XXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXX''"> QINDAT File Listing
All file names in this listing are generic and may differ slightly for the computer you are using.
* This is a QTRAN input data file (QIN.DAT). Note that any
* line beginning with an asterisk (*) is a comment. Also note that a
* semicolon (;) denotes the end of a line so that comments may be placed
* to the right of any semicolon. All comments are, of course, optional.
*
###########################################################################
# Q T R A N - Q T R A N -- Q T R A N -- Q T R A N -- Q T R A N #
# Version: 13.1.082 (haddock.v13) #
# Release Date: Thu Feb 17 11:14:02 PST 2005 #
# Execution Node: blade(0x80fb2476, -2131024778) (SunOS 5.8) #
# Execution Date: 17-FEB-2005 #
# Execution Time: 13:45:09 #
###########################################################################
###################################################
### COPYRIGHT 1986-2004 BY ###
### MSC.Software CORP. ###
### ALL RIGHTS RESERVED. ###
###################################################
******************************************************************
*
* File written from P3
*
* P3 Version: 2005 r2
*
* Database: /users2/haddock/test/v13/pvf_plate/pvfplate01.db
*
* Job Name: pvfplate01a
*
* Job Description
*
* pvfplate01a - heated plate radiating to one 0.6 meters away.
*
* File Creation Date: 17-Feb-05
* File Creation Time: 13:44:48
**
******************************************************************
*
* If you wish to restart QTRAN from an existing nodal results file,
* you may do so with a $RESTART command. The following $RESTART command
* (which is commented out) requests QTRAN to be restarted from nodal
* results file NR10.NRF, and to begin new nodal results file names
* with "nnn" = 43, where the nodal results files are named NRnnn.NRF.
* If a third field is not supplied, then the time from the nodal results
* file NR10.NRF will be used as the initial time for the new run. If a
* third field is supplied, it will be used as a new initial time for the
* new execution. If the newtempflag is not zero then temperatures in the
* defined initial temperature block will be used.
* Since this $RESTART command is commented out, it will have no effect and
* is used here simply as a place keeper for your convenience.
*
**TRASYS_TR $RESTART nr000.nrf 43 newTime newtempflag
**TRASYS_DY $RESTART nr000.nrf 43 newTime newtempflag
*
*****************************************************************************
*
* Section 5.2.1: Output Labels
*
Sample master input file. Edit to fit your run requirements
$INSERT title.dat
* Insert the TITLE.DAT file. This
* file will contain the neutral
* file title data.
*
* Example title data before the $INSERT title.dat command which includes
* the title data from a translated PATRAN neutral file.
*
* NOTE: $INSERT records are used throughout the QIN.DAT file to load
* blocks of specific types of information at the appropriate
* position. If the data or file is not available, the insert
* record will have no effect. But, it will serve as a place
* holder for future runs.
*
*----------------------------------------------------------------------------
*
$ ; Terminate title data with a "$".
*
*****************************************************************************
*
* Section 5.2.2: Input Data File Echo Option
*
IECHO Y ; Data Echo? (Y=yes,N=no)
*
* ***************************************************************************
*
* Section 5.2.3: Temperature Scale Definition
*
$ECHO_ON
*
ISCALE K ; Output temperatures in Kelvin.
ICCALC K ; Calculate using Kelvin.
* Temperature options are R, F, K,
* and C.
TLABEL SECONDS ; Time units label is "SECONDS".
* This is label only, no time units
* conversion takes place.
*
* ***************************************************************************
*
* Section 5.2.4: Transient/Steady State Run Option Selection
*
* Options for the hydraulic solution
*
* HIOPT HSOL NTBHUP
* ----- ---- ------
HIOPT 0 2 200000 ; HIOPT = 0 = No hydraulic network
* 1 = Hydraulic network only
* 2 = Hydraulic network coupled
* to thermal network
* HSOL = 2 = Direct solver
* NTBHUP = Number of thermal iterations
* between hydraulic solutions
* for steady state or the
* number of time steps before
* hydraulic update for
* transient calculations.
*
* Options for the thermal solution
*
* IOPT SOL NITBUP MFLIPF
* ---- --- ------ ------
IOPT 1 0 4 8 ; IOPT = 3 = Steady State
* Other IOPT options are:
* 0 = data check only
* 1 = transient
* 2 = SS + Transient
* 3 = Steady State (SS)
* 4 = Transient + SS
* 5 = SS + Transient + SS
* SOL = 0 = STANDARD SOLUTION
* = 1 = WEAKLY NONLINEAR
* SOLUTION.
* = 2 = Direct solution
* NITBUP = Number of ITerations
* Between conductive
* resistor UPdates if
* SOL = 1. If SOL = 0,
* NITBUP is how frequently
* all nodes are updated. If
* SOL=2, its the number of
* iterative solutions
* performed before before
* another direct calculation
* MFLIPF = Number of flip flops in
* the convergence value
* before a full bisection
* solution is used.
*
* ***************************************************************************
*
* Section 5.2.5: Iteration Limit Parameters
*
IMAX 36 ; Maximum Iterations per time step.
IMIN 9 ; Minimum Iterations per time step.
* IMAX should always be greater than IMIN by
* a factor of more than 2. If it is
* desireable to follow a transient very
* close, use value of IMAX = 30, IMIN = 8.
* If one doesn't care how close the
* transient is followed, then values such as
* IMAX = 250, IMIN = 20 could be used.
*
IMAXSS 2000 2000 ; Maximum number of Steady State Iterations
* for the thermal and hydraulic solutions
* respectively.
ISSDMP 2000 ; Number of Steady State Iterations per
* output dump.
* ***************************************************************************
*
* Section 5.2.6: Control Parameters
*
DT 1.000000E-4 1.000000E-30 ; Initial and minimum
* allowed time step.
*
TSTART 0.0000000000D-01 ; Start time.
TSTOP 40.0000000000D+00 ; Stop time.
*
TSFMIN 6.5000000000D-01 ; Shrinking time step factor.
TSFMAX 2.0000000000D+00 ; Expanding time step factor.
*
HYEPIS 1.0000000000D-04 ; Hydraulic convergence criteria
*
EPSISS 1.0000000000D-03 ; Steady State Convergence Criteria
* (in degrees ICCALC).
*
* EPSIT EPSIT2
* ---------------- ------
EPSIT 1.0000000000D-04 1.0D-07 ; EPSIT is the convergence criteria
* (in degrees ICCALC). EPSIT2 is
* the iterative delta cutout
* criteria in degrees ICCALC. For
* transient runs, any node whose
* iterative delta is less than EPSIT2
* will be removed from the iterative
* process, thus conserving CPU time.
* EPSIT2 should be several orders of
* magnitude less than EPSIT. If
* EPSIT2 is entered as blank or 0.0,
* all nodes are iterated until the
* worst node has converged (this is
* a conservative approach).
*
PERTUR 5.0000000000D-02 ; PERTUR is the perturbation
* parameter (degrees ICCALC) for the
* Newton's 2nd Order Scheme of the
* SNPSOR algorithm.
*
* RELAXS IFSRLX
* ------ ------
RELAXS 1.0000000000D+00 1 ; Steady State Relaxation Parameters
* and control flag. RELAXS is the
* initial relaxation value or a
* constant if input as a negative
* value. IFSRLX indicates the type
* of relaxation values that are to
* be calculated.
* IFSRLX = 0 (default) System relaxation value which
* applies to all nodes is calculated.
* IFSRLX = 1 Group relaxation values are calculated.
* Seperate relaxation parameters are
* determined dependent on the type of
* boundary condition (Advection,
* radiation, convection or conduction)
* at the node.
* IFSRLX = 2 Individual relaxation parameters are
* determined on a node by node basis.
*
* Steady state relaxation controls
*
* MAXIMUM DAMPER MULTIPLIER
* ------- ------ ----------
RLXSAT 1.999 0.30 1.00 ; Advection relaxation controls
RLXSRT 1.999 0.80 1.00 ; Radiation relaxation controls
RLXSHT 1.999 0.94 1.00 ; Convection relaxation controls
RLXSCT 1.999 0.95 1.00 ; Conduction relaxation controls
RLXSST 1.999 0.95 1.00 ; System relaxation controls
*
* The relaxation controls apply to specific nodes that have the specific
* type of boundary conditions defined. If any node has advection, then
* those nodes use the advection controls. If nodes have more than
* one type of boundary condition, then the controls with the following
* order will apply: advection, radiation, convection and conduction.
* System controls apply when only one relaxation parameter is calculated
* for the entire system of nodes being analyzed.
*
* MAXIMUM is the upper limit to the relaxation parameter.
* Valid values are between 1.0 and 1.999
* DAMPER is the factor applied to the increase in the relaxation
* parameter. This serves to retard the rate of increase
* in the relaxation parameter.
* Valid values are between 0.001 and 1.0
* MULTIPLIER is a multiplier that is applied to the application of
* the relaxation parameter. This is a means of applying
* under relaxation to node groups.
* Valid values are between 0.001 and 1.0
*
*
* RELAXT IFTRLX
* ------ ------
RELAXT 1.0000000000D+00 1 ; Transient Relaxation Parameters
* and control flag. RELAXT is the
* initial relaxation value or a
* constant if input as a negative
* value. IFTRLX indicates the type
* of relaxation values that are to
* be calculated.
* IFTRLX = 0 (default) System relaxation value which
* applies to all nodes is calculated.
* IFTRLX = 1 Group relaxation values are calculated.
* Seperate relaxation parameters are
* determined dependent on the type of
* boundary condition (Advection,
* radiation, convection or conduction)
* at the node.
* IFTRLX = 2 Individual relaxation parameters are
* determined on a node by node basis.
*
* Transient relaxation controls
*
* MAXIMUM DAMPER MULTIPLIER
* ------- ------ ----------
RLXTAT 1.999 0.95 1.00 ; Advection relaxation controls
RLXTRT 1.999 0.95 1.00 ; Radiation relaxation controls
RLXTHT 1.999 0.95 1.00 ; Convection relaxation controls
RLXTCT 1.999 0.95 1.00 ; Conduction relaxation controls
RLXTST 1.999 0.95 1.00 ; System relaxation controls
*
*
* BETA BETMIN BETMAX
* ----- ------ ------
BETA 1.0000000000D+00 0.0000D+00 1.0000D+00
*
* BETA is the Explicit/Implicit Ratio
* 0.0 = fixed fully explicit;
* -1.0 = fixed fully implicit;
* > 0.0 = adaptive explicit/implicit.
* BETMIN is the minimum BETA value (Default = 0.0)
* BETMAX is the maximum BETA value (Default = 1.0)
*
* DELMAX MINTMP MAXTMP
* ------ ------ ------
DELMAX 1000.0 -1.000D+30 1.000D+30
*
* DELMAX is the Maximum allowed iterative delta.
* (DEFAULT = 1000.0)
* MINTMP is the Minimum allowable calculated temperature.
* (Default = -1.000D+30)
* MAXTMP is the Maximum allowable calculated temperature.
* (Default = 1.000D+30)
*
* PCBAND CPDELT
* ---------------- ------
PCBAND 1.0000000000D-00 1000.0 ; PCBAND is the Phase Change Band
* width in degrees ICCALC for
* problems using QTRAN's standard
* phase change algorithm. CPDELT
* (if blank or non-zero) is the
* temperature integration step over
* which the Cp curve will be
* evaluated to obtain an integrated
* average Cp value for a time step.
* If any Cp curves have "spikes",
* CPDELT should be set to some
* temperature value significantly
* smaller (1/5 to 1/10 of the spike
* width).
*
* GRAVTY GX GY GZ
* ------ -- -- --
GRAVTY 0.0, 0.0, 0.0, 0.0
*
* ; Gravitational constant, GX, GY, GZ Gravity
* ; field in x, y, and z direction for
* ; determination of gravity heads.
*
SBC 0.0 ; Stephan-Boltzmann Constant
* (if 0.0 is entered, SBC will
* default according to the ICCALC
* temperature scale to either SI
* units or to English units).
*
*>>>>>>>> RADIATION <<<<<<<<<<<<<<<<<<<<<<<<<<<
*
* ___ STEFAN-BOLTZMANN CONSTANT ___
*
* SBC 1.7140E-9 ; BTU/HR/FT2/R4
* SBC 1.712E-9 ; BTU/HR/FT2/R4 (EXPERIMENTAL)
* default for English units
* SBC 2.8567E-11 ; BTU/MIN/FT2/R4
* SBC 4.7611E-13 ; BTU/SEC/FT2/R4
* SBC 1.7993E-8 ; BTU/HR/FT2/K4
* SBC 2.9988E-10 ; BTU/MIN/FT2/K4
* SBC 4.9980E-12 ; BTU/SEC/FT2/K4
* SBC 1.1903E-11 ; BTU/HR/IN2/R4
* SBC 3.3063E-15 ; BTU/SEC/IN2/R4
* SBC 5.01783E-10 ; WATTS/FT2/R4
* SBC 3.4846E-12 ; WATTS/IN2/R4
* SBC 5.26753E-9 ; WATTS/FT2/K4
* SBC 5.40113E-13 ; WATTS/CM2/R4
* SBC 3.6580E-11 ; WATTS/IN2/K4
* SBC 5.6699E-12 ; WATTS/CM2/K4
* SBC 5.6699E-5 ; ERGS/SEC/CM2/K4
* SBC 5.6696E-8 ; WATTS/M2/K4 (EXPERIMENTAL)
* default for SI units
* SBC 5.6696D-14 ; WATT/mm2/K4
*
* ***************************************************************************
*
DCMF 1 ; DisContinuous Macrofunction Flag
* 0 --> off
* 1 --> on (discontinuous
* macrofunctions may exist).
*
* ***************************************************************************
*
* Section 5.2.7: Resistor/Capacitor/Qmacro Data Print Option
*
* C H R W A Cap Q HA HC
* - - - - - --- - -- --
IRQFLO 0 0 0 0 0 0 0 0 0
*
*------------------------------------------------------------------------------
*
* Nodal results file format
*
NRFORM 0 ; = -> 0 Binary file
* ; = -> 1 ASCII file
*
*------------------------------------------------------------------------------
*
* Which records are to be put in the nodal results file
*
* 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18
* - - - - - - - - - -- -- -- -- -- -- -- -- --
*
IDMNRF 1 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0
*
* ; = -> 0 Record is not put in nodal results file
* ; = -> 1 Record is put in nodal results file
*
* Entry Number 1 = Temperatures
* Entry Number 2 = Net nodal heat flow
* Entry Number 3 = Explicit stable time step
* Entry Number 4 = QMACRO function heat input
* Entry Number 5 = QBASE heat input to each node
* Entry Number 6 = Total heat input to each node
* Entry Number 7 = Temperature error
* Entry Number 8 = Average convection heat transfer coefficient
*
* Entry Number 9 = Pressure at a given node from the hydraulic solution
* Entry Number 10 = Mass flow rate at a given node from the
* hydraulic solution
*
* Entry Number 11 = Mass flow rate in hydraulic element
* Entry Number 12 = Differential head in hydraulic element
* Entry Number 13 = Fluid velocity in hydraulic element
* Entry Number 14 = Volume flow rate in hydraulic element
*
* Entry Number 15 = Applied heat flux
* Entry Number 16 = Convective heat flux
* Entry Number 17 = Radiate heat flux
* Entry Number 18 = Total heat flux
*
* ***************************************************************************
*
* Section 5.2.8 Data: Maximum Time Step Controls
*
* Section 5.2.8.1: Initial Maximum Time Step
*
* DTMAX DTMAXH
* ----- ------
DTMAX 10.0 100.0 ; Initial maximum Thermal and Hydraulic
* time steps.
*
* ---------------------------------------------------------------------------
*
* Section 5.2.8.2: Maximum Allowable Time Step Adjustments
*
* New DT Time New HDT
* ------ ---- -------
*DTMAXA 1.0 14.0 0.8 ; Sets the maximum time step size
* to 1.0 at time = 14.0 and the
* hydraulic time step becomes 0.8.
* The line has been commented
* out.
*
* ---------------------------------------------------------------------------
*
$ ; End DTMAXA input with a "$".
*
* ***************************************************************************
*
* Section 5.2.9 Data: Node Definitions
*
$INSERT pnode.dat
* Pressure nodes that will be used in the
* hydraulic flow network calculations.
* Hydraulic nodes must be the first nodes
* specified.
*
$INSERT node.dat
* Insert the NODE.DAT file. This
* file will contain the node numbers
* generated by PATRAN and PATQ.
*
$INSERT vfnode.dat
* Insert the VFNODE.DAT file. This
* file contains the node numbers
* generated by P/VIEWFACTOR.
*
*----------------------------------------------------------------------------
*
$ ; Terminate the DEFNOD data with a "$".
*
*----------------------------------------------------------------------------
*
$INSERT tcoupl.dat
* Insert the TCOUPL.DAT file. This
* file contains the node IDs which are
* to be included in the analysis as if
* they were part of the companion node.
* Node location and identity are preserved.
*
*------------------------------------------------------------------------------
*
$ ; Terminate with a "$"
*
*----------------------------------------------------------------------------
*
$INSERT nodxyz.dat
* Insert the NODXYZ.DAT file. This
* file contains the node locations and
* the values are stored according to
* their definition of the nodes in the
* previous section.
*
*------------------------------------------------------------------------------
*
$ ; Terminate with a "$"
*
*
* ***************************************************************************
*
* Section 5.2.10 Data: Print Controls
*
* Section 5.2.10.1: Initial Output Print Interval
*
TPRINT 1.0 ; Initial Transient Print Interval.
*
* ---------------------------------------------------------------------------
*
* Section 5.2.10.2: Output Print Interval Adjustments
*
* New TPRINT Time
* ---------- ----
*PRINTA 0.2 1.1 ; Sets the print interval size
* This statement forces an output
* at 1.1 eventhough the print
* increment is 1.0. The print
* interval is changed to 0.2 and
* resulting print times would be
* 1.1, 1.3, 1.5, 1.7, etc.
*PRINTA -0.5 2.3 ; Sets the print interval size
* The negative sign on this
* statement would force
* print at 2.3 and on multiples
* of 0.5 there after. For example
* 2.3, 2.5, 3.0, etc.
*PRINTA 1.0 5.0 ; Sets the print interval size
*PRINTA 10.0 10.0 ; Sets the print interval size
*PRINTA 50.0 50.0 ; Sets the print interval size
* At time 50 the print interval
* will be changed to 50.
*
*
*
$ ; Terminate PRINTA data with a "$".
*
* ---------------------------------------------------------------------------
*
* Section 5.2.10.3: Nodal Print Block Definitions
*
* NOTE: If no PBLOCK data is specified, the default is
* to print out all nodal data. With "PBLOCK 1 1 1" specified as below,
* printout of all but node 1 into the QOUT.DAT will be suppressed.
* All node data will still be printed out into the nodal results files
* generated by QTRAN.
*
*PBLOCK 1 1 1
*
* ---------------------------------------------------------------------------
*
* Section 5.2.10.4: Nodal Plot Block Definitions
*
* NOTE: If no IPLTBK data is specified, the plot file is not opened.
* With "IPLTBK 1 3 1" specified only those nodes between 1 and 3
* will be output to the plot file after each converged calculation.
* Also, only temperature in ICCALC units are output to the file.
*
*IPLTBK 1 3 1
*
$ ; The print and plot block is terminated with a "$".
*
*############################################################################
*
* Section 5.3: MATERIAL PROPERTY SECTION
*
$INSERT mat.dat
* Insert the material properties
* data file MAT.DAT.
*
$ ; End the material property data Section 5.3 with a "$".
*
*############################################################################
*
* Section 5.4.0: RESISTOR AND CAPACITOR DATA SET DEFINITIONS
*
* Section 5.4.1: Resistor Data Sets
*
*----------------------------------------------------------------------------
*
* This portion of the QIN.DAT file has a number of optional "$STATUS message"
* commands. These can be of some help in the event that QTRAN encounters an
* error and for some reason you have difficulty in ascertaining where the
* error occurred.
*
*----------------------------------------------------------------------------
*
$STATUS Beginning to read conduc.dat
*
$INSERT conduc.dat,C ; the ",C" implies a binary file.
*
$STATUS conduc.dat input finished.
*
*----------------------------------------------------------------------------
*
$STATUS Beginning to read fres.dat
*
$INSERT fres.dat ; hydraulic data
*
$STATUS fres.dat input finished.
*
*----------------------------------------------------------------------------
*
$STATUS Beginning to read convec.dat
*
$INSERT convec.dat
$INSERT gap_convec.dat ; Gap convection between regions
$INSERT ../convec.dat.apnd ; Supplemental resistors defined by the user
*
$STATUS convec.dat input finished.
*
*----------------------------------------------------------------------------
*
* These commands are used to $INSERT the radiation resistor data generated
* by P/VIEWFACTOR.
*
$STATUS Beginning to read vfres.dat.
*
$INSERT vfres.dat,RAD ; the ",RAD" inplies a binary file.
*
$STATUS vfres.dat input finished.
*
**TRASYS_SS $INSERT travrc.dat ; Uncomment the trasys file based on the
**TRASYS_TR $INSERT travrc.dat ; type of analysis performed.
**TRASYS_DY $INSERT trdynrdk.dat ; SS Steady State, TR Transient
**TRASYS_DY $INSERT trcdrc.dat ; DY are for dynamic view factors
*
$INSERT trarst.dat ; Radiation resistors defined by TRASYS
$INSERT nevrst.dat ; Radiation resistors defined by NEVADA
$INSERT ambn_rad.dat ; Radiation to an ambient node.
$INSERT gap_rad.dat ; Gap radiation between two nodes.
$INSERT rad_dir.dat ; Direct translation radiation network.
*
*----------------------------------------------------------------------------
*
$STATUS Beginning to read res.dat.
*
$INSERT res.dat
*
$STATUS res.dat input finished.
*
*----------------------------------------------------------------------------
*
$ ; Terminate the resistor input with a "$".
*
$STATUS All resistor data input is complete.
*
* ***************************************************************************
*
* Section 5.4.2: Capacitor Data Sets
*
$STATUS Beginning to read cap.dat.
*
$INSERT cap.dat,CAP ; the ",CAP" implies a binary file.
$INSERT ../cap.dat.apnd ; Supplemental capacitors defined by the user
*
$STATUS cap.dat input complete.
*
*----------------------------------------------------------------------------
*
$ ; Terminate the capacitor data input with a "$".
*
$STATUS All thermal network data has now been successfully input.
*
*############################################################################
*
* Section 5.5.1: Microfunction Definitions
*
$STATUS Read in the micro.dat file.
*
$INSERT micro.dat
$INSERT micro_st.dat
*
**TRASYS_DY $INSERT tramic.dat ; Uncomment the appropriate file depending
**TRASYS_TR $INSERT tramic.dat ; if it were a transient or dynamic TRASYS
$INSERT nevmic.dat ; Time dependent heating defined by NEVADA
*
$STATUS micro.dat input complete.
*
*----------------------------------------------------------------------------
*
$ ; Terminate the microfunction data input with a "$".
*
$STATUS All microfunction data has now been successfully input.
*
* ***************************************************************************
*
* Section 5.5.2: Heat Source/Sink Macrofunction Definitions
*
$STATUS Read in the qmacro.dat file.
*
$INSERT qmacro.dat
$INSERT qmacro_dir.dat
*
**TRASYS_DY $INSERT traqma.dat ; Uncomment heat flux file depending if
**TRASYS_TR $INSERT traqma.dat ; TRASYS run was transient or dynamic
*
$INSERT nevqma.dat ; Variable heat load defined by NEVADA
*
$STATUS qmacro.dat input complete.
*
*----------------------------------------------------------------------------
*
$ ; Terminate the QMACROfunction data with a "$".
*
$STATUS All QMACROfunction data has now been successfully input.
*
* ***************************************************************************
*
* Section 5.5.3 Data: Temperature Control Macrofunctions
*
$STATUS Read in the tmacro.dat file.
*
$INSERT tmacro.dat
$INSERT tmacro_dir.dat
*
$STATUS tmacro.dat input complete.
*
*----------------------------------------------------------------------------
*
$ ; Terminate the TMACROfunction data with a "$".
*
$STATUS All TMACROfunction data has now been successfully input.
*
* ***************************************************************************
*
* Section 5.5.4 Data: Mass Flow Hydraulic Control Macrofunctions
*
$STATUS Read in the mmacro.dat file.
*
$INSERT mmacro.dat
$INSERT mmacro_dir.dat
*
$STATUS mmacro.dat input complete.
*
*----------------------------------------------------------------------------
*
$ ; Terminate the MMACROfunction data with a "$".
*
$STATUS All MMACROfunction data has now been successfully input.
*
* ***************************************************************************
*
* Section 5.5.5 Data: Pressure Hydraulic Control Macrofunctions
*
$STATUS Read in the pmacro.dat file.
*
$INSERT pmacro.dat
$INSERT pmacro_dir.dat
*
$STATUS pmacro.dat input complete.
*
*----------------------------------------------------------------------------
*
$ ; Terminate the PMACROfunction data with a "$".
*
$STATUS All MMACROfunction data has now been successfully input.
*
* ***************************************************************************
*
* Section 5.5.6 Data: Initially Fixed Nodes
*
$STATUS Read in the tfix.dat file.
*
$INSERT tfix.dat
*
$STATUS tfix.dat input complete.
*
*----------------------------------------------------------------------------
*
* Section 5.5.6 Data: Initially Fixed Pressure Nodes
*
$STATUS Read in the pfix.dat file.
*
$INSERT pfix.dat
*
$STATUS pfix.dat input complete.
*
*----------------------------------------------------------------------------
*
$ ; Terminate the fixed node data with a "$".
*
$STATUS Fixed node data has now been successfully input.
*
* ***************************************************************************
*
* Section 5.5.7 Data: Nodal Classification Changes
*
* [ None used for this problem. ]
*
$ ; Terminate CLASSification changes with a "$".
*
* ***************************************************************************
*
* Section 5.5.8 Data: Initial Global Temperature and Heat Source
*
TINITL 20.0 C ; Globally assign an initial
* temperature of 20.0 C
*
PINITL 101325.0 ; Globally assign an initial
* pressure of 101325 nt/m2
*
MGLOBL 0.0 ; Globally assign an initial
* mass flow rate 0.0 kg/sec
*
* MPIDGH MPIDGX MPIDGY MPIDGZ
* ------ ------ ------ ------
MPIDGH 0 0 0 0
*
* ; Material property IDs which define
* ; variable gravity fields.
* ; MPIDGH - Field value used for units
* ; conversions m/sec2
* ; MPIDGX - Gravity along x-axis
* ; MPIDGY - Gravity along y-axis
* ; MPIDGZ - Gravity along z-axis
*
QGLOBL 0.00000000000D+00 ; Globally assign a per-unit-volume
* heat flux of 0.0.
*
* ***************************************************************************
*
* Section 5.5.9: Individual Assignments of Initial Temperatures
*
*
$STATUS Read in the temp.dat file.
*
$INSERT temp.dat
*
$STATUS temp.dat data input complete.
*
*----------------------------------------------------------------------------
*
* Section 5.5.9: Individual Assignments of Initial Pressures
*
$STATUS Read in the press.dat file.
*
$INSERT press.dat
*
$STATUS press.dat data input complete.
*
*----------------------------------------------------------------------------
*
$ ; Terminate the initial temperature and pressure data with a "$".
*
$STATUS Initial temperature and pressure data input complete.
*
* ***************************************************************************
*
* Section 5.5.10: Individual Assignments of Constant Heat Sources
*
$STATUS Beginning to read qbase.dat.
*
$INSERT qbase.dat
$INSERT qbase_dir.dat
**TRASYS_SS $INSERT trqbas.dat ; uncomment if this is a steady state
* TRASYS run.
$INSERT nevbas.dat ; Constant heat load defined by NEVADA
*
$STATUS qbase.dat data input complete.
*
*----------------------------------------------------------------------------
*
* Section 5.5.10: Individual Assignments of Constant mass flow rate
*
$STATUS Beginning to read mdbase.dat
*
$INSERT mdbase.dat
*
$STATUS mdbase.dat input complete.
*
*----------------------------------------------------------------------------
*
$ ; Terminate the constant heat source and mass flow rate data with a "$".
*
* ***************************************************************************
*
* END OF QIN DATA FILE
*
* ***************************************************************************
*
* User input may follow
*
* ***************************************************************************
; End the material property data Section 5.3 with a "$".
*
*############################################################################
*
* Section 5.4.0: RESISTOR AND CAPACITOR DATA SET DEFINITIONS
*
* Section 5.4.1: Resistor Data Sets
*
*----------------------------------------------------------------------------
*
* This portion of the QIN.DAT file has a number of optional "$STATUS message"
* commands. These can be of some help in the event that QTRAN encounters an
* error and for some reason you have difficulty in ascertaining where the
* error occurred.
*
*----------------------------------------------------------------------------
*
$STATUS Beginning to read conduc.dat
*
$INSERT conduc.dat,C ; the ",C" implies a binary file.
*
$STATUS conduc.dat input finished.
*
*----------------------------------------------------------------------------
*
$STATUS Beginning to read fres.dat
*
$INSERT fres.dat ; hydraulic data
*
$STATUS fres.dat input finished.
*
*----------------------------------------------------------------------------
*
$STATUS Beginning to read convec.dat
*
$INSERT convec.dat
$INSERT gap_convec.dat ; Gap convection between regions
$INSERT ../convec.dat.apnd ; Supplemental resistors defined by the user
*
$STATUS convec.dat input finished.
*
*----------------------------------------------------------------------------
*
* These commands are used to $INSERT the radiation resistor data generated
* by P/VIEWFACTOR.
*
$STATUS Beginning to read vfres.dat.
*
$INSERT vfres.dat,RAD ; the ",RAD" inplies a binary file.
$INSERT trarst.dat ; Radiation resistors defined by TRASYS
$INSERT nevrst.dat ; Radiation resistors defined by NEVADA
$INSERT gap_rad.dat ; Gap radiation between two nodes.
*
$STATUS vfres.dat input finished.
*
*----------------------------------------------------------------------------
*
STATUS Beginning to read res.dat.
*
$INSERT res.dat
*
$STATUS res.dat input finished.
*
*----------------------------------------------------------------------------
*
$ ; Terminate the resistor input with a "$".
*
$STATUS All resistor data input is complete.
*
* ***************************************************************************
*
* Section 5.4.2: Capacitor Data Sets
*
$STATUS Beginning to read cap.dat.
*
$INSERT cap.dat,CAP ; the ",CAP" implies a binary file.
$INSERT ../cap.dat.apnd ; Supplemental capacitors defined by the user
*
$STATUS cap.dat input complete.
*
*----------------------------------------------------------------------------
*
$ ; Terminate the capacitor data input with a "$".
*
$STATUS All thermal network data has now been successfully input.
*
*############################################################################
*
* Section 5.5.1: Microfunction Definitions
*
$STATUS Read in the micro.dat file.
*
$INSERT micro.dat
$INSERT tramic.dat ; Time dependent heating defined by TRASYS
$INSERT nevmic.dat ; Time dependent heating defined by NEVADA
*
$STATUS micro.dat input complete.
*
*----------------------------------------------------------------------------
*
$ ; Terminate the microfunction data input with a "$".
*
$STATUS All microfunction data has now been successfully input.
*
* ***************************************************************************
*
* Section 5.5.2: Heat Source/Sink Macrofunction Definitions
*
$STATUS Read in the qmacro.dat file.
*
$INSERT qmacro.dat
$INSERT traqma.dat ; Variable heat load defined by TRASYS
$INSERT nevqma.dat ; Variable heat load defined by NEVADA
*
$STATUS qmacro.dat input complete.
*
*----------------------------------------------------------------------------
*
$ ; Terminate the QMACROfunction data with a "$".
*
$STATUS All QMACROfunction data has now been successfully input.
*
* ***************************************************************************
*
* Section 5.5.3 Data: Temperature Control Macrofunctions
*
$STATUS Read in the tmacro.dat file.
*
$INSERT tmacro.dat
*
$STATUS tmacro.dat input complete.
*
*----------------------------------------------------------------------------
*
$ ; Terminate the TMACROfunction data with a "$".
*
$STATUS All TMACROfunction data has now been successfully input.
*
* ***************************************************************************
*
* Section 5.5.4 Data: Mass Flow Hydraulic Control Macrofunctions
*
$STATUS Read in the mmacro.dat file.
*
$INSERT mmacro.dat
*
$STATUS mmacro.dat input complete.
*
*----------------------------------------------------------------------------
*
$ ; Terminate the MMACROfunction data with a "$".
*
$STATUS All MMACROfunction data has now been successfully input.
*
* ***************************************************************************
*
* Section 5.5.5 Data: Pressure Hydraulic Control Macrofunctions
*
$STATUS Read in the pmacro.dat file.
*
$INSERT pmacro.dat
*
$STATUS pmacro.dat input complete.
*
*----------------------------------------------------------------------------
*
$ ; Terminate the PMACROfunction data with a "$".
*
$STATUS All MMACROfunction data has now been successfully input.
*
* ***************************************************************************
*
* Section 5.5.6 Data: Initially Fixed Nodes
*
$STATUS Read in the tfix.dat file.
*
$INSERT tfix.dat
*
$STATUS tfix.dat input complete.
*
*----------------------------------------------------------------------------
*
* Section 5.5.6 Data: Initially Fixed Pressure Nodes
*
$STATUS Read in the pfix.dat file.
*
$INSERT pfix.dat
*
$STATUS pfix.dat input complete.
*
*----------------------------------------------------------------------------
*
$ ; Terminate the fixed node data with a "$".
*
$STATUS Fixed node data has now been successfully input.
*
* ***************************************************************************
*
* Section 5.5.7 Data: Nodal Classification Changes
*
* [ None used for this problem. ]
*
$ ; Terminate CLASSification changes with a "$".
*
* ***************************************************************************
*
* Section 5.5.8 Data: Initial Global Temperature and Heat Source
*
TINITL 20.0 C ; Globally assign an initial
* temperature of 20.0 C
*
PINITL 101325.0 ; Globally assign an initial
* pressure of 101325 nt/m2
*
MGLOBL 0.0 ; Globally assign an initial
* mass flow rate 0.0 kg/sec
*
* MPIDGH MPIDGX MPIDGY MPIDGZ
* ------ ------ ------ ------
MPIDGH 0 0 0 0
*
* ; Material property IDs which define
* ; variable gravity fields.
* ; MPIDGH - Field value used for units
* ; conversions m/sec2
* ; MPIDGX - Gravity along x-axis
* ; MPIDGY - Gravity along y-axis
* ; MPIDGZ - Gravity along z-axis
*
QGLOBL 0.00000000000D+00 ; Globally assign a per-unit-volume
* heat flux of 0.0.
*
* ***********************************
*Section 5.5.9: Individual Assignments of Initial Temperatures
*
*
$STATUS Read in the temp.dat file.
*
$INSERT temp.dat
*
$STATUS temp.dat data input complete.
*
*----------------------------------------------------------------------------
*
* Section 5.5.9: Individual Assignments of Initial Pressures
*
$STATUS Read in the press.dat file.
*
$INSERT press.dat
*
$STATUS press.dat data input complete.
*
*----------------------------------------------------------------------------
*
$ ; Terminate the initial temperature and pressure data with a "$".
*
$STATUS Initial temperature and pressure data input complete.
*
* ***************************************************************************
*
* Section 5.5.10: Individual Assignments of Constant Heat Sources
*
$STATUS Beginning to read qbase.dat.
*
$INSERT qbase.dat
$INSERT trqbas.dat ; Constant heat load defined by TRASYS
$INSERT nevbas.dat ; Constant heat load defined by NEVADA
*
$STATUS qbase.dat data input complete.
*
*----------------------------------------------------------------------------
*
* Section 5.5.10: Individual Assignments of Constant mass flow rate
*
$STATUS Beginning to read mdbase.dat
*
$INSERT mdbase.dat
*
$STATUS mdbase.dat input complete.
*
*----------------------------------------------------------------------------
*
$ ; Terminate the constant heat source and mass flow rate data with a "$".
*
* ***************************************************************************
*
* END OF QIN DATA FILE
*
* ***************************************************************************
