wait.Until(func() {
		// fastNodeStatusUpdate returns true when it succeeds or when the grace period has expired
		// (status was not updated within nodeReadyGracePeriod and the second argument below gets true),
		// then we close the channel and abort the loop.
		if kl.fastNodeStatusUpdate(ctx, kl.clock.Since(start) >= nodeReadyGracePeriod) {
			close(stopCh)
		}
	}, 100*time.Millisecond, stopCh)
}

	// vendoring or possible module adjustment.
	// Every import path should be loaded initially with ResolveImport,
	// and then the expanded version (for example with the /vendor/ in it)
	// gets recorded as the canonical import path. At that point, future loads
	// of that package must not pass ResolveImport, because
	// disallowVendor will reject direct use of paths containing /vendor/.
	ResolveImport = 1 << iota

	if err != nil {
		msg := fmt.Errorf("error marking pvc %s for node expansion: %v", util.GetPersistentVolumeClaimQualifiedName(pvc), err)
		return pvc, msg
	}
	// store old PVC capacity in pv, so as if PVC gets deleted while node expansion was pending
	// we can restore size of pvc from PV annotation and still perform expansion on the node
	oldCapacity := pvc.Status.Capacity[v1.ResourceStorage]

  auto indices_type = mlir::dyn_cast<RankedTensorType>(indices.getType());
  // Checks the shape of `params` is [n, ...], shape of `indices` is [n, 1]. 2D
  // `indices` means it gets the first row of `params`. As long as indices
  // iterate the first row of `params`, the output is identical to input.
  if (!params_type || !indices_type || indices_type.getRank() != 2 ||

	zwriter, zerr := zipWriter.CreateHeader(header)
	if zerr != nil {
		return zerr
	}
	_, err := io.Copy(zwriter, bytes.NewReader(data))
	return err
}

// getClusterMetaInfo gets information of the current cluster and
// returns it.
// This is not a critical function, and it is allowed
// to fail with a ten seconds timeout, returning nil.
func getClusterMetaInfo(ctx context.Context) []byte {

	fakeRuntime.PodList = []*containertest.FakePod{
		{Pod: pod},
	}
	kubelet := testKubelet.kubelet
	kubelet.cgroupsPerQOS = true // enable cgroupsPerQOS to turn on the cgroups cleanup

	// HandlePodCleanups gets called every 2 seconds within the Kubelet's
	// housekeeping routine. This test registers the pod, removes the unwanted pod, then calls into
	// HandlePodCleanups a few more times. We should only see one Destroy() event. podKiller runs

        body = "This page has moved!",
      ),
    )
    server.enqueue(
      MockResponse(body = "Proxy Response"),
    )
    val response = getResponse(newRequest("/foo"))
    // Fails on the RI, which gets "Proxy Response".
    assertThat(readAscii(response.body.byteStream(), Int.MAX_VALUE))
      .isEqualTo("This page has moved!")
    val page1 = server.takeRequest()

	noResources := v1.PodSpec{
		Containers: []v1.Container{
			{},
		},
	}
	noResources1 := noResources
	noResources1.NodeName = "node1"
	// A pod with the same resources as a 0-request pod gets by default as its resources (for spreading).
	small := v1.PodSpec{
		Containers: []v1.Container{
			{
				Resources: v1.ResourceRequirements{
					Requests: v1.ResourceList{

			initialDelay := manager.failedPodsBackoff.Get(backoffKey)
			if initialDelay <= 0 {
				t.Fatal("Initial delay is expected to be set.")
			}

			resetCounters(manager)

			// Immediate (second) sync gets limited by the backoff
			expectSyncDaemonSets(t, manager, ds, podControl, 0, 0, 0)
			delay := manager.failedPodsBackoff.Get(backoffKey)
			if delay != initialDelay {

	if !reflect.DeepEqual(tr.ProxyConnectHeader, h) {
		t.Errorf("tr.ProxyConnectHeader = %v; want %v", tr.ProxyConnectHeader, h)
	}
}

// TestTransportGzipRecursive sends a gzip quine and checks that the
// client gets the same value back. This is more cute than anything,
// but checks that we don't recurse forever, and checks that
// Content-Encoding is removed.