retractions = append(retractions, modMessage{m: m})
		}
	}
	sort.Slice(retractions, func(i, j int) bool { return retractions[i].m.Path < retractions[j].m.Path })
	for i := range retractions {
		i := i
		r.work.Add(func() {
			err := modload.CheckRetractions(ctx, retractions[i].m)
			if retractErr := (*modload.ModuleRetractedError)(nil); errors.As(err, &retractErr) {
				retractions[i].message = err.Error()

				})
			}

		case simplify:
			simplifyBlock(sdom, ft, node.block)
			ft.restore()
		}
	}

	ft.restore()

	ft.cleanup(f)
}

// getBranch returns the range restrictions added by p
// when reaching b. p is the immediate dominator of b.
func getBranch(sdom SparseTree, p *Block, b *Block) branch {
	if p == nil {
		return unknown
	}
	switch p.Kind {
	case BlockIf:

    /**
     * Configure a single client scoped listener that will receive all analytic events for this
     * client.
     *
     * @see EventListener for semantics and restrictions on listener implementations.
     */
    fun eventListener(eventListener: EventListener) =
      apply {
        this.eventListenerFactory = eventListener.asFactory()
      }

    /**

//
// The "asymmetric" keyType defines restrictions requiring key payloads to be
// DER encoded X.509 certificates signed by keys in another keyring. Restrictions
// for "asymmetric" include "builtin_trusted", "builtin_and_secondary_trusted",
// "key_or_keyring:<key>", and "key_or_keyring:<key>:chain".
//
// As of Linux 4.12, only the "asymmetric" keyType defines type-specific
// restrictions.
//
// See the full documentation at:

  }

  TF_Operation* UseT(const std::vector<TF_Output>& inputs) {
    TF_Operation* op;
    UseHelper(inputs, &op);
    return op;
  }

  // All the *Helper methods are used as a workaround for the restrictions that
  // one cannot call ASSERT_* methods in non-void-returning functions (when
  // exceptions are disabled during compilation)
  void UseHelper(const std::vector<TF_Output>& inputs, TF_Operation** op) {

	// nftables chains can contain the characters [A-Za-z0-9_./-] (but must start with
	// a letter, underscore, or dot).
	//
	// Namespace, Service, and Port names can contain [a-z0-9-] (with some additional
	// restrictions that aren't relevant here).
	//
	// Protocol is /(tcp|udp|sctp)/.
	//
	// Thus, we can safely use all Namespace names, Service names, protocol values,

			errAPI.Description = fmt.Sprintf("%s '(%s)'", errAPI.Description, err)
			writeErrorResponse(ctx, w, errAPI, r.URL)
			return
		}

		// Make sure formValues adhere to policy restrictions.
		if err = checkPostPolicy(formValues, postPolicyForm); err != nil {
			writeErrorResponse(ctx, w, errorCodes.ToAPIErrWithErr(ErrAccessDenied, err), r.URL)
			return
		}

	// Namespace API objects are cluster-scoped.
	// "Namespaced" means that only namespaced resources will match this rule.
	// "*" means that there are no scope restrictions.
	// Subresources match the scope of their parent resource.
	// Default is "*".
	//
	// +optional
	Scope *ScopeType
}

// ScopeType specifies the type of scope being used
type ScopeType string

        op.getLoc(), tensorflow::GetTypeFromTFTensorShape({1}, shape_dtype),
        num_elements, scalar_zero);
  }
};

// Note that we ignore the second operand `max_num_elements` as we don't have
// any restrictions on the number of elements we can support. So this may
// have a different behavior compared to TensorFlow in case of errors.
struct ConvertEmptyTensorList
    : public ConvertTensorListInitOp<TF::EmptyTensorListOp> {

  // Namespace API objects are cluster-scoped.
  // "Namespaced" means that only namespaced resources will match this rule.
  // "*" means that there are no scope restrictions.
  // Subresources match the scope of their parent resource.
  // Default is "*".
  //
  // +optional
  optional string scope = 4;
}