// CHECK: "tf.AssignVariableOp"(%[[BUFFER]], %[[UPDATE]])
    // CHECK: "tf.AssignVariableOp"(%[[SIZE]]
     %push = "tf.StackPushV2"(%stack, %elem) {swap_memory = false} : (tensor<!tf_type.resource>, tensor<f32>) -> tensor<f32>
    "tf.Yield"(%elem) : (tensor<f32>) -> ()
  }, {
    %elem = "tf._SomeOtherOp"() : () -> tensor<f32>
    // CHECK-NOT: tf.StackPushV2
    // CHECK: %[[BUFFER_VAL:.*]] = "tf.ReadVariableOp"(%[[BUFFER]])

			case *Array:
				l = t.len
				e = t.elem
				if x.mode != variable {
					mode = value
				}
			case *Pointer:
				if t, _ := under(t.base).(*Array); t != nil {
					l = t.len
					e = t.elem
				}
			case *Slice:
				e = t.elem
			case *Map:
				k = t.key
				e = t.elem
			}
			if e == nil {
				return false
			}
			if elem == nil {
				// first type
				length = l

		if nn := arrayRangeClear(nrange, v1, v2, a); nn != nil {
			base.Pos = lno
			return nn
		}

		// Element type of the iteration
		var elem *types.Type
		switch t.Kind() {
		case types.TSLICE, types.TARRAY:
			elem = t.Elem()
		case types.TPTR:
			elem = t.Elem().Elem()
		}

		// order.stmt arranged for a copy of the array/slice variable if needed.
		ha := a

			v.Elem().Set(elem)
		}
	case reflect.Slice:
		numElems := rand.Intn(size)
		sizeLeft := size - numElems
		v.Set(reflect.MakeSlice(concrete, numElems, numElems))
		for i := 0; i < numElems; i++ {
			elem, ok := sizedValue(concrete.Elem(), rand, sizeLeft)
			if !ok {
				return reflect.Value{}, false
			}
			v.Index(i).Set(elem)
		}
	case reflect.Array:
		for i := 0; i < v.Len(); i++ {

	}

	for i := 0; i < reflectResults.Len(); i++ {
		elem := reflectResults.Index(i)
		for idx, field := range relForeignFields {
			fieldValues[idx], _ = field.ValueOf(tx.Statement.Context, elem)
		}

		datas, ok := identityMap[utils.ToStringKey(fieldValues...)]
		if !ok {
			return fmt.Errorf("failed to assign association %#v, make sure foreign fields exists", elem.Interface())
		}

		for _, data := range datas {

			tconv2(b, t.Elem(), 0, mode, visited)
		case Csend:
			b.WriteString("chan<- ")
			tconv2(b, t.Elem(), 0, mode, visited)
		default:
			b.WriteString("chan ")
			if t.Elem() != nil && t.Elem().IsChan() && t.Elem().Sym() == nil && t.Elem().ChanDir() == Crecv {
				b.WriteByte('(')
				tconv2(b, t.Elem(), 0, mode, visited)
				b.WriteByte(')')
			} else {
				tconv2(b, t.Elem(), 0, mode, visited)
			}
		}

	//	q/s/u
	//	q/v
	//	w
	//
	// is actually sorted as:
	//
	//	p       # dir=.    elem=p
	//	q/      # dir=.    elem=q
	//	w/      # dir=.    elem=w
	//	q/r     # dir=q    elem=r
	//	q/s/    # dir=q    elem=s
	//	q/v     # dir=q    elem=v
	//	q/s/t   # dir=q/s  elem=t
	//	q/s/u   # dir=q/s  elem=u
	//
	// This order brings directory contents together in contiguous sections

					}

					fieldValue.Elem().Set(reflectV.Convert(fieldType))
					return
				}
			}

			if reflectV.Kind() == reflect.Ptr {
				if reflectV.IsNil() {
					field.ReflectValueOf(ctx, value).Set(reflect.New(field.FieldType).Elem())
				} else if reflectV.Type().Elem().AssignableTo(field.FieldType) {
					field.ReflectValueOf(ctx, value).Set(reflectV.Elem())
					return
				} else {

	return s
}

func (s *sliceType) init(elem gobType) {
	// Set our type id before evaluating the element's, in case it's our own.
	setTypeId(s)
	// See the comments about ids in newTypeObject. Only slices and
	// structs have mutual recursion.
	if elem.id() == 0 {
		setTypeId(elem)
	}
	s.Elem = elem.id()
}

func (s *sliceType) safeString(seen map[typeId]bool) string {
	if seen[s.Id] {
		return s.Name
	}

	return makechan(t, int(size))
}

func makechan(t *chantype, size int) *hchan {
	elem := t.Elem

	// compiler checks this but be safe.
	if elem.Size_ >= 1<<16 {
		throw("makechan: invalid channel element type")
	}
	if hchanSize%maxAlign != 0 || elem.Align_ > maxAlign {
		throw("makechan: bad alignment")
	}

	mem, overflow := math.MulUintptr(elem.Size_, uintptr(size))
	if overflow || mem > maxAlloc-hchanSize || size < 0 {