// writes MAT-file matrix header to file
void writeMatVer4MatrixHeader(simulation_result *self,DATA *data,const char *name, int rows, int cols, unsigned int size)
{
mat_data *matData = (mat_data*) self->storage;
typedef struct MHeader {
uint32_t type;
uint32_t mrows;
uint32_t ncols;
uint32_t imagf;
uint32_t namelen;
} MHeader_t;
const int endian_test = 1;
MHeader_t hdr;
int type = 0;
if(size == 1 /* char */)
type = 51;
if(size == 4 /* int32 */)
type = 20;
/* create matrix header structure */
hdr.type = 1000*((*(char*)&endian_test) == 0) + type;
hdr.mrows = rows;
hdr.ncols = cols;
hdr.imagf = 0;
hdr.namelen = strlen(name)+1;
/* write header to file */
matData->fp.write((char*)&hdr, sizeof(MHeader_t));
if(!matData->fp)
throwStreamPrint(data->threadData, "Cannot write to file %s",self->filename);
matData->fp.write(name, sizeof(char)*hdr.namelen);
if(!matData->fp)
throwStreamPrint(data->threadData, "Cannot write to file %s",self->filename);
}
void modelInfoXmlInit(MODEL_DATA_XML* xml)
{
FILE* file = NULL;
XML_Parser parser = NULL;
userData_t userData = {xml, 1, 0, 0};
if (!xml->infoXMLData)
{
file = fopen(xml->fileName, "r");
if(!file)
{
const char *str = strerror(errno);
throwStreamPrint(NULL, "Failed to open file %s: %s\n", xml->fileName, str);
}
}
parser = XML_ParserCreate(NULL);
if(!parser)
{
throwStreamPrint(NULL, "Failed to create expat object");
}
xml->functionNames = (FUNCTION_INFO*) calloc(xml->nFunctions, sizeof(FUNCTION_INFO));
xml->equationInfo = (EQUATION_INFO*) calloc(1+xml->nEquations, sizeof(EQUATION_INFO));
xml->equationInfo[0].id = 0;
xml->equationInfo[0].profileBlockIndex = measure_time_flag & 2 ? 0 : -1;
xml->equationInfo[0].numVar = 0;
xml->equationInfo[0].vars = NULL;
XML_SetUserData(parser, (void*) &userData);
XML_SetElementHandler(parser, startElement, endElement);
if(!xml->infoXMLData)
{
char buf[BUFSIZ] = {0};
mmc_sint_t done;
do {
size_t len = fread(buf, 1, sizeof(buf), file);
done = len < sizeof(buf);
if(XML_Parse(parser, buf, len, done) == XML_STATUS_ERROR) {
const char *err = XML_ErrorString(XML_GetErrorCode(parser));
mmc_uint_t line = XML_GetCurrentLineNumber(parser);
fclose(file);
XML_ParserFree(parser);
throwStreamPrint(NULL, "%s: Error: failed to read the XML file %s: %s at line %lu", __FILE__, xml->fileName, err, line);
}
} while(!done);
fclose(file);
} else {
if(XML_Parse(parser, xml->infoXMLData, strlen(xml->infoXMLData), 1) == XML_STATUS_ERROR) {
const char *err = XML_ErrorString(XML_GetErrorCode(parser));
mmc_uint_t line = XML_GetCurrentLineNumber(parser);
XML_ParserFree(parser);
throwStreamPrint(NULL, "%s: Error: failed to read the XML data %s: %s at line %lu", __FILE__, xml->infoXMLData, err, line);
}
}
assert(xml->nEquations == userData.curIndex);
xml->nProfileBlocks = measure_time_flag & 1 ? userData.curProfileIndex : measure_time_flag & 2 ? xml->nEquations : 0; /* Set the number of profile blocks to the number we read */
assert(xml->nFunctions == userData.curFunctionIndex);
XML_ParserFree(parser);
}
static void fmtInit(DATA* data, MEASURE_TIME* mt)
{
mt->fmtReal = NULL;
mt->fmtInt = NULL;
if(measure_time_flag)
{
const char* fullFileName;
if (omc_flag[FLAG_OUTPUT_PATH]) { /* read the output path from the command line (if any) */
if (0 > GC_asprintf(&fullFileName, "%s/%s", omc_flagValue[FLAG_OUTPUT_PATH], data->modelData->modelFilePrefix)) {
throwStreamPrint(NULL, "perform_simulation.c: Error: can not allocate memory.");
}
} else {
fullFileName = data->modelData->modelFilePrefix;
}
size_t len = strlen(fullFileName);
char* filename = (char*) malloc((len+15) * sizeof(char));
strncpy(filename,fullFileName,len);
strncpy(&filename[len],"_prof.realdata",15);
mt->fmtReal = fopen(filename, "wb");
if(!mt->fmtReal)
{
warningStreamPrint(LOG_STDOUT, 0, "Time measurements output file %s could not be opened: %s", filename, strerror(errno));
}
strncpy(&filename[len],"_prof.intdata",14);
mt->fmtInt = fopen(filename, "wb");
if(!mt->fmtInt)
{
warningStreamPrint(LOG_STDOUT, 0, "Time measurements output file %s could not be opened: %s", filename, strerror(errno));
fclose(mt->fmtReal);
mt->fmtReal = NULL;
}
free(filename);
}
}
void plt_init(simulation_result *self,DATA *data, threadData_t *threadData)
{
plt_data *pltData = (plt_data*) malloc(sizeof(plt_data));
rt_tick(SIM_TIMER_OUTPUT);
/*
* Re-Initialization is important because the variables are global and used in every solving step
*/
pltData->simulationResultData = 0;
pltData->currentPos = 0;
pltData->actualPoints = 0; /* the number of actual points saved */
pltData->dataSize = 0;
pltData->maxPoints = self->numpoints;
assertStreamPrint(threadData, self->numpoints >= 0, "Automatic output steps not supported in OpenModelica yet. Set numpoints >= 0.");
pltData->num_vars = calcDataSize(self,data->modelData);
pltData->dataSize = calcDataSize(self,data->modelData);
pltData->simulationResultData = (double*)malloc(self->numpoints * pltData->dataSize * sizeof(double));
if(!pltData->simulationResultData) {
throwStreamPrint(threadData, "Error allocating simulation result data of size %ld failed",self->numpoints * pltData->dataSize);
}
pltData->currentPos = 0;
self->storage = pltData;
rt_accumulate(SIM_TIMER_OUTPUT);
}
/*! \fn freeMixedSystems
*
* Thi function frees memory of mixed systems.
*
* \param [ref] [data]
*/
int freeMixedSystems(DATA *data, threadData_t *threadData)
{
int i;
MIXED_SYSTEM_DATA* system = data->simulationInfo->mixedSystemData;
infoStreamPrint(LOG_NLS, 1, "free mixed system solvers");
for(i=0;i<data->modelData->nMixedSystems;++i)
{
free(system[i].iterationVarsPtr);
free(system[i].iterationPreVarsPtr);
/* allocate solver data */
switch(data->simulationInfo->mixedMethod)
{
case MIXED_SEARCH:
freeMixedSearchData(&system[i].solverData);
break;
default:
throwStreamPrint(threadData, "unrecognized mixed solver");
}
free(system[i].solverData);
}
messageClose(LOG_NLS);
return 0;
}
/*! \fn freeNonlinearSystems
*
* This function frees memory of nonlinear systems.
*
* \param [ref] [data]
*/
int freeNonlinearSystems(DATA *data, threadData_t *threadData)
{
TRACE_PUSH
int i;
NONLINEAR_SYSTEM_DATA* nonlinsys = data->simulationInfo.nonlinearSystemData;
struct csvStats* stats;
infoStreamPrint(LOG_NLS, 1, "free non-linear system solvers");
for(i=0; i<data->modelData.nNonLinearSystems; ++i)
{
free(nonlinsys[i].nlsx);
free(nonlinsys[i].nlsxExtrapolation);
free(nonlinsys[i].nlsxOld);
free(nonlinsys[i].nominal);
free(nonlinsys[i].min);
free(nonlinsys[i].max);
#if !defined(OMC_MINIMAL_RUNTIME)
if (data->simulationInfo.nlsCsvInfomation)
{
stats = nonlinsys[i].csvData;
omc_write_csv_free(stats->callStats);
omc_write_csv_free(stats->iterStats);
}
#endif
/* free solver data */
switch(data->simulationInfo.nlsMethod)
{
#if !defined(OMC_MINIMAL_RUNTIME)
case NLS_HYBRID:
freeHybrdData(&nonlinsys[i].solverData);
break;
case NLS_KINSOL:
nls_kinsol_free(&nonlinsys[i]);
break;
case NLS_NEWTON:
freeNewtonData(&nonlinsys[i].solverData);
break;
#endif
case NLS_HOMOTOPY:
freeHomotopyData(&nonlinsys[i].solverData);
break;
#if !defined(OMC_MINIMAL_RUNTIME)
case NLS_MIXED:
freeHomotopyData(&((struct dataNewtonAndHybrid*) nonlinsys[i].solverData)->newtonData);
freeHybrdData(&((struct dataNewtonAndHybrid*) nonlinsys[i].solverData)->hybridData);
break;
#endif
default:
throwStreamPrint(threadData, "unrecognized nonlinear solver");
}
free(nonlinsys[i].solverData);
}
messageClose(LOG_NLS);
TRACE_POP
return 0;
}
/*! \fn int initializeMixedSystems(DATA *data)
*
* This function allocates memory for all mixed systems.
*
* \param [ref] [data]
*/
int initializeMixedSystems(DATA *data, threadData_t *threadData)
{
int i;
int size;
MIXED_SYSTEM_DATA *system = data->simulationInfo->mixedSystemData;
infoStreamPrint(LOG_NLS, 1, "initialize mixed system solvers");
infoStreamPrint(LOG_NLS, 0, "%ld mixed systems", data->modelData->nMixedSystems);
for(i=0; i<data->modelData->nMixedSystems; ++i)
{
size = system[i].size;
system[i].iterationVarsPtr = (modelica_boolean**) malloc(size*sizeof(modelica_boolean*));
system[i].iterationPreVarsPtr = (modelica_boolean**) malloc(size*sizeof(modelica_boolean*));
/* allocate solver data */
switch(data->simulationInfo->mixedMethod)
{
case MIXED_SEARCH:
allocateMixedSearchData(size, &system[i].solverData);
break;
default:
throwStreamPrint(threadData, "unrecognized mixed solver");
}
}
messageClose(LOG_NLS);
return 0;
}
void writeMatVer4Matrix(simulation_result *self,DATA *data,const char *name, int rows, int cols, const void *matrixData, unsigned int size)
{
mat_data *matData = (mat_data*) self->storage;
writeMatVer4MatrixHeader(self,data,name,rows,cols,size);
/* write data */
matData->fp.write((const char*)matrixData, (size)*rows*cols);
if(!matData->fp) {
throwStreamPrint(data->threadData, "Cannot write to file %s",self->filename);
}
}
EQUATION_INFO modelInfoXmlGetEquationIndexByProfileBlock(MODEL_DATA_XML* xml, size_t ix)
{
mmc_sint_t i;
if(xml->equationInfo == NULL)
{
modelInfoXmlInit(xml);
}
if(ix > xml->nProfileBlocks)
{
throwStreamPrint(NULL, "Requested equation with profiler index %ld, but we only have %ld such blocks", (long int)ix, xml->nProfileBlocks);
}
for(i=0; i<xml->nEquations; i++)
{
if(xml->equationInfo[i].profileBlockIndex == ix)
{
return xml->equationInfo[i];
}
}
throwStreamPrint(NULL, "Requested equation with profiler index %ld, but could not find it!", (long int)ix);
}
/*! \fn updateDiscreteSystem
*
* Function to update the whole system with event iteration.
* Evaluates functionDAE()
*
* \param [ref] [data]
*/
void updateDiscreteSystem(DATA *data, threadData_t *threadData)
{
TRACE_PUSH
int IterationNum = 0;
int discreteChanged = 0;
modelica_boolean relationChanged = 0;
data->simulationInfo.needToIterate = 0;
data->simulationInfo.callStatistics.updateDiscreteSystem++;
data->callback->function_updateRelations(data, threadData, 1);
updateRelationsPre(data);
storeRelations(data);
data->callback->functionDAE(data, threadData);
debugStreamPrint(LOG_EVENTS_V, 0, "updated discrete System");
relationChanged = checkRelations(data);
discreteChanged = data->callback->checkForDiscreteChanges(data, threadData);
while(discreteChanged || data->simulationInfo.needToIterate || relationChanged)
{
if(data->simulationInfo.needToIterate) {
debugStreamPrint(LOG_EVENTS_V, 0, "reinit() call. Iteration needed!");
}
if(relationChanged) {
debugStreamPrint(LOG_EVENTS_V, 0, "relations changed. Iteration needed.");
}
if(discreteChanged) {
debugStreamPrint(LOG_EVENTS_V, 0, "discrete Variable changed. Iteration needed.");
}
storePreValues(data);
updateRelationsPre(data);
printRelations(data, LOG_EVENTS_V);
printZeroCrossings(data, LOG_EVENTS_V);
data->callback->functionDAE(data, threadData);
IterationNum++;
if(IterationNum > IterationMax) {
throwStreamPrint(threadData, "ERROR: Too many event iterations. System is inconsistent. Simulation terminate.");
}
relationChanged = checkRelations(data);
discreteChanged = data->callback->checkForDiscreteChanges(data, threadData);
}
storeRelations(data);
TRACE_POP
}
void plt_emit(simulation_result *self,DATA *data, threadData_t *threadData)
{
plt_data *pltData = (plt_data*) self->storage;
rt_tick(SIM_TIMER_OUTPUT);
if(pltData->actualPoints < pltData->maxPoints) {
add_result(self,data,pltData->simulationResultData,&pltData->actualPoints); /*used for non-interactive simulation */
} else {
pltData->maxPoints = (long)(1.4*pltData->maxPoints + (pltData->maxPoints-pltData->actualPoints) + 2000);
/* cerr << "realloc simulationResultData to a size of " << maxPoints * dataSize * sizeof(double) << endl; */
pltData->simulationResultData = (double*)realloc(pltData->simulationResultData, pltData->maxPoints * pltData->dataSize * sizeof(double));
if(!pltData->simulationResultData) {
throwStreamPrint(threadData, "Error allocating simulation result data of size %ld",pltData->maxPoints * pltData->dataSize);
}
add_result(self,data,pltData->simulationResultData,&pltData->actualPoints);
}
rt_accumulate(SIM_TIMER_OUTPUT);
}
/*! \fn solve mixed systems
*
* \param [in] [data]
* [sysNumber] index of corresponding mixed System
*
* \author wbraun
*/
int solve_mixed_system(DATA *data, threadData_t *threadData, int sysNumber)
{
int success;
MIXED_SYSTEM_DATA* system = data->simulationInfo->mixedSystemData;
/* for now just use lapack solver as before */
switch(data->simulationInfo->mixedMethod)
{
case MIXED_SEARCH:
success = solveMixedSearch(data, sysNumber);
break;
default:
throwStreamPrint(threadData, "unrecognized mixed solver");
}
system[sysNumber].solved = success;
return 0;
}
/*! \fn initializeStateSetJacobians
*
* initialize jacobians for state selection
*
* \param [ref] [data] ???
*
* \author ???
*/
void initializeStateSetJacobians(DATA *data, threadData_t *threadData)
{
TRACE_PUSH
long i = 0;
STATE_SET_DATA *set = NULL;
/* go troug all state sets*/
for(i=0; i<data->modelData->nStateSets; i++)
{
set = &(data->simulationInfo->stateSetData[i]);
if(set->initialAnalyticalJacobian(data, threadData))
{
throwStreamPrint(threadData, "can not initialze Jacobians for dynamic state selection");
}
}
initializeStateSetPivoting(data);
TRACE_POP
}
void mat4_emit(simulation_result *self,DATA *data)
{
mat_data *matData = (mat_data*) self->storage;
double datPoint=0;
rt_tick(SIM_TIMER_OUTPUT);
rt_accumulate(SIM_TIMER_TOTAL);
double cpuTimeValue = rt_accumulated(SIM_TIMER_TOTAL);
rt_tick(SIM_TIMER_TOTAL);
/* this is done wrong -- a buffering should be used
although ofstream does have some buffering, but it is not enough and
not for this purpose */
matData->fp.write((char*)&(data->localData[0]->timeValue), sizeof(double));
if(self->cpuTime)
matData->fp.write((char*)&cpuTimeValue, sizeof(double));
for(int i = 0; i < data->modelData.nVariablesReal; i++) if(!data->modelData.realVarsData[i].filterOutput)
matData->fp.write((char*)&(data->localData[0]->realVars[i]),sizeof(double));
for(int i = 0; i < data->modelData.nVariablesInteger; i++) if(!data->modelData.integerVarsData[i].filterOutput)
{
datPoint = (double) data->localData[0]->integerVars[i];
matData->fp.write((char*)&datPoint,sizeof(double));
}
for(int i = 0; i < data->modelData.nVariablesBoolean; i++) if(!data->modelData.booleanVarsData[i].filterOutput)
{
datPoint = (double) data->localData[0]->booleanVars[i];
matData->fp.write((char*)&datPoint,sizeof(double));
}
for(int i = 0; i < data->modelData.nAliasBoolean; i++) if(!data->modelData.booleanAlias[i].filterOutput)
{
if(data->modelData.booleanAlias[i].negate)
{
datPoint = (double) (data->localData[0]->booleanVars[data->modelData.booleanAlias[i].nameID]==1?0:1);
matData->fp.write((char*)&datPoint,sizeof(double));
}
}
if (!matData->fp) {
throwStreamPrint(data->threadData, "Error while writing file %s",self->filename);
}
++matData->ntimepoints;
rt_accumulate(SIM_TIMER_OUTPUT);
}
/*! \fn wrapper function of the residual Function
* non-linear solver calls this subroutine fcn(n, x, fvec, iflag, data)
*
*
*/
static int wrapper_fvec_hybrj(const integer* n, const double* x, double* f, double* fjac, const integer* ldjac, const integer* iflag, void* dataAndSysNum)
{
int i,j;
struct dataAndSys *dataSys = (struct dataAndSys*) dataAndSysNum;
DATA *data = (dataSys->data);
void *dataAndThreadData[2] = {data, dataSys->threadData};
NONLINEAR_SYSTEM_DATA* systemData = &(data->simulationInfo->nonlinearSystemData[dataSys->sysNumber]);
DATA_HYBRD* solverData = (DATA_HYBRD*)(systemData->solverData);
int continuous = data->simulationInfo->solveContinuous;
switch(*iflag)
{
case 1:
/* re-scaling x vector */
if(solverData->useXScaling)
for(i=0; i<*n; i++)
solverData->xScaled[i] = x[i]*solverData->xScalefactors[i];
/* debug output */
if(ACTIVE_STREAM(LOG_NLS_RES)) {
infoStreamPrint(LOG_NLS_RES, 0, "-- residual function call %d -- scaling = %d", (int)solverData->nfev, solverData->useXScaling);
printVector(x, n, LOG_NLS_RES, "x vector (scaled)");
printVector(solverData->xScaled, n, LOG_NLS_RES, "x vector");
}
/* call residual function */
if(solverData->useXScaling){
(systemData->residualFunc)(dataAndThreadData, (const double*) solverData->xScaled, f, (const int*)iflag);
} else {
(systemData->residualFunc)(dataAndThreadData, x, f, (const int*)iflag);
}
/* debug output */
if(ACTIVE_STREAM(LOG_NLS_RES)) {
printVector(f, n, LOG_NLS_RES, "residuals");
infoStreamPrint(LOG_NLS_RES, 0, "-- end of residual function call %d --", (int)solverData->nfev);
}
solverData->numberOfFunctionEvaluations++;
break;
case 2:
/* set residual function continuous for jacobian calculation */
if(continuous)
data->simulationInfo->solveContinuous = 0;
if(ACTIVE_STREAM(LOG_NLS_RES))
infoStreamPrint(LOG_NLS_RES, 0, "-- begin calculating jacobian --");
/* call apropreated jacobian function */
if(systemData->jacobianIndex != -1){
integer iflagtmp = 1;
wrapper_fvec_hybrj(n, x, f, fjac, ldjac, &iflagtmp, dataSys);
getAnalyticalJacobian(dataSys, fjac);
}
else{
getNumericalJacobian(dataSys, fjac, x, f);
}
/* debug output */
if (ACTIVE_STREAM(LOG_NLS_RES)) {
infoStreamPrint(LOG_NLS_RES, 0, "-- end calculating jacobian --");
if(ACTIVE_STREAM(LOG_NLS_JAC))
{
char buffer[16384];
infoStreamPrint(LOG_NLS_JAC, 1, "jacobian matrix [%dx%d]", (int)*n, (int)*n);
for(i=0; i<*n; i++)
{
buffer[0] = 0;
for(j=0; j<*n; j++)
sprintf(buffer, "%s%20.12g ", buffer, fjac[i*solverData->n+j]);
infoStreamPrint(LOG_NLS_JAC, 0, "%s", buffer);
}
messageClose(LOG_NLS_JAC);
}
}
/* reset residual function again */
if(continuous)
data->simulationInfo->solveContinuous = 1;
break;
default:
throwStreamPrint(NULL, "Well, this is embarrasing. The non-linear solver should never call this case.%d", (int)*iflag);
break;
}
return 0;
}
int dassl_initial(DATA* data, threadData_t *threadData, SOLVER_INFO* solverInfo, DASSL_DATA *dasslData)
{
TRACE_PUSH
/* work arrays for DASSL */
unsigned int i;
SIMULATION_DATA tmpSimData = {0};
RHSFinalFlag = 0;
dasslData->liw = 40 + data->modelData.nStates;
dasslData->lrw = 60 + ((maxOrder + 4) * data->modelData.nStates) + (data->modelData.nStates * data->modelData.nStates) + (3*data->modelData.nZeroCrossings);
dasslData->rwork = (double*) calloc(dasslData->lrw, sizeof(double));
assertStreamPrint(threadData, 0 != dasslData->rwork,"out of memory");
dasslData->iwork = (int*) calloc(dasslData->liw, sizeof(int));
assertStreamPrint(threadData, 0 != dasslData->iwork,"out of memory");
dasslData->ng = (int) data->modelData.nZeroCrossings;
dasslData->jroot = (int*) calloc(data->modelData.nZeroCrossings, sizeof(int));
dasslData->rpar = (double**) malloc(3*sizeof(double*));
dasslData->ipar = (int*) malloc(sizeof(int));
dasslData->ipar[0] = ACTIVE_STREAM(LOG_JAC);
assertStreamPrint(threadData, 0 != dasslData->ipar,"out of memory");
dasslData->atol = (double*) malloc(data->modelData.nStates*sizeof(double));
dasslData->rtol = (double*) malloc(data->modelData.nStates*sizeof(double));
dasslData->info = (int*) calloc(infoLength, sizeof(int));
assertStreamPrint(threadData, 0 != dasslData->info,"out of memory");
dasslData->dasslStatistics = (unsigned int*) calloc(numStatistics, sizeof(unsigned int));
assertStreamPrint(threadData, 0 != dasslData->dasslStatistics,"out of memory");
dasslData->dasslStatisticsTmp = (unsigned int*) calloc(numStatistics, sizeof(unsigned int));
assertStreamPrint(threadData, 0 != dasslData->dasslStatisticsTmp,"out of memory");
dasslData->idid = 0;
dasslData->sqrteps = sqrt(DBL_EPSILON);
dasslData->ysave = (double*) malloc(data->modelData.nStates*sizeof(double));
dasslData->delta_hh = (double*) malloc(data->modelData.nStates*sizeof(double));
dasslData->newdelta = (double*) malloc(data->modelData.nStates*sizeof(double));
dasslData->stateDer = (double*) malloc(data->modelData.nStates*sizeof(double));
dasslData->currentContext = CONTEXT_UNKNOWN;
/* setup internal ring buffer for dassl */
/* RingBuffer */
dasslData->simulationData = 0;
dasslData->simulationData = allocRingBuffer(SIZERINGBUFFER, sizeof(SIMULATION_DATA));
if(!data->simulationData)
{
throwStreamPrint(threadData, "Your memory is not strong enough for our Ringbuffer!");
}
/* prepare RingBuffer */
for(i=0; i<SIZERINGBUFFER; i++)
{
/* set time value */
tmpSimData.timeValue = 0;
/* buffer for all variable values */
tmpSimData.realVars = (modelica_real*)calloc(data->modelData.nVariablesReal, sizeof(modelica_real));
assertStreamPrint(threadData, 0 != tmpSimData.realVars, "out of memory");
tmpSimData.integerVars = (modelica_integer*)calloc(data->modelData.nVariablesInteger, sizeof(modelica_integer));
assertStreamPrint(threadData, 0 != tmpSimData.integerVars, "out of memory");
tmpSimData.booleanVars = (modelica_boolean*)calloc(data->modelData.nVariablesBoolean, sizeof(modelica_boolean));
assertStreamPrint(threadData, 0 != tmpSimData.booleanVars, "out of memory");
tmpSimData.stringVars = (modelica_string*) GC_malloc_uncollectable(data->modelData.nVariablesString * sizeof(modelica_string));
assertStreamPrint(threadData, 0 != tmpSimData.stringVars, "out of memory");
appendRingData(dasslData->simulationData, &tmpSimData);
}
dasslData->localData = (SIMULATION_DATA**) GC_malloc_uncollectable(SIZERINGBUFFER * sizeof(SIMULATION_DATA));
memset(dasslData->localData, 0, SIZERINGBUFFER * sizeof(SIMULATION_DATA));
rotateRingBuffer(dasslData->simulationData, 0, (void**) dasslData->localData);
/* end setup internal ring buffer for dassl */
/* ### start configuration of dassl ### */
infoStreamPrint(LOG_SOLVER, 1, "Configuration of the dassl code:");
/* set nominal values of the states for absolute tolerances */
dasslData->info[1] = 1;
infoStreamPrint(LOG_SOLVER, 1, "The relative tolerance is %g. Following absolute tolerances are used for the states: ", data->simulationInfo.tolerance);
for(i=0; i<data->modelData.nStates; ++i)
{
dasslData->rtol[i] = data->simulationInfo.tolerance;
dasslData->atol[i] = data->simulationInfo.tolerance * fmax(fabs(data->modelData.realVarsData[i].attribute.nominal), 1e-32);
infoStreamPrint(LOG_SOLVER, 0, "%d. %s -> %g", i+1, data->modelData.realVarsData[i].info.name, dasslData->atol[i]);
}
messageClose(LOG_SOLVER);
/* let dassl return at every internal step */
dasslData->info[2] = 1;
/* define maximum step size, which is dassl is allowed to go */
if (omc_flag[FLAG_MAX_STEP_SIZE])
{
double maxStepSize = atof(omc_flagValue[FLAG_MAX_STEP_SIZE]);
assertStreamPrint(threadData, maxStepSize >= DASSL_STEP_EPS, "Selected maximum step size %e is too small.", maxStepSize);
dasslData->rwork[1] = maxStepSize;
dasslData->info[6] = 1;
infoStreamPrint(LOG_SOLVER, 0, "maximum step size %g", dasslData->rwork[1]);
}
else
{
infoStreamPrint(LOG_SOLVER, 0, "maximum step size not set");
}
/* define initial step size, which is dassl is used every time it restarts */
if (omc_flag[FLAG_INITIAL_STEP_SIZE])
{
double initialStepSize = atof(omc_flagValue[FLAG_INITIAL_STEP_SIZE]);
assertStreamPrint(threadData, initialStepSize >= DASSL_STEP_EPS, "Selected initial step size %e is too small.", initialStepSize);
dasslData->rwork[2] = initialStepSize;
dasslData->info[7] = 1;
infoStreamPrint(LOG_SOLVER, 0, "initial step size %g", dasslData->rwork[2]);
}
else
{
infoStreamPrint(LOG_SOLVER, 0, "initial step size not set");
}
/* define maximum integration order of dassl */
if (omc_flag[FLAG_MAX_ORDER])
{
int maxOrder = atoi(omc_flagValue[FLAG_MAX_ORDER]);
assertStreamPrint(threadData, maxOrder >= 1 && maxOrder <= 5, "Selected maximum order %d is out of range (1-5).", maxOrder);
dasslData->iwork[2] = maxOrder;
dasslData->info[8] = 1;
}
infoStreamPrint(LOG_SOLVER, 0, "maximum integration order %d", dasslData->info[8]?dasslData->iwork[2]:maxOrder);
/* if FLAG_NOEQUIDISTANT_GRID is set, choose dassl step method */
if (omc_flag[FLAG_NOEQUIDISTANT_GRID])
{
dasslData->dasslSteps = 1; /* TRUE */
solverInfo->solverNoEquidistantGrid = 1;
}
else
{
dasslData->dasslSteps = 0; /* FALSE */
}
infoStreamPrint(LOG_SOLVER, 0, "use equidistant time grid %s", dasslData->dasslSteps?"NO":"YES");
/* check if Flags FLAG_NOEQUIDISTANT_OUT_FREQ or FLAG_NOEQUIDISTANT_OUT_TIME are set */
if (dasslData->dasslSteps){
if (omc_flag[FLAG_NOEQUIDISTANT_OUT_FREQ])
{
dasslData->dasslStepsFreq = atoi(omc_flagValue[FLAG_NOEQUIDISTANT_OUT_FREQ]);
}
else if (omc_flag[FLAG_NOEQUIDISTANT_OUT_TIME])
{
dasslData->dasslStepsTime = atof(omc_flagValue[FLAG_NOEQUIDISTANT_OUT_TIME]);
dasslData->rwork[1] = dasslData->dasslStepsTime;
dasslData->info[6] = 1;
infoStreamPrint(LOG_SOLVER, 0, "maximum step size %g", dasslData->rwork[1]);
} else {
dasslData->dasslStepsFreq = 1;
dasslData->dasslStepsTime = 0.0;
}
if (omc_flag[FLAG_NOEQUIDISTANT_OUT_FREQ] && omc_flag[FLAG_NOEQUIDISTANT_OUT_TIME]){
warningStreamPrint(LOG_STDOUT, 0, "The flags are \"noEquidistantOutputFrequency\" "
"and \"noEquidistantOutputTime\" are in opposition "
"to each other. The flag \"noEquidistantOutputFrequency\" superiors.");
}
infoStreamPrint(LOG_SOLVER, 0, "as the output frequency control is used: %d", dasslData->dasslStepsFreq);
infoStreamPrint(LOG_SOLVER, 0, "as the output frequency time step control is used: %f", dasslData->dasslStepsTime);
}
/* if FLAG_DASSL_JACOBIAN is set, choose dassl jacobian calculation method */
if (omc_flag[FLAG_DASSL_JACOBIAN])
{
for(i=1; i< DASSL_JAC_MAX;i++)
{
if(!strcmp((const char*)omc_flagValue[FLAG_DASSL_JACOBIAN], dasslJacobianMethodStr[i])){
dasslData->dasslJacobian = (int)i;
break;
}
}
if(dasslData->dasslJacobian == DASSL_JAC_UNKNOWN)
{
if (ACTIVE_WARNING_STREAM(LOG_SOLVER))
{
warningStreamPrint(LOG_SOLVER, 1, "unrecognized jacobian calculation method %s, current options are:", (const char*)omc_flagValue[FLAG_DASSL_JACOBIAN]);
for(i=1; i < DASSL_JAC_MAX; ++i)
{
warningStreamPrint(LOG_SOLVER, 0, "%-15s [%s]", dasslJacobianMethodStr[i], dasslJacobianMethodDescStr[i]);
}
messageClose(LOG_SOLVER);
}
throwStreamPrint(threadData,"unrecognized jacobian calculation method %s", (const char*)omc_flagValue[FLAG_DASSL_JACOBIAN]);
}
/* default case colored numerical jacobian */
}
else
{
dasslData->dasslJacobian = DASSL_COLOREDNUMJAC;
}
/* selects the calculation method of the jacobian */
if(dasslData->dasslJacobian == DASSL_COLOREDNUMJAC ||
dasslData->dasslJacobian == DASSL_COLOREDSYMJAC ||
dasslData->dasslJacobian == DASSL_NUMJAC ||
dasslData->dasslJacobian == DASSL_SYMJAC)
{
if (data->callback->initialAnalyticJacobianA(data, threadData))
{
infoStreamPrint(LOG_STDOUT, 0, "Jacobian or SparsePattern is not generated or failed to initialize! Switch back to normal.");
dasslData->dasslJacobian = DASSL_INTERNALNUMJAC;
}
else
{
dasslData->info[4] = 1; /* use sub-routine JAC */
}
}
/* set up the appropriate function pointer */
switch (dasslData->dasslJacobian){
case DASSL_COLOREDNUMJAC:
dasslData->jacobianFunction = JacobianOwnNumColored;
break;
case DASSL_COLOREDSYMJAC:
dasslData->jacobianFunction = JacobianSymbolicColored;
break;
case DASSL_SYMJAC:
dasslData->jacobianFunction = JacobianSymbolic;
break;
case DASSL_NUMJAC:
dasslData->jacobianFunction = JacobianOwnNum;
break;
case DASSL_INTERNALNUMJAC:
dasslData->jacobianFunction = dummy_Jacobian;
break;
default:
throwStreamPrint(threadData,"unrecognized jacobian calculation method %s", (const char*)omc_flagValue[FLAG_DASSL_JACOBIAN]);
break;
}
infoStreamPrint(LOG_SOLVER, 0, "jacobian is calculated by %s", dasslJacobianMethodDescStr[dasslData->dasslJacobian]);
/* if FLAG_DASSL_NO_ROOTFINDING is set, choose dassl with out internal root finding */
if(omc_flag[FLAG_DASSL_NO_ROOTFINDING])
{
dasslData->dasslRootFinding = 0;
dasslData->zeroCrossingFunction = dummy_zeroCrossing;
dasslData->ng = 0;
}
else
{
solverInfo->solverRootFinding = 1;
dasslData->dasslRootFinding = 1;
dasslData->zeroCrossingFunction = function_ZeroCrossingsDASSL;
}
infoStreamPrint(LOG_SOLVER, 0, "dassl uses internal root finding method %s", dasslData->dasslRootFinding?"YES":"NO");
/* if FLAG_DASSL_NO_RESTART is set, choose dassl step method */
if (omc_flag[FLAG_DASSL_NO_RESTART])
{
dasslData->dasslAvoidEventRestart = 1; /* TRUE */
}
else
{
dasslData->dasslAvoidEventRestart = 0; /* FALSE */
}
infoStreamPrint(LOG_SOLVER, 0, "dassl performs an restart after an event occurs %s", dasslData->dasslAvoidEventRestart?"NO":"YES");
/* ### end configuration of dassl ### */
messageClose(LOG_SOLVER);
TRACE_POP
return 0;
}
/*
* output the result before destroying the datastructure.
*/
void plt_free(simulation_result *self,DATA *data, threadData_t *threadData)
{
plt_data *pltData = (plt_data*) self->storage;
const MODEL_DATA *modelData = data->modelData;
int varn = 0, i, var;
FILE* f = NULL;
rt_tick(SIM_TIMER_OUTPUT);
f = fopen(self->filename, "w");
if(!f)
{
deallocResult(pltData);
throwStreamPrint(threadData, "Error, couldn't create output file: [%s] because of %s", self->filename, strerror(errno));
}
/* Rather ugly numbers than unneccessary rounding.
f.precision(std::numeric_limits<double>::digits10 + 1); */
fprintf(f, "#Ptolemy Plot file, generated by OpenModelica\n");
fprintf(f, "#NumberofVariables=%d\n", pltData->num_vars);
fprintf(f, "#IntervalSize=%ld\n", pltData->actualPoints);
fprintf(f, "TitleText: OpenModelica simulation plot\n");
fprintf(f, "XLabel: t\n\n");
/* time variable. */
fprintf(f, "DataSet: time\n");
for(i = 0; i < pltData->actualPoints; ++i)
printPltLine(f, pltData->simulationResultData[i*pltData->num_vars], pltData->simulationResultData[i*pltData->num_vars]);
fprintf(f, "\n");
varn++;
/* $cpuTime variable. */
if(self->cpuTime)
{
fprintf(f, "DataSet: $cpuTime\n");
for(i = 0; i < pltData->actualPoints; ++i)
printPltLine(f, pltData->simulationResultData[i*pltData->num_vars], pltData->simulationResultData[i*pltData->num_vars + 1]);
fprintf(f, "\n");
varn++;
}
for(var = 0; var < modelData->nVariablesReal; ++var)
{
if(!modelData->realVarsData[var].filterOutput) {
fprintf(f, "DataSet: %s\n", modelData->realVarsData[var].info.name);
for(i = 0; i < pltData->actualPoints; ++i)
printPltLine(f, pltData->simulationResultData[i*pltData->num_vars], pltData->simulationResultData[i*pltData->num_vars + varn]);
fprintf(f, "\n");
varn++;
}
}
for(var = 0; var < modelData->nVariablesInteger; ++var)
{
if(!modelData->integerVarsData[var].filterOutput) {
fprintf(f, "DataSet: %s\n", modelData->integerVarsData[var].info.name);
for(i = 0; i < pltData->actualPoints; ++i)
printPltLine(f, pltData->simulationResultData[i*pltData->num_vars], pltData->simulationResultData[i*pltData->num_vars + varn]);
fprintf(f, "\n");
varn++;
}
}
for(var = 0; var < modelData->nVariablesBoolean; ++var)
{
if(!modelData->booleanVarsData[var].filterOutput) {
fprintf(f, "DataSet: %s\n", modelData->booleanVarsData[var].info.name);
for(i = 0; i < pltData->actualPoints; ++i)
printPltLine(f, pltData->simulationResultData[i*pltData->num_vars], pltData->simulationResultData[i*pltData->num_vars + varn]);
fprintf(f, "\n");
varn++;
}
}
for(var = 0; var < modelData->nAliasReal; ++var)
{
if(!modelData->realAlias[var].filterOutput) {
fprintf(f, "DataSet: %s\n", modelData->realAlias[var].info.name);
for(i = 0; i < pltData->actualPoints; ++i)
printPltLine(f, pltData->simulationResultData[i*pltData->num_vars], pltData->simulationResultData[i*pltData->num_vars + varn]);
fprintf(f, "\n");
varn++;
}
}
for(var = 0; var < modelData->nAliasInteger; ++var)
{
if(!modelData->integerAlias[var].filterOutput) {
fprintf(f, "DataSet: %s\n", modelData->integerAlias[var].info.name);
for(i = 0; i < pltData->actualPoints; ++i)
printPltLine(f, pltData->simulationResultData[i*pltData->num_vars], pltData->simulationResultData[i*pltData->num_vars + varn]);
fprintf(f, "\n");
varn++;
}
}
for(var = 0; var < modelData->nAliasBoolean; ++var)
{
if(!modelData->booleanAlias[var].filterOutput) {
fprintf(f, "DataSet: %s\n", modelData->booleanAlias[var].info.name);
for(i = 0; i < pltData->actualPoints; ++i)
printPltLine(f, pltData->simulationResultData[i*pltData->num_vars], pltData->simulationResultData[i*pltData->num_vars + varn]);
fprintf(f, "\n");
varn++;
}
}
deallocResult(pltData);
if(fclose(f))
{
throwStreamPrint(threadData, "Error, couldn't write to output file %s\n", self->filename);
}
free(self->storage);
self->storage = NULL;
rt_accumulate(SIM_TIMER_OUTPUT);
}
void mat4_init(simulation_result *self,DATA *data)
{
mat_data *matData = new mat_data();
self->storage = matData;
const MODEL_DATA *mData = &(data->modelData);
const char Aclass[] = "A1 bt. ir1 na Tj re ac nt so r y ";
const struct VAR_INFO** names = NULL;
const int nParams = mData->nParametersReal + mData->nParametersInteger + mData->nParametersBoolean;
char *stringMatrix = NULL;
int rows, cols;
int32_t *intMatrix = NULL;
double *doubleMatrix = NULL;
assert(sizeof(char) == 1);
rt_tick(SIM_TIMER_OUTPUT);
matData->numVars = calcDataSize(self,data);
names = calcDataNames(self,data,matData->numVars+nParams);
matData->data1HdrPos = -1;
matData->data2HdrPos = -1;
matData->ntimepoints = 0;
matData->startTime = data->simulationInfo.startTime;
matData->stopTime = data->simulationInfo.stopTime;
try {
/* open file */
matData->fp.open(self->filename, std::ofstream::binary|std::ofstream::trunc);
if(!matData->fp) {
throwStreamPrint(data->threadData, "Cannot open File %s for writing",self->filename);
}
/* write `AClass' matrix */
writeMatVer4Matrix(self,data,"Aclass", 4, 11, Aclass, sizeof(int8_t));
/* flatten variables' names */
flattenStrBuf(matData->numVars+nParams, names, stringMatrix, rows, cols, false /* We cannot plot derivatives if we fix the names ... */, false);
/* write `name' matrix */
writeMatVer4Matrix(self,data,"name", rows, cols, stringMatrix, sizeof(int8_t));
free(stringMatrix);
stringMatrix = NULL;
/* flatten variables' comments */
flattenStrBuf(matData->numVars+nParams, names, stringMatrix, rows, cols, false, true);
/* write `description' matrix */
writeMatVer4Matrix(self,data,"description", rows, cols, stringMatrix, sizeof(int8_t));
free(stringMatrix);
stringMatrix = NULL;
/* generate dataInfo table */
generateDataInfo(self, data, intMatrix, rows, cols, matData->numVars, nParams);
/* write `dataInfo' matrix */
writeMatVer4Matrix(self, data, "dataInfo", cols, rows, intMatrix, sizeof(int32_t));
/* remember data1HdrPos */
matData->data1HdrPos = matData->fp.tellp();
/* adrpo: i cannot use writeParameterData here as it would return back to dataHdr1Pos */
/* generate `data_1' matrix (with parameter data) */
generateData_1(data, doubleMatrix, rows, cols, matData->startTime, matData->stopTime);
/* write `data_1' matrix */
writeMatVer4Matrix(self,data,"data_1", cols, rows, doubleMatrix, sizeof(double));
/* remember data2HdrPos */
matData->data2HdrPos = matData->fp.tellp();
/* write `data_2' header */
writeMatVer4MatrixHeader(self,data,"data_2", matData->r_indx_map.size() + matData->i_indx_map.size() + matData->b_indx_map.size() + matData->negatedboolaliases + 1 /* add one more for timeValue*/ + self->cpuTime, 0, sizeof(double));
free(doubleMatrix);
free(intMatrix);
doubleMatrix = NULL;
intMatrix = NULL;
matData->fp.flush();
}
catch(...)
{
matData->fp.close();
free(names);
names=NULL;
free(stringMatrix);
free(doubleMatrix);
free(intMatrix);
rt_accumulate(SIM_TIMER_OUTPUT);
throwStreamPrint(data->threadData, "Error while writing mat file %s",self->filename);
}
free(names);
names=NULL;
rt_accumulate(SIM_TIMER_OUTPUT);
}
int dassl_initial(DATA* data, threadData_t *threadData, SOLVER_INFO* solverInfo, DASSL_DATA *dasslData)
{
TRACE_PUSH
/* work arrays for DASSL */
unsigned int i;
SIMULATION_DATA tmpSimData = {0};
RHSFinalFlag = 0;
dasslData->liw = 40 + data->modelData->nStates;
dasslData->lrw = 60 + ((maxOrder + 4) * data->modelData->nStates) + (data->modelData->nStates * data->modelData->nStates) + (3*data->modelData->nZeroCrossings);
dasslData->rwork = (double*) calloc(dasslData->lrw, sizeof(double));
assertStreamPrint(threadData, 0 != dasslData->rwork,"out of memory");
dasslData->iwork = (int*) calloc(dasslData->liw, sizeof(int));
assertStreamPrint(threadData, 0 != dasslData->iwork,"out of memory");
dasslData->ng = (int) data->modelData->nZeroCrossings;
dasslData->jroot = (int*) calloc(data->modelData->nZeroCrossings, sizeof(int));
dasslData->rpar = (double**) malloc(3*sizeof(double*));
dasslData->ipar = (int*) malloc(sizeof(int));
dasslData->ipar[0] = ACTIVE_STREAM(LOG_JAC);
assertStreamPrint(threadData, 0 != dasslData->ipar,"out of memory");
dasslData->atol = (double*) malloc(data->modelData->nStates*sizeof(double));
dasslData->rtol = (double*) malloc(data->modelData->nStates*sizeof(double));
dasslData->info = (int*) calloc(infoLength, sizeof(int));
assertStreamPrint(threadData, 0 != dasslData->info,"out of memory");
dasslData->dasslStatistics = (unsigned int*) calloc(numStatistics, sizeof(unsigned int));
assertStreamPrint(threadData, 0 != dasslData->dasslStatistics,"out of memory");
dasslData->dasslStatisticsTmp = (unsigned int*) calloc(numStatistics, sizeof(unsigned int));
assertStreamPrint(threadData, 0 != dasslData->dasslStatisticsTmp,"out of memory");
dasslData->idid = 0;
dasslData->sqrteps = sqrt(DBL_EPSILON);
dasslData->ysave = (double*) malloc(data->modelData->nStates*sizeof(double));
dasslData->delta_hh = (double*) malloc(data->modelData->nStates*sizeof(double));
dasslData->newdelta = (double*) malloc(data->modelData->nStates*sizeof(double));
dasslData->stateDer = (double*) malloc(data->modelData->nStates*sizeof(double));
data->simulationInfo->currentContext = CONTEXT_ALGEBRAIC;
/* ### start configuration of dassl ### */
infoStreamPrint(LOG_SOLVER, 1, "Configuration of the dassl code:");
printf("---------------###---------------\n\n");
printf("Some stats:\n\n");
printf("(A) Firstly, we consider some info of the object DATA *data:\n");
printf("(1) SIMULATION_INFO (*simulationInfo):\n");
printf("\tstartTime: %f\n", data->simulationInfo->startTime);
printf("\tstopTime: %f\n", data->simulationInfo->stopTime);
printf("\tnumSteps: %d\n", data->simulationInfo->numSteps);
printf("\ttolerance: %f\n", data->simulationInfo->tolerance);
printf("\ttolerance: %f\n", (*(*data).simulationInfo).tolerance);
printf("\t*solverMethod: %c\n", *(data->simulationInfo->solverMethod));
printf("\t*outputFormat: %c\n", *(data->simulationInfo->outputFormat));
printf("\t*variableFilter: %c\n", *(data->simulationInfo->variableFilter));
printf("\tlsMethod: %d\n", data->simulationInfo->lsMethod);
printf("\tmixedMethod: %d\n", data->simulationInfo->mixedMethod);
printf("\tnlsMethod: %d\n", data->simulationInfo->nlsMethod);
printf("\tnewtonStrategy: %d\n", data->simulationInfo->newtonStrategy);
printf("\tnlsCsvInfomation: %d\n", data->simulationInfo->nlsCsvInfomation);
printf("\tcurrentContext: %d\n", data->simulationInfo->currentContext);
printf("\tcurrentContextOld: %d\n", data->simulationInfo->currentContextOld);
printf("\tjacobianEvals: %d\n", data->simulationInfo->jacobianEvals);
printf("\tlambda: %d\n", data->simulationInfo->lambda);
printf("\tnextSampleEvent: %f\n", data->simulationInfo->nextSampleEvent);
printf("\tnextSampleTimes[0]: %f\n", data->simulationInfo->nextSampleTimes[0]);
printf("\tnextSampleTimes[1]: %f\n", data->simulationInfo->nextSampleTimes[1]);
printf("\tnextSampleTimes[2]: %f\n", data->simulationInfo->nextSampleTimes[2]);
printf("\n\tThere are even more although I believe they will not be useful for now.\n\n");
printf("(2) SIMULATION_DATA (**localData):\n");
printf("\ttimeValue: %f\n", data->localData[0]->timeValue);
printf("The following are the initial values.\n");
printf("\trealVars[0]: %f\n", data->localData[0]->realVars[0]);
printf("\trealVars[1]: %f\n", data->localData[0]->realVars[1]);
printf("\tintegerVars: %d\n", data->localData[0]->integerVars[1]);
printf("\t*booleanVars: %s\n", *(data->localData[0]->booleanVars));
printf("\t*stringVars: %s\n", *(data->localData[0]->stringVars));
//printf("\t*inlineVars: %f\n", *(data->localData[0]->inlineVars)); //Errors when attempting to print this one. Not sure why though.
printf("\n\tI am not sure this garbage struct is necessary. One \'timeValue\' is used. I am sure we can use a local variable or a similar route.\n\n");
printf("(3) MODEL_DATA (*modelData):\n");
printf("\trealVarsData[0].attribute.nominal: %f\n", data->modelData->realVarsData[0].attribute.nominal);
printf("\trealVarsData[1].attribute.nominal: %f\n", data->modelData->realVarsData[1].attribute.nominal);
printf("\trealVarsData[0].attribute.useStart: %s\n", data->modelData->realVarsData[0].attribute.useStart ? "true" : "false");
printf("\trealVarsData[1].attribute.useStart: %s\n", data->modelData->realVarsData[1].attribute.useStart ? "true" : "false");
printf("\tnStates: %d\n", data->modelData->nStates);
printf("\tnVariablesReal: %d\n", data->modelData->nVariablesReal);
printf("\tnDiscreteReal: %d\n", data->modelData->nDiscreteReal);
printf("\tnVariablesInteger: %d\n", data->modelData->nVariablesInteger);
printf("\tnVariablesBoolean: %d\n", data->modelData->nVariablesBoolean);
printf("\tnVariablesString: %d\n", data->modelData->nVariablesString);
printf("\tnParametersReal: %d\n", data->modelData->nParametersReal);
printf("\tnVariablesReal: %d\n", data->modelData->nVariablesReal);
printf("\tnParametersInteger: %d\n", data->modelData->nParametersInteger);
printf("\tnParametersBoolean: %d\n", data->modelData->nParametersBoolean);
printf("\tnParametersString: %d\n", data->modelData->nParametersString);
printf("\tnInputVars: %d\n", data->modelData->nInputVars);
printf("\tnOutputVars: %d\n", data->modelData->nOutputVars);
printf("\tnZeroCrossings: %d\n", data->modelData->nZeroCrossings);
printf("\tnMathEvents: %d\n", data->modelData->nMathEvents);
printf("\tnDelayExpressions: %d\n", data->modelData->nDelayExpressions);
printf("\tnExtObjs: %d\n", data->modelData->nExtObjs);
printf("\tnMixedSystems: %d\n", data->modelData->nMixedSystems);
printf("\tnLinearSystems: %d\n", data->modelData->nLinearSystems);
printf("\tnNonLinearSystems: %d\n", data->modelData->nNonLinearSystems);
printf("\tnStateSets: %d\n", data->modelData->nStateSets);
printf("\tnInlineVars: %d\n", data->modelData->nInlineVars);
printf("\tnOptimizeConstraints: %d\n", data->modelData->nOptimizeConstraints);
printf("\tnOptimizeFinalConstraints: %d\n\n", data->modelData->nOptimizeFinalConstraints);
printf("(4) RINGBUFFER* (simulationData) -- The first comment in the .c file is that this does not work. This struct is never used in the qss solver.\n\n");
//printf("\titemSize: %d\n", data->simulationData->itemSize);
printf("(5) OpenModelicaGeneratedFunctionCallbacks (*callback). Just a number of functions updating the results. Not even sure where all these functions are defined. We may want to investigate where these functions are defined if we want to have a full understanding of the how OpenModelica enables it's solvers.\n\n");
printf("(B) threadData_t threadData. Next we have to consider the object threadData_t. However, I cannot find the definition of this object. Must investigate and get all attributes.\n\n");
printf("(C) SOLVER_INFO solverInfo:\n");
printf("\tcurrentTime: %f\n", solverInfo->currentTime);
printf("\tcurrentStepSize: %f\n", solverInfo->currentStepSize);
printf("\tlaststep: %f\n", solverInfo->laststep);
printf("\tsolverMethod: %d\n", solverInfo->solverMethod);
printf("\tsolverStepSize: %f\n", solverInfo->solverStepSize);
printf("\tsolverRootFinding: %s\n", solverInfo->solverRootFinding ? "true" : "false");
printf("\tsolverNoEquidistantGrid: %s\n", solverInfo->solverNoEquidistantGrid ? "true" : "false");
printf("\tlastdesiredStep: %f\n", solverInfo->lastdesiredStep);
printf("\tstateEvents: %d\n", solverInfo->stateEvents);
printf("\tdidEventStep: %d\n", solverInfo->didEventStep);
// printf("\teventLst.itemSize %d\n", solverInfo->eventLst->itemSize);
// printf("\teventLst.length %d\n", solverInfo->eventLst.length);
printf("\tsampleEvents: %d\n", solverInfo->sampleEvents);
printf("\tintegratorSteps: %d\n", solverInfo->integratorSteps);
printf("---------------###---------------\n\n");
/* set nominal values of the states for absolute tolerances */
dasslData->info[1] = 1;
infoStreamPrint(LOG_SOLVER, 1, "The relative tolerance is %g. Following absolute tolerances are used for the states: ", data->simulationInfo->tolerance);
for(i=0; i<data->modelData->nStates; ++i)
{
dasslData->rtol[i] = data->simulationInfo->tolerance;
dasslData->atol[i] = data->simulationInfo->tolerance * fmax(fabs(data->modelData->realVarsData[i].attribute.nominal), 1e-32);
infoStreamPrint(LOG_SOLVER, 0, "%d. %s -> %g", i+1, data->modelData->realVarsData[i].info.name, dasslData->atol[i]);
}
messageClose(LOG_SOLVER);
/* let dassl return at every internal step */
dasslData->info[2] = 1;
/* define maximum step size, which is dassl is allowed to go */
if (omc_flag[FLAG_MAX_STEP_SIZE])
{
double maxStepSize = atof(omc_flagValue[FLAG_MAX_STEP_SIZE]);
assertStreamPrint(threadData, maxStepSize >= DASSL_STEP_EPS, "Selected maximum step size %e is too small.", maxStepSize);
dasslData->rwork[1] = maxStepSize;
dasslData->info[6] = 1;
infoStreamPrint(LOG_SOLVER, 0, "maximum step size %g", dasslData->rwork[1]);
}
else
{
infoStreamPrint(LOG_SOLVER, 0, "maximum step size not set");
}
/* define initial step size, which is dassl is used every time it restarts */
if (omc_flag[FLAG_INITIAL_STEP_SIZE])
{
double initialStepSize = atof(omc_flagValue[FLAG_INITIAL_STEP_SIZE]);
assertStreamPrint(threadData, initialStepSize >= DASSL_STEP_EPS, "Selected initial step size %e is too small.", initialStepSize);
dasslData->rwork[2] = initialStepSize;
dasslData->info[7] = 1;
infoStreamPrint(LOG_SOLVER, 0, "initial step size %g", dasslData->rwork[2]);
}
else
{
infoStreamPrint(LOG_SOLVER, 0, "initial step size not set");
}
/* define maximum integration order of dassl */
if (omc_flag[FLAG_MAX_ORDER])
{
int maxOrder = atoi(omc_flagValue[FLAG_MAX_ORDER]);
assertStreamPrint(threadData, maxOrder >= 1 && maxOrder <= 5, "Selected maximum order %d is out of range (1-5).", maxOrder);
dasslData->iwork[2] = maxOrder;
dasslData->info[8] = 1;
}
infoStreamPrint(LOG_SOLVER, 0, "maximum integration order %d", dasslData->info[8]?dasslData->iwork[2]:maxOrder);
/* if FLAG_NOEQUIDISTANT_GRID is set, choose dassl step method */
if (omc_flag[FLAG_NOEQUIDISTANT_GRID])
{
dasslData->dasslSteps = 1; /* TRUE */
solverInfo->solverNoEquidistantGrid = 1;
}
else
{
dasslData->dasslSteps = 0; /* FALSE */
}
infoStreamPrint(LOG_SOLVER, 0, "use equidistant time grid %s", dasslData->dasslSteps?"NO":"YES");
/* check if Flags FLAG_NOEQUIDISTANT_OUT_FREQ or FLAG_NOEQUIDISTANT_OUT_TIME are set */
if (dasslData->dasslSteps){
if (omc_flag[FLAG_NOEQUIDISTANT_OUT_FREQ])
{
dasslData->dasslStepsFreq = atoi(omc_flagValue[FLAG_NOEQUIDISTANT_OUT_FREQ]);
}
else if (omc_flag[FLAG_NOEQUIDISTANT_OUT_TIME])
{
dasslData->dasslStepsTime = atof(omc_flagValue[FLAG_NOEQUIDISTANT_OUT_TIME]);
dasslData->rwork[1] = dasslData->dasslStepsTime;
dasslData->info[6] = 1;
infoStreamPrint(LOG_SOLVER, 0, "maximum step size %g", dasslData->rwork[1]);
} else {
dasslData->dasslStepsFreq = 1;
dasslData->dasslStepsTime = 0.0;
}
if (omc_flag[FLAG_NOEQUIDISTANT_OUT_FREQ] && omc_flag[FLAG_NOEQUIDISTANT_OUT_TIME]){
warningStreamPrint(LOG_STDOUT, 0, "The flags are \"noEquidistantOutputFrequency\" "
"and \"noEquidistantOutputTime\" are in opposition "
"to each other. The flag \"noEquidistantOutputFrequency\" superiors.");
}
infoStreamPrint(LOG_SOLVER, 0, "as the output frequency control is used: %d", dasslData->dasslStepsFreq);
infoStreamPrint(LOG_SOLVER, 0, "as the output frequency time step control is used: %f", dasslData->dasslStepsTime);
}
/* if FLAG_DASSL_JACOBIAN is set, choose dassl jacobian calculation method */
if (omc_flag[FLAG_DASSL_JACOBIAN])
{
for(i=1; i< DASSL_JAC_MAX;i++)
{
if(!strcmp((const char*)omc_flagValue[FLAG_DASSL_JACOBIAN], dasslJacobianMethodStr[i])){
dasslData->dasslJacobian = (int)i;
break;
}
}
if(dasslData->dasslJacobian == DASSL_JAC_UNKNOWN)
{
if (ACTIVE_WARNING_STREAM(LOG_SOLVER))
{
warningStreamPrint(LOG_SOLVER, 1, "unrecognized jacobian calculation method %s, current options are:", (const char*)omc_flagValue[FLAG_DASSL_JACOBIAN]);
for(i=1; i < DASSL_JAC_MAX; ++i)
{
warningStreamPrint(LOG_SOLVER, 0, "%-15s [%s]", dasslJacobianMethodStr[i], dasslJacobianMethodDescStr[i]);
}
messageClose(LOG_SOLVER);
}
throwStreamPrint(threadData,"unrecognized jacobian calculation method %s", (const char*)omc_flagValue[FLAG_DASSL_JACOBIAN]);
}
/* default case colored numerical jacobian */
}
else
{
dasslData->dasslJacobian = DASSL_COLOREDNUMJAC;
}
/* selects the calculation method of the jacobian */
if(dasslData->dasslJacobian == DASSL_COLOREDNUMJAC ||
dasslData->dasslJacobian == DASSL_COLOREDSYMJAC ||
dasslData->dasslJacobian == DASSL_SYMJAC)
{
if (data->callback->initialAnalyticJacobianA(data, threadData))
{
infoStreamPrint(LOG_STDOUT, 0, "Jacobian or SparsePattern is not generated or failed to initialize! Switch back to normal.");
dasslData->dasslJacobian = DASSL_INTERNALNUMJAC;
}
}
/* default use a user sub-routine for JAC */
dasslData->info[4] = 1;
/* set up the appropriate function pointer */
switch (dasslData->dasslJacobian){
case DASSL_COLOREDNUMJAC:
data->simulationInfo->jacobianEvals = data->simulationInfo->analyticJacobians[data->callback->INDEX_JAC_A].sparsePattern.maxColors;
dasslData->jacobianFunction = JacobianOwnNumColored;
break;
case DASSL_COLOREDSYMJAC:
data->simulationInfo->jacobianEvals = data->simulationInfo->analyticJacobians[data->callback->INDEX_JAC_A].sparsePattern.maxColors;
dasslData->jacobianFunction = JacobianSymbolicColored;
break;
case DASSL_SYMJAC:
dasslData->jacobianFunction = JacobianSymbolic;
break;
case DASSL_NUMJAC:
dasslData->jacobianFunction = JacobianOwnNum;
break;
case DASSL_INTERNALNUMJAC:
dasslData->jacobianFunction = dummy_Jacobian;
/* no user sub-routine for JAC */
dasslData->info[4] = 0;
break;
default:
throwStreamPrint(threadData,"unrecognized jacobian calculation method %s", (const char*)omc_flagValue[FLAG_DASSL_JACOBIAN]);
break;
}
infoStreamPrint(LOG_SOLVER, 0, "jacobian is calculated by %s", dasslJacobianMethodDescStr[dasslData->dasslJacobian]);
/* if FLAG_DASSL_NO_ROOTFINDING is set, choose dassl with out internal root finding */
if(omc_flag[FLAG_DASSL_NO_ROOTFINDING])
{
dasslData->dasslRootFinding = 0;
dasslData->zeroCrossingFunction = dummy_zeroCrossing;
dasslData->ng = 0;
}
else
{
solverInfo->solverRootFinding = 1;
dasslData->dasslRootFinding = 1;
dasslData->zeroCrossingFunction = function_ZeroCrossingsDASSL;
}
infoStreamPrint(LOG_SOLVER, 0, "dassl uses internal root finding method %s", dasslData->dasslRootFinding?"YES":"NO");
/* if FLAG_DASSL_NO_RESTART is set, choose dassl step method */
if (omc_flag[FLAG_DASSL_NO_RESTART])
{
dasslData->dasslAvoidEventRestart = 1; /* TRUE */
}
else
{
dasslData->dasslAvoidEventRestart = 0; /* FALSE */
}
infoStreamPrint(LOG_SOLVER, 0, "dassl performs an restart after an event occurs %s", dasslData->dasslAvoidEventRestart?"NO":"YES");
/* ### end configuration of dassl ### */
messageClose(LOG_SOLVER);
TRACE_POP
return 0;
}
int dassl_initial(DATA* data, threadData_t *threadData, SOLVER_INFO* solverInfo, DASSL_DATA *dasslData)
{
TRACE_PUSH
/* work arrays for DASSL */
unsigned int i;
long N;
SIMULATION_DATA tmpSimData = {0};
dasslData->residualFunction = functionODE_residual;
N = data->modelData->nStates;
dasslData->N = N;
RHSFinalFlag = 0;
dasslData->liw = 40 + N;
dasslData->lrw = 60 + ((maxOrder + 4) * N) + (N * N) + (3*data->modelData->nZeroCrossings);
dasslData->rwork = (double*) calloc(dasslData->lrw, sizeof(double));
assertStreamPrint(threadData, 0 != dasslData->rwork,"out of memory");
dasslData->iwork = (int*) calloc(dasslData->liw, sizeof(int));
assertStreamPrint(threadData, 0 != dasslData->iwork,"out of memory");
dasslData->ng = (int) data->modelData->nZeroCrossings;
dasslData->jroot = (int*) calloc(data->modelData->nZeroCrossings, sizeof(int));
dasslData->rpar = (double**) malloc(3*sizeof(double*));
dasslData->ipar = (int*) malloc(sizeof(int));
dasslData->ipar[0] = ACTIVE_STREAM(LOG_JAC);
assertStreamPrint(threadData, 0 != dasslData->ipar,"out of memory");
dasslData->atol = (double*) malloc(N*sizeof(double));
dasslData->rtol = (double*) malloc(N*sizeof(double));
dasslData->info = (int*) calloc(infoLength, sizeof(int));
assertStreamPrint(threadData, 0 != dasslData->info,"out of memory");
dasslData->idid = 0;
dasslData->ysave = (double*) malloc(N*sizeof(double));
dasslData->ypsave = (double*) malloc(N*sizeof(double));
dasslData->delta_hh = (double*) malloc(N*sizeof(double));
dasslData->newdelta = (double*) malloc(N*sizeof(double));
dasslData->stateDer = (double*) calloc(N, sizeof(double));
dasslData->states = (double*) malloc(N*sizeof(double));
data->simulationInfo->currentContext = CONTEXT_ALGEBRAIC;
/* ### start configuration of dassl ### */
infoStreamPrint(LOG_SOLVER, 1, "Configuration of the dassl code:");
/* set nominal values of the states for absolute tolerances */
dasslData->info[1] = 1;
infoStreamPrint(LOG_SOLVER, 1, "The relative tolerance is %g. Following absolute tolerances are used for the states: ", data->simulationInfo->tolerance);
for(i=0; i<dasslData->N; ++i)
{
dasslData->rtol[i] = data->simulationInfo->tolerance;
dasslData->atol[i] = data->simulationInfo->tolerance * fmax(fabs(data->modelData->realVarsData[i].attribute.nominal), 1e-32);
infoStreamPrint(LOG_SOLVER_V, 0, "%d. %s -> %g", i+1, data->modelData->realVarsData[i].info.name, dasslData->atol[i]);
}
messageClose(LOG_SOLVER);
/* let dassl return at every internal step */
dasslData->info[2] = 1;
/* define maximum step size, which is dassl is allowed to go */
if (omc_flag[FLAG_MAX_STEP_SIZE])
{
double maxStepSize = atof(omc_flagValue[FLAG_MAX_STEP_SIZE]);
assertStreamPrint(threadData, maxStepSize >= DASSL_STEP_EPS, "Selected maximum step size %e is too small.", maxStepSize);
dasslData->rwork[1] = maxStepSize;
dasslData->info[6] = 1;
infoStreamPrint(LOG_SOLVER, 0, "maximum step size %g", dasslData->rwork[1]);
}
else
{
infoStreamPrint(LOG_SOLVER, 0, "maximum step size not set");
}
/* define initial step size, which is dassl is used every time it restarts */
if (omc_flag[FLAG_INITIAL_STEP_SIZE])
{
double initialStepSize = atof(omc_flagValue[FLAG_INITIAL_STEP_SIZE]);
assertStreamPrint(threadData, initialStepSize >= DASSL_STEP_EPS, "Selected initial step size %e is too small.", initialStepSize);
dasslData->rwork[2] = initialStepSize;
dasslData->info[7] = 1;
infoStreamPrint(LOG_SOLVER, 0, "initial step size %g", dasslData->rwork[2]);
}
else
{
infoStreamPrint(LOG_SOLVER, 0, "initial step size not set");
}
/* define maximum integration order of dassl */
if (omc_flag[FLAG_MAX_ORDER])
{
int maxOrder = atoi(omc_flagValue[FLAG_MAX_ORDER]);
assertStreamPrint(threadData, maxOrder >= 1 && maxOrder <= 5, "Selected maximum order %d is out of range (1-5).", maxOrder);
dasslData->iwork[2] = maxOrder;
dasslData->info[8] = 1;
}
infoStreamPrint(LOG_SOLVER, 0, "maximum integration order %d", dasslData->info[8]?dasslData->iwork[2]:maxOrder);
/* if FLAG_NOEQUIDISTANT_GRID is set, choose dassl step method */
if (omc_flag[FLAG_NOEQUIDISTANT_GRID])
{
dasslData->dasslSteps = 1; /* TRUE */
solverInfo->solverNoEquidistantGrid = 1;
}
else
{
dasslData->dasslSteps = 0; /* FALSE */
}
infoStreamPrint(LOG_SOLVER, 0, "use equidistant time grid %s", dasslData->dasslSteps?"NO":"YES");
/* check if Flags FLAG_NOEQUIDISTANT_OUT_FREQ or FLAG_NOEQUIDISTANT_OUT_TIME are set */
if (dasslData->dasslSteps){
if (omc_flag[FLAG_NOEQUIDISTANT_OUT_FREQ])
{
dasslData->dasslStepsFreq = atoi(omc_flagValue[FLAG_NOEQUIDISTANT_OUT_FREQ]);
}
else if (omc_flag[FLAG_NOEQUIDISTANT_OUT_TIME])
{
dasslData->dasslStepsTime = atof(omc_flagValue[FLAG_NOEQUIDISTANT_OUT_TIME]);
dasslData->rwork[1] = dasslData->dasslStepsTime;
dasslData->info[6] = 1;
infoStreamPrint(LOG_SOLVER, 0, "maximum step size %g", dasslData->rwork[1]);
} else {
dasslData->dasslStepsFreq = 1;
dasslData->dasslStepsTime = 0.0;
}
if (omc_flag[FLAG_NOEQUIDISTANT_OUT_FREQ] && omc_flag[FLAG_NOEQUIDISTANT_OUT_TIME]){
warningStreamPrint(LOG_STDOUT, 0, "The flags are \"noEquidistantOutputFrequency\" "
"and \"noEquidistantOutputTime\" are in opposition "
"to each other. The flag \"noEquidistantOutputFrequency\" superiors.");
}
infoStreamPrint(LOG_SOLVER, 0, "as the output frequency control is used: %d", dasslData->dasslStepsFreq);
infoStreamPrint(LOG_SOLVER, 0, "as the output frequency time step control is used: %f", dasslData->dasslStepsTime);
}
/* if FLAG_JACOBIAN is set, choose dassl jacobian calculation method */
if (omc_flag[FLAG_JACOBIAN])
{
for(i=1; i< JAC_MAX;i++)
{
if(!strcmp((const char*)omc_flagValue[FLAG_JACOBIAN], JACOBIAN_METHOD[i])){
dasslData->dasslJacobian = (int)i;
break;
}
}
if(dasslData->dasslJacobian == JAC_UNKNOWN)
{
if (ACTIVE_WARNING_STREAM(LOG_SOLVER))
{
warningStreamPrint(LOG_SOLVER, 1, "unrecognized jacobian calculation method %s, current options are:", (const char*)omc_flagValue[FLAG_JACOBIAN]);
for(i=1; i < JAC_MAX; ++i)
{
warningStreamPrint(LOG_SOLVER, 0, "%-15s [%s]", JACOBIAN_METHOD[i], JACOBIAN_METHOD_DESC[i]);
}
messageClose(LOG_SOLVER);
}
throwStreamPrint(threadData,"unrecognized jacobian calculation method %s", (const char*)omc_flagValue[FLAG_JACOBIAN]);
}
/* default case colored numerical jacobian */
}
else
{
dasslData->dasslJacobian = COLOREDNUMJAC;
}
/* selects the calculation method of the jacobian */
if(dasslData->dasslJacobian == COLOREDNUMJAC ||
dasslData->dasslJacobian == COLOREDSYMJAC ||
dasslData->dasslJacobian == SYMJAC)
{
ANALYTIC_JACOBIAN* jacobian = &(data->simulationInfo->analyticJacobians[data->callback->INDEX_JAC_A]);
if (data->callback->initialAnalyticJacobianA(data, threadData, jacobian))
{
infoStreamPrint(LOG_STDOUT, 0, "Jacobian or SparsePattern is not generated or failed to initialize! Switch back to normal.");
dasslData->dasslJacobian = INTERNALNUMJAC;
} else {
ANALYTIC_JACOBIAN* jac = &data->simulationInfo->analyticJacobians[data->callback->INDEX_JAC_A];
infoStreamPrint(LOG_SIMULATION, 1, "Initialized colored Jacobian:");
infoStreamPrint(LOG_SIMULATION, 0, "columns: %d rows: %d", jac->sizeCols, jac->sizeRows);
infoStreamPrint(LOG_SIMULATION, 0, "NNZ: %d colors: %d", jac->sparsePattern.numberOfNoneZeros, jac->sparsePattern.maxColors);
messageClose(LOG_SIMULATION);
}
}
/* default use a user sub-routine for JAC */
dasslData->info[4] = 1;
/* set up the appropriate function pointer */
switch (dasslData->dasslJacobian){
case COLOREDNUMJAC:
data->simulationInfo->jacobianEvals = data->simulationInfo->analyticJacobians[data->callback->INDEX_JAC_A].sparsePattern.maxColors;
dasslData->jacobianFunction = jacA_numColored;
break;
case COLOREDSYMJAC:
data->simulationInfo->jacobianEvals = data->simulationInfo->analyticJacobians[data->callback->INDEX_JAC_A].sparsePattern.maxColors;
dasslData->jacobianFunction = jacA_symColored;
break;
case SYMJAC:
dasslData->jacobianFunction = jacA_sym;
break;
case NUMJAC:
dasslData->jacobianFunction = jacA_num;
break;
case INTERNALNUMJAC:
dasslData->jacobianFunction = dummy_Jacobian;
/* no user sub-routine for JAC */
dasslData->info[4] = 0;
break;
default:
throwStreamPrint(threadData,"unrecognized jacobian calculation method %s", (const char*)omc_flagValue[FLAG_JACOBIAN]);
break;
}
infoStreamPrint(LOG_SOLVER, 0, "jacobian is calculated by %s", JACOBIAN_METHOD_DESC[dasslData->dasslJacobian]);
/* if FLAG_NO_ROOTFINDING is set, choose dassl with out internal root finding */
if(omc_flag[FLAG_NO_ROOTFINDING])
{
dasslData->dasslRootFinding = 0;
dasslData->zeroCrossingFunction = dummy_zeroCrossing;
dasslData->ng = 0;
}
else
{
solverInfo->solverRootFinding = 1;
dasslData->dasslRootFinding = 1;
dasslData->zeroCrossingFunction = function_ZeroCrossingsDASSL;
}
infoStreamPrint(LOG_SOLVER, 0, "dassl uses internal root finding method %s", dasslData->dasslRootFinding?"YES":"NO");
/* if FLAG_NO_RESTART is set, choose dassl step method */
if (omc_flag[FLAG_NO_RESTART])
{
dasslData->dasslAvoidEventRestart = 1; /* TRUE */
}
else
{
dasslData->dasslAvoidEventRestart = 0; /* FALSE */
}
infoStreamPrint(LOG_SOLVER, 0, "dassl performs an restart after an event occurs %s", dasslData->dasslAvoidEventRestart?"NO":"YES");
/* ### end configuration of dassl ### */
messageClose(LOG_SOLVER);
TRACE_POP
return 0;
}
/*! \fn int initializeNonlinearSystems(DATA *data)
*
* This function allocates memory for all nonlinear systems.
*
* \param [ref] [data]
*/
int initializeNonlinearSystems(DATA *data, threadData_t *threadData)
{
TRACE_PUSH
int i,j;
int size;
NONLINEAR_SYSTEM_DATA *nonlinsys = data->simulationInfo->nonlinearSystemData;
struct dataNewtonAndHybrid *mixedSolverData;
infoStreamPrint(LOG_NLS, 1, "initialize non-linear system solvers");
for(i=0; i<data->modelData->nNonLinearSystems; ++i)
{
size = nonlinsys[i].size;
nonlinsys[i].numberOfFEval = 0;
nonlinsys[i].numberOfIterations = 0;
/* check if residual function pointer are valid */
assertStreamPrint(threadData, 0 != nonlinsys[i].residualFunc, "residual function pointer is invalid" );
/* check if analytical jacobian is created */
if(nonlinsys[i].jacobianIndex != -1)
{
assertStreamPrint(threadData, 0 != nonlinsys[i].analyticalJacobianColumn, "jacobian function pointer is invalid" );
if(nonlinsys[i].initialAnalyticalJacobian(data, threadData))
{
nonlinsys[i].jacobianIndex = -1;
}
}
/* allocate system data */
nonlinsys[i].nlsx = (double*) malloc(size*sizeof(double));
nonlinsys[i].nlsxExtrapolation = (double*) malloc(size*sizeof(double));
nonlinsys[i].nlsxOld = (double*) malloc(size*sizeof(double));
nonlinsys[i].resValues = (double*) malloc(size*sizeof(double));
/* allocate value list*/
nonlinsys[i].oldValueList = (void*) allocValueList(1);
nonlinsys[i].lastTimeSolved = 0.0;
nonlinsys[i].nominal = (double*) malloc(size*sizeof(double));
nonlinsys[i].min = (double*) malloc(size*sizeof(double));
nonlinsys[i].max = (double*) malloc(size*sizeof(double));
nonlinsys[i].initializeStaticNLSData(data, threadData, &nonlinsys[i]);
#if !defined(OMC_MINIMAL_RUNTIME)
/* csv data call stats*/
if (data->simulationInfo->nlsCsvInfomation)
{
if (initializeNLScsvData(data, &nonlinsys[i]))
{
throwStreamPrint(threadData, "csvData initialization failed");
}
else
{
print_csvLineCallStatsHeader(((struct csvStats*) nonlinsys[i].csvData)->callStats);
print_csvLineIterStatsHeader(data, &nonlinsys[i], ((struct csvStats*) nonlinsys[i].csvData)->iterStats);
}
}
#endif
/* allocate solver data */
switch(data->simulationInfo->nlsMethod)
{
#if !defined(OMC_MINIMAL_RUNTIME)
case NLS_HYBRID:
allocateHybrdData(size, &nonlinsys[i].solverData);
break;
case NLS_KINSOL:
nlsKinsolAllocate(size, &nonlinsys[i], data->simulationInfo->nlsLinearSolver);
break;
case NLS_NEWTON:
allocateNewtonData(size, &nonlinsys[i].solverData);
break;
#endif
case NLS_HOMOTOPY:
allocateHomotopyData(size, &nonlinsys[i].solverData);
break;
#if !defined(OMC_MINIMAL_RUNTIME)
case NLS_MIXED:
mixedSolverData = (struct dataNewtonAndHybrid*) malloc(sizeof(struct dataNewtonAndHybrid));
allocateHomotopyData(size, &(mixedSolverData->newtonData));
allocateHybrdData(size, &(mixedSolverData->hybridData));
nonlinsys[i].solverData = (void*) mixedSolverData;
break;
#endif
default:
throwStreamPrint(threadData, "unrecognized nonlinear solver");
}
}
messageClose(LOG_NLS);
TRACE_POP
return 0;
}
int nlsKinsolFree(void** solverData)
{
throwStreamPrint(NULL,"no sundials/kinsol support activated");
return 0;
}
/*! \fn solve non-linear systems
*
* \param [in] [data]
* \param [in] [sysNumber] index of corresponding non-linear system
*
* \author wbraun
*/
int solve_nonlinear_system(DATA *data, threadData_t *threadData, int sysNumber)
{
void *dataAndThreadData[2] = {data, threadData};
int success = 0, saveJumpState;
NONLINEAR_SYSTEM_DATA* nonlinsys = &(data->simulationInfo->nonlinearSystemData[sysNumber]);
struct dataNewtonAndHybrid *mixedSolverData;
data->simulationInfo->currentNonlinearSystemIndex = sysNumber;
/* enable to avoid division by zero */
data->simulationInfo->noThrowDivZero = 1;
((DATA*)data)->simulationInfo->solveContinuous = 1;
/* performance measurement */
rt_ext_tp_tick(&nonlinsys->totalTimeClock);
/* grab the initial guess */
infoStreamPrint(LOG_NLS_EXTRAPOLATE, 1, "############ Start new iteration for system %ld at time at %g ############", nonlinsys->equationIndex, data->localData[0]->timeValue);
/* if last solving is too long ago use just old values */
if (fabs(data->localData[0]->timeValue - nonlinsys->lastTimeSolved) < 5*data->simulationInfo->stepSize)
{
getInitialGuess(nonlinsys, data->localData[0]->timeValue);
}
else
{
nonlinsys->getIterationVars(data, nonlinsys->nlsx);
memcpy(nonlinsys->nlsx, nonlinsys->nlsxOld, nonlinsys->size*(sizeof(double)));
}
/* update non continuous */
if (data->simulationInfo->discreteCall)
{
updateInnerEquation(dataAndThreadData, sysNumber, 1);
}
/* try */
#ifndef OMC_EMCC
MMC_TRY_INTERNAL(simulationJumpBuffer)
#endif
/* handle asserts */
saveJumpState = threadData->currentErrorStage;
threadData->currentErrorStage = ERROR_NONLINEARSOLVER;
/* use the selected solver for solving nonlinear system */
switch(data->simulationInfo->nlsMethod)
{
#if !defined(OMC_MINIMAL_RUNTIME)
case NLS_HYBRID:
success = solveHybrd(data, threadData, sysNumber);
break;
case NLS_KINSOL:
success = nlsKinsolSolve(data, threadData, sysNumber);
break;
case NLS_NEWTON:
success = solveNewton(data, threadData, sysNumber);
/* check if solution process was successful, if not use alternative tearing set if available (dynamic tearing)*/
if (!success && nonlinsys->strictTearingFunctionCall != NULL){
debugString(LOG_DT, "Solving the casual tearing set failed! Now the strict tearing set is used.");
success = nonlinsys->strictTearingFunctionCall(data, threadData);
if (success) success=2;
}
break;
#endif
case NLS_HOMOTOPY:
success = solveHomotopy(data, threadData, sysNumber);
break;
#if !defined(OMC_MINIMAL_RUNTIME)
case NLS_MIXED:
mixedSolverData = nonlinsys->solverData;
nonlinsys->solverData = mixedSolverData->newtonData;
success = solveHomotopy(data, threadData, sysNumber);
/* check if solution process was successful, if not use alternative tearing set if available (dynamic tearing)*/
if (!success && nonlinsys->strictTearingFunctionCall != NULL){
debugString(LOG_DT, "Solving the casual tearing set failed! Now the strict tearing set is used.");
success = nonlinsys->strictTearingFunctionCall(data, threadData);
if (success){
success=2;
/* update iteration variables of the causal set*/
nonlinsys->getIterationVars(data, nonlinsys->nlsx);
}
}
if (!success) {
nonlinsys->solverData = mixedSolverData->hybridData;
success = solveHybrd(data, threadData, sysNumber);
}
nonlinsys->solverData = mixedSolverData;
break;
#endif
default:
throwStreamPrint(threadData, "unrecognized nonlinear solver");
}
/* set result */
nonlinsys->solved = success;
/* handle asserts */
threadData->currentErrorStage = saveJumpState;
/*catch */
#ifndef OMC_EMCC
MMC_CATCH_INTERNAL(simulationJumpBuffer)
#endif
/* update value list database */
updateInitialGuessDB(nonlinsys, data->localData[0]->timeValue, data->simulationInfo->currentContext);
if (nonlinsys->solved == 1)
{
nonlinsys->lastTimeSolved = data->localData[0]->timeValue;
}
/* enable to avoid division by zero */
data->simulationInfo->noThrowDivZero = 0;
((DATA*)data)->simulationInfo->solveContinuous = 0;
/* performance measurement and statistics */
nonlinsys->totalTime += rt_ext_tp_tock(&(nonlinsys->totalTimeClock));
nonlinsys->numberOfCall++;
/* write csv file for debugging */
#if !defined(OMC_MINIMAL_RUNTIME)
if (data->simulationInfo->nlsCsvInfomation)
{
print_csvLineCallStats(((struct csvStats*) nonlinsys->csvData)->callStats,
nonlinsys->numberOfCall,
data->localData[0]->timeValue,
nonlinsys->numberOfIterations,
nonlinsys->numberOfFEval,
nonlinsys->totalTime,
nonlinsys->solved
);
}
#endif
return check_nonlinear_solution(data, 1, sysNumber);
}
/*! \fn stateSelection
*
* function to select the actual states
*
* \param [ref] [data]
* \param [in] [reportError]
* \param [in] [switchStates] flag for switch states, function does switch only if this switchStates = 1
* \return ???
*
* \author Frenkel TUD
*/
int stateSelection(DATA *data, threadData_t *threadData, char reportError, int switchStates)
{
TRACE_PUSH
long i=0;
long j=0;
int globalres=0;
long k=0;
long l=0;
/* go through all the state sets */
for(i=0; i<data->modelData->nStateSets; i++)
{
int res=0;
STATE_SET_DATA *set = &(data->simulationInfo->stateSetData[i]);
modelica_integer* oldColPivot = (modelica_integer*) malloc(set->nCandidates * sizeof(modelica_integer));
modelica_integer* oldRowPivot = (modelica_integer*) malloc(set->nDummyStates * sizeof(modelica_integer));
/* debug */
if(ACTIVE_STREAM(LOG_DSS))
{
infoStreamPrint(LOG_DSS, 1, "StateSelection Set %ld. Select %ld states from %ld candidates.", i, set->nStates, set->nCandidates);
for(k=0; k < set->nCandidates; k++)
{
infoStreamPrint(LOG_DSS, 0, "[%ld] cadidate %s", k+1, set->statescandidates[k]->name);
}
messageClose(LOG_DSS);
infoStreamPrint(LOG_DSS, 0, "StateSelection Matrix A");
{
unsigned int aid = set->A->id - data->modelData->integerVarsData[0].info.id;
modelica_integer *Adump = &(data->localData[0]->integerVars[aid]);
for(k=0; k < set->nCandidates; k++)
{
for(l=0; l < set->nStates; l++)
{
infoStreamPrint(LOG_DSS, 0, "A[%ld,%ld] = %ld", k+1, l+1, Adump[k*set->nCandidates+l]);
}
}
}
}
/* generate jacobian, stored in set->J */
getAnalyticalJacobianSet(data, threadData, i);
/* call pivoting function to select the states */
memcpy(oldColPivot, set->colPivot, set->nCandidates*sizeof(modelica_integer));
memcpy(oldRowPivot, set->rowPivot, set->nDummyStates*sizeof(modelica_integer));
if((pivot(set->J, set->nDummyStates, set->nCandidates, set->rowPivot, set->colPivot) != 0) && reportError)
{
/* error, report the matrix and the time */
char *buffer = (char*)malloc(sizeof(char)*data->simulationInfo->analyticJacobians[set->jacobianIndex].sizeCols*10);
warningStreamPrint(LOG_DSS, 1, "jacobian %dx%d [id: %ld]", data->simulationInfo->analyticJacobians[set->jacobianIndex].sizeRows, data->simulationInfo->analyticJacobians[set->jacobianIndex].sizeCols, set->jacobianIndex);
for(i=0; i < data->simulationInfo->analyticJacobians[set->jacobianIndex].sizeRows; i++)
{
buffer[0] = 0;
for(j=0; j < data->simulationInfo->analyticJacobians[set->jacobianIndex].sizeCols; j++)
sprintf(buffer, "%s%.5e ", buffer, set->J[i*data->simulationInfo->analyticJacobians[set->jacobianIndex].sizeCols+j]);
warningStreamPrint(LOG_DSS, 0, "%s", buffer);
}
free(buffer);
for(i=0; i<set->nCandidates; i++)
warningStreamPrint(LOG_DSS, 0, "%s", set->statescandidates[i]->name);
messageClose(LOG_DSS);
throwStreamPrint(threadData, "Error, singular Jacobian for dynamic state selection at time %f\nUse -lv LOG_DSS_JAC to get the Jacobian", data->localData[0]->timeValue);
}
/* if we have a new set throw event for reinitialization
and set the A matrix for set.x=A*(states) */
res = comparePivot(oldColPivot, set->colPivot, set->nCandidates, set->nDummyStates, set->nStates, set->A, set->states, set->statescandidates, data, switchStates);
if(!switchStates)
{
memcpy(set->colPivot, oldColPivot, set->nCandidates*sizeof(modelica_integer));
memcpy(set->rowPivot, oldRowPivot, set->nDummyStates*sizeof(modelica_integer));
}
if(res)
globalres = 1;
free(oldColPivot);
free(oldRowPivot);
}
TRACE_POP
return globalres;
}
static void XMLCALL startElement(void *voidData, const char *name, const char **attr)
{
userData_t *userData = (userData_t*) voidData;
if(0==strcmp("defines", name))
{
assertStreamPrint(NULL, ((0==strcmp(attr[0], "name")) && attr[2] == NULL), "<defines> needs to have exactly one attribute: name");
if(varsBuffer == 0 || maxVarsBuffer == 0)
{
maxVarsBuffer = 32;
varsBuffer = (const char**) malloc(sizeof(const char*)*maxVarsBuffer);
}
else if(userData->xml->equationInfo[userData->curIndex].numVar+2 >= maxVarsBuffer)
{
maxVarsBuffer *= 2;
varsBuffer = realloc(varsBuffer, sizeof(const char*)*maxVarsBuffer);
}
varsBuffer[userData->xml->equationInfo[userData->curIndex].numVar++] = strdup(attr[1]);
return;
}
if(0==strcmp("info", name))
{
while(attr[0])
{
if(0 == strcmp("file", attr[0]))
{
file_info.filename = strdup(attr[1]);
}
else if(0 == strcmp("lineStart", attr[0]))
{
file_info.lineStart = strtol(attr[1], NULL, 10);
}
else if(0 == strcmp("lineEnd", attr[0]))
{
file_info.lineEnd = strtol(attr[1], NULL, 10);
}
else if(0 == strcmp("colStart", attr[0]))
{
file_info.colStart = strtol(attr[1], NULL, 10);
}
else if(0 == strcmp("colEnd", attr[0]))
{
file_info.colEnd = strtol(attr[1], NULL, 10);
}
else if(0 == strcmp("readonly", attr[0]))
{
file_info.readonly = 0==strcmp(attr[1], "true");
}
else
{
throwStreamPrint(NULL, "%s: Unknown attribute in <info>", userData->xml->fileName);
}
attr += 2;
}
return;
}
if(0 == strcmp("equation", name))
{
mmc_sint_t ix;
if(userData->curIndex > userData->xml->nEquations) {
throwStreamPrint(NULL, "%s: Info XML %s contained more equations than expected (%ld)", __FILE__, userData->xml->fileName, userData->xml->nEquations);
}
if(!attr[0] || strcmp("index", attr[0])) {
throwStreamPrint(NULL, "%s: Info XML %s contained equation without index", __FILE__, userData->xml->fileName);
}
ix = strtol(attr[1], NULL, 10);
if (attr[2] && 0==strcmp("parent", attr[2])) {
userData->xml->equationInfo[userData->curIndex].parent = strtol(attr[3], NULL, 10);
} else {
userData->xml->equationInfo[userData->curIndex].parent = 0;
}
if(userData->curIndex != ix) {
throwStreamPrint(NULL, "%s: Info XML %s got equation with index %ld, expected %ld", __FILE__, userData->xml->fileName, ix, userData->curIndex);
}
userData->xml->equationInfo[userData->curIndex].id = userData->curIndex;
userData->xml->equationInfo[userData->curIndex].profileBlockIndex = measure_time_flag & 2 ? userData->curIndex : -1; /* TODO: Set when parsing other tags */
userData->xml->equationInfo[userData->curIndex].numVar = 0; /* TODO: Set when parsing other tags */
userData->xml->equationInfo[userData->curIndex].vars = NULL; /* Set when parsing other tags (on close). */
}
if(0 == strcmp("variable", name))
{
var_info.name = NULL;
var_info.comment = NULL;
while (attr[0]) {
if(0 == strcmp(attr[0], "name"))
{
var_info.name = strdup(attr[1]);
}
else if(0 == strcmp(attr[0], "comment"))
{
var_info.comment = strdup(attr[1]);
}
attr+=2;
}
assertStreamPrint(NULL, var_info.name && var_info.comment, "<var>-tag did not set name and comment");
var_info.id = -1; /* ??? */
var_info.info = file_info;
return;
}
if(0 == strcmp("function", name))
{
userData->xml->functionNames[userData->curFunctionIndex].id = userData->curFunctionIndex;
userData->xml->functionNames[userData->curFunctionIndex].name = "#FIXME#";
userData->xml->functionNames[userData->curFunctionIndex].name = strdup(attr[1]);
userData->xml->functionNames[userData->curFunctionIndex].info.filename = "TODO: Set me up!!!";
}
}
int nlsKinsolAllocate(int size, NONLINEAR_SYSTEM_DATA *nlsData, int linearSolverMethod)
{
throwStreamPrint(NULL,"no sundials/kinsol support activated");
return 0;
}
/*! \fn performSimulation(DATA* data, SOLVER_INFO* solverInfo)
*
* \param [ref] [data]
* \param [ref] [solverInfo]
*
* This function performs the simulation controlled by solverInfo.
*/
int prefixedName_performSimulation(DATA* data, threadData_t *threadData, SOLVER_INFO* solverInfo)
{
TRACE_PUSH
int retValIntegrator=0;
int retValue=0;
int i, retry=0, steadStateReached=0;
unsigned int __currStepNo = 0;
SIMULATION_INFO *simInfo = data->simulationInfo;
solverInfo->currentTime = simInfo->startTime;
MEASURE_TIME fmt;
fmtInit(data, &fmt);
printAllVarsDebug(data, 0, LOG_DEBUG); /* ??? */
if (!compiledInDAEMode)
{
printSparseStructure(&(data->simulationInfo->analyticJacobians[data->callback->INDEX_JAC_A].sparsePattern),
data->simulationInfo->analyticJacobians[data->callback->INDEX_JAC_A].sizeRows,
data->simulationInfo->analyticJacobians[data->callback->INDEX_JAC_A].sizeCols,
LOG_SOLVER, "ODE sparse pattern");
}
else
{
printSparseStructure(data->simulationInfo->daeModeData->sparsePattern,
data->simulationInfo->daeModeData->nResidualVars,
data->simulationInfo->daeModeData->nResidualVars,
LOG_SOLVER, "DAE sparse pattern");
}
if(terminationTerminate)
{
printInfo(stdout, TermInfo);
fputc('\n', stdout);
infoStreamPrint(LOG_STDOUT, 0, "Simulation call terminate() at initialization (time %f)\nMessage : %s", data->localData[0]->timeValue, TermMsg);
data->simulationInfo->stopTime = solverInfo->currentTime;
} else {
modelica_boolean syncStep = 0;
/***** Start main simulation loop *****/
while(solverInfo->currentTime < simInfo->stopTime || !simInfo->useStopTime)
{
int success = 0;
threadData->currentErrorStage = ERROR_SIMULATION;
#ifdef USE_DEBUG_TRACE
if(useStream[LOG_TRACE]) {
printf("TRACE: push loop step=%u, time=%.12g\n", __currStepNo, solverInfo->currentTime);
}
#endif
/* check for steady state */
if (omc_flag[FLAG_STEADY_STATE])
{
if (0 < data->modelData->nStates)
{
int i;
double maxDer = 0.0;
double currDer;
for(i=data->modelData->nStates; i<2*data->modelData->nStates; ++i)
{
currDer = fabs(data->localData[0]->realVars[i] / data->modelData->realVarsData[i].attribute.nominal);
if(maxDer < currDer)
maxDer = currDer;
}
if (maxDer < steadyStateTol) {
steadStateReached=1;
infoStreamPrint(LOG_STDOUT, 0, "steady state reached at time = %g\n * max(|d(x_i)/dt|/nominal(x_i)) = %g\n * relative tolerance = %g", solverInfo->currentTime, maxDer, steadyStateTol);
break;
}
}
else
throwStreamPrint(threadData, "No states in model. Flag -steadyState can only be used if states are present.");
}
omc_alloc_interface.collect_a_little();
/* try */
#if !defined(OMC_EMCC)
MMC_TRY_INTERNAL(simulationJumpBuffer)
#endif
{
printAllVars(data, 0, LOG_SOLVER_V);
clear_rt_step(data);
if (!compiledInDAEMode) /* do not use ringbuffer for daeMode */
rotateRingBuffer(data->simulationData, 1, (void**) data->localData);
modelica_boolean syncEventStep = solverInfo->didEventStep || syncStep;
/***** Calculation next step size *****/
if(syncEventStep) {
infoStreamPrint(LOG_SOLVER, 0, "offset value for the next step: %.16g", (solverInfo->currentTime - solverInfo->laststep));
} else {
if (solverInfo->solverNoEquidistantGrid)
{
if (solverInfo->currentTime >= solverInfo->lastdesiredStep)
{
do {
__currStepNo++;
solverInfo->currentStepSize = (double)(__currStepNo*(simInfo->stopTime-simInfo->startTime))/(simInfo->numSteps) + simInfo->startTime - solverInfo->currentTime;
} while(solverInfo->currentStepSize <= 0);
}
} else {
__currStepNo++;
}
}
solverInfo->currentStepSize = (double)(__currStepNo*(simInfo->stopTime-simInfo->startTime))/(simInfo->numSteps) + simInfo->startTime - solverInfo->currentTime;
solverInfo->lastdesiredStep = solverInfo->currentTime + solverInfo->currentStepSize;
/* if retry reduce stepsize */
if (0 != retry) {
solverInfo->currentStepSize /= 2;
}
/***** End calculation next step size *****/
checkForSynchronous(data, solverInfo);
/* check for next time event */
checkForSampleEvent(data, solverInfo);
/* if regular output point and last time events are almost equals
* skip that step and go further */
if (solverInfo->currentStepSize < 1e-15 && syncEventStep){
__currStepNo++;
continue;
}
/*
* integration step determine all states by a integration method
* update continuous system
*/
infoStreamPrint(LOG_SOLVER, 1, "call solver from %g to %g (stepSize: %.15g)", solverInfo->currentTime, solverInfo->currentTime + solverInfo->currentStepSize, solverInfo->currentStepSize);
retValIntegrator = simulationStep(data, threadData, solverInfo);
infoStreamPrint(LOG_SOLVER, 0, "finished solver step %g", solverInfo->currentTime);
messageClose(LOG_SOLVER);
if (S_OPTIMIZATION == solverInfo->solverMethod) break;
syncStep = simulationUpdate(data, threadData, solverInfo);
retry = 0; /* reset retry */
fmtEmitStep(data, threadData, &fmt, solverInfo);
saveIntegratorStats(solverInfo);
checkSimulationTerminated(data, solverInfo);
/* terminate for some cases:
* - integrator fails
* - non-linear system failed to solve
* - assert was called
*/
if (retValIntegrator) {
retValue = -1 + retValIntegrator;
infoStreamPrint(LOG_STDOUT, 0, "model terminate | Integrator failed. | Simulation terminated at time %g", solverInfo->currentTime);
break;
} else if(check_nonlinear_solutions(data, 0)) {
retValue = -2;
infoStreamPrint(LOG_STDOUT, 0, "model terminate | non-linear system solver failed. | Simulation terminated at time %g", solverInfo->currentTime);
break;
} else if(check_linear_solutions(data, 0)) {
retValue = -3;
infoStreamPrint(LOG_STDOUT, 0, "model terminate | linear system solver failed. | Simulation terminated at time %g", solverInfo->currentTime);
break;
} else if(check_mixed_solutions(data, 0)) {
retValue = -4;
infoStreamPrint(LOG_STDOUT, 0, "model terminate | mixed system solver failed. | Simulation terminated at time %g", solverInfo->currentTime);
break;
}
success = 1;
}
#if !defined(OMC_EMCC)
MMC_CATCH_INTERNAL(simulationJumpBuffer)
#endif
if (!success) { /* catch */
if(0 == retry) {
retrySimulationStep(data, threadData, solverInfo);
retry = 1;
} else {
retValue = -1;
infoStreamPrint(LOG_STDOUT, 0, "model terminate | Simulation terminated by an assert at time: %g", data->localData[0]->timeValue);
break;
}
}
TRACE_POP /* pop loop */
} /* end while solver */
} /* end else */
fmtClose(&fmt);
if (omc_flag[FLAG_STEADY_STATE] && !steadStateReached) {
warningStreamPrint(LOG_STDOUT, 0, "Steady state has not been reached.\nThis may be due to too restrictive relative tolerance (%g) or short stopTime (%g).", steadyStateTol, simInfo->stopTime);
}
TRACE_POP
return retValue;
}
int nlsKinsolSolve(DATA *data, threadData_t *threadData, int sysNumber)
{
throwStreamPrint(threadData,"no sundials/kinsol support activated");
return 0;
}
/*! \fn int importStartValues(DATA *data, const char *pInitFile, const double initTime)
*
* \param [ref] [data]
* \param [in] [pInitFile]
* \param [in] [initTime]
*
* \author lochel
*/
int importStartValues(DATA *data, threadData_t *threadData, const char *pInitFile, const double initTime)
{
ModelicaMatReader reader;
ModelicaMatVariable_t *pVar = NULL;
double value;
const char *pError = NULL;
char* newVarname = NULL;
MODEL_DATA *mData = data->modelData;
long i;
infoStreamPrint(LOG_INIT, 0, "import start values\nfile: %s\ntime: %g", pInitFile, initTime);
if(!strcmp(data->modelData->resultFileName, pInitFile))
{
errorStreamPrint(LOG_INIT, 0, "Cannot import a result file for initialization that is also the current output file <%s>.\nConsider redirecting the output result file (-r=<new_res.mat>) or renaming the result file that is used for initialization import.", pInitFile);
return 1;
}
pError = omc_new_matlab4_reader(pInitFile, &reader);
if(pError)
{
throwStreamPrint(threadData, "unable to read input-file <%s> [%s]", pInitFile, pError);
return 1;
}
else
{
infoStreamPrint(LOG_INIT, 0, "import real variables");
for(i=0; i<mData->nVariablesReal; ++i) {
pVar = omc_matlab4_find_var(&reader, mData->realVarsData[i].info.name);
if(!pVar) {
newVarname = mapToDymolaVars(mData->realVarsData[i].info.name);
pVar = omc_matlab4_find_var(&reader, newVarname);
free(newVarname);
}
if(pVar) {
omc_matlab4_val(&(mData->realVarsData[i].attribute.start), &reader, pVar, initTime);
infoStreamPrint(LOG_INIT, 0, "| %s(start=%g)", mData->realVarsData[i].info.name, mData->realVarsData[i].attribute.start);
} else if((strlen(mData->realVarsData[i].info.name) > 0) &&
(mData->realVarsData[i].info.name[0] != '$') &&
(strncmp(mData->realVarsData[i].info.name, "der($", 5) != 0)) {
/* skip warnings about self-generated variables */
warningStreamPrint(LOG_INIT, 0, "unable to import real variable %s from given file", mData->realVarsData[i].info.name);
}
}
infoStreamPrint(LOG_INIT, 0, "import real parameters");
for(i=0; i<mData->nParametersReal; ++i) {
pVar = omc_matlab4_find_var(&reader, mData->realParameterData[i].info.name);
if(!pVar) {
newVarname = mapToDymolaVars(mData->realParameterData[i].info.name);
pVar = omc_matlab4_find_var(&reader, newVarname);
free(newVarname);
}
if(pVar) {
omc_matlab4_val(&(mData->realParameterData[i].attribute.start), &reader, pVar, initTime);
data->simulationInfo->realParameter[i] = mData->realParameterData[i].attribute.start;
infoStreamPrint(LOG_INIT, 0, "| %s(start=%g)", mData->realParameterData[i].info.name, mData->realParameterData[i].attribute.start);
} else {
warningStreamPrint(LOG_INIT, 0, "unable to import real parameter %s from given file", mData->realParameterData[i].info.name);
}
}
infoStreamPrint(LOG_INIT, 0, "import real discrete");
for(i=mData->nVariablesReal-mData->nDiscreteReal; i<mData->nDiscreteReal; ++i) {
pVar = omc_matlab4_find_var(&reader, mData->realParameterData[i].info.name);
if(!pVar) {
newVarname = mapToDymolaVars(mData->realParameterData[i].info.name);
pVar = omc_matlab4_find_var(&reader, newVarname);
free(newVarname);
}
if(pVar) {
omc_matlab4_val(&(mData->realParameterData[i].attribute.start), &reader, pVar, initTime);
infoStreamPrint(LOG_INIT, 0, "| %s(start=%g)", mData->realParameterData[i].info.name, mData->realParameterData[i].attribute.start);
} else {
warningStreamPrint(LOG_INIT, 0, "unable to import real parameter %s from given file", mData->realParameterData[i].info.name);
}
}
infoStreamPrint(LOG_INIT, 0, "import integer parameters");
for(i=0; i<mData->nParametersInteger; ++i)
{
pVar = omc_matlab4_find_var(&reader, mData->integerParameterData[i].info.name);
if (!pVar) {
newVarname = mapToDymolaVars(mData->integerParameterData[i].info.name);
pVar = omc_matlab4_find_var(&reader, newVarname);
free(newVarname);
}
if (pVar) {
omc_matlab4_val(&value, &reader, pVar, initTime);
mData->integerParameterData[i].attribute.start = (modelica_integer)value;
data->simulationInfo->integerParameter[i] = (modelica_integer)value;
infoStreamPrint(LOG_INIT, 0, "| %s(start=%ld)", mData->integerParameterData[i].info.name, mData->integerParameterData[i].attribute.start);
} else {
warningStreamPrint(LOG_INIT, 0, "unable to import integer parameter %s from given file", mData->integerParameterData[i].info.name);
}
}
infoStreamPrint(LOG_INIT, 0, "import boolean parameters");
for(i=0; i<mData->nParametersBoolean; ++i) {
pVar = omc_matlab4_find_var(&reader, mData->booleanParameterData[i].info.name);
if(!pVar) {
newVarname = mapToDymolaVars(mData->booleanParameterData[i].info.name);
pVar = omc_matlab4_find_var(&reader, newVarname);
free(newVarname);
}
if(pVar) {
omc_matlab4_val(&value, &reader, pVar, initTime);
mData->booleanParameterData[i].attribute.start = (modelica_boolean)value;
data->simulationInfo->booleanParameter[i] = (modelica_boolean)value;
infoStreamPrint(LOG_INIT, 0, "| %s(start=%s)", mData->booleanParameterData[i].info.name, mData->booleanParameterData[i].attribute.start ? "true" : "false");
} else {
warningStreamPrint(LOG_INIT, 0, "unable to import boolean parameter %s from given file", mData->booleanParameterData[i].info.name);
}
}
omc_free_matlab4_reader(&reader);
}
return 0;
}