// It also reports whether a Pointer was present.
func ReceiverNamed(recv *types.Var) (isPtr bool, named *types.Named) {
	t := recv.Type()
	if ptr, ok := aliases.Unalias(t).(*types.Pointer); ok {
		isPtr = true
		t = ptr.Elem()
	}
	named, _ = aliases.Unalias(t).(*types.Named)
	return
}

// Unpointer returns T given *T or an alias thereof.
// For all other types it is the identity function.

                              context, HandleFromInput(context, 0), &variable,
                              [this, &value](Var** ptr) {
                                *ptr = new Var(dtype_);
                                *(*ptr)->tensor() = value;
                                (*ptr)->is_initialized = true;
                                return absl::OkStatus();
                              }));
  mutex_lock ml(*variable->mu());

		x := y.Args[0]
		if ptr != y.Args[1] || mem != v_2 || !(y.Uses == 1 && clobber(y)) {
			break
		}
		v.reset(Op386ADDLmodify)
		v.AuxInt = int32ToAuxInt(off)
		v.Aux = symToAux(sym)
		v.AddArg3(ptr, x, mem)
		return true
	}
	// match: (MOVLstore {sym} [off] ptr y:(ANDLload x [off] {sym} ptr mem) mem)
	// cond: y.Uses==1 && clobber(y)
	// result: (ANDLmodify [off] {sym} ptr x mem)
	for {

}

// Make creates a weak pointer from a strong pointer to some value of type T.
func Make[T any](ptr *T) Pointer[T] {
	// Explicitly force ptr to escape to the heap.
	ptr = abi.Escape(ptr)

	var u unsafe.Pointer
	if ptr != nil {
		u = runtime_registerWeakPointer(unsafe.Pointer(ptr))
	}
	runtime.KeepAlive(ptr)
	return Pointer[T]{u}
}

// Strong creates a strong pointer from the weak pointer.

// If there is none, this will return nil.
func GetApplyConfigKey[O any](a O) *Key[O] {
	// Reflection is expensive; short circuit here
	if !strings.HasSuffix(ptr.TypeName[O](), "ApplyConfiguration") {
		return nil
	}
	val := reflect.ValueOf(a)

	if val.Kind() == reflect.Ptr {
		val = val.Elem()
	}
	if val.Kind() != reflect.Struct {
		return nil
	}

	specField := val.FieldByName("ObjectMetaApplyConfiguration")

					pinnerLeakPanic()
				}
			})
		}
	}
	ptr := pinnerGetPtr(&pointer)
	if setPinned(ptr, true) {
		p.refs = append(p.refs, ptr)
	}
}

// Unpin unpins all pinned objects of the [Pinner].
func (p *Pinner) Unpin() {
	p.pinner.unpin()

	mp := acquirem()
	if pp := mp.p.ptr(); pp != nil && pp.pinnerCache == nil {
		// Put the pinner back in the cache, but only if the

	return atomic.LoadPointer(addr)
}

var ptr unsafe.Pointer

func StorePointer() {
	var x int // ERROR "moved to heap: x"
	atomic.StorePointer(&ptr, unsafe.Pointer(&x))
}

func SwapPointer() {
	var x int // ERROR "moved to heap: x"
	atomic.SwapPointer(&ptr, unsafe.Pointer(&x))
}

func CompareAndSwapPointer() {
	// BAD: x doesn't need to be heap allocated

	"testing"

	metav1 "k8s.io/apimachinery/pkg/apis/meta/v1"
	"k8s.io/apimachinery/pkg/util/validation/field"
	genericapirequest "k8s.io/apiserver/pkg/endpoints/request"
	"k8s.io/kubernetes/pkg/apis/storage"
	ptr "k8s.io/utils/ptr"
)

func TestPrepareForCreate(t *testing.T) {
	valid := getValidCSINode("foo")
	emptyAllocatable := &storage.CSINode{
		ObjectMeta: metav1.ObjectMeta{
			Name: "foo",
		},
		Spec: storage.CSINodeSpec{

		}
	}
	// Either flagIndir is set and v.ptr points at struct,
	// or flagIndir is not set and v.ptr is the actual struct data.
	// In the former case, we want v.ptr + offset.
	// In the latter case, we must have field.offset = 0,
	// so v.ptr + field.offset is still the correct address.
	ptr := add(v.ptr, field.Offset, "same as non-reflect &v.field")
	return Value{typ, ptr, fl}
}

func TField(typ Type, i int) Type {

	verifyGCInfo(t, "data slice", &dataSlice, infoSlice)
	verifyGCInfo(t, "data eface", &dataEface, infoEface)
	verifyGCInfo(t, "data iface", &dataIface, infoIface)

	{
		var x Ptr
		verifyGCInfo(t, "stack Ptr", &x, infoPtr)
		runtime.KeepAlive(x)
	}
	{
		var x ScalarPtr
		verifyGCInfo(t, "stack ScalarPtr", &x, infoScalarPtr)
		runtime.KeepAlive(x)
	}
	{
		var x PtrScalar