// otherwise identical (parallel requests, requests when earlier requests did not modify etc)
	// The UID is meant to track the round trip (request/response) between the KAS and the WebHook, not the user request.
	// It is suitable for correlating log entries between the webhook and apiserver, for either auditing or debugging.
	UID types.UID `json:"uid" protobuf:"bytes,1,opt,name=uid"`

	if proxyID != "" && con == nil {
		// We can't guarantee the Pilot we are connected to has a connection to the proxy we requested
		// There isn't a great way around this, but for debugging purposes its suitable to have the caller retry.
		w.WriteHeader(http.StatusNotFound)
		_, _ = w.Write([]byte("Proxy not connected to this Pilot instance. It may be connected to another instance.\n"))
		return
	}
	if con == nil {

  }
  *module_proto->mutable_input_output_alias() = config.ToProto();
  return absl::OkStatus();
}

bool failed(const absl::Status& status) { return !status.ok(); }

// Transforms the given module to be suitable for export to TensorFlow GraphDef
// and then exports all functions to the given library.
Status PrepareAndExportToLibrary(mlir::ModuleOp module,
                                 FunctionLibraryDefinition* flib_def) {

      busyOffset = UNSAFE.objectFieldOffset(sk.getDeclaredField("busy"));
    } catch (Exception e) {
      throw new Error(e);
    }
  }

  /**
   * Returns a sun.misc.Unsafe. Suitable for use in a 3rd party package. Replace with a simple call
   * to Unsafe.getUnsafe when integrating into a jdk.
   *
   * @return a sun.misc.Unsafe
   */
  private static sun.misc.Unsafe getUnsafe() {
    try {

      busyOffset = UNSAFE.objectFieldOffset(sk.getDeclaredField("busy"));
    } catch (Exception e) {
      throw new Error(e);
    }
  }

  /**
   * Returns a sun.misc.Unsafe. Suitable for use in a 3rd party package. Replace with a simple call
   * to Unsafe.getUnsafe when integrating into a jdk.
   *
   * @return a sun.misc.Unsafe
   */
  private static sun.misc.Unsafe getUnsafe() {
    try {

		t.Errorf("Expected pod to be suitable for removal (deleted and terminated)")
	}
	if podWorkers.ShouldPodContentBeRemoved(types.UID("1")) {
		t.Errorf("Expected pod to not be suitable for removal (terminated but not deleted)")
	}
	if podWorkers.ShouldPodContentBeRemoved(types.UID("2")) {
		t.Errorf("Expected pod to not be suitable for removal (not terminated)")
	}

				}
			}
			// Can the builtin controller tell us whether the node is suitable?
			if state.informationsForClaim[index].structuredParameters {
				suitable, err := state.informationsForClaim[index].controller.nodeIsSuitable(ctx, node.Name, state.resources)
				if err != nil {

  // For each op in the graph, get the resources it uses and update the access
  // information for them.
  graph_op.walk([&](IslandOp island) {
    // This pass assumes that all functions are suitable for export i.e., each
    // function has a single tf_executor.graph op and all islands wrap the
    // internal op perfectly. Hence this assertion should never fail.
    assert(island.WrapsSingleOp());

        bind(PropertyCodec(propertyFactory, nestedCodec))
        bind(ProviderCodec(nestedCodec))
    }

    /**
     * Returns a Codec for Provider implementations suitable for all Provider implementations.
     */
    private
    fun nestedProviderCodec(
        valueSourceProviderFactory: ValueSourceProviderFactory,
        buildStateRegistry: BuildStateRegistry,

Pods to Nodes. The scheduler determines which Nodes are valid placements for
each Pod in the scheduling queue according to constraints and available
resources. The scheduler then ranks each valid Node and binds the Pod to a
suitable Node. Multiple different schedulers may be used within a cluster;
kube-scheduler is the reference implementation.
See [scheduling](https://kubernetes.io/docs/concepts/scheduling-eviction/)