Scope int

	// Addr is the type of address used to manipulate a socket. Addr must be
	// one of:
	//  - *TIPCSocketAddr: "id" variant in the C addr union
	//  - *TIPCServiceRange: "nameseq" variant in the C addr union
	//  - *TIPCServiceName: "name" variant in the C addr union
	//
	// If nil, EINVAL will be returned when the structure is used.
	Addr TIPCAddr

	raw RawSockaddrTIPC
}

            if (parentData == null) {
                currentData = superData;
            } else if (!parentIds.add(parentData.getId())) {
                StringBuilder message = new StringBuilder("The parents form a cycle: ");
                for (String parentId : parentIds) {
                    message.append(parentId).append(" -> ");
                }
                message.append(parentData.getId());

            std::vector<int>* output_permutation, NodeDef* node) {
        // Optimize the subgraph.
        // Do not constant fold nodes that output DT_VARIANT type tensors.
        // XLA does not support Const nodes of Variant type since it needs
        // to know the original ops to be able to compile them to the relevant
        // XLA form.
        // TODO(srbs): This filter is a little conservative. E.g. a subgraph of
        // the form:

	VMOVQ X20, -15(R11)(CX*1) // 62c1fd087ea40bf1ffffff or 62c1fd08d6a40bf1ffffff
	VMOVQ X20, (SP)(AX*2)     // 62e1fd087e2444 or 62e1fd08d62444
	// VMOVHPD: overlapping VEX and EVEX variants.
	VMOVHPD (AX), X5, X5             // c5d11628 or c4e1d11628 or 62f1d5281628 or 62f1d5481628
	VMOVHPD 7(DX), X5, X5            // c5d1166a07 or 62f1d52816aa07000000 or 62f1d54816aa07000000

	tests := []testcase{
		{
			name:     "creates new",
			parent:   &ss1.ObjectMeta,
			revision: ss1Rev1,
			existing: nil,

			rename: false,
		},
		{
			name:     "create doesn't conflict when parents differ",
			parent:   &ss2.ObjectMeta,
			revision: ss2Rev1,
			existing: []struct {
				parent   metav1.Object
				revision *apps.ControllerRevision
			}{
				{
					parent:   ss1,

//
// `X` may contain symbolic predicates and the operations corresponding to these
// symbolic predicates are either in frame `loop` or outside it.  The symbols
// that are inside frame `loop` are loop variant (i.e. can have different
// liveness in each loop iteration) and the symbols that are outside frame
// `loop` are loop invariant (i.e. have the same liveness across all
// iterations).

// Adds operations to compute the partial derivatives of sum of `y`s w.r.t `x`s,
// i.e., d(y_1 + y_2 + ...)/dx_1, d(y_1 + y_2 + ...)/dx_2...
// This is a variant of TF_AddGradients that allows to caller to pass a custom
// name prefix to the operations added to a graph to compute the gradients.
//
// `dx` are used as initial gradients (which represent the symbolic partial

This will be checked at the end of configuring variant configurations, as they are locked against further mutation.

If the set of attributes is shared across configurations, consider adding an additional attribute to one of the variants for the sole purpose of disambiguation.

[[for_use_at_configuration_time_deprecation]]

     *
     * @return true if a deprecation was emitted
     */
    private boolean maybePreventMutation(MutationType type, String typeDescription) {
        // If an external party has seen the public state (variant metadata) of our configuration,
        // we forbid any mutation that mutates the public state. The resolution strategy does
        // not mutate the public state of the configuration, so we allow it.

	var indVars map[*Block]indVar
	for _, v := range findIndVar(f) {
		ind := v.ind
		if len(ind.Args) != 2 {
			// the rewrite code assumes there is only ever two parents to loops
			panic("unexpected induction with too many parents")
		}

		nxt := v.nxt
		if !(ind.Uses == 2 && // 2 used by comparison and next
			nxt.Uses == 1) { // 1 used by induction