}
		}
	}
	return false
}

// directlyAssignable reports whether a value x of type V can be directly
// assigned (using memmove) to a value of type T.
// https://golang.org/doc/go_spec.html#Assignability
// Ignoring the interface rules (implemented elsewhere)
// and the ideal constant rules (no ideal constants at run time).
func directlyAssignable(T, V *abi.Type) bool {
	// x's type V is identical to T?

func (v Value) assignTo(context string, dst *abi.Type, target unsafe.Pointer) Value {
	// if v.flag&flagMethod != 0 {
	// 	v = makeMethodValue(context, v)
	// }

	switch {
	case directlyAssignable(dst, v.typ()):
		// Overwrite type so that they match.
		// Same memory layout, so no harm done.
		fl := v.flag&(flagAddr|flagIndir) | v.flag.ro()
		fl |= flag(dst.Kind())
		return Value{dst, v.ptr, fl}

}

// directlyAssignable reports whether a value x of type V can be directly
// assigned (using memmove) to a value of type T.
// https://golang.org/doc/go_spec.html#Assignability
// Ignoring the interface rules (implemented elsewhere)
// and the ideal constant rules (no ideal constants at run time).
func directlyAssignable(T, V *abi.Type) bool {
	// x's type V is identical to T?

func (v Value) assignTo(context string, dst *abi.Type, target unsafe.Pointer) Value {
	if v.flag&flagMethod != 0 {
		v = makeMethodValue(context, v)
	}

	switch {
	case directlyAssignable(dst, v.typ()):
		// Overwrite type so that they match.
		// Same memory layout, so no harm done.
		fl := v.flag&(flagAddr|flagIndir) | v.flag.ro()
		fl |= flag(dst.Kind())
		return Value{dst, v.ptr, fl}