if hasRType(n, n.RType, "RType") {
		return n.RType
	}
	return mapRType(pos, n.Type())
}

// MakeSliceElemRType asserts that n is a "make" operation for a slice
// type, and returns an expression that yields the *runtime._type
// value representing that slice type's element type.
func MakeSliceElemRType(pos src.XPos, n *ir.MakeExpr) ir.Node {
	assertOp2(n, ir.OMAKESLICE, ir.OMAKESLICECOPY)
	if hasRType(n, n.RType, "RType") {

//
//go:noescape
func resolveTypeOff(rtype unsafe.Pointer, off int32) unsafe.Pointer

func (t rtype) nameOff(off nameOff) abi.Name {
	return abi.Name{Bytes: (*byte)(resolveNameOff(unsafe.Pointer(t.Type), int32(off)))}
}

func (t rtype) typeOff(off typeOff) *abi.Type {
	return (*abi.Type)(resolveTypeOff(unsafe.Pointer(t.Type), int32(off)))
}

func (t rtype) uncommon() *uncommonType {
	return t.Uncommon()
}

// A DynamicType represents a type expression whose exact type must be
// computed dynamically.
type DynamicType struct {
	miniExpr

	// RType is an expression that yields a *runtime._type value
	// representing the asserted type.
	//
	// BUG(mdempsky): If ITab is non-nil, RType may be nil.
	RType Node

	// ITab is an expression that yields a *runtime.itab value
	// representing the asserted type within the assertee expression's

func badlinkname_rtype_Key(*rtype) Type

//go:linkname badlinkname_rtype_Kind reflect.(*rtype).Kind
func badlinkname_rtype_Kind(*rtype) Kind

//go:linkname badlinkname_rtype_Len reflect.(*rtype).Len
func badlinkname_rtype_Len(*rtype) int

//go:linkname badlinkname_rtype_Method reflect.(*rtype).Method
func badlinkname_rtype_Method(*rtype, int) Method

		for _, off := range offs {
			typ := (*rtype)(resolveTypeOff(rodata, off))
			r = append(r, typ.String())
		}
	}
	return r
}

var GCBits = gcbits

func gcbits(any) []byte // provided by runtime

func MapBucketOf(x, y Type) Type {
	return toType(bucketOf(x.common(), y.common()))
}

func CachedBucketOf(m Type) Type {
	t := m.(*rtype)
	if Kind(t.t.Kind_&abi.KindMask) != Map {

// Test cluster with bad `num_cores_per_replica` attribute.
!rtype = tensor<!tf_type.resource<tensor<10x3xf32>>>
func.func @replication_with_model_parallelism(%arg0: !rtype, %arg1: !rtype, %arg2: !rtype, %arg3: !rtype) -> (tensor<10x3xf32>) {
  %2 = "tf.TPUReplicatedInput"(%arg0, %arg2) : (!rtype, !rtype) -> !rtype
  %3 = "tf.TPUReplicatedInput"(%arg1, %arg3) : (!rtype, !rtype) -> !rtype

					if r.Type == IMAGE_REL_AMD64_ADDR32NB {
						rType = objabi.R_PEIMAGEOFF
					} else {
						rType = objabi.R_PCREL
					}

					rAdd = int64(int32(binary.LittleEndian.Uint32(state.sectdata[rsect][rOff:])))

				case IMAGE_REL_I386_DIR32NB, IMAGE_REL_I386_DIR32:
					if r.Type == IMAGE_REL_I386_DIR32NB {
						rType = objabi.R_PEIMAGEOFF
					} else {
						rType = objabi.R_ADDR
					}

	}
	for _, s := range schemes {
		for gvk, rtype := range s.AllKnownTypes() {
			newGVK := gvkConvert(gvk)
			exists := false
			for _, existingGVK := range ret.typeGroupVersionKinds[typeName(rtype)] {
				if newGVK == existingGVK {
					exists = true
					break
				}
			}
			if !exists {
				ret.typeGroupVersionKinds[typeName(rtype)] = append(ret.typeGroupVersionKinds[typeName(rtype)], newGVK)
			}
		}
	}

type _type = abi.Type

// rtype is a wrapper that allows us to define additional methods.
type rtype struct {
	*abi.Type // embedding is okay here (unlike reflect) because none of this is public
}

func (t rtype) string() string {
	s := t.nameOff(t.Str).Name()
	if t.TFlag&abi.TFlagExtraStar != 0 {
		return s[1:]
	}
	return s
}

func (t rtype) uncommon() *uncommontype {
	return t.Uncommon()
}

	return int(t.t.Size_) * 8
}

func (t *rtype) Align() int { return t.t.Align() }

func (t *rtype) FieldAlign() int { return t.t.FieldAlign() }

func (t *rtype) Kind() Kind { return Kind(t.t.Kind()) }

func (t *rtype) exportedMethods() []abi.Method {
	ut := t.uncommon()
	if ut == nil {
		return nil
	}
	return ut.ExportedMethods()
}

func (t *rtype) NumMethod() int {
	if t.Kind() == Interface {