extern "C" void Qt_dispatch_source_signal_lambda(){
char argv[] = "test";
int argc = 1;
QDispatchApplication app(argc, (char**)&argv);
MU_BEGIN_TEST(Qt_dispatch_source_signal_lambda);
EmitterLambda object;
// configure the source
QDispatchSource src(new QDispatchSourceTypeSignal(&object, SIGNAL(ready())));
src.setTargetQueue(QDispatch::globalQueue(QDispatch::LOW));
src.setHandler([=]{
MU_MESSAGE("Signal was emitted");
if(QDispatch::currentQueue().native() == dispatch_get_global_queue(DISPATCH_QUEUE_PRIORITY_LOW, 0))
MU_MESSAGE("Executed on low global queue");
else if(QDispatch::currentQueue().native() == dispatch_get_global_queue(DISPATCH_QUEUE_PRIORITY_DEFAULT, 0))
MU_MESSAGE("Executed on default global queue");
else if(QDispatch::currentQueue().native() == dispatch_get_global_queue(DISPATCH_QUEUE_PRIORITY_HIGH, 0))
MU_MESSAGE("Executed on high global queue");
else if(QDispatch::currentQueue().native() == dispatch_get_main_queue())
MU_MESSAGE("Executed on main queue");
MU_ASSERT_EQUAL_HEX(dispatch_get_global_queue(DISPATCH_QUEUE_PRIORITY_LOW, 0), QDispatch::currentQueue().native());
MU_PASS("");
});
// trigger the signal
object.notify();
app.exec();
MU_END_TEST;
}
void run(){
// we should be executed on the main queue
MU_ASSERT_EQUAL_HEX(QDispatch::currentQueue().native(), dispatch_get_main_queue());
// assert that we can really get the timer
MU_ASSERT_EQUAL_HEX(QDispatchTimer::current(), tested_timer);
// test the timer interval (but only after the second run
// as the first one will be started immediately
if(counter > 0) {
long diff = checked_time.elapsed();
MU_DESC_ASSERT_LESS_THAN_EQUAL("timer not too late", diff, 3*1000);
MU_DESC_ASSERT_LESS_THAN_EQUAL("timer not too early", 1*1000, diff);
}
checked_time.restart();
// only pass when the timer fired at least 5 times
MU_MESSAGE("\t%i", counter);
if(counter < 5)
counter++;
else {
MU_PASS("");
}
}
extern "C" void Qt_dispatch_after_lambda(){
QTime watch;
char argv[] = "test";
int argc = 1;
QDispatchApplication app(argc, (char**)&argv);
MU_BEGIN_TEST(Qt_dispatch_after_lambda);
watch.start();
QDispatch::globalQueue(QDispatch::DEFAULT).after(
QTime::currentTime().addMSecs(1000),
[=]{
MU_MESSAGE("Should finish between 0.5s and 1.5s: %f", watch.elapsed()/1000.0);
MU_ASSERT_GREATER_THAN_EQUAL(watch.elapsed(), 700);
}
);
QDispatch::mainQueue().after(
QTime::currentTime().addMSecs(2000),
[=]{
MU_MESSAGE("Should finish between 2s and 2.5s: %f", watch.elapsed()/1000.0);
MU_ASSERT_GREATER_THAN_EQUAL(watch.elapsed(), 1800);
MU_PASS("");
}
);
app.exec();
MU_END_TEST;
}
extern "C" void cxx_dispatch_fibo(){
MU_BEGIN_TEST(cxx_dispatch_fibo);
bool ticTac = true;
xdispatch::group theGroup;
xdispatch::operation* theOps[6];
int cpt = 0;
while(cpt < 3000) {
for(int i=0; i<6; i++) {
theOps[i] = new operation_fibo( 8 );
theGroup.async( theOps[i] );
}
theGroup.wait( DISPATCH_TIME_FOREVER );
#if 0
if(ticTac)
MU_MESSAGE("Tic");
else
MU_MESSAGE("Tac");
#endif
ticTac = !ticTac;
cpt++;
}
MU_PASS("");
MU_END_TEST;
}
static void exec_runnables() {
for(int i = 0; i < 5; i++)
iter_block_run->run(i);
delete iter_block_run;
MU_ASSERT_EQUAL(counter, 1+2+3+4);
block_run->run();
delete block_run;
MU_ASSERT_EQUAL(counter, 1+2+3+4+5);
MU_PASS("");
}
extern "C" void dispatch_plusplus_blocks(void) {
MU_BEGIN_TEST(dispatch_plusplus_blocks);
dispatch_queue_t q = dispatch_get_main_queue();
MU_ASSERT_NOT_NULL(q);
dispatch_async(dispatch_get_main_queue(), ^{
int i = 0;
i++;
MU_ASSERT_EQUAL(i, 1);
const char* pass = "******";
MU_PASS(pass);
});
extern "C" void Qt_early_dispatch2_lambda(){
MU_BEGIN_TEST(Qt_early_dispatch2_lambda);
QDispatchQueue q = QDispatch::mainQueue();
MU_ASSERT_NOT_NULL( q.native() );
q.async( [=]{ MU_PASS(""); } );
char* argv = QString("test").toAscii().data();
int argc = 1;
QDispatchCoreApplication app(argc,&argv);
app.exec();
MU_END_TEST;
}
extern "C" void cxx_dispatch_semaphore(){
static size_t total;
MU_BEGIN_TEST(cxx_dispatch_semaphore);
xdispatch::semaphore* dsema = new xdispatch::semaphore(1);
xdispatch::queue("cxx_dispatch_semaphore").apply(LAPS, new acquire_inc(dsema, total));
delete dsema;
MU_ASSERT_EQUAL(total, LAPS);
MU_PASS("");
MU_END_TEST;
}
static void
cascade(void* context) {
uintptr_t idx, *idxptr = (uintptr_t*)context;
if (done) return;
idx = *idxptr + 1;
if (idx < QUEUES) {
*idxptr = idx;
dispatch_async_f(queues[idx], context, cascade);
}
if (dispatch_atomic_dec(&iterations) == 0) {
done = 1;
histogram();
MU_PASS("Please check histogram to be sure");
}
}
extern "C" void Qt_dispatch_current_lambda(){
char argv[] = "test";
int argc = 1;
QDispatchApplication app(argc, (char**)&argv);
MU_BEGIN_TEST(Qt_dispatch_current_lambda);
QDispatch::globalQueue().async([=]{
QTest::qSleep(10);
MU_MESSAGE("Queue should be global default queue");
qDebug() << QDispatch::currentQueue();
QDispatch::mainQueue().async(QDispatchMakeRunnable([=]{
QTest::qSleep(10);
MU_MESSAGE("Queue should be main queue");
qDebug() << QDispatch::currentQueue();
MU_PASS("");
}));
});
app.exec();
MU_END_TEST;
}
static void done(void *arg) {
//sleep(1);
MU_PASS("All blocks done");
}
static void pass(void* dt){
MU_PASS("Core API is working");
}
extern "C" void cxx_dispatch_proc_lambda(void)
{
dispatch_source_t proc_native;
int res;
pid_t pid;
MU_BEGIN_TEST(cxx_dispatch_proc_lambda);
// Creates a process and register multiple observers. Send a signal,
// exit the process, etc., and verify all observers were notified.
//
// Simple child process that sleeps 2 seconds.
//
posix_spawnattr_t attr;
res = posix_spawnattr_init(&attr);
MU_ASSERT_TRUE( res );
res = posix_spawnattr_setflags(&attr, POSIX_SPAWN_START_SUSPENDED);
MU_ASSERT_TRUE( res );
char* args[] = {
(char*)"/bin/sleep", (char*)"2", NULL
};
res = posix_spawnp(&pid, args[0], NULL, &attr, args, NULL);
if (res < 0) {
perror(args[0]);
exit(127);
}
res = posix_spawnattr_destroy(&attr);
MU_ASSERT_TRUE( res );
xdispatch::queue* completion = new xdispatch::queue("completion");
MU_ASSERT_TRUE(pid > 0);
//
// Suspend the "completion" queue when each observer is created.
// Each observer resumes the queue when the child process exits.
// If the queue is resumed too few times (indicating that not all
// observers received the exit event) then the test case will not exit
// within the alloted time and result in failure.
//
int i;
for (i = 0; i < PID_CNT; ++i) {
completion->suspend();
proc_native = dispatch_source_create(DISPATCH_SOURCE_TYPE_PROC, pid, DISPATCH_PROC_EXIT, dispatch_get_main_queue());
xdispatch::source* proc = new xdispatch::source( new xdispatch::native_source(proc_native) );
MU_DESC_ASSERT_NOT_NULL("DISPATCH_SOURCE_TYPE_PROC", proc);
proc->handler([=]{
long flags = dispatch_source_get_data( proc->native_source() );
MU_DESC_ASSERT_EQUAL("DISPATCH_PROC_EXIT", flags, DISPATCH_PROC_EXIT);
event_cnt++;
completion->resume();
});
proc->resume();
}
//
// The completion block will be pending on the completion queue until it
// has been fully resumed, at which point the test will exit successfully.
//
completion->async([=]{
int status;
int res2 = waitpid(pid, &status, 0);
MU_ASSERT_TRUE(res2 != -1);
MU_DESC_ASSERT_EQUAL("Sub-process exited", WEXITSTATUS(status) | WTERMSIG(status), 0);
MU_DESC_ASSERT_EQUAL("Event count", event_cnt, PID_CNT);
MU_PASS("");
});
kill(pid, SIGCONT);
xdispatch::exec();
MU_FAIL("Should never reach this");
MU_END_TEST;
}
void operator ()(){
MU_ASSERT_TRUE(xdispatch::source::data<std::string>() == "any working");
MU_PASS("");
}
void run() {
QDispatchQueue m = QDispatch::mainQueue();
QDispatchQueue c = QDispatch::currentQueue();
MU_ASSERT_TRUE(m.label() == c.label());
MU_PASS("Great!");
}
void group_notify(void* data){
dispatch_queue_t m = dispatch_get_main_queue();
dispatch_queue_t c = dispatch_get_current_queue();
MU_ASSERT_EQUAL(m, c);
MU_PASS("Great!");
}
