TFConcreteFunction* initialize,
                                   TFConcreteFunction* destroy_resource,
                                   ImmediateTensorHandlePtr resource_handle)
    : TensorHandleConvertible(std::move(resource_handle)),
      device_(device),
      create_resource_(create_resource),
      initialize_(initialize),
      destroy_resource_(destroy_resource) {}

      }
    }

    TFConcreteFunction* initialize = nullptr;
    if (resource_revival_state.initialize != nullptr) {
      initialize = revived->concrete_functions.Find(
          resource_revival_state.initialize->node_id);
      if (initialize == nullptr) {
        return absl::FailedPreconditionError(absl::StrCat(
            "'initialize' function with node id ",

// Creates a pass that moves & merges initializer function's ops into the @main
// function. This pass should be run on a valid tf_executor dialect. The control
// output of the initializer function for non-variable resource initialization
// will be passed on as a dependency to a new `tf.NoOp`, whose control output
// will be merged into the main function's FetchOp. The initializer functions
// will be removed.
//

# CHECK-SAME: bad_consumers
# CHECK-SAME: min_consumer
# CHECK-SAME: producer

# CHECK: "tf_saved_model.global_tensor"()
# CHECK: "tf_saved_model.session_initializer"() <{initializers = [@[[INIT_FUNC:[a-zA-Z_0-9]+]]]}> : () -> ()

# Initializer function. This should contain the initialization sequence for the
# variable.

    }
  }
  return inputs;
}

Input::Initializer::Initializer(
    const std::initializer_list<Input::Initializer>& v) {
  if (v.size() < 1) {
    // Empty initializer list defaults to float tensor with shape (0,)
    tensor = Tensor(DT_FLOAT, TensorShape{0});
    return;
  }
  auto const& first = *v.begin();
  // Check to make sure that the constituent Initializers are all the same
  // type and same shape.

        when:
        // start a build with a IsolationMode.PROCESS worker that will initialize the worker classpath cache and wait until the cache was initialized
        def block = server.expectAndBlock("waiting")
        def build = executer.withTasks("doWork").start()
        block.waitForAllPendingCalls()

        // simulate another "build" that tries to initialize the cache as well before recognizing that it has been done already

var errInvalidRangeSource = errors.New("Range specified exceeds source object size")

// error returned by disks which are to be initialized are waiting for the
// first server to initialize them in distributed set to initialize them.
var errNotFirstDisk = errors.New("Not first drive")

// error returned by first disk waiting to initialize other servers.
var errFirstDiskWait = errors.New("Waiting on other drives")

// error returned for a negative actual size.

func Add(name string, n int64) {
	New(name).Add(n)
}

// New returns a counter with the given name.
// New can be called in global initializers and will be compiled down to
// linker-initialized data. That is, calling New to initialize a global
// has no cost at program startup.
//
// See "Counter Naming" in the package doc for a description of counter naming
// conventions.
func New(name string) *Counter {

        protected Class<T> cls;

        protected Consumer<T> initializer;

        protected StandardCrawlerContainer container;

        private T instance;

        protected ComponentDef(final Class<T> cls, final Consumer<T> initializer, final StandardCrawlerContainer container) {
            this.cls = cls;
            this.initializer = initializer;
            this.container = container;
        }

// license that can be found in the LICENSE file.

// Using the same name for a field in a composite literal and for a
// global variable that depends on the variable being initialized
// caused gccgo to erroneously report "variable initializer refers to
// itself".

package p

type S struct {
	F int
}

var V = S{F: 1}