namespace simgrid::mc::udpor {
EventSet ExtensionSetCalculator::partially_extend(const Configuration& C, Unfolding* U,
- const std::shared_ptr<Transition> action)
+ std::shared_ptr<Transition> action)
{
using Action = Transition::Type;
using Handler = std::function<EventSet(const Configuration&, Unfolding*, const std::shared_ptr<Transition>)>;
}
EventSet ExtensionSetCalculator::partially_extend_CommSend(const Configuration& C, Unfolding* U,
- const std::shared_ptr<Transition> action)
+ std::shared_ptr<Transition> action)
{
EventSet exC;
}();
if (transition_type_check) {
- const EventSet K = EventSet({e, pre_event_a_C.value_or(e)}).get_largest_maximal_subset();
+ EventSet K = EventSet({e, pre_event_a_C.value_or(e)}).get_largest_maximal_subset();
// TODO: Check D_K(a, lambda(e)) (only matters in the case of CommTest)
const auto e_prime = U->discover_event(std::move(K), send_action);
}
EventSet ExtensionSetCalculator::partially_extend_CommRecv(const Configuration& C, Unfolding* U,
- const std::shared_ptr<Transition> action)
+ std::shared_ptr<Transition> action)
{
EventSet exC;
}();
if (transition_type_check) {
- const EventSet K = EventSet({e, pre_event_a_C.value_or(e)}).get_largest_maximal_subset();
+ EventSet K = EventSet({e, pre_event_a_C.value_or(e)}).get_largest_maximal_subset();
// TODO: Check D_K(a, lambda(e)) (ony matters in the case of TestAny)
if (true) {
{
EventSet exC;
- const auto wait_action = std::static_pointer_cast<CommWaitTransition>(std::move(action));
+ const auto wait_action = std::static_pointer_cast<CommWaitTransition>(action);
const auto wait_comm = wait_action->get_comm();
const auto pre_event_a_C = C.pre_event(wait_action->aid_);
// `WaitAny()` is always disabled in `config(K)`; hence, it
// is independent of any transition in `config(K)` (according
// to formal definition of independence)
- const auto K = EventSet({e, pre_event_a_C.value_or(e)});
+ auto K = EventSet({e, pre_event_a_C.value_or(e)});
const auto config_K = History(K);
if (not config_K.contains(e_issuer)) {
continue;
{
EventSet exC;
- const auto test_action = std::static_pointer_cast<CommTestTransition>(std::move(action));
+ const auto test_action = std::static_pointer_cast<CommTestTransition>(action);
const auto test_comm = test_action->get_comm();
const auto test_aid = test_action->aid_;
const auto pre_event_a_C = C.pre_event(test_action->aid_);
// `CommTest()` is always disabled in `config(K)`; hence, it
// is independent of any transition in `config(K)` (according
// to formal definition of independence)
- const auto K = EventSet({e, pre_event_a_C.value_or(e)});
+ auto K = EventSet({e, pre_event_a_C.value_or(e)});
const auto config_K = History(K);
if (not config_K.contains(e_issuer)) {
continue;
// `WaitAny()` is always disabled in `config(K)`; hence, it
// is independent of any transition in `config(K)` (according
// to formal definition of independence)
- const auto K = EventSet({e, pre_event_a_C.value_or(e)});
+ auto K = EventSet({e, pre_event_a_C.value_or(e)});
const auto config_K = History(K);
if (not config_K.contains(e_issuer)) {
continue;
std::shared_ptr<Transition> action)
{
EventSet exC;
- const auto mutex_lock = std::static_pointer_cast<MutexTransition>(std::move(action));
+ const auto mutex_lock = std::static_pointer_cast<MutexTransition>(action);
const auto pre_event_a_C = C.pre_event(mutex_lock->aid_);
// for each event e in C
// Check for other locks on the same mutex
if (const auto* e_mutex = dynamic_cast<const MutexTransition*>(e->get_transition());
e_mutex->type_ == Transition::Type::MUTEX_ASYNC_LOCK && mutex_lock->get_mutex() == e_mutex->get_mutex()) {
- const auto K = EventSet({e, pre_event_a_C.value_or(e)});
+ auto K = EventSet({e, pre_event_a_C.value_or(e)});
exC.insert(U->discover_event(std::move(K), mutex_lock));
}
}
std::shared_ptr<Transition> action)
{
EventSet exC;
- const auto mutex_unlock = std::static_pointer_cast<MutexTransition>(std::move(action));
+ const auto mutex_unlock = std::static_pointer_cast<MutexTransition>(action);
const auto pre_event_a_C = C.pre_event(mutex_unlock->aid_);
// for each event e in C
// This entails getting information about
// the relative position of the mutex in the queue, which
// again means we need more context...
- const auto K = EventSet({e, pre_event_a_C.value_or(e)});
+ auto K = EventSet({e, pre_event_a_C.value_or(e)});
exC.insert(U->discover_event(std::move(K), mutex_unlock));
}
}
std::shared_ptr<Transition> action)
{
EventSet exC;
- const auto mutex_wait = std::static_pointer_cast<MutexTransition>(std::move(action));
+ const auto mutex_wait = std::static_pointer_cast<MutexTransition>(action);
const auto pre_event_a_C = C.pre_event(mutex_wait->aid_);
// for each event e in C
// This entails getting information about
// the relative position of the mutex in the queue, which
// again means we need more context...
- const auto K = EventSet({e, pre_event_a_C.value_or(e)});
+ auto K = EventSet({e, pre_event_a_C.value_or(e)});
exC.insert(U->discover_event(std::move(K), mutex_wait));
}
}
std::shared_ptr<Transition> action)
{
EventSet exC;
- const auto mutex_test = std::static_pointer_cast<MutexTransition>(std::move(action));
+ const auto mutex_test = std::static_pointer_cast<MutexTransition>(action);
const auto pre_event_a_C = C.pre_event(mutex_test->aid_);
// for each event e in C
// This entails getting information about
// the relative position of the mutex in the queue, which
// again means we need more context...
- const auto K = EventSet({e, pre_event_a_C.value_or(e)});
+ auto K = EventSet({e, pre_event_a_C.value_or(e)});
exC.insert(U->discover_event(std::move(K), mutex_test));
}
}
{
EventSet exC;
- const auto join_action = std::static_pointer_cast<ActorJoinTransition>(std::move(action));
+ const auto join_action = std::static_pointer_cast<ActorJoinTransition>(action);
// Handling ActorJoin is very simple: it is independent with all
// other transitions. Thus the only event it could possibly depend
