void CTimeProfiler::Update()
{
//FIXME non-locking threadsafe
boost::unique_lock<boost::mutex> ulk(m, boost::defer_lock);
while (!ulk.try_lock()) {}
++currentPosition;
currentPosition &= TimeRecord::frames_size-1;
std::map<std::string,TimeRecord>::iterator pi;
for (pi = profile.begin(); pi != profile.end(); ++pi)
{
pi->second.frames[currentPosition] = spring_notime;
}
const spring_time curTime = spring_gettime();
const float timeDiff = spring_diffmsecs(curTime, lastBigUpdate);
if (timeDiff > 500.0f) // twice every second
{
for (std::map<std::string,TimeRecord>::iterator pi = profile.begin(); pi != profile.end(); ++pi)
{
pi->second.percent = spring_tomsecs(pi->second.current) / timeDiff;
pi->second.current = spring_notime;
if(pi->second.percent > pi->second.peak) {
pi->second.peak = pi->second.percent;
pi->second.newpeak = true;
}
else
pi->second.newpeak = false;
}
lastBigUpdate = curTime;
}
}
void CTimeProfiler::Update()
{
//FIXME non-locking threadsafe
boost::unique_lock<boost::mutex> ulk(m, boost::defer_lock);
while (!ulk.try_lock()) {}
++currentPosition;
currentPosition &= TimeRecord::frames_size-1;
for (auto& pi: profile) {
pi.second.frames[currentPosition] = spring_notime;
}
const spring_time curTime = spring_gettime();
const float timeDiff = spring_diffmsecs(curTime, lastBigUpdate);
if (timeDiff > 500.0f) // twice every second
{
for (auto& pi: profile) {
auto& p = pi.second;
p.percent = spring_tomsecs(p.current) / timeDiff;
p.current = spring_notime;
p.newLagPeak = false;
p.newPeak = false;
if(p.percent > p.peak) {
p.peak = p.percent;
p.newPeak = true;
}
}
lastBigUpdate = curTime;
}
if (curTime.toSecsi() % 6 == 0) {
for (auto& pi: profile) {
auto& p = pi.second;
p.maxLag *= 0.5f;
}
}
}
ScopedOnceTimer::~ScopedOnceTimer()
{
LOG("%s: %lli ms", GetName().c_str(), spring_diffmsecs(spring_gettime(), starttime));
}
