QString Task::toText() const {
QString timeString = timeToString(getTotalTime());
return QString("%1 (%2)")
.arg(getName())
.arg(timeString);
}
void UpdateThreadContext::update()
{
lastTime = currentTime;
currentTime = timeGetRaw();
lastTicks = currentTicks;
currentTicks = static_cast<uint64_t>(getTotalTime() / getTickTime());
}
float ElapsedTimer::getTime() const
{
assert(m_startTime != YAM_TIME_TYPE(-1) ); // You must call reset atleast once before first call to getTime.
YAM_TIME_TYPE curTime = getTotalTime();
float deltaTime = float(curTime-m_startTime)/float(getTimeScale());
assert( deltaTime >= 0.0f ); // WTF?
return deltaTime;
}
SkeletalAnimation::SkeletalAnimation(const InitInfo &initInfo, const Skeleton &owner) :
skeleton(owner),
totalTime(getTotalTime(initInfo.keyframeSequences))
{
HASSERT(initInfo.keyframeSequences.size() == owner.numJoints);
keyframeSequences = uninitializedAlloc<SkeletonJointKeyframeSequence>(initInfo.keyframeSequences.size());
for (uint i = 0; i < initInfo.keyframeSequences.size(); i++)
new(&keyframeSequences[i]) SkeletonJointKeyframeSequence(initInfo.keyframeSequences[i]);
}
int readFromPipe(int inputPipe, char * buffer, int * terminalPid, TerminalList * termlist) {
int len;
int op;
int statsPipe;
double totalTime;
TESTTRUE((read(inputPipe, &op, sizeof(int))==sizeof(int)), "Erro no formato do pipe (" _AT_ ")\n");
printf("\nNew operation:\n");
printf("op: %d\n", op);
if (op==0) {
TESTTRUE((read(inputPipe, &len, sizeof(int)) == sizeof(int)), "Erro no formato do pipe (" _AT_ ")\n");
printf("len: %d\n", len);
TESTTRUE((read(inputPipe, terminalPid, sizeof(int)) == sizeof(int)), "Erro no formato do pipe (" _AT_ ")\n");
printf("pid: %d\n", *terminalPid);
TESTTRUE((read(inputPipe, buffer, len) == len), "Erro no formato do pipe (" _AT_ ")\n");
buffer[len]=0;
return 0;
} else if (op==1) { //informacao que foi criado um novo terminal
TESTTRUE((read(inputPipe, terminalPid, sizeof(int)) == sizeof(int)), "Erro no formato do pipe (" _AT_ ")\n");
lst_insert(termlist, *terminalPid);
printf("pid: %d\n", *terminalPid);
return 1;
} else if (op==2) { //informacao que foi fechado um terminal
TESTTRUE((read(inputPipe, terminalPid, sizeof(int)) == sizeof(int)), "Erro no formato do pipe (" _AT_ ")\n");
lst_remove(termlist, *terminalPid);
printf("pid: %d\n", *terminalPid);
return 2;
} else if (op==3) { //informacao que e para se fechar a par-shell
exitCalled = 1;
return 3;
} else if (op==4) {//recebeu um stats
TESTTRUE((read(inputPipe, &len, sizeof(int)) == sizeof(int)), "Erro no formato do pipe (" _AT_ ")\n");
printf("len: %d\n", len);
TESTTRUE((read(inputPipe, terminalPid, sizeof(int)) == sizeof(int)), "Erro no formato do pipe (" _AT_ ")\n");
printf("pid: %d\n", *terminalPid);
TESTTRUE((read(inputPipe, buffer, len) == len), "Erro no formato do pipe (" _AT_ ")\n");
buffer[len]=0;
if ((statsPipe = open(buffer, O_WRONLY)) < 0) {
fprintf(stderr, "Erro ao abrir o ficheiro de output " INPUT_FILE "\n");
exit(EXIT_FAILURE);
}
totalTime = getTotalTime();
if (write(statsPipe, (char*)&runningProcesses, sizeof(int)) != sizeof(int)) {
fprintf(stderr, "Warning: erro a escrever para um pipe\n");
}
if (write(statsPipe, (char*)&totalTime, sizeof(double)) != sizeof(double)) {
fprintf(stderr, "Warning: erro a escrever para um pipe \n");
}
if (close(statsPipe)) {
fprintf(stderr, "Warning: erro ao fechar um pipe \n");
}
return 4;
}
fprintf(stderr,"Warning: Unknown operator!\n");
return -1;
}
void
ILSGlobalSolverSequential::optimize (vector < ROUTE_DATA_TYPE > &route, int once) {
unsigned long temp;
INIT_TRACEF temp = routeLength (route, coords);
bestGlobalMinimaLengths.push_back (temp);
bestGlobalMinima.push_back (route);
trace ("[%s] Initial minimum (%ld) -> Length: %ld = %.5f%% of the target\n",
localSolver->getDescription().c_str(), bestGlobalMinima.size(),
bestGlobalMinimaLengths.back(),
100.0 * (double) bestGlobalMinimaLengths.back() / (double) solution);
tracef ("%ld, %.5f\n", bestGlobalMinimaLengths.back(),
100.0 * (double) bestGlobalMinimaLengths.back() / (double) solution);
do {
localSolver->optimize (route, bestGlobalMinimaLengths);
temp = routeLength (route, coords);
if (temp < bestGlobalMinimaLengths.back() ) {
bestGlobalMinimaLengths.push_back (temp);
bestGlobalMinima.push_back (route);
trace
("[%s] New global minimum (%ld) -> Length: %ld = %.5f%% of the target\n",
localSolver->getDescription().c_str(), bestGlobalMinima.size(),
bestGlobalMinimaLengths.back(),
100.0 * (double) bestGlobalMinimaLengths.back() /
(double) solution);
tracef ("%ld, %.5f\n", bestGlobalMinimaLengths.back(),
100.0 * (double) bestGlobalMinimaLengths.back() /
(double) solution);
} else {
route = bestGlobalMinima.back();
}
if (once == 1)
break;
randomPerturbation (route);
} while ( (solution * (1.0f + error) < bestGlobalMinimaLengths.back() )
&& (timelimit == 0 || (getTotalTime() < timelimit) ) );
}
VideoFrame VideoBuffer::getVideoFrame(float pct){
return getVideoFrame(getLastTimestamp()-(getInitTime()+getTotalTime()*pct));
}
void MPlayerMediaWidget::readStandardOutput()
{
QByteArray data = process.readAllStandardOutput();
standardError.write(data); // forward
standardError.flush();
if ((data == "\n") || (data.indexOf("\n\n") >= 0)) {
process.write("pausing_keep_force get_property path\n");
}
bool videoPropertiesChanged = false;
QStringList audioStreams = getAudioStreams();
bool audioStreamsChanged = false;
QStringList subtitles = getSubtitles();
bool subtitlesChanged = false;
foreach (const QByteArray &line, data.split('\n')) {
if (line.startsWith("VO: ")) {
videoPropertiesChanged = true;
continue;
}
if (line.startsWith("audio stream: ")) {
int begin = 14;
int end = line.indexOf(' ', begin);
if (end < 0) {
end = line.size();
}
int audioStreamIndex = line.mid(begin, end - begin).toInt();
while (audioStreams.size() < audioStreamIndex) {
audioStreams.append(QString::number(audioStreams.size() + 1));
}
while (audioIds.size() < audioStreamIndex) {
audioIds.append(-1);
}
audioStreams.erase(audioStreams.begin() + audioStreamIndex,
audioStreams.end());
audioIds.erase(audioIds.begin() + audioStreamIndex, audioIds.end());
QString audioStream;
begin = line.indexOf("language: ");
if (begin >= 0) {
begin += 10;
end = line.indexOf(' ', begin);
if (end < 0) {
end = line.size();
}
audioStream = line.mid(begin, end - begin);
}
if (audioStream.isEmpty()) {
audioStream = QString::number(audioStreams.size() + 1);
}
int audioId = -1;
begin = line.indexOf("aid: ");
if (begin >= 0) {
begin += 5;
end = line.indexOf('.', begin);
if (end < 0) {
end = line.size();
}
audioId = line.mid(begin, end - begin).toInt();
}
audioStreams.append(audioStream);
audioIds.append(audioId);
audioStreamsChanged = true;
continue;
}
if (line.startsWith("subtitle ")) {
int begin = line.indexOf("( sid ): ");
if (begin < 0) {
continue;
}
begin += 9;
int end = line.indexOf(' ', begin);
if (end < 0) {
end = line.size();
}
int subtitleIndex = line.mid(begin, end - begin).toInt();
while (subtitles.size() < subtitleIndex) {
subtitles.append(QString::number(subtitles.size() + 1));
}
subtitles.erase(subtitles.begin() + subtitleIndex, subtitles.end());
QString subtitle;
begin = line.indexOf("language: ");
if (begin >= 0) {
begin += 10;
end = line.indexOf(' ', begin);
if (end < 0) {
end = line.size();
}
subtitle = line.mid(begin, end - begin);
}
if (subtitle.isEmpty()) {
subtitle = QString::number(subtitles.size() + 1);
}
subtitles.append(subtitle);
subtitlesChanged = true;
continue;
}
if (line == "ANS_path=(null)") {
switch (getPlaybackStatus()) {
case MediaWidget::Idle:
break;
case MediaWidget::Playing:
case MediaWidget::Paused:
playbackFinished();
break;
}
resetState();
continue;
}
if (line.startsWith("ANS_length=")) {
int totalTime = (line.mid(11).toFloat() * 1000 + 0.5);
updateCurrentTotalTime(getCurrentTime(), totalTime);
continue;
}
if (line.startsWith("ANS_time_pos=")) {
int currentTime = (line.mid(13).toFloat() * 1000 + 0.5);
updateCurrentTotalTime(currentTime, getTotalTime());
continue;
}
if (line.startsWith("ANS_width=")) {
videoWidth = line.mid(10).toInt();
if (videoWidth < 0) {
videoWidth = 0;
}
continue;
}
if (line.startsWith("ANS_height=")) {
videoHeight = line.mid(11).toInt();
if (videoHeight < 0) {
videoHeight = 0;
}
continue;
}
if (line.startsWith("ANS_aspect=")) {
videoAspectRatio = line.mid(11).toFloat();
if ((videoAspectRatio > 0.01) && (videoAspectRatio < 100)) {
// ok
} else {
videoAspectRatio = (videoWidth / float(videoHeight));
if ((videoAspectRatio > 0.01) && (videoAspectRatio < 100)) {
// ok
} else {
videoAspectRatio = 1;
}
}
updateVideoWidgetGeometry();
continue;
}
if (line.startsWith("ANS_switch_audio=")) {
int audioId = line.mid(17).toInt();
updateCurrentAudioStream(audioIds.indexOf(audioId));
continue;
}
if (line.startsWith("ANS_sub=")) {
int currentSubtitle = line.mid(8).toInt();
updateCurrentSubtitle(currentSubtitle);
continue;
}
}
if (videoPropertiesChanged) {
process.write("pausing_keep_force get_property width\n"
"pausing_keep_force get_property height\n"
"pausing_keep_force get_property aspect\n");
}
if (audioStreamsChanged) {
updateAudioStreams(audioStreams);
process.write("pausing_keep_force get_property switch_audio\n");
}
if (subtitlesChanged) {
updateSubtitles(subtitles);
process.write("pausing_keep_force get_property sub\n");
}
}
AudioFrame * myAudioBuffer::getAudioFrame(float pct) {
return getAudioFrame(getLastTimestamp()-(getInitTime()+getTotalTime()*pct));
}
void
ILSGlobalSolverMT::optimize (vector < ROUTE_DATA_TYPE > &route, int once) {
unsigned long temp;
INIT_TRACEF temp = routeLength (route, coords);
bestLocalMinimaLengths.push_back (temp);
bestLocalMinima.push_back (route);
// initial solution
if (bestGlobalMinimaLengths.empty() ) {
pthread_mutex_lock (&globalRouteMutex);
if (bestGlobalMinimaLengths.empty() ) {
bestGlobalMinimaLengths.push_back (temp);
bestGlobalMinima.push_back (route);
if (comm == 1) {
trace
("[%s] Initial global minimum (%ld) -> Length: %ld = %.5f%% of the target\n",
localSolver->getDescription().c_str(), bestGlobalMinima.size(),
bestGlobalMinimaLengths.back(),
100.0 * (double) bestGlobalMinimaLengths.back() /
(double) solution);
tracef ("%ld, %.5f\n", bestGlobalMinimaLengths.back(),
100.0 * (double) bestGlobalMinimaLengths.back() /
(double) solution);
}
}
pthread_mutex_unlock (&globalRouteMutex);
}
if (comm != 1) {
trace
("[%s] Initial local minimum (%ld) -> Length: %ld = %.5f%% of the target\n",
localSolver->getDescription().c_str(), bestLocalMinima.size(),
bestLocalMinimaLengths.back(),
100.0 * (double) bestLocalMinimaLengths.back() / (double) solution);
tracef ("%ld, %.5f\n", bestLocalMinimaLengths.back(),
100.0 * (double) bestLocalMinimaLengths.back() / (double) solution);
}
do {
if (comm == 1) {
// read the best solution
if (bestGlobalMinimaLengths.back() < bestGlobalMinimaLengths.back() ) {
bestGlobalMinimaLengths.push_back (bestGlobalMinimaLengths.back() );
bestGlobalMinima.push_back (bestGlobalMinima.back() );
route = bestGlobalMinima.back();
}
}
localSolver->optimize (route, bestGlobalMinimaLengths);
temp = routeLength (route, coords);
if (temp < bestLocalMinimaLengths.back() ) {
bestLocalMinimaLengths.push_back (temp);
bestLocalMinima.push_back (route);
if (comm != 1 && !args->showLocalOptimizationInfo) {
trace
("[%s] New local minimum (%ld) -> Length: %ld = %.5f%% of the target\n",
localSolver->getDescription().c_str(), bestLocalMinima.size(),
bestLocalMinimaLengths.back(),
100.0 * (double) bestLocalMinimaLengths.back() /
(double) solution);
tracef ("%ld, %.5f\n", bestLocalMinimaLengths.back(),
100.0 * (double) bestLocalMinimaLengths.back() /
(double) solution);
}
if (temp < bestGlobalMinimaLengths.back() ) {
pthread_mutex_lock (&globalRouteMutex);
if (temp < bestGlobalMinimaLengths.back() ) {
bestGlobalMinimaLengths.push_back (temp);
bestGlobalMinima.push_back (route);
if ( (comm == 1 || args->pthreads > 1)
&& !args->showLocalOptimizationInfo) {
trace
("[%s] New global minimum (%ld) -> Length: %ld = %.5f%% of the target\n",
localSolver->getDescription().c_str(),
bestGlobalMinima.size(), bestGlobalMinimaLengths.back(),
100.0 * (double) bestGlobalMinimaLengths.back() /
(double) solution);
tracef ("%ld, %.5f\n", bestGlobalMinimaLengths.back(),
100.0 * (double) bestGlobalMinimaLengths.back() /
(double) solution);
}
}
pthread_mutex_unlock (&globalRouteMutex);
}
} else {
if (comm == 1) {
route = bestGlobalMinima.back();
} else {
route = bestLocalMinima.back();
}
}
if (once == 1)
break;
randomPerturbation (route);
} while ( (solution * (1.0f + error) < bestGlobalMinimaLengths.back() )
&& (timelimit == 0 || (getTotalTime() < timelimit) ) );
}
void GPUTrafficManager::_Step()
{
bool flits_in_flight = false;
for(int c = 0; c < _classes; ++c) {
flits_in_flight |= !_total_in_flight_flits[c].empty();
}
if(flits_in_flight && (_deadlock_timer++ >= _deadlock_warn_timeout)){
_deadlock_timer = 0;
cout << "WARNING: Possible network deadlock.\n";
}
vector<map<int, Flit *> > flits(_subnets);
for ( int subnet = 0; subnet < _subnets; ++subnet ) {
for ( int n = 0; n < _nodes; ++n ) {
Flit * const f = _net[subnet]->ReadFlit( n );
if ( f ) {
if(f->watch) {
*gWatchOut << GetSimTime() << " | "
<< "node" << n << " | "
<< "Ejecting flit " << f->id
<< " (packet " << f->pid << ")"
<< " from VC " << f->vc
<< "." << endl;
}
if(g_hpcl_comp_config.hpcl_comp_en == 0) {
g_icnt_interface->WriteOutBuffer(subnet, n, f);
//added by kh(030816)
g_hpcl_network_anal->add_sample(hpcl_network_anal::NORMAL_FLIT_NO, 1);
///
} else {
//added by kh (030816)
//(2.1.a) all reply flits (even write reply) are injected to decompressor for maintaining the order of flits.
//coming from the same vc
//Decompression: WRITE_REPLY should go through decomp, although no data is compressed.
//READ_REPLY = {f1,f2,f3,f4,f5}, WRITE_REPLY = {f6}
//Problematic case queue: f1,f2,f6,f3,f4,f5.
if(f->type == Flit::READ_REPLY || f->type == Flit::WRITE_REPLY) { //only sm receives
assert(g_hpcl_global_decomp_pl_2B[n]);
//inject a flit to decompressor
hpcl_comp_pl_data* pl_data = new hpcl_comp_pl_data;
pl_data->add_comp_pl_data(f);
g_hpcl_global_decomp_pl_2B[n]->set_input_data(pl_data);
//added by kh (030316)
//set vc info to compressed flits.
for(int i = 0; i < f->compressed_other_flits.size(); i++) {
Flit* cf = f->compressed_other_flits[i];
assert(cf);
cf->vc = f->vc;
}
///
//delete pl_data;
//added by kh (030816)
g_hpcl_network_anal->add_sample(hpcl_network_anal::NORMAL_FLIT_NO, 1);
if(f->compressed_other_flits.size() > 0) {
g_hpcl_network_anal->add_sample(hpcl_network_anal::READ_REPLY_COMP_FLIT_NO, f->compressed_other_flits.size()+1);
} else {
g_hpcl_network_anal->add_sample(hpcl_network_anal::READ_REPLY_UNCOMP_FLIT_NO, 1);
}
///
} else if(f->type == Flit::CTRL_MSG) { //(2.2.a) all ctrl flits are injected to decompressor
//std::cout << "f->id " << f->id << " f->src " << f->src << " f->dest " << f->dest << " node " << n << std::endl;
hpcl_comp_pl_data* pl_data = new hpcl_comp_pl_data;
pl_data->add_comp_pl_data(f);
g_hpcl_global_decomp_pl_2B[n]->set_input_data(pl_data);
//added by kh (030816)
g_hpcl_network_anal->add_sample(hpcl_network_anal::CTRL_FLIT_NO,1);
///
} else {
g_icnt_interface->WriteOutBuffer(subnet, n, f);
//added by kh (030816)
g_hpcl_network_anal->add_sample(hpcl_network_anal::NORMAL_FLIT_NO, 1);
///
}
///
}
}
g_icnt_interface->Transfer2BoundaryBuffer(subnet, n);
Flit* const ejected_flit = g_icnt_interface->GetEjectedFlit(subnet, n);
if (ejected_flit) {
if(ejected_flit->head)
assert(ejected_flit->dest == n);
if(ejected_flit->watch) {
*gWatchOut << GetSimTime() << " | "
<< "node" << n << " | "
<< "Ejected flit " << ejected_flit->id
<< " (packet " << ejected_flit->pid
<< " VC " << ejected_flit->vc << ")"
<< "from ejection buffer." << endl;
}
flits[subnet].insert(make_pair(n, ejected_flit));
if((_sim_state == warming_up) || (_sim_state == running)) {
++_accepted_flits[ejected_flit->cl][n];
if(ejected_flit->tail) {
++_accepted_packets[ejected_flit->cl][n];
}
}
}
// Processing the credit From the network
Credit * const c = _net[subnet]->ReadCredit( n );
if ( c ) {
#ifdef TRACK_FLOWS
for(set<int>::const_iterator iter = c->vc.begin(); iter != c->vc.end(); ++iter) {
int const vc = *iter;
assert(!_outstanding_classes[n][subnet][vc].empty());
int cl = _outstanding_classes[n][subnet][vc].front();
_outstanding_classes[n][subnet][vc].pop();
assert(_outstanding_credits[cl][subnet][n] > 0);
--_outstanding_credits[cl][subnet][n];
}
#endif
_buf_states[n][subnet]->ProcessCredit(c);
c->Free();
}
}
_net[subnet]->ReadInputs( );
}
if(g_hpcl_comp_config.hpcl_comp_en == 1)
{
//added by kh (030816)
//(2.3) Decompressor
for(int i = 0; i < g_hpcl_global_decomp_pl_2B.size(); i++)
{
if(!g_hpcl_global_decomp_pl_2B[i]) continue;
g_hpcl_global_decomp_pl_2B[i]->run(getTime()+getTotalTime());
hpcl_comp_pl_data* comp_pl_data = g_hpcl_global_decomp_pl_2B[i]->get_output_data();
Flit* flit = comp_pl_data->get_flit_ptr();
if(flit) {
int subnet = 0;
assert(flit->const_dest == i);
//std::cout << "Flit " << flit->id << " type " << flit->type << " is out from decomp" << std::endl;
/*
std::cout << GetSimTime() << "| MYEJECT | node " << i << " Flit " << flit->id << " type " << flit->type << " tail " << flit->tail << " vc " << flit->vc;
if(flit->type == Flit::ANY_TYPE) std::cout << " ctrl " << std::endl;
else std::cout << " mf " << ((mem_fetch*)flit->data)->get_request_uid() << std::endl;
*/
//std::cout << "Flit " << flit->id << " enc_status " << flit->m_enc_status;
#ifdef CORRECTNESS_CHECK
if(flit->m_enc_status == 1) {
std::cout << "dec_status " << flit->check_correctness() << std::endl;
if(flit->check_correctness() == false) {
printf("flit %d has incorrect decoding!\n", flit->id);
printf("\traw_data = ");
for(int k = flit->raw_data.size()-1; k >=0; k--) {
printf("%02x", flit->raw_data[k]);
}
printf("\n");
printf("\tdec_data = ");
for(int k = flit->decomp_data.size()-1; k >=0; k--) {
printf("%02x", flit->decomp_data[k]);
}
printf("\n");
}
}
#endif
g_icnt_interface->WriteOutBuffer(subnet, i, flit);
}
//reset output data
g_hpcl_global_decomp_pl_2B[i]->reset_output_data();
}
///
//added by kh (030816)
//(1.2.c) generate/inject ctrl flit is injected to NI injection buffer
for(int i = 0; i < g_hpcl_global_comp_pl_2B.size(); i++)
{
if(!g_hpcl_global_comp_pl_2B[i]) continue;
if(g_hpcl_global_comp_pl_2B[i]->has_out_dict_ctrl_msg() == false) continue;
if(g_hpcl_global_comp_pl_2B[i]->get_state() == hpcl_comp_pl<unsigned short>::HPCL_COMP_RUN) continue;
hpcl_dict_ctrl_msg<unsigned short>* ctrl_msg = g_hpcl_global_comp_pl_2B[i]->front_out_dict_ctrl_msg();
int packet_size = 1; //1 flit
Flit::FlitType packet_type = Flit::CTRL_MSG;
void* data = NULL;
assert(ctrl_msg->get_dest_node()>=0);
int subnet = 0;
int response_size = 32; //32bytes
//send ctrl from MC
int sender_device_id = -1;
if(g_mc_placement_config.is_mc_node(i)) {
sender_device_id = g_mc_placement_config.get_mc_node_index(i) + 56; //56 SMs and 8 MCs
}
assert(sender_device_id >= 0);
int sender_node_id = i;
int receiver_node_id = ctrl_msg->get_dest_node();
int receiver_device_id = g_mc_placement_config.get_sm_node_index(receiver_node_id);
assert(sender_node_id>=0);
assert(receiver_node_id>=0);
if(g_icnt_interface->HasBuffer(sender_device_id, response_size)) {
//std::cout << getTime()+getTotalTime() << " | " << " PUSH2 | " << " input " << sender_device_id << " output " << receiver_device_id << " ctrl_msg " << ctrl_msg->get_id();
//std::cout << std::endl;
_GeneratePacket(sender_node_id, -1, 0, getTime(), subnet, packet_size, packet_type, ctrl_msg, receiver_node_id);
g_hpcl_global_comp_pl_2B[i]->pop_out_dict_ctrl_msg();
// std::cout << "ctrl_msg | id " << ctrl_msg->get_id();
// std::cout << " | src_node " << ctrl_msg->get_src_node();
// std::cout << " | dest_node " << ctrl_msg->get_dest_node();
// std::cout << " | word_index " << ctrl_msg->get_word_index();
// std::cout << " | word " << ctrl_msg->get_new_word() << std::endl;;
//
// g_hpcl_global_comp_pl_2B[i]->validate_word(ctrl_msg->get_dest_node(), ctrl_msg->get_word_index(), ctrl_msg->get_new_word());
}
}
///
}
// GPGPUSim will generate/inject packets from interconnection interface
#if 0
if ( !_empty_network ) {
_Inject();
}
#endif
for(int subnet = 0; subnet < _subnets; ++subnet) {
for(int n = 0; n < _nodes; ++n) {
Flit * f = NULL;
BufferState * const dest_buf = _buf_states[n][subnet];
int const last_class = _last_class[n][subnet];
int class_limit = _classes;
if(_hold_switch_for_packet) {
list<Flit *> const & pp = _input_queue[subnet][n][last_class];
if(!pp.empty() && !pp.front()->head &&
!dest_buf->IsFullFor(pp.front()->vc)) {
f = pp.front();
assert(f->vc == _last_vc[n][subnet][last_class]);
// if we're holding the connection, we don't need to check that class
// again in the for loop
--class_limit;
}
}
for(int i = 1; i <= class_limit; ++i) {
int const c = (last_class + i) % _classes;
list<Flit *> const & pp = _input_queue[subnet][n][c];
if(pp.empty()) {
continue;
}
Flit * const cf = pp.front();
assert(cf);
assert(cf->cl == c);
assert(cf->subnetwork == subnet);
if(g_hpcl_comp_config.hpcl_comp_en == 1) {
//added by kh (030816)
//If compressor is busy with compressing flits of a packet,
//don't inject a head flit of a new packet to the busy compressor
//compressor is only for read reply, but write reply goes through the compressor to avoid intermixed flits from different packets
//Thus, the following filtering is not restricted to read reply, thus we have no flit type checking to read reply.
if(g_mc_placement_config.is_mc_node(n) == true && cf->head == true) {
if(g_hpcl_global_comp_pl_2B[n] && g_hpcl_global_comp_pl_2B[n]->get_state() == hpcl_comp_pl<unsigned short>::HPCL_COMP_RUN) {
f = NULL;
break;
}
}
///
}
if(f && (f->pri >= cf->pri)) {
continue;
}
//KH: routing output port is decided here.
if(cf->head && cf->vc == -1) { // Find first available VC
//std::cout << "_Step is called!!!!" << std::endl;
//assert(1 == 0);
OutputSet route_set;
_rf(NULL, cf, -1, &route_set, true);
set<OutputSet::sSetElement> const & os = route_set.GetSet();
assert(os.size() == 1);
OutputSet::sSetElement const & se = *os.begin();
assert(se.output_port == -1);
int vc_start = se.vc_start;
int vc_end = se.vc_end;
int vc_count = vc_end - vc_start + 1;
if(_noq) {
assert(_lookahead_routing);
const FlitChannel * inject = _net[subnet]->GetInject(n);
const Router * router = inject->GetSink();
assert(router);
int in_channel = inject->GetSinkPort();
// NOTE: Because the lookahead is not for injection, but for the
// first hop, we have to temporarily set cf's VC to be non-negative
// in order to avoid seting of an assertion in the routing function.
cf->vc = vc_start;
_rf(router, cf, in_channel, &cf->la_route_set, false);
cf->vc = -1;
if(cf->watch) {
*gWatchOut << GetSimTime() << " | "
<< "node" << n << " | "
<< "Generating lookahead routing info for flit " << cf->id
<< " (NOQ)." << endl;
}
set<OutputSet::sSetElement> const sl = cf->la_route_set.GetSet();
assert(sl.size() == 1);
int next_output = sl.begin()->output_port;
vc_count /= router->NumOutputs();
vc_start += next_output * vc_count;
vc_end = vc_start + vc_count - 1;
assert(vc_start >= se.vc_start && vc_start <= se.vc_end);
assert(vc_end >= se.vc_start && vc_end <= se.vc_end);
assert(vc_start <= vc_end);
}
if(cf->watch) {
*gWatchOut << GetSimTime() << " | " << FullName() << " | "
<< "Finding output VC for flit " << cf->id
<< ":" << endl;
}
for(int i = 1; i <= vc_count; ++i) {
int const lvc = _last_vc[n][subnet][c];
int const vc =
(lvc < vc_start || lvc > vc_end) ?
vc_start :
(vc_start + (lvc - vc_start + i) % vc_count);
assert((vc >= vc_start) && (vc <= vc_end));
if(!dest_buf->IsAvailableFor(vc)) {
if(cf->watch) {
*gWatchOut << GetSimTime() << " | " << FullName() << " | "
<< " Output VC " << vc << " is busy." << endl;
}
} else {
if(dest_buf->IsFullFor(vc)) {
if(cf->watch) {
*gWatchOut << GetSimTime() << " | " << FullName() << " | "
<< " Output VC " << vc << " is full." << endl;
}
} else {
if(cf->watch) {
*gWatchOut << GetSimTime() << " | " << FullName() << " | "
<< " Selected output VC " << vc << "." << endl;
}
cf->vc = vc;
break;
}
}
}
}
if(cf->vc == -1) {
if(cf->watch) {
*gWatchOut << GetSimTime() << " | " << FullName() << " | "
<< "No output VC found for flit " << cf->id
<< "." << endl;
}
} else {
if(dest_buf->IsFullFor(cf->vc)) {
if(cf->watch) {
*gWatchOut << GetSimTime() << " | " << FullName() << " | "
<< "Selected output VC " << cf->vc
<< " is full for flit " << cf->id
<< "." << endl;
}
} else {
f = cf;
}
}
}
if(f) {
assert(f->subnetwork == subnet);
int const c = f->cl;
if(f->head) {
if (_lookahead_routing) {
if(!_noq) {
const FlitChannel * inject = _net[subnet]->GetInject(n);
const Router * router = inject->GetSink();
assert(router);
int in_channel = inject->GetSinkPort();
_rf(router, f, in_channel, &f->la_route_set, false);
if(f->watch) {
*gWatchOut << GetSimTime() << " | "
<< "node" << n << " | "
<< "Generating lookahead routing info for flit " << f->id
<< "." << endl;
}
} else if(f->watch) {
*gWatchOut << GetSimTime() << " | "
<< "node" << n << " | "
<< "Already generated lookahead routing info for flit " << f->id
<< " (NOQ)." << endl;
}
} else {
f->la_route_set.Clear();
}
dest_buf->TakeBuffer(f->vc);
_last_vc[n][subnet][c] = f->vc;
}
_last_class[n][subnet] = c;
_input_queue[subnet][n][c].pop_front();
#ifdef TRACK_FLOWS
++_outstanding_credits[c][subnet][n];
_outstanding_classes[n][subnet][f->vc].push(c);
#endif
if(g_hpcl_comp_config.hpcl_comp_en == 0) {
dest_buf->SendingFlit(f);
} else {
//added by kh(030816)
//(1.1.a) send a head flit first: update buffer state
if(g_mc_placement_config.is_mc_node(n) == true && f->type == Flit::READ_REPLY) {
if(f->head) dest_buf->SendingFlit(f);
//skip for other flits
} else {
dest_buf->SendingFlit(f);
}
///
}
if(_pri_type == network_age_based) {
f->pri = numeric_limits<int>::max() - _time;
assert(f->pri >= 0);
}
if(f->watch) {
*gWatchOut << GetSimTime() << " | "
<< "node" << n << " | "
<< "Injecting flit " << f->id
<< " into subnet " << subnet
<< " at time " << _time
<< " with priority " << f->pri
<< "." << endl;
}
f->itime = _time;
// Pass VC "back"
if(!_input_queue[subnet][n][c].empty() && !f->tail) {
Flit * const nf = _input_queue[subnet][n][c].front();
nf->vc = f->vc;
}
if((_sim_state == warming_up) || (_sim_state == running)) {
++_sent_flits[c][n];
//added by kh(070215)
++_sent_flits_net[subnet][n];
if(f->head) {
++_sent_packets[c][n];
//added by kh(030816)
if(f->type < Flit::ANY_TYPE) {
//added by kh(121715)
if(g_mc_placement_config.is_sm_node(n)) {
((mem_fetch*)f->data)->set_status(HEAD_FLIT_INJECTED_TO_INJECT_BUF_IN_SM, _time);
//added by kh(122815)
double req_queuing_lat_in_sm = _time - ((mem_fetch*)f->data)->get_timestamp(HEAD_FLIT_INJECTED_TO_NI_INPUT_BUF_IN_SM);
g_hpcl_network_anal->add_sample(hpcl_network_anal::REQ_QUEUING_LAT_IN_SM, req_queuing_lat_in_sm);
///
} else if(g_mc_placement_config.is_mc_node(n)) {
((mem_fetch*)f->data)->set_status(HEAD_FLIT_INJECTED_TO_INJECT_BUF_IN_MEM, _time);
//added by kh(122815)
double rep_queuing_lat_in_mc = _time - ((mem_fetch*)f->data)->get_timestamp(HEAD_FLIT_INJECTED_TO_NI_INPUT_BUF_IN_MEM);
g_hpcl_network_anal->add_sample(hpcl_network_anal::REP_QUEUING_LAT_IN_MC, rep_queuing_lat_in_mc);
///
}
///
}
}
}
#ifdef TRACK_FLOWS
++_injected_flits[c][n];
#endif
if(g_hpcl_comp_config.hpcl_comp_en == 0) {
_net[subnet]->WriteFlit(f, n);
} else {
//added by kh (021416)
//Compression
//(1.1.b) flits but a head flit are injected to the compressor
if(g_mc_placement_config.is_mc_node(n) == true && f->type == Flit::READ_REPLY) {
hpcl_comp_pl_data* pl_data = NULL;
//A head flit is found. It means other flits are in _input_queue now.
//flits move from _input_queue to compressor by force.
//Those flits are sent to network in different paths such that we set info for
//flit navigation here.
if(f->head == true) {
assert(!_input_queue[subnet][n][c].empty());
Flit * body_flit = _input_queue[subnet][n][c].front();
_input_queue[subnet][n][c].pop_front();
if(_pri_type == network_age_based) {
body_flit->pri = numeric_limits<int>::max() - _time;
assert(body_flit->pri >= 0);
}
body_flit->itime = _time;
// Pass VC "back" for next flit
if(!_input_queue[subnet][n][c].empty() && !body_flit->tail) {
Flit * const nf = _input_queue[subnet][n][c].front();
nf->vc = body_flit->vc;
}
++_sent_flits[c][n];
++_sent_flits_net[subnet][n];
pl_data = new hpcl_comp_pl_data;
pl_data->add_comp_pl_data(body_flit);
g_hpcl_global_comp_pl_2B[n]->set_input_data(pl_data);
//delete pl_data;
//(1.1.a) send a head flit first
_net[subnet]->WriteFlit(f, n);
} else {
pl_data = new hpcl_comp_pl_data;
pl_data->add_comp_pl_data(f);
g_hpcl_global_comp_pl_2B[n]->set_input_data(pl_data);
//delete pl_data;
}
//(1.2.a) words in a flit are pushed to a queue in a compressor
if(pl_data) {
Flit* flit = pl_data->get_flit_ptr();
assert(flit);
//Use receiver's id as global dict index
int global_dict_index = flit->const_dest;
//Push words to be updated to word_queue (this is done at zero-time)
vector<unsigned short> word_list;
g_hpcl_global_comp_pl_2B[n]->decompose(flit->raw_data, word_list);
for(int i = 0; i < word_list.size(); i++)
g_hpcl_global_comp_pl_2B[n]->push_word_to_queue(word_list[i], global_dict_index);
delete pl_data;
}
} else if (g_mc_placement_config.is_mc_node(n) == true && f->type == Flit::CTRL_MSG) {
hpcl_dict_ctrl_msg<unsigned short>* ctrl_msg = (hpcl_dict_ctrl_msg<unsigned short>*)f->data;
/*
std::cout << "ctrl_msg | id " << ctrl_msg->get_id();
std::cout << " | src_node " << ctrl_msg->get_src_node();
std::cout << " | dest_node " << ctrl_msg->get_dest_node();
std::cout << " | word_index " << ctrl_msg->get_word_index();
std::cout << " | word " << ctrl_msg->get_new_word();
std::cout << " | n " << n;
std::cout << std::endl;;
*/
g_hpcl_global_comp_pl_2B[n]->release_word(ctrl_msg->get_dest_node(), ctrl_msg->get_word_index(), ctrl_msg->get_new_word());
g_hpcl_global_comp_pl_2B[n]->validate_word(ctrl_msg->get_dest_node(), ctrl_msg->get_word_index(), ctrl_msg->get_new_word());
_net[subnet]->WriteFlit(f, n);
} else {
_net[subnet]->WriteFlit(f, n);
}
///
}
}
}
}
if(g_hpcl_comp_config.hpcl_comp_en == 1) {
//added by kh(030816)
//(1.3) Compression: Pipelined Compression
for(int i = 0; i < g_hpcl_global_comp_pl_2B.size(); i++)
{
if(!g_hpcl_global_comp_pl_2B[i]) continue;
//(1.2.b) words in the queue are updated to dictionary, when idle state
//(1.2.d) ctrl msgs for words with frequency (>= threshold) are generated in compressor's run function, when idle state
g_hpcl_global_comp_pl_2B[i]->run(getTime()+getTotalTime());
hpcl_comp_pl_data* comp_pl_rsl = g_hpcl_global_comp_pl_2B[i]->get_output_data();
Flit* flit = comp_pl_rsl->get_flit_ptr();
if(flit) {
//std::cout << "node " << i << " flit->id " << flit->id << std::endl;
//(1.1.c) flits are injected from the compressor to an input buffer
if(HasBufferSpace(i, flit)) {
SendFlitToBuffer(i, flit); //for credit management.
SendFlitToNetwork(i, flit);
//std::cout << "\t" << " send flit " << flit->id << std::endl;
if(g_hpcl_global_comp_pl_2B[i]->get_comp_done() == true)
{
assert(g_hpcl_global_comp_pl_2B[i]->get_state() == hpcl_comp_pl<unsigned short>::HPCL_COMP_RUN);
g_hpcl_global_comp_pl_2B[i]->set_state(hpcl_comp_pl<unsigned short>::HPCL_COMP_IDLE);
g_hpcl_global_comp_pl_2B[i]->reset_comp_done();
}
//reset output data
g_hpcl_global_comp_pl_2B[i]->reset_output_data();
} else {
//std::cout << "\t" << " cannot send flit " << flit->id << " due to no space!!!!!!!!!!" << std::endl;
}
}
}
///
}
//Send the credit To the network
for(int subnet = 0; subnet < _subnets; ++subnet) {
for(int n = 0; n < _nodes; ++n) {
map<int, Flit *>::const_iterator iter = flits[subnet].find(n);
if(iter != flits[subnet].end()) {
Flit * const f = iter->second;
f->atime = _time;
//added by kh(070715)
if(f->tail) {
//added by kh(030816)
if(f->type < Flit::ANY_TYPE) {
//added by kh(121715)
if(g_mc_placement_config.is_sm_node(n)) {
//std::cout << "mf's id: " << ((mem_fetch*)f->data)->get_request_uid() << ", time: " << _time << std::endl;
((mem_fetch*)f->data)->set_status(TAIL_FLIT_EJECTED_FROM_EJECT_BUF_IN_SM, _time);
//added by kh(122815)
double rep_net_lat = _time - ((mem_fetch*)f->data)->get_timestamp(HEAD_FLIT_INJECTED_TO_INJECT_BUF_IN_MEM);
g_hpcl_network_anal->add_sample(hpcl_network_anal::REP_NET_LAT, rep_net_lat);
///
} else if(g_mc_placement_config.is_mc_node(n)) {
((mem_fetch*)f->data)->set_status(TAIL_FLIT_EJECTED_FROM_EJECT_BUF_IN_MEM, _time);
//added by kh(122815)
double req_net_lat = _time - ((mem_fetch*)f->data)->get_timestamp(HEAD_FLIT_INJECTED_TO_INJECT_BUF_IN_SM);
g_hpcl_network_anal->add_sample(hpcl_network_anal::REQ_NET_LAT, req_net_lat);
///
}
}
}
///
if(f->watch) {
*gWatchOut << GetSimTime() << " | "
<< "node" << n << " | "
<< "Injecting credit for VC " << f->vc
<< " into subnet " << subnet
<< "." << endl;
}
if(g_hpcl_comp_config.hpcl_comp_en == 0) {
Credit * const c = Credit::New();
c->vc.insert(f->vc);
_net[subnet]->WriteCredit(c, n);
} else {
//added by kh(030816)
if(f->type == Flit::READ_REPLY) {
if(f->tail == false && f->m_enc_status == 1) {
} else {
Credit * const c = Credit::New();
c->vc.insert(f->vc);
_net[subnet]->WriteCredit(c, n);
//std::cout << "\tf->vc " << f->vc << " f->id " << f->id << std::endl;
}
} else {
Credit * const c = Credit::New();
c->vc.insert(f->vc);
_net[subnet]->WriteCredit(c, n);
}
///
}
#ifdef TRACK_FLOWS
++_ejected_flits[f->cl][n];
#endif
_RetireFlit(f, n);
}
}
flits[subnet].clear();
// _InteralStep here
_net[subnet]->Evaluate( ); //run router's pipeline
_net[subnet]->WriteOutputs( ); //send flits..
}
++_time;
assert(_time);
if(gTrace){
cout<<"TIME "<<_time<<endl;
}
}
//--------------------------------------------------------------
void SequenceRamses::setFrameForTime(float time)
{
return setFrameAtPercent(time / getTotalTime());
}
void ElapsedTimer::reset()
{
m_startTime = getTotalTime();
}
void Application::run()
{
mWindow.create(sf::VideoMode(800, 600), "MiniLD 61");
#ifdef NDEBUG
mWindow.setFramerateLimit(200);
#endif
mGameView = sf::View(sf::Vector2f(), sf::Vector2f(2048, 2500));
mUIView = mWindow.getDefaultView();
{
sf::Vector2f size = (sf::Vector2f)mWindow.getSize();
mUIView.setSize(size);
mUIView.setCenter(size / 2.f);
mGameView.setSize(mGameView.getSize().y * (size.x / size.y), mGameView.getSize().y);
}
#ifdef NDEBUG
mState.changeState<IntroState>();
#else
mState.changeState<MenuState>();
static_cast<MenuState*>(mState.getCurrentState())->pushPane(new MainMenuPane);
#endif
sf::Clock frameTimer;
sf::Event ev;
sf::Text profilingText("", sf::getDefaultFont(), 10U);
float dt, extraDT = 0;
float totalTime = 0;
{ // Prime the profiling tree
PROFILE_NAMED("Frame");
{ PROFILE_NAMED("Tick"); }
{ PROFILE_NAMED("Update"); }
{ PROFILE_NAMED("Draw"); }
} Profiler::resetBlocks();
auto root = Profiler::getRoot()->getChild("Frame");
while (mWindow.isOpen())
{ Profiler::startBlock("Frame");
dt = frameTimer.restart().asSeconds();
extraDT += dt;
while (mWindow.pollEvent(ev))
{ PROFILE_NAMED("Events");
mState.handle_event(ev);
if (ev.type == sf::Event::Resized)
{
sf::Vector2f size(ev.size.width, ev.size.height);
mUIView.setSize(size);
mUIView.setCenter(size / 2.f);
mGameView.setSize(mGameView.getSize().y * (size.x / size.y), mGameView.getSize().y);
}
else if (ev.type == sf::Event::Closed)
mWindow.close();
}
while (extraDT >= TICK_LENGTH)
{ PROFILE_NAMED("Tick");
mState.fixed_update(TICK_LENGTH);
extraDT -= TICK_LENGTH;
}
PROFILE_CALL("Update", mState.variadic_update(dt));
mWindow.clear();
mWindow.setView(mGameView);
PROFILE_CALL("Draw", mState.draw(mWindow));
mWindow.setView(mUIView);
PROFILE_CALL("DrawUI", mState.drawUI(mWindow));
mWindow.draw(profilingText);
mWindow.display();
Profiler::endBlock(); // Frame
if (root->getTotalTime() >= std::chrono::seconds(1))
{
std::ostringstream oss;
oss << *root << std::endl;
profilingText.setString(oss.str());
Profiler::resetBlocks();
}
// State manager is without state, might as well die nicely
if (mState.getCurrentState() == nullptr)
mWindow.close();
}
}
void Simulation::draw(render::Context& context)
{
context.setStencilBuffer(getWorldSize().getWidth().value(), getWorldSize().getHeight().value());
// Render modules
m_modules.draw(*this, context);
// Draw objects
for (auto& obj : m_objects)
{
Assert(obj);
if (obj->isVisible())
obj->draw(context);
}
#if defined(CECE_ENABLE_RENDER) && defined(CECE_ENABLE_BOX2D_PHYSICS) && defined(CECE_ENABLE_BOX2D_PHYSICS_DEBUG)
if (isDrawPhysics())
m_world.DrawDebugData();
#endif
#if CONFIG_RENDER_TEXT_ENABLE
context.disableStencilBuffer();
if (isSimulationTimeRender())
{
if (!m_font)
{
m_font.create(context, g_fontData);
m_font->setSize(getFontSize());
}
OutStringStream oss;
{
auto time = getTotalTime().value();
unsigned int seconds = time;
unsigned int milliseconds = static_cast<unsigned int>(time * 1000) % 1000;
const unsigned int hours = seconds / (60 * 60);
seconds %= (60 * 60);
const unsigned int minutes = seconds / 60;
seconds %= 60;
if (hours)
{
oss << std::setw(2) << std::setfill('0') << hours << ":";
oss << std::setw(2) << std::setfill('0') << minutes << ":";
}
else if (minutes)
{
oss << std::setw(2) << std::setfill('0') << minutes << ":";
}
oss << std::setw(2) << std::setfill('0') << seconds << ".";
oss << std::setw(3) << std::setfill('0') << milliseconds;
}
if (hasUnlimitedIterations())
{
oss << " (" << getIteration() << " / -)";
}
else
{
oss << " (" << getIteration() << " / " << getIterations() << ")";
}
m_font->draw(context, oss.str(), getFontColor());
}
#endif
}
bool Simulation::update(units::Duration dt)
{
// Initialize simulation
if (!isInitialized())
initialize();
// Increase step number
m_iteration++;
m_totalTime += dt;
// Clear all stored forces
for (auto& obj : m_objects)
obj->setForce(Zero);
// Update modules
updateModules(dt);
// Update objects
updateObjects(dt);
// Detect object that leaved the scene
detectDeserters();
// Delete unused objects
deleteObjects();
// Store data
if (m_dataOutObjects)
{
for (const auto& object : m_objects)
{
const auto pos = object->getPosition();
const auto vel = object->getVelocity();
*m_dataOutObjects <<
// iteration
getIteration() << ";" <<
// totalTime
getTotalTime() << ";" <<
// id
object->getId() << ";" <<
// typeName
object->getTypeName() << ";" <<
// posX
pos.getX() << ";" <<
// posY
pos.getY() << ";" <<
// velX
vel.getX() << ";" <<
// velY
vel.getY() << "\n"
;
}
}
#ifdef CECE_ENABLE_BOX2D_PHYSICS
{
auto _ = measure_time("sim.physics", TimeMeasurementIterationOutput(this));
m_world.Step(getPhysicsEngineTimeStep().value(), 10, 10);
}
#endif
return (hasUnlimitedIterations() || getIteration() <= getIterations());
}