TEST_F(FSEventsTests, test_fsevents_event_action) {
// Assume event type is registered.
StartEventLoop();
// Simulate registering an event subscriber.
auto sub = std::make_shared<TestFSEventsEventSubscriber>();
auto status = sub->init();
auto sc = sub->GetSubscription(real_test_path, 0);
EventFactory::registerEventSubscriber(sub);
sub->subscribe(&TestFSEventsEventSubscriber::Callback, sc);
event_pub_->configure();
CreateEvents();
sub->WaitForEvents(kMaxEventLatency, 1);
// Make sure the fsevents action was expected.
ASSERT_TRUE(sub->actions_.size() > 0);
bool has_created = false;
bool has_unknown = false;
{
WriteLock lock(sub->mutex_);
for (const auto& action : sub->actions_) {
// Expect either a created event or attributes modified event.
if (action == "CREATED" || action == "ATTRIBUTES_MODIFIED") {
has_created = true;
} else if (action == "UNKNOWN" || action == "") {
// Allow an undetermined but existing FSevent on our target to pass.
has_unknown = true;
}
}
}
EXPECT_TRUE(has_created || has_unknown);
CreateEvents();
sub->WaitForEvents(kMaxEventLatency, 2);
bool has_updated = false;
{
WriteLock lock(sub->mutex_);
// We may have triggered several updated events.
for (const auto& action : sub->actions_) {
if (action == "UPDATED") {
has_updated = true;
}
}
}
EXPECT_TRUE(has_updated);
EndEventLoop();
}
void GameEventManagerTests::TestCopyConstructor()
{
CreateEvents(*mEventMgr);
RefPtr<GameEventManager> copyGEM = new GameEventManager(*mEventMgr);
CompareEventManagers(*mEventMgr, *copyGEM);
}
TEST_F(FSEventsTests, test_fsevents_run) {
// Assume event type is registered.
event_pub_ = std::make_shared<FSEventsEventPublisher>();
EventFactory::registerEventPublisher(event_pub_);
// Create a subscriber.
auto sub = std::make_shared<TestFSEventsEventSubscriber>();
EventFactory::registerEventSubscriber(sub);
// Create a subscriptioning context
auto mc = std::make_shared<FSEventsSubscriptionContext>();
mc->path = real_test_path;
EventFactory::addSubscription(
"fsevents", Subscription::create("TestFSEventsEventSubscriber", mc));
event_pub_->configure();
// Create an event loop thread (similar to main)
temp_thread_ = std::thread(EventFactory::run, "fsevents");
EXPECT_TRUE(event_pub_->numEvents() == 0);
// Wait for the thread to start and the FSEvents stream to turn on.
WaitForStream(kMaxEventLatency);
// Cause an fsevents event(s) by writing to the watched path.
CreateEvents();
// Wait for the thread's run loop to select.
WaitForEvents(kMaxEventLatency);
EXPECT_TRUE(event_pub_->numEvents() > 0);
// We are managing the thread ourselves, so no join needed.
EventFactory::end(false);
temp_thread_.join();
}
TEST_F(FSEventsTests, test_fsevents_run) {
// Assume event type is registered.
event_pub_ = std::make_shared<FSEventsEventPublisher>();
EventFactory::registerEventPublisher(event_pub_);
// Create a subscriber.
auto sub = std::make_shared<TestFSEventsEventSubscriber>();
EventFactory::registerEventSubscriber(sub);
// Create a subscriptioning context
auto mc = std::make_shared<FSEventsSubscriptionContext>();
mc->path = kRealTestPath;
EventFactory::addSubscription("fsevents", Subscription::create("TestFSEventsEventSubscriber", mc));
// Create an event loop thread (similar to main)
boost::thread temp_thread(EventFactory::run, "fsevents");
EXPECT_TRUE(event_pub_->numEvents() == 0);
// Cause an fsevents event(s) by writing to the watched path.
CreateEvents();
// Wait for the thread's run loop to select.
WaitForEvents(kMaxEventLatency);
EXPECT_TRUE(event_pub_->numEvents() > 0);
EventFactory::end();
}
void GameEventManagerTests::TestAssigmentOperator()
{
CreateEvents(*mEventMgr);
RefPtr<GameEventManager> copyGEM = new GameEventManager();
*copyGEM = *mEventMgr;
CompareEventManagers(*mEventMgr, *copyGEM);
}
void multiplex(period,normalize)
{
// initialize sw thread to use BGPM in sw thread distributed mode
// Allows up to 12 simultaineous punit counter per thread when using only
// 2 threads/core
Bgpm_Init(BGPM_MODE_SWDISTRIB);
// Create event set and add events needed to calculate CPI,
int hEvtSet = Bgpm_CreateEventSet();
// Multiplexing must be enabled prior to adding events to a Punit event set.
// With Multiplexing active on Punit event set, we can have as many Punit events as we like,
// regardless of Max Events. Muxing will create as many groups as needed to hold all the events,
// but by default only assigns up to 5 events per group (And reserves the 6th counter to track the number of
// cycles a group has been active).
// However, a few of the core-wide attributes used by events must still remain consistent
// (like the l1p mode associated with the l1p events)
//
// Parameters:
// period-> number of cycles between multiplex switches. A value of 0 disables multiplexing for this thread,
// which means you must explicitly call Bgpm_SwitchMux to switch between groups.
// normalize->Pass in BGPM_NORMAL or BGPM_NOTNORMAL to choose whether event counts
// reported by Bgpm_ReadEvent() or Bgpm_ReadEventList() will be scaled to the to the maximum number of cycles spent
// by any mux group.
// With BGPM_NOTNORMAL, Bgpm_ReadEvent() and Bgpm_ReadEventList() report the raw numbers and you may use
// Bgpm_GetMultiplex() and Bgpm_GetMuxEventElapsedCycles() to do your own normalization as desired.
Bgpm_SetMultiplex2(hEvtSet, period, normalize, BGPMMuxMinEvts);
Bgpm_AddEventList(hEvtSet, evtList, sizeof(evtList)/sizeof(unsigned) );
Bgpm_Apply(hEvtSet);
Bgpm_Start(hEvtSet);
const int loops = 100;
int i;
for (i=0; i<loops; i++) {
CreateEvents();
if(!period){Bgpm_SwitchMux(hEvtSet);} // Switching mutiplex is needed only in case of period=0.
}
Bgpm_Stop(hEvtSet);
PrintCounts(hEvtSet);
Bgpm_Disable();
}
unsigned MFMediaIOEx::Read(void* pb,unsigned size)
{
if (!CreateEvents())
return 0;
_dwReadOKSize = 0;
_blockState = true;
HRESULT hr = _pStream->BeginRead((BYTE*)pb,size,this,nullptr);
if (FAILED(hr))
{
_blockState = false;
return 0;
}
auto result = GetReadResult();
_blockState = false;
if (result != ReadOK || _dwReadOKSize == 0)
return 0;
return _dwReadOKSize;
}
TEST_F(FSEventsTests, test_fsevents_fire_event) {
// Assume event type is registered.
StartEventLoop();
// Simulate registering an event subscriber.
auto sub = std::make_shared<TestFSEventsEventSubscriber>();
auto status = sub->init();
// Create a subscriptioning context, note the added Event to the symbol
auto sc = sub->GetSubscription(0);
sub->subscribe(&TestFSEventsEventSubscriber::SimpleCallback, sc, nullptr);
CreateEvents();
// This time wait for the callback.
sub->WaitForEvents(kMaxEventLatency, 1);
// Make sure our expected event fired (aka subscription callback was called).
EXPECT_TRUE(sub->callback_count_ > 0);
EndEventLoop();
}
TEST_F(FSEventsTests, test_fsevents_event_action) {
// Assume event type is registered.
StartEventLoop();
// Simulate registering an event subscriber.
auto sub = std::make_shared<TestFSEventsEventSubscriber>();
auto status = sub->init();
auto sc = sub->GetSubscription(0);
EventFactory::registerEventSubscriber(sub);
sub->subscribe(&TestFSEventsEventSubscriber::Callback, sc, nullptr);
CreateEvents();
sub->WaitForEvents(kMaxEventLatency);
// Make sure the fsevents action was expected.
EXPECT_TRUE(sub->actions_.size() > 0);
if (sub->actions_.size() > 1) {
EXPECT_EQ(sub->actions_[0], "UPDATED");
}
EndEventLoop();
}
void GameEventManagerTests::TestGetAllEvents()
{
try
{
CreateEvents(*mEventMgr);
vector<GameEvent* > eventList;
mEventMgr->GetAllEvents(eventList);
for (unsigned i=0; i<25; i++)
{
GameEvent *found = mEventMgr->FindEvent(eventList[i]->GetUniqueId());
CPPUNIT_ASSERT_MESSAGE("Could not search by unique id.",found != NULL);
mEventMgr->RemoveEvent(eventList[i]->GetUniqueId());
}
CPPUNIT_ASSERT_MESSAGE("Should have 25 events in the manager.",mEventMgr->GetNumEvents() == 25);
mEventMgr->ClearAllEvents();
CPPUNIT_ASSERT_MESSAGE("Should have 0 events in the manager.",mEventMgr->GetNumEvents() == 0);
}
catch (const dtUtil::Exception& e)
{
CPPUNIT_FAIL(e.ToString());
}
}
void MusicEffect::Render(RenderBuffer &buffer,
int bars, const std::string& type,
int sensitivity, bool scale,
const std::string& scalenotes, int offsetx,
int startnote, int endnote,
const std::string& colourtreatment,
bool fade)
{
// no point if we have no media
if (buffer.GetMedia() == NULL)
{
return;
}
int nType = DecodeType(type);
int nTreatment = DecodeColourTreatment(colourtreatment);
int nScaleNotes = DecodeScaleNotes(scalenotes);
// Grab our cache
MusicRenderCache *cache = (MusicRenderCache*)buffer.infoCache[id];
if (cache == nullptr) {
cache = new MusicRenderCache();
buffer.infoCache[id] = cache;
}
int &_bars = cache->_bars;
int &_startNote = cache->_startNote;
int &_endNote = cache->_endNote;
int &_type = cache->_type;
int &_offsetx = cache->_offsetx;
bool &_scale = cache->_scale;
int &_sensitivity = cache->_sensitivity;
int &_scalenotes = cache->_scalenotes;
bool &_fade = cache->_fade;
int& _colourTreatment = cache->_colourTreatment;
std::vector<std::list<MusicEvent*>*>& _events = cache->_events;
int actualbars = std::min(bars, std::min(endnote - startnote + 1, buffer.BufferWi - offsetx));
int notesperbar = (endnote - startnote + 1) / actualbars;
int actualendnote = startnote + std::min(endnote, actualbars * notesperbar);
int lightsperbar = 0.5 + (float)(buffer.BufferWi - offsetx) / (float)actualbars;
// Check for config changes which require us to reset
if (buffer.needToInit || _bars != bars || _type != nType || _startNote != startnote ||
_endNote != endnote || _offsetx != offsetx || _scale != scale ||
_scalenotes != nScaleNotes || _sensitivity != sensitivity || _colourTreatment != nTreatment || _fade != fade)
{
buffer.needToInit = false;
_bars = bars;
_fade = fade;
_startNote = startnote;
_endNote = endnote;
_colourTreatment = nTreatment;
_type = nType;
_offsetx = offsetx;
_scale = scale;
_sensitivity = sensitivity;
_scalenotes = nScaleNotes;
cache->ClearEvents();
// We limit bars to the width of the model less the x offset
CreateEvents(buffer, _events, _startNote, actualendnote, actualbars, _scalenotes, _sensitivity);
}
int per = 1;
if (_scale)
{
per = lightsperbar;
}
try
{
for (int x = 0; x < _events.size(); x++)
{
for (int i = 0; i < per; i++)
{
switch (_type)
{
case 1:
RenderMorph(buffer, (x*per) + i + _offsetx, _bars, _startNote, _endNote, *_events[x], _colourTreatment, false, fade);
break;
case 2:
RenderMorph(buffer, (x*per) + i + _offsetx, _bars, _startNote, _endNote, *_events[x], _colourTreatment, true, fade);
break;
case 3:
RenderCollide(buffer, (x*per) + i + _offsetx, _bars, _startNote, _endNote, true /* collide */, *_events[x], _colourTreatment, fade);
break;
case 4:
RenderCollide(buffer, (x*per) + i + _offsetx, _bars, _startNote, _endNote, false /* uncollide */,* _events[x], _colourTreatment, fade);
break;
case 5:
RenderOn(buffer, (x*per) + i + _offsetx, _bars, _startNote, _endNote, *_events[x], _colourTreatment, fade);
break;
}
}
}
}
catch (...)
{
// This is here to let me catch any exceptions and stop the exception causing the render thread to die
//int a = 0;
}
}
ccsCOMPL_STAT wsf2ex1APPLICATION::Init(int argCount, char *arg[])
{
wsf2libLOG_TRACE();
ErrReset();
// Turn off logging of warning on EXIT command
evhTASK::LogExitWarning(FALSE);
// Parses the command line arguments
// and extract the configuration parameters
// for ENV NAME, DB POINT and PROC NAME from the
// command line or from the enviroment variables
if (EvaluateArgs(argCount, arg, wsf2ex1DB_ROOT_POINT) == FAILURE)
{
errAdd(wsf2ex1MOD, wsf2ex1ERR_INIT, __FILE_LINE__, "wrong argument(s)");
return FAILURE;
}
// Initialize CCS and connect to database
if(InitCCS() == FAILURE)
{
errAdd(wsf2ex1MOD, wsf2ex1ERR_INIT, __FILE_LINE__, "cannot init CCS");
return FAILURE;
}
// Logs current startup configuration
eccsLOG_1(("%s - Application started (proc name: %s, DB root point: %s)",
GetProcName(), GetProcName(), GetDbRoot()));
logData(wsf2ex1MOD,"%s - Application started (proc name: %s, DB root point: %s)",
GetProcName(), GetProcName(), GetDbRoot());
/*
* Create factory for ACTIONS, DATA, CONFIG and CONTROL
*/
wsf2libASSERT(mActionMgr == NULL);
mActionMgr = new wsf2ex1ACTION_MGR(GetDbRoot(), argCount, arg, GetEventMgr());
if (mActionMgr == NULL)
{
errAdd(wsf2ex1MOD, wsf2ex1ERR_FATAL, __FILE_LINE__, "no memory for allocating wsf2ex1ACTION_MGR");
return FAILURE;
}
if (wsf2libHELPER::ObjectOk(mActionMgr, "ACTION_MGR") == ccsFALSE)
{
errAdd(wsf2ex1MOD, wsf2ex1ERR_CREATE, __FILE_LINE__, "wsf2ex1ACTION_MGR");
return FAILURE;
}
/*
* Set FSM context
* TBD: rename method
*/
SetControl(mActionMgr->GetControl());
/*
* Instantiate events and actions
*/
if (CreateEvents(wsf2ex1EVENTS_FILENAME) == FAILURE)
{
errAdd(wsf2ex1MOD, wsf2ex1ERR_CREATE, __FILE_LINE__, "Events");
return FAILURE;
}
if (mActionMgr->CreateActions() == FAILURE)
{
errAdd(wsf2ex1MOD, wsf2ex1ERR_CREATE, __FILE_LINE__, "Actions");
return FAILURE;
}
/*
* Load SCXML Model
*/
if (LoadModel(wsf2ex1MODEL_FILENAME, mActionMgr->SCXMLGetActions(), mActionMgr->SCXMLGetActivities()) == FAILURE)
{
errAdd(wsf2ex1MOD, wsf2ex1ERR_FATAL, __FILE_LINE__, "cannot load SCXML model");
return FAILURE;
}
/*
* Initialize all events and actions and data structures
*/
if (mActionMgr->Init() == FAILURE)
{
errAdd(wsf2ex1MOD, wsf2ex1ERR_FATAL, __FILE_LINE__, "initializing actions and data structures");
return FAILURE;
}
/*
* Start the execution of SCXML model
*/
if (StartModel() == FAILURE)
{
errAdd(wsf2ex1MOD, wsf2ex1ERR_FATAL, __FILE_LINE__, "cannot start SCXML model execution");
return FAILURE;
}
return SUCCESS;
}