NUREG/IA-0402 

 International 

 Agreement Report

Implementation of the Control Rod

Movement Option by means of Control

Variables in RELAP5/PARCS v2.7

Coupled Code

Prepared by:

 R. Miró1, P. Ana1, T. Barrachina1, J. C. Martínez-Murillo2, C. Pereira3, G. Verdú

 1Institute for Industrial, Radiophysical and Environmental Safety (ISIRYM)

 Universitat Politècnica de València

 Camí de Vera, s/n

 46022 Valencia, SPAIN

 2Almaraz-Trillo AIE

 Av Manoteras 46Bis

 28050 Madrid, SPAIN

 3Departamento de Engenharia Nuclear

 Unversidade Federal de Mina Gerais

 Av. Antonio Carlos, 6627

 31270-901 Belo Horizonte, BRAZIL

K. Tien, NRC Project Manager

 

 Division of Systems Analysis

 Office of Nuclear Regulatory Research

 U.S. Nuclear Regulatory Commission

 Washington, DC 20555-0001

Manuscript Completed: July 2013

Date Published: July 2014

Prepared as part of

The Agreement on Research Participation and Technical Exchange

Under the Thermal-Hydraulic Code Applications and Maintenance Program (CAMP)

 Published by 

 U.S. Nuclear Regulatory Commission
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NUREG/IA-0402

 International 

 Agreement Report

Implementation of the Control Rod

Movement Option by means of Control

Variables in RELAP5/PARCS v2.7

Coupled Code

Prepared by:

R. Miró1, P. Ana1, T. Barrachina1, J. C. Martínez-Murillo2, C. Pereira3, G. Verdú

1

Institute for Industrial, Radiophysical and Environmental Safety (ISIRYM)

Universitat Politècnica de València

Camí de Vera, s/n

46022 Valencia, SPAIN

2

Almaraz-Trillo AIE

Av Manoteras 46Bis

28050 Madrid, SPAIN

3

Departamento de Engenharia Nuclear

 Unversidade Federal de Mina Gerais

Av. Antonio Carlos, 6627

31270-901 Belo Horizonte, BRAZIL

K. Tien, NRC Project Manager

 Division of Systems Analysis

Office of Nuclear Regulatory Research

U.S. Nuclear Regulatory Commission

Washington, DC 20555-0001

Manuscript Completed: July 2013

Date Published: July 2014

Prepared as part of

The Agreement on Research Participation and Technical Exchange

Under the Thermal-Hydraulic Code Applications and Maintenance Program (CAMP)

 Published by

 U.S. Nuclear Regulatory Commission

iii

ABSTRACT

The objective of this work is to introduce an improvement in best estimate coupled neutronicthermalhydraulic 3D codes simulations, by adding a model for the control rod movement in the 

coupled code RELAP5/PARCS v2.7, by means of control variables, with the aim of being able to 

dynamically analyze asymmetric transient accidents, as the reactivity insertion accidents (RIA) 

in a nuclear reactor, reproducing all the reactors control systems.

The modification developed in this work permits the automatic movement of the control rods, 

activated by the RELAP5 code control system, and also they can depend on signals related to

the reactor reactivity, like pressure, fuel temperature or moderator temperature, etc., improving 

the realism of the calculation and increasing the simulation capabilities.

This report was prepared by the Nuclear Engineering Group belonging to the Institute for 

Industrial, Radiophysical and Environmental Safety (ISIRYM) at the Universitat Politècnica de 

València (UPV), which collaborates in the simulation area with the Spanish company Centrales 

Nucleares Almaraz-Trillo (CNAT). The Asociación Española de la Industria Eléctrica (UNESA, 

Electric Industry Association of Spain), equivalent to the American EPRI sponsored this work.

v

FOREWORD

This report represents one of the assessment or application calculations submitted to fulfill the 

bilateral agreement for cooperation in thermal-hydraulic activities between the Consejo de 

Seguridad Nuclear (CSN) and the U.S. Nuclear Regulatory Commission (NRC) in the form of a 

Spanish contribution to the NRC’s Code Assessment and Management Program (CAMP), the 

main purpose of which is to validate the TRAC/RELAP Advanced Computational Engine 

(TRACE) code.

CSN and the Asociación Española de la Industria Eléctrica (UNESA, Electric Industry 

Association of Spain), together with some relevant universities, have established a coordinated 

framework (CAMP-Spain) with two main objectives: to fulfill the formal CAMP requirements and 

to improve the quality of the technical support groups that provide services to the Spanish 

utilities, CSN, research centers, and engineering companies.

The AP-28 Project Coordination Committee has reviewed this report: the contribution of one of 

the Spanish utilities to the above-mentioned CAMP-Spain program, for submission to CSN.

UNESA

June 2010

vii

CONTENTS

Page

Abstract .................................................................................................................................... iii

Foreword ................................................................................................................................... v 

Figures................................................................................................................ .. ix

Executive Summary................................................................................................................ .xi

Abbreviations......................................................................................................................... xiii

1. Introduction......................................................................................................................1-1 

2. Action Criteria for the Code Modification.......................................................................2-1 

3. Development of the Introduced Modifications...............................................................3-1 

3.1 First step: ID’s reading from MAPTAB and the sending to RELAP5...........................3-1 

3.2 Second step: Storage of the control variables' ID's in RELAP5 and transfer of the 

variables' values in each time step to PARCS v2.7....................................................3-4 

3.3 Third step: Control rod movement in PARCS v2.7 according to RELAP5 

instructions ................................................................................................................3-9 

4. Resolution of the Control Rod Initial Position Problem ................................................4-1 

5. Resolution of the Time Shift Problem.............................................................................5-1 

6. Qualification of the Modifications Introduced................................................................6-1 

7. Conclusions......................................................................................................................7-1 

8. References........................................................................................................................8-1 

Annex 1: Input decks for RELAP5 and PARCS v2.7 codes................................................ A-1 

ix

FIGURES

Page

1. Fragment of PARCS v2.7 input file.....................................................................xi

2. Data entry in MAPTAB file............................................................................................2-1 

3. Declaration of variables in PARCS v2.7 subroutine pdmr_varM.f. ...............................3-1 

4. Data reading and storage in PARCS v2.7 routine pdmr_mapM.f. ................................3-2 

5. Initialization of var_leídas() in PARCS v2.7 routine pdmr_mapM.f. .............................3-2 

6. Data transfer to RELAP5, routine gi_commM.f. ...........................................................3-3 

7. Variables declaration in PARCS v2.7 routine gi_commM.f. .........................................3-3 

8. Variables declaration in RELAP5 subroutine r-var.f. ....................................................3-3 

9. Data reception in RELAP5 routine r-commu.f. .............................................................3-4 

10. Fragment of MAPTAB file.............................................................................................3-5 

11. Declaration of the variable var_cntrl(1000) in RELAP5 routine r-var.f. ........................3-6 

12. Declaration of the variable z. ........................................................................................3-6 

13. Storage loop for the control variables values in convar.f. .............................................3-7 

14. Working diagram of the loop shown in figure 13. ..........................................................3-7 

15. Fragment of modified RELAP5 routine r-commu.F. .....................................................3-8 

16. Fragment of modified PARCS v2.7 routine gi_commM.f..............................................3-9 

17. Original loop for the control rod movement in PARCS v2.7 subroutine perturb.f. .........3-9 

18. Declaration of the variable mov_cr_relap in pdmr_varM.f. ....................................... 3-10

19. Modifications introduced in perturb.f. ......................................................................... 3-10

20. Condition for calculation mode selection in PARCS v2.7subroutine pdmr_mapM.f.... 3-11

21. Condition for loop selection in PARCS v2.7 subroutine perturb.f. .............................. 3-12

22. Loop for the new control rod movement in PARCS v2.7 subroutine perturb.f. ........... 3-13

23. Initial values storing instructions in iconvr.f. .................................................................4-1 

24. Declaration of the variable guardar_cntrlv(1000) in the RELAP5 subroutine r-var.f. ...4-1 

25. Fragment of the subrutine iconvr.f. ..............................................................................4-2 

26. Declaration of variable contador in RELAP5 routine r-commu.f. .................................4-2 

27. Loop in r-commu.f. ......................................................................................................4-3 

28. Working scheme of the initial values loop. ....................................................................4-4 

29. Fragment of the subroutine tran.f. ................................................................................5-1 

30. SNAP representation of the thermalhydraulic model.....................................................6-2

31. Thermalhydraulic channels...........................................................................................6-2

32. Control rods banks .......................................................................................................6-3

33. Comparison of the power evolution ..............................................................................6-3

34. Comparison of the enthalpy evolution...........................................................................6-3

xi

EXECUTIVE SUMMARY

The objective of this project is to introduce an improvement in simulations with coupled 

neutronic-thermalhydraulic 3D best estimate system codes, by adding a model for control rod 

movement in coupled code RELAP5/PARCS v2.7, by means of control variables, with the aim of 

being able to analyze asymmetric transient accidents, like the reactivity insertion accidents 

(RIA) in a nuclear reactor, reproducing all the reactors control systems.

In the neutronic simulation codes developed up to now, the control rods have not much 

movement versatility during a simulation. The commands for their movements are simply 

instructions which have to be introduced before the beginning of the calculation, and they are

not related to the core characteristics and the control systems at any time of the simulation. 

Figure 1 shows an example of the conditions that are used until now:

Figure 1 Fragment of PARCS v2.7 input file

Figure 1 shows the order for the movement of control rod bank number 14: the movement 

begins in second 2.0, so that in 0.1 seconds that bank moves from totally inserted position to 

335.625, position that means totally withdrawn in this example (move_bank command). 

In this work many changes are introduced in RELAP5/PARCS v2.7 codes in order to achieve 

that control rods become a more dynamic component in these kind of simulators.

With the modification developed in this work, control rods can be moved automatically, activated 

by the RELAP5 code control system, and they can also depend on signals related to the reactor 

activity, like pressure, fuel temperature or moderator temperature, etc., improving the realism of 

the calculation and widening the simulation possibilities.

The environment of work chosen have been the graphic programming environment Compaq 

Visual Fortran 6.6A (CVF 6.6A). The fundamental reasons have been, on one hand the facility 

of programming and versatility of the debugger of this environment, and on the other hand the 

fact that PARCS v2.7 source code already came prepared for this environment. RELAP5 

distribution did not come prepared for this programming environment, its compilation used to be 

made with shell script files for UNIX or CYGWIN operating systems, being all the process 

hidden for the user. Therefore, it was necessary to adapt the RELAP5 source code to the CVF 

6.6A.

xiii

ABBREVIATIONS

BWR Boiling Water Reactor

CAMP Code Assessment and Management Program

CSN Consejo de Seguridad Nuclear (Spanish Nuclear Regulatory 

Commission)

ID Identification Number

NRC U.S. Nuclear Regulatory Commission

PARCS Purdue Advance Reactor Core Simulator

PVM Parallel Virtual Machine

PWR Pressurized Water Reactor

SCRAM Safety Control Rod Axe Man (Emergency Reactor Shutdown)

SNAP Symbolic Nuclear Analysis Package

VVER Voda-Vodyanoi Energetichesky Reaktor (Russian Pressurized Water 

Reactor)

1-1 

1. INTRODUCTION

The coupled code RELAP5/PARCS v2.7 is a neutronic-thermalhydraulic code that can be used 

to simulate transient accidents considering neutronic phenomena in 3D geometry and 

thermalhydraulic processes in 1D multiple channels geometry.

As thermalhydraulic module, it uses the optimal estimation code RELAP5, which implements a 

two fluid and six-equations model to simulate the thermalhydraulic phenomena. This computer 

code has models for normal components of regular Light Water Reactors (LWR), like valves, 

pumps, heat sources, etc.

The fuel elements in the reactor core are modeled with multiple channel components. For

modeling the heat transfer in the fuel, an axial-radial heat transfer equation is used. The 

thermalhydraulic processes are solved with six equations: mass balance, moment and energy 

for the both liquid phase and steam.

As a neutronic module, it uses the nodal core simulator PARCS v2.7, which simulates the 

dynamic response of the reactor to reactivity disturbances solving the neutron diffusion equation 

in steady and transient states. This code is applicable to PWR, BWR and VVER, with 

rectangular or hexagonal fuel elements. PARCS v2.7 solves the neutron diffusion equation with 

the two energy groups approach for rectangular geometries and with any number of energy 

groups for hexagonal geometries. With this code it is possible to obtain the 3D space 

distribution of neutron flux and power, as well as its time evolution.

RELAP5 and PARCS v2.7 can be executed in a stand-alone way as well as coupled.

Coupled code RELAP5/PARCS v2.7 uses an internal integration scheme in which the 

thermalhydraulic solution is obtained from RELAP5 and the kinetic space solution is obtained 

from PARCS v2.7. PARCS uses the data from the thermalhydraulic solution (moderator 

temperature and density and fuel temperature) calculated by RELAP5 to incorporate the effects 

of the feedback through the cross sections. RELAP5 also solves the heat conduction in the heat 

structures of the core using the power distribution calculated by PARCS.

The temporal coupling of both codes is explicit. Essentially, the advance of time steps begins 

with RELAP5, which obtains the solution of the hydrodynamics field equations using the power 

of the previous time step. Later, the power in the time step in process is calculated by PARCS 

with the data provided by RELAP5.

The coupling between these two codes is obtained through a communication protocol between 

both processes (Parallel Virtual Machine - PVM). Both processes are executed in parallel and 

PARCS transfers the data of nodal power to RELAP5. After that, RELAP5 gives back the 

information of temperature (of fuel and moderator) and the moderator density to PARCS.

The coupling is made in an external form via PVM (Parallel Virtual Machine) (see Appendix B). 

Daemon pvm3d has to be working prior in all the machines that are going to share their 

computing resources with the virtual parallel machine, that is, it connects the execution of our 

programs with PVM: the administration of communication mechanisms between machines, the 

automatic conversion of data and the hiding of the network to the programmer.
1-2 

The neutron nodal structure is generally different from the nodal structure of the 

thermalhydraulic model. This difference is solved with a nodal mapping written in a file called 

MAPTAB, where the fractions of the different thermalhydraulic nodes associated with each 

neutron node are specified.

The MAPTAB file allows the neutron and thermalhydraulic nodes association and also allows 

the definition of the reflector properties and the election of the calculation method for the 

Doppler temperature.
2-1 

2. ACTION CRITERIA FOR THE CODE MODIFICATION

The adopted criteria to approach the implementation the modifications in the codes are the 

following:

• RELAP5 Control Variables will be used to move the control rod banks of the reactor 

core.

• The variables have to be introduced in the MAPTAB file, using the card %CRSIG.

• The Control Variables’ identification numbers will be introduced by order, so that the first 

will move control rod bank number 1, and so on. If a position is left with a “0” value, this 

will indicate that the corresponding control bank will not be moved, and therefore it will 

maintain its initial position during the whole transient.

Figure 2 Data entry in MAPTAB file

• Each control rod bank will be controlled only by one control variable. For each time step, 

the position of the control rod bank will be equal to the value of the corresponding 

RELAP5 Control Variable in that time step.

• User can opt for moving the control rods with the original method or using this new 

option, though this new option dominates over the previous one. Thus, if user 

implements the card %CRSIG in the MAPTAB file, control rods will be moved using the 

new option, although in the PARCS input deck the standard movement commands were 

also implemented (as in the normal case up to now).

• It is recommendable that the initial positions of the control rods in RELAP5 correspond

with the initial positions indicated in the PARCS input file, but again, the initial values 

introduced in RELAP5 will dominate the situation.

3-1 

3. DEVELOPMENT OF THE INTRODUCED MODIFICATIONS

Subsequently, the modifications carried out in RELAP5 and PARCS v2.7 codes are detailed in 

order to obtain the goal of the work. The modifications are explained step by step, in the same 

order in which they were introduced in the programs. 

The behavior of both programs in a coupled calculation is explained step by step, for a given 

time step. That is, during a coupled calculation, the program will execute repeatedly the actions 

that are going to be described, once for each time step, until the end of the calculation is 

reached.

3.1 First time step: ID’s reading from MAPTAB and the sending to RELAP5

The first goal to reach is the acceptance from RELAP5 of the Control Variables identification 

numbers (ID’s) introduced in the MAPTAB file. This modification can only be achieved 

introducing changes in the source codes of both programs. Otherwise, there would be more 

information than the needed in the MAPTAB file and the program would not be able to function 

correctly or simply do not to carry out the calculation on having errors detected during this file

processing. 

In order to achieve that, PARCS v2.7 source code has been modified first, specifically, routines 

pdmr_varM.f and pdmr_mapM.f, that take charge of the following:

• pdmr_varM.f: It collects the statement of PARCS v2.7variables, that is, this file contains 

the declaration of the most important variables of PARCS v2.7. New variables 

var_leidas(1000) and n_var have been introduced here. The former serves to store the 

read data, to a maximum of 1000 numbers, while the latter, is only used to know how 

many data have been stored in total (see the following figure).

Figure 3 Declaration of variables in PARCS v2.7 subroutine pdmr_varM.f
3-2 

• pdmr_mapM.f: this routine processes the MAPTAB file. Specifically, subroutine 

pdmr_map_readmat(icode) has been modified. A new loop has been introduced that 

takes care of reading the information introduced in the card %CRSIG in the MAPTAB 

file. If the code is being executed coupled with RELAP5, the program processes the 

MAPTAB file, and upon detecting the card %CRSIG, reads the information introduced in 

next line. The read data are stored in the new variable var_leidas, and the total number 

of read data is also stored, in the variable n_var, declared also in PARCS v2.7 (see 

figure 4).

Figure 4 Data reading and storage in PARCS v2.7 routine pdmr_mapM.f

The PARCS function nfields has been used in this loop. This function is capable of identifying 

the different data introduced in the line that has been read by the code, to determine the amount 

of data to be processed. 

Before storing the data in the variable, it should be initialized before the previous loop (see 

figure 5).

Figure 5 Initialization of var_leídas() in PARCS v2.7 routine pdmr_mapM.f

Once the information introduced by the user have been stored, the following step is “the 

sending” of these variables ID’s read from MAPTAB file to the RELAP5 code. This information 

will permit the thermalhydraulic code to identify the Control Variables that will move the control 

rod banks, since it can be Control Variables that deal with other functions inside the program.

To carry out this information transfer, two new orders have been added in subroutine 

gi_comm_sendbuf(iproc) in gi_commM.f file (see the following figure). This addition has been 

made using the variable pneut%i4buf of the pneut Fortran structure as a reference. This 
3-3 

variable is multidimensional and is used, among others things, for storing and transfer to 

RELAP5 the ID’s of the RELAP5 TRIP that activates the PARCS SCRAM option.

Figure 6 Data transfer to RELAP5, routine gi_commM.f

To achieve that changes previously introduced work correctly, it should be made a series of 

additional modifications in both PARCS v2.7 and RELAP5 codes.

For the neutronic code PARCS v2.7, a new declaration should be added in the routine 

gi_commM.f (see the following figure), otherwise, inside this routine, the program would not 

recognize the variables that it intends to send. It can be said, that it is a new declaration of 

variables var_leidas and n_var (the same had also to be done for variable contador and 

var_cntrl, just as it will be explained further on).

Figure 7 Variables declaration in PARCS v2.7 routine gi_commM.f

In the thermalhydraulic code RELAP5, it is necessary to introduce changes to correctly receive 

these variables from PARCS v2.7, without causing errors neither any problem on the program 

run. Some modifications have been made in the following routines:

• r-var.f: This routine contains the declaration of the most important variables of RELAP5. 

Here, two new variables have been declared, one to store the values of the Control 

Variables ID’s and other to store the total number of transmitted ID’s. These two 

variables store the information that comes from PARCS v2.7, for that it has been 

determined to call them in the same way they were declared in the neutronic code: 

var_leidas and n_var (see the following figure). Variables var_cntrl(1000), 

guardar_cntrlv(1000) and contador have been also declared here, but its function will 

be explained further on.
3-4 

Figure 8 Variables declaration in RELAP5 subroutine r-var.f

• Subroutine RDMR_Recv_PARCS_Buf(), from file r-commu.f: This subroutine is 

responsible for receiving the information from PARCS. The information sent by PARCS 

with variable pneut%i4buf is received with a different name, i4bufn, though the value of 

these variables is the same (figure 9).

Figure 9 Data reception in RELAP5 routine r-commu.f

Once here, RELAP5 knows the value of variables var_leidas and n_var, which will facilitate the 

following step.

3.2 Second step: Storage of the Control Variables' ID’s in RELAP5 and transfer 

of the variables' values in each time step to PARCS v2.7

Once the information has been received from PARCS v2.7, it can be passed to the following 

step, which consists of the storage of the Control Variables values for each time step. We now 

remark that, the ID’s of the control variables which will move the control rods in PARCS v2.7 

from RELAP5, are stored in variable var_leidas. 

These ID numbers should be introduced according to the order explained previously, that is, the 

variable whose ID is written first, will be the responsible for controlling control rod bank number 

1, the second variable will control bank number 2, and so on. If it the user wants to act on the 
3-5 

banks 1 and 3, for example, then among the ID of variables 1, 3 and 4, a “0” should be written. 

This can be understood better with the example shown in the following figure:

Figure 10 Fragment of MAPTAB file

In this example, the ID of control variables 521, 522 and 523 have been introduced. Variable 

521 will control to the number rod bank 1, the bank number 2 will not suffer perturbations and 

will conserve its initial position, while variables 522 and 523 will move banks number 3 and 

number 4. The remainder control rod banks will conserve their initial position during all the 

calculation.

The following step consists of locating and storing the value of the RELAP5 Control Variables 

involved, for each time step. The locating is carried out by means of a simple search, using the 

CVF 6.6A debugger for going line by line during the debugging of the program process and 

locating the important variables.

Once realized the follow-up of the variables, the following modifications were implemented: 

• Changes in the routine r-var.f: This routine gathers the declaration of the RELAP5 

variables, reason why a new variable has been declared here, var_cntrl() that takes 

charge of storing, for each time step, the values of the Control Variables that move the 

control rod banks (see the following figure). As in the previous cases, in this figure more 

introduced variables appear, which will be explained later.
3-6 

Figure 11 Declaration of the variable var_cntrl(1000) in RELAP5 routine r-var.f

• Changes in the subroutine convar.f: More auxiliary variables have to be declared (see 

the following figure) before loop in figure 13 can to be introduced. Specifically, the 

variable z has been declared, that is an auxiliary variable that will take the values for 

every step of calculation of the in figure 13, between 1 and the number of variables that 

are introduced in MAPTAB (n_var). This way, if n_var = 2, z will be equal to 1 for the 

first step of calculation of the loop and 2 for the second step of calculation.

Figure 12 Declaration of the variable z

Working of Control Variables position storing loop in figure 13:

The program performs a sweep along all the Control Variables introduced in RELAP5 input, so 

that for each of these variables, the corresponding instructions of the subroutine convar.f are 

processed.

The sweep is done by means of a loop, which maximum value is the total number of Control 

Variables. Thanks to the follow-up realized with the debugger, it can be known that variable 

cnvpnm(1,i) stores the ID of the Control Variable that is being processed for each value of i, 

and the variable cnvarn (i) stores the value of the variable i for the time step in which we are.

With all this information, the implemented loop realizes a comparison between the above 

mentioned variable and var_leidas, in this way it is possible to separate the variables entrusted 

to move the control rods of those that have some another function, and in this way the efforts 

are centered on these variables.
3-7 

This way, for each value of i, the loop will compare the values stored in var_leidas, using the 

counter z. If the value coincides, then the value of the control variable “ith” is stored in the 

position “zth” (that corresponds to the control bank number that moves the variable “ith”), of the 

variable var_cntrl(z). 

Figure 13 Storage loop for the control variables values in convar.f

The following scheme explains this process:

Comparison

for i=1

The program stores the value of cvanrn(1) in var_cntrl(1). In this way, assuming 

certain values as an example for the variable cvanrn(z), the variable var_cntrl(z) will 

take the following values:

Figure 14 Working diagram of the loop shown in figure 13
3-8 

Once here, all the information has to be sent to the neutronic code, which will be the one who 

finally uses these instructions to move the control rod banks.

In order to transfer of the information from RELAP5 to PARCS v2.7, the same steps have been 

followed that in the transfer of information from PARCS v2.7 to RELAP5 (that was explained 

previously). Studying a SCRAM activated by a RELAP TRIP, we found variable lbufth of 

RELAP5 and variable pth%lbuf of PARCS v2.7. These variables take charge of storing the 

same information, but each one do it in the corresponding program only.

These variables are those that use each code “to be informed” about if it is necessary or not to 

activate the SCRAM. The thermalhydraulic code is the one which decides if the trip is activated 

or not, depending on the calculation and the characteristics of the trip. If the trip is activated, 

then it will change its condition from “DEACTIVATED” to "ACTIVATED", i.e. from “0” to “1”. The 

variable lbufth takes this logical value and then it is sent to PARCS v2.7.

The signal is then received by the neutron kinetics code by means of variable pth%lbuf, and 

activates or not the SCRAM depending on the value that has received from RELAP5. The 

knowledge of how this process works, has been of great help for the development of this work, 

since this variables have been used as a “guide” to transfer the new commands to the program. 

It is an easy form to assure that the information is sent in the correct calculation moment.

The commands to transfer the variable under study, var_cntrl, which contains the positions that 

must have the control rod banks in every time step, were implemented just before the transfer of 

the variable lbufth. In this way, the reception remains determined in PARCS v2.7 just before the 

reception of the above mentioned variable.

The following figure presents the fragments of the source code where these transfer and 

reception information commands have been implemented. Here, it can be remembered that it is 

important the rules of the programming language are accomplished in order that everything 

works correctly, that is, the information has to be of the same nature (real, integer), the 

dimension must be the same, etc., this is specified in the same command that transfers the 

information. In this figure, it can be also seen a loop that will be commented later on.

Figure 15 Fragment of modified RELAP5 routine r-commu.F
3-9 

In the following figure, the implemented commands in PARCS v2.7’s routine gi_commM.f for 

the reception of the information are shown. The above mentioned information reception 

command must respect also the rules of the programming language.

Figure 16 Fragment of modified PARCS v2.7 routine gi_commM.f

3.3 Third step: control rod movement in PARCS v2.7 according to RELAP5 

instructions

The last step consists of moving the control rod banks inside PARCS v2.7, following the 

directions received from RELAP5 for each time step.

The first thing that it is necessary to do, as in previous steps, is to perform a step by step 

tracking of PARCS v2.7 behavior using the debugger tool, to find the routine and variables that 

take care of the control rod movement.

This way, subroutine perturb.f was found. This subroutine processes all the control rod 

positions during the transient. Inside this subroutine, it is located the loop responsible for 

performing the control rods movement (figure 17):

Figure 17 Original loop for the control rod movement in PARCS v2.7 subroutine 

perturb.f

PARCS v2.7 carries out a loop over all the control rod banks, placing each of them in the correct 

position in each time step, according to the predefined movements included in the input file. If 
3-10

the time step in the calculation do not coincide with the predefined times in the input deck, then 

an interpolation scheme is used to calculate the intermediate position of the corresponding bank 

in each moment.

In this loop, the variable crbpos(id) stores the position for bank “id” in time step tsgl (variable 

that stores the calculation time). Variable tbank(i,1,d) is the responsible for storing the control 

rod positions that the user indicated in the PARCS v2.7 input file for each control rod bank.

For the implementation of the new loop, several calculation options must be taken into account, 

doing possible that the user executes any of them. The three calculation options are:

• WITHOUT MODIFICATIONS. Those cases in which the control rods do not move, or 

they move using the original way, that is, using the commands from PARCS v2.7 input 

file to define the positions of the rods in each moment.

• WITH MODIFICATIONS. In this case the rods will be moved receiving instructions from 

RELAP5; this option is the aim of this work.

• SCRAM WITH TRIP. This option can be used with any of the two previous ones, but with 

one more condition. In this case the transient is executed normally but can be SCRAMed 

by activating a trip from RELAP5.

To choose between these options, a new variable was introduced: mov_cr_relap. The following 

figures present the declaration of variable in pdmr_varM.f, and the needed modifications for 

using this variable in the subroutine perturb.f: 

Figure 18 Declaration of the variable mov_cr_relap in pdmr_varM.f

Figure 19 Modifications introduced in perturb.f

The function of the variable mov_cr_relap is simple. The possible values of mov_cr_relap will 

be “0” or “1”, depending on if the user has implemented (1) or not (0) card %CRSIG in the 

MAPTAB file. This control on the introduced information is obtained by setting the condition of 

the following figure in the subroutine pdmr_mapM.f. 
3-11

Figure 20 Condition for calculation mode selection in PARCS v2.7subroutine 

pdmr_mapM.f

If during the processing of the MAPTAB file, card %CRSIG is detected, the value of variable 

mov_cr_relap will change to “1”. This information will be also used for selecting the execution 

option inside subroutine perturb.f. 

If the value of this variable is “0”, the program executes the original control rod movement 

PARCS v2.7 loop, without taking into account all the modifications implemented in the code, as 

can be seen in the following figure.
3-12

Figure 21 Condition for loop selection in PARCS v2.7 subroutine perturb.f

If the value of the variable mov_cr_relap is “1”, this means that the user has introduced the 

card %CRSIG in MAPTAB file, and therefore the loop that moves the rods will be the new one 

implemented in PARCS v2.7 (figure 22).
3-13

Figure 22 New loop for the control rod movement in PARCS v2.7 subroutine 

perturb.f

The third calculation mode is the PARCS v2.7 original option. This option allows the activation 

of a SCRAM controlled by a RELAP5 trip. This option continues available for the user, that is, it 

is possible to move the rods using Control Variables, and at the same time a SCRAM is allowed 

when the corresponding RELAP5 trip indicates it.
3-14

To use this option it is necessary to proceed like PARCS v2.7 manual indicates. In MAPTAB 

file, it can be implemented a %TRIP card with the trip ID of RELAP5 that activates the SCRAM. 

The calculation will continue its normal course until this trip activates a total SCRAM.
4-1 

4. RESOLUTION OF THE CONTROL ROD INITIAL POSITION 

PROBLEM

Once finished the previous steps, it was detected some mistakes in the implemented procedure. 

The first error was related to the control rod bank initial position.

The value that Control Variables take for each time step, and therefore the position that control 

rods must have, is obtained from the RELAP5 routine convar.f. The problem found was that 

this routine is processed since the first time step, so it is not possible to load the Control 

Variables initial values.

To obtain these initial values, routine iconvr.f was modified. This routine processes the Control 

Variables initial values. Variable cnvarn (i) was used for that purpose, it stores the initial values 

of all the Control Variables introduced in RELAP5. This information is passed to another 

variable, guardar_cntrlv(), that can be manipulated with more freedom without concerning to 

normal behavior of the code (see figure 23).

Figure 23 Initial values storing instructions in iconvr.f

The variable that stores these values is guardar_cntrlv(), declared in the general variables 

declaration routine r-var.f, see the following figure, close to other variables that have been 

explained previously. The values are stored using the indexes in cnvpnm(1, i). This variable 

makes a sweep over all of the control variables introduced in RELAP5 input deck, depending on 

the values of i. Variable guardar_cntrlv(1000) has also been declared here.

Figure 24 Declaration of the variable guardar_cntrlv(1000) in the RELAP5 

subroutine r-var.f
4-2 

In this way, the initial values of all the introduced Control Variables will be stored, up to a 

maximum of 1000, arranged according to the ID control variable number. For instance, the initial 

value of the Control Variable 521, let's suppose that it is 300.625, will be in position “521” of the 

information storage variable, keeping guardar_cntrlv(521) = 300.625.

To be able to use the declared variable (guardar_cntrlv()) in routine iconvr.f, one more line of 

code had to be added, see the following figure, since the declared variable is not a global 

variable which can be recognized in all the routines of the program in a predefined form.

Figure 25 Fragment of the subroutine iconvr.f

Once the values of the Control Variables have been stored, a new loop has been programmed. 

This loop is entrusted to transfer the information from the new variable guardar_cntrlv() to the 

variable that will be sent to PARCS v2.7 with the position of each control rod bank: var_cntrl(), 

which declaration can also be seen in the figure 24.

With all these variables and the implemented modifications the new loop has been coded.

Two new variables contador and contador2 have been also declared at the beginning of 

subroutine r-commu.f. 

Figure 26 Declaration of variable contador in RELAP5 routine r-commu.f
4-3 

Contador has the mission to assure that loop on figure 27 is only processed once, that is, the 

first time step of the run. During the following time steps the assignment of values will be 

realized in the routine convar.f. 

Variable contador takes by default an initial value of “0”, so, when it arrives to the position of 

the outer loop in figure 27, it fulfills the initial condition and the loop is processed. At the end of 

the loop variable contador is incremented one unit, so in the following time step the initial 

condition will not be fulfilled, and the loop will not be processed again.

The loop commands are simple: first, variable var_cntrl() is set to “0”. The following step 

consists of assigning to this variable the initial values of each Control Variable. For that, the 

code performs a sweep over all the positions in variable var_leidas(), that stores the ID’s of the 

Control Variables introduced in the MAPTAB file that will move the control rods groups. 

Afterwards, it will make a comparison and, for those positions which their values are not zero, 

will assign the Control Variable initial value. Here it is possible to figure out why the zeros in the 

file MAPTAB have to be introduced.

Figure 27 Loop in r-commu.f

The process is explained graphically in figure 28’s scheme, where it is summarized a simple 

case in which two control variables ID’s have been used in MAPTAB file.
4-4 

Figure 28 Working sequence of the initial values loop

Values read from MAPTAB file

var_leidas(1) = 521

var_leidas(2) = 0

var_leidas(3) = 522

var_leidas(4) = 0

Initial values of the control 

variables introduced in 

MAPTAB file

guardar_cntrlv(1) = 0.0

guardar_cntrlv(2) = 0.0

. 

. 

. 

guardar_cntrlv(521) = 300.625

guardar_cntrlv(522) = 300.625

. 

. 

. 

guardar_cntrlv(998) = 0.0

guardar_cntrlv(999) = 0.0

var_cntrl(1) = guardar_cntrlv(var_leidas(1)) = 300.625

var_cntrl (2) = 0*

var_cntrl (3) = 300.625

var_cntrl (4) = 0*

*The control rod banks which are not modified with the control variables will keep their 

initial position defined in the PARCS input file.

The positions 1, 2, etc. are the 

values of the variable 

contador2. 

The value represents one of the 

control variables of RELAP5. 

In this example, the bank No. 1

will be moved by the control 

variable 521 and the bank No. 

3 will be moved by the control 

variable 522. 

The variable 

guardar_cntrlv will 

store, in this case, the 

initial values of the 

variables 521 and 522. 
5-1 

5. RESOLUTION OF THE TIME SHIFT PROBLEM

With all these introduced changes it was realized that the program moves correctly the control 

rods, following the instructions indicated by user, but with a shift in the time step. The position of 

the control rods was always set one time step after the desired step.

To correct this behavior, the program was analyzed with the debugger. It was enough to put the 

calling to subroutine convar before the calling to rdmr in subroutine tran.f, to solve the 

problem. With the new configuration, the values of the Control Variables are updated before 

sending the information to PARCS v2.7, for what the lag between the programs disappears, see 

the following figure:

Figure 29 Fragment of the subroutine tran.f

In the original source code the line No. 3 was in use and was processed by the program. In line 

No. 2, a call to the routine rdmr transfers the information between both codes using the pvm

library. Due to the former calling sequence the transfer of information was done first, i.e., line 

No. 2 was processed before the calling to convar (line No. 3).

Line No. 3 has been changed to position No. 1, obtaining thus the update of the Control 

Variables values before its transfer to PARCS v2.7. With this simple modification, and after the 

necessary checking to assure that these changes were not concerning the results of the original 

programs, the final aim of this work was achieved.

6-1 

6. QUALIFICATION OF THE MODIFICATIONS INTRODUCED

In order to test that the modifications have been introduced properly, a Rod Ejection Accident 

(REA) transient to test the control rod movement modifications.

The Rod Ejection Accident (REA) belongs to the RIA category of accidents and it is part of the 

licensing basis accident analyses required for pressurized water reactors (PWR). The REA at 

hot zero power (HZP) is characterized by a single rod ejection from a core position with a very 

low power level. The evolution consists of a continuous reactivity insertion. The main feature 

limiting the consequences of the accident in a PWR is the Doppler Effect.

The reactor core studied is composed of 177 fuel elements, being the number of fuel rods per 

fuel element equal to 236 with 20 guide tubes. The neutronic model represents the whole core: 

the nodal discretization consists of 177 x 32 active nodes, considering 20 different fuel elements 

with 611 neutronic compositions. The cross-sections tables are generated with the SIMTAB 

methodology from CASMO4-SIMULATE3 code, developed at Universitat Politècnica de 

València, together with Iberdrola. 

The model uses two prompt neutron groups and six delayed neutron groups, while the boundary

condition for the neutron diffusion equation is zero-flux at the outer reflector surface.

Radially, the core is divided in 23 cm x 23 cm cells, each corresponding to one fuel assembly,

plus a radial reflector. There are 177 fuel assemblies and 64 reflector assemblies.

Axially, the core is divided into 34 layers (32 fuel layers plus top and bottom reflector) with

10.625 cm height each one, with a total active core height of 340 cm.

The Doppler temperature (Tf) calculated by PARCS v2.7 code is found from the fuel 

temperature at the fuel rod center Tfc and at the fuel rod surface Tfs by the relation:

Tf fc TT fs )1( αα ⋅+⋅−=

where α is taken as equal to 0.7.

The thermalhydraulic model has been performed using RELAP5-MOD3.3 code. The reactor 

core has been modeled with 10 thermalhydraulic channels connected with a multiple junction

(MTPLJUN) and the by-pass has been modeled as an independent channel (figures 30 and 31). 

Each one of the channels has 34 axial nodes. The axial nodes 1 and 34 represent the nonactive core region. A time dependent volume (TMDPVOL) and a time dependent junction 

(TMDPJUN) simulate the boundary conditions at the entrance and exit of the reactor core. Each 

thermalhydraulic channel representing the core is connected to a heat structure.
6-2 

Figure 30: SNAP representation of the thermalhydraulic model

Figure 31: Thermalhydraulic channels

Previous analysis determined that the control rod with the maximum worth belongs to the bank 

number 6 and it is located at position D-10. The thermalhydraulic channels surrounding the 

ejected control rod have been modeled as independent channels, while the others have been 

grouped in a unique channel (figure 31).

Control rods are grouped in 13 banks: initially banks 1, 5 and 6 are totally inserted and the other 

ones are out of the core. Figure 32 shows the control rods banks and the ejected rod D-10 is 

highlighted in red.
6-3 

Figure 32: Control rods banks

RELAP5 and PARCS v2.7 input decks are provided in the annex for running this example, for 

both the original option and the new capability. 

To compare the results using the older and the new option for the control rod movement, two 

parameters has been chosen: power and enthalpy. The results obtained are shown in Figures 

33 and 34. 

0 50 100 150 200 250 300 350 400 450 500 0

50

100

150

200

250

300

Time (s)

Power (W)

original

0 50 100 150 200 250 300 350 400 450 500 0

50

100

150

200

250

300

Tiempo (s)

Potencia (W)

new

Figure 33: Comparison of the power evolution

0 50 100 150 200 250 300 350 400 450 500 0

10

20

30

40

50

60

70

80

90

Time (s)

∆ Enthalpy (kJ/kg)

original

0 50 100 150 200 250 300 350 400 450 500 0

10

20

30

40

50

60

70

80

90

Tiempo (s)

∆ Entalpia (kJ/kg)

new

Figure 34: Comparison of the enthalpy evolution
6-4 

This figures show that there is no difference between the two options, as can be seen also in 

the numerical results of the output files supplied in the annex. The obtained results show that 

the introduced modifications work properly, as the results obtained with the new methodology 

are identical to the ones obtained with the original.
7-1 

7. CONCLUSIONS

The variables that have been introduced in the changes performed to the subroutines are 

summarized in the following table:

Table 1 Summary of the declared new variables in PARCS v2.7 and RELAP5 codes

Variable Meaning Code File

n_var

Total stored data: total number of 

RELAP5 Control Variables that 

will move PARCS control rod 

banks

PARCS v2.7 pdmr_varM.f

var_leidas(1000)

It stores the read data, that is, the 

ID’s for the RELAP5 Control 

Variables which will move the 

control rod banks in PARCS v2.7.

PARCS v2.7 pdmr_varM.f

mov_cr_relap

It is used to choose between one

type of calculation option and 

another, i.e., between the former 

CR movement option and the new 

one.

PARCS v2.7 pdmr_varM.f

var_cntrl(1000)

It takes charge of storing, in each 

time step, the value of the Control 

Variables which will move the 

control rod banks.

RELAP5 r-var.f

guardar_cntrlv(1000)

It stores the initial values of the 

Control Variables which will move 

the control rod banks. 

RELAP5 r-var.f

contador

It assures that the loop used to 

read the initial values of the 

control rod position is done only 

once.

RELAP5 r-commu.f

contador2 Auxiliary variable. RELAP5 r-commu.f

The table 2 shows a summary of PARCS v2.7 and RELAP5 modified routines:
7-2 

Table 2 Summary of the modified subroutines in PARCS V2.7 and RELAP5 codes

File Function Changes Code

pdmr_varM.f

Declaration of 

PARCS v2.7 

variables.

Declaration of the new 

variables: var_leidas, 

n_var, mov_cr_relap

PARCS v2.7

pdmr_mapM.f It processes the 

MAPTAB file.

New loop for reading the 

information from the 

%CRSIG card

PARCS v2.7

gi_commM.f

Sending and 

reception of the data 

from and to RELAP5 

code.

Sending of the variables 

var_leidas and n_var

and reception of the 

variable var_cntrl

through the PVM

PARCS v2.7

perturb.f

Processes the 

perturbations that 

occur during the 

transient.

With variable 

mov_cr_relap the control 

rod banks are moved 

following the orders from 

RELAP5

PARCS v2.7

r-var.f Declaration of 

RELAP5 variables.

Declaration of the new 

variables: var_leidas, 

n_var, guardar_cntrlv, 

var_cntrl

RELAP5

r-commu.f

Sending and 

reception of the data 

from and to PARCS 

v2.7 code.

Sending of the variable 

var_cntrl and reception 

of the variables: 

var_leidas, n_var, 

through the PVM

RELAP5

iconvr.f

Processes the 

Control Variables

initial values. 

It stores the initial values 

in the variable 

guardar_cntrlv

RELAP5

tran.f

It controls the 

advancement of the 

transient simulations: 

for each time step, it 

calls to the 

processing 

subroutine of the 

It updates first the values 

by calling to the 

subroutine convar and 

after that it sends them to 

the subroutine rdmr. 

RELAP5
7-3 

File Function Changes Code

hydraulic 

components, heat 

structures and reactor 

kinetics (0D or 

PARCS).

The main conclusions of this work are the following:

• In this project a new capability has added to RELAP5/PARCS v2.7 that converts it to a 

more real 3D simulator.

• Previous input files of both RELAP5 and PARCS v2.7 does not need to be modified, and 

they continue working without any modification.

• RELAP5 manual do not need to be modified.

• PARCS v2.7 manual only needs to incorporate the explanation of the new capability.

• Integration with the graphical environment SNAP.

• It permits the interactivity, both from SNAP and without graphical environment.

8-1 

8. REFERENCES

1. Compaq Visual Fortran. Programmer's Guide. Compaq Computer Corporation, Houston, 

Texas, August, 2001.

2. RELAP5/MOD3.3 Code Manual Volume VIII: Programmers Manual. Information 

Systems Laboratories, Inc., Rockville, Maryland, NUREG/CR-5535/Rev 1-Vol VIII, 

December, 2001.

3. PARCS v2.7 US NRC Core Neutronics Simulator. T. Downar, Y. Xu, T. Kozlowski, D. 

Carlson, School of Nuclear Engineering, Purdue University, W. Lafayette, Indiana, 2006.

4. PVM: Parallel Virtual Machine. A Users' Guide and Tutorial for Networked Parallel 

Computing. MIT Press Scientific and Engineering Computation, Janusz Kowalik, Editor, 

Massachusetts Institute of Technology, 1994.

5. O. Roselló, Desarrollo de una metodología de generación de secciones eficaces para la 

simplificación del núcleo de reactores de agua ligera y aplicación en códigos acoplados

neutrónicos termohidráulicos. PhD Thesis. UPV, Valencia, Spain (2004).

A-1 

ANNEX 1: INPUT DECKS FOR RELAP5 AND PARCS V2.7 CODES

In order to test that the modifications have been introduced properly, input decks for RELAP5 

and PARCS v2.7 codes are provided. The transient simulated is a Rod Ejection Accident (REA), 

and the control rod movement is implemented in both codes. 

For PARCS v2.7 code, GEOM_LWR file is needed. This file contains the reactor geometry data, 

and the control rod bank position. The file is provided in this annex. 

For coupled simulation, MAPTAB_RP file is also needed. This file contains the correspondence 

between neutronic and thermalhydraulic nodes, and is the file where the card %CRSIG is 

implemented. This file is also provided in this annex. 

Cards and comments referring to the control rod movement capability are shaded in grey.
A-2 

INPUT DECK FOR RELAP5 STAND ALONE SIMULATION:

=PWR R5M3.3 beta (INPUT FOR RIA TEST) 

* PWR REACTOR RELAP5 INPUT FILE0

* 

*------------------------------------------------------------------

* Problem Options

*------------------------------------------------------------------

* 

*******************************************************************

100 new stdy-st

101 run

102 si si

* remaining cpu time

105 5. 6.

* Min mj re

201 100.0 .1e-05 0.10 07003 5 4000 4000

202 500.0 .1e-05 0.10 07003 100 5000 5000

* 

*------------------------------------------------------------------

* T/H Volumes

*------------------------------------------------------------------

*------------------------------------------------------------------

* Core Inlet Boundary Conditions

*------------------------------------------------------------------

5000000 inlet tmdpvol

5000101 100.0 .1e+9 0. 0. 0. 0. 0. 0. 00

5000200 113

5000201 0.0 0.1552e+08 567.922 0.131e-02

5000202 .1e+07 0.1552e+08 567.922 0.131e-02

* 

* tmdpjun feedwater

* 

0550000 feedwate tmdpjun

0550101 500010000 200000000 3.048

0550200 1 

550201 0.0 16000.0000 0.0 0.0

550202 .1e+07 16000.0000 0.0 0.0

* 

* lower plenum part 0

* 

2000000 lwpt0 branch

2000001 4 1

2000101 3.0000 0.5 0.0 0.0 90.0 0.5 0 0.013083 0000000

2000200 113 0.1552e+08 567.922 0.131e-02

2001101 200010000 201000000 0.20 0.0 0.0 0000000

2002101 200010000 202000000 2.70 0.0 0.0 0000000

2003101 200010000 203000000 0.10 0.0 0.0 0000000

2004101 200010000 204000000 0.05 0.0 0.0 0000000

2001201 420.0 0.0 0.0

2002201 15000.0 0.0 0.0

2003201 500.0 0.0 0.0

2004201 260.0 0.0 0.0

* 

* 
A-3 

*lower plenum

* 

2010000 lw201 branch

2010001 1 1

2010101 0.20 0.5 0.0 0.0 90.0 0.5 0 0.013083 0000000

2010200 113 0.1552e+08 567.922 0.131e-02

2011101 201010000 250000000 0.20 0.0 0.0 0000000

2011201 420.0 0.0 0.0

* 

* 

*lower plenum

* 

2020000 lw202 branch

2020001 1 1

2020101 2.5 0.5 0.0 0.0 90.0 0.5 0 0.013083 0000000

2020200 113 0.1552e+08 567.922 0.131e-02

2021101 202010000 100000000 2.70 0.0 0.0 0000000

2021201 15000.0 0.0 0.0

* 

*lower plenum

* 

2030000 lw203 branch

2030001 6 1

2030101 0.1 0.5 0.0 0.0 90.0 0.5 0 0.013083 0000000

2030200 113 0.1552e+08 560.0 0.131e-02

2031101 203010000 101000000 0.0150 0.0 0.0 0000000

2032101 203010000 102000000 0.0150 0.0 0.0 0000000

2033101 203010000 103000000 0.0150 0.0 0.0 0000000

2034101 203010000 104000000 0.0150 0.0 0.0 0000000

2035101 203010000 105000000 0.0150 0.0 0.0 0000000

2036101 203010000 106000000 0.0150 0.0 0.0 0000000

2031201 90.0 0.0 0.0

2032201 90.0 0.0 0.0

2033201 90.0 0.0 0.0

2034201 90.0 0.0 0.0

2035201 90.0 0.0 0.0

2036201 90.0 0.0 0.0

* 

*lower plenum

* 

2040000 lw204 branch

2040001 3 1

2040101 0.05 0.5 0.0 0.0 90.0 0.5 0 0.013083 0000000

2040200 113 0.1552e+08 567.922 0.131e-02

2041101 204010000 107000000 0.0150 0.0 0.0 0000000

2042101 204010000 108000000 0.0150 0.0 0.0 0000000

2043101 204010000 109000000 0.0150 0.0 0.0 0000000

2041201 90.0 0.0 0.0

2042201 90.0 0.0 0.0

2043201 90.0 0.0 0.0

* 

* 

* 

********Internal Bundles*******

* 
A-4 

* Channel 100

* 

1000000 inb100 pipe

1000001 34

1000101 2.70 1

1000102 4.85 33

1000103 2.60 34

1000301 0.4670 1

1000302 0.1067 33

1000303 0.4540 34

1000601 90.0 34

1000701 0.4670 1

1000702 0.1067 33

1000703 0.4540 34

1000801 .60e-05 0.013083 34

1000901 1.4 1.4 1

1000902 0.0 0.0 4

1000903 1.8 1.8 5

1000904 0.0 0.0 10

1000905 1.8 1.8 11

1000906 0.0 0.0 15

1000907 1.8 1.8 16

1000908 0.0 0.0 21

1000909 1.8 1.8 22

1000910 0.0 0.0 26

1000911 1.8 1.8 27

1000912 0.0 0.0 32

1000913 0.70 0.70 33

1001001 0000100 34

1001101 00001000 33

1001201 113 0.1552e+08 567.874 0.0 0.0 0.0 1

1001202 113 0.1552e+08 567.874 0.0 0.0 0.0 2

1001203 113 0.1552e+08 567.874 0.0 0.0 0.0 3

1001204 113 0.1552e+08 567.874 0.0 0.0 0.0 4

1001205 113 0.1552e+08 567.874 0.0 0.0 0.0 5

1001206 113 0.1552e+08 567.874 0.0 0.0 0.0 6

1001207 113 0.1552e+08 567.874 0.0 0.0 0.0 7

1001208 113 0.1552e+08 567.874 0.0 0.0 0.0 8

1001209 113 0.1552e+08 567.874 0.0 0.0 0.0 9

1001210 113 0.1552e+08 567.874 0.0 0.0 0.0 10

1001211 113 0.1552e+08 567.874 0.0 0.0 0.0 11

1001212 113 0.1552e+08 567.874 0.0 0.0 0.0 12

1001213 113 0.1552e+08 567.874 0.0 0.0 0.0 13

1001214 113 0.1552e+08 567.874 0.0 0.0 0.0 14

1001215 113 0.1552e+08 567.874 0.0 0.0 0.0 15

1001216 113 0.1552e+08 567.874 0.0 0.0 0.0 16

1001217 113 0.1552e+08 567.874 0.0 0.0 0.0 17

1001218 113 0.1552e+08 567.874 0.0 0.0 0.0 18

1001219 113 0.1552e+08 567.874 0.0 0.0 0.0 19

1001220 113 0.1552e+08 567.874 0.0 0.0 0.0 20

1001221 113 0.1552e+08 567.874 0.0 0.0 0.0 21

1001222 113 0.1552e+08 567.874 0.0 0.0 0.0 22

1001223 113 0.1552e+08 567.874 0.0 0.0 0.0 23

1001224 113 0.1552e+08 567.874 0.0 0.0 0.0 24

1001225 113 0.1552e+08 567.874 0.0 0.0 0.0 25
A-5 

1001226 113 0.1552e+08 567.874 0.0 0.0 0.0 26

1001227 113 0.1552e+08 567.874 0.0 0.0 0.0 27

1001228 113 0.1552e+08 567.874 0.0 0.0 0.0 28

1001229 113 0.1552e+08 567.874 0.0 0.0 0.0 29

1001230 113 0.1552e+08 567.874 0.0 0.0 0.0 30

1001231 113 0.1552e+08 567.874 0.0 0.0 0.0 31

1001232 113 0.1552e+08 567.874 0.0 0.0 0.0 32

1001233 113 0.1552e+08 567.874 0.0 0.0 0.0 33

1001234 113 0.1552e+08 567.874 0.0 0.0 0.0 34

1002001 .1308e-02 34

1001300 1

1001301 15000.0 0.0 0.0 33

* 

* Channel 101

* 

1010000 inb101 pipe

1010001 34

1010101 0.0150 1

1010102 0.0290 33

1010103 0.0150 34

1010301 0.4670 1

1010302 0.1067 33

1010303 0.4540 34

1010601 90.0 34

1010701 0.4670 1

1010702 0.1067 33

1010703 0.4540 34

1010801 .60e-05 0.013083 34

1010901 1.4 1.4 1

1010902 0.0 0.0 4

1010903 1.8 1.8 5

1010904 0.0 0.0 10

1010905 1.8 1.8 11

1010906 0.0 0.0 15

1010907 1.8 1.8 16

1010908 0.0 0.0 21

1010909 1.8 1.8 22

1010910 0.0 0.0 26

1010911 1.8 1.8 27

1010912 0.0 0.0 32

1010913 0.70 0.70 33

1011001 0000100 34

1011101 00001000 33

1011201 113 0.1552e+08 567.874 0.0 0.0 0.0 1

1011202 113 0.1552e+08 567.874 0.0 0.0 0.0 2

1011203 113 0.1552e+08 567.874 0.0 0.0 0.0 3

1011204 113 0.1552e+08 567.874 0.0 0.0 0.0 4

1011205 113 0.1552e+08 567.874 0.0 0.0 0.0 5

1011206 113 0.1552e+08 567.874 0.0 0.0 0.0 6

1011207 113 0.1552e+08 567.874 0.0 0.0 0.0 7

1011208 113 0.1552e+08 567.874 0.0 0.0 0.0 8

1011209 113 0.1552e+08 567.874 0.0 0.0 0.0 9 

1011210 113 0.1552e+08 567.874 0.0 0.0 0.0 10

1011211 113 0.1552e+08 567.874 0.0 0.0 0.0 11

1011212 113 0.1552e+08 567.874 0.0 0.0 0.0 12
A-6 

1011213 113 0.1552e+08 567.874 0.0 0.0 0.0 13

1011214 113 0.1552e+08 567.874 0.0 0.0 0.0 14

1011215 113 0.1552e+08 567.874 0.0 0.0 0.0 15

1011216 113 0.1552e+08 567.874 0.0 0.0 0.0 16

1011217 113 0.1552e+08 567.874 0.0 0.0 0.0 17

1011218 113 0.1552e+08 567.874 0.0 0.0 0.0 18

1011219 113 0.1552e+08 567.874 0.0 0.0 0.0 19

1011220 113 0.1552e+08 567.874 0.0 0.0 0.0 20

1011221 113 0.1552e+08 567.874 0.0 0.0 0.0 21

1011222 113 0.1552e+08 567.874 0.0 0.0 0.0 22

1011223 113 0.1552e+08 567.874 0.0 0.0 0.0 23

1011224 113 0.1552e+08 567.874 0.0 0.0 0.0 24

1011225 113 0.1552e+08 567.874 0.0 0.0 0.0 25

1011226 113 0.1552e+08 567.874 0.0 0.0 0.0 26

1011227 113 0.1552e+08 567.874 0.0 0.0 0.0 27

1011228 113 0.1552e+08 567.874 0.0 0.0 0.0 28

1011229 113 0.1552e+08 567.874 0.0 0.0 0.0 29

1011230 113 0.1552e+08 567.874 0.0 0.0 0.0 30

1011231 113 0.1552e+08 567.874 0.0 0.0 0.0 31

1011232 113 0.1552e+08 567.874 0.0 0.0 0.0 32

1011233 113 0.1552e+08 567.874 0.0 0.0 0.0 33

1011234 113 0.1552e+08 567.874 0.0 0.0 0.0 34

1012001 .1308e-02 34

1011300 1

1011301 90.0 0.0 0.0 33

* 

* Channel 102

* 

1020000 inb102 pipe

1020001 34

1020101 0.0150 1 

1020102 0.0290 33

1020103 0.0150 34

1020301 0.4670 1

1020302 0.1067 33

1020303 0.4540 34

1020601 90.0 34

1020701 0.4670 1

1020702 0.1067 33

1020703 0.4540 34

1020801 .60e-05 0.013083 34

1020901 1.4 1.4 1

1020902 0.0 0.0 4

1020903 1.8 1.8 5

1020904 0.0 0.0 10

1020905 1.8 1.8 11

1020906 0.0 0.0 15

1020907 1.8 1.8 16

1020908 0.0 0.0 21

1020909 1.8 1.8 22

1020910 0.0 0.0 26

1020911 1.8 1.8 27

1020912 0.0 0.0 32

1020913 0.70 0.70 33

1021001 0000100 34
A-7 

1021101 00001000 33

1021201 113 0.1552e+08 567.874 0.0 0.0 0.0 1

1021202 113 0.1552e+08 567.874 0.0 0.0 0.0 2

1021203 113 0.1552e+08 567.874 0.0 0.0 0.0 3

1021204 113 0.1552e+08 567.874 0.0 0.0 0.0 4

1021205 113 0.1552e+08 567.874 0.0 0.0 0.0 5

1021206 113 0.1552e+08 567.874 0.0 0.0 0.0 6

1021207 113 0.1552e+08 567.874 0.0 0.0 0.0 7

1021208 113 0.1552e+08 567.874 0.0 0.0 0.0 8

1021209 113 0.1552e+08 567.874 0.0 0.0 0.0 9

1021210 113 0.1552e+08 567.874 0.0 0.0 0.0 10

1021211 113 0.1552e+08 567.874 0.0 0.0 0.0 11

1021212 113 0.1552e+08 567.874 0.0 0.0 0.0 12

1021213 113 0.1552e+08 567.874 0.0 0.0 0.0 13

1021214 113 0.1552e+08 567.874 0.0 0.0 0.0 14

1021215 113 0.1552e+08 567.874 0.0 0.0 0.0 15

1021216 113 0.1552e+08 567.874 0.0 0.0 0.0 16

1021217 113 0.1552e+08 567.874 0.0 0.0 0.0 17

1021218 113 0.1552e+08 567.874 0.0 0.0 0.0 18

1021219 113 0.1552e+08 567.874 0.0 0.0 0.0 19

1021220 113 0.1552e+08 567.874 0.0 0.0 0.0 20

1021221 113 0.1552e+08 567.874 0.0 0.0 0.0 21

1021222 113 0.1552e+08 567.874 0.0 0.0 0.0 22

1021223 113 0.1552e+08 567.874 0.0 0.0 0.0 23

1021224 113 0.1552e+08 567.874 0.0 0.0 0.0 24

1021225 113 0.1552e+08 567.874 0.0 0.0 0.0 25

1021226 113 0.1552e+08 567.874 0.0 0.0 0.0 26

1021227 113 0.1552e+08 567.874 0.0 0.0 0.0 27

1021228 113 0.1552e+08 567.874 0.0 0.0 0.0 28

1021229 113 0.1552e+08 567.874 0.0 0.0 0.0 29

1021230 113 0.1552e+08 567.874 0.0 0.0 0.0 30

1021231 113 0.1552e+08 567.874 0.0 0.0 0.0 31

1021232 113 0.1552e+08 567.874 0.0 0.0 0.0 32

1021233 113 0.1552e+08 567.874 0.0 0.0 0.0 33

1021234 113 0.1552e+08 567.874 0.0 0.0 0.0 34

1022001 .1308e-02 34

1021300 1

1021301 90.0 0.0 0.0 33

* 

* Channel 103

* 

1030000 inb103 pipe

1030001 34

1030101 0.0150 1

1030102 0.0290 33

1030103 0.0150 34

1030301 0.4670 1

1030302 0.1067 33

1030303 0.4540 34

1030601 90.0 34

1030701 0.4670 1

1030702 0.1067 33

1030703 0.4540 34

1030801 .60e-05 0.013083 34

1030901 1.4 1.4 1
A-8 

1030902 0.0 0.0 4

1030903 1.8 1.8 5

1030904 0.0 0.0 10

1030905 1.8 1.8 11

1030906 0.0 0.0 15

1030907 1.8 1.8 16

1030908 0.0 0.0 21

1030909 1.8 1.8 22

1030910 0.0 0.0 26

1030911 1.8 1.8 27

1030912 0.0 0.0 32

1030913 0.70 0.70 33

1031001 0000100 34

1031101 00001000 33

1031201 113 0.1552e+08 567.874 0.0 0.0 0.0 1

1031202 113 0.1552e+08 567.874 0.0 0.0 0.0 2

1031203 113 0.1552e+08 567.874 0.0 0.0 0.0 3

1031204 113 0.1552e+08 567.874 0.0 0.0 0.0 4

1031205 113 0.1552e+08 567.874 0.0 0.0 0.0 5

1031206 113 0.1552e+08 567.874 0.0 0.0 0.0 6

1031207 113 0.1552e+08 567.874 0.0 0.0 0.0 7

1031208 113 0.1552e+08 567.874 0.0 0.0 0.0 8

1031209 113 0.1552e+08 567.874 0.0 0.0 0.0 9

1031210 113 0.1552e+08 567.874 0.0 0.0 0.0 10

1031211 113 0.1552e+08 567.874 0.0 0.0 0.0 11

1031212 113 0.1552e+08 567.874 0.0 0.0 0.0 12

1031213 113 0.1552e+08 567.874 0.0 0.0 0.0 13

1031214 113 0.1552e+08 567.874 0.0 0.0 0.0 14

1031215 113 0.1552e+08 567.874 0.0 0.0 0.0 15

1031216 113 0.1552e+08 567.874 0.0 0.0 0.0 16

1031217 113 0.1552e+08 567.874 0.0 0.0 0.0 17

1031218 113 0.1552e+08 567.874 0.0 0.0 0.0 18

1031219 113 0.1552e+08 567.874 0.0 0.0 0.0 19

1031220 113 0.1552e+08 567.874 0.0 0.0 0.0 20

1031221 113 0.1552e+08 567.874 0.0 0.0 0.0 21

1031222 113 0.1552e+08 567.874 0.0 0.0 0.0 22

1031223 113 0.1552e+08 567.874 0.0 0.0 0.0 23

1031224 113 0.1552e+08 567.874 0.0 0.0 0.0 24

1031225 113 0.1552e+08 567.874 0.0 0.0 0.0 25

1031226 113 0.1552e+08 567.874 0.0 0.0 0.0 26

1031227 113 0.1552e+08 567.874 0.0 0.0 0.0 27

1031228 113 0.1552e+08 567.874 0.0 0.0 0.0 28

1031229 113 0.1552e+08 567.874 0.0 0.0 0.0 29

1031230 113 0.1552e+08 567.874 0.0 0.0 0.0 30

1031231 113 0.1552e+08 567.874 0.0 0.0 0.0 31

1031232 113 0.1552e+08 567.874 0.0 0.0 0.0 32

1031233 113 0.1552e+08 567.874 0.0 0.0 0.0 33

1031234 113 0.1552e+08 567.874 0.0 0.0 0.0 34

1032001 .1308e-02 34

1031300 1

1031301 90.0 0.0 0.0 33

* 

* Channel 104

* 

1040000 inb104 pipe
A-9 

1040001 34

1040101 0.0150 1

1040102 0.0290 33

1040103 0.0150 34

1040301 0.4670 1

1040302 0.1067 33

1040303 0.4540 34

1040601 90.0 34

1040701 0.4670 1

1040702 0.1067 33

1040703 0.4540 34

1040801 .60e-05 0.013083 34

1040901 1.4 1.4 1

1040902 0.0 0.0 4

1040903 1.8 1.8 5

1040904 0.0 0.0 10

1040905 1.8 1.8 11

1040906 0.0 0.0 15

1040907 1.8 1.8 16

1040908 0.0 0.0 21

1040909 1.8 1.8 22

1040910 0.0 0.0 26

1040911 1.8 1.8 27

1040912 0.0 0.0 32

1040913 0.70 0.70 33

1041001 0000100 34

1041101 00001000 33

1041201 113 0.1552e+08 567.874 0.0 0.0 0.0 1

1041202 113 0.1552e+08 567.874 0.0 0.0 0.0 2

1041203 113 0.1552e+08 567.874 0.0 0.0 0.0 3

1041204 113 0.1552e+08 567.874 0.0 0.0 0.0 4

1041205 113 0.1552e+08 567.874 0.0 0.0 0.0 5

1041206 113 0.1552e+08 567.874 0.0 0.0 0.0 6

1041207 113 0.1552e+08 567.874 0.0 0.0 0.0 7

1041208 113 0.1552e+08 567.874 0.0 0.0 0.0 8

1041209 113 0.1552e+08 567.874 0.0 0.0 0.0 9

1041210 113 0.1552e+08 567.874 0.0 0.0 0.0 10

1041211 113 0.1552e+08 567.874 0.0 0.0 0.0 11

1041212 113 0.1552e+08 567.874 0.0 0.0 0.0 12

1041213 113 0.1552e+08 567.874 0.0 0.0 0.0 13

1041214 113 0.1552e+08 567.874 0.0 0.0 0.0 14

1041215 113 0.1552e+08 567.874 0.0 0.0 0.0 15

1041216 113 0.1552e+08 567.874 0.0 0.0 0.0 16

1041217 113 0.1552e+08 567.874 0.0 0.0 0.0 17

1041218 113 0.1552e+08 567.874 0.0 0.0 0.0 18

1041219 113 0.1552e+08 567.874 0.0 0.0 0.0 19

1041220 113 0.1552e+08 567.874 0.0 0.0 0.0 20

1041221 113 0.1552e+08 567.874 0.0 0.0 0.0 21

1041222 113 0.1552e+08 567.874 0.0 0.0 0.0 22

1041223 113 0.1552e+08 567.874 0.0 0.0 0.0 23

1041224 113 0.1552e+08 567.874 0.0 0.0 0.0 24

1041225 113 0.1552e+08 567.874 0.0 0.0 0.0 25

1041226 113 0.1552e+08 567.874 0.0 0.0 0.0 26

1041227 113 0.1552e+08 567.874 0.0 0.0 0.0 27

1041228 113 0.1552e+08 567.874 0.0 0.0 0.0 28
A-10

1041229 113 0.1552e+08 567.874 0.0 0.0 0.0 29

1041230 113 0.1552e+08 567.874 0.0 0.0 0.0 30

1041231 113 0.1552e+08 567.874 0.0 0.0 0.0 31

1041232 113 0.1552e+08 567.874 0.0 0.0 0.0 32

1041233 113 0.1552e+08 567.874 0.0 0.0 0.0 33

1041234 113 0.1552e+08 567.874 0.0 0.0 0.0 34

1042001 .1308e-02 34

1041300 1

1041301 90.0 0.0 0.0 33

* 

* Channel 105

* 

1050000 inb105 pipe

1050001 34

1050101 0.0150 1

1050102 0.0290 33

1050103 0.0150 34

1050301 0.4670 1 

1050302 0.1067 33

1050303 0.4540 34

1050601 90.0 34

1050701 0.4670 1

1050702 0.1067 33

1050703 0.4540 34

1050801 .60e-05 0.013083 34

1050901 1.4 1.4 1

1050902 0.0 0.0 4

1050903 1.8 1.8 5

1050904 0.0 0.0 10

1050905 1.8 1.8 11

1050906 0.0 0.0 15

1050907 1.8 1.8 16

1050908 0.0 0.0 21

1050909 1.8 1.8 22

1050910 0.0 0.0 26

1050911 1.8 1.8 27

1050912 0.0 0.0 32

1050913 0.70 0.70 33

1051001 0000100 34

1051101 00001000 33

1051201 113 0.1552e+08 567.874 0.0 0.0 0.0 1

1051202 113 0.1552e+08 567.874 0.0 0.0 0.0 2

1051203 113 0.1552e+08 567.874 0.0 0.0 0.0 3

1051204 113 0.1552e+08 567.874 0.0 0.0 0.0 4

1051205 113 0.1552e+08 567.874 0.0 0.0 0.0 5

1051206 113 0.1552e+08 567.874 0.0 0.0 0.0 6

1051207 113 0.1552e+08 567.874 0.0 0.0 0.0 7

1051208 113 0.1552e+08 567.874 0.0 0.0 0.0 8

1051209 113 0.1552e+08 567.874 0.0 0.0 0.0 9

1051210 113 0.1552e+08 567.874 0.0 0.0 0.0 10

1051211 113 0.1552e+08 567.874 0.0 0.0 0.0 11

1051212 113 0.1552e+08 567.874 0.0 0.0 0.0 12

1051213 113 0.1552e+08 567.874 0.0 0.0 0.0 13

1051214 113 0.1552e+08 567.874 0.0 0.0 0.0 14

1051215 113 0.1552e+08 567.874 0.0 0.0 0.0 15
A-11

1051216 113 0.1552e+08 567.874 0.0 0.0 0.0 16

1051217 113 0.1552e+08 567.874 0.0 0.0 0.0 17

1051218 113 0.1552e+08 567.874 0.0 0.0 0.0 18

1051219 113 0.1552e+08 567.874 0.0 0.0 0.0 19

1051220 113 0.1552e+08 567.874 0.0 0.0 0.0 20

1051221 113 0.1552e+08 567.874 0.0 0.0 0.0 21

1051222 113 0.1552e+08 567.874 0.0 0.0 0.0 22

1051223 113 0.1552e+08 567.874 0.0 0.0 0.0 23

1051224 113 0.1552e+08 567.874 0.0 0.0 0.0 24

1051225 113 0.1552e+08 567.874 0.0 0.0 0.0 25

1051226 113 0.1552e+08 567.874 0.0 0.0 0.0 26

1051227 113 0.1552e+08 567.874 0.0 0.0 0.0 27

1051228 113 0.1552e+08 567.874 0.0 0.0 0.0 28

1051229 113 0.1552e+08 567.874 0.0 0.0 0.0 29

1051230 113 0.1552e+08 567.874 0.0 0.0 0.0 30

1051231 113 0.1552e+08 567.874 0.0 0.0 0.0 31

1051232 113 0.1552e+08 567.874 0.0 0.0 0.0 32

1051233 113 0.1552e+08 567.874 0.0 0.0 0.0 33

1051234 113 0.1552e+08 567.874 0.0 0.0 0.0 34

1052001 .1308e-02 34

1051300 1

1051301 90.0 0.0 0.0 33

* 

* Channel 106

* 

1060000 inb106 pipe

1060001 34

1060101 0.0150 1

1060102 0.0290 33

1060103 0.0150 34

1060301 0.4670 1

1060302 0.1067 33

1060303 0.4540 34

1060601 90.0 34

1060701 0.4670 1

1060702 0.1067 33

1060703 0.4540 34

1060801 .60e-05 0.013083 34

1060901 1.4 1.4 1

1060902 0.0 0.0 4

1060903 1.8 1.8 5

1060904 0.0 0.0 10

1060905 1.8 1.8 11

1060906 0.0 0.0 15

1060907 1.8 1.8 16

1060908 0.0 0.0 21

1060909 1.8 1.8 22

1060910 0.0 0.0 26

1060911 1.8 1.8 27

1060912 0.0 0.0 32

1060913 0.70 0.70 33

1061001 0000100 34

1061101 00001000 33

1061201 113 0.1552e+08 567.874 0.0 0.0 0.0 1

1061202 113 0.1552e+08 567.874 0.0 0.0 0.0 2
A-12

1061203 113 0.1552e+08 567.874 0.0 0.0 0.0 3

1061204 113 0.1552e+08 567.874 0.0 0.0 0.0 4

1061205 113 0.1552e+08 567.874 0.0 0.0 0.0 5

1061206 113 0.1552e+08 567.874 0.0 0.0 0.0 6

1061207 113 0.1552e+08 567.874 0.0 0.0 0.0 7

1061208 113 0.1552e+08 567.874 0.0 0.0 0.0 8

1061209 113 0.1552e+08 567.874 0.0 0.0 0.0 9

1061210 113 0.1552e+08 567.874 0.0 0.0 0.0 10

1061211 113 0.1552e+08 567.874 0.0 0.0 0.0 11

1061212 113 0.1552e+08 567.874 0.0 0.0 0.0 12

1061213 113 0.1552e+08 567.874 0.0 0.0 0.0 13

1061214 113 0.1552e+08 567.874 0.0 0.0 0.0 14

1061215 113 0.1552e+08 567.874 0.0 0.0 0.0 15

1061216 113 0.1552e+08 567.874 0.0 0.0 0.0 16

1061217 113 0.1552e+08 567.874 0.0 0.0 0.0 17

1061218 113 0.1552e+08 567.874 0.0 0.0 0.0 18

1061219 113 0.1552e+08 567.874 0.0 0.0 0.0 19

1061220 113 0.1552e+08 567.874 0.0 0.0 0.0 20

1061221 113 0.1552e+08 567.874 0.0 0.0 0.0 21

1061222 113 0.1552e+08 567.874 0.0 0.0 0.0 22

1061223 113 0.1552e+08 567.874 0.0 0.0 0.0 23

1061224 113 0.1552e+08 567.874 0.0 0.0 0.0 24

1061225 113 0.1552e+08 567.874 0.0 0.0 0.0 25

1061226 113 0.1552e+08 567.874 0.0 0.0 0.0 26

1061227 113 0.1552e+08 567.874 0.0 0.0 0.0 27

1061228 113 0.1552e+08 567.874 0.0 0.0 0.0 28

1061229 113 0.1552e+08 567.874 0.0 0.0 0.0 29

1061230 113 0.1552e+08 567.874 0.0 0.0 0.0 30

1061231 113 0.1552e+08 567.874 0.0 0.0 0.0 31

1061232 113 0.1552e+08 567.874 0.0 0.0 0.0 32

1061233 113 0.1552e+08 567.874 0.0 0.0 0.0 33

1061234 113 0.1552e+08 567.874 0.0 0.0 0.0 34

1062001 .1308e-02 34

1061300 1

1061301 90.0 0.0 0.0 33

* 

* Channel 107

* 

1070000 inb107 pipe

1070001 34

1070101 0.0150 1

1070102 0.0290 33

1070103 0.0150 34

1070301 0.4670 1

1070302 0.1067 33

1070303 0.4540 34

1070601 90.0 34

1070701 0.4670 1

1070702 0.1067 33

1070703 0.4540 34

1070801 .60e-05 0.013083 34

1070901 1.4 1.4 1

1070902 0.0 0.0 4

1070903 1.8 1.8 5

1070904 0.0 0.0 10
A-13

1070905 1.8 1.8 11

1070906 0.0 0.0 15

1070907 1.8 1.8 16

1070908 0.0 0.0 21

1070909 1.8 1.8 22

1070910 0.0 0.0 26

1070911 1.8 1.8 27

1070912 0.0 0.0 32

1070913 0.70 0.70 33

1071001 0000100 34

1071101 00001000 33

1071201 113 0.1552e+08 567.874 0.0 0.0 0.0 1

1071202 113 0.1552e+08 567.874 0.0 0.0 0.0 2

1071203 113 0.1552e+08 567.874 0.0 0.0 0.0 3

1071204 113 0.1552e+08 567.874 0.0 0.0 0.0 4

1071205 113 0.1552e+08 567.874 0.0 0.0 0.0 5

1071206 113 0.1552e+08 567.874 0.0 0.0 0.0 6

1071207 113 0.1552e+08 567.874 0.0 0.0 0.0 7

1071208 113 0.1552e+08 567.874 0.0 0.0 0.0 8

1071209 113 0.1552e+08 567.874 0.0 0.0 0.0 9

1071210 113 0.1552e+08 567.874 0.0 0.0 0.0 10

1071211 113 0.1552e+08 567.874 0.0 0.0 0.0 11

1071212 113 0.1552e+08 567.874 0.0 0.0 0.0 12

1071213 113 0.1552e+08 567.874 0.0 0.0 0.0 13

1071214 113 0.1552e+08 567.874 0.0 0.0 0.0 14

1071215 113 0.1552e+08 567.874 0.0 0.0 0.0 15

1071216 113 0.1552e+08 567.874 0.0 0.0 0.0 16

1071217 113 0.1552e+08 567.874 0.0 0.0 0.0 17

1071218 113 0.1552e+08 567.874 0.0 0.0 0.0 18

1071219 113 0.1552e+08 567.874 0.0 0.0 0.0 19

1071220 113 0.1552e+08 567.874 0.0 0.0 0.0 20

1071221 113 0.1552e+08 567.874 0.0 0.0 0.0 21

1071222 113 0.1552e+08 567.874 0.0 0.0 0.0 22

1071223 113 0.1552e+08 567.874 0.0 0.0 0.0 23

1071224 113 0.1552e+08 567.874 0.0 0.0 0.0 24

1071225 113 0.1552e+08 567.874 0.0 0.0 0.0 25

1071226 113 0.1552e+08 567.874 0.0 0.0 0.0 26

1071227 113 0.1552e+08 567.874 0.0 0.0 0.0 27

1071228 113 0.1552e+08 567.874 0.0 0.0 0.0 28

1071229 113 0.1552e+08 567.874 0.0 0.0 0.0 29

1071230 113 0.1552e+08 567.874 0.0 0.0 0.0 30

1071231 113 0.1552e+08 567.874 0.0 0.0 0.0 31

1071232 113 0.1552e+08 567.874 0.0 0.0 0.0 32

1071233 113 0.1552e+08 567.874 0.0 0.0 0.0 33

1071234 113 0.1552e+08 567.874 0.0 0.0 0.0 34

1072001 .1308e-02 34

1071300 1

1071301 90.0 0.0 0.0 33

* 

* Channel 108

* 

1080000 inb108 pipe

1080001 34

1080101 0.0150 1

1080102 0.0290 33
A-14

1080103 0.0150 34

1080301 0.4670 1

1080302 0.1067 33

1080303 0.4540 34

1080601 90.0 34

1080701 0.4670 1

1080702 0.1067 33

1080703 0.4540 34

1080801 .60e-05 0.013083 34

1080901 1.4 1.4 1

1080902 0.0 0.0 4

1080903 1.8 1.8 5

1080904 0.0 0.0 10

1080905 1.8 1.8 11

1080906 0.0 0.0 15

1080907 1.8 1.8 16

1080908 0.0 0.0 21

1080909 1.8 1.8 22

1080910 0.0 0.0 26

1080911 1.8 1.8 27

1080912 0.0 0.0 32

1080913 0.70 0.70 33

1081001 0000100 34

1081101 00001000 33

1081201 113 0.1552e+08 567.874 0.0 0.0 0.0 1

1081202 113 0.1552e+08 567.874 0.0 0.0 0.0 2

1081203 113 0.1552e+08 567.874 0.0 0.0 0.0 3

1081204 113 0.1552e+08 567.874 0.0 0.0 0.0 4

1081205 113 0.1552e+08 567.874 0.0 0.0 0.0 5

1081206 113 0.1552e+08 567.874 0.0 0.0 0.0 6

1081207 113 0.1552e+08 567.874 0.0 0.0 0.0 7

1081208 113 0.1552e+08 567.874 0.0 0.0 0.0 8

1081209 113 0.1552e+08 567.874 0.0 0.0 0.0 9

1081210 113 0.1552e+08 567.874 0.0 0.0 0.0 10

1081211 113 0.1552e+08 567.874 0.0 0.0 0.0 11

1081212 113 0.1552e+08 567.874 0.0 0.0 0.0 12

1081213 113 0.1552e+08 567.874 0.0 0.0 0.0 13

1081214 113 0.1552e+08 567.874 0.0 0.0 0.0 14

1081215 113 0.1552e+08 567.874 0.0 0.0 0.0 15

1081216 113 0.1552e+08 567.874 0.0 0.0 0.0 16

1081217 113 0.1552e+08 567.874 0.0 0.0 0.0 17

1081218 113 0.1552e+08 567.874 0.0 0.0 0.0 18

1081219 113 0.1552e+08 567.874 0.0 0.0 0.0 19

1081220 113 0.1552e+08 567.874 0.0 0.0 0.0 20

1081221 113 0.1552e+08 567.874 0.0 0.0 0.0 21

1081222 113 0.1552e+08 567.874 0.0 0.0 0.0 22

1081223 113 0.1552e+08 567.874 0.0 0.0 0.0 23

1081224 113 0.1552e+08 567.874 0.0 0.0 0.0 24

1081225 113 0.1552e+08 567.874 0.0 0.0 0.0 25

1081226 113 0.1552e+08 567.874 0.0 0.0 0.0 26

1081227 113 0.1552e+08 567.874 0.0 0.0 0.0 27

1081228 113 0.1552e+08 567.874 0.0 0.0 0.0 28

1081229 113 0.1552e+08 567.874 0.0 0.0 0.0 29

1081230 113 0.1552e+08 567.874 0.0 0.0 0.0 30

1081231 113 0.1552e+08 567.874 0.0 0.0 0.0 31
A-15

1081232 113 0.1552e+08 567.874 0.0 0.0 0.0 32

1081233 113 0.1552e+08 567.874 0.0 0.0 0.0 33

1081234 113 0.1552e+08 567.874 0.0 0.0 0.0 34

1082001 .1308e-02 34

1081300 1

1081301 90.0 0.0 0.0 33

* 

* Channel 109

* 

1090000 inb109 pipe

1090001 34

1090101 0.0150 1

1090102 0.0290 33

1090103 0.0150 34

1090301 0.4670 1

1090302 0.1067 33

1090303 0.4540 34

1090601 90.0 34

1090701 0.4670 1

1090702 0.1067 33

1090703 0.4540 34

1090801 .60e-05 0.013083 34

1090901 1.4 1.4 1

1090902 0.0 0.0 4

1090903 1.8 1.8 5

1090904 0.0 0.0 10

1090905 1.8 1.8 11

1090906 0.0 0.0 15

1090907 1.8 1.8 16

1090908 0.0 0.0 21

1090909 1.8 1.8 22

1090910 0.0 0.0 26

1090911 1.8 1.8 27

1090912 0.0 0.0 32

1090913 0.70 0.70 33

1091001 0000100 34

1091101 00001000 33

1091201 113 0.1552e+08 567.874 0.0 0.0 0.0 1

1091202 113 0.1552e+08 567.874 0.0 0.0 0.0 2

1091203 113 0.1552e+08 567.874 0.0 0.0 0.0 3

1091204 113 0.1552e+08 567.874 0.0 0.0 0.0 4

1091205 113 0.1552e+08 567.874 0.0 0.0 0.0 5

1091206 113 0.1552e+08 567.874 0.0 0.0 0.0 6

1091207 113 0.1552e+08 567.874 0.0 0.0 0.0 7

1091208 113 0.1552e+08 567.874 0.0 0.0 0.0 8

1091209 113 0.1552e+08 567.874 0.0 0.0 0.0 9 

1091210 113 0.1552e+08 567.874 0.0 0.0 0.0 10

1091211 113 0.1552e+08 567.874 0.0 0.0 0.0 11

1091212 113 0.1552e+08 567.874 0.0 0.0 0.0 12

1091213 113 0.1552e+08 567.874 0.0 0.0 0.0 13

1091214 113 0.1552e+08 567.874 0.0 0.0 0.0 14

1091215 113 0.1552e+08 567.874 0.0 0.0 0.0 15

1091216 113 0.1552e+08 567.874 0.0 0.0 0.0 16

1091217 113 0.1552e+08 567.874 0.0 0.0 0.0 17

1091218 113 0.1552e+08 567.874 0.0 0.0 0.0 18
A-16

1091219 113 0.1552e+08 567.874 0.0 0.0 0.0 19

1091220 113 0.1552e+08 567.874 0.0 0.0 0.0 20

1091221 113 0.1552e+08 567.874 0.0 0.0 0.0 21

1091222 113 0.1552e+08 567.874 0.0 0.0 0.0 22

1091223 113 0.1552e+08 567.874 0.0 0.0 0.0 23

1091224 113 0.1552e+08 567.874 0.0 0.0 0.0 24

1091225 113 0.1552e+08 567.874 0.0 0.0 0.0 25

1091226 113 0.1552e+08 567.874 0.0 0.0 0.0 26

1091227 113 0.1552e+08 567.874 0.0 0.0 0.0 27

1091228 113 0.1552e+08 567.874 0.0 0.0 0.0 28

1091229 113 0.1552e+08 567.874 0.0 0.0 0.0 29

1091230 113 0.1552e+08 567.874 0.0 0.0 0.0 30

1091231 113 0.1552e+08 567.874 0.0 0.0 0.0 31

1091232 113 0.1552e+08 567.874 0.0 0.0 0.0 32

1091233 113 0.1552e+08 567.874 0.0 0.0 0.0 33

1091234 113 0.1552e+08 567.874 0.0 0.0 0.0 34

1092001 .1308e-02 34

1091300 1

1091301 90.0 0.0 0.0 33

* 

* Bypass

* 

2500000 bypa pipe

2500001 34

2500101 0.20 34

2500301 0.4670 1

2500302 0.1067 33

2500303 0.4540 34

2500601 90.0 34

2500701 0.4670 1

2500702 0.1067 33

2500703 0.4540 34

2500801 .60e-05 0.000000 34

2500901 2.8 2.8 1

2500902 0.0 0.0 4

2500903 2.8 2.8 5

2500904 0.0 0.0 10

2500905 2.8 2.8 11

2500906 0.0 0.0 15

2500907 2.8 2.8 16

2500908 0.0 0.0 21

2500909 2.8 2.8 22

2500910 0.0 0.0 26

2500911 2.8 2.8 27

2500912 0.0 0.0 32

2500913 2.8 2.8 33

2501001 0000100 34

2501101 00001000 33

2501201 113 0.1552e+08 567.874 0.0 0.0 0.0 1

2501202 113 0.1552e+08 567.874 0.0 0.0 0.0 2

2501203 113 0.1552e+08 567.874 0.0 0.0 0.0 3

2501204 113 0.1552e+08 567.874 0.0 0.0 0.0 4

2501205 113 0.1552e+08 567.874 0.0 0.0 0.0 5

2501206 113 0.1552e+08 567.874 0.0 0.0 0.0 6

2501207 113 0.1552e+08 567.874 0.0 0.0 0.0 7
A-17

2501208 113 0.1552e+08 567.874 0.0 0.0 0.0 8

2501209 113 0.1552e+08 567.874 0.0 0.0 0.0 9

2501210 113 0.1552e+08 567.874 0.0 0.0 0.0 10

2501211 113 0.1552e+08 567.874 0.0 0.0 0.0 11

2501212 113 0.1552e+08 567.874 0.0 0.0 0.0 12

2501213 113 0.1552e+08 567.874 0.0 0.0 0.0 13

2501214 113 0.1552e+08 567.874 0.0 0.0 0.0 14

2501215 113 0.1552e+08 567.874 0.0 0.0 0.0 15

2501216 113 0.1552e+08 567.874 0.0 0.0 0.0 16

2501217 113 0.1552e+08 567.874 0.0 0.0 0.0 17

2501218 113 0.1552e+08 567.874 0.0 0.0 0.0 18

2501219 113 0.1552e+08 567.874 0.0 0.0 0.0 19

2501220 113 0.1552e+08 567.874 0.0 0.0 0.0 20

2501221 113 0.1552e+08 567.874 0.0 0.0 0.0 21

2501222 113 0.1552e+08 567.874 0.0 0.0 0.0 22

2501223 113 0.1552e+08 567.874 0.0 0.0 0.0 23

2501224 113 0.1552e+08 567.874 0.0 0.0 0.0 24

2501225 113 0.1552e+08 567.874 0.0 0.0 0.0 25

2501226 113 0.1552e+08 567.874 0.0 0.0 0.0 26

2501227 113 0.1552e+08 567.874 0.0 0.0 0.0 27

2501228 113 0.1552e+08 567.874 0.0 0.0 0.0 28

2501229 113 0.1552e+08 567.874 0.0 0.0 0.0 29

2501230 113 0.1552e+08 567.874 0.0 0.0 0.0 30

2501231 113 0.1552e+08 567.874 0.0 0.0 0.0 31

2501232 113 0.1552e+08 567.874 0.0 0.0 0.0 32

2501233 113 0.1552e+08 567.874 0.0 0.0 0.0 33

2501234 113 0.1552e+08 567.874 0.0 0.0 0.0 34

2502001 .1308e-02 34

2501300 1

2501301 415.04513 0.0 0.0 33

* 

* 

* upper plenum part 0

* 

3000000 uppt0 branch

3000001 5 1

3000101 3.7387 0.450 0.0 0.0 90.0 0.450 0 0.013083 0000000

3000200 113 0.1552e+08 602.291 0.131e-02

3001101 300000000 301010000 0.20 0.0 0.0 0000000

3002101 300000000 302010000 2.70 0.0 0.0 0000000

3003101 300000000 303010000 0.10 0.0 0.0 0000000

3004101 300000000 304010000 0.05 0.0 0.0 0000000

3005101 300010000 400000000 0.6903 0.0 0.0 0000000

3001201 420.0 0.0 0.0

3002201 15000.0 0.0 0.0

3003201 530.0 0.0 0.0

3004201 260.0 0.0 0.0

3005201 16000.00000 0.0 0.0

* 

* 

*upper plenum

* 

3010000 up301 branch

3010001 1 1

3010101 0.20 0.450 0.0 0.0 90.0 0.450 0 0.013083 0000000
A-18

3010200 113 0.1552e+08 602.291 0.131e-02

3011101 301000000 250010000 0.20 0.0 0.0 0000000

3011201 420.0 0.0 0.0

* 

* 

*upper plenum

* 

3020000 up302 branch

3020001 1 1

3020101 2.70 0.450 0.0 0.0 90.0 0.450 0 0.013083 0000000

3020200 113 0.1552e+08 602.291 0.131e-02

3021101 302000000 100010000 2.60 0.0 0.0 0000000

3021201 15000.0 0.0 0.0

* 

*upper plenum

* 

3030000 up303 branch

3030001 6 1

3030101 0.10 0.450 0.0 0.0 90.0 0.450 0 0.013083 0000000

3030200 113 0.1552e+08 602.291 0.131e-02

3031101 303000000 101010000 0.0150 0.0 0.0 0000000

3032101 303000000 102010000 0.0150 0.0 0.0 0000000

3033101 303000000 103010000 0.0150 0.0 0.0 0000000

3034101 303000000 104010000 0.0150 0.0 0.0 0000000

3035101 303000000 105010000 0.0150 0.0 0.0 0000000

3036101 303000000 106010000 0.0150 0.0 0.0 0000000

3031201 90.0 0.0 0.0

3032201 90.0 0.0 0.0

3033201 90.0 0.0 0.0

3034201 90.0 0.0 0.0

3035201 90.0 0.0 0.0

3036201 90.0 0.0 0.0

* 

*upper plenum

* 

3040000 up304 branch

3040001 3 1

3040101 0.05 0.450 0.0 0.0 90.0 0.450 0 0.013083 0000000

3040200 113 0.1552e+08 602.291 0.131e-02

3041101 304000000 107010000 0.0150 0.0 0.0 0000000

3042101 304000000 108010000 0.0150 0.0 0.0 0000000

3043101 304000000 109010000 0.0150 0.0 0.0 0000000

3041201 90.0 0.0 0.0

3042201 90.0 0.0 0.0

3043201 90.0 0.0 0.0

* 

* 

*------------------------------------------------------------------

*Core Outlet Boundary Conditions

*------------------------------------------------------------------

4000000 outle tmdpvol

4000101 100.0 .1e+9 0. 0. 0. 0. 0. 0. 00

4000200 113

4000201 0.0 0.1552e+08 602.291 0.131e-02

4000202 .1e+07 0.1552e+08 602.291 0.131e-02
A-19

* 

*******************************************************************

* 

*******************************************************************

* 

********Heat Structures********

* 

* Heat Structure Channel 100

* 

11000000 34 6 2 1 0.0 0 34

11000100 0 1

11000101 3 .458e-02 1 .466e-02 1 .539e-02

11000201 1 3 2 4 3 5

11000301 0.3131 1 0.3207 2 0.3592 3 0.0000 4 0.0070 5

11000400 -1 

11000401 729.222 683.440 637.627 591.844 589.627 567.874

11000402 729.222 683.440 637.627 591.844 589.627 567.874

11000403 729.222 683.440 637.627 591.844 589.627 567.874

11000404 729.222 683.440 637.627 591.844 589.627 567.874

11000405 729.222 683.440 637.627 591.844 589.627 567.874

11000406 729.222 683.440 637.627 591.844 589.627 567.874

11000407 729.222 683.440 637.627 591.844 589.627 567.874

11000408 729.222 683.440 637.627 591.844 589.627 567.874

11000409 729.222 683.440 637.627 591.844 589.627 567.874

11000410 729.222 683.440 637.627 591.844 589.627 567.874

11000411 729.222 683.440 637.627 591.844 589.627 567.874

11000412 729.222 683.440 637.627 591.844 589.627 567.874

11000413 729.222 683.440 637.627 591.844 589.627 567.874

11000414 729.222 683.440 637.627 591.844 589.627 567.874

11000415 729.222 683.440 637.627 591.844 589.627 567.874

11000416 729.222 683.440 637.627 591.844 589.627 567.874

11000417 729.222 683.440 637.627 591.844 589.627 567.874

11000418 729.222 683.440 637.627 591.844 589.627 567.874

11000419 729.222 683.440 637.627 591.844 589.627 567.874

11000420 729.222 683.440 637.627 591.844 589.627 567.874

11000421 729.222 683.440 637.627 591.844 589.627 567.874

11000422 729.222 683.440 637.627 591.844 589.627 567.874

11000423 729.222 683.440 637.627 591.844 589.627 567.874

11000424 729.222 683.440 637.627 591.844 589.627 567.874

11000425 729.222 683.440 637.627 591.844 589.627 567.874

11000426 729.222 683.440 637.627 591.844 589.627 567.874

11000427 729.222 683.440 637.627 591.844 589.627 567.874

11000428 729.222 683.440 637.627 591.844 589.627 567.874

11000429 729.222 683.440 637.627 591.844 589.627 567.874

11000430 729.222 683.440 637.627 591.844 589.627 567.874

11000431 729.222 683.440 637.627 591.844 589.627 567.874

11000432 729.222 683.440 637.627 591.844 589.627 567.874

11000433 729.222 683.440 637.627 591.844 589.627 567.874

11000434 729.222 683.440 637.627 591.844 589.627 567.874

11000501 0 0 0 1 18515.6160 1

11000502 0 0 0 1 4230.4416 33

11000503 0 0 0 1 18000.1920 34

11000601 100010000 0 1 1 18515.6160 1

11000602 100020000 10000 1 1 4230.4416 33

11000603 100340000 0 1 1 18000.1920 34
A-20

11000701 0000 0.0 0.0 0.0 1

11000702 1000 0.031394791 0.0 0.000592853 2

11000703 1000 0.030188161 0.0 0.000570067 3

11000704 1000 0.029432508 0.0 0.000555797 4

11000705 1000 0.029017072 0.0 0.000547952 5

11000706 1000 0.028751731 0.0 0.000542942 6

11000707 1000 0.028641488 0.0 0.000540860 7

11000708 1000 0.028589559 0.0 0.000539879 8

11000709 1000 0.028598875 0.0 0.000540055 9

11000710 1000 0.028608191 0.0 0.000540231 10

11000711 1000 0.028564198 0.0 0.000539400 11

11000712 1000 0.028575757 0.0 0.000539619 12

11000713 1000 0.028584038 0.0 0.000539775 13

11000714 1000 0.028628894 0.0 0.000540622 14

11000715 1000 0.028663226 0.0 0.000541270 15

11000716 1000 0.028630619 0.0 0.000540655 16

11000717 1000 0.028650459 0.0 0.000541029 17

11000718 1000 0.028609399 0.0 0.000540254 18

11000719 1000 0.028595942 0.0 0.000540000 19

11000720 1000 0.028639763 0.0 0.000540827 20

11000721 1000 0.028610434 0.0 0.000540273 21

11000722 1000 0.028634932 0.0 0.000540736 22

11000723 1000 0.028658913 0.0 0.000541189 23

11000724 1000 0.028709808 0.0 0.000542150 24

11000725 1000 0.028770881 0.0 0.000543303 25

11000726 1000 0.028764498 0.0 0.000543183 26

11000727 1000 0.028831092 0.0 0.000544440 27

11000728 1000 0.029034088 0.0 0.000546385 28

11000729 1000 0.029118171 0.0 0.000549861 29

11000730 1000 0.029420432 0.0 0.000555569 30

11000731 1000 0.029822067 0.0 0.000563154 31

11000732 1000 0.030596179 0.0 0.000577772 32

11000733 1000 0.031653058 0.0 0.000597730 33

11000734 0000 0.0 0.0 0.0 34

11000901 0.13083e-01 10.0 10.0 0.0 0.0 0.0 0.0 1.0 34

* 

* Heat Structure Channel 101

* 

11010000 34 6 2 1 0.0 0 34

11010100 0 1

11010101 3 .458e-02 1 .466e-02 1 .539e-02

11010201 1 3 2 4 3 5

11010301 0.3131 1 0.3207 2 0.3592 3 0.0000 4 0.0070 5

11010400 -1 

11010401 729.222 683.440 637.627 591.844 589.627 567.874

11010402 729.222 683.440 637.627 591.844 589.627 567.874

11010403 729.222 683.440 637.627 591.844 589.627 567.874

11010404 729.222 683.440 637.627 591.844 589.627 567.874

11010405 729.222 683.440 637.627 591.844 589.627 567.874

11010406 729.222 683.440 637.627 591.844 589.627 567.874

11010407 729.222 683.440 637.627 591.844 589.627 567.874

11010408 729.222 683.440 637.627 591.844 589.627 567.874

11010409 729.222 683.440 637.627 591.844 589.627 567.874

11010410 729.222 683.440 637.627 591.844 589.627 567.874

11010411 729.222 683.440 637.627 591.844 589.627 567.874
A-21

11010412 729.222 683.440 637.627 591.844 589.627 567.874

11010413 729.222 683.440 637.627 591.844 589.627 567.874

11010414 729.222 683.440 637.627 591.844 589.627 567.874

11010415 729.222 683.440 637.627 591.844 589.627 567.874

11010416 729.222 683.440 637.627 591.844 589.627 567.874

11010417 729.222 683.440 637.627 591.844 589.627 567.874

11010418 729.222 683.440 637.627 591.844 589.627 567.874

11010419 729.222 683.440 637.627 591.844 589.627 567.874

11010420 729.222 683.440 637.627 591.844 589.627 567.874

11010421 729.222 683.440 637.627 591.844 589.627 567.874

11010422 729.222 683.440 637.627 591.844 589.627 567.874

11010423 729.222 683.440 637.627 591.844 589.627 567.874

11010424 729.222 683.440 637.627 591.844 589.627 567.874

11010425 729.222 683.440 637.627 591.844 589.627 567.874

11010426 729.222 683.440 637.627 591.844 589.627 567.874

11010427 729.222 683.440 637.627 591.844 589.627 567.874

11010428 729.222 683.440 637.627 591.844 589.627 567.874

11010429 729.222 683.440 637.627 591.844 589.627 567.874

11010430 729.222 683.440 637.627 591.844 589.627 567.874

11010431 729.222 683.440 637.627 591.844 589.627 567.874

11010432 729.222 683.440 637.627 591.844 589.627 567.874

11010433 729.222 683.440 637.627 591.844 589.627 567.874

11010434 729.222 683.440 637.627 591.844 589.627 567.874

11010501 0 0 0 1 110.2120 1

11010502 0 0 0 1 25.1812 33

11010503 0 0 0 1 107.1440 34

11010601 101010000 0 1 1 110.2120 1

11010602 101020000 10000 1 1 25.1812 33

11010603 101340000 0 1 1 107.1440 34

11010701 0000 0.0 0.0 0.0 1 

11010702 1000 0.000192536 0.0 0.000003636 2

11010703 1000 0.000186153 0.0 0.000003515 3

11010704 1000 0.000182012 0.0 0.000003437 4

11010705 1000 0.000179597 0.0 0.000003391 5

11010706 1000 0.000177872 0.0 0.000003359 6

11010707 1000 0.000177182 0.0 0.000003346 7

11010708 1000 0.000176664 0.0 0.000003336 8

11010709 1000 0.000176837 0.0 0.000003339 9

11010710 1000 0.000176837 0.0 0.000003339 10

11010711 1000 0.000176492 0.0 0.000003333 11

11010712 1000 0.000176492 0.0 0.000003333 12

11010713 1000 0.000176664 0.0 0.000003336 13

11010714 1000 0.000177009 0.0 0.000003343 14

11010715 1000 0.000177182 0.0 0.000003346 15

11010716 1000 0.000177009 0.0 0.000003343 16

11010717 1000 0.000177182 0.0 0.000003346 17

11010718 1000 0.000156479 0.0 0.000002955 18

11010719 1000 0.000136984 0.0 0.000002587 19

11010720 1000 0.000137156 0.0 0.000002590 20

11010721 1000 0.000136984 0.0 0.000002587 21

11010722 1000 0.000137156 0.0 0.000002590 22

11010723 1000 0.000137156 0.0 0.000002590 23

11010724 1000 0.000137501 0.0 0.000002597 24

11010725 1000 0.000137674 0.0 0.000002600 25

11010726 1000 0.000137674 0.0 0.000002600 26
A-22

11010727 1000 0.000138019 0.0 0.000002606 27

11010728 1000 0.000138364 0.0 0.000002613 28

11010729 1000 0.000139226 0.0 0.000002629 29

11010730 1000 0.000140607 0.0 0.000002655 30

11010731 1000 0.000142159 0.0 0.000002685 31

11010732 1000 0.000145092 0.0 0.000002740 32

11010733 1000 0.000148888 0.0 0.000002812 33

11010734 0000 0.0 0.0 0.0 34

11010901 0.13083e-01 10.0 10.0 0.0 0.0 0.0 0.0 1.0 34

* 

* Heat Structure Channel 102

* 

11020000 34 6 2 1 0.0 0 34

11020100 0 1 

11020101 3 .458e-02 1 .466e-02 1 .539e-02

11020201 1 3 2 4 3 5

11020301 0.3131 1 0.3207 2 0.3592 3 0.0000 4 0.0070 5

11020400 -1 

11020401 729.222 683.440 637.627 591.844 589.627 567.874

11020402 729.222 683.440 637.627 591.844 589.627 567.874

11020403 729.222 683.440 637.627 591.844 589.627 567.874

11020404 729.222 683.440 637.627 591.844 589.627 567.874

11020405 729.222 683.440 637.627 591.844 589.627 567.874

11020406 729.222 683.440 637.627 591.844 589.627 567.874

11020407 729.222 683.440 637.627 591.844 589.627 567.874

11020408 729.222 683.440 637.627 591.844 589.627 567.874

11020409 729.222 683.440 637.627 591.844 589.627 567.874

11020410 729.222 683.440 637.627 591.844 589.627 567.874

11020411 729.222 683.440 637.627 591.844 589.627 567.874

11020412 729.222 683.440 637.627 591.844 589.627 567.874

11020413 729.222 683.440 637.627 591.844 589.627 567.874

11020414 729.222 683.440 637.627 591.844 589.627 567.874

11020415 729.222 683.440 637.627 591.844 589.627 567.874

11020416 729.222 683.440 637.627 591.844 589.627 567.874

11020417 729.222 683.440 637.627 591.844 589.627 567.874

11020418 729.222 683.440 637.627 591.844 589.627 567.874

11020419 729.222 683.440 637.627 591.844 589.627 567.874

11020420 729.222 683.440 637.627 591.844 589.627 567.874

11020421 729.222 683.440 637.627 591.844 589.627 567.874

11020422 729.222 683.440 637.627 591.844 589.627 567.874

11020423 729.222 683.440 637.627 591.844 589.627 567.874

11020424 729.222 683.440 637.627 591.844 589.627 567.874

11020425 729.222 683.440 637.627 591.844 589.627 567.874

11020426 729.222 683.440 637.627 591.844 589.627 567.874

11020427 729.222 683.440 637.627 591.844 589.627 567.874

11020428 729.222 683.440 637.627 591.844 589.627 567.874

11020429 729.222 683.440 637.627 591.844 589.627 567.874

11020430 729.222 683.440 637.627 591.844 589.627 567.874

11020431 729.222 683.440 637.627 591.844 589.627 567.874

11020432 729.222 683.440 637.627 591.844 589.627 567.874

11020433 729.222 683.440 637.627 591.844 589.627 567.874

11020434 729.222 683.440 637.627 591.844 589.627 567.874

11020501 0 0 0 1 110.2120 1

11020502 0 0 0 1 25.1812 33

11020503 0 0 0 1 107.1440 34
A-23

11020601 102010000 0 1 1 110.2120 1

11020602 102020000 10000 1 1 25.1812 33

11020603 102340000 0 1 1 107.1440 34

11020701 0000 0.0 0.0 0.0 1

11020702 1000 0.000192364 0.0 0.000003633 2

11020703 1000 0.000185980 0.0 0.000003512 3

11020704 1000 0.000181840 0.0 0.000003434 4

11020705 1000 0.000179424 0.0 0.000003388 5

11020706 1000 0.000177699 0.0 0.000003356 6

11020707 1000 0.000177009 0.0 0.000003343 7

11020708 1000 0.000176664 0.0 0.000003336 8

11020709 1000 0.000176664 0.0 0.000003336 9

11020710 1000 0.000176664 0.0 0.000003336 10

11020711 1000 0.000176492 0.0 0.000003333 11

11020712 1000 0.000176492 0.0 0.000003333 12

11020713 1000 0.000176492 0.0 0.000003333 13

11020714 1000 0.000176837 0.0 0.000003339 14

11020715 1000 0.000177009 0.0 0.000003343 15

11020716 1000 0.000176837 0.0 0.000003339 16

11020717 1000 0.000177009 0.0 0.000003343 17

11020718 1000 0.000177182 0.0 0.000003346 18

11020719 1000 0.000177354 0.0 0.000003349 19

11020720 1000 0.000177699 0.0 0.000003356 20

11020721 1000 0.000177527 0.0 0.000003352 21

11020722 1000 0.000177699 0.0 0.000003356 22

11020723 1000 0.000177872 0.0 0.000003359 23

11020724 1000 0.000178044 0.0 0.000003362 24

11020725 1000 0.000178562 0.0 0.000003372 25

11020726 1000 0.000178389 0.0 0.000003369 26

11020727 1000 0.000178907 0.0 0.000003378 27

11020728 1000 0.000179424 0.0 0.000003388 28

11020729 1000 0.000180632 0.0 0.000003411 29

11020730 1000 0.000182357 0.0 0.000003444 30

11020731 1000 0.000184600 0.0 0.000003486 31

11020732 1000 0.000188741 0.0 0.000003564 32

11020733 1000 0.000194261 0.0 0.000003668 33

11020734 0000 0.0 0.0 0.0 34

11020901 0.13083e-01 10.0 10.0 0.0 0.0 0.0 0.0 1.0 34

* 

* Heat Structure Channel 103

* 

11030000 34 6 2 1 0.0 0 34

11030100 0 1

11030101 3 .458e-02 1 .466e-02 1 .539e-02

11030201 1 3 2 4 3 5

11030301 0.3131 1 0.3207 2 0.3592 3 0.0000 4 0.0070 5

11030400 -1 

11030401 729.222 683.440 637.627 591.844 589.627 567.874

11030402 729.222 683.440 637.627 591.844 589.627 567.874

11030403 729.222 683.440 637.627 591.844 589.627 567.874

11030404 729.222 683.440 637.627 591.844 589.627 567.874

11030405 729.222 683.440 637.627 591.844 589.627 567.874

11030406 729.222 683.440 637.627 591.844 589.627 567.874

11030407 729.222 683.440 637.627 591.844 589.627 567.874

11030408 729.222 683.440 637.627 591.844 589.627 567.874
A-24

11030409 729.222 683.440 637.627 591.844 589.627 567.874

11030410 729.222 683.440 637.627 591.844 589.627 567.874

11030411 729.222 683.440 637.627 591.844 589.627 567.874

11030412 729.222 683.440 637.627 591.844 589.627 567.874

11030413 729.222 683.440 637.627 591.844 589.627 567.874

11030414 729.222 683.440 637.627 591.844 589.627 567.874

11030415 729.222 683.440 637.627 591.844 589.627 567.874

11030416 729.222 683.440 637.627 591.844 589.627 567.874

11030417 729.222 683.440 637.627 591.844 589.627 567.874

11030418 729.222 683.440 637.627 591.844 589.627 567.874

11030419 729.222 683.440 637.627 591.844 589.627 567.874

11030420 729.222 683.440 637.627 591.844 589.627 567.874

11030421 729.222 683.440 637.627 591.844 589.627 567.874

11030422 729.222 683.440 637.627 591.844 589.627 567.874

11030423 729.222 683.440 637.627 591.844 589.627 567.874

11030424 729.222 683.440 637.627 591.844 589.627 567.874

11030425 729.222 683.440 637.627 591.844 589.627 567.874

11030426 729.222 683.440 637.627 591.844 589.627 567.874

11030427 729.222 683.440 637.627 591.844 589.627 567.874

11030428 729.222 683.440 637.627 591.844 589.627 567.874

11030429 729.222 683.440 637.627 591.844 589.627 567.874

11030430 729.222 683.440 637.627 591.844 589.627 567.874

11030431 729.222 683.440 637.627 591.844 589.627 567.874

11030432 729.222 683.440 637.627 591.844 589.627 567.874

11030433 729.222 683.440 637.627 591.844 589.627 567.874

11030434 729.222 683.440 637.627 591.844 589.627 567.874

11030501 0 0 0 1 110.2120 1

11030502 0 0 0 1 25.1812 33

11030503 0 0 0 1 107.1440 34

11030601 103010000 0 1 1 110.2120 1

11030602 103020000 10000 1 1 25.1812 33

11030603 103340000 0 1 1 107.1440 34

11030701 0000 0.0 0.0 0.0 1

11030702 1000 0.000194089 0.0 0.000003665 2

11030703 1000 0.000188223 0.0 0.000003554 3

11030704 1000 0.000184255 0.0 0.000003479 4

11030705 1000 0.000181840 0.0 0.000003434 5

11030706 1000 0.000180287 0.0 0.000003405 6

11030707 1000 0.000179597 0.0 0.000003391 7

11030708 1000 0.000179252 0.0 0.000003385 8

11030709 1000 0.000179252 0.0 0.000003385 9

11030710 1000 0.000179252 0.0 0.000003385 10

11030711 1000 0.000178907 0.0 0.000003378 11

11030712 1000 0.000178907 0.0 0.000003378 12

11030713 1000 0.000179079 0.0 0.000003382 13

11030714 1000 0.000179252 0.0 0.000003385 14

11030715 1000 0.000179424 0.0 0.000003388 15

11030716 1000 0.000179252 0.0 0.000003385 16

11030717 1000 0.000179424 0.0 0.000003388 17

11030718 1000 0.000179597 0.0 0.000003391 18

11030719 1000 0.000179942 0.0 0.000003398 19

11030720 1000 0.000180287 0.0 0.000003405 20

11030721 1000 0.000180115 0.0 0.000003401 21

11030722 1000 0.000180115 0.0 0.000003401 22

11030723 1000 0.000180287 0.0 0.000003405 23
A-25

11030724 1000 0.000180632 0.0 0.000003411 24

11030725 1000 0.000180977 0.0 0.000003418 25

11030726 1000 0.000180977 0.0 0.000003418 26

11030727 1000 0.000181322 0.0 0.000003424 27

11030728 1000 0.000181840 0.0 0.000003434 28

11030729 1000 0.000183047 0.0 0.000003457 29

11030730 1000 0.000184600 0.0 0.000003486 30

11030731 1000 0.000186843 0.0 0.000003528 31

11030732 1000 0.000190811 0.0 0.000003603 32

11030733 1000 0.000195987 0.0 0.000003701 33

11030734 0000 0.0 0.0 0.0 34

11030901 0.13083e-01 10.0 10.0 0.0 0.0 0.0 0.0 1.0 34

* 

* Heat Structure Channel 104

* 

11040000 34 6 2 1 0.0 0 34

11040100 0 1

11040101 3 .458e-02 1 .466e-02 1 .539e-02

11040201 1 3 2 4 3 5

11040301 0.3131 1 0.3207 2 0.3592 3 0.0000 4 0.0070 5

11040400 -1 

11040401 729.222 683.440 637.627 591.844 589.627 567.874

11040402 729.222 683.440 637.627 591.844 589.627 567.874

11040403 729.222 683.440 637.627 591.844 589.627 567.874

11040404 729.222 683.440 637.627 591.844 589.627 567.874

11040405 729.222 683.440 637.627 591.844 589.627 567.874

11040406 729.222 683.440 637.627 591.844 589.627 567.874

11040407 729.222 683.440 637.627 591.844 589.627 567.874

11040408 729.222 683.440 637.627 591.844 589.627 567.874

11040409 729.222 683.440 637.627 591.844 589.627 567.874

11040410 729.222 683.440 637.627 591.844 589.627 567.874

11040411 729.222 683.440 637.627 591.844 589.627 567.874

11040412 729.222 683.440 637.627 591.844 589.627 567.874

11040413 729.222 683.440 637.627 591.844 589.627 567.874

11040414 729.222 683.440 637.627 591.844 589.627 567.874

11040415 729.222 683.440 637.627 591.844 589.627 567.874

11040416 729.222 683.440 637.627 591.844 589.627 567.874

11040417 729.222 683.440 637.627 591.844 589.627 567.874

11040418 729.222 683.440 637.627 591.844 589.627 567.874

11040419 729.222 683.440 637.627 591.844 589.627 567.874

11040420 729.222 683.440 637.627 591.844 589.627 567.874

11040421 729.222 683.440 637.627 591.844 589.627 567.874

11040422 729.222 683.440 637.627 591.844 589.627 567.874

11040423 729.222 683.440 637.627 591.844 589.627 567.874

11040424 729.222 683.440 637.627 591.844 589.627 567.874

11040425 729.222 683.440 637.627 591.844 589.627 567.874

11040426 729.222 683.440 637.627 591.844 589.627 567.874

11040427 729.222 683.440 637.627 591.844 589.627 567.874

11040428 729.222 683.440 637.627 591.844 589.627 567.874

11040429 729.222 683.440 637.627 591.844 589.627 567.874

11040430 729.222 683.440 637.627 591.844 589.627 567.874

11040431 729.222 683.440 637.627 591.844 589.627 567.874

11040432 729.222 683.440 637.627 591.844 589.627 567.874

11040433 729.222 683.440 637.627 591.844 589.627 567.874

11040434 729.222 683.440 637.627 591.844 589.627 567.874
A-26

11040501 0 0 0 1 110.2120 1

11040502 0 0 0 1 25.1812 33

11040503 0 0 0 1 107.1440 34

11040601 104010000 0 1 1 110.2120 1

11040602 104020000 10000 1 1 25.1812 33

11040603 104340000 0 1 1 107.1440 34

11040701 0000 0.0 0.0 0.0 1

11040702 1000 0.000178044 0.0 0.000003362 2

11040703 1000 0.000168555 0.0 0.000003183 3

11040704 1000 0.000162690 0.0 0.000003072 4

11040705 1000 0.000159412 0.0 0.000003010 5

11040706 1000 0.000157341 0.0 0.000002971 6

11040707 1000 0.000156651 0.0 0.000002958 7

11040708 1000 0.000156306 0.0 0.000002952 8

11040709 1000 0.000156479 0.0 0.000002955 9

11040710 1000 0.000156651 0.0 0.000002958 10

11040711 1000 0.000156306 0.0 0.000002952 11

11040712 1000 0.000156479 0.0 0.000002955 12

11040713 1000 0.000156479 0.0 0.000002955 13

11040714 1000 0.000156996 0.0 0.000002965 14

11040715 1000 0.000157341 0.0 0.000002971 15

11040716 1000 0.000156996 0.0 0.000002965 16

11040717 1000 0.000157169 0.0 0.000002968 17

11040718 1000 0.000157341 0.0 0.000002971 18

11040719 1000 0.000157859 0.0 0.000002981 19

11040720 1000 0.000158204 0.0 0.000002987 20

11040721 1000 0.000158032 0.0 0.000002984 21

11040722 1000 0.000158204 0.0 0.000002987 22

11040723 1000 0.000158377 0.0 0.000002991 23

11040724 1000 0.000158894 0.0 0.000003001 24

11040725 1000 0.000159239 0.0 0.000003007 25

11040726 1000 0.000159239 0.0 0.000003007 26

11040727 1000 0.000159757 0.0 0.000003017 27

11040728 1000 0.000160447 0.0 0.000003030 28

11040729 1000 0.000162000 0.0 0.000003059 29

11040730 1000 0.000164242 0.0 0.000003102 30

11040731 1000 0.000167348 0.0 0.000003160 31

11040732 1000 0.000173386 0.0 0.000003274 32

11040733 1000 0.000181495 0.0 0.000003427 33

11040734 0000 0.0 0.0 0.0 34

11040901 0.13083e-01 10.0 10.0 0.0 0.0 0.0 0.0 1.0 34

* 

* Heat Structure Channel 105

* 

11050000 34 6 2 1 0.0 0 34

11050100 0 1

11050101 3 .458e-02 1 .466e-02 1 .539e-02

11050201 1 3 2 4 3 5

11050301 0.3131 1 0.3207 2 0.3592 3 0.0000 4 0.0070 5

11050400 -1 

11050401 729.222 683.440 637.627 591.844 589.627 567.874

11050402 729.222 683.440 637.627 591.844 589.627 567.874

11050403 729.222 683.440 637.627 591.844 589.627 567.874

11050404 729.222 683.440 637.627 591.844 589.627 567.874

11050405 729.222 683.440 637.627 591.844 589.627 567.874
A-27

11050406 729.222 683.440 637.627 591.844 589.627 567.874

11050407 729.222 683.440 637.627 591.844 589.627 567.874

11050408 729.222 683.440 637.627 591.844 589.627 567.874

11050409 729.222 683.440 637.627 591.844 589.627 567.874

11050410 729.222 683.440 637.627 591.844 589.627 567.874

11050411 729.222 683.440 637.627 591.844 589.627 567.874

11050412 729.222 683.440 637.627 591.844 589.627 567.874

11050413 729.222 683.440 637.627 591.844 589.627 567.874

11050414 729.222 683.440 637.627 591.844 589.627 567.874

11050415 729.222 683.440 637.627 591.844 589.627 567.874

11050416 729.222 683.440 637.627 591.844 589.627 567.874

11050417 729.222 683.440 637.627 591.844 589.627 567.874

11050418 729.222 683.440 637.627 591.844 589.627 567.874

11050419 729.222 683.440 637.627 591.844 589.627 567.874

11050420 729.222 683.440 637.627 591.844 589.627 567.874

11050421 729.222 683.440 637.627 591.844 589.627 567.874

11050422 729.222 683.440 637.627 591.844 589.627 567.874

11050423 729.222 683.440 637.627 591.844 589.627 567.874

11050424 729.222 683.440 637.627 591.844 589.627 567.874

11050425 729.222 683.440 637.627 591.844 589.627 567.874

11050426 729.222 683.440 637.627 591.844 589.627 567.874

11050427 729.222 683.440 637.627 591.844 589.627 567.874

11050428 729.222 683.440 637.627 591.844 589.627 567.874

11050429 729.222 683.440 637.627 591.844 589.627 567.874

11050430 729.222 683.440 637.627 591.844 589.627 567.874

11050431 729.222 683.440 637.627 591.844 589.627 567.874

11050432 729.222 683.440 637.627 591.844 589.627 567.874

11050433 729.222 683.440 637.627 591.844 589.627 567.874

11050434 729.222 683.440 637.627 591.844 589.627 567.874

11050501 0 0 0 1 110.2120 1

11050502 0 0 0 1 25.1812 33

11050503 0 0 0 1 107.1440 34

11050601 105010000 0 1 1 110.2120 1

11050602 105020000 10000 1 1 25.1812 33

11050603 105340000 0 1 1 107.1440 34

11050701 0000 0.0 0.0 0.0 1

11050702 1000 0.000179424 0.0 0.000003388 2

11050703 1000 0.000170453 0.0 0.000003219 3

11050704 1000 0.000164760 0.0 0.000003111 4

11050705 1000 0.000161655 0.0 0.000003053 5

11050706 1000 0.000159757 0.0 0.000003017 6

11050707 1000 0.000158894 0.0 0.000003001 7

11050708 1000 0.000158549 0.0 0.000002994 8

11050709 1000 0.000158722 0.0 0.000002997 9

11050710 1000 0.000158722 0.0 0.000002997 10

11050711 1000 0.000158377 0.0 0.000002991 11

11050712 1000 0.000158549 0.0 0.000002994 12

11050713 1000 0.000158549 0.0 0.000002994 13

11050714 1000 0.000158894 0.0 0.000003001 14

11050715 1000 0.000159239 0.0 0.000003007 15

11050716 1000 0.000158894 0.0 0.000003001 16

11050717 1000 0.000159239 0.0 0.000003007 17

11050718 1000 0.000159412 0.0 0.000003010 18

11050719 1000 0.000159757 0.0 0.000003017 19

11050720 1000 0.000160102 0.0 0.000003023 20
A-28

11050721 1000 0.000159757 0.0 0.000003017 21

11050722 1000 0.000159929 0.0 0.000003020 22

11050723 1000 0.000160102 0.0 0.000003023 23

11050724 1000 0.000160447 0.0 0.000003030 24

11050725 1000 0.000160964 0.0 0.000003040 25

11050726 1000 0.000160792 0.0 0.000003036 26

11050727 1000 0.000161309 0.0 0.000003046 27

11050728 1000 0.000162000 0.0 0.000003059 28

11050729 1000 0.000163380 0.0 0.000003085 29

11050730 1000 0.000165623 0.0 0.000003128 30

11050731 1000 0.000168555 0.0 0.000003183 31

11050732 1000 0.000174249 0.0 0.000003290 32

11050733 1000 0.000182185 0.0 0.000003440 33

11050734 0000 0.0 0.0 0.0 34

11050901 0.13083e-01 10.0 10.0 0.0 0.0 0.0 0.0 1.0 34

* 

* Heat Structure Channel 106

* 

11060000 34 6 2 1 0.0 0 34

11060100 0 1

11060101 3 .458e-02 1 .466e-02 1 .539e-02

11060201 1 3 2 4 3 5

11060301 0.3131 1 0.3207 2 0.3592 3 0.0000 4 0.0070 5

11060400 -1 

11060401 729.222 683.440 637.627 591.844 589.627 567.874

11060402 729.222 683.440 637.627 591.844 589.627 567.874

11060403 729.222 683.440 637.627 591.844 589.627 567.874

11060404 729.222 683.440 637.627 591.844 589.627 567.874

11060405 729.222 683.440 637.627 591.844 589.627 567.874

11060406 729.222 683.440 637.627 591.844 589.627 567.874

11060407 729.222 683.440 637.627 591.844 589.627 567.874

11060408 729.222 683.440 637.627 591.844 589.627 567.874

11060409 729.222 683.440 637.627 591.844 589.627 567.874

11060410 729.222 683.440 637.627 591.844 589.627 567.874

11060411 729.222 683.440 637.627 591.844 589.627 567.874

11060412 729.222 683.440 637.627 591.844 589.627 567.874

11060413 729.222 683.440 637.627 591.844 589.627 567.874

11060414 729.222 683.440 637.627 591.844 589.627 567.874

11060415 729.222 683.440 637.627 591.844 589.627 567.874

11060416 729.222 683.440 637.627 591.844 589.627 567.874

11060417 729.222 683.440 637.627 591.844 589.627 567.874

11060418 729.222 683.440 637.627 591.844 589.627 567.874

11060419 729.222 683.440 637.627 591.844 589.627 567.874

11060420 729.222 683.440 637.627 591.844 589.627 567.874

11060421 729.222 683.440 637.627 591.844 589.627 567.874

11060422 729.222 683.440 637.627 591.844 589.627 567.874

11060423 729.222 683.440 637.627 591.844 589.627 567.874

11060424 729.222 683.440 637.627 591.844 589.627 567.874

11060425 729.222 683.440 637.627 591.844 589.627 567.874

11060426 729.222 683.440 637.627 591.844 589.627 567.874

11060427 729.222 683.440 637.627 591.844 589.627 567.874 

11060428 729.222 683.440 637.627 591.844 589.627 567.874

11060429 729.222 683.440 637.627 591.844 589.627 567.874

11060430 729.222 683.440 637.627 591.844 589.627 567.874

11060431 729.222 683.440 637.627 591.844 589.627 567.874
A-29

11060432 729.222 683.440 637.627 591.844 589.627 567.874

11060433 729.222 683.440 637.627 591.844 589.627 567.874

11060434 729.222 683.440 637.627 591.844 589.627 567.874

11060501 0 0 0 1 110.2120 1

11060502 0 0 0 1 25.1812 33

11060503 0 0 0 1 107.1440 34

11060601 106010000 0 1 1 110.2120 1

11060602 106020000 10000 1 1 25.1812 33

11060603 106340000 0 1 1 107.1440 34

11060701 0000 0.0 0.0 0.0 1

11060702 1000 0.000208581 0.0 0.000003939 2

11060703 1000 0.000206856 0.0 0.000003906 3

11060704 1000 0.000205993 0.0 0.000003890 4

11060705 1000 0.000205303 0.0 0.000003877 5

11060706 1000 0.000204785 0.0 0.000003867 6

11060707 1000 0.000204613 0.0 0.000003864 7

11060708 1000 0.000204440 0.0 0.000003861 8

11060709 1000 0.000204268 0.0 0.000003857 9

11060710 1000 0.000204095 0.0 0.000003854 10

11060711 1000 0.000204095 0.0 0.000003854 11

11060712 1000 0.000203923 0.0 0.000003851 12

11060713 1000 0.000203923 0.0 0.000003851 13

11060714 1000 0.000203923 0.0 0.000003851 14

11060715 1000 0.000203923 0.0 0.000003851 15

11060716 1000 0.000204095 0.0 0.000003854 16

11060717 1000 0.000204095 0.0 0.000003854 17

11060718 1000 0.000204268 0.0 0.000003857 18

11060719 1000 0.000204440 0.0 0.000003861 19

11060720 1000 0.000204613 0.0 0.000003864 20

11060721 1000 0.000204613 0.0 0.000003864 21

11060722 1000 0.000204785 0.0 0.000003867 22

11060723 1000 0.000204785 0.0 0.000003867 23

11060724 1000 0.000204958 0.0 0.000003870 24

11060725 1000 0.000204958 0.0 0.000003870 25

11060726 1000 0.000205130 0.0 0.000003874 26

11060727 1000 0.000205303 0.0 0.000003877 27

11060728 1000 0.000205475 0.0 0.000003880 28

11060729 1000 0.000205648 0.0 0.000003883 29

11060730 1000 0.000205993 0.0 0.000003890 30

11060731 1000 0.000206683 0.0 0.000003903 31

11060732 1000 0.000207546 0.0 0.000003919 32

11060733 1000 0.000208753 0.0 0.000003942 33

11060734 0000 0.0 0.0 0.0 34

11060901 0.13083e-01 10.0 10.0 0.0 0.0 0.0 0.0 1.0 34

* 

* Heat Structure Channel 107

* 

11070000 34 6 2 1 0.0 0 34

11070100 0 1

11070101 3 .458e-02 1 .466e-02 1 .539e-02

11070201 1 3 2 4 3 5

11070301 0.3131 1 0.3207 2 0.3592 3 0.0000 4 0.0070 5

11070400 -1 

11070401 729.222 683.440 637.627 591.844 589.627 567.874

11070402 729.222 683.440 637.627 591.844 589.627 567.874
A-30

11070403 729.222 683.440 637.627 591.844 589.627 567.874

11070404 729.222 683.440 637.627 591.844 589.627 567.874

11070405 729.222 683.440 637.627 591.844 589.627 567.874

11070406 729.222 683.440 637.627 591.844 589.627 567.874

11070407 729.222 683.440 637.627 591.844 589.627 567.874

11070408 729.222 683.440 637.627 591.844 589.627 567.874

11070409 729.222 683.440 637.627 591.844 589.627 567.874

11070410 729.222 683.440 637.627 591.844 589.627 567.874

11070411 729.222 683.440 637.627 591.844 589.627 567.874

11070412 729.222 683.440 637.627 591.844 589.627 567.874

11070413 729.222 683.440 637.627 591.844 589.627 567.874

11070414 729.222 683.440 637.627 591.844 589.627 567.874

11070415 729.222 683.440 637.627 591.844 589.627 567.874

11070416 729.222 683.440 637.627 591.844 589.627 567.874

11070417 729.222 683.440 637.627 591.844 589.627 567.874

11070418 729.222 683.440 637.627 591.844 589.627 567.874

11070419 729.222 683.440 637.627 591.844 589.627 567.874

11070420 729.222 683.440 637.627 591.844 589.627 567.874

11070421 729.222 683.440 637.627 591.844 589.627 567.874

11070422 729.222 683.440 637.627 591.844 589.627 567.874

11070423 729.222 683.440 637.627 591.844 589.627 567.874

11070424 729.222 683.440 637.627 591.844 589.627 567.874

11070425 729.222 683.440 637.627 591.844 589.627 567.874

11070426 729.222 683.440 637.627 591.844 589.627 567.874

11070427 729.222 683.440 637.627 591.844 589.627 567.874

11070428 729.222 683.440 637.627 591.844 589.627 567.874

11070429 729.222 683.440 637.627 591.844 589.627 567.874

11070430 729.222 683.440 637.627 591.844 589.627 567.874

11070431 729.222 683.440 637.627 591.844 589.627 567.874

11070432 729.222 683.440 637.627 591.844 589.627 567.874

11070433 729.222 683.440 637.627 591.844 589.627 567.874

11070434 729.222 683.440 637.627 591.844 589.627 567.874

11070501 0 0 0 1 110.2120 1

11070502 0 0 0 1 25.1812 33

11070503 0 0 0 1 107.1440 34

11070601 107010000 0 1 1 110.2120 1

11070602 107020000 10000 1 1 25.1812 33

11070603 107340000 0 1 1 107.1440 34

11070701 0000 0.0 0.0 0.0 1

11070702 1000 0.000179424 0.0 0.000003388 2

11070703 1000 0.000170453 0.0 0.000003219 3

11070704 1000 0.000164760 0.0 0.000003111 4

11070705 1000 0.000161655 0.0 0.000003053 5

11070706 1000 0.000159757 0.0 0.000003017 6

11070707 1000 0.000158894 0.0 0.000003001 7

11070708 1000 0.000158549 0.0 0.000002994 8

11070709 1000 0.000158722 0.0 0.000002997 9

11070710 1000 0.000158722 0.0 0.000002997 10

11070711 1000 0.000158377 0.0 0.000002991 11

11070712 1000 0.000158549 0.0 0.000002994 12

11070713 1000 0.000158722 0.0 0.000002997 13

11070714 1000 0.000159067 0.0 0.000003004 14

11070715 1000 0.000159239 0.0 0.000003007 15

11070716 1000 0.000159067 0.0 0.000003004 16

11070717 1000 0.000159239 0.0 0.000003007 17
A-31

11070718 1000 0.000159412 0.0 0.000003010 18

11070719 1000 0.000159757 0.0 0.000003017 19

11070720 1000 0.000160102 0.0 0.000003023 20

11070721 1000 0.000159757 0.0 0.000003017 21

11070722 1000 0.000159929 0.0 0.000003020 22

11070723 1000 0.000160102 0.0 0.000003023 23

11070724 1000 0.000160619 0.0 0.000003033 24

11070725 1000 0.000160964 0.0 0.000003040 25

11070726 1000 0.000160792 0.0 0.000003036 26

11070727 1000 0.000161309 0.0 0.000003046 27

11070728 1000 0.000162000 0.0 0.000003059 28

11070729 1000 0.000163380 0.0 0.000003085 29

11070730 1000 0.000165623 0.0 0.000003128 30

11070731 1000 0.000168728 0.0 0.000003186 31

11070732 1000 0.000174421 0.0 0.000003294 32

11070733 1000 0.000182357 0.0 0.000003444 33

11070734 0000 0.0 0.0 0.0 34

11070901 0.13083e-01 10.0 10.0 0.0 0.0 0.0 0.0 1.0 34

* 

* Heat Structure Channel 108

* 

11080000 34 6 2 1 0.0 0 34

11080100 0 1

11080101 3 .458e-02 1 .466e-02 1 .539e-02

11080201 1 3 2 4 3 5

11080301 0.3131 1 0.3207 2 0.3592 3 0.0000 4 0.0070 5

11080400 -1 

11080401 729.222 683.440 637.627 591.844 589.627 567.874

11080402 729.222 683.440 637.627 591.844 589.627 567.874

11080403 729.222 683.440 637.627 591.844 589.627 567.874

11080404 729.222 683.440 637.627 591.844 589.627 567.874

11080405 729.222 683.440 637.627 591.844 589.627 567.874

11080406 729.222 683.440 637.627 591.844 589.627 567.874

11080407 729.222 683.440 637.627 591.844 589.627 567.874

11080408 729.222 683.440 637.627 591.844 589.627 567.874

11080409 729.222 683.440 637.627 591.844 589.627 567.874

11080410 729.222 683.440 637.627 591.844 589.627 567.874

11080411 729.222 683.440 637.627 591.844 589.627 567.874

11080412 729.222 683.440 637.627 591.844 589.627 567.874

11080413 729.222 683.440 637.627 591.844 589.627 567.874

11080414 729.222 683.440 637.627 591.844 589.627 567.874

11080415 729.222 683.440 637.627 591.844 589.627 567.874

11080416 729.222 683.440 637.627 591.844 589.627 567.874

11080417 729.222 683.440 637.627 591.844 589.627 567.874

11080418 729.222 683.440 637.627 591.844 589.627 567.874

11080419 729.222 683.440 637.627 591.844 589.627 567.874

11080420 729.222 683.440 637.627 591.844 589.627 567.874

11080421 729.222 683.440 637.627 591.844 589.627 567.874

11080422 729.222 683.440 637.627 591.844 589.627 567.874

11080423 729.222 683.440 637.627 591.844 589.627 567.874

11080424 729.222 683.440 637.627 591.844 589.627 567.874

11080425 729.222 683.440 637.627 591.844 589.627 567.874

11080426 729.222 683.440 637.627 591.844 589.627 567.874

11080427 729.222 683.440 637.627 591.844 589.627 567.874

11080428 729.222 683.440 637.627 591.844 589.627 567.874
A-32

11080429 729.222 683.440 637.627 591.844 589.627 567.874

11080430 729.222 683.440 637.627 591.844 589.627 567.874

11080431 729.222 683.440 637.627 591.844 589.627 567.874

11080432 729.222 683.440 637.627 591.844 589.627 567.874

11080433 729.222 683.440 637.627 591.844 589.627 567.874

11080434 729.222 683.440 637.627 591.844 589.627 567.874

11080501 0 0 0 1 110.2120 1

11080502 0 0 0 1 25.1812 33

11080503 0 0 0 1 107.1440 34

11080601 108010000 0 1 1 110.2120 1

11080602 108020000 10000 1 1 25.1812 33

11080603 108340000 0 1 1 107.1440 34

11080701 0000 0.0 0.0 0.0 1

11080702 1000 0.000191846 0.0 0.000003623 2

11080703 1000 0.000185290 0.0 0.000003499 3

11080704 1000 0.000181150 0.0 0.000003421 4

11080705 1000 0.000178734 0.0 0.000003375 5

11080706 1000 0.000177009 0.0 0.000003343 6

11080707 1000 0.000176319 0.0 0.000003330 7

11080708 1000 0.000175974 0.0 0.000003323 8

11080709 1000 0.000175974 0.0 0.000003323 9

11080710 1000 0.000175974 0.0 0.000003323 10

11080711 1000 0.000175629 0.0 0.000003317 11

11080712 1000 0.000175801 0.0 0.000003320 12

11080713 1000 0.000175801 0.0 0.000003320 13

11080714 1000 0.000176146 0.0 0.000003326 14

11080715 1000 0.000176319 0.0 0.000003330 15

11080716 1000 0.000176146 0.0 0.000003326 16

11080717 1000 0.000176319 0.0 0.000003330 17

11080718 1000 0.000176664 0.0 0.000003336 18

11080719 1000 0.000177009 0.0 0.000003343 19

11080720 1000 0.000177354 0.0 0.000003349 20

11080721 1000 0.000177182 0.0 0.000003346 21

11080722 1000 0.000177354 0.0 0.000003349 22

11080723 1000 0.000177527 0.0 0.000003352 23

11080724 1000 0.000177872 0.0 0.000003359 24

11080725 1000 0.000178217 0.0 0.000003365 25

11080726 1000 0.000178217 0.0 0.000003365 26

11080727 1000 0.000178562 0.0 0.000003372 27

11080728 1000 0.000179252 0.0 0.000003385 28

11080729 1000 0.000180287 0.0 0.000003405 29

11080730 1000 0.000182185 0.0 0.000003440 30

11080731 1000 0.000184428 0.0 0.000003483 31

11080732 1000 0.000189086 0.0 0.000003571 32

11080733 1000 0.000194952 0.0 0.000003681 33

11080734 0000 0.0 0.0 0.0 34

11080901 0.13083e-01 10.0 10.0 0.0 0.0 0.0 0.0 1.0 34

* 

* Heat Structure Channel 109

* 

11090000 34 6 2 1 0.0 0 34

11090100 0 1

11090101 3 .458e-02 1 .466e-02 1 .539e-02

11090201 1 3 2 4 3 5

11090301 0.3131 1 0.3207 2 0.3592 3 0.0000 4 0.0070 5
A-33

11090400 -1 

11090401 729.222 683.440 637.627 591.844 589.627 567.874

11090402 729.222 683.440 637.627 591.844 589.627 567.874

11090403 729.222 683.440 637.627 591.844 589.627 567.874

11090404 729.222 683.440 637.627 591.844 589.627 567.874

11090405 729.222 683.440 637.627 591.844 589.627 567.874

11090406 729.222 683.440 637.627 591.844 589.627 567.874

11090407 729.222 683.440 637.627 591.844 589.627 567.874

11090408 729.222 683.440 637.627 591.844 589.627 567.874

11090409 729.222 683.440 637.627 591.844 589.627 567.874

11090410 729.222 683.440 637.627 591.844 589.627 567.874

11090411 729.222 683.440 637.627 591.844 589.627 567.874

11090412 729.222 683.440 637.627 591.844 589.627 567.874

11090413 729.222 683.440 637.627 591.844 589.627 567.874

11090414 729.222 683.440 637.627 591.844 589.627 567.874

11090415 729.222 683.440 637.627 591.844 589.627 567.874

11090416 729.222 683.440 637.627 591.844 589.627 567.874

11090417 729.222 683.440 637.627 591.844 589.627 567.874

11090418 729.222 683.440 637.627 591.844 589.627 567.874

11090419 729.222 683.440 637.627 591.844 589.627 567.874

11090420 729.222 683.440 637.627 591.844 589.627 567.874

11090421 729.222 683.440 637.627 591.844 589.627 567.874

11090422 729.222 683.440 637.627 591.844 589.627 567.874

11090423 729.222 683.440 637.627 591.844 589.627 567.874

11090424 729.222 683.440 637.627 591.844 589.627 567.874

11090425 729.222 683.440 637.627 591.844 589.627 567.874

11090426 729.222 683.440 637.627 591.844 589.627 567.874

11090427 729.222 683.440 637.627 591.844 589.627 567.874

11090428 729.222 683.440 637.627 591.844 589.627 567.874

11090429 729.222 683.440 637.627 591.844 589.627 567.874

11090430 729.222 683.440 637.627 591.844 589.627 567.874

11090431 729.222 683.440 637.627 591.844 589.627 567.874

11090432 729.222 683.440 637.627 591.844 589.627 567.874

11090433 729.222 683.440 637.627 591.844 589.627 567.874

11090434 729.222 683.440 637.627 591.844 589.627 567.874

11090501 0 0 0 1 110.2120 1

11090502 0 0 0 1 25.1812 33

11090503 0 0 0 1 107.1440 34

11090601 109010000 0 1 1 110.2120 1

11090602 109020000 10000 1 1 25.1812 33

11090603 109340000 0 1 1 107.1440 34

11090701 0000 0.0 0.0 0.0 1

11090702 1000 0.000208753 0.0 0.000003942 2

11090703 1000 0.000207201 0.0 0.000003913 3

11090704 1000 0.000206166 0.0 0.000003893 4

11090705 1000 0.000205648 0.0 0.000003883 5

11090706 1000 0.000205130 0.0 0.000003874 6

11090707 1000 0.000204958 0.0 0.000003870 7

11090708 1000 0.000204613 0.0 0.000003864 8

11090709 1000 0.000204440 0.0 0.000003861 9

11090710 1000 0.000204440 0.0 0.000003861 10

11090711 1000 0.000204268 0.0 0.000003857 11

11090712 1000 0.000204268 0.0 0.000003857 12

11090713 1000 0.000204268 0.0 0.000003857 13

11090714 1000 0.000204268 0.0 0.000003857 14
A-34

11090715 1000 0.000204268 0.0 0.000003857 15

11090716 1000 0.000204268 0.0 0.000003857 16

11090717 1000 0.000204440 0.0 0.000003861 17

11090718 1000 0.000204440 0.0 0.000003861 18

11090719 1000 0.000204613 0.0 0.000003864 19

11090720 1000 0.000204785 0.0 0.000003867 20

11090721 1000 0.000204785 0.0 0.000003867 21

11090722 1000 0.000204958 0.0 0.000003870 22

11090723 1000 0.000204958 0.0 0.000003870 23

11090724 1000 0.000205130 0.0 0.000003874 24

11090725 1000 0.000205130 0.0 0.000003874 25

11090726 1000 0.000205303 0.0 0.000003877 26

11090727 1000 0.000205475 0.0 0.000003880 27

11090728 1000 0.000205648 0.0 0.000003883 28

11090729 1000 0.000205821 0.0 0.000003887 29

11090730 1000 0.000206338 0.0 0.000003896 30

11090731 1000 0.000206856 0.0 0.000003906 31

11090732 1000 0.000207718 0.0 0.000003923 32

11090733 1000 0.000209098 0.0 0.000003949 33

11090734 0000 0.0 0.0 0.0 34

11090901 0.13083e-01 10.0 10.0 0.0 0.0 0.0 0.0 1.0 34

* 

* Heat Structure Bypass

* 

12500000 34 6 2 1 0.0 0 34

12500100 0 1

12500101 3 .458e-02 1 .466e-02 1 .539e-02

12500201 1 3 2 4 3 5

12500301 0.3131 1 0.3207 2 0.3592 3 0.0000 4 0.0070 5

12500400 -1 

12500401 567.874 567.874 567.874 567.874 567.874 567.874

12500402 567.874 567.874 567.874 567.874 567.874 567.874

12500403 567.874 567.874 567.874 567.874 567.874 567.874

12500404 567.874 567.874 567.874 567.874 567.874 567.874

12500405 567.874 567.874 567.874 567.874 567.874 567.874

12500406 567.874 567.874 567.874 567.874 567.874 567.874

12500407 567.874 567.874 567.874 567.874 567.874 567.874

12500408 567.874 567.874 567.874 567.874 567.874 567.874

12500409 567.874 567.874 567.874 567.874 567.874 567.874

12500410 567.874 567.874 567.874 567.874 567.874 567.874

12500411 567.874 567.874 567.874 567.874 567.874 567.874

12500412 567.874 567.874 567.874 567.874 567.874 567.874

12500413 567.874 567.874 567.874 567.874 567.874 567.874

12500414 567.874 567.874 567.874 567.874 567.874 567.874

12500415 567.874 567.874 567.874 567.874 567.874 567.874

12500416 567.874 567.874 567.874 567.874 567.874 567.874

12500417 567.874 567.874 567.874 567.874 567.874 567.874

12500418 567.874 567.874 567.874 567.874 567.874 567.874

12500419 567.874 567.874 567.874 567.874 567.874 567.874

12500420 567.874 567.874 567.874 567.874 567.874 567.874

12500421 567.874 567.874 567.874 567.874 567.874 567.874

12500422 567.874 567.874 567.874 567.874 567.874 567.874

12500423 567.874 567.874 567.874 567.874 567.874 567.874

12500424 567.874 567.874 567.874 567.874 567.874 567.874

12500425 567.874 567.874 567.874 567.874 567.874 567.874
A-35

12500426 567.874 567.874 567.874 567.874 567.874 567.874

12500427 567.874 567.874 567.874 567.874 567.874 567.874

12500428 567.874 567.874 567.874 567.874 567.874 567.874

12500429 567.874 567.874 567.874 567.874 567.874 567.874

12500430 567.874 567.874 567.874 567.874 567.874 567.874

12500431 567.874 567.874 567.874 567.874 567.874 567.874

12500432 567.874 567.874 567.874 567.874 567.874 567.874

12500433 567.874 567.874 567.874 567.874 567.874 567.874

12500434 567.874 567.874 567.874 567.874 567.874 567.874

12500501 0 0 0 1 19507.5240 1

12500502 0 0 0 1 4457.0724 33

12500503 0 0 0 1 18964.4880 34

12500601 250010000 10000 1 1 19507.5240 1

12500602 250020000 10000 1 1 4457.0724 33

12500603 250340000 10000 1 1 18964.4880 34

12500701 1000 0.0 0.0 0.0 1

12500702 1000 0.0 0.0 0.000016037 2

12500703 1000 0.0 0.0 0.000015425 3

12500704 1000 0.0 0.0 0.000015042 4

12500705 1000 0.0 0.0 0.000014831 5

12500706 1000 0.0 0.0 0.000014696 6

12500707 1000 0.0 0.0 0.000014640 7

12500708 1000 0.0 0.0 0.000014613 8

12500709 1000 0.0 0.0 0.000014618 9

12500710 1000 0.0 0.0 0.000014623 10

12500711 1000 0.0 0.0 0.000014600 11

12500712 1000 0.0 0.0 0.000014606 12

12500713 1000 0.0 0.0 0.000014610 13

12500714 1000 0.0 0.0 0.000014633 14

12500715 1000 0.0 0.0 0.000014651 15

12500716 1000 0.0 0.0 0.000014634 16

12500717 1000 0.0 0.0 0.000014644 17

12500718 1000 0.0 0.0 0.000014615 18

12500719 1000 0.0 0.0 0.000014600 19

12500720 1000 0.0 0.0 0.000014623 20

12500721 1000 0.0 0.0 0.000014608 21

12500722 1000 0.0 0.0 0.000014620 22

12500723 1000 0.0 0.0 0.000014633 23

12500724 1000 0.0 0.0 0.000014659 24

12500725 1000 0.0 0.0 0.000014689 25

12500726 1000 0.0 0.0 0.000014686 26

12500727 1000 0.0 0.0 0.000014720 27

12500728 1000 0.0 0.0 0.000014772 28

12500729 1000 0.0 0.0 0.000014866 29

12500730 1000 0.0 0.0 0.000015019 30

12500731 1000 0.0 0.0 0.000015222 31

12500732 1000 0.0 0.0 0.000015614 32

12500733 1000 0.0 0.0 0.000016149 33

12500734 1000 0.0 0.0 0.0 34

12500901 0.13083e-01 10.0 10.0 0.0 0.0 0.0 0.0 1.0 34

*------------------------------------------------------------------

******************************************************************

* modelo de cinetica 

******************************************************************

* tipo cin realim 
A-36

30000000 point separabl

* pr.fis potencia reac n.ret cte cte

30000001 gamma-ac .101000000e+01 0. .2467e+03 1. 1.

* dec prod fis (ans73,ans79-1,ans79-3 

30000002 ans79-3 200. 0.531 0.078 0.391

30000101 0.030221 0.012800

30000102 0.205212 0.031500

30000103 0.184944 0.124700

30000104 0.389432 0.328200

30000105 0.151466 1.405200

30000106 0.038726 3.844700

* 

**************************************************************** 

* h e a t s t r u c t u r e s p r o p e r t i e s * 

**************************************************************** 

* 

20100100 tbl/fctn 1 1 * uo-2 

20100200 tbl/fctn 1 1 * gap-normalstab 

20100300 tbl/fctn 1 1 * zircaloy 

20100400 tbl/fctn 1 1 * s-steel extrapolado 

20100500 tbl/fctn 1 1 * inconel 

20100600 tbl/fctn 1 1 * ferrit 

20100700 tbl/fctn 1 1 * austenit aprox. 7800 kg/m3 

20100800 tbl/fctn 1 1 * spalt heisstab 

20100900 tbl/fctn 1 1 * aislante r213/e41/81, re-l 2668 ea 

20101000 tbl/fctn 1 1 * aire 

20101100 tbl/fctn 1 1 * cobre 

* 

************************************************************* 

* thermal conductivity 

************************************************************* 

* 

* fuel uo-2 ( wie bethy eingabe ) 

* 

* temp(k) lambda(w/m-k) temp(k) lambda(w/m-k) 

* 

20100101 273.15 7.8736 373.15 7.874 

20100102 473.15 6.675 573.15 5.733 

20100103 673.14 5.107 773.15 4.599 

20100104 873.15 4.178 973.15 3.833 

20100105 1073.15 3.53 1173.15 3.282 

20100106 1273.15 3.066 1373.15 2.872 

20100107 1473.15 2.731 1573.15 2.613 

20100108 1673.15 2.516 1773.15 2.462 

20100109 1873.15 2.418 1973.15 2.429 

20100110 2073.15 2.429 2173.15 2.429 

20100111 2273.15 2.451 2373.15 2.505 

20100112 2473.15 2.591 2573.15 2.688 

20100113 2673.15 2.807 2773.15 2.969 

20100114 2873.15 3.142 2973.15 3.336 

20100115 3073.15 3.561 3173.15 3.828 

20100116 3573.15 5.224 4873.15 14.959 

* 

*--------------- 

* gap gas normalstab 
A-37

* 

20100201 273.15 0.366725381 3000.00 0.366725381 

* 

*--------------- 

* cladding zircaloy 

* temp(k) lamda(w/m-k) temp(k) lamda(w/m-k) 

* 

20100301 273.15 13.6 373.15 14.1 

20100302 473.15 14.8 573.15 15.8 

20100303 673.15 16.9 773.15 18.1 

20100304 873.15 19.5 973.15 21.1 

20100305 1073.15 22.8 1173.15 24.6 

20100306 1273.15 26.8 1373.15 29.2 

20100307 1473.15 31.7 1573.15 34.4 

20100308 1673.15 37.3 1773.15 40.4 

* 

*--------------- 

* s-steel 

* internally stored thermal property, s-steel 

* temperature thermal conduct. temperature thermal conduct. 

* (k) (watt/m-k) (k) (watt/m-k) 

* 

20100401 2.731500e+02 1.298051e+01 1.199817e+03 2.510604e+01 

* 

*--------------- 

*** inconel *** 

20100501 293.0 17.612 

20100502 533.0 21.777 

20100503 833.0 27.132 

* 

*--------------- 

* ferrit 

* 

* temp(k) lambda(w/m-k) temp(k) lambda(w/m-k) 

* 

* se extrapola a 273.15 para locas 

20100601 273.15 44. 373.15 44. 

20100602 473.15 43. 573.15 42. 

20100603 673.15 40. 773.15 39. 

20100604 873.15 39. 973.15 39. 

20100605 1073.15 39. 1173.15 39. 

* 

* 

*--------------- 

* austenit 

* 

* temp(k) lamda(w/m-k) temp(k) lamda(w/m-k) 

* 

* se extrapola a 273.15 para locas 

20100701 273.15 13.83 413.15 16.7 

20100702 523.15 18.6 683.15 18.6 

20100703 773.15 20.9 873.15 20.9 

20100704 973.15 20.9 2000. 20.9 

* 

*--------------- 
A-38

* gap gas heisstab 

* 

20100801 273.15 0.731969044 3000.00 0.731969044 

*--------------- 

* aislante 

* temp(k) lamda(w/m-k) temp(k) lamda(w/m-k) 

20100901 273.15 0.1 3000.00 0.1 * dato r213 /e41/81 

* 

*--------------- 

* aire 

* temp(k) lamda(w/m-k) temp(k) lamda(w/m-k) 

20101001 277.75 0.0247 361.15 0.027 

20101002 555.54 0.045 833.15 0.064 

20101003 1333.15 0.09 

* 

*--------------- 

* cobre 

* temp(k) lamda(w/m-k) temp(k) lamda(w/m-k) 

20101101 250. 406. 300. 401. 

20101102 350. 396. 400. 393. 

20101103 500. 386. 600. 379. 

20101104 800. 366. 1000. 352. 

20101105 1200. 339. 

* 

************************************************************* 

* * 

* volumetric heat capacity * 

* * 

************************************************************* 

* 

* fuel uo-2 

* 

* temp(k) cp(j/m3-k) temp(k) cp(j/m3-k) 

* 

20100151 273.150 2.427e6 400. 2.754e6 

20100152 500. 2.927e6 600. 3.043e6 

20100153 700. 3.139e6 800. 3.178e6 

20100154 900. 3.236e6 1000. 3.274e6 

20100155 1100. 3.313e6 1200. 3.351e6 

20100156 1300. 3.378e6 1400. 3.428e6 

20100157 1500. 3.459e6 1600. 3.502e6 

20100158 1700. 3.582e6 1800. 3.660e6 

20100159 1900. 3.775e6 2000. 3.992e6 

20100160 2100. 4.169e6 2200. 4.366e6 

20100161 2300. 4.622e6 2400. 4.897e6 

20100162 2500. 5.212e6 2600. 5.585e6 

20100163 3000. 7.395e6 

* 

*--------------- 

* gap gas normalstab 

* temp(k) cp(j/m3-k) temp(k) cp(j/m3-k) 

* 

20100251 273.15 5.4 3273.15 5.4 

* 

*--------------- 
A-39

* cladding zircaloy 

* temp(k) cp(j/m3-k) temp(k) cp(j/m3-k) 

* 

20100351 273.15 1.881e6 573.15 2.079e6 

20100352 773.15 2.211e6 903.15 2.290e6 

20100353 923.15 2.376e6 1083.15 2.376e6 

20100354 1103.15 3.630e6 1123.15 4.455e6 

20100355 1143.15 4.950e6 1163.15 5.115e6 

20100356 1183.15 4.950e6 1203.15 4.455e6 

20100357 1213.15 3.360e6 1243.15 2.376e6 

20100358 2073.15 2.376e6 

* 

*--------------- 

* s-steel (extrapolado a 273c) 

* internally stored thermal property, s-steel 

* temperature heat capacity temperature heat capacity 

* (k) (j/m3-k) (k) (j/m3-k) 

20100451 2.7315e+2 3.604613e+06 

20100452 3.664833e+02 3.830413e+06 4.220389e+02 3.964814e+06 

20100453 4.775944e+02 4.099214e+06 5.331500e+02 4.233615e+06 

20100454 5.887056e+02 4.334415e+06 6.442611e+02 4.435081e+06 

20100455 6.998167e+02 4.502416e+06 8.109278e+02 4.636816e+06 

20100456 1.366483e+03 5.376019e+06 

* 

*--------------- 

* inconel 

* 

* temp(k) cp(j/m3-k) temp(k) cp(j/m3-k) 

* 

20100551 273. 3.988e6 293.0 3.916e6 

20100552 373. 4.169e6 473.0 4.418e6 

20100553 573. 4.703e6 673.0 5.095e6 

20100554 773. 5.593e6 873.0 6.307e6 

20100555 973. 7.482e6 1000.0 7.482e6 

* 

*--------------- 

* ferrit 

* 

* temp(k) cp(j/m3-k) temp(k) cp(j/mf-k) 

* 

* se extrapola a 273.15 para locas 

*20100651 293.15 3.611e6 373.15 3.847e6 

20100651 273.15 3.552e6 373.15 3.847e6 

20100652 473.15 4.082e6 573.15 4.396e6 

20100653 673.15 4.788e6 773.15 5.338e6 

20100654 2000. 5.338e6 

* 

*--------------- 

* austenit 

* 

* temp(k) cp(j/m3-k) temp(k) cp(j/m3-k) 

* 

* se extrapola a 273.15 para locas 

20100751 273.15 3.5012e6 368. 3.837e6 

20100752 478.15 4.102e6 588.15 4.333e6 
A-40

20100753 698.15 4.465e6 813.15 4.597e6 

20100754 873.15 4.465e6 2000. 4.465e6 

* 

*--------------- 

* gap gas heisstab 

* temp(k) cp(j/m3-k) temp(k) cp(j/m3-k) 

* 

20100851 200. 5.4 3273.15 5.4 

* 

*--------------- 

* aislante 

* temp(k) cp(j/m3-k) temp(k) cp(j/m3-k) 

20100951 200. 130.e3 1200. 130.e3 * 

* 

*--------------- 

* aire 

* temp(k) cp(j/m3-k) temp(k) cp(j/m3-k) 

20101051 200. 400. 1200. 478. 

* 

*--------------- 

* cobre (8960 kg/m3) (25C) 

* temp(k) cp(j/m3-k) temp(k) cp(j/m3-k) 

20101151 200. 3.5e6 1200. 3.5e6 

* 

***************************************************************************

. * end 
A-41

INPUT DECK FOR RELAP5 COUPLED STEADY-STATE SIMULATION:

=PWR R5M3.3 beta (INPUT FOR STEADY-STATE FROM RESTART) 

* PWR REACTOR RELAP5 INPUT FILE0

*****************restart file input********************************** 

* 

1 88

* 

*-----------------------------------------------------------------

* Problem Options

*-----------------------------------------------------------------

* 

100 restart stdy-st *1

101 run

102 si si

103 -1 

* remaining cpu time

105 5. 6.

* 

* Min mj re

201 600.0 0.00002 0.05 07003 1 1 5000 

202 500.0 0.00002 0.05 07003 1 1 5000 

* 

. 
A-42

INPUT DECK FOR PARCS V2.7 COUPLED STEADY-STATE SIMULATION:

!******************************************************************************

CASEID PARCS_CSS GENERAL DATA FOR A PWR

!******************************************************************************

CNTL !table 5

 core_type PWR

 core_power 0.1 ! 

 ppm 0.0

! 

!!! Control Rod Banks position in steps withdrawn: (14 cont. rod banks)

!!! Totally withdrawn= 340.0

!!! Totally inserted= 15.0 (corresponds to the minimum insertion lenght)

! 

! bk1 bk2 bk3 bk4 bk5 bk6 bk7 bk8 bk9 bk10 bk11 bk12 bk13 bk14 

 bank_pos 15.0 340. 340. 340. 15.0 15.0 340. 340. 340. 340. 340. 340. 340. 15.0

 th_fdbk F T

 xe_sm 3 0 

! 0 : no xe, 1 : eq. xe 2 : tr. xe 3 : given xe

 decay_heat F 

 rot_adf T 

! for LPRM

 DETECTOR F 5848. 

 pin_power F

 ext_th T MAPTAB_RP RELAP 1 1

 transient F

 restart F PARCS_SS.rst 1

! input iteration planar adj

! edit table power pin reac

 print_opt T F T F T

! fdbk flux planar

! rho precurs flux Xe T/H

 print_opt T F F F F

! 

! oneD PKRE Radial Radial assy

! const Data Shape Shape const

 print_opt F F F F F 

 oned_kin F SA1D

! 

! END OF CONTROL CARD

! 

!******************************************************************************

PARAM !table 6

 n_iters 5 500 

 conv_ss 1.0e-6 1.e-5 1.e-5 0.001 !keff,globfs,locfs,tempf

 wielandt 0.04 0.1 1.0

 nodal_kern HYBRID

 nlupd_ss 2 3 1 

 eps_anm 0.005

 eps_erf 0.005

 decusp 0

 init_guess 0

!******************************************************************************

XSEC !tabl 7
A-43

 func_type 13 

 dnp_ngrp 6 

 kin_comp 1 1 -867 

! PWR specs

 dnp_beta 0.000158 0.001100 0.000977 0.002046 0.000789 0.000195

 dnp_lambda 0.012812 0.031456 0.124555 0.328429 1.410936 3.818017

!******************************************************************************

GEOM !table 8

 file GEOM_LWR

!******************************************************************************

TH !table 9 

 UNIF_TH 0.2 1200.00 650.0

!******************************************************************************

PFF !table 10, power form function 

npin_side 16

pff_comp 1 1 -867 

pff_unrodd 1 !group 1 of set 1

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 0. 1. 1. 0. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 1. 1. 1. 1. 0. 1.

1. 1. 0. 1. 1. 1. 1. 1.

1. 1. 1. 1. 0. 1. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

pff_unrodd 2 !group 2 of set 1

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 0. 1. 1. 0. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 1. 1. 1. 1. 0. 1.

1. 1. 0. 1. 1. 1. 1. 1.

1. 1. 1. 1. 0. 1. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

pff_rodded 1 !group 1 of set 1

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 0. 1. 1. 0. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 1. 1. 1. 1. 0. 1.

1. 1. 0. 1. 1. 1. 1. 1.

1. 1. 1. 1. 0. 1. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

pff_rodded 2 !group 2 of set 1

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 0. 1. 1. 0. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 1. 1. 1. 1. 0. 1.

1. 1. 0. 1. 1. 1. 1. 1.

1. 1. 1. 1. 0. 1. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

!!******************************************************************************

TRAN !table 11

 time_step 1000. 1.e-4 200. 1.
A-44

! time_step 600.0 0.05 !TIME STEP N.B.

 expo_opt F F

 Scram F 1000.0 0.0 1048.

! 

!!! move_bank provides the control rod bank movement. 

!!! The first parameter is the number of the control rod bank

!!! The following parameters are: time and position (for each step)

! 

! move_bank 14 0.0 15.0 2.0 15.0 2.1 340.0

! 

! The above values need checking 

 theta 0.5 0.5 0.5

 conv_tr 0.001

 nlupd_tr 5 1 5 10

 eps_xsec 0.01

. 
A-45

GEOM_LWR FILE TAIL FOR PARCS V2.7 SIMULATION:

. 

. 

. 

PR_Assign 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 

27 28 29 30 31 32 33 34

! 

! 

!fix: assume 340 steps: 1

CR_axinfo 14.0 1. !fully withdrawn position and step size

! 

!!! Control rod banks radial configuration

!!! (14 control rod banks defined)

!!! (0 means no bank defined)

! 

bank_conf

 0 0 0 0 0 0 0

 0 0 0 0 0 0 0 0 0 0 0

 0 0 0 0 3 0 9 0 11 0 0 0 0

 0 0 0 0 1 0 7 0 6 0 2 0 0 0 0

 0 0 0 8 0 0 0 10 0 0 0 8 0 0 0

 0 0 0 2 0 12 0 5 0 4 0 12 0 1 0 0 0

 0 0 11 0 0 0 0 0 0 0 0 0 0 0 3 0 0

 0 0 0 6 0 4 0 13 0 13 0 5 0 7 0 0 0

 0 0 9 0 10 0 0 0 0 0 0 0 10 0 9 0 0

 0 0 0 7 0 5 0 13 0 13 0 4 0 14 0 0 0

 0 0 3 0 0 0 0 0 0 0 0 0 0 0 11 0 0

 0 0 0 1 0 12 0 4 0 5 0 12 0 2 0 0 0

 0 0 0 8 0 0 0 10 0 0 0 8 0 0 0

 0 0 0 0 2 0 6 0 7 0 1 0 0 0 0

 0 0 0 0 11 0 9 0 3 0 0 0 0

 0 0 0 0 0 0 0 0 0 0 0

 0 0 0 0 0 0 0
A-46

MAPTAB_RP FILE HEAD FOR COUPLED STEADY-STATE AND TRANSIENT 

SIMULATION:

* 

* MAPTAB FILE FOR LWR - RELAP/PARCS COUPLING

* 

%DOPL

* 

LINC 0.70

* 

***

*** %CRSIG - Control variables identification for 

*** Control Rod Banks movement

*** - Control variables have to be introduced by order 

*** (1 for each control rod bank).

*** - 0 means that the control rod bank is not moved.

*** - If %CRSIG is enabled, control rod bank movement is 

*** drived by RELAP input, no matter what PARCS input says.

***

* 

%CRSIG

0 0 0 0 0 0 0 0 0 0 0 0 0 521 

* 

* 

%REFLPROP

* 

569.55 569.55 724.00 0.0 0.0

* tcoolrefl(K) tfuelrefl(K) rhomixrefl alparefl ppmrefl

* 

* 

* VOLUME TO NODE TABLE

* 

%TABLE1

250010000 1 1.00000

250010000 2 1.00000

. 

. 

. 
A-47

INPUT DECK FOR RELAP5 COUPLED TRANSIENT SIMULATION:

=PWR R5M3.3 beta (INPUT FOR TRANSIENT FROM RESTART) 

* PWR REACTOR RELAP5 INPUT FILE0

*****************restart file input********************************** 

* 

1 88

* 

*-----------------------------------------------------------------

* Problem Options

*-----------------------------------------------------------------

* 

100 restart transnt *1

101 run

102 si si

103 -1 

* remaining cpu time

105 5. 6.

* Min mj re

201 2.0 0.00002 0.1 07003 10 10 5000

202 4.0 0.00002 0.001 07003 10 10 5000 

203 15.0 0.00002 1.000 07003 10 10 5000 

204 500.0 0.00002 1.0 07003 10 10 5000 

* 

* control expandido 205cccc0 (0001 < cccc < 9999)

20500000 9999 

* 

* trips expandidos 206cccc0 (0001 < cccc < 0999)

* trips logicos 206cccc0 (1000 < cccc < 2000)

20600000 expanded 

* 

***************************

*Variables de control 

* 

*** Control variable for Control Rod Bank movement

*** - Initial position of the CRB is indicated

*** - Movement table is identified

* 

* name/type/scaling factor/initial value/initial flag/limiter control/minimum/maximum 

20505210 bar_pos function 1. 15.0 0 3 0. 340. 

*** name of variable on 'function'/integer name of variable/table number 

20505211 time 0 521

* 

*** Control Rod Bank movement table

*** - 202TTT00 where TTT is the table number

*** - react-t for reactivity versus time quantities; 0 means no trip used

*** - linear interpolation is used between argument values:

*** time position (in notches)

20252100 reac-t 0

20252101 0.0 15.0

20252102 2.0 15.0

20252103 2.1 340.0

* 

. 
A-48

INPUT DECK FOR PARCS V2.7 COUPLED TRANSIENT SIMULATION:

!******************************************************************************

CASEID PARCS_TR GENERAL DATA FOR A PWR

!******************************************************************************

CNTL !table 5

 core_type PWR

 core_power 0.1 ! 

 ppm 0.0

! 

!!! Control Rod Banks position in steps withdrawn: (14 cont. rod banks)

!!! Totally withdrawn= 340.0

!!! Totally inserted= 15.0 (corresponds to the minimum insertion lenght)

! 

! bk1 bk2 bk3 bk4 bk5 bk6 bk7 bk8 bk9 bk10 bk11 bk12 bk13 bk14 

 bank_pos 15.0 340. 340. 340. 15.0 15.0 340. 340. 340. 340. 340. 340. 340. 15.0

 th_fdbk F T

 xe_sm 3 0 

! 0 : no xe, 1 : eq. xe 2 : tr. xe 3 : given xe

 decay_heat F 

 rot_adf T 

! for LPRM

 DETECTOR F 5848. 

 pin_power F

 ext_th T MAPTAB_RP RELAP 1 1

 transient T

 restart T PARCS_CSS.rst 1

! input iteration planar adj

! edit table power pin reac

 print_opt T F T F T

! fdbk flux planar

! rho precurs flux Xe T/H

 print_opt T F F F F

! 

! oneD PKRE Radial Radial assy

! const Data Shape Shape const

 print_opt F F F F F

 oned_kin F SA1D

! 

! END OF CONTROL CARD

! 

!******************************************************************************

PARAM !table 6

 n_iters 5 500 

 conv_ss 1.0e-6 1.e-5 1.e-5 0.001 !keff,globfs,locfs,tempf

 wielandt 0.04 0.1 1.0

 nodal_kern HYBRID

 nlupd_ss 2 3 1 

 eps_anm 0.005

 eps_erf 0.005

 decusp 0

 init_guess 0

!******************************************************************************

XSEC !tabl 7
A-49

 func_type 13 

 dnp_ngrp 6 

 kin_comp 1 1 -867 

! PWR specs

 dnp_beta 0.000158 0.001100 0.000977 0.002046 0.000789 0.000195

 dnp_lambda 0.012812 0.031456 0.124555 0.328429 1.410936 3.818017

!******************************************************************************

GEOM !table 8

 file GEOM_LWR

!******************************************************************************

TH !table 9 

!fix assume all assemblies are 16x16 with 20 guide/instumentation tubes

! N_PINGT 236 20 !npin,ngt(n guide tubes)

!fix by ldj: 3010/177=17.005 

! FA_POWPIT 17. 10.625 !assembly power(Mw) and pitch(cm)

! 

! gamma_frac 0. !direct heating fraction

! Dm_u Tf_u Tm_u

 UNIF_TH 0.2 1200.00 650.0

!******************************************************************************

PFF !table 10, power form function 

npin_side 16

pff_comp 1 1 -867 

pff_unrodd 1 !group 1 of set 1

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 0. 1. 1. 0. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 1. 1. 1. 1. 0. 1.

1. 1. 0. 1. 1. 1. 1. 1.

1. 1. 1. 1. 0. 1. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

pff_unrodd 2 !group 2 of set 1

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 0. 1. 1. 0. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 1. 1. 1. 1. 0. 1.

1. 1. 0. 1. 1. 1. 1. 1. 

1. 1. 1. 1. 0. 1. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

pff_rodded 1 !group 1 of set 1

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 0. 1. 1. 0. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 1. 1. 1. 1. 0. 1.

1. 1. 0. 1. 1. 1. 1. 1.

1. 1. 1. 1. 0. 1. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

pff_rodded 2 !group 2 of set 1

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

1. 1. 0. 1. 1. 0. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.
A-50

1. 1. 1. 1. 1. 1. 0. 1.

1. 1. 0. 1. 1. 1. 1. 1.

1. 1. 1. 1. 0. 1. 1. 1.

1. 1. 1. 1. 1. 1. 1. 1.

!!******************************************************************************

TRAN !table 11

 time_step 1000. 1.e-4 200. 1.

! time_step 600.0 0.05 !TIME STEP N.B.

 expo_opt F F

 Scram F 1000.0 0.0 1048.

! 

!!! move_bank provides the control rod bank movement. 

!!! The first parameter is the number of the control rod bank

!!! The following parameters are: time and position (for each step)

! 

! move_bank 14 0.0 15.0 2.0 15.0 2.1 340.0

! 

! The above values need checking 

 theta 0.5 0.5 0.5

 conv_tr 0.001

 nlupd_tr 5 1 5 10

 eps_xsec 0.01

. 



UNITED STATES

NUCLEAR REGULATORY COMMISSION

WASHINGTON, DC 20555-0001

------------------

OFFICIAL BUSINESS
NUREG/IA-0402 Implementation of the Control Rod Movement Option by means of Control 

Variables in RELAP5/PARCS v2.7 Coupled Code