// It reports whether any elements were removed.
// Because it is only intended for timers, it does not
// handle waiting senders at all (all timer channels
// use non-blocking sends to fill the buffer).
func timerchandrain(c *hchan) bool {
	// Note: Cannot use empty(c) because we are called
	// while holding c.timer.sendLock, and empty(c) will
	// call c.timer.maybeRunChan, which will deadlock.
	// We are emptying the channel, so we only care about

	// Do the deferred run
	timer.advance(1 * time.Millisecond) // rel=1000ms
	waitForRun("second run", t, timer, obj)

	// Try again immediately
	runner.Run()
	waitForDefer("too soon after second", t, timer, obj, 1*time.Second)

	// Run again, before minInterval expires.
	timer.advance(1 * time.Millisecond) // rel=1ms
	runner.Run()

	SYS_TIMER_CREATE         = 235 // { int|sys||timer_create(clockid_t clock_id, struct sigevent *evp, timer_t *timerid); }
	SYS_TIMER_DELETE         = 236 // { int|sys||timer_delete(timer_t timerid); }
	SYS_TIMER_GETOVERRUN     = 239 // { int|sys||timer_getoverrun(timer_t timerid); }
	SYS_FDATASYNC            = 241 // { int|sys||fdatasync(int fd); }
	SYS_MLOCKALL             = 242 // { int|sys||mlockall(int flags); }

	// See time.Sleep.
	Sleep(d time.Duration)
}

// implement our timer in terms of std time.Timer.
type realTimer struct {
	timer *time.Timer
	next  time.Time
}

func (rt *realTimer) C() <-chan time.Time {
	return rt.timer.C
}

func (rt *realTimer) Reset(d time.Duration) bool {
	rt.next = time.Now().Add(d)
	return rt.timer.Reset(d)
}

func (rt *realTimer) Stop() bool {
	return rt.timer.Stop()
}

        then:
        timer.getElapsed() == "51.243 secs"
    }

    def testOnlySecondsEvenMs() {
        when:
        setTime(4000)

        then:
        timer.getElapsed() == "4.0 secs"
    }

    def testMinutesAndSeconds() {
        when:
        setTime(0, 32, 40, 322)

        then:
        timer.getElapsed() == "32 mins 40.322 secs"
    }

    def testHoursMinutesAndSeconds() {

    interface Params : BuildServiceParameters {
        val timeoutMillis: Property<Long>
        val projectDirectory: DirectoryProperty
    }

    private
    val timer: Timer = Timer(true).apply {
        schedule(
            timerTask {
                execOperations.exec {
                    commandLine(
                        "${System.getProperty("java.home")}/bin/java",

}

// A timerCtx carries a timer and a deadline. It embeds a cancelCtx to
// implement Done and Err. It implements cancel by stopping its timer then
// delegating to cancelCtx.cancel.
type timerCtx struct {
	cancelCtx
	timer *time.Timer // Under cancelCtx.mu.

	deadline time.Time
}

func (c *timerCtx) Deadline() (deadline time.Time, ok bool) {
	return c.deadline, true
}

    Future<?> localTimer = timer;
    // Try to cancel the timer as an optimization.
    // timer may be null if this call to run was by the timer task since there is no happens-before
    // edge between the assignment to timer and an execution of the timer task.
    if (localTimer != null) {
      localTimer.cancel(false);
    }

    delegateRef = null;
    timer = null;
  }

    Future<?> localTimer = timer;
    // Try to cancel the timer as an optimization.
    // timer may be null if this call to run was by the timer task since there is no happens-before
    // edge between the assignment to timer and an execution of the timer task.
    if (localTimer != null) {
      localTimer.cancel(false);
    }

    delegateRef = null;
    timer = null;
  }

				continue
			}

			// Steal timers from p2. This call to checkTimers is the only place
			// where we might hold a lock on a different P's timers. We do this
			// once on the last pass before checking runnext because stealing
			// from the other P's runnext should be the last resort, so if there
			// are timers to steal do that first.
			//
			// We only check timers on one of the stealing iterations because