}

func (m *mapType) string() string { return m.safeString(make(map[typeId]bool)) }

// Slice type
type sliceType struct {
	CommonType
	Elem typeId
}

func newSliceType(name string) *sliceType {
	s := &sliceType{CommonType{Name: name}, 0}
	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)

}

type uncommontype = abi.UncommonType

type interfacetype = abi.InterfaceType

type maptype = abi.MapType

type arraytype = abi.ArrayType

type chantype = abi.ChanType

type slicetype = abi.SliceType

type functype = abi.FuncType

type ptrtype = abi.PtrType

type name = abi.Name

type structtype = abi.StructType

func pkgPath(n name) string {

type chanType = abi.ChanType

type funcType = abi.FuncType

type interfaceType = abi.InterfaceType

// ptrType represents a pointer type.
type ptrType = abi.PtrType

// sliceType represents a slice type.
type sliceType = abi.SliceType

// structType represents a struct type.
type structType = abi.StructType

// name is an encoded type name with optional extra data.
//

pair (-type id, encoded-type) where encoded-type is the gob encoding of a wireType
description, constructed from these types:

	type wireType struct {
		ArrayT           *ArrayType
		SliceT           *SliceType
		StructT          *StructType
		MapT             *MapType
		GobEncoderT      *gobEncoderType
		BinaryMarshalerT *gobEncoderType
		TextMarshalerT   *gobEncoderType

	}
	type arrayType struct {

		}
		return &(*u)(unsafe.Pointer(t)).u
	case Func:
		type u struct {
			FuncType
			u UncommonType
		}
		return &(*u)(unsafe.Pointer(t)).u
	case Slice:
		type u struct {
			SliceType
			u UncommonType
		}
		return &(*u)(unsafe.Pointer(t)).u
	case Array:
		type u struct {
			ArrayType
			u UncommonType
		}
		return &(*u)(unsafe.Pointer(t)).u
	case Chan:
		type u struct {

)

type ident struct {
	pkg  *types.Package
	name string
}

const predeclReserved = 32

type itag uint64

const (
	// Types
	definedType itag = iota
	pointerType
	sliceType
	arrayType
	chanType
	mapType
	signatureType
	structType
	interfaceType
	typeParamType
	instanceType
	unionType
)

// iImportData imports a package from the serialized package data

				if err != nil {
					return nil, err
				}
			}

			return multiEncoder(m), nil
		}
	case reflect.Slice:
		sliceType := v.Type()
		if sliceType.Elem().Kind() == reflect.Uint8 {
			return bytesEncoder(v.Bytes()), nil
		}

		var fp fieldParameters

		switch l := v.Len(); l {
		case 0:
			return bytesEncoder(nil), nil
		case 1:

	uint16Type *_type = efaceOf(&uint16Eface)._type
	uint32Type *_type = efaceOf(&uint32Eface)._type
	uint64Type *_type = efaceOf(&uint64Eface)._type
	stringType *_type = efaceOf(&stringEface)._type
	sliceType  *_type = efaceOf(&sliceEface)._type
)

// The conv and assert functions below do very similar things.
// The convXXX functions are guaranteed by the compiler to succeed.

			typ.len = -1
		}
		typ.elem = check.varType(e.Elem)
		if typ.len >= 0 {
			return typ
		}
		// report error if we encountered [...]

	case *syntax.SliceType:
		typ := new(Slice)
		setDefType(def, typ)
		typ.elem = check.varType(e.Elem)
		return typ

	case *syntax.DotsType:
		// dots are handled explicitly where they are legal

	var x any
	switch t.Kind_ & abi.KindMask {
	case abi.String:
		s1 := s.(string)
		s2, b := rawstring(len(s1))
		copy(b, s1)
		x = s2
	case abi.Slice:
		len := (*slice)(e.data).len
		et := (*slicetype)(unsafe.Pointer(t)).Elem
		sl := new(slice)
		*sl = slice{makeslicecopy(et, len, len, (*slice)(e.data).array), len, len}
		xe := efaceOf(&x)
		xe._type = t
		xe.data = unsafe.Pointer(sl)
	case abi.Pointer: