super.tearDown();
  }

  /*
   * TODO(cpovirk): Use FutureSubject once it's part of core Truth. But be wary of using it when I'm
   * really testing a Future implementation (e.g., in the case of immediate*Future()). But it's OK
   * to use in the case of the majority of Futures that are AbstractFutures.
   */

  public void testImmediateFuture() throws Exception {

    super.tearDown();
  }

  /*
   * TODO(cpovirk): Use FutureSubject once it's part of core Truth. But be wary of using it when I'm
   * really testing a Future implementation (e.g., in the case of immediate*Future()). But it's OK
   * to use in the case of the majority of Futures that are AbstractFutures.
   */

  public void testImmediateFuture() throws Exception {

			if err := c.Close(); err != nil {
				base.Fatalf("go: failed to trim cache: %v", err)
			}
		}()
	}

	// Build list of all actions, assigning depth-first post-order priority.
	// The original implementation here was a true queue
	// (using a channel) but it had the effect of getting
	// distracted by low-level leaf actions to the detriment
	// of completing higher-level actions. The order of

	klet.setNodeStatusFuncs = klet.defaultNodeStatusFuncs()

	return klet, nil
}

type serviceLister interface {
	List(labels.Selector) ([]*v1.Service, error)
}

// Kubelet is the main kubelet implementation.
type Kubelet struct {
	kubeletConfiguration kubeletconfiginternal.KubeletConfiguration

	// hostname is the hostname the kubelet detected or was given via flag/config
	hostname string

	t.Fatalf("did not panic")
}

// Given
//	type Outer struct {
//		*Inner
//		...
//	}
// the compiler generates the implementation of (*Outer).M dispatching to the embedded Inner.
// The implementation is logically:
//	func (p *Outer) M() {
//		(p.Inner).M()
//	}
// but since the only change here is the replacement of one pointer receiver with another,

// If symbolic link isn't there, the device isn't referenced from Pods.
// Call plugin TearDownDevice to clean-up device connection, stored data under
// globalMapPath, these operations depend on plugin implementation.
// Once TearDownDevice is completed, remove globalMapPath dir.
// After globalMapPath is removed, fd lock by loopback for the device can
// be released safely because no one can consume the device at this point.

with a new first dimension for the list index. List update operations are
converted to operations that create a new tensor representing the list.

In the current implementation, the resulting operations are statically shaped,
which means it must be possible to infer a bound on the full shape of the
TensorList. That is, the `element_shape` and `num_elements` arguments to a

		if !ok {
			// In fact, we could also apply Waiting state here, but it is less informative,
			// and the container will be restarted soon, so we prefer the original state here.
			// Note that with the current implementation of ShouldContainerBeRestarted the original state here
			// could be:
			//   * Waiting: There is no associated historical container and start failure reason record.
			//   * Terminated: The container is terminated.

		if err != nil {
			if writeBody && !test.readBody {
				// This is an acceptable failure due to a possible TCP race:
				// We were still writing data and the server hung up on us. A TCP
				// implementation may send a RST if our request body data was known
				// to be lost, which may trigger our reads to fail.
				// See RFC 1122 page 88.
				t.Logf("On test %#v, acceptable error from ReadString: %v", test, err)

	return
}

// Copied from https://github.com/envoyproxy/envoy/blob/5451efd9b8f8a444431197050e45ba974ed4e9d8/source/common/common/utility.cc#L601-L615
// to ensure we 100% match Envoy's implementation
func isPrime(x uint64) bool {
	if x != 0 && x < 4 {
		return true // eliminates special-casing 2.
	} else if (x & 1) == 0 {
		return false // eliminates even numbers >2.
	}