ExecImpl* ExecImpl::start()
{
- state_ = State::RUNNING;
+ set_state(State::RUNNING);
if (not MC_is_active() && not MC_record_replay_is_active()) {
if (hosts_.size() == 1) {
surf_action_ = hosts_.front()->get_cpu()->execution_start(flops_amounts_.front(), bound_);
surf_action_ = host_model->execute_parallel(hosts_, flops_amounts_.data(), bytes_amounts_.data(), -1);
}
surf_action_->set_activity(this);
- start_time_ = surf_action_->get_start_time();
+ set_start_time(surf_action_->get_start_time());
}
XBT_DEBUG("Create execute synchro %p: %s", this, get_cname());
double ExecImpl::get_remaining() const
{
- if (state_ == State::WAITING || state_ == State::FAILED)
+ if (get_state() == State::WAITING || get_state() == State::FAILED)
return flops_amounts_.front();
return ActivityImpl::get_remaining();
}
double ExecImpl::get_seq_remaining_ratio()
{
- if (state_ == State::WAITING)
+ if (get_state() == State::WAITING)
return 1;
return (surf_action_ == nullptr) ? 0 : surf_action_->get_remains() / surf_action_->get_cost();
}
double ExecImpl::get_par_remaining_ratio()
{
// parallel task: their remain is already between 0 and 1
- if (state_ == State::WAITING)
+ if (get_state() == State::WAITING)
return 1;
return (surf_action_ == nullptr) ? 0 : surf_action_->get_remains();
}
if (std::any_of(hosts_.begin(), hosts_.end(), [](const s4u::Host* host) { return not host->is_on(); })) {
/* If one of the hosts running the synchro failed, notice it. This way, the asking
* process can be killed if it runs on that host itself */
- state_ = State::FAILED;
+ set_state(State::FAILED);
} else if (surf_action_->get_state() == resource::Action::State::FAILED) {
/* If all the hosts are running the synchro didn't fail, then the synchro was canceled */
- state_ = State::CANCELED;
+ set_state(State::CANCELED);
} else if (timeout_detector_ && timeout_detector_->get_state() == resource::Action::State::FINISHED) {
if (surf_action_->get_remains() > 0.0) {
surf_action_->set_state(resource::Action::State::FAILED);
- state_ = State::TIMEOUT;
+ set_state(State::TIMEOUT);
} else {
- state_ = State::DONE;
+ set_state(State::DONE);
}
} else {
- state_ = State::DONE;
+ set_state(State::DONE);
}
clean_action();
if (get_actor() != nullptr) {
get_actor()->activities_.remove(this);
}
- if (state_ != State::FAILED && cb_id_ >= 0)
+ if (get_state() != State::FAILED && cb_id_ >= 0)
s4u::Host::on_state_change.disconnect(cb_id_);
/* Answer all simcalls associated with the synchro */
finish();
void ExecImpl::set_exception(actor::ActorImpl* issuer)
{
- switch (state_) {
+ switch (get_state()) {
case State::FAILED:
static_cast<s4u::Exec*>(get_iface())->complete(s4u::Activity::State::FAILED);
if (issuer->get_host()->is_on())
break;
default:
- xbt_assert(state_ == State::DONE, "Internal error in ExecImpl::finish(): unexpected synchro state %s",
- to_c_str(state_));
+ xbt_assert(get_state() == State::DONE, "Internal error in ExecImpl::finish(): unexpected synchro state %s",
+ get_state_str());
}
}
void ExecImpl::finish()
{
- XBT_DEBUG("ExecImpl::finish() in state %s", to_c_str(state_));
+ XBT_DEBUG("ExecImpl::finish() in state %s", get_state_str());
while (not simcalls_.empty()) {
smx_simcall_t simcall = simcalls_.front();
simcalls_.pop_front();
hosts_.clear();
bytes_amounts_.clear();
flops_amounts_.clear();
- start_time_ = -1.0;
+ set_start_time(-1.0);
}
ActivityImpl* ExecImpl::migrate(s4u::Host* to)
/* associate this simcall to the the synchro */
exec->simcalls_.push_back(&issuer->simcall_);
/* see if the synchro is already finished */
- if (exec->state_ != State::WAITING && exec->state_ != State::RUNNING) {
+ if (exec->get_state() != State::WAITING && exec->get_state() != State::RUNNING) {
exec->finish();
break;
}