static void TimeConstruction(int depth) {
long tStart, tFinish;
int iNumIters = NumIters(depth);
Node tempTree;
printf("Creating %d trees of depth %d\n", iNumIters, depth);
tStart = currentTime();
for (int i = 0; i < iNumIters; ++i) {
# ifndef GC
tempTree = new Node0();
# else
tempTree = new GC_NEW(Node0) Node0();
# endif
Populate(depth, tempTree);
# ifndef GC
delete tempTree;
# endif
tempTree = 0;
}
tFinish = currentTime();
printf("\tTop down construction took %d msec\n", elapsedTime(tFinish - tStart));
tStart = currentTime();
for (int i = 0; i < iNumIters; ++i) {
tempTree = MakeTree(depth);
# ifndef GC
delete tempTree;
# endif
tempTree = 0;
}
tFinish = currentTime();
printf("\tBottom up construction took %d msec\n", elapsedTime(tFinish - tStart));
}
void KernelSourceParser::operationProgress()
{
QMutexLocker lock(&_progressMutex);
float percent = _bytesRead / (float) (_bytesTotal > 0 ? _bytesTotal : 1);
int remaining = -1;
// Avoid too noisy timer updates
if (percent > 0) {
remaining = _durationLastFileFinished / percent * (1.0 - percent);
remaining = (remaining - (_duration - _durationLastFileFinished)) / 1000;
}
QString remStr = remaining > 0 ?
QString("%1:%2").arg(remaining / 60).arg(remaining % 60, 2, 10, QChar('0')) :
QString("??");
QString fileName = _currentFile;
QString s = QString("\rParsing file %1/%2 (%3%), %4 elapsed, %5 remaining%7: %6")
.arg(_filesIndex)
.arg(_fileNames.size())
.arg((int)(percent * 100))
.arg(elapsedTime())
.arg(remStr)
.arg(fileName);
// Show no. of errors
if (BugReport::log() && BugReport::log()->entries())
s = s.arg(QString(", %1 errors so far").arg(BugReport::log()->entries()));
else
s = s.arg(QString());
shellOut(s, false);
}
int prTempoClock_New(struct VMGlobals *g, int numArgsPushed)
{
PyrSlot *a = g->sp - 3;
PyrSlot *b = g->sp - 2;
PyrSlot *c = g->sp - 1;
PyrSlot *d = g->sp;
double tempo;
int err = slotDoubleVal(b, &tempo);
if (err) tempo = 1.;
if (tempo <= 0.) {
error("invalid tempo %g\n", tempo);
SetPtr(slotRawObject(a)->slots+1, NULL);
return errFailed;
}
double beats;
err = slotDoubleVal(c, &beats);
if (err) beats = 0.;
double seconds;
err = slotDoubleVal(d, &seconds);
if (err) seconds = elapsedTime();
TempoClock* clock = new TempoClock(g, slotRawObject(a), tempo, beats, seconds);
SetPtr(slotRawObject(a)->slots+1, clock);
return errNone;
}
WrapImplSoftware::~WrapImplSoftware()
{
printf("LazyWrapTime= \t%ld\n", elapsedTime());
printf("cleaning up wrapimplsoftware\n");
delete _table;
Debug("done deleting table.\n");
}
main(int argc,char** argv) {
double seconds;
double dt;
fprintf(stderr,"#######################################\n");
fprintf(stderr," You can specify \"dt\" and \"runtime\".\n");
fprintf(stderr,"#######################################\n");
if (argc > 1) {
dt=atoi(argv[1]);
if (argc > 2)
seconds=atoi(argv[2]);
else
seconds=20;
}
else {
dt=2; /* default dt = 2 */
seconds=20; /* default sec = 20 */
}
fprintf(stderr,"\ndt : %f\t runtime : %f\n\n",dt,seconds);
TC_UDP_TX_I_inputdt(dt);
startTimer();
for(; elapsedTime()<seconds;)
/* for (;;)*/
TC_UDP_TX();
STOP_PERF_GRAPH();
GET_PERF_GRAPH(seconds);
}
void PresentationAudioWidget::slotTimeUpdaterTimeout()
{
if (d->mediaObject->error() != QMediaPlayer::NoError)
{
slotError();
return;
}
qint64 current = d->mediaObject->position();
int hours = (int)(current / (qint64)(60 * 60 * 1000));
int mins = (int)((current / (qint64)(60 * 1000)) - (qint64)(hours * 60));
int secs = (int)((current / (qint64)1000) - (qint64)(hours * 60 + mins * 60));
QTime elapsedTime(hours, mins, secs);
if (d->isZeroTime && d->mediaObject->duration() > 0)
{
d->isZeroTime = false;
qint64 total = d->mediaObject->duration();
hours = (int)(total / (qint64)(60 * 60 * 1000));
mins = (int)((total / (qint64)(60 * 1000)) - (qint64)(hours * 60));
secs = (int)((total / (qint64)1000) - (qint64)(hours * 60 + mins * 60));
QTime totalTime(hours, mins, secs);
m_totalTimeLabel->setText(totalTime.toString(QString::fromLatin1("H:mm:ss")));
}
m_elapsedTimeLabel->setText(elapsedTime.toString(QString::fromLatin1("H:mm:ss")));
}
//! Post progress message
//!
//! @param progress - How many bytes of progress since last call
//! @param message - Message to post, May be NULL to indicate no change.
//!
USBDM_ErrorCode ProgressTimer::progress(int progress, const char *_message) {
USBDM_ErrorCode rc = PROGRAMMING_RC_OK;
if (_message != NULL) {
message = _message;
}
bytesDone += progress;
int percent = 0;
if (maximumBytes > 0) {
percent = ((100UL*bytesDone)/maximumBytes);
}
double kBytesPerSec = 0;
double elapsed = elapsedTime();
if ((elapsed > 0) && (bytesDone > 0)) {
kBytesPerSec = bytesDone/(1024*elapsed);
}
if (message == NULL) {
message = "";
}
char messageBuffer[200];
snprintf(messageBuffer, sizeof(messageBuffer), "%s (%2.2f kBytes/sec)", message, kBytesPerSec);
if ((progressCallBack != NULL) && (progress != 0)) {
if (bytesDone>0) {
rc = progressCallBack(PROGRAMMING_RC_OK, percent, messageBuffer);
}
else {
rc = progressCallBack(PROGRAMMING_RC_OK, percent, message);
}
}
// print("ProgressTimer::Timer::progress() - \'%s\', Time = %3.2f, Progress done = %d(+%d) (%d%%)\n",
// messageBuffer, elapsed, bytesDone, progress, percent);
return rc;
}
///
/// \brief ParticleSystem::buildGLBuffers
/// Build vertices data buffers to be passed to the shader
/// This includes :
/// Relative positions
/// For now, it's all (0,0,0)
/// Consider it to be an offset for particle drawing, as true positions are calculated
/// in the shader;
/// Velocities
/// Ages
///
void ParticleSystem::buildGLBuffers(){
if(gl_positions != NULL) delete gl_positions;
gl_positions = new float[m_TabParticle.size()*3];
if(gl_velocities != NULL) delete gl_velocities;
gl_velocities = new float[m_TabParticle.size()*3];
if(gl_ages != NULL) delete gl_ages;
gl_ages = new float[m_TabParticle.size()];
for(unsigned int i=0; i<m_TabParticle.size(); i++){
Particle* p = m_TabParticle[i];
gl_positions[3*i] = p->position.x;
gl_positions[3*i+1] = p->position.y;
gl_positions[3*i+2] = p->position.z;
gl_velocities[3*i] = p->velocity.x;
gl_velocities[3*i+1] = p->velocity.y;
gl_velocities[3*i+2] = p->velocity.z;
gl_ages[i] = elapsedTime(p->startTime, Clock::now()) / 1000.0f;
//std::cout<<velocities[3*i]<<" "<<velocities[3*i+1]<<" "<<velocities[3*i+2]<<std::endl;
//std::cout << i << " : " << ages[i] << std::endl;
}
}
double downloadSpeed(int time, int startTime, double bytes)
{
int mtime = elapsedTime(time, startTime);
double result = bytes/mtime;
return result;
}
void PlaybackWidget::slotTimeUpdaterTimeout()
{
if ( m_mediaObject->state() == Phonon::ErrorState )
{
slotError();
return;
}
long int current = m_mediaObject->currentTime();
int hours = (int)(current / (long int)( 60 * 60 * 1000 ));
int mins = (int)((current / (long int)( 60 * 1000 )) - (long int)(hours * 60));
int secs = (int)((current / (long int)1000) - (long int)(hours * 60 + mins * 60));
QTime elapsedTime(hours, mins, secs);
if ( m_isZeroTime )
{
m_isZeroTime = false;
long int total = m_mediaObject->totalTime();
hours = (int)(total / (long int)( 60 * 60 * 1000 ));
mins = (int)((total / (long int)( 60 * 1000 )) - (long int)(hours * 60));
secs = (int)((total / (long int)1000) - (long int)(hours * 60 + mins * 60));
QTime totalTime(hours, mins, secs);
m_totalTimeLabel->setText(totalTime.toString("H:mm:ss"));
}
m_elapsedTimeLabel->setText(elapsedTime.toString("H:mm:ss"));
}
bool AndroidAnimation::checkIterationsAndProgress(double time, float* finalProgress)
{
double progress = elapsedTime(time);
double dur = m_duration;
if (m_iterationCount > 0)
dur *= m_iterationCount;
if (m_duration <= 0)
return false;
// If not infinite, return false if we are done
if (m_iterationCount > 0 && progress > dur) {
*finalProgress = 1.0;
if (!m_hasFinished) {
// first time past duration, continue with progress 1.0 so the
// element's final position lines up with it's last keyframe
m_hasFinished = true;
return true;
}
return false;
}
double fractionalTime = progress / m_duration;
int integralTime = static_cast<int>(fractionalTime);
fractionalTime -= integralTime;
if ((m_direction == Animation::AnimationDirectionAlternate) && (integralTime & 1))
fractionalTime = 1 - fractionalTime;
*finalProgress = fractionalTime;
return true;
}
// Show some progress information
void KernelSymbolWriter::operationProgress()
{
QString s("\rWriting symbols");
if (!_to->isSequential())
s += QString(" (%1 written)").arg(bytesToString(_to->pos()));
s += ", " + elapsedTime() + " elapsed";
shellOut(s, false);
}
int main (int argc, char ** argv)
{
int max = MAX_NOEUDS / SCALE + 2;
int capa = 50;
int ** tab = (int**) malloc (max * sizeof(int*));
int i;
for (i=SCALE; i<=MAX_NOEUDS; i+=SCALE) {
int j = (i/SCALE) - 1;
tab[j] = (int *) malloc(2*sizeof(int));
tab[j][0] = i;
tab[j][1] = (int) ceil (1. * i * RATIO);
}
for (i=SCALE; i<=MAX_NOEUDS; i+=SCALE) {
int j = (i/SCALE) - 1;
stat_t s = elapsedTime(tab[j][0],tab[j][1],capa,100);
printf("%d %d %lf %lf %lf \n",tab[j][0],tab[j][1],s._st1*1000,s._st2*1000,s._st3*1000);
}
/*Graph * mcEK = allocMatGraph(5);
Graph * lcEK = allocListGraph(5);
randFill(mcEK,15,5,1,lcEK);
Graph * mcDinic = copyGraph(mcEK);
Graph * lcDinic = copyGraph(lcEK);
Graph * mdEK = copyGraph(mcEK);
Graph * mfEK = allocGraph(mcEK);
Graph * mdDinic = copyGraph(mcDinic);
Graph * mfDinic = allocGraph(mcDinic);
Graph * lfEK = allocGraph(lcEK);
Graph * ldEK = copyGraph(lcEK);
Graph * lfDinic = allocGraph(lcDinic);
int mEK = algoEdmondKarp (lcEK,ldEK,lfEK,0,1);
printf("EK : Matrix = %d\n", mEK);
int mDinic = algoDinic (mcDinic,mfDinic,0,1);
printf("Dinic : Matrix = %d\n", mDinic);
int lDinic = algoDinic (lcDinic,lfDinic,0,1);
printf("Dinic : List = %d\n", lDinic);
int lEK = algoEdmondKarp (mcEK,mdEK,mfEK,0,1);
printf("EK : List = %d\n", lEK);
*/
for (i=0; i<max; free(*(tab+i++)));
free(tab);
argc++;argv--;/* Wall ... */
return 0;
}
void GLWidget::clientDraw()
{
// drawMesh();
drawTetra();
const float t = (float)elapsedTime();
m_mesh->setAlpha(t/290.f);
m_ray->setAlpha(t/230.f);
// qDebug()<<"drawn in "<<deltaTime();
// internalTimer()->start();
}
///
/// \brief ParticleSystem::deleteDeadParticles
/// Delete particles that are supposed to be dead :
/// = If a particle is too old and doesn't fit Meryn Trant's needs
///
void ParticleSystem::deleteDeadParticles(){
for(unsigned int i=0; i<m_TabParticle.size(); i++){
Particle* p = m_TabParticle[i];
if(p != NULL && elapsedTime(p->startTime, t_currentTime) > m_maxTimeAlive){
m_TabParticle.erase(m_TabParticle.begin()+i);
m_TabParticle.shrink_to_fit();
}
}
}
void TextTestResult::printHeader (std::ostream &stream)
{
if (wasSuccessful ())
std::cout << "OK (" << runTests () << " tests and "
<< testSuccesses() << " assertions in " << elapsedTime() << " ms)" << std::endl;
else
std::cout << std::endl
<< "!!!FAILURES!!!" << std::endl
<< "Test Results:" << std::endl
<< "Run: "
<< runTests ()
<< " Failures: "
<< testFailures ()
<< " Errors: "
<< testErrors ()
<< std::endl
<< "(" << testSuccesses() << " assertions ran successfully in " << elapsedTime() << " ms)" << std::endl;
}
inline void PyrGC::beginPause()
{
checkStackScans = mStackScans;
checkFlips = mFlips;
checkScans = mScans;
checkNumToScan = mNumToScan;
checkPartialScans = mNumPartialScans;
checkSlotsScanned = mSlotsScanned;
pauseBeginTime = elapsedTime();
}
StopWatch::~StopWatch()
{
nsecs_t elapsed = elapsedTime();
const int n = mNumLaps;
LOGD("StopWatch %s (us): %lld ", mName, ns2us(elapsed));
for (int i=0 ; i<n ; i++) {
const nsecs_t soFar = mLaps[i].soFar;
const nsecs_t thisLap = mLaps[i].thisLap;
LOGD(" [%d: %lld, %lld]", i, ns2us(soFar), ns2us(thisLap));
}
}
void GeigerCounter::device_loop(Command command){
if (elapsedTime(lastUpdateTime) < updateIntervalInMillis) {
return;
}
float countsPerMinute = (float)count / (float)updateIntervalInMillis/60000;
// Convert from cpm to µSv/h with the pre-defined coefficient
float microSievertPerHour = countsPerMinute * conversionCoefficient;
count = 0;
envdata::RAD = microSievertPerHour;
}
void MemoryMap::operationProgress()
{
MemoryMapNode* node = _shared->lastNode;
const BaseType* nodeType = node ? node->type() : 0;
int queueSize = _shared->queue.size();
QChar indicator = '=';
if (_prevQueueSize < queueSize)
indicator = '+';
else if (_prevQueueSize > queueSize)
indicator = '-';
float prob = node ? node->probability() : 1.0;
int depth = 0;
for (MemoryMapNode* n = node; n; n = n->parent())
++depth;
Console::out()
<< right
<< qSetFieldWidth(5) << elapsedTime() << qSetFieldWidth(0)
<< " Proc: " << Console::color(ctBold)
<< qSetFieldWidth(6) << _shared->processed << qSetFieldWidth(0)
<< Console::color(ctReset)
<< ", addr: " << qSetFieldWidth(6) << _vmemAddresses.size() << qSetFieldWidth(0)
<< ", objs: " << qSetFieldWidth(6) << _vmemMap.size() << qSetFieldWidth(0)
<< ", vmem: " << qSetFieldWidth(6) << _vmemMap.nodeCount() << qSetFieldWidth(0)
<< ", pmem: " << qSetFieldWidth(6) << _pmemMap.nodeCount() << qSetFieldWidth(0)
<< ", q: " << qSetFieldWidth(5) << queueSize << qSetFieldWidth(0) << " " << indicator
<< ", d: " << qSetFieldWidth(2) << depth << qSetFieldWidth(0)
<< ", p: " << qSetRealNumberPrecision(5) << fixed;
if (prob < 0.4)
Console::out() << Console::color(ctMissed);
else if (prob < 0.7)
Console::out() << Console::color(ctDeferred);
else
Console::out() << Console::color(ctMatched);
Console::out() << prob << Console::color(ctReset);
// << ", min_prob: " << (queueSize ? _shared->queue.smallest()->probability() : 0);
if (nodeType) {
Console::out() << ", " << Console::prettyNameInColor(nodeType) << " ";
if (node->parent())
Console::out() << Console::color(ctMember);
else
Console::out() << Console::color(ctVariable);
Console::out() << node->name() << Console::color(ctReset);
}
Console::out() << left << endl;
_prevQueueSize = queueSize;
}
int main(void)
{
struct time time1,time2,differenceTime;
printf("enter time1 (HH:MM:SS) : ");
scanf("%d:%d:%d",&time1.hours,&time1.minutes,&time1.seconds);
printf("enter time2 (HH:MM:SS) : ");
scanf("%d:%d:%d",&time2.hours,&time2.minutes,&time2.seconds);
differenceTime=elapsedTime(time1,time2);
printf("elapsed time is : \n");
printf("%d:%2d:%2d\n",differenceTime.hours,differenceTime.minutes,differenceTime.seconds);
return 0;
}
void indri::utility::IndriTimer::printElapsedSeconds( std::ostream& out ) const {
UINT64 elapsed = elapsedTime();
const UINT64 million = 1000000;
int minutes = int(elapsed / (60 * million));
int seconds = int(elapsed/million - 60*minutes);
int microseconds = int(elapsed % million);
out << minutes
<< ":"
<< std::setw(2) << std::setfill('0')
<< seconds;
}
nsecs_t StopWatch::lap()
{
nsecs_t elapsed = elapsedTime();
if (mNumLaps >= 8) {
elapsed = 0;
} else {
const int n = mNumLaps;
mLaps[n].soFar = elapsed;
mLaps[n].thisLap = n ? (elapsed - mLaps[n-1].soFar) : elapsed;
mNumLaps = n+1;
}
return elapsed;
}
static void TimeConstruction(int depth) {
long tStart, tFinish;
int iNumIters = NumIters(depth);
Node tempTree;
cout << "Creating " << iNumIters
<< " trees of depth " << depth << endl;
tStart = currentTime();
for (int i = 0; i < iNumIters; ++i) {
# ifndef GC
tempTree = new Node0();
# else
tempTree = new (GC_NEW(Node0)) Node0();
# endif
Populate(depth, tempTree);
# ifndef GC
delete tempTree;
# endif
tempTree = 0;
}
tFinish = currentTime();
cout << "\tTop down construction took "
<< elapsedTime(tFinish - tStart) << " msec" << endl;
tStart = currentTime();
for (int i = 0; i < iNumIters; ++i) {
tempTree = MakeTree(depth);
# ifndef GC
delete tempTree;
# endif
tempTree = 0;
}
tFinish = currentTime();
cout << "\tBottom up construction took "
<< elapsedTime(tFinish - tStart) << " msec" << endl;
}
SC_DLLEXPORT_C bool compileLibrary()
{
//printf("->compileLibrary\n");
shutdownLibrary();
pthread_mutex_lock (&gLangMutex);
gNumCompiledFiles = 0;
compiledOK = false;
// FIXME: the library config should have been initialized earlier!
if (!gLibraryConfig)
SC_LanguageConfig::readDefaultLibraryConfig();
compileStartTime = elapsedTime();
totalByteCodes = 0;
#ifdef NDEBUG
postfl("compiling class library...\n");
#else
postfl("compiling class library (debug build)...\n");
#endif
bool res = passOne();
if (res) {
postfl("\tpass 1 done\n");
if (!compileErrors) {
buildDepTree();
traverseFullDepTree();
traverseFullDepTree2();
flushPostBuf();
if (!compileErrors && gShowWarnings) {
SymbolTable* symbolTable = gMainVMGlobals->symbolTable;
symbolTable->CheckSymbols();
}
}
pyr_pool_compile->FreeAll();
flushPostBuf();
compileSucceeded();
} else {
compiledOK = false;
}
pthread_mutex_unlock (&gLangMutex);
//printf("<-compileLibrary\n");
return compiledOK;
}
int main(void) {
long tStart, tFinish;
std::cout << "Merge_sort of array of " << ARRAY_SIZE << " elements:" << std::endl;
std::cout << "\tCreating ";
tStart = currentTime();
gc_ptr<int> arr = gc_new<int>(ARRAY_SIZE), res = gc_new<int>(ARRAY_SIZE);
for (int i = 0; i < ARRAY_SIZE; i++) {
arr[i] = rand() % (ARRAY_SIZE);
}
tFinish = currentTime();
std::cout << elapsedTime(tFinish - tStart) << " msec" << std::endl;
std::cout << "\tSorting ";
tStart = currentTime();
merge_sort(res, arr, 0, ARRAY_SIZE - 1);
tFinish = currentTime();
std::cout << elapsedTime(tFinish - tStart) << " msec" << std::endl;
// for (int i = 0; i < ARRAY_SIZE; i++)
// std::cout << res[i] << std::endl;
return 0;
}
///
/// \brief ParticleSystem::update
/// Update timers and manage particles life and death
///
void ParticleSystem::update()
{
t_timeSinceLastFrame = elapsedTime(t_currentTime, std::chrono::steady_clock::now());
t_currentTime = Clock::now();
t_timeSinceLastTrigger = elapsedTime(t_lastTrigger, t_currentTime);
//std::cout<<timeSinceLastTrigger<<std::endl;
int nb = t_timeSinceLastTrigger / (1000/m_rate);
if(nb >= 1)
{
t_lastTrigger = t_currentTime;
//std::cout<<timeSinceLastTrigger<<std::endl;
while(nb >= 1){
addParticle();
nb--;
}
}
if(m_maxTimeAlive > 0)
deleteDeadParticles();
}
void PerformOSCMessage(int inSize, char *inData, PyrObject *replyObj, int inPortNum)
{
PyrObject *arrayObj = ConvertOSCMessage(inSize, inData);
// call virtual machine to handle message
VMGlobals *g = gMainVMGlobals;
++g->sp; SetObject(g->sp, g->process);
++g->sp; SetFloat(g->sp, elapsedTime()); // time
++g->sp; SetObject(g->sp, replyObj);
++g->sp; SetInt(g->sp, inPortNum);
++g->sp; SetObject(g->sp, arrayObj);
runInterpreter(g, s_recvoscmsg, 5);
}
void XmlResultPrinter::endTest(const Test& test)
{
auto lastest = tests.top();
auto elapsedTime = lastest->elapsedTime();
collectTime(elapsedTime);
std::string result = handlerTestResult(*lastest);
builder->addAttributeTo("testcase", "status", result);
builder->addAttributeTo("testcase", "time", format(elapsedTime));
builder->addAttributeTo("testcase", "classname", getShortTestcaseName(test.getName()));
tests.pop();
}
main(int argc,char** argv){
double seconds;
fprintf(stderr,"#######################################\n");
fprintf(stderr," You can specify \"runtime\".\n");
fprintf(stderr,"#######################################\n");
if (argc > 1)
seconds=atoi(argv[1]);
else
seconds=10;
startTimer();
for(;elapsedTime()<seconds;)
UDP_FLOW();
STOP_PERF_GRAPH();
GET_PERF_GRAPH(seconds);
}