}

    /** Indicates the phase is after the phases given in arguments */
    static Lifecycle.Link after(String b) {
        return new Lifecycle.Link() {
            @Override
            public Kind kind() {
                return Kind.AFTER;
            }

            @Override
            public Lifecycle.Pointer pointer() {
                return new Lifecycle.PhasePointer() {
                    @Override

	value := reflect.ValueOf(dest)
	if value.Kind() == reflect.Ptr && value.IsNil() {
		value = reflect.New(value.Type().Elem())
	}
	modelType := reflect.Indirect(value).Type()

	if modelType.Kind() == reflect.Interface {
		modelType = reflect.Indirect(reflect.ValueOf(dest)).Elem().Type()
	}

	for modelType.Kind() == reflect.Slice || modelType.Kind() == reflect.Array || modelType.Kind() == reflect.Ptr {
		modelType = modelType.Elem()

// 	}
//
// 	type PluginA struct {
// 		AOption string `json:"aOption"`
// 	}
//
// // On the wire, the JSON will look something like this:
//
// 	{
// 		"kind":"MyAPIObject",
// 		"apiVersion":"v1",
// 		"myPlugin": {
// 			"kind":"PluginA",
// 			"aOption":"foo",
// 		},
// 	}
//
// So what happens? Decode first uses json or yaml to unmarshal the serialized data into

    peer.sendFrame().ping(false, 2, 3)
    peer.acceptFrame() // PING
    peer.play()

    // Play it back.
    connect(peer)

    // Verify the peer received what was expected.
    val ping = peer.takeFrame()
    assertThat(ping.type).isEqualTo(Http2.TYPE_PING)
    assertThat(ping.streamId).isEqualTo(0)
    assertThat(ping.payload1).isEqualTo(2)
    assertThat(ping.payload2).isEqualTo(3)

// function.
class AbstractFunction : public core::RefCounted {
 protected:
  enum AbstractFunctionKind { kGraph, kMlir };
  explicit AbstractFunction(AbstractFunctionKind kind) : kind_(kind) {}

 public:
  // Returns which subclass is this instance of.
  AbstractFunctionKind getKind() const { return kind_; }

  // Returns the AbstractFunction as a FunctionDef.

namespace tensorflow {

// Attributes of an op.
class AbstractOpAttrs {
 protected:
  enum AbstractOpAttrsKind { kEager, kTfrt };
  explicit AbstractOpAttrs(AbstractOpAttrsKind kind) : kind_(kind) {}

 public:
  // Returns which subclass is this instance of.
  AbstractOpAttrsKind getKind() const { return kind_; }
  virtual ~AbstractOpAttrs() = default;

  // Returns the AbstractFunction as a FunctionDef.

	g := config.GroupVersionKind{
		Group:   un.GroupVersionKind().Group,
		Version: un.GroupVersionKind().Version,
		Kind:    un.GroupVersionKind().Kind,
	}
	schema, exists := collections.Pilot.FindByGroupVersionAliasesKind(g)
	if exists {
		obj, err := convertObjectFromUnstructured(schema, un, "")
		if err != nil {

# distributed under the License is distributed on an "AS IS" BASIS,
# WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
# See the License for the specific language governing permissions and
# limitations under the License.
# ==============================================================================
# Disable ALL uploads of any kind.
TFCI_ARTIFACT_FINAL_GCS_ENABLE=
TFCI_ARTIFACT_FINAL_GCS_SA_PATH=
TFCI_ARTIFACT_FINAL_GCS_URI=

# cleanup_kind_cluster takes a single parameter NAME
# and deletes the KinD cluster with that name
function cleanup_kind_cluster() {
  echo "Test exited with exit code $?."
  NAME="${1}"
  kind export logs --name "${NAME}" "${ARTIFACTS}/kind" -v9 || true
  if [[ -z "${SKIP_CLEANUP:-}" ]]; then
    echo "Cleaning up kind cluster"
    kind delete cluster --name "${NAME}" -v9 || true
  fi
}

					stmt.Dest = destValueCanAddr.Interface()
					destValue = destValueCanAddr.Elem()
				}

				switch destValue.Kind() {
				case reflect.Struct:
					stmt.AddError(field.Set(stmt.Context, destValue, value))
				default:
					stmt.AddError(ErrInvalidData)
				}
			}

			switch stmt.ReflectValue.Kind() {
			case reflect.Slice, reflect.Array:
				if len(fromCallbacks) > 0 {