}
	}

	// Assume we removed the containers so that we're not too aggressive.
	return containers[:numToKeep]
}

// removeOldestNSandboxes removes the oldest inactive toRemove sandboxes and
// returns the resulting slice.
func (cgc *containerGC) removeOldestNSandboxes(ctx context.Context, sandboxes []sandboxGCInfo, toRemove int) {
	numToKeep := len(sandboxes) - toRemove

	// for all containers a pod
	containerMap containermap.ContainerMap

	// sourcesReady provides the readiness of kubelet configuration sources such as apiserver update readiness.
	// We use it to determine when we can purge inactive pods from checkpointed state.
	sourcesReady config.SourcesReady

	// stateFileDirectory holds the directory where the state file for checkpoints is held.
	stateFileDirectory string

//
// If a kubeClient is provided, then it synchronizes ResourceSlices
// with the resource information provided by plugins. Without it,
// the controller is inactive. This can happen when kubelet is run stand-alone
// without an apiserver. In that case we can't and don't need to publish
// ResourceSlices.

	nodeAllocatableReservation v1.ResourceList

	// sourcesReady provides the readiness of kubelet configuration sources such as apiserver update readiness.
	// We use it to determine when we can purge inactive pods from checkpointed state.
	sourcesReady config.SourcesReady

	// stateFileDirectory holds the directory where the state file for checkpoints is held.
	stateFileDirectory string

func (g *GenericPLEG) updateCache(ctx context.Context, pod *kubecontainer.Pod, pid types.UID) (error, bool) {
	if pod == nil {
		// The pod is missing in the current relist. This means that
		// the pod has no visible (active or inactive) containers.
		klog.V(4).InfoS("PLEG: Delete status for pod", "podUID", string(pid))
		g.cache.Delete(pid)
		return nil, true
	}

	g.podCacheMutex.Lock()
	defer g.podCacheMutex.Unlock()

	activePods ActivePodsFunc

	// sourcesReady provides the readiness of kubelet configuration sources such as apiserver update readiness.
	// We use it to determine when we can purge inactive pods from checkpointed state.
	sourcesReady config.SourcesReady

	// allDevices holds all the devices currently registered to the device manager
	allDevices ResourceDeviceInstances

    assertTrue(invokable.isAnnotationPresent(Tested.class));
  }

  public void testNativeMethod() throws Exception {
    Invokable<?, Object> invokable = A.method("nativeMethod");
    assertTrue(invokable.isNative());
    assertTrue(invokable.isPackagePrivate());
  }

  public void testSynchronizedMethod() throws Exception {
    Invokable<?, Object> invokable = A.method("synchronizedMethod");

    assertTrue(invokable.isAnnotationPresent(Tested.class));
  }

  public void testNativeMethod() throws Exception {
    Invokable<?, Object> invokable = A.method("nativeMethod");
    assertTrue(invokable.isNative());
    assertTrue(invokable.isPackagePrivate());
  }

  public void testSynchronizedMethod() throws Exception {
    Invokable<?, Object> invokable = A.method("synchronizedMethod");

// stopTimer stops a timer.
// It reports whether t was stopped before being run.
//
//go:linkname stopTimer time.stopTimer
func stopTimer(t *timeTimer) bool {
	return t.stop()
}

// resetTimer resets an inactive timer, adding it to the timer heap.
//
// Reports whether the timer was modified before it was run.
//
//go:linkname resetTimer time.resetTimer
func resetTimer(t *timeTimer, when, period int64) bool {

	podMap := make(map[types.UID][]*v1.Pod, len(rsList))
	for _, rs := range rsList {
		podMap[rs.UID] = []*v1.Pod{}
	}
	for _, pod := range pods {
		// Do not ignore inactive Pods because Recreate Deployments need to verify that no
		// Pods from older versions are running before spinning up new Pods.
		controllerRef := metav1.GetControllerOf(pod)
		if controllerRef == nil {
			continue
		}