void ManagedClientModule::reached_ManagedLevel_Pulse() {
if (m_firstCallToBreakpoint_ManagedLevel_Pulse) {
// Align the further execution of a module's body until this realtime clock matches with supercomponent's realtime clock for the required waiting slice.
setBreakpoint(NULL);
m_firstCallToBreakpoint_ManagedLevel_Pulse = false;
// Align the component ten times.
uint32_t aligner = 10;
while (aligner-- > 0) {
const coredata::dmcp::PulseMessage pm = getDMCPClient()->getPulseMessage();
const long ONE_SECOND_IN_MICROSECONDS = 1000 * 1000 * 1;
const long ADJUSTMENT_TIME_TO_VIRTUAL_ONE_SECOND = (ONE_SECOND_IN_MICROSECONDS - pm.getCumulatedTimeSlice());
const TimeStamp module_now;
const long ADJUSTMENT_TIME_TO_ALIGN_REALTIME = (module_now.toMicroseconds() - pm.getRealTimeFromSupercomponent().toMicroseconds());
const long ADJUSTMENT_TIME = ADJUSTMENT_TIME_TO_VIRTUAL_ONE_SECOND - ADJUSTMENT_TIME_TO_ALIGN_REALTIME;
if (ADJUSTMENT_TIME > 0) {
Thread::usleepFor(ADJUSTMENT_TIME);
CLOG2 << "(ManagedClientModule) Adjust execution to next timeslice that is aligned with supercomponent: " << ADJUSTMENT_TIME << " microseconds." << endl;
}
}
}
}
void ConnectedModules::pulseShift(const coredata::dmcp::PulseMessage &pm, const uint32_t &shift) {
Lock l(m_modulesMutex);
map<string, ConnectedModule*>::iterator iter;
uint32_t connectedModulesCounter = 0;
coredata::dmcp::PulseMessage pm_shifted = pm;
const core::data::TimeStamp pm_org_ts = pm.getRealTimeFromSupercomponent();
for (iter = m_modules.begin(); iter != m_modules.end(); ++iter) {
core::data::TimeStamp ts(0, shift * connectedModulesCounter);
core::data::TimeStamp shiftedTime = pm_org_ts + ts;
pm_shifted.setRealTimeFromSupercomponent(shiftedTime);
iter->second->getConnection().pulse(pm_shifted);
connectedModulesCounter++;
}
}
