int main() { int timer_fd = timerfd_create(CLOCK_MONOTONIC, 0); if (timer_fd == -1) { perror("timerfd_create"); exit(EXIT_FAILURE); } struct itimerspec ts; ts.it_value.tv_sec = 1; ts.it_value.tv_nsec = 0; ts.it_interval.tv_sec = 1; ts.it_interval.tv_nsec = 0; i...
public class TaskTimer { private static int _interval = 1000;//间隔时间 private static bool _isRuning = false; private static Action _action = () => { while (_isRuning) { taskAction(); System.Threading.Thread.Sleep(_interval); } }; private static Action taskAction; Task timer = new...
arg) void* name(void *arg){#defineTASK_END return NULL;}typedefvoid* (*TimerTask)(void* arg);structTaskItem{TimerTask task;intinit_counter;intcounter;pthread_tth;void*arg;void*ret;intflag;intautoreset
如下为类型重定义部分,其中TaskStatus_t是程序执行状态的标志在调度中回返回当前任务距离下次执行的时间,TaskTime_t的基类型决定了可用时间长度,TaskCnt_t的基类型决定了计数次数的范围, typedef int64_t TaskStatus_t; typedef uint64_t TaskTime_t; typedef int64_t TaskCnt_t; typedef struct TaskList Task_t...
privatestaticTimer timer =newTimer(); privatestaticTimerTask timerTask =null; publicstaticvoidendTask(String s) { timerTask.cancel(); timerTask =null;//想要再次启动定时此处是关键 System.out.println(s); } publicstaticvoidstartTask(String s)throwsInterruptedException { ...
static int timer_handler(lua_State *L, void* ptr) { luat_timer_t *timer = (luat_timer_t *)ptr; uint64_t* idp = (uint64_t*)timer->id; lua_pushstring(L,"这是演示的返回值"); lua_pushstring(L,"这是演示的第二个返回值"); luat_cbcwait(L, *idp, 2); //表示这个回调有2个返...
Timer() : expired(true), tryToExpire(false) {} void start(int interval, std::function<void()> task) { if (!expired) return; expired = false; std::thread([this, interval, task]() { while (!tryToExpire) { std::this_thread::sleep_for(std::chrono::milliseconds(interval)); ...
t*task3;Task_t*task4;uint64_tGetTick(){return(uint64_t)GetTickCount64();}voidexampleTimer1...
tm_stop_timer(timeline); tm_destroy_timer(timeline); return 0; } 在这个例子中,我们创建了一个时间轴定时器,并设置了较小的时间间隔。然后,我们使用tm_schedule_task函数在特定的时间点安排了两个任务。在主循环中,我们不断更新时间轴定时器的状态,当到达预定的时间点时,相应的任务就会被执行。
Timertimer=newTimer();timer.scheduleAtFixedRate(newMyTask(),delay,period); 1. 2. 在此配置中,delay和period参数非常关键,合理配置可避免不必要的资源消耗。 类图(配置项关联) schedules1manyTimerTask+void run()+void cancel()Timer-List tasks+void scheduleAtFixedRate(TimerTask task, long delay, long peri...