* called when waits are interrupted.
   *
   * <p>On the other hand, if a signalled thread wakes up to discover that its guard is still not
   * satisfied, it does *not* need to call this method before returning to wait. This can only
   * happen due to spurious wakeup (ignorable) or another thread acquiring the lock before the

	// there was neither enough credit to steal or enough work to
	// do.
	assistQueue struct {
		lock mutex
		q    gQueue
	}

	// sweepWaiters is a list of blocked goroutines to wake when
	// we transition from mark termination to sweep.
	sweepWaiters struct {
		lock mutex
		list gList
	}

	// cycles is the number of completed GC cycles, where a GC

  Garbage collection may temporarily affect all the logical processors
  and the other metrics.

  The "Network", "Timers", and "Syscalls" traces indicate events in
  the runtime that cause goroutines to wake up.
</p>
<p>
  The visualization allows you to navigate events at scales ranging from several
  seconds to a handful of nanoseconds.

		w.wbuf2 = getempty()
	} else if wbuf := w.wbuf1; wbuf.nobj > 4 {
		w.wbuf1 = handoff(wbuf)
		w.flushedWork = true // handoff did putfull
	} else {
		return
	}
	// We flushed a buffer to the full list, so wake a worker.
	if gcphase == _GCmark {
		gcController.enlistWorker()
	}
}

// empty reports whether w has no mark work available.
//
//go:nowritebarrierrec
func (w *gcWork) empty() bool {

   * called when waits are interrupted.
   *
   * <p>On the other hand, if a signalled thread wakes up to discover that its guard is still not
   * satisfied, it does *not* need to call this method before returning to wait. This can only
   * happen due to spurious wakeup (ignorable) or another thread acquiring the lock before the

	intervalMin := func(backoff Backoff) time.Duration {
		d := backoff.Duration
		return d
	}

	// Because timing is dependent other factors in test environments, such as
	// whether the OS or go runtime scheduler wake the timers, excess duration
	// is logged by default and can be converted to a fatal error for testing.
	// fail := t.Fatalf
	fail := t.Logf

	for _, test := range []struct {
		name    string
		backoff Backoff

	}
	logger.V(4).Info("Orphan Pod created", "pod", klog.KObj(pod), "detail", pod)
	for _, rs := range rss {
		rsc.enqueueRS(rs)
	}
}

// When a pod is updated, figure out what replica set/s manage it and wake them
// up. If the labels of the pod have changed we need to awaken both the old
// and new replica set. old and cur must be *v1.Pod types.
func (rsc *ReplicaSetController) updatePod(logger klog.Logger, old, cur interface{}) {

  // block's timestamp to see if it should evict any files. At the current fake
  // timestamp of `now` + 2, file "a" is stale because its first block is stale,
  // but file "b" is not stale yet. Thus, once the pruning thread wakes up (in
  // one second of wall time), it should remove "a" and leave "b" alone.
  uint64 start = Env::Default()->NowSeconds();
  do {
    Env::Default()->SleepForMicroseconds(100000);

        // still be waiting. A short time later, the workers will wake up and start running the work.
        Instant expiry = Instant.now().plus(2, ChronoUnit.SECONDS);
        ExecutorState.HealthState healthState;
        do {

	}

	// Return the last fetch directly, reaching here means we have tried `retry` times, this will be
	// the last time for the retry.
	return getPublicKey()
}

func (r *JwksResolver) refresher() {
	// Wake up once in a while and refresh stale items.
	r.refreshTicker = time.NewTicker(r.refreshInterval)
	lastHasError := false
	for {
		select {
		case <-r.refreshTicker.C:
			if !r.jwksUribackgroundChannel {