void
pgConstructEquCkt(Circuit *ckt, Circuit *newCkt) /* equivalent circuit nodes */
{
	Nodes *node;
	int i;
	BranchLink *blaux;
	Branches *baux;
	int numNodeRemoved = 0, numNodeRemained = 0;

	assert(ckt);
	assert(newCkt);

	/* build the node array of original circuit if necessary */
	if(!ckt->theNodeArray)
		pgBuildNodeArray(ckt);
  
	/* perform the DC analysis on the original circuit */
	/*pgDCAnalysis(ckt);*/
	pgComputeStateFromRes(ckt);

	/* preparation */
	markAllNodeUnvisited(ckt);

	/* we then go through all the nodes */
	for(i = 0; i <= ckt->nNumNode; i++)
    {
		node = &(ckt->theNodeArray[i]);

		/* skip the node visited */
		if(node->visited)
			continue;

		/* ignore node that needs to be suppressed.  Such a node has two
		   resistant branch and one current.  The current is coming from
		   one branch and go out to another branch.  
		*/
		if(isSuppressedNode(ckt, node->index))
			continue;

		/* node to be kept in the new netlist. Note that we only process
		   resistant branch which has current flowing away from the
		   branch */
		node->visited = 1;
		numNodeRemained++;

		for(blaux = node->blist; blaux; blaux = blaux->next)
		{
			baux = blaux->dev;

			if(baux->type != dRES)
			{
				copyBranch(baux, newCkt);
				continue;
			}

			if(((baux->n1 == node->index) && (baux->current > 0.0f)) ||
			   ((baux->n2 == node->index) && (baux->current < 0.0f)))
			{					       

				if(baux->n1 == node->index)
				{
					if(!isSuppressedNode(ckt,baux->n2))
						copyBranch(baux, newCkt);
					else
						numNodeRemoved += suppressBranches(baux, ckt, newCkt);
				}
				else
				{
					if(!isSuppressedNode(ckt, baux->n1))
						copyBranch(baux, newCkt);
					else
						numNodeRemoved += suppressBranches(baux,ckt, newCkt);
				}
			}
		}
      
    }
	printf("# of nodes suppressed: %d\n", numNodeRemoved);
	printf("# of nodes remains: %d\n", numNodeRemained-1);
	/* newCkt->nNumDevice = ckt->nNumDevice - numNodeRemoved;*/
	newCkt->nMatrixSize = ckt->nMatrixSize;
	newCkt->nNumNode = ckt->nNumNode;
}
Esempio n. 2
0
Long_t MCPropGeant4::startup()
{

	 // set the seed from global seed
	 int seed=* ( (int*) getMemoryObject("GlobalSeed") );
	 debug(1,"Propagation seed set to %i\n",seed);
	 CLHEP::HepRandom::setTheSeed(seed);
  
	// construct geant 4 and geometry
	debug(100,"Reading GDML to construct geometry\n");

	// Print the file names into the appropriate places
	char buffer[1024];
	snprintf(buffer,1000,"%s/.cooker/shared/gdml/%s",getenv("COOKERHOME"),gdmlFileName.c_str());
	char fieldbuf[1024];
	snprintf(fieldbuf,1000,"%s",fieldfile.c_str());

	//std::cout<<"\n\nField: "<<fieldfile<<"   Geo: "<<gdmlFileName<<"\n\n";

	runmanager=new cookerRM();



	cD = new cookerDetector(buffer,fieldbuf,this);

	runmanager->SetUserInitialization(cD);

	runmanager->SetUserInitialization( new Physics("",fullBrem,supBrem));

	// If visualization is requested, add the step action
	if (vism)
	{
		visStepAct = new MCPropVis();
		runmanager->SetUserAction(visStepAct);
	}

	// If field integration is requested, add the step action
	if (fint)
	{
		fieldIntAct = new MCFieldIntegrator();
		runmanager->SetUserAction(fieldIntAct);
	}


	GeneratorEvent * ge=NULL;
	getOutBranchObject("Generator",(TObject **) &ge);
	debug(0,"Out gen %p\n",ge);
	if (!ge)
	 {
		copyBranch("Generator");
		getBranchObject("Generator",(TObject **) &ge);
	 }
	if (!ge)
	 {
		debug(0,"Failed to find Generator Branch.\n");
		exit(-1);
	 }
	runmanager->SetUserAction(new cookerGen(ge));
	// runaction, eventaction?

	runmanager->Initialize();
	if (!runmanager->startRun())
	 {
		debug(0,"Error starting Geant4 run\n");
		exit(-1);
	 }

	// Need GD ROOT TObjStrings to put them in a tree
	fieldFile = new TObjString(cD->fieldFile.data());
	fieldHash = new TObjString(cD->fieldHash.data());

	// std::cout<<"\n\n"<<fieldFile->String()<<" "<<fieldHash->String()<<"\n\n";

	copyFileObject("ConfigData/trigger");

	return 0;
}