ClosingFuture.from(immediateFuture("value2")),
                ClosingFuture.from(immediateFuture("value3")),
                ClosingFuture.from(immediateFuture("value4")),
                ClosingFuture.from(immediateFuture("value5")))
            .call(
                new ClosingFunction5<

                ClosingFuture.from(immediateFuture("value2")),
                ClosingFuture.from(immediateFuture("value3")),
                ClosingFuture.from(immediateFuture("value4")),
                ClosingFuture.from(immediateFuture("value5")))
            .call(
                new ClosingFunction5<

							"array": []interface{}{"value1", "value2", "value3", "value4"},
						}}},

				applyPatchOperation{
					"make array valid",
					myCRDV1Beta1, myCRDInstanceName, map[string]interface{}{
						"array": []interface{}{"value1", "value2", "value3", "4", "5", "6", "7", "8", "9", "10"},
					}},
				expectError{
					applyPatchOperation{
						"revert to original value",

`<LifecycleConfiguration><Rule><Filter><And><Prefix>foodir/</Prefix><Tag><Key>tag1</Key><Value>value1</Value></Tag><Tag><Key>tag2</Key><Value>value2</Value></Tag></And></Filter><Status>Enabled</Status><Expiration><Date>` + time.Now().Truncate(24*time.Hour).UTC().Add(-24*time.Hour).Format(time.RFC3339) + `</Date></Expiration></Rule><Rule><Filter><And><Prefix>abc/</Prefix><Tag><Key>tag2</Key><Value>value</Value></Tag></And></Filter><Status>Enabled</Status><Expiration><Date>` + time.Now().Truncate(2...

			{key: "name", value: "node1"}: 1,
			{key: "name", value: "node2"}: 1,
		},
		affinityCounts: topologyToMatchedTermCount{
			{key: "name", value: "nodeA"}: 1,
			{key: "name", value: "nodeC"}: 2,
		},
		antiAffinityCounts: topologyToMatchedTermCount{
			{key: "name", value: "nodeN"}: 3,
			{key: "name", value: "nodeM"}: 1,
		},
	}

	clone := source.Clone()

		// If k-1 is L-type, queue k for processing later in this loop.
		// If k-1 is S-type (text[k-1] < text[k]), queue -k to save for the caller.
		// If k is zero, k-1 doesn't exist, so we only need to leave it
		// for the caller. The caller can't tell the difference between
		// an empty slot and a non-empty zero, but there's no need
		// to distinguish them anyway: the final suffix array will end up

  }

  for (Value value : values_to_add_nodes) {
    builder.setInsertionPointAfter(value.getDefiningOp());
    std::vector<Type> types(num_replicas, value.getType());
    Location loc = value.getDefiningOp()->getLoc();
    TF::TPUReplicatedOutputOp output =
        builder.create<TF::TPUReplicatedOutputOp>(loc, TypeRange(types), value);
    // TODO(bfontain): Check for other attributes.

	m.InodesUsed = resource.NewQuantity(int64(seed+offsetInodeUsage), resource.BinarySI)
	return m
}

func TestGetContainerUsageNanoCores(t *testing.T) {
	var value0 uint64
	var value1 uint64 = 10000000000

	// Test with a large container of 100+ CPUs
	var value2 uint64 = 188427786383

	tests := []struct {
		desc          string
		cpuUsageCache map[string]*cpuUsageRecord
		stats         *runtimeapi.ContainerStats

  }

  public void testNewIdentityHashSet() {
    Set<Integer> set = Sets.newIdentityHashSet();
    Integer value1 = new Integer(12357);
    Integer value2 = new Integer(12357);
    assertTrue(set.add(value1));
    assertFalse(set.contains(value2));
    assertTrue(set.contains(value1));
    assertTrue(set.add(value2));
    assertEquals(2, set.size());
  }

  @J2ktIncompatible
  @GwtIncompatible // CopyOnWriteArraySet

  }
}

// For written resources, add its value at the end of each region to that
// regions return value. For a region, its value at the end may be a value
// written to that resource in that region, or its hoisted read value if the
// resource is not written in that region. The return value can be vended out
// either as an existing return value, or a newly allocated return value.
void RegionResourceHoister::AppendResourceStoreValueToReturn(