static VALUE
rb_szqueue_clear(VALUE self)
{
rb_ary_clear(GET_QUEUE_QUE(self));
wakeup_all_threads(GET_SZQUEUE_WAITERS(self));
return self;
}
static VALUE
queue_do_close(VALUE self, int is_szq)
{
if (!queue_closed_p(self)) {
FL_SET(self, QUEUE_CLOSED);
if (queue_num_waiting(self) > 0) {
VALUE waiters = GET_QUEUE_WAITERS(self);
wakeup_all_threads(waiters);
}
if (is_szq && szqueue_num_waiting_producer(self) > 0) {
VALUE waiters = GET_SZQUEUE_WAITERS(self);
wakeup_all_threads(waiters);
}
}
return self;
}
/* ========================================================================================== */
void *routine_A(void *)
{
wait_signal(cond, mutex);
//for(int i = 0; i < CYCLE_COUNT; i++)
{
printf("A");
strcat(result_str, "A");
//QTest::qSleep(SLEEPING_TIME);
//usleep(SLEEPING_TIME);
}
Sleep(1);
wakeup_all_threads(wait_A, mutex_A);
return NULL;
}
void *routine_G(void *)
{
wait_signal(cond, mutex);
wait_signal(wait_E, mutex_E);
//for(int i = 0; i < CYCLE_COUNT + 5; i++)
{
sem_wait(&tSemaphore);
strcat(result_str, "G");
printf("G");
sem_post(&tSemaphore);
//QTest::qSleep(SLEEPING_TIME);
//usleep(SLEEPING_TIME);
}
//sleep(1);
wakeup_all_threads(wait_G, mutex_G);
return NULL;
}
void *routine_E(void *)
{
wait_signal(cond, mutex);
wait_signal(wait_B, mutex);
//for(int i = 0; i < CYCLE_COUNT * 2; i++)
{
pthread_mutex_lock(&tMutex);
printf("E");
strcat(result_str, "E");
pthread_mutex_unlock(&tMutex);
//QTest::qSleep(SLEEPING_TIME);
//usleep(SLEEPING_TIME);
}
//sleep(1);
wakeup_all_threads(wait_E, mutex_E);
return NULL;
}
void *routine_F(void *)
{
wait_signal(cond, mutex);
wait_signal(wait_D, mutex_D);
//for(int i = 0; i < CYCLE_COUNT * 2; i++)
{
sem_wait(&tSemaphore);
strcat(result_str, "F");
printf("F");
sem_post(&tSemaphore);
//QTest::qSleep(SLEEPING_TIME);
//usleep(SLEEPING_TIME);
}
//sleep(1);
free_F = true;
wakeup_all_threads(wait_F, mutex_F);
return NULL;
}
/* ========================================================================================== */
int main()
{
/* ================================================================ */
pthread_attr_t attrs;
pthread_attr_init(&attrs);
pthread_attr_setdetachstate(&attrs, PTHREAD_CREATE_JOINABLE);
pthread_mutex_init(&tMutex, NULL);
sem_init(&tSemaphore, NULL, MAX_SEM_THREAD_COUNT);
free_F = free_H = free_K = free_P = false;
/* ================================================================ */
/* if (pthread_create(&Thread_A, &attrs, routine_A, NULL))
printf("[main] error creating thread A.\n");
if (pthread_create(&Thread_B, &attrs, routine_B, NULL))
printf("[main] error creating thread B.\n");
if (pthread_create(&Thread_C, &attrs, routine_C, NULL))
printf("[main] error creating thread C.\n");
if (pthread_create(&Thread_E, &attrs, routine_E, NULL))
printf("[main] error creating thread E.\n");
if (pthread_create(&Thread_D, &attrs, routine_D, NULL))
printf("[main] error creating thread D.\n");
if (pthread_create(&Thread_F, &attrs, routine_F, NULL))
printf("[main] error creating thread F.\n");
if (pthread_create(&Thread_G, &attrs, routine_G, NULL))
printf("[main] error creating thread G.\n");
if (pthread_create(&Thread_H, &attrs, routine_H, NULL))
printf("[main] error creating thread H.\n");
if (pthread_create(&Thread_P, &attrs, routine_P, NULL))
printf("[main] error creating thread P.\n");
if (pthread_create(&Thread_K, &attrs, routine_K, NULL))
printf("[main] error creating thread K.\n");
if (pthread_create(&Thread_N, &attrs, routine_N, NULL))
printf("[main] error creating thread N.\n");
if (pthread_create(&Thread_M, &attrs, routine_M, NULL))
printf("[main] error creating thread M.\n");
/**/
if (pthread_create(&Thread_P, &attrs, routine_P, NULL))
printf("[main] error creating thread P.\n");
if (pthread_create(&Thread_E, &attrs, routine_E, NULL))
printf("[main] error creating thread E.\n");
if (pthread_create(&Thread_H, &attrs, routine_H, NULL))
printf("[main] error creating thread H.\n");
if (pthread_create(&Thread_B, &attrs, routine_B, NULL))
printf("[main] error creating thread B.\n");
if (pthread_create(&Thread_K, &attrs, routine_K, NULL))
printf("[main] error creating thread K.\n");
if (pthread_create(&Thread_C, &attrs, routine_C, NULL))
printf("[main] error creating thread C.\n");
if (pthread_create(&Thread_A, &attrs, routine_A, NULL))
printf("[main] error creating thread A.\n");
if (pthread_create(&Thread_F, &attrs, routine_F, NULL))
printf("[main] error creating thread F.\n");
if (pthread_create(&Thread_M, &attrs, routine_M, NULL))
printf("[main] error creating thread M.\n");
if (pthread_create(&Thread_G, &attrs, routine_G, NULL))
printf("[main] error creating thread G.\n");
if (pthread_create(&Thread_D, &attrs, routine_D, NULL))
printf("[main] error creating thread D.\n");
if (pthread_create(&Thread_N, &attrs, routine_N, NULL))
printf("[main] error creating thread N.\n");
/* ================================================================ */
Sleep(5);
wakeup_all_threads(cond, mutex);
/* ================================================================ */
view_join_status(Thread_A, "main", "A");
view_join_status(Thread_B, "main", "B");
view_join_status(Thread_C, "main", "C");
view_join_status(Thread_D, "main", "D");
view_join_status(Thread_E, "main", "E");
view_join_status(Thread_F, "main", "F");
view_join_status(Thread_G, "main", "G");
view_join_status(Thread_H, "main", "H");
view_join_status(Thread_K, "main", "K");
view_join_status(Thread_M, "main", "M");
view_join_status(Thread_N, "main", "N");
/* ================================================================ */
strcat(result_str, "\0");
printf("\n\"%s\"\n", result_str);
pthread_mutex_destroy(&tMutex);
/* ========================================== */
printf("\nHello, world!\n");
_getch();
return 0;
}
static VALUE
rb_condvar_broadcast(VALUE self)
{
wakeup_all_threads(GET_CONDVAR_WAITERS(self));
return self;
}
