3. STOP Card Input processing Is terminated when a card containing STOP as the first entry 1s encountered. 4. FLAG Card This is a new option card that can be used to change the normal Input unit number and/or control the card Image printout. Cards of the form FLAG IUNIT IPRINT ISTART IEND can be Inserted anywhere In the Input stream (preferably before OV cards). FLAG 1s a keyword Identifying the special Instructions to the processor. IUNIT, IPRINT, ISTAP.T, and IEND are integers. IUNIT 28 Identifies a secondary unit from which the Input processor will Imme diately begin processing. Processing on the secondary unit continues until a STOP card (no additional cards will be processed) or end-of- flle (processing will then revert to the normal input unit) is encountered. A zero value for IUNIT instructs the processor to con tinue on the normal input unit. IPRINT controls card image printing. If IPRINT is zero, all card images will be printed. If IPRINT is one, no card images will be printed. If IPRINT is two, only the cards between and including the nubmers specified by ISTART and IEND will be printed. For example, the card FLAG 90 2 1 4000 specifies that card images will be read from logical unit 90 and that only cards 1 through 4000 will be printed. B. DATA FIELDS The data field contains words which may be data along with control parameters and allowed comments. This section describes the allowable data forms, the structure of data entries and the various control options available to simplify data entries. 1* Allowable Data Forres The allowable data forms are integers, single precision floating point numbers, and Hollerith words. Any combination of these forms is allowed within the data field. For files containing double precision numbers, each number is first constructed in single precision on a short word machine and then converted to a double word for the file. When the overlay option is used, a double precision number 1s con verted to single precision before overlay occurs. After the overlay, reconversion Is done to double precision for the file. Card input specifications determine the allowable combinations of data forms. a. Numeric Words. Numeric entries are Integers if they contain no decimal point or exponent. Otherwise, numerics are taken to be real (floating-point) numbers. An exponent is an expression contain ing an optionally signed Integer preceded optionally by the letter E. 29 The sign or the E nay be absent bet not both. An exponent 1n a nmerlc word oust always be preceded by at least one digit, otherwise, foras En or E+n delimited by blanks or conns are Interpreted as Hollerith words. To allow data written by the conpvter to be read, a blank after the E Is treated as a plus sign. Also, a 0 (not the sane as nD) will be treated as if it were an E. Exanoles of allowed ferns are: Equivalent Runeric Value 2te 10 10 Integer -10 -10 Integer 1E1 10. Real HI 10. Real -1.0E+01 -10. Real 1.0E 01 10. Real 1.000 01 10. Real b. Hollerith words. Hollerith data are specified In three dif ferent ways: 1. by enclosing the data In asterisks, 2. by using the nH specifications, or 3. by beginning a single word entry, containing no wore than six characters, with a letter. In all cases, Hollerith data are stored at the rate of six characters per word. On IBM Machines each six-character word Is stored in a double precision word. Input words of less than six characters are stored left adjusted with blank fill. Iobedded blanks In words are allowed only on options (1) and (2); In option (3) blanks dellnit words. For example, the following are all equivalent: •0238A * *PU239B* *IR0H * *U238A PU239BIR0N * 16HU238A PU239BIR0N U238A PU239B IRON The requirements for a 12-word (72-character) title my easily be satisfied by putting an asterisk (*) in co1u*ns 1 and 72 and Uniting the actual title to columns 2 through 71. 30 It is recommended that Hollerith always be delisted using the asterisk notation. In any event, if the Hollerith includes the character 0 in any position of the word cr the character E In the last position of a word, the Hollerith Must be delisted for proper interpretation. Mote: FILE ID, STOP, and FLAG mist never be delimited. For example: 0V ISOTXS is correct OV *IS0TXS* is incorrect. 2. Card Structure The card field has no fixed structure except that data iteas must be separated by blanks (or a coma, not recommended), and a single datua itea aay not be split between two cards. The data field on a card aay be terminated by a slash (/) after which comments aay be supplied on that card. The trailing comments, however, will appear 1n the listing, since all card images are printed, but will not be Included in the data file. Comments enclosed in dollar signs ($) $C0MMENT$ aay also be Inserted freely between datum entries. Except for listing the card Images, such comments are Ignored by the processor. The ini tial $ terminates an Immediately preceding data entry. Card fields for data entries are limited to 72 columns. 3. Control Options Control options available 1n the data field are repeat, skip, Interpolation, and section repeat. *• Reneat Option. The repeat option Is an unsigned Integer Imme diately followed by the letter "R". Use of this option permits repeating the previously entered data item an Integer number of times. The specification nR means n total entries of the previous entry, for example 1 2R » 1 1, and 2.0 3R - 2.0 2.0 2.0 31 b. Skip Option. The skip option Is an unsigned Integer Imme- diately followed by the letter "S". This Beans that the integer number of locations will be skipped when determining the Index of a value to be loaded. The skip option is applicable only In overlay applications. Skipping one Hollerith word must be counted as 2 single precision positions having format A6. For example: 1 10R 5S 2 10R = The Integer 1 is stored into ten consecutive locations. Then 5 locations are skipped and the integer 2 is stored into the 16th through 25th locations. c. Interpolation Option. The Interpolate (nl) specification pro vides for linear interpolation between two REAL constants. The pre viously processed word is the initial end-point, n is the number of equally spaced points to be inserted between the initial and terminal end-points, and the terminal end-point follows the nl specification. Integer interpolation is not available. For example: 1.0 31 5.0 - 1.0 2.0 3.0 4.0 5.0 d. Section Repeat Option. A section Is a group of entries enclosed in parentheses. The entries may consist of numeric or Hollerith data; repeat, interpolate, and skip specifications; or sec tion repeats. The section Is always used in conjunction with the repeat option in the form (entries) nR. The entries are expanded to obtain 3 identical data sets* The end of an interpolation section entry must lie within the section. The Initial point may Immediately precede the section, although this 1s seldom useful. The skip option as a section entry must be used cautiously since items skipped are taken from the array being overlayed and the overlayed array 1s the entity repeated in the section repeat operation* Sections may be continued over more than one card, and section repeats may be nested within section repeats up to 10 levels of nesting. An example of nesting is: (1(5.0 21 20.0) 2R W0RD1) 2R 32 which Is equivalent to (1 5.0 10.0 15.0 20.0 5.0 10.0 15.0 20.0 WORD1) 2R. When repeating a Hollerith word, the section repeat Rust be used. For example: (*PU238B*) 2R. C. CONNECTS The following comments should be heeded: 1. A header card is required. 2. The standard input processor will only accept cards or card-images written in the EBCDIC character set. The following characters are different fro* the BCD characters: ( is 12-5-8 punch ) Is 11-5-8 punch • is 12-6-8 punch * is 6-8 punch 3. Interface file CONTRL is written initially by the driver. Local special processors which use data from the input stream add or replace "'•cords in this file (unless in a stand-alone mode). The standard processor will write a completely new file. All records on this file are designated ID. The records may be in any order except as noted below: •PROINS* always first •DVRINS* always present (others) optional * * or BLANK always last, more than four characters required. 4. The block of data for the input processor 1s terminated with a card containing STOP and another card containing END. 5. As much of the input data block 1s processed as possible; any error causes abnormal termination at the end preventing continuing access of code modules and calculation as Implemented. 33 VII. FILE EDITOR The file editor was developed at LASL and Modified extensively for local use. It may be used to print in card-image for* the contents of interface data files, or to generate a file containing stacked inter face data files, formatted for direct recovery by the input processor. The file editor requires instructions from the interface data file FPRINT when summoned in the calculational path, which oust have pre viously been generated by the input processor. The contents of FPRINT describe the action to be taken by the file editor and were shown in Figure 6. A unit which is to be written for future reading by the input processor must have compatible job control instructions including formatted records of 80 byte length. Files which can be edited were shown in Figure 8. The maximum record length which can be processed by the file edi tor is 30,000 short words (15,000 long words). Also, only 10 dif ferent record types are now allowed, limiting use in a few instances. The instruction file FPRINT is deleted* from the file management table after use. Therefore a new file must be generated by use of the input processor and user input data for each access of the file editor. Of course, once a file is generated, it is available for use until It has been used and deleted. When data is written on a file for recovery, writing begins at the start of the file and destroys the original contents. An example of use of the file editor is shown in Section X. A sophisticated control module may use the file editor directly (by generating the required instructions in the file FPRINT without input data), but this is not now done by the control module C0NTR0L1. VIII. SPECIAL PROCESSORS Special processors are allowed in this computational system. All true system member processors are assigned the path access number 2 and each has a unique eight-character name associated with 1t (six characters ending with two blank characters allowing Identification aNow Optional - See FPRINT file specifications. 34 at the user level with six characters). Other special processors may be added which are assigned the path access number 99. Additional special processors will be addled with development effort and reliability testing to ensure proper performance in this systea. The special processors named aHsve are frozen members of the systea and cannot be overriden by the user supplying his own aodules with the naaes indicated. Provision has been made to allow use of other special processors. Five additional special processor naaes have been designated and aay be used. They are USERXA, USERXB, USERXC, USERXD, and USERXE. Future extension of these naaes is obvious. The special processor aust be a module, previously loaded, assigned one of these names. At run tiae, the data set containing that module would be concatenated with the code systea data set by overriding the //STEPLIB card in the catalog procedure. For each special processor nodule referenced by path access nwnber 2 or 99 in the computational path IN(I) Figure 2, the reference module name followed by any required input data aust appear in the input stream, with an END card termination. When all of the calculations specified on the computational path card have been completed, the user may execute any other modules out side the system that were previously loaded as desired by including cards with =NAME punched beginning in column 1, where NAME Is the name of the module to be accessed. Care must be taken to access the necessary data files proper logical units; this may require that spe cial action be taken for the run. Likely these logical units must be specified as Input to the module, and Input data requirements must be satisfied. One or more special processors can be added to the system for local use. The module must be put in a data set with the eight-character name (six characters plus two blanks recommended) to be used for access (path access number 99). Special care should be taken if one or more data sets are con catenated onto the set containing codes used routinely: do not destroy the production codes, as by improper disposition* All the data sets v; used should be considered to be permanent (don't DELETE anything, thus avoiding accidental destruction of production codes). Avoid action which prevents quality assurance of the production codes. Make load Modules in computer runs separate from runs using the production code. The fixed formt input data read by each of the special processors is described here. This is essentially the same information as given in reference 4. Each block of user *nput data wist start with a header card which identifies the special processor, and must terminate with an END card. No distinction is made between a zero and a blank field. Data ele ments are usually named herein, followed by fixed field columns of a keypunched input data card in parentheses. A non-zero default value is shown in [] after the discussion about the datum, overridden by non-zero input. Undefined data is reserved for future use. Some of the data is blocked into individual sections; except where indicated, data must be supplied for each section, and in the order of increasing section number. A reasonable amount of error checking is done to identify evident user blunders and to effect abortion to avoid wasted calculation by return of a non-zero stop number. Still, unreasonable data may be supplied inadvertently, so careful checking of the edits from the codes and of the results is in order to avoid drawing incorrect conclusions in analysis. A summary is presented below of the access names and path iden tification for the special processors covered and the names of the files generated. Files which are generated only on option have been shown In parentheses. Also shown are the names of records added to the file CONTRL; these are accessed by the computation modules for their control. 36 Processor .'.ccess Path Record Generated Access Name Nodule Number in file CONTRL Files Generated DVENTR 2 DTNINS GEOOST, NDXSRF, ZNATON, (SEARCH) DCRSPR 2 XCPINS (CXSPRR) DUTLIN 2 (optional) DCNACR 2 See discussion DENHAN 99 - (ZNATDN),(QNATDN), (NDXSRF),(SEARCH) DMISLY 99 - RTFIUX, ATFLUX, GEOOST A. DVENTR This code processes data to generate the essential files required by the VENTURE neutronlcs code. The fr.es generated are consistent regarding the zone volumes Mhlch are calculated from the geometric mesh description and the nuclide cross section, concentration, and referencing tables. Reference data Is accessed from the group ordered microscopic cross section file GRUPXS Mhlch must that It be available. Header card: DVENTR in columns (1-6). Section 001: General Control Card 1: 001 in Columns 1-3. Card 2: Control Data (6E12.0). RXX1(1-12) RXX2(13-24) Machine central processor time limit for any eigenvalue problem (m1n) 1f >0. RXX3(25-36) If > 0, the restart I/O data Me RSTRTR Mill be written (rewritten) every RXX3 minutes during the Iterative calculation, and also at termination [0.0]. Unless noted, defaulting has been moved Into VENTURE for this section of data. 37 RXX4(37-48) Power level (watts thermal). (Normalization of the flux Is to source neutrons produced lacking energy generation data with the cross sections). RXX5(49-60 Conversion facx ., ratio of thermal energy to fission + capture energy as calculated from the data presented with the cross sections [1.0]. RXX6(61-72) Fraction of reactor considered, applied to the power level RXX4 (accounts for the actual geometry treating less than the whole core). RXX6 would be 1.0 in R-Z geometry If Z spanned the whole core, 0.5 If only half was treated; In X-Y geometry, this could be the reciprocal of the Z dimension. Considering unit dimensions In untreated coordinates, this 1s the volume actually treated divided by the actual core volume. Power generation in untreated regions requires special consideration. Note that the flux level will be normalized to cause a fission + capture energy level of RXX4*RXX6/RXX5. (If RXX4 Is perchance electrical energy, then RXX5 should contain the plant efficiency). Card 3: Control Data, cont. (6E12.0). RXX7(1-12) RXX8(13-24) Chebyshev parameter \>z uPP«r bound (overrides that calculated by the code). RXX9(25-36) Chebyshev parameter v\ lower bound, usually zero, (overrides that calculated by the code). RXX10(37-48) Specified overrelaxatlon coefficient (overrides automated procedure). RXX11(49-60) Convergence criterion on Integral quantities (K) on outer iterations [0.000005]. RXX12(61-72) Convergence criterion on local, point quantities (maximum relative flux change) [0.00005], Card 4: Control Data cont. (6E12.0) 38 RXX13(1-12) Input Buckling to override that on the GEOOST Interface file. RXX14(13-24) RXX15(25-36) RXX16(37-48) Search keff to be satisfied. Required If ICX2-4 or 5. Nay be used to override search kgff on search Interface If ICX2-1. 5: Control Options (2413). ICXl(l-3) Transport theory approxlaatlon to be applied [13. VENTURE - Mesh Centered Finite - Difference. 1 - Diffusion theory fundamental flux problem. 2 - Pi approximation fundamental flux problem. - 1 - Diffusion theory solution for the dominant allowed first harmonic (see Section XI) requiring the fundamental regular and adjoint flux files RTFLUX and ATFLUX. The first iterate source distribution will be skewed to excite all spaclal flux harmonics so that the dominant one will surface - 2 - Same as -1 but the first iterate source will not be skewed. Usually for this option the RTFLUX file must either be a uniform flux distribution (in which case the solution may or may not be for the dominant harmonic) or an initial estimate of the dominant harmonic flux distribution (for example, a cosine from -1 to +1 along a coordinate while perhaps uniform In other directions) that will cause the desired harmonic to surface* This may especially be useful to accelerate con vergence when two of the spaclal harmonic eigenvalues are nearly equal. - 10 - Special dominant azImuthaV harmonic solution only applicable for RZ geometry. The total loss term 1s adjusted to account for the azl- muthal harmonic (a D/R loss contribution Is added). 39 VALE - Nesh Edge Triangular Geoaetry. 1 - Diffusion theory fundamental flux problea. -1 - Diffusion theory doainant haraonlc flux problea. -2 - Diffusion theory doainant haraonlc but the first Iterate source will not be skewed. 3 - Higher order approxiaatfon fundamental flux problea (see RXXN2 Section 002). -3 - Higher order approximation doainant harmonic flux problem. >4 - Higher order approximation doainant harmonic but the first iterate source will not be skewed. ICX2(4-6) Type of problea. 0 - Determine kgfp 1 - Search (requires search file be supplied, see ICX3). 2 - Fixed source (requires source file be supplied). 3 - Adjoint only (see ICX4 option to do the adjoint problem directly following a regular problea, which is generally recommended). 4 - B2 search. 5 - 1/v search, proapt mode (requires velocity data in cross section file). ICX3(7-9) Search data identifier* see section 028 which is required If ICX3 > 0, or If ICX2 « 1 and ICX3 I 0 ICX4(10-12) Adjoint problea option. 0 - Not to be done. 1 - Adjoint eigenvalue problea. 2 - Adjoint fixed source problea (requires source file be supplied or generated). ICX5(13-15) Flux initialization option. 0 - Automated procedure, (recommended unless a good guess is available). -1 - Set all values equal. 1 - Mike space-energy dependent. 40 2 - Use data from the latest version Interface data file supplied. 3 - Use data from next-to-latest Interface data file supplied. ICX6(16-18)" Force data handling mode. 0 - Automated procedure, (recommended to minimize data input/output). 1 - Core contained. 2 - Space problem *- .tained. 3 - One row contained. 4 - Multiple planes stored. 5 - Multiple rows stored. 6 - Multi-level transfer mode (special coding for a machine having a large slow extended memory). ICX7(19-21) If > 0, a previously written restart data file, RSTRTR (which must be supplied), will be read to continue a calculation. This option continues the flux-eigenvalue calculation with no changes in the problem parameters such as overtaxation coefficients, number of ineer iterations, etc. To restart a problem where changes are desired, use ICX5 option = 2 or 3 (see above). ICX8(22-'M) Extrapolation options on outer Iterations. 0 - Automated procedure which may do either single error or double error mode extrapolation. -1 - Single error mode using successive Iterate flux sets. 1 - Single error mode using alternate Iterate flux sets 2 - Extrapolation not allowed. « A "-1" option has recently been added to allow the user to cause term ination If the amount of memory allocated is insufficient for effi cient execution (cannot store space problem in two-dimensions or enouah planes to avoid excess data transfer in three-dimensions). Also see ICX11. 41 3 - Set to 0, but when single error node extrapolation is done, successive Iterate flux sets are used. ICX9(25-27) Options for Initialization procedure. -2 - Do not solve a 1-D problem -1 - Do not use results from a 1-D problem for Inner Iterative procedure data. 0 - Automated. 1 - No Chebyshev of overtaxation coefficients on outer Iterations. 2 - Fix the number of Inner Iterations. 3 - Fix the number of Inner Iterations, no Chebyshev. 4 - Fix overrelaxatlon factors and the number of Inner Iterations. 5 - Same as 4, but no Chebyshev. 6 - Same as 4, but do not use results from a 1-D problem. 7 - Same as 5, but do not use results from a 1-D problem. ICX10(28-30) Recalculate overrelaxatlon coefficients and number of Ir.ner Iterations at outer Iteration number ICX10. (Leave blank and let the code decide this). ICX11(31-33) Number of Inner Iterations, leave blank and let the code decide this. (For many fast reactor problems we find 4 Inner Iterations are near optimum without Chebyshev acceleration; however, for some problems the code automated procedure may be superior provided adequate memory 1s allo cated for the Inner Iteration process to be done efficiently). For efficient data transfer for three-dimensional problems, we recommend that the container array size (see IPl Figure 2) be large enough to store as many planes of data as the number of Inner iterations. 42 10X12(34.36) Maximum number of outer iterations. If set = 969, preliminary data processing from interface files is done to check data, storage requirements, etc., and no calculations are done unless ICX5 > 1 in which case the residues pass is made to calculate k-effective [50 in input processor]. ICX13(37-39)a Extrapolation not allowed before ICX13 outer iterations. If < 0, forced extrapolation is allowed. ICX14(40-42) Outer iteration Chebyshev acceleration (flux) options. <0 - Start at iteration number j ICX14 | . 0 - Use automated procedure. 1 - Start after first extrapolation. 2 - Force after initial delay. 3 - Do not allow. 100 + N - Start at iteration N > 3 with forced extrapolation to obtain the l\ norm eigenvalue. ICX15(43-45) Options on mesh point sweep. -1 - Force normal ordering. 0 - Automated procedure. \ - e\ ordering when data handling procedures allow it. ICX16(46-48) Plane (or row) number of a 3-D (or 2-D) problem which is to be run as a 2-D (or 1-D) problem. ICX17(49-51) Options on k-effective calculation. 0 - Automated procedure. 1 - Calculate k-effective by the source ratio. ICX18(52-54) Fission spectrum option. 0 - Apply set values. 1 - Determine zone-dependent data from data for the individual nuclides, often desirable for fast reactor problem. !CX19(55-57) Fission spectrum normalisation. 0 - Not to be done. 1 - Normalize Individually to unity. * Generally used for testing only. 43 ICX20(58-60) ICX21(61-63) This order (1, 2, or 3) of the coordinate direc tion dependent cross section data in the library is to be used for the first diaension. ICX22(64-66) Ditto, second diaension. ICX23(67-69) Ditto, third diaension. ICX24(70-72) Force data transfer of the region assignaents in processing (only used to check procedures). Card 6: Edit options and instruction to generate interface data files (2413). Note: Indicated action generally to be taken if the value is J 0, no action if 0. IXEl(l-3) Print overall neutron balance, highly recoaaended. IXE2(4-6) Print neutron balance by zone (aacroscopic coaposition). IXE3(7-9) Print space-e&ergy point flux values (recoaaended only when really essential). IXE4(10-12) Print space point aap of power density (not usually needed, especially when zone peaks are edited). IXE5(13-15) Print power density traverse through peak along each coordinate. IXE6(16-18) Print space point aap of neutron density. This requires velocity data with the cross sections, and is useful only in soae situations (<£/v is 1/v response). IXE7(19-21) Print neutron density traverse through peak along each coordinate. IXE8(22-24) Print space-energy point adjoint flux values (when calculated). Seldom needed. IXE9(25-27) Print zone average flux values by energy group (already available 1f the zone neutron balance Is obtained by option IXE2); If >1, also print zone average adjoint flux values if the adjoint problem is solved. 44 IXE10(28-30) Print information about the iterative progress. -* - No 0,1 - One line of iteration edit per outer iteration. 2 - Also inner iteration data. 3 - Also more inner iteration data. IXE1K31-33) Print principal Macroscopic cross sections and other data, useful for checking data. 1 - Only Macroscopic cross sections. 2 - Also boundary conditions and buckling, and overtaxation coefficients. 3 - Also extensive information about initializa tion and recalculation of overrelaxation coefficients. lXE12(34-36) Print scattering macroscopic cross sections. IXE13{37-39) A plane number for which the zone and group Ducklings are to be calculated. IXE14(40-42) A second plane number for the buckling calculation. IXE15(43-45) Write regular total flux Interface data file RTFLUX. 1 - Replace old file; if none exists, create one. 2 - Write a new file. IXE16(46-48) Write adjoint total flux (if calculated) inter face data file ATFLUX. 1 - Replace old file; if none exists, create one. 2 - Write a new file. IXE17(49-51) Write regular zone flux Interface data file RZFLUX. 1 - Replace old file*, if none exists, create one. 2 - Write a new file. IX£18(52-54) Write power density Interface data file PWDINT. 1 - Replace old file; 1f none exists, create one. 2 - Write a new file. IXE!9(55-57) Write fission source Interface data file FISSOR. 1 - Replace old file; 1f none exists, create one. 2 - Write a new file. IX£20(58-60) Print option when Input data 1s processed. 1 - Edit Interface data files NDXSRF and ZNATDN. T 45 2 - Also edit Interface data file GEOOST. IXE21(61-63) Additional print option when data is processed. -1 - No mesh point zone nunber edit. 0 - Edit zone number at each mesh interval only after overlay input Section 006. 1 - Edit zone nunber at each mesh Interval after Input Sections 005 and 006. IXE22(64-66) Perturbation edits. Positive values for this number Indicate that the neutronlcs regular-flux or adjoint-flux or both regular followed by adjoint calculations are to be run prior to the perturbation calculation to write the Interface data files RTFLUX and ATFLUX which must be available for perturbation calculations. Negative values Indicate that these two Interface data files already exist and no neutronlcs calcu lation will be done. 1 - Edit basic Integrals. 2 - Also edit transport Integrals. 3 - Also edit absorption cross-section space point Importance map. 4 - Also edit production and production-absorption cross-section space point Importance maps. 5 - Also edit 1/v space point Importance map. IXE23(67-69) Write perturbation Interface data file PERTUB (IXE22 not zero). 1 - Replace old file; If none exists create one. 2 - Write a new file. IXE24(70-72) Save results as formatted data (see Section 704, of the VENTURE report) at the end of a case. 1 - Yes. 2 - Also print this data. *fe new option 6 allows file PERTUB to be written with edit suppressed. 46 Section 002: Optional General Control This section of input is optional. Card 1: 002 in columns 1-3. Card 2: Control options (2413). IXCNM1-3) Identifies secondary search data in the SEARCH interface file to be used if the constraints of the first set are not satisfied, and a second search is to be done (see SEARCH file specifications). IXCN2(4-6) IXCN3(7-9) Option for testing to prevent default of files to memory. IXCM4(10-12) Space-energy rebalance will be done occasionally if > 0. IXCN5(13-15) The number of blocks (left-right) for space- energy rebalance if > 0. IXCN6(16-18) The number of blocks (top-bottom) for space- energy rebalance if > 0. IXCN7(19-21) The number of blocks (fore-aft) for space-energy rebalance if > 0. IXCN8(22-24) IXCN9(25-27) IXCN10(28-30) Option to account for the dependence of the cross sections on the local temperature requires two GRUPXS cross section interface files, a ZKTEMP interface file, and reference temperatures (see RXXN7, RXXN8, and RXXN9 below). 0 - No. 1 - Yes. IXCN1K31-33) IXCN12(34-36) IXCN13(37-39) IXCN14(40-42) IXCN15(43-45) IXCN16(46-48) 47 IXCM17(49-51) IXCN18(52-54) IXCN19(55-57) IXCH20(58-60) IXCN21(61-63) IXCN22(64-66) KCN23(67-69) IXCN24(70-72) Card 3: Control options (cont.)(Z4I3). IX£Nl(l-3) Calculate and edit perturbation results for a 100 percent change in macroscopic cross sections and uncertainty (sensitivity) information if IXE22 (Section 001) is not zero. IXEN2(4-6) Option to write point flux values (used for auxi liary exposure calculations), if IXE17>0. >0 - write flux data for this zone. -1 - write data for only the point where the power density is a maximum for the initial neutronics problem. -2 - write flux data for points in the zone where the power density is a maximum for the ini tial neutronics problem. -3 - write flux data for the point where the first group flux is a maximum for the initial neutronics problem. -4 - write flux data for the points in the zone where the first group flux is a maximum for the -Initial neutronics problem. <-4 - write flux data for this mesh point count in the mesh. IXEN3(7-9) A second zone number for the same purpose, only >0 allowed. 48 IXEN4(10-12) Option to calculate the conversion ratio adjoint importance fixed source and write a new interface file FIXSRC from the results of this forward eigenvalue problem: F(zone, group) = -£ - -A zc is the fertile Macroscopic captu«*e cross section, Ea is the fuel Macroscopic absorption cross section, and C and A are integrated fertile capture and fuel absorption (C/A = primitive con version ratio). If < 0 write two fixed source files: £c , and h. , C A IXEN5(13-15) IXEN6(16-18) IXEN7(19-21) IXEKB(22-24) The Maximum zone number for which the zone and group dependent diffusion coefficients will be changed by RXXN2 and RXXK3 below, if not zero. IXEM9(25-27) IXEN10(28-30) Option to calculate and edit the relative change in conversion ratio for a 100% c' nge in the macroscopic fertile capture cross section and finite absorption. IXENll(31-33j Write an adjoint total flux file ATFLUX with the product of the regular and adjoint fluxes. 1 - Write over old file; if none exists create a new one. 2 - Write a new file version. IXEN12(34- •> Write zone power density file ZNPOWD. 1 - Replace old file; If none exists, create one. 2 - Write a new file. IXEN13(37-39) Write a point fixed source file as DBZ+. 1 - Replace old file; 1f none exists, create one. ? - Write a new file. IXEN14(40-42) Write the adjoint zone average flux file AZFLUX. 1 - Replace old file; if none exists, create one. 2 - Write a new file. 49 IXEN15(43-45) Option to calculate a point power density adjoint Importance fixed source and write a new Interface file FIXSRC. This file Is by mesh point and group : u rs,..k,«M ^« where 1 = mesh point Index k = energy group Index U = power per unit flux (P0)f| - power density at mesh point N P = total power F = fraction of core V = volume []* zero except at point N 1 - N Is the meshpolnt where the power density Is the peak -M - N Is the meshpolnt In zone | M | where the power density Is the peak. 2 - N Is the mesh point defined by IXEN16, IXEN17, and IXEN18 below. IXEN16(46-48) Column number for IXEN15 = 2 (point number on a plane for VALE) IXEN17(49-51) Row number for IXEN15 = 2 (set to 1 for VALE) IXEN18(52-54) Plane number for IXEN15 « 2 IXEN19(*S5-57) IXEN20(*3-60) If > 0, this 1s the order number in the nuclide name set 1 of Section 013 of Xenon, and equilibrium Xenon will be accounted for 1n the flux calculation (see RXXN5 and RXXN12 below and Section XI). IXEN21(61-63) IXEN22(64-66) IXEN23(67-69) IXEN24(70-72) 50 Card 4: Control options (cont.) (2413). IXNU1 (1-3) Card 5: Control Data (6E12.0). RXXN1(1-12) Limiting value of the diffusion coefficient0 (100 cm) RXXN2(13-24) Parameter for higher order VALE formulation | IXC11 > 2. 1/6 - Taylor Series. 7/36 - Linear Flux. 1/4 - Linear Finite Element If made negative, the fission and scattering source will not be calculated using the higher order approximation. RXXN3(25-36) The zone (see IXEN8) and group dependent dif fusion coefficients are multiplied by RXXN3 [1.0]. RXXN4(37-48) This number is added to the diffusion coef ficients after RXXN3 is applied [0.0]. RXXN5(49-60) Xgx35+ I135 yield fraction for equilibrium Xenon (see IXEN1*;. RXXN6(61-72) Factor Q in equation (9) Section XI. Card 6: Control Data (cont.) (6E12.0). RXXN7(1-12) Refert.ice temperature (degrees C) at the next-to- latest version GRUPXS cross section file. RXXN8(13-24) Reference tempera*jre (degrees C) at the latest GRUPXS filt. RXXN9(25-36) Correlation parameter for the arctangent depen dence of cross se;tions on zone temperatures (linear correlation if 0.0). RXXN10(37-48) Factci- applied to space Interpolation slope (see section XI) for space-energy rebalance. If zero, no space Interpolation will be done. RXXNll/,9-60) Factor applied to final rebalance factors for space-energy rebalance (1.0). "If a larger valub""is calculated, the limiting value 1s n«ed (essential to avoid K>or convergence characteristics), defaulted 1n VENTURE prope-. 51 RXXN12 Xenon decay constant Xjfc for equilibrium tenon (sec'1) (see IXEN19). Section 003: Geometric Description Card 1: 003 in Columns 1-3. Card 2: Data (1313) IG0N(l-3) Reference Geometry. 1 -- Slab (X) one-dimensional. 2 -• Cylinder (R). 3 -- Sphere (S). 6 •- X-Y, two-dimensional. 7 -• R-Z. 8 •- e-R. 9 -- T (equilateral triangle). 10 •- H (equilateral hexagon). 14 •- X-Y-Z, three dimensional. 15 •- e-R-Z. 17 •- T-Z. 18 -. H-Z. IMBL(4-6) Boundary condition at start of rows (left). 0 - Zero flux. 1 - Reflected. 2 - Extrapolated. 3 - Repeating with opposite end. IMBR(7-9)a Boundary condition at end of rows (right). 0 - Zero flux. 1 - Reflected. 2 - Extrapolated. 3 - Automatically 1f IMBL*3. 4 - Repeating with next adjacent face (rotational symmetry with boundary JMBB). 5 Inverted repeating this face (180° rotational symmetry). aNote interchange of IMBR and JMBT from old ORNL codes; only those boundaries required for the geometry need values. 52 JHBT(10-12) Boundary condition at start of columns (top). 0, 1, 2, options above. JMBB(13-15) Boundary condition at end of columns (bottom) 0, 1, 2, options above (set = 4 if IMBR = 4). KHBF(16-18) Boundary condition face of planes (front) 0, 1, 2, options above. KMBR(19-21) Boundary condition back of planes (back) 0, 1, 2, options above. NBS(22-24) timber of buckling specifications: remember that buckling is normally used only to approximate leakage in those coordinate directions untreated, and not for S, R-Z and three-dimensional problems. 2 0 - None, code uses Bj = 0.0. 2 1 - Single value of Bx applies everywhere. = NZ0NE = number of zones, zone dependent. = N*NZ0NE, data is given over all zones for the first energy group, then for the next group, and so on through N groups. If there are more than N groups, data for group N is used for the other groups. If NBS > 0, additional data will be required. NBCS(25-27) Number of constants for external boundaries non return boundary constants, applied only where the "extrapolated" boundary condition is specified. 0 - Default value of C • 0.4692 is used; c " - • ax b I 1 - Single value to be used everywhere. 6 - Individual values for each of the faces of a J-D problem (left, right, top, bottom, front, back). 53 H*6 - Values for the six faces are given for the first energy group, then the next, through N groups; data for group N Is used for any additional groups. If NBCS > 0, additional data will be required. NlBCS(28-30) Hunter of constants for Internal extrapolated boundaries. 0 - None, default value C - 0.4692. 1 - Single value given trill be used. N - Values given In Increasing group nunter order, last value used for any additional groups. If NIBCS > 0, additional data will be required. NZMBB(31-33) hunter of zones which are black absorbers (no return current from these). If NZUBB > 0, additional data will be required. NTRIA6(34-36) Orientation of triangular geonetry. 0-120° between X and Y axes (required for 120* rotational synnetry which Is about opposite corner fro* 0,0). 1-60° between X and Y axes (required for 60* rotational svmetry which Is about opposite corner from 0.0). HRASS(37-39) Card(s) 3 NBS values of buckling required (6E12.Q). Card(s) 4 NBCS values of boundary constants required (6E12.0). Card(s) 5 NIBCS values of Internal boundary constants required (6E12.0). Card(s) 6 NZUBB Identifiers of black zones required (2413). Section 004: 6eometric Mesh Description Card 1: 004 1n Columns 1-3. Card(s) 2: (6(I3,E9.0)). 54 Specify the number of mesh points arid the region width for each vertical region going fro* left to right. For a two- or three- dimensional problem next specify the nuaber of aesh points and the region width for each horizontal region going froa the top to bottom starting with a new card. For a three-dimensional problem then spe cify the nuaber of aesh points and the region width for each region going froa front to back starting with a new card. In referring to the geometric aesh, rows of aesh points go froa top to bottom, coiuans of aesh points go froa left to right, and planes of aesh points go froa front to back. In R and R-Z geometry, a row is a radial traverse. In e-R and e-R-Z geometries, columns radiate downward froa a center at the top and a row has constant radius. In hexagonal geoaetry, the X and Y axes are assumed to be at 60° (upper left-hand comer), and dimensions are on external boundaries. In triagonal geoaetry, the X and Y axes are located at 120° (except 60° when NTRIAG in Section 003 is aade 1). Distances are given along these coordinates (not at 90° for the special orientations). Data must be ended for each traverse by a blank entry; if the last card of data is filled for any traverse, another card is required (blank). Section 005: Zone Placement Card 1: 005 in Columns 1-3. Card(s) 2: (2413). Specify the zone identification numbers (I.e., location of uni form composition) of each region of a traverse along the first hori zontal row of regions going from left to right, one number for each interval entry in Section 004. Beginning with a new card, specify the zone numbers of each region in the second horizontal row of regions. Continue these specifications going from top to bottom. For a one- dimensional problem, the zone numbers are specified for only one traverse. For a three-dimensional problem, give the two-dimensional grid for the front plane of regions and continue these to map the material through to the back plane. The cross section set later to be associated with the zone numbered 1 will be used as a reference, so 55 zone 1 night be located within a core rather titan in a blanket or reflector. Also it will prove convenient to number consecutively zones which will contain the same material (will have the same nuclides and use the same microscopic cross section tape). Note that each specification in this block of data is for a traverse along a row and requires the same number of entries. Section 006: Mesh Overlay (Optional/ Hew zones may be superimposed within a mesh already described with this data. Card 1: 006 in Columns 1-3. Card 2: (14). Specify a zone number in the first field; data is read to a blank zone number. Card(s) 3: (3(614)). Specify blocks of points by left column number and then r.ght column number to give limits along rows, top and bottom row numbers for column limits, and front and back plane numbers for depth limits in that order. If only one row is involved, for example, then that row number is repeated. Only 4 entries are needed for each specifica tion in 2-D geometry. Data is read to blank left column entry. The entry 000^0006JD()05JD015p002p002. places the new material along column 6 from rows 5 through 15 and on only plane 2. Remember that each mesh point has an associated volume around it - mesh points do not lie on material interfaces; specifying a single mesh point here, say 000^0060005000500020002 does involve the associated volume. Section 012; Assignment of Nuclide Name Sets to Zones This data Is used to block the nuclide concentrations. Card 1: 012 in Columns 1-3. Card 2: Number of subzones in Columns 1-3, NSZ. Card 3: Referencing data (4I3,E12.0). Ml(1-3) First zone number of a consecutively numbered set of zones* M2(4-6) Last zone number of the set. 56 NS(7-9) Nuclide set reference number (out of the Integers from 1 to the number of sets). NC(IO-IZ) Zone classification number. VF(13-24) Volume fraction associated with zone con- centrations in these zones. [1.0] Cards 3 are read until a blank or zero Ml number is encountered. Card(s) 4: Subzone data (413,E12.0,I3) required if NSZ > 0. MHl(l-3) First subzone number of a consecutively numbered set of subzones. MM2(4-6) Last subzone number of the set. NMS(7-9) Nuclide set reference number. NMC(10-12) Zone number containing these subzones. VMC(13-24) Fraction of the zone volume applying to each of these subzones. NMC0PT(25-27) If = 1, the first subzone is assigned to zone NMC, the next subzone is assigned to the next zone, etc., indexing upward through the iubzone set, one subzone assigned to a zone. Cards 4 are read to a blank (zero MH1). Section 013: Nuclide Names in Sets This data Is necessary to relate concentration assignments by nuclide name. Card 1: 013 1n Columns 1-3. Card 2: NNS maximum number of nuclides 1n any set In Columns 1-3. Card 3: NDXS number of nuclides in this set 1n Columns 1-3. Card(s) 4: Names of nuclides (alphanumeric characters) 1n the set The names must correspond with user Identification names (not absolute labels) In the cross-section library, NDXS six- character names (12A6) required. Cards 3 and 4 are repeated for each set specified In Section 012 through the maximum set number. 57 Section 020: Nuclide Concentration Assignments In this assignment of nuclide concentrations for some initial condition, overlay is permitted; that is the last assignment to a zone overrides any previous ones. Card 1: (13, 3X, 213, E12.0) Section Card. Columns (1-3) Must contain the section identification 020. HD0(7-9) Option that no concentrations are supplied if aFor processing with the special processor DENMAN, a -1 here causes the nuclide densities 1n these locations to be set to zero before the additions are made. 58 0 - ltfHit concentrations. +1 - Use the concentrations from the corresponding zone (the nuclide set for the zone and sub- zone must be the same for this option). Card(s) 5: Subzone concentrations 4(A6,E1?.0), required if MSZI =_<0. Cards 4 and 5 are read until a blank card (zero NSZl) is encountered. Section 028: Criticality Search Data for Search Problems (Required if ICX3 > 0 or if ICXZ = 1 and ICX3 >_ 0) Card 1: (13) 028 in Columns (1-3) Card 2: (13) MSP(1-3) Search set identifier, set equal to ICX3 in DVENTR. Card 3: (6E12.0) Search specifications. XSH1(1-12) Desired multiplication factor (1.0). XSH2(13-24) Multiplication factor slope, ak/ax where x is the search problem eigenvalue. XSH3(25-36) Convergence criterion to be met by k, en = (ltn-kn-1)/kn where n refers to the nth outer iteration [5.0E-5]. XSH4(37-48) Convergence criterion to be met by eigenvalue of the search problem [1.0E-3], xSH5(49-60) Modifier applied to nuclide concentration varied specially (for NSH1 = 7 only see card 4). XSH6(61-72) Card 4: (2413) Search specifications. NSHl(l-3) Type of search. 0 - Not defined. 1 - Buckling. 2 - 1/V. 5 - Dimension. 7 - Nuclide concentration search by proportional adjustments of selected initial concentration. 9 - Nuclide concentration search by adding weighted eigenvalue adjustments to selected Initial concentration. 59 NSH2(4-6) Subzone option when NSH1 = 7 or 9. 0 - Search data by zone. 1 - Search data by subzone. NSH3(7-9) Maximum number of neutronic eigenvalue problems allowed for the search (a zero specifies a direct search). NSH4(10-12) Number of first dimension coarse mesh intervals (data required only for a dimension search, NSH1 = 5). NSH5(13-15) Number of second dimension coarse mesh intervals. NSH6(16-18) Number of third dimension coarse mesh intervals. NSH7(19-21) Maxinum number of isotopes or nuclides defined in a set for a concentration search (NSH1 = 7 or 9 only). NSH8(22-24) Number of sets specified for concentration search (NSH1 = 7 or 9 only). NSH9(25-27) Search problem eigenvalue range allowed for an acceptable solution. -1 - X > 0. 0 - No restriction. 1 - 0 < X < 1. 2 - \ < 1. NSH10(28-30) State of the iterative procedure allowed for ai. acceptable solution. 0 - No restraint. 1 - Convergence criteria not met. 2 - Convergence criteria not met and problem not converging. NSHll(31-33) Conditions allowed in the solution for it to be acceptable. 0 - Ml nuclide concentrations > 0 during calculation, 1 - All nuclide concentrations > 0 at solution, 2 - Allow nuclide concentrations < 0. 60 NSH12(34-36) If > 0, update the macroscopic cross sections during a direct nuclide search (NSH3 = 0). Additional Input Is required If NSHl = 5 or 7 or 9. For KSKi = 5 Card(s) 5: (6E12.0) SRHDJ(J) NSH4 values to be used as first dimension coarse mesh modifiers; coarse mesh Intervals are adjusted In proportion to these modifiers. Card(s) 6: (6E12.0) SRHDI(I) NSH5 values to be used as second dimension coarse mesh modifiers. Card(s) 7: (6E12.0) ^HDK(K) NSH6 values to be used as third dimension coarse mesh modifiers. For NSHl = 7 There must be NSH8 sets of Card 5 and Card(s) 6. Card 5: (213) NSHZl(l-3) First number of a consecutively numbered set of zones (or subzones). NSHZ2(4-6) Second number of a consecutively numbered set of zones (or subzones). Card(s) 6: (12(A6)) HNNAMS(N) NSH7 nuclide names whose concentrations are to be adjusted proportionately In the specified zones (subzones); blanks are allowed. Concentrations are adjusted by the equation C2 • XC-| vrftere X 1s a common multiplier. Card 7: (10(A6)) HNSHN(N) The names of up to 10 nuclides to have con centrations adjusted Inversely (concentration changes are of opposite sign to those of the other nuclides) in all search zones C2 - Cj + C!*(1-X)*XSH5. For NSHl - 9 Card 5: (213) NSHZl(l-3) (See above) 61 NSHZ2(<-6) Card(s) 6: [4(A6,E12.0)] (HNNAHS(N), NSH7 pairs of nuclide names and relative con CHZDN(N)) centration changes to be made in the specified zones (subzones). Concentrations are adjusted by the equation C2 - Cj + X*AC. B. DCRSPR This code processes data for the cross section processor code. Since a number of tasks have been programmed in the latter, the nece- sary instructions and data must be supplied as required by the various options. A primary role is the conversion from a nuclide ordered cross section file ISOTXS, as usually available from cross section preparation codes, to a group ordered GRUPXS file required by many of the computation modules in this system. Also, extraneous data in an ISOTXS file may be eliminated, such as the higher moments of scat tering and data for nuclides not of interest, important to hold down the computer memory and possibly the data transfer requirements for a calculation. Header card: DCRSPR in columns (1-6) Card 1: Control Options (2413) ICDl(l-3) ICD2(4-6) ICD3(7-9) Option on Input cross-section file processing 0 - No processing required. 1 - Generate a new nucHde-ordered file. (ISOTXS) from the file or files having format ICD5 (requires additional Input data) 1CD4(10-12) Option to generate a new group-ordered file (GRUPXS) from a nuclide-ordered file. 0 - No. 1 - Yes. IC05(13-15) Format of Input cross section for ICD3-1. 0 - Nucllde-ordered file (ISOTXS) 62 1 - CITATION cross-section sets. 2 - Merge two nuclide-ordered files (ISOTXS); the file control parameters NGROUP, MAXORD, ICHIST, NSCMAX, and NSBLOK must be the same for both files. ICD6(16-18) Option on principal cross-section data for ICD4=1. 0 - Retain all data. 1 - Redefine (n,Y) cross section to be the cap ture cross section = (n,y) + (n,o) + (n»p) + (n,d) + (n,t) - (n,2n). IC07(19-21) Option on scattering data for ICD4=1. 0 - Retain all data. 1 - Retain the total scattering only. ICD8(22-24) Option on scattering order for ICD4=1. 0 - Retain all data. N - Retain orders up to (N-l) only. ICD9(25-27) Option on scattering record blocking factor for ICD4=1. 0 - NSBL0K=1 N - NSBLGK=N, if (NIS0/N)*N=NIS0, otherwise NSBLOK?NISO where NISO is the number of nuclides. ICD10(28-30) Option to compute the total scattering matrix from the components for ICD4=1: TOTAL=ELASTIC + INELASTIC + N2N (This must be done if the GRUPXS file is to be used by VENTURE and there is no total scattering data present). 0 - No. 1 - Yes. 2 - Yes, but multiply N2N by 2.0. IC011(31-33) Option to create isotope mixtures after pro cessing specified by IC03 and ICD5, if any. A new nuclide-ordered file (ISOTXS) will be written. 0 - No. 1 - Yes (requires additional Input data). 63 ICD12(34-36) ICDl3(37-39) ICDl4(40-42) !CDl5(43-45) IC016(46-48) ICD17(49-51) ICD18(52-54) ICD19(55-57) ICB20(58-60) ICD21(61-63) ICD22(64-66) ICD23(67-69) Option to edit latest nuclide-ordered file (ISOTXS) 0 - No. 1 - Yes. IC024(70-72) Option to edit group-ordered file (GRUPXS). 0 - No. 1 - Yes. If ICD3 < 0 and ICDll < 0, no additional input is required. Card 2: (2413) Control instructions (required if ICD3=1 or ICD11=1). N0Pl(l-3) Number of CITATION cross-section sets to process (if N0P1=0 and ICD3=1 and IC05=1, set one will be processed). If N0P1>0, card(s) 3 required. N0P2(4-6) Scattering blocking factor for nuclide-ordered file created form CITATION cross sections. 0 - NSBL0K=1. N - NSBL0K»N, if (NGR0UP/N)*N=NGR0UP, Otherwise NSBL0K»1. N0P3(7-9) Option to input a neutron energy spectrum for weighting in mixture calculation. 0 - No. N - Yes (N should be equal to the number of energy groups on the cross section file). If N0P3>0 card(s) 4 required. 64 N0P4(10-12) Option to create pseudo direction dependent transport data. 0 - No. 1 - Yes, if NOP4>0, card 5 required. N0P5(13-15) Option to input override data for isotopes. 0 - No. N - Yes (N is the number of card(s) 6). N0P6(16-18) Number of mixtures (required if IC011=1). Card(«) 7, 8, and 9 are required if N0P6>0. N0P7(19-21) Maximum number of isotopes in any mixture (required if ICD11=1). N0P8(22-24) N0P9(25-27) N0P10(28-30) Opt'on on use of the override data for isotopes when N0P5>0 (applicable only when ICD3=1 and ICD5=0). 0 - Daca corresponds rfith the order of isotopes in the vile. 1 - Data identifies isotopes to be selected by unique Isotope label. N0Pll(31-33) N0P12(34-36) N0P13(37-39) N0P14(40-42) N0P15(43-45) N0P16(46-48) N0P17(49-51) N0P18(52-54) N0P19(55-57) N0P20(58-60) N0P21(61-63) N0P22(64-66) N0P23(67-69) N0P24(70-72) Optior on edit during CITATION cross section processing. 65 0 - No. 1 - Yes. Note: Any subsequent data causes file CXSPRR to be generated. Card(s) 3: (2413) CITATION set numbers to process (required if N0P1>0). (ISET(I),I=1,N0P1) Set numbers In ascending order of appearance In library. Card(s) 4: (6E12.0) Neutron energy spectrum (required if N0P3>0). (WGT(I),I=1,N0P3) Spectrum for weighting in mixture calculation. Card 5: (3E12.0) Multipliers for transport cross section (required If N0P4>0). (TRMOD(I),1=1,3) Multiplier for each coordinate direction STRPD(I)=TRMOD(I)*STRPL(J.) for each energy. Card 6: (3A6.6X.3E12.0,413) Isotope override data, required If N0P5>0 and there must be N0P5 card(s) 6. HIS0NM(l-6) Hollerith isotope label (unique). HABSID(7-12) Hollerith Isotope label (absolute). HMAT(13-18) Hollerith Isotope label (reference). AMASS(25-36) Gram atomic weight. EFISS(37-48) Total thermal etv -»v yield/fission (watt- sec/flssion). ECAPT(49-60) Total thermal jy yield/capture (n,y)(watt- sec/capture). KBR(61-63) Isotope classification. IDPl(61-63) IDP2(67-69) IDP3(70-72) When N0P10*0 and ICD3*1, the contents of these cards control the pro cessing of the cross sections. The order of these cards must be one- to-one with the order of the Isotopes 1n the old data f1le(s). One card 1s read for each Isotope. If for the label HISONM the word 'DELETE' Is specified, the data for this Isotope are not written on the new nuclide-ordered file; otherwise, the data will be Included and non-blank names and non-zero data on the card will replace the old data. The new file 1s completed when N0P5 Isotopes have been pro cessed (copied or deleted); NOPS may be less than the number on the old file. 66 When NOP10=1 and ICD3=1 and ICD5=0, this data may be used to control the content of the new ISOTXS file. The order ot u.e cards is not specified since the unique label (HISONM) is used to identify iso topes to be copied to the new file. Non-blank c* non-zero alues for the rest of the data will be put on the new file, li.c unique label may not be changed when using this option. If N0P5=0, data Tor «•? isotopes in the old file will be copied to the new file. Card(s) 7 and 8 are required for creating mixtures if N0P6>0. Card 7: (213) Ml(l-3) First mixture number of a consecutive set of mixtures/1 M2(4-6) Last mixture of a consecutive set of mixtures. Card(s) 8: 4(A6,E12.0) Specify sets of (1) a character unique isotope label and (2) the concentration (Atoms/b-cm). A blank label ends this data for these mixtures. Any isotope appearing in a mixture will be deleted from the new file. Sets of card(s) 7 and 8 are read until a value of M1=0 is encountered. Card(s) 9: (3A6.6X.3E12.0,413) Reference data for the mixtures, required if N0P6>0 and there must be N0P6 card(s). Card format is the same as Card 6. Non-blank data should be supplied for labels and non-zero data for KBR. AMASS, EFISS, and ECAPT are calculated for the mixture, but are replaced by non-zero entries. C. DUTLIN This special input processor 1s used to add or replace records on the interface file CONTRL which 1s Initially created by the control module. For example, the Reaction Rate module reads the record RRTINS to obtain the instructions for calculating reaction rates, the expo sure module reads the record EXPINS for the Instructions for exposure and shutdown calculations. This processor may be used to add the RRTINS and EXPINS and other records to the CONTROL file. « Normally Ml Is a mixture number, running from 1 up, and M2 1s left blank. S7 Each record of the file CONTRL consists of a REAL*8 six character identifier, 100 REAL*8 words aid 100 INTEGERS words. The 100 REAL*8 words may contain Hollerith information, but the Hollerith will always be in the first locations and eacn Hollerith aord will consist of six characters. Header card: DUTLIN in columns (1-6). Card 1: (A6,6X,4I3). HXCTL(l-6) Record identifier (see Figure 4. Interface File CONTRL). NH(13-15) Number of REAL*8 six-character Hollerith words to be input in (12A6) format. NR(16-18) Number of REAL*8 floating point numbers to be input in (6E12.0) format. NI6(19-21) Number of Integers u be input in (1216) format. NI3(22-24) Number of integers to be input in (2413) format. IPR(25-27) Edit data 1f > 0. Note: NH + NR F 100, and NI6 + NI3 F 100. Card(s) 2: (12A6) Required if NH > 0. (XCD(I), I*1,NH) REAL*8 Hollerith data. Card(s) 3: (6E12.0) Required if NR > 0. (XCD(NH+I), 1=1,NR) REAL*8 floating point data. Card(s) 4: (1216) Required if NI6 > 0. (IXD(I), 1=1,NI6) Integer data. Card(s) 5: (2413) Required if NI3 > 0. (IXD(NI6+I), 1=1,NI3) Integer data. Note: Unassigned values of XCD or IXD will be zero. Data for additional records will be processed until HXCTL on card 1 equals 6H or 6HBLANK_ (or end-of-f11e 1s read). D. DCMACR This code reads macroscopic cross section data In the section 008 format of the CITATION code* and writes a pseudo CITATION format a ORNL/TM-2496; note that certain assumptions arc made 1r converting the data to a pseudo microscopic file which Includes values of the fission cross section, and the full capability Implied 1n the specifi cations for file ISOTXS or GRUPXS 1s of course not possible. 68 microscopic cross section file on logical unit 8. This file may then be converted to the standard Interface file GRUPXS by the cross sec tion processor code In this system. Header card: DCMACR In Columns (1-6). Card 1: (13) MVX(l-3) The number of zones (pseudo nuclides) In the CITATION format macroscopic data below. Card 2: (12A6) TITLE(l-72) Descriptive title. Card(s) 3: The data for a complete CITATION Input section 008 Including the 008 card. E. DENMAN This code Is accessed by a module number 99 in the calculatlonal path Instruction to the control module. On option, the user may: (1) Change the cross section reference (a) change zone and/or subzone nuclide set reference (b) change nuclide set definition (2) Change (overlay) the nuclide concentrations In file ZNATON {or QNATDM) (3) Produce a deck of nuclide concentrations In the Section 020 for mat of the special processor DVENTR (4) Edit the contents of file ZNATDN (or QNATDN) (5) Create file SEARCH with multiple sets of search data. The Interface file NDXSRF, which contains referencing Information, Is always required. If no lata is specified (the code finds an end-of-file or the first card after the header card contains a 999 in Columns 1-3) the default task of option N0PN2*1 below is performed (a deck of nuclide concentrations in the section 020 format is produced). Header card: DENNAN in Columns 1-6. Section 010: Nuclide Set Reference Instructions (optional) Card 1: 010 1n Columns 1-3. Card 2: Instructions (2413) 69 Card 2: Instructions (2413) J0PNl(l-3) Option to change nuclide set reference 0 - no change 1 - change nuclide set number assigned to zone and/or subzone (requires additional input in form of Section 012) 2 - change nuclide set definitions (requires additional input in form of Section 013) J0PH2(4-6) Reserved J0PN3(7-9) Reserved JOPN4(10-12) Reserved J0PN5(13-15) Reserved J0PN6(16-18) Option on the version of the referencing file NDXSRF to be written. 0 - rewrite old version 1 - write new version J0PN7-J0PN24 Reserved Note: When nuclide sets are changed the absolute nuclide name asso ciated with each position in the old set and the new set must agree. Also a change in nuclide sets may require redefining the file SEARCH. Section 012: Assignment of Nuclide Sets to Zones and/or Subzones (Conditional - Required if J0PN1 = 1) Card 1: 012 in columns 1-3. Card 2: NSZ(l-3) Number of subzones (not used but is obtained from file NDXSRF) Cards 3: Zone referencing data (413, E12.0) Ml(l-3) First zone number of a consecutively numbered set of zones M2(4-6) Last zone number of the set NS(7-9) Nuclide set reference number (out of the integers from 1 to the number of sets defined in file NDXSRF, zero Is allowed if the zone contains subzones) NC(10-12) Not used VF(13-24) Not used 70 Cards 3 are read until a blank or zero Ml number is encountered Cards 4: Subzone referencing data (413, E12.0, 13) (required if sub- zones are present) MNl(l-3) First subzone number of a consecutively numbered set of subzones MM2(4-6) Last subzone number of the set NMS(7-9) Nuclide set reference number (out of the integers from 1 to the number of sets defined in file NDXSRF) NMC(10-12) Not used VMC(13-24) Not used NMC0PT(25-27) Not used Cards 4 are read until a blank or zero MM1 is encountered. Section 013; Nuclide set Definition (Conditional - Required if J0PN1 = 2) Card 1: 013 in Columns 1-3 Card 2: NNS(l-3) Maximum number of nuclides in any set (not used but is obtained from file NDXSRF) Card 3: NDXS(l-3) Number of nuclides in this set (enter ze-o if no change in this set) Cards 4: Names of nuclides (alphanumeric characters) in the replace ment set which must correspond with user identification (unique) names (not absolute names) in the cross section library, there must be NDXS six-character names (12A6). Cards 3 and 4 are repeated for each nuclide set specified in NDXSRF file. Section 018: Nuclide Concentration Instructions (Optional) Card 1: 018 in Columns 1-3 Card 2: Instructions (2413) N0PNl(l-3) Option to change (overlay) the nuclide con centrations in the latest version interface file. 0 - No 1 - Yes (requires additional Input 1n form of Section (020) N0PN2(4-6) Option to produce a deck of the nuclide con centrations 1n the format of Section 020 of the 71 > DVENTR special input processor fro* the latest version interface file. The deck is written on unit 7 and nay be punched or saved on an external device according to the job control instructions. 0 - Ho 1 - Yes N0PN3(7-9) Option to edit the nuclide concentrations from the latest version interface file. 0 - No 1 - Yes N0PN4(10-12) Option on nuclide concentration interface file name. -1 - Read QNATDN, write QHATDN 0 - Read ZNATDN, write ZNATDN 1 - Read QKATDN, write ZNATDN Note: A file is written only when N0PN1 = 1 N0PN5(13-15) Reserved N0PN6(16-18) Option on version of nuclide concentration file to be written 0 - rewrite old version 1 - write new version N0PN7-N0PN24 Reserved Section 020: Nuclide Concentrations (Conditional - Reuiired if N0PN1 = 1) The form of the data Is as described for Section 020 of the DVENTR special input processor except the NDO on Card 1 has no affect. Note that existing concentrations are not altered unless new con centrations are assigned. If a zero concentration Is desired for a nuclide in one or more zones where It is non-zero In the file, then such must be specified. There Is pi vision to set nuclide densities to zero by option before adding new values. Following the iden tification of a series of zones (MZl, MZ2), MZl (Col. 7-9) set to -1 causes all nuclide densities In zones MZl through MZ2 to be set to zero, and for a set of subzones (MSZl, KSZ2), MSZl (Col. 7-9) set to -1 effects the same for this set of subzones. Full overlay capability 72 of data by blocks of zones or subzones is inplenented allowing redun- dant specifications; the last assignment in such event overrides any earlier ones. Note: If nuclide sets have been changed, reference to nuclides must be made with the new unique names. Section 026: Search Data Instructions (Optional) Card 1: 026 in Columns 1-3 Card 2: Instructions (2413) LPHNl(l-3) Option to create a SEARCH interface file 0 - No 1 - Yes (requires additional input in form of Section 028) L0PN2(4-6) Reserved L0PN3(7-9) Reserved L0PN4(10-12) Reserved L0PN5(13-15) Reserved L0PN(16-18) Option on che version of the SEARCH file to be wr :ten 0 - rewrite eld vers.on 1 - write new version L0PN7-L0PN24 Reserved Section 028: Criticality Search Data (Conditional - Required if LOW = 1) The form of the data is as described for Section 028 of the DVENTR special input processor except that multiple sets of search data may be input. Data Is processed until NSP on Card 2 is less than or equal to zero. Section 999: Terminator A card containing 999 1n Columns 1-3 Is recommended for termina tion of this data. END Card The block of data for this processor requires a final card with END In Columns 1-3. F. DMISLY This code Is accessed by a module number 99 and performs miscellaneous tasks described by the Input options given below: 73 Head Card: DMISLY In Columns (1-6). Card 1: Control Options (2413). Always required. I0Pl(l-3) 1 - Expand an RTFLUX file by adding a dimension (controlled by I$P4 below) and write over the old file. The permitted expansions are: X to XY (last dimension), R to RZ or eR (last or first dimension), XY to XYZ (1st dimension), RZ to eRZ (first dimension), eR to eRZ (last dimension), T to TZ (last dimension), H to HZ (last dimension). 2 - Same as I+P1=1 but write a new version of the file. IP02(4-6) Same as I0P1 but fir an ATFLUX file. I0P3(7-9) Same as I0P1 but for a GEODST file. (Requires additional input). I0P4(10-12) 0 - Add a last dimension. 1 - Add a first dimension. I0P5(13-15) The number of fine mesh intervals for the added dimension. If I0P5 = 1, the only change to the GEODST file (I0P3>0) will be new buckling or outer boundary conditions, 1f specified, (see cards 3, 4, and 5). If I0P5 = 1 and I0P4 » 0, no change will be made to the R(A)TFLUX files. I0P6(16-18) 0 - Cosine flux distribution for I0P1 and/or I0P2>0. The expanded flux distribution will be: 4> (expanded) - * (input) x Zp where Zj « Cos (Xj), Xj » ijiZ2 x („ x xOPl). (X0P1 Input on card 2). 1 - Same as I$P6»G but with^ sine flux distribution. I0P7(19-21) 1 - Fold fluxes from a one-dimensional RTFLUX file and a one- or two-dimension*! RTFLUX file (two latest versions) to produce a two- or three-dimensional RTFLUX file and write over the old one- or two-dimensional file. 74 See I0P9 option if both files are one-dimensional. The possible geometries are: Y, X (X,Y see I0P9) to XY Z, R (R,Z see I0P9) to RZ Z, T to TZ Z, H to HZ Z, XY to XYZ Z, 9R to eRZ The fluxes from the one-dimensional file will be normalized by dividing by +N in each group where N is the point where the first group is the maximum. 2 - Same as l+P7=l but write a new version of the file. I0P8(22-24) Same as I0P7 but for ATFLUX files. I0P9(25-27) 0 - The next-to-latest version of the file is the Y or Z file and the latest version is the X or R file. The latest version will be writ ten over for I$P7=1 or I$P8=1 1 - The latest version of the file is the Y or Z file and the next-to-latest version is the X or R file. The next-to-latest version will be written over for I$P7=1 or I$P8=1. I0P10(28-30) I0Pll(31-33) I0P12(34-36) I0P13(37-39) I0P14(40-42) I0P15(43-46) I0P16(47-49) I0P17(50-51) I0P18(52-54) I0P19(55-57) I0P20(58-60) I0P21(61-63) 75 I0P22(64-66) Print contents of Input files (If >0). IOP23(67-69) Print content of output files (if >0). I0P24(70-72) 0 - Minimum debug edit. 1 - Medium lebug edit. 2 - Maximum debug edit. Card 2: Control Options (6E12.0). Always required. See I0P6 card 1. X0P1(1-12) 0.0 - Zj - 1.0 1.0 - Zj ranges from +1.0 to -1.0 (I0P6=0, cosine distribution). 0.5 - Zj ranges from +1.0 to 0.0 (I0P6=0, cosine distribution). 1.0 - Zj ranges from 0.0 to 0.0 (I0P6=1, sine distribution). 0.5 - 1\ ranges from 0.0 to +1.0 (I0P6-1, sine distribution). X0P2(13-24) Width of added dimension for GE0OST expansion (cm or radians). Card 3: GEOGST Data (2413). Required only if I0P3>0. IG01(l-3) First boundary condition of added dimension (IMB1, JMB1, or KMB1). IG02(4-6) Last boundary condition of added dimension (1MB2, JMB2, or KMB2). 1603(7-9) The number of buckling specifications (NBS) (if >0 requires additional Input). IG04(10-12) The number of constants for external boundaries (NBCS) (if >0 requires additional Input). 2 - The first and last surface constants for the added dimension will be given. NBCS on the GEODST file must be 6 for this option. 7 2 See NBCS on GEODST file. Card 4: Buckling Data (6E12.0). Required only 1f IG03>0. IG03 numbers required. Card 5: Boundary Constants (6E12.0). Required only If IG04>0. 1604 numbers required. 75 IX. JOB CONTROL INSTRUCTIONS A. THE CATALOG PROCEDURE To run a job on the local IBM computers the computer operating system must have available the job control instructions for that job. Most of the job control instructions for executing the code modules in this computational system are cataloged and stored in a library which is accessed at run time. This catalog is shown in Figure 5. The information in the cataloged job control instructions is parameterized and actual values of these parameters must be supplied by the user. These parameters have values which are problem-dependent and include core region size, CPU time, and space, buffer size, and blocking factors for each auxiliary storage I/O data file. Figure 6 shows a typical set of job control instructions which the user supplies to supplement or override the instructions in the catalog. Only a brief description of these instructions will be given here. For information about the use of the local computers, refer to the local report "Programmers Notebook" Issued by the Computer Sciences Division of the Nuclear Division of Union Carbide. B. USER SUPPLIED JOB CONTROL INSTRUCTIONS The parameters NB1, NB2, Bl, B2, NX, NS, and Nl through N16 shown in Figure 10 are described under Problem Dependent Data File Parameters below. The core storage region size (in k=1024 bytes), specified on the "// GOSIZE =" card must be approximately 300 plus the primary data allocation size (IP1, Figure 2.) divided by 250. Any cards present between the 7/ GOSIZE*" card and the 7/G0.SYSIN DD *" card override the corresponding cards in the catalog, and must be given In the same order as those 1n the catalog - unit numbers increasing. Note that when overriding cards in the catalog, a "GO." should be punched following the // 1n column 1-2: I.e. "//GO.". The catalog identifies three Individual data files for printed output. The file PRINT receives output from the driver and consists of all user Input card images, the file FT06F001 receives output from the calculations! or special code modules, and the file FT99F001 77 receives output from the control module C0NTR0L1 (a history of the run) and selected output from the calculation modules. If none of these files are overriden, the output is printed locally, with PRINT first, followed by FT06F001, and FT99F001 last. A card "//GO.PRINT DO DUMMY" causes the file PRINT to be null and no DRIVER output will be printed. The card "//G0.FT99F001 DO SYS0UT=(J,RM01)" causes the output from the control module to be printed at a remote printer identified as RM01. A card such as "//GO.FT32F001" makes a special assignment overriding the catalog specification. It identifies logical unit 32 as a standard labeled tape. The parameter MINNNN should be replaced by the actual tape number. ODD should be replaced by NFW if the tape is to be written, or OLD if the tape is to be protected from being written, and SOME.NAME should be replaced by an identifying name. Labeled tapes are recommended in general. If an overriding data set identifies a disk other than a scratch disk (SYSDA), the DSN parameter must also be included. All cards between 7/GO.SYSIN DO *" card and the •/*" card are data cards for the run. The first four are the control module instructions described in Figure 2. The fourth card describes the calculational path as follows: (1) The Input Processor module is accessed, for example, to read cards and write the nuclide ordered cross section file ISOTXS on the tape unit 32, (2) The special input processor DCRSPR is accessed to read input data and write the necessary interface files for the Cross Section Processor Module, (3) Then tne module for processing cross sections is accessed, to convert the nuclide ordered file ISOTXS to the group ordered file GRUPXS, (4) The special input processor DVENTR is then accessed to read input data and write the necessary interface files for the VENTURE Neutronics module, (5) The VENTURE Neutronics module is then accessed, (6) The special processor DUTLIN is accessed to read data and write the instructions for the Reaction Rate module, and (7) The Reaction Rate module is accessed. Calculations may be done without using the input processor as shown, but data must be made available as required. 78 FIGURE 5. THE CATALOG PROCEDUIE. //BOLDVEHT PROC GOSIZE=5»0K,GOTI8E=,HODULE=SCALE, // HB1=1#IB2=1,B1=3520,B2=32000,HX=2,HS=50,H1=100, /' *2=l,H3=l,tf«*=1,H5=1,N6=1,H7=1,N8 = 1,H9= 1,1110= 1,Hl 1 = 1,H12=1,H // 114=1, HI 5=1,1116=1 //SO EXEC ?GM=&H0DULE, // REGIOH=6G03IZE,TISB=6G0TIHE //STEPLIB DD DHIT=3330,V0L=SBR=XXXXXX,DISP=SHR, // DSH=BOLD.?ENTORE //PRIHT DD SYS0UT=ArDCB=(RECF*=VBA,LRECL=137,BLKSIZE=1100) //FT01F001 DD 0?IT=SYSDA,SPACE=(DB1, (&NS,1)), // DCB=(RECFH=7BST,LRE=L=X,B0FHO=&NB1,BLKSIZE=&B1) //FT02F001 DD OHIT=SYSDA,SPACE= (&B1, (SHS, 1) ) , // DCB=(RECFH=VBST,1RECL=X,BOFHO=SKB1,BLKSIZE=&B1) //FT03?001 DD OHIT=SYSDA,SPACE=(80, (10)), // DCB=(RECPM=P,BLKSIZE=80) //FT04F001 DD OHIT=SYSD£., SPACE* (3230, (&N1,&NX)), // DCB= (RECFH=FBS,LRECL=60,BLKSIZB=3200) //FT05F001 DD OHIT=SYSDA,SPACE* (3120, (200, 100)) , // DCB= // NCB=(RBCFH=?BST,LRE:L*X/B0FN0*&NB1,BLKSIZE=5B1) (CONT) 79 //FT22F001 DD (JNIT=SYSDA, SPACE* (G31, (SPS, 1) ) » // DCB= (PBCFH=?BST#LRErL=X#BOFHO=CMBl,BLKSIZB=SBl) //FT23F001 DD ONIT=SYSDA, SPACE* (SB 1, (&H3) ) , // DC3=(RECFH=PT#B0FM3=6RB1) //FT2UF001 DD BHIT-SYSDA,SPACE*(&B1,(6H2) ) , // DCB=(RECFB>FT,BUFHO=SliB2) //FT25F001 DD IJHIT=SYSDA,5PACE=(6B1,(6H12) ) , // DCB=(RECFH=FT,B0FH0=RHB1) //FT26F001 DD 0HIT=SYSDA,SPACE*(&B1, (&H12)) , // DCB=(REC?H=PT,BOFHO=eHB1) //FT27FO01 DD OHIT=SYSD&,SPACE*(6B1, (6H2) ) , // DCB=(RECFH=FT,BDFMO=eNB2) //FT28F00 1 DD 0NIT=STSDA, SPACE= (&B1, (6H2) ) , // DCB* (RECFH=FT,BUFHO=&HB2) //FT29F001 DD 0HIT=SYSBA,SPACE=(&B1,(&H14)) , // DCB=(RECFH=FT,BUFH3=&HB2) //FT30F001 DD &HTT=SYSDA,>PACE=(SB1, (&H1,2) ) , // DCB=(RECFn--VUST,LRE3L=X/BDFMO=&NB1rBLKSIZE=&B1) //FT31F001 DD 0HIT=SYSDA, SP2CE=(&B1, (&H1,GKX)) , // DCB= (RECFH=VBST#LRECL=X/BUFHO=6HB1,BLKSIZE=6B1) //FT32F001 DD &!IIT=SYSDA,SPACE*(&B1,($N1,2)), // JCB*(RECFH=7BST#LRECL=X#B0FH0=&HB1#BLKSIZE*6B1) //FT33F001 DD 0NIT=SYSDA, SPACE* (6B1, (SM«) ) , // DCB=(RECF"=VBST,LRE::L=X,BOFKO*&NB1,BLKSIZE*&B1) //FT3UF001 DD 0HIT=SYSDA, SPACE* (&B1, (6H1,6!iX) ) , // DCB=(RECFH=7BSTrLRECL=X,B0FMO=6HB1#BLKSIZE»BB1) //FT35F001 DD 0NIT=SYSDA,SPACE=(&B1, (&N1,2)), // DCB= (RECFM=7BST,LRE2L=X#BUFHO=SHB1,BLKSIZE=6B1) //FT36F001 DD 0HIT*SYSDA,SPACE=(6B1,(6N6,2)), 1 // DCB=(RECFH=yBST,LRE;L=X#B0FNO=CHb RLKSIZE»&Bl) //FT37F001 DD 0HIT=SYSDA,SPACE*(&B1, (6»15,2)), // DCB= (RECFB-?BST#LRE2L=X#BDFHO=6HB1,BLK.'IZE=6B1) //FT38F001 DD 0NIT=SYSDA,SPACE*(&B1,(EH 15,2)), // DCB= tSECFK=?BST#LIvECL=X#BDFHO=&IIB1#BLKSIZE=BB1) //FT39F001 DD 0HIT=SYSDA, SPACE=(P,B1, <&N15,2)) , // DCB* (RECFH=VBST,LRE:L*X,B0F1I0*&1IB1,BLKSIZE*SB1) //FT40F001 DD UNIT=SYS0A,SPACE=t&B2, (&B5)), // DCB*(RECFH=FT,BUFH0 = &WB2) //FT41F001 DD OHIT=SYSDAr SPACE* (&B1, (ftR4)) , // DCB*(RECFM=VBST,LREZL=X/BOFKO=&HB1,BLKSI2E=6B1) //FT42F001 DD OHIT=SYSDA,SPACE*(&B2,(6*7)), // DCB* (RECFH=VBST#LRE2L=X,B0FHO*eNB2,BLKSIZE«&B2) //FT43F001 DD UKIT=SYSDA,SPACE*(&B2, (M8) ) , // DCB»(RECFH=VBST#LRE3L=X#BUFirO*6KB2fBLKSIZE»6B2) //FT4aP001 DD 0NIT=SYSDA,SPACE*;t81, (f4IS,1)), // DCB* (RECFM=VBST,LRE::L=X,BUFH0*SNB1,BLKSIZE«&B1) //FT45F001 DD 0NIT*SYSDA,SPACE*(&B1, (&H9J) / // DCB* (RECFH*VBSa-,LRE:L*X#B0FN0*eNBl,BLKSIZE*6B1) //FT46F001 DD GNIT'SYSDA,SPACE*(&B1,(&H10)), // DCB*C1ECFM*7BST#LRE:L*X#BOFHO*6MB1,BLKSIZE*&B1) //FTI»7F001 DD ONIT*SYSDA, SPACE* (&B1, (&NS,1)) , // DCB* (RECFM=VBST/LRB::L*X,B0FNO*e»Bl,BLnSIZE«&B1) //PT«»8F001 DD ONIT'SYSDA, SPACE* (&B1, (&N1,2)) , // DCB* (RECFM=7BST,LRE:L*X,BUFS0*C»Bl,BLrSIZE*&B1) (C3NT) 30 //FTH9F001 DD UMIT=SYSDA,SPACE=(&B1, (£N11)) , // DCB=(RECP«=?BST,LRE:L=X,BOFNO=&SBI,BLKSIZE=&BI> //FT50F001 DD OIlIT=SYSDAtSPACE=(SB1, (&H1,2)). // DCB=(RECFH=¥eST,LRBrL=X,B0FHO=6HBl,BLKSIZE=6B1) //FT51F001 DD 0!IIT=SYSDA,SPACE=(&B1 , (&NS,1) ) , // DCB=(RECFH=?BST#LRE;L=X#B0FHO=5HBlrBLKSIZE=6B1) //FT52F001 DD DHIT=SYSDArSPACE={6B1,(GHS,1)), // DCB=(RECFH=?3ST#LRECL=X#B0FHO=5HB1#BLKSIZE=BB1) //FT53F001 DD 0WIT=SYSDA,SPACE=(SB1,(GHS,1)), // DCB={RECPH=?BST#LRE:L=X,BDFHO=eHBlrBLKSIZE=6B1) //FT5«»F001 DD 0»IT=STSDAr SPACE* {&B1, (&H1,2) ) , // DCB= (RECFH=?BST,LRE;L=X,BnFHO=6HBl,BLKSIZE=6B1) //FT55F001 DD OHIT=SYSDA,SPACE=(&B1,(6HS,1)), // DCB=(RECFH=VBST,LRE2L=X# 30FHO=&NB1,BLKSIZE=&B1) //FT56F001 DD OHIT=SYSDA,SPiCE= (&B1, (GNS, 1) ) , // DCB=(BECFH=?BST,LRECL=X,B(TFIIO*6HB1#BLKSIZE=6B1) //FT96F00 1 DD 0KIT=SYSDA, SPACE= (&B1, (PUS, 1) ) , // DCB=(RECFH=?BST#LRE3L=',B0FKO=&HB1,BLKSIZE=&B1) //FT97F001 DD 0MIT=SYSDA,SPACE=(GB1,(6HS,1)), // DCB=(RECFH=7BST#LRECL=X,30FHO=&HB1,BLKSIZE=6B1) //FT98F001 DD 0!ttT=SYSDA,SPACE= (&B1, (&HS,1) ) , // DCB=(RECFH=VBST#LRE3L=X#B0FHO=6HB1,BLKSIZE=6B1) //FT99F001 DD SYS00T=A,DCB=(RECFH=7BA,LRECL=137,BLKSIZE=1100^ //BOLDVEHt PEHD FIGURE 6. OSES SUPPLIED JOB CORTROL IRSTRQCTZORS. //UIDXXXXX JOB (CHRGE),»ADRES,BAHE COL 25-«»«»«,HSGLBfEL-(1, 1) //•CLASS CP09 1-10H,IO«50,REGIOl-600K,LIBES«19,CABDS-0 //STEP EIEC BOLDYZRT, // RBI* 1VRB2*1,B1~3S20,B2*3520,1X*2,HS*50,11*100, // 12*1,B3»1VR4"1,R5~1,R6*1,H7*1,R8*1,H9*1,110*1, HI 1»1,R12> 1,113*1, // 11M1,»15«1,H1€«1, // GOSIZE-600K n //GO.FT32F001 DO TIlXT"TAPB8#TOL NE~SER*llllll,LABEL* (1,SL, ,21) , // DCB* (BBCFR*VBS,LRBCL*X#BLKSXZE*3520,DBl*2),DXSP*DSD,DSl-SCa2.RAB2 //GO.SYSI1 DO * *CORTROL1 *******9************2X7LE CABD FOR THE HUH******************** 90000 10 50 1 1 1262 7 13 7 13 290 RTFLOX BID IIPOT PBOCBSSOB COHREIT*****DATA IOB TBB XRPOT PROCESSOR 601S BBBB 110 OCRSPR COH REIT *****D ATA FOB THE SPECIAL XIPOT PBOCXSSOB OCBSPB GOZS HIRE I1D DFERTR COHBERT*****DATA FOB TBB SPECIAL X1P0T PROCESSOR D7EBTB GOZS HIRE BBD DDTLX1 COHBEIT*****DATA FOB TBB SPBCZIL Z1P0T PROCESSOR DOTLXl GOZS HIRE Z1D /* // 82 C. PROBLEM DEPENDENT DATA FILE PARAMETERS Often the data file requirements are governed by those of the neutronIcs codes, so these parameters have been tailored to satisfy the basic needs of the VENTURE and VALE neutronlcs code modules. However, there are situations where the requirements are governed by other modules In the system. The user should refer to specific docu mentation about these requirements. Information about specifying these parameters Is given here and Figure 7. presents reference Information. (See also APPENDIX A.) When a file has special requirements, such as for an nusually large amount of disk space, It may be most practical to inc ude override Instructions for this unit rather than use the parameters. Bl and B2 are the sizes in bytes (4 bytes per short word) of core memory blocks into which data are read, limited to 32000. The larger this block size the fewer ire the I/O requests required to read a par ticular data set. B2 defines the block size of the data sets which are read most often during the Iterative part cf the calculation. NBl and NB2 (permissible values of 1 or 2) specify the number of buffers (number of blocks of size Bl or B2) of core memory into which data will be stored. We recommend specifying NBl = 1, NB2 = 1, Bl = 3520, and B2 » 32000, NX » 2, NS = 50, and Nl = 100. These values will be adequate for most practical problems. We find advantage in using only one buffer as this minimizes core memory requirements. For small problems, it may be desirable to set B2 to something smaller than 32000 to minimize core memory. It 1s recommended that Bl and B2 not be set smaller than 3520. Values for parameters N2 through N16 are calculated as follows where reference Is to the mu1t1-dimensional problem to be solved by the neutronlcs code:* a Space requirements are shewn for "track overflow"; they Increase by a factor equal to the reciprocal of the fraction utilization without this. 83 Figure 7. Determining the Values of L, N, and 8 For L N B Remarks K sot PC Bl NorMlly 8C RP6 For the "row-stored" •ode. Set N3*l except for the "row- stored" aode. N3 36C+4 RPG Bl Non-hexagonal geometry. 44C*12 Hexagonal geometry. Set N4*l except for fixed source problems. N4 8CR PG Bl Fixed source by point and group. 42 G Fixed source by zone and group. Set N5=l for the "row-stored" mode only. N5 4(8CR+C+R) PG 82 Non-hexagonal geometry. 4(9CR*2C*2R) Hexagonal geometry. N6 Set N6=10 N7 8CR P B2 N8 8CR P 02 N9 8CR P Bl N10 8CR P Normally. PG Bl If initial flux guess is to be read from RTFLUX Interface and to be expanded. Nil 8C RP Bl • • Ni2 Set N12-1. Set N13»l unless the power density interface PWDINT will be written. N13 SCR P Bl For writing the interface PWDINT. Set H14-1 unless the \ calcula tion is to be done. M14 SCR PG Bl For the Pi N15 Set N15-10. Normally N16-1. N16 SCR PG Bl If the standard flux interfaces RTFLUX and/or ATFLUX art to be written on scratch disc. 84 Let C = number of columns In the mesh R = number of rows In the mesh P = number of planes In the mesh G = number cf energy groups Z = number of zones and NN = [(110+1.1L)N]/B + 1 where NN is the value assigned to N2 through N16, and L, N, and B are calculated from the above parameters as shown in Fig. 11 or have set values. For a non-hexagonal problem running in the "plane stored" mode, with 48 columns, 22 rows, 16 planes, and 6 groups, N2=257, N3=l, N4=l, N5=113, N6=10, N7=5, N8=5, N9=43, N10=43, Nll=54, N12=l, N13=l, N14=l, N15=10, and N16=l. Larger Values for these paremeters waste computer resources and likely increase cost. As a user aid major space requirements for data files are edited by the more sophisticated codes such as VENTURE in this system (see APPENDIX A.). X. SUPER SAMPLE PROBLEM The source of this problem is the Large Core Coc? Evaluation Working Group (LCCEWG) Third Benchmark Problem. It has been changed somewhat from the original specifications for use as a sample problem. The hexagonal three-dimensional geometry and zone placement are shown 1n Figures 8 and 9, and the depletion transmutation scheme is shown In Figure 10. A description of the module accesses 1s given in Figure 11. The job control Instruction and input are shown in Figure 12, and selected output is shown in Figure 13. The complete output for this problem 1s included in the source package for the BOLD VENTURE com putation system available from the National Energy Software Center (ANL). The calculatlonal path was chosen to demonstrate the flexibility of calculations that may be done with the BOLD VENTURE system. The control module 1s Initially accessed by the resident driver 1n order to read Input data and create the file CONTRL and write the records PROINS and DVRINS on this file. After this Initial access the control module Instructs the driver to access the module? In order. f 85 ORNL-ONG MM4901R LATTICE PITCH - 16.33 cm 44-47 32-35 PRIMARY CONTROL ROD ZONES 24-39 SECONDARY CONTROL ROD ZONES 24-27 WHERE ZONE 24 ZONES 40-51 IS AT THE MID-PLANE (AXIAL MESH POINT 7 AND 8), AND ZONES 25-27 LIE OUTWARD AXIALLY (SEE FIGURE 13). THIS PLACEMENT HOLDS FOR iLANKET EACH SET OF CONTROL ROD ZONES. NOTE: SEE FIGURE 13 FOR ZONE PLACEMENT AND DIMENSIONS. Figure 8, Cross Section Through Core Assemblies ORNL-OWO 80-14602 1*' AXIAL MESH 0.0 cm 1L 23 23 23 23 23 23 23 22 1 134.62 9 19 10 20 11 21 12 22 2 170.18 5 16 6 17 7 18 8 22 3 200.66 ZONE 13 2 14 3 15 4 22 4 231.14 MIDPLANE ZONES 1 -12 INTERNAL AND RADIAL BLANKET ASSEMBLIES 13-18 FUELEO DRIVER ASSEMBLIES 19-21 AXIAL BLANKETS 22 RADIAL SHIELD 23 GAS PLENUM/STRUCTURE Figure 9. Zone Placement ...... ^ ORNL - 0W6 80-14603 LOST LUMPED FISSION PRODUCT fJLZ ss LOST NOTE: NO TRANSMUTATION OF COOLANT OR STRUCTURAL MATERIALS FIGURE 10* TRANSMUTATION SCHEME 88 Figure 11. Module Accesses and Results. Nodule Access Results 1 Reads interface files GRUPXS, RODSET, EXPOSE, and REFUEL 2 Reads neutronics instruction and data for files GEODST, NDXSRF, and ZNATDN. 2 Reads control rod positioning and exposure instructions, and fuel management instructions. 12 Inserts control rod material in primary control rod zones 24 through 39. 7 Regular flux-eigenvalue neutronics. 19 Fuel management initilization. 13 Exposure (255.5 days). 2 Reads control rod positioning instructions. 12 Replaces rod material with rod-follower material in control rod zones 24 through 35. 7 Regular flux-eigenvalue neutronics. 13 Exposure (255.5 days). 2 Reads control rod positioning insturctions, neutronics instructions, and perturbation Instructions, 12 Removes control rod material from control rod zones 36 through 39 and replaces it with rod-follower material. This 1s the all-rods-out configuration. 7 Regular and adjoint flux-eigenvalue calculation. 9 Reaction rate calculation. 15 Perturbation calculation. 2 Reads neutronics instructions. 89 Figure 11. (con't) Nodule Access Results 7 Dominant harmonic adjoint fixed source (peak power density) calculation. 2 Reads control rod positioning and neutronics instructions. 12 Inserts control rod material in all primary control rod zones 24 through 39 and special shutdown rod material in secondary control rod zones 40 through 51. This is the all-rods-in configuration. 7 Regular flux-eigenvalue calculation. 2 Reads control rod positioning instructions and fuel management instructions. 12 Restores all control rod zones 24 through 51 to their original configuration (after the first access to module 12). 19 Refuels the core. 7 Regular flux-eigenvalue calculation. 90 FIGURE 12. IBPOT FOR SOPER SABPLB PROBLEB. //OSERID JOB (CHARG),*BSER ADDRESS '.(ISCLETEX-(1,1) //•CLASS CP091=2OH,IO=O15.BEGIOW=15OOK,I.IBES«=12.CARDS=O //SKP EXEC BOLDTEBT, // BB1=1,1IB2=1.B1=3520,B2=32000,RX=50,5S=136#Bl=136. // B2=13S,R3=10,RM136,RS=60,B6«10,B7M,B8**,R9>34,B10*34,B11*41rH12*1, // B13=136,»14=20.»15=10,J16=136, // G0SIXE=1500K //GO.STSIB DD • "CORTBOL1 SUPER SAHPIE PROBLEfl. 220000 1 1 2 2 12 7 19 13 2 12 7 13 2 12 7 9 15 2 7 2 12 7 2 12 19 7 0 no IBPOT DATA PBOCESSOR. OV GROPXS SORBl H IDE S ID * *9 0 3 0 1 3*3 0 3R 1 2R 0 2B 2D / •LCCEBG BETRODS BEBCHHABK PROBZ-EH 3 UBEASX - R PROTSXK (GE-A* •RSD) A0816 All23 A2*00 12555 12600 A28O0 AH200 A9235 • •A9236 A9238 A9*39 A9**0 A9**1 A9M2 A9999 B0816 B1123 B2«00 * •B2555 B2600 B2800 B4200 B9235 B9236 B9238 B9*39 B9*«0 B9M1 * •B9**2 B9999 I05101I05UII0600IIH230I2W0OI25550I2600OI2800O* •I*200OQ1123 Q2400 Q2555 Q2600 Q2800 Q4200 023X P024X LB24X * •COPISS* 7.68547E-01 2.24V84S-01 6.93373E-03 3.54065B-05 1.79858E 09 6.27404E 08 1.8*270? 08 4.27I09E 07 2.00000E 07 8.20850E 05 6.7379«E 0* 2.03«68E 03 1.06770E 01 *D / •016 RA23 CR RB5S FE BI BO 0235 0236 0238 • •P0239 PO2»0 P0241 P02*2 PP 016 VA23 CB BBSS PE • •BI BO 0235 0236 0238 P0239 FO240 P0241 P02«2 PP • •BIO B11 C BA23 CB 8R55 PE BI BO BA23 • •CB BBS5 PE BI BO 023X P024X AH24X C0PISSEBEPB5* •EBEP85ZBErB5EBEPB5E3DPB5EREPB5EBEPB5EBZPB5EBEPB5EBEPB5EfEPB5* *EBErB5E*EFB5EKEPB5EREPB5EBZPB5ZREPe5B*ZPB5EBEra5EBDPB5EVETB5* •EBEPB5EBEPB5EIIErB5EIIEPB5EBErB5EVEPB5EBfr55E«.:PBSE9!PB5EVEPB5* *ZBEP85ERBrB5BREPB5EREPB5EBEPB5EB9PB5EBE?B5EBBPB5EBEPB5EBEPB5« •EBEPB5EIDFB5EBEPBSEREPB5EXTRA1EXTRA2EITBA3EXTBA (COW) 91 5.58*706 01 5.870Q0E 01 9.59«00E 01 236.0 2*3.0 2*1.0 115.0 0.0 7B 3.108*05-11 3.08880E-11 3.17*105-11 3.205005-11 3.20990E-11 3.23980E-11 3.21*005-11 0.0 BE 3.10880B-11 3.088806-11 3.17*105-11 3.205006-11 3.20090E-1I 3.23980E-11 3.21*005-11 0.0 201 6.616505-13 1.866605-12 1.480102-12 1.165005-12 1.251*05-12 1.«88105-12 1.363105-12 1.0*7005-12 8.773005-13 9.221995-13 1.0*7005-12 8.39600E-13 1.009005-12 8.8*0005-13 1.363105-12 6.636505-13 1.866605-12 1.«8010E-12 1.165005-12 1.251*05-12 1.*88105-12 1.363106-12 1.0*700E-12 8.773005-13 9.221995-13 1.0*7002-12 8.39600E-13 1.00900E-12 8.8*0008-13 1.363105-12 1.835*08-12 1.585805-12 7.92*705-13 1.866605-12 1.«8010E-12 1.165005-12 t. 25WOE-12 1.*88105-12 1.363105-12 1.866605-12 1.*8010S-12 1.165005-12 1.251*05-12 1.*8810E-12 1.363105-12 0.0 53R 1.200005 03 6.870005 02 68 1.200005 03 88 1.500005 03 7.070005 02 61 1.500005 03 8B 6.870005 02 98 6.9*0006 02 6H 0.0 53B 2.717605-02 6.2*9105-03 2.3T5605-03 2.25280E-0* 9.199*05-03 1.626605-03 1.8*3105-0* 2.99070E-05 1.000005-15 355805-02 1.000005-15 5B 2.1*6095-02 8.221705-03 2.811105-03 ,660905-0* 9.681*05-03 1.920705-03 2.176*05-0* 1.916806-05 1.000006-15 691202-03 1.359102-03 *.078905-0* 2.0 39206-0* «.8*8*08-05 1.000005-15 .911005-02 2.531005-03 8.270008-03 1.8*2005-02 1.39800E-03 1.32*006-0* .817005-03 9.552005-0* 1.082005-0* 8.2217C5-03 2.61 106-03 2.66090C-0* 681*05-03 1.920705-03 2.176*05-0* 0.0 «B 5 5 5B 1 3 2 2 1 3 5 6 5 5S 1 2 1 2 3 « 7 3S 6 5B 6 5 0 5B 1 0 518 *B 50 1.99890E 00 1.9270*5 00 2.*5«2«S 00 2.55688E 00 2.1*95*5 00 2.39*915 00 3.6*7865 00 *.560635 00 9.9331*5 00 *.667726 00 *.8«598E 00 *.815*05 00 «.683585 00 *.*17285 00 7.303885 00 2.012695 00 1.90309B 00 2.M095E 00 2.5*7025 00 2. 1V2CSE 00 2.385365 00 3.622*35 00 *.5*17*B 00 *.915605 00 *.652*55 00 *.828855 00 4.795935 00 665755 90 *.399895 00 7.252955 00 1.817635 00 1.812365 00 1.82288E 00 90*7*5 00 2.*3921B 00 2.57681E OO 2.11*888 00 2.80155B 00 3.687755 00 058*55 00 2 92806E 00 2.680085 00 1.99070E 00 2.855255 00 3.9287*5 00 0 53B 6.833605-03 2.098676-03 1.30296E-02 2.702**5-03 7.3013*5-03 7.026215-02 2.37*186-02 7.158*35-02 1.8005*5-01 6.637955-02 1.*15055-02 6.78564E-02 9.609226-O2 5.9623*6-02 5.57571E-02 7.701985-03 2.322828-01 1.29SMB-02 2.7*8728-03 7.710605-03 7.55835E-02 2.32178E-02 6.96998E-02 1.7*008E-01 6.«22576-02 1*355865-02 6.59**•6-02 9.*83*9E-02 5.772505-02 5.*6«78E-02 2.808225-01 *.553135-05 1.212*96-03 2.1*8506-03 1.290**5-02 2.706306-03 7.366015-03 7.1*3965-02 2.35*718-02 1.18**88-03 1.278606-02 2.891808-03 5.360835-03 *.61*315-02 2.587995-02 0.0 11B 1.2*9386 00 6.8*8635-01 3.129906-01 1.8*1902 00 1.592*85 00 1.59*016 00 1.375906 00 0.0 8B 1.23005E 00 6.9713*2-01 3.2*9625-01 1.8*3606 00 1.59800E 00 1.592*88 00 1.378905 00 0.0 27B 2.66203E 00 5.921175-02 2.777525 00 3.193515 00 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9.000008-03 1.00039B 01 1.007258-01 5.2031*8-02 1.250298 01 1.022028-01 3.317718-02 1.001028 01 9.077058-02 1.672052-02 1.290328 01 1.701058-01 9.033018-03 1.000508 01 1.9150*8-01 0.900*08-03 1.297008 01 1.790058-01 3.139108-02 1.000038 01 1.7370*8-01 2.0715*8-02 3.572028 00 1.0791*8-01 3.090138-00 5.122208 00 1.2*0538-01 0.100008-0* 0.077708 00 0.093018-02 5.005518-93 1.070098 01 1.130708-01 9.395598-03 5.0070*8 00 3.300008-03 1.333098-02 1.7505*8 01 1.504*58-01 0.39500Z-O3 0.159058 00 7.337338-02 1.395398-02 1.092208 01 1.0943*8-01 9.390378-03 1.957928 01 1.300108-01 «COW) 94 5.376258-02 1.28*535 01 1.3SO«3B-0* 2.358O1E-02 1.0701CE 01 7.883198-02 1.667818-02 1.275485 01 1.40832B-01 9.95*068-03 1.0510*8 01 1.667*68-61 7.2773*8-03 1.28*678 01 1.983675-01 3.077308-02 1.65*658 01 1.821598-01 2.790798-02 1.832595 00 1.726995-01 6.59695E-05 8.6116*8 00 2.78*621-01 4.809591-05 •.320515 00 2.5086*6-01 2.5039IE-05 «.66039S 00 1.391108-01 7.99*988-0* C.66019E 00 5.388695-02 5.680*25-03 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9.106798 00 2.65*038-02 0.0 6.597328-05 1.667*98 01 5.*00*7E-02 3.025118-06 1.773*68-05 8.6112*8 00 2.01*178-02 0.0 29 3.83*188 00 2.6*8308-01 3.531978-07 1.516178-06 9.861388 00 8.0203*8-02 3.15*738-06 2.818748-05 *.2*788B 01 1.08098B 00 1.073888-05 3.750058-05 9.880728 00 4.1555*8-02 0.0 7.696778-05 1.728828 01 8.870898-02 5.056935-06 1.976218-05 8.909**2 00 3.0*2*28-02 0.0 188 09 800S8T 10 8BC89 BFBB BCB BBBT 9S8PS 8CT0 858 808 1ST 889 881 158 118 3 6 7 35 « 1 00000 12 0 88 29 SBB9, BBr, »DB, ADM •I0510I* •X051U* •I0600I* •X11230* •12*000* 125550* *X2600O* •X2890O* *I«200O* 2.9110-2 2.5310-3 8.2700-3 1.8*20-2 1.3980-3 1.32*0-* *.8170-3 9.5520-« 1.0820-* 30 88888 27 26 25 2* 0 31 30 29 28 0 35 3« 33 32 0 39 36 37 36 0 CCO ft) 95 93 92 91 99 9 «7 96 95 99 9 51 50 99 98 0 «0 tni. •OP, J1S 0.0 0 0 10F 5D nut 2« 28 32 36 0 0 0 90 mi. •OP, J1S 0.0 1 0 109 59 mis •* »9 •9 0 0 0 0 •D ma. •OP, Jit 0.0 1 0 10B 59 mis 0 0 0 •* 0 0 0 99 SPEB, •OP, Jit 0.0 o o ioe 59 SBXIf 2« 28 32 30 0 0 0 99 BBSBS 90 91 92 93 99 95 96 97 98 99 50 51 9D ssns 3.0-2 2.5-3 6.0-3 99 ISBBS 3.0-2 2.5-3 8.0-3 99 1.0-2 2.5-3 8.0-3 99 SSHtssnsS 3.0-2 2.5-3 8.0-3 99 SSRIS 3.0-2 2.5-3 8.0-3 99 SSBtS 3.0-2 2.5-3 8.0-3 9D 3.0-2 2.5-3 8.0-3 «»0 ssatssnss 3.0-2 2.5-3 8.0-3 99 tSBIS 3.0-2 2.5-3 8.0-3 99 ssns 3.0-2 2.5-3 8.0-3 99 SSBBS 3.0-2 2.5-3 0.0-3 99 SSH9S 3.C-2 2.5-3 a.o-? OF EXPOSE 19 SBEXPI BISOE BIHOPT STEP BSEB *PSLF BFPB BOOTS KXM IEXPIO BEXPIIS 11111 11 01062100 0 SBBITXE ISEXCff LBBXCB BBXP15 •OEDCT BOEPXS BOECAP BEXF19 BEXP20S 60 31 000000 20 STRIP., BBOCS • S9PBB SABFLE PBOBIEC EXPOSOBE Dill - XBTEBPACE riLE EXPOSE • •9235 • »0238 • •P0239 • *F0290 • *P9291 • *P0292 * »FP • *923X • •P929X • *AB29X • *C0PISS» 39 STEP., XPS1B, IPPB, IBCTBS 0.0 123956 711 5 99 SALCWAS 1.99305U-9 so STFFPS i. i. i. i. i. i. i. i. i. i. i. i. 60 SBATXZt 192 232 392 952 562 692 5 10 1 779 80 SB9XCHS 1 *2 8 0 2 *2 3 »2 8 »2 5 «1 10 0 2 *2 3 »2 9 »2 5 *2 6 *2 9 0 7 *2 1 0 0 07 IEPOEL 10 SIR BBX BBB BBO BOB BIO BTS BQ 9179 BBPP BPSB BBFS BFOBS 0 0 19 0 0 0 0 0 3 19 1 19 1 SBPfO ir» BBC BPDDB BXf3)t 19 10 0 0 39 20 SBPB(BBB)* •016 • •M23 • »CB • *BB55 • 'Ft • *BX • *BO • •9235 • *8236 • •9238 • *P0239 • •PB29t • *P02«1 • *P0292 • •PP • »823f • •F921X • *A828X • •COPIS** SP1P(BSB)S 9.0 19B fPlF(BBt)S 0.0 19B (GOVT) 96 trQ(BBB),BQ(BBB)S 0.0 19R 0 19R ftD «l?l|H87T)*8rrB)$ 12345678 9 10 11 12 13 1ft 15 16 17 18 19 123*5678 9 10 11 12 13 1« 15 16 17 18 19 123*5678 9 10 11 12 13 1ft 15 16 17 18 19 SADBfBIPf#IPFB)S 2.1*6-2 8.2217-3 2.8111-3 2. 6609-ft 9.681«-3 1.9207-3 2. 176«-« 2.7953-5 0.0 I. 2673-2 0.0 9B 2.1*6-2 6.2217-3 2.8111-3 2.6609-* 9.661»-3 1.9207-3 2.176ft-« 1.316*-5 0.0 8.6912-3 1.3591-3 I.0749-* 2.0392-* *.6*81-5 0.0 58 2.1*6-2 8.2217-3 2.8111-3 2. 6609-ft 9.681*-3 1.9207-3 2. 176ft-ft 1.9160-5 0.0 8.6912-3 1.3591-3 ft.0789-ft 2.0392-* *.8*81-5 0.0 SB 5D fBS?B(BB?S,BFSB)S 1 2 3 « S 6 7 8 9 10 11 12 1? 1* 15 16 17 18 19 S*i>B(HBFC,«FDB)S 1 2 3 * 5 6 7 8 9 10 11 12 13 1* 15 16 17 18 19 6D tBT7(BrSB,IFDB)S 1.0 SBBSOfBPOBlf 0 70 SUTSt BIS XSZB BTBO JXf16)f 3 3 0 16B 80 tBTB(BFST) t 1 2 SBTBt(BP9T)S 0 0 SB»(BVST) 8 0 0 fBOB(BFST) t 1 1 $BP0{BPSI) f 0 0 SBX(BZS,BPST)S 21 20 19 18 17 16 15 1* 13 STOP IBB BTIBTt 001 2.55620*9 1.0 0.08333333 0.0 0.0 1 1 0 0 0 0 0 0 1 0 1 003 17 I 2 12 2 1 1 1 52 SO 235.7032 25 235.7032 1 138.62 1 35.56 1 30. ft 6 1 30.88 005 52 52 (COOT) 97 52 52 OS 1 1 7 1 1 8 8 1 6 2 2 6 6 1 5 3 3 « 6 1 f 8 8 8 8 0 2 16 16 1 1 8 8 13 15 2 2 6 6 12 16 3 3 6 6 11 13 8 8 8 8 C 8 6 6 6 6 2 7 7 7 « 6 1 3 8 8 8 8 0 3 23 28 1 1 8 8 22 27 2 2 6 6 21 26 i 3 6 6 20 25 8 8 8 8 19 28 S 5 6 6 18 23 6 6 6 6 IT 19 7 7 8 8 12 18 9 9 6 6 8 13 10 10 6 6 6 12 11 11 8 8 1 11 12 12 6 6 1 7 13 13 * 6 1 3 18 18 8 8 0 * 38 83 1 1 8 8 37 82 2 2 6 6 36 61 3 3 6 6 35 80 8 8 8 8 38 39 5 5 6 6 30 35 6 6 6 6 29 38 7 7 8 8 28 33 8 8 6 6 27 32 9 9 6 6 26 31 10 10 8 8 22 -7 »1 11 6 6 21 26 12 12 6 6 20 25 13 13 8 8 16 21 16 16 6 6 12 20 15 15 6 6 11 19 16 16 8 8 10 15 17 17 6 6 6 11 18 19 6 6 2 10 19 19 8 8 1 9 20 20 6 6 1 5 21 21 6 6 1 1 22 22 8 8 0 5 1 7 1 1 3 3 1 6 2 2 3 3 1 5 3 3 3 3 1 1 8 8 3 3 0 « 1* 16 1 1 3 3 13 15 2 2 3 3 12 16 3 3 3 3 11 13 8 8 3 3 6 8 6 6 3 3 2 7 7 7 3 3 1 3 8 8 3 3 0 7 23 28 1 1 3 3 22 27 2 2 3 3 21 26 3 3 3 3 20 25 8 8 3 3 19 29 5 5 3 3 18 23 6 6 3 3 17 19 7 7 3 3 12 16 9 9 3 3 8 13 10 10 3 3 6 12 11 11 3 3 1 11 12 12 3 3 1 7 13 13 3 3 1 3 18 18 3 3 0 • 38 83 1 1 3 3 37 82 2 2 3 3 36 61 3 3 3 3 35 80 8 8 3 3 36 39 5 5 3 3 30 35 6 6 3 3 29 38 7 7 3 3 28 33 8 9 3 3 27 32 9 9 3 3 26 31 10 10 3 3 22 27 11 11 3 3 21 26 12 12 3 3 20 25 13 13 3 3 16 21 16 16 3 3 12 20 15 15 3 3 11 19 16 16 3 3 10 15 17 17 3 3 6 11 16 18 3 3 2 10 19 19 3 3 1 9 20 20 3 3 1 5 21 21 3 3 1 1 22 22 3 3 0 9 1 7 1 1 2 2 1 6 2 2 2 2 1 5 3 3 2 2 1 1 8 8 2 2 0 10 18 16 1 1 2 2 13 15 2 2 2 2 12 16 3 3 2 2 11 13 8 8 2 2 6 8 6 6 2 2 2 7 7 7 2 2 1 3 • 8 2 2 0 (CO IT) 98 11 23 28 1 2 2 22 27 2 2 Z 2 21 26 3 3 2 2 20 25 ft 2 2 19 2* 5 5 Z 2 18 23 6 6 2 2 17 19 7 2 2 12 1« 9 9 Z 2 6 13 10 i0 2 2 * 12 11 11 2 2 1 11 12 12 ;Z 2 1 7 13 13 2 2 1 3 1ft 1ft 2 2 0 12 38 •3 1 2 2 37 •2 2 2 Z 2 36 «1 3 3 2 2 35 •0 ft 2 2 3« 39 5 s ;Z 2 30 35 6 6 2 2 29 3ft 7 2 2 28 33 8 9 Z 2 27 32 ;9 9 2 2 2* 31 10 10 2 2 22 27 11 11 Z 2 21 26 12 12 2 2 20 25 13 13 2 2 16 21 1« 1ft Z 2 12 20 15 15 2 2 11 19 16 16 2 2 10 15 17 17 ;Z 2 6 11 18 18 2 2 2 10 19 19 2 2 1 9 20 20 Z 2 1 5 21 21 2 2 1 1 22 22 2 2 0 13 8 13 1 7 12 2 2 I1 ft 6 11 3 3 2 7 ft 1 6 5 5 I1 ft 1 5 6 6 1 1 7 0 1ft 20 22 1 16 21 2 2 <1 ft 15 20 3 3 1ft 19 ft 10 18 5 5 <1 ft 9 17 6 6 8 13 7 ft 12 8 8 l1 ft 3 11 9 9 2 7 10 10 1 3 11 11 I1 ft 0 15 32 37 1 2« 36 2 2 •1 ft 27 35 3 3 24 3« ft 25 33 5 5 <1 ft 2ft 29 6 6 20 28 7 16 27 8 8 1» ft 15 26 » 9 1ft 19 10 10 23 25 10 10 I1 ft 13 18 11 11 12 20 12 12 8 19 13 13 <1 ft ft 15 1ft 1ft 3 11 15 15 2 10 16 16 <1 ft 1 9 17 17 1 5 18 18 1 1 19 19 11 ft 0 18 8 13 1 7 12 2 2 1 3 6 11 3 3 2 7 ft 1 6 5 5 1 3 1 5 6 6 1 1 7 0 17 20 22 1 16 21 2 2 » 3 15 20 3 3 1ft 19 ft 10 18 5 5 1 3 9 17 6 6 8 13 7 ft 12 6 8 * 3 3 11 9 9 2 7 10 10 1 3 11 11 1 3 0 18 32 37 1 28 36 2 2 1 3 27 35 3 3 28 3* ft 25 33 5 5 1 3 2ft 29 6 6 20 28 7 16 27 8 8 1 3 15 26 9 9 1ft 19 10 10 23 25 10 10 :1 3 13 18 11 11 12 20 12 12 6 19 13 13 :I 3 ft 15 1ft 1ft 3 11 15 15 2 10 16 16 21 3 1 9 17 17 1 5 18 18 1 1 19 19 » 3 0 19 8 13 1 7 12 2 2 ;t 2 6 11 3 3 2 7 ft 1 6 5 5 :[ 2 1 S 6 6 1 1 7 0 20 (COTC) 99 20 22 1 1 2 2 16 21 2 2 2 2 15 20 3 3 2 18 19 8 8 2 2 10 18 5 5 2 2 9 17 6 6 2 • 13 7 7 2 2 8 12 8 8 2 2 3 11 9 9 2 2 7 14 10 2 2 1 3 11 11 2 2 0 21 32 37 1 1 2 2 28 36 2 2 2 2 27 35 3 3 2 2* 38 8 8 2 .•» 25 33 5 5 2 2 28 29 6 6 2 20 28 7 7 2 2 16 27 8 8 2 2 15 26 9 9 2 18 19 10 18 2 2 23 25 10 10 2 2 13 18 11 11 2 12 20 12 12 2 2 8 19 13 13 2 2 8 15 18 18 2 3 11 15 15 2 2 2 10 16 16 2 2 1 9 17 17 2 1 5 •8 18 2 2 1 1 19 19 2 2 0 22 88 89 1 1 1 8 83 88 2 2 1 8 82 87 3 3 81 86 • 8 1 8 80 85 5 5 1 8 36 88 6 6 35 83 7 7 I 8 38 39 8 8 1 8 33 38 9 9 32 37 10 10 1 8 28 36 11 11 1 8 27 35 12 12 28 31 13 13 1 8 22 30 18 18 1 8 21 29 IS IS 20 25 16 16 1 8 16 28 17 17 1 8 12 23 18 18 11 19 19 19 1 8 10 15 20 20 1 8 6 18 21 21 2 13 22 22 1 8 1 9 23 23 1 8 1 5 28 28 1 1 25 25 1 8 0 23 1 16 1 1 1 1 20 28 1 1 1 1 32 83 1 1 1 82 2 2 1 1 1 81 3 3 1 1 1 7 8 8 11 80 8 8 1 1 1 6 5 S 1 1 10 39 5 5 1 35 6 6 1 1 1 13 7 7 1 1 17 38 7 7 1 12 8 8 1 1 16 33 8 8 1 1 3 32 9 9 2 19 10 10 1 1 23 31 10 10 1 1 1 18 11 11 22 27 11 11 1 1 1 26 12 12 1 1 1 25 13 13 1 21 18 18 1 1 3 20 15 15 1 1 2 19 16 16 1 15 17 17 1 1 1 11 18 18 1 1 1 10 19 19 1 9 20 20 1 1 1 5 21 21 1 1 1 1 22 22 0 28 1 2 9 9 8 8 1 1 10 10 8 8 0 25 1 2 9 9 3 3 1 1 10 10 3 3 0 28 1 2 9 9 2 2 1 1 10 12 2 2 0 27 t 2 9 9 1 1 1 1 10 10 1 1 9 28 • 10 8 8 8 8 7 9 5 5 8 8 0 29 8 10 8 8 3 3 7 9 5 5 3 3 0 30 8 10 8 8 2 2 7 9 5 5 2 2 0 31 • to 8 8 1 1 7 9 5 5 1 1 0 32 17 19 1 1 8 8 0 33 17 19 1 1 3 3 0 (COW) 100 3* 17 19 1 1 2 2 0 35 17 19 1 1 1 0 36 18 16 7 7 8 13 15 8 8 « « 0 37 18 16 7 7 3 13 15 8 8 3 3 0 38 14 16 7 7 2 13 15 8 8 2 2 0 39 U 16 7 7 1 13 15 8 8 1 1 0 •0 1 2 15 15 8 1 1 16 16 8 « 0 • 1 1 2 15 15 3 1 1 16 16 3 3 0 82 1 2 15 15 2 1 1 16 16 2 2 0 83 1 2 15 15 1 1 1 16 16 1 1 0 M 29 31 1 1 8 0 «5 29 31 1 1 3 0 86 29 31 1 1 2 0 «7 29 31 1 1 1 0 48 20 22 10 10 8 19 21 11 11 8 « 0 89 20 22 10 10 3 19 21 11 11 3 3 0 50 20 22 10 10 2 19 21 11 11 2 2 0 51 20 22 10 10 1 19 21 11 11 1 1 0 0 012 0 1 12 1 1 1.0 19 21 1 1 1.0 13 10 2 2 1.0 22 23 3 3 1.0 28 51 8 8 1.0 0 013 19 19 80016 11123 12800 12555 12600 12000 18200 19235 19236 19230 19839 19880 89881 19882 19099 023X B828X 1B28X C0TIS3 19 BO016 B1123 B2800 B2555 B2600 B2800 B8200 B9235 B9236 B923B 19839 B9880 B9881 B9882 B9999 0211 W28X 182BX COFISS 6 (COM) 101 01123 Q2%00 Q25SS 02600 Q2600 0*200 9 X 0510IX0511II0600II11230X2«00OI2555OI 26000:[280001* 2 WOO 020 1 12 10*16 2.7176 -211123 6.2*01 -312*00 2.3756 -312555 2.2528 12600 *.199« -312800 1.6266 -31*200 1.0*31 -M923S 2.9907 49236 0.0 19238 1.355* -219*39 0.0 19**0 0.0 19**1 0.0 19M2 0.0 19999 0.0 8231 0.0 W2*X 0.0 U2II 0.0 CDFXSS 0.0 13 10 BOOM 2. 1*60 -281123 8.2217 -382*00 2.8111 -3B2555 2.6609 •2600 9.6*1* -3B2800 1.9207 -38*200 2.176* -«B9235 1.9168 •9236 0.0 •9238 8.6912 -3B9439 1.3591 -3B9M0 8.0789 •9**1 2.0392 -*B9««2 «.8*81 -589999 0.0 •23Z 0.0 mn 0.0 A82*X 0.0 conss 0.0 19 21 10*16 2.1*60 -211123 8.2217 -312*00 2.8111 -312555 2.6609 12600 9.681* -312800 1.9207 -31*200 2.176* -«19?3S 2.7953 19236 0.0 19238 1. 2673 -219*39 0.0 19**0 0.0 A9M1 0.0 A9**2 0.0 19999 0.0 •231 0.0 mix 0.0 1B2*X 0.0 conss 0.0 22 22 01123 2.2370 -3Q2«00 1.3180 -2Q25S5 1.2*80 -302600 *.5*10 Q2800 9.0060 -3Q9200 1.0210 -3 23 23 01123 5.9220 -3Q2*00 7.«068 -3Q2S55 7.0100 -4Q26O0 2.5512 02000 5.0613 -30*200 5-7352 -• 2* 39 X0510X 2.9110 -2X05111 2.5310 -3I0600X 6.2700 -3 *0 51 XI1230 1.8*20 -2X2*000 1.3980 -3I25550 1.32*0 -«X 264*00 •.0170 X20OOO 9.5520 -*X*200o 1.0820 -* 0 DOTLXW •0DX8S 0 6 0 2* 0.0 00100001000000 irnas o 06 o so 255.5 00003301000001 0 0 0 0 0 0 BBTXVS 0 6 0 2* 1.3 1-09 0.0 0.08333333 8.520671*08 0.333333 -1 1 180 D0TLX8 CO0I8S 3 6 0 2* 0.0 00100002000000 £80 CCOIT) t 102 DVTLIW IODIWS 0 6 0 2* 0.0 0 0 1 00003000000 0 6 0 72 vtms 2.55*20*9 1.0 0.00333333 11 2 11 1 1 11 vans 0 0 0 2* 00000004 DOTU* onus 0 0 48 2.55620*9 1.0 0.00333333 -2 3 -1 75 1 1 BIO POTLIB SODXfS 0 6 0 2* 0.0 0 0 10 0 0 « 0 110 0 0 DTfHS 0 0 «8 2.55*20*9 1.0 O.00333333 2 1 BID DOTLXR tODZIS 0 C 0 2* 0.0 0 0 0 0 0 0 0 0 -« 0 0 0 0 •zriis 0 2* 0 20 0.0 0.00333333 8.52067B+08 0.333333 1.3 (-09 o.o 0.0 0.0 100.0 0 0 10000000000001 BID /• // k Figure 13. Stlecttd Output From Super SMpl« Problm. •M» ttatfui i«as-a an oa MI iaa-aao/***. coanoi not«co*uoii, a«t»o%-oi-ai. iinx-ia.io.si. joauaanara t>mitt»isoi, nmtaca - ataaxaxao x/o« ia.ii, CM ixa> if .0* »•• ntu tat coartoi aottia MT« s««:a starta taoaixa. 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CTCU ?xas, nsr 11 ctcit, rnc.ia ctcn- 1 0 1 0.0 s.moot o» 0.0 xttaaxxoas, coaieaoiKi, staaca, rtia rotti OZISXTT, a - 3« a.ooa^io-os 0.0 s.oiaott oa i.oiaaxti raiaiTir? coaitaaxoa aarxo, aiso rox camcu, HITCR, rait toajo»iiios(»Toi3/»»Tt-jtC) • i.aaisa i.aiaao a.iaaui 10 aajoxat - x?^ra?xoaa, coxinetici. « - x* -i.ixs«oo-os i.oiaaxaa nniii xaicaToai VSOIIMC «j a«. conaiaxoa mxoirrt i.aitta. rxssxii conaanxoi IXTX i.itaaaia-ia as/a-jrc r»» aw a i.«iaaxs i.aiaoxt, uixixix x.aiooa^oi, a.o. ncir. i.aaitac-n, tm 11 oiar* n/t* aim *> a. 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RECENT EXTENSIONS Described here are extensions to some of the nodules in the system. A. VENTURE NEUTRONICS, VERSION III Numerous changes have been made to the VENTURE neutronics module*- since the release of Version II. The major extensions are described below. 1. The Uncommon Reactor Core Neutronlcs Problem The common reactor core neutronlcs problems have fundamental neutron space energy spectrum solutions. In a typical problem, one finds the most positive eigenvalue associated with an all-positive flux for the pseudo-steady-state condition (keff), or one achieves the criti cal state by selective adjustment of some variable such as the fuel concentration. With sophistication In reactor analysis has come the demand for solutions of other, uncommon neutronlcs problems. Importance functions are needed for sensitivity and uncertainty analyses, as for ratios of Integral reaction rates such as the fuel conversion (breeding) ratio. The dominant higher harmonic solution Is needed In stability analysis. Typically the desired neutronlcs solution must contain nega tive values to qualify as a higher harmonic or to satisfy a fixed source containing negative values. Both regular and adjoint solutions as well as special Integrals of the solutions are of Interest to support analysis. A general procedure has been Implemented for removing the fundamen tal contribution to the Iterate estimate of the harmonic source each outer Iteration. Instead of a flux correction, source correction based orthogonality properties Is done9 during Iteration to avoid cost of processing group dependent data. Given the local fission source associated with meshpolnt 1 and harmonic n, the sum over energy groups g, s1.n" £vEf,9,1 •g.l.n • Y51,0*1,0 V1 where Index n = 0 Is used for the fundamental, and n = 1 for the harmonic, because and for the adjoint, , * - i * i * 1 f1»l S1.0V1 fM,05i,0M So for either the regular or adjoint (transposed) harmonic problem, be It eigenvalue or fixed source, a source correction Is made at the start of each outer Iteration. Usual acceleration procedures with small changes are used to drive the Iterate estimate to a solution. Note that since the Integral fission source tends to be near zero for the harmonic, a special procedure Is necessary to produce accurate eigen value estimates. He sum absolute values. For the fixed source sensitivity Importance problem, this procedure avoids the difficulty experienced without removal of the fundamental contribution where the contamination Is so severe that reliability of the solution Is questionable. In principle, any harmonic may be solved by successive removal of the contamination from each of trie higher harmonics. Other procedures used for solving simple problems are not attractive for the multl-dimensional problems. Another efficient procedure has been Implemented. Consider that the transport term for an untreated simple coordinate Is simply .£**.. DM,. w but for the azlmuthal coordinate, 0 ***• -D""1 * (7) r^ 130 For the azimuthal fundamental, B2 = 0 and for the first harmonic o B 2 - 1. Thus by including a space dependent loss tern of D/r2, the solution for the azimuthal symmetry (or when so approximated) my be computed using two- dimensional (RZ) geometry rather than treating three-dimensional (eRZ) geometry. This harmonic is of special impor tance in stability analysis since it is often dominant. Shown in Fig. 14 is the dependence of the eigenvalue separation (1/k} - 1) on the core height of a large gas-cooled high-temperature thermal reactor core modeled as a bare homogeneous problem. There are a number of aspects that impact the ability to produce reliable solutions. For example, given eigenvalues ordered kg >k i > k2 > k3 • • • > there tends to be a large separation between kQ and kj but not between k} and k2, making the harmonic more difficult to solve by iteration than the fundamental. ORNL-DWG 79-19611 * CURRENT DESIGN B= NUCLEAR OPTIMUM FOR THE FUNDAMENTAL 0 5 10 15 20 CORE HEIGHT (m) Fig. 14. Eigenvalue Separation for the Dominant Harmonic* (Bare Homogeneous Pebble Bed Reactor Model). 131 2. Space-Energy Rebalance Space-energy rebalance has been implemented to try to accelerate outer iteration convergence. It is available only for one-dimensional slab (X), cylindrical(R), or spherical(S) geometry; two-dimensional slab (X-Y), or cylindrical(R-Z) geometry; and three-dimensional slab (X-Y-Z) geometry. Problems to be rebalanced must not contain internal black absorber zones or have zone dependent fission spectram. They must be forced to run in the "space stored" mode, since the procedure of calcu lation Mas not implemented in the other modes. If a problem is to be rebalanced in space and energy, the user speci fies the number of coarse mesh intervals in each dimension. Then after any asympotic flux extrapolation, the fluxes contained in each rebalance block are multiplied by a rebalance factor for that block. The block rebalance factors are calculated as J S(B,K,KK)F(B,KK) + x(K)X(B)n +£ L(P,B',K)F(B',K) KK " P Ft K)n ' A(B,K) +V L(P,B,K) <«) p where: K Q(B,K) * 2, vlf(ifK)V(i)*(i,K), i£B "n-1 ]|>>(B)n *n B S(B,K,KK) « £ J ZS(1,KK>K)V(1)*(i,KK), KK i^B A(B,K) - 2 ClA+ER+DBnO.KMfMi.K), 1EB 132 MP.B.K) = J LC0M(1,K}<(itK), 1GB x(K) s group dependent fissim spectrum B - block index B' * adjoining block index IC.KK = energy group index 1 * mesh point index P = block boundary mesh points index *(i,K) » flux n « iteration number. Equation (£) is iterated until for some input convergence criterion, €, |F F(B,K)n - FtB.Kj^j • afc [F*(B.K)„ - FCt.K)^] where pk * calculated overrelaxatlon factor for the rebalance process at each group. The final values of F(BtK) are then adjusted by the linear fomulatlcn F(B,K) • 1.0 •a1[F(B,K)-1.0] where o. Is Input (defaulted to 1.0, no adjustment). A linear space Interpolation of the final rebalance factors Is then done on rows or two-dimensional planes Hth a second free parameter, for example at meshpolnt 1, Fl"M-t($). 133 where o« is input (defaulted to 1.0) and AF/AX Is the derivative obtained by assuming that the calculated block "ebalance factors apply at block centers. Note that a- "ay be < 1. while o^ > 1. Our experience with this procedure has shown that Indeed those problems having slow spaclal convergence properties amy be accelerated, and the rebalance procedure would be especially impressive if we were not using asymptotic extrapolation procedures. Given effective outer Iteration extrapolation, rebalancing appears to be of Marginal benefit and often not worth Its cost, especially on typical probleas. Typically, we found a specific procedure (linear Interpolation or not, for example) and a specific blocking (arrangement of spaclal rebalance zones Involving Internal meshpoint assignments) to be remarkably effective. But a guide tc selecting all of these factors is unknown. Hhen 6 meshpoints per block along one coordinate is much more effective than either 5 or 7, we don't know how to predict this. Typically one needs many blocks and the rebalance cost becomes significant. Incidently these procedures work with one meshpoint per block producing the solution in one iteration, but generally not at a cost competitive with the usual Iterative solution procedures. 3. Other Extensions A number of other extensions are noted briefly here. Generally these were found to be needed In application and they were simple In application and they were simple to Implement. a. The diffusion coefficients are adjusted In all zones up to a specified number by 0K,Z " *1+ "A.Z where a. and a« are input values and DR - 1s the value calculated for group K and zone Z. One may want to know the effect of changing the values or might have correlating data to adjust for heterogeneous effects which tend to increase D. 134 b. Instead of writing the adjoint flux on the Interface data file, an option was iaplenented to write the space, energy point values of the product of the regular and the adjoint flux, +0+0 Instead of *?. Thus subsequent Integrals that usually Involve «T *o becoae *!*•**• If *1 Is available, typically a desired haraonlc *. weighting as for stability. Generally sone attention wst be paid to the normllzatlon factors to produce absolute values from the Integrals. c. Using the above, option, the Integral *1 Z.y + Q>. 1 l where E 1s the energy per unit flux (not a constant), is done for only the bottoa energy group (assumed to be thermal) pro ducing information useful for assessing stability against xenon driven oscillation, where Q is input [(o/X) X10"24 for Xe135 in the thermal range] and y is 1.0 for reference conditions, 2.0 for half the reference power level and Is 0.5 for turfce the power level. Also the Integral over space ant. energy Is obtained I2« Z •.*••*&¥, where *„**„ can bt owe •,•„*•<>• d. The fixed source over space my now be calculated for the power density Importance, -ElAVi Ej si" ~rr • 6j *j where P Is the reactor power level, dj Is the local power density, f Is the core fraction treated, and the delta func tion 6j RKtns a local value applies at only a selected point. 135 Several options are Implemented for selecting the reference point Including location of the peak power density. Note that there are spe cial considerations when the point falls on one or wore symmetry boundaries. Subsequent calculations are required to generate the Impor tance function (a fixed source neutrontcs problea often solved by VENTURE) free from fundamental contamination, and then special space, energy Integrals must usually be obtained. 4. Equilibrium Xenon For some thermal reactor cores, the flux distribution Is sensitive to the Xe135 distribution. This can make It difficult to obtain an accurate history calculation without using very short exposure periods tha£ may cause the computer cost to be prohibitively high. A gross macroscopic equilibrium xenon calculation has been programmed. Incidentally, the implementation is general so that any other situation satisfying the equations may be treated. Consider the local Xe135 concentration to be given by |f - - (AX102* • /o(E)?(E))N • yF * 0, where F Is the fission rate, H is the nuclide concentration, a its cross section. The user must Identify the data to be used and supply effec tive values for the yield fraction y and decay constant X. The capture loss Is Included as sink during iterative solution of the non-linear equations. B. PERTUBAT PERTURBATION ANALYSIS Delayed neutron behavior calculations have been added to the PERTUBAT perturbation analysis module.5 These calculations are done If the microscopic group delayed neutron precursor data Interface file DLAYXS Is available for use by the module. The equations solved are described below. Definitions f • delayed neutron family subscript 9*99 • energy group subscripts 136 1 = space point subscript m = material zone subscript n = nuclide subscript associated with delayed neutrons Aq f = fraction of delayed neutrons emitted into group g from precursor family f Bf = delayed neutron precursor decay constant for family f Cn n = nuclide concentration = Dgg fn mMber of delayed neutron precursors produced in family f per fission in group gg and nuclide n o„n,g «..g. = microscopic fission cross section •i.gg s re9Ular nux •i - adjoint flux vEm gg = "*croscopic production cross section JL = fission spectrum Vj - element volume s v m»gg,g * £'m *i.gg **»g * -1 T Vi v *i?m fWi,i | Wi,g g U * » x D ,- 7 o CS n.f.g *- gg.f.n *-* °n,gg n,m m.gg, n»f \^, VA.rg.T'n.f..g Reported for Output 1. Delayed neutron contrfbtulon by nuclide - Pn - A^f by family - ef » \ .^f total - eeff -£ £ WM 137 2. Distribution by group = «• rJr$eff- ? ? *«.A.f., 3. Delayed neutron source after clean shutdown -0ft Yf ,t " *f • f 4. Delayed neutron source I = y q + gf6 f .t f .t „ + Pft where for 3. and 4., t = 0.0, 0.001, 0.01, 0.1, 1.0, 10.0, and 100.0 and where for 4. a = X>:(7) and XX(8) from the PERINS record of the file CONTRL. If not specified, a values are -0.05 and +0.05. C. TEMPERATURE CORRELATION The VENTURE neutronlcs module,2 the REACTION RATE module,2 and the EXPOSURE module3 have been extended so that a temperature correlation of the microscopic cross sections may be applied. An Inconvenience to the user Is that each module must be Informed to apply the correlation and no proof testing Is done to see that the Instructions are consistent. The equation Is applied to all microscopic cross sections, an I Vfi J r i Z J o(T> - o(T,) • \ * U(T2) - aC,) 1 tan '(a) L z 'J where a and the reference temperatures T. and T. must be specified. D. SPECIAL MODULES A special module has been added recently to the system to perform such tasks as expanding a flux f1'& or combine two to Increase the number of geometric dimensions. This new capability 1$ discussed In Section 8. 139 REFERENCES 1. D. R. Vondy, T. B. Fowler, 6. H. Cunningham, and L. M. Petrie, "A Computation System for Nuclear Reactor Core Analysis," ORNL-5158 (April 1977). 2. D. R. Vondy, T. B. Fowler, and G. H. Cunningham, "VENTURE: A Code Block for Solving Nultigroup Neutronics Problems Applying the Finite-Difference Diffusion-Theory Approximation to Neutron Transport—VersionII," 0RNL-5062/R1 (November 1977). 3. D. R. Vondy and G. U. Cunningham, "Exposure Calculation Code Module: BURNER," ORNL-5180 (February 1979). 4. L-- R. Vondy, T. B. Fowler, and G. W. Cunningham, "Input Data Requirements for Special Processors in the Computation System Containing the VENTURE Neutronics Code," 0RNL-5229/R1 (July 1979). 5. D. R. Vondy and T. B. Fowler, "The Code PERTUBAT for Processing Neutron Diffusion Theory Neutronics Results for Perturbtaion Analysis," ORNL-5376 (March 1978). 6. D. R. Vondy and T. B. Fowler, "RODMOD-A Code for Control Rod Positioning," ORNL-5466 (November 1978). 7. D. R. Vondy and T. B. Fowler, "Reference Test Problems for the VENTURE Neutronics and Related Computer Codes," ERDA Report ORNL/TM-5887 (August 1977). 8. G. E. Bosler, R. D. O'Dell, and U. M. Resnik, "LASIP-IIJ, A Generalized Processor for Standard Interface Files," LA-6280-MS (April 1976). 9. R. L. Chi Ids, "Generalized Perturbation Theory Using Two-Dimensional Discrete Ordinates Transport Theory," ORNL/CSD/ TM-127 (June 1980). 10. VALE, Advanced Triangular Neutronics to be documented. 11. Fuel management to be documented. 12. Thermal hydraulics to be documented. A-l APPENDIX A DATA STORAGE REQUIREMENTS FOR THE VENTURE NEUTRONICS AND BURNER CODES The equations that deteraine the memory and scratch data file storage requirements for VENTURE neutronics and BURNER depletion problems as dependent on the mode of calculation have been programmed to produce specific information. These programs are being distributed with the code for use at other installations. They are available for use on the ORNL computers. Documentation of local use is aiiown by requirements in Figures A.l and A.3 and edit in Figures A.2 and A.4. For large problems for VENTURE Me strongly recommend that the data storage be determined. Usually, for three-dimensional problems the multi-plane stored mode must be used, and usually, enough memory must be allocated to store as many planes of data as the maximum number of inner iterations to minimize data transfer. The requirements depend on the number of inner Iterations (which should be determined by the code unless known). See special input processor (DVENTR) section 001. ICXU = 0, ICX12 = 969 for a special run to determine the number of ioners (and also storage); or in the DTNINS record of the CONTRL file, IX(20) = 969, IX(21) = 0. The authors do believe that documentation for a code should pre sent the information required by users to determine storage requirements. When a code attempts to cover a wry broad range of problem type and provides great flexibility in data handling to balance storage and transfer, the equations become extremely involved and not practical to use routinely. Fortran listings of coding used to calculate storage could be included here, but the many lines would waste many pages and serve little utility. We recommend using these codes, using the VENTURE code proper, and relying on past experience. A-2 PISOBE 1.1. IRPOT FOR TESTBHE STORAGE REQDIREHEKIS. JOB COBTROt IRSTRDCTIOHS //USERID JOB (CHAEGI.'OSER ADDRESS ',BSGLE?EL= (1,1| //•CLASS CP091«10S,IO*1,REGIOR~270K,LtHSS=1,CARDS=0 //STEP EXEC LIHKR60, // RECXOR.GO*270K //IKED.TERSTOR DD 0EITO330,TOLOHE=SER=ZX1111,DISP=SHH, // DSHAHE*X.TBP1«650.TERTSTOR //LKED.SYSXB DD * IRCLODE fEBTSTOR /* //6O.PT05F001 DD • /• // IRPOT DESCBIPTIOR c— c IRPOT FORHAT IS B1((18A«)/»(1216)/»2(16)) , HI ARD R2 ARE c TARIABLES. c c CARD 1 - HOLLERITH TITLE. c c CARDS 2-5 ARE IITE6EF.S IB THE STARDARD IRTERFACES c GEODST, GROPXS, HDXSBP, ARD SEARCH (EXCEPT THE c LAST THREE IBTEGESS). THE FIRST SETER ROBBERS c (IGOH THRO RGROOP) ARE RECESSART TO COBPOTE c REQOIBEHERTS FOR THE ITERATITE PROCEDORE. IF TBE c REST OF THE ROBBERS ABB IRPOT ZERO, THE REQOIREHERTS C c FOR TBE BACBO., CHSTS., ARD IRITILAZIOR PROCEDURES C c BILL BE IRCORRECT. C c C c COLOHRS RARE IBTERFACE C c c CARD 2 - C 1- 6) IGOB (GEODST) C c ( 7-12) HZOHE (GEODST) C c (13-18) BIHTI (SEODST) C c <19-2«) BIBTJ (GEODST) C c (25-30) HIRTK (GEODST) C c (31-36) BZBBB (SEODST) C c |37-»2) RGROOP (GBOPXS) C c (»3-*8) HI SO (GROPXS) C c <»9-5«) BAXOP (SROPXS) C c (55-60) BAXDH (GROPXS) C c (61-66) HAXORD (GROPXS) C c (67-72) BPSCS (SROPXS) C c CARD 3 ( 1- 6) RSTRPD (GSDPXS) C c ( 7-12) BSCRAX (GROPXS) C c (13-18) HSBLOK (SROPXS) C c (19-2») BBEG (GEODST) C c (25-30) RCIBTX (GEODST) C c (31-36) HCIBTJ (SEODST) C c (37-42) HCIRTK (GEODST) C c («3-«8) IB81 (GEODST) C (COBT) A-3 c (49-54) IBB2 (SEODST) C c (55-60» JBB1 (GBODST) C c ($0-66) JBB2 (SEODST) c c (67-72) KHB1 (SEODST) c C CARD • c i- «i KBB2 (GEODST) c c ( 7-12) BBS (SEODST) c c (13-18) RBCS (GEODST) c c (19-24) •IBCS (GEODST) c c (25-30) •TBI AG (GEODST) c c (31-36) BBASS (SEODST) c c (37-42) BSB (RDXSRP) c c (43-48) BBS (BDXSRF) c c (M-5«) BAB (RDXSRF) c c (55-60) BSZ (RDXSRF) c c (61-66) ISRCH (SEARCH) c c (67-72) RSAXBP (SEARCH) c C CABD 5 ( 1" 6) BISOSR (SEARCH) c c ( 7-12) RSETS (SEARCH) c c (13-18) RFS 6T.0 FOR FIXED SOORCE PR0BLEB5. c c (19-24) RP1 GT.O FOR COBSISTABT PI PROSLEBS. c c (25-30) RAW GT.O FOR ADJOIRT ABD/OB PEBTOBATIORS. c c (31-36) RPBIT GT.O FOR HBITIBG BTFLBX OR ATFLOX. c c (37-42) RPR*T GT.O FOR BRITIBG PRDIRT. c c (43-48) 0RDEFTHED c c (4<>-54) ORDEFIBED » c c (55-60) ORDEFIRED • c c (61-66) ORDEFIREO « c c (67-72) ORDEFIBED . c c C THE REIT IRPOT CARDS CITE THE DATA ABBAT SIZE (COLOBRS 1-6J POB C C AS HART DIFPEREBT ABBAT SIZES AS DESIRED, EHDIRG BITB A BLABK CARD. C C THE CODE THER LOOPS TO READ A HER TITLE CARD. 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BBCOBO xs 7200 voaos DIBBCT kCCBSS Pill 2* BBQOXBIS « BBCOBOS 10000 BOBOS IB LERQTB OIRBCT kCCBSS PUB 27 BBQQIBIS « BECOROS 10000 BOBOS IB LBBOTH OIBtCT kCCBSS Pill 26 BEQ0XBI3 * BECOBDS 10000 BOBDS IB X.BBOTB DIBtCT kCCBSS PUB «0 BBQ0IBXS • RBCOBDS 26550 BOBOS XB iBBOTB DO PkBkRBTSBS POUOB POB B1 » 3520 kBO B2 * 32000 • 2* 51 «3- 10 B«- 1 85- 23 B6- 10 B7- 2 B8- 2 B9- 13 B10- 13 B11- • 12- 1 BIS- 13 BK- 1 815- 10 *16» SI (BOTB TBkT IP TBB PLOXBS kBB TO BB BXPkBDBD PBOH BXXSTXBO BTPLQX, B10- 51) BBQOXBBD DISK STOBkOB SPkCB PCB PWX (OBITS 2*. 27,28) XS 179520 BTTBS. PCB COBSTkBTS (ORXT *0) XS— 736000 BTTBS. PCB COBSTkBTS (OBIT 23) XS— 35200 BYTES. BBQOXBBD TOTkl DISK STOBftOB SIftCB IS —————— 7*60160 BTTBS. POB TII kSSXCBBD DkTk STOBkGI, TIB REQUIRED BBOIOB SItE XS ftPBROIIIUTIlT 630K ITTEJ RINOtT DKQQXREMITS FOR Wtl SIORAOl TOTkl I • HXRINOn RkXXHOR STCtkGB XTAIIABIR 100000 IACRO CALCOLATIO* 3673 SQOkTIOE CO*STMTS CkLCOUTXOR CORE coutiitt on sncB STORED J230« 3355* nui STORED 15829 17079 ROR STORM 6019 72*9 IIOLTI-LlTtL PUHS STORED 17033 19303 TRTTXkl nil CORI CORTURID OR SPkCS STORED 1*531 18 281 OTRIR BOOBS «S31 8281 ITRRATXTS PROCESS CORR WKTimt 207218 176202 2111 26531 SPkC? STORRO 69556 66SS1 2171 0 « PLUMES 'it0«BO 70809 <780« 2171 0 1 FLkRB STORRD 25581 22576 2171 0 25 ROBS STORRD 19603 16600 2171 0 1 ROR STORSD 3005 0 2171 0 * ROLTI-LETJl PLkRBS STORRD eo'os •»500 2171 70200 PERTWRBATIOB CkLCVlkTIO* •7725 DATA BILL BI STORRD FOR 1 GROOP, All SP*CR 1E80RT LOCkTXCBS RES3RTED FOR OlTk STORAGE 100000 Hit MEBORT LOCATXORS RRQ0XRED 'OR THIS PROB-- 69556 StRORT LOCkTXORS ROT BS5D 308M SPECIAL SCRATCH DATASFT BEQOXRERERTS RkllRON PRTSICAL RECORD IS 7200 SOROS DIRECT kCCESS FUR 2« REQUIRES • RECORDS 10000 WORDS XR LRRfiTH DIRECT ACCESS PUB 27 RBQDXRtS • RECOR»S 10000 WORDS XR IRROTM DIRECT ACCESS PILE 28 REQUIRES • RECORDS 10000 WORDS XR I BROTH DIRECT kCCRSS PILE %0 BRQOIRIS « RECORDS 26550 WORDS XR 1BHQTM DD PkRMETSRS POLLOW FOR BI » 3520 ARD B2 • 32000 •2» 51 R3« 10 IM 1 R5» 23 R6- 10 R7« 2 R6- 2 E9- 13 R10« 13 R11« 16 R12« 1 R13- 13 R1M 1 R13> 10 R1«» SI (BOTE THAT IP TRR IIDIES ARE TO BE RXPARDRD PROR BXXSTXHG RTFIQX, R10" 51) BBQDIRBD DISK STORAGE "PACE PCR PlOX(OHITS 211,27,28) IS 179520 BTTES. PC* CORSTkRTS (URIT «0) IS— 736000 BTTES. PCR CORSTkRTS (ORXT 23) IS— 35200 BTTBS. REOOIRRD TOTAL DISK STORAGE SIACE is——————— 7*60160 BTTES. POP .HE ASSIGRED OkTk STORkOB. THE RBQ0XRBD RRQXOR SIXB IS kFPBOXIRATELT 730K BTTIS 1BC002I STOP 0 A-7 FIGOBE A. 3. IBPOT FOB RATER IIS BOBBER STOBAGE BEQOIRE3EBTS. C- C c IS»OT RE30IBEBEHTS c CARD 1 (12*6 FOB HIT) c COL (1-72) TITLE c c CABD(S) 2* (BAHELIST PARHl c c BISO BO. OP BOCLIDES IB CBOSS SECTIOB FILE c •GBOOP BO. OP EHERGT 3BOOPS c BZOBE BO. OF ZOBES c asz BO. OP SOBZOBES c asa BO. OF BOCLIDE SETS c BBS HAX. HO. OF BDZLIDtS IB AKY SET c BBEG HO. OP BEGIOBS c HISOO BO. OP OBIQOE BJCLIDES APPEABIB3 IB STSIEH c BISO* BO. OF DIPFEBEBT ABS3L0TE BDCLIDE BABES IB SISTBB c HOCLAS BO. OP OIPPEBEBT BOCLIDE CLASSIFICATIOBS c BZCL1S BO. OF DIFFEREBr ZOBE CLASSES c IRS03 BO. OP OPTIOB»L PRINCIPAL CBOSS SECTIOBS IB CROSS c SECTIOB FILE (IALF • IBP • IB2B • IBD • IBT) c IUIOBD H*X. 5C1TTEBIH3 ORDER c aSTBPD BO. OF COOBDIB*rE DEPEBDEBT TR*BSPORT CBOSS c SECTIOBS IB CROSS SECT10• FILE c ascRix BO. OP SCATTERIHG BLOCKS c BBS BO. OP B0CKLIB3 SPECIFICATIONS c BBCS BO. OP EXTEBBkL BOOBDART COBST*BTS c BIBCS BO. OP IBTEBBAL BOOBDABY COBST*Brs c BZHBB BO. OP ZOBES WHICH ARE BLACK ABSORBERS c BZTO CBOSS SECl^OB - TEBPERATORE COBBELATIOB OPTIOB c 0 - BOT DOBE c 1 - ZOBE TEHPERATDBES c 2 - ZOBE ABD SOBZOBE TEHPERATORES c BZT BO. OP TEHPERATOBES PER ZOBE(SDBZOBE) c IEDIT EDIT OPTIOB c 0 - BASIC c 1 - EXTBA c IGEOH OPTIOB OB GEOHBTBY IHTEBFACE c 0 - OSE GEODST c 1 - OSE TBIGOH c BOLL01 BESEBTED c BISOE BO. OF BOCLIDES IB EXPOSE FILE c BIBB BO. OP EBEBCI RtBGES FOB HELD DATA c BGEB BO. OP ENERGY RABGES FOR GAHHA DATA c BO. OP FISSILE BOCLIDES WHICH YIELD riSSIO* PRODOCTS c arsis BO. OP PISSIOB PROD0CT* HAflHG YIELD c BFPR mC. OP BOCLIDES BBICB DECAY c BOCTR RESERVED c REXP9 RESERVED c HEXP10 RESERVED BEXP11 (CDNT) A-8 c BBATXE BO. OP SOD .iCE-PRODOCT-PROCESS SPECIPICATIOES POR c BATBIX EXP JEHTI*' OB ATBBAGB 6BBEBATI0E RITE c ISEXC8 BO. OP SOI PUBERTAL LZPLICIT CHUB SPECiriCA»'X0E5 POB- c HATBIX EIFORBRXIAL OB ATERACS 6BBEBA7I0E RATB c 1BEXCB •v. . OP BASIC EXPLICIT CBAIB SPECIFICATIONS c BETBOD SOi-^TIOR BBTBOD POB EXPOSDBB/SBBroOHB c 0 - RATBIX EXP3BEBTIAI. c 1 - EXPLICIT CBAIB c 2 - ATERAGE GEBERATIOB RATE c ITER IIBID OPTIOB c 0 - BORBAL c 1 - IP BIBB E2 1 ARD BVSBGT BARGE OP TIELD DATA c DOES BOX COTER TdHi«OB EBERGT BAE6E c LBICTZ BAXIRD3 EXPLICIT CBl.lt J.EBGTB (SBST BB ETEB) c BAODX BO. OP AODITXOBAL CODPUEG TEBBS POR BATRIX BBTBODS - c BSTBPE BO. OP EXPOSBBE SOBSTEPS c BSTWS BO. OP SHOTDOBR SBB5TEPS c ERODE EXPOSBBE OPTXOB c 0 - BOBHAL c 1 - COBTIBOCBS rOELIB.. c UK BO. OP ZOBE PA;IS c BBTSZ BO. OP SOBZOBE tkl^S c IHIST OPTIOB TO BBITB EXPOSBBE HXSTOBI XHTEBPACE c 0 - ROT KOBE c 1 - D0BB c •no BO. OP PLDBBCE RAB6ES TO BE SATED c HI PR BO. OP REACTIOS RATE TYPE DATA TO BE SATED c IZPD OPTIOB OH ZOBB(SOBZOBE) POWER DKHSITI c 0 - BOT BLBDED c 1 - BOST BE CALCULATED c XSED SECOHDABI BBERCI DEPOSXZIOB OPTIOB c 0 - BOT DOBB c 1 - DOHE c IPTC OPTIOB POR pomr CALCDLATIOH c 0 - BOT D0BE c 1 - BETBOD 1 (2EODST ABD BTPL0X) c 2 - BEtEOD 2 (RZFLOX-BODIPIED) c XPTCDB POXBT CALCULATOR DEBD6 EDIT c 0 - BORE c 1 - WTI1SITE c H?T BO. or POXHTS c BSPT RO. Or ZOHES SPECiriBD rOB POXBT CALCOLATIOB c RCIRTI BO. or COARSE HESR XHTERTALS - DIBEHSIOB 1 c BCIBTJ BO. Or COARSE SeSB IBTERTALS - DIHEBSIOB 2 c BCIkTK RO. Or COARSE SESR IBTERTALS - DXBERSIOB 3 c BIBTI BO. Or TIRE BE5B IHTi'BTALS - DltEBSXOB 1 c BXBTJ BO. Or riBB BESS XHTIRTALS - DXHPBSXOB 2 c BXHTK BO. OP PXBE BESB XETIRTALS - DIfllBSXOB 3 c X60B 8B0BBTBT OPTXOB c BTRXA8 TBXA60BAL GE09EIRT OPTXOB (C3BT) A-9 c IBID BOOBDABY COVOIttOB OPTIOB c EBASS BB6IOE ASSIGBBEST OPPIOB c 0 - COABSS BBSB c 1 - PIBE BBSS c BVLL02 BBSBBTBO c BOLL03 BBSEBfBD c BBHOBT DATA ABIAY SIXB (BOBDS} c c STACKED CBSES IRE ALLOBE* c TITLE * BLABK TBBBIRITES BBB c c BASIC DEPABLTS c c BISOO DEPAOLT - 1IIS O c •ISOA DEFABLT • 1IIS O c BBCLBS DEFABLT - 1 c EZCLAS DKPABLT « 1 c BSCBAX DEPBBtT > 1 c BCIBTI DBPABLT » 1 c BCIBTJ DEPAOLT * 1 c BCIBTK DEPAOLI - 1 c BIBtZ DEPAOLT > 1 c BIBTJ DEPBBLT * ' c BIBTK DEPADLT - c c— SARPLE IBPBT SOPEB SAMPLE PfZlen. TZTLB 8PABH EXS0M9,BGB30PM,BZ0BE-52,BSZ»0,ESEM,BBS*19,BBEG*123, BISO0-«9,BISOA-22,B0CLAS«8,BZCLASM,IBSBH*1, mXOBDO,«STRPD»0,BSCBAX«1,BBS«1,BBCS"6,BIBCS»1,BZ»BB"1, BZTO>0#9ZT>0,IEDIT-C,IGBOB«0, BISOE-11,BrEB»1,ESEB-0,EPSLE-6,EPPB*2,BPCYB«1,BMTXE«8,LSEZCH"0, LBEXCB-0,BETHOD*0,IIEBO,LBICTX-0,IAODX-0,BSTEPE-3,BSTEPS-0,BBOD~«f, RBH3BY-70000 8EBD S8PEB SAHPLX PBOBLSR. 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Hg vintin CO o I^O^ at i* VI 10 V) 10 OT MM MM in E DONNN H M M M M •» OtA M *; N H as mo> ot s •J S eooo ^ B O •* f> WEBB B OM 0SB 0 H o. •»r>0»"»"0000^0 •4 o B ~l As & B s S8SS » o B s- E sM S»> 10 10 NN * sM M ssss i MMM sp4 •4 ««<*•« m io o in in iB B B BB BB- MOIA B » K5SS ^ H Of <« s«ss M ^ gggg oo E S28S 0> •4 sB in vt vi vi • sB i EEK5 ACTO I E M o o w H BEE M B> a p) H B BS H K BBBC* O B U U MBS ••> Vt H II B»• B ooodp&xeaKic H««NHHiltNUi s ROB L STA R TO R A BBEBBBBBMBH HOD Z MB TORA I * M Bf U V) E E J OB E 1 i it I l! nE OB •» 4 A-14 >»-<-o«-oooo>-o ^ sn «•» BMOBU 0. KO »U*4»«MHBHfrl») nna>iUHi<«;a.i:>] BKIIBOniliaNHB a-»<*OMOr>oo»-o ||i|l||||l| m mm m mcKKMOHn sissSlllsIl ww»-©ooooo»-© IAN n M «-K K oD BOB Kftunuza o H OMUftHKHhtiHi E © m»- m ttHHHOMkKtiUB BBBBBB.JBMBM H OOOM t4 mmintf a •* r* o S8S5 m * u o M H CO CO 10 V) (0 a H 10 WW VI i-l HH o H M W M M U MM m •-» «« o o a. oooa ft) MM ae M KP9HU «1- PS M PC HU a HOE PS PS •4 H PS PS •JMMM E 5 SggSSSSSggg as e» B M M at P.BBB • M O a. o> D B S^,H«H,» fc> B M oo» £ BSSST ^ o CO PS HH 10 to ae a: as PS a A. «M>ierr a PS as K a o o •a M*> •J PS a a PS as u u UN 0. •a HMMM o 6, E 8 -2 ~ O O 9 o; eooo B APPENDIX B The attached figure shows the Job Control Language (JCL) that is required to create the BOLD VENTURE computation systea on the local IBM computers as a partitioned data set. This data set has the name BOLD.VENTURE. The subroutines that are required for each aodule are stored in hexadeciaal fora as sequential data sets on a 3330 disk (XXXXXX). For example, the data set CONTROL1.HEX.PGM contains the hexadeciaal routines for the co. ^n>l Module. The four nodules SCALE, LPGETMDL, LPREADER, and LPGETPRH comprise the driver for the system. The reconaended overlay structure for each Module is documented by Figure B.l. B-2 FIGURE B.I. J3L INQUIRED TO CP.E&rE THE SISTER. //STEP EXEC LKBD, // REGIOH.LKBD=270Kr // PARH.LKED='0¥LI,LIST,HAP,SIZB=(266K,100K)• /AKED.STSLIB DD DSW=STS1.P0RTLI3, DISP=SHR // DD DS»=STS1.LOGLIB,DISP=SHF /AKED.SISOT1 DD SPACE= (6000, (300,50) ) /AKSD.STSLHOD DD UHIT=3330,?OL=SBR=XXXXIX# // DISP=( WEB, KEEP) r // SPACB=(TRK, (500,10,10),RLSE), // DSHAHE=BOLD.VESTURE /AKED.SCALEBEX DD UHIT=3330,¥OL=SBR=XXXIXX,DISP=SBR, // DSRAHE=SCALE.HEX.PGH //LKED.LPGETHEX DD 0HIT=333O,¥OL=SER=XXXXXX,DISP=SBB, // DSRAHE=LPGETHDL.BBX.PGH /AKED.LPRBAHEX DD OHIT=3330,¥OL=5ER=XXXXIX,DISP=SBR, // DSHARE=LPREAD3R.BEX.PGR /AKED.LPGPRBEX DD 0HIT=3330,¥OL=SER=XXXXIX,DISP=SBR, // DSHAHE=LPGErPRH.BBX-PGS /AKED.CONTRBEX DD ONIT=3330,¥OL=SER=XXXXXX,DISP=SBR, // DSHAHE=COHTROL1.REX.PGfl /AKED.IHPROBBX DD ONIT=3330,¥OL=SER=XXXXXX,DISP=SRR, // DSNAHE=IHPR3SER.REX.PGH /AKED.IHDVBBEX DD UHIT=3330,¥OL=5ER=XXXXXX,DISP=SBR, // DSBARE=IBD?EHTR.BEX.PGH /AKED.IMDCRBEX DD DMIT=3330,VOL=SEE=XXXAXX,DISP=SBR, // DSHAHE=IHDCRSPR.BEX.PGH /AKBD.IBDOTBEX DD UHIT=3330,¥OL=SBR=XIXXXX,DISPOSER, // DSHAHE=IHDUrLIN.HBX.PGH /AK2D.IirDCHHEI DD BHIT=3330,¥OL=SBR=XXXXIT,DISPOSER, // DSHAHE=I9DCHACR.BEX.PGfl /AKED.FILBDREX DD ORIT=3330,¥OL=SER=XXXXXX,DISP«SBB, // DSBAHE=FILEDTOP..BEX.PGH /AKED-CROSPBEX DD DHIT=3330,¥OL=SER=XXXXXX,DISP=SBR, // DSHABE=CROSPROS.BEX.PGH /AKED.¥EBTBBEX DD OMIT=3330,¥OL=5EP.= XXXXXX,DISP=SBR, // DSHAHE=VE»r»E0T.BEX.PGH /AKBD.R2ACRBBX DD OHIT=3330,VOL=SER=XXXXXX,DISP=SBR, // DSKAHE=REACRATE.BBX.PGH /AKBD.CHTROHEX DD OHIT=3330,¥OL=SER=XXXXXX,DISP*SBR, // DS»AHE=CHTRODPO.BEX.PGH /AKED. EXPOSBBX DD ONIT=3330,¥OL=SER=XXXXXX,DISPOSER, // DSRAHE=EXPOS0RE.BEX.PGH /AKED.PERTUREX DD 0NIT=3330,VOL=SER=XXXXXX,DISP*SHB, // DSHAHE=PERTOBAT.BEX.PGH /AK3D.DHISLHBX DD BNIT=3330,¥OL=SER=XXXXXX,DISP*SBP, // DSHAHE=DBISLY.HFX.PGH /AKED.DENHABEX DD 0HIT=333O,¥OLsSER=XXXXXX,DISP»SHR, // DSHAHE=C.:MHA!f.BEX.PGH /AKED.STSIR DD * (CDNT) B-3 INCLUDE SCALBHEX ENTRY LPCHTROL SAHE SCALE INCLUDE LPG5THEX ENTRY LPGETHDL NAME LPGETHDL IHCLDDE LPRBAHEX EHTRY LPREADER HARE LPBEADER IHCLDDE LPGPRHEX EHTRY LPGBTPRH NAHE LPGETPRH IHCLODE COHTRHEX ENTRY GABT HAHE CONTROL1 INCLUDE INPROHEX OVERLAY INPUT INSZRT CGEODS,CHDXSR,CZNATD 0?ERLAT INPUT IHSERT CISOTX 07BRLAT INPUT INSERT CGRPXS 0?ERLAY INPUT INSERT CISOSX OVE9LAY INPUT INSERT CFXSR£,CSERCB,CSNCON OVERLAY INPUT INSERT CCISPR,CVENTR,CPRIHT,CIS03R OVERLAY INPUT INSERT CTFLUX,CCURHT,CAFLOX OVERLAY INPUT INSERT CRZFLX,CPERTU,CPWDNT,CFISDR OVERLAY INPUT INSERT CDLYXS,CBRKXS,CWORTH,CAHSIN,CDACIH OVERLAY INPUT INSERT CEXPOS,CZCOHC,CRODST OVBRLAI INPUT INSERT CZNTHP,CZNP0ir,CEXPOH,CPTArD OVERLAY INPUT INSERT CRFUEL,CTRIGH ENTRY HAIN HAHZ INPROSER INCLUDE INDVEHEX OVERLAY LEVELD INSERT GEOH,GOHN OVERLAY LEVELD INSERT FB3D OVERLAY LSVBLD CDNT) B-4 IRSERT TRIF,HEXF OVERLAY LEVELD IlSSk'Z THKD,VOiS,HSHP OVERLAY 1PVPI.D III SEET KOHP,KH0T OVERLAY LEY ELD I9SERT OVLY,HOSH,0VLP OVERLAY IE VELD INSERT SSET OVERLAY LEVELD III SEPT GORA OVERLAY LEVELD IHSERT DERS OVERLAY LEVELD IHSERT GDRA OVERLAY LEVELD INSERT SETS OVERLAY LEVELD IRSERT SEAR OVERLAY LEVELD IRSERT GCH1,G0H2 OVERLAY LEVELD IHSERT ZHD1rZRD2 OVERLAY LEVELD IRSERT HDR1,RDR2 OVERLAY LEVELD IRSERT CTL1 ENTRY HAIR RARE IHDVEHTR IRCLDDE INDCFHEX ENTRY HAIR RARE IRDCRSPR IRCLODE IHDUTHEX ENTRY HA IN HARE IHDUTLIR INCLUDE INDCHHEX ENTRY HAIN RARE INDCHACR INCLUDE FTLEDHEX OVERLAY PRINT INSERT PVERTR OVERLAY PRINT INSERT PCXSPR,PPEPTtJ,PPISOR OVERLAY PPINT INSERT PANSIN,PDACIK,PW0RrH,PSNC0R,PIS03R OVERLAY PRINT IRSERT PTFLUX,PC£JRRr,PAFLUX,PPWDNr,PRZFLX OVERLAY PRINT INSERT PNDXSR,PZKATD,PGEODS OVERLAY PRINT (CDNT) B-5 INSERT PFXSRC,PSBPCH OYBRLAY PRINT INSERT ?ISOGX,PDLYXS,PBRKXS OVERLAY PRINT INSERT PGRPXS,PISOTX OVERLAY PRINT INSERT PPTATD,PEXPOH,PZHPON,PZNTHP ENTRY RAIN NAHE FILEDTOF IHCLODE CROSPHEX OVERLAY LEVBLQ INSERT ITH,ITI2 OVERLAY LEVBLQ INSERT CTI1,CTI2,CTI3,CHOL OVERLAY LEVBLQ INSERT H2I1,H2I2 OVERLAY LEVBLQ INSERT HIX1,HIX2,NIX3,HIX4,HIX5,HIXC OVERLAY LEVBLQ INSERT IXS1,IXS2 OVERLAY LEVBLQ INSERT XSC1,XSC2,XSC3,XSC»,XSC5 OVERLAY LEVELQ INSERT GXS1,GXS2 ENTRY HAIN NAHE CROSPROS IHCLODE VENTNHBX OVERLAY LEVBLD INSERT IONO,VENT OVERLAY LEVBLD INSERT GBTCOR,FRECOR OVERLAY LEVBLD INSERT SGXO,S3X1,SGX2,SGX3,SCAL OVERLAY LEVBLD INSERT CORE,C3RI,CORP,GNAM,C0RD,30RB,DDSP,DASO,JPRT INSERT RBLA,RBLB OVERLAY LEVELD INSERT RAC1,VZT2,HACA,NACB,KAC2,!IAC3,HAC5#CfiDn,HA:4,HAC6 OVERLAY LEVELD INSERT CON1,HSHO,NRCF,HSH1,CON2,~ON3,CKCT,COM,CDN5,COB7,CON9,BNDY INSERT NSH3,GBOQ OVERLAY LEVELD INSERT ORLX,ORLA,HOCK,ORLB,ORLC,ORLD,ORLE#ORLF,LAXR,LAXP,BATS,LOCK INSERT 0RLR,C0N6,RC0V OVERLAY LEVELD INSERT PRIA,PHI1,PHT2,?HI3,PHI4,PHI5,PHI6,PBND,PC2D,PC3D,EDBN,SDBN INSERT PHI7,TOIP,QDBN,RDBN,GRXP,PAN1,PAN2 OVERLAY LEVELD INSERT ADN1,ADN2,ADN3,DCID,DSDF,DIHS,AJDS,DIHl,DIH2,CMES,CaVL,DIH3 INSERT ZVRV,CRGV,FLRD,FL1H OVERLAY LEVELD INSERT COMC,LCAL,FLXR,FXSP,BSQV,AJNT,REV1,PROS,ZI03,FBFS (CDNT) 3-6 IHSERT CORR,IFTD,OHES,TROS,TRES,HSTl,HST2,HST3 OVERLAY LEV ELD IHS5RT O0TR,BALC,ZIHS,CHBF,CHEV,RDA6,XTRP,JC:3,ATED,FFGG,RDPS,RELX IHSERT FS0R,SS0R,PS0R,FL0X,LTRG,BHAV,OBLX,HE8B OVERLAY LEVELS IHSERT H0EX,ETR1,ETR2,SGD& OYER LAY LSYELE IHSERT DCIH,RRES,HRES,PREC OVERLAY IE7ELE T.SERT F001,SOU1,PG01,IHR1,LOU1,LEK1 OYERLAT IEYELE IHSERT FO02»SOO2,PO(J2,IHR2,LOU2,LBK2 OYERLAY LEYELE IHSERT FCU3,S003,PO03,IHR3,LOU3,LEK3 IHSEBT RBL1,RBL2,RBL3,RBLQ,RBL5 OYERLAY LEYELE IHSERT F004,SOU«,PO[J4,I1IR(»,LOIN,LEK£»,2DUE,QELX,SODI,J1C4 OYEBLAY LEYELE IHSERT FOU5,S005,POD5,IWR5,L005,LEK5,J1C5 OVERLAY LEYELE IHSERT PO06,S306,IHR6,DELX OVERLAY LEVELE IHSERT FO0X,SDUY,POOX,IHRX,LOUX,LEKX,SOUZ,J1CX OYERLAY LEY ELD IHSBRT EDIT,P3UT,HBAL,SOBL,PISS,FLXW,BS3S,PNDH,PTVL,PTZF,JIHT IHSEBT PHD1,PHD2,PHD3,PHD«,PHD5 OYERLAY LEYBLD IHSEET SAV1,SAV2,SAV3,SAV»,SAV5,SAV6,SAV7 OYERLAY LEY ELD IHSEBT PERO,RrUB,HP*>T,QOUT,BBB1,BBB2,ZASU OYERLAY LEYELE IHSERT PERT,TflFY,LIFE,DAFA, HAPS,PHAP OYERLAY LEYELE IHSERT JERT,J0FY,JIFE,JAFA,JAPS,JHAP,JGET EHTRY HAIH HAME VEMTNEOT IHCLODE REACRHEX EHTRT HAIR HA HE REACRATE IHCLDDE CHTROHEX OYEBLAY OWE IHSZRT IHTL OYERLAY OHE IHSERT CBCB OVERLAY TWO IHSERT GDST,A890,REDR,GETL,IDIT,3REK OYERLAY TWO IHSEBT POS1 OVERLAY TWO IHSERT POS2 OVERLAY TWO IHSERT POSH (COHT) B-7 OVERLAY TRO INSEBT POS1 07ERLAT THREE INSERT HOPO OVERLAY TLREE INSERT NOP1 OVERLAY THREE INSERT NOP2 OVERLAY TWO INSERT SAVE,3DS0 ENTRY HA IN WiHJ? CNTROUPO INCLUDE EIPOSHEX OVERLAY LEVELQ INSERT BINP,GHZC,BRH7,BBN(|,BGXS,BZT1,BBNF,BRNH,ZaCZ,ZaCY,ZI5Y INSERT EPPD,BRNX,HQOErSKNU OVERLAY LEVFLQ INSERT BZIN,DEEF,CHOV,BBNS,BRN3,BRHZ,BRNT,BZT2,BeNA,BP.N?),BRRP INSERT PRRF OVERLAY LEVELQ INSERT BORN,BRNY,ZNAB,ZZPD,AUXE,rPNE OVERLAY IEVELR INSERT OEXP,POBL,ARRI,ZCRI,PARI,BRNO OVERLAY LEVELS INSERT OFIX,BFIX OVERLAY LEVELS INSERT ONOV,BH0V OVERLAY LEVBLT INSERT ZOND,ZZPF,ZOHI,POWP OVERLAY IEVELY- INSERT PONI,PPOE,QNAB,QHAT OVERLAY LEVELR INSEBT OXPH,CPH1,ECHK,ESET,FLUE OVERLAY LEVELS INSERT EXPH,FLUC,REHT,CPH2,EPH2 OVERLAY LEVELS INSERT QXPH,QPTD,QFLU,QEHT,CPH3,EPH3 OVERLAY LEVELR INSERT EDEP,ED3D,gIAB OVERLAY LEVELR INSERT OCRN,DONN OVERLAY IEVELQ INSERT FOOL OVERLAY LEVELQ INSERT BPIN,PINS OVERLAY LEVBLR INSERT BPIA,PTAT,PGEO,GCHK,HSH0,HSHK,NSH1,HSH3,NRC:F,7OLP INSERT PLOC,PRN3,PE0R,CHEK OVERLAY LEVELR INSERT BPIB,ZPHP,ZFH3,ZP3V OVERLAY LEVEIR INSERT BPIC,PRNS,PRNZ,PRNT,PZT2,PRNA,PRND,3RPP,PRPF OVERLAY LEVELQ IZOVT) B-8 INSEPT PURN,PRHY,PFIX,PONN,PNAW,PD:>T ENTRY SAIN NAHE EXPOSURE INCLUDE PERTOHEX OVERLAY IE VELD INSERT aENT,D0>O,00RE,DORI,UHAH,03RD,0ORB,0DSP,UASD,0PRT,DLYl,DLT2 OVERLAY LEV ELD INSERT GETCOR,FBECOR OVERLAY LEV ELD INSERT HCOH,NCON OVERLAY LEVELE INSERT UAC1,UAC2fUAC3fl!AC5,UAC6,UACA,OACBt0CAL,IONS OVERLAY LEVELE INSERT OON1,OSBO,OECF,DSB1,OON2,gON3,0KCT,OON INSERT URLX,f!OH6,0JNT,SCAT#OSIG,0EVl OVERLAY LEVELE INSERT VAC 1,GNEQ,VAC2,VAC3,VACA,V::AL,DKOH#ffHEK,DKDNrTEBP,TANS,TENS INSERT UNEK,KANS,KENS OVERLAY LEVELD INSERT PEROrBT&B,HRPT,QOUT,BB61,BBB2,BBFF OVERLAY LEVELE INSERT PERT,TOFY,LIFE,DAFA, NAPS, PHAP OVERLAY LEVELE INSERT JERT,J0FY,JIFE,JAFA,JAPS,J!7AP,JGET,INLK,KEFF,KEFA OVERLAY LEVELD INSERT DKOK,DLK1 ENTRY RAIN NAHE PER TO BAT INCLUDE DNISLHEX ENTRY HAIN NAHE DHISLY INCLUDE DENNAHEX ENTRY HAIN NAHE DENH&N /* // i c-i APPENDIX C Listed here are the Interface data files required by the modules of the system. Figure C.l lists the file CONTRL and Figure C.2 shows the correspondence of data from the DTNINS record of CONTRL and the special Input processor DVENTR. The standard files are listed in Figure C.3, and newly defined files are listed In Figure C.4. • C-2 •nl CO***1, .«•••••*" f ^^^-^ - c c#....—•*•• c— cs cs cs cs cs cs 10 CS 10 CS iO CS 10 CS 10 CS 10 cs cs cs cs cs ;; w* cs cs c- ^ssss*5^ B c nx* * ttt8s c ct c CO CO CO St»* 1 f 0, to* •"••J> ? . • (CO»t> L C-3 SPECTPICITTOBS FOB PBOIBS tBCOBB IB XBTBBPBCB mi COBTBL C — — CB PBOBIEB IBPOBB&TIOB C CI PBOXBS, (XX(t),1-1,100), (IX(X),1*1,100) c CB 101*BBtT * 100 C CO FB0I5S PBOBLBB IBTOBBITIOB BUI XOBBTirXSK (6BPBOIBS) C CD XX(1-2«) PBOBLBB OB C&SB TITLE (B6) C CB XX (25) VSR LIBEL (JOBBtBE) FOB IBTBBTBCE BBTB FILES (It) C CB IX (26) OSES LIBEL (DITE) PDB XBTEBPACE BIT 4 PILES (1«) C CD II(27-100) BESEBVED C CD 11(1-100) RESERVED C (COBI) C-4 SPECIFICATIONS roB DTRIBS BECOID IB XBTEBPACE FILE COBTBL CB WDBLE DRXTIBG IBPOBRATIOB C CL OVh* S, (XI(I),1*1,100), (IX(I|.I«1.100) C CV 101•HOLT • 100 C CD DTRIBS BODOLE DEIFIES XBrORBATXOB XDEBTIFXEB (6BDVRIBS) C CD XX(1-100) RESERVED C CD IX(1) PBIBARI BEBORI ALLOCATXOB, BORD5 C CD XX(2) RESERVED C CD IX(3) RESERVED C CD XX(«) HAXIBOB BLOCK SIZE FOB DIBECT ACCESS DIM FILES, CD BOBDS, BEST VALOE DEPEBDS OB SEVERAL TBIB6S CD IBCLUDIRG DISK TRACK LENGTH, OVERRIDE TAB CD AUTOMATED PBOCEDOBE ASSI6BBEBT IF BOB-ZBBO C CD IX(5) TOTAL PBOCESSOR TIRE ALLOWED FOR TBB ROB, BIBDTES C CD IX (6-10) BESEBVED C CD IX (11) STARt-ALOBB FLA6 - CD 0 - BODOLES ARE ACCESSED IB A TBOE BODOLAB SEBSE- CD 1 - BODOLES ABE ACCESSED AS I* EACH IS A CD STABD-ALOBE CODE (NOT BEC&BBEBDED) C CD 11(12-100) BESEBVED C (CDHT) C-5 SPBCIFICATIOHS POR XCPIRS RECO*D IR IRTBRFACE FXIE C0RTRL CR CROSS SBCTIOR PROCESSOR IRSTROCTIORS C CR TRXS DH1 REQUIRED BT THE CROSS SBCTIOR PROCESSOR C Ct XCPIRS, (XX(I),1-1,100), {IX(I) ,1-1,100) C CW 101•BOLT • 100 C CD XCPIRS CROSS SBCTIOR PROCESSOR DATA IDBHTXFIBR (6BZCFIHS) - C CD XX(1-100) RESERTED C CD IX(1-2) RESERTED C CD IX(3) OPTIOE OR IRPDT CROSS SECTIOR FILE PR0CESSIR6 CD o - RO PRO:ESSIRS REQUIRED CD 1 - 6BHBRATE REH RDCtlDE-OBDEBED TILL FROH CD TRB PILE OR PILES HATIHG FOBHAT IX(5) CD (REODIBES IRTERPACE FILE CXSPRR FOB CD ADDITIONAL IRPORHATIOH) C CD IX(«) OPTIOH TO CEBERATE A 6RO0P-ORDBBED FILE PROS CD X HOCLIDE-OHDERED PILE CD 0 - RO CD 1 - IBS C CD IX (5) PORMT OP IBPOT CROSS SBCTIORS FOR IX(3) EQ 1 CD 0 - HOCLIDE-ORDBBED PILE CD 1 - CITATIOR CROSS SECTIOR SETS CD 2 - HEDGE TWO WDCLIDE-ORDERED PILES C CD IX(6) OPTIOR OR PRINCIPAL CROSS SECTIOR DATA CD FOB IX(«) EQ 1 CD 0 * RETAIH ALL DATA CD 1 - REDBFIRE (R,GAHHA) CROSS SECTIOR TO BE CD THE CAPTURE CROSS SECHOR » (R,6AHRA) • CD (R,ALPHA) • (R,P) • (B,D) • (H,T) - (R,2H)- C CD IX (7) OPTIOH OR SCATIBBIHG DATA FOR II (•) EQ 1 CD 0 - RETAIR ALL DATA CD ' * RETAIB THE TOTAL SCATTER IDG OUT C CD IX(8) OPTIOR OR SCATtEKIRG ORDER FOB IX(*) EQ 1 CD 0 - RETAIB ALL DATA CD » - RBTAXR ORDERS OP TO (R-1) ORLT C PORT) C-6 CD K(9> OPTIOB OB SCATTERIK RECORD BLOCKIRG F1CTOR - CD FOR IX(«) EQ 1 - CD 0 - BSBT.OR = 1 - CD B - BSBLOK • B, IF (BTSO/H)»B EQ HI SO, - CD OTHERRISE ESBLOK = BISO - CD •HEBE BISO IS THE BUHBER OF BOCLIDES - C CD IX(W| OPTIOB TO COHPOTE THE TOTAL SCATTERIBG HATBIX _ CD FROH THE CORPOBEBTS FOR IX(«) EQ 1 - CD TOTAL * ELASTIC • IEELASTIC • B2B - CD (THIS HOST BE DOHE IF THE GROPXS FILE IS TO BE - CD OSED BT TEBTDRE AHD THERE IS BO TOTAL - tt> SCATTERIBS DATA PRESEBT) - CD 0 - BO - CD 1 - TES - CD 2 - TES ABD HOLTIPLT B2B SO0RCE BT 2.0 - C CD IX (111 OPTIOB TO CREATE ISOTOPE HIXTURES AFTER PROCESSIB6 — CD SPECIFIED BT IX(3) ABD 11(5), IF ART - CD 0 - BO - CD 1 - TBS (REQUIRES IITERFACE FILE CXSPRR FOR - CD ADDIIIOHAL TBFORBATIOB) - C CD IX (12-22) RESERTED - C CD IX (23) OPTIOS TO EDIT LITEST BOCLIDE-ORDERED FILE - CD 0 - BO - CD 1 - TES - C — CD "(2«) OPTIOB TO EDIT 6RO0P-OP.DERED FILE - CD 0 - BO - CD 1 - TES - C — CD XX(25-100) RESERVED - C • (SORT) C-7 SPECXFICATIOBS POK OTVIBS BECOBM II IBTEBFACE PILE COBTBL CB BEBTBOBXCS IBSTBBCTIOBS C CL OTBIBS. (XI(I),I=1.100). (IX(I),1*1,100) c CB 101»BBLT • 100 C CO DTBIBS BE9TB0BXCS COBTBOL IDEBTIPIEB, A (6) CD 11(1) BEPEBEBCE EEAL PIBE. DATS CD XI (2) BACBIBB TIBE ALLOBED POP SOLBTIOB, BIB CD (XTEB1TX0B TZBBIBATED IP TIBE EXCEEDED} CD XX (3) CYCLE TIBE IB BXBBTES TO BBITE BBSTABT DATA CD BOt DOBE IP 0, ALBATS DOBE IT EBD IP BOB-ZEBO- C CB BOTE THAT TA'IABLKS BOT DEPXBED ABE BESEBTED FOB LATBB BSE - C CD XX(«) POBBB LETBL OP BEACTOB, BARS TBEBBAL CD IP 0, BOBBALIZATXOE IS TO OBE SOOBCE BEBTBOB CD (BATT-SEC/PISS DEPIOLTED TO 3.2E-11 IP tM) CD XX(5) EBEB6T COBPZBSIOB PACTOE, FISSIOB TO THEBBAL CD XX(6) PBACTIOB DP BEACTOB TBEATED CD XX(7) SPECIPXED 30LTIPLICATIOV PACTOB FOB SEABCB IP CD BOB-ZEBO CD XX (8) SPECIPIED 3TEBBELAXATXOB COEPPICIEBT IP BOE-ZEBO- CD XX (9) ESTIBATE DP THE EIGEBTALOE POB CHEBTCAET CD ACCELEBATIOB 9B OBTEB ITEBATIOBS CD XX (10) ESTIBATE DP TBE LOBEB LIBIT OP THE SPECTBOH OP - CD EtGEBTALBES POB CBZBTCBET ACCELEBATXOB CD XX(11) COIfEBGEBCE CBXTEBIA OB IBTEGBAL QOABTITIES CD BAXIBDB BELATIfE CBABGE OB OOTEI ITEBATIOB CD XX(12) COBTEBCEBCP CBXTEBIA OB LOCAL OB POIBT TABIABLES- CD RAXinOH BELATITE POIBT PLOX CBABGE OB OBTEB - CD ITEBATIOB (.00005) CD XX(13) COBSTABT BOCKLIBG TALOE BBICB CTEBIIDES TBE DATA- CD I* GEO05T PILE IP BOE-ZEBO CD IX (1«) BESEBfED CD XX (IS) BESEBTED CD XI(IK) BESEBfED CD XX (17) BESEBTED CD XX (18) BESEBTED CD XX (19) LIHITIBG TALOE OP ABT DIPPOSIOI COEPPICIEBT CD IP >OT ZEBO - DEPAOLT 100.0 CD XX(20) PAIAHETEB POB HXGBEB OBDEB TALE SOL0TI0B CD 1/6 - 0.1666666 - TATLOB SEBXES CD 7/36 « 0. 19HWB - LIBEAB PLOX CD 1/B - 0.25 - LIBZAB PIBITE ELEBEBT CD IF BADE BESATXTE, TBE HIGHER OBDEB APPBOXIBATIOB- CD IS BOT APPLIED TO TBE SOOBCE (COBT) C-8 CD XX (21) THE 20IS ARD GROUP DIFFUSZOH COEFFICIENTS CO THROUGH ZOIE IX (»3) (SEE BBLOH) RILL BE CD HOLTIPLIED BT THIS KOKBEE IF HOT ZERO CD XX (22) THIS JOBBER RILL BE ADDED TO THE ZOHE RID CD GROUP DIFroSIOl COEFFICIE1TS THROUGH ZOHB CD IX(»3) AFTER XX(21) IS APPLIED IF 10* ZERO CD MC23) XEIOR*IODIRB YIELD FRACTOI FOR EQOILIBBIUH CD XEROH - IF IX(69) GT 0 CD IX (2«) *Q* FACTOR FDR PORER WEIGHTED REGULAR TIRES CD AWOIRT PLOX CD XX (25) REFEREHCE TERPERATORE (DEGREES C) OF THE CD HEIT-TO-LATB5I TERSIOR 'GRUPIS' CROSS SECTIOI CD IRTERFACE FILE CD IX (26) RETEREICE TEHPERATURE (DEGREES C) OF THE CD LATEST VERSICR 'GROPXS' CROSS SECTIOI IITERFACE CD FILE CO K(27) CORRELATIOI PARAHETER FOR THE ARCTAIGEIT CD DEPEHDEICE OF CROSS SECTIOHS OH ZOVE CD TEHPERATURES (LI REAR CORRELATIOI IF 0.0) CD XX (28) FACTOR APPLIED TO SPACE IITERPOLATIOI SLOPE CD FOR SPACE-ERERGY REBALARCE. IF ZERO, io CD SPACE IVTERPOLATIO* IS D0IE CD XX (29) FACTOR APPLIED TO THE FIIAL REBALXKCE FACTORS CD FOR SPACE-EHEPGT REBALAICE - DEFAaLT 1.0 CD XX (30) ZERO" DECAT CORSTAIT FOR EQUILIBRIUM XEIOI - CD IF IX (69) GT 0 CD XX (31) XX (100) RESERVED C CD TX(1) INDICATOR THAT THE CODE BLOCK HAS IHPOT DATA CD ROT COirAIRED IB THE STAHDARD IRTERFACB FILES- CD OTHER THAR THIS BLOCK OF DATA IF .GT.O CD IX (2) RESTART OPTIOKS- RESTART USIBG DATA FBOH AR CD OLD CASE IF .GT. 0, REQUIRES SPECIAL RESTART - CD DATA FILE CD IX (3) REFEREICE COURT OR PROBLES5 (CYCLE ROBBER) CD IX(«) FORHOLATIOH OPTIOHS C CD TEITURE, RESH CERTSRBD PIRITE-DIFFSRERCE CD 1 - DIFFOSIOH THEOBT (FOHDAHERTAL) CD 2 - SIHPIB P1 APPROXIHATELT (FQRDAHEHTAL) CD -1 - DIFFOSIOR THEOBT SOL0TX0I FOR THE DOHIRAHT- CD ALLORED FIRST HAP.HOHIC REQOIRIHG THE ' - CD PUHDAHEHTAL REGOLAR AID AOJOIRT FLUX PIL85- CD •RTPLUX* AHD •ATFLnX*. THE FIRST ITERATE - CD SOURCE DISTRIBOTIOI RILL BE SKERED TO CD EXCIfE ALL SPACIAL FLOX HARHOIICS SO CD THAt THE DOHIHAHT RILL S0SFACE. CD -2 - SAHE AS -1 BOT THE FIRST ITERATE SOURCE - CD HILL ROT BB SKEWED. USUALLY FOR THIS CD OPTIOR THE 'RTFLOX' FILE HOST EITHER BB A - CD OBIFDPH FLOX DISTRIBUTER (If RHICH CASE - CD THE SOLUTIOR HAY OR HAY ROT BE FOR THE (C3KT) C-9 CD D03IBABT EARRORIC) 08 IV IHITIAL ESTIHATB - CD OP TBE DORIBABT HARHOHIC FLOX DISTRIB3TI0R- CD (POB EXAHPLE, A COSXIE PROH -1 TO »1 CD ALOB3 A COORD IB ATE WHILE PERHAPS OHXFORR - CD IB OTHER DIBECTIOBS) THAT RILL CAOSE TBE - CD DESIRED HARHOHIC TO SURFACE. THIS HIT CD ESPEriALLT BE USEFOL TO ACCELERATE CD C0HTER3EHCE BHBH TWO OF THE SPACIAL CD HARS3HIC EIGEHTALDES IRE HEARLT EQOAL. CD -10 - SPECIAL DOBIRABT HARBOBIC SOLOTIOB (RZ) CD ADJOSTIBG THE TOTAL LOSS TERR TO ACC005T - CD FOR THE AZIBOTHAL HARBOVXC C CD TALE, BESH ED6S TRIABGOLAR CD 1 - DIPFOSIOH TBEORT (F0BDA3ERTAL) CD -1 - DIFfJSIOB TBEORT (DOHIBABT HARHOBIC) CD -2 - SAHfc AS -1 BOT THE FIBST ITERATE SOBRCE CD BUL »0T BE SSERSD CD 3 - HIGHER 0RDE3 (F03DA3EBTAL) - SEE XX(20) CD -3 - HIGHER ORDER (DOHIBATE HARHORIC) CD -4 - SABE AS -3 BOT THE TIPST ITERATE SOORCE CD BILL BOT BE SKEBED C CD TABCER. JIESH EDGE (2- AHD 3-D SLAB IHFO SHOBH )- CD 1 - FIBITE DIFFEREHCE CD 2 - LIBEAR FIBITE DIFFEREHCE (8,10 BEIGRBORS) - CD 3 - EXTEBDED TAYIQE SERIES (8, 10 BEIGHBORS) - CD 4 - LIREAR FIBITE ELEREBT (8, 10 BEIGHBORS) CD 5 - SI3PLE TAILOR- SERIES (8, 10 REIGHBORS) CD 6 - OSOAL FIBITE DIFFEREHCE (4, 6 BEIGHBORS) - CD 7 - COMPROMISE (8, 10 HEXGHBOBS) CD 8 - TOBPROHISE (4,6 BSIGBBOBS) CD 9 - COHPEHSATED DIFFEREBCE (4, 6 BEIGHBORS) C CD IX (5) TTPE OF PB3BL».» CD 0- DETEPHIBE SOOBCF HOLIIPLICAYIOB FACTOR CD 1- SEARCH PROBLEH (FILE OF SEARCH DATA IS CD RE2JIRED, SEE OPTIOH IX(10)) CD 2- FIXED SOORCE PROBLEf! CD 3- ADJOIBT PROBLEH OHLT CD 4- BDCKLIBG SEARCH CD 5- PBOHPT RODE ALPHA CALC0LA7XOH, 1/T SEARCH- CD XX(6) ADJOIBT PROBLEB OPTIOBS CD 0 - BO ADJOIBT PROBLEB TO BE DOBE CD 1 - EI3EBTAL0E TTPE PRC3LEH CD (N3RBAM.T FOLLOBIBG A FORVARD PROBLEB) - CD 2 - FIXED 50DRCE TTPE PROBLEB CD IX(T) RESERVED (COHT) C-10 I CD IX (8) OPTIOB TO FORCE DATA RAHDLIBG BODE (FOR TESTIBS)- CD -1 OPTION TO TERMINATE IP HEHORt ALLOCATIOB - CD IS TOO SWILL FOR EFFICIEBT EZECOTIOI (THE - CD SPICE PR0BLSB CANNOT BE STORED IB TBO- CD DI9EBSIOHS OR EIODGH PLABES OF DATA CAB CD BOT BE STORED TO AVOID EXCESS TRABSFER CD IB THPEE-DIHENSIOBS) CD 0- AOTOBATED TO RTHMXZE IBPQT/OOTPOT CD 1- BASE PEOBLER COBE CONTAINED CD 2- SPACE PROBLEB AT EACH EBERGI COBTAIBED CD 3- OBE ROB COKTAIBED IB CORE CD "»- OBE OR SORE SPACE PLABES COVTAIBED IB CORE - CD 5- BOLTIPLE ROBS STORED FOB TVO DIHEBSIOBAL CD 6- ROLtt>LEVEL DATA TBABSFER CD IX (9) OPTIOBS OB FLUX IBITIALIZAIIOB CD -1 SET ALL PLOT VALUES EQUAL CD 0 AOTOBATED PFOCEDDRE CD 1 POIBT ENERGY HODEL, COSIBE IB SPACE CD 2 OSE LATEST VEBSIOB OF ATALIABLE SCALAR CD PLOX TILS CD 3 OSE SBir-TO-LATEST TEBSIOB OF ATALIABLE CD SCALAR FLUX FILE- CD IX (10) IDEBTIFIES SEARCH DATA IB SEARCH FILE, IX(5)-1 - CD TTfil) IDENTIFIES SECOBDART SEARCH DATA IB SEARCR FILE - CD TO BE OSED IF CONSTRAINTS FOR FIRST SET ARE CD BOT SATISFIED, ABD SECOBD SEARCH IS TO BE DOBE- CD IX(12) SPECIFIES THAT A 2-D (OR 1-D) PROBLEB IS TO BE - CD SOLVED FOR THIS PLABE (OR ROB) OF A 3-D CD (OR 2-D| DESCRIPTIOR IP BOH-ZERO CD IX(13) ORDER IB TIE CROSS SECTION FILE OF THE DIRECTIOB- CD DEPSHDEgr TRANSPORT CROSS SECTIOR TO BE OSED - CD FOR THE FIRST COBBDIBATE DIRECTION (USUALLT 0)- CD IX(1») DITTO, SECOND COORDIBATE DIRECTION CD IX (15) DITTO, THIBD COORDIBATE DIRECTION CD IX(16) INSTRUCTION HOR.1ALLT 2XERCISED BT COBTROL IIODOLE- CD TO INPORJ THE HEOTROBICS HODOLE TO RECOTEB CD DATA FOR IBTTIALIZATIOH PROS FILES RZFLOX AHD - CD RTPLUX CD IX(1"») FORCE KEEP. CALC. ET SOUKCE RATIO IF GT 0 CD IX(18) FISSIOH SOORCE DISTRIBOTIOB FOBCTIOB OPTIOB CD 0- SET VALOES TO BE USED (SANE IB EACH ZOBE) - CD 1- REGION DEPENDENT VALUES TO BE OSED CD IX(19) FISSIOH SOORCE DISTRIBUTION BORBALIZATIOH OPTIdN- CD 0- LEAVE UNNORHALIZED CD 1- NORBALIZE BACH SET TO SOS TO OBITT CD XX (20) CONSTRAINT ON OOTER ITERATIOBS(RAX ALLOWED) CD (SET BT THE CODE IF BOT SPECIFIED) CD IF SET * 969 INITIAL DATA PR0CESSIB6 IS DONE - CD FOR CHECKING INTERFACE DATA PILES, HEFIORT CD REQOIREHEBTS, ETC. AND BO CALCULATIONS CD »»E DONE - EXCEPT IF IX(9) IS GREATER CD THAN 1, THE RESIDUES PASS IS HADE TO CD CALCOLATE INEFFECTIVE OBLT (COHT) C-ll CD IX(21) I3HER ITERATIOB OPTICB CD 0- USE AUTOMATED PEOCEDC«E(RB00aESDED| CD H- REF2REBCE BOSBEB OF IBBERS = R CD SET BT THE CODE IF ROT SPECIFIED CD (IF 1 .LE. R .It. *, CREBTSHST ACCEIEHATIOB- CD RItt ROT BE DORE OR OUTER ITERATIOHS CD US THE AOTOKATED PROCEDURE) CD IX (22) OPTIOR TO PEESTIHATE OTERBELAXATIOB F1CTOBS BT - CD LI nOBtl FOR ZERO SOVRCE PROBLEH, SPECIAL IHBEB - CD ITEBATIOBS it! BORE (HIKE L1RGE TO OTERRIDE CD THE ADTOSATED PROCEDORE RHICH BBPLOTS THIS) CD IX(23) IBITIALIZAFIOB OPTIORS FOB PBOCEDUBES, CHOICE OP- CD OTFBBELAXITIOB COEFFICIERTS ARD ITERATTORS CD -2 DORT DO OSE-DIHBHSIOBAL CALCOLATIOH CD FOB IBITIALIZATIOB CD -1 DOItT OSE 1-D OTEBR5LAXATI0B COEFFICIENTS CD 0- USE AOTOBATED PROCEDORE, SOtTES 1-D PBOBLB3- CD CHEBTSHET COEFFICIERTS OR OBTER ITEBATIOBS - CD IF THE RDHBER OF IBHERS IS .LT. S CD EXCEPT RBEH CHEBTSHET FIUX OR OUTERS CD 1- SARE AS 0 BOT DO BOT CHEBTSHET CD OTFBBCLAXAFIOI COEFFICIERTS CD 2- FIX THE 5U3BER OF IRBER ITERATIOBS CD 3- FIX ROBBER OF IHBERS, RO CHEBTSHET CD «- FIXED IHRERS AND XBITIAL COBFFICIEBTS CD S- FIXED IBBESS ABD COEFFICIERTS, RO CHEBTSHET- CD 6- SAKE AS « BDT DOBT OSE 1-D COEFFICIERTS CD 7- SAKE AS 5 BOT DOBT OSE 1-D COEFFICIERTS CD IX (2«) IBRERITERATIOR SWEEP ORDER CD -1 HOFBAl ORDERED CD 0 AOTOttATED (SIGBA-1 IF ATAILABLE, 0S0ALLT) - CD 1 SIGBA-1 ORDERED I* ATAILABLE CD IX(25) OOTER ITEPATIOR CHEBTCHET ACCELEBATIOH OPTIORS - CD .LT. 0 START AT THIS ITBRATIOB CD 0- OSE AUTOMATED PROCEDURE CD 1- APPLT OBLT AFTER THE FIRST EXXBAPOLATTOB CD 2- APPLT COHTIBUOUSIT FBOH THE STABT CD 3- DOBT APPLT THE PROCESS CD .GT.100- THE PROCESS IS STARTED AT ITERATXOB - CD IX (251-100 0SIHG AR LI BORH EIGEHTAL0E CD IX(26) ASTHPTOTIC O0TSRITERITIOB EXTRAPOLATIOB OPTIOIS - CD -1 SIBGLE ERROR MODE OBIT CD 0- OSE AUTOBATED PROCEDORE CD 1- SIBSLE ERROR BODE OSIHG DATA FOR ALTERBATE • CD ITERATICHS CD 2- ROT ALLOWED CD 3- RE ARE TRTI3G TO FIGORE OUT BHAT THIS DOES - (COHT) C-12 CO IX (27) FORCED OELAT IH ASTSPTOTIC EXTPAPOLATIOH CO 8- ROT ALLOWED FOR THIS BANT OUTER ITERATI03S- CO (IF RELATIVE., I FORCED PROCEDURE BAY BE CO EXECUTED EARLIER) c CR EDITS GEHFRALLY ARE ROT DONE HHER FLAG IS ZERO c CO IX (29) OPTIOH FOR CORDERSED EDIT (TE9BIRAL) IF .GT. 1 - CD IX (2«) OPTIOS TO EDIT THE PRINCIPAL BACROSCOPIC CD CROSS SECTIONS 3T ZOHE CO IX (30) OPTIOR TO EDIT THE MACROSCOPIC SCATTERING CO CROSS SECTIONS BT ZOSE CD IX(31) OPTIORS OR ITERATIOR DATA EDITS CD -1- HO EDITS D0RI3G ITERATION CD 0, OR 1- PRIHART OUTER ITERATION DATA ORLT CO 2- GETS DETAILS EDITED FOP. TESTIBG CO 3* REQUESTS EXTEHDED EDIT FOR DEBUGGING CD IX (32) OPTIOR TO EDIT OVERALL HEUTfiOS BALANCE BT GROUP - CD IX (33) OPTIOR TO EDIT REOTROR BALARCE BT ZORE CD IX(3«) RESERVED CD IX (35) OPTIOR TO EDIT SCALAR REUTPOH FLUX BT POIRT CD IX(36) RESERVED CD IX (37) OPTIOR TO EDIT ZOHE-AVERHGE FLUX BT GROUP CD IF .ST. 1, ALSO EDIT THE ZONE,GROUP IDJOIRT FWI- CO IX (38) OPTIOR TO EDIT PORER DENSITY SAP BT INTERVAL CD IX(39) OPTIOK TO EDIT POWER DEHSITT TRAVERSES THRO PEAK- CD IX (40) OPTIOR TO EDIT REOTROR DERSITT HAP (1/V FLUX CD WEIGHTING) CD IX (»1) OPTIOP TO EDIT NEUTRON DERSITT TRAVERSES CO IX (02) OPTIOR TO EDIT SCALAR ADJOIHT FLOX CD IX(«3) BAXIBDH ZDSE ROBBER FOR WHICH XX(21) AHD XX(22) - CD ARE TO BE APPLIED TO THE ZOHE ARD GROUP CD DIFFUSION COEFFICIERTS IF HOT ZEBO CD IX(»«) OPTION TO EDIT ATOHIC DENSITIES HHEN SEARCHIRG - CD 0- RO EDIT CD 1- HINISO?. EDIT AT BSD CD 2- HAXI10B EDIT DURING CALCnLATIOR CD IX (»5) PERTURBATION OPTIONS - IF NEGATIVE, FILES RTPLUX- CD AND ATFLUX ARE SUPPLIED ARD NO REDTROHICS CD CALCOLAriON IS DOKE - OTHERWISE THE REGOLAS * CD AND/OR ADJOINT SOLUTION IS OBTAINED AS CD SPECIFIED ABOVE AND EITHER FLOX FILE ROT CD GENERATED MOST BE SUPPLIED CD 0- HO PERTURBATION CALCOLATION CD 1- CALCULATE AND EDIT BASIC REGDLAR*ADJOINT CD FLOX INTEGPALS EXCEPT TRAHSPOBT CD 2- ALSO CALCULATE AND EDIT TRANSPORT INTEl'RALS- CD (REQUIPED FOR COBPLETE PERTURBATION EFFECT)- CD 3- ALSO eDIT MACROSCOPIC ABSORPTION CROSS CD SECTION SPAN'S POINT IHPORTARCE HAP CD 4- ALSO EDIT BACPOSCPPIC PRODUCTION CROSS CD SECTION SPACE POINT INPORTANCE HAP CD PLUS ABS-PPOD HAP CD 5- ALSO EDIT 1/V SPACE POINT IMPORTANCE BAP COM?) C-13 CD IX(«>6) EDIT RESULTS TO? A 100 PEPCEBT CBANGE IS HACRO - CD CROSS SECTIONS, ONLT IF IX(«5).HS.O CO IX (»7) OPTIOB TO WRITE POIBT FLOX VALUES FOB EIPOSCRB - CD (EXERCISED OSLI IF IX (53) .GT- 0) CD -GT. 0 BRITE OUT A FOR POUTS IB TBIS ZOBE CD -1 BRITE OHLY THE SPECTROH FOB THE POIST WHERE- CD THE POWER DENSITY IS I BAXIBOH IBITIALLT CD -2 SPITE DATA FOR THE POIBTS IB TBE ZOBE BHBRE - CD TBE PDCEB DENSITY IS & BAXIBOH IBITIALLI CD -3 WRITE OBLT THE SPECTROR FOB THE POIBT WHBBR- CD THE FIRST 3ROBP FLOX IS ft BAXIH0H INITIALLT- CD -« BRITE DftTA FOB TBE POIBTS IB TBE ZOBE WHBHE - CD THE FIrST 3R0nP FLOX IS ft HftXIBOH IIITIALLY- C: •LT.-1 WPITE SPECTR0H FOB THIS HESH POIBT CD IX (»8) ANOTHER ZDBE BOBBER FOB WHICH THE POIBT FLOX CD VALOES ARE TO BE BRITTEB FOB EIPOSOBE IF .GT. - CD IX («9) OPTION ?J EDIT THE DIRECT COBTBIBBTIOB TO CBAWGE- CD I» C0»rEBSl03 RATIO FBOH OBIT CBAHGE IB FERTILE - CD CAPT1RS ARD FISSILE ABSORPTION (HACROSCOPIC) - CD IX (50) OPTIOH TO BPITE SCALAR ADJCIBT FLOX FILE AS CD THE PRO.IDCT OF THE REGOLAR AHD ADJOIBT FLOX CD 0- BO CD 1- REWPIVE THE LATEST VERSXOR OF AB OLD FII E- CD (IF IH?B»' IS BONE, HBITE A HEH OBE) CD 2- WRITE H£TB FILE C CS oprxoirs ABOVE ARE TYPICAL FOB EACH FILE COTERED BELOW C CD IX (51) OPTIOB TO WRI7» THE POIBT SCALAR FLOX FILE CD IX (52) OPTIOB TO BRITE THE POIHT FISSIOB SOURCE FILE CD IX(53) OPTTOB TO BRITE ZOBE-AVERAGE SCALAB FLOX FILE CD IX(S«I) OPTIOB TO WRITE POIBT POWER DEBSITT FILE CD IX (55) WRITE THE CONVERSION RATIO ADJOIBT IBPOBTABCE CD FIXED SOURCE FILE (ALWAYS ADDS A FILE OB TWO) - CD .GT.0- WRITE COMBINED FILE (HAS NEGATIVE DATA) - CD .IT.0- WRITE TWO FILES, ALL POSITIVE CD IX (56) OPTIOB TO WRITE THE ZOBE POKER DEHSITT FILE CD IX (57) OPTIOB TO WRITE THE ADJOIBT ZOBE AVERAGE FLOX CD FILE AZFL3X CD IX (58) OPTIOH TO WRITE SCALAR ADJOIBT FLUX FILE CD APPLICAB1E OBLT IF AB ADJOIBT PROBLEH WAS JOSE- CD IX (59) OPTION TO WRITE PEBTORFATION IBTEGRALS OB fILE - CD PEPTOB. 11(45) ?IOST BE BOB-ZERO. TRABSPOBT CD IBTEGRALS ARE INCLUDED IF ABS (11(45)) GT 2. CD IX (60) OPTION TO WRITE SPECIAL PORBATTED DATA FILE CD (LOGICAL «) AT THE EtfD OF A CASE - SEE SECTIOB- CD OF THE VENTURS REPORT CD IX(61) A PLANE NOSBER AT WHICH ZONE ABD GROUP BOCICLIBGS- CD ABE TO BE CALCULATED CD IX (62) k SECOND PLAHE BOBBER FOR THE BUCKLING CALCOLATI- (CDNT) \ C-14 CD IX (63) OPTIOB TO iHITS A POIBTRISE FIXED SOOKCE FILE CD AS (DB*»2) T"*ES FLUX CD IX (60) FRITE A POIBT POWER DEBSITT ADJOXBT XHPOBTABCE FIXED SDORCE FILE (ALHAYS ADDS A FILE) CD 1 POINT MERE POWER DEBSITT IS HAX -R POIBT 15 ZOHE ABS(H) WHERE POBER DEBSITT CD IS BAX CD 2 POIBT SI"211 BX IX (65-67) BELOB CD IX <65» COLORE BOBBER FOP. IX(60)*2 CD IX (66) FOB BOBBER FOR IX (60) =2 CD IX (67) PLAVE IORBEB FOR IX (60)=2 CD IX (68) RESERVED CD IX (69) IF GT 0 E30ILIBBIOR IEBOB BILL BE ACCOOBTED FOB CD AND THIS IS THE OBDEB BOBBER OF XEBOR IB THE CD BnCLIDE LIST (SET 1) II SECTIOV 013 DVEITB CD IX CO) FORCE DATA TRABSFER IB IBITIALIZATIOI (TO TEST CD PROCEDORES) CD IX(71) RESERVED CD IX (72) RESERVED CD IX P3) OVERRIDE DEFADL? OF FILES TO HEBORT (TO TEST CD PROCEDORES) CD IX (70) SPACE-ENBR3T REBALANCE BILL BE DOBE OCCASIONAL! CD IF GT 0 CD IX (75) THE BOBBER OF BOLCRS ALOBG ROBS (LEFT-BIGHT) CD FOR REBALANCE - IX(7ft) .GT. 0 CD IX (76) THE BOBBER OF BOLCKS ALONG COLS (TOP-BOTTOfl) CD FOR REBALANCE - IX(7t) .GT. 0 CD IX (77) THE BOBBER OF BOLCKS ALONG PLABES (FORE-AFT) CD FOR REBALANCE - IX(70) .GT. 0 CD IX (76) IX (79) RESERVED CD IX (801 OPTION TO ACCOO'JT PDR THE DEPENDENCE OF THE CD CR0S1 SECTIONS ON THE LOCAL TERPERATORE, BEQOIRES CD TBO 'GP.CriS' FILES, A 'ZBTEHP' FILE, ABD REFERENCE CD TE (CO NT) C-15 SPECIPICATIOHS POR RRTIRS '•".CORD IR INTERFACE PIIE CORTRl CR REACTION SATE RODULE INSTRUCTIONS C C REPERERCE 11/01/77 OERL-5062/R1 C MODIFIED 09/17/79 C CL R5TTRS, (XX(I),I=1,100), (IX(I),1=1.100) c CR 101»f!DXT • 100 C CD RRTIHS REACTION RATE SODOLE DATA IDEHTIPIEB (6HRRTIRS) CD CC BOTE- OHDEPIRED DATA ARE PESERVED POR FUTURE USE. CC ROTE- THE VALOE OP ZERO IS A DEFAULT SEANIBG THAT THE OPTION TO CC PERFORH THE TASK IS ROT EXERCISED. COBSIDEEABLE DATA CC HANDLING KAI BE INVOLVED AND HOCH PAPER PBIRTED, SO CARE CC SHOULD BE TAKER TO OBrAIR ORLT THOSE RESULTS REEDED. CC ROTE- QUITE 3EHERALLT THE PILES -NDXSRF- AID -ZNATDH- ARE REEDED CC ARD USOALLT -GRDPXS- C CD XX(1) DESIRED PORER LEVEL IP HOR-ZERO (USOALLT %rA C CD XX(2) RESERVED C CD XT(3) REIGHTING FACTOR DISCUSSED BELOff C CI XX (U) REIGHTIRG FACTOR DISCUSSED BELOR C CD XX(5-2«) RESERVED C CD XX(25) REPERERCE TEHPEPATURE (DEGREES C) OP THE CD RBXT-TO-LATEST VERSIOB «GRDPXS» CROSS SECTIOR CD IRTERPACE FILE C CD XX (26) REPERERCE TEHPERATURE (DEGREES C) OP THE CD LATEST VERSION 'GK7PXS' CROSS SECTIOR IRTERPACE CD FIT i C CD XX (57) CORRELATXOR PARAHETBR FOR THE ARCTAHGERT CD DEPERDERCE OF CROSS SECT10RS OR ZONE CD TEMPERATURES (LIREAR CORRELATION IF 0.0) C CD XX (28-30) RESERVED C CD XX(31-100) RESERVED - SEE IX(41) C CD IX(1) RESERVED C CD IX (2) COHDENSED EDIT OPTIOH CD 0- TES CD 1- RO C (COIITJ C-16 CO IX(3) OPTION TO EDIT PROGRAMMER IRFORHATIOR FOR DEBOGGIIS - c CO IX HJ RESERVED C CD IX(5) OPTION TO AC.OOHT OR THE DEPENDENCE OF THE CD CROSS SECTIONS OR THE LOCAL TEMPERATURE, REQUIRES - CD TWO 'GRUPXS* FILES, A •ZRTEHP* FILE, ARD REFEREICE - CO TEMPERATURES (SEE XI (25) ,XI (26) , ARD 11(27)) CD 0- RO CO 1- TES c CD IX(6) OPTIOR TO COMPOTE ARD EDIT REACTION RATES, CD INVENTORIES, ARD POVER PRODOCTIOR CC ROTE- INDEPENDENT OF THE OPTIONS VKICH FOLLOW, SDHHARI TABLES CC ARE ALWAYS EDITED OR THIS OPTION C CD IX (7) RESERVED c CD IX (8) RESEPTED c CO IX(9) OPTI05 TO EDIT ET ZONE AND SOBZDSE FOR EACH UNIQUE - CD ROCLIDE BARE CD 1 - TES (RILL BE DONE ORLT IF THERE ARE CO SOBZONES) CC ROTE- IR THIS EDIT, ZORE RESULTS EXCLUDE SOBZORE COHTRIBUTIORS C CD IX (10) OPTION TO EDIT BT ZONE FOR EACH UNIQUE ROCLIDE HAHE - CD ROTE - ZONES RILL INCLUDE SUBZONE CONTRIBUTIONS - C CD IX (11) OPTION TO EDIT BT ZONE CLASS FOR EACH UNIQUE CD NUCLIDE RARE C CD IX (12) RESERTED C CD IX(13) RESERVED C CD TX(1«) OPTION TO WEI3HT SOUHAFT REACTIOH RATES BT NUCLIDE - CD ERERGT GENERATION CD 1- FISSIOI ENERST ORLT CD 2- FISSIOW PLUS CAPTURE ENERGY C CD IX (15) OPTION FOR ADDITIONAL RESULTS KITH ALTERNATIVE CD REIGHTIRGS (SUMMARY TABLES ONLY) CD 1- BY RET HEOTROR PRODUCTION (GENERATION MINOS - CD ABSORPTION) CD 2- BT CAPTURE RATE IF FERTILE AND ABSORPTION CD RATE IF FISSILE C CD IX(16) REPEAT THE CALrDLATIONS OF REACTION RATES INDICATED - CD ABOVE (IX(S).GT.O) USING FLUX, ADJOINT NEIGHTIRG- CD REQUIRISG FILE -PERTUB- C (CONT) C-17 C!f THE POLLOHIRG ARE PRELIHIHART, HOT ISPLEHEHTED C CD IX(17-20| RESERVED C CD IX (21) OPTIOI TO EDIT REACTIOH RATE HAPS OSIHG FILE -RTFLOX- CD .Gt.O- SPECIFIES A PLABE OF A 3-D PROBLEH OB CD A ROW OF A 2-D PROBLEH C) -1- THE PLABE OR BOB IS TO COHTAIH THE CD LOCATIOH OF HAXIHD.1 POVEB DEBSITT C CD IX(22) HAP PRIRCIPAL BEACTIOB RATBS FOR FISSILE BOCLIDES CD 1- ABSOBPriOB CD 2- ABSOBPIIOB ARD PftODOCTIOH CD 3- CAPTURE AHD FISSIOI CD »- CAPTOHE, FISSIOR AHD PRODDCTIOH PER CD ABSOBPTIOR C CD IX (23) HAP PRIRCIPAL PEACTIOH RATES FOR FERTILE BOCLIDES CD 1- CAPTORE CD 2- ABSORPTIOH OSLY C CD IX (21) RAP ABSOBPTIOH KATES FOR tWCLIDES OF THIS CLASS C CD IX (25) RESERVED C CD IX (26) REPSAT THE HAPPIHG BITH HEIGHTIHG OB ADJOIBT FLUX CD OSIHG FILE -PBRTOB C CD IX(2T-30) RESERTED C CD IX(31) OPTIOH TO EDIT PEACTITITI COEFFICIEBTS FOB OBIT CD CHARGES IH FISSILE HOCLIDE C07CEBTRATIOBS C CD IX (32) OPTIOH TO EDIT REACTIVITY COSPFICIEHTS FOR OBIT CD CHARGES IB FERTILE HOCLIDE CORCEITRATXORS C CD IX(33) OPTIOR TO EDIT REACTIVITY COEFFICIEBTS FOB OBIT CD CHARGES IR HOCLIDE COBCEBTRATIOIS OF THIS CLASS • C CD IX(3»-36) RESERVED C CD IX (37) OPTIOH TO PRODUCE DELATED HEOTROH PROPERTIES WITH , • CD FLDX, ADJ3IHT WEIGHTING OSIHG FILE -PEBTOB- ABD - CD -D'.ATXS- C CD IX(38-»0) RESERVED C (COHT) C-18 CO IX (*1) OPTIOR TO COLL*PSE tTBOSS SECTIOHS II EBERGY, FILE CD -ISOTXS-.O-ISOTXS- USIBG TBE EBEBGT STBOCTDIE CD GITBH AS 5ECDP LOWER BOORDS DESCEBDIBG ET, DATA - CD II ABRAT XX STARTIRG AT XX(31) TERSIHATIBG WITH - CD A ZEBO EHtRT FOB THE LAST GBOOP CD 1- PRODUCE HACSOSCOPIC CROSS SECTIOVS FOB PSE0DO- CD DERSITT ORITT FOB EACH ZOIE, FLOI REIGHTED CD 2- PRODUCE OBE-TO-ORB RQCLIDE DATA OILT FOB TBE - CD ORES SITIRG HOR-ZEBO COBCEITBATIORS WITH PLOX- CD REIC1TIRG DSIRG FILE -RZFLOX- CD 3- SAKE AS 2 EXCEPT FUJI, ADJOIRT REIGBTIRG CD REQOIBIRG FILE -PERTOB- C CD IX(42-50) BESEBTED C CD IX (3i) OPTION TO GERBBATE A DISTBIBOTED HEOTBOH SODBCB FILE- CD -FIXSRC- 05IBG FLOX FBOH -BTFLOX- CD 1- TOTAL PBODOCTIOHS PPOH FISSIOH SOLTIPLIEO Bt - CD XX(3) ROBBALIZED TO A TOTAL OF XX(3)*XX(«) CD IF XX(») IS ROR ZEBO, XX(3) SET TO ORITT IF 0- CD 2- TOTAL DELATED HEOTROH SOOBCE DSIRG FILE CD -DLATXS- CD 3- ASTHPT3TIC DELATED REOTROR SOORCE DSIRG THE - CD FAHILT OF LOHGEST HALF LIFE (ASSOHES DISTIRCT- CD ORE APPLIES) 0SIHG FILE -DLATIS- C CD IX (52) OPTIOI TO GERERA7E k ZOHE-GROOP DISTBIBOTED SOOBCE - CD FILE -FIXSFC- OSIRG ZOHE ATERAGE FLOX FILE CD -RZFUJX- (SEE OPTIORS IBHEDIATELT ABOTE) C CD IX(53-100) RESERTED C c (CORT) C-19 SPECIFICATIORS FOR BODIIS RECORD II IRTERPACE FILE COITBL CB COITPOL BOD POSITIOBIHC inSTBDCTIOHS C CL RODIHS, (XX(I),1=1,100),(IX(I),1-1,100) C CR 101*HOLT • 100 C CD RODIHS ROD POSITIOHIH3 ROD0LE DATA IDEHTIFIER (6HBODIIS). - C CC I0TE - THE IHTBBFACE FILES •COHTRL' • BODSET* •IDXSRP' •ZIATDI* CC AHD 'GEODST* ARE BEQ0IBED. C CD XX(1) REFEREICE HISTDFT TIHE (CTCLE TIBE) , DATS, BBTBEBI - CD FOELIRGS DURIH3 BHICH A SUCCESSION OF COITBOL BOO CD POSITIORIHGS ARE TO BE DOIE (SEE IX(10)*0 BELOM) - - CD OSFD FOR THE FIRST ISRPS SET (IX(8)»1). C CD XX(2) REFEREICE HIST3HT TIRE TO BE OSED FOB ALL BUT TBB CD FIRST ISHPS SET (IX(8).GT.1) - DEFAULTED TO XX(1) CD IF 0. C CD IX(3) EDIT OPTIORS. CD 0- 10 SPECIAL EDITS. CD 1- 90D-F0LL0PER ZORB DEISITIES AFTEB POSITIOIIIG. - CD 2- PLOS SORE IRFORHATIOI ABOUT BOD POSITIOIIIG. CD 3- PLOS HORB IRFOBRATIOB ABOOT ROD POSITIOBIIG. CD 4- PLOS COITERTS OF THE COHBOH DATA BLOCK. CD 5- PLOS THE CORTEHTS OF FILES •IDXSBF', 'ZIATDI*, - CD AID THIS RECORD 'BOOTHS' OF FILE •COITBl*. C CD IX (8) THE S?T I0HBEB OF THE ROD POSITIOIIIG SPECIPICATIOIS- CD (OOT or ISBPS SETS 01 FILE •RODSET*) TBAT IS TO BB - CD OSED THIS ACCESS. DEFAULTED TO 1 IF 0. (APPLICABLE - CD FOR IX(10) *0, OB »L BELOW). C CD IX(9) AIOTRER SET I0RBER Or THE ROD POSITIOIIIG CD SPECIFICATIONS THAT IS TO BE OSED THIS ACCESS CD (IF.GT.O) AFTER OSIIG THE IX (8) SET. C CD IX(10) OPTIORS OR ROD POSITIOBIIG. CD -«- RECOVER ALL ROD ARD FOLLOWER COICEI'/RATIOIS CD FROn THE REXT-IO-LATEST TERSIOI OF 1HE ZOIS CD DBISITT FILE 'THATD!* (SEE 11(11) AID IX (12) CD BELOB). IF IEXT-TO-LATEST TBRSIOI DOES IOT CD EXIST, USE LATEST TERSIOR. CD -3- RECOVER ALL ROD AID FOLLQBER COICEITRATXOIS CD FROH THE LATEST 7ERSI0H OF FILE 'TIATDI*. CD -2- IISERT RODS FtTLLI AS SPECIFIED BT OPTIOI ISB CD IR THE FILE 'RODSET'. CD -1- WITHDRAW RODS POLLT AS SPECIFIED BT OPTION ISB • CD II THE FILE 'RODSET'. (CDfT) C-20 0- I0TORITED PROCED0RE. If THE TIBE XX(1).GT.O THE RBFERERCE TIHE IHTO THE CYCLE (TR) IS OBTIIBED FROR THE DRHSITT FItE •ZBITDB*. THE* THE PKICTIOR OF EXPOSORE tIRE IS F«TB/XXf1). THE REIREST FEH(L) (OR •RODSET* FILE) TO F IS FOOHD, IRD TB.. CORRESPORDIHG 1 IS THER THE POIRT IH THE HISTORT FOB BOD POSITIOBIR6. IE., THE SPECIFICIIIOBS BZI (J,I) (OR 'RODSET* FILE) ABE RSED TO POSITIOR THE RODS. ROTE THAT RITH THIS OPTIOR, IT IS POSSIBLE THH SORE POIRTS IR THE HISTORT HIT BE SKIPPED. IF THE TISE XI(1).EQ.O OH THE FIRST ACCESS OF RODKOD, THE COHTROL BODS IRE POSITIOHED IS SPECIFIED IT POIRT 1 IR THE HISTORT (HZI(J,L*1)). THER OR E1CH SDBSEQPEHT ACCESS FDR BBICH THIS HDHBER IX(IO) »0, TBE POIRT IR THE HISTORT I IS IRCREHERTED BT 1. IF L EZCEBDS THE ROBBER OF POIRTS GIVER (RCTD OR 'RODSET'I THE LIST POIRT L-HCTD IS BEOSED. i'HIS OPTI3H ASSURES THIT THE RODS IRE POSITIOHED AS SPECIFIED FOR ILL POIRTS XR THE HISTORT, Ih OBDEB, RITB HO POIRTS SKIPPED. IF THE CT:LE ROBBER FBOH TBE PILE •ZHITDH* IS GREITER THIH THE CTCLE ROHBER IR THE PREVIOUS RODHOD ICCESS, L IS BESET TO 1. L- POSITIOR RODS IS SPECIFIED (IT THIS POIRT L IR THE HISTORT) BT THE DITI (HZI(J,L)) IR THE FILE •BODSET*. OPTIOR TO IH5RPT SRDT-DOBH (SIFETT) RODS. 0- HO. 1- IFTER IRT OPTIOR IX(10).RE.0 (IBOVE) BIS BEER IPPLXED, IR5ZRT SHOT-DORR RODS OSIHG SPECIAL DITI PRESERT IR THE FILE •BODSET*. IF OPTIOR IX(10)«0, ORLT SHOT-DORR BODS IRE XRSERTED IHD HO OTHER POSITIOBIRG IS DORR. RBER THIS OPTIOR IS SPECIFIED, IFTER IRT POSITIORIHG IS DORE (IX(10).RE.O) IHD BEFORE IHSERTIOR OF SHOT-DORR RODS, I HER VERSIOR OF THE ZORE DERSITI FILE 'TRITDR' IS RRITTEB. THIS IS DORE SO THIT RECOVER! OF THE CORCERTRITXOBS PRIOR TO IRSERTIOR OF THE SHUT-DORR RODS HIT BE DORE OR THE REIT OR IRT S0BSRQORHT ICCESS (SEE IX(10)«-4, OR -3 IBOVE). RORHILLT IT IS RECESSIRT TO SOLVE I REOTRORICS PROBLEH BEFORE IRD I/TER SOCR ZRSERTIOR RITHOOT OTHER ICTIOR (IS EXPOSURE) IR BETREEH TO PRODUCE TWO VILOES OF THE HOLTIPLICITIOR FICTOR GXVIHG DELTI-K FOR THE XNSERTIOH. 2- SIRE IS 1 BOT THE RER VERSIOR OF •TRITDR* IS RRITTEH BEFORE AHI POSITIOHIHG (II(10).RE.0) IS DOHE. (rom C-21 CD IX (12) OPTIOB O* SAVIFG TBB ZOBE DEESITT XBTEBPACE PILE CO •TWTDW, OBLT IF IX(11)«0. CO -1- BO. CD 0- ir BO PILE EXISTS, CBEATE IT *XTB DEBSITXBS - CD A) AFTEP PDLL BOD IBSEBTXOB (IX(10)—2) CD IP SPECIFIED, OB « CD B) BECOFEBEB PBOB LATEST *ZBATDE' PILE. CD IP A PILE EXISTS, BOBS IS BBITTEB. CD 1- BBITE IT IPTEB POLL BOD IBSEBTIOB (IX(10)—2). CD 2- BBXTS IT AfStR IBT HOD POSITIOBIBG CD SPECTFICATIOB. C CD IX(Of OPTIOB OB DELEXISG TBE LATEST TEBSIOE OP TEE ZOBS CD DEBSITT FILE 'IBATDB* AFTEB APPLTIBG SPECIFICATIOBS, CD PBOTIDED IT VAS BOT CBEATED TBXS ACCESS. CD 0- BO. CD 1- DELETE TBE LATEST TEBSXOB OF 'IBATDB* BET CD OBLT IP H3RE TBAB 1 VEBSIOB EXISTS. C CD II0»; BLACK ABSOBBEB OPTIOB FOB BOD ZOBES. CD 0- BO. CD 1- TES (GEBEBALLT REQUIRED FOP TBERRAL REACTORS CD BITS BODS BEPRF.SEBTZD EXPLICITLY). Cn BOBHALLT THE LATEST TERSIOE OF C (73BTJ C~2£ speciFicinoics Foa EXPIBS RECORD in ISTTSRFACE nxe COBTBL c ..—_«.«, c* EIPOS5ft«J RODBLE IBSTBOrTIOBS c BB*P.B;SCR 92/01/79 OSKL-5180 c HOOIFIEO 05/01/J9 c fTDTtfP ^9 EXPIBSCXPIP5 , CD EIP2BS EXPOSURE BOODLE S 71 IDEBTIFIER {ftKEIttffS) C- CB* OPTIOK SOT ISPLEBESreo Ctf»* OPTIOB BOT RRCO1WCT0ED C CO xx 01 EXP0S3RE TIHB STEP (DATS) CD*# (A lEGAIITE TldE IS'tfSrO TQS SPECIAL 3ITUATIOBS) c CD XX (2| SB1TD0H5 TIRE STE? APTBB EIPOSBRe (DAIS »T 2ER0 CD nox) C CD « (3» TBE BATIO OF EACH SK07D0UK SMtSTBP. TI3E IBTEBW, CD TO THAT OF THF PPBTI005 S0BST5P (APPUCIB1B CD OM.T IP IX<7J .ST. l> CD (DETAOZ.T tO 1.0) C CD XI («J BESERVED C CD XI (5) RESERT5D C CD XX (6) RELATIVE POSER J,*m (ALX MAC1I0R KITES ARE CD B0I.TIH.IED fir fKIS FACTOR IP" B0BX88O - PB0PE3 CD BOMAUZATTOS OP THE FLCX LETEt BT TH2 jrEPTROBICS C9 CODE TO EFPECt SOW FO^BttXVEL IS PBESOBED) C CO tin -REseBTEB C CD XX (»l EESER»«0 C CO XX {5»: BE5SRY50 C CD xxoej ?fIGKII3G PftCIOB FOR 0$E WITH TWO FICX IBTEBPACE CD FILES (IP IX (13) ,EQ. -2J C - CD PHI (51320) * PSirLTI • XI(10J* (PHt (BTLT) - PHI (LV)) CB ?KBRK MI(L*1 IS LATEST TEBSIOB (IB TIBE) FLBX C* B3EBE PKI(WLVf 13 BW-TO-ttrESX ftf.SlOtl 'IB CD Tt.lEf PWX CO (2EPA0LV fO 0.5> c {ZOKt C-23 CD XX (11) FLOEHCE LOVER BOOHD FOB FIRST EBERGT BARGE (BV) C CO XX(12) PLUEHCE LOVER BOORD FOR SECOND EHERGY RARGE (EV) C CD XX (13) COHVERGEHCE LEVEL FOR HATRIX EXPORERTIAL HBTROD CD (DEFAULT TO 1.0E-8) C CD XX (1«) LIHITIRG VALUE OF DIAGORAL TERR FOB HATRIX CD EXPOREBTIAL RETROD (EACH SOBSTEP XS SUBDIVIDED CD IRTO AS HART fHE INCREHERTS AS HEEDED TO RBDOCB CD THE LARGEST DIAGOHAL T2RH TO THIS LEVEL) CD (DEFADLT TO 12.0) C CD XX(15) HATBIX EXPONENTIAL TRARSFOBH, FRACTIO! OF LARGEST CD DIAGORAL TER3 CD (DEFAULT TO 9.5) C CD XX(16) HIHIHU3 NUCLIDE DERSITT ALLOWED CD (DEFAOLT TO 1.0B-50) C CD XX (IT) MAGNITUDE OF DIAGORAL TEBH USED AS CRITERIA FOR CD APPLYING THE EQUILIBRIUM APPBOXIHATIOR TO A CD RUCLIDE WITH THE HATBIX EXPORERTIAL HETHOD CO (DEFAULT TO 2.0*XX(1«)) C CD XX(18) REIGHTIHG FACTOR FOR EXPOSURE RUCLIDE DERSITIES CD RRITTER OH IttrERFACE FILE (IF IX(31) .RE. 0) CD 'ZRATDR* FOR ZORE CALCOLATIOR CD •PTATDH* FOR POIHT CALCOLATIOR C CD R(WRITTER) * R(^) • XX(18)*(R(S) - R(E)) CD WHERE H(E) ARE DEHSITIES AT EHD OF EXPOSURE CD WHERE H(S) ARE DEHSITIES AT START OF EXPOSURE CD (DEFAULT TO 9.5) C CD XX(19) AVEBAGE GEBERAriOH RATE HEIGHTIRG FACTOR FOB CD SOURCE TERH C CD PRECURSOR DENSITY IS CD XX(19)»R(T) • (1.0 - XX(19))*R(T*DT) CD (DEFAULT TO 0.5) C CD XX ">0> CONVERGENCE CRITERIA OR POWER LEVEL FOR CORTII000S CD FOELIilG HODEL TO DISCORTIR0E POWER LEVEL CD INITIALIZATION PASSES (APPLICABLE IF IX (51) .GT. 0 CD AND/OR IX (52) .GT. 0 ARD XX(61) .GT. 1) CD (DEFAULT TO 0.005) C CD XX(21) RFSERVSD C (-0RT) C-24 CD XX (22) RESERTED C CD XX(23) RESERTED C CD XX (2«) RESERTED C CD XX(25) REFERENCE TBHPERATORE (DEGREEf C) OF THE CD NEXT-TO-LATEST TERSIOH 'GSOPXS* CROSS SECTION CD INTERFACE FILE C CD XX (26) REFERENCE TESPEP.ATOP.E (DEGREES C) OF THE CD LATEST TERSIDN •GRtJPXS' CROSS SECTION INTERFACE CD FILE C CD XX (27) CORRELATION PARAHETER FOR THE ARCTANGENT CD DEPENDENCE OF CROSS SECTIONS OH ZONE CD TEHPPBATORES (LINEAR CORRELATION IF 0.0) C CD XX(28) RBSERTED C CD XX(29) RESERTED C CD XX(30) RESERTED C CD XX(31-100) CORE RESIDENCE TIRE (DATS) FOR EACH ZONE PATH CD FOLLOWED BT THE CORK RESIDENCE TIHB (DATS) FOB CD EACH SOBZONS PATH (IF ANT) - SEE IX(51) CD (DErilLT TO XX (1)) C CN 0S0AL TALOBS OF SORE OF THE PARAMETERS ARE SHOWN HERE IN ( ) • C CD IX (1) RESERTED C CD IX (2) CONDENSED EDIT OPTION CD 0- TES CD 1- NO C CD IX(3) DEBOG EDIT OPTICS (0) CD 0- NO SPECIAL EDITS CO 1- CROSS REFERENCE TABLES, EXPOSORE DATA, CD CHECK AND EDIT DATA FROH •EXPOSE* INTERFACE CD FILE, AND EDIT INTERFACE FILE PARAMETERS CD 2' HIGHER LBTEL DATA EDIT CD 3- PLOS STARTIN3 NOCLIDE DENSITIES CD «- PLOS INTERMEDIATE LETEL DATA CD 5" PLOS STARTIN3 REACTION RATES CD 6- PLOS ALL EDIT OPTIONS ARE TORNED ON CD 7- PLUS HATRIX EXPONENTIAL AND AVERAGE GENERATION CD RATE DEBOG EDITS CD 8- PLOS ADDITIONAL MATRIX EXPONENTIAL DEBUG EDIfi* C CN NOTE- OSE OP 6,7, OR 8 WILL PRODOCE REAHS OF PAPER C (33 NT) C-25 CD XX(») RESERVED C CD XX(S) 0PTI0R OB BASIC CBAXB P.Q0ATXOR SOLOTIOR BETBOD CD (COBSISTERT CBAIB DATA BOST BB PRBSSBT OR CD XRTERPACE FILE 'EXPOSE*) CD 0- till Hit EXPONENTIAL CD 1- EXPIICIT CHAIR CD 2- AVERAGE GERSRATEOH RATB CD 3- RATBIX EXP3HENTXAL (RO COUPLING) CD 5- AVERAGE GENERATION RATE (HO COVPLXRG) C CR (IP IX(5) .EQ. 0 ARD RHATXE('EXPOSE') .BQ. 0 ARD CR IBEXCHCEXPOSE') .GT. 0, DEFAULT TO 1) CR CR (IP IX(S) .EQ. 2 ARD HHATXE('EXPOSE') .EQ. 0 ARD CR LBEXCH(*EXPOSE') .GT. 0, DEFAULT TO 1) CB CR (XP IX(5) .PQ. 1 AHD LBBXCHp EXPOSE*) .EQ. 0 ABD CR RHATXSCEXPOSE') .GT. 0, DEPAOLT TO 0) C CD IX(6| RUBBER OP SUBSTEP EXPOSURE INTERVALS CD IX(6) .GT. 1 IS RORBALLT USED ORLT RBBB THB FLUX CD LEVEL XS TO BE A MOST ED (SEE IX (12)) CD (DEPAOLT TO 1 IP XX (1) .RE. 0.0) C CR EXPOSURE HOT CALCULATED IP XX(1) .EQ. 0.0 C CH POR COHTIROOUS PUELIHG MODEL SET IX(6) .EQ. 1 C CD XX (7) RUBBER OP SUBSTEP SHOTDORR IHTERVALS CD XX(7) .GT. 1 IS RORRALLT USED ORLI TO PRODCCB CD EDITS AT POIHTS ALOBG SHUTDORB STEP CD (OEPAOLT TO 1 IP XX(2) .GT. 0.0) C CR SHOTDORR ROT CALCULATED XP XX(2) .LB. 0.0 C CD IX (8) ilPVIOH OR TEBSIOH OP HUCLIDE DERSXTXBS AT START CD 'ZRATDR' POR ZONE CALCULATION CD 'PTATDR' POR POIHT CALCULATION (XP HOT ATAILABLB CD DERSXTXES RILL BE EXTRACTED PROB XRXTXAl SORB CD DENSITIES) CD -1- USE VERSXOR VITR THB SABB TXBB AS THB ZOR8 CD FLUX PXLE CD 0- USE LATEST VERSION (USUAL) CD 1- USE HEXT-TO-LATBST VERS10R IP XT EXISTS C CD XX(9) OPTXOR TO ACCOUNT POR THE DEPERDEBCB OP THB CD CROSS SECTIONS OR THE LOCAL TEHPERAT0RE, REQUIRES CD TRO 'GRUPXS* PILES, A 'ZRTERP' PXLE, ARD REPERBRCE CD TEHPERATURES (SEE XX(25),XX(26), ARD XX(27)) CO 0- RO CD 1- TBS (CORT) C-26 c CO 11(10) RESERVED C CD IX(11) BOBBER OF SDBDIVISI3HS OF EACH SOBSTEP FOB THE CD AVERAGE GEBBRATIOB BATE HETBOO (IF ZERO, THE CD CHOICE IS AQTOHATED) C CD IX(12) OPTIOH OB POHEI RERORHALIZATIOB (SOBSTEPS) CD 0- ATTEMPT TO SATISIFI DESIRED FOB EH LEVEL BT CD ADJOSTIBG PLOX LEVEL AT THE STAR OF EACH CD SOBSTBP AFTER THE FIRST CD 1- DO BOT ADJBST THE FLOX LETEL CD 2- BORHALIZE TO THE IBITIAL POBEB LETEL AT THE CD START OF EACH SOBSTEP C CD IX(13) OPTIOH OB FLUX VALUES CD 'RZFLOX* FOR ZOBE CALCULATION CD •RTFLOX* FOB POIBT CALCOLATIOR (IF 11(73) .EQ. 1) CD 'RZFLDX* (BODIFIED) FOR POIHT CALCOLATIOB CD (IF IX(73) .EQ. 2) CD -2- VSIGHT LATEST VERSIOB AND HEXT-TO-LATEST CD VERSIOB (SEE XX (10)) CD -1- USE A LI HEIR FLOX APPROXItlAriOB BITB TIHB PROS CD THS BEXT-TO-LATEST VERSIOK FILE TO THE LATEST CD VEBSXOB FILE (IF OBLT ORE EXISTS, OSE IT) CD 0- OSE LATEST TERSIOB (OSOAL) CD 1- OSE BEXT-T3-LATEST TEBSIOB IF IT EXISTS C CD IX(10) OPTIOH OB ZOBE(SOBZOBE) BOCLIDE DEHSITT EDITS CD (EXPOSORE) CD 0- BOUE CD 1- EHD OF ET-OSORE STEP CD 2- EHD OF EACH EXPOSORE SOBSTEP C CD IX (IS) RESERVED C CD IX(16) RESERVED C CD IX (17) RESERVED C CD XX(18) OPTIOH OB SECOHDART EHERGT DEPOSITIOB EDITS CD 0- HOJE CD 1- DECAT EBERGT RELEASE OBLT CD 2- FISSIOII EHERGT PELEASE OHLT CD 3- CAPTURE ERCRGT RELEASE OHLT CD 4- DECAT • FISSIOB • CAPTORE EHERGT RELEASE C CH IF .GT. 0, EDITS BT ZONE ABD SOBZOHE C* IF .LT. 0, EDIT TOTALS OHLT C (COBT) C-27 CD IX (19) RBSERTED C CD IX(20) OPTIOt OR ZOHE(SOBZORE) BOCtXDB DBBSXTT BDXTS CD (SHHTDOHH) CD 0- ROBE CD 1- EBD OP SHDTDOBH STB? CD 2- ERD Or E»:s SHOTDOHH SOBSTE? C CD IX (21) SPECIAL ROCLIDF DERSITT EDIT OPTIOH FOR A SIH6LE CD TORE PROBLEM CD -1- COLOUR BDTT IH 0PE1S.6 TORHAT CD 0- ROBRAL EDIT CD 1- COLOUR EDIT IH 1PE15.6 FORHAT C CD IX (22) RESERVED C CD IX(23) RESERVED C CD IX (2«) RESERVED C CD IX(2F) OPTIOn OR KRITIHG EXPOSOBE BISIOBT XHTERFACB FILE CD 'EXPOHT' FOB RORHAL EXPOSOBE CD 'CFRIST' FOR :CHTIR0O0S tTJELIHS EXPOSORE CD (FLOSHCE AHD REACTIOH BATE TYPE DATA) CD 0- DO ROT WRITE CD 1- IBS - SATE LATEST AHD fcEXT-TO-LATEST DATA CD 2- TES - SATE ALL DATA CD 3- TBS - SA»E LATEST DATA OHLI CD »- TES - STIRT OTER A6AIR C CR IF .GT. 0, HO EDIT CR IF .LT. 0, EDITS OF COSOLATIVE DATA BI IOHE ARD CR SOBZOHE C CR OPTIOHS IX(26» ,IX(27) ,XX(11). ARD XX(12) APPLt ORIT CR HREH PILE IS IHITIALLT HBITTEH CH IF THE FILE EXISTS THE OPTIOBS SPECIFIED CH OH THE FILE ARE OSED C CD IX (26) PLOEHCE DATA 13 BE SATED OR EXPOSOBE HISTORY CD IHTERFACE FILE CD 0- ROHE CD 1- TOTAL FLOERCE (ARD FIRST ARD SECOHD CD PLOEHCE PA!JGES IF XX(11) AHD XX(12) ARE CD PROPERLf DEEMED) C CD IX (27) REACTION RATE TIPE DATA TO BE SATED OH EXPOSORB CD HISTOPT IHTB8FACB FILE CD 0- ROHE CD 1- FISSIOHS ARD EXPOSOBE CD 2- PLOS EHERST CD 3- PLOS OHDEFIRED (CDHT) C-28 e CO SIfMt ORIOI TO EDIT KOOSOtt sm imiet soitfstosostt - CO torn onsiTxes CO t- to CO c tlf*» otnof TO mrt xornnct mi •sirovo* win CO noofoit srtr iron* CO CO o- oo DOT tixti CO %- OtOUCB TK UTtST or to oto nit, CO ir oom MISTS torn mi CO *» toiTi on rat CO c ww otTtoo «o ooctin otosxTi mi rams CO •totftr IM ivti ciicouTioa CO •OTITOI* rot ootoT cticomtoo CO UTOST insTioo mi tut CO •uttttxn CO i- ifXTt no mr oxn no or itoooi DfMXTXCS CO 2- ttni ©rot UTOJT nxsTTos mi nn CO CO 3- ttiTi no nil ORB no or si CO •-> inn ore unit imrxos mi mo no or CO firoiooj oofSTfiw no mm on mi im CO no or sootoon Rinms CO 5- ft ITS on nu trn no oi CD tso ram no mi OTTO I CO MOUTHS CO C emoi TO stfrt imim mini monot ottsmn - CD won (set itfioii CD •toaroo* rot toil c&tcounoo CD •mtoo* rot roisr cucouTtn CO •i- ttrotr toioti no or trrontt TUB CD 0- n CD i- ttrotr onsono not CD c Xffttt omor TO citct no toxr »-/» rtoo zornnct mi - CD •tiros** CO o- n CD !• rn CD C in»i omot TO nxt xnmi tootisootott) srocxnc CD mcnof mm CD o* n CD t» TtS CD C (S90T) #• C-29 ct xt(3*i omoa TO mt omit toatpmota) ct reacrxoa Bart rot rxaaxoa xa txtia attt ct sssiar urn C» 0- M C» 1- TtS e c» xif3Si omoi to ttxr xamai atmitmoifi c» Dnsmm - et o- ao - CO 1- TBS * c et xx (Mi omei to rotea catetutxoa xato x/o MM OOMUU • ct temixnt tr COM aastt OB ataott wnnmut ct o- to (aatoaartt) ct i- xts c ct xx (37) onto* TO xBcaaast sToaaet rot comxat tntt ct rot vttxx txroatmai BBTBOB cxt tax mat Ct STOt Oil OCCSftS) ct (ttratif - tvattt or ttcutti IB sxroatat Mtai c ct** xx(M) emn TO soiri TK Ttatsrost or tat aatast rot ct** Tat aanxx txrtntrxat atnot iraxa ts a sracm - ct«* rttTfaa - tor arrucaait TO a atacrot eaieaurxont* ct** t- to Ct** 1- tSS c ct xx (St) aanxx moamxat. Boaxuatxaa ornoa ct o- atraatf, saw as i ct i- arm totxtxttxta assaamoa TO BXSB toss ct atsutas ct 2- to tor amt xoaxuatxaa tssrarnof (taoaxsat - ct rot Bxea ascBt&cT (atacBtaatiaa) tat xs ct txrtasxvt xa txtas or itaaxaa Ttatt c ct xx(«Of tawtx cxroatBTxat roaaaurxoa orrxoa ct a- ttrmT, saax as • ct 1- BO TaaBsrotaanoa, oat Ttta ct 2- TtaasroBBanoa, oat ma ct 3- ac TaaasroBBanot. rao rata ct *- statsrotRanoB, too Tata c • ct xx (M) aanxx txrosasrm tBrtaaacf Btataa or Ttaas - ct xa txraasxoB ct (ttraatT TO sat c et xx («2i Bvattt or aaatxnfxoas or Baca stasTtr rot rat Ct RkTtXX txrOBBBTXtt BBTBOt (XT XtBO, Ttt CBjOfcCB ct xa atroaaTttt * e (C0BT) C-30 CD IX (B3) OPPER BOOBD OB BOBBER OP SOBDIVISIOHS OP EACB CO SBBSTEP POR TBE nATPIX EXPOVEBIXAL HETHOD. CO (IP 11(39} .E9. 2 AED THE ROBBER OP SOBDXVISIOBS C COVOTED BX TBS CODE EXCEEDS IX(«3) THEB THE CO EQOILIBRIOH ASSOBPTIOH RILL BE OSED) CD (DEFAOIT TO 10000) C CO IX(M) RESERVED C CD II («5) EXPLICIT CHAIH RISSIEG SOCLJCDE OPTIOB (C) CD 0- TREAT SOBCRAXBS CD 1- MEAT FIRST SOBCHAIH ORLT CD 2- SKIP CBAIB C CD IX(«6) RESERVED C CD IX(«7) RESERVED C CD XX(»«) RESERVED C CD IX (B9) OPTIOR TO ALLOJ EXPOSDRE BITH ZERO FLBX ARD/OR CD ZERO ZOBE VOLSBE CD 0- DO BO? TREK? THE ZCBE(SUBZOBE) CD 1- lllOB (POR TREA1IHG OOT-OF-CORB DECII IB CD FALSE ZOBES(SOBZOHES)) C CD XX(50) BESEBVED C CD XX(SI) FALSE ZOBE BOBBER COBTAIBIBG FEED BATERIAL CD C09POSITIOE FOB ZORE PATHS (OB THE FIRST IB A CD SEQBEBCE OF FALSE ZOBE BOBBERS IF IX(57) .EQ. 1) C CB IF IX(51) .ST. 0 ABD.'OB IX(W) .GT. 0 TBE STEADI STATE, CS COBTIBOOOS P0ELXB6 HODEL IS TO BE APPLIED. C C9 TBIS ZOBE IS THE FEED BOX (OB THE FXBST OF L SET OF BOXES)- CR BREBE FEED HATEBXAL FOB EACH PLOB PATH 0BX6IBATES. CB 7BESE ABC FALSE XOBES BRICR HOST BE BITHIB THE DATA CB DESCBIPTXOB OF THE PKOBLEB, THAT ABE BOT ASSI6BED CB TO CEOSEtRXC IOCATXOBS FOB TBE BEDTBOBXCS CALCOLATXOB (THB- CB FLUX BILL BOT BE CALCULATED), ABD HAVE ASSX6BED BOHBEBS CB LESS TBAB THE RAKIH3H XOBE BORDER IB TBS PBOBLEB IF CB TBE 'OVT-rTB' SPECIAL IBPOT PROCESSOR IS OSED. • - CB TBE HOCLIOE OZBSXTXF.S ALOR6 A FLCB PATH CALCULATED IB CB 7KIS 30DEL DEPE9D OBLT OB THE FEED HATE3IAL, THE CB BEOTBOB FLOX, ABD THE RSSIDEBCE TIRE, SO AIL BATERXALS CB IB TBCSE ZOSES XBCLaOIBC STROCT0PE, R3DERATOR, ETC. CB SBST BE CIVER IB THE FEED BOX ZOBE (ZOBES). IF TBE CB DENSITIES OF TBE BOCLIDES BEPBESEBTIBS STBOCTOPAL CB HATERIAL BERE BOT SPECIFXED FOX THE FEED BOX (OB BOXES), - CB BOBE BOOLD APPEAR IB TBE HEACTOR AFTER THE EXPOSOBE CB CALCOLATXOB EVEB IR30GK VALOES HERE ASSURED IBXTIALLT. (=3BT) C-31 C5 FOB SOHE SIHPLE SITUATIOBS IT IS POSSIBLE TO SEPARATE CB OUT SELECTED HATEPIALS BSIBG TBE S0BZ05E BEPBESESTATIOB CB (TBOSE HATEBIALS ACCOOETED FOB WOULD BOT BE ASSIGEED CB JOBCEBTPATIOBS IB THE FEED BOX(ES)). IT IS DESIRABLE CB TO CABBY AT LEAST ORE BOE-DEPLETTBG BBCLIDE COBCEBTBATIOB CH ALOBG THE PATHS TO PROVIDE A BASS BALAECE CHECK. CB RATEBIAL EBTERIBG A ZOBE IS THAT LEATIBG -HE PEEVIOOS CR ZOBE ALOBG A PATH, CHILE TRE AVERAGE BETBEEB EHTEBIBG CH ASD LEAU5G EOCLIDE DEBSITIES IE EACH ZOBE ABE BRITTES CB IB TBE BEB BOCLIDE OEBSITT FILE «TBITCH* FOB USE BI CB TBE BEBTBOBICS CODE TO ESTIRATE TBE FLOX DISTRIBOTIOB. CB THE SPECIAL IBPBT DATA TOR TBIS BODEL ABE TEE RESIDEBCE CI TIRES ALOBG PLOB PATHS (XX(31) OP TO XX(100)), CB XX (20), IX C*B), IX (51), IX (52), 11(53), IX(5«) , 11(55), CB IX (56), IX(57), 11(58), 11(59), IX (60) , IX(61) , CB >.«!> IX (62). TRE EXPOSURE TIBE XX (1) HOST BE CB SPECIFIED - IT BILL BE DSED FOR RECORD KEEPIBG ABD IT CB BILL BE OSED FOB BXPDSORE OP ART ZOHES BOT IB TRE FLOB CB PATHS, EXCL3DIBG TBE PEED BOX ZOBE(S), AS BIGHT BE OSED CB TO BEPBESEBT A FIXED BLABKET, ABD THE FIBAL BOCLIDE CB DEBSITIES IB THESE ZDBES BILL BE PLACED IB TBZ BEB CB BDCLIDE DEBSITT FILE (BBirfi REQOIP.ES ACTIOB TO BE TAKES CB TO PRETEBT COBTIBUIH3 30ILD0P FBOH EXPOSOBE IB AB CB ITEBATIOB PROCESS. CB QOITE GEBEBALLT AB ITERATIOB PBOCESS IS BECESSART CB (BEOTROBICS, EXPOSORE) TO ESTABLISB A EE0TROR FLOX CB DISTRIBUTION BHICR DEPEBDS OB THE BOCLIDE DEBSXTIES CB AFTER EXPOSURE, THE rOSPOSITIOB IB TBE FEED BOX(ES) HOST CB BE ALTERED TO EFFECt ft CRITICAL STATE, ABD THE ITERATIVE CB PBOCTSS HOST COBVER3E TO A SOLOTIOB FOR RELIABLE CB ABALTSIS. IP THE FEED BOX COHPOSITIOBS ABE BOT ALTEBED, CB A PSEODO STEADY STATE COBPITIOB RESULTS FOR A REACTOR CS BHICH IS BOT JUST CRITICAL. A CAPABILITY EXISTS TO CB EFFECT TB? CRITICAL STATE BI APPLTIBG THE CRITICALITT CB SEARCH CPTIOB BHEB THE BEDTBOBICS PBOBLEB 15 SOLVED. CB HATERIALS IB THE PBACTOR HOST BF CHAESED AS BELL AS THE CB COETEBTS OF THE FEED BOIES. AFTZP EXPOSORE THE REACTOR CB COBTEBTS DEPEBD OB ME FEED, SO TBE FEED HOST BE CB DETEBBIBED (CHABGIH3 OBLT TBE FEED D0BI3G A CB BEOTROBICS CALCOLATIOB BILL BOT CKANGE TBE CURREBT CB ESTXHATE OF THE REACTOR OBTEBTS SIBCE THE FEED BOX CB LIES OOTSIDE OF TBE REACTOR ABD TBE BEUTBOBICS SEABCH CB PBOBLEB COOLD BOT COBVERGE) . CB BOtE THAB OBE PASS BAT BE HADE TRROOSH THE REACTOR. CB B01D-0P O0T-Cr-CORE FAT BE ALLOBED BITB FALSE ZOBES CB BOT IB TBE ACTUAL GEOBETPT (IX(»9) BEST BE SET .EQ. 1). CB BOTE THAT TBE ASSIGBBEBT OF ZOBES ABD SOBZOBES TO TBE CB GEOHETBT HOST START BITR 1 FOR LOCATIOES BECEIVIBG CB PEED ABD IBDEX OP AL3BG FLOB PATHS. CB OBLT OBE EXPOSORE SOBSTIP RAT BE REQUESTED FOB TBIS CB OPTIOB. CDHT) I I I I I I I I I I I I I • I I I I I t I I I I I t I I I I I I I I I t I I I t I I t I I I I ei 2 M• • EQ . 1 ) T X I A IS is B T ZOB in in t MM 2H B ATB S - 1 <••*> . •* • • s MM B M«»M M M «. o MB MB H •"I M M MO M daMft»t.» M HM s M MtriM Minn to a M Snfc ss° M H M= t M «M- .M 8 SBB 5B i! M 8 •* S 8 8f?«S E M». 8 *r- . s 8 d*?- M BOM MB * n «• M M*>~ 358 O O• «n»-Me M ft| W M M B w •4 MM«a M B M MMB ri«;ss M • M H fr. |M «K * •1 8 ss s M £ S gfi MS o o _ B o «: M O a MM C FATB S 8 JBBBEB S t3BJ2S£° M BIB C F E - 6 SeSti H BAT E FEE B BOO C R«k«K« M "*^. i && » NMMO-. BBZ O OB E 8> M 858S&S 8 888 8 M8 ••. s s 5M8*8 OM8 M » ta B«_ M KHO BM E MM « w» MM BM M« BB MB : HM M *,-* ijBW 8 88" MM M 8P58M 8 § **5s: «•• 3 SIB i-i«i«*r*«u. &MMM2 £ HB s H .. - . B&M.S BSS.S •• 1 ttUUH MO M M e HM M « MMft M o HMOM 4 [•» • t • gClM M MB M MM M N MM •» n •» S-S I M M OM M BM M M B M B m S MM a---. O O s 5 "5 a 5 ases- 88888 tM i« 'g M M HM • KM *• &V M •» •. .888" B888M M iJMtlWKXM ,y O HU M MMM O M O B B • M « MM* o ¥*m o o o MMMO M e M e * M »*M ese *• M -8822 MMMMM M M M BBV* BBBBT* •». H M M e M M OBB OBB M M M ?rfiw tntpna CI MM M B B M M tf» «fl Ift VI tft tft M NION e BB M B B S i • 8 1 • M M EM «*«•«»«««»«*«»£, MOM Kl B B M©-» kO- M M t» B B Eii Br» B M M M COSST B m vi M M M M BBBMBMMB BOB B MM B MMM B B & p tk G p BBB.BB B B t M C-33 CO XX(61) BBRBEB OP PASSES TO ESTABLISH P3REB LEVEL REPORTED CB BI T« BEOTBSBICS CALCBUTIOB C9 (BBPADLT TO 1| C CB HE CALCRLATIOE XS 03BE TBIS HART TXHES FO* BBTIL TBE CB COBTBRCEBCE CRITERIA (SEE XX (20)) IS SATISFIED) BITE CB TEE FTBX LEVEL ADJCSTEO XFTEB EACH DASS BBXCB IRPROVES CB TEE PORPR LEVEL ARR BAT ACCELERATE TBE CORVER6EBCE BATE CS or t RSBAL PEED SEA«=H ITEAATIOB MOCEDOBE. CD* IX(62) OPTtOB TO BBIIE IBTERPACB PILE •QEATDB* BITS CB* DISCBABCE DEBSITIR (FOB COBTIBOOOS PBELIE6 BODEL CD* OBIT) CO* 0- DO BOT VBHE CB* 1- BEPX.XCE TBE LITEST TEBSIOB Or IE OLD riLE, CD* XP BOBE EXISTS BBXTE BEB f I -S CD* C 2- BRITE BBB PILE CB C IX (63) BESSITED CD C IX(*») BESEBTED CD C IX(«) BESEBTED CD C XX (66) BESEBTED CD C XX (67) BESEITED CD C IX (68) BESEBTED CD C XX(69) BESEBTED CD C XX(70) BESEBTED CD C XX (71) BESEETED CD C XX(72) DESERTED CO XX (73) ODTXOE TO PEBPOBB »OXItI»tT POIBt CALCBLATIOB CD OVER SELECTED ZOBES CD 0- BO CD 1- TES - TRE tOBE BRHBBRS SPECIPIED IB CD XX(SB)-IX(93), RAXXBOH OP 10, IRE TBEATED IP CD TRE POIRE ROCLIDE DERSXTT PILE *PTATCB» DOES CD ROT EXIST; ir TRXS PILE EXISTS TBE BEPERERCE CD OATA XR THE PILE XS OSED TO COBTXB0E THE CD CALC0LATIOB POR TRE SIRE ZORES TBEATED CD PRETXOOSLT. PILE *OEODSf' XS ACCESSED POR CO iMRTirriBc LoemoRs or POXRTS XR TRE ZORES CO ARD POIRT PLOX TILDES ARE OBTAIRED PROR PILE CD •RTPIOX'. (SDRT) C-34 CD 2- TES - THE BEFERERCE DATA IS IHITIALLI TIKES C3 PROH THE PILE *RZFLOZ* (RODZPIED) ARD THE CD POIRT FUt VALRES ARE ALRATS OSEO PROS THIS CD PILE (AS HADE ATAILABLE PKOB A COBPATXBLE CD BEDTROHICS CODE) . IF THE POIRTS DO ROT CD ASREE RUB AH EXISTIRC 'PIAIDR' FILE THE CD CALCULATOR WILL ROT BE DORE. C CR IR AH ATTEHPT TO PARALLEL THE ZOHE CllCOLATIOH CR OPTIORS IX(6), ZZ(IO), XX(18), 11(8), 11(12), CR IX(13), IX(30|, ARD IX (31) APPLT TO BOTH ZOHE CH ARD POIRT CALCULATIOHS C CR THE PROCEDURE SB07LD BAIHTAIR 1 SET OF POIRT CR DENSITIES CORSISTBHT RITH THE ZORE DCBSITIES CR BOT CAR ROT 1ZCOORT FOR EXTZPHAL CHARGES IR CR THE ZORE DERSITIES (PROH A REOTBORICS SEARCH, CR OR AFTER REFIELXHC, OR REP0SITI0HIR6, FOR EZASFLE) C CR ROT DORE IF 11(51) .CT. 0 OR 11(52) .CT. 0 C CD IZ(7«) OPTIOR OH POIHT HDCLIDE DERSITT EDITS (CZPOSORE) CD 0- RORE CD 1- ERD OF EXPOSURE STEP CO 2- ERO OF EACH EXPOSBBE SDBSTEP C CD IX(75) OFTI03 OR POIHT BOCLIDB DERSITT EDITS (SHOTDORH) CD 0- ROHE CD 1- ERD OF SBOIDOHR STEP CD 2- ERD OF EATS SHOTDORR SOBSTEP C CD IX(76) OPTIOR TO EDIT IRXttAL POIRT SPECIFIC BEACTIOH CD RATES CD 0- RO CD 1- TES C CD IX (77) OPTIOR TO EDIT IRITIAL P0I3T SPECIFIC REACTIOR CD RATE FOR FISSIOR IR TIEXD DATA EREB6T RURGES CD 0- RO CD 1- TES C CD IX(78) OPTIOR TO EDIT IRITIAL jiWt ROCLIDE DERSITICS CD 0- SO CD 1- TES C CORTI C-35 CD IX |"»»| DEBUG EOXT OPTIOB FOB POX IT CUCBlAttOB CO (15 &DDITIOE TO T80SE REQUESTED HIM XX|3)1 CO 0- BOBE CD 1- aillSKt EDITS CD 2- PtOS FUJI IBFOBBBTIOE CO 3- PL0S VOLOHE XBPOBHATXOB C CI 2,3 JUT IBCBEISE STOB1GE BEQDIBEBE9TS FOB CB IX (73) .E3. 1 C CO XX(80) RESERVED C CD IX(81) RESERVED C CD XX(82) RESERVED C CD XX(83) RESERVED C CD Ii;81-93) OP TO 10 ZOHE B03BBRS SPECIPTXBG THE IOCITIOBS EBEBE- CD TBE POIBT CUtCdtlTIOB XS TO BE DOBE CD (IP IX(73) -E3. 1) CD IF THERE ARE LESS IR&E 10 EBTRXES , TBE FIRST 0 CD TMflmTES TBE LIST OF ZOBE BOBBERS C CO IX(9»-103) RESERVED C (COBT) Ml f C-36 SMcmcatioas rot vaaxas aacoaa xa xattaraca ml coam ca mTB*B>txoa aooau xaanacnoat c ci riaxvs, (xxci).x-i.ioo), (xx(i) x«i,itO) c > CW 101•BOLT • 100 c co rraxas aaaraaaarxoa r*oau am latatmta fftaftmi CD cc BOTB- aaoafiaaa aata at* BBSBBVSO roa roraaB ass. cc aot B- tax raxaa or xeao zs a atraaiT ataaxas tut tat otrxofl TO cc raaroaa taa rasa xs * : BXBBCXSSD. cc OOTB- TBB xaraaracB rxtBs -. tts- -caotat- •aaasnV •satta** cc -awiax- aaa -amax- aaa atxata. cc xr TBB rxta -atarxs- EXISTS, xaroaaiTKoa aaoat tat BBUTBB cc BBaraoa BBaavxoa xs catcautsa xa aaaxtxw to tat cc OTBBB rraTaaaarxoa catenation. c c CD XX f 1) - BBF«BBBCB TtRFZBaMBB T1, DB0BBBS C (SSB XX(7) BtLOB). C co xxi 2) - caaaoBo nmaaTott n, DBBBBBS e. co xx ( 3) - TBRBBtavaBB coaamtxic mams! «a&ra* c CD XX( «) CD XI( 5) CD XIC 6) co xz (7) - •ataaa* roa TBB DBUTBB naraoa sotact - ttfattt -a. as. co xz(8) - *atraa* roa ;ae oaurta aaaraoa soaaca - atrattt *a.t$. CD XI( 9) CD XX(10} CD XX (11) CO XX(12) c CO XX(13) - COBStiBT 80CCLIBO. OfttBCtttS MTX OB OtOBtt. c CD XX (1«) CD XX(15) CD XX (It) CD XX(17) CD XX(10) CD XX(19) CD XX(20) CD XX(21) CD XX(22) CD XX(23) CD XI(2*) C co xx (25) - raacTioa caaaea xa aacao. caoas atcrxoM roa xt C2i«i. c tsowti C-37 cc m roiinxaa TIKE saoas ne xamracs mas BXQOXBBO rot cc cc OFTXOIS IXf«| IBB XX(2). BBB TBB Ft» VXBSXOBS VSBB TO OBTAIB TBB cc FSBmaarioa cs-xm aacao • sxsa-szca). uaxxxoaai rxixs IBX c atso Baoaian. cc XX|1»-| -1 I 0 cc cc urn i i cc | |B1,B2.S1. cc • I BXC&SBXBIS2,X B1,B2.S.X|B.S1,S2.X V.S.X cc I cc I I cc sc«a i t,7,t i ai.si.x •1,S,X | 1.51,1 a.s.x cc f cc i i I cc I I B2,SZ •2 | 52 B1.S.X cc sxei i si.s.x i BI.SI.X B1,S,X | B1,S1,I cc I cc 2 I I a2,s,x cc SUB | B2.S.X I B2.S2.X •2,5,X | •2,52.1 cc SXSB I B.S1.X | BI.SI.X •1,31,X | B.S1.X B.S1.X cc 3 I I cc SX«B I B.S2.X | B2,52,X I B.S2.X cc •2,32,X | f,S2,X cc sx«a t BI.SI.X i si.si.x BI.SI.X | B1,51,X B1.S1.X cc i I I •2.S2.X cc SX0B I B2.S2.X I B2.S2.X B2.S2.X | B2.S2.X cc cc stoa t a,s,xi IBI.SI.XI BI.S.XI i a.si.xi a.s.xi cc I l I cc SXOB | B.S.X2 |B2.S2«X2 •2,5,12 | •,52,12 B.S.X2 cc cc axaa i BI,S,XI IBI.SI.XI BI.S.XI (B1.S1.X1 B1.S.X1 cc 1 l I cc f2,S,X2 |B2,S2,X2 B2.S.X2 cc 9I0B I B2.S.X2 |B2.S2.X2 .«-...__.... cc ai.si.xi iai,si,xi 11,51,XI cc SXOi |»1,51,XI III,51,XI cc I I B2.S2.S2 IB2.S2.Z2 B2.S2.X2 cc $!•• I12,52,12 |12,52,X2 c cc BBBBf — B1 • ItXT-fO-UTXS? fXBSXOB (SBrSBTBBBSB) XBBTDI Ml«. cc i2 • unst ftasioa f nataBBO) XBITDS rax. cc 51 « BXXT-TO-MTEST VXBSXOI (OBrSBfSBBCS) OBSBXS MIX. cc 52 • wrest UBSXOB c txattBaxo) aaatxs ros. cc xi • BXXT-TO*UTBST fXBsxoB faatiBtaBBBB) BBxsar ma. cc X2 • tmsr taasxos ( rtarvasfB) BBXSBX MIX. cc B, S. X • UTXST (BftT BX OBIT OBXJ fSBSXOB OX SBITBB. cc c aBvrxs. ABB BBXSBr rxtss. (COST! C-38 CC IF FILES BO HOT EXIST FOB 11(1) OPTXOHS 0, 1, OB 2, IX (1) IS CC DEPAOLTEO TO 3 ARD THE ATTEBPT IS HADE 70 PROCEED ttSItTC I SI5GLE - CC EXXSTIBG TILS AS BBXT-TO-LAIEST TERSIOB OBIESS IX{61 CT 0. CC BOTE — DIFPEPEBT GPOPXS PILES !WST BATE THE SABE GROUP STBBCTORB- CC THE FILES GBODST, BIFLOX, ABO ATFLOX HOST BATE TBE SABE - CC BOBBER OF GROUPS AID TBE SABE BSSB. CC TBE FILES GBCDST ABO BDXSBF BUST BATE TBE SAHE BOBBER CC OF ZOBES. CC TBS FILES SROPXS ABB BDXSRF HOST BATE TBE SA1E TOTAL CC BOBBEB OF BUCLIDES. CC TBE FILES ZBATDB ABD BDXSRF BUST HATE TBE SABE BAXIBOB CC BOBBER OF BOCLIDES IB ABT SET, ABD TBE S«BE BOBBER OF CC Z03ES PLUS SOB-ZCBES. C c c CD IXf 1) - 0PTIOB5 FOR CALCOLAtlBG BASIC IBTEGRALS. CD -1 - BO CALCOLATXOB (PERTOB ALBEADT EXISTS1. CD 0 - CALCOLATE XBTE3RALS OSIBG FILES B1, SI. C9 t - CALCOLATE IBTEJBALS OSIBG FILES B1, S2 (OSOALLT BOT - CD DOPE). CD 2 - CALCOLATE IBTE3RALS OSIBG FILES B2, Si (OSOALLT BOT - CD DOBE). CD 3 - CALCOLATE IBTE3RALS OSIBG FILES R2. S2 (OR B, S). C CD IX( 2) - OPTIOBS FOR CALCOLAHBG (DELTA K)/K « (PERT0RBA7IOB CD INTEGRALS)»(SIGB-SICA). CD 0 - OBLT CALCOLATE BASIC ISTEGRALS. CD 1 - CBABGE BACROSOPXC CROSS SECTIOBS BT BOLTIPLTIVG CD TBEB BT XX(25). CD 2 - CBABGE OBIT DER5ZTIES. CD 3 - CBABGE OBLT CROSS SECTIOBS. CD • - CRABGE BOTH DBBSITIES ABD CROSS SECTIOBS. CD 5 - CBABGE OBLT BErEBEBCIBG. CD 6 - CBABGE DEBSITICS ABD REFEBEBCXBG. CD 1 - CBABGE DEBSXTIES, CROSS SECTIOBS, ABD REFEREBCXBG. C CD IX{ 3f - PERTDBATIOB CALCOLAtlOR OPTIOBS FOR IX(1) GE 0. CD -1 - DO BOT CALCOkUE TRABSPOBT IBTEGRALS. CD 0 - CALCOLATE ALL IBTEGRALS. CD 1 - ALSO CALCOLATE RESOLTS FOR 100 PERCEBT CBABGE IB CD BACfOSCOPIC CROSS SECTIOBS ABD OBCERTAIBTT CO (SEBSITZ flTTl RESOLTS. CD 6 ' SABE AS 0 BOT BO EDITS ARE PRXRTED. C CO IX( •! - EDIT OPTIOBS FOB IBPORTABCE HAPPIBG FOR IX(1| GE 0. CD 1 - ABSOBPTIOB CROSS SSCTXOB SPACE POIBT IBPORTABCS BAP. - CO 2 - ALSO PRODOCTXO* ABD PRODOCTIOB-ABSOBPTIOB SPACE CO POIBT IHPORTARCE BAPS. CO 3 - ALSO 1/T SPACE POIBT IBPORTABCE BAP. C (C3BT1 C-39 CD IX( 5) - OPTIOB TO BRITE IBtEBFACE FILE PERTOB FOB IX(11 GE 0. CD 0 - REPLACE OtD PILE, IP BOBE EXISTS SET OP BEV OBE. CD 1 - RRITE REB PILE. CD IX( 6) - OPTIOB TO DEFAOLT FILES FOB IX(11 « 0, 1, OR 2. CD 0 - DEFIOLT IX(1| TO 3 IP FILES FOB IX(1) « 0, 1, OB 2 CD DO BOT EXIST. t CD 1 - STOP CALCOLATXOB IP FILES DO BOT EXIST. C CD II( 7) - OPIIOBS TO COBSIDER X CORPELATXOB OP BXCROSCOPIC CD CBOSS SECTIOBS OB Z3BE TEBPEBAT01B IF GT 0, BEQBIBBS CD ZOBE TERPEtATORE DATA IB IBTERPACE FILE (SI . CD 0 - BO TEBPEBATBRE DEPEBDEBCE, SEE DISCOSSIOB XBOOt CD OPTIOBS ABOTE. CD 1 - SIC* - SXGAT1, XBD CD SIGB * SI6BT1«F1*(SISBT2-SIGBT1). CD 2 - SIGA * SIGAT1»P1*(SIGAT2-SIGAT1|, XBB CD SIGB « SIGBT1*P1*(SI3BT2-SIGBT1). CD 3 - fTGA - SIG»T1»F1*(SIGAT2-SIGAT1), AED CD »IGB * SIGBT1^F2»(SIGBT2-5IGBT1>. C CC BHERF ~ SIGI - STATE X BXCROS. CC SIGB > STATE B MACROS. CC SIGAT1 * RACROS CALCOLATEB OSIBG FILE BI (OB B) ABB CC FILE SI (REFEREBCE TENFEBATOBE) OB XI. CC SIGAT2 * BACROS CALCULATED OSIBG FILE BI (OB Bl ABB CC FILE S2 (CHARGED TEBPERATDRE} OR X2. CC SIGBT1 « BACROS CALCULATED 0SIB6 FILE B2 (OR B) ABB CC FILE SI (REFEBEBCE TERPEBATBBE) OB XI. CC SIGBT2 • RACBOS CALCULATED OSIBG FILE B2 (OR Bl ABD CC FILE S2 (CRABGED TEHPSRATQRE) OB X2. CC A1 - (Z1-T1)/(T2-T1|. CC A2 « (72-T1)/(T2-T1). CC T1 - BEFEREBCE TERPERATPRS (11(1) ABOTE). CC T2 * CBASGBD TEBPSRATOBE (XI(2) ABOTE). CC Z1 • ZCBE DEPEBDEET BEFESEBCE TERPERATBRES CC (FROH FILE ZBTERP). CC Z2 ' ZOBE DEPEBDEBr CBABGED TESPERATOBES CC (FROR FILE ZRTEHP). CC IF ALFA- 0, F1-A1, CC OTBERBISE PWAB-t ;»LPA»A1)/TAB-1 (ALFA) CC IF ALFA- 0, F2«A2. CC OTBEBBISE P2-rAB-1(ALPA*A2)/TAB-1(ALFA) C CC BOTE — TOi IX(7) - 0, ALL IX(1) ABD IX(2) OPTXOBS APPLT. CC FOR XX (7) GT 0, IX(1) OPTIOBS -1, 0, OR 3 APPLT, ABB CC IX(21 OPTIOBS 3, B, 5, 6, ABB T APPLT. C (C3BT) C-40 CO IX ( «| - OPTIOP TO CALCBLATE XBPOPTABCS ST OBKjOE (B5EB) BOCLIDE - CD BABE IB BACB XOBE. CO 0 - BO. CO 1 - CAICBLATE (0ELTA K)/(K*OELTA B) fOB BBCLIDES BATIBS - CD CLASSIFICATION 1, 2. ABB 3 (ACTXBIDSS). BEFABLT TO ALL - CD BOCLIDE5 X* BO 1, 2. OB 3 CLASS! I'iCATXOB. CD 2 - ALSO CALCBLATE (B*DELTA K)/(K*DELTA B) . CD 3 - SABB AS 1 POT FOB AU. BBCLXDES. CD • - SABE AS 2 BOX P3B All BOCLXDES. CC BOTE — TBE ZBATDB, 6BSFXS, ABB BBXSBE PUBS OSBD FOB TBXS CC OPTXOB fill BE THE 3BBS LAST USED AS BEQBBIED BT OPTXOBS - CC IXO). IX(2). ABD IXfT). C CD IX( 9) C CD XX{10) - OPTTOB TO BSE LOCAL I/O BOBTXBES IF 6T 0. C CD XX (11) - OPTXOB TO PBETEBT PILES PBOB DEPABLTXB6 TO COBE IP 6T 0. - C CD IX(12) C CD XX(13) - 9 01 1 « BOttUL BTFLOX. 2 • FIXED SOOICE BTPIBX. C CD XX(IB) - 0 OB 1 » BOBSAL AXTLOX. 2 • FIXED S09BCE ATflffX. CD XX(15) - EDIT BACBOSCOPXC CBOSS SECTXOBS IP 6T 0. C CD XX(16) - EDXT BACBOSCOPIC SCATTEBXB6 CBOSS SBCTZOBS IP 0» 0. C CD IX(W) C CD IX(18) - PISSXOB SOBSCE DXSTPXBOTXOB PBBCTXOB OPTXOB. CD 0 - SET TAMES TO BE VSED (SABE XB EACB ZOBE) . CD 1 - BE6I0B DEPEEDEBT TUBES TO BE BSED. C CD XX (19) - PXSSIOB SO0BCE DXSTBXBOTXOB BOBBAUZATIOB OPTIOB. CD 0 - LEATE OBBOBBALIZED. CD 1 - BOPHALIZE EACB SET TO SOB To BBITT. C CD IX(20) - OPTXOB TO FOBCS DATA BfPDLIEG BOBS. CD 1 - 1-tOf STORED BOOB. CD 2 - SPACE STOBED 83DE. CD 3 - PLABE STOBED BODE. C CD IX (21) - OBDBB XB TBE CBOSS SECTXOB PILE OP TBE DXBECTIOB CD DEPEBDEBT TBABSPOBT CBOSS SECTXOB TO BE BSED FOB TBB CD PIBST COOBDISATE DIPECTXOB (BSBALLT 0). C CD IX(22) - DITTO, SECOBD COOB0IBA7E 9XBEC7X0B. C CO U(21) - DITTO, TBIBO COOBOIEATE DIBECTXOB. (C9BT) C-4i IX(2») - FORCE OfcTH TRUSTER II IRITIILIZ&TXOI (TOR TESTIRG OUT).- IX (25) - DEBDG OUTPUT OPTIOW. 0 - RO DEBUG EDIT. 1 - EDIT ROCtXDE IJPORTARCE (S!Tf IX(8|) BT RBACTIOR TTPE (SIGft, S05IGF, SIGTR, DB*»2, SIGR, IID SIGS) ftHD FOR EUCH Z3RE CUSS. >tSO EDIT COBTERTS OF I/O ISXG7M. 2 - PLCS EDIT COHTEPTS OP I/O ISIGS ftVD OTHER SIGStS. 3 - PLOS EDIT C0RTER7S OF I/O 23 IVD/OR *0. CW) C-42 SPECIFICATIONS FOt REFIBS PECORD XI ITTERFACE PILE COBTRL CI FBEL HA5AGEBEBT IBFORRATIOB C CI BEFIBS,(XX(I),1x1.1001 ,(IX(I) ,1*1,1001 c cw ioi*aotr • 100 c CD BEFITS BEQOIRED IBPO XDEBTXFXEB * •REFITS* (A6) CD X7(1) •*• BESERTED ••• CD XX(2| PBACTIOB OP TBE TBCLE REACTOR TBEATED CD (DEFAULT TUBE * 1.0} CD XX(3) ELECTRICAL POHEB LETEL OF TBE BEACTOB (WATTS) CD (DEFAULT TALOE > 0.0) CD XX(«) TBEBBAL COBTEBSIOB PACTOB FOB TBE BEACTOB CD (ELECTRICAL POBEB/TBEBBAL POBEB) CD XX(5) BATE OF POEL COBSOBPTXOB FEB OBIT TBEBBBL CD EEEB6Y CEBEBATED (KG FISSILE/WATT-DAT) CD (DEPABLT TAL0E»1.3E-9 WB/BATT-DAY ASSOBIIC CD 3. 1E-11 BArTS/nsSXOB) CD XX(7) PEPEBEXCB POEL COST DtSCOOBT BATE CD (DEFAULT TALOE * 0.10) CD XX (8) SECOBDABT POEL COST DISCOBBT BATE FOB CD AUXILIARY ?ALCBLATXOBS CD (OEPAOLT TALOE « 0.15) CD XX(20) PBOGSABHABLE SIGBIPICABCE TALOE. CD 1. TBIS TALOE IS TBE FPACTIOBAL TOLBBE CD HISBATCH 73 ALLOT BEFORE BEPORTItG EBBOBS CD FOR FOEL S3TESZBT. FBEL ROTEHEBT IS ALLOBED CD FROH ZOBE 1 TO ZOBE 2 IF, FOB TOL09ES CD T1 ABD T2, ABS((T1-T2)/T1) .LE. BBXIBBB CD BISiUTCB. CD 2. FOB ABT BECTCLE FBOCESSIB6 (TBABSFEB TO CO SOPPLT F901 DISCBABGE, PABBICATXOB AID CD PR0CESSIS3, OR FRABSITIOBS), IF TBE BELATITE CD BASS BEFORE ABD AFTEB PR0CESSIB6 IS LESS CD THAT TBE SIGBIPICABCE TALOE, TBE BASS IS CD POBCED TO 0. CD (DEFAOLT TAL0E« 1.0E-0B) C CO XX(1) PRIHARI TASK ASSISBBEBT OPTIOSS CD -1 IBITIAUZATIOB OPTIOB TO START TBE BASS CD BALABCE BISTORT. BO BEF0ELXB6/FBEL CD BOTEBEBT IS FEBFOB"ED; TBE BASS BALABCB CD BISTORT PILE IS CREATED FOB TBE XBXTIAL CD BEACT3P IBTEITORT. IF IBITXALXZATIOB IS CD SOT TBE FIRST OFTXOT OSED, TBE BASS CD BALABCE BISTORT PILE IS CREATED BOT BASS CD BAIABCES BAT BOT BE COBPLETE. CD 9 FEBPOBB BORJAL TASKS (B0B1AL FBEL CD BOTEBEBT "TTK BASS BALABCE ACCOOITIBG C0 OB FDEL RELOCATIOB) (DEFAOLT) (C3BT1 C-43 CO 1 BEETAL3ATE HISS BALABCE KITH OTHER CO TASKS IS IH ft fcEBTFOBTCS COBCEBTBftTIOB CD ftDJBSTBEBT. THIS OPTICS IS HOT ftTAILABLE. CD 2 HTSTOIT EBD; OOTPOT BASS BALABCE CD IX(3) DEB06 EDIT OPTIOI FOB PBOCRAB SAISTEBAECE CD 0 BO SPECIAL EDITS 'DEFAULT} CD 1 PIBST LE»EL 5DITS CD 2 ELABORATE DEBOC EDIT CD IX(B) ZBATDB 0PDA7E OPTIOB CD 0 BEVBIIE BE* DATft OB BXXSTIBC PILE (DEPftBLT) CD 1 CEBERftTE ft BED FIXE FOB EftCH CYCLE CD IX(5) ZOBE ftTOH DEBSTTi (ZBATDB) BftCKOP PILE OPTIOB CD 0 WRITE BACK9P PILE FBATDB (DEFAQLT) CD 1 DO BOX BBITE BACKUP FILE PBATPB CD -1 RECOTEP ZOBE ftTOH DEBSITT DftTft PBOH BftCKOP CD PILE PBftTDB FATBEB TBftB PBOH PILE ZBftTDB CD IX(6; COBTIBOUDS F0ELIB6 PILE OPTICS CD 0 BEftD 75BB C3BCEBTBATIOB5 FBOH PILE ZBftTDB CD ftBD BPDftTE ZOBE COBCEBTBftTIOBS IB PILE CD ZBftTDB (DEPftOLT) CD 1 BEftD ZDBE COBCESTBftTIOBS PBOH PILE QBftTDB CD ftBD OPDATE ZOBE C03CEBTRATIOBS IB PILE CD ZBftTDB CD IX (7) BtSS BALftBCE PILE (HASBAL) DELETE OPTIOB CD 0 BETftlW COBPEBT TEBSIOB OP HftSB&L TILE OBLT; CD DELETE ftLL OLDEB TEBSIOKS (DEPftDLT) CD 1 RETAIR COPBEBT TEBSIOB OP HASBftL PILE ftBD CD PBETI30S TEfSIOB OBLT; DELETE ILL OLDEB CD TERSI9BS C CH BOTE: THIS OPTIOB IS BOT BSED IP PDEL BELOCftTIOB IS CB THE OBLT TftSK FBRPORHED SIBCE BO HASS BALtBCE CB ACCOBHTIBG IS PERFOBHED. C CD IX(11) PDEL COST rALCDLATIOE OPTIOB CD 0 BO PDtL COST CALCULATIONS CD 1 OBTAIB LE7ELIZED COST FOB EBTIBE HISTOBT CD VITH rSST BBEAKDOBB IBTO COHPOBEBTS AT CD EBD Or HISTOBT OBLT. CD (rABRirA7I0W,PRUC25SIBS,SHIPPIHC,ETC.) CD 2 OBTAIB LEVELIZED COST POB BXSTOBT BITH CD BBEAKDOBB, COST BETBEEB SUCCESSIVE POELIBGS CD »"D ROBBIBS T.ETELIZED COST. (EACB CYCLE IS CD TREATED ftS A COHPLETE RISTOBT POB BEPOBTZB6 CD PURPOSES) CD 11(121 PLftBT LITE OPTIDB CD <0 LIfE IS TEftPS ESTIMATED PRECISELY (DSE TIE CD HISTORY TO THE TXBE ESTIMATED, REGARDLESS CD Of ITS POIHT IB THE CYCLE.) (C3BT) C-44 CD 0 USE ATAILIABL2 HISTCRT CO >0 LIFE IB TFARS ROUBDED TO THE BEAREST F0ELI9 CD TIRE (IPOSCATE OR EXTRAPOLATE THE DATA AS CD BEE9EPJ CD IX(13) LOAD FAC7DP TAPIATIOB CD 0 FIXED LOAD PACTOP CO 1 EXPOBEBTIAL LOAD FACTOR DECREASE CD 11(16) ORDER BUHEER OF FUEL RASAGERE3T SPECIFICATIOB CD SET IB REF3EL (RECORDS 73 ABD 8D) APPLIED OB CD REOOEST CD 11(17) OROER RIIRSER OF FOEL RASAGEREBT SPECIFICATIOB CD SET IB REF3EL (RECORDS 7D ABD 8D) APPLIED OB CD REDDEST CO IX(18) OPOER RDHBER OF FOEL RABAGEREBT SPECIFICATIOB CO SET IB REFOEL 'RECORDS 7D ABD 8D) APPLIED OB CD RB30EST Cn IX(19) ORDER BORBER OF FOEL HARAGEKE3T SPECIFICATIOB C9 SET IB PEF3EL (RECORDS 7D ABD 8D) APPLIED OB CD REQUEST C CH BOTE: THE FnEL BAR*GE»EBT SPECIPICATIOSS GITEB IB CH IX(16)-IX(19) ARE APPLIED OH P.EQ0ES7 (I.E. IF CB .ST. 0) IB TiZ CPDER PRESE5TED- C C (C3BT) C-45 SPECIFICATIONS FOB PBLIBS RECORD IB IBTEPFACE FILE COBTBL CR PEBBLE THERMAL HTDBAOLICS HODOLE I3STRBCTI0SS, FILE •COBTBL' C CB (THEBBAL PEBBLE BED IB RZ OP Z GEOMETRY) C CB DATE OF THESE BSE ISS7R0CTI0KS, OCTOBEP. 1980 —D TORDT, OBBL C CL PBLIBS, (XX(I),1=1, 100), (II(I) ,1=1,100) C CB 101*HOLT • 100 C CD PBLIHS PE9BLE TRER3AL HYDPAOLICS DATA IDEETIFIEB (6HPBLIBS) C CR* A • IS PLACED IB COLORS 3 TO INDICATE TBAT THAT DATA HOST CR* BORHALLT BE SUPPLIED — SEED ROTES ABD CHECK OLD DECKS CBT FLAG TO IBDICATE THAT DATA IS OSDALLY REQUIRED FOR FLOH THRO CRX HOLES IR A SOLID 3ATRIX CD CD XX (1) »OID FRACTIOB IF T3 BE C9RSTABT CB (DEFAOLT /ALOE 0.39 LACFIRG OTHER DATA - THE ZOBE CD FRACTIO!IS 3AT BE USED AS SOLID FBACTIOBS IF .02 CO XX(1«) DISTAHCE BLOCKAGE STMTS FROH COOUBT IILET. CH CD XX(19). REI3BT OP BLOCKICE, CH CD XX(23) SOLID BLOCKAGE FBACTIOH (DETAOLT 0.85 — DSE LARGE VALOES- CD HITH DISCRETION) CH THE 0PTI05 OS DEFIHIBG CORE BOBBDABIES FOLLOWS CB BITBOOT DATA, THE BOB-TERO POWER DEBSITT EXTBEE9S DEPIBE CORE- CO XX (21* IHSIDE RADIOS (IP SOB-ZERO BILL HEQOISE ADDIBC THE C9 ARBOLAP IBTEPBAL SOLID BOBEDART BLABBED) CO XX(22) 03TSIDE 9ADI0S OP CORE. CS CD XX(23) OISTABCE PROS STAP? OP GE01ETRT, TTPICALLT PHOH TOP, CS - CD XX(2«) HEIGHT OP CORE, CS C CB ADDITIOBAL OPTIOKS ABD OVERRIDE DATA MLOES POLLOB CD XX (25) LIHITIBG PROCESSOR TIHE, SECOBDS (DEFA07.T 120} C CB IBITIAL ACCELERATIOB COEFPiriEBTS HE BIDE PROBLEB DEPEBDEBT CB ABD HIT BE ALTERED DOPIBG THE PROBLEK SOLOTXOH IP PEERED TO BE CB DESIRABLE BT TOE AOTOHATED HDK /ORIBG PROCEDORES C CB IT IS QOITE POSSIBLE TBAT THE R003H ITERATIVE BEHAVIOR EARLT IB C* THE BISTORT BILL CAOSE IBITIAL COEPPICIEBTS TO BE DECREASED CB BHICR BOOID REQBIBE IBPOT OF SOHEBHAT LARGER VALOES TBAB TBOSE CB EXPECTED TO BE OPTIHOH ASTSIPIOTICALLT C CO 11(26) ST5BAS FOBCTIOB OVEBBELAXATIOE COEPPICIEBT CD XX(27) B0LK TEHPERATDRE, DITTO, SEE FOLLOBIBG BOTE CB THIS COEPPICIEBT HAT BE DF OTBOST IHFORTAECE, ABD AB BPPECTIVE- CB fALOE SBOOLD BE SUPPLIED IF KBORB (TEST PBOTEB FOR AT LEAST A - CB SITILIAB PBOBLEB). TTPICALL! THE VALOE IS BOCH LESS TBAB 1. - CD XX (26) SORFACE TEHPERATORE, DITTO CB IT IS DIPPICOLT TO SEE 33H A VALOS OTHER THAR OBTTT BOOLO BE - CB EFFECTIVE HERE CO XX (29) PRESSURE, DITTO CO XX (30) SPECIFIC H3AT TALOE (5193.) C CB DATA FOR A SECOBD ABD T3IRD CALCOLATIOB FOLLOW (3 DATOH EACH)- CO XX (31) HEW IBLET COOLABT TEHPERATORE, OEG C (DEPAOLT XX (2)) CD XX (32) BEB OOTLET =OOLAB r TEHF^RATORE, DEG C (DEPAOLT XX(12)) CO XX (33) RELATIVE POWER LE rEl FOR SOBSEQOERT CALCOLATIOB CD XX (3») BEB IBLET COOLABT TEHPERATORE, DEG C (DEFAULT XX (31)) CD XX (35) BEW OOTLET COOLAB T TEBPERATORE, DEG C (DEPAOLT XX(32)) CO XX (36) RELATIVE POWER LE PEL POR THIRD CASE (DEFAOLT (XX(33)) C (RELATIVE TO THAT FOR THE SECOBD CASE)- c XX (37) HOLECOLAR WEIGHT (9.0026) CDO XX (38) AZERO (0.0216) CD XX (39) AGAS (0.098*9) CD XX (»0) B (0.) CD XX (B1) C (»0.) CD XX (B2) RGAS (0.08206) (C3BT) C-47 ca XI 1*3) DZEBO (0.01«) ca IX (M) pcoaa (17.) ca nc»M pcoaa (20.5) ca IX (W PCOBC (-15.37) ca XX 1*71 DTTir (0.95) ca XXfM) caaaaa (2./3. spaas, pi/a. CTUBDEB) ca XI(«9) PC (3.6T4E-0T) CD XX |50) TP (0.7) CD XIC51I ft (0.71) CD II (52) rr (2.682E-03) CD XX|S3) re (0.ooii379) CD xxcsai PB (1.4389E-*) CD 11(55) BPPIC (*.1666) BTDPaOLIC EQ01TIOB, rXBST OOEPPICIEBT CM DOT BSED IP IX(13) > 0 CD 11(56) •PBIC (.175*) CDX (1.0 IF 11(13) > 0) CD PI (2.2679E-07) CD xns-XX (50n1 P2 (3.) CD XX|59) P3 (.1293) CD XX (CO) P» (.3292) CD XX (61) P5 (.277) CD XX (62) P6 (.2*26) CD XX (63| P7 (.26) CD XX(6«| P8 (.*76) CD XX (651 99 (.ai) CD XX (661 P10 (1.176E-0*) CD XX f67» P11 (311.) CD XX(68| rot OBE-DXREBSioaaL caLcaLiTioas, SUDIU. PMKIBC PICTOB CD POB aoxiLxaaT catconTioa (DEraoiT 1.2) CD XX (69) PI 3 (.005) CD XX (701 TU (2.) C XX (71) - XX (83) BEPEBEBCE TBEBBftl. COBDOrTITITT DBTX c BSED IP XX(71) .BE. 0 CM aT «o EXP9SQBP. COBBESPOBDXB? TO TEnpEaaroaEs m — CD 300. 350. «O0. SOO. 600. 700. 830. 900. 1000. 1100. 1200. 1300. 160 ca BEPE8EBCE POIBT C(2) II I » 350. IS 1.05 »»TTS/CH-DEC DELTI T CB TO CODfEBT C«-C»L TO BBTT-SEC, 901TXPLT BT B.186 CD XX (W) PIS (0.1905) CD XX(85) P16 (2./3.) CD XX(**) BOTB (0.1•OP) CD XX (87) EOT! (0.5*DP) CD XX(88)--XX (100) BESEBTED C CD IX (1) OPTXOB Off C0OUB7 PLOD CD •i ao eaaviiT TEBS CD o- oowBtm> now CD i- opaaao pioa C CT3BT) C-48 CR IT 1AT BE USEFUL TO CORSIDER . 7A? AS THE PROBLS1S ARE DESCRIBED CB FOB THE RSOTROSICS, FLOB IS FROH THE TOP TO THE B07T0R CB (LEFT TO RI6BT IF OBE DIBE3SIOHAL) CB ABD TBE COOLABT FLO« 31ST BE IR THIS DIRECTXOB, BEASORABLE IT CB SEEB5 FOB DORR FLOB OF COOLIE? ARD PEBBLES, B3T IF THE COOtART IS - CB TO FLOB BP ABB TBE PEBBLES <>3BH, THEB TBE PROBLEH BDST BE SET BP - CB QOITE DIPFERERTIT (ZORE HOMERS ROR OP IRSTEAD OF DORR) C CO IX(2) OPTIOR OR PRESSORE DPOP ARD FILM COEFFICIERT CD 0- SEREAB CD T- OS CORRELATICRS (OLD) CD IX (31 OPTIOS 03 FLOEBCE. <0- DOBT READ DATA (SEE XX (6)) CD 0,1- CFHIST FILE, COBTI0O0S FOELIBG CB BOTE THAT THIS FLAG BDST BE SET FOR FIXED FUEL EXPOSURE CD 2- EXPORT FILE, FIXED FOEL EXPOSORE CD IX(«) FLOEBCE ?ELECTIOH, 3,1- OSE FIRST RABGE IF AVAILABLE CD 2- OSE SECOBD BARGE IF AVAILABLE CD 3- OSE TOTAL IF IT IS AVAILABLE CB IF DESIRED DATA IS ROT AVAILABLE, BO DATA IS OSED CD IX(5) BEHORT AVAILABLE FOR DATA IK 1000 RORDS CD (DEFAOLT 20003 ADDED TO RECORD •DRVIHS* COHTEBT CD RHXCH IS THE ROBBER SUPPLIED TO THE COBTROL HOD3LE) - CD ORDER VIsrOAL REHORT, ASSOHE FOLL COEE CORTAIRBD CD ABD ALLOCATE SPACE ACCORDIBGLT CD IX(6) THERHAL COBDUCTIVITI TREATBEBT (FOR GROSS HEAT TBARJt2k - CD ACROSS CORE), OPTI9BS CD <0- BO SOLID PHASE BEAT TRARSFER CD 0- OSE 20HB EXPOSORE DATA ARD SORFACE 7EHPERAT0RE CD 1- OSE SOBZOBt EXPOSURE DATA ARD SORFACE TEBPERATORE CD 2- DITTO, BOT VOLOSE FRACTIOB HEIGHT IBSTEAD OF AVERAGE - CD 3- OSE BDILT IB AXIAL FOHCTIOB CD IXC) DEBOG EDIT LEVEL (0,1,2,3) CD IX (8) EDIT LEVEL OF RESULTS (-1,0,1,2) CD EDIT LEVEL IS IBDEXED OP IF RES0L7S SEEH OROSOAL CD XX(9) HEAT REHOVAL 0P7I0JS CD 0- BOR.1AL CD 1- EXCLODE SOLID COHDOCTIOB CD XX (10) FOEL ELE3EHT GEOHETP.T (GRAPHITE, ROR OSED OHLT FOR THE CD TEBPERATORE CALCILATIOH IR THE ELEHERT ARD AT THE CD SORFACE, BOT FOR FLOW) CD 0- SPHERICAL CDI 1- CTLIHDHICAI (IRFIRITE LEBGTH) CD* XX (11) ITERATIOB COORT TEFHIRATIOR (DEFAOLT ESTIHATED BT CODE) - CD -RO ITERATION IF <0 CDX IX(12) OPTIOR TO ELIBIHATE RADIAL (CROSS) FLOH CD 0- RORHAL (IRCLODE) CD 1- EXCLODE CD 2- EXCLODF, ARD FIX THE AXIAL FLOH RATE PROPORTIORAL - CD TC THE AXIAL HEAT LOAD (IDEAL ORXFICIRG) C*> 3- SAHE AS 2 B0T ORIFICE AT IBLET IHSTSAD OF OOTLET - CB BOTE THAT THE ABOVE BOB-ZERO OPTIORS APPLT TO FIXED TRAVERSE CB COOLABT FLOW REQOIRIRG ADJOSmERT IR THE DEFAOLT COEFFICIERTS CDX IX(13) OPTIOR FOR FLOR THR303H HOLES IB SOLID IF > 0 CD IX (1«) XTERATIOR PROCEDORE OPTIOH, CD -1- DO ROT IRCREASE OVERRBLATATIOR COEFFICIEITS CD 0- ADJOST OV»RRELAXAriO» COEFFIEIERTS DOBIRG ITERATIOR CD 1' DO RCT IRCREASE HOR DECREASE COEFFICIEBTS {ZOflT) C-49 CD IX(15) EQOATICI SWEEP ORDEP, CD 0- SIG1A-1 (ODD POIRTS, THEI ETEK POIETS' CD 1- IOP!ML ORDERED (OIE POUT AFTER THE OTHER, Z THE! R) CD It(16) ASTHPTOTIC EXTKAPOLATIOR PROCEDURE OPTIOI, CD 0- B3R3AL (ALLOW) CD 1- D3 ROT ALLOV CD >1- RIBISD5 CYCLE DELAY CD IX(17) OPTIOI 01 ASTHPTuTlr EXTRAPOLATION DATA LEVEL CD 0- STFEAR POICTIOI, tEaPEPATOBES, PRESSORS CD 1- STREAR FOICTIOI, PRESSORS CD 2- PRESSOBE CD XX (19) OPTIOI 01 THE CALCOLATIOR OF THE LOCAL VOID FRACTIO! CD (OVERSIDDEI BT XX(1), APPLICABLE OBLT VBEI THERE ARE SUBZOIES) - CD 0- SOBS ZOIE AID SOBZOBE VOLOHE FBACTIOSS CD 1- OSES OILT 10IE VOLOBE FRACTIOI CD 2- SOBS OILT SOBZOIE VOLOHE FRACTIOIS CD IX (19) IIITIALIZATIOI CPTIDIS CD -1 OHLT FOB SDBSEQOERT CASE THE SOLOTIOS IS KEPT CD l»- ABTOHATPD PROCEDURE (AXIAL FLUID PEATIRG) CD 1- SOHETHISG DIFPESSB? FOR HE WHO HAS TRIED EVERYTHING CD IX(20) WRITE ZOSE TEHPBBATDPE FILE «ZBTEHP» OPTIOHS CD -1- 10 CD 0,1- BUTE OVER EXISTII6 OWE IF OSE EXISTS CD OTHERWISE KRITE IE! ORE CD 2- BRITE OVER IEXT TO LATEST VERSIOI IF IT EXISTS,- CD OTHERHISE RRITE HEB ORE CD 3- SEIERATE IEW FILE CD XX (21) SAVE DATA 01 Al IITERFACE FILE FOR RECOVERY CD -1 SAVE DATA IF tORVERGEICE CRITERIA IS ROT SATISFIED - CD 0 DO IOT SATE DATA CD 1 SAVE THE THEPHAL HYDRAULICS DATA FOR RECOVERY CD 2 ALSO SAVE THE PEBBLE THERHAL COHDOCTIVITT DATA CI DATA IS SAVED FOR OILY THE FIRST PROBLEH SOLVED II A CODE ACCESS- CD IX (22) RECOVER DATA FROH Al IITERFACE FILE TO CORTIIOE ITERATIOI- CD OR TO IHITIALIZE RITH (PROBLEH HOST BE SIHILIAR) CD 1- RECOVER ALL DATA (10 REPLACEHEIT) CD 2- DO WOT OSE VOID FRACTIOI, POWER DEISITX, IOR CD EXPOSURE DATA FROH FILE (OSE IEW DATA) CD IX (23) OPTIOI TO RECOVER THE PEBBLE THERHAL COIDOCTIVITY DATA CD 0- DO HOT CD 1- RECOVER AID OSB THE IRRADIATIOI TEHPERATOBE AID CD IEOTROI FLOX EXPOSURE FOICTSOI DATA CD (THIS OPTIOR REQOIRED TO OBTAII OILY EFFECTS OF CD SHORT TIHE TEHPERATDRE CHARGES) CD 2- RECOVER AID OSB DIRECTLY THE THERH L COIO0CTXTITI - CI PEBBLE THERHAL DATA HAY BE SATED OR RECOVERED, »0T EOT BOTH. CI DF.rAOLT PROCEDURES GIVE PREPEREHCE TO DATA RECOVERY OVER SAVIIC- Cl (USED FIRST PPOBLER OILY) CD IX (2«l -IX(100) RESERVED C C (COM) HAIfc; C-50 SPECIFICXTIORS FOR BtXRK RECORD II IRTERF1CE FILE C0B7RL CR CLOSORE C CI BLKRK1, |XXfl),1*1,100). (IX{I),I«1.100) C CW 101•HOLT • 190 C CD BURK1 BID OF FILE IDFRTIFIER <6H ) OR (6HBLftBK ) C C CBOF CORTRL C C-51 Figure C.2. Correspondence of Data: OVEnTR-DTNINS DVENTR DVENtR DVENTR Input DTNINS Input DTNINS Input DTNINS Section 001 Record Section 001 Record Section 001 Record RXX1 XX(1) ICX1 IX(4) IXE1 IX(32) RXX2 XX(2) ICX2 IX(5) IXE2 IX(33) RXX3 XX(3) ICX3 IX(10) IXE3 "(35) RXX4 XX(4) ICX4 IX(6) IXE4 IX(38) RXX5 XX(5) ICX5 IX(9) IXE5 IX(39) RXX6 XX{6) ICX6 IX(8) IXE6 IX(40) RXX7 XX(14) ICX7 IX(2) IXE7 I>(41) RXX8 XX(9) ICX8 IX(26) IXE8 IX(42) RXX9 XX(10) ICX9 IX(23) IXE9 "(37) RXX10 XX(8) ICX10 IX(22) IXE10 IX(31) RXX11 XX(ll) ICX11 "(21) IXE11 IX(29) RXX12 XX(12) ICX12 IX(20) IXE12 IX(30) RXX13 XX(13) ICX13 IX(27) IXE13 IX(61) RXX14 XX(15) ICX14 IX(25) IXE14 IX(62) RXX1S XX(16) ICX15 IX(24) IXE15 IX(51) RXX16 XX(7) ICX16 IX(12) IXE16 "(58) RXX17 ICX17 IX(17) IXE17 IX(53) RXX18 ICX18 IX(18) IXE18 IX(54) ICX19 IX(19) IXE19 "(52) ICX20 IX(16) IXE20 No ICX21 IX(13) IXE21 No ICX22 IX(14) IXE22 IX(45) ICX23 IX(15) IXE23 IX{59) ICX24 IX(70) IXE24 IX(60) C-52 Figure C.2. (con't) DVENTR DVENTR DVENTR Input DTNINS Input DTNINS Input DTNINS Section 002 Record Section 002 Record Section 002 Record RXXN1 XX(19) IXCN1 IX(ll) IXEN1 IX(46) RXXN2 XX(20) IXCN2 IX(7) IXEN2 IX(47) RXXN3 XX(21) IXCN3 IX(73) IXEN3 IX(48) RXXN4 XX(22) IXCN4 IX(74) IXEN4 IX(55) RXXN5 XX(23) IXCN5 IX(75) IXEN5 IX(28) RXXN6 XX(24) IXCN5 IX(76) IXEN6 IX(34) RXXN7 XX(25) IXCN7 IX(77) IXEN7 IX(36) RXXN8 XX(26) IXCN8 IX(78) IXEN8 IX(43) RXXN9 XX(27) IXCN9 IX(79) IXEN9 IX(44) RXXNIO XX(28) IXCN10 IX(80) IXEN10 IX(49) RXXN11 XX(29) IXCN11 IX(81) IXEN11 IX(50) RXXN12 XX(30) IXCN12 IX(82) IXEN12 IX(56) IXCN13 IX(83) IXEN13 "(57) IXCN14 IX(84) IXEN14 IX(63) IXCN15 IX(85) IXEN15 IX(64) IXCN16 IX(86) IXEN16 IX(65) IXCN17 IX(87) IXEN17 IX(66) IXCN18 IX(88) IXEN18 IX(67) IXCN19 IX(89) IXEN19 IX(68) IXCN20 IX(90) IXEN20 IX(69) IXCN21 IXEN21 IXCN22 IXEN22 IXCN23 IXEN23 IXCN24 IXEN24 C-53 Figure C.3. Standard Files SPECIFIC*TIOBS FOB IBTERPICE FIXE ISOTIS £••••••••••••*•••••*•••••••••••••••••••••••*.••••••••••••••*•••• C BSFISED 07/13/75 C CP ISOTXS-IIIA c CE BXCBOSCOPXC CBOOP BBOTPOB CBOSS SECTXOBS C CB THIS PILE PROVIDES A BASIC BROAD GRQOP CB LIBBABT, OPDEFER BT ISOTOPE C ^••••••••••••••••••••••••••*«••••••••••••*•**••*•••••••••••••• CS FUE STBBCTOBE CS CS BECOBD TTPB PRSSEBT IF CS mnnni CS FILE XD3BTXPICATI0B ALBATS CS FILE C0BTI0L ALRATS CS FILE D/.TA U.9ATS CS FILE-BIDE CRI DATA ICBIST.CT.1 CS CS •••**••**•••• (REPEAT FOB 5LL ISOTOPES) CS * ISOTOPE C0BT*0L AHD GtOOP CS • XBDEFEaDEBT D1TB ALBATS CS • PBiaCIPAL CBOSS SECTIOES ALBATS CS • ISOTOPE CHI DATA ICBI.6T.1 CS • CS • ••••••••••(BEPEAT TO ESCRAt SCATTEBIBG BLOCKS) C$ • • ••••••••(BEPEAT FBOB 1 TO BSBLOK) CS • • • SCATTE1TB6 SOB-BLOCK LORD(B).CT.O cs ••••••••••••• C c CB FILE XDEBTIFICATZOa c CL BaAaE,(H0SE(X),X-1,2),XVEBS c CB 1»3*H0LT«B0HBEB OF BOBDS c CD BBA1E BOLLEBXTR FILE BARE - ISOTXS - (A6) CD BOSS (I) HOLLEBITR 0SE» IDEaTIFXCATXOB (A6) CD ITERS FILE FEBSIOB EOlfBER CD HOLT DOOBLB FBECXSI3S FABAHETER CD 1- A6 BOBP IS SXBGLE BORD CD 2- >6 RORD IS DOODLE PRECISIOB FORD C (CORT) C-5* CI FILE COETSOL (ID »BCOBD) C CL BCBOOP.BISO, BAXDP.HAXDP,BAr>FD,ICRIST,BSC:!AX,!lSBLOK c CH 8~BVBBBlt OF .»3RDS C CD BCIOOP BBRBBB OF EBBPSF GBODPS IB FILE CD BISO BDBBEB OF ISOT3PES IB Fit! CD RAIBP BATHOS BBRBBB OF BV5CATTEP. 6E0GPS CD BATOR BAXI9BB BBBBBB OF DOBBSCATTEB CBOOPS CD RAIOED HAXIRBH SCAITCPIBG OBDEB (HAXIHC4 TALOE OF CD LE6EB0BE EXPAtSIOB IBDEX CSED IB FILE) . CD ICBtST FILE-BIDE FISSIOB SPECTROB FLAG CD ICRIST.EQ.O. BO FILE-BIDE SPECT-OH CD XCHIST.E3.1, FILE-BIDE CHI VECTOR CD XCBIST.GT.1, FILE-BIDE CHI BATRIX CD BSCHAX HAXTHOB BOBBER OF BLOCKS OF SCATTIRIBC DATA CD BSBLOC 50BBLOCKIB6 COITROL FOR SCATTER SITRICES. TBE CD SCATTERING DATA ME SBBBXOCKED IBTO BSBLOK CD RECORDS (S0BBL3CKS) PER SCATTERI»6 BLOCK. C CR FILE DAT! (2D BECORD) C CL (BSETID(I) ,1*1,12), (BISOBH(t|.1*1,IISO), Ct 1(CAT(J).J*1.HGROnp),(TEL(J),J~1,B5ROOP), CI 2 (EHAX(J) ,J*1,BGPO0P) ,EHTB. (L3CA (X) ,I*1,RISO) C CV (BISO*12)*R0LT»1»BIS0 CB »BCROO?*(2»XCHIST*(2/(ICBISI»1)))*BBBBER OF BORDS CO BSETID(I) HOLLERITH lOEVIIPICATIOB OF FILE (A6) CD BISOB*(I) RCLLEBITR IS0T3PE LABEL FOR ISOTOPE I (A6) CD CHI(J) FILE-BIDE FISSIOH SPECTBDH(PRESEBT IF ICBIST.EQ.1) CD TEL (J) BEAN BEOTROB TELOCITT IB CROOP J (CB/SEC) CD ZRAX(J) RAXIBBR EHERST BOORD OF GROOF J (ET) CD EH1B BIBIHOB EBEBGT BOOBD QF SET (ET) CD LOCA(I) BOHBER OF BEC3RDS TO BE SKIPPED 70 BEAD DATA FOR CO ISOTOPE I. L3tA(1)~G C c CB FILE-fll'T CRI DATA (3D RECORD) C CC PBESEHT 0' ICRIST.GT.1 C CL C(CBI(K,J|,K'1,ICHIS]r),J-1,B5BO0P|,(ISSPEC(I),I»1#HGPOOP) C CU BCB00P*(ICBIS?»1)*BBHBEP OF BC»OS C (rOHT) C-55 CO CHI(KrJ) FBaCTIOB OF BEJTBOBS ERITTEO IBTO GROUP IIS 1 CB BESBtT OF flSSIOB IB BBT GBOOP.OSIBG SPECTBB9 K CB XSSPEC(I| ISSPEC(I)*r HPtlES TBaTSPECTBBR K XS BSEB CB TO CH.CBI.aTE EHISSIOf SPECTBBB PBOH PISSIOR CB XB 6B0BP I C c C- CB I53TOPE COBTBOt BBD 6B3BP ISDZPEBDEBT BaTa (*B BECOBD) C CL HlBSI9,HIDnT,HI!aT,aSlSS,EPI55, ECaPT,TERP,SiePOT, BOERS,KBR,XC HI, Ct 1inS,Xatr,XBP,IB2B,IBD,IBT,ttOT,lTRB,XSTBPB, CI 2(IDSCT(H),B*1,S5C!UI)#(tORD{*),B*1,VSCHaX), Ct 3{(JMRB(J,B1 ,J«1,BGROBP) ,B>1,BSCHaX), Ct • I (IJJ(J.»).J«1,B6B0BP),B»1vBSCHaX| c CB 3*BBtT*1T»BSCBaX*(2*ECPOHP*2|*RBRBER OF WOBDS c CB BtBSID BOttEBXTH aBSOLBTE ISOTOPE taBEt - SBHE FOR BLt CB TEBSIOBS OF 19E SBBE ISOTOPE XB PILE (B6| CB BIDEBT XDEBTIFIEB OF tlBBBBT PROH BHICH USXC Ban CB CaRE(B.C. BBDF/B) (B6| CB RHaT ISOTOPE IDEBTiriCATXOB (E.G. EBDf/B HIT HO.} (at) CB anass GBBR BTOBXC BEXCBT CB EPXSS TOTBt TRERBat EBERGT TXE1D/PXSSIOR (B.SEC/FXSS) CB Ecaw TOTat TREBRat EBERGT TXELD/PISSXOB (B.SEC/CaPTt CD TEHP ISOTOPE TERPERaTBRE {DEGREES KEtTXB) CB SXGPOT aVEBBGE EFPEC7ITE POTEBTXat SCaiTEBIBG XH CB BESOBaBCE BBBSE (BkftHS/aTOfl) CD a DEBS DERSXTT OF IS3I0PE IB BIXTDBE XB BBICB ISOTOPE CD CBOSS SECTXOBS BEBE GEBEBaTEB (a/BaRB-CH) CD KBR ISOTOPE CtasSIPICBTXCB CB 0>BBDEPIHED CB 1»FISSIIE CB 2*FERTXtE CD 3-OTBEB aCTIHIBE CD MFXSSIOB PB3DBCT CD S*STBBCTBBE CD 6-cootaar CD 7*COBTBOt CD XCRX ISOTOPE FISSXOP SPECTBBH FUG CD XCRI.EO.O, BSE PItE-BXDE CHI CD XCHI.EQ.1, IS3TOPE CHI VECTOR CD XCHI.5T.1, I53TOPE CHI RaTRIX CD IPIS (B,F| CBOSS SECTIOH FUG CD IPIS«0, BO PI5SIOB DBTa XB PRIBCIPaL CBOSS CD SECTXOB BECOBD CD -1, FISSXOB BaTa PREStBT IB PRXBCXPat CD CBOSS SECTXOB BECOBD CD iaiF (B,*tPR*) CROSS sEcrxoa Ftac CD saRE OPTIOBS as IFXS (rOBT) C-56 co IRP (H,P) CROSS SECTtCR FUG CD SA3E OPTIOtfS »S IFIS CD IR2* (R.2R) CROSS SECTIO? FUG CD SRRB OPTIORS tS IPIS CD IRD (R,o> CROSS SE:TIOR ntc CD SBRE OPTIORS RS IPIS CD IRT (R,T) CROSS SFCTIOR FUG CO SRtE OPTIOHS IS IFIS CO LTOT RnRBFR OP BOSERTS OF TbTRt CROSS SECTIOR PROVIDED CO IB PSIRCIPfcL CPOSS SECTIONS SECOBD CO LTRR ROBBER OF ROBERTS OF TRRRSPORT CROSS SECTIOR CD PROVIDED IR P'UCIPaL CROSS SECTIORS RECORD CO ISTRPD RMBER OF C0O=JIR»TE DXRZCTIOR5 FOR RRICR CO COORDIRRTE DFPEBDERT TRARSPCRV CROSS SECTIORS CD IRE GIVE*. IF ISTPRD-O, BO COORDIBATE DEPEHDEBT CO TRIBSPCRT CROSS SECTIORS RRE CIV2R. CO IDSCT(R) SC»T7»R1RG RATPIX TTPE XDEHTIFICkTIOR POR CD SCATTEPIRG BLOCK R. SICHXPXCAHT ORLT IF CO *.ORD(R).GT.O CD IDSCT(R)«000 » RR, TOTAL SCATTERIHG CD =100 • RB. ELfcSTXC SCATTEPIBG CO =200 • RW. IREtRSTIC SCATTERING CD =300 » BB. (B.2B) SCATTTOIBG, CD RHERF RR IS THE LrSEBDPE ZXPARSXOH IRDEZ OP THE CO FIRST BATRIX rR BIOCK » CD LORD(R) ROHBP* OF SCAirEBIBG ORDERS IR BLOCK B. IF CD LORD(R)*0, THIS BLOCK IS ROT PRESERT POR THIS CD ISOTOPE. IP RR IS THE TRLOE TAKER PROS CD IDSCT(B), TBER THE HATRXCES IR THIS BLOCK CD HIVE LEGERDRE EXPARSIOR XRDICES OF RH„HR»1, CD RB*2,. . . ,BR«XDPD {R| -1 CD JBARD(J,B) SCATTER IJ!G BAWDSIWH rOR GROUP J, SCATTBRIHG CD BLOCK R CD 13113,V) POSITIOR OF IB-GR09P SCATTERIHG CROSS SECTXOR XR CD SCATTKRIHG DATA FOR GROUP J, SCATTERIHG BLOCK CD H,COORTED PROS THE FIRST RORD OF GROOP J DATA. C C-- C~ CR PRIRCIPAL CROSS SECTIORS ($0 RECORD) C CL ((STRFL(J„l) ,J*1,BGBO0P) ,l«1,LTRm , CL l((ST3TPl(J,l) ,J«1,H5R00PJ ,L*1,LT0r) ,(SHGAH(J) ,J-1.BGB09P) , CL 2(SPIf>(J),J«1,RGPO0P), (SROTOr(J) ,J«1,BGB00P), CI 3(CRISO(J) ,J«1,RGR00F) ,(SHALP(J) ,J*1,RGRO0P), CL •(SRF(J),X«1,HGR00P),(SR2W(J»,J*1,RSROBP), CL 5(S*D(J),J*1,HGR0DP| , (SRT (J| ,J«1,R3R00P) CL 6 ( (STRPDfJ,1),J«1,BGROBF),l«1,ISTPPD) C CR (1»LTRR»LT0T»I»LF»I*P*I1I2R»IPD*IRT»IST1!PD»2»IFIS» or XCiri»(2/(ICRZ*1)n»HGROOP»R0SBER OF ROODS (C3RT) C-57 c CD S?t?MJ.l) PL BEXSH7ED TRRHSPORT CROSS SECTIOB CO THE flPSt ELESERT OF RBRRT STRPL IS HE CD COPREfT fP1| REIGHTFD TR&RSPORT CROSS SECTIOR CD STOTDIP.M PL HEI5HTED TOT til CROSS SECTIOR CB THE nrST ELE«ERT OF RRBIT STOTPL IS THE CD rmx croi VEISKTED TOTM. CROSS SECTTOR CD S*GftR(J| (R,Sk3!U) CD snsfj) (s,n (PRESEsr IF xris.CT.et CD 5RVT3T{)| TOTHL REOTBOH XIEU/PXSSXOR (PRESERT ir XrXS.CT.9) CD CHISO(J) ISOTOPE CBI (PPESEHT IE XCHI.EQ.1) CD SSftLF(J) (R.aLPSH) (PRESERT IP IBLr.GT.O) CD SRFtf) (H,») (PBE5ERT IP IHP.C7.0) CD SH2WfJ| (H.25J (PRESEir IP IH2R.CT.0) CD SRDfJI (H,9) (PRESERT IP XRD.6T.0l CD 5*T(J) |R,T) {PRSSEHt IP XRX.CT.O) CD STRPDCJ.lt CCOBDIBITE DIBECTIOR I TRiRSPORT CROSS SECTIOR CD (PRESERT IP ISTRPD.6T.0I C C— C— CB ISOTOPE CHI D17R (6D BPCORD} C CC PPESERT IP ICRI.CT.1 c CI ((CHIISO(K,J),K*1,ICai|,J*1,SGFOBP),tISOPEC(I| ,1«1,SCROOP) c CR RGR09P*(ICHI»1|*RRRBER OF HDRDS c CHIISO (K,JJ PRRCTtOH OP HE7TBORS EBIT7ED IRTO GHO0P J IS 1 CD PESOLT OP FIS5IOH IR »ST GROUP,OSIRG SPECTR0H K CO iseprcfi) iso?rc(i)'R inptiES THUT SPECTROH K IS OSED CD TO CKLCOtATE ERXSSIOR SPECTROH PROS PISSIOH CD CD IH GSOOP X C c C— c~ C» SC&TTERIHG SOB-BLOCK (7D RECORD) C CC PRESERT IP LOR9(M).3T.O C CI ((SC»T(K,l) ,K»1,KflftX)rl«1,L3rDR) C CC IIIU'SOII OTEB 3 OP JBftBD(J,H| RXTRIR THE J-GROOP RIRSE OP THIS CC SOB-BLOC*. IP H IS THE XRDEC OF THE SOB-BLOCK, THE J-GROOP CC RHJJ3E CORTAXRED RITRXR THIS SOB-BLOCK IS CC JL»(R-1)*((RSRO0P-H/RSBL0f:»H»1 TO JO-B* ( (B3RO0P-1)/RSBtOK»1) CC IP (J0.7T.R5R00P) JO - HCR00P C (:3!»T» C-58 CC LOEDR*LO»D(!l) CC * IS TRF IBDEX FOB TBE LOOP 3TEB BSOUZ (SEE PILE STBBCTBBEf C CB KH1Z*L0RDR-BBHBER OF WORDS C C» SC17(*,L) SCITTEPIBG HITBIZ 3F SC17TERIRG ORDER I, FOB C» PEkCTIOB TTPE IDENTIFIED BT IDSCT(B) FOB THIS C» BLOCK. JBft*»(J,R) flLOES FOB SCaTTEBIBG IBTO CB 6RO0P J IBE STORED IT LOCftTIOBS K-SOB FBOH 1 CD TO tJ-1) OF J*B3D(),B) PLUS 1 TO K-1»JBAK(J. I) . CD TBE SOH IS ZFRO RHEB J«1. J-TO-J SCATTER IS . CD TBE IJJ(J.a)-TR ERTRT IB TRE B&BGE JBIBD(J,R|. CD TILDES ABE STORED IB TRE ORDER (J»J0P| , CD (J»J0P-1),...,(J*1|,J, (J-1)....,(J-JDR), CD SHER*. J0P=IJJ(J,B)-1 BSD JDB'JBBBD(J.B)-IJJ (J,B) C C CEOF ISOTZS C C-59 SPECIPICATIORS FOR IRTERFACE FILE GROPXS C RETISED 07/23/T5 C CF GRBPXS-III C CE MICROSCOPIC GROUP HEUTSOH CROSS SECTI0RS C CR THIS FILE PRDVIDSS A BASIC BROAD GROUP Of LIBBAPT, OPDERED BT GROOP c C CS PILE STRUCTURE CS CS RECORD TIPS PRESEBT IF CS «nt»stsi»»sntc8«tns»scK ictitimsm CS PILE IDERTIFICATIOR ALRATS CS FILE COHTROL ALRATS CS FILE DATA ALRATS CS SET CHI DATA ICHIST.GT.1 CS ISOTOPE COHTROL ARD GROOP CS XRDEPERDERT DATA ALRATS CS *•»•••••••,••(REPEAT OTER ALL ERERGT GROUPS) CS • PRIRCXPAL CROSS SEZtXORS ALRATS CS CS ••*•••••••••*(REPEAT OTER RISO ISOTOPES) RCHIB.GT.O CS * ISOTOPE CHI DATA ICBIfX).GT.1 CS CS •*•••••••*«*•(BEPZAT OTEP ALL EHERGT GROUPS) CS • SCATTERIVG CORTROL ALRATS CS • •••••**••••(REPEAT TO RSCRAX SCATTERXRG BLOCKS) CS • • »••••»••»•(VEP3A? FPOH 1 TO BSBLOK) CS • * • SCATTRPIHG SOB-BLOCr LORD(H).GT.O CS c c— C— CP PILE IDERTIFICATIOR c CL BRAHE, (BUSS (I),I>1, 2),ITERS c cv 10*HDLT«HUHBBR OF WORDS c CD HRAHE HOLLERITH FILE BABE - GROPXS (A6) CD HOSE (I) HOLLERITH USER IDERTIFICATIOR (A6) CD ITERS FILE TERSIOR H?HBER CD BULT DOUBLE PRECIS!3R PARAHETER CD 1- A6 WORD IS SIBGLS RORD CD 2- »6 RORD IS DOUBLE PRECISXOR RORD C C— (=3RT) C-60 c— CR FILE COBTROL (ID RECORD) c CL BGRO0P.SISO,BAX0P, C— CR FILE DLTA (2D RECORD) C CL (HSETID(I),1*1,12),(HISORR(I| ,I*1,BISO) , CL ( CHI (J),J»1,5GRO0P) , (VEL(^) ,J=1#RGR0BP), CL (ERAX(J) ,J»1rBGRO0P),EBIB C CB 3*5GRO0P*naiT»(BISO*12)*1«5tT.1BER OF WORDS C CD HStTID(I) HOLLERITH IDEfIIFICATIOB OF SET (A6) CD HISOBS(I) HOLLERITH ISOT3PE LABEL FOR ISOTOPE I (16) CD CHI (J) SET PISSIOH JPECTRIW CD ?EL(J) HEAfl 5E0TFOB "ELOCITT IB GROOP J (CB/SEC) CD EHAX(J) HAXIHOB ENERGT BOOBD OF GROOP J (ST) CD EHIB BIWISaR EHEF3T BOOHD OF SET (ET) C C— (ran?) C-61 C* SET CHI DAT* (30 RECORD) c CC PRESEBT IP XCRIST.CT.1 C CI CfCBII 0C.J1 .K*1.ICBIST) .J=1.VSF00P) ,(ISSPEC(I) ,I>1,RIMV) C C* BCPO0P*(ICBIST»1)=B'1HBEF. OP VOEDS c CC CBJII(K,3) PFACTIOS OF BEJTP03S EHITTED IV GSOOP J tS 1 CD RESDL7 OF FISSIOB I* HIT GBOOP OSIBG SPECTRHB K CD ISSPEC{I) ISSPEC(I)*K IRPLIES THAT SPECTRBH K IS OSKD TO CD CALCSIATF ERISSICB SPECTR3S PBOR FISSIOB IB CD CROVP I C CR ISOTOPE CCBTROL ASD GRDOP I5DEPEBDEBT DATA (»D RECORD) C CI (HABSID(I) ,I-1,BIS0), (HIDEBT(I) ,I=1,HIS0), (HRAT(I) *1,EISO) , CI (MASS (I) ,1=1 ,BISO) . CI (»FISS (I| ,I*1,HXS0) , (ECRPT (II ,I=1.BIS0) , (XB(I| ,1-1, HI SO) , CL (TEBPfX) ,I*1,BI50) , (SICPOT(I| ,I«=1.BIS0) , (ADEBS(I) ,I*1,BISO) , Ct (KBB(I),I*1,BIS0),(IDSC7(B),B-1,BSCHAX), (LORD(H) ,B«1»BSCSAX), CI (XCHI(X),I*1,BIS0),IALF,IBP,IB2B,IBD,XBT,IX,IY C C* RXSO*(3*HlftT»9|«2*RSCHRX»7xHanBER Of VORDS c CD BABSID(I| HOLLERITH ABSOLUTE ISOTOPE LABEL (A6) CD BIDtBT IDENTIFIER, 8S0ALLT EVDF RUBBER (A6) CD HHAT(I) HATEFUL REFERENCE FOR IDERTXFICA7X0B (16) CD AHASS(I) GEAR ATOHIC REIGRT CD EPXSS(X) TOTAL TREPHAL FBERGT TIELD/TISSIOI (R.SEC/FXSS) CD ECRPT(I) THERHAL EBERGT TIELD PER CAPTDRE (R.SEC/CAP) CD IB (I) RESERVED CD TEHP(I) ISOTOPE TEMPER!TORE (DEGREFS RELTIR) CD SIGPOT(I) AVERAGE EFFECTIVE POTENTIAL SCATTSRIRG IB CD RESOBABCE RAH3E (BARBS/ATOB) CD ADCRS(I) DEBSITT OF ISOTOPE IB BIXTQRE IB BBXCH ISOTOPE CD CROSS SECTIOBS BEPf GEBERATED (A/BARIf/CC) CD MB (I) ISOTOPE CLASSIFICATIOB CD O'BBDEFIBED CD 1-PISSILE CD 2-FERTILE CD 3-OTHER ACTIBIDE Ct B-TISSIOR PRODUCT CD 5-STROCTDRE CD 6-COOLKBT CD 7-COHTROL (C05T) C-62 CD IDSCT fS) SCATTERIRG HAT3IX TTPE IDEBTIFICATIOB FOR CD SCATTEPXBC BLDCK B. SICBXFICACT OR IT IF CD 10RD(B).ST.O CD XDSC7fB)-000» BB, TOTAL SCATTERIHGfrSOR OF CD ELASTIC. XBELASTIC, ARD B, 2E SCATTERXBG) CD «100 • RR, ELASTIC SCATTEXZRG CD «200 • RB, IRELASTIC SCATTEPIBG CD *300 • BB, (B,2S) SCATTEBIBG PER EHXTTED BEBTBOB CD RREPE BR IS EEPABSIOB ORDER OF BLOCK B DATA, CD DATA ORDERED BY IHCREASIRG EXPA9SIOH OBDER CD FOR EACH OF THE TYPES IB THE ABOVE ORDER CD LORDfB) BOHBEP. OF SCATIERIBG ORDERS IB BLOCK B. IF CD LOBD(H)*0. THIS BLOCK IS SOT PRESEBT FOR TBXS CD ISOTOPE BLOCK. IF BB IS THE VALUE TAKEB PROS CD IDSCT(BJ, TBEB THE HATRICES IB TBIS BLOCK CD RATE LEGEBDRE EXPABSXOH IBDICES OF BB,RB«1, CD ,...,BB»LORD(B)-1 CD ICHt(I) ISOTOPE FISSIOB SPECTRBH FLAG CD 0- BSE SET CHI CD 1- ISOTOPE CBI VECTOR CD .GT.1- BOBBER OF SPECTRA FOR BARGES IB IBCIDEBT CD EBERGT DEPEBDEBT CHI CD XALF (B,ALPHA} CROSS SECTXOB FLAG CD IALP-1, (B,ALPHA) DATA IB THE FILE CD IALP*0, BO (R.ALPHA) DATA IH THE FILE CD IBP (H,P) CROSS SE=TXOB FLAG CD SA1E OPTIOBS AS FOR IALF CD XB2B (B,2B) CROSS SECTIOR FLAG CD SAHE OPTIORS AS FOR IALF CD XBD (H,D) CROSS SE37IOB FLAG CD SAHE OPTIOBS AS FOR IALF CD IBT (B,T) CROSS SECTIOR FLAG CD SABE OPTIORS AS FOR IALF CD XX RESERVED CD It RESERVED C c CR PRIBCIPAL CROSS SECTIORS (SO RECORD) C CI ((STRPL(I.t) ,I»1,HISO),L>1,HAXT), CI f|STU?PL(IrL), 1*1,EXSO),L-1,RAXT),(SBGAH(I), 1*1^5150), CL (SPXS(I),X*1,BIS0), (SBOTOTdl ,I«1,RIS0) , CL (CRIS0(I),I»1,BIS0), CD STRPL(I,L) PL BEI3HTED TBARSPORT CROSS SECTXORS CO StOTPlfI,L) PL WEIGHTED TOTAL CROSS SECTIOBS CP 5RGBH(XJ (R.GAIHIA) CROSS SECTIOR CD SFIS(I) (B.PISSIOS) CROSS SBCTIOB CD SBOTOT(I) TOTAL BEOTBOB TIELD/FISSIOR CD CHISO(I) ISOTOPE CBI FECTOR CD SVALF(I) (R.ALPRA) (PRESENT IF XALF.CT.O) CD SBP(I) (R.P) (FRESESI IF IBP.GT.O) CD SR2B(I) (*«2H) (LOSS) (PSESEBT IF IB2B.6T.0J CD SBD(I) (R,D) (PRZSEHI IP IRD.GT.O) CD SRT(I) (R.TJ (PRESERI ir XRT .GT.0| CD STRPD(I.J) COOBDIBATB DICECTXOV 3 DEPEBDEBT TRARSPOBT CROSS CD SBCTIOB( PBBSEPT IF RSTRPD.CT.O) CD BAXT RAXOBD»1 C c —~ c— ISOTOPE CHI DATA (60 RECORD) CR c cc PRESEBT IF RCBIH.GT.O ABD XCHX(X).GT.1 c ((CRTSI(K,J)»K«1,ICBII),J«1,BGBOOP).(XSOPEC(X| ,1-I.BGROBP) CL C VGBOOP*(ICRIX • 1}«B5!WEB OF WORDS CB C XCHII •ICHI(I) CD CRXSX (K,J) PRACTIOK OF BE3TRORS SHITTED IB GSOOP t AS A RKSOXT CD OF FISSXOR IB ABT 5RO0P OSXBG SPECTROK K CD ISOPEC(I| I50PEC(I)*K IRPLIES TRAT SPECTROfl K XS USED TO CD CALCULATE ESISSIOR 5PECTR0R fBOfl FXSSXOB IR CD GBOOP X CD C C— C~ CR SCATTERISC COSTROL (7D RECORD) C CT. ((JBARD(I,R),I*1,BIS0),K«1,BSCHAX), CL ((IJJ(I,B),I»1,»ISO>, B«1,«S:HAX) C CB 2*RISO*ESCRAX*J0HBER OF SOROS C CD JBABD (1,11) SCATTERIBG BARDRXDTff FOR ISOTOPE X, BLOCK R CD IJJ(I,R) POSITXOR OF IB-GBOOP SCATTERIffG CROSS SBCTIOB XV CD SCATTERIBG DATA FOR ISOTOPE I, SCATTERXRG BLOCK CD B, COOBTZD PRDil THE FIRST WORD OF ISOTOPE X DATA C C— IZOVT) C-64 CR SCATTEPIHG SOB-BLOCK (BD RECORD) C CC PBESEBT IF LORD (S) .ST.O C CI ((SCAT(K,L),K-1,K3AX),L*1,L3PDB) C CC KHAX*S09 3VEP I OF JBABD(I.B) BITHIH TBS I-RARSE OF SOB-BLOC* B. CC THE I-PABGE IS IL»{H-1)M(BI50-1| /B5BL0K»1)»1 CC TO IB*a*(fVIS0-1)/B5BL0R*1|. LOPDH=LOHD(H) C CW KHAX*LORDB~SORBEB OF WORDS C CO SCAT(K,L) SCATTER IRC HATSIX OF SCATTER KG ORDER L, FOB CD BEACTIOB TTPE IDERTIFIED BT IDSCT(H) FOB TBXS CD BLOCK. JBABD(I) TALOES FOR SCATTERISG IRTO CD SBOBP J ARE STORED AT LOCATIOBS K=S0S FROB 1 CD TO (1-1) OF JBABD(I) PIUS 1 TO K-1*JBABD(I). CD THE SOB IS ZERO BBEB I«1. J-TO-J SCATTER IS CD THE IJJ(I|-TH EBTRT IB THE RAB6E JBAHD(I). CD TALOES ARE SI3PED IB THE ORDER (J*JOP) , CD (J»JOP-l|,..., (J*1),J, CJ-1).---#(J-JM># CD BBZRE JBP*IJJ(I|-1 ARD JDX*JBAHD(I)-IJJ(I) c CB BLOCKIRG OVER ISOTOPES FOR EACH ORDER IS CV BECESSART IF THE DATA IS 70 BE PROCESSED OBCE CB SEQOEBTIALLT ABD THE HACROSCOPIC DATA STOBED CB ORE ORDER AT ft TIHB. IB THIS EVERT, EITHER CB TALOES OF LORD(•) HOST BE LIRITED TO 1 OR CW BSBLOK BE 1. C c — c CEOF 6P0PXS C (••ft*********************************************************************. C-65 SPECIFIC1TI0BS FOB INTERFACE FILE GE9DST £•••••••••••*••••••*••••••••••••••••••*••#•••••••••••••*•••••«*••••»•*••- C REVISED 07/22/75 C Ct GE3DST - III C CE GEOHBTBT. DESCBIPTIOB c CH FU.E IDEBTIFICBTIOB C CL BB*HE,(B»5E(I),I=t,2),ITERS C CV 1+3*nBLT*BVHBER OF WORDS C CD BB&BK BOILERITH PILE HUE - CEODST - (*6) CD HOSE(I) HOLLERITH USER IDEJTIFICATIOH (A6) CD ITERS PILE VERSI3B BVHBES CD BOLT DOOBLE PBECISIOB PAF&IIE7EB CD 1- 16 BORD IS SIBGLE WORD CD 2- 16 BORD IS DOUBLE PRECISIOR BORD C CS PILE SFECIPICITIOBS (ID RECORD) C Ct IGOH,BZOBE,BBES,BZCt,BCIBTI,*CI»TJ,»CIBTr,BIBTI,BXBTJ,BIBTK,IBBl, - CL IHB2, Jflff1,JHB2,KHB1,KHB2,BBS,BBCS,RIBCS,BZ«BB,BTBIftG,BBBSS, Ct (BGOP(XJ,I*1,5) C CB 27-BOBBER 07 WORDS C CD IGOR GEOBETRI 3- POIBT (PDBDkBEBT&t RODE) CD 1- SL»B CD 2- CTLIBDEB CD 3- SPHERE CD 6- X-I CD 7- R-Z CD 8- THETH-R CD 9- TPI»GOB»t (6 HESR POIBTS IB EACB CD HEXIGOBfcL BLEBZBT) CD 19- REXlGORftt (1 RESH POIfT IB MCH CD HEXftGOBftt EtEBEBT) CD 11- B-TBETA CD 12- B-rHSTA-Z Cl> 13- B-THBTA-AtPH» CD IB- X-T-Z CD 15- THETA-B-Z CO 16- TRETA-R-ALPHA CD 17- TRIAGOBAL-Z (RESH POIBTS IS XB », • (CDBTJ C-66 CB ABOVE) CD IP- BEXAGOE-Z (RESH POUTS IS II It - ABOVE} CB BZOBT •OSIER Or IORES (EACH ROHOGEBEODS IB BEBTROHICS - CD PBOBLEB - A ZOBE COBTAIRS ORE OR ROBE REGIOIS) - CB •BEG BMBEB Or PEGIORS CD WZCL •ORBEB Or ZORE CLASSIFICATION (EDIT PORPOSES) - CD BCIBTI BBRBEB or riRST DIRERSIOR COARSE HESH INTERVALS - CD 1CIBTJ ROBBER Or SECOSO DIRERSIOB COARSE RESR CD IBTERVALS, BCIRTJ.EQ.1 FOR ORE DIHEHSIOBAL CASE. CD •CI INC ROBBER Or THIRD DIHElfSIOR COARSE RESH XBTEBTRLS - CB BCIBTK.EQ.1 rOI ORE ABB TBO CB DIHEBSIOHA1 CASES. CB •IBTI RUBBER Or FIRST DIRE.fSIOR FIRE RESR IBTERVALS CD BIBTJ BOBBER or 5EC0R0 DIHERSIOE FIRE RESH IBTERTALS - CD •IBTJ.E3.1 FOR ORE DIBEESIOBAL CASE. CD BIBTK •OHBER OF THIRD DIBERSXOR FIRE BESH IBTERTALS CD BIBTK.EQ.1 FOB ORE ABO TWO OIBERSIOHAL - CD CASES. CD IHB1 FIRST BOBRDART OR FIRST DIREHSIOR CD 0- ZERO TX0X (DXFFOSIOH) CD 1- REFLECTED CB 2- EXTRAPOLATED (OIFFOSIOR - i)EL PHI CD /PHI «-C/D RRERE C IS GIVER AS BRDC CD BELOB ABD D IS IRE GROOP DIFFBSIOR - CD COBSTAET, TRAR5POBT - BO RETORR) CB 3- REPEATIBG (PERIODIC) BITH OPPOSITE - CD FACE CD *- BEPEATIBG (PERIODIC) BITH REIT CD ADJACEB? FACE SOISG CLOCKBISE CB ARDBHD THE FIRST ARD SECORD CO DIHERSIOR PERIRETEB. PERTIHERT CD ORLT FOR 2 OR 3 DIREHSZORAL CB PROBLEHS. CB 5- IBVERTED REPEATIRG ALOBG THIS FACE - CD (180 DEGREE ROTATIOB) CD S- ISOTROPIC RETORR (TRARSPORT) C ROTE THAT FOR BEPEATIBS B00EDARXE5, THE FIRST BO0H0ART IB C ORDER BHICR IS IRTOLVED CARRIES THE DESIGIATOB OEFIRIBC C THE REPEATIRG CORDZTIOR. CD IHB2 LAST BOOBDART OB FIRST DI"ERSIOH CD JRBI FIBST BOOBDARI OB SECORD DIRERSIOR CD JHB2 LAST BOORDART OR SECORD DIRERSIOR CD KRB1 "IRST BOORDART OB THIRD DIRERSIOB CD KHB2 LAST 8O0R0ART OR THIRD DISERSIOB CO IBS RUBBER OF BOCKL1BG SFECIFICATIOBS CD 1- 5IB3LE TALOE APPLIES EVERYWHERE CO .EQ,RZ9RE, ZOBE-DEPERDtRT CD .GT.BZDHE, DATA IS GIVER OVER ALL ZOBES FOB - CO THE FIRST EBERGT GROOP, TREB FOR THE REIT - CD CROJP, TO EBD OF LIST - IF THERE ARE ROBE - CD GROUPS, LAST GROOP DATA GIVER IS OSEO C3RT) C-67 CO BBCS BOBBER Or COBSTABTS FOB EXTEBBAL BOBBDARIES CD 1- SXBSLE TALOE CSEB EVEBTVBEBE CD 6- IBDITIDOAL »ALOES FOB EACB POSSIBLE CD SOBFACE (BODBDABT SPECS CIBB ACTUAL BSE» CD .ST.6- SIX VALOES ABE CXVBB POB TB riBST CD EBEEST CROUP, TBEB SIX FOB TBE BEXT, TO CD THE EBB OP TBB LIST - THE LAST 6BOBP DATA CD CITES APPLIES TO ALL ADDITXOBAL CBOBPS CD BIBCS BOSBEB Or COISTABTS POe IBTeRBAL BOOBBABIES CD 1- SIH3LE YALBES OSBD ETEETVBERE CD .CT.1- VALUES ARE 6IVEB BI ERBRCT CBOBP CD BITS BOB-BLACK COBDITICB XBDICATBD BT CD ZEB3 EBTBT - LAST TALOE APPLIES TO CD ADDITICSAL 6B00PS CD BZVBB BOBBED Or ZOBBS VBICR ABB BLACK ABSOBBEBS CD BTPIAS TBIA60BAL SEOBBTBT OPTIOB CD 0- BHOSBOS WITH COOBBIBATES AT 120 DECREES CD OBISIB IS AT TB* CEBTEB OF A BEXACOBAL CO ASSERBLT. BOBBDABIES PASS TBROOCB CD CORBEBS or BSXAGOBAL ASSEMBLIES. CD 1- SAHE AS OPTIOB 0 EXCEPT COORDIBATES AT CD 60 DEGREES CD 2- RECrABGLE (COORDZBATES AT 90 DEGREES), CD riBST BOOBDABT PBBPEBDICDLAB TO CO BEXAGOBAL PLAT. CD 3- EQHLATEBAL (60 DEGREE) TRXAHGLB. TBO CO BOORDARIES ORIGZBATIBG AT CEBTBB OT CD HEXAGOBAL ASSBRBLI PASS TBROOCB COBBERS CD Or BEXAGOBAL ASSEMBLIES. CD •- TBZABGLE (30-60 DEGREE). rZBST BOOEDABT CD PERPEBDICOLAR TO FLATS. CD BRASS RESIOW ASSIGRRESTS CD 0- TO COABSE 8ESR CD 1- TO PIBE ftESH CD BSOP(I) RESERVED C CB 03E DZREBSZOBAL COARSE RESB XBTEBTAL B00BDA8IES ABD PXBE CR SESH IBTERVALS (20 RECORD) C CC PRESEBT IF XGOR.GT.O ABD ZG0H.LE.3 C CL (XBESB (I) ,Z>1,BCBBDZ),(ZPZBTS (I),Z-1,RCZBTZ) C CB BCBBDZ*H9LT*BCZBTI*B0flBEB or WORDS C CD XBESR(I) COARSE HESR BO0BDARZES, FIRST DXRBBSXOB CD iriWTS(I) BORDER Or rZBE NESH ZBTERTALS PBB COABSB RfSH CD IBTERVAL, rZRST DZRERSIOB CD BCBBDS BCZBTZ»t, ROBBER Of rZRST DZHEBSZOB COABSB BBSR CD BOOBDARZES C3BT) C-68 c cc OUTS ate ca FOR LZBEAR DZBEBSZOBS UD BADZABS FOB ABCOLAB CC rZBBBSZOBS c c ca tao DZBZBSZOBAL COARSE BESB IRTEBTAL BOOBDABIES ABB rzac c* nasa ZBTEBVALS (3D BBCOBB) c CC PRESENT ZF Z60R..6E.6 ARD ZeOB.LB.11 C CI (XBESB(X| ,Z*1,BCBBDZ) , (YBESR(J| ,J*1,BCBBDJ1 , ct i (ZFiBTSfzt .IM.BCXBTII • (JFzarsf JI ,J«I,BCZRTJI c CB (BC«BDX*BCBBDJ)*ROX.T»BCIBTI»BCXHJ*BDBBE* OF BOBBS c CB YBBSB(J) COARSE MSB BOOEDABIES, SBCOBB BXBSBSIOB CB JFIBTS (J) BOBBER OF FIBE «ESB XBTEBTAIS FEB COARSE BBSB CB XBTEBTAt, SBCOBB BZBCaSZOB CB BCBBDJ BCXBTJO, BOBBKB OF SBCOBD BIBEB5X0B COUSB CB MSB B30BDABIES C CB TBBBB DXBEBSXOBAt COARSE BESB ZBTEBVAL BOORDABZES ABB FIBE - CR BESB ZBTEBVAtS («D RBCOBD) C CC FBSSEET XF X60B.CE.12 C CL {XHBSB(Z|,Z«1,aCBaDZ),(TBESB(J),J*1(aCBBBJ1c Ct 1(ZnESB(KJ,K-1,BCBBDK),(XFZBTS(Z),I«1,BCIRTX), Ct 2(JFZRTS(J),J*1,RCZBTJ),(KFZBrS(K),K»1,BCZBTB) C CB (BCBBDZ»BCBBDJ*BCBBDK)*BOtT»RCZBTX»BCIBTJ*BCIBTK*BOBBER OF BOBDS - c CO ZRBSB(K) COABSE BESR BO0BDMXES, TBXRD DXBBBSXOB CD RFXarS(K| BOHB*t OF PXBE MESB XBTEBTAtS FEB COARSE RBSB - CO ZBTERflt, TBZRD OIREBSZOB CB BCBWDR BCZBTE*1, RORBEB OF TBZBD BIRERSXOB COARSB RESB - CO BOORDMXES C CB CEOBBTBI DATA (50 RECORD) C CC FfESERT XF ICOR.GT.O 3R RBS.CT.O C Ct (JOtR(R),B«1,BllW|, (BSQ(R),H>1,*BS),(BBDC(B),R«1,BBCS), Ct (BRCZ(B),R«1,BXBCS),(BZBB6(»|/R»1,RZRBB>,(RZC(R),R-1,RZ0BE), Ct (BZBB(B),B*1,BRE6) (CORTJ C-69 c ca 2»BBEC»BBS»BBCS^RIBCS»B2BRB»BZOBE«H»BBER or BOBDS c C» TOLR(R) B26IOB TOLBBBS {Cq CB BSQfB) B9CK1IBS (B**2| TILDES (CB**-2) CO BBDC(B) BOBBBABT C3BSTABTS (BEL FBXSFBI —C/t| CB BBCX(B) XBTEBBAL BLACK BOBBDABT COBSTABTS CB BZBBB(R) ZOBB BBRBEBS BITB BUCK ABSORBER COBDITIOBS CB asc(Bi zoae CZASSIPXCATZOBS CB BYRF(B) ZOBB BBRBBB ASSX6RBB TO BAO BBCIOB c CB BE6I0R ASSX6BBERTS TO ?OARSB BBSB IBTERVAL5 C« (6D RECORD) C CC PBBSBRT ir ICOB.CT.O ADD BBASS.BQ.O C CI ((RR(X,J),I>1,RCXRTI|,J«1,BriB7J| BOTE STROCTVRE BELOB C CR BCIBTX*BCXBTJ>BOBBEB OP BORBS C CS DO 1 K«1,BCIBTK CS 1 IC1D(I| •LIST RS ABOVE* C CB BP(I,J) RB6XOB BBRBERS ASSICBED TO COARSE BESR CB IBTERRALS C CB BB3I0B ASSI6BSEBTS TO riBB RE5R IHTERVAL5 CR CD RECORD) C CC PRB5ERT IP ICOH.CT.O ADD BRASS.EC.1 C CI ((BR(I,J),X«1,BIRTX),J«1,BIBrJ| ROTE SIROCTORB BELOR C CB Rim*BIRT3«ROHBEV OP BORDS C CS DO 1 K«1,BIBTK CS 1 READ(B) •LIST AS ABCTE* C CD BR(I,J) RB6XOB ROBBERS ASSICBED TO PIRE RESH XBTERTALS • C ^000000000000000000000000000000000000000000000*000000*00000000000000000. C CEOP BEOOST C « e C-70 SPECIFICATIOBS POR IB7ERPACE FILE RDZSRP C«****»**«******••••••••••••••••••••••••••*•••••••••••••••••••••••••••••- C REVISED 07/22/75 C CP RBXSRF - III C CE RBCLIDE BERSITT. DATA, CROSS SECTZOR REPERERCIRG C CR PILE IDEBTIPZCATIOB C CI MARK, |BBSE(I),1-1,2),Z»EBS C CR 1»3*RHLT*BB!IBER OP RORDS C CD BBAFE BOLLERZTB PILE BABE - RDXSPP - (16) CD ffVSE(X) BOLLE1XTB 0SER XDERTIPXCATIOB (16) CD IVE1S PILE TEPSIOB BJ3BER CD RBIT DOBBLE PRECXSI3H PAPABETER CD 1-16 BOBD IS SIRCLE RORD CD 2- 16 CORD IS DOBBLE PRECISZOV BORD C CR SPECZPICATZOBS (1D RECORD) C CL BOP,ESE,Br*,BAB,BZOBE,B5Z C CR 6 "BOBBER OP WORDS C CD BOB B9RBER OP BOCLIDES XB CROSS SECTIOB DATA CD BSB BOBBER OP BOCLZDE SETS IDEBTZPIBD CD BBS BAXZHOB BJ!>BBR OP R0CLIDES ZR ART SET CD BRB BOBBER OP DITPERERT ROCLIDES IB DATA CD MORE BBBBEB OP ZOBES CD BSZ BVBBER OP 5DBZOBE5 (SOBASSEBBLIES) C c- c C BBCLIDE REPEBEBCIBG DATA (2D RECORD) C CL fRBRKHE(B),lt»1,«05) ,(BABABE(P) ,B>1,ROB) ,(BPP(B),R-1,BOB), CL |aTBT(J),J»1,BAB),fBClD(B),B.1,B0B),((RDXS(K,L),IC»1,a),l«1,BSB), CL ((BOS(Z,L),I-1,BBS),L-1,ESV),((BOR{R,L),B-1,ROB),L»1,BSB) C CB BaB*2*B0a*(UNBLT)»BSB*(a»aBS»BOR)«RDHBER OP BORDS c CD BBBAHB(B) 0EIQ0E tePPPERCE RDCLIDE BABE, XR LZBRART ORDER CD (*6) ALPHABOBERIC CD BAEIftE(B| ABSOLUTE ROCLIDE RETEREBCE, XB UNtlT ORDER CD (A6) ALPHABQBERXC (rDBTJ C-71 CD •PF(B) RESERVED CO ATHT(J) ATO!iIC REI3RT CO BCLB(B) BBCLIDE CLASSIFICATIOH CD 1- FISSILE CD 2- FERTILE CD 3- OTHER ACTIBIDE CD •- FXSSXOB PRODOCT CD 5- STROCTBRRl CD 6- COOLAST CD T- CORTROL ROD CD GREATER FRAH 7, DBDEFIBBO CD BDXS(K,L| RETERZRCE PATA FOR SET L CO K « 1. E?SBEB Or HOCtlDES IB SET CD K * 2, RESERVED CD K = 3, RESERTEO CD K * «, RESERVED CO HOS(I,L} ORDER RUBBER OF RBCLIDB XB CROSS SECTXOB DATA CD (IB BBBASF LISTI OF BOCLIDE OB0BRE0 X XR CD SET L CO CD ROR(R,L) ORDER BOBBER OF RBCLIOB XB SET L GIVEB OBDBR C BOHBER B IB CBOSS SBCTXOB DATA c— C CB ROZLIDE COSCETITRATIOH ASSIGBnEBT DATA (3D RECORD) C CL (VOLZ(B) ,»*1,HZOHE) , (T?PA(R| ,B«1,BZ0B3) , (VLSA(B) ,B*1,ESZ) , CL (BSPA (R) ,9*1,RZCBEt , (!TCSA(H| ,H-1,BSZ) , (BZSZ(H) ,H*1,BSZ) C CB 3*(BZOBE»BSZ)sBOHBER OF RORDS C CD VOLZ(B) VOHMES OP ZOBES, CC CD TFPA(9) TOLOSE FRArTIORS FOR PRIRARt ZOBE ASSXGBBBBTS CD VISA(«) TOL0KS or SOBZOBES CD HSPA(B) BOCLIDB SET BErEREBCE, FRXRART ZOBE ASSXSRBBBT CO (HAT BE ZERO OBLT IF TBEBB ARB SOBZOBBS) CD HSSA(H) ROCLIDB SET REFEREBCB ASSXGBBBBT TO SnsZOBBS CD RZSZ(H) ZOBZ COBTAIBIVS SOBZOBZ C c BOTE TRir TO CALCULATE RACROSCOFIC CROSS SBCTXOBS FOR A ZOBB, c IT IS RECESSART TO CORSIDER THE COBCEBTRATIOB OF EACH BOCUDf c IB TAB FRIRART SET ASSISBaEST (GBLESS A ZERO IB BSPA IBOXCATBS c THERE ARE BORE) TliISS TRE V3LOKE PRACTIOH, ABD TBE COBCBBTBATXOB c OF EACH HOCLIDE IH EACH S0BZ3BE ASSIGBED TO TRE ZOHB TIBBS TIB c c RATIO OF THE S0BZO3S TOLDHE TO THE ZOBE VOLORE. c C CEOF BDZSRr e C-72 SPECIPICATIOBS FOR I5TERPACE FILE ZBATDB C REVISED 07/22/T5 C CP ZBATDB - III C CE ZOHE ATOSIC DSBSITIES (OP ROCLIDES) C €•*••**••**••**•***•**••*•*••**•••**••••****************•**•••*•**•**•**- CR PILE IDENTIFICATION C CL HBAHE,(HOSE(I),l»1,2),ITERS C CB 1O*H0L?~BDHBER OP BORDS C CD ERA BE BOILEBITB TILE BABE - ZBATDB -f»6) CD BOSE(I) HOLLERITH SSER IDEBTIPICATIOB (A6) CD ITTOS PILE TERSI3B BOBBER CD HOLT DOOBLE PREZISIOB PARAHETER CD 1- A6 BORD IS SIBGLE BORD CD 2- A6 BORD IS DOOBLE PRECISIOB WORD C CB SPECIFICATIONS (ID BECORD) C CL TIRE,BCY,BTZSZ,BBS,BBLKAD C CB 5-BOBBE* OP BORDS C CD TIRP REFEBEBCE REAL TIRE, DATS CD RCT REPEREBCE :TCLE BOBBER CD BTZSZ BOBBER OP ZOBES PLOS BOBBER OP SOBZORES CD BBS HAXIHOH BJHBER OP BOCLIDES IB ABT SET CD BBLKAD BUBBEB OP BLOCFS OF ATOR DEBSITT DATA C (CJBT1 C-73 C» lOtt ITOHIC DENSITIES (OF W0CLIDESJ (2D BSCORD) C CL ((»DEW(H,J),»*1,B3S),J=>JL,JJ| SEE STR0CTUBE BELOW C CI BBS* ( (ITtSZ-1)/IBLK»D»1)=»OnBER OP WORDS C CS DO 1 H=1,*BLTfcD CS 1 BEJLD(B) *tIST »S ABOTE* C cn WITH S AS THE BLOCK ISO EI, JL= (H-1) • ( (HT2SZ-1)/IBLICID*1) *1 CC AID ja=BM(«TIS7-1)/«BLMD»l) C CD ADER(*,J) ATOHIC DEB5ITT Or IBCLIDE ORDERED t IV THE CD ASSOCIATED SET CITES III OBDER TO! EACH ZOIE CD FOLLOWED IB ORDER FOR EACH SOBZOHE C £**••*••*•••••••••*•«•*••••****••»••*..••***********•*••##•••*•**•*•**•••- C CEO" ZBATDB C £*•••***••*••*!>*•#•••••*••••*•**••*•*••••»**•*#*•••••*•*»••••**•*•*•**•*- C-74 SPECIFICATIONS FOR IHTERPACF FItE RTFLM £••*•«•••••*•••••**•*••••**••*•••••••*•••**••*••*••••••*••••*•«••*••«*••- C RETISED 07/23/75 - REVISED 0«/01/B0 C CF RTFLOX C CB RE50LAR TOTAL PLOXES C ORDER OF SPOOFS IS ACCORDING TO DECREASING ENERGY, NOTE THAT DOUBLE PRECISION FLUXES ARE GlfEV SHE* HULT.EQ.2 CB FILE IDENTIFICATION C CL SHARE, (RUSE(I),I*1,2),ITERS C CR 1*3*RULT«NOHBER Or WORDS C CD HHABE HOLLERITH FILE HARE - BTFLOT - (A6) CD HOSS(I) HOLLERITH USER IDENTIFICATION (A6) CD IVEPS FILE VERSION RJHBER C CD HOLT DOUBLE-PRECISION PARARETES CD 1- A6 WORD IS SINGLE WORD CD 2- A6 WORD IS DOUBLE PRECISION HORD C CR SPECIFICATIONS (ID RECORDI C CL NDIH,HGROOP,NINTI NINTJ,NINTr,ITER,EFFIC,POWER C CB 8«H0RBER OF HORDS C CD fDIH ROBBER OF DIHEHSIORS CD HGROOP NOHBER OF EREP.5Y GPOOPS CD RXRTX ROBBER OF FIRST DIRERSIOR FIRE RESH INTERVALS CD RinrJ RORBER OF SEC3RD DIREHSIOH FIBE RESH INTERVALS CD NINTr ROBBER OF THIRD DIRENSXON FINE HESH INTERVALS, CD NINTR.EQ.1 IF NDIH.LE.2 C CR FOR HESHPCIBT EDGE LOCATIONS, NINTI, HINTJ, AND RINTK ARE •- CR INTERPRETED AS THE ROBBER OF POINTS (ONE RORE THAN TBE •- CN NOHBER OF INTERVALS) *- CN FOR SPECIAL TRIANGULAR GEOHETBIES, NIRTI IS THE RUBBER OF •- CN POINTS ON EACH PLANE, AND NINTJ IS SET TO 1. *- C CD ITER ODTER ITERATION ROBBER AT WHICH FLOX HAS WRITTEN CD HADE NEGATIVE fOR RESH EDGE POINTS •- (COBT) C-75 CD EPFK BFFBCTIFE BBLriPLIClTIOB FICTOB CD SET TO ZEBO IT FIXED SOVBCE FBOBLEH CD FOBEB POBEB IB BBTTS TO BBICH PLBX IS BOBULXZEB C c CB OBE DIREBSIOBBL EECOLIV TOTtL FWX (2D BECOBB) C CC FBESEBT IF BDIS.EQ.1 c CI ((FBEG(I,J),I~1.BIBTI),J>1,B3BOVPt C CW •»TBTI«BCSOBP*HBLT*BBHBEB OF BOBBS C CD PPEC(I,J) OBE DIBEE5I0E1L BECBLIE TOTBL FLBI BT IBTEBfBL CD ftBD CBOBP C CF R0LTI*DIHEBSIOB1L BEG31M TOTBL FtOX (3D SECOBD) C CC PBESEBT IF BDI3.GE.2 C CL ((FBEG(I,J),X-1,EIBTI),J>1,BIB7J) BOTE STB0C70BE BELOB— C CB EIBTI*BIBTJ*BBLT*B03BEB Or B3BDS c CS DO 1 L*1,B5B00P CS DO 1 **1,BIBTK CS 1 BE1D(E) •LIST K IBOFE* C CD PFEG(I,J| BVLTI-DIREBSI3B1L BEGOLBB TOTAL FLUX CD BT IETERVftL FOB EBCB CBOUP C £•••••••••••••••••••••••••••••**••••••••••. C CEDE BTFLOX C C-76 SPECIFICATIORS FCR IBTBRFACE FILE ATFLOX £•••••*•••••••••••••••*•••••••••••••••••*••••***••••••••«••••••••••*••••- C RETISED 07/23/»5 - RETS SOT 04/01/80 C CF ATPLOX C CE ADJOINT TOTAL FLOXES C ORDER OF 3POOPS IS ACCORDING TO INCREASING EHE8GT, NOTE THAT DOUBLE PRECISION FLOXES ARE GIYEN RBEB H0LT.EQ.2 C— CR FILE IDENTIFICATION C CL HHA!!E, (HOSE (I),1*1,2) ,ITEHS C CR 1O*R0LT*R0!IBER OF VORDS C CD HRARE HOLLERITH FILE SA3R - ATFLPX - (A6> CD BQSE(I) HOLLERITH USER IDBHTIFICATI03 (AS) CD ITEPS FILE TEBSIOH ROBBER C CD HOLT DCOBLE-PBECISIDR PAPA3ETER CD 1- A6 RORD IS SINGLE WORD CD 2- A6 RORD IS DOUBLE PRECISION WORD C C— C~ CR SPECIFICATIONS (ID PECORDJ C CL NDIH,HGRO0P,HINTI,HIHTJ,HI«ITIC,ITER, EFFK, ADOS C CR 8»RUHBER OF SOROS C CD HDIfl ROHBER OF DIVERSIONS cr> RGROOP RD38ER OF EREP3T GPOOPS CD RIRTI ROHBER OF FIRST 9IHEHSI0N FI1JE HESH INTERVALS CD RIRTJ ROHBER OF SEC3RD DISEH5X0H FIRE flZSH INTERVALS CD HIHTK HOHBER OF THIPD DIHEHSIOR FIRE HESH IHTEBVALS, CD HIHTK.EQ.1 IF RDIB.LE.2 C CH FOR (IESHP0IH7 EDGE LOCHTIORS, RIRTI, BIKTJ, ARD RIRTK ARE *- CH INTERPRETED AS THE BOHBER OF POIBTS (ORB BORE THAR THE •- CR ROJIBER OF IRTERTTALS) *- CR FOR SPECIAL TRIAKGOLAR GEOMETRIES, RIRTI IS THE ROHBER OF •- CR PCIHTS OR EACH PLARE, ARD RIHTJ IS SET TO 1. •- C (C3N71 C-77 CD ITER ODTER ITERATION HOMER AT HRICH FLOX HAS BRITTER CD HADE NEGATIVE FOR HKSH EDGE POIHTS •- CD SET TO ZERO IF FIXED SOORCE ADJOI5T FLOXES •- CD (DOSIWAR7 RARItOHIC) HATE BEEH CORRECTED FOR •- CD FORDA1EVTAL C0BTA3INATIOH •- CD EFFK EFFSCTIfE H0LTIPLICATI05 FACTOR CD ADon ZERO FOR HOB FIXED SOURCE PBOBLEH •- CD SON FIXED SOVPCE IF FIXED SOOBCE PROBLEH •- C CR ORE DIHERSIORAL ADJOIRT TOTAL FLOX (2D RECORD) C CC PRESERT IF HDIH.EQ.1 C CL ((FADJ(I,J),I»1,BIHTI),Js1,93ROOP) C CR HIHTI**GRO0P*H0LT=H0HBER OF VORDS C CD FADJ(I.J) ORE DIHEHSIORAl ADJOIRT TOTAL FLOX BT IBTERTAL CD ARD GROOP C c- c CP HOLTI-DinERSIORAL ADJOIRT TOTAL FLOX (3D RECORD) C CC PRESERT IF NDIH.GE.2 C CL ((PADJ(I,J),I»1,HIIfTI),J*1,RIHTJ) BTTS STROCTORE BELOH- C CV RIHTI*HIRTJ*MJLT«HOHBEP OF RORDS C CS DO 1 L*1,RGR00P CS DO 1 K=1,HTHTK CS 1 READ(R) 'LIST AS ABOVE* C CD FADJ(I,J) HOLTI-DIHEBSIOHAL ADJOIRT TOTAL FLOX CD BT INTERVAL FOP EACH CROOP C c c»»»*»***»**•*•*•**»*»»****•**»********•«»**#•»*•**#****•**•***•»•••*•••- C CEOF ATFLOX C (;•••*•**•*•**»**••****•»»»•***•******»**•****•*•••••*•*•****•*•**••••••*- C-78 SPECIFICA7I0BS FOB IBTEBFACE FILE RZFLOX £••••••••*•••**••••••••••••••••••••••••••••••••••«••••*••••**»•*••••••••.. C SEFERBBCE 02/01/79 ORHL-5180 C CF BZFLOX C CE BE30LAB ZOBE FLOX BT 3PO0P. ATEBA6ED OTEB BACH ZOBE C CB AB ASTEPXSK IB COLOR* 72 IBDICATES LOCAL BODIFICATXOB C CB FILE IDEBIIPICATIOB C CL RBAHE,(BOSE(I) ,1=1,2» ,IVEBS C CB 3*ROLT • 1 C CO HBAHE FILE BARE (A6I 'ftZPLOX' CO ROSE OSEP IDEBTIFITATIOB (A6) CD ITERS FILE TEBSIOB BOBBER C CB BOLT 1 FOR LOBC WORD, 2 FOB SEC8T WORD BACRIBES C c— .—.-.___ CB 1D FILE BEFEBEBCE IBFOBSATIOB c CL TIRETIRE,POVER,VOL,EPPK,EIVS,DKDS,THL,TBA,TBSL,TBBL,TBBAL,TBCBA, , CL CF,CCF,CE,CP,CC,ITPS,BZORE,BGROOP,BPE f C CB 20 C CO TIRE BEFEBEBCE BEAt 71SE, DATS CO POBEB POBEB LEVEL FOB ACTOAL BEOTBOBICS PBOBLER, BATTS CO THKBHAL CD VOL VOLUHE OVER WHICH POWER HAS DETERRXRED, CC CD EFPK HOLTIPLICATIOB FACTOR CD EITS EIGEHVALOE OF SEARCH OF SEARCH PROBLER CD DKDS DERIVATIVE OF SttBCH PBOBLER CD TBI TOTKL BEOTROH LOSSES CD TBA TO'.AL BEUTROB ABSOBPTIORS CD TBSL TOTAL BEOTROB SURFACE LEAKAGE CD TBBL TOTAL BEOTROB BUCKLIBG LOSS CO TBBAL TOTAL BEOTROB BLACK ABSORBER LOSS CD TBCBA TOTAL BE07R0B COBTBOL BOD ABSORPTIOBS IC0V7) C-79 CD CF FPRCTIOR OF COPE TREATED IS PEOBLEH •- CO CE COETERSIOR FAZIOR, RITXO O? THERHU. EIERCT TO *- CD FXSSTOR • CIPTPPE EIER6T RVHLABLE RITE •- CD TEE criOSS SECTIOHS •" CD CR RDDITI35IL DIM PU6 IF .CT.O (TBO RECORDS) •- CO CC RESERVED CO ITPS ITESATITE PROCESS STATE CO =0, BO ITEPATIOBS DORE CO =1, C0HTER3EECE SATISFIED CD -2, ROT CCVVERGED, EOT C0BTERGXV6 CO -3. ROT C3RTEBGED, ROT COBTERGIRC CD OEORE ROBBER OF GEORETRIC ?PBES CD OGROOP RUSHER OF REOTFO* ERERGT GFOOPS CD OPT BOBBER OF BLOCKS OF LOCAL, FIRE-SCALE FLDX TRIBES *- C C CR 20 FLOX TILDES C CL ((ZGP(K,H),R>1,*GRO0P),S-1,RZORE) C CR RGRO0P*RZORE C CD ZGF REGULAR ZOBE FLOX BT GRODP, AVERAGED OTER ZORE CD REOTRORS/SEC-CH»*2 C CR 3D ADDITIOEAL OATH, FIRST OF TWO RECORDS •- C •- CC PRESERT IF CR .GI.0 •- C •- CL (SHARE8(I),I«1,100),(SHARE(I| ,1-1,100),(LX(I),1-1,200) •- C •- CR 100*H0LT • 300 •- C •- CD SHARES REOTRORICS DATA FOR REFERERCE •- C DOUBLE PRECISXOR OR A SHORT RORO 7IACHIRE •- CD SHARE REOTRORICS Dim FOR REFERERCE •- CD LX EF0TROBICS PLA3S FOR REFERERCE •- C •- (=0WT) C-80 CR «D ADDITXOSAL DATA, SECORO OF ISO RECORDS C CC PBESEBT IF CR .GT.O C CL (IBBS (I) ,I=1,H3EODP) , (PHO(I| ,I=1.fGBOOP) . (BATA (I) ,I*1,EGRODP) C CV 3«VGROOP c CO I BBS BEOTRORICS ITERA7IOR FUGS CD RHO BEOTBOaiCS ITEFATI09 DATA CD BATA BEOTROVICS ITEPATIOB DATA C CI BOTE VOVSTABDARD DATA TYPE OBDER C THERE ABE RPV SETS OF TEE FOLLOWING TVO PECORDS CB 5D LOCAL FLOX RECORD REFEFEVCE DATA C CL (XFV(I),I*1,10),BLP.HBZ, (IF?(J),J*1,8) C CV 20 c CD XFT(1) BEFERERCE VOL03E, CC CD XFT(2| REFERENCE POVEF LEVEL, WATTS CD BLP ROBBER OF LOCIHOBS FOR VRICH DATA IS GI'EB CD HRZ REPERERCE ZOBE ROIIBErf C CR 6D LOCAL RE0TROB FLOX VALOES C CL ((PLF(K,!l),K*1,«GROaP),n-1,BLP) C CV VGRO0F*RLP C CD FLF LOCAL VALOE OF THE RE0TRC3 TOTAL FLOX, CD AS ASSOCIATED WITH A SOB-TOLDBE VITHIV THE CD REFEREBCE ZOBE HRZ C c c CEOf RTFLOX C-81 SPECIFICATIOHS FOB ISTEBFACE FILE FIXSBC C REVISED 07/23/T5 - RETISED OB/01/80 C cr FIISRC c CE DISTRIBOTED ABD SURFACE FIXED SOURCES C (;•••••••*••••*•••••*••••••••••**•*••*•••••*••*•**••••••*•••••**•*••«**••- CR FILE IDEHTIFICJITIOB C CL HUH "IE, (HOSE (I), 1=1, 2) .ITERS C CR 1O*!!0LT=H0nBER OF WORDS C CD HEAHE BOLLERITB PILE RARE - FIXSRC - (16) CD ROSE(I) HOLLERITH DSEP IDEBTIFTCATIOB (A6) CD ITSRS FILE TERSIOR BOBBER CD not? DOOBLE PRBCISI3R PARAHETEB CD 1- 16 WORD IS SIHGLE WOBD CD 2- A6 WORD IS DOOBLE PRECISXOH HORD C CR SPECIPICATIOBS (ID RECORD) C CL ITYPE,BDI!f,RGROOP,RlRTI,RIRr!,RIRrK,IDISTS,BDCOKP,HSCOBP,BEDGI, CL REDGJ,*EDGK C C« 12*B0REER OF WORDS C CD ITTPE TTPE SOURCE. CD 0*DIFPOSIDR CD 1*SR CD RDIH ROBBER OF DIHERSIORS CD RGBOOP ROBBER OF 3BO0PS CD RIRTI ROBBER OF FIRST DIHEBSIOB FIVE RESB IRTBBfALS CD VIRTJ ROBBER OF SECOBD DI3EHSIOR FIRE BES0 IETERTAL3 - CD RIRTF ROBBER OF THIRD DIRSVSIOB FIRE HESR IRTEBTALS C CR FOR RESRPOIRT EDGE LOCATIONS, BIBTI, RIBTJ, ARD RZBTR IRE *- ClC IRrEBPRETED AS THE ROBBER OF POXITTS (ORE ROBE THAR TBI •- CR ROBBER OF IBTBRTALS) •- CH FOR SPECIAL TRIARGOLAR GEO.IETRIES, KT»TI IS TBE ROBBER nv •- CB POIRTS OR EACH PURE, AED RIRTJ IS SET TO 1. •- C (CORT) C-82 CD IDXSTS DISTRIBUTED SOURCE TIVZ. CD 0* RO DISTRIBRTED SOURCE GITEI. CD 1* DISTRIBOTED SORRCB IS GIVER BT POtHT •- CD 7" DISTRIBUTED SCOtCE IS 6ITER BT ZOIE •- CD 3* SURE »S 1 DOT IB ADDITIORAL RECORD IS •- CD PRE5ERT AT ERD OF DATA *- CD »= SIRE »S 2 BBT AH AbDITIORAL RECORD IS •- CD PRESEHT AT ERD OF DATA *- CD BDCOffP ROBBER OF DISTRIBUTED SOURCE COHFORBRTS CD - ROBBER OF ZORES IF IDISTS IS 2 OR « *- CD RSCO CR OHE-DXREHSIORAL DISTRIBOTED FIXED SOORCE (2D RECORD) C CC PRESERT IF RDIR.EQ.1 ARD IDISTS IS 1 OR 3 •- C CL ((Q.DIST(L,I),L»1,RDCOBP),I*1,RIRTI) ROTE ST P. OCT ORE BELOW C CR HDCOHP*RIRTI*R0BBBR OF HORDS C CS DO 1 J«1,R6R00P CS 1 READ (R) *LIST AS ABOVE* C CD QDXST(L,I) DISTRIBOTBD SOORCE TIRES POIHT TOLOBE'CC) *- CD BT C0BP0BER7, IHTBRVAT., ARD GROOP »- C C „ C CR B0LTI-DIBBHSIORAL ?ISTRIBOTRD FTXED 5O0RCB (3D RECORD) C CC PRESERT IF t 'IK.GE.2 ABD IDISTS IS 1 0* 3 *- C Ct ((QDIST(I,J),I«1,RIRTI)#J»1#RIHW» ROTE STBOCTORE BELOW C CO RIRTI*RIRT''ROBBER OF VORDS C CS DO 1 R«1,RGR00P CS DO 1 L«1,RDCOBP CS DO 1 K>1,RIRTK CS 1 READ (>) «LIST AS ABOVE* C CD QDIST (I,J) AS DEFIRED AfOVE. C (CDRT1 C-83 CR FIRST OIHEBSIOB SURFACE SOURCE POIBTEBS (*D RECORD) C CC PRESEIT IF BE3GI.NE.0 C CIT ROT ALLOWED IR TENTORE C CR FIRST DIHENSION SURFACE SOURCES (5D RECORD) C CC PPESEVT IF RED6I.RE.0 C CR ROT ALLOWED IR TERTORE C CR SECORD DIHESSIOR SURFACE SOURCE POINTERS (6D RECORD) C C PRESENT IF NDIH.GE.2 MID NED6J.NE.0 C CR NOT ALLOWED IN VENTURE C CR SECOND DIHENSION SURFACE SOURCES (7D BECOBD) C CC PRESENT IF NDIH.GE.2 AND NED6J.NE.0 C CN NOT ALLOWED IN VENTURE C C CR THIRD DIHENSION SURFACE SOURCE POINTERS (8D RECORD) C CC PRESENT IF WDIJI.EQ.3 UNO NED6K.NE.0 C CN NOT ALLOWED IN VENTURE C C C , CR THIRD DIMENSION SURFACE SOURCES (9D RECORD) C CC PRESENT.IF NDIH.KQ.3 AND NEDGK.NE.O C CN NOT ALLOWED IN VENTURE C (C5NT) C-84 CB S0BICB BT ZOIB in 6B0BP (100 BBCOBB) *- C •- CC PIBSBIT IP IDXSTS IS 2 OB * *~ C •- CL ((ZS3R(L,*|,L>1,BDC0aP|,B*1,B6B00Y) *- C •- CI BDCORP*B5B00**B0HBKB OP VOIDS *- C •- CD ZSOR(L.I) SOB ICE BT ZOBZ IBB 6BOTO - BOT BBX.TXBUBD •- CD BT ZOBE rjLOBE •- C •- C IDDXTIOBIL IZCORD IP IDXSTS IS J OB * (11D BECOBD) *~ C •- CL (B(B),B«1,20) •- C *- CB 20-IOHBZI OP VOIDS *- C *- CD Bfl) KEPPECTITE •- C *- C CEOP nxsic c C-85 svEczrxckTiois rot XBTEBPICE PILE SEIBCB C BBVZSED 07/22/75 - REVISED CB/01/80 C CP sattea -xzi c ce caiTzcaun saaaca FILE c £*•»*•••*•*•••«•••••#*•*•*#••••*••••••••••••**•***•*•*••*••••••••***••*•. ct ma xDBaTxrxcaTXoa c ct BRIBE, (BBSP(D,1-1.2) ,IVEBS c cv IO*BBII»BBBBEB or aoaas c co aatHB BOLLERZPB PZLS BIBK - SEIBCB - ao CD BBSE(I) aotiaazra osra IDEBTITICITIOB (»6j co XVEBS PILE VSBSIOB ROBBER co BELT DOBBLE PBECISXOR paaiBETn CD t- R6 BOBD ZS SIB61E BORD CD 2- *6 BOBD IS BOBBLE PRECISIOR BOBD C CB ZRDZVIDOftl DIM SET IOrfTIPIEB (ID BECORD) C CL BSBZD,SREC,(B5P(Z),Z*1,181 c C* 20*B0BBER Or BOBBS C CD BSBZD POSITIVE XBTESEB XDBBTZPTIB6 I SET OP SEftRCR CD DITB, TBIS IBD POtlOVXBC BECOBBS BEPUTED CD BBTZL BE31TIVE BSBZD TZRBXBATES PILE CD BBEC BBBBEB JP PECOBDS TO SKIP TO POSZTIOB OB BEXT - CD IBBIVIDORL OHI SET ZDEBTZPZBB BECOBD CD BSP(I) BESEBVED C CB PILE SPECZPZCITZORS (2D BECORD) C CL EPPR,DREPP,EPSB,rPSEI,CBO0,(SBCB(C),I«1,S),XSBCB,XSZ9r,BB*XRP, CL BCIBTI,BCIBTJ,BCXBTK,BXSOSB,BSETS,BEXBBG,XTEBD,XCEBD, CI {BBCB(I),I"1,19) C Cf BO-BVRBEB OP BOPDS C CD EPPR DESZBED ROLTXPLZCtTZOR PACTOR CD DKEPP ROLTZPLXCariOB PRCTOB SLOPE (C3BT) C-86 CO EP5K CONVERGENCE CRITERIOR TO BE BET BT EFFK CD EPSEI CONVERGENCE CRITERION TO BE BET BT PRISAEY CO VARIABLE CD CROD HODIFIER APPLIED TO BOCLIDE CONCENTRATIONS CD VARIED SPECIALLT (XSRCH'T BELOW) ,HAT BE CO .LT.O CD SRCfl(I) RESERTED CD ISRCH TTPE OF SEARCH CD 0- BOT DEFIBED CO 1- BOCKLIHG SEARCH CD 2- ALPHA SEARCH CD 5- DIHEBStOB SEARCH CD 7- HOCLIDE COBCEBTRATXOB SEABCB ST CD PROPORTIONAL ADJOSTHEHTS OF SELECTED CD IBITIAL =DHCENTRATIOHS CD 9- BOCLIDE CONCENTRATION SEARCH BT ADDIB6 CD WEIGHTED EIGENVALOE ADJOSTHENTS CO TO SELECTED IBITIAL CONCENTRATIONS CD ISZOP SDBZOVE OPTXOB FOR ISRCH « 7 OR 9 CO 0- SEARCH DATA IS BT ZOBE CD 1- SEARCB DATA IS BT SOBZOBE CD BHAXRP HAXXROH BOBBER DP BEOTROBICS PROBLEHS OR TRIAL CD EIGEBVALOES ALLOBED IB A SEARCB. A ZERO CD HERE SPECIFIES A DIRECT SEARCH. CD BCIBTI BOBBER OF FIRST DIBEBSIOB COARSE BESB XBTERTALS CD BCIBTJ BOBBER CF SECORD OIBEBSIOB COARSE BESH CD IHTEBTALS CD BCIBT* BOBBER OF THIRD DIHSBSIOB COARSE SESB IBTEBVALS CD BISOSR BOBBER OP ISOTOPES OS BDCLIDES XBVOLVED IB CD CORCEBTSiriOH SEARCH (ISRCH = 7 OR 9) CD BSETS BOBBER OF SPECIFICATION SETS IB COBCEBTRATIOB CD SEARCH (I5RCH = 7 OB 9) CD HEIRBG EIGENVALUE (EI) RABGE RESTRICTIOBS. SEARCH CO TERHIRATED IF SPECIFIED RABGE IS VIOLATED. CO -1 EI.LT.9 CD 0- BO BESTRICTIOB OB EI CD 1- EI.GT.O AHD .LT.1 CO 2- EI.GT.1 CD ITEMD TBRHIHATIOR OPTION OB ITERATIVE PROCESS. SEARCH CO IS LIHITED BT BHAXBP,BOBBER OF OOTER CD ITERATIO«S,OR OTHER PARAMETER,THEN CD 0- BO RESTRAINT CD 1- TERBIBATE IF CORVERGEBCE CRITERIA ARE CD BOT HET CD 2- IP CONVERGENCE CRITERIA ARE ROT (1ST. CD TERMINATE OBLT IF PROBLEB IS BO? CD COBVERSIH;. CD ICEND TERBIBATION OPTIORS OH HOCLIDE COHCEHTRATIOSS CD 0- TERHIKXTE IF ART HnCLIDE CONCENTRATION CD BECOHES NEGATIVE AT ART STAGE OP THE CD CALCOLATX3R CD 1- TERBXEUTE IF ART BOCLIDE CONCENTRATION CD IS HEGATIVE AT THE END OF THE SEARCH CO 2- ALLOW FE3ATIVZ NUCLIDE COBCEBTRATIOBS (C3BT) H C-87 CD RRCH(I) .ST.O - IRDICATES THAT BACROSCOPIC CROSS CO SECTIORS (RE TO BE RECALCULATED DORXHG CO R DIRECT SEARCH CD BRCH(2) .GT.O - IRDIC1TES SSCOBDRRT SEARCH CO SPECXPIC&TIOHS (REFERENCE SET) -RE TO BE OSED CO IP THE SPECIFIED COHSTRRHTS OR THE SEARCH CO EIGERULOE ARE ROT SATISFIED OSIBG THE CO PRXRRRT SEARCH DATA CD RRCH(3-19) RESERfBD C c CR COARSE HESH HODIFIERS FOR DIHEHSXOH SEARCH CR (3D RECORD) C CC PRESERT IF ISRCH.ZQ.S C CI (SRHDI (II ,I*1,RCIHTI) , (SRHDJ(J) ,J«1,RCI»TJJ , (SRHDK(K) ,R>1,HCIHTK) C CR RCIKTI*RCI!ITJ*RCI»TK«H0HBER OF WORDS C CD SRHDI(I) FIRST DIHEHSIOH COARSE HESH HOPXFIERS CD SRHDJ(J) SECOHD DXHESSXOR COARSE HESH HODXFXERS CD SRHDK(K) THIRD DIHERSIOR COARSE HESH HODIFIERS C CR R0CLIDES FOR PROPORTIOHAl SEARCH ARD SPECIAL SEARCH CR («D RECORD) C CC PRESERT IF ISRCH.EQ.7 C Ct (BSHZ1(I|.I«1.HSETS>,(RSHZ2(I),I*1,HSETS), CL ((HRRAHS(R.X) ,B«1,HISOSR),I»1.RSETSJ,(HHSHB(J),J«1,10) C CR 2«RSETS*nOLT*(HXSOSR*RSETS»19)>H(INBER OF RORDS C CD RSHZ1(U FIRST ROHBER OF A CORSEC0TITE SET OF IOHES CD IF XSZOP.EQ.0, OR OF A COHSZCOTXVE SET OF CD S0BZOBES IF I5ZOP.EQ.1 CD RSHZ2(X) LAST RORBEP OF A SET OF ZONES OR S0BZ0HE5 CD HHHARS(R,I) REFERERCB BAHB5 OF HOCLIDES RHOSE CD CORCERTRATXORS ARE TO BE ADJUSTED CD PROPORTIORATELY IB ABOVE ZORES (A6) CD RRSRR(J) SEARCH NUCLIDE REFERENCE OSED AS ROTED BELOR CD (A 6) C (CDHT) C-88 CC HBBAHS COarERTRkTIOHS ADJUSTED ACCOBDIBG TO CC C2 = C1*EI AHD BHSRR CORCEBTBATIOXS ADJUSTED CC ACCORMBG TO C2 =C1 • C1*(1.0-EI) *CHOD BHEBE CC EI IS THE EIGE5VAL0E. CC Ct IS THE ISITIAL COBCERTRATIOB, ABD CC C2 IS THE FIHAL OR IBTEBHEDIATE VALUE OF CC THE COBCERTRATIOH C CR ROCtlDES FOR SEARCH IBrOLTIRS REIGHTED EIGEBVALIE CR ADJOSTREHTS TO IBITIAL CORCEBTRATIOBS CR (5D RECORD) C CC PRESEBT IF ISRCH.FQ.9 C CL (BSHZ1(I),I=1,HSETS),(HSHZ2(t) ,I=1,BSETS) , CL ((HRRAHS(H,I) ,B*=1,BISOSRJ ,1=1 .BSETS) , CL ((CHZDR(B,I),B=f,HISOSR),I*1,HSETS) C CR BSETS»(2*BISOSH«(1*SDLT))=50SBEB OF RORDS C CD HSHZ1 (I) FIRST HUHBFR OF A COHSECUflTE SET OF ZOBES CD IF ISZOP.E0.0, OR OF A CORSECDTITE SET OP CD SOBZOHES IF ISZOP.EQ.1 CD HSHZ: (I| LAST BOBBER OF A SET OF ZORES OR SOBZORES CD HRHAHS(R,I) REFEREBCE BASES OT ROCLIDES RHOSE CD CORCEBTRAtlOBS ARE TO BE ADJUSTED CD CRZDB(R,I) CORCEBTRATIOH HODIPIERS C CC COBCEBTRAriORS ADJUSTED ACCORDIRG TO CC C2 = C1*EI*CHZDB RHERE EI, CI, ABD C2 ARE CC AS DEFIHED UBDER ISRCH .EQ. 7 C c ^^m********************************************************************^ C CEOF SEARCH C C-89 SPECIPICATIOSS PCS INTERFACE PILE DLATXS £*•••••••••••••••••••••••••••••••••••••••••••••»••••*•••••••••«*•*••••«*. C REVISED 07/23/75 C CF DLATXS - in c CE BICROSCOPIC GROOP DELATED BEPTROB PRECORSOR DATA C CB THIS FItE PB0TE9ES PRECURSOR IIELDS, CS EllSSI05 SPECTRA, ABD DECAT COBSTABTS CB OSDEBED BT ISOTOPE. ISOTOPES ME IDEBTIFIED CB BT ABSOLUTE ISOrOPE LABELS FOR IELATIOB TO CB ISOTOPES IB EITHER FILE XSOTZS OR SROPZS. C CS PILE STBOCTORE CS CS BECORB TYPE PRESEBT IF CS ccxMxssssysrrsxscscsssxssscsss fscsimxszsEiz — CS FILE XDEBTtFICATIOS ALBATS cs FILE COBTROL ALBATS CS FILE DATA, DECAT COBSTABTS, ABD CS ERISSIOB SPECTBA ALBATS CS •••*••••*•••*(REPEAT TO HISOOJ CS * DELATED REOTROB PRJ=0BSO* CS • TIE1D DATA ALBATS CS •••••••*••••• C CB FILE IDEBTIFICATIOB C CL SHARE,(HOSE(I),1-1,2),ITERS C CB 1«3*R0LT«BO!tBER OF WORDS C CD HHAHE HOLLERITH FILE BARE - DLATIS - (A6) CD HOSE(X) HOLLERITH OSER XDERTIFICATXOft (A6) CD ITERS FILE TERSIOB BOBBER CD ROLT DOOBLE-PRECISION PARAMETER CD 1' A6 BOSD IS SIRGLE BOBD CO 2- A6 BOBD IS DOOBLE PRECISIOB WORD C c —. c CR FILE CCHTROL (ID RECORD) C CL BGROnp,*ISOD,BFAn,IDOn c CB ««R0HBSR OF BORDS c (C3NT) C-90 CD BGROOP BORDER OP BEVTROB ERERGT GROOPS IB SET CO BISPD ROBBER OF ISOT3PES IB DELATED BEOTROB SET CD BFAH ROBBER OP '.ELATED BEOTROB FAULIES IB SET CD IDOH DOHBT TO RARE BP POOR BORD RECORD. C C— C CR PILE DATA, DECAT CORSTARTS. ABD EBISSIOR SPECTRA CR (2D RECORD) C CI (RABSID(I) ,I~1,BISOD) . (PLAB(B) , B*1,BPAR) , ((CBID(J,R) , J«1,B6B0BP| , CI I'l.irM) , (EBRX(J) ,J*1,BGROOP) ,EHIB, (RKPAB(I) •I«1,BISO») , Ct (LOCI(I),I«1vRISOD) c CR (2*ROLT|«HXSOD»(RGROOP*1|*(BFAH»1) 'RUBBER OF BORDS c CD RABSIDfl) HOLLERITH ABSOtOTE ISOTOPE UBEt FOR ISOTOPE I (16} CD FLAH(B) DELATED BEOTRO* PRECORSOR DEC1T C0R£TABT CD FOR FRRILT R CD CRIO(J,B» PRACTIOH OF DELATED HZUTRORS EHITTED IBTO BEOTROR CD ERRRGT GROOP J PROS PRECORSOR PtriLT R CD ERA!(J) BAXIH(T1 ERERGT BOVBO OF 6RO0P J fETJ CD ERIB BIBIH09 EBERGT BOOBD OP SET (ET» CD HKTAP(I) BOBBER OF PAKILIES TO BRXCR FISSXOB IB ISOTOPE X CD CORTRIBOTES DELRTED BEOTBOB PRECORSORS CO LOCA(I) BOBBER OF RECORDS TO BE SKIPPED TO READ DATA FOR CD ISOTOPE I, LOCA(1)-0 C r— C CR DELATED REOTROR PRECORSOR TIELD DATA (3D RECORDJ C CL ((SRODEL(JrK),J«1,R5RO0P),K*1,HKFAnX), (HOHFAJ(K),K«1,BKPA?tI) C CC BKFARI«BRFA!I (I) C CW (RGROOP*1)«HKPAHX'B0BBER OF RORDS C CD SBODEL(J,K) ROBBER OP DELATED REOTROR ?»TCOSORS PRODUCED IR CD FARILT BORBBR R0BPAI1 (K) PER FISSIOR IR CD GROOP J CD ROnFAR(K) FABILT ROBBER 3P THE K-TH TIELD TECTOB IR CD ABSAT SR0DEL(J,R| C c C CEOF DLATXS C C-91 5PECIPICATI0BS FOR IBTERFACE FILE PRDIBT C REVISED 07/23/75 - REVISED OB/01/80 C CT PBDIBT c C* KICK DEBSITT BT IBTERVAL C CR FILE IDBBTIFICATIOB C CL HBABE,(RBSE(I),I«1,2>,IVERS C CB 1«3*BOLT«ROBBER OF WORDS C CD HBABE BOtLEBITB FILE BASE - PWDIBT - (»6) CD HOSE(I) RCLLERITH OSES IDEBTIPICATICW (A6) CD ITERS FILE TERSIOB BOBBER CD BOLT DOUBLE PBBCISIOB PABABSTEB CD 1- A6 BOPD IS SINGLE WORD CD 2- A6 BORD IS DOOBLE PRECISIOB BOBO C CR SPECIFICATIOBS (1D RECORD) C CL TIRE, POBER, VOL, IB, JB, KB, BCT, BBLK •- C CB B*BIJKBER OF HORDS C CD TIBE REPBRERCE PEAL TIME, DATS CO POBER POBER LEVEL FOR ACTUAL REOTROBICS PBOBLEB, CD WATTS TREP.1AL CD VOL TOLOBE OVER WHI^H ,WER BAS DETEBBIBED,CC CD IB BOBBER OF FIRST CIBEBSIOB FIBE IBTEBVALS CD JB BOBBEB OF SECOBD DIBEBSXOB FIBE IBTEBTALS C CB FOR SPECIAL TttlABGOLAR GEOHETBIES, IB IS THE BOBBER OF •- CB TRIABCrLES OB EACH FLARE ABD JB IS BOT DEFIBED (SET TO 1| •- C CD KB BOBBER OF TBIBD DIBEBSIOB FIBE 7BTERTALS CD BCT REFEREBCE TOOBT (CTCLE BOBBER) C» BRLK «1 *- C c — CT3BT) C-92 c , CS POffEB DEHSITT TIILOES (2D BECOBD) C CL ((PWB (I,J) ,I=1,IH),J=1,JH) BOTK STEOCTURE B2L0B— C CB U!*JH=BOBBER op WORDS c CS DO 1 K-1,KN CS 1 REftD(B) »tIST IS ABOVE* C CD PBB(I,J) POBEB DEBSITT BI IBTEBVAI., B4TTS/CC C c CEO? PBDIBT C C-93 SPECIFICATIOHS FOB INTERFACE FILE CXSPRB C***»»»* c PREPARED 10/18/73 c CF CXSPRR c CE DATA FOR CROSS SECTIOH PROCESSOR c en SEE IHTERFACE FILE COETRL, RECCBD XCPIBS, FOB BEFEBEHCES CH TO ABHAT IX c C— CS FILE STRUCTURE CS CS RECORD TTPE PBESEBT IF CS £=rsrssszsci CS FILE IDENTIFICATION ALWAYS CS ID FILF. COKTSOL ALWAYS CS 2D CITATION SET RUBBERS BOP(1) ST 0 CS 3D HEOTROH ENERGY SPECTROFI BOP(3) 6T 0 CS l»0 TRANSPORT (10LTIPLIERS BOP (4) ST 0 CS CS *•***•••* (REPEAT FROf! 1 TO BOP (5)) CS * 5D ISOTOPE DATA BOP(5) 6T 0 CS »•••*••*« CS CS *****•**•(REPEAT FROS 1 TO HOP(6)) CS • 6D ISOTOPE HA3ES IB SIXT0RE HOP (6) CT 0 CS • 70 ISOTOPE DENSITIES IB SIXTORE HOP (6) 6T 0 CS CS CS ••*••****(REPEAT FROH 1 TO BOP(6)) CS * 8D JIIXTORE DATA HOP (6) CT 0 CS C C— C~ CR FILE IDENTIFICATION C CL HNAflE, (RDSE(I) ,1 = 1,2) ,ITERS C CW 3*HULT • 1 C CD HUAHE BOLLERITH FILE HAHE - CXSPRR - (A6) CD ROSS HOLLFRITR 0SER IDENTIFICATION (A6) CD ITERS FILE TERSIOH NJHBER CD HOLT DOUBLE PRECISION PARAHETER CD 1 - Ab WORD IS SIHGLE WORD CD 2 ~ A6 WORD IS DOODLE PRECISION WORD C c— i?.sm) C-94 C* ID FILE COBTBOL C Ct (E0P(I),I*1,2«) c CB 2* c CD EOP(1) BOBBER OF CimiOR CROSS SECTIOB SETS TO PROCESS CD (IF BOP(1) EQ 0 AHD 11(3) BQ 1 MD 11(5) EO |, . CD SET ORE SILL BE PROCESSED) CD BOP (2) SCATTERIKG BLOrKIHG FACTOR FOR BOCLXDZ-ORDEEZD CD PHI CREATE!* TROH CITATIOB CROSS SECTIONS CD 0 - B5BLOK = 1 CD V - BSBLOK = I, IF (BGRCOP/B)•• EQ SCROOP, CD OTBEP.riSE BSBLOK » 1 CD BOP (3) OPTIOI TO IHPOr A BED7B0B EBERST SPECTROt! CD 0 - BO CD B ' TES (B SBOOLD BE EQOAL TO THE BOBBER OF CD EBER3T GROOPS OB THE CROSS SECTIOR PIIE) - CD BOP(B) OPTIOB TO CREATE PSEODO DIRECTIOB DEPEHDEET CD TRAWSPOF.T DATA CD 0 - BO CD 1 - TES CD BOP (5) OPTIOB TO IBPOr OTEBRIDE DATA FOR ISOTOPES CD 0 - BO CD B - TES (B IS TOE BOBBER OF RECORDS OF DATA) CD BOP (6) BOBBER OF BIXXOBBS (REOOIRED IF IX(11) EQ 1) CD BOP (7) HtXIROH BOBBER OF ISOTOPES IB AHT BXXTORE CD (REQOI"ED IF XX(11) EQ 1) CD BOP (8*9) BESESTED CD BOP (10) OPTIOB OB OSE 3F THE OVERSIDE DITl FOR ISOTOPES CD BREB BOP(5) GT 0 (APPLICABLE OBIT HHEB CD 11(3) EQ 1 ABD IX(5) EQ 0) CD 0 - DATA CORRESPONDS BXTH THE ORDER OF CD ISOTOPES IB THE FItE CD 1 - DATA IDEBTIPXES ISOTOPES TO BE SELECTED CD BX DBIQOE ISOTOPE LABEL CD BOP(11-23) BESEBTED CD BOP(2») OPTIOB OH EDIT DPHIHG CITATXOB CBOSS SECTIOB CO PROCESSIBG CD 0 - HO CD 1 - TES C (CDJTT) C-95 CP 2D CITATIOH CROSS SECTIOB SET ROSEEPS - c cc PRESERT IP ROP(1) 6T 0 c CL (ISET(I),I=1,HOP1) c - CR ROP1 = ROP(1) C CD ISET SET ROBBERS IV ASCERDING ORDER OP APPEARARCE * CD 19 LIBRRRT C CR 3D RFOTROH ERER6T SPECTR09 - C CC PRESERT IF TOP(3) GT 0 - c CL (RGT(I),I*1,R0P3) - c CR R0P3 * K0P(3) - c CD RGT SPECTRD" FOR REICHTIHG IB RIXTORE CALCULATIOR c - CR *D ROLTIPLIERS FOR TBAHSP3PT CROSS SEC7I0H - c cc PRESERT IF ROP(B) GT 0 - c CL (TRHOO(I) ,1*1,3) - c CR 3 C CD TRHOD R0LTIPLIER FOR EACH COORDINATE DIPECTIOR - CD STRPD(I) « TRHOB(I) *STRPL(1) FOR EACH ERERGT C CR 5D ISOTOPE DATA C CC PBESERT IF HOP(5) GT 0 - cc THERE ROSr BE ROP(5) RECORDS c RHER HOP(10) EQ 0, CR THIS DATA RAT BE USED RHER IX (3) FQ 1 TO CORTROL THE — CR PROCESSIRG OF THE IffPUT CROSS SZCTTOHS. THE ORDER CR OF THESE RECORDS HOST BE ORE-TO-ORE RITH THE ORDER CR OF THE ISOTOPES IR THE INPUT CROSS SECTIORS. FOR EACH CR IS3TOPE READ FROH THE IRPOT CROSS SECTIORS, ORE RECORD C* IS READ PR0.1 THIS DATA CR (CDRT) C-96 CH CH A) IF HISORH EO. 6HDFLETE, THE DATA FOB THIS ISOTOPE CB IS ROT HRITTEH OH TnB HER HOCLIDE-ORDEBED FILE c» B) IF HISORH RF 6HDFLETB, THE DAT* FOR THIS ISOTOPE CE RILL BE COPIED TO THE HER R9CLIDE-ORDERED FILE (ROH-BLARK OR HDH-ZFRO DATA RILL REPLACE THE CH DATA 071 THE REV FILE) CH CH C) IF AFTER READIR3 HOP(5) RECORDS, THERE ARE ISOTOPES REKAlillHG IM THF IHPOT CROSS SECTIOHS, THOSE CR RKHAIRIHG RILL BE DELETED FRO* THE HER FILE CH CR tTHEtt HOP MOl BD 1 CR THIS DATA HAT BP OSBD RHSH IX(3) EQ 1 AHD IX(5) EQ 0 TO CR CORTROL THE CORTEHT OF THE RER ISOTXS FILE. THE ORDER CH OF THE RECORDS IS HOT SPECIFIED SIRCE THE OHIQOE LABEL CR (HISORH) IS DSED TO inf.HTIFr ISOTOPES TO BE COPIED TO CR THE HER FILE. HOS-BLAHK OR FIOR-ZERO VALOES FOR THE CR RPST OF THE DATA RILL BE POT OR THS HBR FILE. CR THE DRIQtTF. LABEL CAR HOT BE CHARGED WHER OSIHG THIS OPTIOR. CR CR IF THIS DATA IS ROT PRESBHT, ALL ISOTOPES OR THE IRPOT CR CROSS SECTIOHS RILL BE COPIED TO THE HER FILE C Ct HISOHH,HAeSID,HH.tT,A!IASS,EFISS,ECAPT,KBR,(IOP(I),1=1,3) C 3*HDLT • 7 C CD HISOHH HOLLERITH ISOTOPE LABEL (OHIQUE) (A6) CD HABSID HOLLERITH ISOTOPE LAB'a (ABSOT.OTE) (A6) CD HK.'.T HOLLERITH xSOTDPE LAE2L (REFEREHCE) (A6) CO AHASS GRAH ATCIUC HEIGHT CD EPISS TOT»L THERHXL ERERGT TIELD/FISSIOH (R.SEC/FISS) CD ECAPT TOT'.L rHERF/.L FBERGr yiEtD/C»PT0HE(B,GAHHA) CD («. SEC /CAP!) CD KBR ISOTOPE CLASSIPICATIOR CD IOP RESERVED C— C— CR 6D ISOTOPE RAHES IR HIXTUPK C CC PRESENT IF NOP(6) GT 0 CC THIS RECORD AHD THE RECORD FOLLOWING APPEAR IR PAIRS CC THERE HOST BE NOP(6) PAIRS c CL (HISOSX(I) ,I=1,HOP7) c CR HOLTMOP7 « H0LT«S0P(7) CD HISMX OHIQOE RARE OF ISOTOPE TO BE IHCLODBD IK HIXTORE CD (BLANK NAHFS ARE XGNORF.D) C CR AHT ISOTOPE IltCLUDED IF A HIJCTORE RILL BE DELETED FROH THE CR NEW FILE C (SORT) C-97 c~ CP 7D IS3T0PE DEHSITIES IH SIXTOPE c cc PPESERT IF HOP(6) CT C c CI. (RDEHS(I),I = 1,H0P7) c c» ROP7 = BDP(7) c CD RDEH5 DEHSITT OF ISDTOPE TO BE IHCLODED II HIXTORE c— C— CR 8D HIXTORE DATA C CC PRESERT IF HOP(6) 6T 0 CC THBPE HOST BE RO?(6) RECORDS C CL HISORH,HABSID,HHAT.AHASS,EFISS,ECAPT,KBR,(IOP(I) ,1*1,3) c cw 3*H0LT • 7 c CD HISOBa HOLLERITH HIiriRE LABEL (ORIQOE) (A6) CD HABSID HOLLERITH HIXmRF. LABEL (ABSOLOTE) (16) CD HHAT HOLLERITH HTXTDRE LABEL (REFERERCE) (A6) CD AHASS GRA3 ATOHIC HEIGHT CD EFISS TOTAL THERHAL ERERGT IIELD/FISSIOH (V.SEC/FISS) CD EC APT TOTAL THERRAL EHEBGT TIELD/CAPTORB(H,GAEHA) CD (». SEC/CAPr) CD ICBR HIXTORE CLASSIFICATIOR CD IOP RESERVED C CH HOR-BLANK DATA SHOOLD BZ T,IED FOR LABELS CR AVD HOH-ZERO DATA FOR r" ' CR Al'SS, EFISS, AHD ECAP; ••• ALCOLATED FOR HIXTORE BOT CR HAT BE REPLACED BT NOR " 3(TRIES C C— C*»»«»**»********»*•**********•**••«•••****»****•*»***•**•••*•••••*••**»- C CEOF CXSPRR C C-98 SPECIFICATIORS FOB IBTERFACE FILE FPRIRT C*****«*****«*«*******************************«*******«**«********»*****- C REUSED 1C/18/73 C RETISKD a/1»/75 (OBBLJ C REUSED 11/16/76 (OBBL) C CF FPRIRT C CE CODE-DEPEBDPBT IBPOT D»TA FILE FOR PRIBT BODULE C CI COBTROLS FILE PRXBTIR3 AID PDRCHXHG. CS FILES Bar BE PRIBTEO AFD/OR SATED IB CARD IBAGE FOBB CR SUITABLE FO» IRPOT TO THE STABDARD IRPOT PROCESSOR. CB THE CARD IMAGES HAT BE SATED OR TAPE, DISK, OB CARDS. C C#»*******************#******«**«*************************«*************- CS FILE STRUCTURE CS CS RECORD TIPS PRESERT IF CS CS OV PILE IDEBTIFICATIOR ALWAYS CS ID FILE COBTROL ALBATS CS * * * • • •(REPEAT FROH 1 TO HSPECS) CS * 2D FILE PRIWT/POBCH COJTROL ALBATS CS • 3D RECORD-TTPE I.D. lOfBERS IFREC.GT.O CS ••#••* CS c c CR FILE IDERTIFICATIOH C CL HW»HE,(H0SE(I),I«1,2),ITERS C CB 3*S0LT*1 C CD HBARE HOLLERITH FILE BABE - FPRIBT - (A6) CD HOSE(X) HOLLERITH 3SER IDEBTXFXCATIOB (2*6) CD ITERS FILE TERSIDB ROBBER CD BOLT DOOBLE PRECISXOR PARAHtTEB CD 1- A6 V3RD IS SIBGLE BORD CD 2- A6 V3RD IS DOOBLE WORD C C3BT1 C-99 c— CB ID PILE COBTROL c CI •SPECS,BBC9,BSTOP,BDOB c CB * c CO BSPECS BOflBEB or STAEDARD FIVES TO BS PROCESSED CO (BBS7 BE .LE.20) CD BBCD OBIT BOBBER FOR SATIBG FILES IB CARD XBA6B FOBS CD DEPABLT IS BBXT 7 ABD BO EBDFILE OB BBBXBB CB IS PEKP3BBED. ABT OTBEB BBXT SPECIFIED BILL CD BB CtCSED OBT BITB EBDFItE ABD BBBIBD. CD BSTOP OPTIOB TO PLACE TBE CBARACTBRS 'STOP* AT TBE CD EBD Or TRE CABD XBASES CD 0- TBS CD 1- BO CD BOOB OPTIOB TO PBBGE OR R.TTAIR TBE PPBIBT FILE CD AFTER EXECOTIOS OF LASL PBXBT/FBBCB CD PROCESS3R CO 0- POR3E CD 1- RETAIB C c— C— CH 2D FILE PRIBT/POHCK COBTROL C CI FILEID,ITER,ROPT,RFREC c cw !WLT» 3 c CD PILEID HOLLERITH BABE 3P FILE TO BB PROCESSED - (16) CD ITER VERSIOB OP FILE TO BE PROCESSED (IF ITER«0, CD TRE LATEST TEHSIOB BILL BE PROCESSED) CD ROPT PRIBT/POBCR OPTIOB CD 0- PBIBT OBLT CD 1- PBBCB OBLT CO 2- PR I It r ABD PORCH CD RPREC SELECTED RPCORDS FLAG CD .RQ.O - PRIBT COMPLETE FILE CD • GT.O - PRIBT SELECTED BECOBD-TTPES AS CO SPECIFIED IB TBE BEIT RECORD CD (HOST BE .LB.10) C- (COBT) C-100 CR 3D RECORD-TYPE I.D. ROBBEPS C CC P9ESEBT ir BPBECGT.O C CL (ID(I),I*1,RFREC) C CV BFREC C CD ID(I| IDERTIPICtriOR BORDERS OF SELECTED CD RECORD-TYPES TO BE »IIHTED CD (HOST BE .LE.IO) C c CEOF FPRIRT C C-101 Figure C.4. Newly Defined Files SPRCIPICATIOBS FOR XRTBRFACE FIXE EXPOSE C REFEREBCB 02/01/79 OBRL-5180 C CF EXPOSE C CB DATA FOR EXPOSORE CALCOLATXORS c CB THE BftSXC DATA REaOXRED FOR S0LTXR6 TBE CHIIB CB EQBATIORS XDEBTIFXES ROCLIDES, FXSSXORXBG CB EOCLXDES, FISSIOB PRODOCTS. RED GXfES DECAI, TXELD, EEERGT, - CR UB COOPLIBG DATA C c— CR FILE IDEBTIFICATIOB C cx CBARE, (BBSS (I) .1-1*2} .ITERS c c» 3*801.? * 1 c CD RBAHE FIXE RARE (A6| 'EXPOSE* CD ROSE DSER XDEBTIFICATIOB (A6) CD ITERS FILE FERSIOB ROBBER c CR RDIT 1 FOR LOEG RORD, 2 FOR SHORT RORD RACHIBES c c— C— CR ID FILE BEFEBEKCE IBPORRATIOR C CI EEXP1,RIS0E,BRHOPT,flTER,RGER,BPSLR,EFPR,RDCTR,EEXP9,BEXP10, CI BEXP11,EBATXE.LSEXCB,LBEXCR,BEXP15,UOEDCT,BOEFIS,EOECAP, Ct BEXP19.REXP20 C CB 20 c CR OBDEFXRED DATA XS RESERTED TOR FOTORE OSE c CO REXP1 DOCOBERTXRG FILE REFERERCE BDRBER CD BXSOE RErERERCE ROBBER OF ROCLIDES CD HOST BE BOR-ZERO CD EAROPT OPTIOB OB EOCLXDE BARES CD IF 0 - THET ARE IBSOLOTE BARES CD IF 1 - THET ARE OSER LABELS C CB IB FILE I50TXS, ftBSOLOTE KAHES ARE CR RABSXD, RHILE OSER LABELS ARE HZSOBR C CR OBXQOE BARES APE REQ0XRED HERE C (CORT) C-102 CD BTEB B0H3E* OF EBER3Y RABGSS FOP YIELD DUB CO (6EBEBIII.LT BOB-ZERO) CD BGEB BOBBER OF EBERGY RABGES FOR GARHA RBTS CD BFSLR BOHBEB OF IDERTIFIED FISSILE BOCLIDES RBICB FIELD CD FISSIOS PBODDCTS CD BFPR BOBBER OF FISSIOB PRODOCTS HATIHG TIELD CD BDCTP BOBBER OF BOCLIDES BHICB DECAY CD BEXP9 RESSSTED CD BEXPIO RESERTED CD BRXP11 RESERTED CO BRATXE OFTIOB IF .GT. 0 I30ICATIRG THE BOHBEB CD OF BATSIX EXPOBEBTIAL DITI EBTBIES CD LSEXCH OPTIOS IF .GT.Q I3DICATIHG THE BOBBER CD OF EBTBIES IB THE S3PPLEHEBTXBS TABLE OF EXPLICIT CO CHBIB DATA (OSED BITH RATRIX DATA) CD LBEXCH OPTIOB IF .ST.3 IRDICATIBG THE ROBBER CD OF EBTBIFS IB THE BASIC TABLE OF EXPLICIT CD CHAIB DATA (OSED OBLT ALOBE) CD BBXP15 RESERTED CD BOEDCT OPTIOB IBDICATIBG DATA FOR THE DECAF PROCESS CD IS IBCLODED FOP GARB A RATS ABD BETA PARTICLES CD BOEFIS OPTIOB IBDICATIRS DATA FOB THE FISSIOB PROCESS CD IS IBCLODED FOP. GAM A BATS ABD BETA PABTICLES CD BOECAP OPTIOB IBDICATIBG DATA FOB THE CAPTORS PROCESS CD IS IBCLODED FOR GABBA BATS ABD BETA PARTICLES CD BEXP19 RESERTED CD RESERTED C BEXP20 c— C~ CB 2D TITLE ABD HOCLIDE BANES C cc ALUAIS PRESEBT c HEREAFTER ALL REFEBEBCES TO BOCLIDES IB THIS FILE ABE CB BT THE ORDER BOBBER IB THIS TABLE OF BAHES CB c (HTL (J| , J«1,12| , (HBOC (I) ,I«1, BISOB) CL c H0LT*(12»BIS0E) CB C HTL DOCOHEBTIBG TITLE (12A6) CD HBOC(I) BARE OF BOCLIDE ORDERED I (A6) SEE BAHOPT OPTIOB CD C ALL BOCTXDES TO BE TREATED (EXPOSORE CALCOLATED) HOST BE CB BARED IB THIS LIST (BOFHALLT EXCLODE COOLABT, STROCTORE). CB (COHT) C-103 c CB •HEW TRE AVERAGE GEBEPATIOB BATE RETROD IS OSED, TRESE CB SPECIFICATIONS ABE PB3CESSED IB TR* OBDEB XB THIS LIST, SO - CB TRET SBOQLD BE ORDEBED ALOEG CHAIRS, DOHXBAflBG BOOTES FIBST- (EtABPLE, n P0« I..IE, KE..CS), PISSIOB PBODBCTS LAST. - CB C CB BBCLIDES SPECIFIED HEBE BBT ASSERT IB TRE STSTER OP COOBSE - CB BBE BOT TBEATED - XHPACTS UI BOCOREBTEO EL5ERBERE. C C— C CI 3D BEFEBEBCE DATA C CC FBESERT IF BYES*BCEB»BFSLR»HFPR«RDCYR „CT. 0 C CL (YEB(B),E>1,BYBB),(GEE (J),J>1,EGER) ,(IPSLB(E) , K*1 ,BFSLB), CI CIFPB (LI ,L*1,ETPR) , (IDCTB (I| »I*1,BDCYBJ c CB BTEB»BGEB*EFSLB«BPPB»BDCTB c CD TEP LOBEB EBERGT 3P BAB5E OF XBCIDEBT CD BEOTBOB EBEBGT (EV) , DECBBASIBG ORDER CO (LIST BORBEB TTPICALLT ZEBO, SIBGLE TILDE 0S0ALLT 0)- CD GEI HEAS OR EFFECTIVE ESEBGT OF EACB RAHGE CD OF DATA FOB 3AHBA BAT EBE»GY DATA, ORDEBED BI CD DECBEASIBG ERERCT, FOB DOCOHEETATIOB (ET FEB PABT.)' CD IFSLB BEFEBEBCE ORDER BOBBER OF IDENTIFIED CD BOCLIDES BHICS FISSIOI CD IFFB BEFEBE9CE OBDEP BOBBER OF FISSIOB PBODOCTS CD (BOCLIDES FOB WHICH FISSXOB YIELD DATA IS GIVER) CD IDCTR BEFEBEBCE OBDER BOBBER OF BOCLIDES BBXCB DECAY C C C CB AD DECAY DATA C CC PBESEBT IF 9DCYB .GT. 0 c CL (»LB0A(I),I«1,HDCTR) c CB BDCYB C CD ALSO* TOTAL DECAY COBSTABT FOR BOCLIDE OBDERED I IB THE CD BEFERSBCE SET IDCTR(I) (SEC-1) C C (COHT) .-'*-"-*2l C-104 ,a c CD OHLY KOCLIDES SITES IK THESE CHAIRS BILL BE TREATED CH (EXPOSED) C c~ C— CR 9D DECAY ERERGY RELEASE DATA C cc PRESEHT IF nOEDCT .ST. 0 .AHD. HDCYR*(RGER»2) .GT. 0 c ct ((E5A!IA(I,3),I=1,RDCIR),J=1,*GER),(EBETA (I),I=1,RDCTR), ct (EDCY (11,1=1, HDCYR) c CR RD. rR*(R6ER«2) c CD EGAHA(I,J) TRE AHOBRT OF ERERSY RELEASED PER ATOHIC CD DECAY OF PAR EH HdCLIDE IDCTR(I) CD AS GASHA RATS IR ERSBGY RARGE 3 (EY) CD EBETA(I) TRE AflOBHT OF PRERGT RELEASED PER CD ATOMIC DECAY 3P PARRUT SOCLIBE IDCYB(I) CD AS BETA PARTICLES (EV) CD EDCY(X| THE ABOB1T" OP EBERGY RELEASES PER ATOHIC DECAT OF CD PARERT * r JLIDE IDCYR (I) , (EVJ C C— C— CR 10D SPCOHDARY ERERGY FROH FISSIOH C CC PRESEHT IF ROEFIS .ST. 0 .ARC. MFSLR*(H3ERM) .GT. 0 C CL ((EFGAft (CDHT) k C-105 CB 7D CHAIR DATA, SUPPLEHEH7AL EXPLICIT C CC PRESENT IT LS2XCH .ST. 0 C CL (HSXCH(T) ,I=1,LSEXCH) C CR LSEXCH C CD RSXCH ERTBI IR THE SOPPIESEHTAI, EXPLICIT CHAIR CD DATA TABLE (SEE DESCRIPTION BELOR) C CR 80 CHAIR DATA, COMPLETE BASIC DATA TO APPLT EXPLICIT SOLOTIOH - C CC PFBSERT IF LB5ICH .GT. 0 C CL (RBXCHCH,I=1,LBEXCH) C C» LBBXCH C CD RBXCR EHTRT IR THE BASIC EXPLICIT CHAIR DATA TABLE, CD OUTLINED HERE C CR THE FIRST ERTRT IS THE FIRST NUCLIDE IR THE FIRST CR CHAIR. THE REXT EHTRI IS THB TRARSBOTAriOB PROCESS FCR CR GENERATION OF THE PRODUCT (SEE THE VALUES OF HATXE(3,Z) IR - CR THB TABLE ABOVE). THB REXT ERTST IR THB LIST IS THE FIRST - CB PPODOCT IB THE PI5ST CBAIB. THUS FOB H BOCLIDBS IR A CHAIR,- CR THERE ARE 2*(»-1)*1 ERrFIBS FOR THE CHAIR. THER THERE IS A - CR ZERO EBTBT. DATA FOLLOWS FOR THE HEXT CHAIR. A FIRAL CR EXTRA ZERO IS PLACED At THE END AFTER THE LAST CHAIR BHICH - CH FLAGS THB END OF CHAINS. TWO ZERO EHTRIES AT THE ERD. CR ENTER ACTIBIDB CHAIRS FIRST. C CR REPEAT OF A NUCLIDE REFERENCE IR A CHAIN IS ROT ALLOWED. CH GIVER A FIRST APPEARANCE IR ORE CHAIR, SUBSEQUENT ERTBIES OP- CR A NUCLIDE REFESEBCE INDICATE OTHER GEHERATIOR ROUTES WHICH - CR CONTRIBUTE IRDEPERDENTtX. CARE HOST BE TAKER TO SUPPLI CR REASONABLE SPECIFICATIONS - OBIT THE ACTUAL CHAIRS SHOWR CR BILL BE TREATED, SO FILL SPECIFICATIONS REQUIRING REPEATS CH AFE REQUIRED, ARD O0LT LI JITED BRANCHING IS ALLO0BD. CN TRE CONTRIBUTIONS AL0N3 A ROUTE THROUGH THE CHAIRS AR2 ORLI - C» THOSE FOR THE NUCLIDES ACTUALLI GIVEN FOR THAT CHAIR. CN AS AR EXABPLE, THB TABLE CR 1 *02 2 *02 3 »01 t *02 5 0 1 *02 2 *01 6 *02 -« *02 -500- CN ALLOWS TWO ROUTES TO BE TREATED FOR G2RERATIOR OF HUCLIDBS - CR RErERFNCED H AND S. THE -U AND -5 IR THE SECOND CHAIR CB INDICATE THESE CONTRIBUTIONS ARE ADDITIONAL. (CONT) C-106 CP 5D FISSIOR PRODOCT YIELD DATA C CC PRESEST IF SFSLH»RFPB*HTER .GT. 0 c CL (((TFPP(IC.L.H).!C=1.?IFSLR),L=1,HFPR) ,B=1,HTtB) c CB HFSLR*BFPP*RTBS C CD YFFP(!C,L,R) II'LD OF FISSI3H PR3DOCT IFPR(L) FROt CD FISSIOH OF RDCLIDE IFSLR(K) DDE TO PISSIOHIHG CD BEDTPOR IB EBEPGT RARGE R CD (ATOHS P«!R SECORD PER FISSXOR PER SECOID) C CR 6D CHAIR DATA FOB RATRII EXPORERTI&L OR ATBBAGE GEBEBATIOB BATE- C CC PRESEBT IF 5HATXE .GT. 0 C CL ((HATXE(J,I),J*1,3) ,I=1,SBArXE) C CB 3*H!IATXE C CD HATXE(I.I) SOORCE HOCLIDE CD HATXE(2,I) PRODDCT ROCLIDE CD HATXE(3,I) SPECIFIES THE IRAHSHOTATIOH PROCESS, CD 0- ROT ALLORED CD 1- DECAT CD 2- (H,GAHKA), OSOAl CAPTORE OP THE CHAIR CD 3- (H,ALPHA) CD »- (R,P> CD 5- (H,2H), DOITR THE CHAIR CD 6- (R,D) CD 7- (H,T) CD 8- FISSIOH (DO ROT SPECIFY FOB A FISSIOH PROD0CT CD FOR WHICH YIELD DATA IS GITEH, THIS IS TREATED - CD DIRECTLY) CD 9- TOTAL CAPHSE, TOTAL ABSORPTIOB LESS FXSSIOR C • - CR PARTIAL RATES OF PRODUCT GEHERATIOR CAB BE CORSIDERED. THE - CR PARTS PER HILLIOB IS EXPRESSED AS AH XRTEGER (500000 IS THE - CH mCTIOH 0.5), ROOHDEO TO THE REAREST TER (LAST DIGIT ZERO) ,- CR ADDED TO THE ROBBER P93H THE ABOVE TABLE TO SPECIFY THE CR T9AHSH0TATIOR PROCESS. FOR EXAHPLE, IF THE PARTIAL CAPTURE - CB ROOTES 0? P1-1H7 TO P.1-148 AHD TO P11-1»8H ABE BOTH TO BE CR CORSIDERED, THE FIRST AT FRACTION 0.53, THE APPROPRIATE CB ENTRIES TO IRDICATE (B,GAnM) RSACTIOR PRODUCTS ARE 530002 - CR FOS THE PRODUCT P3-U8 ABD 470002 FOR PH-148H. LESS THAR CB A TOTAL FPACTIOB OF OBITI HAY BE SPECIFIED, BDT TAKE CABE. - C C (COHT) C-107 CS 119 EBEBGT RELEkS* FROB C1P70RE c cc PRESERT IF B05CIP .ST. 0 .tBD. RISOE*(RGER*1) .GT. 0 c CL ((ECGi!l(X.J).I*1.*ISOK).J«1,»GER),(ECB»T(I),I*1,BISOE» c cv Bl.-OE*(BGEB»1> c CD ECGA«(I»J) TBE HBODBT OP ERSRGT REIEISED PER CD HOBXC CAPTURE OF BBCLXDE X IS GJIBB1 E1IS CD IB EBZBGT R&KSE J (ETJ CD ECBBT (I) TBE AHOUBT OP EBERGT RELEASED PER AT03IC CD CAPTOHE OP W3CLIDB I IS BETA PARTICLES (BT) C C-- c CEOP EXPOSE C C-108 SPECIFICATIONS FOB INTERFACE PILE EXPOHT €*•••••••****•*••****••*••***•**••*•**••*••••••••*•••••••••••••*•••••*••- C BEPEREBCE 02/01/79 OSnL-5180 C NODIFIED 05/01/»«» C CF EXPOHT C C5 RECORD OP EXPOSURE RISrOBT C CIT ORIGINAL SPECS SODIFIEO TO riTCLaDE SWJZONE FLffEBCE C c— cs FILE STRUCTURE cs cs RECORD TTPE PRESENT IF cs cs FILE IDENTIFICATION ALWAYS cs 1D FILE REFERENCE IHF3PRATI0H ALVATS cs *••**•*••*(REPEAT PPON 1 TO IHIST) cs * 2D GENERAL INFORMATION ALUMS cs * 3D TOTAL FLOENCE •PLOT = 1 cs * «D FL7EBCE RANGE 1 NFLUl = 1 cs * 5D FWENCE HUGE 2 NFL02 = 1 cs * 9D FISSIONS •RBI - 1 cs * 9D EXPOSURE •KR2 = 1 cs * 10D ESERGT IBB3 « 1 cs * 11D UNDEFINED mi - i cs cs C-- c— CR FILE IDENTIFICATION C CL H9A3E, (HOSE (I) ,1 = 1,2) ,I?ESS C CW 3»H0LT • 1 C CD HHAilE FILE HARE (H6) 'EXPOHT' CD HOSE OSEP IDENTIFICATION (A6) CD ITERS FILE VERSION N01BER C CH HOLT 1 FOR L0N5 WORD, 2 POR SHORT VORD BACHIBBS c C- (CONTJ C-109 c— CR 1D FILE REFEFERCE IRFOftlUriOR c CL EXPH1,EXPH2,EXPH3.EFL01,EFUJ2#IHIST,IZOrrE,ISZ# CL RFT.UT,WFLUl,RFLU2rIXPH12,IXP313.RRR1,SBR2,RRR3, CL HRR*,IXPHierII?HV},IXPH20 C CB 20 C CD EIPH1 EHD OF EXPOSOPE TTHE (DATS) FPOil LAST SET OF DATA CD EXPR2 RESERVED CD EXPH3 RESERVED CD EPL01 CUTOFF EBEHGT (Ef) FOR FISST FLOERCE CD EPLU2 COTOFF FRERSX (EV) FOR SECORD FLUSRCE CD IHIST RUBBER OF S'JTS OF DATA CD IZOHB RUHBER OF ZOSES CD ISZ RUBBER OF SDBZ3HES CD RPLOT OPTIO* FOR TOTAL FL0E3CE CD 9 - ROT PRESENT CD 1 - PRESERT CD RFL01 OPTIOR FOR FLUERCE IR FIRST RARSE CD 0 - ROT PBESERT CD 1 - PBESERT C CR RHER RFLtM = 1, EFL11 HOST BE GREATER THAR 0 ARD CR LIE IR THE EBESGT RARGE SPECIFIZD IR THE CR CROSS SECTIOR DAT* C CD RFL02 OPTIOR FOR FLOERCE IR SECORD RANGE CD 0 - ROT PRESERT CD 1 - PRESERT C CR RHfcN RFL02 - 1, EFLU2 HOST BE GREATER THAR 0 ARD CR LIE I* THE EREFGT RAHGE SPECIFIED IR THE CR CROSS SECTION DATA C CD IXPH12 RESERVED CD IXPH13 RESERVED CD RRR1 OPTIOR FOR FISSIONS CD 0 - ROT PRESERT CD 1 - PRESERT CD RFR2 OPTIOR FOR EXPOSURE CD 0 - ROT PRESERT CD 1 - PPESERT CD RRR3 OPTIOR FOR ENEPGT CD 0 - WOT PRESEWT CD 1 - PRESERT CD RRR4 OPTIOR FOR ORDEFIWED CD 0 - ROT PRESBRT CD 1 - PRESERT CO IXPH1S RESERVED CD IXPH19 RESERVED CD IXPH20 INDICATOR RORJULLT « 0, BUT IS SET « 1 IF CD A DISCOWTIBfJITY EXISTS IR EXPOSURE TIRES C C-- (COMT) c-no c— CR 2D GEHERAL IHF0RHA7IOH c CL (EPRT(I),I=1,«0) c CB «0 c CD EPHT(1) END OF EXPOSURE TIRE (DAIS) CD EPHT (2) ST AST OP EXPOSURE TIRE (DATS) CD EPRT{3) FRACTIOR OF CORE TREATED IH PROBLER CD EPHT f 4) COBVERSIOH FACTOR, PATIO OP THERMAL ERERGT TO CD FISSIOW * CAPTURE EREB6T (FBOH CROSS SECTIOSS) CD EPHT ("1-13) RESORTED CD EPHT(11J COP.REHT TOTAL SISTER FISSIORS CD (FISSIORS) C C5 DEFIRED RHER SRB1 * 1 C CD EPHT (12) CDBREHT TOTAL STSTEH EXPOSURE CD (REGARATT (THERMIT.) -DATS/KG) C cir DEFIRED WHEH HER2 - 1 c CD EPHT(13) CURREHT TOTAL SZSTEK ERERGT CD (HEGARA1T (THERHAL) -DATS) C Clf DEFINED VHER RPR3 = 1 C CD ';PHT(1«) CUBREHT TOTAL STSTEH UHDZPIPED c CR DEFTSED WHEH RRR« = 1 C CD EPHT(15-20) RESER7ED CD EPHT(21) CONOLATIVE TOTAL STSTEH FISSIOHS CD (FISSIORS) C CR DEFIRED VREH IRR1 * 1 C CD EPHT (22) CUMULATIVE TOTAL STSTEH TJCPOSORE CD (HEGAWATT (THERHAL)-DATS/KG) C rn DEFIRED WHEH MR2 « 1 c CD EP*T(23) CUMULATIVE TOTAL SMi:!! ERE'GT CD (HEGAWAVT (THERHAL)-DATS) c CR DEFIHED WHEN (P.R3 « 1 C CD EPKT(2») CUMULATIVE TOTAL STSTEH ORDEFIRED C CR DEFIRED WHEH NRRU - 1 C CD EPHT(25-»0) RESERVE,/ C C— (:0HT) I, c-m c „ CH 3D TOTit FIOEHCB C CC PRESEHT IF BTtOT « 1 C CL (FtOr { B«) , 81* 1, ITZSZ) c CB ITZSZ = IZOWB • ISZ c CD PLOT CDHOLHTITE TOTAL FIOEBCS BT ZOKE URD SUBZOIE CD (»p,o?Rons/ca*»2) c c , - CB »D FLOSHCE TO FIRST CdTOFF E5ERGT EFL01 C CC MtESEBT IF HFL01 =• 1 C CL (FLOI(Hfl),fl3«1,ITZSZ) C CB IT'SZ = IZOSE • ISZ c CD FUJI COflOLATITE PL3EHCB IB PIBST RASGE BT ZOBE CD USD SDBZOVE (»EBTROItS/CH**2) C C c — CR 5D FIOEBCE TO SECOHD COTOFP EHERGY EF1B2 C CC PRBSBBT IF WPL02 * 1 C CL (F102 (HS) , HB« t, ITZSZJ C C» ITZSZ « IZOBE • ISZ C CD Ft02 CinULJkTIVE FUJENC? IB SECOHD RABGE BT ZOCE CD ASD SDBZOHE (f E(JTROHS/CH*«2) C C— m (-3MT) C-112 c CR 6D RESERVED c C» 7D RESERVED C- c CR SD riSSIOBS c CC PRESENT IF NRR1 = 1 C CL (RRt(H.1).."IH=1,ITZSZJ C CW ITZSZ = IZONE • ISZ c CD RR1 COHOLATIVE FISSIONS BT ZONE AND SUBZONE CD (FISSIONS/C1»*3) C c c CR 9D EtPOSORE C CC PRESENT IF NRR2 * 1 C CL (RR2 (SB), Jia*1, ITZSZ) c C» ITZSZ « IZONE • ISZ c CD RR2 CUMULATIVE EXPDSORE BT ZONE AND S00ZONE CD (HEGAWATT(TBERHAL)-DATS/KG) C c c CR 10D ENER'iT C CC PRESENT IF NRR3 = 1 C CL (RR3(nS),fN=1,ITZSZ) C CW ITZSZ « IZONE • ISZ C CD FR3 CONIJLATIVE ENKRGT BT ZONE AND SUBZONE CD (3EGAVATT(THBRHAL)-DATS/C!!**3) C C (CDNT) 3 iHOdia 4033 3 -»•*••«••••***••••*•««**•***•••*•*•*•*••***•••«•••••**•••******««****«««3 3 aa«iiia.Ho saa as 3 ZSI • kHOZI = ZSZIX A3 3 (ZSZll'l=Kli'(Hk)«Ha) 13 3 i = »aac ii jaasaad 33 3 azsusaaa an as eu-o i C-114 SPECIFICATIONS FOR IBTERFACE PILE CFHIST £•*•****••••••••••**•••••••***••••*••*•••*•***•*••*•****•*••»•***••••••*. C REFErfEHCE 05/01/79 C CF CFHIST C CE RECORD OF EXPOSDRE HISTORY (COITIHOOOS FCELIWG HODEL) C c******ft****************************************************••*••••*•***- c CS FILE STRBCT3RE CS CS RECORD TYPE PRESEB". IF CS FILE IDEHTIPICATIOH ALWAYS CS 1D FILE REFERENCE XHFORHATIOH ALBATS cs **********(BEPEAT FROH 1 10 IHIST) CS * 2D GEBERAL IHFORHATIOB ALHAIS CS * 3D TOTAL FLOSWCE HELOT =1 CS * «D FLOEHCE RAHGE 1 BFL01 =1 CS * 5D FLOEHCE RAHGE 2 BPL02 = 1 CS * RD FISSIOHS BRR1 =1 CS * 9D EXPOSORE HPR2 = 1 CS • 10D EBBRGI HRR3 = 1 CS * 11D ORDEFIHED HRRB =1 CS ********** CS c C— CR FILE IDEBTIPICATIOH C CL HNAHE,(H0SE(I),I=1,2),ITERS C CB 3*HOLT • 1 C CD HHABE FILE BASE (A6| 'CFHIST« CD HOSE OSER IDEBTIFICATIOH (A6J CD ITERS FILE VERSION KOHBER C CH HOLT 1 FOR LOBS BDRD, 2 FOR SHORT BORD HACHIBES C c— C— CR ID FILE REPEFEttCE IHFORHATIOH C CL BXPHl,EXPH2,EXPH3,EFL01,EPL:J2,IHIST,IZOHE,ISZ, CL ffLOT,BfLOt,BFL02,IXPR12,IXPR13,HFR1/MRR2,NRR3, CL HHR«,IXPH18,ITPH19,IXPH20,HRTZ, flRTSZ,KRTZ,KRTSZ, CL BrDZ1,HrDZ2,HFDSZ1,HFDl»Z2,IXPH29#IXPH30 C CW 30 (CONT) C-115 c CO EXPH1 ERD OP EXPOSURE TIRE (DATS) FROH LIST SET OP DIM CD EXPH2 RESERVED CD BXPH3 RESERVED CD EPL01 COTCPP ESERGT (EV) POH PIRST PLOEHCE CD EFL02 COTOPF ERERGT (Ef) POR SECOID FLOEICE CD IHIST HOHBER CF SETS OF DATA CD IZOHE ROBBER OF ZORES CO ISZ HOHBER OF SOBZORES CD RFLUT OPTIOR FOR TOTAL FLOEHCE CD 0 - WOT PRESERT CD 1 - PRESEHT CD HPL01 OPTION FOR FLDEICE XR FIRST RAIGE CO 0 - ROT PRESERT CD 1 - PRESEHT C CH WREH RFLDl = 1, EPLB1 HOST BE GREATER THAH 0 AID C!t LIE IR THE EHEPGT RASGB SPECIFIED IR THE C» CROSS SECTIOH DATA C CD NFLIT2 OPTIOH FOR FLOEHCE IH SECORD RANGE CD 0 - HOT PRESEHT CD 1 - PRESEHT C c& RREH HFL02 = 1, EFL02 HOST BE GREATER THAH 0 AID CN LIS IH THE EHERGT HAHGE SPECIFIED IH THE CM CROSS SECTIOH DATA C CD IXPH12 RESERVED CD IXPH13 RESERVED CO RRR1 OPTIOH POR PISSIOHS CD 0 - HOT PBESEHT CD 1 - PRESEHT CD BRR2 OPTIOH FOR EXPOSURE CD 0 - HOT PRESEHT CD 1 - PRESEHT CD RRR3 OPTIOH FOR EIEPGT CD '0 - HOT PR»3EHT CD 1 - PRESEHT CD HRRH OPTIOH FOR OlfDEFIHED CD . 0 - HOT PRESEHT CD 1 - PRESEHT CD IXPH18 RESERVED CD IXPH'9 RESERVED CD IXPHiO IHDICATOR HORHALLT « 0, BOT IS SET » 1 If CD A DiscoHriHoirr FXISTS IH EXPOSORE TIRES CD HRTZ ROHBER OP ZONE PATHS CD HRTSZ ROBBER OP SOBZONE PATHS C CH HPTZ • RRTSZ 10ST BE LESS THAH OR EQ0AL 70 70 C CO KRTZ ROBBER OP ZOHES ALONG EACH ZOHE PATH CO KRTSZ H0HBER OP S0BZ3NES ALONG EACH S0BZOIE PATH (CONT) C-116 CD HFD7.1 ZONE NUMBER CONTAINING FIRST ZONE PATH FEED CD MATERIAL COMPOSITION CD HFDZ2 ZONE RUR3ER COFT&IRIRG LAST ZONE PATB FEED CD MATERIAL COMPOSITION C C9 SFDZ2 = HFDZ1 CV OR CS HFDZ2 = HFDZ1 • HRTZ - 1 c CD HFDSZ1 ZONE NUMBER C3NT1INING FIRST SDBZONE PATH FEED CD BATERIAL COMPOSITION CD SFDSZ2 ZONE NUMBER CORTAINIHG LAST SUBZONE PATH FEED CD RATERIAL COMPOSITION C C3 HFDSZ2 = HFDSZ1 CH OR C5 MFDSZ2 = MPDSZ1 • HBTSZ - 1 C CD HPH29 RESERTED CD IXPH30 RESERVED C C-- C— CP 2D GENERAL INFORMATION C CL (EPHT(I) ,I = 1, C~ CS 3D TOTAL FLUESCE C CC PPESEHT IF MPLDT • 1 c (PLUT («*•), P!H» 1, ITZSZ) , (PLDTD (MRT) , HRT* 1, HRTT) CL c c« ITZSZ • SPTT » (IZuNE • ISZ) • (HRTZ • HRTSZ) c FT.OT TOTAL FLUENCE BT ZONE AND SUBZONE (NSUTRONS/CH*«2) CD CD ACCUMULATED ALONG PATHS CD PLUTO DISCHARGE TOTAL FLOE MCE BT ZOtTE AND SUBZONE PATH CD (NEDTRONS/CH**2) C C (CO NT) c-ir Ct «D FUF.BCE TO FIBST COTOFP BBEBGT 3FL01 C CC WJSEII IF IfLOl * 1 c CI (Ft01(H CR 5D FLOEBCF TO SECOBD COTOFF EHERGT EFL02 C CC FBESEHT IF BFL02 « 1 C CI (PL02(RH) ,HH=1,ITZSZ) , |F102D (BBT) ,BBT=1#SBTTJ C CB ITZSZ • BRTT * (IZOBE • ISZ| • (BRTZ • BRTSZ) C CD FLD2 FLOEBCE IB SECOBD RABGE BT ZOrE A3D SOB30HE CD (BE0TR0KS/Cfl**2) ACCOROLATED ALOHG PATHS CD FL02D DISCHARGE FLOEBCE IB SECORD BABGE BT ZOBE ARD CD SOBZORF PATH (BE0TBO3S,cn**2) C c . c CB 6D RESFRFED C c CB 10 RESERTED c c CB 8D FISSIOBS C CC PBESEBT IP BRB1 « 1 C Ct (RR1(<»H|,BH»1, ITZSZ) , (RR1D(B*T) ,WT»1,BR?T) C CB ITZSZ • PIPTT « (IZO!tE • ISZ) • (BRTZ • BRTSZ) C CD RR1 FISSIOBS BT ZOKE ABD SOBZONE CD (FISSIOBS/C!l»»3) ACC0JI01A7SD ALONG PATHS CD FB1D DISCHARGE FISSIOIIS *! ZOKE AHD SUBZOSE PATH CD (FISSIOIfS/C1»»3| C c CTOMT) C-118 c Ct 90 EXPOSURE c CC PRESENT IF 1RB2 = 1 C Ct (RR2(!t.1),!tH=1,ITZSZ) , (RR2D(BRT) ,HRT=1.HRTT) C CB ITZSZ • BRTT = (IZOHB • ISZ) • (BRTZ • HRTSZ) C CD RR2 EXPOSURE BT ZONE AHD SOBZOBE CD (BEGAHUT?(THERMAL)-DAYS/KG) ACCOBULATED ALOHG CD PATHS CD RR2D DISCHARGE EIPOSTJRE BT 20BE AHD SU3Z0HS PATH CD (HEGAVATT (?9EP.fAL)-DATS/FG) C C c CR 10D EfERGT C CC PRESERT IF RRR3 - 1 C CL (RR3(HB),BR*1rITZSZ) , (BR3D (HPT) ,HRT=1,HRTT) C CW ITZSZ • HRTT * (IZOHE • ISZ) • (HRTZ • HRTSZ) C CD PR3 BEESST BT 20BE AHD SBBZOBE CD (HEGA»ATT(THERBAH-DAIS/CH*«3) ACCOROLATED ALOHG CD PATHS CD RR3D CISCHARGE EHBR3T BT ZONE AHD SOBZONE PATH CD (HSGAHATT (IHER HAL)-DATS/CB»*3) C c — c CR 11D UNDEFINED C CC PRESENT IF NRR» « 1 C CI (BR«HSH),nn«1,ITZSZ), (BRHD(HRT) ,NRT«1,HR7T) C CW ITZSZ • HRT? = (IZOHE • ISZ) • (BRTZ • HRTSZ) C CD BR* DBDEFIUED BI ZOKE ABD SOBZOBE CD RR«D UNDEFINED BT ZONE AND SUBZONE PATH C c C CEOP CFHIST C C-119 SPECIFICATIOHS FOB INTERFACE FILE PTATDB C REPEREBCE 02/01/79 ORHL-5180 C CF PTATDB C CE POIBT HJICLIDB DENSITIES C c— CR FILE IDEBTIPICATIOB c ct HBAHE,(HOSE(I) .1 = 1,2) ,ITFRS c cw 3*HBLT • 1 c CD HBARE FILE BABE (A6| 'PTATDB* CD ROSE OSEB IDENTIFICATION (16) CD ITERS FILE TERSIOB BOBBER C CB HOLT 1 fOR LORG BORD, 2 FOR SHORT WORD HACHIBES C C— C CR 1D FILE REFERERCE IBFORBATIOB C CL TIKE,XPTD2,XPTD3,SCT,NZPT,HPT,KBS,HBLKPT#IPTD9,IPTD10, CL BZOBE,BSZ,BZRTI,HIBTJ,BIHTK,IPrDl6,IPTD17,IPTD18,XPTD19,IPTD20 C c» 20 c CD TIBE REFEREBCE REAL TINE, DATS CD XPTD2 RESERTED CD XPTD3 RESERTEO CD BCT REFEREBCE CTCLE BOBBER CD BZPT ROBBER OP Z0RE5 FOR BHICH POIHT DATA ZS PRESENT CD BPT BOBBER OF FOISTS C CB BPT » BZPNT(I) • »ZPHT{2) • • NZPBT(BZPT) C CD BBS HAXIBUB BOBBER OF BOCLIDES IB ABT SET CD NBLRPT BOBBER OF BLOJ'S OF ATOB DEBSITT DATA CD (HOST DIVIDE ETEBLT IBTO BPT) CD IPTD9 RESERVED CD IPTD10 OPTIOS TO IBCLODE VOLOHE IBFORHATIOB IF .EQ. I CD BZOBE BOHBEB Of ZOBES CD FOR DOCOBEBTATIOB (IF HONZERO HOST AGREE BXTH OTHER CD PARABETERS) CD BSZ BOBBER OF S0BZ3BES CD POR DOCBBENTATION (IP HONZERO HOST AGREE BZTR OTHER CD PARAMETERS) CD BIBTI BOBBER OP FIRST DIBEBSIOn PIBE HESH INTERVALS CD POR DOCOHEBTATION (If NONZERO HOST AGREE WITH OTHER CD PARAHETERS; (CDMT) C-120 CD OINTJ HOHFER OF SECOND DIMENSION FI9E BESH INTERVALS CO FOR DO=WlEBTATIOB (IF HOHZERO nOST AGREE WITH OTHER - CD PARAMETERS) CD HIVTK ROBBER OF THIPO DIMENSION FIRE HESR INTERVALS CD FOB DOCUMENTATION (IF RORZERO BPST AGREE HITH OTHER - CD PARAMETERS) CD IPTD16 RESERTED SD XPTD1T RESERTED CO IPTOIB RESERVED CD IPTD19 RESERTED CD IPTD20 RESERTED C C~ C— CR 2D GEBER1L INFORMATION C Ct (HZPNT(HZ) ,NZ*1,RZPT) , (NZPBT(RZ) ,HZ=1,RZPT), CL (LZPNT(NZ) ,RZ=1,HZPT), (LOCPT(ITP) ,RP=1 ,HPT) C CO 3*NZPT»NPT C CO HZPRT (HZ) ZONE ROBBERS CO RZPHT (RZ) ROBBER OF POINTS IB EACH ZORE CD LZPHT (RZ) NUCLIDE SET REFERENCE CD FOR DOCUBENTATIOH CD LOCPT (RP) POIHT LOCATIOHS IH TRE RARGE 1 TO HIHTI«HIHTJ*HIHTK CD FOR DOCUMENTATION CD (RAT BE ZERO IF NIBTI,HIHTJ ARD RIHTK ARE ZERO) C CR LOCPT = (K-1)*NINTI»NINTJ • (J-1)*BIHTI • I CR WHERE I IS FIRST DIMENSION INDEX CR 3 IS SECOND DIHSHSION INDEX CW K IS THIRD DIVERSION INDEX c GIVER RINTI,RIRTJ,RIRTK AND LOCPT THE INDICES CR I,J,K HAT BE DETERMINED CR C c— C— CR 3D TOLOHE INFORHATION C cc PRESENT IF IPTD10 .EQ. 1 c CL (VZPNT(NZ) ,HZ»1,BZPT) , (TOLPT (NP) ,NP»1,!JPT) c CO RZPT*N?T C CD VZPHV (RZ) ZORE TOLOSE (CH**3) CD fOLPT(RP) POINT TOLOHE (rt(**3| C C— (ZOfIT) C-121 c CS *D POIRT KOCIIDE DERSITXES C CL ((PDE»(!I,J) ,K=1,B»S).J=JL» J0| SEE STRUCTURE BELOR- C CB »RS*((5PT-1)/SBI,KPT»1| C CC DO 1 a=1,»BLKPT CC 1 READ(I) *LIST AS ABOfB* C CC KITH fl US THE BLOCK IHDBX, JL=(H-1)*((HPT-1)/BBLKPT»t| *1 CC *RB J0=B*((»PT-1J/RBLICPr»1) C CO PDE!»{S,J| AT03IC DEHSITT OF NUCLIDE ORDERED H 18 THE CD ASSOCIATED SET GIVER IV ORDER FOR EACH POIHT C (;**••*•••*••***•*•*****«********•*•*•**••«*•**•****•***•**••*•••*«•«••**- C C?OP PTATD8 C C-122 5PECIFICATI0BS FOR INTERFACE FTtB QBATDB C RSFEEEBCE 02/01/"»9 ORBL-5180 C CT QBATDr C CE Z3BE (SOBZOBE) BOCIIDE PEBSITI5S (DISCHARGE) C C******************•**••*«**»*»****«•»»*•**»»***»**•**»••••»••••*«••«**». CB FILE IDE5TIPICATI0B C CL HHA1E, (H9SE(I),1=1,2) ,ITERS C CB 3*<10L? • 1 C CD BBAHE riLE BABE (A6| 'QBATDB* CD HOSE OSER IDEWIPKATIOB (A6) CD ITERS riLE TERSIOK BPSBER C CB HOLT 1 rOB LOHS BORD, 2 rOB SHORT BOBD HACRIBBS C C* ID FILE REFBBBSCE IHFORnAriOH C CL TISE,«ICT,nTZSZ,BHS,SBLKAD C C» 5 C CD TUB REFEREHCE PEAL TISE, DATS CD BCT REFEREHC2 CIC12 BOBBER CD BTZSZ BOBBER OF ZOBES PLOS BOBBER OF SOBZOBES CD BBS BAXIHOH NOBBED Or BOCLXDES IB ABT SET CD BBLICAD BOBBER or BLOZf.S OT ATCH DEBSITT DATA CD (HOST DIVIDE ET2BLT IBTO BTZSZ) C CDBT) C-123 CR 23 ZOSE(S0BZC5E) NUCLIDE DENSITIES (DISCHARGE) C CL {(ADE8(I,J),1=1,IIS),J=JL,JO| SEE STRDCTORE BEIOI C CO «IS*<(ITZSZ-1)/HBLFAD»1) C CC DO 1 1»1,!!BUCAD CC 1 READtl) *tIST AS ABOTE* C CC WITH S AS THE BLOCK IBDEI, JL= (S-1) •< (HTZSZ-1)/TIBIKAD»1) *1 CC AID Jjn=a*((ITZSZ-1)/IBLKAD*1 ) c CD ADEB(3,3) ATOMIC DESSITT OF 99CLIDE ORDERED S II THE CD ASSOCIATED SET GIVEN II ORDER FOR EACH ZOIE CD rCLLOBED II ORDER FOR EACH SOEZOIB c c— -.__———- C CEOF QHATDS C C 124 SPECXFXCATIORS FOR IRTERFACE FILE ZRTE3F €••*••*•*•*****••*••*•••••*••••*•*«*»**•••*•••*••»•••••••»*•**•••••••••*- C RBFERERCE 02/01/79 OR5L-5180 C CB ORISIRAL SPECS REVISED TO IBCLODE SDBZbHE DATA BBEB SEEDED - C CF ZBTEBP C CE TORE TEBPERATRRE DATA C CP FILE XDEBTXFICATXOB C CL REABE,(KBSE(Z),Z*1,2),IVERS C CB 3*BBLT •I C CD BRAKE FILE RARE |A6| •ZBTBRP* CD BOSE OSER IDEBTIFICATIOB (A6) CD IVERS FILE ft RSI OS BOBBER C CR BOLT 1 FOB LOBG K3R&, 2 FOR SBOR? WORD BACBXBES C CR FILE REFS5E3CR IRFOSKATZOS C CL BRZ,RZT,RSZ,(RA(I),Z-1,17) C CB 20 C CD BRZ BOBBER OF REACTOR Z3EE5 , ROT ZERO CD EXT BOBBER OF TESPERATORTS FOR EACR ZORE .LE. S CD BSZ BOBBER OF REAZIOR SBBZOSES :D BA DESERVED C CB 9FTSR A SIB6L? TESPERATOPE BILL BE CARRIED BRXCR SERVES 15 I - CR REFERERCE, AS TO EXPRESS THE EFFECTIVE TERFSRATBRE OF TBE ZOBE- CB BBXCR SAT BE OSED SZBPLZ FOR SOCB PORPOSE AS CROSS SECTIOB CB COBPELATZOB. EVER ZF T»3 TEHPERATORES ARE CARRIED TO IRCLODE - CB TRB C09LABT TSBPERATORE, THE FZRST XS ZBTEB3ED TO ADBXT SOCB - CB SZRPLE APPLXCATI9B (LZREAR IBTBBPOLATIOB OF CROSS SECTIORS - CB IS ADSZTTBD RBXCil BAT BE D0R7 A? TRB RACROSCOPIC LEVEL 0SIB6 - CB TBO BXCBDSCOFIC CROSS SErTZOB ~*TS). C C c——.. . — P"n C-125 CB ZOBB TEHPEBITOBBS C CC JL'VITS PBBSSVT C CI f{ZTEHP{I •!» »I«1,JZT) ,3*1,BBZ| CB BZX'BBZ c ZTEHP TTBP'BftTTOE Or BETIiBEBCE X IB ZOR B fBECBZES C| CB X BEFEKEBCS CB CB — ___—«•_— . CB 1 KCTIBIBrS fFBBL) BETES EBCE CB 2 CCOL1BT CB 3 BODEBIirOB CB % SXBBCTOBftL CB 5 SP!CIkl C c CB SBBZOBE TERPEKBTOBES c cc PBESEBT IF BSZ .BE. 0 c CI ( (SZTEBP (I , H\ , I • 1, BZtl , B«1, BSZJ c CB BCT'BSZ c CD SZTERP TMPEBBTOBE OF KF»t»BC5 X XB S0BZOBE R (DESBEES C| ' c CB SEE B0T2S BBOOT ZOBE TEBFEBBTUBE DBTB c ceor ZBXEBP c C-126 SPECIPICATXOBS FOB IBTEBP*CE FIXE ZBPOBD C BEFEBEBCE 02/01/T9 OBHL-5180 C CB OFISXBAL «PECS BEVXSED TO XBCLBDE SVBZOBE DATA BBEB BEBBED - C CF ZEPOBD C CB ZOBE AVERAGE ABD PEAK POWER DE5SXTT C c— CI FILE XDEBTXPXCATXOB C CI BBABB,(BBSE(I) ,1-1,2) ,If ERS C CB 3*BVLT • 1 C CD BBASF FILE BABE fA6| 'ZBPOBD* CB BVSE BSEB XDEBTZPXCATXOE fA6) CB IFBPS "" FILE FEBSXOB B3HBEB C '•.._ CB HOLT 1 FOB LOBS BOBD, 2 FOB SftOFT BOBD BACBXBES C CB ID FILE BEPEBEBCE XBFOBBAFIOB C CI POT,TTBE,XZPD3,XZPB«, XZPD5,XZF9«,XZPD7,XSPD8, CI BZOEE,XZPD1O,XZFD11,ESZ,XZF013,XZFO1«,XZPD1$, Ct XZPD1«,IZPDrr,TZPD1«,XZFD19,IZFD20 C CP 29 C CD FOB BEFSBEBCE BEAfTOB POBEB LEVEL, BATTS CD TXBE BEPBBEBCE TIBB XB TBE BX5TOBT, DATS CD XZPD3 BESEBFED CD XZPM BESEBTED CD XZPD5 BESEBfED CD XZPDf BESERFED CD XZPD7 BESEBfED CD XCPD8 BESEBfED CD BZOBE BOBBER OF BEACIOR ZOBES CD XZPD10 OPTXOB FOR PEAK ZOBE RATA CD XZPD11 OPTXOB OB FILE COBTEBTS CD 0- ZOBE POBEB DEBSXTT XBCL0DES APT SVBZOEE CD COBTBXBBrXOB (ALTBO0SB B5Z BAT BE ZEBO) CD 1- ZOBB POBEB DEBSZTT ABD S0BZOBZ POBEB DEB.'ITT CD CABBXED SEPARATELY CD SSt BOBBER OF REACTOR SOBZOEZS CD I'P013 OPTXOB FOB BEFERZBCE XB70BB1TX0B (COBTJ C-127 CD IZPD1* BESSBTED CD IZPD1S BESBBTB9 CD XZPD1C BESEBfED CD XZPD1T BESEBTBD CD XZPD1B BESEBTED CD XZPD19 BESEBTED CD IZPD20 BESEBTED C CcB- 2D ZOBE ATEBA6E POWEB PEBSXTXES (TOTAL) C CC PPBSBBT XF XZPDII .EQ. 0 C CI (ZPOE(R),!l*1,EZCBS) C CB BZOBE C CD ZPOB ZOBE AVEBA6E P3BSB DEBSITT, BATTS/CC C CB ZP3V(!I) * TPPAfH)*ZPD(H) * SORfOTEB J FOB BZSZ(J) • 8| OP CB TSSZ{J)*SZPO(J) C CB 3D PEAK ZOBE POBEB DEBSX7XES C CC PBBSEBT XP XZPDII .BQ. 0 A9D XZPD10 .EQ. 1 C CI (FZPO«(R),!l«1, BZOBE) C CB BZOBB C CD PZPOT PEAK ZOBE POBEP DEBSITT AT TBE RESR POXET LEVEL, CD BATTS/CC C CB «D ZOBE ATEBA6E POVEB DEBSXTIBS C CC PBBSEBT XP XZPDII .EQ. 1 C CL (ZPD(B),a«1,BZOB2) C CB BZOBE C CD XPD ZOBE ATEBA6E P3BEB DEBSXTt, BATTS/CC C P3B?) lues) 3 sxaaaasxssf aaozaas « —.3 3 33 'saaaio* aaoz zioa aa 3 aaoza as 3 (aaoza' i«n* (a) 3 aaozcos taxoxviaos aaoz ssza oa 3 zsa as 3 (zsa'i>c'(r)zsza) is 3 o *X9* XSM oat i -oa* CIMZX ax aaasaaa aa 3 - asaaaaoasaaaos aaoz ot aaozaas 09 as 3 sa/sxiia 'ixisaaa aaao* asvaaav asozaos oazs oa 3 zsa as 3 (zsa*i*r'(r) 821-0 I C-129 c CEO? zsrovD c C-130 SPECIPICATXOBS POt IITERPACE PXIR PBITSB c REVISED O«/OI/M c CP PEPTBB c CI PEBTOBBATIOB DATA - RESBLAR ABB ADJOIBT PLDX IBTE6RALS C C***••••••*••#•••••••*•#••**•****••••****•*••••••*•••••••••*•••*••••»*•*- CI PILE TDERTIPICATTOR C CI BRABE,(BfSECX),I«1,2|,XVBtS c C» 3*SOLT • 1 c CB BBABB BOLLEtXTB rilB BARE - PEtTBB - (16) CD EVSE(I) •OLLBBXTH BSER ir,EBTXPXCATXOE - (A*) CB ITERS PILE VEBSIOB RBaBEt C Cd RtLT 1 rOt LOW ROVD, 2 rot SBOST WORD BACRIBES C CR PILE REPERERCB IBPORRATXOB (ID RECORD) C CI BXCDAD,XK,Ct,X1,BZOBE,BeROOP,XBD,B1,B2,B3,Rt C Cf 11 C CD BX8DAD BI6-0ADDT PORBALXZATXOR PACTOR CD XBTESRAL ADJOXHT*CHX*POtBARD*RBSX6r/K CD XI BOITIPUCMIO* PACTCB (K-EPP) CD CR PRXRXTXfE PXSSXtE COBTERSXOB RATIO CB XI ABSORPTXOB RATE XR PXSSXtE BOCLXDES CD KOBE BBBBER OP SEORETRXC ZOEES CD BCROBP BOBBER OP BEBTROB EBBECT 6B00PS CT JCD OPTXOB POR XECLV0XB6 TRABSPORT XBTE6RALS r B1 PLA6 OB PR3BLEB TTPES - 0- IIEABIRC BO PROBLEMS VERB SOLVED, Ot TRET - CD VERB risemtcE PROBLEHS CD 1 XS ADDED TO TRXS XT A PXXE9 SOORCB PORBARD - CD PROBLER BAS SOLVED CD 10 XS ADDED » TRXS IP A PXXED SOURCE ADJOlST • CD PBOBLPB BAS SOLVED C B2 iiSSOTED P9R PVIORE OSE C D3 RESERVED P»R P0TORE OSE C *• RESERVED P3t PVTOtE OSE CDBT) C-131 CR nrKRRlS FOR PR0DBCTX3R BRCBO C2B RECORD) C CI ( CR PWX, ADJOIBT TOLBBE XtrECR&LS |3D RECORD) C CL. f(S(H,KK),H«1,BZOBE),RlC-1,B3R01F) BOTE STRBCTOBE BE10B C CB BZOBE^BttOOP C CS BO 1 K>1,B6R0BP CS 1 REkD(B) •LIST AS ABOVE* C CD S PL0X{KK)**DJOIBT(K) TOLORE XBTE6R&LS CD (IBTO 3BOBP KJ C C CR XBTE6RAL5 FOR TRAVSPORT (»D RECORD) C CC PRESEBT OBIT XF XRD.6T.0 C CI ((D(R,R),R-1,RZOBS),K-1,B3R90P) C CB B'*0BE*>B6R09P C CD B FLVt(K)*ADJOXRT(K) VOL0RE XBTBCRILS C CEOF PERT0B C C-132 svRXPxcMxoas roa xaraaracs PILE rxssoa C RETISED 0R/01/M C cr fissoa c CB nssioa SOCSCE ax IBTZRVIL iaa DXSTRXBOTXOR PBBCTXOB c MU XDB8TIFICATI0B BRIBE, (RRSE(I),I-I,2),ITERS •otx-nxTB PT« aaas - rxssoa - (to BOLLERXTR asaa xasaTirxcaHOB (at) FILE TERSIOE BBRBEB 1 rOB LOB6 BORD, 2 POt SBOBT SOBD BACBIBES CB TOE BErEBEBCE XBFORR1TXOR (IS RECORD) c CI TIRE, FORER, REPP, IB, JB, EH, HCT, HC, R C CB 9 C CO TISB RETEREBCE REAL TIHE, MTS CO POBEB rOBER IBfEl FOR ICTOM. BEOTBOBICS PROBLEH, CO RRTTS TBERHIL co KErr HoiTXPUcarxoa FACTOR CO XR BOBBER OF FIRST DXRBRSXOH FIB* XBTERTUS CD JH RORBER OF 5EC0RP DXHEBSIOR FIRE IBTERTtLS C CB FDR SPECXRt TRXKRCOtRR CEOHETRXES, XR XS TRE BOBBER OF •- CB TRIAB61ES OR BICR PURE kHD JB XS ROT DEPIBED (SET TO 1) *- C CD KH BOBBER OF THIRD DXBEBSIOB FIRE XHTERTRIS CD HCT REPEREBCE COORT (CTCtE ROBBER) CD HC BOBBER OP EBEROT CRORPS CD RE RORBER OF ZOBES C CCORT) C-133 ti - es nSSXOB SOBBCE BXSTBZBBTZOB FSBCTXOB (2B BBC0BB| — cC I ||CaXa(B.K| ,B*1,BT) ,K-1,B6) • — Cc B B6*BX - C — CB CBIR{B,K) SOBBCE OF BBBTBOBS ZB CBOBF K, ZOBE B - C — c~ • ; CB nSSXOB SOBBCE YftLBES (3B BBCOBBI C Ct ((FF5fI,J|,I»1,I«l,J.1,JB) BOTB STBBCTOBB BBLOB— C 1 CB IB«JB C CS BO 1 K>1,KB CS 1 REaB(B) •tIST IS 1BOTE* c CB FFS(I,J) FXSSIOB SOBBCE BT IBTBBVIL, BBOTBOBS/SEC/CC C c CEOF FXSSOB C C-134 srEexrxciTxoRS rot IRTEBFACE FILE ROOSET C*** **••*•***•*•*•••#*•**•**•••*•*••* *******•***•»••••#****» C REUSED OB/01/80 C CF B3BSET C CE CDRTROL ROR RBFERERCE POSITIORIBC DATA C GB FILE IDERTIPICATIOR c CI RBARE,(BOSS(I),1-1,2) ,XTESS C CW (3*BBLT»1) « RBBBEB OF RORRS. C CD BRIBE FILE BtBB {*«! 'RODSET*. C» BfSE BSE8 IBEBTXFLCATIOfl (A6). CD ITERS PILE TERSIOR RRRRER. C CB BRIT 1 FOR LORC ROOD, f rOR SBORT RORD BURKES. C c c— CB FILE REFERERCE IRrORBiriOB (ID RECORD) C CI RCRR,RPBE,RCR,BEET,BSBFS,BCTD,ESE,EOE,XST,BBE,BBI,BSB, CI (I1(X),I«1,B) C CR (20) • ERBBEB OF RORDS. C CB RCRR ROBBEB OT COBTB0I ROD FORE RECUSES. C CB RTRR ROBBEB OF COBXROL BOP FOIIOBER XORE RBCIIDES. C CD RCB ROBBER OT RIFFEftHT SORB SETS (RODS). C CB REIT BOBBER OF EBTBIES IF TBE XEFEREBCE TABIE OF ROB CB ZOVES. C CD RSRPS ROCBER OF SETS OF R9P POSZTZOR SPECIPXCAIXOBS. C CD RCTP BOBBER CT POXRFS XR TRE BISTORT (BETtCEB REFBEIZEBS)- CR FOR RRZCB BOO POSXTZORZBC DATA IS SPECXFXEP. C CD BSE BOBBER OF ZORES FOR RRICB SPECIAL FOIL ROD ZHSEBTIOB- CD (OB BXXBDRARAM RATA APE SPECIFIED BELOB, OSED FOR - CD 'PODIRS' 0PTI9B XX(10)--2, OR *-1. IF FOIL ROD CD IBSEBTIOR (RZTRDRABAL) IS SPECIFIED ABD THIS SPECIAL- CO DATA ZS ROT PRESERT, TRE RATEWXAL ABB (ADF) Bill BE - CD ZBSERTEP XR AU ROD ZORES RRZ RELOR. (=0"T) (xiccl *.-(»») xx acxxao .saxaoa. > aax ax xaasaaa aa xsaa vxva sua -toiaa aaaxs aav -t*ta aoa aaoa-xaas iviaxas wsin» aoa saaos ao uaaaa * (xaasaaa ax) vxva aav a-ia saoxavaxaaaaoa - aaaonoa aanaaa aai saoxxvaxaaaao: aoa oaax -t -saoxxvaxaaaaoa aoa oaax aiao »z *saoxxvaxaaaaoo xav INIU aoa oo -i •vxva aav axxa saoxxvaxaaaaoa aoa aaviaaa -o 'o *a» tot) ax aoxxao »saxaoa* aoa (aotae o *xi* xxa) aoxxaasax aoa aoa aaox aa-axvs ax saoxxvitxaaraoa ao aoxxao 'saoixvaxaaaooa xav aaavaa xoa oa -z •ssoxxvaxaiaaoa aoa o*ax xoao -i • (xaasaaa ax) vava aav axis saoxxvaxaaaaoa • aaaonoa aanaaa aav saoxxvaxosaao: aoa oaax -o *o *ao lot) xx - aoxxao •saiooa* aoa (aoiaa o *xo* xxa) -ivavaaaxxa aoa aoa aaox at-aava ax saoxxvaxaazaaa ao aoxxao *ssaaav xsaxa ao saaoaaa oax aax saxvasa aooa tax asva oaxaa ax r at aoxxao sxax xvax oaaaaaoaaa sx xi *aaxaoxxxsoa aax - ao aaoaaa a aav saaoaaa vxva aivs aax - axoa*««*« 'ana sxax ao xaasr i aav saaoaaH vxva aavs cax aax -o-xa -alia kiax ao xaasaaa saaoaaa vxva aavs oa -o -saaoaaa vxva aavs ao aoxxao -aoiatasax aax ox aoxaa saaoz aauiaaas aax ax oaoaax aav -saoxxvaxaaaaoa aaaoxioa aav aoa nv "ivavaaaxxa aoa Tita ao 'acixaasai aoa TMJ aoa axot«««*« -asaas xnaaao at ax vxva tivavaaaxxa) - aoxxsasax. aoa -ttaa xviaaas aiaav aaax 'xsaxa - xaa saaox aoa *nv ax Uav) aav iviaaava xaasax -i "vxva (ivavaaaxxa) aoxxaasai aoa Tiaa tvxaaas xa aaaxo saoxxvaiaxaaas aiao ast -o -vxva tavavaaaxxa) aoixaasax aoa naa saxsa ao aoxxao S€l-3 C-136 c- CB RErSBEBCe BBCtlDE DATA (2D '.SCOED) C CC PRESEBT ir BCBB • BTBB .GT. 0 c Ct fBBV (BI ,B*1.BCDR), (RBP{B) , B*1 ,BFRB) . (IDS (R) ,R«1,ECBS) , (ADT (B) ,B*1.- Ct BTBB) C CB ((RRLTH)*(RCBB*W:ftH|) * BBBBEB OP RCBDS. C CD IBB BOB ZOBB BSCLtD? BSEB BBIQRE BIBB, BISOBB (BC). C cr nr POLLODBR ZOBB BBCLIDB BSBB BRIBBE BABE, BISOBB »AS>.- CD RAT IBCIBDE BBZHBES IB TBE BOD tIST BBR. C CD ABB BOB BBCLIDB OBESITIES (ATQRS/BB-CS) * BAT BB BOB CD XB5EBTX0B POLLOBEf (TOP OP BOD) 8ATEBXAL. ir SO CD XT CBBBOT BE BSE9 FOB PBU. BOD IBSEBTXOB. C CD ADF P01LT9EB BBCLIBE DBBS1TT (ATORS/BB-CB) - BSED FOB CD ROB REBOFAt fSOTTOft OP ROD}. C C- c- CB BEPBBBBCB TABLE OF BOO ZOBES (3D RECOBl) C CC ALBATS PBP.SEB7 C CL (SBZ(X),X*1,B'JBT) C CB (BEST) » BOBBER OF DORDS. C CD DBZ BOBBER OF A ZOBE. C CB TBIS DATA IS PBESESTEO XB SETS W ZOBE BOBBZBS, EACB SBT CB BePRESEITXBG A BO" OB BLOCK OF TBEH. EACR SBT OF DATA XS CB POLLOBED DI A ZBBC EBTBT. REFEREBCE TO A SET XS BT OBDZB OF- C» PBBSEBTATXOB (»J IB BZI (J,L) BELOB). TBE OBDEBXB6 OF THE CB ZOBE BOBBERS IB EACR SET XBBXCATES BOD EBD POSITXOB BT CB ZBSEBTXOB. TRSS BOD XBSEBTXOB XB OBIT TBE FIRST ZOBE SITES - CB 30BLB BE RXBXSBR ISSEtrXOB ABD BOD IBSEBTXOB XB TBB UST CB ZOBE XB TUB LIST BOOLD BE SAXXRCR XBSERTXOB. CB IF TBB UST ZOBF BOBBER IS A SET IS TRE SABE AS TBE FIB5T - CB ZOBE BOBBED, TBIS ISOLATES A • CLOSED-LOOP* SET OF ZOBBS. CR A •CLOSED-LOOP* SET OF ZOBES IS BOT A SET OF ROD ZOBBS, DOT - CB IS A SET XB BRICR ALL BBCLXDES XB TBE ZOBZS BAT BE CR IBTEBCSABCED. OBLT TSF bPTIOBS II (10) "0 OB <*1 APPLT ABD CR TBBSE SETS RXLL BE X6B3RBD FOB ALL OTBEBS. SEB BZI RELOB. CR TBEBE BAT BE SOBZOBES IB 7BP PBOBLEB, BOT TBE BOD ABB CB rOLLOBER RDCLXDES HOST BE ASSICBED TO ABD BABBLED OB A CR CORE BASIS, ROT 50RZOre, C CR BCD SETS OF ZOBE BOBBERS ABE REQUIRED. C c~....——~ Cr»BT• ) . C-137 c CS «9E FOLLOW »G RFCOBDS 1KB IB SETS OF TBO. HSBPS.OF IMS. C c- c • CB BFFEREBCE POXBT IB BISTORT f«D BECOBBf C CC FSSSE5T IF BCTD .ST. 0 C CL fFEB(L),L*1,ECTD),BOF,(J1(II,I*1,10) C CB (ECYDOI) * BBSBEB OF BOBBS. C CB FEB FBACTXOE OF TBf EXF3SBFE TXBE BET9EEB FBELIBCS, CB 0 HEMS STABT, 1.0 BEABS E3B, ST 1.0 IS 6ABBA6E. C CB EOF OFTXOB BXSC0S5EB BELOW. C CR BEFEBEBCE SET OF BOD P3SX7IOB SFECZFICATIOHS |5B BECOBD) C CC FVESEBT IF BCTD .ST. 0 C Ct f fBZI(J,I) ,J>1,BCB) ,L-1,ECTDt C CH (SC3*BCTD) • VBBBEB OF VOBDS- C CD BEX RtS & BEABIB6 BBICB IS DEFEBDEBT OB OFTXOB BOF. C C CB IF BOF IS 0 C CB WZI IS TBE BB3BTR OF T9E 1151 ZOBE XB SET J (BBZ ABOVE) CB RUIBS BOD XBSERTXOB AI FOXBT I XB TBE BISTORT, I.E., ILL - CB BOD ABD FCLLOBEB BATEBIAL COECEBTBATXOES ABB ZEBOSO XB ILL - CB ZOBES XB TBE SET - TBEB BOD MATERIAL (COECEBTBATIOHS ABB) CB IS I9SERTED IB CBDEB XB ALL ZOBES XB TBE SET TBR006B BZX ABD- CB TPLLOVEB (C0SCEBTRATX3BS ADF| IS INSERTED XB OBDEB FOB ILL - CB BEBABIBG ZOBES IB TBE SET. BOTE THAT OBIT THE BBCLXDES CB THAT ME ASSIGBED TO EACB ZOBE, OOT OF TBE BBS BED HBF LIST - CB AE9FE, ME IBTOtTED. T5IS OFTIOB COULD BE OSEB TO IBITXALIZE- CB TBE COBTEBTS OF TBE BOD ZOBES AT SORE FOXBT XB TBE BXSTOBT. - CB BOD-FOLLOWER EXPOSURE riBBOT BE FOLLOWED. CB IF BZI«0 FOB SORE SET J, BO CBAB6ES BILL BE BADE IB THAT CB SET OF BOD ZOBES. CB TBI5 OFTIOB BILL BE I6B0BED fOB A 'CLOSED-LOOP' SET. CB XF BOF .BO. 1 C (row C-138 CE BZI IS TEE BBJBEB OF ZOVE BXTERIAL XBTESCBABSES BEQDXSEB CS FOB SET 3 XT FOIST L IF TEE BZSTCET TO EFFECT TEE BESXBEB - CE EOE BXTBBEAVAL (OR XBSeSTXOS XF EZX .IT. «| . EOft EB» CB FOIXOVEF SECLXDE COBCESTBETXOSS fXE TEE LIST CF XOEES ABOVE)- CS WILL BE XETEBCBEBEEB IE A VOSB-BOVS SEESE BEX TXEBS. FOB CE EXAHFU FOE A BOB 'ClOSED-LDOF* SET, XT TEE BBS ZOBE CE EESBEFS FOB SET J EEEE CE 3fB3) 6fS«l 2(«l 7(R7| 5{R5) CE EBB*E TEE EX'S BBFEBSEFT TEE BOB ABB/OB FOUOEEB ESCLIBE CE COBCEVTBATIOBS IB TEE ZOBES XT FOXET L XE TEE BISTOBT, TUX - CV XF BZX * *2 (BOP VITBDFAVAL) TEO SBCCESSXEE XBTEBCBABCES CE EOBLE »E BADE ABB TEE FXEXL COBTEET5 OF TBE XOBES BOELE BE - CE 3(921 C(B7l 2(B5) T(FE) 5(FE| CE EBEEE FE EEFBESEETS TBE COVCEETBATIOB5 IESEBTEE IB BESB-Bt - CE XOEB 5 (SEE OKXOE BEE ABOVE} . XF BEX BXB EEEE -1 (BOB CE XESEETXOE). TEEE TBE rOVTEBTS OF TBS XOBES BDStB BS CE 3 (BE) «(B3| 2(9*} "»(B2| 5(BT| CE EBEEE BE EEFEBSEETS TBE COECEETEXTXOES XESSETEB IB BAEB-Sf - CE XOEE 3 (SEE OFTXOE HEX MOVE). CE TBXS EOF-1 OFTIOB BEST BE BSEB XF TBE BOD-FOLLOVBB EXPOSBBX - CE IS TO BE FOLLOWED. C CE XF X SET OF X09ES IS X *C10SE9~LC0F* SET, IE., TBE LAST CE ZOBS ROBBER EQOAL TO TBE FXBST ZOEF RDBSSB, TBBE BATSBXAL - CE IE TEE SECOED (OE BEXT TO LAST XF EEX.tT.Ol XOEE IS SAVEB - - CE TBEB XFTSE ELL XETEECBXECES BEES EEEE BABE, TBXS HATKRIAl - CB EEFLACES TEXT IV TEf LIST (OB FXEST) ZOBE XE TBE LIST. FOB - CV TEE •CLOSED-LOOF* SET, ELL BBCLXBES XE TBS EOBSS EBB CE XBTEBCBAV6EB, EOT JEST TBOSB SPECIFIED BT BEE EBB OF. CV AIL ZOEES IE X • CLOSED-LOOF' SET MS? EXTB TEE SMS BECLXBES- CE IV TEE SXRE ORDER. 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BLOCK c CB BBCLXPE XBEBTXriCHXOB EBB BESE B&T* C2B BECOBB1 C ci (arBfit,i-i,B*B), CL C !•»«IK.5»,K«1,BBT»),B«1,tPBB), ct c;asr*(K#B),K*i,aBrs},B*irBrsBt, CL f(ara(Ktat,K*i,BBrn»B«t,BrrB) c ct BOLT*BBR • aarB*BTBB • aars*arsB • Barr*arrB - BBBBEB or BORBS c co an BBCLXDB IEPCTCTCE IUE rot aaxca aass CB aCCOVBTXBS XS BtlBTKXBEB. (E6) CB BBB CSrCBBBCB ttCLXDBS PCB BX5CBAB6X BLOCK 8 fORBBB CB BBBBBt XB BPB LI5TJ CB BSPB BErEBEBCE BBCLXBES POB SOPPLT BLOCK B (OtBBB CB BBBBBB XB EPS LIST) CB art nmncr *OCLI»ES roa rxxED PEEB BLOCK a CB (otDEt voseet it ara LIST) c CB 0XSCBAB6B BLOCK 8MERIM, (30 BECOBD) C cc raasEtr xr aarvfarvB • aroMi.cT.o c ct ((eBaass(xrj)vx-i#aarB},j'i/arBi)# CL (BBBB(J) ,J"1,tf9BB> , |»CJM (J» ,9«1,tn>»B) , CL (BPBUTflf „>»,trB»B), {(WMSS(I,J),I»1,i!!in>) J-1,trDM) c # CB tr»B*ntrD • aropB*(3 * i»rD| - arose* or totos C-151 c c> BBMSS aass or R:UU X XB BIJCBBBCE BLOCK a CB BBBB BiscaaacB BLOCK TO BBCXKTB BBTBBI&L raoa CB BBUTBB BUCK J BBS* CBS BLOCK BBCOKBS CB BCTXTB (B CBTBT IVUXS SLOT 3 XS afBXUBU CB rO% BBULTBB BISTBABCZ). , CB BCTBBB RCUR CTZLB BSratBBCB BBBBBB BBBB BBUTBB CB BXSCBaBSS 15 CBrtTKB CB BTBLAT FBEIXBC BBLIT XB CTCLKS aSSOCXaTS* BITB BKU1BB CB BISCBBBBB BLOCK J CB BBBBSS BBSS Or BB?LXBB X XB BSLITBB BX9CUBCB BUCK J C ajWi^^^^^aw • ^W^MMM mm M^^»* w»»*^»*»^^ mm mmm>m>mmf^mmmmmm MM mmm^ ••••« Ct mm BLOCK BaTKBXlL |»B BXCOBS) C cc raasm xr BBrs*BrsB„st.a C ct (SBRiss(i,J»,i«i,iarsf,a«i,arsBi c Cf BrSB*BB7S « BBBBBB OT B0BB5 C CB saaass BASS or IBTLXBB X XB SBPVLT BLOCK a c c- cs XBITXAL BBBCTOB XBVEBTOBT BBB rtELxao XBTOBBATIOB tsa BBCOBB) c CI BCTX,BTXBX, (BBASS(X),I*1,BBB) C ci BBB»2 « ivBBri or BOBBS c CB BCTX BBrBVEBCB CTCLB BBBBBB FOB TBB XBXTXAl BBACTOB CB BASS BALABCB BXSTOBT CB BTXBI irrraeBce ant ettosvaz TXBC XB BATS roa rat CB XBXTXAL BBACTOS BBSS BALABCB BXSTOBT CB BBASS BBACTOB XBTOTOBT Of BBC1XBB X BT BBSIBBXSS OT CB BBSS BALABCB BXSTOBT C c- C* rVBLXBS XNriBRATXOB («B BTCOBBI c CL SCY, (IK(X),X>1,1*t,ltTIB,r3fSB,TBKSL,CBSflrT c CB 20 • BVHBR OT BOBBS C COBTJ C-152 CB BCT BEPEBEBCS CTCLE BBHBCF rOB THIS SET Or BBSS CB BaLtHCE oara CB BTXB BEFEPEBCE BEBl EXPOSBBE TXBE XB NTS CB BEPBESEBTEB BT TBXS SET OF BBSS BBiaBCB MTB CB POWER ELECTBICat BOBEB LEVEL OF TRE BBBCTOB {B1TTS) CB T»H nnni COBTEBSEOB racrot FOB TRE Reacroa CB fELKTBICat POBEB/TBEBBaL POtEB) CB CB53IT BBTE OF F3FL COBSBBRXOB FEB BBXT TBEBSBL CB EVEBCT GEBFBBTEB |KC *XSSTLE/EaTT-BaX| c CB iBinat LOBBIES RBSS BBLaacB aara fia BECOBBI c CL (BX9BSS fll,I«1,BBB| c CB BBB - BOBBER OF BOBBS C CB Bxsass xBxrxaL Bsacror Bass crnoB TO rvELXBa or CB BBCriPE X c c— c— CB DISCBBBSE BBTEBIBL BBSS BaLBBCE DBTB fBB BECOBBI C CC FBESEBT IF BBF9«BPDB CT.O C CL (|TB!USS(I,J) ,I=:.MFP»,3*1,BrDB)# CL HBDH»SS[I,J»,I»1,h»PI»),J«1 »rDB) c # CB 2»BPDB*EBPD « BOBBEB OF BOBDS C CB TBSBSS BBSS OF BS?LXDE X TBaBSTEiBED TO BSSCBBBSE CB BLOCK J FOB TBXS FVELXBC CB VBRBSS aass or aaa rax SABLE DXSCBBBSE raoa DZSCBBBCE CB BLOCK 3 C CB FIXED FEED BBSS BaLBBCE BBTB (9B BECOBB) C CC BBESEBT ZF RBFP*NFPB,6T.O C CL (|rF»aSSCI,J>,I«1,»BFF|,J»1,BFFB| c CB BPPBMBPP • BBBBEB OF B9BBS C c» mass Bass or auriiDE Z BODED FBOR FZXEB PEED BLOCK a C (Z3B7) C-153 CB surnr SITEIXIL sass BAULBCE MTB fioo BECOBBI c CC BBESEBT I? aBTS*BrS».CT.9 c ct ttsrmssp.j) ,x-i,sBrs) rj'ivtrsBi. CL CCrB!W5SCI,J|,t«1,BBFS),J«1,irSB), ci tcrEiiassfi,j| CB rXBBL LOaBXBC BBSS BBUBCI BBTB (11D BECOBBI C CL (PTSaSS CD ,I«1,BBB| c CB B9B • BBSBEB Of WOBwS C CB amass rxaaL taacroa aass (arrEB roEiiso or CB BBCLXBE X c C ctor aasBaL C-154 SPBCIPICATIOBS FOB XBTERFACE FILE EEPVEL »*•••- CB DATE 01-16-81 C CF BEFOEL C CE FOEL BABA6E9EBT SPECIPXCATI0B5 C get******************************••*•*•••**••••••*••*< CB FILE IPEBTZPICmOB C CL HBA9E,(BBSE(X),I*1,2),IVERS C CB 3*BULT * 1 • BBRBEB 0» BORDS C CO BBASE FILE BARE (16) «•REFUEL* CB ROSE OSEB IDEEtlPXCATIOB (2*6) CD ITERS FILE TERSI3B BOBBER C CB HOLT 1 FOB LCB3 BOP.D, 2 FOB SHORT WORD HACHXSES C C— cs FZLE STBOCrSRE cs cs BFCOBD TIPS PRESEBT ZF cs cs FILE ZDEBTIFICATIOB BLOATS cs FZLE COBTSOL aims cs EOCLZDS ZDEBTIPICA7IOB ABD B1SE DATA BLOATS cs TPBBSiriOB DATA FOR FUEL RBCTCLE BT5.GT.0 cs FIXED FOEL FEED MATERIAL DATA BLOCKS RBFF*BFFB.GT.O cs SOPPLT ABD DISCHARGE REFEREBCE DATA HSFS*BPSB*H9PD*SPDB.6T.O cs SOPPLT BLOCK HATESIAL ALLOCATIOB cs BFDB*BFSB.6T.O cs ••**•***(REPEAT TO BP3S) cs • FUEL BABAGEBEBT COBTBOL SPECIFZCATZOES BLOATS cs • PDEL BARAG&HEST SFECIPTCATZ3BS ALBATS cs c— C— CB FILE CO9TR0L (ID RECORD) C CL BBZ,BBX,BBR,RBO,SQft,BID,BTS,SQ,BPPB,HBPP,BPSB,RBPS,BPDB, CL RRPD,nP.1S,ffBC,BrDDB, (RI(I) ,1*1, J) C CW 20 • BOBBER OF BORDS c OBDEPXBKD DATA IS RFSSPFED FOR FDTDRE BSE CB C^BT) C-155 C CD BBZ ••• RESERVED *•• CD BBX ••• RESERVED ••• • CD BBR TOTAL RBBBFR VT BBCIXDE BEPFBEBCES - CD BRO BOCIIDE SErEPSECIBG OFTXOR » CD 0 8T ABSOLUTE BA3E (B ABASE) - CD 1 BT ORiaor DSER BABE (BREAOE) w CD BOB ROBBER Or HPCLIDE REFEREBCE5 IB SBFFLEBERTRL - CD LIST (IF IRIS VALOB 15 0, I PEPAOLT LIST IS - CD GBSERATED— SEE RIB DESCBXFTIOR IB BVCLIDE • CD IDEBTIFICAKOS ABD BASE DATA) » CD BID ••• RESERVED ••* *» CD BTS BBBBER OF TRRBSZTIOB SPECIPICATIOHS w CD »0 **• RESERVED **• » CD BFFB BBRBER OF riXED FDEL FEED BLOCKS » CD BBFF BRXISOB E09BEF. OF BDCLIDES IB ABT FIIED FBBL » CD FEED BLOCK * CD BFSB BOBBER OF POEt SBFFLT (RETICLE) BLOCKS • CD BBPS BAXXBOB 93RBEB OF RBCLZDX3 IB IBT SBFFLI BLOCK *» CD {IF BHFS IS 0 RHILE BFSB IS BOT, 1 DEPABLT » CD BOCLXDE LI3- XS 6SREBRTED FOR ERCR SOFFLI BLOCK » CD —SEE B5P3 DESCPIPTXCS IB SBFFLT RED DISCHARGE w CD REPERERCE DATA) w CD BFDB EBRBEF OF rOEL DISCRRRGE BLOCKS w CD RBFD RUMOR R3EBEB OF 30CLIDSS IB ABT DXSGRARCS ^ CD BLOCK (IF THIS TALOE IS 0 BRILE BFDB IS ROT, w CD R DEFROLT POCLIDB LIST IS 6EBEBRTED FOR ERCB w CD BLOCK—SEE RDR 0ESCSXF7IOB IK SBFFLT RBD * CD DISCHARGE PEFEREBCE DRTR) " CD BFRS ROBBER OF POEL HASAGE»EHT SPSCIPICATIOB SETS w CD EEC *•• RESERfED ••• - CD BFDDB RAXIBOH E09BER OF DELATED DISCHARGE BLOCKS « CD (A DELATED DISCHARGE BLOCK XS CREATED ABD ^ CD HAIBTAIHED TOR ABT HATBRXAL DISCHARGED BITB A • CD F0ELXR6 DELAT) • C CR BOCLIDE IDERTIFZCAtlOB ABD BASE DATA (2D RECORD) C CL (RPH(I),I«1,BHR),(HXH(J),J*1,EQH),(rLP(X),I>1,HER), CL (FLP(I),I>1,HBR),(PQ(I),I>1,!IBR|,(90/(I)#X*1,BRR) C C« H0LT*(R*R • RQH) M*RHR - RVHBER OP BORDS C CD RPR HBCLXDE REPERERCE BARES FOR BOCUDE ORDERED Z CD XR THESE SPECZPICATIOBS FOR FOEL ROTEHEBT (SEE - CD OFTIOR RR3|. THIS LIS? IS POR ALL MATERIALS CD HOPED ARD ACCOORTED FOR, (16) C (TORT) C-156 CD HIH BOCLIDE SEFEBEBCS BABES FOB BOB HAL FBEt, CD XOfEREBT IBD FOF FUEL DISCHARGE: ROBETER. BO CD HASS BALABCE ACTOBFTIBC IS SIDE FOB TBESE CD HWCLIDES. IE ADDXTXOB, THESE BVCLIBES ARE HOT C3 IBCLODED If RECYCLE SUPPLY PBOCESSXBC. (AS) C CJ BOTE: XF BQK^O IS IBS FILE COBTBOLflD} RECORD. THE! A CB DEFABLT HIS 11ST IS CSBEBATED FBOR TIE LI BR ART C9 HATERIALS TBtT APE CLASSIFIED AS FISSILE, CB FERTILE, OT9EP ACTIBIDF OB FISSIOB PBOBBCT ABB CB THAT ARE lOT ALEEADT FBESEBT IB THE HFH LIST. C CT BOTE: HOCLIDES ROT PBESEBT IB ETTBEC HFH OR RIB ARE CS ASS01ED TO BF BOB-HOBILE STR1CTBBAL OB CQOLABT CB HATERIAL. C CD FLP FABPICATIOR LOSS FBACTIOB5 CD PLF PR0CE3SIB3 LOSS FRACTIOHS CD FQ •*• BESERtED *•• CD BQ •** RESEBVED •*• C CR TBABSI7IOH DATA FOP FVEL RECYCLE (3D RECORD) C CC PRESEBT IF ITS.ST.0 C CL (TSP(I),I«1,5TS), ((BTRH(K,I),K*1,2),I*1,BTS) C CH 3*HTS « BOBBER Of BOBDS C CD TSF(I) TRARSITIOB FRACTION FOR THE BVCLXDE PAZB I CO ETR9(1,I) ORIGIBAL BJCLIDF I REFEREWCE (ORDER BOBBER IB CD HTH LIST) CD BTRB(2rI) PRODUCT HOCLIDP, I CETEREBCE (OBDEB BOBBER IB CD UPS LIST) C CB THESE SPECIFICATIONS ALL OS DECAT OF OBE BVCLIDE TO ITS CB PRODOCT, OR ALLOV rRABSLATIOB Or.NUCLIDES IB RECYCLED CB HATERXAL. HOLTXPLE PRODUCTS CAB BE SPECIFIED FOR THE CB SARE ORXGXRAL BUCLIDE BOT THE SOH OF THE TRABSZTIOB CB FRACTIONS HOST BE LESS THAR OR EQUAL TO 1.0 C CR FIXED rotL FEED HATERXAL DATA BLOCKS (»D RECORD) C CC PRESBHT IF B»FF«!rFfB.CT.O C CL ( (HPN(I, J) ,1-1 ,*BFP) ,J"1,NrFB) , ( (ADB(I,J) ,I»1,HHPP) , J«1,HPPB) C CB 2*HBPF*NPPB - BVHBER Of WORDS C (SORT) C-157 CB BTB BerEBEBCE BBCLIBBS FOB BLOCK J fOBBEB BBBBBB CB xa ara usrj c CB BOTE: ZEROS HBST BE ABBEB TO TBE EBB OT TBI BPB STBIBCS CB IB OBBEB TO BL3CK TBE ABBAT PBOP*SLT. C CB ABB ATOB BEBSITT OF BSJCLIB* BTB(I,J) FOB TEED CB SATEPIAL (ATOSS/B-CB) C CB SBFFLT ABB BISCBABSE BETEBEBCS BATA (SB BBCOBB| C cc BBeserr ir •Brs*BrsB»BBrB*ErBB.6T.o C CL (fBsrflfi,j|ri«i,SBrs).j*i,BrsB|v CI ((BBB(K,B),E»1,3BTB),B*1,ErBB) c C* 9BrS*BTSB • S*rV*BrBB « BBBBEB OT BOB3S c CB BSPB RETBBEBCE BBCLIBES roe SOPFLT BLOCK J (ORDER CB BBBBBB IB BFS LIST) C CB BOTE: ir wars .EQ. O BBILB BTSB .RE. O, A BETABLT LIST or CB ALL BBR BBCLIDBS IS GENERATED TOE EACB SBPPLT BLOCK C CB BD9 RereBEBCE BBCLIDBS FOB DX5CBAB6E BLOCK B (ORDER C9 BBBBBR IB BFB LIST) C CB EOT*: ir 3RPD .EQ. 0 BIILE BPBB .BE. 0, A DEFAOLT LIST OT CB ALL BBR BBCLXBES IS 6EBBRATBD TOR EACB DISCEABSE CB BLOCK C CB BOTE: ZerOS BSST BE ABDED TO TBB BED Or TBE BSPB ABB BBB CB STRIBSS IB ORDER TO BLOCK THE ABRAZ FROPERLT. C CR SBFPLT BLOCK -ATSRIAL AL.vOCATXOB (6D BECOBD) C CC PBESSBT IF BrOB'BrSB.CT.O C CCL ((Rr*(J,I),J-1,Br$B),X>1,BrDB),(BEHO(X),X»1,BrDB) c CB BF0B*(1 • BTSB) • ROBBER Or WORDS C CD BTf rRACTXOB 9T SATERXAL XB DISCHARGE BLOCK X TO CD POT IB SOPPLT BLOCK J. CD BBBO BXCeSS KATERIAL 0PTX09 TOR TOBX DISCBIRCE CD 0-EXCESS -ATERItL B07 OSrO IB TBE BBACTOB CB 1-EXCESS RTAILABLB XB TRB BEXT RBTOBLXBa POBT) C-158 c CB I KECOFD XS KEPT OF THE BASS OF TIE DISCHARGE CR BATERXAL FOR EACH PUCK. SO?PLT BUCKS IRS BADE OP . CH OF RATE9IAL TRARSFFRBED FR03 DISCHARGE BUCKS AFTER CR K RECTOS DFLAT, ArCOBBTIBC FOR PROCESSUS RED CB FABPXCRTIOB LOSSES MB TRABSRIOHS. SBPPLT RRTERIAL IS CB aUOCRTSB OBIFORBLT XRTO ALL FEED ZORES REFSREBCEB CB BASED OS V0L03E FRACTI09S. C CR FOEL RARA6ESERT COBTEOL SPECXFXCATXORS (TD RECORD) C CL HPST,SZS,ISZB,KFSO,(JI(I),1-1,16) C CB 20 « HORBER OF RORDS C CD RFST BBRRER OF DIFFERERT XRSTR0CTXOR LISTS II TRXS CD SPFCIFICAHOH CD RZS nilMB R3RBER OF ZORES (SRBZORES) IR EACH CD TRSTROCTIOK LIST C CR ROTE: FOR HFEO-1 (FDEL RELOCATTOR), RZS XS THE EBRBEB CR OT ZORE EHTRXES XHCLODXHG THE 0 70 TERHIBATE CS THE EXIT ZORF ADD FEED ZORE LIST ABD THE TRO CR O'S AT THE ERD OF THE ROYEHEHT LIST. C CD XSZR FLIC TO XRPXCATE ZORE OR SVBZORE REFEREHCES CD 0-ROfE ZORES CD 1-HOFE S3BZ0HES CD 2-HOfE Z9RES TO 50BZ0RES (FOR RFS0-1 OUT) CD 3-SOFE SRFZOFES TO ZORES (FOR HPBO-1 ORLZ) CD RFSO FOEL HOVEStHT SFECXFXCATIOR OPTXOH: CD 0-RORRAL FDEL ZORE ROTEREHT CD 1-rnEi RSLOCATXOB ZORE BOVEREBT (CORTERTS OF CD THE SPECIFIED EXIT ZORES ARE TO BE FOLRRE CD AFERA6ED AID ADDED TO SPECIFIED FEED ZORES CD RXTHOOT CRECKXB6 THE FEED ZORE TOLOHES) C CR ROTE: RFST HOST BE 1 FOR IFBO-1. C c- CR FUEL BARA6ERERT SFECXFXCATXOBS (8D RECORD) C CL (HFB(L) ,l«1,HPST) , (RFPB(L) ,L»1,HPST) , (RSB(L) ,L"1,HP5T) , CL (BOB (I) ,L*1,RFST) , (RFD(L) ,l«1,BPST| , CL ((*Z(X,L),I>1,RZS),L>1,RPST) C CI RFST* (RZS • 5) • ftSflBZR OF RORDS (C3ST) C-159 CB BPB rtSED FEED BLOCK REPEREECE PRIOR TO RECTCLE CD BTPB FIXED FEED BLOCK IF RECTCLE IS PRESEBT CD BSB SBPPLT BLO=E REPBREBCE (RECTCLE1 CD BDB DISCHARGE BLOCK REFEREBCE CD BED HEFBELIBC DEL AT IB ATATLABITT FOR BECTCLE CD 0-iO DBLAT; TBB DXSCBAEGED BATZSIAL IS CD ATAILABt* IS RECTCLE SOPPLT FOR THE CD BEIT POEL CTCLE CD B-DELAT "•" CTCLBS; TBE DISCBABCED SATEBttL CD IS AVAILABLE as RECTCLE SOPPLT AFTER »B« CD CTCLES FROB TBS CBBEEBT CTCLE BATE CD ELAPSED (a BSLBTED DISCBAECE BLOCK IS CD CREATES FOR EACB ZOBE/SBBZOBE DISCBARCEB CD BITB a BELATI CD BZ Z0BE/5BBZ0RE fSFE ISZB) BBBBER FOR FUEL CD SOVEBEBT C C CB FOR BFHO*0: BFST SETS OF LISTS OF ZOBES (SOBZOBES) ABE FRESEBTED CB IB WHICH TBE STARTIBC ZOBE IS TO BE REFUELED ABD ITS CB BATERIAL IS TO BE HOTED IBTO THE REIT ZOBE SPECIFIED, CB C0BTXB8XB6 TO BOTE BATERIAL THBOUGR TBE LIST BBTXL TBE CB LAST ZOBE IS REACHED. ITS MATERIAL IS TRABSFERREB TO CB A DISCBAB6E BLOCK 0BLESS THE ZOBE BOBBER IS EECATETE, CB IBDZCATIB6 CLOSED-tOOF FOEL BDVEBESr I> HHICH THE CB COETSETS OF TBE LAST ZONE 2 HOTED TO THE FZBST ZOBE. C9 TBE ZOBE LIST IS TERHXBATED BT TBE FIRST HZ TALOE CB .LE. 0. C CB FOB BTBO-1: OBE LIST OF ZOBES (SDBZOEES) IS PRESEBTED TOR FOEL CB BEL0CATI09. THE Z9RE LIST COBSISTS OF A SET OF EXIT CB ZOBES TERMRATED BT A 0 ZOBE TALOE FOLLOBED BT A SET CB OP TEED ZOBES TERHI BATED BT A 0 ZOBE ULOE. P0LL0HIH6 CB TBE FEED ZQEE SET, OTHER SETS OF EXIT ZOBES ABD FEED CB ZOBES BAT BE 6ITE8. TBE BOTEBEBT LIST IS TERHIBATED CB BHEB TBO SOCCESSXTE 0 ZOBE TALPES ARE EBCOOBTERED OB CB BBEB THE EBP OF TBE EZt LIST OF ZOBES IS EBCOOBTERED. CB FOR EACH EXIT ZOEE/PEED ZOBE SET,TBB COBCEBTRATIOBS IB CB TBE EXIT ZORBS ARE TO LOBE ATEBA6ED ABD PLACED IB TBB CB TEED ZOBES SPECIFIED BXTHOBT CHECEIBC THE TEED ZOBE CB TOLOBES. TBE ORI8IBAL EXIT ZOBES BZHAIB OBCHAHCED CB (OTHER SPECIFICATI3SS ARE BEEDED TO BEF0EL OR TO HOT! CB BATERXAL IBTO EXIT ZOBES). IB ADDITION, THERE IS HO CB BASS BALAHCE aCCOOPTIBC FOR TOEL BELOCATIOB. BFB,HrBB, CB BSB, BDB, ABD BFD HOST BE 0 FOR FOEL RELOCATXOB CB ZOBE BOTEBEBT. C c ...... -. ...~, (C3HT) C-160 CB COST DATA f9» BECOBB) C CL FXL, pn, FEI,PEF, PLF, PLA, PLB, FCT, m. PST, PBT, KT.OT, CL PET,PBA,PBB,«CC,BBC,VPC,BrE,BFE.XP1,XF2,IP3,IF*,IPS, CL IF6,IP7 IPB,IF9,IF10,IF11,IF12,IL,XS,JSS,ISS c r CV «T • BVSBEB OF BOBOS c c CD FXL FABBICATIOB LOSS FfACTIO* CD PAT PBPCESSIBC LOSS FPACTIOB CD FBI PBACTIOB OF XBITIAL LOADXBC ADD FABBXCATIOB TO BE CD CABPIED OTBB LIFE DP FUR CD FEF FBACTXOB OF ACTUAL HAKE-DP FOEL TBAF HVST BE CABBIED CD OB BABD TOB BEPLA?EREBT OVEB ABD ABOVE BSDAL BEFBELIBC CD (DOT AFFLIED TO XBITXAL IBVSBTOBT, DVT TO BAKE-BP CD QOABITXES OVEB FUSTEEDIBC FEBXOD) CD FLF BEACTOB FLABT LOAD FACT3B CD (CAFACITT DIVIDED FT DESICB CAPACITI) C CS BOTE: THE DESI6B CAFACXTT XS OSED IF TBE COBB BISTORT IS BBB CB AT TBE DESIGB CAFACITT. IF TBE COSE BISTOBX XS BOB OB CB AB EXFOBEBTIAL LOAD PACTOB, TBE AVERAGE CAFACITT IS BSED. C CD FLI I9ITIAL FLAVT LOAD FACTO! IF TBE LOAD PACTOB DECBBA5BS CD BXPOBTIALLT. BOT BSED IF LOAD PACTOB IS COBSrABT. CD PLA ••••BESBSVED*** CD PLB •••BESBBVED»*» CD FCT COBVEBSIOB COST LEAD TIRE (FBOR STABT OF BSE OF FOEL, CD IB TEABS) CD rrr FABBICATIOB COST LFAD TIRE CD FST SBIPPIBG COST LEAD TIRE CD MIT ROT STORAGE LA6 TIRE (FROR BEHOTAL FBOB TBE BEACTOB, CD IB TEABS) CD FST S3IPPIE3 COST LAG FXSE CD PBT BASTE DISPOSAL COST LAS TIRE CD PET VBVSED 1ATEBIAL COST LAS TIRE CD PBA ••*BBSEBVED»»» CD PBB ••*BE«rS. *!»•»• CD ooc OBT; CBE PEED cosr ( /KCJ CD BBC SUIT SEPABATIVE BOVK COST, EQOXVALEB? ( /KG) CD 0FC 05IT PBODOCT TPEATSEBT COST ( AG) CD BTE BEPEBEBCE TAILS EBBICHREBT (FRACTIOB) CD BFE BEFEBEBCE FEED EBBICRBEBT (FPACTIOB) C Cl) ****10 BOBE BBDZPIBED PLOAIXBG FOXBT B0HBEBS**** C IC3ST) C-161 CO in FISSILE •SBXCS3EET COSY CRLCBLATIOB OPTIOB CO 0 TO COST CALCBtATIOB IS PEBPOBBED. TIB 11*07 CD LXDZ BELATIfB 80BTB IS OSES BITBODT BOOIPICATIOS. CD fAPPLICABLE T3 FBLU EBBICKED COST! OS DOT DSOARi CD DIL9TI0* lOmS) co i CALCULATE IT FIXED EDRXCBBEBT MILS COODITIOO. CD BDC1IDE BORTf IS CALCULATED OSIBG TBS I SPOT TAILS CD EBRICBnEZT. CD 2 CALCBLATE IT 3PTIBSB EBBXCBBEBT TAILS COBBXTIOB. CD TBE OPTIRBH TAILS *"»ICBBBBT IS OLCDLATEB CD ADD OSES TO CALCOLATE TITB BOCUDE OOBTB. CD IP2 •••DESERTED*** CD | CD ! CD I CD 0 CD IF12 ***BBSERTBB*** CD XL BOBBEB OF SETS OF DATA ASSOCIATED BITS FABBICATIOB CD XB OOBBEE Or SETS OP DATA ASSOCIATED OITB PROCESSIBG C CB BOTE: TBS PIBST SET IS THE REFEBEBCE SET. IF TBEBE AEE BOB! CI TCAB OBE SET, TBE SECTS D SET APPLIES TO TBE PIBST CS STREAS,E ETC. TBE REFERENCE DATA IS OSED FOB ABT CB STBZRS BOT ASSI6BED A SPECIFIC DATA SET. C CD 45S BAXIBBB B09BEB OF ACTIBIDE ISOTOPES IB ABT SET CD IS5 BOBBEB OF ACTIBIDE ISOTOPE SETS C C* FUEL BARAGEBEBT EC3B0HICS DATA flOD BECOBD) C CI (FFC (L) ,L-1,IW) , (PDDfL) ,1-1,It| , (FBC(L) ,L*1,IL) , CI o ncn cos* or iinu* rose* •araxax. icon* at a txsrosai c» COST c /as •xsciatoB) c» rate* ••••Esetrta*** c» rvcfq COST or nam wnn x is SVCL»Z nmnci usr c» maasn < /KSI c* rssfX) totm or nam ottcm x x» MCUBB itrntKE usr Cft SOLS I /S6| c c* sorts ttsaTxvs rains rot rar an m sax » arrromars. c* sscs as a rnaux roa «23* c c» rsBfD *—ttsgfgf— c» xsxtx#j| acriaxa* xsororc oraci man x* ncixtt tsTEtssce aaas c» UST f2» BXCOBSI MSRi xtosx x. ZBSD artxts auot c» ummor ixsrammm TO vernsxac CBBXCMEVT CV WOBTS) CB xxrix,*} itrzrtsct nssne wrun is SBT x rot raxra mxctsn c» COSTS att caiman* c c» sortr mxcntsr aotrss ait sastt 01 m sn or TBC xroirxmL ra Tissue xsorort rracrxoss an iismnm »T maTXtt torn c CM*********************************************************************' c cror tersxx c