SYS_PIPE2                = 453 // { int|sys||pipe2(int *fildes, int flags); }
	SYS_DUP3                 = 454 // { int|sys||dup3(int from, int to, int flags); }
	SYS_KQUEUE1              = 455 // { int|sys||kqueue1(int flags); }
	SYS_PACCEPT              = 456 // { int|sys||paccept(int s, struct sockaddr *name, socklen_t *anamelen, const sigset_t *mask, int flags); }

	SYS_PIPE2                = 453 // { int|sys||pipe2(int *fildes, int flags); }
	SYS_DUP3                 = 454 // { int|sys||dup3(int from, int to, int flags); }
	SYS_KQUEUE1              = 455 // { int|sys||kqueue1(int flags); }
	SYS_PACCEPT              = 456 // { int|sys||paccept(int s, struct sockaddr *name, socklen_t *anamelen, const sigset_t *mask, int flags); }

	SYS_PIPE2                = 453 // { int|sys||pipe2(int *fildes, int flags); }
	SYS_DUP3                 = 454 // { int|sys||dup3(int from, int to, int flags); }
	SYS_KQUEUE1              = 455 // { int|sys||kqueue1(int flags); }
	SYS_PACCEPT              = 456 // { int|sys||paccept(int s, struct sockaddr *name, socklen_t *anamelen, const sigset_t *mask, int flags); }

	SYS_PIPE2                = 453 // { int|sys||pipe2(int *fildes, int flags); }
	SYS_DUP3                 = 454 // { int|sys||dup3(int from, int to, int flags); }
	SYS_KQUEUE1              = 455 // { int|sys||kqueue1(int flags); }
	SYS_PACCEPT              = 456 // { int|sys||paccept(int s, struct sockaddr *name, socklen_t *anamelen, const sigset_t *mask, int flags); }

	SYS_PIPE2                = 453 // { int|sys||pipe2(int *fildes, int flags); }
	SYS_DUP3                 = 454 // { int|sys||dup3(int from, int to, int flags); }
	SYS_KQUEUE1              = 455 // { int|sys||kqueue1(int flags); }
	SYS_PACCEPT              = 456 // { int|sys||paccept(int s, struct sockaddr *name, socklen_t *anamelen, const sigset_t *mask, int flags); }

        // device. Device attribute is used to infer the appropriate sharding
        // within TPUs for this op.
        // TODO(b/183598857): Use explicit sharding ops from the front-end.
        // For example, dequeue ops generated by
        // tensorflow/python/tpu/tpu_feed.py
        if (!tensorflow::IsTPUReplicatedCore(attr.getValue())) {
          inner_op->removeAttr(kDeviceAttr);
        }
      }
    });
  }

n(a,b){var c=2;return"string"!=typeof a&&(b=a,a="fx",c--),arguments.length<c?r.queue(this[0],a):void 0===b?this:this.each(function(){var c=r.queue(this,a,b);r._queueHooks(this,a),"fx"===a&&"inprogress"!==c[0]&&r.dequeue(this,a)})},dequeue:function(a){return this.each(function(){r.dequeue(this,a)})},clearQueue:function(a){return this.queue(a||"fx",[])},promise:function(a,b){var c,d=1,e=r.Deferred(),f=this,g=this.length,h=function(){--d||e.resolveWith(f,[f])};"string"!=typeof a&&(b=a,a=void 0),a=a...

			err := r.client.NetworkingV1alpha1().IPAddresses().Delete(context.Background(), ipAddress.Name, metav1.DeleteOptions{})
			if err != nil && !apierrors.IsNotFound(err) {
				return err
			}
		}
		// requeue after the grace period
		r.ipQueue.AddAfter(key, gracePeriod-ipLifetime)
		return nil
	}
	if err != nil {

   * Queue#isEmpty} and {@link Queue#remove()}, since {@link Queue}'s iteration order is undefined.
   * Calling {@link Iterator#hasNext()} on a generated iterator from the returned iterable may cause
   * an item to be immediately dequeued for return on a subsequent call to {@link Iterator#next()}.
   *
   * <p>Whether the input {@code iterable} is a {@link Queue} or not, the returned {@code Iterable}
   * is not thread-safe.
   *

	// i.e., when unscheduled Pods are updated, the scheduling queue checks with Pod/Update QueueingHint(s) whether the update may make the pods schedulable,
	// and requeues them to activeQ/backoffQ when at least one QueueingHint(s) return Queue.
	// Plugins **have to** implement a QueueingHint for Pod/Update event
	// if the rejection from them could be resolved by updating unscheduled Pods themselves.