ObjectFilter() kubetypes.DynamicObjectFilter

	// RunAndWait starts all informers and waits for their caches to sync.
	// Warning: this must be called AFTER .Informer() is called, which will register the informer.
	// "false" is returned if this prematurely exited without syncing.
	RunAndWait(stop <-chan struct{}) bool

	// WaitForCacheSync waits for all cache functions to sync, as well as all informers started by the *fake* client.

    }
    return this;
  }

  /**
   * Waits for the all the services to reach a terminal state. After this method returns all
   * services will either be {@linkplain Service.State#TERMINATED terminated} or {@linkplain
   * Service.State#FAILED failed}.
   */
  public void awaitStopped() {
    state.awaitStopped();
  }

  /**

	// sort only when necessary
	sort.Sort(byEvictionAndCreationTimestamp(terminatingPods))
	var wait sync.WaitGroup
	for i := 0; i < deleteCount; i++ {
		wait.Add(1)
		go func(pod *v1.Pod) {
			defer wait.Done()
			metrics.DeletingPodsTotal.WithLabelValues(pod.Namespace, metrics.PodGCReasonTerminatingOutOfService).Inc()

// A StartResult is a handle to the result of a call to [Start]. Call
// [StartResult.Wait] to wait for the completion of all work done on behalf of
// Start.
type StartResult struct {
	wg sync.WaitGroup
}

// Wait waits for the completion of all work initiated by [Start].
func (res *StartResult) Wait() {
	if res == nil {
		return
	}
	res.wg.Wait()
}

var daemonize = func(cmd *exec.Cmd) {}

	}

	synced := []cache.InformerSynced{kvh.csiDriversSynced}
	if !cache.WaitForCacheSync(wait.NeverStop, synced...) {
		klog.InfoS("Failed to wait for cache sync for CSIDriverLister")
		return fmt.Errorf("failed to wait for cache sync for CSIDriverLister")
	}

	return nil
}

func (kvh *kubeletVolumeHost) NewWrapperMounter(
	volName string,
	spec volume.Spec,
	pod *v1.Pod,

			// more costly than contention holding up a single goroutine.
			// It would take O(N) time to calculate how long each goroutine
			// has been waiting, so instead we charge avg(head-wait, tail-wait)*N.
			// head-wait is the longest wait and tail-wait is the shortest.
			// (When we do a lifo insertion, we preserve this property by
			// copying the old head's acquiretime into the inserted new head.

	<-rt.done

	if rt.err != nil {
		return
	}
	rt.reqBody.Close()
	io.ReadAll(rt.res.Body)
	rt.res.Body.Close()
	rt.t.Logf("RoundTrip %v: closed request body", rt.roundTripID)
}

// wantDial waits for the Transport to start a Dial.
func (dt *transportDialTester) wantDial() *transportDialTesterConn {
	c := <-dt.dials
	c.connID = dt.dialCount
	dt.dialCount++
	dt.t.Logf("Dial %v: started", c.connID)
	return c

  /**
   * Converts the given ThreadPoolExecutor into an ExecutorService that exits when the application
   * is complete. It does so by using daemon threads and adding a shutdown hook to wait for their
   * completion.
   *
   * <p>This method waits 120 seconds before continuing with JVM termination, even if the executor
   * has not finished its work.
   *

	// b) was force-deleted.
	//
	// It's now just waiting for garbage collection. We could wait
	// for it to actually get removed, but that may be blocked by
	// finalizers for the pod and thus get delayed.
	//
	// Worse, it is possible that there is a cyclic dependency
	// (pod finalizer waits for PVC to get removed, PVC protection
	// controller waits for pod to get removed).  By considering

	}

	installLog.Infof("Created CNI config %s", cniConfigFilepath)
	installLog.Debugf("CNI config: %s", pluginConfig)
	return cniConfigFilepath, nil
}

// If configured as chained CNI plugin, waits indefinitely for a main CNI config file to exist before returning
// Or until cancelled by parent context
func getCNIConfigFilepath(ctx context.Context, cniConfName, mountedCNINetDir string, chained bool) (string, error) {