return v.flag&flagStickyRO != 0
}

var CallGC = &callGC

// FuncLayout calls funcLayout and returns a subset of the results for testing.
//
// Bitmaps like stack, gc, inReg, and outReg are expanded such that each bit
// takes up one byte, so that writing out test cases is a little clearer.
// If ptrs is false, gc will be nil.

	}

	t := typ.common()
	ftyp := (*funcType)(unsafe.Pointer(t))

	code := abi.FuncPCABI0(makeFuncStub)

	// makeFuncImpl contains a stack map for use by the runtime
	_, _, abid := funcLayout(ftyp, nil)

	impl := &makeFuncImpl{
		makeFuncCtxt: makeFuncCtxt{
			fn:      code,
			stack:   abid.stackPtrs,
			argLen:  abid.stackCallArgsSize,
			regPtrs: abid.inRegPtrs,
		},
		ftyp: ftyp,

// the name for possible debugging use.
func funcLayout(t *funcType, rcvr *abi.Type) (frametype *abi.Type, framePool *sync.Pool, abid abiDesc) {
	if t.Kind() != abi.Func {
		panic("reflect: funcLayout of non-func type " + stringFor(&t.Type))
	}
	if rcvr != nil && rcvr.Kind() == abi.Interface {
		panic("reflect: funcLayout with interface receiver " + stringFor(rcvr))
	}
	k := layoutKey{t, rcvr}

			if typ.Size() != lt.size {
				t.Errorf("funcLayout(%v, %v).size=%d, want %d", lt.typ, lt.rcvr, typ.Size(), lt.size)
			}
			if argsize != lt.argsize {
				t.Errorf("funcLayout(%v, %v).argsize=%d, want %d", lt.typ, lt.rcvr, argsize, lt.argsize)
			}
			if retOffset != lt.retOffset {

	// has its own ABI ("method ABI"). Everything that follows is a translation
	// between the two.
	_, _, valueABI := funcLayout(valueFuncType, nil)
	valueFrame, valueRegs := frame, regs
	methodFrameType, methodFramePool, methodABI := funcLayout(valueFuncType, rcvrType)

	// Make a new frame that is one word bigger so we can store the receiver.
	// This space is used for both arguments and return values.