log.Fatalf("NewDelayedInformer called without a CrdWatcher enabled")
	}
	delay := newDelayedFilter(gvr, watcher)
	inf := func() informerfactory.StartableInformer {
		opts := ToOpts(c, gvr, filter)
		opts.InformerType = informerType
		return kubeclient.GetInformerFilteredFromGVR(c, opts, gvr)
	}
	return newDelayedInformer[T](gvr, inf, delay, filter)
}

			{ "kid": "fakeKey1_2", "alg": "RS256", "kty": "RSA", "n": "123", "e": "456", "bla": "blah" } ] }`
)

// Wrap the original handler with a delay
func withDelay(handler http.Handler, delay time.Duration) http.Handler {
	return http.HandlerFunc(func(w http.ResponseWriter, r *http.Request) {
		time.Sleep(delay)
		handler.ServeHTTP(w, r)
	})
}

// MockOpenIDDiscoveryServer is the in-memory openID discovery server.

	afterSecondLog = make(chan struct{})
)

func TestInterruptor(t *testing.T) {
	t.Parallel()

	<-afterFirstLog
	t.Run("interruption", func (t *testing.T) {})
	close(afterSubTest)
	<-afterSecondLog // Delay the "PASS: TestInterruptor" line until after "CONT  TestLog".
}

func TestLog(t *testing.T) {
	t.Parallel()

	t.Logf("this is the first TestLog log")
	close(afterFirstLog)
	<-afterSubTest

		if err != nil {
			return err
		}
		if len(pods.Items) > 0 {
			return errors.New("CNI Daemonset pod still exists after deletion")
		}
		return nil
	}, retry.Delay(1*time.Second), retry.Timeout(80*time.Second))
}

func deployCNIDaemonset(ctx framework.TestContext, c cluster.Cluster, cniDaemonSet *appsv1.DaemonSet) {
	deployDaemonSet := appsv1.DaemonSet{}

package org.codelibs.fess.crawler.interval;

public interface IntervalController {
    int PRE_PROCESSING = 1;

    int POST_PROCESSING = 2;

    int NO_URL_IN_QUEUE = 4;

    int WAIT_NEW_URL = 8;

    void delay(int type);

		return
	}

	// queue after the max of endpointSliceChangeMinSyncDelay and
	// endpointUpdatesBatchPeriod.
	delay := endpointSliceChangeMinSyncDelay
	if c.endpointUpdatesBatchPeriod > delay {
		delay = c.endpointUpdatesBatchPeriod
	}
	c.serviceQueue.AddAfter(key, delay)
}

func (c *Controller) addPod(obj interface{}) {
	pod := obj.(*v1.Pod)

		}
	}

	// Undo the interlacing if necessary.
	if d.imageFields&fInterlace != 0 {
		uninterlace(m)
	}

	if keepAllFrames || len(d.image) == 0 {
		d.image = append(d.image, m)
		d.delay = append(d.delay, d.delayTime)
		d.disposal = append(d.disposal, d.disposalMethod)
	}
	// The GIF89a spec, Section 23 (Graphic Control Extension) says:
	// "The scope of this extension is the first graphic rendering block

	}
	if b.Duration > 0 {
		return &fixedTimer{new: internalClock.NewTicker, interval: b.Duration}
	}
	return newNoopTimer()
}

// delay implements the core delay algorithm used in this package.
func delay(steps int, duration, cap time.Duration, factor, jitter float64) (_ time.Duration, next time.Duration, nextSteps int) {
	// when steps is non-positive, do not alter the base duration
	if steps < 1 {

		handles.Inc()
		return nil
	}))
	q.Add(types.NamespacedName{Name: "something"})
	stop := make(chan struct{})
	go q.Run(stop)
	retry.UntilOrFail(t, q.HasSynced, retry.Delay(time.Microsecond))
	assert.Equal(t, handles.Load(), 1)
	q.Add(types.NamespacedName{Name: "something else"})
	close(stop)
	assert.NoError(t, q.WaitForClose(time.Second))
	// event 2 is guaranteed to happen from WaitForClose

	body := bytes.Buffer{}

	if err := r.ParseForm(); err != nil {
		writeError(&body, "ParseForm() error: "+err.Error())
	}

	// If the request has form ?delay=[:duration] wait for duration
	// For example, ?delay=10s will cause the response to wait 10s before responding
	if err := delayResponse(r); err != nil {
		writeError(&body, "error delaying response error: "+err.Error())
	}