ipvs utilipvs.Interface,
	ipset utilipset.Interface,
	sysctl utilsysctl.Interface,
	exec utilexec.Interface,
	syncPeriod time.Duration,
	minSyncPeriod time.Duration,
	excludeCIDRs []string,
	strictARP bool,
	tcpTimeout time.Duration,
	tcpFinTimeout time.Duration,
	udpTimeout time.Duration,
	masqueradeAll bool,
	masqueradeBit int,
	localDetectors map[v1.IPFamily]proxyutil.LocalTrafficDetector,
	hostname string,

	utilstrings "k8s.io/utils/strings"
)

const (
	reconcilerLoopPeriod          = 10 * time.Millisecond
	syncLoopPeriod                = 100 * time.Minute
	maxWaitForUnmountDuration     = 50 * time.Millisecond
	maxLongWaitForUnmountDuration = 4200 * time.Second
	volumeAttachedCheckTimeout    = 5 * time.Second
)

var registerMetrics sync.Once

// Calls Run()
// Verifies there are no calls to attach or detach.

// getModTime will return the ModTime of the underlying version.
func (j xlMetaV2Version) getModTime() time.Time {
	switch j.Type {
	case ObjectType:
		return time.Unix(0, j.ObjectV2.ModTime)
	case DeleteType:
		return time.Unix(0, j.DeleteMarker.ModTime)
	case LegacyType:
		return j.ObjectV1.Stat.ModTime
	}
	return time.Time{}
}

// getVersionID will return the versionID of the underlying version.

	case "js":
		startAtime = startAtime.Truncate(time.Second)
		startMtime = startMtime.Truncate(time.Second)
	}
	at0 := startAtime
	mt0 := startMtime
	t0 := startMtime.Truncate(time.Second).Add(1 * time.Hour)

	tests := []struct {
		aTime     time.Time
		mTime     time.Time
		wantATime time.Time
		wantMTime time.Time
	}{
		{
			aTime:     time.Time{},
			mTime:     time.Time{},

		},
		Status: v1.PodStatus{},
	}
	now := metav1.Now()
	startTime := metav1.NewTime(now.Time.Add(-1 * time.Minute))
	pod.Status.StartTime = &startTime
	syncer.SetPodStatus(pod, getRandomPodStatus())

	status := expectPodStatus(t, syncer, pod)
	if !status.StartTime.Time.Equal(startTime.Time) {
		t.Errorf("Unexpected start time, expected %v, actual %v", startTime, status.StartTime)
	}
}

		newPv, err := env.client.CoreV1().PersistentVolumes().Update(ctx, pv, metav1.UpdateOptions{})
		if err != nil {
			return err
		}
		pvs[i] = newPv
	}
	return wait.PollUntilContextTimeout(ctx, 100*time.Millisecond, 3*time.Second, false, func(ctx context.Context) (bool, error) {
		for _, pv := range pvs {
			obj, err := env.internalBinder.pvCache.GetAPIObj(pv.Name)
			if obj == nil || err != nil {
				return false, nil
			}

type memRecord struct {
	// The following complex 3-stage scheme of stats accumulation
	// is required to obtain a consistent picture of mallocs and frees
	// for some point in time.
	// The problem is that mallocs come in real time, while frees
	// come only after a GC during concurrent sweeping. So if we would
	// naively count them, we would get a skew toward mallocs.
	//

  const int num_dims = 2;
  int64_t* dims = new int64_t[num_dims];
  int64_t num_elements = 1;
  dims[0] = batch_size;
  dims[1] = 1;
  for (int64_t i = 0; i < num_dims; ++i) {
    num_elements *= dims[i];
  }
  TF_Tensor* t = TF_AllocateTensor(TF_STRING, dims, num_dims,
                                   sizeof(TF_TString) * num_elements);
  delete[] dims;

	// storing the services out of time order to test that it's being sorted properly.
	testOutboundListenerConflict(t,
		buildService("test1.com", wildcardIPv4, protocol.HTTP, tnow.Add(1*time.Second)),
		buildService("test2.com", wildcardIPv4, "unknown", tnow),
		buildService("test3.com", wildcardIPv4, protocol.HTTP, tnow.Add(2*time.Second)))
}

   *
   * <p>The delegate future is interrupted and cancelled if it times out.
   *
   * @param delegate The future to delegate to.
   * @param time when to time out the future
   * @param unit the time unit of the time parameter
   * @param scheduledExecutor The executor service to enforce the timeout.
   * @since 19.0
   */
  @J2ktIncompatible