Update 4.8.1 to 4.8.3.

My previous drop was the wrong version. The platform mingw is
currently using 4.8.3, not 4.8.1 (not sure how I got that wrong).

From ftp://ftp.gnu.org/gnu/gcc/gcc-4.8.3/gcc-4.8.3.tar.bz2.

Bug: http://b/26523949
Change-Id: Id85f1bdcbbaf78c7d0b5a69e74c798a08f341c35

1 files changed, 0 insertions, 827 deletions

diff --git a/gcc-4.8.1/libgo/go/encoding/gob/type.go b/gcc-4.8.1/libgo/go/encoding/gob/type.go
deleted file mode 100644
index ea0db4eac..000000000
--- a/gcc-4.8.1/libgo/go/encoding/gob/type.go
+++ /dev/null
@@ -1,827 +0,0 @@
-// Copyright 2009 The Go Authors. All rights reserved.
-// Use of this source code is governed by a BSD-style
-// license that can be found in the LICENSE file.
-
-package gob
-
-import (
-	"errors"
-	"fmt"
-	"os"
-	"reflect"
-	"sync"
-	"unicode"
-	"unicode/utf8"
-)
-
-// userTypeInfo stores the information associated with a type the user has handed
-// to the package.  It's computed once and stored in a map keyed by reflection
-// type.
-type userTypeInfo struct {
-	user         reflect.Type // the type the user handed us
-	base         reflect.Type // the base type after all indirections
-	indir        int          // number of indirections to reach the base type
-	isGobEncoder bool         // does the type implement GobEncoder?
-	isGobDecoder bool         // does the type implement GobDecoder?
-	encIndir     int8         // number of indirections to reach the receiver type; may be negative
-	decIndir     int8         // number of indirections to reach the receiver type; may be negative
-}
-
-var (
-	// Protected by an RWMutex because we read it a lot and write
-	// it only when we see a new type, typically when compiling.
-	userTypeLock  sync.RWMutex
-	userTypeCache = make(map[reflect.Type]*userTypeInfo)
-)
-
-// validType returns, and saves, the information associated with user-provided type rt.
-// If the user type is not valid, err will be non-nil.  To be used when the error handler
-// is not set up.
-func validUserType(rt reflect.Type) (ut *userTypeInfo, err error) {
-	userTypeLock.RLock()
-	ut = userTypeCache[rt]
-	userTypeLock.RUnlock()
-	if ut != nil {
-		return
-	}
-	// Now set the value under the write lock.
-	userTypeLock.Lock()
-	defer userTypeLock.Unlock()
-	if ut = userTypeCache[rt]; ut != nil {
-		// Lost the race; not a problem.
-		return
-	}
-	ut = new(userTypeInfo)
-	ut.base = rt
-	ut.user = rt
-	// A type that is just a cycle of pointers (such as type T *T) cannot
-	// be represented in gobs, which need some concrete data.  We use a
-	// cycle detection algorithm from Knuth, Vol 2, Section 3.1, Ex 6,
-	// pp 539-540.  As we step through indirections, run another type at
-	// half speed. If they meet up, there's a cycle.
-	slowpoke := ut.base // walks half as fast as ut.base
-	for {
-		pt := ut.base
-		if pt.Kind() != reflect.Ptr {
-			break
-		}
-		ut.base = pt.Elem()
-		if ut.base == slowpoke { // ut.base lapped slowpoke
-			// recursive pointer type.
-			return nil, errors.New("can't represent recursive pointer type " + ut.base.String())
-		}
-		if ut.indir%2 == 0 {
-			slowpoke = slowpoke.Elem()
-		}
-		ut.indir++
-	}
-	ut.isGobEncoder, ut.encIndir = implementsInterface(ut.user, gobEncoderInterfaceType)
-	ut.isGobDecoder, ut.decIndir = implementsInterface(ut.user, gobDecoderInterfaceType)
-	userTypeCache[rt] = ut
-	return
-}
-
-var (
-	gobEncoderInterfaceType = reflect.TypeOf((*GobEncoder)(nil)).Elem()
-	gobDecoderInterfaceType = reflect.TypeOf((*GobDecoder)(nil)).Elem()
-)
-
-// implementsInterface reports whether the type implements the
-// gobEncoder/gobDecoder interface.
-// It also returns the number of indirections required to get to the
-// implementation.
-func implementsInterface(typ, gobEncDecType reflect.Type) (success bool, indir int8) {
-	if typ == nil {
-		return
-	}
-	rt := typ
-	// The type might be a pointer and we need to keep
-	// dereferencing to the base type until we find an implementation.
-	for {
-		if rt.Implements(gobEncDecType) {
-			return true, indir
-		}
-		if p := rt; p.Kind() == reflect.Ptr {
-			indir++
-			if indir > 100 { // insane number of indirections
-				return false, 0
-			}
-			rt = p.Elem()
-			continue
-		}
-		break
-	}
-	// No luck yet, but if this is a base type (non-pointer), the pointer might satisfy.
-	if typ.Kind() != reflect.Ptr {
-		// Not a pointer, but does the pointer work?
-		if reflect.PtrTo(typ).Implements(gobEncDecType) {
-			return true, -1
-		}
-	}
-	return false, 0
-}
-
-// userType returns, and saves, the information associated with user-provided type rt.
-// If the user type is not valid, it calls error.
-func userType(rt reflect.Type) *userTypeInfo {
-	ut, err := validUserType(rt)
-	if err != nil {
-		error_(err)
-	}
-	return ut
-}
-
-// A typeId represents a gob Type as an integer that can be passed on the wire.
-// Internally, typeIds are used as keys to a map to recover the underlying type info.
-type typeId int32
-
-var nextId typeId       // incremented for each new type we build
-var typeLock sync.Mutex // set while building a type
-const firstUserId = 64  // lowest id number granted to user
-
-type gobType interface {
-	id() typeId
-	setId(id typeId)
-	name() string
-	string() string // not public; only for debugging
-	safeString(seen map[typeId]bool) string
-}
-
-var types = make(map[reflect.Type]gobType)
-var idToType = make(map[typeId]gobType)
-var builtinIdToType map[typeId]gobType // set in init() after builtins are established
-
-func setTypeId(typ gobType) {
-	// When building recursive types, someone may get there before us.
-	if typ.id() != 0 {
-		return
-	}
-	nextId++
-	typ.setId(nextId)
-	idToType[nextId] = typ
-}
-
-func (t typeId) gobType() gobType {
-	if t == 0 {
-		return nil
-	}
-	return idToType[t]
-}
-
-// string returns the string representation of the type associated with the typeId.
-func (t typeId) string() string {
-	if t.gobType() == nil {
-		return "<nil>"
-	}
-	return t.gobType().string()
-}
-
-// Name returns the name of the type associated with the typeId.
-func (t typeId) name() string {
-	if t.gobType() == nil {
-		return "<nil>"
-	}
-	return t.gobType().name()
-}
-
-// CommonType holds elements of all types.
-// It is a historical artifact, kept for binary compatibility and exported
-// only for the benefit of the package's encoding of type descriptors. It is
-// not intended for direct use by clients.
-type CommonType struct {
-	Name string
-	Id   typeId
-}
-
-func (t *CommonType) id() typeId { return t.Id }
-
-func (t *CommonType) setId(id typeId) { t.Id = id }
-
-func (t *CommonType) string() string { return t.Name }
-
-func (t *CommonType) safeString(seen map[typeId]bool) string {
-	return t.Name
-}
-
-func (t *CommonType) name() string { return t.Name }
-
-// Create and check predefined types
-// The string for tBytes is "bytes" not "[]byte" to signify its specialness.
-
-var (
-	// Primordial types, needed during initialization.
-	// Always passed as pointers so the interface{} type
-	// goes through without losing its interfaceness.
-	tBool      = bootstrapType("bool", (*bool)(nil), 1)
-	tInt       = bootstrapType("int", (*int)(nil), 2)
-	tUint      = bootstrapType("uint", (*uint)(nil), 3)
-	tFloat     = bootstrapType("float", (*float64)(nil), 4)
-	tBytes     = bootstrapType("bytes", (*[]byte)(nil), 5)
-	tString    = bootstrapType("string", (*string)(nil), 6)
-	tComplex   = bootstrapType("complex", (*complex128)(nil), 7)
-	tInterface = bootstrapType("interface", (*interface{})(nil), 8)
-	// Reserve some Ids for compatible expansion
-	tReserved7 = bootstrapType("_reserved1", (*struct{ r7 int })(nil), 9)
-	tReserved6 = bootstrapType("_reserved1", (*struct{ r6 int })(nil), 10)
-	tReserved5 = bootstrapType("_reserved1", (*struct{ r5 int })(nil), 11)
-	tReserved4 = bootstrapType("_reserved1", (*struct{ r4 int })(nil), 12)
-	tReserved3 = bootstrapType("_reserved1", (*struct{ r3 int })(nil), 13)
-	tReserved2 = bootstrapType("_reserved1", (*struct{ r2 int })(nil), 14)
-	tReserved1 = bootstrapType("_reserved1", (*struct{ r1 int })(nil), 15)
-)
-
-// Predefined because it's needed by the Decoder
-var tWireType = mustGetTypeInfo(reflect.TypeOf(wireType{})).id
-var wireTypeUserInfo *userTypeInfo // userTypeInfo of (*wireType)
-
-func init() {
-	// Some magic numbers to make sure there are no surprises.
-	checkId(16, tWireType)
-	checkId(17, mustGetTypeInfo(reflect.TypeOf(arrayType{})).id)
-	checkId(18, mustGetTypeInfo(reflect.TypeOf(CommonType{})).id)
-	checkId(19, mustGetTypeInfo(reflect.TypeOf(sliceType{})).id)
-	checkId(20, mustGetTypeInfo(reflect.TypeOf(structType{})).id)
-	checkId(21, mustGetTypeInfo(reflect.TypeOf(fieldType{})).id)
-	checkId(23, mustGetTypeInfo(reflect.TypeOf(mapType{})).id)
-
-	builtinIdToType = make(map[typeId]gobType)
-	for k, v := range idToType {
-		builtinIdToType[k] = v
-	}
-
-	// Move the id space upwards to allow for growth in the predefined world
-	// without breaking existing files.
-	if nextId > firstUserId {
-		panic(fmt.Sprintln("nextId too large:", nextId))
-	}
-	nextId = firstUserId
-	registerBasics()
-	wireTypeUserInfo = userType(reflect.TypeOf((*wireType)(nil)))
-}
-
-// Array type
-type arrayType struct {
-	CommonType
-	Elem typeId
-	Len  int
-}
-
-func newArrayType(name string) *arrayType {
-	a := &arrayType{CommonType{Name: name}, 0, 0}
-	return a
-}
-
-func (a *arrayType) init(elem gobType, len int) {
-	// Set our type id before evaluating the element's, in case it's our own.
-	setTypeId(a)
-	a.Elem = elem.id()
-	a.Len = len
-}
-
-func (a *arrayType) safeString(seen map[typeId]bool) string {
-	if seen[a.Id] {
-		return a.Name
-	}
-	seen[a.Id] = true
-	return fmt.Sprintf("[%d]%s", a.Len, a.Elem.gobType().safeString(seen))
-}
-
-func (a *arrayType) string() string { return a.safeString(make(map[typeId]bool)) }
-
-// GobEncoder type (something that implements the GobEncoder interface)
-type gobEncoderType struct {
-	CommonType
-}
-
-func newGobEncoderType(name string) *gobEncoderType {
-	g := &gobEncoderType{CommonType{Name: name}}
-	setTypeId(g)
-	return g
-}
-
-func (g *gobEncoderType) safeString(seen map[typeId]bool) string {
-	return g.Name
-}
-
-func (g *gobEncoderType) string() string { return g.Name }
-
-// Map type
-type mapType struct {
-	CommonType
-	Key  typeId
-	Elem typeId
-}
-
-func newMapType(name string) *mapType {
-	m := &mapType{CommonType{Name: name}, 0, 0}
-	return m
-}
-
-func (m *mapType) init(key, elem gobType) {
-	// Set our type id before evaluating the element's, in case it's our own.
-	setTypeId(m)
-	m.Key = key.id()
-	m.Elem = elem.id()
-}
-
-func (m *mapType) safeString(seen map[typeId]bool) string {
-	if seen[m.Id] {
-		return m.Name
-	}
-	seen[m.Id] = true
-	key := m.Key.gobType().safeString(seen)
-	elem := m.Elem.gobType().safeString(seen)
-	return fmt.Sprintf("map[%s]%s", key, elem)
-}
-
-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)
-	// 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
-	}
-	seen[s.Id] = true
-	return fmt.Sprintf("[]%s", s.Elem.gobType().safeString(seen))
-}
-
-func (s *sliceType) string() string { return s.safeString(make(map[typeId]bool)) }
-
-// Struct type
-type fieldType struct {
-	Name string
-	Id   typeId
-}
-
-type structType struct {
-	CommonType
-	Field []*fieldType
-}
-
-func (s *structType) safeString(seen map[typeId]bool) string {
-	if s == nil {
-		return "<nil>"
-	}
-	if _, ok := seen[s.Id]; ok {
-		return s.Name
-	}
-	seen[s.Id] = true
-	str := s.Name + " = struct { "
-	for _, f := range s.Field {
-		str += fmt.Sprintf("%s %s; ", f.Name, f.Id.gobType().safeString(seen))
-	}
-	str += "}"
-	return str
-}
-
-func (s *structType) string() string { return s.safeString(make(map[typeId]bool)) }
-
-func newStructType(name string) *structType {
-	s := &structType{CommonType{Name: name}, nil}
-	// For historical reasons we set the id here rather than init.
-	// See the comment in newTypeObject for details.
-	setTypeId(s)
-	return s
-}
-
-// newTypeObject allocates a gobType for the reflection type rt.
-// Unless ut represents a GobEncoder, rt should be the base type
-// of ut.
-// This is only called from the encoding side. The decoding side
-// works through typeIds and userTypeInfos alone.
-func newTypeObject(name string, ut *userTypeInfo, rt reflect.Type) (gobType, error) {
-	// Does this type implement GobEncoder?
-	if ut.isGobEncoder {
-		return newGobEncoderType(name), nil
-	}
-	var err error
-	var type0, type1 gobType
-	defer func() {
-		if err != nil {
-			delete(types, rt)
-		}
-	}()
-	// Install the top-level type before the subtypes (e.g. struct before
-	// fields) so recursive types can be constructed safely.
-	switch t := rt; t.Kind() {
-	// All basic types are easy: they are predefined.
-	case reflect.Bool:
-		return tBool.gobType(), nil
-
-	case reflect.Int, reflect.Int8, reflect.Int16, reflect.Int32, reflect.Int64:
-		return tInt.gobType(), nil
-
-	case reflect.Uint, reflect.Uint8, reflect.Uint16, reflect.Uint32, reflect.Uint64, reflect.Uintptr:
-		return tUint.gobType(), nil
-
-	case reflect.Float32, reflect.Float64:
-		return tFloat.gobType(), nil
-
-	case reflect.Complex64, reflect.Complex128:
-		return tComplex.gobType(), nil
-
-	case reflect.String:
-		return tString.gobType(), nil
-
-	case reflect.Interface:
-		return tInterface.gobType(), nil
-
-	case reflect.Array:
-		at := newArrayType(name)
-		types[rt] = at
-		type0, err = getBaseType("", t.Elem())
-		if err != nil {
-			return nil, err
-		}
-		// Historical aside:
-		// For arrays, maps, and slices, we set the type id after the elements
-		// are constructed. This is to retain the order of type id allocation after
-		// a fix made to handle recursive types, which changed the order in
-		// which types are built.  Delaying the setting in this way preserves
-		// type ids while allowing recursive types to be described. Structs,
-		// done below, were already handling recursion correctly so they
-		// assign the top-level id before those of the field.
-		at.init(type0, t.Len())
-		return at, nil
-
-	case reflect.Map:
-		mt := newMapType(name)
-		types[rt] = mt
-		type0, err = getBaseType("", t.Key())
-		if err != nil {
-			return nil, err
-		}
-		type1, err = getBaseType("", t.Elem())
-		if err != nil {
-			return nil, err
-		}
-		mt.init(type0, type1)
-		return mt, nil
-
-	case reflect.Slice:
-		// []byte == []uint8 is a special case
-		if t.Elem().Kind() == reflect.Uint8 {
-			return tBytes.gobType(), nil
-		}
-		st := newSliceType(name)
-		types[rt] = st
-		type0, err = getBaseType(t.Elem().Name(), t.Elem())
-		if err != nil {
-			return nil, err
-		}
-		st.init(type0)
-		return st, nil
-
-	case reflect.Struct:
-		st := newStructType(name)
-		types[rt] = st
-		idToType[st.id()] = st
-		for i := 0; i < t.NumField(); i++ {
-			f := t.Field(i)
-			if !isExported(f.Name) {
-				continue
-			}
-			typ := userType(f.Type).base
-			tname := typ.Name()
-			if tname == "" {
-				t := userType(f.Type).base
-				tname = t.String()
-			}
-			gt, err := getBaseType(tname, f.Type)
-			if err != nil {
-				return nil, err
-			}
-			// Some mutually recursive types can cause us to be here while
-			// still defining the element. Fix the element type id here.
-			// We could do this more neatly by setting the id at the start of
-			// building every type, but that would break binary compatibility.
-			if gt.id() == 0 {
-				setTypeId(gt)
-			}
-			st.Field = append(st.Field, &fieldType{f.Name, gt.id()})
-		}
-		return st, nil
-
-	default:
-		return nil, errors.New("gob NewTypeObject can't handle type: " + rt.String())
-	}
-	return nil, nil
-}
-
-// isExported reports whether this is an exported - upper case - name.
-func isExported(name string) bool {
-	rune, _ := utf8.DecodeRuneInString(name)
-	return unicode.IsUpper(rune)
-}
-
-// getBaseType returns the Gob type describing the given reflect.Type's base type.
-// typeLock must be held.
-func getBaseType(name string, rt reflect.Type) (gobType, error) {
-	ut := userType(rt)
-	return getType(name, ut, ut.base)
-}
-
-// getType returns the Gob type describing the given reflect.Type.
-// Should be called only when handling GobEncoders/Decoders,
-// which may be pointers.  All other types are handled through the
-// base type, never a pointer.
-// typeLock must be held.
-func getType(name string, ut *userTypeInfo, rt reflect.Type) (gobType, error) {
-	typ, present := types[rt]
-	if present {
-		return typ, nil
-	}
-	typ, err := newTypeObject(name, ut, rt)
-	if err == nil {
-		types[rt] = typ
-	}
-	return typ, err
-}
-
-func checkId(want, got typeId) {
-	if want != got {
-		fmt.Fprintf(os.Stderr, "checkId: %d should be %d\n", int(got), int(want))
-		panic("bootstrap type wrong id: " + got.name() + " " + got.string() + " not " + want.string())
-	}
-}
-
-// used for building the basic types; called only from init().  the incoming
-// interface always refers to a pointer.
-func bootstrapType(name string, e interface{}, expect typeId) typeId {
-	rt := reflect.TypeOf(e).Elem()
-	_, present := types[rt]
-	if present {
-		panic("bootstrap type already present: " + name + ", " + rt.String())
-	}
-	typ := &CommonType{Name: name}
-	types[rt] = typ
-	setTypeId(typ)
-	checkId(expect, nextId)
-	userType(rt) // might as well cache it now
-	return nextId
-}
-
-// Representation of the information we send and receive about this type.
-// Each value we send is preceded by its type definition: an encoded int.
-// However, the very first time we send the value, we first send the pair
-// (-id, wireType).
-// For bootstrapping purposes, we assume that the recipient knows how
-// to decode a wireType; it is exactly the wireType struct here, interpreted
-// using the gob rules for sending a structure, except that we assume the
-// ids for wireType and structType etc. are known.  The relevant pieces
-// are built in encode.go's init() function.
-// To maintain binary compatibility, if you extend this type, always put
-// the new fields last.
-type wireType struct {
-	ArrayT      *arrayType
-	SliceT      *sliceType
-	StructT     *structType
-	MapT        *mapType
-	GobEncoderT *gobEncoderType
-}
-
-func (w *wireType) string() string {
-	const unknown = "unknown type"
-	if w == nil {
-		return unknown
-	}
-	switch {
-	case w.ArrayT != nil:
-		return w.ArrayT.Name
-	case w.SliceT != nil:
-		return w.SliceT.Name
-	case w.StructT != nil:
-		return w.StructT.Name
-	case w.MapT != nil:
-		return w.MapT.Name
-	case w.GobEncoderT != nil:
-		return w.GobEncoderT.Name
-	}
-	return unknown
-}
-
-type typeInfo struct {
-	id      typeId
-	encoder *encEngine
-	wire    *wireType
-}
-
-var typeInfoMap = make(map[reflect.Type]*typeInfo) // protected by typeLock
-
-// typeLock must be held.
-func getTypeInfo(ut *userTypeInfo) (*typeInfo, error) {
-	rt := ut.base
-	if ut.isGobEncoder {
-		// We want the user type, not the base type.
-		rt = ut.user
-	}
-	info, ok := typeInfoMap[rt]
-	if ok {
-		return info, nil
-	}
-	info = new(typeInfo)
-	gt, err := getBaseType(rt.Name(), rt)
-	if err != nil {
-		return nil, err
-	}
-	info.id = gt.id()
-
-	if ut.isGobEncoder {
-		userType, err := getType(rt.Name(), ut, rt)
-		if err != nil {
-			return nil, err
-		}
-		info.wire = &wireType{GobEncoderT: userType.id().gobType().(*gobEncoderType)}
-		typeInfoMap[ut.user] = info
-		return info, nil
-	}
-
-	t := info.id.gobType()
-	switch typ := rt; typ.Kind() {
-	case reflect.Array:
-		info.wire = &wireType{ArrayT: t.(*arrayType)}
-	case reflect.Map:
-		info.wire = &wireType{MapT: t.(*mapType)}
-	case reflect.Slice:
-		// []byte == []uint8 is a special case handled separately
-		if typ.Elem().Kind() != reflect.Uint8 {
-			info.wire = &wireType{SliceT: t.(*sliceType)}
-		}
-	case reflect.Struct:
-		info.wire = &wireType{StructT: t.(*structType)}
-	}
-	typeInfoMap[rt] = info
-	return info, nil
-}
-
-// Called only when a panic is acceptable and unexpected.
-func mustGetTypeInfo(rt reflect.Type) *typeInfo {
-	t, err := getTypeInfo(userType(rt))
-	if err != nil {
-		panic("getTypeInfo: " + err.Error())
-	}
-	return t
-}
-
-// GobEncoder is the interface describing data that provides its own
-// representation for encoding values for transmission to a GobDecoder.
-// A type that implements GobEncoder and GobDecoder has complete
-// control over the representation of its data and may therefore
-// contain things such as private fields, channels, and functions,
-// which are not usually transmissible in gob streams.
-//
-// Note: Since gobs can be stored permanently, It is good design
-// to guarantee the encoding used by a GobEncoder is stable as the
-// software evolves.  For instance, it might make sense for GobEncode
-// to include a version number in the encoding.
-type GobEncoder interface {
-	// GobEncode returns a byte slice representing the encoding of the
-	// receiver for transmission to a GobDecoder, usually of the same
-	// concrete type.
-	GobEncode() ([]byte, error)
-}
-
-// GobDecoder is the interface describing data that provides its own
-// routine for decoding transmitted values sent by a GobEncoder.
-type GobDecoder interface {
-	// GobDecode overwrites the receiver, which must be a pointer,
-	// with the value represented by the byte slice, which was written
-	// by GobEncode, usually for the same concrete type.
-	GobDecode([]byte) error
-}
-
-var (
-	registerLock       sync.RWMutex
-	nameToConcreteType = make(map[string]reflect.Type)
-	concreteTypeToName = make(map[reflect.Type]string)
-)
-
-// RegisterName is like Register but uses the provided name rather than the
-// type's default.
-func RegisterName(name string, value interface{}) {
-	if name == "" {
-		// reserved for nil
-		panic("attempt to register empty name")
-	}
-	registerLock.Lock()
-	defer registerLock.Unlock()
-	ut := userType(reflect.TypeOf(value))
-	// Check for incompatible duplicates. The name must refer to the
-	// same user type, and vice versa.
-	if t, ok := nameToConcreteType[name]; ok && t != ut.user {
-		panic(fmt.Sprintf("gob: registering duplicate types for %q: %s != %s", name, t, ut.user))
-	}
-	if n, ok := concreteTypeToName[ut.base]; ok && n != name {
-		panic(fmt.Sprintf("gob: registering duplicate names for %s: %q != %q", ut.user, n, name))
-	}
-	// Store the name and type provided by the user....
-	nameToConcreteType[name] = reflect.TypeOf(value)
-	// but the flattened type in the type table, since that's what decode needs.
-	concreteTypeToName[ut.base] = name
-}
-
-// Register records a type, identified by a value for that type, under its
-// internal type name.  That name will identify the concrete type of a value
-// sent or received as an interface variable.  Only types that will be
-// transferred as implementations of interface values need to be registered.
-// Expecting to be used only during initialization, it panics if the mapping
-// between types and names is not a bijection.
-func Register(value interface{}) {
-	// Default to printed representation for unnamed types
-	rt := reflect.TypeOf(value)
-	name := rt.String()
-
-	// But for named types (or pointers to them), qualify with import path (but see inner comment).
-	// Dereference one pointer looking for a named type.
-	star := ""
-	if rt.Name() == "" {
-		if pt := rt; pt.Kind() == reflect.Ptr {
-			star = "*"
-			// NOTE: The following line should be rt = pt.Elem() to implement
-			// what the comment above claims, but fixing it would break compatibility
-			// with existing gobs.
-			//
-			// Given package p imported as "full/p" with these definitions:
-			//     package p
-			//     type T1 struct { ... }
-			// this table shows the intended and actual strings used by gob to
-			// name the types:
-			//
-			// Type      Correct string     Actual string
-			//
-			// T1        full/p.T1          full/p.T1
-			// *T1       *full/p.T1         *p.T1
-			//
-			// The missing full path cannot be fixed without breaking existing gob decoders.
-			rt = pt
-		}
-	}
-	if rt.Name() != "" {
-		if rt.PkgPath() == "" {
-			name = star + rt.Name()
-		} else {
-			name = star + rt.PkgPath() + "." + rt.Name()
-		}
-	}
-
-	RegisterName(name, value)
-}
-
-func registerBasics() {
-	Register(int(0))
-	Register(int8(0))
-	Register(int16(0))
-	Register(int32(0))
-	Register(int64(0))
-	Register(uint(0))
-	Register(uint8(0))
-	Register(uint16(0))
-	Register(uint32(0))
-	Register(uint64(0))
-	Register(float32(0))
-	Register(float64(0))
-	Register(complex64(0i))
-	Register(complex128(0i))
-	Register(uintptr(0))
-	Register(false)
-	Register("")
-	Register([]byte(nil))
-	Register([]int(nil))
-	Register([]int8(nil))
-	Register([]int16(nil))
-	Register([]int32(nil))
-	Register([]int64(nil))
-	Register([]uint(nil))
-	Register([]uint8(nil))
-	Register([]uint16(nil))
-	Register([]uint32(nil))
-	Register([]uint64(nil))
-	Register([]float32(nil))
-	Register([]float64(nil))
-	Register([]complex64(nil))
-	Register([]complex128(nil))
-	Register([]uintptr(nil))
-	Register([]bool(nil))
-	Register([]string(nil))
-}