There are two methods for retrieving data from the results file:
The Mechanical APDL solver results are typically stored in a binary file using the format described in Description of the Results File. This file can have an .rst, .rth, or .rmg extension, depending on the analysis type.
The results file format can be visualized as a tree of records.
| Color code: blue - general records; purple - geometry; red - results sets; yellow - element results |
The Results File Reader is a C++ object API that facilitates access to these records.
You can relate the above tree structure to the records described in Results File Format. The below table shows typical examples.
Table 2.1: Finding Records in the Results File Description
| Record Label | Meaning | Sample Content from .rst File |
|---|---|---|
| GEO | Geometry data |
c GEO i 1 80 Geometry data header(was 20 in 32 bit vers) c 0, maxety, maxrl, nnod, nelm, c maxcsy, ptrETY, ptrREL, ptrLOC, ptrCSY, (10) ... |
| DSI | Data set index for solution sets |
c DSI i 1 2*resmax Data sets index table. This record contains c the record pointers for the beginning of c each data set. The first resmax records are c the first 32 bits of the index, the second c resmax records are the second 32 bits. ... |
| NOD | Nodal equivalence table |
c NOD i 1 nnod Nodal equivalence table. This table equates c the number used for storage to the actual c node number c (Back(i),i=1,nnod) |
| ELM | Element equivalence table |
c ELM i 1 nelm Element equivalence table. The program c stores all element data in the numerical c order that the SOLUTION processor solves the c elements. This table equates the order c number used to the actual element number |
The following sections describe how to use the Results File Reader:
- 2.3.1.1. Compile and Link with the Result File Reader Code
- 2.3.1.2. Open an Existing Results File
- 2.3.1.3. Basic Concepts
- 2.3.1.4. Extract Nodes and Elements
- 2.3.1.5. Extract a Solution Vector
- 2.3.1.6. Example: Extract a Nodal Solution Vector
- 2.3.1.7. Example: Extract an Element Solution Vector
- 2.3.1.8. Example: Using the Results File Reader in a Standalone Program
To compile your code based on the Results File Reader, you must add the path that contains the main C_RstFile.h include file and its dependencies, as shown below.
Windows:
C:\Program Files\ANSYS Inc\v242\ansys\customize\include
Linux:
/ansys_inc/v242/ansys/customize/include/
On Windows, you must add the -DWINNT preprocessor definition at compile time. On Linux, you must add -DLINUX.
To link your application, add the following libraries to your link process.
Windows:
C:\Program Files\ANSYS Inc\v242\ansys\custom\lib\winx64\CadoeKernel.lib
C:\Program Files\ANSYS Inc\v242\ansys\custom\lib\winx64\CadoeReaders.lib
Linux:
/ansys_inc/v242/ansys/lib/linx64/libCadoeKernel.so
/ansys_inc/v242/ansys/lib/linx64/libCadoeReaders.so
Note that these libraries have dependencies to the Intel MKL library.
The first step is to add this line at the beginning of your C++ code:
#include "C_RstFile.h"
Suppose that you have a results file named file.rst in your current directory. Use this line to open an existing file:
C_RstFile RstFile( "file.rst"); // File is opened. Ready to be parsed.
The file will automatically close when the object is deleted.
The following are basic concepts related to using the Results File Reader.
The Results File Reader offers the ability to get the values of a record
of the results file via the CVEC<T> object, where
T is the type of scalars of the record of interest (typically int, double,
float or complex<double>).
You can create and allocate a CVEC object by
typing:
CVEC<double> V(10); // Create and allocate a vector of 10 double values
The C_RstFile object allocates the vector using the
correct size.
The size of a vector is accessible by calling the member function:
int size = V.Dim();
To access the values of the vector, get the pointer to the beginning of the vector:
double *values = V.Adr();
Or you can directly access the ith
value:
int i = 0; // The first value double val = V[i];
Based on the tree representation shown in Figure 2.1: Results File Structure, you can get any record from an opened results file just by specifying its location in the tree.
First, the global header of the results file can be accessed using a special call:
C_Record *RstHeader = RstFile.GetGlobalHeader(); // The main global RST File Header (“RST” in the tree)
The results file header contains global information about what can be found in the current file (mesh, results, and so on).
To get the array of values from a
C_Recordobject, use this call:CVEC<int> VecHead; // VecHead is defined as an Vector of Integers. RstFile.GetRecord( *RstHeader, VecHead); // Fills the VecHead vector VecHead.Print(); // Print to screen the values of the vector
You can then access the values of this vector. Please refer to the
C_RstFile::E_RstHeader C++ enumfor a list of usable constants.int nnod = VecHead[C_RstFile::E_NNOD]; // To Get the number of Nodes int nelm = VecHead[C_RstFile::E_NELM]; // To Get the number of Elements
Next, from this global header you can get the
C_Recordobject by giving the complete path to the record of interest. Here we access the nodal solution (NSL) of the first solution set:C_Record *Block = RstHeader->find( "RST::DSI::SET1::NSL");
Then, depending on the type of values the record contains, you can get the values:
CVEC<double> V; RstFile.GetRecord( *Block, V); for( int ii=0; ii<V.Dim(); ii++) // Print the values of the vector cout << ii << ": " << V[ii] << endl;
Some sets of records are repeated in the file. To optimize the reading of
such records, you can use the dedicated functions
C_RstFile::GetFirstRec and
C_RstFile::GetNextRec. They can be used for:
The element descriptions:
RST::GEO::EIDThe element type:
RST::GEO::ETYThe element section data:
RST::GEO::SECThe coordinate system description:
RST::GEO::CSY
See Extract the Elements for examples of how to use these functions.
From the VecHead global header vector, you can get global information for the nodes.
Maximum node number of the model:
C_RstFile::E_MAXNActual number of nodes used in the solution phase:
C_RstFile::E_NNODNumber of DOFs per node:
C_RstFile::E_NUMDOF
Node locations are stored in the record “LOC”, under the geometry section of the tree:
c LOC dp nnod 7 (64 bit version) c Node,X,Y,Z,THXY,THYZ,THZX for each node c Nodes are in node number order
To get the entire vector of node numbers and coordinates, you can use this direct call:
// ===== Node,X,Y,Z,THXY,THYZ,THZX for each node. Nodes are in node number order CVEC<> GeoNod; // Type is not specified, double is the default Block = RstHeader->find( "RST::GEO::LOC"); // Get a handle to the LOC block in the tree RstFile.GetRecord( *Block, GeoNod, ALL_REC); // Fills the GeoNod vector; ALL_REC means ask for all nodes cout << "\n Global Nodes Vector, Dim = : " << GeoNod.Dim(); // ===== The same data, but for a single node : int NumNod(1); CVEC<> GeoNod_i; RstFile.GetRecord( *Block, GeoNod_i, NumNod); cout << "\n Single Nodes Vector, Dim = : " << GeoNod_i.Dim() << endl;
From the Global header vector, you can get global information for the elements.
Maximum element number of the model:
C_RstFile::E_MAXEActual number of elements used in the solution phase:
C_RstFile::E_NELM
Element Description Record
Element descriptions are stored in the record “EID”, in the geometry section of the tree:
c EID i 1 nelm Element descriptions index table. This c record contains the record pointers for each c element description. (LONGINT (2*nelm) for c 64 bit version, relative to ptrEIDL). c The order of the elements is the same as c the order in the element equivalence table. c --- i nelm 10+nodelm Element descriptions. Each of these records c is pointed to by a record pointer given in c the record labeled EID. The length of these c records varies for each element (actual c length is returned from routine BINRD8). c nodelm shown here is the number of nodes for c this element. Its value is defined in the c element type description record.
You can, for instance, get repeatedly all the element descriptions by
calling the functions C_RstFile::GetFirstRec and
C_RstFile::GetNextRec:
CVEC<int> ElemDesc;
int iel = RstFile.GetFirstRec( "RST::GEO::EID", ElemDesc, 0, true);
while (iel != -1)
{
iel = RstFile.GetNextRec( ElemDes);
} Element Type Record
Element type descriptions are stored in the record "ETY":
c ETY i 1 maxety The element types index table. This record c contains record pointers for each element c type description. (Relative to ptrETYPL c for 64 bit version)
In the same way as shown above for element descriptions, you can loop over the element types, calling the same set of functions.
CVEC<int> ElemType;
int iel = RstFile.GetFirstRec( "RST::GEO::ETY", ElemType, 0, true);
while (iel != -1)
{
iel = RstFile.GetNextRec( ElemType);
} To get a given nodal or element solution in a given solution set, you can call
the C_RstFile::GetSolution function.
CVEC<T> *V = RstFile.GetSolution(int iset, string IdSol, CVEC<T> *Sol, int NumEntity);
where:
| iset is the solution set number. |
| IdSol is the solution record ID (for example, "NSL", "RF", "ENS", and so on). |
| Sol is the vector where the values are to be stored. If it is not allocated, the function allocates it and returns. |
| NumEntity is the node or element number. Default = All_REC, meaning all entities in the same vector are requested. |
You can access the vector properties using this:
int Size = SolNod.Dim(); // To get the size of the output vector double val = SolNod[ii]; // To access the values of the vector
This example demonstrates reading the nodal solution corresponding to the first solution set.
int iSet = 1; // ===== Solution set number string IdSol = "NSL"; // ===== Solution Id we want to get CVEC<double> Displacement; // ===== The vector to fill with the solution int NumEntity = ALL_REC; // ===== The Entity (node/elem) number; ALL_REC means all entitites RstFile.GetSolution( iset, IdSol, &Displacement, NumEntity); cout << "Size of the nodal solution vector : " << Displacement.Dim() << endl; Displacement.Print( stdout);
This example demonstrates reading the element nodal stresses corresponding to the first solution set and the first element.
int iSet = 1; // ===== Solution set number string IdSol = "ENS"; // ===== Solution Id we want to get CVEC<double> EnsVector; // ===== The vector to fill with the solution int NumEntity = 1; // ===== The element number RstFile.GetSolution(iset, IdSol, &EnsVector, NumEntity); cout << "Size of the element solution vector : " << EnsVector.Dim() << endl; EnsVector.Print( stdout);
Given an elementary result, we can also loop over all elements where this result is stored using the C_RstFile::GetFirstLocalSolution and C_RstFile::GetNextLocalSolution functions.
int iSet = 1; // ===== Solution set number
string IdSol = "ENS"; // ===== Solution Id we want to get
CVEC<double> EnsVector; // ===== The vector to fill with the solution
int NumEntity = 1; // ===== The first element number
NumEntity = RstFile.
GetFirstLocalSolution( iSet, IdSol, EnsVector, NumEntity);
While ( NumEntity > 0)
{
// EnsVector contains nodal stresses of the element #NumEntity
NumEntity
= RstFile.
GetNextLocalSolution( EnsVector, NextEntity);
}
/**
* @file TestRstReader.cpp
*
* @brief This source file shows the way we can open an RST File,
* and extract data using the C++ C_RstFile Object.
*
*/
#include <stdio.h>
#include "C_RstFile.h"
void
main(int argc, char *argv[])
{
char *FileName = argv[1];
// ================================================================================
// ===== Open the RST File :
cout << "\n Open the RST File : " << FileName << endl;
C_RstFile RstFile(FileName); // ===== OPEN THE RST FILE
C_Record *RstHeader = RstFile.GetGlobalHeader(); // Handle on the Global header
cout << "\n Ansys Rev. : " << RstFile.AnsRev() << endl;
// ===== Get global numbers for this model
int maxn = RstFile.RstHeader(C_RstFile::E_MAXN); // Maximum node number
int nnod = RstFile.RstHeader(C_RstFile::E_NNOD); // Number of nodes
int maxe = RstFile.RstHeader(C_RstFile::E_MAXE); // Maximum element number
int nelm = RstFile.RstHeader(C_RstFile::E_NELM); // Number of elements
cout << "\n Number of Nodes : " << nnod;
cout << "\n Max Node Number : " << maxn << endl;
cout << "\n Number of Elements : " << nelm;
cout << "\n Max Elt Number : " << maxe << endl;
// ================================================================================
// ===== Extract Nodes Data
// Node,X,Y,Z,THXY,THYZ,THZX for each node. Nodes are in node number order
C_Record *Block = NULL;
Block = RstHeader->find("RST::GEO::LOC"); // Get the pointer to the LOC Record
CVEC<> GeoNod;
RstFile.GetRecord(*Block, GeoNod, ALL_REC); // Fills the GeoNod Array
cout << "\n Global Nodes Vector, Size = : " << GeoNod.Dim();
// The same data, but for a single node:
int NumNod(1);
CVEC<> GeoNod_i;
RstFile.GetRecord(*Block, GeoNod_i, NumNod); // We only read the data for the 1st node
cout << "\n Single Nodes Vector, Size = : " << GeoNod_i.Dim() << endl;
// ================================================================================
// ===== Extract Elements Data
// ===== Mapping Elt Index <-> Elt Number
Block = RstHeader->find("RST::ELM"); // Get the pointer to the ELM Record
CVEC<int> Elm;
RstFile.GetRecord(*Block, Elm); // Fills the Elm Array
cout << "\n Element Equivalence Table Size : " << Elm.Dim() << endl;
// ===== Get the Geometry Header
Block = RstHeader->find("RST::GEO"); // Get the pointer to the GEO Record
CVEC<int> GeoHeader;
RstFile.GetRecord(*Block, GeoHeader); // Fills the GeoHeader Array
// This GeoHeader contains information such as the maximum element type reference number in the model:
int maxety = GeoHeader[C_RstFile::E_GMAXETY];
// For each element type, we can get the Type description
cout << "\n Extract All Element Types Descriptions .... " << endl;
CVEC<int> ElemEty;
int ityp = RstFile.GetFirstRec("RST::GEO::ETY", ElemEty, 0, true);
while (ityp != -1)
{
cout << " Got Description for Element Type : " << ElemEty[1] << endl;
ityp = RstFile.GetNextRec(ElemEty);
}
// For each element, we extract the description associated to
cout << "\n Extract All Element Descriptions .... \n";
CVEC<int> ElemDes;
int iel = RstFile.GetFirstRec("RST::GEO::EID", ElemDes, 0, true);
while (iel != -1)
{
int imat = ElemDes[0],
itype = ElemDes[1];
cout << "Element " << iel << ": Material = " << imat << " , Element Type Number = " << itype << endl;
iel = RstFile.GetNextRec(ElemDes);
}
cout << "\n Element " << nelm << " OK" << endl;
// ================================================================================
// ===== We get the number of solution sets
int NbSet = RstFile.RstHeader(C_RstFile::E_NSETS);
cout << "\n Number of Result Sets : " << NbSet << endl;
// Get the Nodal Solution of the 1st solution set
int iset(1); // 1st solution set
string IdSol = "NSL"; // “NSL” means Nodal Solution
CVEC<> SolNod; // This vector will contain the Nodal Solution
RstFile.GetSolution(iset, IdSol, &SolNod);
cout << "Nodal Solution vector : size = " << SolNod.Dim() << endl;
// Get the Nodal Stresses for the 1st Element, for the 1st solution set
IdSol = "ENS";
int NumElem = 1;
int Size(0);
CVEC<> EnsElem;
try {
RstFile.GetSolution(iset, IdSol, &EnsElem, NumElem);
}
catch (C_CadoeException e) {
if (e.getExceptionCode() == E_ResultNotAvailable)
{
cerr << "This result " << IdSol << " is not available\n";
}
}
Size = EnsElem.Dim();
cout << "\n Size of the ENS vector for the 1st Element = " << Size << endl;
// Loop to get all the Element Nodal Stresses, for the 1st Solution Set
NumElem = RstFile.GetFirstLocalSolution( iset, IdSol, EnsElem, 1); // 1 means we start at the 1st Element
if (NumElem == -3) cerr << "No Elementary results stored in this Result File\n";
if (NumElem == -2) cerr << "this result is not stored for this Element " << NumElem << "in this Solution Set\n";
while(NumElem > 0)
{
cout << "For Element #" << NumElem << " Norm of the Nodal Stress Vector is : " << EnsElem.Nrm() << endl;
NumElem = RstFile.GetNextLocalSolution( EnsElem);
}
return;
}
The method of accessing the results file described in this section is presented as an alternative to the Results File Reader.
You can use the low-level routines described in Accessing Mechanical APDL Binary Files to retrieve data from the results file. Or you can use the routines described below that retrieve data specific to the format of the results file.
These files reside in the subdirectory \Program Files\ANSYS Inc\V242\ANSYS\customize\user (on Windows systems) or /ansys_inc/v242/ansys/customize/misc (on Linux systems). See Access Routines for Results Files for information on compiling and linking these routines.
For each data record in the results file, routines exist that:
Read the record index and allocate space for the data. These are named
ResRd, whererecordBeginrecordis a descriptive name of the record, for example,ResRdNodeBeginRead the data itself. These are named
ResRd, for example,recordResRdNodeDeallocate space for the data. These are named
ResRd, for example,recordEndResRdNodeEnd
Below is a complete listing of all the routines with the indentation indicating the required nested calling sequence:
function ResRdBegin (Nunit,Lunit,Fname,ncFname,Title,JobName,Units,NumDOF,DOF,UserCode,MaxNode,NumNode,MaxElem,NumElem,MaxResultSet,NumResultSet)
subroutine ResRdGeomBegin (MaxType,MaxReal,MaxCsys,nXYZ)
subroutine ResRdTypeBegin (NumType,TypeLen)
function ResRdType (itype,ielc,TypeNo)
subroutine ResRdTypeEnd
subroutine ResRdRealBegin (NumReal,NumPerReal,RealLen)
function ResRdReal (iReal,Rcon,RealNo)
subroutine ResRdRealEnd
subroutine ResRdCsysBegin (NumCsys,CsysLen)
function ResRdCsys (iCsys,CsysNo)
subroutine ResRdCsysEnd
subroutine ResRdNodeBegin
function ResRdNode (iNode,xyzang)
subroutine ResRdNodeEnd
subroutine ResRdElemBegin
function ResRdElem (iElem,nodes,ElemData)
subroutine ResRdElemEnd
subroutine ResRdGeomEnd
subroutine ResRdSectMatBegin (MaxSect,MaxMat)
subroutine ResRdSectBegin (NumSect,NumPerSect,SectLen)
function ResRdSect (iSect,SecData,SectNo)
subroutine ResRdSectEnd
subroutine ResRdMatBegin (NumMat,NumPerMat)
function ResRdMat (iMat,iprop,MatData)
subroutine ResRdMatEnd
subroutine ResRdSectMatEnd
function ResRdSolBegin (key,lstep,substep,ncumit,kcmplx,time,Title,DofLab)
subroutine ResRdDispBegin
function ResRdDisp (node,Disp)
subroutine ResRdDispEnd
subroutine ResRdRforBegin (nRForce)
function ResRdRfor (node,idof,value)
subroutine ResRdRforEnd
subroutine ResRdBCBegin (BCHeader)
subroutine ResRdFixBegin (BCHeader,nFixed)
function ResRdFix (node,idof,value)
subroutine ResRdFixEnd
subroutine ResRdForcBegin (BCHeader,nForces)
function ResRdForc (node,idof,value)
subroutine ResRdForcEnd
subroutine ResRdBCEnd
subroutine ResRdEresBegin
function ResRdEstrBegin (iElem)
function ResRdEstr (iStr,Str)
subroutine ResRdEstrEnd
subroutine ResRdEresEnd
subroutine ResRdSolEnd
subroutine ResRdEnd
These routines are contained in the file ResRd.F. See the demonstration routine ResRdDemo.F on the distribution medium for an example of the usage of these routines.
The memory allocation scheme is described in Memory Management Routines in Part II: Guide to User-Programmable Features.
The following sections describe the data-reading routines. See the file ResRd.F and its corresponding include deck ResRd.inc for listings of the corresponding Begin/End routines.
*deck,ResRdBegin
function ResRdBegin (Nunit, Lunit, Fname, ncFname, Title, JobName,
x Units, NumDOF, DOF, UserCode,
x MaxNode, NumNode, MaxElem, NumElem,
x MaxResultSet,NumResultSet)
c primary function: Open result file and return global information
c object/library: ResRd
c input arguments:
c Nunit (int,sc,in) - Fortran Unit number for file (ANSYS uses 12)
c Lunit (int,sc,in) - Current print output unit (usually 6 <STDOUT>)
c Fname (ch*(ncFname),sc,in) - The name (with extension) for the file
c ncFname (int,sc,in) - Number of characters in Fname
c output arguments:
c Title (ch*80,ar(2),out) - Title and First subtitle
c JobName (ch*32,sc,out) - Jobname from file
c Units (int,sc,out) - unit system
c = 0 - user defined units
c = 1 - SI
c = 2 - CSG
c = 3 - U.S. Customary, using feet
c = 4 - U.S. Customary, using inches
c = 5 - MKS
c = 6 - MPA
c = 7 - uMKS
c NumDOF (int,sc,out) - Number of DOF per node
c DOF (int,ar(*),out) - The DOFs per node
c UserCode (int,sc,out) - Code for this application
c MaxNode (int,sc,out) - Maximum node number used
c NumNode (int,sc,out) - Number of nodes attached to elements
c MaxElem (int,sc,out) - Maximum element number used
c NumElem (int,sc,out) - Number of elements used
c MaxResultSet (int,sc,out) - Maximum number of result sets (usually 1000)
c NumResultSet (int,sc,out) - Number of result sets on file
c ResRdBegin (int,sc,out) - 0, successful other, error in file open
*deck,ResRdGeomBegin
subroutine ResRdGeomBegin (MaxType, MaxReal, MaxCsys, nXYZ)
c primary function: Read Geometry Header Record
c object/library: ResRd
c input arguments: none
c output arguments:
c MaxType (int,sc,out) - Maximum element type
c MaxReal (int,sc,out) - Maximum real constant set number
c MaxCsys (int,sc,out) - Maximum coordinate system number
c nXYZ (int,sc,out) - number of nodes with coordinates
*deck,ResRdType
function ResRdType (itype,ielc,TypeNo)
c primary function: Read an element type record
c object/library: ResRd
c input arguments:
c itype (int,sc,in) - Element type number
c output arguments: none
c ielc (int,ar(IELCSZ),out)- Element characteristics
c TypeNo (int,sc,out) - External Element Type number
c ResRdType (int,sc,out - number of words read
*deck,ResRdReal
function ResRdReal (iReal,Rcon,RealNo)
c primary function: Read real constant record
c object/library: ResRd
c input arguments:
c iReal (int,sc,in) - Real set number
c output arguments: none
c Rcon (dp,ar(ResRdReal),out) - Real Constants
c RealNo (int,sc,out) - External Real Constant number
c ResRdReal (int,sc,out) - Number of real constants in set
*deck,ResRdCsys
function ResRdCsys (iCsys,Csys,CsysNo)
c primary function: Read a coordinate system record
c object/library: ResRd
c input arguments:
c iCsys (int,sc,in) - Coordinate system number
c output arguments:
c Csys (dp,ar(ResRdCsys),out)- Coordinate system description
c CsysNo (int,sc,out) - External Coordinate system number
c ResRdCsys (int,sc,out) - Number of values
*deck,ResRdNode
function ResRdNode (iNode,xyzang)
c primary function: Get a node
c object/library: ResRd
c input arguments:
c iNode (int,sc,in) - node sequence number
c (1 to nXYZnode)
c output arguments:
c xyzang (dp,ar(6),out) - x,y,z,thxy,thyz,thzx for node
c ResRdNode (int,sc,out) - Node number
*deck,ResRdElem
function ResRdElem (iElem, nodes, ElemData)
c primary function: Read an element
c object/library: ResRd
c input arguments:
c iElem (int,sc,in) - The element number
c output arguments:
c ResRdElem(int,sc,out) - Number of nodes
c nodes (int,ar(n),out) - Element nodes
c ElemData (int,ar(10),out) - Element information
c mat - material reference number
c type - element type number
c real - real constant reference number
c secnum - section number
c esys - element coordinate system
c death - death flag
c = 0 - alive
c = 1 - dead
c solidm - solid model reference
c shape - coded shape key
c elnum - element number
c pexcl - P-Method exclude key
*deck,ResRdSectMatBegin
subroutine ResRdSectMatBegin (MaxSect, MaxMat)
c primary function: Read maximum section and material number
c from the Geometry Header Record
c object/library: ResRd
c input arguments: none
c output arguments:
c MaxSect (int,sc,out) - Maximum section number
c MaxMat (int,sc,out) - Maximum material number
*deck,ResRdSect
function ResRdSect (iSect,SecData,SectNo)
c primary function: Read section record
c object/library: ResRd
c input arguments:
c iSect (int,sc,in) - Section set number
c output arguments:
c SecData (dp,ar(ResRdSect),out) - Section data
c SectNo (int,sc,out) - Exteral Section number
c ResRdSect (int,sc,out) - Number of section data in set
*deck,ResRdMat
function ResRdMat (iMat,iprop,MatData)
c primary function: Read material record
c object/library: ResRd
c input arguments:
c iMat (int,sc,in) - Material set number
c iprop (int,sc,in) - Property reference number
c See mpinqr for details
c output arguments:
c MatData (dp,ar(ResRdMat),out) - Material data for type iprop
c ResRdMat (int,sc,out) - Number of material data in set
See Function mpinqr (Getting Information About a Material Property) for details on the property reference number (iprop).
*deck,ResRdSolBegin
function ResRdSolBegin (key,lstep,substep,ncumit,kcmplx,time,
x Title,DofLab)
c primary function: Read the solution header records
c object/library: ResRd
c input arguments:
c key (int,sc,in) - 0, find by set number
c 1, find by lstep/substep
c 2, find by ncumit
c 3, find by time
c lstep (int,sc,in/out) - Load step number
c if key=0, this is the set number
c substep (int,sc,in/out) - Substep of this load step
c ncumit (int,sc,in/out) - Cumulative iteration number
c kcmplx (int,sc,in) - 0, Real solution 1, Imaginary solution
c time (dp,sc,in/out) - Current solution time
c output arguments:
c Title (ch*80,ar(5),out) - Title and 4 subtitles
c DofLab (ch*4,ar(nDOF),out)- Labels for DOFs
c ResRdSolBegin (int,sc,out) - 0, requested solution set found
c 1, not found
*deck,ResRdDisp
function ResRdDisp (node,Disp)
c primary function: Retrieve a nodal displacement
c object/library: ResRd
c input arguments:
c node (int,sc,in) - Node number
c output arguments:
c Disp (dp,ar(nDOF),out) - Displacements
c ResRdDisp(int,sc,out) - Number of displacements
*deck,ResRdRfor
function ResRdRfor (node,idof,value)
c primary function: Retrieve a reaction force
c object/library: ResRd
c input arguments:
c node (int,sc,in) - External node number
c idof (int,sc,in) - Internal dof number
c output arguments:
c value (dp,sc,in) - Value of reaction force
c ResRdRfor (int,sc,out) - Number of returned values (0 or 1)
*deck,ResRdFix
function ResRdFix (node,idof,value)
c primary function: Retrieve a constraint value
c object/library: ResRd
c input arguments:
c node (int,sc,in) - External node number
c idof (int,sc,in) - Internal dof number
c output arguments:
c value (dp,ar(4),in) - Real,Imag, RealOld,ImagOld
c ResRdFix (int,sc,out) - Number of returned values (0 or 4)
*deck,ResRdForc
function ResRdForc (node,idof,value)
c primary function: Retrieve an applied force value
c object/library: ResRd
c input arguments:
c node (int,sc,in) - External node number
c idof (int,sc,in) - Internal dof number
c output arguments:
c value (dp,ar(4),in) - Real,Imag, RealOld,ImagOld
c ResRdForc (int,sc,out) - Number of returned values (0 or 4)
*deck,ResRdEstr
function ResRdEstr (iStr,Str)
c primary function: Get an element's results
c object/library: ResRd
c input arguments:
c iStr (int,sc,in) - element record number (1-NUMELEDATASETS)
c output arguments:
c ResRdEstr (int,sc,out) - Number of element values
c Str (dp,ar(nStr),out) - element values