inline void AbstractTimeDependentSimulation::doStepping() {
while (time_ < maxTime_ && steps_ < maxNumberOfSteps_) {
stepping();
++steps_;
time_ += dt_;
if (steps_ % recordFrequency_ == 0)
recordResult();
}
report();
}
Data DebugSession::debugResume(const Data& data) {
std::lock_guard<std::recursive_mutex> lock(_mutex);
stepping(false);
Data replyData;
replyData.compound["status"] = Data("success", Data::VERBATIM);
_resumeCond.notify_one();
return replyData;
}
Data DebugSession::debugPause(const Data& data) {
std::lock_guard<std::recursive_mutex> lock(_mutex);
_skipTo = Breakpoint();
stepping(true);
Data replyData;
replyData.compound["status"] = Data("success", Data::VERBATIM);
return replyData;
}
Data DebugSession::debugStep(const Data& data) {
std::lock_guard<std::recursive_mutex> lock(_mutex);
stepping(true);
_resumeCond.notify_one();
Data replyData;
if (_interpreter) {
// register ourself as a monitor
if (!_isRunning) {
_isRunning = true;
_interpreterThread = new std::thread(DebugSession::run, this);
}
replyData.compound["status"] = Data("success", Data::VERBATIM);
} else {
replyData.compound["status"] = Data("failure", Data::VERBATIM);
}
return replyData;
}