void start(CmiUInt8 root) {
CkCallback startCb(CkIndex_BFSMultiVertex::foo(), g[root / (N / CmiNumPes())]);
CkCallback endCb(CkIndex_TestDriver::startVerificationPhase(), driverProxy);
aggregator.init(g.ckGetArrayID(), startCb, endCb, -1, true);
CkStartQD(CkCallbackResumeThread());
g[root / (N / CmiNumPes())].make_root(root);
}
void prepare() {
if (testType == usingTram) {
CkCallback startCb(CkIndex_Main::start(), thisProxy);
CkCallback endCb(CkIndex_Main::allDone(), thisProxy);
aggregator.init(1, startCb, endCb, INT_MIN, false);
}
else {
start();
}
}
void start() {
starttime = CkWallTimer();
CkCallback startCb(CkIndex_Updater::generateUpdates(), updater_array);
CkCallback endCb(CkIndex_TestDriver::startVerificationPhase(), thisProxy);
updater_array.generateUpdates();
CkStartQD(CkIndex_TestDriver::startVerificationPhase(), &thishandle);
// Initialize the communication library, which, upon readiness,
// will initiate the test via startCb
//aggregator.init(updater_array.ckGetArrayID(), startCb, endCb, -1, false);
}
void startVerificationPhase() {
double update_walltime = CkWallTimer() - starttime;
double gups = 1e-9 * tableSize * 4.0/update_walltime;
CkPrintf("[Final] CPU time used = %.6f seconds, %.9f GUPS\n", update_walltime, gups);
CkPrintf("%.9f Billion(10^9) Updates per second [GUP/s]\n", gups);
CkPrintf("%.9f Billion(10^9) Updates/PE per second [GUP/s]\n",
gups / CkNumPes());
// Repeat the update process to verify
// At the end of the second update phase, check the global table
// for errors in Updater::checkErrors()
CkCallback startCb(CkIndex_Updater::generateUpdates(), updater_array);
CkCallback endCb(CkIndex_Updater::checkErrors(), updater_array);
// Initialize the communication library, which, upon readiness,
// will initiate the verification via startCb
//aggregator.init(updater_array.ckGetArrayID(), startCb, endCb, -1, false);
checkErrors();
}
