syncPodRecords := processed[uid]
		var match bool
		grace := int64(30)
		for _, possible := range [][]syncPodRecord{
			{{name: string(uid), updateType: kubetypes.SyncPodKill, gracePeriod: &grace}, {name: string(uid), terminated: true}},
			{{name: string(uid), updateType: kubetypes.SyncPodCreate}, {name: string(uid), updateType: kubetypes.SyncPodKill, gracePeriod: &grace}, {name: string(uid), terminated: true}},
		} {

	case -AMOVF:
		return 0x0ac << 22
	case -AMOVD:
		return 0x0ae << 22

	case ASLLV,
		-ASLLV:
		return 0x0041 << 16
	case ASRLV,
		-ASRLV:
		return 0x0045 << 16
	case ASRAV,
		-ASRAV:
		return 0x0049 << 16
	case AROTRV,
		-AROTRV:
		return 0x004d << 16
	case -ALL:
		return 0x020 << 24
	case -ALLV:
		return 0x022 << 24
	case ASC:
		return 0x021 << 24

    assertThat(connection.isHealthy(System.nanoTime())).isTrue()

    // But if the ping doesn't arrive, the connection goes unhealthy.
    Thread.sleep(TimeUnit.NANOSECONDS.toMillis(Http2Connection.DEGRADED_PONG_TIMEOUT_NS.toLong()))
    assertThat(connection.isHealthy(System.nanoTime())).isFalse()

    // When a pong does arrive, the connection becomes healthy again.
    connection.writePingAndAwaitPong()

  auto a = ops::Placeholder(root.WithOpName("A"), DT_FLOAT);
  auto b = ops::Placeholder(root.WithOpName("B"), DT_FLOAT);
  auto c = ops::Add(root.WithOpName("C"), a, b);
  auto enter = ops::internal::Enter(root, c, "aframe");
  auto next_iter = ops::NextIteration(root, enter);
  auto exit = ops::internal::Exit(root, next_iter);
  auto d = ops::Add(root.WithOpName("D"), c, exit);

	gcPercentGoal := uint64(float64(memstats.lastHeapInUse) * goalRatio)
	// Add retainExtraPercent overhead to retainedGoal. This calculation
	// looks strange but the purpose is to arrive at an integer division
	// (e.g. if retainExtraPercent = 12.5, then we get a divisor of 8)
	// that also avoids the overflow from a multiplication.
	gcPercentGoal += gcPercentGoal / (1.0 / (retainExtraPercent / 100.0))

			err = cacher.storage.RequestWatchProgress(metadata.NewOutgoingContext(context.Background(), contextMetadata))
			if err != nil {
				t.Fatal(err)
			}
			// Give time for bookmark to arrive
			time.Sleep(time.Second)

			etcdWatchResourceVersion := waitForEtcdBookmark()
			gotEtcdWatchBookmark := etcdWatchResourceVersion == lastResourceVersion
			if gotEtcdWatchBookmark != tc.expectBookmarkOnEtcd {

	for _, a := range prodZZ {
		arg := a
		testFunZZ(t, "MulZZ", MulZZ, arg)

		arg = argZZ{a.z, a.y, a.x}
		testFunZZ(t, "MulZZ symmetric", MulZZ, arg)
	}
}

// mulBytes returns x*y via grade school multiplication. Both inputs
// and the result are assumed to be in big-endian representation (to
// match the semantics of Int.Bytes and Int.SetBytes).
func mulBytes(x, y []byte) []byte {

		// NodeAdd QueueingHint isn't always called because of the internal feature called preCheck.
		// As a common problematic scenario,
		// when a node is added but not ready, NodeAdd event is filtered out by preCheck and doesn't arrive.
		// In such cases, this plugin may miss some events that actually make pods schedulable.
		// As a workaround, we add UpdateNodeTaint event to catch the case.

				t.Errorf("validate callback returned error: %s", err)
			}
		}

		// If the server sent us an alert after our last flight, give it a
		// chance to arrive.
		if write && test.renegotiationExpectedToFail == 0 {
			if err := peekError(client); err != nil {
				t.Errorf("final Read returned an error: %s", err)
			}
		}
	}()

	if !write {

   * case, we take a 2KiB body and throttle it to 1KiB/second.  We set the read timeout to half a
   * second.  If our implementation is acting correctly, it will throw, as a byte doesn't arrive in
   * time.
   */
  @ParameterizedTest
  @ArgumentsSource(ProtocolParamProvider::class)
  fun readTimeoutOnSlowConnection(
    protocol: Protocol,
    mockWebServer: MockWebServer,
  ) {