assertTrue(future2.set(2L));
    // Second check to ensure the input future was not cancelled
    assertEquals((Long) 2L, getDone(future2));

    // All futures are now complete; outstanding inputs are cancelled
    assertTrue(future3.isCancelled());
    assertTrue(future3.wasInterrupted());
  }

  @AndroidIncompatible // runs out of memory under some versions of the emulator

    assertTrue(future2.set(2L));
    // Second check to ensure the input future was not cancelled
    assertEquals((Long) 2L, getDone(future2));

    // All futures are now complete; outstanding inputs are cancelled
    assertTrue(future3.isCancelled());
    assertTrue(future3.wasInterrupted());
  }

  @AndroidIncompatible // runs out of memory under some versions of the emulator

										},
									},
								},
							},
						},
					},
				},
				RequireClientCertificate: proto.BoolFalse,
			},
		},
		{
			// Credential name and subject names are specified, SDS configs are generated for fetching
			// key/cert and root cert.
			name: "credential name subject alternative name key and cert tls MUTUAL",
			server: &networking.Server{

				},
			},
			expectedPodReadyToStartContainersCondition: v1.PodCondition{
				Type:   v1.PodReadyToStartContainers,
				Status: v1.ConditionTrue,
			},
		},
		{
			name: "reason and message are preserved when phase doesn't change",
			pod: &v1.Pod{
				Spec: desiredState,
				Status: v1.PodStatus{
					Phase: v1.PodRunning,
					ContainerStatuses: []v1.ContainerStatus{
						waitingState("containerA"),

	time.Sleep(2 * time.Second)

	// Sources are not ready yet. Don't remove any pods.
	if expect, actual := []types.UID(nil), kubelet.podWorkers.(*fakePodWorkers).triggeredDeletion; !reflect.DeepEqual(expect, actual) {
		t.Fatalf("expected %v kills, got %v", expect, actual)
	}

	ready = true
	kubelet.HandlePodRemoves(pods)
	time.Sleep(2 * time.Second)

	// Sources are ready. Remove unwanted pods.

    std::vector<int64_t> zero_points = {qtype.getZeroPoint()};
    q_params = tflite::CreateQuantizationParameters(
        // min and max values are not stored in the quantized type from MLIR, so
        // both are set to 0 in the flatbuffer when they are exported.
        builder_, /*min=*/0, /*max=*/0, builder_.CreateVector<float>(scales),
        builder_.CreateVector<int64_t>(zero_points));
  } else if (auto qtype =

  }
  func.func @tpu0_func(%arg0: tensor<8xi32>) -> tensor<8xi32> {
    func.return %arg0 : tensor<8xi32>
  }
}


// -----

// Tests that inputs are inputs with maximal and replicate sharding are set
// properly for replicated model parallelism.

				t.Fatalf("%v: Expected %#v, got %#v", name, e, a)
			}
		})
	}
}

// TestStoreListResourceVersion tests that if List with ResourceVersion > 0, it will wait until
// the results are as fresh as given version.
func TestStoreListResourceVersion(t *testing.T) {
	fooPod := &example.Pod{
		ObjectMeta: metav1.ObjectMeta{Namespace: "test", Name: "foo"},
		Spec:       example.PodSpec{NodeName: "machine"},
	}

	{as: obj.APCALIGN, a1: C_32CON, type_: 0, size: 0}, // align code
}

// These are opcodes above which may generate different sequences depending on whether prefix opcode support
// is available
type PrefixableOptab struct {
	Optab
	minGOPPC64 int  // Minimum GOPPC64 required to support this.
	pfxsize    int8 // Instruction sequence size when prefixed opcodes are used
}

					},
				},
			},
			needsUpdate: false,
		}, {
			name: "update needed when capacity and allocatable of the existing node are nil and capacity and allocatable of the initial node are not nil",
			initialNode: &v1.Node{
				Status: v1.NodeStatus{
					Capacity: v1.ResourceList{
						v1.ResourceCPU:              *resource.NewMilliQuantity(2000, resource.DecimalSI),