int main (int argc, char** argv) {
FloorPlanner fp;
bool done;
cout << endl;
cout << "Corblivar: Corner Block List for Varied [Block] Alignment Requests" << endl;
cout << "----- 3D floorplanning tool v 1.1.1 ------------------------------" << endl << endl;
// set IO mode
IO::mode = IO::Mode::REGULAR;
// parse program parameter, config file, and further files
IO::parseParametersFiles(fp, argc, argv);
// parse blocks
IO::parseBlocks(fp);
// parse nets
IO::parseNets(fp);
// init Corblivar core
CorblivarCore corb = CorblivarCore(fp.getLayers(), fp.getBlocks().size());
// parse alignment request
IO::parseAlignmentRequests(fp, corb.editAlignments());
// init thermal analyzer, only reasonable after parsing config file
fp.initThermalAnalyzer();
// non-regular run; read in solution file
// (TODO) adapt if further optimization of read in data is desired
if (fp.inputSolutionFileOpen()) {
if (fp.logMin()) {
cout << "Corblivar> ";
cout << "Handling given solution file ..." << endl << endl;
}
// read from file
IO::parseCorblivarFile(fp, corb);
// assume read in data as currently best solution
corb.storeBestCBLs();
// overall cost is not determined; cost cannot be determined since no
// normalization during SA search was performed
fp.finalize(corb, false);
}
// regular run; perform floorplanning
else {
// generate new, random data set
corb.initCorblivarRandomly(fp.logMed(), fp.getLayers(), fp.getBlocks(), fp.powerAwareBlockHandling());
if (fp.logMin()) {
cout << "Corblivar> ";
cout << "Performing SA floorplanning optimization ..." << endl << endl;
}
// perform SA; main handler
done = fp.performSA(corb);
if (fp.logMin()) {
cout << "Corblivar> ";
if (done) {
cout << "Done, floorplanning was successful" << endl << endl;
}
else {
cout << "Done, floorplanning was _not_ successful" << endl << endl;
}
}
// finalize: generate output files, final logging
fp.finalize(corb);
}
}
