cmd/fix: remove obsolete testdata.

The corresponding rules have been removed for Go 1.

R=golang-dev, r
CC=golang-dev
https://golang.org/cl/9940044

30 files changed, 0 insertions, 19227 deletions

diff --git a/src/cmd/fix/testdata/reflect.asn1.go.in b/src/cmd/fix/testdata/reflect.asn1.go.in
deleted file mode 100644
index 43128f6b26..0000000000
--- a/src/cmd/fix/testdata/reflect.asn1.go.in
+++ /dev/null
@@ -1,814 +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.
-
-// The asn1 package implements parsing of DER-encoded ASN.1 data structures,
-// as defined in ITU-T Rec X.690.
-//
-// See also ``A Layman's Guide to a Subset of ASN.1, BER, and DER,''
-// http://luca.ntop.org/Teaching/Appunti/asn1.html.
-package asn1
-
-// ASN.1 is a syntax for specifying abstract objects and BER, DER, PER, XER etc
-// are different encoding formats for those objects. Here, we'll be dealing
-// with DER, the Distinguished Encoding Rules. DER is used in X.509 because
-// it's fast to parse and, unlike BER, has a unique encoding for every object.
-// When calculating hashes over objects, it's important that the resulting
-// bytes be the same at both ends and DER removes this margin of error.
-//
-// ASN.1 is very complex and this package doesn't attempt to implement
-// everything by any means.
-
-import (
-	"fmt"
-	"os"
-	"reflect"
-	"time"
-)
-
-// A StructuralError suggests that the ASN.1 data is valid, but the Go type
-// which is receiving it doesn't match.
-type StructuralError struct {
-	Msg string
-}
-
-func (e StructuralError) String() string { return "ASN.1 structure error: " + e.Msg }
-
-// A SyntaxError suggests that the ASN.1 data is invalid.
-type SyntaxError struct {
-	Msg string
-}
-
-func (e SyntaxError) String() string { return "ASN.1 syntax error: " + e.Msg }
-
-// We start by dealing with each of the primitive types in turn.
-
-// BOOLEAN
-
-func parseBool(bytes []byte) (ret bool, err os.Error) {
-	if len(bytes) != 1 {
-		err = SyntaxError{"invalid boolean"}
-		return
-	}
-
-	return bytes[0] != 0, nil
-}
-
-// INTEGER
-
-// parseInt64 treats the given bytes as a big-endian, signed integer and
-// returns the result.
-func parseInt64(bytes []byte) (ret int64, err os.Error) {
-	if len(bytes) > 8 {
-		// We'll overflow an int64 in this case.
-		err = StructuralError{"integer too large"}
-		return
-	}
-	for bytesRead := 0; bytesRead < len(bytes); bytesRead++ {
-		ret <<= 8
-		ret |= int64(bytes[bytesRead])
-	}
-
-	// Shift up and down in order to sign extend the result.
-	ret <<= 64 - uint8(len(bytes))*8
-	ret >>= 64 - uint8(len(bytes))*8
-	return
-}
-
-// parseInt treats the given bytes as a big-endian, signed integer and returns
-// the result.
-func parseInt(bytes []byte) (int, os.Error) {
-	ret64, err := parseInt64(bytes)
-	if err != nil {
-		return 0, err
-	}
-	if ret64 != int64(int(ret64)) {
-		return 0, StructuralError{"integer too large"}
-	}
-	return int(ret64), nil
-}
-
-// BIT STRING
-
-// BitString is the structure to use when you want an ASN.1 BIT STRING type. A
-// bit string is padded up to the nearest byte in memory and the number of
-// valid bits is recorded. Padding bits will be zero.
-type BitString struct {
-	Bytes     []byte // bits packed into bytes.
-	BitLength int    // length in bits.
-}
-
-// At returns the bit at the given index. If the index is out of range it
-// returns false.
-func (b BitString) At(i int) int {
-	if i < 0 || i >= b.BitLength {
-		return 0
-	}
-	x := i / 8
-	y := 7 - uint(i%8)
-	return int(b.Bytes[x]>>y) & 1
-}
-
-// RightAlign returns a slice where the padding bits are at the beginning. The
-// slice may share memory with the BitString.
-func (b BitString) RightAlign() []byte {
-	shift := uint(8 - (b.BitLength % 8))
-	if shift == 8 || len(b.Bytes) == 0 {
-		return b.Bytes
-	}
-
-	a := make([]byte, len(b.Bytes))
-	a[0] = b.Bytes[0] >> shift
-	for i := 1; i < len(b.Bytes); i++ {
-		a[i] = b.Bytes[i-1] << (8 - shift)
-		a[i] |= b.Bytes[i] >> shift
-	}
-
-	return a
-}
-
-// parseBitString parses an ASN.1 bit string from the given byte array and returns it.
-func parseBitString(bytes []byte) (ret BitString, err os.Error) {
-	if len(bytes) == 0 {
-		err = SyntaxError{"zero length BIT STRING"}
-		return
-	}
-	paddingBits := int(bytes[0])
-	if paddingBits > 7 ||
-		len(bytes) == 1 && paddingBits > 0 ||
-		bytes[len(bytes)-1]&((1<<bytes[0])-1) != 0 {
-		err = SyntaxError{"invalid padding bits in BIT STRING"}
-		return
-	}
-	ret.BitLength = (len(bytes)-1)*8 - paddingBits
-	ret.Bytes = bytes[1:]
-	return
-}
-
-// OBJECT IDENTIFIER
-
-// An ObjectIdentifier represents an ASN.1 OBJECT IDENTIFIER.
-type ObjectIdentifier []int
-
-// Equal returns true iff oi and other represent the same identifier.
-func (oi ObjectIdentifier) Equal(other ObjectIdentifier) bool {
-	if len(oi) != len(other) {
-		return false
-	}
-	for i := 0; i < len(oi); i++ {
-		if oi[i] != other[i] {
-			return false
-		}
-	}
-
-	return true
-}
-
-// parseObjectIdentifier parses an OBJECT IDENTIFER from the given bytes and
-// returns it. An object identifer is a sequence of variable length integers
-// that are assigned in a hierarachy.
-func parseObjectIdentifier(bytes []byte) (s []int, err os.Error) {
-	if len(bytes) == 0 {
-		err = SyntaxError{"zero length OBJECT IDENTIFIER"}
-		return
-	}
-
-	// In the worst case, we get two elements from the first byte (which is
-	// encoded differently) and then every varint is a single byte long.
-	s = make([]int, len(bytes)+1)
-
-	// The first byte is 40*value1 + value2:
-	s[0] = int(bytes[0]) / 40
-	s[1] = int(bytes[0]) % 40
-	i := 2
-	for offset := 1; offset < len(bytes); i++ {
-		var v int
-		v, offset, err = parseBase128Int(bytes, offset)
-		if err != nil {
-			return
-		}
-		s[i] = v
-	}
-	s = s[0:i]
-	return
-}
-
-// ENUMERATED
-
-// An Enumerated is represented as a plain int.
-type Enumerated int
-
-// FLAG
-
-// A Flag accepts any data and is set to true if present.
-type Flag bool
-
-// parseBase128Int parses a base-128 encoded int from the given offset in the
-// given byte array. It returns the value and the new offset.
-func parseBase128Int(bytes []byte, initOffset int) (ret, offset int, err os.Error) {
-	offset = initOffset
-	for shifted := 0; offset < len(bytes); shifted++ {
-		if shifted > 4 {
-			err = StructuralError{"base 128 integer too large"}
-			return
-		}
-		ret <<= 7
-		b := bytes[offset]
-		ret |= int(b & 0x7f)
-		offset++
-		if b&0x80 == 0 {
-			return
-		}
-	}
-	err = SyntaxError{"truncated base 128 integer"}
-	return
-}
-
-// UTCTime
-
-func parseUTCTime(bytes []byte) (ret *time.Time, err os.Error) {
-	s := string(bytes)
-	ret, err = time.Parse("0601021504Z0700", s)
-	if err == nil {
-		return
-	}
-	ret, err = time.Parse("060102150405Z0700", s)
-	return
-}
-
-// parseGeneralizedTime parses the GeneralizedTime from the given byte array
-// and returns the resulting time.
-func parseGeneralizedTime(bytes []byte) (ret *time.Time, err os.Error) {
-	return time.Parse("20060102150405Z0700", string(bytes))
-}
-
-// PrintableString
-
-// parsePrintableString parses a ASN.1 PrintableString from the given byte
-// array and returns it.
-func parsePrintableString(bytes []byte) (ret string, err os.Error) {
-	for _, b := range bytes {
-		if !isPrintable(b) {
-			err = SyntaxError{"PrintableString contains invalid character"}
-			return
-		}
-	}
-	ret = string(bytes)
-	return
-}
-
-// isPrintable returns true iff the given b is in the ASN.1 PrintableString set.
-func isPrintable(b byte) bool {
-	return 'a' <= b && b <= 'z' ||
-		'A' <= b && b <= 'Z' ||
-		'0' <= b && b <= '9' ||
-		'\'' <= b && b <= ')' ||
-		'+' <= b && b <= '/' ||
-		b == ' ' ||
-		b == ':' ||
-		b == '=' ||
-		b == '?' ||
-		// This is techincally not allowed in a PrintableString.
-		// However, x509 certificates with wildcard strings don't
-		// always use the correct string type so we permit it.
-		b == '*'
-}
-
-// IA5String
-
-// parseIA5String parses a ASN.1 IA5String (ASCII string) from the given
-// byte array and returns it.
-func parseIA5String(bytes []byte) (ret string, err os.Error) {
-	for _, b := range bytes {
-		if b >= 0x80 {
-			err = SyntaxError{"IA5String contains invalid character"}
-			return
-		}
-	}
-	ret = string(bytes)
-	return
-}
-
-// T61String
-
-// parseT61String parses a ASN.1 T61String (8-bit clean string) from the given
-// byte array and returns it.
-func parseT61String(bytes []byte) (ret string, err os.Error) {
-	return string(bytes), nil
-}
-
-// A RawValue represents an undecoded ASN.1 object.
-type RawValue struct {
-	Class, Tag int
-	IsCompound bool
-	Bytes      []byte
-	FullBytes  []byte // includes the tag and length
-}
-
-// RawContent is used to signal that the undecoded, DER data needs to be
-// preserved for a struct. To use it, the first field of the struct must have
-// this type. It's an error for any of the other fields to have this type.
-type RawContent []byte
-
-// Tagging
-
-// parseTagAndLength parses an ASN.1 tag and length pair from the given offset
-// into a byte array. It returns the parsed data and the new offset. SET and
-// SET OF (tag 17) are mapped to SEQUENCE and SEQUENCE OF (tag 16) since we
-// don't distinguish between ordered and unordered objects in this code.
-func parseTagAndLength(bytes []byte, initOffset int) (ret tagAndLength, offset int, err os.Error) {
-	offset = initOffset
-	b := bytes[offset]
-	offset++
-	ret.class = int(b >> 6)
-	ret.isCompound = b&0x20 == 0x20
-	ret.tag = int(b & 0x1f)
-
-	// If the bottom five bits are set, then the tag number is actually base 128
-	// encoded afterwards
-	if ret.tag == 0x1f {
-		ret.tag, offset, err = parseBase128Int(bytes, offset)
-		if err != nil {
-			return
-		}
-	}
-	if offset >= len(bytes) {
-		err = SyntaxError{"truncated tag or length"}
-		return
-	}
-	b = bytes[offset]
-	offset++
-	if b&0x80 == 0 {
-		// The length is encoded in the bottom 7 bits.
-		ret.length = int(b & 0x7f)
-	} else {
-		// Bottom 7 bits give the number of length bytes to follow.
-		numBytes := int(b & 0x7f)
-		// We risk overflowing a signed 32-bit number if we accept more than 3 bytes.
-		if numBytes > 3 {
-			err = StructuralError{"length too large"}
-			return
-		}
-		if numBytes == 0 {
-			err = SyntaxError{"indefinite length found (not DER)"}
-			return
-		}
-		ret.length = 0
-		for i := 0; i < numBytes; i++ {
-			if offset >= len(bytes) {
-				err = SyntaxError{"truncated tag or length"}
-				return
-			}
-			b = bytes[offset]
-			offset++
-			ret.length <<= 8
-			ret.length |= int(b)
-		}
-	}
-
-	return
-}
-
-// parseSequenceOf is used for SEQUENCE OF and SET OF values. It tries to parse
-// a number of ASN.1 values from the given byte array and returns them as a
-// slice of Go values of the given type.
-func parseSequenceOf(bytes []byte, sliceType *reflect.SliceType, elemType reflect.Type) (ret *reflect.SliceValue, err os.Error) {
-	expectedTag, compoundType, ok := getUniversalType(elemType)
-	if !ok {
-		err = StructuralError{"unknown Go type for slice"}
-		return
-	}
-
-	// First we iterate over the input and count the number of elements,
-	// checking that the types are correct in each case.
-	numElements := 0
-	for offset := 0; offset < len(bytes); {
-		var t tagAndLength
-		t, offset, err = parseTagAndLength(bytes, offset)
-		if err != nil {
-			return
-		}
-		// We pretend that GENERAL STRINGs are PRINTABLE STRINGs so
-		// that a sequence of them can be parsed into a []string.
-		if t.tag == tagGeneralString {
-			t.tag = tagPrintableString
-		}
-		if t.class != classUniversal || t.isCompound != compoundType || t.tag != expectedTag {
-			err = StructuralError{"sequence tag mismatch"}
-			return
-		}
-		if invalidLength(offset, t.length, len(bytes)) {
-			err = SyntaxError{"truncated sequence"}
-			return
-		}
-		offset += t.length
-		numElements++
-	}
-	ret = reflect.MakeSlice(sliceType, numElements, numElements)
-	params := fieldParameters{}
-	offset := 0
-	for i := 0; i < numElements; i++ {
-		offset, err = parseField(ret.Elem(i), bytes, offset, params)
-		if err != nil {
-			return
-		}
-	}
-	return
-}
-
-var (
-	bitStringType        = reflect.Typeof(BitString{})
-	objectIdentifierType = reflect.Typeof(ObjectIdentifier{})
-	enumeratedType       = reflect.Typeof(Enumerated(0))
-	flagType             = reflect.Typeof(Flag(false))
-	timeType             = reflect.Typeof(&time.Time{})
-	rawValueType         = reflect.Typeof(RawValue{})
-	rawContentsType      = reflect.Typeof(RawContent(nil))
-)
-
-// invalidLength returns true iff offset + length > sliceLength, or if the
-// addition would overflow.
-func invalidLength(offset, length, sliceLength int) bool {
-	return offset+length < offset || offset+length > sliceLength
-}
-
-// parseField is the main parsing function. Given a byte array and an offset
-// into the array, it will try to parse a suitable ASN.1 value out and store it
-// in the given Value.
-func parseField(v reflect.Value, bytes []byte, initOffset int, params fieldParameters) (offset int, err os.Error) {
-	offset = initOffset
-	fieldType := v.Type()
-
-	// If we have run out of data, it may be that there are optional elements at the end.
-	if offset == len(bytes) {
-		if !setDefaultValue(v, params) {
-			err = SyntaxError{"sequence truncated"}
-		}
-		return
-	}
-
-	// Deal with raw values.
-	if fieldType == rawValueType {
-		var t tagAndLength
-		t, offset, err = parseTagAndLength(bytes, offset)
-		if err != nil {
-			return
-		}
-		if invalidLength(offset, t.length, len(bytes)) {
-			err = SyntaxError{"data truncated"}
-			return
-		}
-		result := RawValue{t.class, t.tag, t.isCompound, bytes[offset : offset+t.length], bytes[initOffset : offset+t.length]}
-		offset += t.length
-		v.(*reflect.StructValue).Set(reflect.NewValue(result).(*reflect.StructValue))
-		return
-	}
-
-	// Deal with the ANY type.
-	if ifaceType, ok := fieldType.(*reflect.InterfaceType); ok && ifaceType.NumMethod() == 0 {
-		ifaceValue := v.(*reflect.InterfaceValue)
-		var t tagAndLength
-		t, offset, err = parseTagAndLength(bytes, offset)
-		if err != nil {
-			return
-		}
-		if invalidLength(offset, t.length, len(bytes)) {
-			err = SyntaxError{"data truncated"}
-			return
-		}
-		var result interface{}
-		if !t.isCompound && t.class == classUniversal {
-			innerBytes := bytes[offset : offset+t.length]
-			switch t.tag {
-			case tagPrintableString:
-				result, err = parsePrintableString(innerBytes)
-			case tagIA5String:
-				result, err = parseIA5String(innerBytes)
-			case tagT61String:
-				result, err = parseT61String(innerBytes)
-			case tagInteger:
-				result, err = parseInt64(innerBytes)
-			case tagBitString:
-				result, err = parseBitString(innerBytes)
-			case tagOID:
-				result, err = parseObjectIdentifier(innerBytes)
-			case tagUTCTime:
-				result, err = parseUTCTime(innerBytes)
-			case tagOctetString:
-				result = innerBytes
-			default:
-				// If we don't know how to handle the type, we just leave Value as nil.
-			}
-		}
-		offset += t.length
-		if err != nil {
-			return
-		}
-		if result != nil {
-			ifaceValue.Set(reflect.NewValue(result))
-		}
-		return
-	}
-	universalTag, compoundType, ok1 := getUniversalType(fieldType)
-	if !ok1 {
-		err = StructuralError{fmt.Sprintf("unknown Go type: %v", fieldType)}
-		return
-	}
-
-	t, offset, err := parseTagAndLength(bytes, offset)
-	if err != nil {
-		return
-	}
-	if params.explicit {
-		expectedClass := classContextSpecific
-		if params.application {
-			expectedClass = classApplication
-		}
-		if t.class == expectedClass && t.tag == *params.tag && (t.length == 0 || t.isCompound) {
-			if t.length > 0 {
-				t, offset, err = parseTagAndLength(bytes, offset)
-				if err != nil {
-					return
-				}
-			} else {
-				if fieldType != flagType {
-					err = StructuralError{"Zero length explicit tag was not an asn1.Flag"}
-					return
-				}
-
-				flagValue := v.(*reflect.BoolValue)
-				flagValue.Set(true)
-				return
-			}
-		} else {
-			// The tags didn't match, it might be an optional element.
-			ok := setDefaultValue(v, params)
-			if ok {
-				offset = initOffset
-			} else {
-				err = StructuralError{"explicitly tagged member didn't match"}
-			}
-			return
-		}
-	}
-
-	// Special case for strings: PrintableString and IA5String both map to
-	// the Go type string. getUniversalType returns the tag for
-	// PrintableString when it sees a string so, if we see an IA5String on
-	// the wire, we change the universal type to match.
-	if universalTag == tagPrintableString && t.tag == tagIA5String {
-		universalTag = tagIA5String
-	}
-	// Likewise for GeneralString
-	if universalTag == tagPrintableString && t.tag == tagGeneralString {
-		universalTag = tagGeneralString
-	}
-
-	// Special case for time: UTCTime and GeneralizedTime both map to the
-	// Go type time.Time.
-	if universalTag == tagUTCTime && t.tag == tagGeneralizedTime {
-		universalTag = tagGeneralizedTime
-	}
-
-	expectedClass := classUniversal
-	expectedTag := universalTag
-
-	if !params.explicit && params.tag != nil {
-		expectedClass = classContextSpecific
-		expectedTag = *params.tag
-	}
-
-	if !params.explicit && params.application && params.tag != nil {
-		expectedClass = classApplication
-		expectedTag = *params.tag
-	}
-
-	// We have unwrapped any explicit tagging at this point.
-	if t.class != expectedClass || t.tag != expectedTag || t.isCompound != compoundType {
-		// Tags don't match. Again, it could be an optional element.
-		ok := setDefaultValue(v, params)
-		if ok {
-			offset = initOffset
-		} else {
-			err = StructuralError{fmt.Sprintf("tags don't match (%d vs %+v) %+v %s @%d", expectedTag, t, params, fieldType.Name(), offset)}
-		}
-		return
-	}
-	if invalidLength(offset, t.length, len(bytes)) {
-		err = SyntaxError{"data truncated"}
-		return
-	}
-	innerBytes := bytes[offset : offset+t.length]
-	offset += t.length
-
-	// We deal with the structures defined in this package first.
-	switch fieldType {
-	case objectIdentifierType:
-		newSlice, err1 := parseObjectIdentifier(innerBytes)
-		sliceValue := v.(*reflect.SliceValue)
-		sliceValue.Set(reflect.MakeSlice(sliceValue.Type().(*reflect.SliceType), len(newSlice), len(newSlice)))
-		if err1 == nil {
-			reflect.Copy(sliceValue, reflect.NewValue(newSlice).(reflect.ArrayOrSliceValue))
-		}
-		err = err1
-		return
-	case bitStringType:
-		structValue := v.(*reflect.StructValue)
-		bs, err1 := parseBitString(innerBytes)
-		if err1 == nil {
-			structValue.Set(reflect.NewValue(bs).(*reflect.StructValue))
-		}
-		err = err1
-		return
-	case timeType:
-		ptrValue := v.(*reflect.PtrValue)
-		var time *time.Time
-		var err1 os.Error
-		if universalTag == tagUTCTime {
-			time, err1 = parseUTCTime(innerBytes)
-		} else {
-			time, err1 = parseGeneralizedTime(innerBytes)
-		}
-		if err1 == nil {
-			ptrValue.Set(reflect.NewValue(time).(*reflect.PtrValue))
-		}
-		err = err1
-		return
-	case enumeratedType:
-		parsedInt, err1 := parseInt(innerBytes)
-		enumValue := v.(*reflect.IntValue)
-		if err1 == nil {
-			enumValue.Set(int64(parsedInt))
-		}
-		err = err1
-		return
-	case flagType:
-		flagValue := v.(*reflect.BoolValue)
-		flagValue.Set(true)
-		return
-	}
-	switch val := v.(type) {
-	case *reflect.BoolValue:
-		parsedBool, err1 := parseBool(innerBytes)
-		if err1 == nil {
-			val.Set(parsedBool)
-		}
-		err = err1
-		return
-	case *reflect.IntValue:
-		switch val.Type().Kind() {
-		case reflect.Int:
-			parsedInt, err1 := parseInt(innerBytes)
-			if err1 == nil {
-				val.Set(int64(parsedInt))
-			}
-			err = err1
-			return
-		case reflect.Int64:
-			parsedInt, err1 := parseInt64(innerBytes)
-			if err1 == nil {
-				val.Set(parsedInt)
-			}
-			err = err1
-			return
-		}
-	case *reflect.StructValue:
-		structType := fieldType.(*reflect.StructType)
-
-		if structType.NumField() > 0 &&
-			structType.Field(0).Type == rawContentsType {
-			bytes := bytes[initOffset:offset]
-			val.Field(0).SetValue(reflect.NewValue(RawContent(bytes)))
-		}
-
-		innerOffset := 0
-		for i := 0; i < structType.NumField(); i++ {
-			field := structType.Field(i)
-			if i == 0 && field.Type == rawContentsType {
-				continue
-			}
-			innerOffset, err = parseField(val.Field(i), innerBytes, innerOffset, parseFieldParameters(field.Tag))
-			if err != nil {
-				return
-			}
-		}
-		// We allow extra bytes at the end of the SEQUENCE because
-		// adding elements to the end has been used in X.509 as the
-		// version numbers have increased.
-		return
-	case *reflect.SliceValue:
-		sliceType := fieldType.(*reflect.SliceType)
-		if sliceType.Elem().Kind() == reflect.Uint8 {
-			val.Set(reflect.MakeSlice(sliceType, len(innerBytes), len(innerBytes)))
-			reflect.Copy(val, reflect.NewValue(innerBytes).(reflect.ArrayOrSliceValue))
-			return
-		}
-		newSlice, err1 := parseSequenceOf(innerBytes, sliceType, sliceType.Elem())
-		if err1 == nil {
-			val.Set(newSlice)
-		}
-		err = err1
-		return
-	case *reflect.StringValue:
-		var v string
-		switch universalTag {
-		case tagPrintableString:
-			v, err = parsePrintableString(innerBytes)
-		case tagIA5String:
-			v, err = parseIA5String(innerBytes)
-		case tagT61String:
-			v, err = parseT61String(innerBytes)
-		case tagGeneralString:
-			// GeneralString is specified in ISO-2022/ECMA-35,
-			// A brief review suggests that it includes structures
-			// that allow the encoding to change midstring and
-			// such. We give up and pass it as an 8-bit string.
-			v, err = parseT61String(innerBytes)
-		default:
-			err = SyntaxError{fmt.Sprintf("internal error: unknown string type %d", universalTag)}
-		}
-		if err == nil {
-			val.Set(v)
-		}
-		return
-	}
-	err = StructuralError{"unknown Go type"}
-	return
-}
-
-// setDefaultValue is used to install a default value, from a tag string, into
-// a Value. It is successful is the field was optional, even if a default value
-// wasn't provided or it failed to install it into the Value.
-func setDefaultValue(v reflect.Value, params fieldParameters) (ok bool) {
-	if !params.optional {
-		return
-	}
-	ok = true
-	if params.defaultValue == nil {
-		return
-	}
-	switch val := v.(type) {
-	case *reflect.IntValue:
-		val.Set(*params.defaultValue)
-	}
-	return
-}
-
-// Unmarshal parses the DER-encoded ASN.1 data structure b
-// and uses the reflect package to fill in an arbitrary value pointed at by val.
-// Because Unmarshal uses the reflect package, the structs
-// being written to must use upper case field names.
-//
-// An ASN.1 INTEGER can be written to an int or int64.
-// If the encoded value does not fit in the Go type,
-// Unmarshal returns a parse error.
-//
-// An ASN.1 BIT STRING can be written to a BitString.
-//
-// An ASN.1 OCTET STRING can be written to a []byte.
-//
-// An ASN.1 OBJECT IDENTIFIER can be written to an
-// ObjectIdentifier.
-//
-// An ASN.1 ENUMERATED can be written to an Enumerated.
-//
-// An ASN.1 UTCTIME or GENERALIZEDTIME can be written to a *time.Time.
-//
-// An ASN.1 PrintableString or IA5String can be written to a string.
-//
-// Any of the above ASN.1 values can be written to an interface{}.
-// The value stored in the interface has the corresponding Go type.
-// For integers, that type is int64.
-//
-// An ASN.1 SEQUENCE OF x or SET OF x can be written
-// to a slice if an x can be written to the slice's element type.
-//
-// An ASN.1 SEQUENCE or SET can be written to a struct
-// if each of the elements in the sequence can be
-// written to the corresponding element in the struct.
-//
-// The following tags on struct fields have special meaning to Unmarshal:
-//
-//	optional		marks the field as ASN.1 OPTIONAL
-//	[explicit] tag:x	specifies the ASN.1 tag number; implies ASN.1 CONTEXT SPECIFIC
-//	default:x		sets the default value for optional integer fields
-//
-// If the type of the first field of a structure is RawContent then the raw
-// ASN1 contents of the struct will be stored in it.
-//
-// Other ASN.1 types are not supported; if it encounters them,
-// Unmarshal returns a parse error.
-func Unmarshal(b []byte, val interface{}) (rest []byte, err os.Error) {
-	return UnmarshalWithParams(b, val, "")
-}
-
-// UnmarshalWithParams allows field parameters to be specified for the
-// top-level element. The form of the params is the same as the field tags.
-func UnmarshalWithParams(b []byte, val interface{}, params string) (rest []byte, err os.Error) {
-	v := reflect.NewValue(val).(*reflect.PtrValue).Elem()
-	offset, err := parseField(v, b, 0, parseFieldParameters(params))
-	if err != nil {
-		return nil, err
-	}
-	return b[offset:], nil
-}
diff --git a/src/cmd/fix/testdata/reflect.asn1.go.out b/src/cmd/fix/testdata/reflect.asn1.go.out
deleted file mode 100644
index ba6224e6df..0000000000
--- a/src/cmd/fix/testdata/reflect.asn1.go.out
+++ /dev/null
@@ -1,814 +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.
-
-// The asn1 package implements parsing of DER-encoded ASN.1 data structures,
-// as defined in ITU-T Rec X.690.
-//
-// See also ``A Layman's Guide to a Subset of ASN.1, BER, and DER,''
-// http://luca.ntop.org/Teaching/Appunti/asn1.html.
-package asn1
-
-// ASN.1 is a syntax for specifying abstract objects and BER, DER, PER, XER etc
-// are different encoding formats for those objects. Here, we'll be dealing
-// with DER, the Distinguished Encoding Rules. DER is used in X.509 because
-// it's fast to parse and, unlike BER, has a unique encoding for every object.
-// When calculating hashes over objects, it's important that the resulting
-// bytes be the same at both ends and DER removes this margin of error.
-//
-// ASN.1 is very complex and this package doesn't attempt to implement
-// everything by any means.
-
-import (
-	"fmt"
-	"os"
-	"reflect"
-	"time"
-)
-
-// A StructuralError suggests that the ASN.1 data is valid, but the Go type
-// which is receiving it doesn't match.
-type StructuralError struct {
-	Msg string
-}
-
-func (e StructuralError) String() string { return "ASN.1 structure error: " + e.Msg }
-
-// A SyntaxError suggests that the ASN.1 data is invalid.
-type SyntaxError struct {
-	Msg string
-}
-
-func (e SyntaxError) String() string { return "ASN.1 syntax error: " + e.Msg }
-
-// We start by dealing with each of the primitive types in turn.
-
-// BOOLEAN
-
-func parseBool(bytes []byte) (ret bool, err os.Error) {
-	if len(bytes) != 1 {
-		err = SyntaxError{"invalid boolean"}
-		return
-	}
-
-	return bytes[0] != 0, nil
-}
-
-// INTEGER
-
-// parseInt64 treats the given bytes as a big-endian, signed integer and
-// returns the result.
-func parseInt64(bytes []byte) (ret int64, err os.Error) {
-	if len(bytes) > 8 {
-		// We'll overflow an int64 in this case.
-		err = StructuralError{"integer too large"}
-		return
-	}
-	for bytesRead := 0; bytesRead < len(bytes); bytesRead++ {
-		ret <<= 8
-		ret |= int64(bytes[bytesRead])
-	}
-
-	// Shift up and down in order to sign extend the result.
-	ret <<= 64 - uint8(len(bytes))*8
-	ret >>= 64 - uint8(len(bytes))*8
-	return
-}
-
-// parseInt treats the given bytes as a big-endian, signed integer and returns
-// the result.
-func parseInt(bytes []byte) (int, os.Error) {
-	ret64, err := parseInt64(bytes)
-	if err != nil {
-		return 0, err
-	}
-	if ret64 != int64(int(ret64)) {
-		return 0, StructuralError{"integer too large"}
-	}
-	return int(ret64), nil
-}
-
-// BIT STRING
-
-// BitString is the structure to use when you want an ASN.1 BIT STRING type. A
-// bit string is padded up to the nearest byte in memory and the number of
-// valid bits is recorded. Padding bits will be zero.
-type BitString struct {
-	Bytes     []byte // bits packed into bytes.
-	BitLength int    // length in bits.
-}
-
-// At returns the bit at the given index. If the index is out of range it
-// returns false.
-func (b BitString) At(i int) int {
-	if i < 0 || i >= b.BitLength {
-		return 0
-	}
-	x := i / 8
-	y := 7 - uint(i%8)
-	return int(b.Bytes[x]>>y) & 1
-}
-
-// RightAlign returns a slice where the padding bits are at the beginning. The
-// slice may share memory with the BitString.
-func (b BitString) RightAlign() []byte {
-	shift := uint(8 - (b.BitLength % 8))
-	if shift == 8 || len(b.Bytes) == 0 {
-		return b.Bytes
-	}
-
-	a := make([]byte, len(b.Bytes))
-	a[0] = b.Bytes[0] >> shift
-	for i := 1; i < len(b.Bytes); i++ {
-		a[i] = b.Bytes[i-1] << (8 - shift)
-		a[i] |= b.Bytes[i] >> shift
-	}
-
-	return a
-}
-
-// parseBitString parses an ASN.1 bit string from the given byte array and returns it.
-func parseBitString(bytes []byte) (ret BitString, err os.Error) {
-	if len(bytes) == 0 {
-		err = SyntaxError{"zero length BIT STRING"}
-		return
-	}
-	paddingBits := int(bytes[0])
-	if paddingBits > 7 ||
-		len(bytes) == 1 && paddingBits > 0 ||
-		bytes[len(bytes)-1]&((1<<bytes[0])-1) != 0 {
-		err = SyntaxError{"invalid padding bits in BIT STRING"}
-		return
-	}
-	ret.BitLength = (len(bytes)-1)*8 - paddingBits
-	ret.Bytes = bytes[1:]
-	return
-}
-
-// OBJECT IDENTIFIER
-
-// An ObjectIdentifier represents an ASN.1 OBJECT IDENTIFIER.
-type ObjectIdentifier []int
-
-// Equal returns true iff oi and other represent the same identifier.
-func (oi ObjectIdentifier) Equal(other ObjectIdentifier) bool {
-	if len(oi) != len(other) {
-		return false
-	}
-	for i := 0; i < len(oi); i++ {
-		if oi[i] != other[i] {
-			return false
-		}
-	}
-
-	return true
-}
-
-// parseObjectIdentifier parses an OBJECT IDENTIFER from the given bytes and
-// returns it. An object identifer is a sequence of variable length integers
-// that are assigned in a hierarachy.
-func parseObjectIdentifier(bytes []byte) (s []int, err os.Error) {
-	if len(bytes) == 0 {
-		err = SyntaxError{"zero length OBJECT IDENTIFIER"}
-		return
-	}
-
-	// In the worst case, we get two elements from the first byte (which is
-	// encoded differently) and then every varint is a single byte long.
-	s = make([]int, len(bytes)+1)
-
-	// The first byte is 40*value1 + value2:
-	s[0] = int(bytes[0]) / 40
-	s[1] = int(bytes[0]) % 40
-	i := 2
-	for offset := 1; offset < len(bytes); i++ {
-		var v int
-		v, offset, err = parseBase128Int(bytes, offset)
-		if err != nil {
-			return
-		}
-		s[i] = v
-	}
-	s = s[0:i]
-	return
-}
-
-// ENUMERATED
-
-// An Enumerated is represented as a plain int.
-type Enumerated int
-
-// FLAG
-
-// A Flag accepts any data and is set to true if present.
-type Flag bool
-
-// parseBase128Int parses a base-128 encoded int from the given offset in the
-// given byte array. It returns the value and the new offset.
-func parseBase128Int(bytes []byte, initOffset int) (ret, offset int, err os.Error) {
-	offset = initOffset
-	for shifted := 0; offset < len(bytes); shifted++ {
-		if shifted > 4 {
-			err = StructuralError{"base 128 integer too large"}
-			return
-		}
-		ret <<= 7
-		b := bytes[offset]
-		ret |= int(b & 0x7f)
-		offset++
-		if b&0x80 == 0 {
-			return
-		}
-	}
-	err = SyntaxError{"truncated base 128 integer"}
-	return
-}
-
-// UTCTime
-
-func parseUTCTime(bytes []byte) (ret *time.Time, err os.Error) {
-	s := string(bytes)
-	ret, err = time.Parse("0601021504Z0700", s)
-	if err == nil {
-		return
-	}
-	ret, err = time.Parse("060102150405Z0700", s)
-	return
-}
-
-// parseGeneralizedTime parses the GeneralizedTime from the given byte array
-// and returns the resulting time.
-func parseGeneralizedTime(bytes []byte) (ret *time.Time, err os.Error) {
-	return time.Parse("20060102150405Z0700", string(bytes))
-}
-
-// PrintableString
-
-// parsePrintableString parses a ASN.1 PrintableString from the given byte
-// array and returns it.
-func parsePrintableString(bytes []byte) (ret string, err os.Error) {
-	for _, b := range bytes {
-		if !isPrintable(b) {
-			err = SyntaxError{"PrintableString contains invalid character"}
-			return
-		}
-	}
-	ret = string(bytes)
-	return
-}
-
-// isPrintable returns true iff the given b is in the ASN.1 PrintableString set.
-func isPrintable(b byte) bool {
-	return 'a' <= b && b <= 'z' ||
-		'A' <= b && b <= 'Z' ||
-		'0' <= b && b <= '9' ||
-		'\'' <= b && b <= ')' ||
-		'+' <= b && b <= '/' ||
-		b == ' ' ||
-		b == ':' ||
-		b == '=' ||
-		b == '?' ||
-		// This is techincally not allowed in a PrintableString.
-		// However, x509 certificates with wildcard strings don't
-		// always use the correct string type so we permit it.
-		b == '*'
-}
-
-// IA5String
-
-// parseIA5String parses a ASN.1 IA5String (ASCII string) from the given
-// byte array and returns it.
-func parseIA5String(bytes []byte) (ret string, err os.Error) {
-	for _, b := range bytes {
-		if b >= 0x80 {
-			err = SyntaxError{"IA5String contains invalid character"}
-			return
-		}
-	}
-	ret = string(bytes)
-	return
-}
-
-// T61String
-
-// parseT61String parses a ASN.1 T61String (8-bit clean string) from the given
-// byte array and returns it.
-func parseT61String(bytes []byte) (ret string, err os.Error) {
-	return string(bytes), nil
-}
-
-// A RawValue represents an undecoded ASN.1 object.
-type RawValue struct {
-	Class, Tag int
-	IsCompound bool
-	Bytes      []byte
-	FullBytes  []byte // includes the tag and length
-}
-
-// RawContent is used to signal that the undecoded, DER data needs to be
-// preserved for a struct. To use it, the first field of the struct must have
-// this type. It's an error for any of the other fields to have this type.
-type RawContent []byte
-
-// Tagging
-
-// parseTagAndLength parses an ASN.1 tag and length pair from the given offset
-// into a byte array. It returns the parsed data and the new offset. SET and
-// SET OF (tag 17) are mapped to SEQUENCE and SEQUENCE OF (tag 16) since we
-// don't distinguish between ordered and unordered objects in this code.
-func parseTagAndLength(bytes []byte, initOffset int) (ret tagAndLength, offset int, err os.Error) {
-	offset = initOffset
-	b := bytes[offset]
-	offset++
-	ret.class = int(b >> 6)
-	ret.isCompound = b&0x20 == 0x20
-	ret.tag = int(b & 0x1f)
-
-	// If the bottom five bits are set, then the tag number is actually base 128
-	// encoded afterwards
-	if ret.tag == 0x1f {
-		ret.tag, offset, err = parseBase128Int(bytes, offset)
-		if err != nil {
-			return
-		}
-	}
-	if offset >= len(bytes) {
-		err = SyntaxError{"truncated tag or length"}
-		return
-	}
-	b = bytes[offset]
-	offset++
-	if b&0x80 == 0 {
-		// The length is encoded in the bottom 7 bits.
-		ret.length = int(b & 0x7f)
-	} else {
-		// Bottom 7 bits give the number of length bytes to follow.
-		numBytes := int(b & 0x7f)
-		// We risk overflowing a signed 32-bit number if we accept more than 3 bytes.
-		if numBytes > 3 {
-			err = StructuralError{"length too large"}
-			return
-		}
-		if numBytes == 0 {
-			err = SyntaxError{"indefinite length found (not DER)"}
-			return
-		}
-		ret.length = 0
-		for i := 0; i < numBytes; i++ {
-			if offset >= len(bytes) {
-				err = SyntaxError{"truncated tag or length"}
-				return
-			}
-			b = bytes[offset]
-			offset++
-			ret.length <<= 8
-			ret.length |= int(b)
-		}
-	}
-
-	return
-}
-
-// parseSequenceOf is used for SEQUENCE OF and SET OF values. It tries to parse
-// a number of ASN.1 values from the given byte array and returns them as a
-// slice of Go values of the given type.
-func parseSequenceOf(bytes []byte, sliceType reflect.Type, elemType reflect.Type) (ret reflect.Value, err os.Error) {
-	expectedTag, compoundType, ok := getUniversalType(elemType)
-	if !ok {
-		err = StructuralError{"unknown Go type for slice"}
-		return
-	}
-
-	// First we iterate over the input and count the number of elements,
-	// checking that the types are correct in each case.
-	numElements := 0
-	for offset := 0; offset < len(bytes); {
-		var t tagAndLength
-		t, offset, err = parseTagAndLength(bytes, offset)
-		if err != nil {
-			return
-		}
-		// We pretend that GENERAL STRINGs are PRINTABLE STRINGs so
-		// that a sequence of them can be parsed into a []string.
-		if t.tag == tagGeneralString {
-			t.tag = tagPrintableString
-		}
-		if t.class != classUniversal || t.isCompound != compoundType || t.tag != expectedTag {
-			err = StructuralError{"sequence tag mismatch"}
-			return
-		}
-		if invalidLength(offset, t.length, len(bytes)) {
-			err = SyntaxError{"truncated sequence"}
-			return
-		}
-		offset += t.length
-		numElements++
-	}
-	ret = reflect.MakeSlice(sliceType, numElements, numElements)
-	params := fieldParameters{}
-	offset := 0
-	for i := 0; i < numElements; i++ {
-		offset, err = parseField(ret.Index(i), bytes, offset, params)
-		if err != nil {
-			return
-		}
-	}
-	return
-}
-
-var (
-	bitStringType        = reflect.TypeOf(BitString{})
-	objectIdentifierType = reflect.TypeOf(ObjectIdentifier{})
-	enumeratedType       = reflect.TypeOf(Enumerated(0))
-	flagType             = reflect.TypeOf(Flag(false))
-	timeType             = reflect.TypeOf(&time.Time{})
-	rawValueType         = reflect.TypeOf(RawValue{})
-	rawContentsType      = reflect.TypeOf(RawContent(nil))
-)
-
-// invalidLength returns true iff offset + length > sliceLength, or if the
-// addition would overflow.
-func invalidLength(offset, length, sliceLength int) bool {
-	return offset+length < offset || offset+length > sliceLength
-}
-
-// parseField is the main parsing function. Given a byte array and an offset
-// into the array, it will try to parse a suitable ASN.1 value out and store it
-// in the given Value.
-func parseField(v reflect.Value, bytes []byte, initOffset int, params fieldParameters) (offset int, err os.Error) {
-	offset = initOffset
-	fieldType := v.Type()
-
-	// If we have run out of data, it may be that there are optional elements at the end.
-	if offset == len(bytes) {
-		if !setDefaultValue(v, params) {
-			err = SyntaxError{"sequence truncated"}
-		}
-		return
-	}
-
-	// Deal with raw values.
-	if fieldType == rawValueType {
-		var t tagAndLength
-		t, offset, err = parseTagAndLength(bytes, offset)
-		if err != nil {
-			return
-		}
-		if invalidLength(offset, t.length, len(bytes)) {
-			err = SyntaxError{"data truncated"}
-			return
-		}
-		result := RawValue{t.class, t.tag, t.isCompound, bytes[offset : offset+t.length], bytes[initOffset : offset+t.length]}
-		offset += t.length
-		v.Set(reflect.ValueOf(result))
-		return
-	}
-
-	// Deal with the ANY type.
-	if ifaceType := fieldType; ifaceType.Kind() == reflect.Interface && ifaceType.NumMethod() == 0 {
-		ifaceValue := v
-		var t tagAndLength
-		t, offset, err = parseTagAndLength(bytes, offset)
-		if err != nil {
-			return
-		}
-		if invalidLength(offset, t.length, len(bytes)) {
-			err = SyntaxError{"data truncated"}
-			return
-		}
-		var result interface{}
-		if !t.isCompound && t.class == classUniversal {
-			innerBytes := bytes[offset : offset+t.length]
-			switch t.tag {
-			case tagPrintableString:
-				result, err = parsePrintableString(innerBytes)
-			case tagIA5String:
-				result, err = parseIA5String(innerBytes)
-			case tagT61String:
-				result, err = parseT61String(innerBytes)
-			case tagInteger:
-				result, err = parseInt64(innerBytes)
-			case tagBitString:
-				result, err = parseBitString(innerBytes)
-			case tagOID:
-				result, err = parseObjectIdentifier(innerBytes)
-			case tagUTCTime:
-				result, err = parseUTCTime(innerBytes)
-			case tagOctetString:
-				result = innerBytes
-			default:
-				// If we don't know how to handle the type, we just leave Value as nil.
-			}
-		}
-		offset += t.length
-		if err != nil {
-			return
-		}
-		if result != nil {
-			ifaceValue.Set(reflect.ValueOf(result))
-		}
-		return
-	}
-	universalTag, compoundType, ok1 := getUniversalType(fieldType)
-	if !ok1 {
-		err = StructuralError{fmt.Sprintf("unknown Go type: %v", fieldType)}
-		return
-	}
-
-	t, offset, err := parseTagAndLength(bytes, offset)
-	if err != nil {
-		return
-	}
-	if params.explicit {
-		expectedClass := classContextSpecific
-		if params.application {
-			expectedClass = classApplication
-		}
-		if t.class == expectedClass && t.tag == *params.tag && (t.length == 0 || t.isCompound) {
-			if t.length > 0 {
-				t, offset, err = parseTagAndLength(bytes, offset)
-				if err != nil {
-					return
-				}
-			} else {
-				if fieldType != flagType {
-					err = StructuralError{"Zero length explicit tag was not an asn1.Flag"}
-					return
-				}
-
-				flagValue := v
-				flagValue.SetBool(true)
-				return
-			}
-		} else {
-			// The tags didn't match, it might be an optional element.
-			ok := setDefaultValue(v, params)
-			if ok {
-				offset = initOffset
-			} else {
-				err = StructuralError{"explicitly tagged member didn't match"}
-			}
-			return
-		}
-	}
-
-	// Special case for strings: PrintableString and IA5String both map to
-	// the Go type string. getUniversalType returns the tag for
-	// PrintableString when it sees a string so, if we see an IA5String on
-	// the wire, we change the universal type to match.
-	if universalTag == tagPrintableString && t.tag == tagIA5String {
-		universalTag = tagIA5String
-	}
-	// Likewise for GeneralString
-	if universalTag == tagPrintableString && t.tag == tagGeneralString {
-		universalTag = tagGeneralString
-	}
-
-	// Special case for time: UTCTime and GeneralizedTime both map to the
-	// Go type time.Time.
-	if universalTag == tagUTCTime && t.tag == tagGeneralizedTime {
-		universalTag = tagGeneralizedTime
-	}
-
-	expectedClass := classUniversal
-	expectedTag := universalTag
-
-	if !params.explicit && params.tag != nil {
-		expectedClass = classContextSpecific
-		expectedTag = *params.tag
-	}
-
-	if !params.explicit && params.application && params.tag != nil {
-		expectedClass = classApplication
-		expectedTag = *params.tag
-	}
-
-	// We have unwrapped any explicit tagging at this point.
-	if t.class != expectedClass || t.tag != expectedTag || t.isCompound != compoundType {
-		// Tags don't match. Again, it could be an optional element.
-		ok := setDefaultValue(v, params)
-		if ok {
-			offset = initOffset
-		} else {
-			err = StructuralError{fmt.Sprintf("tags don't match (%d vs %+v) %+v %s @%d", expectedTag, t, params, fieldType.Name(), offset)}
-		}
-		return
-	}
-	if invalidLength(offset, t.length, len(bytes)) {
-		err = SyntaxError{"data truncated"}
-		return
-	}
-	innerBytes := bytes[offset : offset+t.length]
-	offset += t.length
-
-	// We deal with the structures defined in this package first.
-	switch fieldType {
-	case objectIdentifierType:
-		newSlice, err1 := parseObjectIdentifier(innerBytes)
-		sliceValue := v
-		sliceValue.Set(reflect.MakeSlice(sliceValue.Type(), len(newSlice), len(newSlice)))
-		if err1 == nil {
-			reflect.Copy(sliceValue, reflect.ValueOf(newSlice))
-		}
-		err = err1
-		return
-	case bitStringType:
-		structValue := v
-		bs, err1 := parseBitString(innerBytes)
-		if err1 == nil {
-			structValue.Set(reflect.ValueOf(bs))
-		}
-		err = err1
-		return
-	case timeType:
-		ptrValue := v
-		var time *time.Time
-		var err1 os.Error
-		if universalTag == tagUTCTime {
-			time, err1 = parseUTCTime(innerBytes)
-		} else {
-			time, err1 = parseGeneralizedTime(innerBytes)
-		}
-		if err1 == nil {
-			ptrValue.Set(reflect.ValueOf(time))
-		}
-		err = err1
-		return
-	case enumeratedType:
-		parsedInt, err1 := parseInt(innerBytes)
-		enumValue := v
-		if err1 == nil {
-			enumValue.SetInt(int64(parsedInt))
-		}
-		err = err1
-		return
-	case flagType:
-		flagValue := v
-		flagValue.SetBool(true)
-		return
-	}
-	switch val := v; val.Kind() {
-	case reflect.Bool:
-		parsedBool, err1 := parseBool(innerBytes)
-		if err1 == nil {
-			val.SetBool(parsedBool)
-		}
-		err = err1
-		return
-	case reflect.Int, reflect.Int8, reflect.Int16, reflect.Int32, reflect.Int64:
-		switch val.Type().Kind() {
-		case reflect.Int:
-			parsedInt, err1 := parseInt(innerBytes)
-			if err1 == nil {
-				val.SetInt(int64(parsedInt))
-			}
-			err = err1
-			return
-		case reflect.Int64:
-			parsedInt, err1 := parseInt64(innerBytes)
-			if err1 == nil {
-				val.SetInt(parsedInt)
-			}
-			err = err1
-			return
-		}
-	case reflect.Struct:
-		structType := fieldType
-
-		if structType.NumField() > 0 &&
-			structType.Field(0).Type == rawContentsType {
-			bytes := bytes[initOffset:offset]
-			val.Field(0).Set(reflect.ValueOf(RawContent(bytes)))
-		}
-
-		innerOffset := 0
-		for i := 0; i < structType.NumField(); i++ {
-			field := structType.Field(i)
-			if i == 0 && field.Type == rawContentsType {
-				continue
-			}
-			innerOffset, err = parseField(val.Field(i), innerBytes, innerOffset, parseFieldParameters(field.Tag))
-			if err != nil {
-				return
-			}
-		}
-		// We allow extra bytes at the end of the SEQUENCE because
-		// adding elements to the end has been used in X.509 as the
-		// version numbers have increased.
-		return
-	case reflect.Slice:
-		sliceType := fieldType
-		if sliceType.Elem().Kind() == reflect.Uint8 {
-			val.Set(reflect.MakeSlice(sliceType, len(innerBytes), len(innerBytes)))
-			reflect.Copy(val, reflect.ValueOf(innerBytes))
-			return
-		}
-		newSlice, err1 := parseSequenceOf(innerBytes, sliceType, sliceType.Elem())
-		if err1 == nil {
-			val.Set(newSlice)
-		}
-		err = err1
-		return
-	case reflect.String:
-		var v string
-		switch universalTag {
-		case tagPrintableString:
-			v, err = parsePrintableString(innerBytes)
-		case tagIA5String:
-			v, err = parseIA5String(innerBytes)
-		case tagT61String:
-			v, err = parseT61String(innerBytes)
-		case tagGeneralString:
-			// GeneralString is specified in ISO-2022/ECMA-35,
-			// A brief review suggests that it includes structures
-			// that allow the encoding to change midstring and
-			// such. We give up and pass it as an 8-bit string.
-			v, err = parseT61String(innerBytes)
-		default:
-			err = SyntaxError{fmt.Sprintf("internal error: unknown string type %d", universalTag)}
-		}
-		if err == nil {
-			val.SetString(v)
-		}
-		return
-	}
-	err = StructuralError{"unknown Go type"}
-	return
-}
-
-// setDefaultValue is used to install a default value, from a tag string, into
-// a Value. It is successful is the field was optional, even if a default value
-// wasn't provided or it failed to install it into the Value.
-func setDefaultValue(v reflect.Value, params fieldParameters) (ok bool) {
-	if !params.optional {
-		return
-	}
-	ok = true
-	if params.defaultValue == nil {
-		return
-	}
-	switch val := v; val.Kind() {
-	case reflect.Int, reflect.Int8, reflect.Int16, reflect.Int32, reflect.Int64:
-		val.SetInt(*params.defaultValue)
-	}
-	return
-}
-
-// Unmarshal parses the DER-encoded ASN.1 data structure b
-// and uses the reflect package to fill in an arbitrary value pointed at by val.
-// Because Unmarshal uses the reflect package, the structs
-// being written to must use upper case field names.
-//
-// An ASN.1 INTEGER can be written to an int or int64.
-// If the encoded value does not fit in the Go type,
-// Unmarshal returns a parse error.
-//
-// An ASN.1 BIT STRING can be written to a BitString.
-//
-// An ASN.1 OCTET STRING can be written to a []byte.
-//
-// An ASN.1 OBJECT IDENTIFIER can be written to an
-// ObjectIdentifier.
-//
-// An ASN.1 ENUMERATED can be written to an Enumerated.
-//
-// An ASN.1 UTCTIME or GENERALIZEDTIME can be written to a *time.Time.
-//
-// An ASN.1 PrintableString or IA5String can be written to a string.
-//
-// Any of the above ASN.1 values can be written to an interface{}.
-// The value stored in the interface has the corresponding Go type.
-// For integers, that type is int64.
-//
-// An ASN.1 SEQUENCE OF x or SET OF x can be written
-// to a slice if an x can be written to the slice's element type.
-//
-// An ASN.1 SEQUENCE or SET can be written to a struct
-// if each of the elements in the sequence can be
-// written to the corresponding element in the struct.
-//
-// The following tags on struct fields have special meaning to Unmarshal:
-//
-//	optional		marks the field as ASN.1 OPTIONAL
-//	[explicit] tag:x	specifies the ASN.1 tag number; implies ASN.1 CONTEXT SPECIFIC
-//	default:x		sets the default value for optional integer fields
-//
-// If the type of the first field of a structure is RawContent then the raw
-// ASN1 contents of the struct will be stored in it.
-//
-// Other ASN.1 types are not supported; if it encounters them,
-// Unmarshal returns a parse error.
-func Unmarshal(b []byte, val interface{}) (rest []byte, err os.Error) {
-	return UnmarshalWithParams(b, val, "")
-}
-
-// UnmarshalWithParams allows field parameters to be specified for the
-// top-level element. The form of the params is the same as the field tags.
-func UnmarshalWithParams(b []byte, val interface{}, params string) (rest []byte, err os.Error) {
-	v := reflect.ValueOf(val).Elem()
-	offset, err := parseField(v, b, 0, parseFieldParameters(params))
-	if err != nil {
-		return nil, err
-	}
-	return b[offset:], nil
-}
diff --git a/src/cmd/fix/testdata/reflect.datafmt.go.in b/src/cmd/fix/testdata/reflect.datafmt.go.in
deleted file mode 100644
index 91f885f9a3..0000000000
--- a/src/cmd/fix/testdata/reflect.datafmt.go.in
+++ /dev/null
@@ -1,710 +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.
-
-/*	The datafmt package implements syntax-directed, type-driven formatting
-	of arbitrary data structures. Formatting a data structure consists of
-	two phases: first, a parser reads a format specification and builds a
-	"compiled" format. Then, the format can be applied repeatedly to
-	arbitrary values. Applying a format to a value evaluates to a []byte
-	containing the formatted value bytes, or nil.
-
-	A format specification is a set of package declarations and format rules:
-
-		Format      = [ Entry { ";" Entry } [ ";" ] ] .
-		Entry       = PackageDecl | FormatRule .
-
-	(The syntax of a format specification is presented in the same EBNF
-	notation as used in the Go language specification. The syntax of white
-	space, comments, identifiers, and string literals is the same as in Go.)
-
-	A package declaration binds a package name (such as 'ast') to a
-	package import path (such as '"go/ast"'). Each package used (in
-	a type name, see below) must be declared once before use.
-
-		PackageDecl = PackageName ImportPath .
-		PackageName = identifier .
-		ImportPath  = string .
-
-	A format rule binds a rule name to a format expression. A rule name
-	may be a type name or one of the special names 'default' or '/'.
-	A type name may be the name of a predeclared type (for example, 'int',
-	'float32', etc.), the package-qualified name of a user-defined type
-	(for example, 'ast.MapType'), or an identifier indicating the structure
-	of unnamed composite types ('array', 'chan', 'func', 'interface', 'map',
-	or 'ptr'). Each rule must have a unique name; rules can be declared in
-	any order.
-
-		FormatRule  = RuleName "=" Expression .
-		RuleName    = TypeName | "default" | "/" .
-		TypeName    = [ PackageName "." ] identifier .
-
-	To format a value, the value's type name is used to select the format rule
-	(there is an override mechanism, see below). The format expression of the
-	selected rule specifies how the value is formatted. Each format expression,
-	when applied to a value, evaluates to a byte sequence or nil.
-
-	In its most general form, a format expression is a list of alternatives,
-	each of which is a sequence of operands:
-
-		Expression  = [ Sequence ] { "|" [ Sequence ] } .
-		Sequence    = Operand { Operand } .
-
-	The formatted result produced by an expression is the result of the first
-	alternative sequence that evaluates to a non-nil result; if there is no
-	such alternative, the expression evaluates to nil. The result produced by
-	an operand sequence is the concatenation of the results of its operands.
-	If any operand in the sequence evaluates to nil, the entire sequence
-	evaluates to nil.
-
-	There are five kinds of operands:
-
-		Operand     = Literal | Field | Group | Option | Repetition .
-
-	Literals evaluate to themselves, with two substitutions. First,
-	%-formats expand in the manner of fmt.Printf, with the current value
-	passed as the parameter. Second, the current indentation (see below)
-	is inserted after every newline or form feed character.
-
-		Literal     = string .
-
-	This table shows string literals applied to the value 42 and the
-	corresponding formatted result:
-
-		"foo"       foo
-		"%x"        2a
-		"x = %d"    x = 42
-		"%#x = %d"  0x2a = 42
-
-	A field operand is a field name optionally followed by an alternate
-	rule name. The field name may be an identifier or one of the special
-	names @ or *.
-
-		Field       = FieldName [ ":" RuleName ] .
-		FieldName   = identifier | "@" | "*" .
-
-	If the field name is an identifier, the current value must be a struct,
-	and there must be a field with that name in the struct. The same lookup
-	rules apply as in the Go language (for instance, the name of an anonymous
-	field is the unqualified type name). The field name denotes the field
-	value in the struct. If the field is not found, formatting is aborted
-	and an error message is returned. (TODO consider changing the semantics
-	such that if a field is not found, it evaluates to nil).
-
-	The special name '@' denotes the current value.
-
-	The meaning of the special name '*' depends on the type of the current
-	value:
-
-		array, slice types   array, slice element (inside {} only, see below)
-		interfaces           value stored in interface
-		pointers             value pointed to by pointer
-
-	(Implementation restriction: channel, function and map types are not
-	supported due to missing reflection support).
-
-	Fields are evaluated as follows: If the field value is nil, or an array
-	or slice element does not exist, the result is nil (see below for details
-	on array/slice elements). If the value is not nil the field value is
-	formatted (recursively) using the rule corresponding to its type name,
-	or the alternate rule name, if given.
-
-	The following example shows a complete format specification for a
-	struct 'myPackage.Point'. Assume the package
-
-		package myPackage  // in directory myDir/myPackage
-		type Point struct {
-			name string;
-			x, y int;
-		}
-
-	Applying the format specification
-
-		myPackage "myDir/myPackage";
-		int = "%d";
-		hexInt = "0x%x";
-		string = "---%s---";
-		myPackage.Point = name "{" x ", " y:hexInt "}";
-
-	to the value myPackage.Point{"foo", 3, 15} results in
-
-		---foo---{3, 0xf}
-
-	Finally, an operand may be a grouped, optional, or repeated expression.
-	A grouped expression ("group") groups a more complex expression (body)
-	so that it can be used in place of a single operand:
-
-		Group       = "(" [ Indentation ">>" ] Body ")" .
-		Indentation = Expression .
-		Body        = Expression .
-
-	A group body may be prefixed by an indentation expression followed by '>>'.
-	The indentation expression is applied to the current value like any other
-	expression and the result, if not nil, is appended to the current indentation
-	during the evaluation of the body (see also formatting state, below).
-
-	An optional expression ("option") is enclosed in '[]' brackets.
-
-		Option      = "[" Body "]" .
-
-	An option evaluates to its body, except that if the body evaluates to nil,
-	the option expression evaluates to an empty []byte. Thus an option's purpose
-	is to protect the expression containing the option from a nil operand.
-
-	A repeated expression ("repetition") is enclosed in '{}' braces.
-
-		Repetition  = "{" Body [ "/" Separator ] "}" .
-		Separator   = Expression .
-
-	A repeated expression is evaluated as follows: The body is evaluated
-	repeatedly and its results are concatenated until the body evaluates
-	to nil. The result of the repetition is the (possibly empty) concatenation,
-	but it is never nil. An implicit index is supplied for the evaluation of
-	the body: that index is used to address elements of arrays or slices. If
-	the corresponding elements do not exist, the field denoting the element
-	evaluates to nil (which in turn may terminate the repetition).
-
-	The body of a repetition may be followed by a '/' and a "separator"
-	expression. If the separator is present, it is invoked between repetitions
-	of the body.
-
-	The following example shows a complete format specification for formatting
-	a slice of unnamed type. Applying the specification
-
-		int = "%b";
-		array = { * / ", " };  // array is the type name for an unnamed slice
-
-	to the value '[]int{2, 3, 5, 7}' results in
-
-		10, 11, 101, 111
-
-	Default rule: If a format rule named 'default' is present, it is used for
-	formatting a value if no other rule was found. A common default rule is
-
-		default = "%v"
-
-	to provide default formatting for basic types without having to specify
-	a specific rule for each basic type.
-
-	Global separator rule: If a format rule named '/' is present, it is
-	invoked with the current value between literals. If the separator
-	expression evaluates to nil, it is ignored.
-
-	For instance, a global separator rule may be used to punctuate a sequence
-	of values with commas. The rules:
-
-		default = "%v";
-		/ = ", ";
-
-	will format an argument list by printing each one in its default format,
-	separated by a comma and a space.
-*/
-package datafmt
-
-import (
-	"bytes"
-	"fmt"
-	"go/token"
-	"io"
-	"os"
-	"reflect"
-	"runtime"
-)
-
-// ----------------------------------------------------------------------------
-// Format representation
-
-// Custom formatters implement the Formatter function type.
-// A formatter is invoked with the current formatting state, the
-// value to format, and the rule name under which the formatter
-// was installed (the same formatter function may be installed
-// under different names). The formatter may access the current state
-// to guide formatting and use State.Write to append to the state's
-// output.
-//
-// A formatter must return a boolean value indicating if it evaluated
-// to a non-nil value (true), or a nil value (false).
-//
-type Formatter func(state *State, value interface{}, ruleName string) bool
-
-// A FormatterMap is a set of custom formatters.
-// It maps a rule name to a formatter function.
-//
-type FormatterMap map[string]Formatter
-
-// A parsed format expression is built from the following nodes.
-//
-type (
-	expr interface{}
-
-	alternatives []expr // x | y | z
-
-	sequence []expr // x y z
-
-	literal [][]byte // a list of string segments, possibly starting with '%'
-
-	field struct {
-		fieldName string // including "@", "*"
-		ruleName  string // "" if no rule name specified
-	}
-
-	group struct {
-		indent, body expr // (indent >> body)
-	}
-
-	option struct {
-		body expr // [body]
-	}
-
-	repetition struct {
-		body, separator expr // {body / separator}
-	}
-
-	custom struct {
-		ruleName string
-		fun      Formatter
-	}
-)
-
-// A Format is the result of parsing a format specification.
-// The format may be applied repeatedly to format values.
-//
-type Format map[string]expr
-
-// ----------------------------------------------------------------------------
-// Formatting
-
-// An application-specific environment may be provided to Format.Apply;
-// the environment is available inside custom formatters via State.Env().
-// Environments must implement copying; the Copy method must return an
-// complete copy of the receiver. This is necessary so that the formatter
-// can save and restore an environment (in case of an absent expression).
-//
-// If the Environment doesn't change during formatting (this is under
-// control of the custom formatters), the Copy function can simply return
-// the receiver, and thus can be very light-weight.
-//
-type Environment interface {
-	Copy() Environment
-}
-
-// State represents the current formatting state.
-// It is provided as argument to custom formatters.
-//
-type State struct {
-	fmt       Format         // format in use
-	env       Environment    // user-supplied environment
-	errors    chan os.Error  // not chan *Error (errors <- nil would be wrong!)
-	hasOutput bool           // true after the first literal has been written
-	indent    bytes.Buffer   // current indentation
-	output    bytes.Buffer   // format output
-	linePos   token.Position // position of line beginning (Column == 0)
-	default_  expr           // possibly nil
-	separator expr           // possibly nil
-}
-
-func newState(fmt Format, env Environment, errors chan os.Error) *State {
-	s := new(State)
-	s.fmt = fmt
-	s.env = env
-	s.errors = errors
-	s.linePos = token.Position{Line: 1}
-
-	// if we have a default rule, cache it's expression for fast access
-	if x, found := fmt["default"]; found {
-		s.default_ = x
-	}
-
-	// if we have a global separator rule, cache it's expression for fast access
-	if x, found := fmt["/"]; found {
-		s.separator = x
-	}
-
-	return s
-}
-
-// Env returns the environment passed to Format.Apply.
-func (s *State) Env() interface{} { return s.env }
-
-// LinePos returns the position of the current line beginning
-// in the state's output buffer. Line numbers start at 1.
-//
-func (s *State) LinePos() token.Position { return s.linePos }
-
-// Pos returns the position of the next byte to be written to the
-// output buffer. Line numbers start at 1.
-//
-func (s *State) Pos() token.Position {
-	offs := s.output.Len()
-	return token.Position{Line: s.linePos.Line, Column: offs - s.linePos.Offset, Offset: offs}
-}
-
-// Write writes data to the output buffer, inserting the indentation
-// string after each newline or form feed character. It cannot return an error.
-//
-func (s *State) Write(data []byte) (int, os.Error) {
-	n := 0
-	i0 := 0
-	for i, ch := range data {
-		if ch == '\n' || ch == '\f' {
-			// write text segment and indentation
-			n1, _ := s.output.Write(data[i0 : i+1])
-			n2, _ := s.output.Write(s.indent.Bytes())
-			n += n1 + n2
-			i0 = i + 1
-			s.linePos.Offset = s.output.Len()
-			s.linePos.Line++
-		}
-	}
-	n3, _ := s.output.Write(data[i0:])
-	return n + n3, nil
-}
-
-type checkpoint struct {
-	env       Environment
-	hasOutput bool
-	outputLen int
-	linePos   token.Position
-}
-
-func (s *State) save() checkpoint {
-	saved := checkpoint{nil, s.hasOutput, s.output.Len(), s.linePos}
-	if s.env != nil {
-		saved.env = s.env.Copy()
-	}
-	return saved
-}
-
-func (s *State) restore(m checkpoint) {
-	s.env = m.env
-	s.output.Truncate(m.outputLen)
-}
-
-func (s *State) error(msg string) {
-	s.errors <- os.NewError(msg)
-	runtime.Goexit()
-}
-
-// TODO At the moment, unnamed types are simply mapped to the default
-//      names below. For instance, all unnamed arrays are mapped to
-//      'array' which is not really sufficient. Eventually one may want
-//      to be able to specify rules for say an unnamed slice of T.
-//
-
-func typename(typ reflect.Type) string {
-	switch typ.(type) {
-	case *reflect.ArrayType:
-		return "array"
-	case *reflect.SliceType:
-		return "array"
-	case *reflect.ChanType:
-		return "chan"
-	case *reflect.FuncType:
-		return "func"
-	case *reflect.InterfaceType:
-		return "interface"
-	case *reflect.MapType:
-		return "map"
-	case *reflect.PtrType:
-		return "ptr"
-	}
-	return typ.String()
-}
-
-func (s *State) getFormat(name string) expr {
-	if fexpr, found := s.fmt[name]; found {
-		return fexpr
-	}
-
-	if s.default_ != nil {
-		return s.default_
-	}
-
-	s.error(fmt.Sprintf("no format rule for type: '%s'", name))
-	return nil
-}
-
-// eval applies a format expression fexpr to a value. If the expression
-// evaluates internally to a non-nil []byte, that slice is appended to
-// the state's output buffer and eval returns true. Otherwise, eval
-// returns false and the state remains unchanged.
-//
-func (s *State) eval(fexpr expr, value reflect.Value, index int) bool {
-	// an empty format expression always evaluates
-	// to a non-nil (but empty) []byte
-	if fexpr == nil {
-		return true
-	}
-
-	switch t := fexpr.(type) {
-	case alternatives:
-		// append the result of the first alternative that evaluates to
-		// a non-nil []byte to the state's output
-		mark := s.save()
-		for _, x := range t {
-			if s.eval(x, value, index) {
-				return true
-			}
-			s.restore(mark)
-		}
-		return false
-
-	case sequence:
-		// append the result of all operands to the state's output
-		// unless a nil result is encountered
-		mark := s.save()
-		for _, x := range t {
-			if !s.eval(x, value, index) {
-				s.restore(mark)
-				return false
-			}
-		}
-		return true
-
-	case literal:
-		// write separator, if any
-		if s.hasOutput {
-			// not the first literal
-			if s.separator != nil {
-				sep := s.separator // save current separator
-				s.separator = nil  // and disable it (avoid recursion)
-				mark := s.save()
-				if !s.eval(sep, value, index) {
-					s.restore(mark)
-				}
-				s.separator = sep // enable it again
-			}
-		}
-		s.hasOutput = true
-		// write literal segments
-		for _, lit := range t {
-			if len(lit) > 1 && lit[0] == '%' {
-				// segment contains a %-format at the beginning
-				if lit[1] == '%' {
-					// "%%" is printed as a single "%"
-					s.Write(lit[1:])
-				} else {
-					// use s instead of s.output to get indentation right
-					fmt.Fprintf(s, string(lit), value.Interface())
-				}
-			} else {
-				// segment contains no %-formats
-				s.Write(lit)
-			}
-		}
-		return true // a literal never evaluates to nil
-
-	case *field:
-		// determine field value
-		switch t.fieldName {
-		case "@":
-			// field value is current value
-
-		case "*":
-			// indirection: operation is type-specific
-			switch v := value.(type) {
-			case *reflect.ArrayValue:
-				if v.Len() <= index {
-					return false
-				}
-				value = v.Elem(index)
-
-			case *reflect.SliceValue:
-				if v.IsNil() || v.Len() <= index {
-					return false
-				}
-				value = v.Elem(index)
-
-			case *reflect.MapValue:
-				s.error("reflection support for maps incomplete")
-
-			case *reflect.PtrValue:
-				if v.IsNil() {
-					return false
-				}
-				value = v.Elem()
-
-			case *reflect.InterfaceValue:
-				if v.IsNil() {
-					return false
-				}
-				value = v.Elem()
-
-			case *reflect.ChanValue:
-				s.error("reflection support for chans incomplete")
-
-			case *reflect.FuncValue:
-				s.error("reflection support for funcs incomplete")
-
-			default:
-				s.error(fmt.Sprintf("error: * does not apply to `%s`", value.Type()))
-			}
-
-		default:
-			// value is value of named field
-			var field reflect.Value
-			if sval, ok := value.(*reflect.StructValue); ok {
-				field = sval.FieldByName(t.fieldName)
-				if field == nil {
-					// TODO consider just returning false in this case
-					s.error(fmt.Sprintf("error: no field `%s` in `%s`", t.fieldName, value.Type()))
-				}
-			}
-			value = field
-		}
-
-		// determine rule
-		ruleName := t.ruleName
-		if ruleName == "" {
-			// no alternate rule name, value type determines rule
-			ruleName = typename(value.Type())
-		}
-		fexpr = s.getFormat(ruleName)
-
-		mark := s.save()
-		if !s.eval(fexpr, value, index) {
-			s.restore(mark)
-			return false
-		}
-		return true
-
-	case *group:
-		// remember current indentation
-		indentLen := s.indent.Len()
-
-		// update current indentation
-		mark := s.save()
-		s.eval(t.indent, value, index)
-		// if the indentation evaluates to nil, the state's output buffer
-		// didn't change - either way it's ok to append the difference to
-		// the current identation
-		s.indent.Write(s.output.Bytes()[mark.outputLen:s.output.Len()])
-		s.restore(mark)
-
-		// format group body
-		mark = s.save()
-		b := true
-		if !s.eval(t.body, value, index) {
-			s.restore(mark)
-			b = false
-		}
-
-		// reset indentation
-		s.indent.Truncate(indentLen)
-		return b
-
-	case *option:
-		// evaluate the body and append the result to the state's output
-		// buffer unless the result is nil
-		mark := s.save()
-		if !s.eval(t.body, value, 0) { // TODO is 0 index correct?
-			s.restore(mark)
-		}
-		return true // an option never evaluates to nil
-
-	case *repetition:
-		// evaluate the body and append the result to the state's output
-		// buffer until a result is nil
-		for i := 0; ; i++ {
-			mark := s.save()
-			// write separator, if any
-			if i > 0 && t.separator != nil {
-				// nil result from separator is ignored
-				mark := s.save()
-				if !s.eval(t.separator, value, i) {
-					s.restore(mark)
-				}
-			}
-			if !s.eval(t.body, value, i) {
-				s.restore(mark)
-				break
-			}
-		}
-		return true // a repetition never evaluates to nil
-
-	case *custom:
-		// invoke the custom formatter to obtain the result
-		mark := s.save()
-		if !t.fun(s, value.Interface(), t.ruleName) {
-			s.restore(mark)
-			return false
-		}
-		return true
-	}
-
-	panic("unreachable")
-	return false
-}
-
-// Eval formats each argument according to the format
-// f and returns the resulting []byte and os.Error. If
-// an error occurred, the []byte contains the partially
-// formatted result. An environment env may be passed
-// in which is available in custom formatters through
-// the state parameter.
-//
-func (f Format) Eval(env Environment, args ...interface{}) ([]byte, os.Error) {
-	if f == nil {
-		return nil, os.NewError("format is nil")
-	}
-
-	errors := make(chan os.Error)
-	s := newState(f, env, errors)
-
-	go func() {
-		for _, v := range args {
-			fld := reflect.NewValue(v)
-			if fld == nil {
-				errors <- os.NewError("nil argument")
-				return
-			}
-			mark := s.save()
-			if !s.eval(s.getFormat(typename(fld.Type())), fld, 0) { // TODO is 0 index correct?
-				s.restore(mark)
-			}
-		}
-		errors <- nil // no errors
-	}()
-
-	err := <-errors
-	return s.output.Bytes(), err
-}
-
-// ----------------------------------------------------------------------------
-// Convenience functions
-
-// Fprint formats each argument according to the format f
-// and writes to w. The result is the total number of bytes
-// written and an os.Error, if any.
-//
-func (f Format) Fprint(w io.Writer, env Environment, args ...interface{}) (int, os.Error) {
-	data, err := f.Eval(env, args...)
-	if err != nil {
-		// TODO should we print partial result in case of error?
-		return 0, err
-	}
-	return w.Write(data)
-}
-
-// Print formats each argument according to the format f
-// and writes to standard output. The result is the total
-// number of bytes written and an os.Error, if any.
-//
-func (f Format) Print(args ...interface{}) (int, os.Error) {
-	return f.Fprint(os.Stdout, nil, args...)
-}
-
-// Sprint formats each argument according to the format f
-// and returns the resulting string. If an error occurs
-// during formatting, the result string contains the
-// partially formatted result followed by an error message.
-//
-func (f Format) Sprint(args ...interface{}) string {
-	var buf bytes.Buffer
-	_, err := f.Fprint(&buf, nil, args...)
-	if err != nil {
-		var i interface{} = args
-		fmt.Fprintf(&buf, "--- Sprint(%s) failed: %v", fmt.Sprint(i), err)
-	}
-	return buf.String()
-}
diff --git a/src/cmd/fix/testdata/reflect.datafmt.go.out b/src/cmd/fix/testdata/reflect.datafmt.go.out
deleted file mode 100644
index fd447588b0..0000000000
--- a/src/cmd/fix/testdata/reflect.datafmt.go.out
+++ /dev/null
@@ -1,710 +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.
-
-/*	The datafmt package implements syntax-directed, type-driven formatting
-	of arbitrary data structures. Formatting a data structure consists of
-	two phases: first, a parser reads a format specification and builds a
-	"compiled" format. Then, the format can be applied repeatedly to
-	arbitrary values. Applying a format to a value evaluates to a []byte
-	containing the formatted value bytes, or nil.
-
-	A format specification is a set of package declarations and format rules:
-
-		Format      = [ Entry { ";" Entry } [ ";" ] ] .
-		Entry       = PackageDecl | FormatRule .
-
-	(The syntax of a format specification is presented in the same EBNF
-	notation as used in the Go language specification. The syntax of white
-	space, comments, identifiers, and string literals is the same as in Go.)
-
-	A package declaration binds a package name (such as 'ast') to a
-	package import path (such as '"go/ast"'). Each package used (in
-	a type name, see below) must be declared once before use.
-
-		PackageDecl = PackageName ImportPath .
-		PackageName = identifier .
-		ImportPath  = string .
-
-	A format rule binds a rule name to a format expression. A rule name
-	may be a type name or one of the special names 'default' or '/'.
-	A type name may be the name of a predeclared type (for example, 'int',
-	'float32', etc.), the package-qualified name of a user-defined type
-	(for example, 'ast.MapType'), or an identifier indicating the structure
-	of unnamed composite types ('array', 'chan', 'func', 'interface', 'map',
-	or 'ptr'). Each rule must have a unique name; rules can be declared in
-	any order.
-
-		FormatRule  = RuleName "=" Expression .
-		RuleName    = TypeName | "default" | "/" .
-		TypeName    = [ PackageName "." ] identifier .
-
-	To format a value, the value's type name is used to select the format rule
-	(there is an override mechanism, see below). The format expression of the
-	selected rule specifies how the value is formatted. Each format expression,
-	when applied to a value, evaluates to a byte sequence or nil.
-
-	In its most general form, a format expression is a list of alternatives,
-	each of which is a sequence of operands:
-
-		Expression  = [ Sequence ] { "|" [ Sequence ] } .
-		Sequence    = Operand { Operand } .
-
-	The formatted result produced by an expression is the result of the first
-	alternative sequence that evaluates to a non-nil result; if there is no
-	such alternative, the expression evaluates to nil. The result produced by
-	an operand sequence is the concatenation of the results of its operands.
-	If any operand in the sequence evaluates to nil, the entire sequence
-	evaluates to nil.
-
-	There are five kinds of operands:
-
-		Operand     = Literal | Field | Group | Option | Repetition .
-
-	Literals evaluate to themselves, with two substitutions. First,
-	%-formats expand in the manner of fmt.Printf, with the current value
-	passed as the parameter. Second, the current indentation (see below)
-	is inserted after every newline or form feed character.
-
-		Literal     = string .
-
-	This table shows string literals applied to the value 42 and the
-	corresponding formatted result:
-
-		"foo"       foo
-		"%x"        2a
-		"x = %d"    x = 42
-		"%#x = %d"  0x2a = 42
-
-	A field operand is a field name optionally followed by an alternate
-	rule name. The field name may be an identifier or one of the special
-	names @ or *.
-
-		Field       = FieldName [ ":" RuleName ] .
-		FieldName   = identifier | "@" | "*" .
-
-	If the field name is an identifier, the current value must be a struct,
-	and there must be a field with that name in the struct. The same lookup
-	rules apply as in the Go language (for instance, the name of an anonymous
-	field is the unqualified type name). The field name denotes the field
-	value in the struct. If the field is not found, formatting is aborted
-	and an error message is returned. (TODO consider changing the semantics
-	such that if a field is not found, it evaluates to nil).
-
-	The special name '@' denotes the current value.
-
-	The meaning of the special name '*' depends on the type of the current
-	value:
-
-		array, slice types   array, slice element (inside {} only, see below)
-		interfaces           value stored in interface
-		pointers             value pointed to by pointer
-
-	(Implementation restriction: channel, function and map types are not
-	supported due to missing reflection support).
-
-	Fields are evaluated as follows: If the field value is nil, or an array
-	or slice element does not exist, the result is nil (see below for details
-	on array/slice elements). If the value is not nil the field value is
-	formatted (recursively) using the rule corresponding to its type name,
-	or the alternate rule name, if given.
-
-	The following example shows a complete format specification for a
-	struct 'myPackage.Point'. Assume the package
-
-		package myPackage  // in directory myDir/myPackage
-		type Point struct {
-			name string;
-			x, y int;
-		}
-
-	Applying the format specification
-
-		myPackage "myDir/myPackage";
-		int = "%d";
-		hexInt = "0x%x";
-		string = "---%s---";
-		myPackage.Point = name "{" x ", " y:hexInt "}";
-
-	to the value myPackage.Point{"foo", 3, 15} results in
-
-		---foo---{3, 0xf}
-
-	Finally, an operand may be a grouped, optional, or repeated expression.
-	A grouped expression ("group") groups a more complex expression (body)
-	so that it can be used in place of a single operand:
-
-		Group       = "(" [ Indentation ">>" ] Body ")" .
-		Indentation = Expression .
-		Body        = Expression .
-
-	A group body may be prefixed by an indentation expression followed by '>>'.
-	The indentation expression is applied to the current value like any other
-	expression and the result, if not nil, is appended to the current indentation
-	during the evaluation of the body (see also formatting state, below).
-
-	An optional expression ("option") is enclosed in '[]' brackets.
-
-		Option      = "[" Body "]" .
-
-	An option evaluates to its body, except that if the body evaluates to nil,
-	the option expression evaluates to an empty []byte. Thus an option's purpose
-	is to protect the expression containing the option from a nil operand.
-
-	A repeated expression ("repetition") is enclosed in '{}' braces.
-
-		Repetition  = "{" Body [ "/" Separator ] "}" .
-		Separator   = Expression .
-
-	A repeated expression is evaluated as follows: The body is evaluated
-	repeatedly and its results are concatenated until the body evaluates
-	to nil. The result of the repetition is the (possibly empty) concatenation,
-	but it is never nil. An implicit index is supplied for the evaluation of
-	the body: that index is used to address elements of arrays or slices. If
-	the corresponding elements do not exist, the field denoting the element
-	evaluates to nil (which in turn may terminate the repetition).
-
-	The body of a repetition may be followed by a '/' and a "separator"
-	expression. If the separator is present, it is invoked between repetitions
-	of the body.
-
-	The following example shows a complete format specification for formatting
-	a slice of unnamed type. Applying the specification
-
-		int = "%b";
-		array = { * / ", " };  // array is the type name for an unnamed slice
-
-	to the value '[]int{2, 3, 5, 7}' results in
-
-		10, 11, 101, 111
-
-	Default rule: If a format rule named 'default' is present, it is used for
-	formatting a value if no other rule was found. A common default rule is
-
-		default = "%v"
-
-	to provide default formatting for basic types without having to specify
-	a specific rule for each basic type.
-
-	Global separator rule: If a format rule named '/' is present, it is
-	invoked with the current value between literals. If the separator
-	expression evaluates to nil, it is ignored.
-
-	For instance, a global separator rule may be used to punctuate a sequence
-	of values with commas. The rules:
-
-		default = "%v";
-		/ = ", ";
-
-	will format an argument list by printing each one in its default format,
-	separated by a comma and a space.
-*/
-package datafmt
-
-import (
-	"bytes"
-	"fmt"
-	"go/token"
-	"io"
-	"os"
-	"reflect"
-	"runtime"
-)
-
-// ----------------------------------------------------------------------------
-// Format representation
-
-// Custom formatters implement the Formatter function type.
-// A formatter is invoked with the current formatting state, the
-// value to format, and the rule name under which the formatter
-// was installed (the same formatter function may be installed
-// under different names). The formatter may access the current state
-// to guide formatting and use State.Write to append to the state's
-// output.
-//
-// A formatter must return a boolean value indicating if it evaluated
-// to a non-nil value (true), or a nil value (false).
-//
-type Formatter func(state *State, value interface{}, ruleName string) bool
-
-// A FormatterMap is a set of custom formatters.
-// It maps a rule name to a formatter function.
-//
-type FormatterMap map[string]Formatter
-
-// A parsed format expression is built from the following nodes.
-//
-type (
-	expr interface{}
-
-	alternatives []expr // x | y | z
-
-	sequence []expr // x y z
-
-	literal [][]byte // a list of string segments, possibly starting with '%'
-
-	field struct {
-		fieldName string // including "@", "*"
-		ruleName  string // "" if no rule name specified
-	}
-
-	group struct {
-		indent, body expr // (indent >> body)
-	}
-
-	option struct {
-		body expr // [body]
-	}
-
-	repetition struct {
-		body, separator expr // {body / separator}
-	}
-
-	custom struct {
-		ruleName string
-		fun      Formatter
-	}
-)
-
-// A Format is the result of parsing a format specification.
-// The format may be applied repeatedly to format values.
-//
-type Format map[string]expr
-
-// ----------------------------------------------------------------------------
-// Formatting
-
-// An application-specific environment may be provided to Format.Apply;
-// the environment is available inside custom formatters via State.Env().
-// Environments must implement copying; the Copy method must return an
-// complete copy of the receiver. This is necessary so that the formatter
-// can save and restore an environment (in case of an absent expression).
-//
-// If the Environment doesn't change during formatting (this is under
-// control of the custom formatters), the Copy function can simply return
-// the receiver, and thus can be very light-weight.
-//
-type Environment interface {
-	Copy() Environment
-}
-
-// State represents the current formatting state.
-// It is provided as argument to custom formatters.
-//
-type State struct {
-	fmt       Format         // format in use
-	env       Environment    // user-supplied environment
-	errors    chan os.Error  // not chan *Error (errors <- nil would be wrong!)
-	hasOutput bool           // true after the first literal has been written
-	indent    bytes.Buffer   // current indentation
-	output    bytes.Buffer   // format output
-	linePos   token.Position // position of line beginning (Column == 0)
-	default_  expr           // possibly nil
-	separator expr           // possibly nil
-}
-
-func newState(fmt Format, env Environment, errors chan os.Error) *State {
-	s := new(State)
-	s.fmt = fmt
-	s.env = env
-	s.errors = errors
-	s.linePos = token.Position{Line: 1}
-
-	// if we have a default rule, cache it's expression for fast access
-	if x, found := fmt["default"]; found {
-		s.default_ = x
-	}
-
-	// if we have a global separator rule, cache it's expression for fast access
-	if x, found := fmt["/"]; found {
-		s.separator = x
-	}
-
-	return s
-}
-
-// Env returns the environment passed to Format.Apply.
-func (s *State) Env() interface{} { return s.env }
-
-// LinePos returns the position of the current line beginning
-// in the state's output buffer. Line numbers start at 1.
-//
-func (s *State) LinePos() token.Position { return s.linePos }
-
-// Pos returns the position of the next byte to be written to the
-// output buffer. Line numbers start at 1.
-//
-func (s *State) Pos() token.Position {
-	offs := s.output.Len()
-	return token.Position{Line: s.linePos.Line, Column: offs - s.linePos.Offset, Offset: offs}
-}
-
-// Write writes data to the output buffer, inserting the indentation
-// string after each newline or form feed character. It cannot return an error.
-//
-func (s *State) Write(data []byte) (int, os.Error) {
-	n := 0
-	i0 := 0
-	for i, ch := range data {
-		if ch == '\n' || ch == '\f' {
-			// write text segment and indentation
-			n1, _ := s.output.Write(data[i0 : i+1])
-			n2, _ := s.output.Write(s.indent.Bytes())
-			n += n1 + n2
-			i0 = i + 1
-			s.linePos.Offset = s.output.Len()
-			s.linePos.Line++
-		}
-	}
-	n3, _ := s.output.Write(data[i0:])
-	return n + n3, nil
-}
-
-type checkpoint struct {
-	env       Environment
-	hasOutput bool
-	outputLen int
-	linePos   token.Position
-}
-
-func (s *State) save() checkpoint {
-	saved := checkpoint{nil, s.hasOutput, s.output.Len(), s.linePos}
-	if s.env != nil {
-		saved.env = s.env.Copy()
-	}
-	return saved
-}
-
-func (s *State) restore(m checkpoint) {
-	s.env = m.env
-	s.output.Truncate(m.outputLen)
-}
-
-func (s *State) error(msg string) {
-	s.errors <- os.NewError(msg)
-	runtime.Goexit()
-}
-
-// TODO At the moment, unnamed types are simply mapped to the default
-//      names below. For instance, all unnamed arrays are mapped to
-//      'array' which is not really sufficient. Eventually one may want
-//      to be able to specify rules for say an unnamed slice of T.
-//
-
-func typename(typ reflect.Type) string {
-	switch typ.Kind() {
-	case reflect.Array:
-		return "array"
-	case reflect.Slice:
-		return "array"
-	case reflect.Chan:
-		return "chan"
-	case reflect.Func:
-		return "func"
-	case reflect.Interface:
-		return "interface"
-	case reflect.Map:
-		return "map"
-	case reflect.Ptr:
-		return "ptr"
-	}
-	return typ.String()
-}
-
-func (s *State) getFormat(name string) expr {
-	if fexpr, found := s.fmt[name]; found {
-		return fexpr
-	}
-
-	if s.default_ != nil {
-		return s.default_
-	}
-
-	s.error(fmt.Sprintf("no format rule for type: '%s'", name))
-	return nil
-}
-
-// eval applies a format expression fexpr to a value. If the expression
-// evaluates internally to a non-nil []byte, that slice is appended to
-// the state's output buffer and eval returns true. Otherwise, eval
-// returns false and the state remains unchanged.
-//
-func (s *State) eval(fexpr expr, value reflect.Value, index int) bool {
-	// an empty format expression always evaluates
-	// to a non-nil (but empty) []byte
-	if fexpr == nil {
-		return true
-	}
-
-	switch t := fexpr.(type) {
-	case alternatives:
-		// append the result of the first alternative that evaluates to
-		// a non-nil []byte to the state's output
-		mark := s.save()
-		for _, x := range t {
-			if s.eval(x, value, index) {
-				return true
-			}
-			s.restore(mark)
-		}
-		return false
-
-	case sequence:
-		// append the result of all operands to the state's output
-		// unless a nil result is encountered
-		mark := s.save()
-		for _, x := range t {
-			if !s.eval(x, value, index) {
-				s.restore(mark)
-				return false
-			}
-		}
-		return true
-
-	case literal:
-		// write separator, if any
-		if s.hasOutput {
-			// not the first literal
-			if s.separator != nil {
-				sep := s.separator // save current separator
-				s.separator = nil  // and disable it (avoid recursion)
-				mark := s.save()
-				if !s.eval(sep, value, index) {
-					s.restore(mark)
-				}
-				s.separator = sep // enable it again
-			}
-		}
-		s.hasOutput = true
-		// write literal segments
-		for _, lit := range t {
-			if len(lit) > 1 && lit[0] == '%' {
-				// segment contains a %-format at the beginning
-				if lit[1] == '%' {
-					// "%%" is printed as a single "%"
-					s.Write(lit[1:])
-				} else {
-					// use s instead of s.output to get indentation right
-					fmt.Fprintf(s, string(lit), value.Interface())
-				}
-			} else {
-				// segment contains no %-formats
-				s.Write(lit)
-			}
-		}
-		return true // a literal never evaluates to nil
-
-	case *field:
-		// determine field value
-		switch t.fieldName {
-		case "@":
-			// field value is current value
-
-		case "*":
-			// indirection: operation is type-specific
-			switch v := value; v.Kind() {
-			case reflect.Array:
-				if v.Len() <= index {
-					return false
-				}
-				value = v.Index(index)
-
-			case reflect.Slice:
-				if v.IsNil() || v.Len() <= index {
-					return false
-				}
-				value = v.Index(index)
-
-			case reflect.Map:
-				s.error("reflection support for maps incomplete")
-
-			case reflect.Ptr:
-				if v.IsNil() {
-					return false
-				}
-				value = v.Elem()
-
-			case reflect.Interface:
-				if v.IsNil() {
-					return false
-				}
-				value = v.Elem()
-
-			case reflect.Chan:
-				s.error("reflection support for chans incomplete")
-
-			case reflect.Func:
-				s.error("reflection support for funcs incomplete")
-
-			default:
-				s.error(fmt.Sprintf("error: * does not apply to `%s`", value.Type()))
-			}
-
-		default:
-			// value is value of named field
-			var field reflect.Value
-			if sval := value; sval.Kind() == reflect.Struct {
-				field = sval.FieldByName(t.fieldName)
-				if !field.IsValid() {
-					// TODO consider just returning false in this case
-					s.error(fmt.Sprintf("error: no field `%s` in `%s`", t.fieldName, value.Type()))
-				}
-			}
-			value = field
-		}
-
-		// determine rule
-		ruleName := t.ruleName
-		if ruleName == "" {
-			// no alternate rule name, value type determines rule
-			ruleName = typename(value.Type())
-		}
-		fexpr = s.getFormat(ruleName)
-
-		mark := s.save()
-		if !s.eval(fexpr, value, index) {
-			s.restore(mark)
-			return false
-		}
-		return true
-
-	case *group:
-		// remember current indentation
-		indentLen := s.indent.Len()
-
-		// update current indentation
-		mark := s.save()
-		s.eval(t.indent, value, index)
-		// if the indentation evaluates to nil, the state's output buffer
-		// didn't change - either way it's ok to append the difference to
-		// the current identation
-		s.indent.Write(s.output.Bytes()[mark.outputLen:s.output.Len()])
-		s.restore(mark)
-
-		// format group body
-		mark = s.save()
-		b := true
-		if !s.eval(t.body, value, index) {
-			s.restore(mark)
-			b = false
-		}
-
-		// reset indentation
-		s.indent.Truncate(indentLen)
-		return b
-
-	case *option:
-		// evaluate the body and append the result to the state's output
-		// buffer unless the result is nil
-		mark := s.save()
-		if !s.eval(t.body, value, 0) { // TODO is 0 index correct?
-			s.restore(mark)
-		}
-		return true // an option never evaluates to nil
-
-	case *repetition:
-		// evaluate the body and append the result to the state's output
-		// buffer until a result is nil
-		for i := 0; ; i++ {
-			mark := s.save()
-			// write separator, if any
-			if i > 0 && t.separator != nil {
-				// nil result from separator is ignored
-				mark := s.save()
-				if !s.eval(t.separator, value, i) {
-					s.restore(mark)
-				}
-			}
-			if !s.eval(t.body, value, i) {
-				s.restore(mark)
-				break
-			}
-		}
-		return true // a repetition never evaluates to nil
-
-	case *custom:
-		// invoke the custom formatter to obtain the result
-		mark := s.save()
-		if !t.fun(s, value.Interface(), t.ruleName) {
-			s.restore(mark)
-			return false
-		}
-		return true
-	}
-
-	panic("unreachable")
-	return false
-}
-
-// Eval formats each argument according to the format
-// f and returns the resulting []byte and os.Error. If
-// an error occurred, the []byte contains the partially
-// formatted result. An environment env may be passed
-// in which is available in custom formatters through
-// the state parameter.
-//
-func (f Format) Eval(env Environment, args ...interface{}) ([]byte, os.Error) {
-	if f == nil {
-		return nil, os.NewError("format is nil")
-	}
-
-	errors := make(chan os.Error)
-	s := newState(f, env, errors)
-
-	go func() {
-		for _, v := range args {
-			fld := reflect.ValueOf(v)
-			if !fld.IsValid() {
-				errors <- os.NewError("nil argument")
-				return
-			}
-			mark := s.save()
-			if !s.eval(s.getFormat(typename(fld.Type())), fld, 0) { // TODO is 0 index correct?
-				s.restore(mark)
-			}
-		}
-		errors <- nil // no errors
-	}()
-
-	err := <-errors
-	return s.output.Bytes(), err
-}
-
-// ----------------------------------------------------------------------------
-// Convenience functions
-
-// Fprint formats each argument according to the format f
-// and writes to w. The result is the total number of bytes
-// written and an os.Error, if any.
-//
-func (f Format) Fprint(w io.Writer, env Environment, args ...interface{}) (int, os.Error) {
-	data, err := f.Eval(env, args...)
-	if err != nil {
-		// TODO should we print partial result in case of error?
-		return 0, err
-	}
-	return w.Write(data)
-}
-
-// Print formats each argument according to the format f
-// and writes to standard output. The result is the total
-// number of bytes written and an os.Error, if any.
-//
-func (f Format) Print(args ...interface{}) (int, os.Error) {
-	return f.Fprint(os.Stdout, nil, args...)
-}
-
-// Sprint formats each argument according to the format f
-// and returns the resulting string. If an error occurs
-// during formatting, the result string contains the
-// partially formatted result followed by an error message.
-//
-func (f Format) Sprint(args ...interface{}) string {
-	var buf bytes.Buffer
-	_, err := f.Fprint(&buf, nil, args...)
-	if err != nil {
-		var i interface{} = args
-		fmt.Fprintf(&buf, "--- Sprint(%s) failed: %v", fmt.Sprint(i), err)
-	}
-	return buf.String()
-}
diff --git a/src/cmd/fix/testdata/reflect.decode.go.in b/src/cmd/fix/testdata/reflect.decode.go.in
deleted file mode 100644
index f831abee37..0000000000
--- a/src/cmd/fix/testdata/reflect.decode.go.in
+++ /dev/null
@@ -1,905 +0,0 @@
-// Copyright 2010 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.
-
-// Represents JSON data structure using native Go types: booleans, floats,
-// strings, arrays, and maps.
-
-package json
-
-import (
-	"container/vector"
-	"encoding/base64"
-	"os"
-	"reflect"
-	"runtime"
-	"strconv"
-	"strings"
-	"unicode"
-	"utf16"
-	"utf8"
-)
-
-// Unmarshal parses the JSON-encoded data and stores the result
-// in the value pointed to by v.
-//
-// Unmarshal traverses the value v recursively.
-// If an encountered value implements the Unmarshaler interface,
-// Unmarshal calls its UnmarshalJSON method with a well-formed
-// JSON encoding.
-//
-// Otherwise, Unmarshal uses the inverse of the encodings that
-// Marshal uses, allocating maps, slices, and pointers as necessary,
-// with the following additional rules:
-//
-// To unmarshal a JSON value into a nil interface value, the
-// type stored in the interface value is one of:
-//
-//	bool, for JSON booleans
-//	float64, for JSON numbers
-//	string, for JSON strings
-//	[]interface{}, for JSON arrays
-//	map[string]interface{}, for JSON objects
-//	nil for JSON null
-//
-// If a JSON value is not appropriate for a given target type,
-// or if a JSON number overflows the target type, Unmarshal
-// skips that field and completes the unmarshalling as best it can.
-// If no more serious errors are encountered, Unmarshal returns
-// an UnmarshalTypeError describing the earliest such error.
-//
-func Unmarshal(data []byte, v interface{}) os.Error {
-	d := new(decodeState).init(data)
-
-	// Quick check for well-formedness.
-	// Avoids filling out half a data structure
-	// before discovering a JSON syntax error.
-	err := checkValid(data, &d.scan)
-	if err != nil {
-		return err
-	}
-
-	return d.unmarshal(v)
-}
-
-// Unmarshaler is the interface implemented by objects
-// that can unmarshal a JSON description of themselves.
-// The input can be assumed to be a valid JSON object
-// encoding.  UnmarshalJSON must copy the JSON data
-// if it wishes to retain the data after returning.
-type Unmarshaler interface {
-	UnmarshalJSON([]byte) os.Error
-}
-
-// An UnmarshalTypeError describes a JSON value that was
-// not appropriate for a value of a specific Go type.
-type UnmarshalTypeError struct {
-	Value string       // description of JSON value - "bool", "array", "number -5"
-	Type  reflect.Type // type of Go value it could not be assigned to
-}
-
-func (e *UnmarshalTypeError) String() string {
-	return "json: cannot unmarshal " + e.Value + " into Go value of type " + e.Type.String()
-}
-
-// An UnmarshalFieldError describes a JSON object key that
-// led to an unexported (and therefore unwritable) struct field.
-type UnmarshalFieldError struct {
-	Key   string
-	Type  *reflect.StructType
-	Field reflect.StructField
-}
-
-func (e *UnmarshalFieldError) String() string {
-	return "json: cannot unmarshal object key " + strconv.Quote(e.Key) + " into unexported field " + e.Field.Name + " of type " + e.Type.String()
-}
-
-// An InvalidUnmarshalError describes an invalid argument passed to Unmarshal.
-// (The argument to Unmarshal must be a non-nil pointer.)
-type InvalidUnmarshalError struct {
-	Type reflect.Type
-}
-
-func (e *InvalidUnmarshalError) String() string {
-	if e.Type == nil {
-		return "json: Unmarshal(nil)"
-	}
-
-	if _, ok := e.Type.(*reflect.PtrType); !ok {
-		return "json: Unmarshal(non-pointer " + e.Type.String() + ")"
-	}
-	return "json: Unmarshal(nil " + e.Type.String() + ")"
-}
-
-func (d *decodeState) unmarshal(v interface{}) (err os.Error) {
-	defer func() {
-		if r := recover(); r != nil {
-			if _, ok := r.(runtime.Error); ok {
-				panic(r)
-			}
-			err = r.(os.Error)
-		}
-	}()
-
-	rv := reflect.NewValue(v)
-	pv, ok := rv.(*reflect.PtrValue)
-	if !ok || pv.IsNil() {
-		return &InvalidUnmarshalError{reflect.Typeof(v)}
-	}
-
-	d.scan.reset()
-	// We decode rv not pv.Elem because the Unmarshaler interface
-	// test must be applied at the top level of the value.
-	d.value(rv)
-	return d.savedError
-}
-
-// decodeState represents the state while decoding a JSON value.
-type decodeState struct {
-	data       []byte
-	off        int // read offset in data
-	scan       scanner
-	nextscan   scanner // for calls to nextValue
-	savedError os.Error
-}
-
-// errPhase is used for errors that should not happen unless
-// there is a bug in the JSON decoder or something is editing
-// the data slice while the decoder executes.
-var errPhase = os.NewError("JSON decoder out of sync - data changing underfoot?")
-
-func (d *decodeState) init(data []byte) *decodeState {
-	d.data = data
-	d.off = 0
-	d.savedError = nil
-	return d
-}
-
-// error aborts the decoding by panicking with err.
-func (d *decodeState) error(err os.Error) {
-	panic(err)
-}
-
-// saveError saves the first err it is called with,
-// for reporting at the end of the unmarshal.
-func (d *decodeState) saveError(err os.Error) {
-	if d.savedError == nil {
-		d.savedError = err
-	}
-}
-
-// next cuts off and returns the next full JSON value in d.data[d.off:].
-// The next value is known to be an object or array, not a literal.
-func (d *decodeState) next() []byte {
-	c := d.data[d.off]
-	item, rest, err := nextValue(d.data[d.off:], &d.nextscan)
-	if err != nil {
-		d.error(err)
-	}
-	d.off = len(d.data) - len(rest)
-
-	// Our scanner has seen the opening brace/bracket
-	// and thinks we're still in the middle of the object.
-	// invent a closing brace/bracket to get it out.
-	if c == '{' {
-		d.scan.step(&d.scan, '}')
-	} else {
-		d.scan.step(&d.scan, ']')
-	}
-
-	return item
-}
-
-// scanWhile processes bytes in d.data[d.off:] until it
-// receives a scan code not equal to op.
-// It updates d.off and returns the new scan code.
-func (d *decodeState) scanWhile(op int) int {
-	var newOp int
-	for {
-		if d.off >= len(d.data) {
-			newOp = d.scan.eof()
-			d.off = len(d.data) + 1 // mark processed EOF with len+1
-		} else {
-			c := int(d.data[d.off])
-			d.off++
-			newOp = d.scan.step(&d.scan, c)
-		}
-		if newOp != op {
-			break
-		}
-	}
-	return newOp
-}
-
-// value decodes a JSON value from d.data[d.off:] into the value.
-// it updates d.off to point past the decoded value.
-func (d *decodeState) value(v reflect.Value) {
-	if v == nil {
-		_, rest, err := nextValue(d.data[d.off:], &d.nextscan)
-		if err != nil {
-			d.error(err)
-		}
-		d.off = len(d.data) - len(rest)
-
-		// d.scan thinks we're still at the beginning of the item.
-		// Feed in an empty string - the shortest, simplest value -
-		// so that it knows we got to the end of the value.
-		if d.scan.step == stateRedo {
-			panic("redo")
-		}
-		d.scan.step(&d.scan, '"')
-		d.scan.step(&d.scan, '"')
-		return
-	}
-
-	switch op := d.scanWhile(scanSkipSpace); op {
-	default:
-		d.error(errPhase)
-
-	case scanBeginArray:
-		d.array(v)
-
-	case scanBeginObject:
-		d.object(v)
-
-	case scanBeginLiteral:
-		d.literal(v)
-	}
-}
-
-// indirect walks down v allocating pointers as needed,
-// until it gets to a non-pointer.
-// if it encounters an Unmarshaler, indirect stops and returns that.
-// if wantptr is true, indirect stops at the last pointer.
-func (d *decodeState) indirect(v reflect.Value, wantptr bool) (Unmarshaler, reflect.Value) {
-	for {
-		var isUnmarshaler bool
-		if v.Type().NumMethod() > 0 {
-			// Remember that this is an unmarshaler,
-			// but wait to return it until after allocating
-			// the pointer (if necessary).
-			_, isUnmarshaler = v.Interface().(Unmarshaler)
-		}
-
-		if iv, ok := v.(*reflect.InterfaceValue); ok && !iv.IsNil() {
-			v = iv.Elem()
-			continue
-		}
-		pv, ok := v.(*reflect.PtrValue)
-		if !ok {
-			break
-		}
-		_, isptrptr := pv.Elem().(*reflect.PtrValue)
-		if !isptrptr && wantptr && !isUnmarshaler {
-			return nil, pv
-		}
-		if pv.IsNil() {
-			pv.PointTo(reflect.MakeZero(pv.Type().(*reflect.PtrType).Elem()))
-		}
-		if isUnmarshaler {
-			// Using v.Interface().(Unmarshaler)
-			// here means that we have to use a pointer
-			// as the struct field.  We cannot use a value inside
-			// a pointer to a struct, because in that case
-			// v.Interface() is the value (x.f) not the pointer (&x.f).
-			// This is an unfortunate consequence of reflect.
-			// An alternative would be to look up the
-			// UnmarshalJSON method and return a FuncValue.
-			return v.Interface().(Unmarshaler), nil
-		}
-		v = pv.Elem()
-	}
-	return nil, v
-}
-
-// array consumes an array from d.data[d.off-1:], decoding into the value v.
-// the first byte of the array ('[') has been read already.
-func (d *decodeState) array(v reflect.Value) {
-	// Check for unmarshaler.
-	unmarshaler, pv := d.indirect(v, false)
-	if unmarshaler != nil {
-		d.off--
-		err := unmarshaler.UnmarshalJSON(d.next())
-		if err != nil {
-			d.error(err)
-		}
-		return
-	}
-	v = pv
-
-	// Decoding into nil interface?  Switch to non-reflect code.
-	iv, ok := v.(*reflect.InterfaceValue)
-	if ok {
-		iv.Set(reflect.NewValue(d.arrayInterface()))
-		return
-	}
-
-	// Check type of target.
-	av, ok := v.(reflect.ArrayOrSliceValue)
-	if !ok {
-		d.saveError(&UnmarshalTypeError{"array", v.Type()})
-		d.off--
-		d.next()
-		return
-	}
-
-	sv, _ := v.(*reflect.SliceValue)
-
-	i := 0
-	for {
-		// Look ahead for ] - can only happen on first iteration.
-		op := d.scanWhile(scanSkipSpace)
-		if op == scanEndArray {
-			break
-		}
-
-		// Back up so d.value can have the byte we just read.
-		d.off--
-		d.scan.undo(op)
-
-		// Get element of array, growing if necessary.
-		if i >= av.Cap() && sv != nil {
-			newcap := sv.Cap() + sv.Cap()/2
-			if newcap < 4 {
-				newcap = 4
-			}
-			newv := reflect.MakeSlice(sv.Type().(*reflect.SliceType), sv.Len(), newcap)
-			reflect.Copy(newv, sv)
-			sv.Set(newv)
-		}
-		if i >= av.Len() && sv != nil {
-			// Must be slice; gave up on array during i >= av.Cap().
-			sv.SetLen(i + 1)
-		}
-
-		// Decode into element.
-		if i < av.Len() {
-			d.value(av.Elem(i))
-		} else {
-			// Ran out of fixed array: skip.
-			d.value(nil)
-		}
-		i++
-
-		// Next token must be , or ].
-		op = d.scanWhile(scanSkipSpace)
-		if op == scanEndArray {
-			break
-		}
-		if op != scanArrayValue {
-			d.error(errPhase)
-		}
-	}
-	if i < av.Len() {
-		if sv == nil {
-			// Array.  Zero the rest.
-			z := reflect.MakeZero(av.Type().(*reflect.ArrayType).Elem())
-			for ; i < av.Len(); i++ {
-				av.Elem(i).SetValue(z)
-			}
-		} else {
-			sv.SetLen(i)
-		}
-	}
-}
-
-// matchName returns true if key should be written to a field named name.
-func matchName(key, name string) bool {
-	return strings.ToLower(key) == strings.ToLower(name)
-}
-
-// object consumes an object from d.data[d.off-1:], decoding into the value v.
-// the first byte of the object ('{') has been read already.
-func (d *decodeState) object(v reflect.Value) {
-	// Check for unmarshaler.
-	unmarshaler, pv := d.indirect(v, false)
-	if unmarshaler != nil {
-		d.off--
-		err := unmarshaler.UnmarshalJSON(d.next())
-		if err != nil {
-			d.error(err)
-		}
-		return
-	}
-	v = pv
-
-	// Decoding into nil interface?  Switch to non-reflect code.
-	iv, ok := v.(*reflect.InterfaceValue)
-	if ok {
-		iv.Set(reflect.NewValue(d.objectInterface()))
-		return
-	}
-
-	// Check type of target: struct or map[string]T
-	var (
-		mv *reflect.MapValue
-		sv *reflect.StructValue
-	)
-	switch v := v.(type) {
-	case *reflect.MapValue:
-		// map must have string type
-		t := v.Type().(*reflect.MapType)
-		if t.Key() != reflect.Typeof("") {
-			d.saveError(&UnmarshalTypeError{"object", v.Type()})
-			break
-		}
-		mv = v
-		if mv.IsNil() {
-			mv.SetValue(reflect.MakeMap(t))
-		}
-	case *reflect.StructValue:
-		sv = v
-	default:
-		d.saveError(&UnmarshalTypeError{"object", v.Type()})
-	}
-
-	if mv == nil && sv == nil {
-		d.off--
-		d.next() // skip over { } in input
-		return
-	}
-
-	for {
-		// Read opening " of string key or closing }.
-		op := d.scanWhile(scanSkipSpace)
-		if op == scanEndObject {
-			// closing } - can only happen on first iteration.
-			break
-		}
-		if op != scanBeginLiteral {
-			d.error(errPhase)
-		}
-
-		// Read string key.
-		start := d.off - 1
-		op = d.scanWhile(scanContinue)
-		item := d.data[start : d.off-1]
-		key, ok := unquote(item)
-		if !ok {
-			d.error(errPhase)
-		}
-
-		// Figure out field corresponding to key.
-		var subv reflect.Value
-		if mv != nil {
-			subv = reflect.MakeZero(mv.Type().(*reflect.MapType).Elem())
-		} else {
-			var f reflect.StructField
-			var ok bool
-			st := sv.Type().(*reflect.StructType)
-			// First try for field with that tag.
-			if isValidTag(key) {
-				for i := 0; i < sv.NumField(); i++ {
-					f = st.Field(i)
-					if f.Tag == key {
-						ok = true
-						break
-					}
-				}
-			}
-			if !ok {
-				// Second, exact match.
-				f, ok = st.FieldByName(key)
-			}
-			if !ok {
-				// Third, case-insensitive match.
-				f, ok = st.FieldByNameFunc(func(s string) bool { return matchName(key, s) })
-			}
-
-			// Extract value; name must be exported.
-			if ok {
-				if f.PkgPath != "" {
-					d.saveError(&UnmarshalFieldError{key, st, f})
-				} else {
-					subv = sv.FieldByIndex(f.Index)
-				}
-			}
-		}
-
-		// Read : before value.
-		if op == scanSkipSpace {
-			op = d.scanWhile(scanSkipSpace)
-		}
-		if op != scanObjectKey {
-			d.error(errPhase)
-		}
-
-		// Read value.
-		d.value(subv)
-
-		// Write value back to map;
-		// if using struct, subv points into struct already.
-		if mv != nil {
-			mv.SetElem(reflect.NewValue(key), subv)
-		}
-
-		// Next token must be , or }.
-		op = d.scanWhile(scanSkipSpace)
-		if op == scanEndObject {
-			break
-		}
-		if op != scanObjectValue {
-			d.error(errPhase)
-		}
-	}
-}
-
-// literal consumes a literal from d.data[d.off-1:], decoding into the value v.
-// The first byte of the literal has been read already
-// (that's how the caller knows it's a literal).
-func (d *decodeState) literal(v reflect.Value) {
-	// All bytes inside literal return scanContinue op code.
-	start := d.off - 1
-	op := d.scanWhile(scanContinue)
-
-	// Scan read one byte too far; back up.
-	d.off--
-	d.scan.undo(op)
-	item := d.data[start:d.off]
-
-	// Check for unmarshaler.
-	wantptr := item[0] == 'n' // null
-	unmarshaler, pv := d.indirect(v, wantptr)
-	if unmarshaler != nil {
-		err := unmarshaler.UnmarshalJSON(item)
-		if err != nil {
-			d.error(err)
-		}
-		return
-	}
-	v = pv
-
-	switch c := item[0]; c {
-	case 'n': // null
-		switch v.(type) {
-		default:
-			d.saveError(&UnmarshalTypeError{"null", v.Type()})
-		case *reflect.InterfaceValue, *reflect.PtrValue, *reflect.MapValue:
-			v.SetValue(nil)
-		}
-
-	case 't', 'f': // true, false
-		value := c == 't'
-		switch v := v.(type) {
-		default:
-			d.saveError(&UnmarshalTypeError{"bool", v.Type()})
-		case *reflect.BoolValue:
-			v.Set(value)
-		case *reflect.InterfaceValue:
-			v.Set(reflect.NewValue(value))
-		}
-
-	case '"': // string
-		s, ok := unquoteBytes(item)
-		if !ok {
-			d.error(errPhase)
-		}
-		switch v := v.(type) {
-		default:
-			d.saveError(&UnmarshalTypeError{"string", v.Type()})
-		case *reflect.SliceValue:
-			if v.Type() != byteSliceType {
-				d.saveError(&UnmarshalTypeError{"string", v.Type()})
-				break
-			}
-			b := make([]byte, base64.StdEncoding.DecodedLen(len(s)))
-			n, err := base64.StdEncoding.Decode(b, s)
-			if err != nil {
-				d.saveError(err)
-				break
-			}
-			v.Set(reflect.NewValue(b[0:n]).(*reflect.SliceValue))
-		case *reflect.StringValue:
-			v.Set(string(s))
-		case *reflect.InterfaceValue:
-			v.Set(reflect.NewValue(string(s)))
-		}
-
-	default: // number
-		if c != '-' && (c < '0' || c > '9') {
-			d.error(errPhase)
-		}
-		s := string(item)
-		switch v := v.(type) {
-		default:
-			d.error(&UnmarshalTypeError{"number", v.Type()})
-		case *reflect.InterfaceValue:
-			n, err := strconv.Atof64(s)
-			if err != nil {
-				d.saveError(&UnmarshalTypeError{"number " + s, v.Type()})
-				break
-			}
-			v.Set(reflect.NewValue(n))
-
-		case *reflect.IntValue:
-			n, err := strconv.Atoi64(s)
-			if err != nil || v.Overflow(n) {
-				d.saveError(&UnmarshalTypeError{"number " + s, v.Type()})
-				break
-			}
-			v.Set(n)
-
-		case *reflect.UintValue:
-			n, err := strconv.Atoui64(s)
-			if err != nil || v.Overflow(n) {
-				d.saveError(&UnmarshalTypeError{"number " + s, v.Type()})
-				break
-			}
-			v.Set(n)
-
-		case *reflect.FloatValue:
-			n, err := strconv.AtofN(s, v.Type().Bits())
-			if err != nil || v.Overflow(n) {
-				d.saveError(&UnmarshalTypeError{"number " + s, v.Type()})
-				break
-			}
-			v.Set(n)
-		}
-	}
-}
-
-// The xxxInterface routines build up a value to be stored
-// in an empty interface.  They are not strictly necessary,
-// but they avoid the weight of reflection in this common case.
-
-// valueInterface is like value but returns interface{}
-func (d *decodeState) valueInterface() interface{} {
-	switch d.scanWhile(scanSkipSpace) {
-	default:
-		d.error(errPhase)
-	case scanBeginArray:
-		return d.arrayInterface()
-	case scanBeginObject:
-		return d.objectInterface()
-	case scanBeginLiteral:
-		return d.literalInterface()
-	}
-	panic("unreachable")
-}
-
-// arrayInterface is like array but returns []interface{}.
-func (d *decodeState) arrayInterface() []interface{} {
-	var v vector.Vector
-	for {
-		// Look ahead for ] - can only happen on first iteration.
-		op := d.scanWhile(scanSkipSpace)
-		if op == scanEndArray {
-			break
-		}
-
-		// Back up so d.value can have the byte we just read.
-		d.off--
-		d.scan.undo(op)
-
-		v.Push(d.valueInterface())
-
-		// Next token must be , or ].
-		op = d.scanWhile(scanSkipSpace)
-		if op == scanEndArray {
-			break
-		}
-		if op != scanArrayValue {
-			d.error(errPhase)
-		}
-	}
-	return v
-}
-
-// objectInterface is like object but returns map[string]interface{}.
-func (d *decodeState) objectInterface() map[string]interface{} {
-	m := make(map[string]interface{})
-	for {
-		// Read opening " of string key or closing }.
-		op := d.scanWhile(scanSkipSpace)
-		if op == scanEndObject {
-			// closing } - can only happen on first iteration.
-			break
-		}
-		if op != scanBeginLiteral {
-			d.error(errPhase)
-		}
-
-		// Read string key.
-		start := d.off - 1
-		op = d.scanWhile(scanContinue)
-		item := d.data[start : d.off-1]
-		key, ok := unquote(item)
-		if !ok {
-			d.error(errPhase)
-		}
-
-		// Read : before value.
-		if op == scanSkipSpace {
-			op = d.scanWhile(scanSkipSpace)
-		}
-		if op != scanObjectKey {
-			d.error(errPhase)
-		}
-
-		// Read value.
-		m[key] = d.valueInterface()
-
-		// Next token must be , or }.
-		op = d.scanWhile(scanSkipSpace)
-		if op == scanEndObject {
-			break
-		}
-		if op != scanObjectValue {
-			d.error(errPhase)
-		}
-	}
-	return m
-}
-
-// literalInterface is like literal but returns an interface value.
-func (d *decodeState) literalInterface() interface{} {
-	// All bytes inside literal return scanContinue op code.
-	start := d.off - 1
-	op := d.scanWhile(scanContinue)
-
-	// Scan read one byte too far; back up.
-	d.off--
-	d.scan.undo(op)
-	item := d.data[start:d.off]
-
-	switch c := item[0]; c {
-	case 'n': // null
-		return nil
-
-	case 't', 'f': // true, false
-		return c == 't'
-
-	case '"': // string
-		s, ok := unquote(item)
-		if !ok {
-			d.error(errPhase)
-		}
-		return s
-
-	default: // number
-		if c != '-' && (c < '0' || c > '9') {
-			d.error(errPhase)
-		}
-		n, err := strconv.Atof64(string(item))
-		if err != nil {
-			d.saveError(&UnmarshalTypeError{"number " + string(item), reflect.Typeof(0.0)})
-		}
-		return n
-	}
-	panic("unreachable")
-}
-
-// getu4 decodes \uXXXX from the beginning of s, returning the hex value,
-// or it returns -1.
-func getu4(s []byte) int {
-	if len(s) < 6 || s[0] != '\\' || s[1] != 'u' {
-		return -1
-	}
-	rune, err := strconv.Btoui64(string(s[2:6]), 16)
-	if err != nil {
-		return -1
-	}
-	return int(rune)
-}
-
-// unquote converts a quoted JSON string literal s into an actual string t.
-// The rules are different than for Go, so cannot use strconv.Unquote.
-func unquote(s []byte) (t string, ok bool) {
-	s, ok = unquoteBytes(s)
-	t = string(s)
-	return
-}
-
-func unquoteBytes(s []byte) (t []byte, ok bool) {
-	if len(s) < 2 || s[0] != '"' || s[len(s)-1] != '"' {
-		return
-	}
-	s = s[1 : len(s)-1]
-
-	// Check for unusual characters. If there are none,
-	// then no unquoting is needed, so return a slice of the
-	// original bytes.
-	r := 0
-	for r < len(s) {
-		c := s[r]
-		if c == '\\' || c == '"' || c < ' ' {
-			break
-		}
-		if c < utf8.RuneSelf {
-			r++
-			continue
-		}
-		rune, size := utf8.DecodeRune(s[r:])
-		if rune == utf8.RuneError && size == 1 {
-			break
-		}
-		r += size
-	}
-	if r == len(s) {
-		return s, true
-	}
-
-	b := make([]byte, len(s)+2*utf8.UTFMax)
-	w := copy(b, s[0:r])
-	for r < len(s) {
-		// Out of room?  Can only happen if s is full of
-		// malformed UTF-8 and we're replacing each
-		// byte with RuneError.
-		if w >= len(b)-2*utf8.UTFMax {
-			nb := make([]byte, (len(b)+utf8.UTFMax)*2)
-			copy(nb, b[0:w])
-			b = nb
-		}
-		switch c := s[r]; {
-		case c == '\\':
-			r++
-			if r >= len(s) {
-				return
-			}
-			switch s[r] {
-			default:
-				return
-			case '"', '\\', '/', '\'':
-				b[w] = s[r]
-				r++
-				w++
-			case 'b':
-				b[w] = '\b'
-				r++
-				w++
-			case 'f':
-				b[w] = '\f'
-				r++
-				w++
-			case 'n':
-				b[w] = '\n'
-				r++
-				w++
-			case 'r':
-				b[w] = '\r'
-				r++
-				w++
-			case 't':
-				b[w] = '\t'
-				r++
-				w++
-			case 'u':
-				r--
-				rune := getu4(s[r:])
-				if rune < 0 {
-					return
-				}
-				r += 6
-				if utf16.IsSurrogate(rune) {
-					rune1 := getu4(s[r:])
-					if dec := utf16.DecodeRune(rune, rune1); dec != unicode.ReplacementChar {
-						// A valid pair; consume.
-						r += 6
-						w += utf8.EncodeRune(b[w:], dec)
-						break
-					}
-					// Invalid surrogate; fall back to replacement rune.
-					rune = unicode.ReplacementChar
-				}
-				w += utf8.EncodeRune(b[w:], rune)
-			}
-
-		// Quote, control characters are invalid.
-		case c == '"', c < ' ':
-			return
-
-		// ASCII
-		case c < utf8.RuneSelf:
-			b[w] = c
-			r++
-			w++
-
-		// Coerce to well-formed UTF-8.
-		default:
-			rune, size := utf8.DecodeRune(s[r:])
-			r += size
-			w += utf8.EncodeRune(b[w:], rune)
-		}
-	}
-	return b[0:w], true
-}
diff --git a/src/cmd/fix/testdata/reflect.decode.go.out b/src/cmd/fix/testdata/reflect.decode.go.out
deleted file mode 100644
index fb7910ee30..0000000000
--- a/src/cmd/fix/testdata/reflect.decode.go.out
+++ /dev/null
@@ -1,908 +0,0 @@
-// Copyright 2010 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.
-
-// Represents JSON data structure using native Go types: booleans, floats,
-// strings, arrays, and maps.
-
-package json
-
-import (
-	"container/vector"
-	"encoding/base64"
-	"os"
-	"reflect"
-	"runtime"
-	"strconv"
-	"strings"
-	"unicode"
-	"utf16"
-	"utf8"
-)
-
-// Unmarshal parses the JSON-encoded data and stores the result
-// in the value pointed to by v.
-//
-// Unmarshal traverses the value v recursively.
-// If an encountered value implements the Unmarshaler interface,
-// Unmarshal calls its UnmarshalJSON method with a well-formed
-// JSON encoding.
-//
-// Otherwise, Unmarshal uses the inverse of the encodings that
-// Marshal uses, allocating maps, slices, and pointers as necessary,
-// with the following additional rules:
-//
-// To unmarshal a JSON value into a nil interface value, the
-// type stored in the interface value is one of:
-//
-//	bool, for JSON booleans
-//	float64, for JSON numbers
-//	string, for JSON strings
-//	[]interface{}, for JSON arrays
-//	map[string]interface{}, for JSON objects
-//	nil for JSON null
-//
-// If a JSON value is not appropriate for a given target type,
-// or if a JSON number overflows the target type, Unmarshal
-// skips that field and completes the unmarshalling as best it can.
-// If no more serious errors are encountered, Unmarshal returns
-// an UnmarshalTypeError describing the earliest such error.
-//
-func Unmarshal(data []byte, v interface{}) os.Error {
-	d := new(decodeState).init(data)
-
-	// Quick check for well-formedness.
-	// Avoids filling out half a data structure
-	// before discovering a JSON syntax error.
-	err := checkValid(data, &d.scan)
-	if err != nil {
-		return err
-	}
-
-	return d.unmarshal(v)
-}
-
-// Unmarshaler is the interface implemented by objects
-// that can unmarshal a JSON description of themselves.
-// The input can be assumed to be a valid JSON object
-// encoding.  UnmarshalJSON must copy the JSON data
-// if it wishes to retain the data after returning.
-type Unmarshaler interface {
-	UnmarshalJSON([]byte) os.Error
-}
-
-// An UnmarshalTypeError describes a JSON value that was
-// not appropriate for a value of a specific Go type.
-type UnmarshalTypeError struct {
-	Value string       // description of JSON value - "bool", "array", "number -5"
-	Type  reflect.Type // type of Go value it could not be assigned to
-}
-
-func (e *UnmarshalTypeError) String() string {
-	return "json: cannot unmarshal " + e.Value + " into Go value of type " + e.Type.String()
-}
-
-// An UnmarshalFieldError describes a JSON object key that
-// led to an unexported (and therefore unwritable) struct field.
-type UnmarshalFieldError struct {
-	Key   string
-	Type  reflect.Type
-	Field reflect.StructField
-}
-
-func (e *UnmarshalFieldError) String() string {
-	return "json: cannot unmarshal object key " + strconv.Quote(e.Key) + " into unexported field " + e.Field.Name + " of type " + e.Type.String()
-}
-
-// An InvalidUnmarshalError describes an invalid argument passed to Unmarshal.
-// (The argument to Unmarshal must be a non-nil pointer.)
-type InvalidUnmarshalError struct {
-	Type reflect.Type
-}
-
-func (e *InvalidUnmarshalError) String() string {
-	if e.Type == nil {
-		return "json: Unmarshal(nil)"
-	}
-
-	if e.Type.Kind() != reflect.Ptr {
-		return "json: Unmarshal(non-pointer " + e.Type.String() + ")"
-	}
-	return "json: Unmarshal(nil " + e.Type.String() + ")"
-}
-
-func (d *decodeState) unmarshal(v interface{}) (err os.Error) {
-	defer func() {
-		if r := recover(); r != nil {
-			if _, ok := r.(runtime.Error); ok {
-				panic(r)
-			}
-			err = r.(os.Error)
-		}
-	}()
-
-	rv := reflect.ValueOf(v)
-	pv := rv
-	if pv.Kind() != reflect.Ptr ||
-		pv.IsNil() {
-		return &InvalidUnmarshalError{reflect.TypeOf(v)}
-	}
-
-	d.scan.reset()
-	// We decode rv not pv.Elem because the Unmarshaler interface
-	// test must be applied at the top level of the value.
-	d.value(rv)
-	return d.savedError
-}
-
-// decodeState represents the state while decoding a JSON value.
-type decodeState struct {
-	data       []byte
-	off        int // read offset in data
-	scan       scanner
-	nextscan   scanner // for calls to nextValue
-	savedError os.Error
-}
-
-// errPhase is used for errors that should not happen unless
-// there is a bug in the JSON decoder or something is editing
-// the data slice while the decoder executes.
-var errPhase = os.NewError("JSON decoder out of sync - data changing underfoot?")
-
-func (d *decodeState) init(data []byte) *decodeState {
-	d.data = data
-	d.off = 0
-	d.savedError = nil
-	return d
-}
-
-// error aborts the decoding by panicking with err.
-func (d *decodeState) error(err os.Error) {
-	panic(err)
-}
-
-// saveError saves the first err it is called with,
-// for reporting at the end of the unmarshal.
-func (d *decodeState) saveError(err os.Error) {
-	if d.savedError == nil {
-		d.savedError = err
-	}
-}
-
-// next cuts off and returns the next full JSON value in d.data[d.off:].
-// The next value is known to be an object or array, not a literal.
-func (d *decodeState) next() []byte {
-	c := d.data[d.off]
-	item, rest, err := nextValue(d.data[d.off:], &d.nextscan)
-	if err != nil {
-		d.error(err)
-	}
-	d.off = len(d.data) - len(rest)
-
-	// Our scanner has seen the opening brace/bracket
-	// and thinks we're still in the middle of the object.
-	// invent a closing brace/bracket to get it out.
-	if c == '{' {
-		d.scan.step(&d.scan, '}')
-	} else {
-		d.scan.step(&d.scan, ']')
-	}
-
-	return item
-}
-
-// scanWhile processes bytes in d.data[d.off:] until it
-// receives a scan code not equal to op.
-// It updates d.off and returns the new scan code.
-func (d *decodeState) scanWhile(op int) int {
-	var newOp int
-	for {
-		if d.off >= len(d.data) {
-			newOp = d.scan.eof()
-			d.off = len(d.data) + 1 // mark processed EOF with len+1
-		} else {
-			c := int(d.data[d.off])
-			d.off++
-			newOp = d.scan.step(&d.scan, c)
-		}
-		if newOp != op {
-			break
-		}
-	}
-	return newOp
-}
-
-// value decodes a JSON value from d.data[d.off:] into the value.
-// it updates d.off to point past the decoded value.
-func (d *decodeState) value(v reflect.Value) {
-	if !v.IsValid() {
-		_, rest, err := nextValue(d.data[d.off:], &d.nextscan)
-		if err != nil {
-			d.error(err)
-		}
-		d.off = len(d.data) - len(rest)
-
-		// d.scan thinks we're still at the beginning of the item.
-		// Feed in an empty string - the shortest, simplest value -
-		// so that it knows we got to the end of the value.
-		if d.scan.step == stateRedo {
-			panic("redo")
-		}
-		d.scan.step(&d.scan, '"')
-		d.scan.step(&d.scan, '"')
-		return
-	}
-
-	switch op := d.scanWhile(scanSkipSpace); op {
-	default:
-		d.error(errPhase)
-
-	case scanBeginArray:
-		d.array(v)
-
-	case scanBeginObject:
-		d.object(v)
-
-	case scanBeginLiteral:
-		d.literal(v)
-	}
-}
-
-// indirect walks down v allocating pointers as needed,
-// until it gets to a non-pointer.
-// if it encounters an Unmarshaler, indirect stops and returns that.
-// if wantptr is true, indirect stops at the last pointer.
-func (d *decodeState) indirect(v reflect.Value, wantptr bool) (Unmarshaler, reflect.Value) {
-	for {
-		var isUnmarshaler bool
-		if v.Type().NumMethod() > 0 {
-			// Remember that this is an unmarshaler,
-			// but wait to return it until after allocating
-			// the pointer (if necessary).
-			_, isUnmarshaler = v.Interface().(Unmarshaler)
-		}
-
-		if iv := v; iv.Kind() == reflect.Interface && !iv.IsNil() {
-			v = iv.Elem()
-			continue
-		}
-		pv := v
-		if pv.Kind() != reflect.Ptr {
-			break
-		}
-
-		if pv.Elem().Kind() != reflect.Ptr &&
-			wantptr && !isUnmarshaler {
-			return nil, pv
-		}
-		if pv.IsNil() {
-			pv.Set(reflect.Zero(pv.Type().Elem()).Addr())
-		}
-		if isUnmarshaler {
-			// Using v.Interface().(Unmarshaler)
-			// here means that we have to use a pointer
-			// as the struct field.  We cannot use a value inside
-			// a pointer to a struct, because in that case
-			// v.Interface() is the value (x.f) not the pointer (&x.f).
-			// This is an unfortunate consequence of reflect.
-			// An alternative would be to look up the
-			// UnmarshalJSON method and return a FuncValue.
-			return v.Interface().(Unmarshaler), reflect.Value{}
-		}
-		v = pv.Elem()
-	}
-	return nil, v
-}
-
-// array consumes an array from d.data[d.off-1:], decoding into the value v.
-// the first byte of the array ('[') has been read already.
-func (d *decodeState) array(v reflect.Value) {
-	// Check for unmarshaler.
-	unmarshaler, pv := d.indirect(v, false)
-	if unmarshaler != nil {
-		d.off--
-		err := unmarshaler.UnmarshalJSON(d.next())
-		if err != nil {
-			d.error(err)
-		}
-		return
-	}
-	v = pv
-
-	// Decoding into nil interface?  Switch to non-reflect code.
-	iv := v
-	ok := iv.Kind() == reflect.Interface
-	if ok {
-		iv.Set(reflect.ValueOf(d.arrayInterface()))
-		return
-	}
-
-	// Check type of target.
-	av := v
-	if av.Kind() != reflect.Array && av.Kind() != reflect.Slice {
-		d.saveError(&UnmarshalTypeError{"array", v.Type()})
-		d.off--
-		d.next()
-		return
-	}
-
-	sv := v
-
-	i := 0
-	for {
-		// Look ahead for ] - can only happen on first iteration.
-		op := d.scanWhile(scanSkipSpace)
-		if op == scanEndArray {
-			break
-		}
-
-		// Back up so d.value can have the byte we just read.
-		d.off--
-		d.scan.undo(op)
-
-		// Get element of array, growing if necessary.
-		if i >= av.Cap() && sv.IsValid() {
-			newcap := sv.Cap() + sv.Cap()/2
-			if newcap < 4 {
-				newcap = 4
-			}
-			newv := reflect.MakeSlice(sv.Type(), sv.Len(), newcap)
-			reflect.Copy(newv, sv)
-			sv.Set(newv)
-		}
-		if i >= av.Len() && sv.IsValid() {
-			// Must be slice; gave up on array during i >= av.Cap().
-			sv.SetLen(i + 1)
-		}
-
-		// Decode into element.
-		if i < av.Len() {
-			d.value(av.Index(i))
-		} else {
-			// Ran out of fixed array: skip.
-			d.value(reflect.Value{})
-		}
-		i++
-
-		// Next token must be , or ].
-		op = d.scanWhile(scanSkipSpace)
-		if op == scanEndArray {
-			break
-		}
-		if op != scanArrayValue {
-			d.error(errPhase)
-		}
-	}
-	if i < av.Len() {
-		if !sv.IsValid() {
-			// Array.  Zero the rest.
-			z := reflect.Zero(av.Type().Elem())
-			for ; i < av.Len(); i++ {
-				av.Index(i).Set(z)
-			}
-		} else {
-			sv.SetLen(i)
-		}
-	}
-}
-
-// matchName returns true if key should be written to a field named name.
-func matchName(key, name string) bool {
-	return strings.ToLower(key) == strings.ToLower(name)
-}
-
-// object consumes an object from d.data[d.off-1:], decoding into the value v.
-// the first byte of the object ('{') has been read already.
-func (d *decodeState) object(v reflect.Value) {
-	// Check for unmarshaler.
-	unmarshaler, pv := d.indirect(v, false)
-	if unmarshaler != nil {
-		d.off--
-		err := unmarshaler.UnmarshalJSON(d.next())
-		if err != nil {
-			d.error(err)
-		}
-		return
-	}
-	v = pv
-
-	// Decoding into nil interface?  Switch to non-reflect code.
-	iv := v
-	if iv.Kind() == reflect.Interface {
-		iv.Set(reflect.ValueOf(d.objectInterface()))
-		return
-	}
-
-	// Check type of target: struct or map[string]T
-	var (
-		mv reflect.Value
-		sv reflect.Value
-	)
-	switch v.Kind() {
-	case reflect.Map:
-		// map must have string type
-		t := v.Type()
-		if t.Key() != reflect.TypeOf("") {
-			d.saveError(&UnmarshalTypeError{"object", v.Type()})
-			break
-		}
-		mv = v
-		if mv.IsNil() {
-			mv.Set(reflect.MakeMap(t))
-		}
-	case reflect.Struct:
-		sv = v
-	default:
-		d.saveError(&UnmarshalTypeError{"object", v.Type()})
-	}
-
-	if !mv.IsValid() && !sv.IsValid() {
-		d.off--
-		d.next() // skip over { } in input
-		return
-	}
-
-	for {
-		// Read opening " of string key or closing }.
-		op := d.scanWhile(scanSkipSpace)
-		if op == scanEndObject {
-			// closing } - can only happen on first iteration.
-			break
-		}
-		if op != scanBeginLiteral {
-			d.error(errPhase)
-		}
-
-		// Read string key.
-		start := d.off - 1
-		op = d.scanWhile(scanContinue)
-		item := d.data[start : d.off-1]
-		key, ok := unquote(item)
-		if !ok {
-			d.error(errPhase)
-		}
-
-		// Figure out field corresponding to key.
-		var subv reflect.Value
-		if mv.IsValid() {
-			subv = reflect.Zero(mv.Type().Elem())
-		} else {
-			var f reflect.StructField
-			var ok bool
-			st := sv.Type()
-			// First try for field with that tag.
-			if isValidTag(key) {
-				for i := 0; i < sv.NumField(); i++ {
-					f = st.Field(i)
-					if f.Tag == key {
-						ok = true
-						break
-					}
-				}
-			}
-			if !ok {
-				// Second, exact match.
-				f, ok = st.FieldByName(key)
-			}
-			if !ok {
-				// Third, case-insensitive match.
-				f, ok = st.FieldByNameFunc(func(s string) bool { return matchName(key, s) })
-			}
-
-			// Extract value; name must be exported.
-			if ok {
-				if f.PkgPath != "" {
-					d.saveError(&UnmarshalFieldError{key, st, f})
-				} else {
-					subv = sv.FieldByIndex(f.Index)
-				}
-			}
-		}
-
-		// Read : before value.
-		if op == scanSkipSpace {
-			op = d.scanWhile(scanSkipSpace)
-		}
-		if op != scanObjectKey {
-			d.error(errPhase)
-		}
-
-		// Read value.
-		d.value(subv)
-
-		// Write value back to map;
-		// if using struct, subv points into struct already.
-		if mv.IsValid() {
-			mv.SetMapIndex(reflect.ValueOf(key), subv)
-		}
-
-		// Next token must be , or }.
-		op = d.scanWhile(scanSkipSpace)
-		if op == scanEndObject {
-			break
-		}
-		if op != scanObjectValue {
-			d.error(errPhase)
-		}
-	}
-}
-
-// literal consumes a literal from d.data[d.off-1:], decoding into the value v.
-// The first byte of the literal has been read already
-// (that's how the caller knows it's a literal).
-func (d *decodeState) literal(v reflect.Value) {
-	// All bytes inside literal return scanContinue op code.
-	start := d.off - 1
-	op := d.scanWhile(scanContinue)
-
-	// Scan read one byte too far; back up.
-	d.off--
-	d.scan.undo(op)
-	item := d.data[start:d.off]
-
-	// Check for unmarshaler.
-	wantptr := item[0] == 'n' // null
-	unmarshaler, pv := d.indirect(v, wantptr)
-	if unmarshaler != nil {
-		err := unmarshaler.UnmarshalJSON(item)
-		if err != nil {
-			d.error(err)
-		}
-		return
-	}
-	v = pv
-
-	switch c := item[0]; c {
-	case 'n': // null
-		switch v.Kind() {
-		default:
-			d.saveError(&UnmarshalTypeError{"null", v.Type()})
-		case reflect.Interface, reflect.Ptr, reflect.Map:
-			v.Set(reflect.Zero(v.Type()))
-		}
-
-	case 't', 'f': // true, false
-		value := c == 't'
-		switch v.Kind() {
-		default:
-			d.saveError(&UnmarshalTypeError{"bool", v.Type()})
-		case reflect.Bool:
-			v.SetBool(value)
-		case reflect.Interface:
-			v.Set(reflect.ValueOf(value))
-		}
-
-	case '"': // string
-		s, ok := unquoteBytes(item)
-		if !ok {
-			d.error(errPhase)
-		}
-		switch v.Kind() {
-		default:
-			d.saveError(&UnmarshalTypeError{"string", v.Type()})
-		case reflect.Slice:
-			if v.Type() != byteSliceType {
-				d.saveError(&UnmarshalTypeError{"string", v.Type()})
-				break
-			}
-			b := make([]byte, base64.StdEncoding.DecodedLen(len(s)))
-			n, err := base64.StdEncoding.Decode(b, s)
-			if err != nil {
-				d.saveError(err)
-				break
-			}
-			v.Set(reflect.ValueOf(b[0:n]))
-		case reflect.String:
-			v.SetString(string(s))
-		case reflect.Interface:
-			v.Set(reflect.ValueOf(string(s)))
-		}
-
-	default: // number
-		if c != '-' && (c < '0' || c > '9') {
-			d.error(errPhase)
-		}
-		s := string(item)
-		switch v.Kind() {
-		default:
-			d.error(&UnmarshalTypeError{"number", v.Type()})
-		case reflect.Interface:
-			n, err := strconv.Atof64(s)
-			if err != nil {
-				d.saveError(&UnmarshalTypeError{"number " + s, v.Type()})
-				break
-			}
-			v.Set(reflect.ValueOf(n))
-
-		case reflect.Int, reflect.Int8, reflect.Int16, reflect.Int32, reflect.Int64:
-			n, err := strconv.Atoi64(s)
-			if err != nil || v.OverflowInt(n) {
-				d.saveError(&UnmarshalTypeError{"number " + s, v.Type()})
-				break
-			}
-			v.SetInt(n)
-
-		case reflect.Uint, reflect.Uint8, reflect.Uint16, reflect.Uint32, reflect.Uint64, reflect.Uintptr:
-			n, err := strconv.Atoui64(s)
-			if err != nil || v.OverflowUint(n) {
-				d.saveError(&UnmarshalTypeError{"number " + s, v.Type()})
-				break
-			}
-			v.SetUint(n)
-
-		case reflect.Float32, reflect.Float64:
-			n, err := strconv.AtofN(s, v.Type().Bits())
-			if err != nil || v.OverflowFloat(n) {
-				d.saveError(&UnmarshalTypeError{"number " + s, v.Type()})
-				break
-			}
-			v.SetFloat(n)
-		}
-	}
-}
-
-// The xxxInterface routines build up a value to be stored
-// in an empty interface.  They are not strictly necessary,
-// but they avoid the weight of reflection in this common case.
-
-// valueInterface is like value but returns interface{}
-func (d *decodeState) valueInterface() interface{} {
-	switch d.scanWhile(scanSkipSpace) {
-	default:
-		d.error(errPhase)
-	case scanBeginArray:
-		return d.arrayInterface()
-	case scanBeginObject:
-		return d.objectInterface()
-	case scanBeginLiteral:
-		return d.literalInterface()
-	}
-	panic("unreachable")
-}
-
-// arrayInterface is like array but returns []interface{}.
-func (d *decodeState) arrayInterface() []interface{} {
-	var v vector.Vector
-	for {
-		// Look ahead for ] - can only happen on first iteration.
-		op := d.scanWhile(scanSkipSpace)
-		if op == scanEndArray {
-			break
-		}
-
-		// Back up so d.value can have the byte we just read.
-		d.off--
-		d.scan.undo(op)
-
-		v.Push(d.valueInterface())
-
-		// Next token must be , or ].
-		op = d.scanWhile(scanSkipSpace)
-		if op == scanEndArray {
-			break
-		}
-		if op != scanArrayValue {
-			d.error(errPhase)
-		}
-	}
-	return v
-}
-
-// objectInterface is like object but returns map[string]interface{}.
-func (d *decodeState) objectInterface() map[string]interface{} {
-	m := make(map[string]interface{})
-	for {
-		// Read opening " of string key or closing }.
-		op := d.scanWhile(scanSkipSpace)
-		if op == scanEndObject {
-			// closing } - can only happen on first iteration.
-			break
-		}
-		if op != scanBeginLiteral {
-			d.error(errPhase)
-		}
-
-		// Read string key.
-		start := d.off - 1
-		op = d.scanWhile(scanContinue)
-		item := d.data[start : d.off-1]
-		key, ok := unquote(item)
-		if !ok {
-			d.error(errPhase)
-		}
-
-		// Read : before value.
-		if op == scanSkipSpace {
-			op = d.scanWhile(scanSkipSpace)
-		}
-		if op != scanObjectKey {
-			d.error(errPhase)
-		}
-
-		// Read value.
-		m[key] = d.valueInterface()
-
-		// Next token must be , or }.
-		op = d.scanWhile(scanSkipSpace)
-		if op == scanEndObject {
-			break
-		}
-		if op != scanObjectValue {
-			d.error(errPhase)
-		}
-	}
-	return m
-}
-
-// literalInterface is like literal but returns an interface value.
-func (d *decodeState) literalInterface() interface{} {
-	// All bytes inside literal return scanContinue op code.
-	start := d.off - 1
-	op := d.scanWhile(scanContinue)
-
-	// Scan read one byte too far; back up.
-	d.off--
-	d.scan.undo(op)
-	item := d.data[start:d.off]
-
-	switch c := item[0]; c {
-	case 'n': // null
-		return nil
-
-	case 't', 'f': // true, false
-		return c == 't'
-
-	case '"': // string
-		s, ok := unquote(item)
-		if !ok {
-			d.error(errPhase)
-		}
-		return s
-
-	default: // number
-		if c != '-' && (c < '0' || c > '9') {
-			d.error(errPhase)
-		}
-		n, err := strconv.Atof64(string(item))
-		if err != nil {
-			d.saveError(&UnmarshalTypeError{"number " + string(item), reflect.TypeOf(0.0)})
-		}
-		return n
-	}
-	panic("unreachable")
-}
-
-// getu4 decodes \uXXXX from the beginning of s, returning the hex value,
-// or it returns -1.
-func getu4(s []byte) int {
-	if len(s) < 6 || s[0] != '\\' || s[1] != 'u' {
-		return -1
-	}
-	rune, err := strconv.Btoui64(string(s[2:6]), 16)
-	if err != nil {
-		return -1
-	}
-	return int(rune)
-}
-
-// unquote converts a quoted JSON string literal s into an actual string t.
-// The rules are different than for Go, so cannot use strconv.Unquote.
-func unquote(s []byte) (t string, ok bool) {
-	s, ok = unquoteBytes(s)
-	t = string(s)
-	return
-}
-
-func unquoteBytes(s []byte) (t []byte, ok bool) {
-	if len(s) < 2 || s[0] != '"' || s[len(s)-1] != '"' {
-		return
-	}
-	s = s[1 : len(s)-1]
-
-	// Check for unusual characters. If there are none,
-	// then no unquoting is needed, so return a slice of the
-	// original bytes.
-	r := 0
-	for r < len(s) {
-		c := s[r]
-		if c == '\\' || c == '"' || c < ' ' {
-			break
-		}
-		if c < utf8.RuneSelf {
-			r++
-			continue
-		}
-		rune, size := utf8.DecodeRune(s[r:])
-		if rune == utf8.RuneError && size == 1 {
-			break
-		}
-		r += size
-	}
-	if r == len(s) {
-		return s, true
-	}
-
-	b := make([]byte, len(s)+2*utf8.UTFMax)
-	w := copy(b, s[0:r])
-	for r < len(s) {
-		// Out of room?  Can only happen if s is full of
-		// malformed UTF-8 and we're replacing each
-		// byte with RuneError.
-		if w >= len(b)-2*utf8.UTFMax {
-			nb := make([]byte, (len(b)+utf8.UTFMax)*2)
-			copy(nb, b[0:w])
-			b = nb
-		}
-		switch c := s[r]; {
-		case c == '\\':
-			r++
-			if r >= len(s) {
-				return
-			}
-			switch s[r] {
-			default:
-				return
-			case '"', '\\', '/', '\'':
-				b[w] = s[r]
-				r++
-				w++
-			case 'b':
-				b[w] = '\b'
-				r++
-				w++
-			case 'f':
-				b[w] = '\f'
-				r++
-				w++
-			case 'n':
-				b[w] = '\n'
-				r++
-				w++
-			case 'r':
-				b[w] = '\r'
-				r++
-				w++
-			case 't':
-				b[w] = '\t'
-				r++
-				w++
-			case 'u':
-				r--
-				rune := getu4(s[r:])
-				if rune < 0 {
-					return
-				}
-				r += 6
-				if utf16.IsSurrogate(rune) {
-					rune1 := getu4(s[r:])
-					if dec := utf16.DecodeRune(rune, rune1); dec != unicode.ReplacementChar {
-						// A valid pair; consume.
-						r += 6
-						w += utf8.EncodeRune(b[w:], dec)
-						break
-					}
-					// Invalid surrogate; fall back to replacement rune.
-					rune = unicode.ReplacementChar
-				}
-				w += utf8.EncodeRune(b[w:], rune)
-			}
-
-		// Quote, control characters are invalid.
-		case c == '"', c < ' ':
-			return
-
-		// ASCII
-		case c < utf8.RuneSelf:
-			b[w] = c
-			r++
-			w++
-
-		// Coerce to well-formed UTF-8.
-		default:
-			rune, size := utf8.DecodeRune(s[r:])
-			r += size
-			w += utf8.EncodeRune(b[w:], rune)
-		}
-	}
-	return b[0:w], true
-}
diff --git a/src/cmd/fix/testdata/reflect.decoder.go.in b/src/cmd/fix/testdata/reflect.decoder.go.in
deleted file mode 100644
index 0ce9b06fdd..0000000000
--- a/src/cmd/fix/testdata/reflect.decoder.go.in
+++ /dev/null
@@ -1,196 +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 (
-	"bufio"
-	"bytes"
-	"io"
-	"os"
-	"reflect"
-	"sync"
-)
-
-// A Decoder manages the receipt of type and data information read from the
-// remote side of a connection.
-type Decoder struct {
-	mutex        sync.Mutex                              // each item must be received atomically
-	r            io.Reader                               // source of the data
-	buf          bytes.Buffer                            // buffer for more efficient i/o from r
-	wireType     map[typeId]*wireType                    // map from remote ID to local description
-	decoderCache map[reflect.Type]map[typeId]**decEngine // cache of compiled engines
-	ignorerCache map[typeId]**decEngine                  // ditto for ignored objects
-	freeList     *decoderState                           // list of free decoderStates; avoids reallocation
-	countBuf     []byte                                  // used for decoding integers while parsing messages
-	tmp          []byte                                  // temporary storage for i/o; saves reallocating
-	err          os.Error
-}
-
-// NewDecoder returns a new decoder that reads from the io.Reader.
-func NewDecoder(r io.Reader) *Decoder {
-	dec := new(Decoder)
-	dec.r = bufio.NewReader(r)
-	dec.wireType = make(map[typeId]*wireType)
-	dec.decoderCache = make(map[reflect.Type]map[typeId]**decEngine)
-	dec.ignorerCache = make(map[typeId]**decEngine)
-	dec.countBuf = make([]byte, 9) // counts may be uint64s (unlikely!), require 9 bytes
-
-	return dec
-}
-
-// recvType loads the definition of a type.
-func (dec *Decoder) recvType(id typeId) {
-	// Have we already seen this type?  That's an error
-	if id < firstUserId || dec.wireType[id] != nil {
-		dec.err = os.NewError("gob: duplicate type received")
-		return
-	}
-
-	// Type:
-	wire := new(wireType)
-	dec.decodeValue(tWireType, reflect.NewValue(wire))
-	if dec.err != nil {
-		return
-	}
-	// Remember we've seen this type.
-	dec.wireType[id] = wire
-}
-
-// recvMessage reads the next count-delimited item from the input. It is the converse
-// of Encoder.writeMessage. It returns false on EOF or other error reading the message.
-func (dec *Decoder) recvMessage() bool {
-	// Read a count.
-	nbytes, _, err := decodeUintReader(dec.r, dec.countBuf)
-	if err != nil {
-		dec.err = err
-		return false
-	}
-	dec.readMessage(int(nbytes))
-	return dec.err == nil
-}
-
-// readMessage reads the next nbytes bytes from the input.
-func (dec *Decoder) readMessage(nbytes int) {
-	// Allocate the buffer.
-	if cap(dec.tmp) < nbytes {
-		dec.tmp = make([]byte, nbytes+100) // room to grow
-	}
-	dec.tmp = dec.tmp[:nbytes]
-
-	// Read the data
-	_, dec.err = io.ReadFull(dec.r, dec.tmp)
-	if dec.err != nil {
-		if dec.err == os.EOF {
-			dec.err = io.ErrUnexpectedEOF
-		}
-		return
-	}
-	dec.buf.Write(dec.tmp)
-}
-
-// toInt turns an encoded uint64 into an int, according to the marshaling rules.
-func toInt(x uint64) int64 {
-	i := int64(x >> 1)
-	if x&1 != 0 {
-		i = ^i
-	}
-	return i
-}
-
-func (dec *Decoder) nextInt() int64 {
-	n, _, err := decodeUintReader(&dec.buf, dec.countBuf)
-	if err != nil {
-		dec.err = err
-	}
-	return toInt(n)
-}
-
-func (dec *Decoder) nextUint() uint64 {
-	n, _, err := decodeUintReader(&dec.buf, dec.countBuf)
-	if err != nil {
-		dec.err = err
-	}
-	return n
-}
-
-// decodeTypeSequence parses:
-// TypeSequence
-//	(TypeDefinition DelimitedTypeDefinition*)?
-// and returns the type id of the next value.  It returns -1 at
-// EOF.  Upon return, the remainder of dec.buf is the value to be
-// decoded.  If this is an interface value, it can be ignored by
-// simply resetting that buffer.
-func (dec *Decoder) decodeTypeSequence(isInterface bool) typeId {
-	for dec.err == nil {
-		if dec.buf.Len() == 0 {
-			if !dec.recvMessage() {
-				break
-			}
-		}
-		// Receive a type id.
-		id := typeId(dec.nextInt())
-		if id >= 0 {
-			// Value follows.
-			return id
-		}
-		// Type definition for (-id) follows.
-		dec.recvType(-id)
-		// When decoding an interface, after a type there may be a
-		// DelimitedValue still in the buffer.  Skip its count.
-		// (Alternatively, the buffer is empty and the byte count
-		// will be absorbed by recvMessage.)
-		if dec.buf.Len() > 0 {
-			if !isInterface {
-				dec.err = os.NewError("extra data in buffer")
-				break
-			}
-			dec.nextUint()
-		}
-	}
-	return -1
-}
-
-// Decode reads the next value from the connection and stores
-// it in the data represented by the empty interface value.
-// If e is nil, the value will be discarded. Otherwise,
-// the value underlying e must either be the correct type for the next
-// data item received, and must be a pointer.
-func (dec *Decoder) Decode(e interface{}) os.Error {
-	if e == nil {
-		return dec.DecodeValue(nil)
-	}
-	value := reflect.NewValue(e)
-	// If e represents a value as opposed to a pointer, the answer won't
-	// get back to the caller.  Make sure it's a pointer.
-	if value.Type().Kind() != reflect.Ptr {
-		dec.err = os.NewError("gob: attempt to decode into a non-pointer")
-		return dec.err
-	}
-	return dec.DecodeValue(value)
-}
-
-// DecodeValue reads the next value from the connection and stores
-// it in the data represented by the reflection value.
-// The value must be the correct type for the next
-// data item received, or it may be nil, which means the
-// value will be discarded.
-func (dec *Decoder) DecodeValue(value reflect.Value) os.Error {
-	// Make sure we're single-threaded through here.
-	dec.mutex.Lock()
-	defer dec.mutex.Unlock()
-
-	dec.buf.Reset() // In case data lingers from previous invocation.
-	dec.err = nil
-	id := dec.decodeTypeSequence(false)
-	if dec.err == nil {
-		dec.decodeValue(id, value)
-	}
-	return dec.err
-}
-
-// If debug.go is compiled into the program , debugFunc prints a human-readable
-// representation of the gob data read from r by calling that file's Debug function.
-// Otherwise it is nil.
-var debugFunc func(io.Reader)
diff --git a/src/cmd/fix/testdata/reflect.decoder.go.out b/src/cmd/fix/testdata/reflect.decoder.go.out
deleted file mode 100644
index ece88ecbed..0000000000
--- a/src/cmd/fix/testdata/reflect.decoder.go.out
+++ /dev/null
@@ -1,196 +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 (
-	"bufio"
-	"bytes"
-	"io"
-	"os"
-	"reflect"
-	"sync"
-)
-
-// A Decoder manages the receipt of type and data information read from the
-// remote side of a connection.
-type Decoder struct {
-	mutex        sync.Mutex                              // each item must be received atomically
-	r            io.Reader                               // source of the data
-	buf          bytes.Buffer                            // buffer for more efficient i/o from r
-	wireType     map[typeId]*wireType                    // map from remote ID to local description
-	decoderCache map[reflect.Type]map[typeId]**decEngine // cache of compiled engines
-	ignorerCache map[typeId]**decEngine                  // ditto for ignored objects
-	freeList     *decoderState                           // list of free decoderStates; avoids reallocation
-	countBuf     []byte                                  // used for decoding integers while parsing messages
-	tmp          []byte                                  // temporary storage for i/o; saves reallocating
-	err          os.Error
-}
-
-// NewDecoder returns a new decoder that reads from the io.Reader.
-func NewDecoder(r io.Reader) *Decoder {
-	dec := new(Decoder)
-	dec.r = bufio.NewReader(r)
-	dec.wireType = make(map[typeId]*wireType)
-	dec.decoderCache = make(map[reflect.Type]map[typeId]**decEngine)
-	dec.ignorerCache = make(map[typeId]**decEngine)
-	dec.countBuf = make([]byte, 9) // counts may be uint64s (unlikely!), require 9 bytes
-
-	return dec
-}
-
-// recvType loads the definition of a type.
-func (dec *Decoder) recvType(id typeId) {
-	// Have we already seen this type?  That's an error
-	if id < firstUserId || dec.wireType[id] != nil {
-		dec.err = os.NewError("gob: duplicate type received")
-		return
-	}
-
-	// Type:
-	wire := new(wireType)
-	dec.decodeValue(tWireType, reflect.ValueOf(wire))
-	if dec.err != nil {
-		return
-	}
-	// Remember we've seen this type.
-	dec.wireType[id] = wire
-}
-
-// recvMessage reads the next count-delimited item from the input. It is the converse
-// of Encoder.writeMessage. It returns false on EOF or other error reading the message.
-func (dec *Decoder) recvMessage() bool {
-	// Read a count.
-	nbytes, _, err := decodeUintReader(dec.r, dec.countBuf)
-	if err != nil {
-		dec.err = err
-		return false
-	}
-	dec.readMessage(int(nbytes))
-	return dec.err == nil
-}
-
-// readMessage reads the next nbytes bytes from the input.
-func (dec *Decoder) readMessage(nbytes int) {
-	// Allocate the buffer.
-	if cap(dec.tmp) < nbytes {
-		dec.tmp = make([]byte, nbytes+100) // room to grow
-	}
-	dec.tmp = dec.tmp[:nbytes]
-
-	// Read the data
-	_, dec.err = io.ReadFull(dec.r, dec.tmp)
-	if dec.err != nil {
-		if dec.err == os.EOF {
-			dec.err = io.ErrUnexpectedEOF
-		}
-		return
-	}
-	dec.buf.Write(dec.tmp)
-}
-
-// toInt turns an encoded uint64 into an int, according to the marshaling rules.
-func toInt(x uint64) int64 {
-	i := int64(x >> 1)
-	if x&1 != 0 {
-		i = ^i
-	}
-	return i
-}
-
-func (dec *Decoder) nextInt() int64 {
-	n, _, err := decodeUintReader(&dec.buf, dec.countBuf)
-	if err != nil {
-		dec.err = err
-	}
-	return toInt(n)
-}
-
-func (dec *Decoder) nextUint() uint64 {
-	n, _, err := decodeUintReader(&dec.buf, dec.countBuf)
-	if err != nil {
-		dec.err = err
-	}
-	return n
-}
-
-// decodeTypeSequence parses:
-// TypeSequence
-//	(TypeDefinition DelimitedTypeDefinition*)?
-// and returns the type id of the next value.  It returns -1 at
-// EOF.  Upon return, the remainder of dec.buf is the value to be
-// decoded.  If this is an interface value, it can be ignored by
-// simply resetting that buffer.
-func (dec *Decoder) decodeTypeSequence(isInterface bool) typeId {
-	for dec.err == nil {
-		if dec.buf.Len() == 0 {
-			if !dec.recvMessage() {
-				break
-			}
-		}
-		// Receive a type id.
-		id := typeId(dec.nextInt())
-		if id >= 0 {
-			// Value follows.
-			return id
-		}
-		// Type definition for (-id) follows.
-		dec.recvType(-id)
-		// When decoding an interface, after a type there may be a
-		// DelimitedValue still in the buffer.  Skip its count.
-		// (Alternatively, the buffer is empty and the byte count
-		// will be absorbed by recvMessage.)
-		if dec.buf.Len() > 0 {
-			if !isInterface {
-				dec.err = os.NewError("extra data in buffer")
-				break
-			}
-			dec.nextUint()
-		}
-	}
-	return -1
-}
-
-// Decode reads the next value from the connection and stores
-// it in the data represented by the empty interface value.
-// If e is nil, the value will be discarded. Otherwise,
-// the value underlying e must either be the correct type for the next
-// data item received, and must be a pointer.
-func (dec *Decoder) Decode(e interface{}) os.Error {
-	if e == nil {
-		return dec.DecodeValue(reflect.Value{})
-	}
-	value := reflect.ValueOf(e)
-	// If e represents a value as opposed to a pointer, the answer won't
-	// get back to the caller.  Make sure it's a pointer.
-	if value.Type().Kind() != reflect.Ptr {
-		dec.err = os.NewError("gob: attempt to decode into a non-pointer")
-		return dec.err
-	}
-	return dec.DecodeValue(value)
-}
-
-// DecodeValue reads the next value from the connection and stores
-// it in the data represented by the reflection value.
-// The value must be the correct type for the next
-// data item received, or it may be nil, which means the
-// value will be discarded.
-func (dec *Decoder) DecodeValue(value reflect.Value) os.Error {
-	// Make sure we're single-threaded through here.
-	dec.mutex.Lock()
-	defer dec.mutex.Unlock()
-
-	dec.buf.Reset() // In case data lingers from previous invocation.
-	dec.err = nil
-	id := dec.decodeTypeSequence(false)
-	if dec.err == nil {
-		dec.decodeValue(id, value)
-	}
-	return dec.err
-}
-
-// If debug.go is compiled into the program , debugFunc prints a human-readable
-// representation of the gob data read from r by calling that file's Debug function.
-// Otherwise it is nil.
-var debugFunc func(io.Reader)
diff --git a/src/cmd/fix/testdata/reflect.dnsmsg.go.in b/src/cmd/fix/testdata/reflect.dnsmsg.go.in
deleted file mode 100644
index 3d9c312f24..0000000000
--- a/src/cmd/fix/testdata/reflect.dnsmsg.go.in
+++ /dev/null
@@ -1,777 +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.
-
-// DNS packet assembly.  See RFC 1035.
-//
-// This is intended to support name resolution during net.Dial.
-// It doesn't have to be blazing fast.
-//
-// Rather than write the usual handful of routines to pack and
-// unpack every message that can appear on the wire, we use
-// reflection to write a generic pack/unpack for structs and then
-// use it.  Thus, if in the future we need to define new message
-// structs, no new pack/unpack/printing code needs to be written.
-//
-// The first half of this file defines the DNS message formats.
-// The second half implements the conversion to and from wire format.
-// A few of the structure elements have string tags to aid the
-// generic pack/unpack routines.
-//
-// TODO(rsc):  There are enough names defined in this file that they're all
-// prefixed with dns.  Perhaps put this in its own package later.
-
-package net
-
-import (
-	"fmt"
-	"os"
-	"reflect"
-)
-
-// Packet formats
-
-// Wire constants.
-const (
-	// valid dnsRR_Header.Rrtype and dnsQuestion.qtype
-	dnsTypeA     = 1
-	dnsTypeNS    = 2
-	dnsTypeMD    = 3
-	dnsTypeMF    = 4
-	dnsTypeCNAME = 5
-	dnsTypeSOA   = 6
-	dnsTypeMB    = 7
-	dnsTypeMG    = 8
-	dnsTypeMR    = 9
-	dnsTypeNULL  = 10
-	dnsTypeWKS   = 11
-	dnsTypePTR   = 12
-	dnsTypeHINFO = 13
-	dnsTypeMINFO = 14
-	dnsTypeMX    = 15
-	dnsTypeTXT   = 16
-	dnsTypeAAAA  = 28
-	dnsTypeSRV   = 33
-
-	// valid dnsQuestion.qtype only
-	dnsTypeAXFR  = 252
-	dnsTypeMAILB = 253
-	dnsTypeMAILA = 254
-	dnsTypeALL   = 255
-
-	// valid dnsQuestion.qclass
-	dnsClassINET   = 1
-	dnsClassCSNET  = 2
-	dnsClassCHAOS  = 3
-	dnsClassHESIOD = 4
-	dnsClassANY    = 255
-
-	// dnsMsg.rcode
-	dnsRcodeSuccess        = 0
-	dnsRcodeFormatError    = 1
-	dnsRcodeServerFailure  = 2
-	dnsRcodeNameError      = 3
-	dnsRcodeNotImplemented = 4
-	dnsRcodeRefused        = 5
-)
-
-// The wire format for the DNS packet header.
-type dnsHeader struct {
-	Id                                 uint16
-	Bits                               uint16
-	Qdcount, Ancount, Nscount, Arcount uint16
-}
-
-const (
-	// dnsHeader.Bits
-	_QR = 1 << 15 // query/response (response=1)
-	_AA = 1 << 10 // authoritative
-	_TC = 1 << 9  // truncated
-	_RD = 1 << 8  // recursion desired
-	_RA = 1 << 7  // recursion available
-)
-
-// DNS queries.
-type dnsQuestion struct {
-	Name   string "domain-name" // "domain-name" specifies encoding; see packers below
-	Qtype  uint16
-	Qclass uint16
-}
-
-// DNS responses (resource records).
-// There are many types of messages,
-// but they all share the same header.
-type dnsRR_Header struct {
-	Name     string "domain-name"
-	Rrtype   uint16
-	Class    uint16
-	Ttl      uint32
-	Rdlength uint16 // length of data after header
-}
-
-func (h *dnsRR_Header) Header() *dnsRR_Header {
-	return h
-}
-
-type dnsRR interface {
-	Header() *dnsRR_Header
-}
-
-// Specific DNS RR formats for each query type.
-
-type dnsRR_CNAME struct {
-	Hdr   dnsRR_Header
-	Cname string "domain-name"
-}
-
-func (rr *dnsRR_CNAME) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_HINFO struct {
-	Hdr dnsRR_Header
-	Cpu string
-	Os  string
-}
-
-func (rr *dnsRR_HINFO) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_MB struct {
-	Hdr dnsRR_Header
-	Mb  string "domain-name"
-}
-
-func (rr *dnsRR_MB) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_MG struct {
-	Hdr dnsRR_Header
-	Mg  string "domain-name"
-}
-
-func (rr *dnsRR_MG) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_MINFO struct {
-	Hdr   dnsRR_Header
-	Rmail string "domain-name"
-	Email string "domain-name"
-}
-
-func (rr *dnsRR_MINFO) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_MR struct {
-	Hdr dnsRR_Header
-	Mr  string "domain-name"
-}
-
-func (rr *dnsRR_MR) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_MX struct {
-	Hdr  dnsRR_Header
-	Pref uint16
-	Mx   string "domain-name"
-}
-
-func (rr *dnsRR_MX) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_NS struct {
-	Hdr dnsRR_Header
-	Ns  string "domain-name"
-}
-
-func (rr *dnsRR_NS) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_PTR struct {
-	Hdr dnsRR_Header
-	Ptr string "domain-name"
-}
-
-func (rr *dnsRR_PTR) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_SOA struct {
-	Hdr     dnsRR_Header
-	Ns      string "domain-name"
-	Mbox    string "domain-name"
-	Serial  uint32
-	Refresh uint32
-	Retry   uint32
-	Expire  uint32
-	Minttl  uint32
-}
-
-func (rr *dnsRR_SOA) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_TXT struct {
-	Hdr dnsRR_Header
-	Txt string // not domain name
-}
-
-func (rr *dnsRR_TXT) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_SRV struct {
-	Hdr      dnsRR_Header
-	Priority uint16
-	Weight   uint16
-	Port     uint16
-	Target   string "domain-name"
-}
-
-func (rr *dnsRR_SRV) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_A struct {
-	Hdr dnsRR_Header
-	A   uint32 "ipv4"
-}
-
-func (rr *dnsRR_A) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_AAAA struct {
-	Hdr  dnsRR_Header
-	AAAA [16]byte "ipv6"
-}
-
-func (rr *dnsRR_AAAA) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-// Packing and unpacking.
-//
-// All the packers and unpackers take a (msg []byte, off int)
-// and return (off1 int, ok bool).  If they return ok==false, they
-// also return off1==len(msg), so that the next unpacker will
-// also fail.  This lets us avoid checks of ok until the end of a
-// packing sequence.
-
-// Map of constructors for each RR wire type.
-var rr_mk = map[int]func() dnsRR{
-	dnsTypeCNAME: func() dnsRR { return new(dnsRR_CNAME) },
-	dnsTypeHINFO: func() dnsRR { return new(dnsRR_HINFO) },
-	dnsTypeMB:    func() dnsRR { return new(dnsRR_MB) },
-	dnsTypeMG:    func() dnsRR { return new(dnsRR_MG) },
-	dnsTypeMINFO: func() dnsRR { return new(dnsRR_MINFO) },
-	dnsTypeMR:    func() dnsRR { return new(dnsRR_MR) },
-	dnsTypeMX:    func() dnsRR { return new(dnsRR_MX) },
-	dnsTypeNS:    func() dnsRR { return new(dnsRR_NS) },
-	dnsTypePTR:   func() dnsRR { return new(dnsRR_PTR) },
-	dnsTypeSOA:   func() dnsRR { return new(dnsRR_SOA) },
-	dnsTypeTXT:   func() dnsRR { return new(dnsRR_TXT) },
-	dnsTypeSRV:   func() dnsRR { return new(dnsRR_SRV) },
-	dnsTypeA:     func() dnsRR { return new(dnsRR_A) },
-	dnsTypeAAAA:  func() dnsRR { return new(dnsRR_AAAA) },
-}
-
-// Pack a domain name s into msg[off:].
-// Domain names are a sequence of counted strings
-// split at the dots.  They end with a zero-length string.
-func packDomainName(s string, msg []byte, off int) (off1 int, ok bool) {
-	// Add trailing dot to canonicalize name.
-	if n := len(s); n == 0 || s[n-1] != '.' {
-		s += "."
-	}
-
-	// Each dot ends a segment of the name.
-	// We trade each dot byte for a length byte.
-	// There is also a trailing zero.
-	// Check that we have all the space we need.
-	tot := len(s) + 1
-	if off+tot > len(msg) {
-		return len(msg), false
-	}
-
-	// Emit sequence of counted strings, chopping at dots.
-	begin := 0
-	for i := 0; i < len(s); i++ {
-		if s[i] == '.' {
-			if i-begin >= 1<<6 { // top two bits of length must be clear
-				return len(msg), false
-			}
-			msg[off] = byte(i - begin)
-			off++
-			for j := begin; j < i; j++ {
-				msg[off] = s[j]
-				off++
-			}
-			begin = i + 1
-		}
-	}
-	msg[off] = 0
-	off++
-	return off, true
-}
-
-// Unpack a domain name.
-// In addition to the simple sequences of counted strings above,
-// domain names are allowed to refer to strings elsewhere in the
-// packet, to avoid repeating common suffixes when returning
-// many entries in a single domain.  The pointers are marked
-// by a length byte with the top two bits set.  Ignoring those
-// two bits, that byte and the next give a 14 bit offset from msg[0]
-// where we should pick up the trail.
-// Note that if we jump elsewhere in the packet,
-// we return off1 == the offset after the first pointer we found,
-// which is where the next record will start.
-// In theory, the pointers are only allowed to jump backward.
-// We let them jump anywhere and stop jumping after a while.
-func unpackDomainName(msg []byte, off int) (s string, off1 int, ok bool) {
-	s = ""
-	ptr := 0 // number of pointers followed
-Loop:
-	for {
-		if off >= len(msg) {
-			return "", len(msg), false
-		}
-		c := int(msg[off])
-		off++
-		switch c & 0xC0 {
-		case 0x00:
-			if c == 0x00 {
-				// end of name
-				break Loop
-			}
-			// literal string
-			if off+c > len(msg) {
-				return "", len(msg), false
-			}
-			s += string(msg[off:off+c]) + "."
-			off += c
-		case 0xC0:
-			// pointer to somewhere else in msg.
-			// remember location after first ptr,
-			// since that's how many bytes we consumed.
-			// also, don't follow too many pointers --
-			// maybe there's a loop.
-			if off >= len(msg) {
-				return "", len(msg), false
-			}
-			c1 := msg[off]
-			off++
-			if ptr == 0 {
-				off1 = off
-			}
-			if ptr++; ptr > 10 {
-				return "", len(msg), false
-			}
-			off = (c^0xC0)<<8 | int(c1)
-		default:
-			// 0x80 and 0x40 are reserved
-			return "", len(msg), false
-		}
-	}
-	if ptr == 0 {
-		off1 = off
-	}
-	return s, off1, true
-}
-
-// TODO(rsc): Move into generic library?
-// Pack a reflect.StructValue into msg.  Struct members can only be uint16, uint32, string,
-// [n]byte, and other (often anonymous) structs.
-func packStructValue(val *reflect.StructValue, msg []byte, off int) (off1 int, ok bool) {
-	for i := 0; i < val.NumField(); i++ {
-		f := val.Type().(*reflect.StructType).Field(i)
-		switch fv := val.Field(i).(type) {
-		default:
-		BadType:
-			fmt.Fprintf(os.Stderr, "net: dns: unknown packing type %v", f.Type)
-			return len(msg), false
-		case *reflect.StructValue:
-			off, ok = packStructValue(fv, msg, off)
-		case *reflect.UintValue:
-			i := fv.Get()
-			switch fv.Type().Kind() {
-			default:
-				goto BadType
-			case reflect.Uint16:
-				if off+2 > len(msg) {
-					return len(msg), false
-				}
-				msg[off] = byte(i >> 8)
-				msg[off+1] = byte(i)
-				off += 2
-			case reflect.Uint32:
-				if off+4 > len(msg) {
-					return len(msg), false
-				}
-				msg[off] = byte(i >> 24)
-				msg[off+1] = byte(i >> 16)
-				msg[off+2] = byte(i >> 8)
-				msg[off+3] = byte(i)
-				off += 4
-			}
-		case *reflect.ArrayValue:
-			if fv.Type().(*reflect.ArrayType).Elem().Kind() != reflect.Uint8 {
-				goto BadType
-			}
-			n := fv.Len()
-			if off+n > len(msg) {
-				return len(msg), false
-			}
-			reflect.Copy(reflect.NewValue(msg[off:off+n]).(*reflect.SliceValue), fv)
-			off += n
-		case *reflect.StringValue:
-			// There are multiple string encodings.
-			// The tag distinguishes ordinary strings from domain names.
-			s := fv.Get()
-			switch f.Tag {
-			default:
-				fmt.Fprintf(os.Stderr, "net: dns: unknown string tag %v", f.Tag)
-				return len(msg), false
-			case "domain-name":
-				off, ok = packDomainName(s, msg, off)
-				if !ok {
-					return len(msg), false
-				}
-			case "":
-				// Counted string: 1 byte length.
-				if len(s) > 255 || off+1+len(s) > len(msg) {
-					return len(msg), false
-				}
-				msg[off] = byte(len(s))
-				off++
-				off += copy(msg[off:], s)
-			}
-		}
-	}
-	return off, true
-}
-
-func structValue(any interface{}) *reflect.StructValue {
-	return reflect.NewValue(any).(*reflect.PtrValue).Elem().(*reflect.StructValue)
-}
-
-func packStruct(any interface{}, msg []byte, off int) (off1 int, ok bool) {
-	off, ok = packStructValue(structValue(any), msg, off)
-	return off, ok
-}
-
-// TODO(rsc): Move into generic library?
-// Unpack a reflect.StructValue from msg.
-// Same restrictions as packStructValue.
-func unpackStructValue(val *reflect.StructValue, msg []byte, off int) (off1 int, ok bool) {
-	for i := 0; i < val.NumField(); i++ {
-		f := val.Type().(*reflect.StructType).Field(i)
-		switch fv := val.Field(i).(type) {
-		default:
-		BadType:
-			fmt.Fprintf(os.Stderr, "net: dns: unknown packing type %v", f.Type)
-			return len(msg), false
-		case *reflect.StructValue:
-			off, ok = unpackStructValue(fv, msg, off)
-		case *reflect.UintValue:
-			switch fv.Type().Kind() {
-			default:
-				goto BadType
-			case reflect.Uint16:
-				if off+2 > len(msg) {
-					return len(msg), false
-				}
-				i := uint16(msg[off])<<8 | uint16(msg[off+1])
-				fv.Set(uint64(i))
-				off += 2
-			case reflect.Uint32:
-				if off+4 > len(msg) {
-					return len(msg), false
-				}
-				i := uint32(msg[off])<<24 | uint32(msg[off+1])<<16 | uint32(msg[off+2])<<8 | uint32(msg[off+3])
-				fv.Set(uint64(i))
-				off += 4
-			}
-		case *reflect.ArrayValue:
-			if fv.Type().(*reflect.ArrayType).Elem().Kind() != reflect.Uint8 {
-				goto BadType
-			}
-			n := fv.Len()
-			if off+n > len(msg) {
-				return len(msg), false
-			}
-			reflect.Copy(fv, reflect.NewValue(msg[off:off+n]).(*reflect.SliceValue))
-			off += n
-		case *reflect.StringValue:
-			var s string
-			switch f.Tag {
-			default:
-				fmt.Fprintf(os.Stderr, "net: dns: unknown string tag %v", f.Tag)
-				return len(msg), false
-			case "domain-name":
-				s, off, ok = unpackDomainName(msg, off)
-				if !ok {
-					return len(msg), false
-				}
-			case "":
-				if off >= len(msg) || off+1+int(msg[off]) > len(msg) {
-					return len(msg), false
-				}
-				n := int(msg[off])
-				off++
-				b := make([]byte, n)
-				for i := 0; i < n; i++ {
-					b[i] = msg[off+i]
-				}
-				off += n
-				s = string(b)
-			}
-			fv.Set(s)
-		}
-	}
-	return off, true
-}
-
-func unpackStruct(any interface{}, msg []byte, off int) (off1 int, ok bool) {
-	off, ok = unpackStructValue(structValue(any), msg, off)
-	return off, ok
-}
-
-// Generic struct printer.
-// Doesn't care about the string tag "domain-name",
-// but does look for an "ipv4" tag on uint32 variables
-// and the "ipv6" tag on array variables,
-// printing them as IP addresses.
-func printStructValue(val *reflect.StructValue) string {
-	s := "{"
-	for i := 0; i < val.NumField(); i++ {
-		if i > 0 {
-			s += ", "
-		}
-		f := val.Type().(*reflect.StructType).Field(i)
-		if !f.Anonymous {
-			s += f.Name + "="
-		}
-		fval := val.Field(i)
-		if fv, ok := fval.(*reflect.StructValue); ok {
-			s += printStructValue(fv)
-		} else if fv, ok := fval.(*reflect.UintValue); ok && f.Tag == "ipv4" {
-			i := fv.Get()
-			s += IPv4(byte(i>>24), byte(i>>16), byte(i>>8), byte(i)).String()
-		} else if fv, ok := fval.(*reflect.ArrayValue); ok && f.Tag == "ipv6" {
-			i := fv.Interface().([]byte)
-			s += IP(i).String()
-		} else {
-			s += fmt.Sprint(fval.Interface())
-		}
-	}
-	s += "}"
-	return s
-}
-
-func printStruct(any interface{}) string { return printStructValue(structValue(any)) }
-
-// Resource record packer.
-func packRR(rr dnsRR, msg []byte, off int) (off2 int, ok bool) {
-	var off1 int
-	// pack twice, once to find end of header
-	// and again to find end of packet.
-	// a bit inefficient but this doesn't need to be fast.
-	// off1 is end of header
-	// off2 is end of rr
-	off1, ok = packStruct(rr.Header(), msg, off)
-	off2, ok = packStruct(rr, msg, off)
-	if !ok {
-		return len(msg), false
-	}
-	// pack a third time; redo header with correct data length
-	rr.Header().Rdlength = uint16(off2 - off1)
-	packStruct(rr.Header(), msg, off)
-	return off2, true
-}
-
-// Resource record unpacker.
-func unpackRR(msg []byte, off int) (rr dnsRR, off1 int, ok bool) {
-	// unpack just the header, to find the rr type and length
-	var h dnsRR_Header
-	off0 := off
-	if off, ok = unpackStruct(&h, msg, off); !ok {
-		return nil, len(msg), false
-	}
-	end := off + int(h.Rdlength)
-
-	// make an rr of that type and re-unpack.
-	// again inefficient but doesn't need to be fast.
-	mk, known := rr_mk[int(h.Rrtype)]
-	if !known {
-		return &h, end, true
-	}
-	rr = mk()
-	off, ok = unpackStruct(rr, msg, off0)
-	if off != end {
-		return &h, end, true
-	}
-	return rr, off, ok
-}
-
-// Usable representation of a DNS packet.
-
-// A manually-unpacked version of (id, bits).
-// This is in its own struct for easy printing.
-type dnsMsgHdr struct {
-	id                  uint16
-	response            bool
-	opcode              int
-	authoritative       bool
-	truncated           bool
-	recursion_desired   bool
-	recursion_available bool
-	rcode               int
-}
-
-type dnsMsg struct {
-	dnsMsgHdr
-	question []dnsQuestion
-	answer   []dnsRR
-	ns       []dnsRR
-	extra    []dnsRR
-}
-
-func (dns *dnsMsg) Pack() (msg []byte, ok bool) {
-	var dh dnsHeader
-
-	// Convert convenient dnsMsg into wire-like dnsHeader.
-	dh.Id = dns.id
-	dh.Bits = uint16(dns.opcode)<<11 | uint16(dns.rcode)
-	if dns.recursion_available {
-		dh.Bits |= _RA
-	}
-	if dns.recursion_desired {
-		dh.Bits |= _RD
-	}
-	if dns.truncated {
-		dh.Bits |= _TC
-	}
-	if dns.authoritative {
-		dh.Bits |= _AA
-	}
-	if dns.response {
-		dh.Bits |= _QR
-	}
-
-	// Prepare variable sized arrays.
-	question := dns.question
-	answer := dns.answer
-	ns := dns.ns
-	extra := dns.extra
-
-	dh.Qdcount = uint16(len(question))
-	dh.Ancount = uint16(len(answer))
-	dh.Nscount = uint16(len(ns))
-	dh.Arcount = uint16(len(extra))
-
-	// Could work harder to calculate message size,
-	// but this is far more than we need and not
-	// big enough to hurt the allocator.
-	msg = make([]byte, 2000)
-
-	// Pack it in: header and then the pieces.
-	off := 0
-	off, ok = packStruct(&dh, msg, off)
-	for i := 0; i < len(question); i++ {
-		off, ok = packStruct(&question[i], msg, off)
-	}
-	for i := 0; i < len(answer); i++ {
-		off, ok = packRR(answer[i], msg, off)
-	}
-	for i := 0; i < len(ns); i++ {
-		off, ok = packRR(ns[i], msg, off)
-	}
-	for i := 0; i < len(extra); i++ {
-		off, ok = packRR(extra[i], msg, off)
-	}
-	if !ok {
-		return nil, false
-	}
-	return msg[0:off], true
-}
-
-func (dns *dnsMsg) Unpack(msg []byte) bool {
-	// Header.
-	var dh dnsHeader
-	off := 0
-	var ok bool
-	if off, ok = unpackStruct(&dh, msg, off); !ok {
-		return false
-	}
-	dns.id = dh.Id
-	dns.response = (dh.Bits & _QR) != 0
-	dns.opcode = int(dh.Bits>>11) & 0xF
-	dns.authoritative = (dh.Bits & _AA) != 0
-	dns.truncated = (dh.Bits & _TC) != 0
-	dns.recursion_desired = (dh.Bits & _RD) != 0
-	dns.recursion_available = (dh.Bits & _RA) != 0
-	dns.rcode = int(dh.Bits & 0xF)
-
-	// Arrays.
-	dns.question = make([]dnsQuestion, dh.Qdcount)
-	dns.answer = make([]dnsRR, dh.Ancount)
-	dns.ns = make([]dnsRR, dh.Nscount)
-	dns.extra = make([]dnsRR, dh.Arcount)
-
-	for i := 0; i < len(dns.question); i++ {
-		off, ok = unpackStruct(&dns.question[i], msg, off)
-	}
-	for i := 0; i < len(dns.answer); i++ {
-		dns.answer[i], off, ok = unpackRR(msg, off)
-	}
-	for i := 0; i < len(dns.ns); i++ {
-		dns.ns[i], off, ok = unpackRR(msg, off)
-	}
-	for i := 0; i < len(dns.extra); i++ {
-		dns.extra[i], off, ok = unpackRR(msg, off)
-	}
-	if !ok {
-		return false
-	}
-	//	if off != len(msg) {
-	//		println("extra bytes in dns packet", off, "<", len(msg));
-	//	}
-	return true
-}
-
-func (dns *dnsMsg) String() string {
-	s := "DNS: " + printStruct(&dns.dnsMsgHdr) + "\n"
-	if len(dns.question) > 0 {
-		s += "-- Questions\n"
-		for i := 0; i < len(dns.question); i++ {
-			s += printStruct(&dns.question[i]) + "\n"
-		}
-	}
-	if len(dns.answer) > 0 {
-		s += "-- Answers\n"
-		for i := 0; i < len(dns.answer); i++ {
-			s += printStruct(dns.answer[i]) + "\n"
-		}
-	}
-	if len(dns.ns) > 0 {
-		s += "-- Name servers\n"
-		for i := 0; i < len(dns.ns); i++ {
-			s += printStruct(dns.ns[i]) + "\n"
-		}
-	}
-	if len(dns.extra) > 0 {
-		s += "-- Extra\n"
-		for i := 0; i < len(dns.extra); i++ {
-			s += printStruct(dns.extra[i]) + "\n"
-		}
-	}
-	return s
-}
diff --git a/src/cmd/fix/testdata/reflect.dnsmsg.go.out b/src/cmd/fix/testdata/reflect.dnsmsg.go.out
deleted file mode 100644
index c777fe27cb..0000000000
--- a/src/cmd/fix/testdata/reflect.dnsmsg.go.out
+++ /dev/null
@@ -1,777 +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.
-
-// DNS packet assembly.  See RFC 1035.
-//
-// This is intended to support name resolution during net.Dial.
-// It doesn't have to be blazing fast.
-//
-// Rather than write the usual handful of routines to pack and
-// unpack every message that can appear on the wire, we use
-// reflection to write a generic pack/unpack for structs and then
-// use it.  Thus, if in the future we need to define new message
-// structs, no new pack/unpack/printing code needs to be written.
-//
-// The first half of this file defines the DNS message formats.
-// The second half implements the conversion to and from wire format.
-// A few of the structure elements have string tags to aid the
-// generic pack/unpack routines.
-//
-// TODO(rsc):  There are enough names defined in this file that they're all
-// prefixed with dns.  Perhaps put this in its own package later.
-
-package net
-
-import (
-	"fmt"
-	"os"
-	"reflect"
-)
-
-// Packet formats
-
-// Wire constants.
-const (
-	// valid dnsRR_Header.Rrtype and dnsQuestion.qtype
-	dnsTypeA     = 1
-	dnsTypeNS    = 2
-	dnsTypeMD    = 3
-	dnsTypeMF    = 4
-	dnsTypeCNAME = 5
-	dnsTypeSOA   = 6
-	dnsTypeMB    = 7
-	dnsTypeMG    = 8
-	dnsTypeMR    = 9
-	dnsTypeNULL  = 10
-	dnsTypeWKS   = 11
-	dnsTypePTR   = 12
-	dnsTypeHINFO = 13
-	dnsTypeMINFO = 14
-	dnsTypeMX    = 15
-	dnsTypeTXT   = 16
-	dnsTypeAAAA  = 28
-	dnsTypeSRV   = 33
-
-	// valid dnsQuestion.qtype only
-	dnsTypeAXFR  = 252
-	dnsTypeMAILB = 253
-	dnsTypeMAILA = 254
-	dnsTypeALL   = 255
-
-	// valid dnsQuestion.qclass
-	dnsClassINET   = 1
-	dnsClassCSNET  = 2
-	dnsClassCHAOS  = 3
-	dnsClassHESIOD = 4
-	dnsClassANY    = 255
-
-	// dnsMsg.rcode
-	dnsRcodeSuccess        = 0
-	dnsRcodeFormatError    = 1
-	dnsRcodeServerFailure  = 2
-	dnsRcodeNameError      = 3
-	dnsRcodeNotImplemented = 4
-	dnsRcodeRefused        = 5
-)
-
-// The wire format for the DNS packet header.
-type dnsHeader struct {
-	Id                                 uint16
-	Bits                               uint16
-	Qdcount, Ancount, Nscount, Arcount uint16
-}
-
-const (
-	// dnsHeader.Bits
-	_QR = 1 << 15 // query/response (response=1)
-	_AA = 1 << 10 // authoritative
-	_TC = 1 << 9  // truncated
-	_RD = 1 << 8  // recursion desired
-	_RA = 1 << 7  // recursion available
-)
-
-// DNS queries.
-type dnsQuestion struct {
-	Name   string "domain-name" // "domain-name" specifies encoding; see packers below
-	Qtype  uint16
-	Qclass uint16
-}
-
-// DNS responses (resource records).
-// There are many types of messages,
-// but they all share the same header.
-type dnsRR_Header struct {
-	Name     string "domain-name"
-	Rrtype   uint16
-	Class    uint16
-	Ttl      uint32
-	Rdlength uint16 // length of data after header
-}
-
-func (h *dnsRR_Header) Header() *dnsRR_Header {
-	return h
-}
-
-type dnsRR interface {
-	Header() *dnsRR_Header
-}
-
-// Specific DNS RR formats for each query type.
-
-type dnsRR_CNAME struct {
-	Hdr   dnsRR_Header
-	Cname string "domain-name"
-}
-
-func (rr *dnsRR_CNAME) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_HINFO struct {
-	Hdr dnsRR_Header
-	Cpu string
-	Os  string
-}
-
-func (rr *dnsRR_HINFO) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_MB struct {
-	Hdr dnsRR_Header
-	Mb  string "domain-name"
-}
-
-func (rr *dnsRR_MB) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_MG struct {
-	Hdr dnsRR_Header
-	Mg  string "domain-name"
-}
-
-func (rr *dnsRR_MG) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_MINFO struct {
-	Hdr   dnsRR_Header
-	Rmail string "domain-name"
-	Email string "domain-name"
-}
-
-func (rr *dnsRR_MINFO) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_MR struct {
-	Hdr dnsRR_Header
-	Mr  string "domain-name"
-}
-
-func (rr *dnsRR_MR) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_MX struct {
-	Hdr  dnsRR_Header
-	Pref uint16
-	Mx   string "domain-name"
-}
-
-func (rr *dnsRR_MX) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_NS struct {
-	Hdr dnsRR_Header
-	Ns  string "domain-name"
-}
-
-func (rr *dnsRR_NS) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_PTR struct {
-	Hdr dnsRR_Header
-	Ptr string "domain-name"
-}
-
-func (rr *dnsRR_PTR) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_SOA struct {
-	Hdr     dnsRR_Header
-	Ns      string "domain-name"
-	Mbox    string "domain-name"
-	Serial  uint32
-	Refresh uint32
-	Retry   uint32
-	Expire  uint32
-	Minttl  uint32
-}
-
-func (rr *dnsRR_SOA) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_TXT struct {
-	Hdr dnsRR_Header
-	Txt string // not domain name
-}
-
-func (rr *dnsRR_TXT) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_SRV struct {
-	Hdr      dnsRR_Header
-	Priority uint16
-	Weight   uint16
-	Port     uint16
-	Target   string "domain-name"
-}
-
-func (rr *dnsRR_SRV) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_A struct {
-	Hdr dnsRR_Header
-	A   uint32 "ipv4"
-}
-
-func (rr *dnsRR_A) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-type dnsRR_AAAA struct {
-	Hdr  dnsRR_Header
-	AAAA [16]byte "ipv6"
-}
-
-func (rr *dnsRR_AAAA) Header() *dnsRR_Header {
-	return &rr.Hdr
-}
-
-// Packing and unpacking.
-//
-// All the packers and unpackers take a (msg []byte, off int)
-// and return (off1 int, ok bool).  If they return ok==false, they
-// also return off1==len(msg), so that the next unpacker will
-// also fail.  This lets us avoid checks of ok until the end of a
-// packing sequence.
-
-// Map of constructors for each RR wire type.
-var rr_mk = map[int]func() dnsRR{
-	dnsTypeCNAME: func() dnsRR { return new(dnsRR_CNAME) },
-	dnsTypeHINFO: func() dnsRR { return new(dnsRR_HINFO) },
-	dnsTypeMB:    func() dnsRR { return new(dnsRR_MB) },
-	dnsTypeMG:    func() dnsRR { return new(dnsRR_MG) },
-	dnsTypeMINFO: func() dnsRR { return new(dnsRR_MINFO) },
-	dnsTypeMR:    func() dnsRR { return new(dnsRR_MR) },
-	dnsTypeMX:    func() dnsRR { return new(dnsRR_MX) },
-	dnsTypeNS:    func() dnsRR { return new(dnsRR_NS) },
-	dnsTypePTR:   func() dnsRR { return new(dnsRR_PTR) },
-	dnsTypeSOA:   func() dnsRR { return new(dnsRR_SOA) },
-	dnsTypeTXT:   func() dnsRR { return new(dnsRR_TXT) },
-	dnsTypeSRV:   func() dnsRR { return new(dnsRR_SRV) },
-	dnsTypeA:     func() dnsRR { return new(dnsRR_A) },
-	dnsTypeAAAA:  func() dnsRR { return new(dnsRR_AAAA) },
-}
-
-// Pack a domain name s into msg[off:].
-// Domain names are a sequence of counted strings
-// split at the dots.  They end with a zero-length string.
-func packDomainName(s string, msg []byte, off int) (off1 int, ok bool) {
-	// Add trailing dot to canonicalize name.
-	if n := len(s); n == 0 || s[n-1] != '.' {
-		s += "."
-	}
-
-	// Each dot ends a segment of the name.
-	// We trade each dot byte for a length byte.
-	// There is also a trailing zero.
-	// Check that we have all the space we need.
-	tot := len(s) + 1
-	if off+tot > len(msg) {
-		return len(msg), false
-	}
-
-	// Emit sequence of counted strings, chopping at dots.
-	begin := 0
-	for i := 0; i < len(s); i++ {
-		if s[i] == '.' {
-			if i-begin >= 1<<6 { // top two bits of length must be clear
-				return len(msg), false
-			}
-			msg[off] = byte(i - begin)
-			off++
-			for j := begin; j < i; j++ {
-				msg[off] = s[j]
-				off++
-			}
-			begin = i + 1
-		}
-	}
-	msg[off] = 0
-	off++
-	return off, true
-}
-
-// Unpack a domain name.
-// In addition to the simple sequences of counted strings above,
-// domain names are allowed to refer to strings elsewhere in the
-// packet, to avoid repeating common suffixes when returning
-// many entries in a single domain.  The pointers are marked
-// by a length byte with the top two bits set.  Ignoring those
-// two bits, that byte and the next give a 14 bit offset from msg[0]
-// where we should pick up the trail.
-// Note that if we jump elsewhere in the packet,
-// we return off1 == the offset after the first pointer we found,
-// which is where the next record will start.
-// In theory, the pointers are only allowed to jump backward.
-// We let them jump anywhere and stop jumping after a while.
-func unpackDomainName(msg []byte, off int) (s string, off1 int, ok bool) {
-	s = ""
-	ptr := 0 // number of pointers followed
-Loop:
-	for {
-		if off >= len(msg) {
-			return "", len(msg), false
-		}
-		c := int(msg[off])
-		off++
-		switch c & 0xC0 {
-		case 0x00:
-			if c == 0x00 {
-				// end of name
-				break Loop
-			}
-			// literal string
-			if off+c > len(msg) {
-				return "", len(msg), false
-			}
-			s += string(msg[off:off+c]) + "."
-			off += c
-		case 0xC0:
-			// pointer to somewhere else in msg.
-			// remember location after first ptr,
-			// since that's how many bytes we consumed.
-			// also, don't follow too many pointers --
-			// maybe there's a loop.
-			if off >= len(msg) {
-				return "", len(msg), false
-			}
-			c1 := msg[off]
-			off++
-			if ptr == 0 {
-				off1 = off
-			}
-			if ptr++; ptr > 10 {
-				return "", len(msg), false
-			}
-			off = (c^0xC0)<<8 | int(c1)
-		default:
-			// 0x80 and 0x40 are reserved
-			return "", len(msg), false
-		}
-	}
-	if ptr == 0 {
-		off1 = off
-	}
-	return s, off1, true
-}
-
-// TODO(rsc): Move into generic library?
-// Pack a reflect.StructValue into msg.  Struct members can only be uint16, uint32, string,
-// [n]byte, and other (often anonymous) structs.
-func packStructValue(val reflect.Value, msg []byte, off int) (off1 int, ok bool) {
-	for i := 0; i < val.NumField(); i++ {
-		f := val.Type().Field(i)
-		switch fv := val.Field(i); fv.Kind() {
-		default:
-		BadType:
-			fmt.Fprintf(os.Stderr, "net: dns: unknown packing type %v", f.Type)
-			return len(msg), false
-		case reflect.Struct:
-			off, ok = packStructValue(fv, msg, off)
-		case reflect.Uint, reflect.Uint8, reflect.Uint16, reflect.Uint32, reflect.Uint64, reflect.Uintptr:
-			i := fv.Uint()
-			switch fv.Type().Kind() {
-			default:
-				goto BadType
-			case reflect.Uint16:
-				if off+2 > len(msg) {
-					return len(msg), false
-				}
-				msg[off] = byte(i >> 8)
-				msg[off+1] = byte(i)
-				off += 2
-			case reflect.Uint32:
-				if off+4 > len(msg) {
-					return len(msg), false
-				}
-				msg[off] = byte(i >> 24)
-				msg[off+1] = byte(i >> 16)
-				msg[off+2] = byte(i >> 8)
-				msg[off+3] = byte(i)
-				off += 4
-			}
-		case reflect.Array:
-			if fv.Type().Elem().Kind() != reflect.Uint8 {
-				goto BadType
-			}
-			n := fv.Len()
-			if off+n > len(msg) {
-				return len(msg), false
-			}
-			reflect.Copy(reflect.ValueOf(msg[off:off+n]), fv)
-			off += n
-		case reflect.String:
-			// There are multiple string encodings.
-			// The tag distinguishes ordinary strings from domain names.
-			s := fv.String()
-			switch f.Tag {
-			default:
-				fmt.Fprintf(os.Stderr, "net: dns: unknown string tag %v", f.Tag)
-				return len(msg), false
-			case "domain-name":
-				off, ok = packDomainName(s, msg, off)
-				if !ok {
-					return len(msg), false
-				}
-			case "":
-				// Counted string: 1 byte length.
-				if len(s) > 255 || off+1+len(s) > len(msg) {
-					return len(msg), false
-				}
-				msg[off] = byte(len(s))
-				off++
-				off += copy(msg[off:], s)
-			}
-		}
-	}
-	return off, true
-}
-
-func structValue(any interface{}) reflect.Value {
-	return reflect.ValueOf(any).Elem()
-}
-
-func packStruct(any interface{}, msg []byte, off int) (off1 int, ok bool) {
-	off, ok = packStructValue(structValue(any), msg, off)
-	return off, ok
-}
-
-// TODO(rsc): Move into generic library?
-// Unpack a reflect.StructValue from msg.
-// Same restrictions as packStructValue.
-func unpackStructValue(val reflect.Value, msg []byte, off int) (off1 int, ok bool) {
-	for i := 0; i < val.NumField(); i++ {
-		f := val.Type().Field(i)
-		switch fv := val.Field(i); fv.Kind() {
-		default:
-		BadType:
-			fmt.Fprintf(os.Stderr, "net: dns: unknown packing type %v", f.Type)
-			return len(msg), false
-		case reflect.Struct:
-			off, ok = unpackStructValue(fv, msg, off)
-		case reflect.Uint, reflect.Uint8, reflect.Uint16, reflect.Uint32, reflect.Uint64, reflect.Uintptr:
-			switch fv.Type().Kind() {
-			default:
-				goto BadType
-			case reflect.Uint16:
-				if off+2 > len(msg) {
-					return len(msg), false
-				}
-				i := uint16(msg[off])<<8 | uint16(msg[off+1])
-				fv.SetUint(uint64(i))
-				off += 2
-			case reflect.Uint32:
-				if off+4 > len(msg) {
-					return len(msg), false
-				}
-				i := uint32(msg[off])<<24 | uint32(msg[off+1])<<16 | uint32(msg[off+2])<<8 | uint32(msg[off+3])
-				fv.SetUint(uint64(i))
-				off += 4
-			}
-		case reflect.Array:
-			if fv.Type().Elem().Kind() != reflect.Uint8 {
-				goto BadType
-			}
-			n := fv.Len()
-			if off+n > len(msg) {
-				return len(msg), false
-			}
-			reflect.Copy(fv, reflect.ValueOf(msg[off:off+n]))
-			off += n
-		case reflect.String:
-			var s string
-			switch f.Tag {
-			default:
-				fmt.Fprintf(os.Stderr, "net: dns: unknown string tag %v", f.Tag)
-				return len(msg), false
-			case "domain-name":
-				s, off, ok = unpackDomainName(msg, off)
-				if !ok {
-					return len(msg), false
-				}
-			case "":
-				if off >= len(msg) || off+1+int(msg[off]) > len(msg) {
-					return len(msg), false
-				}
-				n := int(msg[off])
-				off++
-				b := make([]byte, n)
-				for i := 0; i < n; i++ {
-					b[i] = msg[off+i]
-				}
-				off += n
-				s = string(b)
-			}
-			fv.SetString(s)
-		}
-	}
-	return off, true
-}
-
-func unpackStruct(any interface{}, msg []byte, off int) (off1 int, ok bool) {
-	off, ok = unpackStructValue(structValue(any), msg, off)
-	return off, ok
-}
-
-// Generic struct printer.
-// Doesn't care about the string tag "domain-name",
-// but does look for an "ipv4" tag on uint32 variables
-// and the "ipv6" tag on array variables,
-// printing them as IP addresses.
-func printStructValue(val reflect.Value) string {
-	s := "{"
-	for i := 0; i < val.NumField(); i++ {
-		if i > 0 {
-			s += ", "
-		}
-		f := val.Type().Field(i)
-		if !f.Anonymous {
-			s += f.Name + "="
-		}
-		fval := val.Field(i)
-		if fv := fval; fv.Kind() == reflect.Struct {
-			s += printStructValue(fv)
-		} else if fv := fval; (fv.Kind() == reflect.Uint || fv.Kind() == reflect.Uint8 || fv.Kind() == reflect.Uint16 || fv.Kind() == reflect.Uint32 || fv.Kind() == reflect.Uint64 || fv.Kind() == reflect.Uintptr) && f.Tag == "ipv4" {
-			i := fv.Uint()
-			s += IPv4(byte(i>>24), byte(i>>16), byte(i>>8), byte(i)).String()
-		} else if fv := fval; fv.Kind() == reflect.Array && f.Tag == "ipv6" {
-			i := fv.Interface().([]byte)
-			s += IP(i).String()
-		} else {
-			s += fmt.Sprint(fval.Interface())
-		}
-	}
-	s += "}"
-	return s
-}
-
-func printStruct(any interface{}) string { return printStructValue(structValue(any)) }
-
-// Resource record packer.
-func packRR(rr dnsRR, msg []byte, off int) (off2 int, ok bool) {
-	var off1 int
-	// pack twice, once to find end of header
-	// and again to find end of packet.
-	// a bit inefficient but this doesn't need to be fast.
-	// off1 is end of header
-	// off2 is end of rr
-	off1, ok = packStruct(rr.Header(), msg, off)
-	off2, ok = packStruct(rr, msg, off)
-	if !ok {
-		return len(msg), false
-	}
-	// pack a third time; redo header with correct data length
-	rr.Header().Rdlength = uint16(off2 - off1)
-	packStruct(rr.Header(), msg, off)
-	return off2, true
-}
-
-// Resource record unpacker.
-func unpackRR(msg []byte, off int) (rr dnsRR, off1 int, ok bool) {
-	// unpack just the header, to find the rr type and length
-	var h dnsRR_Header
-	off0 := off
-	if off, ok = unpackStruct(&h, msg, off); !ok {
-		return nil, len(msg), false
-	}
-	end := off + int(h.Rdlength)
-
-	// make an rr of that type and re-unpack.
-	// again inefficient but doesn't need to be fast.
-	mk, known := rr_mk[int(h.Rrtype)]
-	if !known {
-		return &h, end, true
-	}
-	rr = mk()
-	off, ok = unpackStruct(rr, msg, off0)
-	if off != end {
-		return &h, end, true
-	}
-	return rr, off, ok
-}
-
-// Usable representation of a DNS packet.
-
-// A manually-unpacked version of (id, bits).
-// This is in its own struct for easy printing.
-type dnsMsgHdr struct {
-	id                  uint16
-	response            bool
-	opcode              int
-	authoritative       bool
-	truncated           bool
-	recursion_desired   bool
-	recursion_available bool
-	rcode               int
-}
-
-type dnsMsg struct {
-	dnsMsgHdr
-	question []dnsQuestion
-	answer   []dnsRR
-	ns       []dnsRR
-	extra    []dnsRR
-}
-
-func (dns *dnsMsg) Pack() (msg []byte, ok bool) {
-	var dh dnsHeader
-
-	// Convert convenient dnsMsg into wire-like dnsHeader.
-	dh.Id = dns.id
-	dh.Bits = uint16(dns.opcode)<<11 | uint16(dns.rcode)
-	if dns.recursion_available {
-		dh.Bits |= _RA
-	}
-	if dns.recursion_desired {
-		dh.Bits |= _RD
-	}
-	if dns.truncated {
-		dh.Bits |= _TC
-	}
-	if dns.authoritative {
-		dh.Bits |= _AA
-	}
-	if dns.response {
-		dh.Bits |= _QR
-	}
-
-	// Prepare variable sized arrays.
-	question := dns.question
-	answer := dns.answer
-	ns := dns.ns
-	extra := dns.extra
-
-	dh.Qdcount = uint16(len(question))
-	dh.Ancount = uint16(len(answer))
-	dh.Nscount = uint16(len(ns))
-	dh.Arcount = uint16(len(extra))
-
-	// Could work harder to calculate message size,
-	// but this is far more than we need and not
-	// big enough to hurt the allocator.
-	msg = make([]byte, 2000)
-
-	// Pack it in: header and then the pieces.
-	off := 0
-	off, ok = packStruct(&dh, msg, off)
-	for i := 0; i < len(question); i++ {
-		off, ok = packStruct(&question[i], msg, off)
-	}
-	for i := 0; i < len(answer); i++ {
-		off, ok = packRR(answer[i], msg, off)
-	}
-	for i := 0; i < len(ns); i++ {
-		off, ok = packRR(ns[i], msg, off)
-	}
-	for i := 0; i < len(extra); i++ {
-		off, ok = packRR(extra[i], msg, off)
-	}
-	if !ok {
-		return nil, false
-	}
-	return msg[0:off], true
-}
-
-func (dns *dnsMsg) Unpack(msg []byte) bool {
-	// Header.
-	var dh dnsHeader
-	off := 0
-	var ok bool
-	if off, ok = unpackStruct(&dh, msg, off); !ok {
-		return false
-	}
-	dns.id = dh.Id
-	dns.response = (dh.Bits & _QR) != 0
-	dns.opcode = int(dh.Bits>>11) & 0xF
-	dns.authoritative = (dh.Bits & _AA) != 0
-	dns.truncated = (dh.Bits & _TC) != 0
-	dns.recursion_desired = (dh.Bits & _RD) != 0
-	dns.recursion_available = (dh.Bits & _RA) != 0
-	dns.rcode = int(dh.Bits & 0xF)
-
-	// Arrays.
-	dns.question = make([]dnsQuestion, dh.Qdcount)
-	dns.answer = make([]dnsRR, dh.Ancount)
-	dns.ns = make([]dnsRR, dh.Nscount)
-	dns.extra = make([]dnsRR, dh.Arcount)
-
-	for i := 0; i < len(dns.question); i++ {
-		off, ok = unpackStruct(&dns.question[i], msg, off)
-	}
-	for i := 0; i < len(dns.answer); i++ {
-		dns.answer[i], off, ok = unpackRR(msg, off)
-	}
-	for i := 0; i < len(dns.ns); i++ {
-		dns.ns[i], off, ok = unpackRR(msg, off)
-	}
-	for i := 0; i < len(dns.extra); i++ {
-		dns.extra[i], off, ok = unpackRR(msg, off)
-	}
-	if !ok {
-		return false
-	}
-	//	if off != len(msg) {
-	//		println("extra bytes in dns packet", off, "<", len(msg));
-	//	}
-	return true
-}
-
-func (dns *dnsMsg) String() string {
-	s := "DNS: " + printStruct(&dns.dnsMsgHdr) + "\n"
-	if len(dns.question) > 0 {
-		s += "-- Questions\n"
-		for i := 0; i < len(dns.question); i++ {
-			s += printStruct(&dns.question[i]) + "\n"
-		}
-	}
-	if len(dns.answer) > 0 {
-		s += "-- Answers\n"
-		for i := 0; i < len(dns.answer); i++ {
-			s += printStruct(dns.answer[i]) + "\n"
-		}
-	}
-	if len(dns.ns) > 0 {
-		s += "-- Name servers\n"
-		for i := 0; i < len(dns.ns); i++ {
-			s += printStruct(dns.ns[i]) + "\n"
-		}
-	}
-	if len(dns.extra) > 0 {
-		s += "-- Extra\n"
-		for i := 0; i < len(dns.extra); i++ {
-			s += printStruct(dns.extra[i]) + "\n"
-		}
-	}
-	return s
-}
diff --git a/src/cmd/fix/testdata/reflect.encode.go.in b/src/cmd/fix/testdata/reflect.encode.go.in
deleted file mode 100644
index 26ce47039f..0000000000
--- a/src/cmd/fix/testdata/reflect.encode.go.in
+++ /dev/null
@@ -1,367 +0,0 @@
-// Copyright 2010 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.
-
-// The json package implements encoding and decoding of JSON objects as
-// defined in RFC 4627.
-package json
-
-import (
-	"bytes"
-	"encoding/base64"
-	"os"
-	"reflect"
-	"runtime"
-	"sort"
-	"strconv"
-	"unicode"
-	"utf8"
-)
-
-// Marshal returns the JSON encoding of v.
-//
-// Marshal traverses the value v recursively.
-// If an encountered value implements the Marshaler interface,
-// Marshal calls its MarshalJSON method to produce JSON.
-//
-// Otherwise, Marshal uses the following type-dependent default encodings:
-//
-// Boolean values encode as JSON booleans.
-//
-// Floating point and integer values encode as JSON numbers.
-//
-// String values encode as JSON strings, with each invalid UTF-8 sequence
-// replaced by the encoding of the Unicode replacement character U+FFFD.
-//
-// Array and slice values encode as JSON arrays, except that
-// []byte encodes as a base64-encoded string.
-//
-// Struct values encode as JSON objects.  Each struct field becomes
-// a member of the object.  By default the object's key name is the
-// struct field name.  If the struct field has a non-empty tag consisting
-// of only Unicode letters, digits, and underscores, that tag will be used
-// as the name instead.  Only exported fields will be encoded.
-//
-// Map values encode as JSON objects.
-// The map's key type must be string; the object keys are used directly
-// as map keys.
-//
-// Pointer values encode as the value pointed to.
-// A nil pointer encodes as the null JSON object.
-//
-// Interface values encode as the value contained in the interface.
-// A nil interface value encodes as the null JSON object.
-//
-// Channel, complex, and function values cannot be encoded in JSON.
-// Attempting to encode such a value causes Marshal to return
-// an InvalidTypeError.
-//
-// JSON cannot represent cyclic data structures and Marshal does not
-// handle them.  Passing cyclic structures to Marshal will result in
-// an infinite recursion.
-//
-func Marshal(v interface{}) ([]byte, os.Error) {
-	e := &encodeState{}
-	err := e.marshal(v)
-	if err != nil {
-		return nil, err
-	}
-	return e.Bytes(), nil
-}
-
-// MarshalIndent is like Marshal but applies Indent to format the output.
-func MarshalIndent(v interface{}, prefix, indent string) ([]byte, os.Error) {
-	b, err := Marshal(v)
-	if err != nil {
-		return nil, err
-	}
-	var buf bytes.Buffer
-	err = Indent(&buf, b, prefix, indent)
-	if err != nil {
-		return nil, err
-	}
-	return buf.Bytes(), nil
-}
-
-// MarshalForHTML is like Marshal but applies HTMLEscape to the output.
-func MarshalForHTML(v interface{}) ([]byte, os.Error) {
-	b, err := Marshal(v)
-	if err != nil {
-		return nil, err
-	}
-	var buf bytes.Buffer
-	HTMLEscape(&buf, b)
-	return buf.Bytes(), nil
-}
-
-// HTMLEscape appends to dst the JSON-encoded src with <, >, and &
-// characters inside string literals changed to \u003c, \u003e, \u0026
-// so that the JSON will be safe to embed inside HTML <script> tags.
-// For historical reasons, web browsers don't honor standard HTML
-// escaping within <script> tags, so an alternative JSON encoding must
-// be used.
-func HTMLEscape(dst *bytes.Buffer, src []byte) {
-	// < > & can only appear in string literals,
-	// so just scan the string one byte at a time.
-	start := 0
-	for i, c := range src {
-		if c == '<' || c == '>' || c == '&' {
-			if start < i {
-				dst.Write(src[start:i])
-			}
-			dst.WriteString(`\u00`)
-			dst.WriteByte(hex[c>>4])
-			dst.WriteByte(hex[c&0xF])
-			start = i + 1
-		}
-	}
-	if start < len(src) {
-		dst.Write(src[start:])
-	}
-}
-
-// Marshaler is the interface implemented by objects that
-// can marshal themselves into valid JSON.
-type Marshaler interface {
-	MarshalJSON() ([]byte, os.Error)
-}
-
-type UnsupportedTypeError struct {
-	Type reflect.Type
-}
-
-func (e *UnsupportedTypeError) String() string {
-	return "json: unsupported type: " + e.Type.String()
-}
-
-type InvalidUTF8Error struct {
-	S string
-}
-
-func (e *InvalidUTF8Error) String() string {
-	return "json: invalid UTF-8 in string: " + strconv.Quote(e.S)
-}
-
-type MarshalerError struct {
-	Type  reflect.Type
-	Error os.Error
-}
-
-func (e *MarshalerError) String() string {
-	return "json: error calling MarshalJSON for type " + e.Type.String() + ": " + e.Error.String()
-}
-
-type interfaceOrPtrValue interface {
-	IsNil() bool
-	Elem() reflect.Value
-}
-
-var hex = "0123456789abcdef"
-
-// An encodeState encodes JSON into a bytes.Buffer.
-type encodeState struct {
-	bytes.Buffer // accumulated output
-}
-
-func (e *encodeState) marshal(v interface{}) (err os.Error) {
-	defer func() {
-		if r := recover(); r != nil {
-			if _, ok := r.(runtime.Error); ok {
-				panic(r)
-			}
-			err = r.(os.Error)
-		}
-	}()
-	e.reflectValue(reflect.NewValue(v))
-	return nil
-}
-
-func (e *encodeState) error(err os.Error) {
-	panic(err)
-}
-
-var byteSliceType = reflect.Typeof([]byte(nil))
-
-func (e *encodeState) reflectValue(v reflect.Value) {
-	if v == nil {
-		e.WriteString("null")
-		return
-	}
-
-	if j, ok := v.Interface().(Marshaler); ok {
-		b, err := j.MarshalJSON()
-		if err == nil {
-			// copy JSON into buffer, checking validity.
-			err = Compact(&e.Buffer, b)
-		}
-		if err != nil {
-			e.error(&MarshalerError{v.Type(), err})
-		}
-		return
-	}
-
-	switch v := v.(type) {
-	case *reflect.BoolValue:
-		x := v.Get()
-		if x {
-			e.WriteString("true")
-		} else {
-			e.WriteString("false")
-		}
-
-	case *reflect.IntValue:
-		e.WriteString(strconv.Itoa64(v.Get()))
-
-	case *reflect.UintValue:
-		e.WriteString(strconv.Uitoa64(v.Get()))
-
-	case *reflect.FloatValue:
-		e.WriteString(strconv.FtoaN(v.Get(), 'g', -1, v.Type().Bits()))
-
-	case *reflect.StringValue:
-		e.string(v.Get())
-
-	case *reflect.StructValue:
-		e.WriteByte('{')
-		t := v.Type().(*reflect.StructType)
-		n := v.NumField()
-		first := true
-		for i := 0; i < n; i++ {
-			f := t.Field(i)
-			if f.PkgPath != "" {
-				continue
-			}
-			if first {
-				first = false
-			} else {
-				e.WriteByte(',')
-			}
-			if isValidTag(f.Tag) {
-				e.string(f.Tag)
-			} else {
-				e.string(f.Name)
-			}
-			e.WriteByte(':')
-			e.reflectValue(v.Field(i))
-		}
-		e.WriteByte('}')
-
-	case *reflect.MapValue:
-		if _, ok := v.Type().(*reflect.MapType).Key().(*reflect.StringType); !ok {
-			e.error(&UnsupportedTypeError{v.Type()})
-		}
-		if v.IsNil() {
-			e.WriteString("null")
-			break
-		}
-		e.WriteByte('{')
-		var sv stringValues = v.Keys()
-		sort.Sort(sv)
-		for i, k := range sv {
-			if i > 0 {
-				e.WriteByte(',')
-			}
-			e.string(k.(*reflect.StringValue).Get())
-			e.WriteByte(':')
-			e.reflectValue(v.Elem(k))
-		}
-		e.WriteByte('}')
-
-	case reflect.ArrayOrSliceValue:
-		if v.Type() == byteSliceType {
-			e.WriteByte('"')
-			s := v.Interface().([]byte)
-			if len(s) < 1024 {
-				// for small buffers, using Encode directly is much faster.
-				dst := make([]byte, base64.StdEncoding.EncodedLen(len(s)))
-				base64.StdEncoding.Encode(dst, s)
-				e.Write(dst)
-			} else {
-				// for large buffers, avoid unnecessary extra temporary
-				// buffer space.
-				enc := base64.NewEncoder(base64.StdEncoding, e)
-				enc.Write(s)
-				enc.Close()
-			}
-			e.WriteByte('"')
-			break
-		}
-		e.WriteByte('[')
-		n := v.Len()
-		for i := 0; i < n; i++ {
-			if i > 0 {
-				e.WriteByte(',')
-			}
-			e.reflectValue(v.Elem(i))
-		}
-		e.WriteByte(']')
-
-	case interfaceOrPtrValue:
-		if v.IsNil() {
-			e.WriteString("null")
-			return
-		}
-		e.reflectValue(v.Elem())
-
-	default:
-		e.error(&UnsupportedTypeError{v.Type()})
-	}
-	return
-}
-
-func isValidTag(s string) bool {
-	if s == "" {
-		return false
-	}
-	for _, c := range s {
-		if c != '_' && !unicode.IsLetter(c) && !unicode.IsDigit(c) {
-			return false
-		}
-	}
-	return true
-}
-
-// stringValues is a slice of reflect.Value holding *reflect.StringValue.
-// It implements the methods to sort by string.
-type stringValues []reflect.Value
-
-func (sv stringValues) Len() int           { return len(sv) }
-func (sv stringValues) Swap(i, j int)      { sv[i], sv[j] = sv[j], sv[i] }
-func (sv stringValues) Less(i, j int) bool { return sv.get(i) < sv.get(j) }
-func (sv stringValues) get(i int) string   { return sv[i].(*reflect.StringValue).Get() }
-
-func (e *encodeState) string(s string) {
-	e.WriteByte('"')
-	start := 0
-	for i := 0; i < len(s); {
-		if b := s[i]; b < utf8.RuneSelf {
-			if 0x20 <= b && b != '\\' && b != '"' {
-				i++
-				continue
-			}
-			if start < i {
-				e.WriteString(s[start:i])
-			}
-			if b == '\\' || b == '"' {
-				e.WriteByte('\\')
-				e.WriteByte(b)
-			} else {
-				e.WriteString(`\u00`)
-				e.WriteByte(hex[b>>4])
-				e.WriteByte(hex[b&0xF])
-			}
-			i++
-			start = i
-			continue
-		}
-		c, size := utf8.DecodeRuneInString(s[i:])
-		if c == utf8.RuneError && size == 1 {
-			e.error(&InvalidUTF8Error{s})
-		}
-		i += size
-	}
-	if start < len(s) {
-		e.WriteString(s[start:])
-	}
-	e.WriteByte('"')
-}
diff --git a/src/cmd/fix/testdata/reflect.encode.go.out b/src/cmd/fix/testdata/reflect.encode.go.out
deleted file mode 100644
index 9a13a75ab7..0000000000
--- a/src/cmd/fix/testdata/reflect.encode.go.out
+++ /dev/null
@@ -1,367 +0,0 @@
-// Copyright 2010 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.
-
-// The json package implements encoding and decoding of JSON objects as
-// defined in RFC 4627.
-package json
-
-import (
-	"bytes"
-	"encoding/base64"
-	"os"
-	"reflect"
-	"runtime"
-	"sort"
-	"strconv"
-	"unicode"
-	"utf8"
-)
-
-// Marshal returns the JSON encoding of v.
-//
-// Marshal traverses the value v recursively.
-// If an encountered value implements the Marshaler interface,
-// Marshal calls its MarshalJSON method to produce JSON.
-//
-// Otherwise, Marshal uses the following type-dependent default encodings:
-//
-// Boolean values encode as JSON booleans.
-//
-// Floating point and integer values encode as JSON numbers.
-//
-// String values encode as JSON strings, with each invalid UTF-8 sequence
-// replaced by the encoding of the Unicode replacement character U+FFFD.
-//
-// Array and slice values encode as JSON arrays, except that
-// []byte encodes as a base64-encoded string.
-//
-// Struct values encode as JSON objects.  Each struct field becomes
-// a member of the object.  By default the object's key name is the
-// struct field name.  If the struct field has a non-empty tag consisting
-// of only Unicode letters, digits, and underscores, that tag will be used
-// as the name instead.  Only exported fields will be encoded.
-//
-// Map values encode as JSON objects.
-// The map's key type must be string; the object keys are used directly
-// as map keys.
-//
-// Pointer values encode as the value pointed to.
-// A nil pointer encodes as the null JSON object.
-//
-// Interface values encode as the value contained in the interface.
-// A nil interface value encodes as the null JSON object.
-//
-// Channel, complex, and function values cannot be encoded in JSON.
-// Attempting to encode such a value causes Marshal to return
-// an InvalidTypeError.
-//
-// JSON cannot represent cyclic data structures and Marshal does not
-// handle them.  Passing cyclic structures to Marshal will result in
-// an infinite recursion.
-//
-func Marshal(v interface{}) ([]byte, os.Error) {
-	e := &encodeState{}
-	err := e.marshal(v)
-	if err != nil {
-		return nil, err
-	}
-	return e.Bytes(), nil
-}
-
-// MarshalIndent is like Marshal but applies Indent to format the output.
-func MarshalIndent(v interface{}, prefix, indent string) ([]byte, os.Error) {
-	b, err := Marshal(v)
-	if err != nil {
-		return nil, err
-	}
-	var buf bytes.Buffer
-	err = Indent(&buf, b, prefix, indent)
-	if err != nil {
-		return nil, err
-	}
-	return buf.Bytes(), nil
-}
-
-// MarshalForHTML is like Marshal but applies HTMLEscape to the output.
-func MarshalForHTML(v interface{}) ([]byte, os.Error) {
-	b, err := Marshal(v)
-	if err != nil {
-		return nil, err
-	}
-	var buf bytes.Buffer
-	HTMLEscape(&buf, b)
-	return buf.Bytes(), nil
-}
-
-// HTMLEscape appends to dst the JSON-encoded src with <, >, and &
-// characters inside string literals changed to \u003c, \u003e, \u0026
-// so that the JSON will be safe to embed inside HTML <script> tags.
-// For historical reasons, web browsers don't honor standard HTML
-// escaping within <script> tags, so an alternative JSON encoding must
-// be used.
-func HTMLEscape(dst *bytes.Buffer, src []byte) {
-	// < > & can only appear in string literals,
-	// so just scan the string one byte at a time.
-	start := 0
-	for i, c := range src {
-		if c == '<' || c == '>' || c == '&' {
-			if start < i {
-				dst.Write(src[start:i])
-			}
-			dst.WriteString(`\u00`)
-			dst.WriteByte(hex[c>>4])
-			dst.WriteByte(hex[c&0xF])
-			start = i + 1
-		}
-	}
-	if start < len(src) {
-		dst.Write(src[start:])
-	}
-}
-
-// Marshaler is the interface implemented by objects that
-// can marshal themselves into valid JSON.
-type Marshaler interface {
-	MarshalJSON() ([]byte, os.Error)
-}
-
-type UnsupportedTypeError struct {
-	Type reflect.Type
-}
-
-func (e *UnsupportedTypeError) String() string {
-	return "json: unsupported type: " + e.Type.String()
-}
-
-type InvalidUTF8Error struct {
-	S string
-}
-
-func (e *InvalidUTF8Error) String() string {
-	return "json: invalid UTF-8 in string: " + strconv.Quote(e.S)
-}
-
-type MarshalerError struct {
-	Type  reflect.Type
-	Error os.Error
-}
-
-func (e *MarshalerError) String() string {
-	return "json: error calling MarshalJSON for type " + e.Type.String() + ": " + e.Error.String()
-}
-
-type interfaceOrPtrValue interface {
-	IsNil() bool
-	Elem() reflect.Value
-}
-
-var hex = "0123456789abcdef"
-
-// An encodeState encodes JSON into a bytes.Buffer.
-type encodeState struct {
-	bytes.Buffer // accumulated output
-}
-
-func (e *encodeState) marshal(v interface{}) (err os.Error) {
-	defer func() {
-		if r := recover(); r != nil {
-			if _, ok := r.(runtime.Error); ok {
-				panic(r)
-			}
-			err = r.(os.Error)
-		}
-	}()
-	e.reflectValue(reflect.ValueOf(v))
-	return nil
-}
-
-func (e *encodeState) error(err os.Error) {
-	panic(err)
-}
-
-var byteSliceType = reflect.TypeOf([]byte(nil))
-
-func (e *encodeState) reflectValue(v reflect.Value) {
-	if !v.IsValid() {
-		e.WriteString("null")
-		return
-	}
-
-	if j, ok := v.Interface().(Marshaler); ok {
-		b, err := j.MarshalJSON()
-		if err == nil {
-			// copy JSON into buffer, checking validity.
-			err = Compact(&e.Buffer, b)
-		}
-		if err != nil {
-			e.error(&MarshalerError{v.Type(), err})
-		}
-		return
-	}
-
-	switch v.Kind() {
-	case reflect.Bool:
-		x := v.Bool()
-		if x {
-			e.WriteString("true")
-		} else {
-			e.WriteString("false")
-		}
-
-	case reflect.Int, reflect.Int8, reflect.Int16, reflect.Int32, reflect.Int64:
-		e.WriteString(strconv.Itoa64(v.Int()))
-
-	case reflect.Uint, reflect.Uint8, reflect.Uint16, reflect.Uint32, reflect.Uint64, reflect.Uintptr:
-		e.WriteString(strconv.Uitoa64(v.Uint()))
-
-	case reflect.Float32, reflect.Float64:
-		e.WriteString(strconv.FtoaN(v.Float(), 'g', -1, v.Type().Bits()))
-
-	case reflect.String:
-		e.string(v.String())
-
-	case reflect.Struct:
-		e.WriteByte('{')
-		t := v.Type()
-		n := v.NumField()
-		first := true
-		for i := 0; i < n; i++ {
-			f := t.Field(i)
-			if f.PkgPath != "" {
-				continue
-			}
-			if first {
-				first = false
-			} else {
-				e.WriteByte(',')
-			}
-			if isValidTag(f.Tag) {
-				e.string(f.Tag)
-			} else {
-				e.string(f.Name)
-			}
-			e.WriteByte(':')
-			e.reflectValue(v.Field(i))
-		}
-		e.WriteByte('}')
-
-	case reflect.Map:
-		if v.Type().Key().Kind() != reflect.String {
-			e.error(&UnsupportedTypeError{v.Type()})
-		}
-		if v.IsNil() {
-			e.WriteString("null")
-			break
-		}
-		e.WriteByte('{')
-		var sv stringValues = v.MapKeys()
-		sort.Sort(sv)
-		for i, k := range sv {
-			if i > 0 {
-				e.WriteByte(',')
-			}
-			e.string(k.String())
-			e.WriteByte(':')
-			e.reflectValue(v.MapIndex(k))
-		}
-		e.WriteByte('}')
-
-	case reflect.Array, reflect.Slice:
-		if v.Type() == byteSliceType {
-			e.WriteByte('"')
-			s := v.Interface().([]byte)
-			if len(s) < 1024 {
-				// for small buffers, using Encode directly is much faster.
-				dst := make([]byte, base64.StdEncoding.EncodedLen(len(s)))
-				base64.StdEncoding.Encode(dst, s)
-				e.Write(dst)
-			} else {
-				// for large buffers, avoid unnecessary extra temporary
-				// buffer space.
-				enc := base64.NewEncoder(base64.StdEncoding, e)
-				enc.Write(s)
-				enc.Close()
-			}
-			e.WriteByte('"')
-			break
-		}
-		e.WriteByte('[')
-		n := v.Len()
-		for i := 0; i < n; i++ {
-			if i > 0 {
-				e.WriteByte(',')
-			}
-			e.reflectValue(v.Index(i))
-		}
-		e.WriteByte(']')
-
-	case interfaceOrPtrValue:
-		if v.IsNil() {
-			e.WriteString("null")
-			return
-		}
-		e.reflectValue(v.Elem())
-
-	default:
-		e.error(&UnsupportedTypeError{v.Type()})
-	}
-	return
-}
-
-func isValidTag(s string) bool {
-	if s == "" {
-		return false
-	}
-	for _, c := range s {
-		if c != '_' && !unicode.IsLetter(c) && !unicode.IsDigit(c) {
-			return false
-		}
-	}
-	return true
-}
-
-// stringValues is a slice of reflect.Value holding *reflect.StringValue.
-// It implements the methods to sort by string.
-type stringValues []reflect.Value
-
-func (sv stringValues) Len() int           { return len(sv) }
-func (sv stringValues) Swap(i, j int)      { sv[i], sv[j] = sv[j], sv[i] }
-func (sv stringValues) Less(i, j int) bool { return sv.get(i) < sv.get(j) }
-func (sv stringValues) get(i int) string   { return sv[i].String() }
-
-func (e *encodeState) string(s string) {
-	e.WriteByte('"')
-	start := 0
-	for i := 0; i < len(s); {
-		if b := s[i]; b < utf8.RuneSelf {
-			if 0x20 <= b && b != '\\' && b != '"' {
-				i++
-				continue
-			}
-			if start < i {
-				e.WriteString(s[start:i])
-			}
-			if b == '\\' || b == '"' {
-				e.WriteByte('\\')
-				e.WriteByte(b)
-			} else {
-				e.WriteString(`\u00`)
-				e.WriteByte(hex[b>>4])
-				e.WriteByte(hex[b&0xF])
-			}
-			i++
-			start = i
-			continue
-		}
-		c, size := utf8.DecodeRuneInString(s[i:])
-		if c == utf8.RuneError && size == 1 {
-			e.error(&InvalidUTF8Error{s})
-		}
-		i += size
-	}
-	if start < len(s) {
-		e.WriteString(s[start:])
-	}
-	e.WriteByte('"')
-}
diff --git a/src/cmd/fix/testdata/reflect.encoder.go.in b/src/cmd/fix/testdata/reflect.encoder.go.in
deleted file mode 100644
index 702f6dc068..0000000000
--- a/src/cmd/fix/testdata/reflect.encoder.go.in
+++ /dev/null
@@ -1,240 +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 (
-	"bytes"
-	"io"
-	"os"
-	"reflect"
-	"sync"
-)
-
-// An Encoder manages the transmission of type and data information to the
-// other side of a connection.
-type Encoder struct {
-	mutex      sync.Mutex              // each item must be sent atomically
-	w          []io.Writer             // where to send the data
-	sent       map[reflect.Type]typeId // which types we've already sent
-	countState *encoderState           // stage for writing counts
-	freeList   *encoderState           // list of free encoderStates; avoids reallocation
-	buf        []byte                  // for collecting the output.
-	byteBuf    bytes.Buffer            // buffer for top-level encoderState
-	err        os.Error
-}
-
-// NewEncoder returns a new encoder that will transmit on the io.Writer.
-func NewEncoder(w io.Writer) *Encoder {
-	enc := new(Encoder)
-	enc.w = []io.Writer{w}
-	enc.sent = make(map[reflect.Type]typeId)
-	enc.countState = enc.newEncoderState(new(bytes.Buffer))
-	return enc
-}
-
-// writer() returns the innermost writer the encoder is using
-func (enc *Encoder) writer() io.Writer {
-	return enc.w[len(enc.w)-1]
-}
-
-// pushWriter adds a writer to the encoder.
-func (enc *Encoder) pushWriter(w io.Writer) {
-	enc.w = append(enc.w, w)
-}
-
-// popWriter pops the innermost writer.
-func (enc *Encoder) popWriter() {
-	enc.w = enc.w[0 : len(enc.w)-1]
-}
-
-func (enc *Encoder) badType(rt reflect.Type) {
-	enc.setError(os.NewError("gob: can't encode type " + rt.String()))
-}
-
-func (enc *Encoder) setError(err os.Error) {
-	if enc.err == nil { // remember the first.
-		enc.err = err
-	}
-}
-
-// writeMessage sends the data item preceded by a unsigned count of its length.
-func (enc *Encoder) writeMessage(w io.Writer, b *bytes.Buffer) {
-	enc.countState.encodeUint(uint64(b.Len()))
-	// Build the buffer.
-	countLen := enc.countState.b.Len()
-	total := countLen + b.Len()
-	if total > len(enc.buf) {
-		enc.buf = make([]byte, total+1000) // extra for growth
-	}
-	// Place the length before the data.
-	// TODO(r): avoid the extra copy here.
-	enc.countState.b.Read(enc.buf[0:countLen])
-	// Now the data.
-	b.Read(enc.buf[countLen:total])
-	// Write the data.
-	_, err := w.Write(enc.buf[0:total])
-	if err != nil {
-		enc.setError(err)
-	}
-}
-
-// sendActualType sends the requested type, without further investigation, unless
-// it's been sent before.
-func (enc *Encoder) sendActualType(w io.Writer, state *encoderState, ut *userTypeInfo, actual reflect.Type) (sent bool) {
-	if _, alreadySent := enc.sent[actual]; alreadySent {
-		return false
-	}
-	typeLock.Lock()
-	info, err := getTypeInfo(ut)
-	typeLock.Unlock()
-	if err != nil {
-		enc.setError(err)
-		return
-	}
-	// Send the pair (-id, type)
-	// Id:
-	state.encodeInt(-int64(info.id))
-	// Type:
-	enc.encode(state.b, reflect.NewValue(info.wire), wireTypeUserInfo)
-	enc.writeMessage(w, state.b)
-	if enc.err != nil {
-		return
-	}
-
-	// Remember we've sent this type, both what the user gave us and the base type.
-	enc.sent[ut.base] = info.id
-	if ut.user != ut.base {
-		enc.sent[ut.user] = info.id
-	}
-	// Now send the inner types
-	switch st := actual.(type) {
-	case *reflect.StructType:
-		for i := 0; i < st.NumField(); i++ {
-			enc.sendType(w, state, st.Field(i).Type)
-		}
-	case reflect.ArrayOrSliceType:
-		enc.sendType(w, state, st.Elem())
-	}
-	return true
-}
-
-// sendType sends the type info to the other side, if necessary.
-func (enc *Encoder) sendType(w io.Writer, state *encoderState, origt reflect.Type) (sent bool) {
-	ut := userType(origt)
-	if ut.isGobEncoder {
-		// The rules are different: regardless of the underlying type's representation,
-		// we need to tell the other side that this exact type is a GobEncoder.
-		return enc.sendActualType(w, state, ut, ut.user)
-	}
-
-	// It's a concrete value, so drill down to the base type.
-	switch rt := ut.base.(type) {
-	default:
-		// Basic types and interfaces do not need to be described.
-		return
-	case *reflect.SliceType:
-		// If it's []uint8, don't send; it's considered basic.
-		if rt.Elem().Kind() == reflect.Uint8 {
-			return
-		}
-		// Otherwise we do send.
-		break
-	case *reflect.ArrayType:
-		// arrays must be sent so we know their lengths and element types.
-		break
-	case *reflect.MapType:
-		// maps must be sent so we know their lengths and key/value types.
-		break
-	case *reflect.StructType:
-		// structs must be sent so we know their fields.
-		break
-	case *reflect.ChanType, *reflect.FuncType:
-		// Probably a bad field in a struct.
-		enc.badType(rt)
-		return
-	}
-
-	return enc.sendActualType(w, state, ut, ut.base)
-}
-
-// Encode transmits the data item represented by the empty interface value,
-// guaranteeing that all necessary type information has been transmitted first.
-func (enc *Encoder) Encode(e interface{}) os.Error {
-	return enc.EncodeValue(reflect.NewValue(e))
-}
-
-// sendTypeDescriptor makes sure the remote side knows about this type.
-// It will send a descriptor if this is the first time the type has been
-// sent.
-func (enc *Encoder) sendTypeDescriptor(w io.Writer, state *encoderState, ut *userTypeInfo) {
-	// Make sure the type is known to the other side.
-	// First, have we already sent this type?
-	rt := ut.base
-	if ut.isGobEncoder {
-		rt = ut.user
-	}
-	if _, alreadySent := enc.sent[rt]; !alreadySent {
-		// No, so send it.
-		sent := enc.sendType(w, state, rt)
-		if enc.err != nil {
-			return
-		}
-		// If the type info has still not been transmitted, it means we have
-		// a singleton basic type (int, []byte etc.) at top level.  We don't
-		// need to send the type info but we do need to update enc.sent.
-		if !sent {
-			typeLock.Lock()
-			info, err := getTypeInfo(ut)
-			typeLock.Unlock()
-			if err != nil {
-				enc.setError(err)
-				return
-			}
-			enc.sent[rt] = info.id
-		}
-	}
-}
-
-// sendTypeId sends the id, which must have already been defined.
-func (enc *Encoder) sendTypeId(state *encoderState, ut *userTypeInfo) {
-	// Identify the type of this top-level value.
-	state.encodeInt(int64(enc.sent[ut.base]))
-}
-
-// EncodeValue transmits the data item represented by the reflection value,
-// guaranteeing that all necessary type information has been transmitted first.
-func (enc *Encoder) EncodeValue(value reflect.Value) os.Error {
-	// Make sure we're single-threaded through here, so multiple
-	// goroutines can share an encoder.
-	enc.mutex.Lock()
-	defer enc.mutex.Unlock()
-
-	// Remove any nested writers remaining due to previous errors.
-	enc.w = enc.w[0:1]
-
-	ut, err := validUserType(value.Type())
-	if err != nil {
-		return err
-	}
-
-	enc.err = nil
-	enc.byteBuf.Reset()
-	state := enc.newEncoderState(&enc.byteBuf)
-
-	enc.sendTypeDescriptor(enc.writer(), state, ut)
-	enc.sendTypeId(state, ut)
-	if enc.err != nil {
-		return enc.err
-	}
-
-	// Encode the object.
-	enc.encode(state.b, value, ut)
-	if enc.err == nil {
-		enc.writeMessage(enc.writer(), state.b)
-	}
-
-	enc.freeEncoderState(state)
-	return enc.err
-}
diff --git a/src/cmd/fix/testdata/reflect.encoder.go.out b/src/cmd/fix/testdata/reflect.encoder.go.out
deleted file mode 100644
index f1a7b98f16..0000000000
--- a/src/cmd/fix/testdata/reflect.encoder.go.out
+++ /dev/null
@@ -1,240 +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 (
-	"bytes"
-	"io"
-	"os"
-	"reflect"
-	"sync"
-)
-
-// An Encoder manages the transmission of type and data information to the
-// other side of a connection.
-type Encoder struct {
-	mutex      sync.Mutex              // each item must be sent atomically
-	w          []io.Writer             // where to send the data
-	sent       map[reflect.Type]typeId // which types we've already sent
-	countState *encoderState           // stage for writing counts
-	freeList   *encoderState           // list of free encoderStates; avoids reallocation
-	buf        []byte                  // for collecting the output.
-	byteBuf    bytes.Buffer            // buffer for top-level encoderState
-	err        os.Error
-}
-
-// NewEncoder returns a new encoder that will transmit on the io.Writer.
-func NewEncoder(w io.Writer) *Encoder {
-	enc := new(Encoder)
-	enc.w = []io.Writer{w}
-	enc.sent = make(map[reflect.Type]typeId)
-	enc.countState = enc.newEncoderState(new(bytes.Buffer))
-	return enc
-}
-
-// writer() returns the innermost writer the encoder is using
-func (enc *Encoder) writer() io.Writer {
-	return enc.w[len(enc.w)-1]
-}
-
-// pushWriter adds a writer to the encoder.
-func (enc *Encoder) pushWriter(w io.Writer) {
-	enc.w = append(enc.w, w)
-}
-
-// popWriter pops the innermost writer.
-func (enc *Encoder) popWriter() {
-	enc.w = enc.w[0 : len(enc.w)-1]
-}
-
-func (enc *Encoder) badType(rt reflect.Type) {
-	enc.setError(os.NewError("gob: can't encode type " + rt.String()))
-}
-
-func (enc *Encoder) setError(err os.Error) {
-	if enc.err == nil { // remember the first.
-		enc.err = err
-	}
-}
-
-// writeMessage sends the data item preceded by a unsigned count of its length.
-func (enc *Encoder) writeMessage(w io.Writer, b *bytes.Buffer) {
-	enc.countState.encodeUint(uint64(b.Len()))
-	// Build the buffer.
-	countLen := enc.countState.b.Len()
-	total := countLen + b.Len()
-	if total > len(enc.buf) {
-		enc.buf = make([]byte, total+1000) // extra for growth
-	}
-	// Place the length before the data.
-	// TODO(r): avoid the extra copy here.
-	enc.countState.b.Read(enc.buf[0:countLen])
-	// Now the data.
-	b.Read(enc.buf[countLen:total])
-	// Write the data.
-	_, err := w.Write(enc.buf[0:total])
-	if err != nil {
-		enc.setError(err)
-	}
-}
-
-// sendActualType sends the requested type, without further investigation, unless
-// it's been sent before.
-func (enc *Encoder) sendActualType(w io.Writer, state *encoderState, ut *userTypeInfo, actual reflect.Type) (sent bool) {
-	if _, alreadySent := enc.sent[actual]; alreadySent {
-		return false
-	}
-	typeLock.Lock()
-	info, err := getTypeInfo(ut)
-	typeLock.Unlock()
-	if err != nil {
-		enc.setError(err)
-		return
-	}
-	// Send the pair (-id, type)
-	// Id:
-	state.encodeInt(-int64(info.id))
-	// Type:
-	enc.encode(state.b, reflect.ValueOf(info.wire), wireTypeUserInfo)
-	enc.writeMessage(w, state.b)
-	if enc.err != nil {
-		return
-	}
-
-	// Remember we've sent this type, both what the user gave us and the base type.
-	enc.sent[ut.base] = info.id
-	if ut.user != ut.base {
-		enc.sent[ut.user] = info.id
-	}
-	// Now send the inner types
-	switch st := actual; st.Kind() {
-	case reflect.Struct:
-		for i := 0; i < st.NumField(); i++ {
-			enc.sendType(w, state, st.Field(i).Type)
-		}
-	case reflect.Array, reflect.Slice:
-		enc.sendType(w, state, st.Elem())
-	}
-	return true
-}
-
-// sendType sends the type info to the other side, if necessary.
-func (enc *Encoder) sendType(w io.Writer, state *encoderState, origt reflect.Type) (sent bool) {
-	ut := userType(origt)
-	if ut.isGobEncoder {
-		// The rules are different: regardless of the underlying type's representation,
-		// we need to tell the other side that this exact type is a GobEncoder.
-		return enc.sendActualType(w, state, ut, ut.user)
-	}
-
-	// It's a concrete value, so drill down to the base type.
-	switch rt := ut.base; rt.Kind() {
-	default:
-		// Basic types and interfaces do not need to be described.
-		return
-	case reflect.Slice:
-		// If it's []uint8, don't send; it's considered basic.
-		if rt.Elem().Kind() == reflect.Uint8 {
-			return
-		}
-		// Otherwise we do send.
-		break
-	case reflect.Array:
-		// arrays must be sent so we know their lengths and element types.
-		break
-	case reflect.Map:
-		// maps must be sent so we know their lengths and key/value types.
-		break
-	case reflect.Struct:
-		// structs must be sent so we know their fields.
-		break
-	case reflect.Chan, reflect.Func:
-		// Probably a bad field in a struct.
-		enc.badType(rt)
-		return
-	}
-
-	return enc.sendActualType(w, state, ut, ut.base)
-}
-
-// Encode transmits the data item represented by the empty interface value,
-// guaranteeing that all necessary type information has been transmitted first.
-func (enc *Encoder) Encode(e interface{}) os.Error {
-	return enc.EncodeValue(reflect.ValueOf(e))
-}
-
-// sendTypeDescriptor makes sure the remote side knows about this type.
-// It will send a descriptor if this is the first time the type has been
-// sent.
-func (enc *Encoder) sendTypeDescriptor(w io.Writer, state *encoderState, ut *userTypeInfo) {
-	// Make sure the type is known to the other side.
-	// First, have we already sent this type?
-	rt := ut.base
-	if ut.isGobEncoder {
-		rt = ut.user
-	}
-	if _, alreadySent := enc.sent[rt]; !alreadySent {
-		// No, so send it.
-		sent := enc.sendType(w, state, rt)
-		if enc.err != nil {
-			return
-		}
-		// If the type info has still not been transmitted, it means we have
-		// a singleton basic type (int, []byte etc.) at top level.  We don't
-		// need to send the type info but we do need to update enc.sent.
-		if !sent {
-			typeLock.Lock()
-			info, err := getTypeInfo(ut)
-			typeLock.Unlock()
-			if err != nil {
-				enc.setError(err)
-				return
-			}
-			enc.sent[rt] = info.id
-		}
-	}
-}
-
-// sendTypeId sends the id, which must have already been defined.
-func (enc *Encoder) sendTypeId(state *encoderState, ut *userTypeInfo) {
-	// Identify the type of this top-level value.
-	state.encodeInt(int64(enc.sent[ut.base]))
-}
-
-// EncodeValue transmits the data item represented by the reflection value,
-// guaranteeing that all necessary type information has been transmitted first.
-func (enc *Encoder) EncodeValue(value reflect.Value) os.Error {
-	// Make sure we're single-threaded through here, so multiple
-	// goroutines can share an encoder.
-	enc.mutex.Lock()
-	defer enc.mutex.Unlock()
-
-	// Remove any nested writers remaining due to previous errors.
-	enc.w = enc.w[0:1]
-
-	ut, err := validUserType(value.Type())
-	if err != nil {
-		return err
-	}
-
-	enc.err = nil
-	enc.byteBuf.Reset()
-	state := enc.newEncoderState(&enc.byteBuf)
-
-	enc.sendTypeDescriptor(enc.writer(), state, ut)
-	enc.sendTypeId(state, ut)
-	if enc.err != nil {
-		return enc.err
-	}
-
-	// Encode the object.
-	enc.encode(state.b, value, ut)
-	if enc.err == nil {
-		enc.writeMessage(enc.writer(), state.b)
-	}
-
-	enc.freeEncoderState(state)
-	return enc.err
-}
diff --git a/src/cmd/fix/testdata/reflect.export.go.in b/src/cmd/fix/testdata/reflect.export.go.in
deleted file mode 100644
index 722387ac58..0000000000
--- a/src/cmd/fix/testdata/reflect.export.go.in
+++ /dev/null
@@ -1,400 +0,0 @@
-// Copyright 2010 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.
-
-/*
-	The netchan package implements type-safe networked channels:
-	it allows the two ends of a channel to appear on different
-	computers connected by a network.  It does this by transporting
-	data sent to a channel on one machine so it can be recovered
-	by a receive of a channel of the same type on the other.
-
-	An exporter publishes a set of channels by name.  An importer
-	connects to the exporting machine and imports the channels
-	by name. After importing the channels, the two machines can
-	use the channels in the usual way.
-
-	Networked channels are not synchronized; they always behave
-	as if they are buffered channels of at least one element.
-*/
-package netchan
-
-// BUG: can't use range clause to receive when using ImportNValues to limit the count.
-
-import (
-	"io"
-	"log"
-	"net"
-	"os"
-	"reflect"
-	"strconv"
-	"sync"
-)
-
-// Export
-
-// expLog is a logging convenience function.  The first argument must be a string.
-func expLog(args ...interface{}) {
-	args[0] = "netchan export: " + args[0].(string)
-	log.Print(args...)
-}
-
-// An Exporter allows a set of channels to be published on a single
-// network port.  A single machine may have multiple Exporters
-// but they must use different ports.
-type Exporter struct {
-	*clientSet
-}
-
-type expClient struct {
-	*encDec
-	exp     *Exporter
-	chans   map[int]*netChan // channels in use by client
-	mu      sync.Mutex       // protects remaining fields
-	errored bool             // client has been sent an error
-	seqNum  int64            // sequences messages sent to client; has value of highest sent
-	ackNum  int64            // highest sequence number acknowledged
-	seqLock sync.Mutex       // guarantees messages are in sequence, only locked under mu
-}
-
-func newClient(exp *Exporter, conn io.ReadWriter) *expClient {
-	client := new(expClient)
-	client.exp = exp
-	client.encDec = newEncDec(conn)
-	client.seqNum = 0
-	client.ackNum = 0
-	client.chans = make(map[int]*netChan)
-	return client
-}
-
-func (client *expClient) sendError(hdr *header, err string) {
-	error := &error{err}
-	expLog("sending error to client:", error.Error)
-	client.encode(hdr, payError, error) // ignore any encode error, hope client gets it
-	client.mu.Lock()
-	client.errored = true
-	client.mu.Unlock()
-}
-
-func (client *expClient) newChan(hdr *header, dir Dir, name string, size int, count int64) *netChan {
-	exp := client.exp
-	exp.mu.Lock()
-	ech, ok := exp.names[name]
-	exp.mu.Unlock()
-	if !ok {
-		client.sendError(hdr, "no such channel: "+name)
-		return nil
-	}
-	if ech.dir != dir {
-		client.sendError(hdr, "wrong direction for channel: "+name)
-		return nil
-	}
-	nch := newNetChan(name, hdr.Id, ech, client.encDec, size, count)
-	client.chans[hdr.Id] = nch
-	return nch
-}
-
-func (client *expClient) getChan(hdr *header, dir Dir) *netChan {
-	nch := client.chans[hdr.Id]
-	if nch == nil {
-		return nil
-	}
-	if nch.dir != dir {
-		client.sendError(hdr, "wrong direction for channel: "+nch.name)
-	}
-	return nch
-}
-
-// The function run manages sends and receives for a single client.  For each
-// (client Recv) request, this will launch a serveRecv goroutine to deliver
-// the data for that channel, while (client Send) requests are handled as
-// data arrives from the client.
-func (client *expClient) run() {
-	hdr := new(header)
-	hdrValue := reflect.NewValue(hdr)
-	req := new(request)
-	reqValue := reflect.NewValue(req)
-	error := new(error)
-	for {
-		*hdr = header{}
-		if err := client.decode(hdrValue); err != nil {
-			if err != os.EOF {
-				expLog("error decoding client header:", err)
-			}
-			break
-		}
-		switch hdr.PayloadType {
-		case payRequest:
-			*req = request{}
-			if err := client.decode(reqValue); err != nil {
-				expLog("error decoding client request:", err)
-				break
-			}
-			if req.Size < 1 {
-				panic("netchan: remote requested " + strconv.Itoa(req.Size) + " values")
-			}
-			switch req.Dir {
-			case Recv:
-				// look up channel before calling serveRecv to
-				// avoid a lock around client.chans.
-				if nch := client.newChan(hdr, Send, req.Name, req.Size, req.Count); nch != nil {
-					go client.serveRecv(nch, *hdr, req.Count)
-				}
-			case Send:
-				client.newChan(hdr, Recv, req.Name, req.Size, req.Count)
-				// The actual sends will have payload type payData.
-				// TODO: manage the count?
-			default:
-				error.Error = "request: can't handle channel direction"
-				expLog(error.Error, req.Dir)
-				client.encode(hdr, payError, error)
-			}
-		case payData:
-			client.serveSend(*hdr)
-		case payClosed:
-			client.serveClosed(*hdr)
-		case payAck:
-			client.mu.Lock()
-			if client.ackNum != hdr.SeqNum-1 {
-				// Since the sequence number is incremented and the message is sent
-				// in a single instance of locking client.mu, the messages are guaranteed
-				// to be sent in order.  Therefore receipt of acknowledgement N means
-				// all messages <=N have been seen by the recipient.  We check anyway.
-				expLog("sequence out of order:", client.ackNum, hdr.SeqNum)
-			}
-			if client.ackNum < hdr.SeqNum { // If there has been an error, don't back up the count.
-				client.ackNum = hdr.SeqNum
-			}
-			client.mu.Unlock()
-		case payAckSend:
-			if nch := client.getChan(hdr, Send); nch != nil {
-				nch.acked()
-			}
-		default:
-			log.Fatal("netchan export: unknown payload type", hdr.PayloadType)
-		}
-	}
-	client.exp.delClient(client)
-}
-
-// Send all the data on a single channel to a client asking for a Recv.
-// The header is passed by value to avoid issues of overwriting.
-func (client *expClient) serveRecv(nch *netChan, hdr header, count int64) {
-	for {
-		val, ok := nch.recv()
-		if !ok {
-			if err := client.encode(&hdr, payClosed, nil); err != nil {
-				expLog("error encoding server closed message:", err)
-			}
-			break
-		}
-		// We hold the lock during transmission to guarantee messages are
-		// sent in sequence number order.  Also, we increment first so the
-		// value of client.SeqNum is the value of the highest used sequence
-		// number, not one beyond.
-		client.mu.Lock()
-		client.seqNum++
-		hdr.SeqNum = client.seqNum
-		client.seqLock.Lock() // guarantee ordering of messages
-		client.mu.Unlock()
-		err := client.encode(&hdr, payData, val.Interface())
-		client.seqLock.Unlock()
-		if err != nil {
-			expLog("error encoding client response:", err)
-			client.sendError(&hdr, err.String())
-			break
-		}
-		// Negative count means run forever.
-		if count >= 0 {
-			if count--; count <= 0 {
-				break
-			}
-		}
-	}
-}
-
-// Receive and deliver locally one item from a client asking for a Send
-// The header is passed by value to avoid issues of overwriting.
-func (client *expClient) serveSend(hdr header) {
-	nch := client.getChan(&hdr, Recv)
-	if nch == nil {
-		return
-	}
-	// Create a new value for each received item.
-	val := reflect.MakeZero(nch.ch.Type().(*reflect.ChanType).Elem())
-	if err := client.decode(val); err != nil {
-		expLog("value decode:", err, "; type ", nch.ch.Type())
-		return
-	}
-	nch.send(val)
-}
-
-// Report that client has closed the channel that is sending to us.
-// The header is passed by value to avoid issues of overwriting.
-func (client *expClient) serveClosed(hdr header) {
-	nch := client.getChan(&hdr, Recv)
-	if nch == nil {
-		return
-	}
-	nch.close()
-}
-
-func (client *expClient) unackedCount() int64 {
-	client.mu.Lock()
-	n := client.seqNum - client.ackNum
-	client.mu.Unlock()
-	return n
-}
-
-func (client *expClient) seq() int64 {
-	client.mu.Lock()
-	n := client.seqNum
-	client.mu.Unlock()
-	return n
-}
-
-func (client *expClient) ack() int64 {
-	client.mu.Lock()
-	n := client.seqNum
-	client.mu.Unlock()
-	return n
-}
-
-// Serve waits for incoming connections on the listener
-// and serves the Exporter's channels on each.
-// It blocks until the listener is closed.
-func (exp *Exporter) Serve(listener net.Listener) {
-	for {
-		conn, err := listener.Accept()
-		if err != nil {
-			expLog("listen:", err)
-			break
-		}
-		go exp.ServeConn(conn)
-	}
-}
-
-// ServeConn exports the Exporter's channels on conn.
-// It blocks until the connection is terminated.
-func (exp *Exporter) ServeConn(conn io.ReadWriter) {
-	exp.addClient(conn).run()
-}
-
-// NewExporter creates a new Exporter that exports a set of channels.
-func NewExporter() *Exporter {
-	e := &Exporter{
-		clientSet: &clientSet{
-			names:   make(map[string]*chanDir),
-			clients: make(map[unackedCounter]bool),
-		},
-	}
-	return e
-}
-
-// ListenAndServe exports the exporter's channels through the
-// given network and local address defined as in net.Listen.
-func (exp *Exporter) ListenAndServe(network, localaddr string) os.Error {
-	listener, err := net.Listen(network, localaddr)
-	if err != nil {
-		return err
-	}
-	go exp.Serve(listener)
-	return nil
-}
-
-// addClient creates a new expClient and records its existence
-func (exp *Exporter) addClient(conn io.ReadWriter) *expClient {
-	client := newClient(exp, conn)
-	exp.mu.Lock()
-	exp.clients[client] = true
-	exp.mu.Unlock()
-	return client
-}
-
-// delClient forgets the client existed
-func (exp *Exporter) delClient(client *expClient) {
-	exp.mu.Lock()
-	exp.clients[client] = false, false
-	exp.mu.Unlock()
-}
-
-// Drain waits until all messages sent from this exporter/importer, including
-// those not yet sent to any client and possibly including those sent while
-// Drain was executing, have been received by the importer.  In short, it
-// waits until all the exporter's messages have been received by a client.
-// If the timeout (measured in nanoseconds) is positive and Drain takes
-// longer than that to complete, an error is returned.
-func (exp *Exporter) Drain(timeout int64) os.Error {
-	// This wrapper function is here so the method's comment will appear in godoc.
-	return exp.clientSet.drain(timeout)
-}
-
-// Sync waits until all clients of the exporter have received the messages
-// that were sent at the time Sync was invoked.  Unlike Drain, it does not
-// wait for messages sent while it is running or messages that have not been
-// dispatched to any client.  If the timeout (measured in nanoseconds) is
-// positive and Sync takes longer than that to complete, an error is
-// returned.
-func (exp *Exporter) Sync(timeout int64) os.Error {
-	// This wrapper function is here so the method's comment will appear in godoc.
-	return exp.clientSet.sync(timeout)
-}
-
-func checkChan(chT interface{}, dir Dir) (*reflect.ChanValue, os.Error) {
-	chanType, ok := reflect.Typeof(chT).(*reflect.ChanType)
-	if !ok {
-		return nil, os.NewError("not a channel")
-	}
-	if dir != Send && dir != Recv {
-		return nil, os.NewError("unknown channel direction")
-	}
-	switch chanType.Dir() {
-	case reflect.BothDir:
-	case reflect.SendDir:
-		if dir != Recv {
-			return nil, os.NewError("to import/export with Send, must provide <-chan")
-		}
-	case reflect.RecvDir:
-		if dir != Send {
-			return nil, os.NewError("to import/export with Recv, must provide chan<-")
-		}
-	}
-	return reflect.NewValue(chT).(*reflect.ChanValue), nil
-}
-
-// Export exports a channel of a given type and specified direction.  The
-// channel to be exported is provided in the call and may be of arbitrary
-// channel type.
-// Despite the literal signature, the effective signature is
-//	Export(name string, chT chan T, dir Dir)
-func (exp *Exporter) Export(name string, chT interface{}, dir Dir) os.Error {
-	ch, err := checkChan(chT, dir)
-	if err != nil {
-		return err
-	}
-	exp.mu.Lock()
-	defer exp.mu.Unlock()
-	_, present := exp.names[name]
-	if present {
-		return os.NewError("channel name already being exported:" + name)
-	}
-	exp.names[name] = &chanDir{ch, dir}
-	return nil
-}
-
-// Hangup disassociates the named channel from the Exporter and closes
-// the channel.  Messages in flight for the channel may be dropped.
-func (exp *Exporter) Hangup(name string) os.Error {
-	exp.mu.Lock()
-	chDir, ok := exp.names[name]
-	if ok {
-		exp.names[name] = nil, false
-	}
-	// TODO drop all instances of channel from client sets
-	exp.mu.Unlock()
-	if !ok {
-		return os.NewError("netchan export: hangup: no such channel: " + name)
-	}
-	chDir.ch.Close()
-	return nil
-}
diff --git a/src/cmd/fix/testdata/reflect.export.go.out b/src/cmd/fix/testdata/reflect.export.go.out
deleted file mode 100644
index d1324f3465..0000000000
--- a/src/cmd/fix/testdata/reflect.export.go.out
+++ /dev/null
@@ -1,400 +0,0 @@
-// Copyright 2010 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.
-
-/*
-	The netchan package implements type-safe networked channels:
-	it allows the two ends of a channel to appear on different
-	computers connected by a network.  It does this by transporting
-	data sent to a channel on one machine so it can be recovered
-	by a receive of a channel of the same type on the other.
-
-	An exporter publishes a set of channels by name.  An importer
-	connects to the exporting machine and imports the channels
-	by name. After importing the channels, the two machines can
-	use the channels in the usual way.
-
-	Networked channels are not synchronized; they always behave
-	as if they are buffered channels of at least one element.
-*/
-package netchan
-
-// BUG: can't use range clause to receive when using ImportNValues to limit the count.
-
-import (
-	"io"
-	"log"
-	"net"
-	"os"
-	"reflect"
-	"strconv"
-	"sync"
-)
-
-// Export
-
-// expLog is a logging convenience function.  The first argument must be a string.
-func expLog(args ...interface{}) {
-	args[0] = "netchan export: " + args[0].(string)
-	log.Print(args...)
-}
-
-// An Exporter allows a set of channels to be published on a single
-// network port.  A single machine may have multiple Exporters
-// but they must use different ports.
-type Exporter struct {
-	*clientSet
-}
-
-type expClient struct {
-	*encDec
-	exp     *Exporter
-	chans   map[int]*netChan // channels in use by client
-	mu      sync.Mutex       // protects remaining fields
-	errored bool             // client has been sent an error
-	seqNum  int64            // sequences messages sent to client; has value of highest sent
-	ackNum  int64            // highest sequence number acknowledged
-	seqLock sync.Mutex       // guarantees messages are in sequence, only locked under mu
-}
-
-func newClient(exp *Exporter, conn io.ReadWriter) *expClient {
-	client := new(expClient)
-	client.exp = exp
-	client.encDec = newEncDec(conn)
-	client.seqNum = 0
-	client.ackNum = 0
-	client.chans = make(map[int]*netChan)
-	return client
-}
-
-func (client *expClient) sendError(hdr *header, err string) {
-	error := &error{err}
-	expLog("sending error to client:", error.Error)
-	client.encode(hdr, payError, error) // ignore any encode error, hope client gets it
-	client.mu.Lock()
-	client.errored = true
-	client.mu.Unlock()
-}
-
-func (client *expClient) newChan(hdr *header, dir Dir, name string, size int, count int64) *netChan {
-	exp := client.exp
-	exp.mu.Lock()
-	ech, ok := exp.names[name]
-	exp.mu.Unlock()
-	if !ok {
-		client.sendError(hdr, "no such channel: "+name)
-		return nil
-	}
-	if ech.dir != dir {
-		client.sendError(hdr, "wrong direction for channel: "+name)
-		return nil
-	}
-	nch := newNetChan(name, hdr.Id, ech, client.encDec, size, count)
-	client.chans[hdr.Id] = nch
-	return nch
-}
-
-func (client *expClient) getChan(hdr *header, dir Dir) *netChan {
-	nch := client.chans[hdr.Id]
-	if nch == nil {
-		return nil
-	}
-	if nch.dir != dir {
-		client.sendError(hdr, "wrong direction for channel: "+nch.name)
-	}
-	return nch
-}
-
-// The function run manages sends and receives for a single client.  For each
-// (client Recv) request, this will launch a serveRecv goroutine to deliver
-// the data for that channel, while (client Send) requests are handled as
-// data arrives from the client.
-func (client *expClient) run() {
-	hdr := new(header)
-	hdrValue := reflect.ValueOf(hdr)
-	req := new(request)
-	reqValue := reflect.ValueOf(req)
-	error := new(error)
-	for {
-		*hdr = header{}
-		if err := client.decode(hdrValue); err != nil {
-			if err != os.EOF {
-				expLog("error decoding client header:", err)
-			}
-			break
-		}
-		switch hdr.PayloadType {
-		case payRequest:
-			*req = request{}
-			if err := client.decode(reqValue); err != nil {
-				expLog("error decoding client request:", err)
-				break
-			}
-			if req.Size < 1 {
-				panic("netchan: remote requested " + strconv.Itoa(req.Size) + " values")
-			}
-			switch req.Dir {
-			case Recv:
-				// look up channel before calling serveRecv to
-				// avoid a lock around client.chans.
-				if nch := client.newChan(hdr, Send, req.Name, req.Size, req.Count); nch != nil {
-					go client.serveRecv(nch, *hdr, req.Count)
-				}
-			case Send:
-				client.newChan(hdr, Recv, req.Name, req.Size, req.Count)
-				// The actual sends will have payload type payData.
-				// TODO: manage the count?
-			default:
-				error.Error = "request: can't handle channel direction"
-				expLog(error.Error, req.Dir)
-				client.encode(hdr, payError, error)
-			}
-		case payData:
-			client.serveSend(*hdr)
-		case payClosed:
-			client.serveClosed(*hdr)
-		case payAck:
-			client.mu.Lock()
-			if client.ackNum != hdr.SeqNum-1 {
-				// Since the sequence number is incremented and the message is sent
-				// in a single instance of locking client.mu, the messages are guaranteed
-				// to be sent in order.  Therefore receipt of acknowledgement N means
-				// all messages <=N have been seen by the recipient.  We check anyway.
-				expLog("sequence out of order:", client.ackNum, hdr.SeqNum)
-			}
-			if client.ackNum < hdr.SeqNum { // If there has been an error, don't back up the count.
-				client.ackNum = hdr.SeqNum
-			}
-			client.mu.Unlock()
-		case payAckSend:
-			if nch := client.getChan(hdr, Send); nch != nil {
-				nch.acked()
-			}
-		default:
-			log.Fatal("netchan export: unknown payload type", hdr.PayloadType)
-		}
-	}
-	client.exp.delClient(client)
-}
-
-// Send all the data on a single channel to a client asking for a Recv.
-// The header is passed by value to avoid issues of overwriting.
-func (client *expClient) serveRecv(nch *netChan, hdr header, count int64) {
-	for {
-		val, ok := nch.recv()
-		if !ok {
-			if err := client.encode(&hdr, payClosed, nil); err != nil {
-				expLog("error encoding server closed message:", err)
-			}
-			break
-		}
-		// We hold the lock during transmission to guarantee messages are
-		// sent in sequence number order.  Also, we increment first so the
-		// value of client.SeqNum is the value of the highest used sequence
-		// number, not one beyond.
-		client.mu.Lock()
-		client.seqNum++
-		hdr.SeqNum = client.seqNum
-		client.seqLock.Lock() // guarantee ordering of messages
-		client.mu.Unlock()
-		err := client.encode(&hdr, payData, val.Interface())
-		client.seqLock.Unlock()
-		if err != nil {
-			expLog("error encoding client response:", err)
-			client.sendError(&hdr, err.String())
-			break
-		}
-		// Negative count means run forever.
-		if count >= 0 {
-			if count--; count <= 0 {
-				break
-			}
-		}
-	}
-}
-
-// Receive and deliver locally one item from a client asking for a Send
-// The header is passed by value to avoid issues of overwriting.
-func (client *expClient) serveSend(hdr header) {
-	nch := client.getChan(&hdr, Recv)
-	if nch == nil {
-		return
-	}
-	// Create a new value for each received item.
-	val := reflect.Zero(nch.ch.Type().Elem())
-	if err := client.decode(val); err != nil {
-		expLog("value decode:", err, "; type ", nch.ch.Type())
-		return
-	}
-	nch.send(val)
-}
-
-// Report that client has closed the channel that is sending to us.
-// The header is passed by value to avoid issues of overwriting.
-func (client *expClient) serveClosed(hdr header) {
-	nch := client.getChan(&hdr, Recv)
-	if nch == nil {
-		return
-	}
-	nch.close()
-}
-
-func (client *expClient) unackedCount() int64 {
-	client.mu.Lock()
-	n := client.seqNum - client.ackNum
-	client.mu.Unlock()
-	return n
-}
-
-func (client *expClient) seq() int64 {
-	client.mu.Lock()
-	n := client.seqNum
-	client.mu.Unlock()
-	return n
-}
-
-func (client *expClient) ack() int64 {
-	client.mu.Lock()
-	n := client.seqNum
-	client.mu.Unlock()
-	return n
-}
-
-// Serve waits for incoming connections on the listener
-// and serves the Exporter's channels on each.
-// It blocks until the listener is closed.
-func (exp *Exporter) Serve(listener net.Listener) {
-	for {
-		conn, err := listener.Accept()
-		if err != nil {
-			expLog("listen:", err)
-			break
-		}
-		go exp.ServeConn(conn)
-	}
-}
-
-// ServeConn exports the Exporter's channels on conn.
-// It blocks until the connection is terminated.
-func (exp *Exporter) ServeConn(conn io.ReadWriter) {
-	exp.addClient(conn).run()
-}
-
-// NewExporter creates a new Exporter that exports a set of channels.
-func NewExporter() *Exporter {
-	e := &Exporter{
-		clientSet: &clientSet{
-			names:   make(map[string]*chanDir),
-			clients: make(map[unackedCounter]bool),
-		},
-	}
-	return e
-}
-
-// ListenAndServe exports the exporter's channels through the
-// given network and local address defined as in net.Listen.
-func (exp *Exporter) ListenAndServe(network, localaddr string) os.Error {
-	listener, err := net.Listen(network, localaddr)
-	if err != nil {
-		return err
-	}
-	go exp.Serve(listener)
-	return nil
-}
-
-// addClient creates a new expClient and records its existence
-func (exp *Exporter) addClient(conn io.ReadWriter) *expClient {
-	client := newClient(exp, conn)
-	exp.mu.Lock()
-	exp.clients[client] = true
-	exp.mu.Unlock()
-	return client
-}
-
-// delClient forgets the client existed
-func (exp *Exporter) delClient(client *expClient) {
-	exp.mu.Lock()
-	exp.clients[client] = false, false
-	exp.mu.Unlock()
-}
-
-// Drain waits until all messages sent from this exporter/importer, including
-// those not yet sent to any client and possibly including those sent while
-// Drain was executing, have been received by the importer.  In short, it
-// waits until all the exporter's messages have been received by a client.
-// If the timeout (measured in nanoseconds) is positive and Drain takes
-// longer than that to complete, an error is returned.
-func (exp *Exporter) Drain(timeout int64) os.Error {
-	// This wrapper function is here so the method's comment will appear in godoc.
-	return exp.clientSet.drain(timeout)
-}
-
-// Sync waits until all clients of the exporter have received the messages
-// that were sent at the time Sync was invoked.  Unlike Drain, it does not
-// wait for messages sent while it is running or messages that have not been
-// dispatched to any client.  If the timeout (measured in nanoseconds) is
-// positive and Sync takes longer than that to complete, an error is
-// returned.
-func (exp *Exporter) Sync(timeout int64) os.Error {
-	// This wrapper function is here so the method's comment will appear in godoc.
-	return exp.clientSet.sync(timeout)
-}
-
-func checkChan(chT interface{}, dir Dir) (reflect.Value, os.Error) {
-	chanType := reflect.TypeOf(chT)
-	if chanType.Kind() != reflect.Chan {
-		return reflect.Value{}, os.NewError("not a channel")
-	}
-	if dir != Send && dir != Recv {
-		return reflect.Value{}, os.NewError("unknown channel direction")
-	}
-	switch chanType.ChanDir() {
-	case reflect.BothDir:
-	case reflect.SendDir:
-		if dir != Recv {
-			return reflect.Value{}, os.NewError("to import/export with Send, must provide <-chan")
-		}
-	case reflect.RecvDir:
-		if dir != Send {
-			return reflect.Value{}, os.NewError("to import/export with Recv, must provide chan<-")
-		}
-	}
-	return reflect.ValueOf(chT), nil
-}
-
-// Export exports a channel of a given type and specified direction.  The
-// channel to be exported is provided in the call and may be of arbitrary
-// channel type.
-// Despite the literal signature, the effective signature is
-//	Export(name string, chT chan T, dir Dir)
-func (exp *Exporter) Export(name string, chT interface{}, dir Dir) os.Error {
-	ch, err := checkChan(chT, dir)
-	if err != nil {
-		return err
-	}
-	exp.mu.Lock()
-	defer exp.mu.Unlock()
-	_, present := exp.names[name]
-	if present {
-		return os.NewError("channel name already being exported:" + name)
-	}
-	exp.names[name] = &chanDir{ch, dir}
-	return nil
-}
-
-// Hangup disassociates the named channel from the Exporter and closes
-// the channel.  Messages in flight for the channel may be dropped.
-func (exp *Exporter) Hangup(name string) os.Error {
-	exp.mu.Lock()
-	chDir, ok := exp.names[name]
-	if ok {
-		exp.names[name] = nil, false
-	}
-	// TODO drop all instances of channel from client sets
-	exp.mu.Unlock()
-	if !ok {
-		return os.NewError("netchan export: hangup: no such channel: " + name)
-	}
-	chDir.ch.Close()
-	return nil
-}
diff --git a/src/cmd/fix/testdata/reflect.print.go.in b/src/cmd/fix/testdata/reflect.print.go.in
deleted file mode 100644
index 14cf2b215c..0000000000
--- a/src/cmd/fix/testdata/reflect.print.go.in
+++ /dev/null
@@ -1,944 +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 fmt
-
-import (
-	"bytes"
-	"io"
-	"os"
-	"reflect"
-	"utf8"
-)
-
-// Some constants in the form of bytes, to avoid string overhead.
-// Needlessly fastidious, I suppose.
-var (
-	commaSpaceBytes = []byte(", ")
-	nilAngleBytes   = []byte("<nil>")
-	nilParenBytes   = []byte("(nil)")
-	nilBytes        = []byte("nil")
-	mapBytes        = []byte("map[")
-	missingBytes    = []byte("(MISSING)")
-	extraBytes      = []byte("%!(EXTRA ")
-	irparenBytes    = []byte("i)")
-	bytesBytes      = []byte("[]byte{")
-	widthBytes      = []byte("%!(BADWIDTH)")
-	precBytes       = []byte("%!(BADPREC)")
-	noVerbBytes     = []byte("%!(NOVERB)")
-)
-
-// State represents the printer state passed to custom formatters.
-// It provides access to the io.Writer interface plus information about
-// the flags and options for the operand's format specifier.
-type State interface {
-	// Write is the function to call to emit formatted output to be printed.
-	Write(b []byte) (ret int, err os.Error)
-	// Width returns the value of the width option and whether it has been set.
-	Width() (wid int, ok bool)
-	// Precision returns the value of the precision option and whether it has been set.
-	Precision() (prec int, ok bool)
-
-	// Flag returns whether the flag c, a character, has been set.
-	Flag(int) bool
-}
-
-// Formatter is the interface implemented by values with a custom formatter.
-// The implementation of Format may call Sprintf or Fprintf(f) etc.
-// to generate its output.
-type Formatter interface {
-	Format(f State, c int)
-}
-
-// Stringer is implemented by any value that has a String method(),
-// which defines the ``native'' format for that value.
-// The String method is used to print values passed as an operand
-// to a %s or %v format or to an unformatted printer such as Print.
-type Stringer interface {
-	String() string
-}
-
-// GoStringer is implemented by any value that has a GoString() method,
-// which defines the Go syntax for that value.
-// The GoString method is used to print values passed as an operand
-// to a %#v format.
-type GoStringer interface {
-	GoString() string
-}
-
-type pp struct {
-	n       int
-	buf     bytes.Buffer
-	runeBuf [utf8.UTFMax]byte
-	fmt     fmt
-}
-
-// A cache holds a set of reusable objects.
-// The buffered channel holds the currently available objects.
-// If more are needed, the cache creates them by calling new.
-type cache struct {
-	saved chan interface{}
-	new   func() interface{}
-}
-
-func (c *cache) put(x interface{}) {
-	select {
-	case c.saved <- x:
-		// saved in cache
-	default:
-		// discard
-	}
-}
-
-func (c *cache) get() interface{} {
-	select {
-	case x := <-c.saved:
-		return x // reused from cache
-	default:
-		return c.new()
-	}
-	panic("not reached")
-}
-
-func newCache(f func() interface{}) *cache {
-	return &cache{make(chan interface{}, 100), f}
-}
-
-var ppFree = newCache(func() interface{} { return new(pp) })
-
-// Allocate a new pp struct or grab a cached one.
-func newPrinter() *pp {
-	p := ppFree.get().(*pp)
-	p.fmt.init(&p.buf)
-	return p
-}
-
-// Save used pp structs in ppFree; avoids an allocation per invocation.
-func (p *pp) free() {
-	// Don't hold on to pp structs with large buffers.
-	if cap(p.buf.Bytes()) > 1024 {
-		return
-	}
-	p.buf.Reset()
-	ppFree.put(p)
-}
-
-func (p *pp) Width() (wid int, ok bool) { return p.fmt.wid, p.fmt.widPresent }
-
-func (p *pp) Precision() (prec int, ok bool) { return p.fmt.prec, p.fmt.precPresent }
-
-func (p *pp) Flag(b int) bool {
-	switch b {
-	case '-':
-		return p.fmt.minus
-	case '+':
-		return p.fmt.plus
-	case '#':
-		return p.fmt.sharp
-	case ' ':
-		return p.fmt.space
-	case '0':
-		return p.fmt.zero
-	}
-	return false
-}
-
-func (p *pp) add(c int) {
-	p.buf.WriteRune(c)
-}
-
-// Implement Write so we can call Fprintf on a pp (through State), for
-// recursive use in custom verbs.
-func (p *pp) Write(b []byte) (ret int, err os.Error) {
-	return p.buf.Write(b)
-}
-
-// These routines end in 'f' and take a format string.
-
-// Fprintf formats according to a format specifier and writes to w.
-// It returns the number of bytes written and any write error encountered.
-func Fprintf(w io.Writer, format string, a ...interface{}) (n int, error os.Error) {
-	p := newPrinter()
-	p.doPrintf(format, a)
-	n64, error := p.buf.WriteTo(w)
-	p.free()
-	return int(n64), error
-}
-
-// Printf formats according to a format specifier and writes to standard output.
-// It returns the number of bytes written and any write error encountered.
-func Printf(format string, a ...interface{}) (n int, errno os.Error) {
-	n, errno = Fprintf(os.Stdout, format, a...)
-	return n, errno
-}
-
-// Sprintf formats according to a format specifier and returns the resulting string.
-func Sprintf(format string, a ...interface{}) string {
-	p := newPrinter()
-	p.doPrintf(format, a)
-	s := p.buf.String()
-	p.free()
-	return s
-}
-
-// Errorf formats according to a format specifier and returns the string
-// converted to an os.ErrorString, which satisfies the os.Error interface.
-func Errorf(format string, a ...interface{}) os.Error {
-	return os.NewError(Sprintf(format, a...))
-}
-
-// These routines do not take a format string
-
-// Fprint formats using the default formats for its operands and writes to w.
-// Spaces are added between operands when neither is a string.
-// It returns the number of bytes written and any write error encountered.
-func Fprint(w io.Writer, a ...interface{}) (n int, error os.Error) {
-	p := newPrinter()
-	p.doPrint(a, false, false)
-	n64, error := p.buf.WriteTo(w)
-	p.free()
-	return int(n64), error
-}
-
-// Print formats using the default formats for its operands and writes to standard output.
-// Spaces are added between operands when neither is a string.
-// It returns the number of bytes written and any write error encountered.
-func Print(a ...interface{}) (n int, errno os.Error) {
-	n, errno = Fprint(os.Stdout, a...)
-	return n, errno
-}
-
-// Sprint formats using the default formats for its operands and returns the resulting string.
-// Spaces are added between operands when neither is a string.
-func Sprint(a ...interface{}) string {
-	p := newPrinter()
-	p.doPrint(a, false, false)
-	s := p.buf.String()
-	p.free()
-	return s
-}
-
-// These routines end in 'ln', do not take a format string,
-// always add spaces between operands, and add a newline
-// after the last operand.
-
-// Fprintln formats using the default formats for its operands and writes to w.
-// Spaces are always added between operands and a newline is appended.
-// It returns the number of bytes written and any write error encountered.
-func Fprintln(w io.Writer, a ...interface{}) (n int, error os.Error) {
-	p := newPrinter()
-	p.doPrint(a, true, true)
-	n64, error := p.buf.WriteTo(w)
-	p.free()
-	return int(n64), error
-}
-
-// Println formats using the default formats for its operands and writes to standard output.
-// Spaces are always added between operands and a newline is appended.
-// It returns the number of bytes written and any write error encountered.
-func Println(a ...interface{}) (n int, errno os.Error) {
-	n, errno = Fprintln(os.Stdout, a...)
-	return n, errno
-}
-
-// Sprintln formats using the default formats for its operands and returns the resulting string.
-// Spaces are always added between operands and a newline is appended.
-func Sprintln(a ...interface{}) string {
-	p := newPrinter()
-	p.doPrint(a, true, true)
-	s := p.buf.String()
-	p.free()
-	return s
-}
-
-// Get the i'th arg of the struct value.
-// If the arg itself is an interface, return a value for
-// the thing inside the interface, not the interface itself.
-func getField(v *reflect.StructValue, i int) reflect.Value {
-	val := v.Field(i)
-	if i, ok := val.(*reflect.InterfaceValue); ok {
-		if inter := i.Interface(); inter != nil {
-			return reflect.NewValue(inter)
-		}
-	}
-	return val
-}
-
-// Convert ASCII to integer.  n is 0 (and got is false) if no number present.
-func parsenum(s string, start, end int) (num int, isnum bool, newi int) {
-	if start >= end {
-		return 0, false, end
-	}
-	for newi = start; newi < end && '0' <= s[newi] && s[newi] <= '9'; newi++ {
-		num = num*10 + int(s[newi]-'0')
-		isnum = true
-	}
-	return
-}
-
-func (p *pp) unknownType(v interface{}) {
-	if v == nil {
-		p.buf.Write(nilAngleBytes)
-		return
-	}
-	p.buf.WriteByte('?')
-	p.buf.WriteString(reflect.Typeof(v).String())
-	p.buf.WriteByte('?')
-}
-
-func (p *pp) badVerb(verb int, val interface{}) {
-	p.add('%')
-	p.add('!')
-	p.add(verb)
-	p.add('(')
-	if val == nil {
-		p.buf.Write(nilAngleBytes)
-	} else {
-		p.buf.WriteString(reflect.Typeof(val).String())
-		p.add('=')
-		p.printField(val, 'v', false, false, 0)
-	}
-	p.add(')')
-}
-
-func (p *pp) fmtBool(v bool, verb int, value interface{}) {
-	switch verb {
-	case 't', 'v':
-		p.fmt.fmt_boolean(v)
-	default:
-		p.badVerb(verb, value)
-	}
-}
-
-// fmtC formats a rune for the 'c' format.
-func (p *pp) fmtC(c int64) {
-	rune := int(c) // Check for overflow.
-	if int64(rune) != c {
-		rune = utf8.RuneError
-	}
-	w := utf8.EncodeRune(p.runeBuf[0:utf8.UTFMax], rune)
-	p.fmt.pad(p.runeBuf[0:w])
-}
-
-func (p *pp) fmtInt64(v int64, verb int, value interface{}) {
-	switch verb {
-	case 'b':
-		p.fmt.integer(v, 2, signed, ldigits)
-	case 'c':
-		p.fmtC(v)
-	case 'd', 'v':
-		p.fmt.integer(v, 10, signed, ldigits)
-	case 'o':
-		p.fmt.integer(v, 8, signed, ldigits)
-	case 'x':
-		p.fmt.integer(v, 16, signed, ldigits)
-	case 'U':
-		p.fmtUnicode(v)
-	case 'X':
-		p.fmt.integer(v, 16, signed, udigits)
-	default:
-		p.badVerb(verb, value)
-	}
-}
-
-// fmt0x64 formats a uint64 in hexadecimal and prefixes it with 0x or
-// not, as requested, by temporarily setting the sharp flag.
-func (p *pp) fmt0x64(v uint64, leading0x bool) {
-	sharp := p.fmt.sharp
-	p.fmt.sharp = leading0x
-	p.fmt.integer(int64(v), 16, unsigned, ldigits)
-	p.fmt.sharp = sharp
-}
-
-// fmtUnicode formats a uint64 in U+1234 form by
-// temporarily turning on the unicode flag and tweaking the precision.
-func (p *pp) fmtUnicode(v int64) {
-	precPresent := p.fmt.precPresent
-	prec := p.fmt.prec
-	if !precPresent {
-		// If prec is already set, leave it alone; otherwise 4 is minimum.
-		p.fmt.prec = 4
-		p.fmt.precPresent = true
-	}
-	p.fmt.unicode = true // turn on U+
-	p.fmt.integer(int64(v), 16, unsigned, udigits)
-	p.fmt.unicode = false
-	p.fmt.prec = prec
-	p.fmt.precPresent = precPresent
-}
-
-func (p *pp) fmtUint64(v uint64, verb int, goSyntax bool, value interface{}) {
-	switch verb {
-	case 'b':
-		p.fmt.integer(int64(v), 2, unsigned, ldigits)
-	case 'c':
-		p.fmtC(int64(v))
-	case 'd':
-		p.fmt.integer(int64(v), 10, unsigned, ldigits)
-	case 'v':
-		if goSyntax {
-			p.fmt0x64(v, true)
-		} else {
-			p.fmt.integer(int64(v), 10, unsigned, ldigits)
-		}
-	case 'o':
-		p.fmt.integer(int64(v), 8, unsigned, ldigits)
-	case 'x':
-		p.fmt.integer(int64(v), 16, unsigned, ldigits)
-	case 'X':
-		p.fmt.integer(int64(v), 16, unsigned, udigits)
-	default:
-		p.badVerb(verb, value)
-	}
-}
-
-func (p *pp) fmtFloat32(v float32, verb int, value interface{}) {
-	switch verb {
-	case 'b':
-		p.fmt.fmt_fb32(v)
-	case 'e':
-		p.fmt.fmt_e32(v)
-	case 'E':
-		p.fmt.fmt_E32(v)
-	case 'f':
-		p.fmt.fmt_f32(v)
-	case 'g', 'v':
-		p.fmt.fmt_g32(v)
-	case 'G':
-		p.fmt.fmt_G32(v)
-	default:
-		p.badVerb(verb, value)
-	}
-}
-
-func (p *pp) fmtFloat64(v float64, verb int, value interface{}) {
-	switch verb {
-	case 'b':
-		p.fmt.fmt_fb64(v)
-	case 'e':
-		p.fmt.fmt_e64(v)
-	case 'E':
-		p.fmt.fmt_E64(v)
-	case 'f':
-		p.fmt.fmt_f64(v)
-	case 'g', 'v':
-		p.fmt.fmt_g64(v)
-	case 'G':
-		p.fmt.fmt_G64(v)
-	default:
-		p.badVerb(verb, value)
-	}
-}
-
-func (p *pp) fmtComplex64(v complex64, verb int, value interface{}) {
-	switch verb {
-	case 'e', 'E', 'f', 'F', 'g', 'G':
-		p.fmt.fmt_c64(v, verb)
-	case 'v':
-		p.fmt.fmt_c64(v, 'g')
-	default:
-		p.badVerb(verb, value)
-	}
-}
-
-func (p *pp) fmtComplex128(v complex128, verb int, value interface{}) {
-	switch verb {
-	case 'e', 'E', 'f', 'F', 'g', 'G':
-		p.fmt.fmt_c128(v, verb)
-	case 'v':
-		p.fmt.fmt_c128(v, 'g')
-	default:
-		p.badVerb(verb, value)
-	}
-}
-
-func (p *pp) fmtString(v string, verb int, goSyntax bool, value interface{}) {
-	switch verb {
-	case 'v':
-		if goSyntax {
-			p.fmt.fmt_q(v)
-		} else {
-			p.fmt.fmt_s(v)
-		}
-	case 's':
-		p.fmt.fmt_s(v)
-	case 'x':
-		p.fmt.fmt_sx(v)
-	case 'X':
-		p.fmt.fmt_sX(v)
-	case 'q':
-		p.fmt.fmt_q(v)
-	default:
-		p.badVerb(verb, value)
-	}
-}
-
-func (p *pp) fmtBytes(v []byte, verb int, goSyntax bool, depth int, value interface{}) {
-	if verb == 'v' || verb == 'd' {
-		if goSyntax {
-			p.buf.Write(bytesBytes)
-		} else {
-			p.buf.WriteByte('[')
-		}
-		for i, c := range v {
-			if i > 0 {
-				if goSyntax {
-					p.buf.Write(commaSpaceBytes)
-				} else {
-					p.buf.WriteByte(' ')
-				}
-			}
-			p.printField(c, 'v', p.fmt.plus, goSyntax, depth+1)
-		}
-		if goSyntax {
-			p.buf.WriteByte('}')
-		} else {
-			p.buf.WriteByte(']')
-		}
-		return
-	}
-	s := string(v)
-	switch verb {
-	case 's':
-		p.fmt.fmt_s(s)
-	case 'x':
-		p.fmt.fmt_sx(s)
-	case 'X':
-		p.fmt.fmt_sX(s)
-	case 'q':
-		p.fmt.fmt_q(s)
-	default:
-		p.badVerb(verb, value)
-	}
-}
-
-func (p *pp) fmtPointer(field interface{}, value reflect.Value, verb int, goSyntax bool) {
-	var u uintptr
-	switch value.(type) {
-	case *reflect.ChanValue, *reflect.FuncValue, *reflect.MapValue, *reflect.PtrValue, *reflect.SliceValue, *reflect.UnsafePointerValue:
-		u = value.Pointer()
-	default:
-		p.badVerb(verb, field)
-		return
-	}
-	if goSyntax {
-		p.add('(')
-		p.buf.WriteString(reflect.Typeof(field).String())
-		p.add(')')
-		p.add('(')
-		if u == 0 {
-			p.buf.Write(nilBytes)
-		} else {
-			p.fmt0x64(uint64(u), true)
-		}
-		p.add(')')
-	} else {
-		p.fmt0x64(uint64(u), !p.fmt.sharp)
-	}
-}
-
-var (
-	intBits     = reflect.Typeof(0).Bits()
-	floatBits   = reflect.Typeof(0.0).Bits()
-	complexBits = reflect.Typeof(1i).Bits()
-	uintptrBits = reflect.Typeof(uintptr(0)).Bits()
-)
-
-func (p *pp) printField(field interface{}, verb int, plus, goSyntax bool, depth int) (wasString bool) {
-	if field == nil {
-		if verb == 'T' || verb == 'v' {
-			p.buf.Write(nilAngleBytes)
-		} else {
-			p.badVerb(verb, field)
-		}
-		return false
-	}
-
-	// Special processing considerations.
-	// %T (the value's type) and %p (its address) are special; we always do them first.
-	switch verb {
-	case 'T':
-		p.printField(reflect.Typeof(field).String(), 's', false, false, 0)
-		return false
-	case 'p':
-		p.fmtPointer(field, reflect.NewValue(field), verb, goSyntax)
-		return false
-	}
-	// Is it a Formatter?
-	if formatter, ok := field.(Formatter); ok {
-		formatter.Format(p, verb)
-		return false // this value is not a string
-
-	}
-	// Must not touch flags before Formatter looks at them.
-	if plus {
-		p.fmt.plus = false
-	}
-	// If we're doing Go syntax and the field knows how to supply it, take care of it now.
-	if goSyntax {
-		p.fmt.sharp = false
-		if stringer, ok := field.(GoStringer); ok {
-			// Print the result of GoString unadorned.
-			p.fmtString(stringer.GoString(), 's', false, field)
-			return false // this value is not a string
-		}
-	} else {
-		// Is it a Stringer?
-		if stringer, ok := field.(Stringer); ok {
-			p.printField(stringer.String(), verb, plus, false, depth)
-			return false // this value is not a string
-		}
-	}
-
-	// Some types can be done without reflection.
-	switch f := field.(type) {
-	case bool:
-		p.fmtBool(f, verb, field)
-		return false
-	case float32:
-		p.fmtFloat32(f, verb, field)
-		return false
-	case float64:
-		p.fmtFloat64(f, verb, field)
-		return false
-	case complex64:
-		p.fmtComplex64(complex64(f), verb, field)
-		return false
-	case complex128:
-		p.fmtComplex128(f, verb, field)
-		return false
-	case int:
-		p.fmtInt64(int64(f), verb, field)
-		return false
-	case int8:
-		p.fmtInt64(int64(f), verb, field)
-		return false
-	case int16:
-		p.fmtInt64(int64(f), verb, field)
-		return false
-	case int32:
-		p.fmtInt64(int64(f), verb, field)
-		return false
-	case int64:
-		p.fmtInt64(f, verb, field)
-		return false
-	case uint:
-		p.fmtUint64(uint64(f), verb, goSyntax, field)
-		return false
-	case uint8:
-		p.fmtUint64(uint64(f), verb, goSyntax, field)
-		return false
-	case uint16:
-		p.fmtUint64(uint64(f), verb, goSyntax, field)
-		return false
-	case uint32:
-		p.fmtUint64(uint64(f), verb, goSyntax, field)
-		return false
-	case uint64:
-		p.fmtUint64(f, verb, goSyntax, field)
-		return false
-	case uintptr:
-		p.fmtUint64(uint64(f), verb, goSyntax, field)
-		return false
-	case string:
-		p.fmtString(f, verb, goSyntax, field)
-		return verb == 's' || verb == 'v'
-	case []byte:
-		p.fmtBytes(f, verb, goSyntax, depth, field)
-		return verb == 's'
-	}
-
-	// Need to use reflection
-	value := reflect.NewValue(field)
-
-BigSwitch:
-	switch f := value.(type) {
-	case *reflect.BoolValue:
-		p.fmtBool(f.Get(), verb, field)
-	case *reflect.IntValue:
-		p.fmtInt64(f.Get(), verb, field)
-	case *reflect.UintValue:
-		p.fmtUint64(uint64(f.Get()), verb, goSyntax, field)
-	case *reflect.FloatValue:
-		if f.Type().Size() == 4 {
-			p.fmtFloat32(float32(f.Get()), verb, field)
-		} else {
-			p.fmtFloat64(float64(f.Get()), verb, field)
-		}
-	case *reflect.ComplexValue:
-		if f.Type().Size() == 8 {
-			p.fmtComplex64(complex64(f.Get()), verb, field)
-		} else {
-			p.fmtComplex128(complex128(f.Get()), verb, field)
-		}
-	case *reflect.StringValue:
-		p.fmtString(f.Get(), verb, goSyntax, field)
-	case *reflect.MapValue:
-		if goSyntax {
-			p.buf.WriteString(f.Type().String())
-			p.buf.WriteByte('{')
-		} else {
-			p.buf.Write(mapBytes)
-		}
-		keys := f.Keys()
-		for i, key := range keys {
-			if i > 0 {
-				if goSyntax {
-					p.buf.Write(commaSpaceBytes)
-				} else {
-					p.buf.WriteByte(' ')
-				}
-			}
-			p.printField(key.Interface(), verb, plus, goSyntax, depth+1)
-			p.buf.WriteByte(':')
-			p.printField(f.Elem(key).Interface(), verb, plus, goSyntax, depth+1)
-		}
-		if goSyntax {
-			p.buf.WriteByte('}')
-		} else {
-			p.buf.WriteByte(']')
-		}
-	case *reflect.StructValue:
-		if goSyntax {
-			p.buf.WriteString(reflect.Typeof(field).String())
-		}
-		p.add('{')
-		v := f
-		t := v.Type().(*reflect.StructType)
-		for i := 0; i < v.NumField(); i++ {
-			if i > 0 {
-				if goSyntax {
-					p.buf.Write(commaSpaceBytes)
-				} else {
-					p.buf.WriteByte(' ')
-				}
-			}
-			if plus || goSyntax {
-				if f := t.Field(i); f.Name != "" {
-					p.buf.WriteString(f.Name)
-					p.buf.WriteByte(':')
-				}
-			}
-			p.printField(getField(v, i).Interface(), verb, plus, goSyntax, depth+1)
-		}
-		p.buf.WriteByte('}')
-	case *reflect.InterfaceValue:
-		value := f.Elem()
-		if value == nil {
-			if goSyntax {
-				p.buf.WriteString(reflect.Typeof(field).String())
-				p.buf.Write(nilParenBytes)
-			} else {
-				p.buf.Write(nilAngleBytes)
-			}
-		} else {
-			return p.printField(value.Interface(), verb, plus, goSyntax, depth+1)
-		}
-	case reflect.ArrayOrSliceValue:
-		// Byte slices are special.
-		if f.Type().(reflect.ArrayOrSliceType).Elem().Kind() == reflect.Uint8 {
-			// We know it's a slice of bytes, but we also know it does not have static type
-			// []byte, or it would have been caught above.  Therefore we cannot convert
-			// it directly in the (slightly) obvious way: f.Interface().([]byte); it doesn't have
-			// that type, and we can't write an expression of the right type and do a
-			// conversion because we don't have a static way to write the right type.
-			// So we build a slice by hand.  This is a rare case but it would be nice
-			// if reflection could help a little more.
-			bytes := make([]byte, f.Len())
-			for i := range bytes {
-				bytes[i] = byte(f.Elem(i).(*reflect.UintValue).Get())
-			}
-			p.fmtBytes(bytes, verb, goSyntax, depth, field)
-			return verb == 's'
-		}
-		if goSyntax {
-			p.buf.WriteString(reflect.Typeof(field).String())
-			p.buf.WriteByte('{')
-		} else {
-			p.buf.WriteByte('[')
-		}
-		for i := 0; i < f.Len(); i++ {
-			if i > 0 {
-				if goSyntax {
-					p.buf.Write(commaSpaceBytes)
-				} else {
-					p.buf.WriteByte(' ')
-				}
-			}
-			p.printField(f.Elem(i).Interface(), verb, plus, goSyntax, depth+1)
-		}
-		if goSyntax {
-			p.buf.WriteByte('}')
-		} else {
-			p.buf.WriteByte(']')
-		}
-	case *reflect.PtrValue:
-		v := f.Get()
-		// pointer to array or slice or struct?  ok at top level
-		// but not embedded (avoid loops)
-		if v != 0 && depth == 0 {
-			switch a := f.Elem().(type) {
-			case reflect.ArrayOrSliceValue:
-				p.buf.WriteByte('&')
-				p.printField(a.Interface(), verb, plus, goSyntax, depth+1)
-				break BigSwitch
-			case *reflect.StructValue:
-				p.buf.WriteByte('&')
-				p.printField(a.Interface(), verb, plus, goSyntax, depth+1)
-				break BigSwitch
-			}
-		}
-		if goSyntax {
-			p.buf.WriteByte('(')
-			p.buf.WriteString(reflect.Typeof(field).String())
-			p.buf.WriteByte(')')
-			p.buf.WriteByte('(')
-			if v == 0 {
-				p.buf.Write(nilBytes)
-			} else {
-				p.fmt0x64(uint64(v), true)
-			}
-			p.buf.WriteByte(')')
-			break
-		}
-		if v == 0 {
-			p.buf.Write(nilAngleBytes)
-			break
-		}
-		p.fmt0x64(uint64(v), true)
-	case *reflect.ChanValue, *reflect.FuncValue, *reflect.UnsafePointerValue:
-		p.fmtPointer(field, value, verb, goSyntax)
-	default:
-		p.unknownType(f)
-	}
-	return false
-}
-
-// intFromArg gets the fieldnumth element of a. On return, isInt reports whether the argument has type int.
-func intFromArg(a []interface{}, end, i, fieldnum int) (num int, isInt bool, newi, newfieldnum int) {
-	newi, newfieldnum = end, fieldnum
-	if i < end && fieldnum < len(a) {
-		num, isInt = a[fieldnum].(int)
-		newi, newfieldnum = i+1, fieldnum+1
-	}
-	return
-}
-
-func (p *pp) doPrintf(format string, a []interface{}) {
-	end := len(format)
-	fieldnum := 0 // we process one field per non-trivial format
-	for i := 0; i < end; {
-		lasti := i
-		for i < end && format[i] != '%' {
-			i++
-		}
-		if i > lasti {
-			p.buf.WriteString(format[lasti:i])
-		}
-		if i >= end {
-			// done processing format string
-			break
-		}
-
-		// Process one verb
-		i++
-		// flags and widths
-		p.fmt.clearflags()
-	F:
-		for ; i < end; i++ {
-			switch format[i] {
-			case '#':
-				p.fmt.sharp = true
-			case '0':
-				p.fmt.zero = true
-			case '+':
-				p.fmt.plus = true
-			case '-':
-				p.fmt.minus = true
-			case ' ':
-				p.fmt.space = true
-			default:
-				break F
-			}
-		}
-		// do we have width?
-		if i < end && format[i] == '*' {
-			p.fmt.wid, p.fmt.widPresent, i, fieldnum = intFromArg(a, end, i, fieldnum)
-			if !p.fmt.widPresent {
-				p.buf.Write(widthBytes)
-			}
-		} else {
-			p.fmt.wid, p.fmt.widPresent, i = parsenum(format, i, end)
-		}
-		// do we have precision?
-		if i < end && format[i] == '.' {
-			if format[i+1] == '*' {
-				p.fmt.prec, p.fmt.precPresent, i, fieldnum = intFromArg(a, end, i+1, fieldnum)
-				if !p.fmt.precPresent {
-					p.buf.Write(precBytes)
-				}
-			} else {
-				p.fmt.prec, p.fmt.precPresent, i = parsenum(format, i+1, end)
-			}
-		}
-		if i >= end {
-			p.buf.Write(noVerbBytes)
-			continue
-		}
-		c, w := utf8.DecodeRuneInString(format[i:])
-		i += w
-		// percent is special - absorbs no operand
-		if c == '%' {
-			p.buf.WriteByte('%') // We ignore width and prec.
-			continue
-		}
-		if fieldnum >= len(a) { // out of operands
-			p.buf.WriteByte('%')
-			p.add(c)
-			p.buf.Write(missingBytes)
-			continue
-		}
-		field := a[fieldnum]
-		fieldnum++
-
-		goSyntax := c == 'v' && p.fmt.sharp
-		plus := c == 'v' && p.fmt.plus
-		p.printField(field, c, plus, goSyntax, 0)
-	}
-
-	if fieldnum < len(a) {
-		p.buf.Write(extraBytes)
-		for ; fieldnum < len(a); fieldnum++ {
-			field := a[fieldnum]
-			if field != nil {
-				p.buf.WriteString(reflect.Typeof(field).String())
-				p.buf.WriteByte('=')
-			}
-			p.printField(field, 'v', false, false, 0)
-			if fieldnum+1 < len(a) {
-				p.buf.Write(commaSpaceBytes)
-			}
-		}
-		p.buf.WriteByte(')')
-	}
-}
-
-func (p *pp) doPrint(a []interface{}, addspace, addnewline bool) {
-	prevString := false
-	for fieldnum := 0; fieldnum < len(a); fieldnum++ {
-		p.fmt.clearflags()
-		// always add spaces if we're doing println
-		field := a[fieldnum]
-		if fieldnum > 0 {
-			isString := field != nil && reflect.Typeof(field).Kind() == reflect.String
-			if addspace || !isString && !prevString {
-				p.buf.WriteByte(' ')
-			}
-		}
-		prevString = p.printField(field, 'v', false, false, 0)
-	}
-	if addnewline {
-		p.buf.WriteByte('\n')
-	}
-}
diff --git a/src/cmd/fix/testdata/reflect.print.go.out b/src/cmd/fix/testdata/reflect.print.go.out
deleted file mode 100644
index e4e4c73687..0000000000
--- a/src/cmd/fix/testdata/reflect.print.go.out
+++ /dev/null
@@ -1,944 +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 fmt
-
-import (
-	"bytes"
-	"io"
-	"os"
-	"reflect"
-	"utf8"
-)
-
-// Some constants in the form of bytes, to avoid string overhead.
-// Needlessly fastidious, I suppose.
-var (
-	commaSpaceBytes = []byte(", ")
-	nilAngleBytes   = []byte("<nil>")
-	nilParenBytes   = []byte("(nil)")
-	nilBytes        = []byte("nil")
-	mapBytes        = []byte("map[")
-	missingBytes    = []byte("(MISSING)")
-	extraBytes      = []byte("%!(EXTRA ")
-	irparenBytes    = []byte("i)")
-	bytesBytes      = []byte("[]byte{")
-	widthBytes      = []byte("%!(BADWIDTH)")
-	precBytes       = []byte("%!(BADPREC)")
-	noVerbBytes     = []byte("%!(NOVERB)")
-)
-
-// State represents the printer state passed to custom formatters.
-// It provides access to the io.Writer interface plus information about
-// the flags and options for the operand's format specifier.
-type State interface {
-	// Write is the function to call to emit formatted output to be printed.
-	Write(b []byte) (ret int, err os.Error)
-	// Width returns the value of the width option and whether it has been set.
-	Width() (wid int, ok bool)
-	// Precision returns the value of the precision option and whether it has been set.
-	Precision() (prec int, ok bool)
-
-	// Flag returns whether the flag c, a character, has been set.
-	Flag(int) bool
-}
-
-// Formatter is the interface implemented by values with a custom formatter.
-// The implementation of Format may call Sprintf or Fprintf(f) etc.
-// to generate its output.
-type Formatter interface {
-	Format(f State, c int)
-}
-
-// Stringer is implemented by any value that has a String method(),
-// which defines the ``native'' format for that value.
-// The String method is used to print values passed as an operand
-// to a %s or %v format or to an unformatted printer such as Print.
-type Stringer interface {
-	String() string
-}
-
-// GoStringer is implemented by any value that has a GoString() method,
-// which defines the Go syntax for that value.
-// The GoString method is used to print values passed as an operand
-// to a %#v format.
-type GoStringer interface {
-	GoString() string
-}
-
-type pp struct {
-	n       int
-	buf     bytes.Buffer
-	runeBuf [utf8.UTFMax]byte
-	fmt     fmt
-}
-
-// A cache holds a set of reusable objects.
-// The buffered channel holds the currently available objects.
-// If more are needed, the cache creates them by calling new.
-type cache struct {
-	saved chan interface{}
-	new   func() interface{}
-}
-
-func (c *cache) put(x interface{}) {
-	select {
-	case c.saved <- x:
-		// saved in cache
-	default:
-		// discard
-	}
-}
-
-func (c *cache) get() interface{} {
-	select {
-	case x := <-c.saved:
-		return x // reused from cache
-	default:
-		return c.new()
-	}
-	panic("not reached")
-}
-
-func newCache(f func() interface{}) *cache {
-	return &cache{make(chan interface{}, 100), f}
-}
-
-var ppFree = newCache(func() interface{} { return new(pp) })
-
-// Allocate a new pp struct or grab a cached one.
-func newPrinter() *pp {
-	p := ppFree.get().(*pp)
-	p.fmt.init(&p.buf)
-	return p
-}
-
-// Save used pp structs in ppFree; avoids an allocation per invocation.
-func (p *pp) free() {
-	// Don't hold on to pp structs with large buffers.
-	if cap(p.buf.Bytes()) > 1024 {
-		return
-	}
-	p.buf.Reset()
-	ppFree.put(p)
-}
-
-func (p *pp) Width() (wid int, ok bool) { return p.fmt.wid, p.fmt.widPresent }
-
-func (p *pp) Precision() (prec int, ok bool) { return p.fmt.prec, p.fmt.precPresent }
-
-func (p *pp) Flag(b int) bool {
-	switch b {
-	case '-':
-		return p.fmt.minus
-	case '+':
-		return p.fmt.plus
-	case '#':
-		return p.fmt.sharp
-	case ' ':
-		return p.fmt.space
-	case '0':
-		return p.fmt.zero
-	}
-	return false
-}
-
-func (p *pp) add(c int) {
-	p.buf.WriteRune(c)
-}
-
-// Implement Write so we can call Fprintf on a pp (through State), for
-// recursive use in custom verbs.
-func (p *pp) Write(b []byte) (ret int, err os.Error) {
-	return p.buf.Write(b)
-}
-
-// These routines end in 'f' and take a format string.
-
-// Fprintf formats according to a format specifier and writes to w.
-// It returns the number of bytes written and any write error encountered.
-func Fprintf(w io.Writer, format string, a ...interface{}) (n int, error os.Error) {
-	p := newPrinter()
-	p.doPrintf(format, a)
-	n64, error := p.buf.WriteTo(w)
-	p.free()
-	return int(n64), error
-}
-
-// Printf formats according to a format specifier and writes to standard output.
-// It returns the number of bytes written and any write error encountered.
-func Printf(format string, a ...interface{}) (n int, errno os.Error) {
-	n, errno = Fprintf(os.Stdout, format, a...)
-	return n, errno
-}
-
-// Sprintf formats according to a format specifier and returns the resulting string.
-func Sprintf(format string, a ...interface{}) string {
-	p := newPrinter()
-	p.doPrintf(format, a)
-	s := p.buf.String()
-	p.free()
-	return s
-}
-
-// Errorf formats according to a format specifier and returns the string
-// converted to an os.ErrorString, which satisfies the os.Error interface.
-func Errorf(format string, a ...interface{}) os.Error {
-	return os.NewError(Sprintf(format, a...))
-}
-
-// These routines do not take a format string
-
-// Fprint formats using the default formats for its operands and writes to w.
-// Spaces are added between operands when neither is a string.
-// It returns the number of bytes written and any write error encountered.
-func Fprint(w io.Writer, a ...interface{}) (n int, error os.Error) {
-	p := newPrinter()
-	p.doPrint(a, false, false)
-	n64, error := p.buf.WriteTo(w)
-	p.free()
-	return int(n64), error
-}
-
-// Print formats using the default formats for its operands and writes to standard output.
-// Spaces are added between operands when neither is a string.
-// It returns the number of bytes written and any write error encountered.
-func Print(a ...interface{}) (n int, errno os.Error) {
-	n, errno = Fprint(os.Stdout, a...)
-	return n, errno
-}
-
-// Sprint formats using the default formats for its operands and returns the resulting string.
-// Spaces are added between operands when neither is a string.
-func Sprint(a ...interface{}) string {
-	p := newPrinter()
-	p.doPrint(a, false, false)
-	s := p.buf.String()
-	p.free()
-	return s
-}
-
-// These routines end in 'ln', do not take a format string,
-// always add spaces between operands, and add a newline
-// after the last operand.
-
-// Fprintln formats using the default formats for its operands and writes to w.
-// Spaces are always added between operands and a newline is appended.
-// It returns the number of bytes written and any write error encountered.
-func Fprintln(w io.Writer, a ...interface{}) (n int, error os.Error) {
-	p := newPrinter()
-	p.doPrint(a, true, true)
-	n64, error := p.buf.WriteTo(w)
-	p.free()
-	return int(n64), error
-}
-
-// Println formats using the default formats for its operands and writes to standard output.
-// Spaces are always added between operands and a newline is appended.
-// It returns the number of bytes written and any write error encountered.
-func Println(a ...interface{}) (n int, errno os.Error) {
-	n, errno = Fprintln(os.Stdout, a...)
-	return n, errno
-}
-
-// Sprintln formats using the default formats for its operands and returns the resulting string.
-// Spaces are always added between operands and a newline is appended.
-func Sprintln(a ...interface{}) string {
-	p := newPrinter()
-	p.doPrint(a, true, true)
-	s := p.buf.String()
-	p.free()
-	return s
-}
-
-// Get the i'th arg of the struct value.
-// If the arg itself is an interface, return a value for
-// the thing inside the interface, not the interface itself.
-func getField(v reflect.Value, i int) reflect.Value {
-	val := v.Field(i)
-	if i := val; i.Kind() == reflect.Interface {
-		if inter := i.Interface(); inter != nil {
-			return reflect.ValueOf(inter)
-		}
-	}
-	return val
-}
-
-// Convert ASCII to integer.  n is 0 (and got is false) if no number present.
-func parsenum(s string, start, end int) (num int, isnum bool, newi int) {
-	if start >= end {
-		return 0, false, end
-	}
-	for newi = start; newi < end && '0' <= s[newi] && s[newi] <= '9'; newi++ {
-		num = num*10 + int(s[newi]-'0')
-		isnum = true
-	}
-	return
-}
-
-func (p *pp) unknownType(v interface{}) {
-	if v == nil {
-		p.buf.Write(nilAngleBytes)
-		return
-	}
-	p.buf.WriteByte('?')
-	p.buf.WriteString(reflect.TypeOf(v).String())
-	p.buf.WriteByte('?')
-}
-
-func (p *pp) badVerb(verb int, val interface{}) {
-	p.add('%')
-	p.add('!')
-	p.add(verb)
-	p.add('(')
-	if val == nil {
-		p.buf.Write(nilAngleBytes)
-	} else {
-		p.buf.WriteString(reflect.TypeOf(val).String())
-		p.add('=')
-		p.printField(val, 'v', false, false, 0)
-	}
-	p.add(')')
-}
-
-func (p *pp) fmtBool(v bool, verb int, value interface{}) {
-	switch verb {
-	case 't', 'v':
-		p.fmt.fmt_boolean(v)
-	default:
-		p.badVerb(verb, value)
-	}
-}
-
-// fmtC formats a rune for the 'c' format.
-func (p *pp) fmtC(c int64) {
-	rune := int(c) // Check for overflow.
-	if int64(rune) != c {
-		rune = utf8.RuneError
-	}
-	w := utf8.EncodeRune(p.runeBuf[0:utf8.UTFMax], rune)
-	p.fmt.pad(p.runeBuf[0:w])
-}
-
-func (p *pp) fmtInt64(v int64, verb int, value interface{}) {
-	switch verb {
-	case 'b':
-		p.fmt.integer(v, 2, signed, ldigits)
-	case 'c':
-		p.fmtC(v)
-	case 'd', 'v':
-		p.fmt.integer(v, 10, signed, ldigits)
-	case 'o':
-		p.fmt.integer(v, 8, signed, ldigits)
-	case 'x':
-		p.fmt.integer(v, 16, signed, ldigits)
-	case 'U':
-		p.fmtUnicode(v)
-	case 'X':
-		p.fmt.integer(v, 16, signed, udigits)
-	default:
-		p.badVerb(verb, value)
-	}
-}
-
-// fmt0x64 formats a uint64 in hexadecimal and prefixes it with 0x or
-// not, as requested, by temporarily setting the sharp flag.
-func (p *pp) fmt0x64(v uint64, leading0x bool) {
-	sharp := p.fmt.sharp
-	p.fmt.sharp = leading0x
-	p.fmt.integer(int64(v), 16, unsigned, ldigits)
-	p.fmt.sharp = sharp
-}
-
-// fmtUnicode formats a uint64 in U+1234 form by
-// temporarily turning on the unicode flag and tweaking the precision.
-func (p *pp) fmtUnicode(v int64) {
-	precPresent := p.fmt.precPresent
-	prec := p.fmt.prec
-	if !precPresent {
-		// If prec is already set, leave it alone; otherwise 4 is minimum.
-		p.fmt.prec = 4
-		p.fmt.precPresent = true
-	}
-	p.fmt.unicode = true // turn on U+
-	p.fmt.integer(int64(v), 16, unsigned, udigits)
-	p.fmt.unicode = false
-	p.fmt.prec = prec
-	p.fmt.precPresent = precPresent
-}
-
-func (p *pp) fmtUint64(v uint64, verb int, goSyntax bool, value interface{}) {
-	switch verb {
-	case 'b':
-		p.fmt.integer(int64(v), 2, unsigned, ldigits)
-	case 'c':
-		p.fmtC(int64(v))
-	case 'd':
-		p.fmt.integer(int64(v), 10, unsigned, ldigits)
-	case 'v':
-		if goSyntax {
-			p.fmt0x64(v, true)
-		} else {
-			p.fmt.integer(int64(v), 10, unsigned, ldigits)
-		}
-	case 'o':
-		p.fmt.integer(int64(v), 8, unsigned, ldigits)
-	case 'x':
-		p.fmt.integer(int64(v), 16, unsigned, ldigits)
-	case 'X':
-		p.fmt.integer(int64(v), 16, unsigned, udigits)
-	default:
-		p.badVerb(verb, value)
-	}
-}
-
-func (p *pp) fmtFloat32(v float32, verb int, value interface{}) {
-	switch verb {
-	case 'b':
-		p.fmt.fmt_fb32(v)
-	case 'e':
-		p.fmt.fmt_e32(v)
-	case 'E':
-		p.fmt.fmt_E32(v)
-	case 'f':
-		p.fmt.fmt_f32(v)
-	case 'g', 'v':
-		p.fmt.fmt_g32(v)
-	case 'G':
-		p.fmt.fmt_G32(v)
-	default:
-		p.badVerb(verb, value)
-	}
-}
-
-func (p *pp) fmtFloat64(v float64, verb int, value interface{}) {
-	switch verb {
-	case 'b':
-		p.fmt.fmt_fb64(v)
-	case 'e':
-		p.fmt.fmt_e64(v)
-	case 'E':
-		p.fmt.fmt_E64(v)
-	case 'f':
-		p.fmt.fmt_f64(v)
-	case 'g', 'v':
-		p.fmt.fmt_g64(v)
-	case 'G':
-		p.fmt.fmt_G64(v)
-	default:
-		p.badVerb(verb, value)
-	}
-}
-
-func (p *pp) fmtComplex64(v complex64, verb int, value interface{}) {
-	switch verb {
-	case 'e', 'E', 'f', 'F', 'g', 'G':
-		p.fmt.fmt_c64(v, verb)
-	case 'v':
-		p.fmt.fmt_c64(v, 'g')
-	default:
-		p.badVerb(verb, value)
-	}
-}
-
-func (p *pp) fmtComplex128(v complex128, verb int, value interface{}) {
-	switch verb {
-	case 'e', 'E', 'f', 'F', 'g', 'G':
-		p.fmt.fmt_c128(v, verb)
-	case 'v':
-		p.fmt.fmt_c128(v, 'g')
-	default:
-		p.badVerb(verb, value)
-	}
-}
-
-func (p *pp) fmtString(v string, verb int, goSyntax bool, value interface{}) {
-	switch verb {
-	case 'v':
-		if goSyntax {
-			p.fmt.fmt_q(v)
-		} else {
-			p.fmt.fmt_s(v)
-		}
-	case 's':
-		p.fmt.fmt_s(v)
-	case 'x':
-		p.fmt.fmt_sx(v)
-	case 'X':
-		p.fmt.fmt_sX(v)
-	case 'q':
-		p.fmt.fmt_q(v)
-	default:
-		p.badVerb(verb, value)
-	}
-}
-
-func (p *pp) fmtBytes(v []byte, verb int, goSyntax bool, depth int, value interface{}) {
-	if verb == 'v' || verb == 'd' {
-		if goSyntax {
-			p.buf.Write(bytesBytes)
-		} else {
-			p.buf.WriteByte('[')
-		}
-		for i, c := range v {
-			if i > 0 {
-				if goSyntax {
-					p.buf.Write(commaSpaceBytes)
-				} else {
-					p.buf.WriteByte(' ')
-				}
-			}
-			p.printField(c, 'v', p.fmt.plus, goSyntax, depth+1)
-		}
-		if goSyntax {
-			p.buf.WriteByte('}')
-		} else {
-			p.buf.WriteByte(']')
-		}
-		return
-	}
-	s := string(v)
-	switch verb {
-	case 's':
-		p.fmt.fmt_s(s)
-	case 'x':
-		p.fmt.fmt_sx(s)
-	case 'X':
-		p.fmt.fmt_sX(s)
-	case 'q':
-		p.fmt.fmt_q(s)
-	default:
-		p.badVerb(verb, value)
-	}
-}
-
-func (p *pp) fmtPointer(field interface{}, value reflect.Value, verb int, goSyntax bool) {
-	var u uintptr
-	switch value.Kind() {
-	case reflect.Chan, reflect.Func, reflect.Map, reflect.Ptr, reflect.Slice, reflect.UnsafePointer:
-		u = value.Pointer()
-	default:
-		p.badVerb(verb, field)
-		return
-	}
-	if goSyntax {
-		p.add('(')
-		p.buf.WriteString(reflect.TypeOf(field).String())
-		p.add(')')
-		p.add('(')
-		if u == 0 {
-			p.buf.Write(nilBytes)
-		} else {
-			p.fmt0x64(uint64(u), true)
-		}
-		p.add(')')
-	} else {
-		p.fmt0x64(uint64(u), !p.fmt.sharp)
-	}
-}
-
-var (
-	intBits     = reflect.TypeOf(0).Bits()
-	floatBits   = reflect.TypeOf(0.0).Bits()
-	complexBits = reflect.TypeOf(1i).Bits()
-	uintptrBits = reflect.TypeOf(uintptr(0)).Bits()
-)
-
-func (p *pp) printField(field interface{}, verb int, plus, goSyntax bool, depth int) (wasString bool) {
-	if field == nil {
-		if verb == 'T' || verb == 'v' {
-			p.buf.Write(nilAngleBytes)
-		} else {
-			p.badVerb(verb, field)
-		}
-		return false
-	}
-
-	// Special processing considerations.
-	// %T (the value's type) and %p (its address) are special; we always do them first.
-	switch verb {
-	case 'T':
-		p.printField(reflect.TypeOf(field).String(), 's', false, false, 0)
-		return false
-	case 'p':
-		p.fmtPointer(field, reflect.ValueOf(field), verb, goSyntax)
-		return false
-	}
-	// Is it a Formatter?
-	if formatter, ok := field.(Formatter); ok {
-		formatter.Format(p, verb)
-		return false // this value is not a string
-
-	}
-	// Must not touch flags before Formatter looks at them.
-	if plus {
-		p.fmt.plus = false
-	}
-	// If we're doing Go syntax and the field knows how to supply it, take care of it now.
-	if goSyntax {
-		p.fmt.sharp = false
-		if stringer, ok := field.(GoStringer); ok {
-			// Print the result of GoString unadorned.
-			p.fmtString(stringer.GoString(), 's', false, field)
-			return false // this value is not a string
-		}
-	} else {
-		// Is it a Stringer?
-		if stringer, ok := field.(Stringer); ok {
-			p.printField(stringer.String(), verb, plus, false, depth)
-			return false // this value is not a string
-		}
-	}
-
-	// Some types can be done without reflection.
-	switch f := field.(type) {
-	case bool:
-		p.fmtBool(f, verb, field)
-		return false
-	case float32:
-		p.fmtFloat32(f, verb, field)
-		return false
-	case float64:
-		p.fmtFloat64(f, verb, field)
-		return false
-	case complex64:
-		p.fmtComplex64(complex64(f), verb, field)
-		return false
-	case complex128:
-		p.fmtComplex128(f, verb, field)
-		return false
-	case int:
-		p.fmtInt64(int64(f), verb, field)
-		return false
-	case int8:
-		p.fmtInt64(int64(f), verb, field)
-		return false
-	case int16:
-		p.fmtInt64(int64(f), verb, field)
-		return false
-	case int32:
-		p.fmtInt64(int64(f), verb, field)
-		return false
-	case int64:
-		p.fmtInt64(f, verb, field)
-		return false
-	case uint:
-		p.fmtUint64(uint64(f), verb, goSyntax, field)
-		return false
-	case uint8:
-		p.fmtUint64(uint64(f), verb, goSyntax, field)
-		return false
-	case uint16:
-		p.fmtUint64(uint64(f), verb, goSyntax, field)
-		return false
-	case uint32:
-		p.fmtUint64(uint64(f), verb, goSyntax, field)
-		return false
-	case uint64:
-		p.fmtUint64(f, verb, goSyntax, field)
-		return false
-	case uintptr:
-		p.fmtUint64(uint64(f), verb, goSyntax, field)
-		return false
-	case string:
-		p.fmtString(f, verb, goSyntax, field)
-		return verb == 's' || verb == 'v'
-	case []byte:
-		p.fmtBytes(f, verb, goSyntax, depth, field)
-		return verb == 's'
-	}
-
-	// Need to use reflection
-	value := reflect.ValueOf(field)
-
-BigSwitch:
-	switch f := value; f.Kind() {
-	case reflect.Bool:
-		p.fmtBool(f.Bool(), verb, field)
-	case reflect.Int, reflect.Int8, reflect.Int16, reflect.Int32, reflect.Int64:
-		p.fmtInt64(f.Int(), verb, field)
-	case reflect.Uint, reflect.Uint8, reflect.Uint16, reflect.Uint32, reflect.Uint64, reflect.Uintptr:
-		p.fmtUint64(uint64(f.Uint()), verb, goSyntax, field)
-	case reflect.Float32, reflect.Float64:
-		if f.Type().Size() == 4 {
-			p.fmtFloat32(float32(f.Float()), verb, field)
-		} else {
-			p.fmtFloat64(float64(f.Float()), verb, field)
-		}
-	case reflect.Complex64, reflect.Complex128:
-		if f.Type().Size() == 8 {
-			p.fmtComplex64(complex64(f.Complex()), verb, field)
-		} else {
-			p.fmtComplex128(complex128(f.Complex()), verb, field)
-		}
-	case reflect.String:
-		p.fmtString(f.String(), verb, goSyntax, field)
-	case reflect.Map:
-		if goSyntax {
-			p.buf.WriteString(f.Type().String())
-			p.buf.WriteByte('{')
-		} else {
-			p.buf.Write(mapBytes)
-		}
-		keys := f.MapKeys()
-		for i, key := range keys {
-			if i > 0 {
-				if goSyntax {
-					p.buf.Write(commaSpaceBytes)
-				} else {
-					p.buf.WriteByte(' ')
-				}
-			}
-			p.printField(key.Interface(), verb, plus, goSyntax, depth+1)
-			p.buf.WriteByte(':')
-			p.printField(f.MapIndex(key).Interface(), verb, plus, goSyntax, depth+1)
-		}
-		if goSyntax {
-			p.buf.WriteByte('}')
-		} else {
-			p.buf.WriteByte(']')
-		}
-	case reflect.Struct:
-		if goSyntax {
-			p.buf.WriteString(reflect.TypeOf(field).String())
-		}
-		p.add('{')
-		v := f
-		t := v.Type()
-		for i := 0; i < v.NumField(); i++ {
-			if i > 0 {
-				if goSyntax {
-					p.buf.Write(commaSpaceBytes)
-				} else {
-					p.buf.WriteByte(' ')
-				}
-			}
-			if plus || goSyntax {
-				if f := t.Field(i); f.Name != "" {
-					p.buf.WriteString(f.Name)
-					p.buf.WriteByte(':')
-				}
-			}
-			p.printField(getField(v, i).Interface(), verb, plus, goSyntax, depth+1)
-		}
-		p.buf.WriteByte('}')
-	case reflect.Interface:
-		value := f.Elem()
-		if !value.IsValid() {
-			if goSyntax {
-				p.buf.WriteString(reflect.TypeOf(field).String())
-				p.buf.Write(nilParenBytes)
-			} else {
-				p.buf.Write(nilAngleBytes)
-			}
-		} else {
-			return p.printField(value.Interface(), verb, plus, goSyntax, depth+1)
-		}
-	case reflect.Array, reflect.Slice:
-		// Byte slices are special.
-		if f.Type().Elem().Kind() == reflect.Uint8 {
-			// We know it's a slice of bytes, but we also know it does not have static type
-			// []byte, or it would have been caught above.  Therefore we cannot convert
-			// it directly in the (slightly) obvious way: f.Interface().([]byte); it doesn't have
-			// that type, and we can't write an expression of the right type and do a
-			// conversion because we don't have a static way to write the right type.
-			// So we build a slice by hand.  This is a rare case but it would be nice
-			// if reflection could help a little more.
-			bytes := make([]byte, f.Len())
-			for i := range bytes {
-				bytes[i] = byte(f.Index(i).Uint())
-			}
-			p.fmtBytes(bytes, verb, goSyntax, depth, field)
-			return verb == 's'
-		}
-		if goSyntax {
-			p.buf.WriteString(reflect.TypeOf(field).String())
-			p.buf.WriteByte('{')
-		} else {
-			p.buf.WriteByte('[')
-		}
-		for i := 0; i < f.Len(); i++ {
-			if i > 0 {
-				if goSyntax {
-					p.buf.Write(commaSpaceBytes)
-				} else {
-					p.buf.WriteByte(' ')
-				}
-			}
-			p.printField(f.Index(i).Interface(), verb, plus, goSyntax, depth+1)
-		}
-		if goSyntax {
-			p.buf.WriteByte('}')
-		} else {
-			p.buf.WriteByte(']')
-		}
-	case reflect.Ptr:
-		v := f.Pointer()
-		// pointer to array or slice or struct?  ok at top level
-		// but not embedded (avoid loops)
-		if v != 0 && depth == 0 {
-			switch a := f.Elem(); a.Kind() {
-			case reflect.Array, reflect.Slice:
-				p.buf.WriteByte('&')
-				p.printField(a.Interface(), verb, plus, goSyntax, depth+1)
-				break BigSwitch
-			case reflect.Struct:
-				p.buf.WriteByte('&')
-				p.printField(a.Interface(), verb, plus, goSyntax, depth+1)
-				break BigSwitch
-			}
-		}
-		if goSyntax {
-			p.buf.WriteByte('(')
-			p.buf.WriteString(reflect.TypeOf(field).String())
-			p.buf.WriteByte(')')
-			p.buf.WriteByte('(')
-			if v == 0 {
-				p.buf.Write(nilBytes)
-			} else {
-				p.fmt0x64(uint64(v), true)
-			}
-			p.buf.WriteByte(')')
-			break
-		}
-		if v == 0 {
-			p.buf.Write(nilAngleBytes)
-			break
-		}
-		p.fmt0x64(uint64(v), true)
-	case reflect.Chan, reflect.Func, reflect.UnsafePointer:
-		p.fmtPointer(field, value, verb, goSyntax)
-	default:
-		p.unknownType(f)
-	}
-	return false
-}
-
-// intFromArg gets the fieldnumth element of a. On return, isInt reports whether the argument has type int.
-func intFromArg(a []interface{}, end, i, fieldnum int) (num int, isInt bool, newi, newfieldnum int) {
-	newi, newfieldnum = end, fieldnum
-	if i < end && fieldnum < len(a) {
-		num, isInt = a[fieldnum].(int)
-		newi, newfieldnum = i+1, fieldnum+1
-	}
-	return
-}
-
-func (p *pp) doPrintf(format string, a []interface{}) {
-	end := len(format)
-	fieldnum := 0 // we process one field per non-trivial format
-	for i := 0; i < end; {
-		lasti := i
-		for i < end && format[i] != '%' {
-			i++
-		}
-		if i > lasti {
-			p.buf.WriteString(format[lasti:i])
-		}
-		if i >= end {
-			// done processing format string
-			break
-		}
-
-		// Process one verb
-		i++
-		// flags and widths
-		p.fmt.clearflags()
-	F:
-		for ; i < end; i++ {
-			switch format[i] {
-			case '#':
-				p.fmt.sharp = true
-			case '0':
-				p.fmt.zero = true
-			case '+':
-				p.fmt.plus = true
-			case '-':
-				p.fmt.minus = true
-			case ' ':
-				p.fmt.space = true
-			default:
-				break F
-			}
-		}
-		// do we have width?
-		if i < end && format[i] == '*' {
-			p.fmt.wid, p.fmt.widPresent, i, fieldnum = intFromArg(a, end, i, fieldnum)
-			if !p.fmt.widPresent {
-				p.buf.Write(widthBytes)
-			}
-		} else {
-			p.fmt.wid, p.fmt.widPresent, i = parsenum(format, i, end)
-		}
-		// do we have precision?
-		if i < end && format[i] == '.' {
-			if format[i+1] == '*' {
-				p.fmt.prec, p.fmt.precPresent, i, fieldnum = intFromArg(a, end, i+1, fieldnum)
-				if !p.fmt.precPresent {
-					p.buf.Write(precBytes)
-				}
-			} else {
-				p.fmt.prec, p.fmt.precPresent, i = parsenum(format, i+1, end)
-			}
-		}
-		if i >= end {
-			p.buf.Write(noVerbBytes)
-			continue
-		}
-		c, w := utf8.DecodeRuneInString(format[i:])
-		i += w
-		// percent is special - absorbs no operand
-		if c == '%' {
-			p.buf.WriteByte('%') // We ignore width and prec.
-			continue
-		}
-		if fieldnum >= len(a) { // out of operands
-			p.buf.WriteByte('%')
-			p.add(c)
-			p.buf.Write(missingBytes)
-			continue
-		}
-		field := a[fieldnum]
-		fieldnum++
-
-		goSyntax := c == 'v' && p.fmt.sharp
-		plus := c == 'v' && p.fmt.plus
-		p.printField(field, c, plus, goSyntax, 0)
-	}
-
-	if fieldnum < len(a) {
-		p.buf.Write(extraBytes)
-		for ; fieldnum < len(a); fieldnum++ {
-			field := a[fieldnum]
-			if field != nil {
-				p.buf.WriteString(reflect.TypeOf(field).String())
-				p.buf.WriteByte('=')
-			}
-			p.printField(field, 'v', false, false, 0)
-			if fieldnum+1 < len(a) {
-				p.buf.Write(commaSpaceBytes)
-			}
-		}
-		p.buf.WriteByte(')')
-	}
-}
-
-func (p *pp) doPrint(a []interface{}, addspace, addnewline bool) {
-	prevString := false
-	for fieldnum := 0; fieldnum < len(a); fieldnum++ {
-		p.fmt.clearflags()
-		// always add spaces if we're doing println
-		field := a[fieldnum]
-		if fieldnum > 0 {
-			isString := field != nil && reflect.TypeOf(field).Kind() == reflect.String
-			if addspace || !isString && !prevString {
-				p.buf.WriteByte(' ')
-			}
-		}
-		prevString = p.printField(field, 'v', false, false, 0)
-	}
-	if addnewline {
-		p.buf.WriteByte('\n')
-	}
-}
diff --git a/src/cmd/fix/testdata/reflect.quick.go.in b/src/cmd/fix/testdata/reflect.quick.go.in
deleted file mode 100644
index a5568b0483..0000000000
--- a/src/cmd/fix/testdata/reflect.quick.go.in
+++ /dev/null
@@ -1,364 +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.
-
-// This package implements utility functions to help with black box testing.
-package quick
-
-import (
-	"flag"
-	"fmt"
-	"math"
-	"os"
-	"rand"
-	"reflect"
-	"strings"
-)
-
-var defaultMaxCount *int = flag.Int("quickchecks", 100, "The default number of iterations for each check")
-
-// A Generator can generate random values of its own type.
-type Generator interface {
-	// Generate returns a random instance of the type on which it is a
-	// method using the size as a size hint.
-	Generate(rand *rand.Rand, size int) reflect.Value
-}
-
-// randFloat32 generates a random float taking the full range of a float32.
-func randFloat32(rand *rand.Rand) float32 {
-	f := rand.Float64() * math.MaxFloat32
-	if rand.Int()&1 == 1 {
-		f = -f
-	}
-	return float32(f)
-}
-
-// randFloat64 generates a random float taking the full range of a float64.
-func randFloat64(rand *rand.Rand) float64 {
-	f := rand.Float64()
-	if rand.Int()&1 == 1 {
-		f = -f
-	}
-	return f
-}
-
-// randInt64 returns a random integer taking half the range of an int64.
-func randInt64(rand *rand.Rand) int64 { return rand.Int63() - 1<<62 }
-
-// complexSize is the maximum length of arbitrary values that contain other
-// values.
-const complexSize = 50
-
-// Value returns an arbitrary value of the given type.
-// If the type implements the Generator interface, that will be used.
-// Note: in order to create arbitrary values for structs, all the members must be public.
-func Value(t reflect.Type, rand *rand.Rand) (value reflect.Value, ok bool) {
-	if m, ok := reflect.MakeZero(t).Interface().(Generator); ok {
-		return m.Generate(rand, complexSize), true
-	}
-
-	switch concrete := t.(type) {
-	case *reflect.BoolType:
-		return reflect.NewValue(rand.Int()&1 == 0), true
-	case *reflect.FloatType, *reflect.IntType, *reflect.UintType, *reflect.ComplexType:
-		switch t.Kind() {
-		case reflect.Float32:
-			return reflect.NewValue(randFloat32(rand)), true
-		case reflect.Float64:
-			return reflect.NewValue(randFloat64(rand)), true
-		case reflect.Complex64:
-			return reflect.NewValue(complex(randFloat32(rand), randFloat32(rand))), true
-		case reflect.Complex128:
-			return reflect.NewValue(complex(randFloat64(rand), randFloat64(rand))), true
-		case reflect.Int16:
-			return reflect.NewValue(int16(randInt64(rand))), true
-		case reflect.Int32:
-			return reflect.NewValue(int32(randInt64(rand))), true
-		case reflect.Int64:
-			return reflect.NewValue(randInt64(rand)), true
-		case reflect.Int8:
-			return reflect.NewValue(int8(randInt64(rand))), true
-		case reflect.Int:
-			return reflect.NewValue(int(randInt64(rand))), true
-		case reflect.Uint16:
-			return reflect.NewValue(uint16(randInt64(rand))), true
-		case reflect.Uint32:
-			return reflect.NewValue(uint32(randInt64(rand))), true
-		case reflect.Uint64:
-			return reflect.NewValue(uint64(randInt64(rand))), true
-		case reflect.Uint8:
-			return reflect.NewValue(uint8(randInt64(rand))), true
-		case reflect.Uint:
-			return reflect.NewValue(uint(randInt64(rand))), true
-		case reflect.Uintptr:
-			return reflect.NewValue(uintptr(randInt64(rand))), true
-		}
-	case *reflect.MapType:
-		numElems := rand.Intn(complexSize)
-		m := reflect.MakeMap(concrete)
-		for i := 0; i < numElems; i++ {
-			key, ok1 := Value(concrete.Key(), rand)
-			value, ok2 := Value(concrete.Elem(), rand)
-			if !ok1 || !ok2 {
-				return nil, false
-			}
-			m.SetElem(key, value)
-		}
-		return m, true
-	case *reflect.PtrType:
-		v, ok := Value(concrete.Elem(), rand)
-		if !ok {
-			return nil, false
-		}
-		p := reflect.MakeZero(concrete)
-		p.(*reflect.PtrValue).PointTo(v)
-		return p, true
-	case *reflect.SliceType:
-		numElems := rand.Intn(complexSize)
-		s := reflect.MakeSlice(concrete, numElems, numElems)
-		for i := 0; i < numElems; i++ {
-			v, ok := Value(concrete.Elem(), rand)
-			if !ok {
-				return nil, false
-			}
-			s.Elem(i).SetValue(v)
-		}
-		return s, true
-	case *reflect.StringType:
-		numChars := rand.Intn(complexSize)
-		codePoints := make([]int, numChars)
-		for i := 0; i < numChars; i++ {
-			codePoints[i] = rand.Intn(0x10ffff)
-		}
-		return reflect.NewValue(string(codePoints)), true
-	case *reflect.StructType:
-		s := reflect.MakeZero(t).(*reflect.StructValue)
-		for i := 0; i < s.NumField(); i++ {
-			v, ok := Value(concrete.Field(i).Type, rand)
-			if !ok {
-				return nil, false
-			}
-			s.Field(i).SetValue(v)
-		}
-		return s, true
-	default:
-		return nil, false
-	}
-
-	return
-}
-
-// A Config structure contains options for running a test.
-type Config struct {
-	// MaxCount sets the maximum number of iterations. If zero,
-	// MaxCountScale is used.
-	MaxCount int
-	// MaxCountScale is a non-negative scale factor applied to the default
-	// maximum. If zero, the default is unchanged.
-	MaxCountScale float64
-	// If non-nil, rand is a source of random numbers. Otherwise a default
-	// pseudo-random source will be used.
-	Rand *rand.Rand
-	// If non-nil, Values is a function which generates a slice of arbitrary
-	// Values that are congruent with the arguments to the function being
-	// tested. Otherwise, Values is used to generate the values.
-	Values func([]reflect.Value, *rand.Rand)
-}
-
-var defaultConfig Config
-
-// getRand returns the *rand.Rand to use for a given Config.
-func (c *Config) getRand() *rand.Rand {
-	if c.Rand == nil {
-		return rand.New(rand.NewSource(0))
-	}
-	return c.Rand
-}
-
-// getMaxCount returns the maximum number of iterations to run for a given
-// Config.
-func (c *Config) getMaxCount() (maxCount int) {
-	maxCount = c.MaxCount
-	if maxCount == 0 {
-		if c.MaxCountScale != 0 {
-			maxCount = int(c.MaxCountScale * float64(*defaultMaxCount))
-		} else {
-			maxCount = *defaultMaxCount
-		}
-	}
-
-	return
-}
-
-// A SetupError is the result of an error in the way that check is being
-// used, independent of the functions being tested.
-type SetupError string
-
-func (s SetupError) String() string { return string(s) }
-
-// A CheckError is the result of Check finding an error.
-type CheckError struct {
-	Count int
-	In    []interface{}
-}
-
-func (s *CheckError) String() string {
-	return fmt.Sprintf("#%d: failed on input %s", s.Count, toString(s.In))
-}
-
-// A CheckEqualError is the result CheckEqual finding an error.
-type CheckEqualError struct {
-	CheckError
-	Out1 []interface{}
-	Out2 []interface{}
-}
-
-func (s *CheckEqualError) String() string {
-	return fmt.Sprintf("#%d: failed on input %s. Output 1: %s. Output 2: %s", s.Count, toString(s.In), toString(s.Out1), toString(s.Out2))
-}
-
-// Check looks for an input to f, any function that returns bool,
-// such that f returns false.  It calls f repeatedly, with arbitrary
-// values for each argument.  If f returns false on a given input,
-// Check returns that input as a *CheckError.
-// For example:
-//
-// 	func TestOddMultipleOfThree(t *testing.T) {
-// 		f := func(x int) bool {
-// 			y := OddMultipleOfThree(x)
-// 			return y%2 == 1 && y%3 == 0
-// 		}
-// 		if err := quick.Check(f, nil); err != nil {
-// 			t.Error(err)
-// 		}
-// 	}
-func Check(function interface{}, config *Config) (err os.Error) {
-	if config == nil {
-		config = &defaultConfig
-	}
-
-	f, fType, ok := functionAndType(function)
-	if !ok {
-		err = SetupError("argument is not a function")
-		return
-	}
-
-	if fType.NumOut() != 1 {
-		err = SetupError("function returns more than one value.")
-		return
-	}
-	if _, ok := fType.Out(0).(*reflect.BoolType); !ok {
-		err = SetupError("function does not return a bool")
-		return
-	}
-
-	arguments := make([]reflect.Value, fType.NumIn())
-	rand := config.getRand()
-	maxCount := config.getMaxCount()
-
-	for i := 0; i < maxCount; i++ {
-		err = arbitraryValues(arguments, fType, config, rand)
-		if err != nil {
-			return
-		}
-
-		if !f.Call(arguments)[0].(*reflect.BoolValue).Get() {
-			err = &CheckError{i + 1, toInterfaces(arguments)}
-			return
-		}
-	}
-
-	return
-}
-
-// CheckEqual looks for an input on which f and g return different results.
-// It calls f and g repeatedly with arbitrary values for each argument.
-// If f and g return different answers, CheckEqual returns a *CheckEqualError
-// describing the input and the outputs.
-func CheckEqual(f, g interface{}, config *Config) (err os.Error) {
-	if config == nil {
-		config = &defaultConfig
-	}
-
-	x, xType, ok := functionAndType(f)
-	if !ok {
-		err = SetupError("f is not a function")
-		return
-	}
-	y, yType, ok := functionAndType(g)
-	if !ok {
-		err = SetupError("g is not a function")
-		return
-	}
-
-	if xType != yType {
-		err = SetupError("functions have different types")
-		return
-	}
-
-	arguments := make([]reflect.Value, xType.NumIn())
-	rand := config.getRand()
-	maxCount := config.getMaxCount()
-
-	for i := 0; i < maxCount; i++ {
-		err = arbitraryValues(arguments, xType, config, rand)
-		if err != nil {
-			return
-		}
-
-		xOut := toInterfaces(x.Call(arguments))
-		yOut := toInterfaces(y.Call(arguments))
-
-		if !reflect.DeepEqual(xOut, yOut) {
-			err = &CheckEqualError{CheckError{i + 1, toInterfaces(arguments)}, xOut, yOut}
-			return
-		}
-	}
-
-	return
-}
-
-// arbitraryValues writes Values to args such that args contains Values
-// suitable for calling f.
-func arbitraryValues(args []reflect.Value, f *reflect.FuncType, config *Config, rand *rand.Rand) (err os.Error) {
-	if config.Values != nil {
-		config.Values(args, rand)
-		return
-	}
-
-	for j := 0; j < len(args); j++ {
-		var ok bool
-		args[j], ok = Value(f.In(j), rand)
-		if !ok {
-			err = SetupError(fmt.Sprintf("cannot create arbitrary value of type %s for argument %d", f.In(j), j))
-			return
-		}
-	}
-
-	return
-}
-
-func functionAndType(f interface{}) (v *reflect.FuncValue, t *reflect.FuncType, ok bool) {
-	v, ok = reflect.NewValue(f).(*reflect.FuncValue)
-	if !ok {
-		return
-	}
-	t = v.Type().(*reflect.FuncType)
-	return
-}
-
-func toInterfaces(values []reflect.Value) []interface{} {
-	ret := make([]interface{}, len(values))
-	for i, v := range values {
-		ret[i] = v.Interface()
-	}
-	return ret
-}
-
-func toString(interfaces []interface{}) string {
-	s := make([]string, len(interfaces))
-	for i, v := range interfaces {
-		s[i] = fmt.Sprintf("%#v", v)
-	}
-	return strings.Join(s, ", ")
-}
diff --git a/src/cmd/fix/testdata/reflect.quick.go.out b/src/cmd/fix/testdata/reflect.quick.go.out
deleted file mode 100644
index c62305b832..0000000000
--- a/src/cmd/fix/testdata/reflect.quick.go.out
+++ /dev/null
@@ -1,365 +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.
-
-// This package implements utility functions to help with black box testing.
-package quick
-
-import (
-	"flag"
-	"fmt"
-	"math"
-	"os"
-	"rand"
-	"reflect"
-	"strings"
-)
-
-var defaultMaxCount *int = flag.Int("quickchecks", 100, "The default number of iterations for each check")
-
-// A Generator can generate random values of its own type.
-type Generator interface {
-	// Generate returns a random instance of the type on which it is a
-	// method using the size as a size hint.
-	Generate(rand *rand.Rand, size int) reflect.Value
-}
-
-// randFloat32 generates a random float taking the full range of a float32.
-func randFloat32(rand *rand.Rand) float32 {
-	f := rand.Float64() * math.MaxFloat32
-	if rand.Int()&1 == 1 {
-		f = -f
-	}
-	return float32(f)
-}
-
-// randFloat64 generates a random float taking the full range of a float64.
-func randFloat64(rand *rand.Rand) float64 {
-	f := rand.Float64()
-	if rand.Int()&1 == 1 {
-		f = -f
-	}
-	return f
-}
-
-// randInt64 returns a random integer taking half the range of an int64.
-func randInt64(rand *rand.Rand) int64 { return rand.Int63() - 1<<62 }
-
-// complexSize is the maximum length of arbitrary values that contain other
-// values.
-const complexSize = 50
-
-// Value returns an arbitrary value of the given type.
-// If the type implements the Generator interface, that will be used.
-// Note: in order to create arbitrary values for structs, all the members must be public.
-func Value(t reflect.Type, rand *rand.Rand) (value reflect.Value, ok bool) {
-	if m, ok := reflect.Zero(t).Interface().(Generator); ok {
-		return m.Generate(rand, complexSize), true
-	}
-
-	switch concrete := t; concrete.Kind() {
-	case reflect.Bool:
-		return reflect.ValueOf(rand.Int()&1 == 0), true
-	case reflect.Float32, reflect.Float64, reflect.Int, reflect.Int8, reflect.Int16, reflect.Int32, reflect.Int64, reflect.Uint, reflect.Uint8, reflect.Uint16, reflect.Uint32, reflect.Uint64, reflect.Uintptr, reflect.Complex64, reflect.Complex128:
-		switch t.Kind() {
-		case reflect.Float32:
-			return reflect.ValueOf(randFloat32(rand)), true
-		case reflect.Float64:
-			return reflect.ValueOf(randFloat64(rand)), true
-		case reflect.Complex64:
-			return reflect.ValueOf(complex(randFloat32(rand), randFloat32(rand))), true
-		case reflect.Complex128:
-			return reflect.ValueOf(complex(randFloat64(rand), randFloat64(rand))), true
-		case reflect.Int16:
-			return reflect.ValueOf(int16(randInt64(rand))), true
-		case reflect.Int32:
-			return reflect.ValueOf(int32(randInt64(rand))), true
-		case reflect.Int64:
-			return reflect.ValueOf(randInt64(rand)), true
-		case reflect.Int8:
-			return reflect.ValueOf(int8(randInt64(rand))), true
-		case reflect.Int:
-			return reflect.ValueOf(int(randInt64(rand))), true
-		case reflect.Uint16:
-			return reflect.ValueOf(uint16(randInt64(rand))), true
-		case reflect.Uint32:
-			return reflect.ValueOf(uint32(randInt64(rand))), true
-		case reflect.Uint64:
-			return reflect.ValueOf(uint64(randInt64(rand))), true
-		case reflect.Uint8:
-			return reflect.ValueOf(uint8(randInt64(rand))), true
-		case reflect.Uint:
-			return reflect.ValueOf(uint(randInt64(rand))), true
-		case reflect.Uintptr:
-			return reflect.ValueOf(uintptr(randInt64(rand))), true
-		}
-	case reflect.Map:
-		numElems := rand.Intn(complexSize)
-		m := reflect.MakeMap(concrete)
-		for i := 0; i < numElems; i++ {
-			key, ok1 := Value(concrete.Key(), rand)
-			value, ok2 := Value(concrete.Elem(), rand)
-			if !ok1 || !ok2 {
-				return reflect.Value{}, false
-			}
-			m.SetMapIndex(key, value)
-		}
-		return m, true
-	case reflect.Ptr:
-		v, ok := Value(concrete.Elem(), rand)
-		if !ok {
-			return reflect.Value{}, false
-		}
-		p := reflect.Zero(concrete)
-		p.Set(v.Addr())
-		return p, true
-	case reflect.Slice:
-		numElems := rand.Intn(complexSize)
-		s := reflect.MakeSlice(concrete, numElems, numElems)
-		for i := 0; i < numElems; i++ {
-			v, ok := Value(concrete.Elem(), rand)
-			if !ok {
-				return reflect.Value{}, false
-			}
-			s.Index(i).Set(v)
-		}
-		return s, true
-	case reflect.String:
-		numChars := rand.Intn(complexSize)
-		codePoints := make([]int, numChars)
-		for i := 0; i < numChars; i++ {
-			codePoints[i] = rand.Intn(0x10ffff)
-		}
-		return reflect.ValueOf(string(codePoints)), true
-	case reflect.Struct:
-		s := reflect.Zero(t)
-		for i := 0; i < s.NumField(); i++ {
-			v, ok := Value(concrete.Field(i).Type, rand)
-			if !ok {
-				return reflect.Value{}, false
-			}
-			s.Field(i).Set(v)
-		}
-		return s, true
-	default:
-		return reflect.Value{}, false
-	}
-
-	return
-}
-
-// A Config structure contains options for running a test.
-type Config struct {
-	// MaxCount sets the maximum number of iterations. If zero,
-	// MaxCountScale is used.
-	MaxCount int
-	// MaxCountScale is a non-negative scale factor applied to the default
-	// maximum. If zero, the default is unchanged.
-	MaxCountScale float64
-	// If non-nil, rand is a source of random numbers. Otherwise a default
-	// pseudo-random source will be used.
-	Rand *rand.Rand
-	// If non-nil, Values is a function which generates a slice of arbitrary
-	// Values that are congruent with the arguments to the function being
-	// tested. Otherwise, Values is used to generate the values.
-	Values func([]reflect.Value, *rand.Rand)
-}
-
-var defaultConfig Config
-
-// getRand returns the *rand.Rand to use for a given Config.
-func (c *Config) getRand() *rand.Rand {
-	if c.Rand == nil {
-		return rand.New(rand.NewSource(0))
-	}
-	return c.Rand
-}
-
-// getMaxCount returns the maximum number of iterations to run for a given
-// Config.
-func (c *Config) getMaxCount() (maxCount int) {
-	maxCount = c.MaxCount
-	if maxCount == 0 {
-		if c.MaxCountScale != 0 {
-			maxCount = int(c.MaxCountScale * float64(*defaultMaxCount))
-		} else {
-			maxCount = *defaultMaxCount
-		}
-	}
-
-	return
-}
-
-// A SetupError is the result of an error in the way that check is being
-// used, independent of the functions being tested.
-type SetupError string
-
-func (s SetupError) String() string { return string(s) }
-
-// A CheckError is the result of Check finding an error.
-type CheckError struct {
-	Count int
-	In    []interface{}
-}
-
-func (s *CheckError) String() string {
-	return fmt.Sprintf("#%d: failed on input %s", s.Count, toString(s.In))
-}
-
-// A CheckEqualError is the result CheckEqual finding an error.
-type CheckEqualError struct {
-	CheckError
-	Out1 []interface{}
-	Out2 []interface{}
-}
-
-func (s *CheckEqualError) String() string {
-	return fmt.Sprintf("#%d: failed on input %s. Output 1: %s. Output 2: %s", s.Count, toString(s.In), toString(s.Out1), toString(s.Out2))
-}
-
-// Check looks for an input to f, any function that returns bool,
-// such that f returns false.  It calls f repeatedly, with arbitrary
-// values for each argument.  If f returns false on a given input,
-// Check returns that input as a *CheckError.
-// For example:
-//
-// 	func TestOddMultipleOfThree(t *testing.T) {
-// 		f := func(x int) bool {
-// 			y := OddMultipleOfThree(x)
-// 			return y%2 == 1 && y%3 == 0
-// 		}
-// 		if err := quick.Check(f, nil); err != nil {
-// 			t.Error(err)
-// 		}
-// 	}
-func Check(function interface{}, config *Config) (err os.Error) {
-	if config == nil {
-		config = &defaultConfig
-	}
-
-	f, fType, ok := functionAndType(function)
-	if !ok {
-		err = SetupError("argument is not a function")
-		return
-	}
-
-	if fType.NumOut() != 1 {
-		err = SetupError("function returns more than one value.")
-		return
-	}
-	if fType.Out(0).Kind() != reflect.Bool {
-		err = SetupError("function does not return a bool")
-		return
-	}
-
-	arguments := make([]reflect.Value, fType.NumIn())
-	rand := config.getRand()
-	maxCount := config.getMaxCount()
-
-	for i := 0; i < maxCount; i++ {
-		err = arbitraryValues(arguments, fType, config, rand)
-		if err != nil {
-			return
-		}
-
-		if !f.Call(arguments)[0].Bool() {
-			err = &CheckError{i + 1, toInterfaces(arguments)}
-			return
-		}
-	}
-
-	return
-}
-
-// CheckEqual looks for an input on which f and g return different results.
-// It calls f and g repeatedly with arbitrary values for each argument.
-// If f and g return different answers, CheckEqual returns a *CheckEqualError
-// describing the input and the outputs.
-func CheckEqual(f, g interface{}, config *Config) (err os.Error) {
-	if config == nil {
-		config = &defaultConfig
-	}
-
-	x, xType, ok := functionAndType(f)
-	if !ok {
-		err = SetupError("f is not a function")
-		return
-	}
-	y, yType, ok := functionAndType(g)
-	if !ok {
-		err = SetupError("g is not a function")
-		return
-	}
-
-	if xType != yType {
-		err = SetupError("functions have different types")
-		return
-	}
-
-	arguments := make([]reflect.Value, xType.NumIn())
-	rand := config.getRand()
-	maxCount := config.getMaxCount()
-
-	for i := 0; i < maxCount; i++ {
-		err = arbitraryValues(arguments, xType, config, rand)
-		if err != nil {
-			return
-		}
-
-		xOut := toInterfaces(x.Call(arguments))
-		yOut := toInterfaces(y.Call(arguments))
-
-		if !reflect.DeepEqual(xOut, yOut) {
-			err = &CheckEqualError{CheckError{i + 1, toInterfaces(arguments)}, xOut, yOut}
-			return
-		}
-	}
-
-	return
-}
-
-// arbitraryValues writes Values to args such that args contains Values
-// suitable for calling f.
-func arbitraryValues(args []reflect.Value, f reflect.Type, config *Config, rand *rand.Rand) (err os.Error) {
-	if config.Values != nil {
-		config.Values(args, rand)
-		return
-	}
-
-	for j := 0; j < len(args); j++ {
-		var ok bool
-		args[j], ok = Value(f.In(j), rand)
-		if !ok {
-			err = SetupError(fmt.Sprintf("cannot create arbitrary value of type %s for argument %d", f.In(j), j))
-			return
-		}
-	}
-
-	return
-}
-
-func functionAndType(f interface{}) (v reflect.Value, t reflect.Type, ok bool) {
-	v = reflect.ValueOf(f)
-	ok = v.Kind() == reflect.Func
-	if !ok {
-		return
-	}
-	t = v.Type()
-	return
-}
-
-func toInterfaces(values []reflect.Value) []interface{} {
-	ret := make([]interface{}, len(values))
-	for i, v := range values {
-		ret[i] = v.Interface()
-	}
-	return ret
-}
-
-func toString(interfaces []interface{}) string {
-	s := make([]string, len(interfaces))
-	for i, v := range interfaces {
-		s[i] = fmt.Sprintf("%#v", v)
-	}
-	return strings.Join(s, ", ")
-}
diff --git a/src/cmd/fix/testdata/reflect.read.go.in b/src/cmd/fix/testdata/reflect.read.go.in
deleted file mode 100644
index 487994ac6e..0000000000
--- a/src/cmd/fix/testdata/reflect.read.go.in
+++ /dev/null
@@ -1,620 +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 xml
-
-import (
-	"bytes"
-	"fmt"
-	"io"
-	"os"
-	"reflect"
-	"strconv"
-	"strings"
-	"unicode"
-	"utf8"
-)
-
-// BUG(rsc): Mapping between XML elements and data structures is inherently flawed:
-// an XML element is an order-dependent collection of anonymous
-// values, while a data structure is an order-independent collection
-// of named values.
-// See package json for a textual representation more suitable
-// to data structures.
-
-// Unmarshal parses an XML element from r and uses the
-// reflect library to fill in an arbitrary struct, slice, or string
-// pointed at by val.  Well-formed data that does not fit
-// into val is discarded.
-//
-// For example, given these definitions:
-//
-//	type Email struct {
-//		Where string "attr"
-//		Addr  string
-//	}
-//
-//	type Result struct {
-//		XMLName xml.Name "result"
-//		Name	string
-//		Phone	string
-//		Email	[]Email
-//		Groups  []string "group>value"
-//	}
-//
-//	result := Result{Name: "name", Phone: "phone", Email: nil}
-//
-// unmarshalling the XML input
-//
-//	<result>
-//		<email where="home">
-//			<addr>gre@example.com</addr>
-//		</email>
-//		<email where='work'>
-//			<addr>gre@work.com</addr>
-//		</email>
-//		<name>Grace R. Emlin</name>
-// 		<group>
-// 			<value>Friends</value>
-// 			<value>Squash</value>
-// 		</group>
-//		<address>123 Main Street</address>
-//	</result>
-//
-// via Unmarshal(r, &result) is equivalent to assigning
-//
-//	r = Result{xml.Name{"", "result"},
-//		"Grace R. Emlin", // name
-//		"phone",	  // no phone given
-//		[]Email{
-//			Email{"home", "gre@example.com"},
-//			Email{"work", "gre@work.com"},
-//		},
-//		[]string{"Friends", "Squash"},
-//	}
-//
-// Note that the field r.Phone has not been modified and
-// that the XML <address> element was discarded. Also, the field
-// Groups was assigned considering the element path provided in the
-// field tag.
-//
-// Because Unmarshal uses the reflect package, it can only
-// assign to upper case fields.  Unmarshal uses a case-insensitive
-// comparison to match XML element names to struct field names.
-//
-// Unmarshal maps an XML element to a struct using the following rules:
-//
-//   * If the struct has a field of type []byte or string with tag "innerxml",
-//      Unmarshal accumulates the raw XML nested inside the element
-//      in that field.  The rest of the rules still apply.
-//
-//   * If the struct has a field named XMLName of type xml.Name,
-//      Unmarshal records the element name in that field.
-//
-//   * If the XMLName field has an associated tag string of the form
-//      "tag" or "namespace-URL tag", the XML element must have
-//      the given tag (and, optionally, name space) or else Unmarshal
-//      returns an error.
-//
-//   * If the XML element has an attribute whose name matches a
-//      struct field of type string with tag "attr", Unmarshal records
-//      the attribute value in that field.
-//
-//   * If the XML element contains character data, that data is
-//      accumulated in the first struct field that has tag "chardata".
-//      The struct field may have type []byte or string.
-//      If there is no such field, the character data is discarded.
-//
-//   * If the XML element contains a sub-element whose name matches
-//      the prefix of a struct field tag formatted as "a>b>c", unmarshal
-//      will descend into the XML structure looking for elements with the
-//      given names, and will map the innermost elements to that struct field.
-//      A struct field tag starting with ">" is equivalent to one starting
-//      with the field name followed by ">".
-//
-//   * If the XML element contains a sub-element whose name
-//      matches a struct field whose tag is neither "attr" nor "chardata",
-//      Unmarshal maps the sub-element to that struct field.
-//      Otherwise, if the struct has a field named Any, unmarshal
-//      maps the sub-element to that struct field.
-//
-// Unmarshal maps an XML element to a string or []byte by saving the
-// concatenation of that element's character data in the string or []byte.
-//
-// Unmarshal maps an XML element to a slice by extending the length
-// of the slice and mapping the element to the newly created value.
-//
-// Unmarshal maps an XML element to a bool by setting it to the boolean
-// value represented by the string.
-//
-// Unmarshal maps an XML element to an integer or floating-point
-// field by setting the field to the result of interpreting the string
-// value in decimal.  There is no check for overflow.
-//
-// Unmarshal maps an XML element to an xml.Name by recording the
-// element name.
-//
-// Unmarshal maps an XML element to a pointer by setting the pointer
-// to a freshly allocated value and then mapping the element to that value.
-//
-func Unmarshal(r io.Reader, val interface{}) os.Error {
-	v, ok := reflect.NewValue(val).(*reflect.PtrValue)
-	if !ok {
-		return os.NewError("non-pointer passed to Unmarshal")
-	}
-	p := NewParser(r)
-	elem := v.Elem()
-	err := p.unmarshal(elem, nil)
-	if err != nil {
-		return err
-	}
-	return nil
-}
-
-// An UnmarshalError represents an error in the unmarshalling process.
-type UnmarshalError string
-
-func (e UnmarshalError) String() string { return string(e) }
-
-// A TagPathError represents an error in the unmarshalling process
-// caused by the use of field tags with conflicting paths.
-type TagPathError struct {
-	Struct       reflect.Type
-	Field1, Tag1 string
-	Field2, Tag2 string
-}
-
-func (e *TagPathError) String() string {
-	return fmt.Sprintf("%s field %q with tag %q conflicts with field %q with tag %q", e.Struct, e.Field1, e.Tag1, e.Field2, e.Tag2)
-}
-
-// The Parser's Unmarshal method is like xml.Unmarshal
-// except that it can be passed a pointer to the initial start element,
-// useful when a client reads some raw XML tokens itself
-// but also defers to Unmarshal for some elements.
-// Passing a nil start element indicates that Unmarshal should
-// read the token stream to find the start element.
-func (p *Parser) Unmarshal(val interface{}, start *StartElement) os.Error {
-	v, ok := reflect.NewValue(val).(*reflect.PtrValue)
-	if !ok {
-		return os.NewError("non-pointer passed to Unmarshal")
-	}
-	return p.unmarshal(v.Elem(), start)
-}
-
-// fieldName strips invalid characters from an XML name
-// to create a valid Go struct name.  It also converts the
-// name to lower case letters.
-func fieldName(original string) string {
-
-	var i int
-	//remove leading underscores
-	for i = 0; i < len(original) && original[i] == '_'; i++ {
-	}
-
-	return strings.Map(
-		func(x int) int {
-			if x == '_' || unicode.IsDigit(x) || unicode.IsLetter(x) {
-				return unicode.ToLower(x)
-			}
-			return -1
-		},
-		original[i:])
-}
-
-// Unmarshal a single XML element into val.
-func (p *Parser) unmarshal(val reflect.Value, start *StartElement) os.Error {
-	// Find start element if we need it.
-	if start == nil {
-		for {
-			tok, err := p.Token()
-			if err != nil {
-				return err
-			}
-			if t, ok := tok.(StartElement); ok {
-				start = &t
-				break
-			}
-		}
-	}
-
-	if pv, ok := val.(*reflect.PtrValue); ok {
-		if pv.Get() == 0 {
-			zv := reflect.MakeZero(pv.Type().(*reflect.PtrType).Elem())
-			pv.PointTo(zv)
-			val = zv
-		} else {
-			val = pv.Elem()
-		}
-	}
-
-	var (
-		data         []byte
-		saveData     reflect.Value
-		comment      []byte
-		saveComment  reflect.Value
-		saveXML      reflect.Value
-		saveXMLIndex int
-		saveXMLData  []byte
-		sv           *reflect.StructValue
-		styp         *reflect.StructType
-		fieldPaths   map[string]pathInfo
-	)
-
-	switch v := val.(type) {
-	default:
-		return os.NewError("unknown type " + v.Type().String())
-
-	case *reflect.SliceValue:
-		typ := v.Type().(*reflect.SliceType)
-		if typ.Elem().Kind() == reflect.Uint8 {
-			// []byte
-			saveData = v
-			break
-		}
-
-		// Slice of element values.
-		// Grow slice.
-		n := v.Len()
-		if n >= v.Cap() {
-			ncap := 2 * n
-			if ncap < 4 {
-				ncap = 4
-			}
-			new := reflect.MakeSlice(typ, n, ncap)
-			reflect.Copy(new, v)
-			v.Set(new)
-		}
-		v.SetLen(n + 1)
-
-		// Recur to read element into slice.
-		if err := p.unmarshal(v.Elem(n), start); err != nil {
-			v.SetLen(n)
-			return err
-		}
-		return nil
-
-	case *reflect.BoolValue, *reflect.FloatValue, *reflect.IntValue, *reflect.UintValue, *reflect.StringValue:
-		saveData = v
-
-	case *reflect.StructValue:
-		if _, ok := v.Interface().(Name); ok {
-			v.Set(reflect.NewValue(start.Name).(*reflect.StructValue))
-			break
-		}
-
-		sv = v
-		typ := sv.Type().(*reflect.StructType)
-		styp = typ
-		// Assign name.
-		if f, ok := typ.FieldByName("XMLName"); ok {
-			// Validate element name.
-			if f.Tag != "" {
-				tag := f.Tag
-				ns := ""
-				i := strings.LastIndex(tag, " ")
-				if i >= 0 {
-					ns, tag = tag[0:i], tag[i+1:]
-				}
-				if tag != start.Name.Local {
-					return UnmarshalError("expected element type <" + tag + "> but have <" + start.Name.Local + ">")
-				}
-				if ns != "" && ns != start.Name.Space {
-					e := "expected element <" + tag + "> in name space " + ns + " but have "
-					if start.Name.Space == "" {
-						e += "no name space"
-					} else {
-						e += start.Name.Space
-					}
-					return UnmarshalError(e)
-				}
-			}
-
-			// Save
-			v := sv.FieldByIndex(f.Index)
-			if _, ok := v.Interface().(Name); !ok {
-				return UnmarshalError(sv.Type().String() + " field XMLName does not have type xml.Name")
-			}
-			v.(*reflect.StructValue).Set(reflect.NewValue(start.Name).(*reflect.StructValue))
-		}
-
-		// Assign attributes.
-		// Also, determine whether we need to save character data or comments.
-		for i, n := 0, typ.NumField(); i < n; i++ {
-			f := typ.Field(i)
-			switch f.Tag {
-			case "attr":
-				strv, ok := sv.FieldByIndex(f.Index).(*reflect.StringValue)
-				if !ok {
-					return UnmarshalError(sv.Type().String() + " field " + f.Name + " has attr tag but is not type string")
-				}
-				// Look for attribute.
-				val := ""
-				k := strings.ToLower(f.Name)
-				for _, a := range start.Attr {
-					if fieldName(a.Name.Local) == k {
-						val = a.Value
-						break
-					}
-				}
-				strv.Set(val)
-
-			case "comment":
-				if saveComment == nil {
-					saveComment = sv.FieldByIndex(f.Index)
-				}
-
-			case "chardata":
-				if saveData == nil {
-					saveData = sv.FieldByIndex(f.Index)
-				}
-
-			case "innerxml":
-				if saveXML == nil {
-					saveXML = sv.FieldByIndex(f.Index)
-					if p.saved == nil {
-						saveXMLIndex = 0
-						p.saved = new(bytes.Buffer)
-					} else {
-						saveXMLIndex = p.savedOffset()
-					}
-				}
-
-			default:
-				if strings.Contains(f.Tag, ">") {
-					if fieldPaths == nil {
-						fieldPaths = make(map[string]pathInfo)
-					}
-					path := strings.ToLower(f.Tag)
-					if strings.HasPrefix(f.Tag, ">") {
-						path = strings.ToLower(f.Name) + path
-					}
-					if strings.HasSuffix(f.Tag, ">") {
-						path = path[:len(path)-1]
-					}
-					err := addFieldPath(sv, fieldPaths, path, f.Index)
-					if err != nil {
-						return err
-					}
-				}
-			}
-		}
-	}
-
-	// Find end element.
-	// Process sub-elements along the way.
-Loop:
-	for {
-		var savedOffset int
-		if saveXML != nil {
-			savedOffset = p.savedOffset()
-		}
-		tok, err := p.Token()
-		if err != nil {
-			return err
-		}
-		switch t := tok.(type) {
-		case StartElement:
-			// Sub-element.
-			// Look up by tag name.
-			if sv != nil {
-				k := fieldName(t.Name.Local)
-
-				if fieldPaths != nil {
-					if _, found := fieldPaths[k]; found {
-						if err := p.unmarshalPaths(sv, fieldPaths, k, &t); err != nil {
-							return err
-						}
-						continue Loop
-					}
-				}
-
-				match := func(s string) bool {
-					// check if the name matches ignoring case
-					if strings.ToLower(s) != k {
-						return false
-					}
-					// now check that it's public
-					c, _ := utf8.DecodeRuneInString(s)
-					return unicode.IsUpper(c)
-				}
-
-				f, found := styp.FieldByNameFunc(match)
-				if !found { // fall back to mop-up field named "Any"
-					f, found = styp.FieldByName("Any")
-				}
-				if found {
-					if err := p.unmarshal(sv.FieldByIndex(f.Index), &t); err != nil {
-						return err
-					}
-					continue Loop
-				}
-			}
-			// Not saving sub-element but still have to skip over it.
-			if err := p.Skip(); err != nil {
-				return err
-			}
-
-		case EndElement:
-			if saveXML != nil {
-				saveXMLData = p.saved.Bytes()[saveXMLIndex:savedOffset]
-				if saveXMLIndex == 0 {
-					p.saved = nil
-				}
-			}
-			break Loop
-
-		case CharData:
-			if saveData != nil {
-				data = append(data, t...)
-			}
-
-		case Comment:
-			if saveComment != nil {
-				comment = append(comment, t...)
-			}
-		}
-	}
-
-	var err os.Error
-	// Helper functions for integer and unsigned integer conversions
-	var itmp int64
-	getInt64 := func() bool {
-		itmp, err = strconv.Atoi64(string(data))
-		// TODO: should check sizes
-		return err == nil
-	}
-	var utmp uint64
-	getUint64 := func() bool {
-		utmp, err = strconv.Atoui64(string(data))
-		// TODO: check for overflow?
-		return err == nil
-	}
-	var ftmp float64
-	getFloat64 := func() bool {
-		ftmp, err = strconv.Atof64(string(data))
-		// TODO: check for overflow?
-		return err == nil
-	}
-
-	// Save accumulated data and comments
-	switch t := saveData.(type) {
-	case nil:
-		// Probably a comment, handled below
-	default:
-		return os.NewError("cannot happen: unknown type " + t.Type().String())
-	case *reflect.IntValue:
-		if !getInt64() {
-			return err
-		}
-		t.Set(itmp)
-	case *reflect.UintValue:
-		if !getUint64() {
-			return err
-		}
-		t.Set(utmp)
-	case *reflect.FloatValue:
-		if !getFloat64() {
-			return err
-		}
-		t.Set(ftmp)
-	case *reflect.BoolValue:
-		value, err := strconv.Atob(strings.TrimSpace(string(data)))
-		if err != nil {
-			return err
-		}
-		t.Set(value)
-	case *reflect.StringValue:
-		t.Set(string(data))
-	case *reflect.SliceValue:
-		t.Set(reflect.NewValue(data).(*reflect.SliceValue))
-	}
-
-	switch t := saveComment.(type) {
-	case *reflect.StringValue:
-		t.Set(string(comment))
-	case *reflect.SliceValue:
-		t.Set(reflect.NewValue(comment).(*reflect.SliceValue))
-	}
-
-	switch t := saveXML.(type) {
-	case *reflect.StringValue:
-		t.Set(string(saveXMLData))
-	case *reflect.SliceValue:
-		t.Set(reflect.NewValue(saveXMLData).(*reflect.SliceValue))
-	}
-
-	return nil
-}
-
-type pathInfo struct {
-	fieldIdx []int
-	complete bool
-}
-
-// addFieldPath takes an element path such as "a>b>c" and fills the
-// paths map with all paths leading to it ("a", "a>b", and "a>b>c").
-// It is okay for paths to share a common, shorter prefix but not ok
-// for one path to itself be a prefix of another.
-func addFieldPath(sv *reflect.StructValue, paths map[string]pathInfo, path string, fieldIdx []int) os.Error {
-	if info, found := paths[path]; found {
-		return tagError(sv, info.fieldIdx, fieldIdx)
-	}
-	paths[path] = pathInfo{fieldIdx, true}
-	for {
-		i := strings.LastIndex(path, ">")
-		if i < 0 {
-			break
-		}
-		path = path[:i]
-		if info, found := paths[path]; found {
-			if info.complete {
-				return tagError(sv, info.fieldIdx, fieldIdx)
-			}
-		} else {
-			paths[path] = pathInfo{fieldIdx, false}
-		}
-	}
-	return nil
-
-}
-
-func tagError(sv *reflect.StructValue, idx1 []int, idx2 []int) os.Error {
-	t := sv.Type().(*reflect.StructType)
-	f1 := t.FieldByIndex(idx1)
-	f2 := t.FieldByIndex(idx2)
-	return &TagPathError{t, f1.Name, f1.Tag, f2.Name, f2.Tag}
-}
-
-// unmarshalPaths walks down an XML structure looking for
-// wanted paths, and calls unmarshal on them.
-func (p *Parser) unmarshalPaths(sv *reflect.StructValue, paths map[string]pathInfo, path string, start *StartElement) os.Error {
-	if info, _ := paths[path]; info.complete {
-		return p.unmarshal(sv.FieldByIndex(info.fieldIdx), start)
-	}
-	for {
-		tok, err := p.Token()
-		if err != nil {
-			return err
-		}
-		switch t := tok.(type) {
-		case StartElement:
-			k := path + ">" + fieldName(t.Name.Local)
-			if _, found := paths[k]; found {
-				if err := p.unmarshalPaths(sv, paths, k, &t); err != nil {
-					return err
-				}
-				continue
-			}
-			if err := p.Skip(); err != nil {
-				return err
-			}
-		case EndElement:
-			return nil
-		}
-	}
-	panic("unreachable")
-}
-
-// Have already read a start element.
-// Read tokens until we find the end element.
-// Token is taking care of making sure the
-// end element matches the start element we saw.
-func (p *Parser) Skip() os.Error {
-	for {
-		tok, err := p.Token()
-		if err != nil {
-			return err
-		}
-		switch t := tok.(type) {
-		case StartElement:
-			if err := p.Skip(); err != nil {
-				return err
-			}
-		case EndElement:
-			return nil
-		}
-	}
-	panic("unreachable")
-}
diff --git a/src/cmd/fix/testdata/reflect.read.go.out b/src/cmd/fix/testdata/reflect.read.go.out
deleted file mode 100644
index a6b126744c..0000000000
--- a/src/cmd/fix/testdata/reflect.read.go.out
+++ /dev/null
@@ -1,620 +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 xml
-
-import (
-	"bytes"
-	"fmt"
-	"io"
-	"os"
-	"reflect"
-	"strconv"
-	"strings"
-	"unicode"
-	"utf8"
-)
-
-// BUG(rsc): Mapping between XML elements and data structures is inherently flawed:
-// an XML element is an order-dependent collection of anonymous
-// values, while a data structure is an order-independent collection
-// of named values.
-// See package json for a textual representation more suitable
-// to data structures.
-
-// Unmarshal parses an XML element from r and uses the
-// reflect library to fill in an arbitrary struct, slice, or string
-// pointed at by val.  Well-formed data that does not fit
-// into val is discarded.
-//
-// For example, given these definitions:
-//
-//	type Email struct {
-//		Where string "attr"
-//		Addr  string
-//	}
-//
-//	type Result struct {
-//		XMLName xml.Name "result"
-//		Name	string
-//		Phone	string
-//		Email	[]Email
-//		Groups  []string "group>value"
-//	}
-//
-//	result := Result{Name: "name", Phone: "phone", Email: nil}
-//
-// unmarshalling the XML input
-//
-//	<result>
-//		<email where="home">
-//			<addr>gre@example.com</addr>
-//		</email>
-//		<email where='work'>
-//			<addr>gre@work.com</addr>
-//		</email>
-//		<name>Grace R. Emlin</name>
-// 		<group>
-// 			<value>Friends</value>
-// 			<value>Squash</value>
-// 		</group>
-//		<address>123 Main Street</address>
-//	</result>
-//
-// via Unmarshal(r, &result) is equivalent to assigning
-//
-//	r = Result{xml.Name{"", "result"},
-//		"Grace R. Emlin", // name
-//		"phone",	  // no phone given
-//		[]Email{
-//			Email{"home", "gre@example.com"},
-//			Email{"work", "gre@work.com"},
-//		},
-//		[]string{"Friends", "Squash"},
-//	}
-//
-// Note that the field r.Phone has not been modified and
-// that the XML <address> element was discarded. Also, the field
-// Groups was assigned considering the element path provided in the
-// field tag.
-//
-// Because Unmarshal uses the reflect package, it can only
-// assign to upper case fields.  Unmarshal uses a case-insensitive
-// comparison to match XML element names to struct field names.
-//
-// Unmarshal maps an XML element to a struct using the following rules:
-//
-//   * If the struct has a field of type []byte or string with tag "innerxml",
-//      Unmarshal accumulates the raw XML nested inside the element
-//      in that field.  The rest of the rules still apply.
-//
-//   * If the struct has a field named XMLName of type xml.Name,
-//      Unmarshal records the element name in that field.
-//
-//   * If the XMLName field has an associated tag string of the form
-//      "tag" or "namespace-URL tag", the XML element must have
-//      the given tag (and, optionally, name space) or else Unmarshal
-//      returns an error.
-//
-//   * If the XML element has an attribute whose name matches a
-//      struct field of type string with tag "attr", Unmarshal records
-//      the attribute value in that field.
-//
-//   * If the XML element contains character data, that data is
-//      accumulated in the first struct field that has tag "chardata".
-//      The struct field may have type []byte or string.
-//      If there is no such field, the character data is discarded.
-//
-//   * If the XML element contains a sub-element whose name matches
-//      the prefix of a struct field tag formatted as "a>b>c", unmarshal
-//      will descend into the XML structure looking for elements with the
-//      given names, and will map the innermost elements to that struct field.
-//      A struct field tag starting with ">" is equivalent to one starting
-//      with the field name followed by ">".
-//
-//   * If the XML element contains a sub-element whose name
-//      matches a struct field whose tag is neither "attr" nor "chardata",
-//      Unmarshal maps the sub-element to that struct field.
-//      Otherwise, if the struct has a field named Any, unmarshal
-//      maps the sub-element to that struct field.
-//
-// Unmarshal maps an XML element to a string or []byte by saving the
-// concatenation of that element's character data in the string or []byte.
-//
-// Unmarshal maps an XML element to a slice by extending the length
-// of the slice and mapping the element to the newly created value.
-//
-// Unmarshal maps an XML element to a bool by setting it to the boolean
-// value represented by the string.
-//
-// Unmarshal maps an XML element to an integer or floating-point
-// field by setting the field to the result of interpreting the string
-// value in decimal.  There is no check for overflow.
-//
-// Unmarshal maps an XML element to an xml.Name by recording the
-// element name.
-//
-// Unmarshal maps an XML element to a pointer by setting the pointer
-// to a freshly allocated value and then mapping the element to that value.
-//
-func Unmarshal(r io.Reader, val interface{}) os.Error {
-	v := reflect.ValueOf(val)
-	if v.Kind() != reflect.Ptr {
-		return os.NewError("non-pointer passed to Unmarshal")
-	}
-	p := NewParser(r)
-	elem := v.Elem()
-	err := p.unmarshal(elem, nil)
-	if err != nil {
-		return err
-	}
-	return nil
-}
-
-// An UnmarshalError represents an error in the unmarshalling process.
-type UnmarshalError string
-
-func (e UnmarshalError) String() string { return string(e) }
-
-// A TagPathError represents an error in the unmarshalling process
-// caused by the use of field tags with conflicting paths.
-type TagPathError struct {
-	Struct       reflect.Type
-	Field1, Tag1 string
-	Field2, Tag2 string
-}
-
-func (e *TagPathError) String() string {
-	return fmt.Sprintf("%s field %q with tag %q conflicts with field %q with tag %q", e.Struct, e.Field1, e.Tag1, e.Field2, e.Tag2)
-}
-
-// The Parser's Unmarshal method is like xml.Unmarshal
-// except that it can be passed a pointer to the initial start element,
-// useful when a client reads some raw XML tokens itself
-// but also defers to Unmarshal for some elements.
-// Passing a nil start element indicates that Unmarshal should
-// read the token stream to find the start element.
-func (p *Parser) Unmarshal(val interface{}, start *StartElement) os.Error {
-	v := reflect.ValueOf(val)
-	if v.Kind() != reflect.Ptr {
-		return os.NewError("non-pointer passed to Unmarshal")
-	}
-	return p.unmarshal(v.Elem(), start)
-}
-
-// fieldName strips invalid characters from an XML name
-// to create a valid Go struct name.  It also converts the
-// name to lower case letters.
-func fieldName(original string) string {
-
-	var i int
-	//remove leading underscores
-	for i = 0; i < len(original) && original[i] == '_'; i++ {
-	}
-
-	return strings.Map(
-		func(x int) int {
-			if x == '_' || unicode.IsDigit(x) || unicode.IsLetter(x) {
-				return unicode.ToLower(x)
-			}
-			return -1
-		},
-		original[i:])
-}
-
-// Unmarshal a single XML element into val.
-func (p *Parser) unmarshal(val reflect.Value, start *StartElement) os.Error {
-	// Find start element if we need it.
-	if start == nil {
-		for {
-			tok, err := p.Token()
-			if err != nil {
-				return err
-			}
-			if t, ok := tok.(StartElement); ok {
-				start = &t
-				break
-			}
-		}
-	}
-
-	if pv := val; pv.Kind() == reflect.Ptr {
-		if pv.Pointer() == 0 {
-			zv := reflect.Zero(pv.Type().Elem())
-			pv.Set(zv.Addr())
-			val = zv
-		} else {
-			val = pv.Elem()
-		}
-	}
-
-	var (
-		data         []byte
-		saveData     reflect.Value
-		comment      []byte
-		saveComment  reflect.Value
-		saveXML      reflect.Value
-		saveXMLIndex int
-		saveXMLData  []byte
-		sv           reflect.Value
-		styp         reflect.Type
-		fieldPaths   map[string]pathInfo
-	)
-
-	switch v := val; v.Kind() {
-	default:
-		return os.NewError("unknown type " + v.Type().String())
-
-	case reflect.Slice:
-		typ := v.Type()
-		if typ.Elem().Kind() == reflect.Uint8 {
-			// []byte
-			saveData = v
-			break
-		}
-
-		// Slice of element values.
-		// Grow slice.
-		n := v.Len()
-		if n >= v.Cap() {
-			ncap := 2 * n
-			if ncap < 4 {
-				ncap = 4
-			}
-			new := reflect.MakeSlice(typ, n, ncap)
-			reflect.Copy(new, v)
-			v.Set(new)
-		}
-		v.SetLen(n + 1)
-
-		// Recur to read element into slice.
-		if err := p.unmarshal(v.Index(n), start); err != nil {
-			v.SetLen(n)
-			return err
-		}
-		return nil
-
-	case reflect.Bool, reflect.Float32, reflect.Float64, reflect.Int, reflect.Int8, reflect.Int16, reflect.Int32, reflect.Int64, reflect.Uint, reflect.Uint8, reflect.Uint16, reflect.Uint32, reflect.Uint64, reflect.Uintptr, reflect.String:
-		saveData = v
-
-	case reflect.Struct:
-		if _, ok := v.Interface().(Name); ok {
-			v.Set(reflect.ValueOf(start.Name))
-			break
-		}
-
-		sv = v
-		typ := sv.Type()
-		styp = typ
-		// Assign name.
-		if f, ok := typ.FieldByName("XMLName"); ok {
-			// Validate element name.
-			if f.Tag != "" {
-				tag := f.Tag
-				ns := ""
-				i := strings.LastIndex(tag, " ")
-				if i >= 0 {
-					ns, tag = tag[0:i], tag[i+1:]
-				}
-				if tag != start.Name.Local {
-					return UnmarshalError("expected element type <" + tag + "> but have <" + start.Name.Local + ">")
-				}
-				if ns != "" && ns != start.Name.Space {
-					e := "expected element <" + tag + "> in name space " + ns + " but have "
-					if start.Name.Space == "" {
-						e += "no name space"
-					} else {
-						e += start.Name.Space
-					}
-					return UnmarshalError(e)
-				}
-			}
-
-			// Save
-			v := sv.FieldByIndex(f.Index)
-			if _, ok := v.Interface().(Name); !ok {
-				return UnmarshalError(sv.Type().String() + " field XMLName does not have type xml.Name")
-			}
-			v.Set(reflect.ValueOf(start.Name))
-		}
-
-		// Assign attributes.
-		// Also, determine whether we need to save character data or comments.
-		for i, n := 0, typ.NumField(); i < n; i++ {
-			f := typ.Field(i)
-			switch f.Tag {
-			case "attr":
-				strv := sv.FieldByIndex(f.Index)
-				if strv.Kind() != reflect.String {
-					return UnmarshalError(sv.Type().String() + " field " + f.Name + " has attr tag but is not type string")
-				}
-				// Look for attribute.
-				val := ""
-				k := strings.ToLower(f.Name)
-				for _, a := range start.Attr {
-					if fieldName(a.Name.Local) == k {
-						val = a.Value
-						break
-					}
-				}
-				strv.SetString(val)
-
-			case "comment":
-				if !saveComment.IsValid() {
-					saveComment = sv.FieldByIndex(f.Index)
-				}
-
-			case "chardata":
-				if !saveData.IsValid() {
-					saveData = sv.FieldByIndex(f.Index)
-				}
-
-			case "innerxml":
-				if !saveXML.IsValid() {
-					saveXML = sv.FieldByIndex(f.Index)
-					if p.saved == nil {
-						saveXMLIndex = 0
-						p.saved = new(bytes.Buffer)
-					} else {
-						saveXMLIndex = p.savedOffset()
-					}
-				}
-
-			default:
-				if strings.Contains(f.Tag, ">") {
-					if fieldPaths == nil {
-						fieldPaths = make(map[string]pathInfo)
-					}
-					path := strings.ToLower(f.Tag)
-					if strings.HasPrefix(f.Tag, ">") {
-						path = strings.ToLower(f.Name) + path
-					}
-					if strings.HasSuffix(f.Tag, ">") {
-						path = path[:len(path)-1]
-					}
-					err := addFieldPath(sv, fieldPaths, path, f.Index)
-					if err != nil {
-						return err
-					}
-				}
-			}
-		}
-	}
-
-	// Find end element.
-	// Process sub-elements along the way.
-Loop:
-	for {
-		var savedOffset int
-		if saveXML.IsValid() {
-			savedOffset = p.savedOffset()
-		}
-		tok, err := p.Token()
-		if err != nil {
-			return err
-		}
-		switch t := tok.(type) {
-		case StartElement:
-			// Sub-element.
-			// Look up by tag name.
-			if sv.IsValid() {
-				k := fieldName(t.Name.Local)
-
-				if fieldPaths != nil {
-					if _, found := fieldPaths[k]; found {
-						if err := p.unmarshalPaths(sv, fieldPaths, k, &t); err != nil {
-							return err
-						}
-						continue Loop
-					}
-				}
-
-				match := func(s string) bool {
-					// check if the name matches ignoring case
-					if strings.ToLower(s) != k {
-						return false
-					}
-					// now check that it's public
-					c, _ := utf8.DecodeRuneInString(s)
-					return unicode.IsUpper(c)
-				}
-
-				f, found := styp.FieldByNameFunc(match)
-				if !found { // fall back to mop-up field named "Any"
-					f, found = styp.FieldByName("Any")
-				}
-				if found {
-					if err := p.unmarshal(sv.FieldByIndex(f.Index), &t); err != nil {
-						return err
-					}
-					continue Loop
-				}
-			}
-			// Not saving sub-element but still have to skip over it.
-			if err := p.Skip(); err != nil {
-				return err
-			}
-
-		case EndElement:
-			if saveXML.IsValid() {
-				saveXMLData = p.saved.Bytes()[saveXMLIndex:savedOffset]
-				if saveXMLIndex == 0 {
-					p.saved = nil
-				}
-			}
-			break Loop
-
-		case CharData:
-			if saveData.IsValid() {
-				data = append(data, t...)
-			}
-
-		case Comment:
-			if saveComment.IsValid() {
-				comment = append(comment, t...)
-			}
-		}
-	}
-
-	var err os.Error
-	// Helper functions for integer and unsigned integer conversions
-	var itmp int64
-	getInt64 := func() bool {
-		itmp, err = strconv.Atoi64(string(data))
-		// TODO: should check sizes
-		return err == nil
-	}
-	var utmp uint64
-	getUint64 := func() bool {
-		utmp, err = strconv.Atoui64(string(data))
-		// TODO: check for overflow?
-		return err == nil
-	}
-	var ftmp float64
-	getFloat64 := func() bool {
-		ftmp, err = strconv.Atof64(string(data))
-		// TODO: check for overflow?
-		return err == nil
-	}
-
-	// Save accumulated data and comments
-	switch t := saveData; t.Kind() {
-	case reflect.Invalid:
-		// Probably a comment, handled below
-	default:
-		return os.NewError("cannot happen: unknown type " + t.Type().String())
-	case reflect.Int, reflect.Int8, reflect.Int16, reflect.Int32, reflect.Int64:
-		if !getInt64() {
-			return err
-		}
-		t.SetInt(itmp)
-	case reflect.Uint, reflect.Uint8, reflect.Uint16, reflect.Uint32, reflect.Uint64, reflect.Uintptr:
-		if !getUint64() {
-			return err
-		}
-		t.SetUint(utmp)
-	case reflect.Float32, reflect.Float64:
-		if !getFloat64() {
-			return err
-		}
-		t.SetFloat(ftmp)
-	case reflect.Bool:
-		value, err := strconv.Atob(strings.TrimSpace(string(data)))
-		if err != nil {
-			return err
-		}
-		t.SetBool(value)
-	case reflect.String:
-		t.SetString(string(data))
-	case reflect.Slice:
-		t.Set(reflect.ValueOf(data))
-	}
-
-	switch t := saveComment; t.Kind() {
-	case reflect.String:
-		t.SetString(string(comment))
-	case reflect.Slice:
-		t.Set(reflect.ValueOf(comment))
-	}
-
-	switch t := saveXML; t.Kind() {
-	case reflect.String:
-		t.SetString(string(saveXMLData))
-	case reflect.Slice:
-		t.Set(reflect.ValueOf(saveXMLData))
-	}
-
-	return nil
-}
-
-type pathInfo struct {
-	fieldIdx []int
-	complete bool
-}
-
-// addFieldPath takes an element path such as "a>b>c" and fills the
-// paths map with all paths leading to it ("a", "a>b", and "a>b>c").
-// It is okay for paths to share a common, shorter prefix but not ok
-// for one path to itself be a prefix of another.
-func addFieldPath(sv reflect.Value, paths map[string]pathInfo, path string, fieldIdx []int) os.Error {
-	if info, found := paths[path]; found {
-		return tagError(sv, info.fieldIdx, fieldIdx)
-	}
-	paths[path] = pathInfo{fieldIdx, true}
-	for {
-		i := strings.LastIndex(path, ">")
-		if i < 0 {
-			break
-		}
-		path = path[:i]
-		if info, found := paths[path]; found {
-			if info.complete {
-				return tagError(sv, info.fieldIdx, fieldIdx)
-			}
-		} else {
-			paths[path] = pathInfo{fieldIdx, false}
-		}
-	}
-	return nil
-
-}
-
-func tagError(sv reflect.Value, idx1 []int, idx2 []int) os.Error {
-	t := sv.Type()
-	f1 := t.FieldByIndex(idx1)
-	f2 := t.FieldByIndex(idx2)
-	return &TagPathError{t, f1.Name, f1.Tag, f2.Name, f2.Tag}
-}
-
-// unmarshalPaths walks down an XML structure looking for
-// wanted paths, and calls unmarshal on them.
-func (p *Parser) unmarshalPaths(sv reflect.Value, paths map[string]pathInfo, path string, start *StartElement) os.Error {
-	if info, _ := paths[path]; info.complete {
-		return p.unmarshal(sv.FieldByIndex(info.fieldIdx), start)
-	}
-	for {
-		tok, err := p.Token()
-		if err != nil {
-			return err
-		}
-		switch t := tok.(type) {
-		case StartElement:
-			k := path + ">" + fieldName(t.Name.Local)
-			if _, found := paths[k]; found {
-				if err := p.unmarshalPaths(sv, paths, k, &t); err != nil {
-					return err
-				}
-				continue
-			}
-			if err := p.Skip(); err != nil {
-				return err
-			}
-		case EndElement:
-			return nil
-		}
-	}
-	panic("unreachable")
-}
-
-// Have already read a start element.
-// Read tokens until we find the end element.
-// Token is taking care of making sure the
-// end element matches the start element we saw.
-func (p *Parser) Skip() os.Error {
-	for {
-		tok, err := p.Token()
-		if err != nil {
-			return err
-		}
-		switch t := tok.(type) {
-		case StartElement:
-			if err := p.Skip(); err != nil {
-				return err
-			}
-		case EndElement:
-			return nil
-		}
-	}
-	panic("unreachable")
-}
diff --git a/src/cmd/fix/testdata/reflect.scan.go.in b/src/cmd/fix/testdata/reflect.scan.go.in
deleted file mode 100644
index 51898181f9..0000000000
--- a/src/cmd/fix/testdata/reflect.scan.go.in
+++ /dev/null
@@ -1,1082 +0,0 @@
-// Copyright 2010 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 fmt
-
-import (
-	"bytes"
-	"io"
-	"math"
-	"os"
-	"reflect"
-	"strconv"
-	"strings"
-	"unicode"
-	"utf8"
-)
-
-// runeUnreader is the interface to something that can unread runes.
-// If the object provided to Scan does not satisfy this interface,
-// a local buffer will be used to back up the input, but its contents
-// will be lost when Scan returns.
-type runeUnreader interface {
-	UnreadRune() os.Error
-}
-
-// ScanState represents the scanner state passed to custom scanners.
-// Scanners may do rune-at-a-time scanning or ask the ScanState
-// to discover the next space-delimited token.
-type ScanState interface {
-	// ReadRune reads the next rune (Unicode code point) from the input.
-	// If invoked during Scanln, Fscanln, or Sscanln, ReadRune() will
-	// return EOF after returning the first '\n' or when reading beyond
-	// the specified width.
-	ReadRune() (rune int, size int, err os.Error)
-	// UnreadRune causes the next call to ReadRune to return the same rune.
-	UnreadRune() os.Error
-	// Token skips space in the input if skipSpace is true, then returns the
-	// run of Unicode code points c satisfying f(c).  If f is nil,
-	// !unicode.IsSpace(c) is used; that is, the token will hold non-space
-	// characters.  Newlines are treated as space unless the scan operation
-	// is Scanln, Fscanln or Sscanln, in which case a newline is treated as
-	// EOF.  The returned slice points to shared data that may be overwritten
-	// by the next call to Token, a call to a Scan function using the ScanState
-	// as input, or when the calling Scan method returns.
-	Token(skipSpace bool, f func(int) bool) (token []byte, err os.Error)
-	// Width returns the value of the width option and whether it has been set.
-	// The unit is Unicode code points.
-	Width() (wid int, ok bool)
-	// Because ReadRune is implemented by the interface, Read should never be
-	// called by the scanning routines and a valid implementation of
-	// ScanState may choose always to return an error from Read.
-	Read(buf []byte) (n int, err os.Error)
-}
-
-// Scanner is implemented by any value that has a Scan method, which scans
-// the input for the representation of a value and stores the result in the
-// receiver, which must be a pointer to be useful.  The Scan method is called
-// for any argument to Scan, Scanf, or Scanln that implements it.
-type Scanner interface {
-	Scan(state ScanState, verb int) os.Error
-}
-
-// Scan scans text read from standard input, storing successive
-// space-separated values into successive arguments.  Newlines count
-// as space.  It returns the number of items successfully scanned.
-// If that is less than the number of arguments, err will report why.
-func Scan(a ...interface{}) (n int, err os.Error) {
-	return Fscan(os.Stdin, a...)
-}
-
-// Scanln is similar to Scan, but stops scanning at a newline and
-// after the final item there must be a newline or EOF.
-func Scanln(a ...interface{}) (n int, err os.Error) {
-	return Fscanln(os.Stdin, a...)
-}
-
-// Scanf scans text read from standard input, storing successive
-// space-separated values into successive arguments as determined by
-// the format.  It returns the number of items successfully scanned.
-func Scanf(format string, a ...interface{}) (n int, err os.Error) {
-	return Fscanf(os.Stdin, format, a...)
-}
-
-// Sscan scans the argument string, storing successive space-separated
-// values into successive arguments.  Newlines count as space.  It
-// returns the number of items successfully scanned.  If that is less
-// than the number of arguments, err will report why.
-func Sscan(str string, a ...interface{}) (n int, err os.Error) {
-	return Fscan(strings.NewReader(str), a...)
-}
-
-// Sscanln is similar to Sscan, but stops scanning at a newline and
-// after the final item there must be a newline or EOF.
-func Sscanln(str string, a ...interface{}) (n int, err os.Error) {
-	return Fscanln(strings.NewReader(str), a...)
-}
-
-// Sscanf scans the argument string, storing successive space-separated
-// values into successive arguments as determined by the format.  It
-// returns the number of items successfully parsed.
-func Sscanf(str string, format string, a ...interface{}) (n int, err os.Error) {
-	return Fscanf(strings.NewReader(str), format, a...)
-}
-
-// Fscan scans text read from r, storing successive space-separated
-// values into successive arguments.  Newlines count as space.  It
-// returns the number of items successfully scanned.  If that is less
-// than the number of arguments, err will report why.
-func Fscan(r io.Reader, a ...interface{}) (n int, err os.Error) {
-	s, old := newScanState(r, true, false)
-	n, err = s.doScan(a)
-	s.free(old)
-	return
-}
-
-// Fscanln is similar to Fscan, but stops scanning at a newline and
-// after the final item there must be a newline or EOF.
-func Fscanln(r io.Reader, a ...interface{}) (n int, err os.Error) {
-	s, old := newScanState(r, false, true)
-	n, err = s.doScan(a)
-	s.free(old)
-	return
-}
-
-// Fscanf scans text read from r, storing successive space-separated
-// values into successive arguments as determined by the format.  It
-// returns the number of items successfully parsed.
-func Fscanf(r io.Reader, format string, a ...interface{}) (n int, err os.Error) {
-	s, old := newScanState(r, false, false)
-	n, err = s.doScanf(format, a)
-	s.free(old)
-	return
-}
-
-// scanError represents an error generated by the scanning software.
-// It's used as a unique signature to identify such errors when recovering.
-type scanError struct {
-	err os.Error
-}
-
-const eof = -1
-
-// ss is the internal implementation of ScanState.
-type ss struct {
-	rr       io.RuneReader // where to read input
-	buf      bytes.Buffer  // token accumulator
-	peekRune int           // one-rune lookahead
-	prevRune int           // last rune returned by ReadRune
-	count    int           // runes consumed so far.
-	atEOF    bool          // already read EOF
-	ssave
-}
-
-// ssave holds the parts of ss that need to be
-// saved and restored on recursive scans.
-type ssave struct {
-	validSave  bool // is or was a part of an actual ss.
-	nlIsEnd    bool // whether newline terminates scan
-	nlIsSpace  bool // whether newline counts as white space
-	fieldLimit int  // max value of ss.count for this field; fieldLimit <= limit
-	limit      int  // max value of ss.count.
-	maxWid     int  // width of this field.
-}
-
-// The Read method is only in ScanState so that ScanState
-// satisfies io.Reader. It will never be called when used as
-// intended, so there is no need to make it actually work.
-func (s *ss) Read(buf []byte) (n int, err os.Error) {
-	return 0, os.NewError("ScanState's Read should not be called. Use ReadRune")
-}
-
-func (s *ss) ReadRune() (rune int, size int, err os.Error) {
-	if s.peekRune >= 0 {
-		s.count++
-		rune = s.peekRune
-		size = utf8.RuneLen(rune)
-		s.prevRune = rune
-		s.peekRune = -1
-		return
-	}
-	if s.atEOF || s.nlIsEnd && s.prevRune == '\n' || s.count >= s.fieldLimit {
-		err = os.EOF
-		return
-	}
-
-	rune, size, err = s.rr.ReadRune()
-	if err == nil {
-		s.count++
-		s.prevRune = rune
-	} else if err == os.EOF {
-		s.atEOF = true
-	}
-	return
-}
-
-func (s *ss) Width() (wid int, ok bool) {
-	if s.maxWid == hugeWid {
-		return 0, false
-	}
-	return s.maxWid, true
-}
-
-// The public method returns an error; this private one panics.
-// If getRune reaches EOF, the return value is EOF (-1).
-func (s *ss) getRune() (rune int) {
-	rune, _, err := s.ReadRune()
-	if err != nil {
-		if err == os.EOF {
-			return eof
-		}
-		s.error(err)
-	}
-	return
-}
-
-// mustReadRune turns os.EOF into a panic(io.ErrUnexpectedEOF).
-// It is called in cases such as string scanning where an EOF is a
-// syntax error.
-func (s *ss) mustReadRune() (rune int) {
-	rune = s.getRune()
-	if rune == eof {
-		s.error(io.ErrUnexpectedEOF)
-	}
-	return
-}
-
-func (s *ss) UnreadRune() os.Error {
-	if u, ok := s.rr.(runeUnreader); ok {
-		u.UnreadRune()
-	} else {
-		s.peekRune = s.prevRune
-	}
-	s.count--
-	return nil
-}
-
-func (s *ss) error(err os.Error) {
-	panic(scanError{err})
-}
-
-func (s *ss) errorString(err string) {
-	panic(scanError{os.NewError(err)})
-}
-
-func (s *ss) Token(skipSpace bool, f func(int) bool) (tok []byte, err os.Error) {
-	defer func() {
-		if e := recover(); e != nil {
-			if se, ok := e.(scanError); ok {
-				err = se.err
-			} else {
-				panic(e)
-			}
-		}
-	}()
-	if f == nil {
-		f = notSpace
-	}
-	s.buf.Reset()
-	tok = s.token(skipSpace, f)
-	return
-}
-
-// notSpace is the default scanning function used in Token.
-func notSpace(r int) bool {
-	return !unicode.IsSpace(r)
-}
-
-// readRune is a structure to enable reading UTF-8 encoded code points
-// from an io.Reader.  It is used if the Reader given to the scanner does
-// not already implement io.RuneReader.
-type readRune struct {
-	reader  io.Reader
-	buf     [utf8.UTFMax]byte // used only inside ReadRune
-	pending int               // number of bytes in pendBuf; only >0 for bad UTF-8
-	pendBuf [utf8.UTFMax]byte // bytes left over
-}
-
-// readByte returns the next byte from the input, which may be
-// left over from a previous read if the UTF-8 was ill-formed.
-func (r *readRune) readByte() (b byte, err os.Error) {
-	if r.pending > 0 {
-		b = r.pendBuf[0]
-		copy(r.pendBuf[0:], r.pendBuf[1:])
-		r.pending--
-		return
-	}
-	_, err = r.reader.Read(r.pendBuf[0:1])
-	return r.pendBuf[0], err
-}
-
-// unread saves the bytes for the next read.
-func (r *readRune) unread(buf []byte) {
-	copy(r.pendBuf[r.pending:], buf)
-	r.pending += len(buf)
-}
-
-// ReadRune returns the next UTF-8 encoded code point from the
-// io.Reader inside r.
-func (r *readRune) ReadRune() (rune int, size int, err os.Error) {
-	r.buf[0], err = r.readByte()
-	if err != nil {
-		return 0, 0, err
-	}
-	if r.buf[0] < utf8.RuneSelf { // fast check for common ASCII case
-		rune = int(r.buf[0])
-		return
-	}
-	var n int
-	for n = 1; !utf8.FullRune(r.buf[0:n]); n++ {
-		r.buf[n], err = r.readByte()
-		if err != nil {
-			if err == os.EOF {
-				err = nil
-				break
-			}
-			return
-		}
-	}
-	rune, size = utf8.DecodeRune(r.buf[0:n])
-	if size < n { // an error
-		r.unread(r.buf[size:n])
-	}
-	return
-}
-
-var ssFree = newCache(func() interface{} { return new(ss) })
-
-// Allocate a new ss struct or grab a cached one.
-func newScanState(r io.Reader, nlIsSpace, nlIsEnd bool) (s *ss, old ssave) {
-	// If the reader is a *ss, then we've got a recursive
-	// call to Scan, so re-use the scan state.
-	s, ok := r.(*ss)
-	if ok {
-		old = s.ssave
-		s.limit = s.fieldLimit
-		s.nlIsEnd = nlIsEnd || s.nlIsEnd
-		s.nlIsSpace = nlIsSpace
-		return
-	}
-
-	s = ssFree.get().(*ss)
-	if rr, ok := r.(io.RuneReader); ok {
-		s.rr = rr
-	} else {
-		s.rr = &readRune{reader: r}
-	}
-	s.nlIsSpace = nlIsSpace
-	s.nlIsEnd = nlIsEnd
-	s.prevRune = -1
-	s.peekRune = -1
-	s.atEOF = false
-	s.limit = hugeWid
-	s.fieldLimit = hugeWid
-	s.maxWid = hugeWid
-	s.validSave = true
-	return
-}
-
-// Save used ss structs in ssFree; avoid an allocation per invocation.
-func (s *ss) free(old ssave) {
-	// If it was used recursively, just restore the old state.
-	if old.validSave {
-		s.ssave = old
-		return
-	}
-	// Don't hold on to ss structs with large buffers.
-	if cap(s.buf.Bytes()) > 1024 {
-		return
-	}
-	s.buf.Reset()
-	s.rr = nil
-	ssFree.put(s)
-}
-
-// skipSpace skips spaces and maybe newlines.
-func (s *ss) skipSpace(stopAtNewline bool) {
-	for {
-		rune := s.getRune()
-		if rune == eof {
-			return
-		}
-		if rune == '\n' {
-			if stopAtNewline {
-				break
-			}
-			if s.nlIsSpace {
-				continue
-			}
-			s.errorString("unexpected newline")
-			return
-		}
-		if !unicode.IsSpace(rune) {
-			s.UnreadRune()
-			break
-		}
-	}
-}
-
-// token returns the next space-delimited string from the input.  It
-// skips white space.  For Scanln, it stops at newlines.  For Scan,
-// newlines are treated as spaces.
-func (s *ss) token(skipSpace bool, f func(int) bool) []byte {
-	if skipSpace {
-		s.skipSpace(false)
-	}
-	// read until white space or newline
-	for {
-		rune := s.getRune()
-		if rune == eof {
-			break
-		}
-		if !f(rune) {
-			s.UnreadRune()
-			break
-		}
-		s.buf.WriteRune(rune)
-	}
-	return s.buf.Bytes()
-}
-
-// typeError indicates that the type of the operand did not match the format
-func (s *ss) typeError(field interface{}, expected string) {
-	s.errorString("expected field of type pointer to " + expected + "; found " + reflect.Typeof(field).String())
-}
-
-var complexError = os.NewError("syntax error scanning complex number")
-var boolError = os.NewError("syntax error scanning boolean")
-
-// consume reads the next rune in the input and reports whether it is in the ok string.
-// If accept is true, it puts the character into the input token.
-func (s *ss) consume(ok string, accept bool) bool {
-	rune := s.getRune()
-	if rune == eof {
-		return false
-	}
-	if strings.IndexRune(ok, rune) >= 0 {
-		if accept {
-			s.buf.WriteRune(rune)
-		}
-		return true
-	}
-	if rune != eof && accept {
-		s.UnreadRune()
-	}
-	return false
-}
-
-// peek reports whether the next character is in the ok string, without consuming it.
-func (s *ss) peek(ok string) bool {
-	rune := s.getRune()
-	if rune != eof {
-		s.UnreadRune()
-	}
-	return strings.IndexRune(ok, rune) >= 0
-}
-
-// accept checks the next rune in the input.  If it's a byte (sic) in the string, it puts it in the
-// buffer and returns true. Otherwise it return false.
-func (s *ss) accept(ok string) bool {
-	return s.consume(ok, true)
-}
-
-// okVerb verifies that the verb is present in the list, setting s.err appropriately if not.
-func (s *ss) okVerb(verb int, okVerbs, typ string) bool {
-	for _, v := range okVerbs {
-		if v == verb {
-			return true
-		}
-	}
-	s.errorString("bad verb %" + string(verb) + " for " + typ)
-	return false
-}
-
-// scanBool returns the value of the boolean represented by the next token.
-func (s *ss) scanBool(verb int) bool {
-	if !s.okVerb(verb, "tv", "boolean") {
-		return false
-	}
-	// Syntax-checking a boolean is annoying.  We're not fastidious about case.
-	switch s.mustReadRune() {
-	case '0':
-		return false
-	case '1':
-		return true
-	case 't', 'T':
-		if s.accept("rR") && (!s.accept("uU") || !s.accept("eE")) {
-			s.error(boolError)
-		}
-		return true
-	case 'f', 'F':
-		if s.accept("aL") && (!s.accept("lL") || !s.accept("sS") || !s.accept("eE")) {
-			s.error(boolError)
-		}
-		return false
-	}
-	return false
-}
-
-// Numerical elements
-const (
-	binaryDigits      = "01"
-	octalDigits       = "01234567"
-	decimalDigits     = "0123456789"
-	hexadecimalDigits = "0123456789aAbBcCdDeEfF"
-	sign              = "+-"
-	period            = "."
-	exponent          = "eEp"
-)
-
-// getBase returns the numeric base represented by the verb and its digit string.
-func (s *ss) getBase(verb int) (base int, digits string) {
-	s.okVerb(verb, "bdoUxXv", "integer") // sets s.err
-	base = 10
-	digits = decimalDigits
-	switch verb {
-	case 'b':
-		base = 2
-		digits = binaryDigits
-	case 'o':
-		base = 8
-		digits = octalDigits
-	case 'x', 'X', 'U':
-		base = 16
-		digits = hexadecimalDigits
-	}
-	return
-}
-
-// scanNumber returns the numerical string with specified digits starting here.
-func (s *ss) scanNumber(digits string, haveDigits bool) string {
-	if !haveDigits && !s.accept(digits) {
-		s.errorString("expected integer")
-	}
-	for s.accept(digits) {
-	}
-	return s.buf.String()
-}
-
-// scanRune returns the next rune value in the input.
-func (s *ss) scanRune(bitSize int) int64 {
-	rune := int64(s.mustReadRune())
-	n := uint(bitSize)
-	x := (rune << (64 - n)) >> (64 - n)
-	if x != rune {
-		s.errorString("overflow on character value " + string(rune))
-	}
-	return rune
-}
-
-// scanBasePrefix reports whether the integer begins with a 0 or 0x,
-// and returns the base, digit string, and whether a zero was found.
-// It is called only if the verb is %v.
-func (s *ss) scanBasePrefix() (base int, digits string, found bool) {
-	if !s.peek("0") {
-		return 10, decimalDigits, false
-	}
-	s.accept("0")
-	found = true // We've put a digit into the token buffer.
-	// Special cases for '0' && '0x'
-	base, digits = 8, octalDigits
-	if s.peek("xX") {
-		s.consume("xX", false)
-		base, digits = 16, hexadecimalDigits
-	}
-	return
-}
-
-// scanInt returns the value of the integer represented by the next
-// token, checking for overflow.  Any error is stored in s.err.
-func (s *ss) scanInt(verb int, bitSize int) int64 {
-	if verb == 'c' {
-		return s.scanRune(bitSize)
-	}
-	s.skipSpace(false)
-	base, digits := s.getBase(verb)
-	haveDigits := false
-	if verb == 'U' {
-		if !s.consume("U", false) || !s.consume("+", false) {
-			s.errorString("bad unicode format ")
-		}
-	} else {
-		s.accept(sign) // If there's a sign, it will be left in the token buffer.
-		if verb == 'v' {
-			base, digits, haveDigits = s.scanBasePrefix()
-		}
-	}
-	tok := s.scanNumber(digits, haveDigits)
-	i, err := strconv.Btoi64(tok, base)
-	if err != nil {
-		s.error(err)
-	}
-	n := uint(bitSize)
-	x := (i << (64 - n)) >> (64 - n)
-	if x != i {
-		s.errorString("integer overflow on token " + tok)
-	}
-	return i
-}
-
-// scanUint returns the value of the unsigned integer represented
-// by the next token, checking for overflow.  Any error is stored in s.err.
-func (s *ss) scanUint(verb int, bitSize int) uint64 {
-	if verb == 'c' {
-		return uint64(s.scanRune(bitSize))
-	}
-	s.skipSpace(false)
-	base, digits := s.getBase(verb)
-	haveDigits := false
-	if verb == 'U' {
-		if !s.consume("U", false) || !s.consume("+", false) {
-			s.errorString("bad unicode format ")
-		}
-	} else if verb == 'v' {
-		base, digits, haveDigits = s.scanBasePrefix()
-	}
-	tok := s.scanNumber(digits, haveDigits)
-	i, err := strconv.Btoui64(tok, base)
-	if err != nil {
-		s.error(err)
-	}
-	n := uint(bitSize)
-	x := (i << (64 - n)) >> (64 - n)
-	if x != i {
-		s.errorString("unsigned integer overflow on token " + tok)
-	}
-	return i
-}
-
-// floatToken returns the floating-point number starting here, no longer than swid
-// if the width is specified. It's not rigorous about syntax because it doesn't check that
-// we have at least some digits, but Atof will do that.
-func (s *ss) floatToken() string {
-	s.buf.Reset()
-	// NaN?
-	if s.accept("nN") && s.accept("aA") && s.accept("nN") {
-		return s.buf.String()
-	}
-	// leading sign?
-	s.accept(sign)
-	// Inf?
-	if s.accept("iI") && s.accept("nN") && s.accept("fF") {
-		return s.buf.String()
-	}
-	// digits?
-	for s.accept(decimalDigits) {
-	}
-	// decimal point?
-	if s.accept(period) {
-		// fraction?
-		for s.accept(decimalDigits) {
-		}
-	}
-	// exponent?
-	if s.accept(exponent) {
-		// leading sign?
-		s.accept(sign)
-		// digits?
-		for s.accept(decimalDigits) {
-		}
-	}
-	return s.buf.String()
-}
-
-// complexTokens returns the real and imaginary parts of the complex number starting here.
-// The number might be parenthesized and has the format (N+Ni) where N is a floating-point
-// number and there are no spaces within.
-func (s *ss) complexTokens() (real, imag string) {
-	// TODO: accept N and Ni independently?
-	parens := s.accept("(")
-	real = s.floatToken()
-	s.buf.Reset()
-	// Must now have a sign.
-	if !s.accept("+-") {
-		s.error(complexError)
-	}
-	// Sign is now in buffer
-	imagSign := s.buf.String()
-	imag = s.floatToken()
-	if !s.accept("i") {
-		s.error(complexError)
-	}
-	if parens && !s.accept(")") {
-		s.error(complexError)
-	}
-	return real, imagSign + imag
-}
-
-// convertFloat converts the string to a float64value.
-func (s *ss) convertFloat(str string, n int) float64 {
-	if p := strings.Index(str, "p"); p >= 0 {
-		// Atof doesn't handle power-of-2 exponents,
-		// but they're easy to evaluate.
-		f, err := strconv.AtofN(str[:p], n)
-		if err != nil {
-			// Put full string into error.
-			if e, ok := err.(*strconv.NumError); ok {
-				e.Num = str
-			}
-			s.error(err)
-		}
-		n, err := strconv.Atoi(str[p+1:])
-		if err != nil {
-			// Put full string into error.
-			if e, ok := err.(*strconv.NumError); ok {
-				e.Num = str
-			}
-			s.error(err)
-		}
-		return math.Ldexp(f, n)
-	}
-	f, err := strconv.AtofN(str, n)
-	if err != nil {
-		s.error(err)
-	}
-	return f
-}
-
-// convertComplex converts the next token to a complex128 value.
-// The atof argument is a type-specific reader for the underlying type.
-// If we're reading complex64, atof will parse float32s and convert them
-// to float64's to avoid reproducing this code for each complex type.
-func (s *ss) scanComplex(verb int, n int) complex128 {
-	if !s.okVerb(verb, floatVerbs, "complex") {
-		return 0
-	}
-	s.skipSpace(false)
-	sreal, simag := s.complexTokens()
-	real := s.convertFloat(sreal, n/2)
-	imag := s.convertFloat(simag, n/2)
-	return complex(real, imag)
-}
-
-// convertString returns the string represented by the next input characters.
-// The format of the input is determined by the verb.
-func (s *ss) convertString(verb int) (str string) {
-	if !s.okVerb(verb, "svqx", "string") {
-		return ""
-	}
-	s.skipSpace(false)
-	switch verb {
-	case 'q':
-		str = s.quotedString()
-	case 'x':
-		str = s.hexString()
-	default:
-		str = string(s.token(true, notSpace)) // %s and %v just return the next word
-	}
-	// Empty strings other than with %q are not OK.
-	if len(str) == 0 && verb != 'q' && s.maxWid > 0 {
-		s.errorString("Scan: no data for string")
-	}
-	return
-}
-
-// quotedString returns the double- or back-quoted string represented by the next input characters.
-func (s *ss) quotedString() string {
-	quote := s.mustReadRune()
-	switch quote {
-	case '`':
-		// Back-quoted: Anything goes until EOF or back quote.
-		for {
-			rune := s.mustReadRune()
-			if rune == quote {
-				break
-			}
-			s.buf.WriteRune(rune)
-		}
-		return s.buf.String()
-	case '"':
-		// Double-quoted: Include the quotes and let strconv.Unquote do the backslash escapes.
-		s.buf.WriteRune(quote)
-		for {
-			rune := s.mustReadRune()
-			s.buf.WriteRune(rune)
-			if rune == '\\' {
-				// In a legal backslash escape, no matter how long, only the character
-				// immediately after the escape can itself be a backslash or quote.
-				// Thus we only need to protect the first character after the backslash.
-				rune := s.mustReadRune()
-				s.buf.WriteRune(rune)
-			} else if rune == '"' {
-				break
-			}
-		}
-		result, err := strconv.Unquote(s.buf.String())
-		if err != nil {
-			s.error(err)
-		}
-		return result
-	default:
-		s.errorString("expected quoted string")
-	}
-	return ""
-}
-
-// hexDigit returns the value of the hexadecimal digit
-func (s *ss) hexDigit(digit int) int {
-	switch digit {
-	case '0', '1', '2', '3', '4', '5', '6', '7', '8', '9':
-		return digit - '0'
-	case 'a', 'b', 'c', 'd', 'e', 'f':
-		return 10 + digit - 'a'
-	case 'A', 'B', 'C', 'D', 'E', 'F':
-		return 10 + digit - 'A'
-	}
-	s.errorString("Scan: illegal hex digit")
-	return 0
-}
-
-// hexByte returns the next hex-encoded (two-character) byte from the input.
-// There must be either two hexadecimal digits or a space character in the input.
-func (s *ss) hexByte() (b byte, ok bool) {
-	rune1 := s.getRune()
-	if rune1 == eof {
-		return
-	}
-	if unicode.IsSpace(rune1) {
-		s.UnreadRune()
-		return
-	}
-	rune2 := s.mustReadRune()
-	return byte(s.hexDigit(rune1)<<4 | s.hexDigit(rune2)), true
-}
-
-// hexString returns the space-delimited hexpair-encoded string.
-func (s *ss) hexString() string {
-	for {
-		b, ok := s.hexByte()
-		if !ok {
-			break
-		}
-		s.buf.WriteByte(b)
-	}
-	if s.buf.Len() == 0 {
-		s.errorString("Scan: no hex data for %x string")
-		return ""
-	}
-	return s.buf.String()
-}
-
-const floatVerbs = "beEfFgGv"
-
-const hugeWid = 1 << 30
-
-// scanOne scans a single value, deriving the scanner from the type of the argument.
-func (s *ss) scanOne(verb int, field interface{}) {
-	s.buf.Reset()
-	var err os.Error
-	// If the parameter has its own Scan method, use that.
-	if v, ok := field.(Scanner); ok {
-		err = v.Scan(s, verb)
-		if err != nil {
-			if err == os.EOF {
-				err = io.ErrUnexpectedEOF
-			}
-			s.error(err)
-		}
-		return
-	}
-	switch v := field.(type) {
-	case *bool:
-		*v = s.scanBool(verb)
-	case *complex64:
-		*v = complex64(s.scanComplex(verb, 64))
-	case *complex128:
-		*v = s.scanComplex(verb, 128)
-	case *int:
-		*v = int(s.scanInt(verb, intBits))
-	case *int8:
-		*v = int8(s.scanInt(verb, 8))
-	case *int16:
-		*v = int16(s.scanInt(verb, 16))
-	case *int32:
-		*v = int32(s.scanInt(verb, 32))
-	case *int64:
-		*v = s.scanInt(verb, 64)
-	case *uint:
-		*v = uint(s.scanUint(verb, intBits))
-	case *uint8:
-		*v = uint8(s.scanUint(verb, 8))
-	case *uint16:
-		*v = uint16(s.scanUint(verb, 16))
-	case *uint32:
-		*v = uint32(s.scanUint(verb, 32))
-	case *uint64:
-		*v = s.scanUint(verb, 64)
-	case *uintptr:
-		*v = uintptr(s.scanUint(verb, uintptrBits))
-	// Floats are tricky because you want to scan in the precision of the result, not
-	// scan in high precision and convert, in order to preserve the correct error condition.
-	case *float32:
-		if s.okVerb(verb, floatVerbs, "float32") {
-			s.skipSpace(false)
-			*v = float32(s.convertFloat(s.floatToken(), 32))
-		}
-	case *float64:
-		if s.okVerb(verb, floatVerbs, "float64") {
-			s.skipSpace(false)
-			*v = s.convertFloat(s.floatToken(), 64)
-		}
-	case *string:
-		*v = s.convertString(verb)
-	case *[]byte:
-		// We scan to string and convert so we get a copy of the data.
-		// If we scanned to bytes, the slice would point at the buffer.
-		*v = []byte(s.convertString(verb))
-	default:
-		val := reflect.NewValue(v)
-		ptr, ok := val.(*reflect.PtrValue)
-		if !ok {
-			s.errorString("Scan: type not a pointer: " + val.Type().String())
-			return
-		}
-		switch v := ptr.Elem().(type) {
-		case *reflect.BoolValue:
-			v.Set(s.scanBool(verb))
-		case *reflect.IntValue:
-			v.Set(s.scanInt(verb, v.Type().Bits()))
-		case *reflect.UintValue:
-			v.Set(s.scanUint(verb, v.Type().Bits()))
-		case *reflect.StringValue:
-			v.Set(s.convertString(verb))
-		case *reflect.SliceValue:
-			// For now, can only handle (renamed) []byte.
-			typ := v.Type().(*reflect.SliceType)
-			if typ.Elem().Kind() != reflect.Uint8 {
-				goto CantHandle
-			}
-			str := s.convertString(verb)
-			v.Set(reflect.MakeSlice(typ, len(str), len(str)))
-			for i := 0; i < len(str); i++ {
-				v.Elem(i).(*reflect.UintValue).Set(uint64(str[i]))
-			}
-		case *reflect.FloatValue:
-			s.skipSpace(false)
-			v.Set(s.convertFloat(s.floatToken(), v.Type().Bits()))
-		case *reflect.ComplexValue:
-			v.Set(s.scanComplex(verb, v.Type().Bits()))
-		default:
-		CantHandle:
-			s.errorString("Scan: can't handle type: " + val.Type().String())
-		}
-	}
-}
-
-// errorHandler turns local panics into error returns.  EOFs are benign.
-func errorHandler(errp *os.Error) {
-	if e := recover(); e != nil {
-		if se, ok := e.(scanError); ok { // catch local error
-			if se.err != os.EOF {
-				*errp = se.err
-			}
-		} else {
-			panic(e)
-		}
-	}
-}
-
-// doScan does the real work for scanning without a format string.
-func (s *ss) doScan(a []interface{}) (numProcessed int, err os.Error) {
-	defer errorHandler(&err)
-	for _, field := range a {
-		s.scanOne('v', field)
-		numProcessed++
-	}
-	// Check for newline if required.
-	if !s.nlIsSpace {
-		for {
-			rune := s.getRune()
-			if rune == '\n' || rune == eof {
-				break
-			}
-			if !unicode.IsSpace(rune) {
-				s.errorString("Scan: expected newline")
-				break
-			}
-		}
-	}
-	return
-}
-
-// advance determines whether the next characters in the input match
-// those of the format.  It returns the number of bytes (sic) consumed
-// in the format. Newlines included, all runs of space characters in
-// either input or format behave as a single space. This routine also
-// handles the %% case.  If the return value is zero, either format
-// starts with a % (with no following %) or the input is empty.
-// If it is negative, the input did not match the string.
-func (s *ss) advance(format string) (i int) {
-	for i < len(format) {
-		fmtc, w := utf8.DecodeRuneInString(format[i:])
-		if fmtc == '%' {
-			// %% acts like a real percent
-			nextc, _ := utf8.DecodeRuneInString(format[i+w:]) // will not match % if string is empty
-			if nextc != '%' {
-				return
-			}
-			i += w // skip the first %
-		}
-		sawSpace := false
-		for unicode.IsSpace(fmtc) && i < len(format) {
-			sawSpace = true
-			i += w
-			fmtc, w = utf8.DecodeRuneInString(format[i:])
-		}
-		if sawSpace {
-			// There was space in the format, so there should be space (EOF)
-			// in the input.
-			inputc := s.getRune()
-			if inputc == eof {
-				return
-			}
-			if !unicode.IsSpace(inputc) {
-				// Space in format but not in input: error
-				s.errorString("expected space in input to match format")
-			}
-			s.skipSpace(true)
-			continue
-		}
-		inputc := s.mustReadRune()
-		if fmtc != inputc {
-			s.UnreadRune()
-			return -1
-		}
-		i += w
-	}
-	return
-}
-
-// doScanf does the real work when scanning with a format string.
-//  At the moment, it handles only pointers to basic types.
-func (s *ss) doScanf(format string, a []interface{}) (numProcessed int, err os.Error) {
-	defer errorHandler(&err)
-	end := len(format) - 1
-	// We process one item per non-trivial format
-	for i := 0; i <= end; {
-		w := s.advance(format[i:])
-		if w > 0 {
-			i += w
-			continue
-		}
-		// Either we failed to advance, we have a percent character, or we ran out of input.
-		if format[i] != '%' {
-			// Can't advance format.  Why not?
-			if w < 0 {
-				s.errorString("input does not match format")
-			}
-			// Otherwise at EOF; "too many operands" error handled below
-			break
-		}
-		i++ // % is one byte
-
-		// do we have 20 (width)?
-		var widPresent bool
-		s.maxWid, widPresent, i = parsenum(format, i, end)
-		if !widPresent {
-			s.maxWid = hugeWid
-		}
-		s.fieldLimit = s.limit
-		if f := s.count + s.maxWid; f < s.fieldLimit {
-			s.fieldLimit = f
-		}
-
-		c, w := utf8.DecodeRuneInString(format[i:])
-		i += w
-
-		if numProcessed >= len(a) { // out of operands
-			s.errorString("too few operands for format %" + format[i-w:])
-			break
-		}
-		field := a[numProcessed]
-
-		s.scanOne(c, field)
-		numProcessed++
-		s.fieldLimit = s.limit
-	}
-	if numProcessed < len(a) {
-		s.errorString("too many operands")
-	}
-	return
-}
diff --git a/src/cmd/fix/testdata/reflect.scan.go.out b/src/cmd/fix/testdata/reflect.scan.go.out
deleted file mode 100644
index 956c13bde8..0000000000
--- a/src/cmd/fix/testdata/reflect.scan.go.out
+++ /dev/null
@@ -1,1082 +0,0 @@
-// Copyright 2010 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 fmt
-
-import (
-	"bytes"
-	"io"
-	"math"
-	"os"
-	"reflect"
-	"strconv"
-	"strings"
-	"unicode"
-	"utf8"
-)
-
-// runeUnreader is the interface to something that can unread runes.
-// If the object provided to Scan does not satisfy this interface,
-// a local buffer will be used to back up the input, but its contents
-// will be lost when Scan returns.
-type runeUnreader interface {
-	UnreadRune() os.Error
-}
-
-// ScanState represents the scanner state passed to custom scanners.
-// Scanners may do rune-at-a-time scanning or ask the ScanState
-// to discover the next space-delimited token.
-type ScanState interface {
-	// ReadRune reads the next rune (Unicode code point) from the input.
-	// If invoked during Scanln, Fscanln, or Sscanln, ReadRune() will
-	// return EOF after returning the first '\n' or when reading beyond
-	// the specified width.
-	ReadRune() (rune int, size int, err os.Error)
-	// UnreadRune causes the next call to ReadRune to return the same rune.
-	UnreadRune() os.Error
-	// Token skips space in the input if skipSpace is true, then returns the
-	// run of Unicode code points c satisfying f(c).  If f is nil,
-	// !unicode.IsSpace(c) is used; that is, the token will hold non-space
-	// characters.  Newlines are treated as space unless the scan operation
-	// is Scanln, Fscanln or Sscanln, in which case a newline is treated as
-	// EOF.  The returned slice points to shared data that may be overwritten
-	// by the next call to Token, a call to a Scan function using the ScanState
-	// as input, or when the calling Scan method returns.
-	Token(skipSpace bool, f func(int) bool) (token []byte, err os.Error)
-	// Width returns the value of the width option and whether it has been set.
-	// The unit is Unicode code points.
-	Width() (wid int, ok bool)
-	// Because ReadRune is implemented by the interface, Read should never be
-	// called by the scanning routines and a valid implementation of
-	// ScanState may choose always to return an error from Read.
-	Read(buf []byte) (n int, err os.Error)
-}
-
-// Scanner is implemented by any value that has a Scan method, which scans
-// the input for the representation of a value and stores the result in the
-// receiver, which must be a pointer to be useful.  The Scan method is called
-// for any argument to Scan, Scanf, or Scanln that implements it.
-type Scanner interface {
-	Scan(state ScanState, verb int) os.Error
-}
-
-// Scan scans text read from standard input, storing successive
-// space-separated values into successive arguments.  Newlines count
-// as space.  It returns the number of items successfully scanned.
-// If that is less than the number of arguments, err will report why.
-func Scan(a ...interface{}) (n int, err os.Error) {
-	return Fscan(os.Stdin, a...)
-}
-
-// Scanln is similar to Scan, but stops scanning at a newline and
-// after the final item there must be a newline or EOF.
-func Scanln(a ...interface{}) (n int, err os.Error) {
-	return Fscanln(os.Stdin, a...)
-}
-
-// Scanf scans text read from standard input, storing successive
-// space-separated values into successive arguments as determined by
-// the format.  It returns the number of items successfully scanned.
-func Scanf(format string, a ...interface{}) (n int, err os.Error) {
-	return Fscanf(os.Stdin, format, a...)
-}
-
-// Sscan scans the argument string, storing successive space-separated
-// values into successive arguments.  Newlines count as space.  It
-// returns the number of items successfully scanned.  If that is less
-// than the number of arguments, err will report why.
-func Sscan(str string, a ...interface{}) (n int, err os.Error) {
-	return Fscan(strings.NewReader(str), a...)
-}
-
-// Sscanln is similar to Sscan, but stops scanning at a newline and
-// after the final item there must be a newline or EOF.
-func Sscanln(str string, a ...interface{}) (n int, err os.Error) {
-	return Fscanln(strings.NewReader(str), a...)
-}
-
-// Sscanf scans the argument string, storing successive space-separated
-// values into successive arguments as determined by the format.  It
-// returns the number of items successfully parsed.
-func Sscanf(str string, format string, a ...interface{}) (n int, err os.Error) {
-	return Fscanf(strings.NewReader(str), format, a...)
-}
-
-// Fscan scans text read from r, storing successive space-separated
-// values into successive arguments.  Newlines count as space.  It
-// returns the number of items successfully scanned.  If that is less
-// than the number of arguments, err will report why.
-func Fscan(r io.Reader, a ...interface{}) (n int, err os.Error) {
-	s, old := newScanState(r, true, false)
-	n, err = s.doScan(a)
-	s.free(old)
-	return
-}
-
-// Fscanln is similar to Fscan, but stops scanning at a newline and
-// after the final item there must be a newline or EOF.
-func Fscanln(r io.Reader, a ...interface{}) (n int, err os.Error) {
-	s, old := newScanState(r, false, true)
-	n, err = s.doScan(a)
-	s.free(old)
-	return
-}
-
-// Fscanf scans text read from r, storing successive space-separated
-// values into successive arguments as determined by the format.  It
-// returns the number of items successfully parsed.
-func Fscanf(r io.Reader, format string, a ...interface{}) (n int, err os.Error) {
-	s, old := newScanState(r, false, false)
-	n, err = s.doScanf(format, a)
-	s.free(old)
-	return
-}
-
-// scanError represents an error generated by the scanning software.
-// It's used as a unique signature to identify such errors when recovering.
-type scanError struct {
-	err os.Error
-}
-
-const eof = -1
-
-// ss is the internal implementation of ScanState.
-type ss struct {
-	rr       io.RuneReader // where to read input
-	buf      bytes.Buffer  // token accumulator
-	peekRune int           // one-rune lookahead
-	prevRune int           // last rune returned by ReadRune
-	count    int           // runes consumed so far.
-	atEOF    bool          // already read EOF
-	ssave
-}
-
-// ssave holds the parts of ss that need to be
-// saved and restored on recursive scans.
-type ssave struct {
-	validSave  bool // is or was a part of an actual ss.
-	nlIsEnd    bool // whether newline terminates scan
-	nlIsSpace  bool // whether newline counts as white space
-	fieldLimit int  // max value of ss.count for this field; fieldLimit <= limit
-	limit      int  // max value of ss.count.
-	maxWid     int  // width of this field.
-}
-
-// The Read method is only in ScanState so that ScanState
-// satisfies io.Reader. It will never be called when used as
-// intended, so there is no need to make it actually work.
-func (s *ss) Read(buf []byte) (n int, err os.Error) {
-	return 0, os.NewError("ScanState's Read should not be called. Use ReadRune")
-}
-
-func (s *ss) ReadRune() (rune int, size int, err os.Error) {
-	if s.peekRune >= 0 {
-		s.count++
-		rune = s.peekRune
-		size = utf8.RuneLen(rune)
-		s.prevRune = rune
-		s.peekRune = -1
-		return
-	}
-	if s.atEOF || s.nlIsEnd && s.prevRune == '\n' || s.count >= s.fieldLimit {
-		err = os.EOF
-		return
-	}
-
-	rune, size, err = s.rr.ReadRune()
-	if err == nil {
-		s.count++
-		s.prevRune = rune
-	} else if err == os.EOF {
-		s.atEOF = true
-	}
-	return
-}
-
-func (s *ss) Width() (wid int, ok bool) {
-	if s.maxWid == hugeWid {
-		return 0, false
-	}
-	return s.maxWid, true
-}
-
-// The public method returns an error; this private one panics.
-// If getRune reaches EOF, the return value is EOF (-1).
-func (s *ss) getRune() (rune int) {
-	rune, _, err := s.ReadRune()
-	if err != nil {
-		if err == os.EOF {
-			return eof
-		}
-		s.error(err)
-	}
-	return
-}
-
-// mustReadRune turns os.EOF into a panic(io.ErrUnexpectedEOF).
-// It is called in cases such as string scanning where an EOF is a
-// syntax error.
-func (s *ss) mustReadRune() (rune int) {
-	rune = s.getRune()
-	if rune == eof {
-		s.error(io.ErrUnexpectedEOF)
-	}
-	return
-}
-
-func (s *ss) UnreadRune() os.Error {
-	if u, ok := s.rr.(runeUnreader); ok {
-		u.UnreadRune()
-	} else {
-		s.peekRune = s.prevRune
-	}
-	s.count--
-	return nil
-}
-
-func (s *ss) error(err os.Error) {
-	panic(scanError{err})
-}
-
-func (s *ss) errorString(err string) {
-	panic(scanError{os.NewError(err)})
-}
-
-func (s *ss) Token(skipSpace bool, f func(int) bool) (tok []byte, err os.Error) {
-	defer func() {
-		if e := recover(); e != nil {
-			if se, ok := e.(scanError); ok {
-				err = se.err
-			} else {
-				panic(e)
-			}
-		}
-	}()
-	if f == nil {
-		f = notSpace
-	}
-	s.buf.Reset()
-	tok = s.token(skipSpace, f)
-	return
-}
-
-// notSpace is the default scanning function used in Token.
-func notSpace(r int) bool {
-	return !unicode.IsSpace(r)
-}
-
-// readRune is a structure to enable reading UTF-8 encoded code points
-// from an io.Reader.  It is used if the Reader given to the scanner does
-// not already implement io.RuneReader.
-type readRune struct {
-	reader  io.Reader
-	buf     [utf8.UTFMax]byte // used only inside ReadRune
-	pending int               // number of bytes in pendBuf; only >0 for bad UTF-8
-	pendBuf [utf8.UTFMax]byte // bytes left over
-}
-
-// readByte returns the next byte from the input, which may be
-// left over from a previous read if the UTF-8 was ill-formed.
-func (r *readRune) readByte() (b byte, err os.Error) {
-	if r.pending > 0 {
-		b = r.pendBuf[0]
-		copy(r.pendBuf[0:], r.pendBuf[1:])
-		r.pending--
-		return
-	}
-	_, err = r.reader.Read(r.pendBuf[0:1])
-	return r.pendBuf[0], err
-}
-
-// unread saves the bytes for the next read.
-func (r *readRune) unread(buf []byte) {
-	copy(r.pendBuf[r.pending:], buf)
-	r.pending += len(buf)
-}
-
-// ReadRune returns the next UTF-8 encoded code point from the
-// io.Reader inside r.
-func (r *readRune) ReadRune() (rune int, size int, err os.Error) {
-	r.buf[0], err = r.readByte()
-	if err != nil {
-		return 0, 0, err
-	}
-	if r.buf[0] < utf8.RuneSelf { // fast check for common ASCII case
-		rune = int(r.buf[0])
-		return
-	}
-	var n int
-	for n = 1; !utf8.FullRune(r.buf[0:n]); n++ {
-		r.buf[n], err = r.readByte()
-		if err != nil {
-			if err == os.EOF {
-				err = nil
-				break
-			}
-			return
-		}
-	}
-	rune, size = utf8.DecodeRune(r.buf[0:n])
-	if size < n { // an error
-		r.unread(r.buf[size:n])
-	}
-	return
-}
-
-var ssFree = newCache(func() interface{} { return new(ss) })
-
-// Allocate a new ss struct or grab a cached one.
-func newScanState(r io.Reader, nlIsSpace, nlIsEnd bool) (s *ss, old ssave) {
-	// If the reader is a *ss, then we've got a recursive
-	// call to Scan, so re-use the scan state.
-	s, ok := r.(*ss)
-	if ok {
-		old = s.ssave
-		s.limit = s.fieldLimit
-		s.nlIsEnd = nlIsEnd || s.nlIsEnd
-		s.nlIsSpace = nlIsSpace
-		return
-	}
-
-	s = ssFree.get().(*ss)
-	if rr, ok := r.(io.RuneReader); ok {
-		s.rr = rr
-	} else {
-		s.rr = &readRune{reader: r}
-	}
-	s.nlIsSpace = nlIsSpace
-	s.nlIsEnd = nlIsEnd
-	s.prevRune = -1
-	s.peekRune = -1
-	s.atEOF = false
-	s.limit = hugeWid
-	s.fieldLimit = hugeWid
-	s.maxWid = hugeWid
-	s.validSave = true
-	return
-}
-
-// Save used ss structs in ssFree; avoid an allocation per invocation.
-func (s *ss) free(old ssave) {
-	// If it was used recursively, just restore the old state.
-	if old.validSave {
-		s.ssave = old
-		return
-	}
-	// Don't hold on to ss structs with large buffers.
-	if cap(s.buf.Bytes()) > 1024 {
-		return
-	}
-	s.buf.Reset()
-	s.rr = nil
-	ssFree.put(s)
-}
-
-// skipSpace skips spaces and maybe newlines.
-func (s *ss) skipSpace(stopAtNewline bool) {
-	for {
-		rune := s.getRune()
-		if rune == eof {
-			return
-		}
-		if rune == '\n' {
-			if stopAtNewline {
-				break
-			}
-			if s.nlIsSpace {
-				continue
-			}
-			s.errorString("unexpected newline")
-			return
-		}
-		if !unicode.IsSpace(rune) {
-			s.UnreadRune()
-			break
-		}
-	}
-}
-
-// token returns the next space-delimited string from the input.  It
-// skips white space.  For Scanln, it stops at newlines.  For Scan,
-// newlines are treated as spaces.
-func (s *ss) token(skipSpace bool, f func(int) bool) []byte {
-	if skipSpace {
-		s.skipSpace(false)
-	}
-	// read until white space or newline
-	for {
-		rune := s.getRune()
-		if rune == eof {
-			break
-		}
-		if !f(rune) {
-			s.UnreadRune()
-			break
-		}
-		s.buf.WriteRune(rune)
-	}
-	return s.buf.Bytes()
-}
-
-// typeError indicates that the type of the operand did not match the format
-func (s *ss) typeError(field interface{}, expected string) {
-	s.errorString("expected field of type pointer to " + expected + "; found " + reflect.TypeOf(field).String())
-}
-
-var complexError = os.NewError("syntax error scanning complex number")
-var boolError = os.NewError("syntax error scanning boolean")
-
-// consume reads the next rune in the input and reports whether it is in the ok string.
-// If accept is true, it puts the character into the input token.
-func (s *ss) consume(ok string, accept bool) bool {
-	rune := s.getRune()
-	if rune == eof {
-		return false
-	}
-	if strings.IndexRune(ok, rune) >= 0 {
-		if accept {
-			s.buf.WriteRune(rune)
-		}
-		return true
-	}
-	if rune != eof && accept {
-		s.UnreadRune()
-	}
-	return false
-}
-
-// peek reports whether the next character is in the ok string, without consuming it.
-func (s *ss) peek(ok string) bool {
-	rune := s.getRune()
-	if rune != eof {
-		s.UnreadRune()
-	}
-	return strings.IndexRune(ok, rune) >= 0
-}
-
-// accept checks the next rune in the input.  If it's a byte (sic) in the string, it puts it in the
-// buffer and returns true. Otherwise it return false.
-func (s *ss) accept(ok string) bool {
-	return s.consume(ok, true)
-}
-
-// okVerb verifies that the verb is present in the list, setting s.err appropriately if not.
-func (s *ss) okVerb(verb int, okVerbs, typ string) bool {
-	for _, v := range okVerbs {
-		if v == verb {
-			return true
-		}
-	}
-	s.errorString("bad verb %" + string(verb) + " for " + typ)
-	return false
-}
-
-// scanBool returns the value of the boolean represented by the next token.
-func (s *ss) scanBool(verb int) bool {
-	if !s.okVerb(verb, "tv", "boolean") {
-		return false
-	}
-	// Syntax-checking a boolean is annoying.  We're not fastidious about case.
-	switch s.mustReadRune() {
-	case '0':
-		return false
-	case '1':
-		return true
-	case 't', 'T':
-		if s.accept("rR") && (!s.accept("uU") || !s.accept("eE")) {
-			s.error(boolError)
-		}
-		return true
-	case 'f', 'F':
-		if s.accept("aL") && (!s.accept("lL") || !s.accept("sS") || !s.accept("eE")) {
-			s.error(boolError)
-		}
-		return false
-	}
-	return false
-}
-
-// Numerical elements
-const (
-	binaryDigits      = "01"
-	octalDigits       = "01234567"
-	decimalDigits     = "0123456789"
-	hexadecimalDigits = "0123456789aAbBcCdDeEfF"
-	sign              = "+-"
-	period            = "."
-	exponent          = "eEp"
-)
-
-// getBase returns the numeric base represented by the verb and its digit string.
-func (s *ss) getBase(verb int) (base int, digits string) {
-	s.okVerb(verb, "bdoUxXv", "integer") // sets s.err
-	base = 10
-	digits = decimalDigits
-	switch verb {
-	case 'b':
-		base = 2
-		digits = binaryDigits
-	case 'o':
-		base = 8
-		digits = octalDigits
-	case 'x', 'X', 'U':
-		base = 16
-		digits = hexadecimalDigits
-	}
-	return
-}
-
-// scanNumber returns the numerical string with specified digits starting here.
-func (s *ss) scanNumber(digits string, haveDigits bool) string {
-	if !haveDigits && !s.accept(digits) {
-		s.errorString("expected integer")
-	}
-	for s.accept(digits) {
-	}
-	return s.buf.String()
-}
-
-// scanRune returns the next rune value in the input.
-func (s *ss) scanRune(bitSize int) int64 {
-	rune := int64(s.mustReadRune())
-	n := uint(bitSize)
-	x := (rune << (64 - n)) >> (64 - n)
-	if x != rune {
-		s.errorString("overflow on character value " + string(rune))
-	}
-	return rune
-}
-
-// scanBasePrefix reports whether the integer begins with a 0 or 0x,
-// and returns the base, digit string, and whether a zero was found.
-// It is called only if the verb is %v.
-func (s *ss) scanBasePrefix() (base int, digits string, found bool) {
-	if !s.peek("0") {
-		return 10, decimalDigits, false
-	}
-	s.accept("0")
-	found = true // We've put a digit into the token buffer.
-	// Special cases for '0' && '0x'
-	base, digits = 8, octalDigits
-	if s.peek("xX") {
-		s.consume("xX", false)
-		base, digits = 16, hexadecimalDigits
-	}
-	return
-}
-
-// scanInt returns the value of the integer represented by the next
-// token, checking for overflow.  Any error is stored in s.err.
-func (s *ss) scanInt(verb int, bitSize int) int64 {
-	if verb == 'c' {
-		return s.scanRune(bitSize)
-	}
-	s.skipSpace(false)
-	base, digits := s.getBase(verb)
-	haveDigits := false
-	if verb == 'U' {
-		if !s.consume("U", false) || !s.consume("+", false) {
-			s.errorString("bad unicode format ")
-		}
-	} else {
-		s.accept(sign) // If there's a sign, it will be left in the token buffer.
-		if verb == 'v' {
-			base, digits, haveDigits = s.scanBasePrefix()
-		}
-	}
-	tok := s.scanNumber(digits, haveDigits)
-	i, err := strconv.Btoi64(tok, base)
-	if err != nil {
-		s.error(err)
-	}
-	n := uint(bitSize)
-	x := (i << (64 - n)) >> (64 - n)
-	if x != i {
-		s.errorString("integer overflow on token " + tok)
-	}
-	return i
-}
-
-// scanUint returns the value of the unsigned integer represented
-// by the next token, checking for overflow.  Any error is stored in s.err.
-func (s *ss) scanUint(verb int, bitSize int) uint64 {
-	if verb == 'c' {
-		return uint64(s.scanRune(bitSize))
-	}
-	s.skipSpace(false)
-	base, digits := s.getBase(verb)
-	haveDigits := false
-	if verb == 'U' {
-		if !s.consume("U", false) || !s.consume("+", false) {
-			s.errorString("bad unicode format ")
-		}
-	} else if verb == 'v' {
-		base, digits, haveDigits = s.scanBasePrefix()
-	}
-	tok := s.scanNumber(digits, haveDigits)
-	i, err := strconv.Btoui64(tok, base)
-	if err != nil {
-		s.error(err)
-	}
-	n := uint(bitSize)
-	x := (i << (64 - n)) >> (64 - n)
-	if x != i {
-		s.errorString("unsigned integer overflow on token " + tok)
-	}
-	return i
-}
-
-// floatToken returns the floating-point number starting here, no longer than swid
-// if the width is specified. It's not rigorous about syntax because it doesn't check that
-// we have at least some digits, but Atof will do that.
-func (s *ss) floatToken() string {
-	s.buf.Reset()
-	// NaN?
-	if s.accept("nN") && s.accept("aA") && s.accept("nN") {
-		return s.buf.String()
-	}
-	// leading sign?
-	s.accept(sign)
-	// Inf?
-	if s.accept("iI") && s.accept("nN") && s.accept("fF") {
-		return s.buf.String()
-	}
-	// digits?
-	for s.accept(decimalDigits) {
-	}
-	// decimal point?
-	if s.accept(period) {
-		// fraction?
-		for s.accept(decimalDigits) {
-		}
-	}
-	// exponent?
-	if s.accept(exponent) {
-		// leading sign?
-		s.accept(sign)
-		// digits?
-		for s.accept(decimalDigits) {
-		}
-	}
-	return s.buf.String()
-}
-
-// complexTokens returns the real and imaginary parts of the complex number starting here.
-// The number might be parenthesized and has the format (N+Ni) where N is a floating-point
-// number and there are no spaces within.
-func (s *ss) complexTokens() (real, imag string) {
-	// TODO: accept N and Ni independently?
-	parens := s.accept("(")
-	real = s.floatToken()
-	s.buf.Reset()
-	// Must now have a sign.
-	if !s.accept("+-") {
-		s.error(complexError)
-	}
-	// Sign is now in buffer
-	imagSign := s.buf.String()
-	imag = s.floatToken()
-	if !s.accept("i") {
-		s.error(complexError)
-	}
-	if parens && !s.accept(")") {
-		s.error(complexError)
-	}
-	return real, imagSign + imag
-}
-
-// convertFloat converts the string to a float64value.
-func (s *ss) convertFloat(str string, n int) float64 {
-	if p := strings.Index(str, "p"); p >= 0 {
-		// Atof doesn't handle power-of-2 exponents,
-		// but they're easy to evaluate.
-		f, err := strconv.AtofN(str[:p], n)
-		if err != nil {
-			// Put full string into error.
-			if e, ok := err.(*strconv.NumError); ok {
-				e.Num = str
-			}
-			s.error(err)
-		}
-		n, err := strconv.Atoi(str[p+1:])
-		if err != nil {
-			// Put full string into error.
-			if e, ok := err.(*strconv.NumError); ok {
-				e.Num = str
-			}
-			s.error(err)
-		}
-		return math.Ldexp(f, n)
-	}
-	f, err := strconv.AtofN(str, n)
-	if err != nil {
-		s.error(err)
-	}
-	return f
-}
-
-// convertComplex converts the next token to a complex128 value.
-// The atof argument is a type-specific reader for the underlying type.
-// If we're reading complex64, atof will parse float32s and convert them
-// to float64's to avoid reproducing this code for each complex type.
-func (s *ss) scanComplex(verb int, n int) complex128 {
-	if !s.okVerb(verb, floatVerbs, "complex") {
-		return 0
-	}
-	s.skipSpace(false)
-	sreal, simag := s.complexTokens()
-	real := s.convertFloat(sreal, n/2)
-	imag := s.convertFloat(simag, n/2)
-	return complex(real, imag)
-}
-
-// convertString returns the string represented by the next input characters.
-// The format of the input is determined by the verb.
-func (s *ss) convertString(verb int) (str string) {
-	if !s.okVerb(verb, "svqx", "string") {
-		return ""
-	}
-	s.skipSpace(false)
-	switch verb {
-	case 'q':
-		str = s.quotedString()
-	case 'x':
-		str = s.hexString()
-	default:
-		str = string(s.token(true, notSpace)) // %s and %v just return the next word
-	}
-	// Empty strings other than with %q are not OK.
-	if len(str) == 0 && verb != 'q' && s.maxWid > 0 {
-		s.errorString("Scan: no data for string")
-	}
-	return
-}
-
-// quotedString returns the double- or back-quoted string represented by the next input characters.
-func (s *ss) quotedString() string {
-	quote := s.mustReadRune()
-	switch quote {
-	case '`':
-		// Back-quoted: Anything goes until EOF or back quote.
-		for {
-			rune := s.mustReadRune()
-			if rune == quote {
-				break
-			}
-			s.buf.WriteRune(rune)
-		}
-		return s.buf.String()
-	case '"':
-		// Double-quoted: Include the quotes and let strconv.Unquote do the backslash escapes.
-		s.buf.WriteRune(quote)
-		for {
-			rune := s.mustReadRune()
-			s.buf.WriteRune(rune)
-			if rune == '\\' {
-				// In a legal backslash escape, no matter how long, only the character
-				// immediately after the escape can itself be a backslash or quote.
-				// Thus we only need to protect the first character after the backslash.
-				rune := s.mustReadRune()
-				s.buf.WriteRune(rune)
-			} else if rune == '"' {
-				break
-			}
-		}
-		result, err := strconv.Unquote(s.buf.String())
-		if err != nil {
-			s.error(err)
-		}
-		return result
-	default:
-		s.errorString("expected quoted string")
-	}
-	return ""
-}
-
-// hexDigit returns the value of the hexadecimal digit
-func (s *ss) hexDigit(digit int) int {
-	switch digit {
-	case '0', '1', '2', '3', '4', '5', '6', '7', '8', '9':
-		return digit - '0'
-	case 'a', 'b', 'c', 'd', 'e', 'f':
-		return 10 + digit - 'a'
-	case 'A', 'B', 'C', 'D', 'E', 'F':
-		return 10 + digit - 'A'
-	}
-	s.errorString("Scan: illegal hex digit")
-	return 0
-}
-
-// hexByte returns the next hex-encoded (two-character) byte from the input.
-// There must be either two hexadecimal digits or a space character in the input.
-func (s *ss) hexByte() (b byte, ok bool) {
-	rune1 := s.getRune()
-	if rune1 == eof {
-		return
-	}
-	if unicode.IsSpace(rune1) {
-		s.UnreadRune()
-		return
-	}
-	rune2 := s.mustReadRune()
-	return byte(s.hexDigit(rune1)<<4 | s.hexDigit(rune2)), true
-}
-
-// hexString returns the space-delimited hexpair-encoded string.
-func (s *ss) hexString() string {
-	for {
-		b, ok := s.hexByte()
-		if !ok {
-			break
-		}
-		s.buf.WriteByte(b)
-	}
-	if s.buf.Len() == 0 {
-		s.errorString("Scan: no hex data for %x string")
-		return ""
-	}
-	return s.buf.String()
-}
-
-const floatVerbs = "beEfFgGv"
-
-const hugeWid = 1 << 30
-
-// scanOne scans a single value, deriving the scanner from the type of the argument.
-func (s *ss) scanOne(verb int, field interface{}) {
-	s.buf.Reset()
-	var err os.Error
-	// If the parameter has its own Scan method, use that.
-	if v, ok := field.(Scanner); ok {
-		err = v.Scan(s, verb)
-		if err != nil {
-			if err == os.EOF {
-				err = io.ErrUnexpectedEOF
-			}
-			s.error(err)
-		}
-		return
-	}
-	switch v := field.(type) {
-	case *bool:
-		*v = s.scanBool(verb)
-	case *complex64:
-		*v = complex64(s.scanComplex(verb, 64))
-	case *complex128:
-		*v = s.scanComplex(verb, 128)
-	case *int:
-		*v = int(s.scanInt(verb, intBits))
-	case *int8:
-		*v = int8(s.scanInt(verb, 8))
-	case *int16:
-		*v = int16(s.scanInt(verb, 16))
-	case *int32:
-		*v = int32(s.scanInt(verb, 32))
-	case *int64:
-		*v = s.scanInt(verb, 64)
-	case *uint:
-		*v = uint(s.scanUint(verb, intBits))
-	case *uint8:
-		*v = uint8(s.scanUint(verb, 8))
-	case *uint16:
-		*v = uint16(s.scanUint(verb, 16))
-	case *uint32:
-		*v = uint32(s.scanUint(verb, 32))
-	case *uint64:
-		*v = s.scanUint(verb, 64)
-	case *uintptr:
-		*v = uintptr(s.scanUint(verb, uintptrBits))
-	// Floats are tricky because you want to scan in the precision of the result, not
-	// scan in high precision and convert, in order to preserve the correct error condition.
-	case *float32:
-		if s.okVerb(verb, floatVerbs, "float32") {
-			s.skipSpace(false)
-			*v = float32(s.convertFloat(s.floatToken(), 32))
-		}
-	case *float64:
-		if s.okVerb(verb, floatVerbs, "float64") {
-			s.skipSpace(false)
-			*v = s.convertFloat(s.floatToken(), 64)
-		}
-	case *string:
-		*v = s.convertString(verb)
-	case *[]byte:
-		// We scan to string and convert so we get a copy of the data.
-		// If we scanned to bytes, the slice would point at the buffer.
-		*v = []byte(s.convertString(verb))
-	default:
-		val := reflect.ValueOf(v)
-		ptr := val
-		if ptr.Kind() != reflect.Ptr {
-			s.errorString("Scan: type not a pointer: " + val.Type().String())
-			return
-		}
-		switch v := ptr.Elem(); v.Kind() {
-		case reflect.Bool:
-			v.SetBool(s.scanBool(verb))
-		case reflect.Int, reflect.Int8, reflect.Int16, reflect.Int32, reflect.Int64:
-			v.SetInt(s.scanInt(verb, v.Type().Bits()))
-		case reflect.Uint, reflect.Uint8, reflect.Uint16, reflect.Uint32, reflect.Uint64, reflect.Uintptr:
-			v.SetUint(s.scanUint(verb, v.Type().Bits()))
-		case reflect.String:
-			v.SetString(s.convertString(verb))
-		case reflect.Slice:
-			// For now, can only handle (renamed) []byte.
-			typ := v.Type()
-			if typ.Elem().Kind() != reflect.Uint8 {
-				goto CantHandle
-			}
-			str := s.convertString(verb)
-			v.Set(reflect.MakeSlice(typ, len(str), len(str)))
-			for i := 0; i < len(str); i++ {
-				v.Index(i).SetUint(uint64(str[i]))
-			}
-		case reflect.Float32, reflect.Float64:
-			s.skipSpace(false)
-			v.SetFloat(s.convertFloat(s.floatToken(), v.Type().Bits()))
-		case reflect.Complex64, reflect.Complex128:
-			v.SetComplex(s.scanComplex(verb, v.Type().Bits()))
-		default:
-		CantHandle:
-			s.errorString("Scan: can't handle type: " + val.Type().String())
-		}
-	}
-}
-
-// errorHandler turns local panics into error returns.  EOFs are benign.
-func errorHandler(errp *os.Error) {
-	if e := recover(); e != nil {
-		if se, ok := e.(scanError); ok { // catch local error
-			if se.err != os.EOF {
-				*errp = se.err
-			}
-		} else {
-			panic(e)
-		}
-	}
-}
-
-// doScan does the real work for scanning without a format string.
-func (s *ss) doScan(a []interface{}) (numProcessed int, err os.Error) {
-	defer errorHandler(&err)
-	for _, field := range a {
-		s.scanOne('v', field)
-		numProcessed++
-	}
-	// Check for newline if required.
-	if !s.nlIsSpace {
-		for {
-			rune := s.getRune()
-			if rune == '\n' || rune == eof {
-				break
-			}
-			if !unicode.IsSpace(rune) {
-				s.errorString("Scan: expected newline")
-				break
-			}
-		}
-	}
-	return
-}
-
-// advance determines whether the next characters in the input match
-// those of the format.  It returns the number of bytes (sic) consumed
-// in the format. Newlines included, all runs of space characters in
-// either input or format behave as a single space. This routine also
-// handles the %% case.  If the return value is zero, either format
-// starts with a % (with no following %) or the input is empty.
-// If it is negative, the input did not match the string.
-func (s *ss) advance(format string) (i int) {
-	for i < len(format) {
-		fmtc, w := utf8.DecodeRuneInString(format[i:])
-		if fmtc == '%' {
-			// %% acts like a real percent
-			nextc, _ := utf8.DecodeRuneInString(format[i+w:]) // will not match % if string is empty
-			if nextc != '%' {
-				return
-			}
-			i += w // skip the first %
-		}
-		sawSpace := false
-		for unicode.IsSpace(fmtc) && i < len(format) {
-			sawSpace = true
-			i += w
-			fmtc, w = utf8.DecodeRuneInString(format[i:])
-		}
-		if sawSpace {
-			// There was space in the format, so there should be space (EOF)
-			// in the input.
-			inputc := s.getRune()
-			if inputc == eof {
-				return
-			}
-			if !unicode.IsSpace(inputc) {
-				// Space in format but not in input: error
-				s.errorString("expected space in input to match format")
-			}
-			s.skipSpace(true)
-			continue
-		}
-		inputc := s.mustReadRune()
-		if fmtc != inputc {
-			s.UnreadRune()
-			return -1
-		}
-		i += w
-	}
-	return
-}
-
-// doScanf does the real work when scanning with a format string.
-//  At the moment, it handles only pointers to basic types.
-func (s *ss) doScanf(format string, a []interface{}) (numProcessed int, err os.Error) {
-	defer errorHandler(&err)
-	end := len(format) - 1
-	// We process one item per non-trivial format
-	for i := 0; i <= end; {
-		w := s.advance(format[i:])
-		if w > 0 {
-			i += w
-			continue
-		}
-		// Either we failed to advance, we have a percent character, or we ran out of input.
-		if format[i] != '%' {
-			// Can't advance format.  Why not?
-			if w < 0 {
-				s.errorString("input does not match format")
-			}
-			// Otherwise at EOF; "too many operands" error handled below
-			break
-		}
-		i++ // % is one byte
-
-		// do we have 20 (width)?
-		var widPresent bool
-		s.maxWid, widPresent, i = parsenum(format, i, end)
-		if !widPresent {
-			s.maxWid = hugeWid
-		}
-		s.fieldLimit = s.limit
-		if f := s.count + s.maxWid; f < s.fieldLimit {
-			s.fieldLimit = f
-		}
-
-		c, w := utf8.DecodeRuneInString(format[i:])
-		i += w
-
-		if numProcessed >= len(a) { // out of operands
-			s.errorString("too few operands for format %" + format[i-w:])
-			break
-		}
-		field := a[numProcessed]
-
-		s.scanOne(c, field)
-		numProcessed++
-		s.fieldLimit = s.limit
-	}
-	if numProcessed < len(a) {
-		s.errorString("too many operands")
-	}
-	return
-}
diff --git a/src/cmd/fix/testdata/reflect.script.go.in b/src/cmd/fix/testdata/reflect.script.go.in
deleted file mode 100644
index b341b1f896..0000000000
--- a/src/cmd/fix/testdata/reflect.script.go.in
+++ /dev/null
@@ -1,359 +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.
-
-// This package aids in the testing of code that uses channels.
-package script
-
-import (
-	"fmt"
-	"os"
-	"rand"
-	"reflect"
-	"strings"
-)
-
-// An Event is an element in a partially ordered set that either sends a value
-// to a channel or expects a value from a channel.
-type Event struct {
-	name         string
-	occurred     bool
-	predecessors []*Event
-	action       action
-}
-
-type action interface {
-	// getSend returns nil if the action is not a send action.
-	getSend() sendAction
-	// getRecv returns nil if the action is not a receive action.
-	getRecv() recvAction
-	// getChannel returns the channel that the action operates on.
-	getChannel() interface{}
-}
-
-type recvAction interface {
-	recvMatch(interface{}) bool
-}
-
-type sendAction interface {
-	send()
-}
-
-// isReady returns true if all the predecessors of an Event have occurred.
-func (e Event) isReady() bool {
-	for _, predecessor := range e.predecessors {
-		if !predecessor.occurred {
-			return false
-		}
-	}
-
-	return true
-}
-
-// A Recv action reads a value from a channel and uses reflect.DeepMatch to
-// compare it with an expected value.
-type Recv struct {
-	Channel  interface{}
-	Expected interface{}
-}
-
-func (r Recv) getRecv() recvAction { return r }
-
-func (Recv) getSend() sendAction { return nil }
-
-func (r Recv) getChannel() interface{} { return r.Channel }
-
-func (r Recv) recvMatch(chanEvent interface{}) bool {
-	c, ok := chanEvent.(channelRecv)
-	if !ok || c.channel != r.Channel {
-		return false
-	}
-
-	return reflect.DeepEqual(c.value, r.Expected)
-}
-
-// A RecvMatch action reads a value from a channel and calls a function to
-// determine if the value matches.
-type RecvMatch struct {
-	Channel interface{}
-	Match   func(interface{}) bool
-}
-
-func (r RecvMatch) getRecv() recvAction { return r }
-
-func (RecvMatch) getSend() sendAction { return nil }
-
-func (r RecvMatch) getChannel() interface{} { return r.Channel }
-
-func (r RecvMatch) recvMatch(chanEvent interface{}) bool {
-	c, ok := chanEvent.(channelRecv)
-	if !ok || c.channel != r.Channel {
-		return false
-	}
-
-	return r.Match(c.value)
-}
-
-// A Closed action matches if the given channel is closed. The closing is
-// treated as an event, not a state, thus Closed will only match once for a
-// given channel.
-type Closed struct {
-	Channel interface{}
-}
-
-func (r Closed) getRecv() recvAction { return r }
-
-func (Closed) getSend() sendAction { return nil }
-
-func (r Closed) getChannel() interface{} { return r.Channel }
-
-func (r Closed) recvMatch(chanEvent interface{}) bool {
-	c, ok := chanEvent.(channelClosed)
-	if !ok || c.channel != r.Channel {
-		return false
-	}
-
-	return true
-}
-
-// A Send action sends a value to a channel. The value must match the
-// type of the channel exactly unless the channel if of type chan interface{}.
-type Send struct {
-	Channel interface{}
-	Value   interface{}
-}
-
-func (Send) getRecv() recvAction { return nil }
-
-func (s Send) getSend() sendAction { return s }
-
-func (s Send) getChannel() interface{} { return s.Channel }
-
-type empty struct {
-	x interface{}
-}
-
-func newEmptyInterface(e empty) reflect.Value {
-	return reflect.NewValue(e).(*reflect.StructValue).Field(0)
-}
-
-func (s Send) send() {
-	// With reflect.ChanValue.Send, we must match the types exactly. So, if
-	// s.Channel is a chan interface{} we convert s.Value to an interface{}
-	// first.
-	c := reflect.NewValue(s.Channel).(*reflect.ChanValue)
-	var v reflect.Value
-	if iface, ok := c.Type().(*reflect.ChanType).Elem().(*reflect.InterfaceType); ok && iface.NumMethod() == 0 {
-		v = newEmptyInterface(empty{s.Value})
-	} else {
-		v = reflect.NewValue(s.Value)
-	}
-	c.Send(v)
-}
-
-// A Close action closes the given channel.
-type Close struct {
-	Channel interface{}
-}
-
-func (Close) getRecv() recvAction { return nil }
-
-func (s Close) getSend() sendAction { return s }
-
-func (s Close) getChannel() interface{} { return s.Channel }
-
-func (s Close) send() { reflect.NewValue(s.Channel).(*reflect.ChanValue).Close() }
-
-// A ReceivedUnexpected error results if no active Events match a value
-// received from a channel.
-type ReceivedUnexpected struct {
-	Value interface{}
-	ready []*Event
-}
-
-func (r ReceivedUnexpected) String() string {
-	names := make([]string, len(r.ready))
-	for i, v := range r.ready {
-		names[i] = v.name
-	}
-	return fmt.Sprintf("received unexpected value on one of the channels: %#v. Runnable events: %s", r.Value, strings.Join(names, ", "))
-}
-
-// A SetupError results if there is a error with the configuration of a set of
-// Events.
-type SetupError string
-
-func (s SetupError) String() string { return string(s) }
-
-func NewEvent(name string, predecessors []*Event, action action) *Event {
-	e := &Event{name, false, predecessors, action}
-	return e
-}
-
-// Given a set of Events, Perform repeatedly iterates over the set and finds the
-// subset of ready Events (that is, all of their predecessors have
-// occurred). From that subset, it pseudo-randomly selects an Event to perform.
-// If the Event is a send event, the send occurs and Perform recalculates the ready
-// set. If the event is a receive event, Perform waits for a value from any of the
-// channels that are contained in any of the events. That value is then matched
-// against the ready events. The first event that matches is considered to
-// have occurred and Perform recalculates the ready set.
-//
-// Perform continues this until all Events have occurred.
-//
-// Note that uncollected goroutines may still be reading from any of the
-// channels read from after Perform returns.
-//
-// For example, consider the problem of testing a function that reads values on
-// one channel and echos them to two output channels. To test this we would
-// create three events: a send event and two receive events. Each of the
-// receive events must list the send event as a predecessor but there is no
-// ordering between the receive events.
-//
-//  send := NewEvent("send", nil, Send{c, 1})
-//  recv1 := NewEvent("recv 1", []*Event{send}, Recv{c, 1})
-//  recv2 := NewEvent("recv 2", []*Event{send}, Recv{c, 1})
-//  Perform(0, []*Event{send, recv1, recv2})
-//
-// At first, only the send event would be in the ready set and thus Perform will
-// send a value to the input channel. Now the two receive events are ready and
-// Perform will match each of them against the values read from the output channels.
-//
-// It would be invalid to list one of the receive events as a predecessor of
-// the other. At each receive step, all the receive channels are considered,
-// thus Perform may see a value from a channel that is not in the current ready
-// set and fail.
-func Perform(seed int64, events []*Event) (err os.Error) {
-	r := rand.New(rand.NewSource(seed))
-
-	channels, err := getChannels(events)
-	if err != nil {
-		return
-	}
-	multiplex := make(chan interface{})
-	for _, channel := range channels {
-		go recvValues(multiplex, channel)
-	}
-
-Outer:
-	for {
-		ready, err := readyEvents(events)
-		if err != nil {
-			return err
-		}
-
-		if len(ready) == 0 {
-			// All events occurred.
-			break
-		}
-
-		event := ready[r.Intn(len(ready))]
-		if send := event.action.getSend(); send != nil {
-			send.send()
-			event.occurred = true
-			continue
-		}
-
-		v := <-multiplex
-		for _, event := range ready {
-			if recv := event.action.getRecv(); recv != nil && recv.recvMatch(v) {
-				event.occurred = true
-				continue Outer
-			}
-		}
-
-		return ReceivedUnexpected{v, ready}
-	}
-
-	return nil
-}
-
-// getChannels returns all the channels listed in any receive events.
-func getChannels(events []*Event) ([]interface{}, os.Error) {
-	channels := make([]interface{}, len(events))
-
-	j := 0
-	for _, event := range events {
-		if recv := event.action.getRecv(); recv == nil {
-			continue
-		}
-		c := event.action.getChannel()
-		if _, ok := reflect.NewValue(c).(*reflect.ChanValue); !ok {
-			return nil, SetupError("one of the channel values is not a channel")
-		}
-
-		duplicate := false
-		for _, other := range channels[0:j] {
-			if c == other {
-				duplicate = true
-				break
-			}
-		}
-
-		if !duplicate {
-			channels[j] = c
-			j++
-		}
-	}
-
-	return channels[0:j], nil
-}
-
-// recvValues is a multiplexing helper function. It reads values from the given
-// channel repeatedly, wrapping them up as either a channelRecv or
-// channelClosed structure, and forwards them to the multiplex channel.
-func recvValues(multiplex chan<- interface{}, channel interface{}) {
-	c := reflect.NewValue(channel).(*reflect.ChanValue)
-
-	for {
-		v, ok := c.Recv()
-		if !ok {
-			multiplex <- channelClosed{channel}
-			return
-		}
-
-		multiplex <- channelRecv{channel, v.Interface()}
-	}
-}
-
-type channelClosed struct {
-	channel interface{}
-}
-
-type channelRecv struct {
-	channel interface{}
-	value   interface{}
-}
-
-// readyEvents returns the subset of events that are ready.
-func readyEvents(events []*Event) ([]*Event, os.Error) {
-	ready := make([]*Event, len(events))
-
-	j := 0
-	eventsWaiting := false
-	for _, event := range events {
-		if event.occurred {
-			continue
-		}
-
-		eventsWaiting = true
-		if event.isReady() {
-			ready[j] = event
-			j++
-		}
-	}
-
-	if j == 0 && eventsWaiting {
-		names := make([]string, len(events))
-		for _, event := range events {
-			if event.occurred {
-				continue
-			}
-			names[j] = event.name
-		}
-
-		return nil, SetupError("dependency cycle in events. These events are waiting to run but cannot: " + strings.Join(names, ", "))
-	}
-
-	return ready[0:j], nil
-}
diff --git a/src/cmd/fix/testdata/reflect.script.go.out b/src/cmd/fix/testdata/reflect.script.go.out
deleted file mode 100644
index bc5a6a41d9..0000000000
--- a/src/cmd/fix/testdata/reflect.script.go.out
+++ /dev/null
@@ -1,359 +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.
-
-// This package aids in the testing of code that uses channels.
-package script
-
-import (
-	"fmt"
-	"os"
-	"rand"
-	"reflect"
-	"strings"
-)
-
-// An Event is an element in a partially ordered set that either sends a value
-// to a channel or expects a value from a channel.
-type Event struct {
-	name         string
-	occurred     bool
-	predecessors []*Event
-	action       action
-}
-
-type action interface {
-	// getSend returns nil if the action is not a send action.
-	getSend() sendAction
-	// getRecv returns nil if the action is not a receive action.
-	getRecv() recvAction
-	// getChannel returns the channel that the action operates on.
-	getChannel() interface{}
-}
-
-type recvAction interface {
-	recvMatch(interface{}) bool
-}
-
-type sendAction interface {
-	send()
-}
-
-// isReady returns true if all the predecessors of an Event have occurred.
-func (e Event) isReady() bool {
-	for _, predecessor := range e.predecessors {
-		if !predecessor.occurred {
-			return false
-		}
-	}
-
-	return true
-}
-
-// A Recv action reads a value from a channel and uses reflect.DeepMatch to
-// compare it with an expected value.
-type Recv struct {
-	Channel  interface{}
-	Expected interface{}
-}
-
-func (r Recv) getRecv() recvAction { return r }
-
-func (Recv) getSend() sendAction { return nil }
-
-func (r Recv) getChannel() interface{} { return r.Channel }
-
-func (r Recv) recvMatch(chanEvent interface{}) bool {
-	c, ok := chanEvent.(channelRecv)
-	if !ok || c.channel != r.Channel {
-		return false
-	}
-
-	return reflect.DeepEqual(c.value, r.Expected)
-}
-
-// A RecvMatch action reads a value from a channel and calls a function to
-// determine if the value matches.
-type RecvMatch struct {
-	Channel interface{}
-	Match   func(interface{}) bool
-}
-
-func (r RecvMatch) getRecv() recvAction { return r }
-
-func (RecvMatch) getSend() sendAction { return nil }
-
-func (r RecvMatch) getChannel() interface{} { return r.Channel }
-
-func (r RecvMatch) recvMatch(chanEvent interface{}) bool {
-	c, ok := chanEvent.(channelRecv)
-	if !ok || c.channel != r.Channel {
-		return false
-	}
-
-	return r.Match(c.value)
-}
-
-// A Closed action matches if the given channel is closed. The closing is
-// treated as an event, not a state, thus Closed will only match once for a
-// given channel.
-type Closed struct {
-	Channel interface{}
-}
-
-func (r Closed) getRecv() recvAction { return r }
-
-func (Closed) getSend() sendAction { return nil }
-
-func (r Closed) getChannel() interface{} { return r.Channel }
-
-func (r Closed) recvMatch(chanEvent interface{}) bool {
-	c, ok := chanEvent.(channelClosed)
-	if !ok || c.channel != r.Channel {
-		return false
-	}
-
-	return true
-}
-
-// A Send action sends a value to a channel. The value must match the
-// type of the channel exactly unless the channel if of type chan interface{}.
-type Send struct {
-	Channel interface{}
-	Value   interface{}
-}
-
-func (Send) getRecv() recvAction { return nil }
-
-func (s Send) getSend() sendAction { return s }
-
-func (s Send) getChannel() interface{} { return s.Channel }
-
-type empty struct {
-	x interface{}
-}
-
-func newEmptyInterface(e empty) reflect.Value {
-	return reflect.ValueOf(e).Field(0)
-}
-
-func (s Send) send() {
-	// With reflect.ChanValue.Send, we must match the types exactly. So, if
-	// s.Channel is a chan interface{} we convert s.Value to an interface{}
-	// first.
-	c := reflect.ValueOf(s.Channel)
-	var v reflect.Value
-	if iface := c.Type().Elem(); iface.Kind() == reflect.Interface && iface.NumMethod() == 0 {
-		v = newEmptyInterface(empty{s.Value})
-	} else {
-		v = reflect.ValueOf(s.Value)
-	}
-	c.Send(v)
-}
-
-// A Close action closes the given channel.
-type Close struct {
-	Channel interface{}
-}
-
-func (Close) getRecv() recvAction { return nil }
-
-func (s Close) getSend() sendAction { return s }
-
-func (s Close) getChannel() interface{} { return s.Channel }
-
-func (s Close) send() { reflect.ValueOf(s.Channel).Close() }
-
-// A ReceivedUnexpected error results if no active Events match a value
-// received from a channel.
-type ReceivedUnexpected struct {
-	Value interface{}
-	ready []*Event
-}
-
-func (r ReceivedUnexpected) String() string {
-	names := make([]string, len(r.ready))
-	for i, v := range r.ready {
-		names[i] = v.name
-	}
-	return fmt.Sprintf("received unexpected value on one of the channels: %#v. Runnable events: %s", r.Value, strings.Join(names, ", "))
-}
-
-// A SetupError results if there is a error with the configuration of a set of
-// Events.
-type SetupError string
-
-func (s SetupError) String() string { return string(s) }
-
-func NewEvent(name string, predecessors []*Event, action action) *Event {
-	e := &Event{name, false, predecessors, action}
-	return e
-}
-
-// Given a set of Events, Perform repeatedly iterates over the set and finds the
-// subset of ready Events (that is, all of their predecessors have
-// occurred). From that subset, it pseudo-randomly selects an Event to perform.
-// If the Event is a send event, the send occurs and Perform recalculates the ready
-// set. If the event is a receive event, Perform waits for a value from any of the
-// channels that are contained in any of the events. That value is then matched
-// against the ready events. The first event that matches is considered to
-// have occurred and Perform recalculates the ready set.
-//
-// Perform continues this until all Events have occurred.
-//
-// Note that uncollected goroutines may still be reading from any of the
-// channels read from after Perform returns.
-//
-// For example, consider the problem of testing a function that reads values on
-// one channel and echos them to two output channels. To test this we would
-// create three events: a send event and two receive events. Each of the
-// receive events must list the send event as a predecessor but there is no
-// ordering between the receive events.
-//
-//  send := NewEvent("send", nil, Send{c, 1})
-//  recv1 := NewEvent("recv 1", []*Event{send}, Recv{c, 1})
-//  recv2 := NewEvent("recv 2", []*Event{send}, Recv{c, 1})
-//  Perform(0, []*Event{send, recv1, recv2})
-//
-// At first, only the send event would be in the ready set and thus Perform will
-// send a value to the input channel. Now the two receive events are ready and
-// Perform will match each of them against the values read from the output channels.
-//
-// It would be invalid to list one of the receive events as a predecessor of
-// the other. At each receive step, all the receive channels are considered,
-// thus Perform may see a value from a channel that is not in the current ready
-// set and fail.
-func Perform(seed int64, events []*Event) (err os.Error) {
-	r := rand.New(rand.NewSource(seed))
-
-	channels, err := getChannels(events)
-	if err != nil {
-		return
-	}
-	multiplex := make(chan interface{})
-	for _, channel := range channels {
-		go recvValues(multiplex, channel)
-	}
-
-Outer:
-	for {
-		ready, err := readyEvents(events)
-		if err != nil {
-			return err
-		}
-
-		if len(ready) == 0 {
-			// All events occurred.
-			break
-		}
-
-		event := ready[r.Intn(len(ready))]
-		if send := event.action.getSend(); send != nil {
-			send.send()
-			event.occurred = true
-			continue
-		}
-
-		v := <-multiplex
-		for _, event := range ready {
-			if recv := event.action.getRecv(); recv != nil && recv.recvMatch(v) {
-				event.occurred = true
-				continue Outer
-			}
-		}
-
-		return ReceivedUnexpected{v, ready}
-	}
-
-	return nil
-}
-
-// getChannels returns all the channels listed in any receive events.
-func getChannels(events []*Event) ([]interface{}, os.Error) {
-	channels := make([]interface{}, len(events))
-
-	j := 0
-	for _, event := range events {
-		if recv := event.action.getRecv(); recv == nil {
-			continue
-		}
-		c := event.action.getChannel()
-		if reflect.ValueOf(c).Kind() != reflect.Chan {
-			return nil, SetupError("one of the channel values is not a channel")
-		}
-
-		duplicate := false
-		for _, other := range channels[0:j] {
-			if c == other {
-				duplicate = true
-				break
-			}
-		}
-
-		if !duplicate {
-			channels[j] = c
-			j++
-		}
-	}
-
-	return channels[0:j], nil
-}
-
-// recvValues is a multiplexing helper function. It reads values from the given
-// channel repeatedly, wrapping them up as either a channelRecv or
-// channelClosed structure, and forwards them to the multiplex channel.
-func recvValues(multiplex chan<- interface{}, channel interface{}) {
-	c := reflect.ValueOf(channel)
-
-	for {
-		v, ok := c.Recv()
-		if !ok {
-			multiplex <- channelClosed{channel}
-			return
-		}
-
-		multiplex <- channelRecv{channel, v.Interface()}
-	}
-}
-
-type channelClosed struct {
-	channel interface{}
-}
-
-type channelRecv struct {
-	channel interface{}
-	value   interface{}
-}
-
-// readyEvents returns the subset of events that are ready.
-func readyEvents(events []*Event) ([]*Event, os.Error) {
-	ready := make([]*Event, len(events))
-
-	j := 0
-	eventsWaiting := false
-	for _, event := range events {
-		if event.occurred {
-			continue
-		}
-
-		eventsWaiting = true
-		if event.isReady() {
-			ready[j] = event
-			j++
-		}
-	}
-
-	if j == 0 && eventsWaiting {
-		names := make([]string, len(events))
-		for _, event := range events {
-			if event.occurred {
-				continue
-			}
-			names[j] = event.name
-		}
-
-		return nil, SetupError("dependency cycle in events. These events are waiting to run but cannot: " + strings.Join(names, ", "))
-	}
-
-	return ready[0:j], nil
-}
diff --git a/src/cmd/fix/testdata/reflect.template.go.in b/src/cmd/fix/testdata/reflect.template.go.in
deleted file mode 100644
index 1f5a8128fd..0000000000
--- a/src/cmd/fix/testdata/reflect.template.go.in
+++ /dev/null
@@ -1,1043 +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.
-
-/*
-	Data-driven templates for generating textual output such as
-	HTML.
-
-	Templates are executed by applying them to a data structure.
-	Annotations in the template refer to elements of the data
-	structure (typically a field of a struct or a key in a map)
-	to control execution and derive values to be displayed.
-	The template walks the structure as it executes and the
-	"cursor" @ represents the value at the current location
-	in the structure.
-
-	Data items may be values or pointers; the interface hides the
-	indirection.
-
-	In the following, 'field' is one of several things, according to the data.
-
-		- The name of a field of a struct (result = data.field),
-		- The value stored in a map under that key (result = data[field]), or
-		- The result of invoking a niladic single-valued method with that name
-		  (result = data.field())
-
-	Major constructs ({} are the default delimiters for template actions;
-	[] are the notation in this comment for optional elements):
-
-		{# comment }
-
-	A one-line comment.
-
-		{.section field} XXX [ {.or} YYY ] {.end}
-
-	Set @ to the value of the field.  It may be an explicit @
-	to stay at the same point in the data. If the field is nil
-	or empty, execute YYY; otherwise execute XXX.
-
-		{.repeated section field} XXX [ {.alternates with} ZZZ ] [ {.or} YYY ] {.end}
-
-	Like .section, but field must be an array or slice.  XXX
-	is executed for each element.  If the array is nil or empty,
-	YYY is executed instead.  If the {.alternates with} marker
-	is present, ZZZ is executed between iterations of XXX.
-
-		{field}
-		{field1 field2 ...}
-		{field|formatter}
-		{field1 field2...|formatter}
-		{field|formatter1|formatter2}
-
-	Insert the value of the fields into the output. Each field is
-	first looked for in the cursor, as in .section and .repeated.
-	If it is not found, the search continues in outer sections
-	until the top level is reached.
-
-	If the field value is a pointer, leading asterisks indicate
-	that the value to be inserted should be evaluated through the
-	pointer.  For example, if x.p is of type *int, {x.p} will
-	insert the value of the pointer but {*x.p} will insert the
-	value of the underlying integer.  If the value is nil or not a
-	pointer, asterisks have no effect.
-
-	If a formatter is specified, it must be named in the formatter
-	map passed to the template set up routines or in the default
-	set ("html","str","") and is used to process the data for
-	output.  The formatter function has signature
-		func(wr io.Writer, formatter string, data ...interface{})
-	where wr is the destination for output, data holds the field
-	values at the instantiation, and formatter is its name at
-	the invocation site.  The default formatter just concatenates
-	the string representations of the fields.
-
-	Multiple formatters separated by the pipeline character | are
-	executed sequentially, with each formatter receiving the bytes
-	emitted by the one to its left.
-
-	The delimiter strings get their default value, "{" and "}", from
-	JSON-template.  They may be set to any non-empty, space-free
-	string using the SetDelims method.  Their value can be printed
-	in the output using {.meta-left} and {.meta-right}.
-*/
-package template
-
-import (
-	"bytes"
-	"container/vector"
-	"fmt"
-	"io"
-	"io/ioutil"
-	"os"
-	"reflect"
-	"strings"
-	"unicode"
-	"utf8"
-)
-
-// Errors returned during parsing and execution.  Users may extract the information and reformat
-// if they desire.
-type Error struct {
-	Line int
-	Msg  string
-}
-
-func (e *Error) String() string { return fmt.Sprintf("line %d: %s", e.Line, e.Msg) }
-
-// Most of the literals are aces.
-var lbrace = []byte{'{'}
-var rbrace = []byte{'}'}
-var space = []byte{' '}
-var tab = []byte{'\t'}
-
-// The various types of "tokens", which are plain text or (usually) brace-delimited descriptors
-const (
-	tokAlternates = iota
-	tokComment
-	tokEnd
-	tokLiteral
-	tokOr
-	tokRepeated
-	tokSection
-	tokText
-	tokVariable
-)
-
-// FormatterMap is the type describing the mapping from formatter
-// names to the functions that implement them.
-type FormatterMap map[string]func(io.Writer, string, ...interface{})
-
-// Built-in formatters.
-var builtins = FormatterMap{
-	"html": HTMLFormatter,
-	"str":  StringFormatter,
-	"":     StringFormatter,
-}
-
-// The parsed state of a template is a vector of xxxElement structs.
-// Sections have line numbers so errors can be reported better during execution.
-
-// Plain text.
-type textElement struct {
-	text []byte
-}
-
-// A literal such as .meta-left or .meta-right
-type literalElement struct {
-	text []byte
-}
-
-// A variable invocation to be evaluated
-type variableElement struct {
-	linenum int
-	word    []string // The fields in the invocation.
-	fmts    []string // Names of formatters to apply. len(fmts) > 0
-}
-
-// A .section block, possibly with a .or
-type sectionElement struct {
-	linenum int    // of .section itself
-	field   string // cursor field for this block
-	start   int    // first element
-	or      int    // first element of .or block
-	end     int    // one beyond last element
-}
-
-// A .repeated block, possibly with a .or and a .alternates
-type repeatedElement struct {
-	sectionElement     // It has the same structure...
-	altstart       int // ... except for alternates
-	altend         int
-}
-
-// Template is the type that represents a template definition.
-// It is unchanged after parsing.
-type Template struct {
-	fmap FormatterMap // formatters for variables
-	// Used during parsing:
-	ldelim, rdelim []byte // delimiters; default {}
-	buf            []byte // input text to process
-	p              int    // position in buf
-	linenum        int    // position in input
-	// Parsed results:
-	elems *vector.Vector
-}
-
-// Internal state for executing a Template.  As we evaluate the struct,
-// the data item descends into the fields associated with sections, etc.
-// Parent is used to walk upwards to find variables higher in the tree.
-type state struct {
-	parent *state          // parent in hierarchy
-	data   reflect.Value   // the driver data for this section etc.
-	wr     io.Writer       // where to send output
-	buf    [2]bytes.Buffer // alternating buffers used when chaining formatters
-}
-
-func (parent *state) clone(data reflect.Value) *state {
-	return &state{parent: parent, data: data, wr: parent.wr}
-}
-
-// New creates a new template with the specified formatter map (which
-// may be nil) to define auxiliary functions for formatting variables.
-func New(fmap FormatterMap) *Template {
-	t := new(Template)
-	t.fmap = fmap
-	t.ldelim = lbrace
-	t.rdelim = rbrace
-	t.elems = new(vector.Vector)
-	return t
-}
-
-// Report error and stop executing.  The line number must be provided explicitly.
-func (t *Template) execError(st *state, line int, err string, args ...interface{}) {
-	panic(&Error{line, fmt.Sprintf(err, args...)})
-}
-
-// Report error, panic to terminate parsing.
-// The line number comes from the template state.
-func (t *Template) parseError(err string, args ...interface{}) {
-	panic(&Error{t.linenum, fmt.Sprintf(err, args...)})
-}
-
-// Is this an exported - upper case - name?
-func isExported(name string) bool {
-	rune, _ := utf8.DecodeRuneInString(name)
-	return unicode.IsUpper(rune)
-}
-
-// -- Lexical analysis
-
-// Is c a white space character?
-func white(c uint8) bool { return c == ' ' || c == '\t' || c == '\r' || c == '\n' }
-
-// Safely, does s[n:n+len(t)] == t?
-func equal(s []byte, n int, t []byte) bool {
-	b := s[n:]
-	if len(t) > len(b) { // not enough space left for a match.
-		return false
-	}
-	for i, c := range t {
-		if c != b[i] {
-			return false
-		}
-	}
-	return true
-}
-
-// nextItem returns the next item from the input buffer.  If the returned
-// item is empty, we are at EOF.  The item will be either a
-// delimited string or a non-empty string between delimited
-// strings. Tokens stop at (but include, if plain text) a newline.
-// Action tokens on a line by themselves drop any space on
-// either side, up to and including the newline.
-func (t *Template) nextItem() []byte {
-	startOfLine := t.p == 0 || t.buf[t.p-1] == '\n'
-	start := t.p
-	var i int
-	newline := func() {
-		t.linenum++
-		i++
-	}
-	// Leading white space up to but not including newline
-	for i = start; i < len(t.buf); i++ {
-		if t.buf[i] == '\n' || !white(t.buf[i]) {
-			break
-		}
-	}
-	leadingSpace := i > start
-	// What's left is nothing, newline, delimited string, or plain text
-	switch {
-	case i == len(t.buf):
-		// EOF; nothing to do
-	case t.buf[i] == '\n':
-		newline()
-	case equal(t.buf, i, t.ldelim):
-		left := i         // Start of left delimiter.
-		right := -1       // Will be (immediately after) right delimiter.
-		haveText := false // Delimiters contain text.
-		i += len(t.ldelim)
-		// Find the end of the action.
-		for ; i < len(t.buf); i++ {
-			if t.buf[i] == '\n' {
-				break
-			}
-			if equal(t.buf, i, t.rdelim) {
-				i += len(t.rdelim)
-				right = i
-				break
-			}
-			haveText = true
-		}
-		if right < 0 {
-			t.parseError("unmatched opening delimiter")
-			return nil
-		}
-		// Is this a special action (starts with '.' or '#') and the only thing on the line?
-		if startOfLine && haveText {
-			firstChar := t.buf[left+len(t.ldelim)]
-			if firstChar == '.' || firstChar == '#' {
-				// It's special and the first thing on the line. Is it the last?
-				for j := right; j < len(t.buf) && white(t.buf[j]); j++ {
-					if t.buf[j] == '\n' {
-						// Yes it is. Drop the surrounding space and return the {.foo}
-						t.linenum++
-						t.p = j + 1
-						return t.buf[left:right]
-					}
-				}
-			}
-		}
-		// No it's not. If there's leading space, return that.
-		if leadingSpace {
-			// not trimming space: return leading white space if there is some.
-			t.p = left
-			return t.buf[start:left]
-		}
-		// Return the word, leave the trailing space.
-		start = left
-		break
-	default:
-		for ; i < len(t.buf); i++ {
-			if t.buf[i] == '\n' {
-				newline()
-				break
-			}
-			if equal(t.buf, i, t.ldelim) {
-				break
-			}
-		}
-	}
-	item := t.buf[start:i]
-	t.p = i
-	return item
-}
-
-// Turn a byte array into a white-space-split array of strings.
-func words(buf []byte) []string {
-	s := make([]string, 0, 5)
-	p := 0 // position in buf
-	// one word per loop
-	for i := 0; ; i++ {
-		// skip white space
-		for ; p < len(buf) && white(buf[p]); p++ {
-		}
-		// grab word
-		start := p
-		for ; p < len(buf) && !white(buf[p]); p++ {
-		}
-		if start == p { // no text left
-			break
-		}
-		s = append(s, string(buf[start:p]))
-	}
-	return s
-}
-
-// Analyze an item and return its token type and, if it's an action item, an array of
-// its constituent words.
-func (t *Template) analyze(item []byte) (tok int, w []string) {
-	// item is known to be non-empty
-	if !equal(item, 0, t.ldelim) { // doesn't start with left delimiter
-		tok = tokText
-		return
-	}
-	if !equal(item, len(item)-len(t.rdelim), t.rdelim) { // doesn't end with right delimiter
-		t.parseError("internal error: unmatched opening delimiter") // lexing should prevent this
-		return
-	}
-	if len(item) <= len(t.ldelim)+len(t.rdelim) { // no contents
-		t.parseError("empty directive")
-		return
-	}
-	// Comment
-	if item[len(t.ldelim)] == '#' {
-		tok = tokComment
-		return
-	}
-	// Split into words
-	w = words(item[len(t.ldelim) : len(item)-len(t.rdelim)]) // drop final delimiter
-	if len(w) == 0 {
-		t.parseError("empty directive")
-		return
-	}
-	if len(w) > 0 && w[0][0] != '.' {
-		tok = tokVariable
-		return
-	}
-	switch w[0] {
-	case ".meta-left", ".meta-right", ".space", ".tab":
-		tok = tokLiteral
-		return
-	case ".or":
-		tok = tokOr
-		return
-	case ".end":
-		tok = tokEnd
-		return
-	case ".section":
-		if len(w) != 2 {
-			t.parseError("incorrect fields for .section: %s", item)
-			return
-		}
-		tok = tokSection
-		return
-	case ".repeated":
-		if len(w) != 3 || w[1] != "section" {
-			t.parseError("incorrect fields for .repeated: %s", item)
-			return
-		}
-		tok = tokRepeated
-		return
-	case ".alternates":
-		if len(w) != 2 || w[1] != "with" {
-			t.parseError("incorrect fields for .alternates: %s", item)
-			return
-		}
-		tok = tokAlternates
-		return
-	}
-	t.parseError("bad directive: %s", item)
-	return
-}
-
-// formatter returns the Formatter with the given name in the Template, or nil if none exists.
-func (t *Template) formatter(name string) func(io.Writer, string, ...interface{}) {
-	if t.fmap != nil {
-		if fn := t.fmap[name]; fn != nil {
-			return fn
-		}
-	}
-	return builtins[name]
-}
-
-// -- Parsing
-
-// Allocate a new variable-evaluation element.
-func (t *Template) newVariable(words []string) *variableElement {
-	// After the final space-separated argument, formatters may be specified separated
-	// by pipe symbols, for example: {a b c|d|e}
-
-	// Until we learn otherwise, formatters contains a single name: "", the default formatter.
-	formatters := []string{""}
-	lastWord := words[len(words)-1]
-	bar := strings.IndexRune(lastWord, '|')
-	if bar >= 0 {
-		words[len(words)-1] = lastWord[0:bar]
-		formatters = strings.Split(lastWord[bar+1:], "|")
-	}
-
-	// We could remember the function address here and avoid the lookup later,
-	// but it's more dynamic to let the user change the map contents underfoot.
-	// We do require the name to be present, though.
-
-	// Is it in user-supplied map?
-	for _, f := range formatters {
-		if t.formatter(f) == nil {
-			t.parseError("unknown formatter: %q", f)
-		}
-	}
-	return &variableElement{t.linenum, words, formatters}
-}
-
-// Grab the next item.  If it's simple, just append it to the template.
-// Otherwise return its details.
-func (t *Template) parseSimple(item []byte) (done bool, tok int, w []string) {
-	tok, w = t.analyze(item)
-	done = true // assume for simplicity
-	switch tok {
-	case tokComment:
-		return
-	case tokText:
-		t.elems.Push(&textElement{item})
-		return
-	case tokLiteral:
-		switch w[0] {
-		case ".meta-left":
-			t.elems.Push(&literalElement{t.ldelim})
-		case ".meta-right":
-			t.elems.Push(&literalElement{t.rdelim})
-		case ".space":
-			t.elems.Push(&literalElement{space})
-		case ".tab":
-			t.elems.Push(&literalElement{tab})
-		default:
-			t.parseError("internal error: unknown literal: %s", w[0])
-		}
-		return
-	case tokVariable:
-		t.elems.Push(t.newVariable(w))
-		return
-	}
-	return false, tok, w
-}
-
-// parseRepeated and parseSection are mutually recursive
-
-func (t *Template) parseRepeated(words []string) *repeatedElement {
-	r := new(repeatedElement)
-	t.elems.Push(r)
-	r.linenum = t.linenum
-	r.field = words[2]
-	// Scan section, collecting true and false (.or) blocks.
-	r.start = t.elems.Len()
-	r.or = -1
-	r.altstart = -1
-	r.altend = -1
-Loop:
-	for {
-		item := t.nextItem()
-		if len(item) == 0 {
-			t.parseError("missing .end for .repeated section")
-			break
-		}
-		done, tok, w := t.parseSimple(item)
-		if done {
-			continue
-		}
-		switch tok {
-		case tokEnd:
-			break Loop
-		case tokOr:
-			if r.or >= 0 {
-				t.parseError("extra .or in .repeated section")
-				break Loop
-			}
-			r.altend = t.elems.Len()
-			r.or = t.elems.Len()
-		case tokSection:
-			t.parseSection(w)
-		case tokRepeated:
-			t.parseRepeated(w)
-		case tokAlternates:
-			if r.altstart >= 0 {
-				t.parseError("extra .alternates in .repeated section")
-				break Loop
-			}
-			if r.or >= 0 {
-				t.parseError(".alternates inside .or block in .repeated section")
-				break Loop
-			}
-			r.altstart = t.elems.Len()
-		default:
-			t.parseError("internal error: unknown repeated section item: %s", item)
-			break Loop
-		}
-	}
-	if r.altend < 0 {
-		r.altend = t.elems.Len()
-	}
-	r.end = t.elems.Len()
-	return r
-}
-
-func (t *Template) parseSection(words []string) *sectionElement {
-	s := new(sectionElement)
-	t.elems.Push(s)
-	s.linenum = t.linenum
-	s.field = words[1]
-	// Scan section, collecting true and false (.or) blocks.
-	s.start = t.elems.Len()
-	s.or = -1
-Loop:
-	for {
-		item := t.nextItem()
-		if len(item) == 0 {
-			t.parseError("missing .end for .section")
-			break
-		}
-		done, tok, w := t.parseSimple(item)
-		if done {
-			continue
-		}
-		switch tok {
-		case tokEnd:
-			break Loop
-		case tokOr:
-			if s.or >= 0 {
-				t.parseError("extra .or in .section")
-				break Loop
-			}
-			s.or = t.elems.Len()
-		case tokSection:
-			t.parseSection(w)
-		case tokRepeated:
-			t.parseRepeated(w)
-		case tokAlternates:
-			t.parseError(".alternates not in .repeated")
-		default:
-			t.parseError("internal error: unknown section item: %s", item)
-		}
-	}
-	s.end = t.elems.Len()
-	return s
-}
-
-func (t *Template) parse() {
-	for {
-		item := t.nextItem()
-		if len(item) == 0 {
-			break
-		}
-		done, tok, w := t.parseSimple(item)
-		if done {
-			continue
-		}
-		switch tok {
-		case tokOr, tokEnd, tokAlternates:
-			t.parseError("unexpected %s", w[0])
-		case tokSection:
-			t.parseSection(w)
-		case tokRepeated:
-			t.parseRepeated(w)
-		default:
-			t.parseError("internal error: bad directive in parse: %s", item)
-		}
-	}
-}
-
-// -- Execution
-
-// Evaluate interfaces and pointers looking for a value that can look up the name, via a
-// struct field, method, or map key, and return the result of the lookup.
-func (t *Template) lookup(st *state, v reflect.Value, name string) reflect.Value {
-	for v != nil {
-		typ := v.Type()
-		if n := v.Type().NumMethod(); n > 0 {
-			for i := 0; i < n; i++ {
-				m := typ.Method(i)
-				mtyp := m.Type
-				if m.Name == name && mtyp.NumIn() == 1 && mtyp.NumOut() == 1 {
-					if !isExported(name) {
-						t.execError(st, t.linenum, "name not exported: %s in type %s", name, st.data.Type())
-					}
-					return v.Method(i).Call(nil)[0]
-				}
-			}
-		}
-		switch av := v.(type) {
-		case *reflect.PtrValue:
-			v = av.Elem()
-		case *reflect.InterfaceValue:
-			v = av.Elem()
-		case *reflect.StructValue:
-			if !isExported(name) {
-				t.execError(st, t.linenum, "name not exported: %s in type %s", name, st.data.Type())
-			}
-			return av.FieldByName(name)
-		case *reflect.MapValue:
-			if v := av.Elem(reflect.NewValue(name)); v != nil {
-				return v
-			}
-			return reflect.MakeZero(typ.(*reflect.MapType).Elem())
-		default:
-			return nil
-		}
-	}
-	return v
-}
-
-// indirectPtr returns the item numLevels levels of indirection below the value.
-// It is forgiving: if the value is not a pointer, it returns it rather than giving
-// an error.  If the pointer is nil, it is returned as is.
-func indirectPtr(v reflect.Value, numLevels int) reflect.Value {
-	for i := numLevels; v != nil && i > 0; i++ {
-		if p, ok := v.(*reflect.PtrValue); ok {
-			if p.IsNil() {
-				return v
-			}
-			v = p.Elem()
-		} else {
-			break
-		}
-	}
-	return v
-}
-
-// Walk v through pointers and interfaces, extracting the elements within.
-func indirect(v reflect.Value) reflect.Value {
-loop:
-	for v != nil {
-		switch av := v.(type) {
-		case *reflect.PtrValue:
-			v = av.Elem()
-		case *reflect.InterfaceValue:
-			v = av.Elem()
-		default:
-			break loop
-		}
-	}
-	return v
-}
-
-// If the data for this template is a struct, find the named variable.
-// Names of the form a.b.c are walked down the data tree.
-// The special name "@" (the "cursor") denotes the current data.
-// The value coming in (st.data) might need indirecting to reach
-// a struct while the return value is not indirected - that is,
-// it represents the actual named field. Leading stars indicate
-// levels of indirection to be applied to the value.
-func (t *Template) findVar(st *state, s string) reflect.Value {
-	data := st.data
-	flattenedName := strings.TrimLeft(s, "*")
-	numStars := len(s) - len(flattenedName)
-	s = flattenedName
-	if s == "@" {
-		return indirectPtr(data, numStars)
-	}
-	for _, elem := range strings.Split(s, ".") {
-		// Look up field; data must be a struct or map.
-		data = t.lookup(st, data, elem)
-		if data == nil {
-			return nil
-		}
-	}
-	return indirectPtr(data, numStars)
-}
-
-// Is there no data to look at?
-func empty(v reflect.Value) bool {
-	v = indirect(v)
-	if v == nil {
-		return true
-	}
-	switch v := v.(type) {
-	case *reflect.BoolValue:
-		return v.Get() == false
-	case *reflect.StringValue:
-		return v.Get() == ""
-	case *reflect.StructValue:
-		return false
-	case *reflect.MapValue:
-		return false
-	case *reflect.ArrayValue:
-		return v.Len() == 0
-	case *reflect.SliceValue:
-		return v.Len() == 0
-	}
-	return false
-}
-
-// Look up a variable or method, up through the parent if necessary.
-func (t *Template) varValue(name string, st *state) reflect.Value {
-	field := t.findVar(st, name)
-	if field == nil {
-		if st.parent == nil {
-			t.execError(st, t.linenum, "name not found: %s in type %s", name, st.data.Type())
-		}
-		return t.varValue(name, st.parent)
-	}
-	return field
-}
-
-func (t *Template) format(wr io.Writer, fmt string, val []interface{}, v *variableElement, st *state) {
-	fn := t.formatter(fmt)
-	if fn == nil {
-		t.execError(st, v.linenum, "missing formatter %s for variable %s", fmt, v.word[0])
-	}
-	fn(wr, fmt, val...)
-}
-
-// Evaluate a variable, looking up through the parent if necessary.
-// If it has a formatter attached ({var|formatter}) run that too.
-func (t *Template) writeVariable(v *variableElement, st *state) {
-	// Turn the words of the invocation into values.
-	val := make([]interface{}, len(v.word))
-	for i, word := range v.word {
-		val[i] = t.varValue(word, st).Interface()
-	}
-
-	for i, fmt := range v.fmts[:len(v.fmts)-1] {
-		b := &st.buf[i&1]
-		b.Reset()
-		t.format(b, fmt, val, v, st)
-		val = val[0:1]
-		val[0] = b.Bytes()
-	}
-	t.format(st.wr, v.fmts[len(v.fmts)-1], val, v, st)
-}
-
-// Execute element i.  Return next index to execute.
-func (t *Template) executeElement(i int, st *state) int {
-	switch elem := t.elems.At(i).(type) {
-	case *textElement:
-		st.wr.Write(elem.text)
-		return i + 1
-	case *literalElement:
-		st.wr.Write(elem.text)
-		return i + 1
-	case *variableElement:
-		t.writeVariable(elem, st)
-		return i + 1
-	case *sectionElement:
-		t.executeSection(elem, st)
-		return elem.end
-	case *repeatedElement:
-		t.executeRepeated(elem, st)
-		return elem.end
-	}
-	e := t.elems.At(i)
-	t.execError(st, 0, "internal error: bad directive in execute: %v %T\n", reflect.NewValue(e).Interface(), e)
-	return 0
-}
-
-// Execute the template.
-func (t *Template) execute(start, end int, st *state) {
-	for i := start; i < end; {
-		i = t.executeElement(i, st)
-	}
-}
-
-// Execute a .section
-func (t *Template) executeSection(s *sectionElement, st *state) {
-	// Find driver data for this section.  It must be in the current struct.
-	field := t.varValue(s.field, st)
-	if field == nil {
-		t.execError(st, s.linenum, ".section: cannot find field %s in %s", s.field, st.data.Type())
-	}
-	st = st.clone(field)
-	start, end := s.start, s.or
-	if !empty(field) {
-		// Execute the normal block.
-		if end < 0 {
-			end = s.end
-		}
-	} else {
-		// Execute the .or block.  If it's missing, do nothing.
-		start, end = s.or, s.end
-		if start < 0 {
-			return
-		}
-	}
-	for i := start; i < end; {
-		i = t.executeElement(i, st)
-	}
-}
-
-// Return the result of calling the Iter method on v, or nil.
-func iter(v reflect.Value) *reflect.ChanValue {
-	for j := 0; j < v.Type().NumMethod(); j++ {
-		mth := v.Type().Method(j)
-		fv := v.Method(j)
-		ft := fv.Type().(*reflect.FuncType)
-		// TODO(rsc): NumIn() should return 0 here, because ft is from a curried FuncValue.
-		if mth.Name != "Iter" || ft.NumIn() != 1 || ft.NumOut() != 1 {
-			continue
-		}
-		ct, ok := ft.Out(0).(*reflect.ChanType)
-		if !ok || ct.Dir()&reflect.RecvDir == 0 {
-			continue
-		}
-		return fv.Call(nil)[0].(*reflect.ChanValue)
-	}
-	return nil
-}
-
-// Execute a .repeated section
-func (t *Template) executeRepeated(r *repeatedElement, st *state) {
-	// Find driver data for this section.  It must be in the current struct.
-	field := t.varValue(r.field, st)
-	if field == nil {
-		t.execError(st, r.linenum, ".repeated: cannot find field %s in %s", r.field, st.data.Type())
-	}
-	field = indirect(field)
-
-	start, end := r.start, r.or
-	if end < 0 {
-		end = r.end
-	}
-	if r.altstart >= 0 {
-		end = r.altstart
-	}
-	first := true
-
-	// Code common to all the loops.
-	loopBody := func(newst *state) {
-		// .alternates between elements
-		if !first && r.altstart >= 0 {
-			for i := r.altstart; i < r.altend; {
-				i = t.executeElement(i, newst)
-			}
-		}
-		first = false
-		for i := start; i < end; {
-			i = t.executeElement(i, newst)
-		}
-	}
-
-	if array, ok := field.(reflect.ArrayOrSliceValue); ok {
-		for j := 0; j < array.Len(); j++ {
-			loopBody(st.clone(array.Elem(j)))
-		}
-	} else if m, ok := field.(*reflect.MapValue); ok {
-		for _, key := range m.Keys() {
-			loopBody(st.clone(m.Elem(key)))
-		}
-	} else if ch := iter(field); ch != nil {
-		for {
-			e, ok := ch.Recv()
-			if !ok {
-				break
-			}
-			loopBody(st.clone(e))
-		}
-	} else {
-		t.execError(st, r.linenum, ".repeated: cannot repeat %s (type %s)",
-			r.field, field.Type())
-	}
-
-	if first {
-		// Empty. Execute the .or block, once.  If it's missing, do nothing.
-		start, end := r.or, r.end
-		if start >= 0 {
-			newst := st.clone(field)
-			for i := start; i < end; {
-				i = t.executeElement(i, newst)
-			}
-		}
-		return
-	}
-}
-
-// A valid delimiter must contain no white space and be non-empty.
-func validDelim(d []byte) bool {
-	if len(d) == 0 {
-		return false
-	}
-	for _, c := range d {
-		if white(c) {
-			return false
-		}
-	}
-	return true
-}
-
-// checkError is a deferred function to turn a panic with type *Error into a plain error return.
-// Other panics are unexpected and so are re-enabled.
-func checkError(error *os.Error) {
-	if v := recover(); v != nil {
-		if e, ok := v.(*Error); ok {
-			*error = e
-		} else {
-			// runtime errors should crash
-			panic(v)
-		}
-	}
-}
-
-// -- Public interface
-
-// Parse initializes a Template by parsing its definition.  The string
-// s contains the template text.  If any errors occur, Parse returns
-// the error.
-func (t *Template) Parse(s string) (err os.Error) {
-	if t.elems == nil {
-		return &Error{1, "template not allocated with New"}
-	}
-	if !validDelim(t.ldelim) || !validDelim(t.rdelim) {
-		return &Error{1, fmt.Sprintf("bad delimiter strings %q %q", t.ldelim, t.rdelim)}
-	}
-	defer checkError(&err)
-	t.buf = []byte(s)
-	t.p = 0
-	t.linenum = 1
-	t.parse()
-	return nil
-}
-
-// ParseFile is like Parse but reads the template definition from the
-// named file.
-func (t *Template) ParseFile(filename string) (err os.Error) {
-	b, err := ioutil.ReadFile(filename)
-	if err != nil {
-		return err
-	}
-	return t.Parse(string(b))
-}
-
-// Execute applies a parsed template to the specified data object,
-// generating output to wr.
-func (t *Template) Execute(wr io.Writer, data interface{}) (err os.Error) {
-	// Extract the driver data.
-	val := reflect.NewValue(data)
-	defer checkError(&err)
-	t.p = 0
-	t.execute(0, t.elems.Len(), &state{parent: nil, data: val, wr: wr})
-	return nil
-}
-
-// SetDelims sets the left and right delimiters for operations in the
-// template.  They are validated during parsing.  They could be
-// validated here but it's better to keep the routine simple.  The
-// delimiters are very rarely invalid and Parse has the necessary
-// error-handling interface already.
-func (t *Template) SetDelims(left, right string) {
-	t.ldelim = []byte(left)
-	t.rdelim = []byte(right)
-}
-
-// Parse creates a Template with default parameters (such as {} for
-// metacharacters).  The string s contains the template text while
-// the formatter map fmap, which may be nil, defines auxiliary functions
-// for formatting variables.  The template is returned. If any errors
-// occur, err will be non-nil.
-func Parse(s string, fmap FormatterMap) (t *Template, err os.Error) {
-	t = New(fmap)
-	err = t.Parse(s)
-	if err != nil {
-		t = nil
-	}
-	return
-}
-
-// ParseFile is a wrapper function that creates a Template with default
-// parameters (such as {} for metacharacters).  The filename identifies
-// a file containing the template text, while the formatter map fmap, which
-// may be nil, defines auxiliary functions for formatting variables.
-// The template is returned. If any errors occur, err will be non-nil.
-func ParseFile(filename string, fmap FormatterMap) (t *Template, err os.Error) {
-	b, err := ioutil.ReadFile(filename)
-	if err != nil {
-		return nil, err
-	}
-	return Parse(string(b), fmap)
-}
-
-// MustParse is like Parse but panics if the template cannot be parsed.
-func MustParse(s string, fmap FormatterMap) *Template {
-	t, err := Parse(s, fmap)
-	if err != nil {
-		panic("template.MustParse error: " + err.String())
-	}
-	return t
-}
-
-// MustParseFile is like ParseFile but panics if the file cannot be read
-// or the template cannot be parsed.
-func MustParseFile(filename string, fmap FormatterMap) *Template {
-	b, err := ioutil.ReadFile(filename)
-	if err != nil {
-		panic("template.MustParseFile error: " + err.String())
-	}
-	return MustParse(string(b), fmap)
-}
diff --git a/src/cmd/fix/testdata/reflect.template.go.out b/src/cmd/fix/testdata/reflect.template.go.out
deleted file mode 100644
index f2f56ef3c2..0000000000
--- a/src/cmd/fix/testdata/reflect.template.go.out
+++ /dev/null
@@ -1,1044 +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.
-
-/*
-	Data-driven templates for generating textual output such as
-	HTML.
-
-	Templates are executed by applying them to a data structure.
-	Annotations in the template refer to elements of the data
-	structure (typically a field of a struct or a key in a map)
-	to control execution and derive values to be displayed.
-	The template walks the structure as it executes and the
-	"cursor" @ represents the value at the current location
-	in the structure.
-
-	Data items may be values or pointers; the interface hides the
-	indirection.
-
-	In the following, 'field' is one of several things, according to the data.
-
-		- The name of a field of a struct (result = data.field),
-		- The value stored in a map under that key (result = data[field]), or
-		- The result of invoking a niladic single-valued method with that name
-		  (result = data.field())
-
-	Major constructs ({} are the default delimiters for template actions;
-	[] are the notation in this comment for optional elements):
-
-		{# comment }
-
-	A one-line comment.
-
-		{.section field} XXX [ {.or} YYY ] {.end}
-
-	Set @ to the value of the field.  It may be an explicit @
-	to stay at the same point in the data. If the field is nil
-	or empty, execute YYY; otherwise execute XXX.
-
-		{.repeated section field} XXX [ {.alternates with} ZZZ ] [ {.or} YYY ] {.end}
-
-	Like .section, but field must be an array or slice.  XXX
-	is executed for each element.  If the array is nil or empty,
-	YYY is executed instead.  If the {.alternates with} marker
-	is present, ZZZ is executed between iterations of XXX.
-
-		{field}
-		{field1 field2 ...}
-		{field|formatter}
-		{field1 field2...|formatter}
-		{field|formatter1|formatter2}
-
-	Insert the value of the fields into the output. Each field is
-	first looked for in the cursor, as in .section and .repeated.
-	If it is not found, the search continues in outer sections
-	until the top level is reached.
-
-	If the field value is a pointer, leading asterisks indicate
-	that the value to be inserted should be evaluated through the
-	pointer.  For example, if x.p is of type *int, {x.p} will
-	insert the value of the pointer but {*x.p} will insert the
-	value of the underlying integer.  If the value is nil or not a
-	pointer, asterisks have no effect.
-
-	If a formatter is specified, it must be named in the formatter
-	map passed to the template set up routines or in the default
-	set ("html","str","") and is used to process the data for
-	output.  The formatter function has signature
-		func(wr io.Writer, formatter string, data ...interface{})
-	where wr is the destination for output, data holds the field
-	values at the instantiation, and formatter is its name at
-	the invocation site.  The default formatter just concatenates
-	the string representations of the fields.
-
-	Multiple formatters separated by the pipeline character | are
-	executed sequentially, with each formatter receiving the bytes
-	emitted by the one to its left.
-
-	The delimiter strings get their default value, "{" and "}", from
-	JSON-template.  They may be set to any non-empty, space-free
-	string using the SetDelims method.  Their value can be printed
-	in the output using {.meta-left} and {.meta-right}.
-*/
-package template
-
-import (
-	"bytes"
-	"container/vector"
-	"fmt"
-	"io"
-	"io/ioutil"
-	"os"
-	"reflect"
-	"strings"
-	"unicode"
-	"utf8"
-)
-
-// Errors returned during parsing and execution.  Users may extract the information and reformat
-// if they desire.
-type Error struct {
-	Line int
-	Msg  string
-}
-
-func (e *Error) String() string { return fmt.Sprintf("line %d: %s", e.Line, e.Msg) }
-
-// Most of the literals are aces.
-var lbrace = []byte{'{'}
-var rbrace = []byte{'}'}
-var space = []byte{' '}
-var tab = []byte{'\t'}
-
-// The various types of "tokens", which are plain text or (usually) brace-delimited descriptors
-const (
-	tokAlternates = iota
-	tokComment
-	tokEnd
-	tokLiteral
-	tokOr
-	tokRepeated
-	tokSection
-	tokText
-	tokVariable
-)
-
-// FormatterMap is the type describing the mapping from formatter
-// names to the functions that implement them.
-type FormatterMap map[string]func(io.Writer, string, ...interface{})
-
-// Built-in formatters.
-var builtins = FormatterMap{
-	"html": HTMLFormatter,
-	"str":  StringFormatter,
-	"":     StringFormatter,
-}
-
-// The parsed state of a template is a vector of xxxElement structs.
-// Sections have line numbers so errors can be reported better during execution.
-
-// Plain text.
-type textElement struct {
-	text []byte
-}
-
-// A literal such as .meta-left or .meta-right
-type literalElement struct {
-	text []byte
-}
-
-// A variable invocation to be evaluated
-type variableElement struct {
-	linenum int
-	word    []string // The fields in the invocation.
-	fmts    []string // Names of formatters to apply. len(fmts) > 0
-}
-
-// A .section block, possibly with a .or
-type sectionElement struct {
-	linenum int    // of .section itself
-	field   string // cursor field for this block
-	start   int    // first element
-	or      int    // first element of .or block
-	end     int    // one beyond last element
-}
-
-// A .repeated block, possibly with a .or and a .alternates
-type repeatedElement struct {
-	sectionElement     // It has the same structure...
-	altstart       int // ... except for alternates
-	altend         int
-}
-
-// Template is the type that represents a template definition.
-// It is unchanged after parsing.
-type Template struct {
-	fmap FormatterMap // formatters for variables
-	// Used during parsing:
-	ldelim, rdelim []byte // delimiters; default {}
-	buf            []byte // input text to process
-	p              int    // position in buf
-	linenum        int    // position in input
-	// Parsed results:
-	elems *vector.Vector
-}
-
-// Internal state for executing a Template.  As we evaluate the struct,
-// the data item descends into the fields associated with sections, etc.
-// Parent is used to walk upwards to find variables higher in the tree.
-type state struct {
-	parent *state          // parent in hierarchy
-	data   reflect.Value   // the driver data for this section etc.
-	wr     io.Writer       // where to send output
-	buf    [2]bytes.Buffer // alternating buffers used when chaining formatters
-}
-
-func (parent *state) clone(data reflect.Value) *state {
-	return &state{parent: parent, data: data, wr: parent.wr}
-}
-
-// New creates a new template with the specified formatter map (which
-// may be nil) to define auxiliary functions for formatting variables.
-func New(fmap FormatterMap) *Template {
-	t := new(Template)
-	t.fmap = fmap
-	t.ldelim = lbrace
-	t.rdelim = rbrace
-	t.elems = new(vector.Vector)
-	return t
-}
-
-// Report error and stop executing.  The line number must be provided explicitly.
-func (t *Template) execError(st *state, line int, err string, args ...interface{}) {
-	panic(&Error{line, fmt.Sprintf(err, args...)})
-}
-
-// Report error, panic to terminate parsing.
-// The line number comes from the template state.
-func (t *Template) parseError(err string, args ...interface{}) {
-	panic(&Error{t.linenum, fmt.Sprintf(err, args...)})
-}
-
-// Is this an exported - upper case - name?
-func isExported(name string) bool {
-	rune, _ := utf8.DecodeRuneInString(name)
-	return unicode.IsUpper(rune)
-}
-
-// -- Lexical analysis
-
-// Is c a white space character?
-func white(c uint8) bool { return c == ' ' || c == '\t' || c == '\r' || c == '\n' }
-
-// Safely, does s[n:n+len(t)] == t?
-func equal(s []byte, n int, t []byte) bool {
-	b := s[n:]
-	if len(t) > len(b) { // not enough space left for a match.
-		return false
-	}
-	for i, c := range t {
-		if c != b[i] {
-			return false
-		}
-	}
-	return true
-}
-
-// nextItem returns the next item from the input buffer.  If the returned
-// item is empty, we are at EOF.  The item will be either a
-// delimited string or a non-empty string between delimited
-// strings. Tokens stop at (but include, if plain text) a newline.
-// Action tokens on a line by themselves drop any space on
-// either side, up to and including the newline.
-func (t *Template) nextItem() []byte {
-	startOfLine := t.p == 0 || t.buf[t.p-1] == '\n'
-	start := t.p
-	var i int
-	newline := func() {
-		t.linenum++
-		i++
-	}
-	// Leading white space up to but not including newline
-	for i = start; i < len(t.buf); i++ {
-		if t.buf[i] == '\n' || !white(t.buf[i]) {
-			break
-		}
-	}
-	leadingSpace := i > start
-	// What's left is nothing, newline, delimited string, or plain text
-	switch {
-	case i == len(t.buf):
-		// EOF; nothing to do
-	case t.buf[i] == '\n':
-		newline()
-	case equal(t.buf, i, t.ldelim):
-		left := i         // Start of left delimiter.
-		right := -1       // Will be (immediately after) right delimiter.
-		haveText := false // Delimiters contain text.
-		i += len(t.ldelim)
-		// Find the end of the action.
-		for ; i < len(t.buf); i++ {
-			if t.buf[i] == '\n' {
-				break
-			}
-			if equal(t.buf, i, t.rdelim) {
-				i += len(t.rdelim)
-				right = i
-				break
-			}
-			haveText = true
-		}
-		if right < 0 {
-			t.parseError("unmatched opening delimiter")
-			return nil
-		}
-		// Is this a special action (starts with '.' or '#') and the only thing on the line?
-		if startOfLine && haveText {
-			firstChar := t.buf[left+len(t.ldelim)]
-			if firstChar == '.' || firstChar == '#' {
-				// It's special and the first thing on the line. Is it the last?
-				for j := right; j < len(t.buf) && white(t.buf[j]); j++ {
-					if t.buf[j] == '\n' {
-						// Yes it is. Drop the surrounding space and return the {.foo}
-						t.linenum++
-						t.p = j + 1
-						return t.buf[left:right]
-					}
-				}
-			}
-		}
-		// No it's not. If there's leading space, return that.
-		if leadingSpace {
-			// not trimming space: return leading white space if there is some.
-			t.p = left
-			return t.buf[start:left]
-		}
-		// Return the word, leave the trailing space.
-		start = left
-		break
-	default:
-		for ; i < len(t.buf); i++ {
-			if t.buf[i] == '\n' {
-				newline()
-				break
-			}
-			if equal(t.buf, i, t.ldelim) {
-				break
-			}
-		}
-	}
-	item := t.buf[start:i]
-	t.p = i
-	return item
-}
-
-// Turn a byte array into a white-space-split array of strings.
-func words(buf []byte) []string {
-	s := make([]string, 0, 5)
-	p := 0 // position in buf
-	// one word per loop
-	for i := 0; ; i++ {
-		// skip white space
-		for ; p < len(buf) && white(buf[p]); p++ {
-		}
-		// grab word
-		start := p
-		for ; p < len(buf) && !white(buf[p]); p++ {
-		}
-		if start == p { // no text left
-			break
-		}
-		s = append(s, string(buf[start:p]))
-	}
-	return s
-}
-
-// Analyze an item and return its token type and, if it's an action item, an array of
-// its constituent words.
-func (t *Template) analyze(item []byte) (tok int, w []string) {
-	// item is known to be non-empty
-	if !equal(item, 0, t.ldelim) { // doesn't start with left delimiter
-		tok = tokText
-		return
-	}
-	if !equal(item, len(item)-len(t.rdelim), t.rdelim) { // doesn't end with right delimiter
-		t.parseError("internal error: unmatched opening delimiter") // lexing should prevent this
-		return
-	}
-	if len(item) <= len(t.ldelim)+len(t.rdelim) { // no contents
-		t.parseError("empty directive")
-		return
-	}
-	// Comment
-	if item[len(t.ldelim)] == '#' {
-		tok = tokComment
-		return
-	}
-	// Split into words
-	w = words(item[len(t.ldelim) : len(item)-len(t.rdelim)]) // drop final delimiter
-	if len(w) == 0 {
-		t.parseError("empty directive")
-		return
-	}
-	if len(w) > 0 && w[0][0] != '.' {
-		tok = tokVariable
-		return
-	}
-	switch w[0] {
-	case ".meta-left", ".meta-right", ".space", ".tab":
-		tok = tokLiteral
-		return
-	case ".or":
-		tok = tokOr
-		return
-	case ".end":
-		tok = tokEnd
-		return
-	case ".section":
-		if len(w) != 2 {
-			t.parseError("incorrect fields for .section: %s", item)
-			return
-		}
-		tok = tokSection
-		return
-	case ".repeated":
-		if len(w) != 3 || w[1] != "section" {
-			t.parseError("incorrect fields for .repeated: %s", item)
-			return
-		}
-		tok = tokRepeated
-		return
-	case ".alternates":
-		if len(w) != 2 || w[1] != "with" {
-			t.parseError("incorrect fields for .alternates: %s", item)
-			return
-		}
-		tok = tokAlternates
-		return
-	}
-	t.parseError("bad directive: %s", item)
-	return
-}
-
-// formatter returns the Formatter with the given name in the Template, or nil if none exists.
-func (t *Template) formatter(name string) func(io.Writer, string, ...interface{}) {
-	if t.fmap != nil {
-		if fn := t.fmap[name]; fn != nil {
-			return fn
-		}
-	}
-	return builtins[name]
-}
-
-// -- Parsing
-
-// Allocate a new variable-evaluation element.
-func (t *Template) newVariable(words []string) *variableElement {
-	// After the final space-separated argument, formatters may be specified separated
-	// by pipe symbols, for example: {a b c|d|e}
-
-	// Until we learn otherwise, formatters contains a single name: "", the default formatter.
-	formatters := []string{""}
-	lastWord := words[len(words)-1]
-	bar := strings.IndexRune(lastWord, '|')
-	if bar >= 0 {
-		words[len(words)-1] = lastWord[0:bar]
-		formatters = strings.Split(lastWord[bar+1:], "|")
-	}
-
-	// We could remember the function address here and avoid the lookup later,
-	// but it's more dynamic to let the user change the map contents underfoot.
-	// We do require the name to be present, though.
-
-	// Is it in user-supplied map?
-	for _, f := range formatters {
-		if t.formatter(f) == nil {
-			t.parseError("unknown formatter: %q", f)
-		}
-	}
-	return &variableElement{t.linenum, words, formatters}
-}
-
-// Grab the next item.  If it's simple, just append it to the template.
-// Otherwise return its details.
-func (t *Template) parseSimple(item []byte) (done bool, tok int, w []string) {
-	tok, w = t.analyze(item)
-	done = true // assume for simplicity
-	switch tok {
-	case tokComment:
-		return
-	case tokText:
-		t.elems.Push(&textElement{item})
-		return
-	case tokLiteral:
-		switch w[0] {
-		case ".meta-left":
-			t.elems.Push(&literalElement{t.ldelim})
-		case ".meta-right":
-			t.elems.Push(&literalElement{t.rdelim})
-		case ".space":
-			t.elems.Push(&literalElement{space})
-		case ".tab":
-			t.elems.Push(&literalElement{tab})
-		default:
-			t.parseError("internal error: unknown literal: %s", w[0])
-		}
-		return
-	case tokVariable:
-		t.elems.Push(t.newVariable(w))
-		return
-	}
-	return false, tok, w
-}
-
-// parseRepeated and parseSection are mutually recursive
-
-func (t *Template) parseRepeated(words []string) *repeatedElement {
-	r := new(repeatedElement)
-	t.elems.Push(r)
-	r.linenum = t.linenum
-	r.field = words[2]
-	// Scan section, collecting true and false (.or) blocks.
-	r.start = t.elems.Len()
-	r.or = -1
-	r.altstart = -1
-	r.altend = -1
-Loop:
-	for {
-		item := t.nextItem()
-		if len(item) == 0 {
-			t.parseError("missing .end for .repeated section")
-			break
-		}
-		done, tok, w := t.parseSimple(item)
-		if done {
-			continue
-		}
-		switch tok {
-		case tokEnd:
-			break Loop
-		case tokOr:
-			if r.or >= 0 {
-				t.parseError("extra .or in .repeated section")
-				break Loop
-			}
-			r.altend = t.elems.Len()
-			r.or = t.elems.Len()
-		case tokSection:
-			t.parseSection(w)
-		case tokRepeated:
-			t.parseRepeated(w)
-		case tokAlternates:
-			if r.altstart >= 0 {
-				t.parseError("extra .alternates in .repeated section")
-				break Loop
-			}
-			if r.or >= 0 {
-				t.parseError(".alternates inside .or block in .repeated section")
-				break Loop
-			}
-			r.altstart = t.elems.Len()
-		default:
-			t.parseError("internal error: unknown repeated section item: %s", item)
-			break Loop
-		}
-	}
-	if r.altend < 0 {
-		r.altend = t.elems.Len()
-	}
-	r.end = t.elems.Len()
-	return r
-}
-
-func (t *Template) parseSection(words []string) *sectionElement {
-	s := new(sectionElement)
-	t.elems.Push(s)
-	s.linenum = t.linenum
-	s.field = words[1]
-	// Scan section, collecting true and false (.or) blocks.
-	s.start = t.elems.Len()
-	s.or = -1
-Loop:
-	for {
-		item := t.nextItem()
-		if len(item) == 0 {
-			t.parseError("missing .end for .section")
-			break
-		}
-		done, tok, w := t.parseSimple(item)
-		if done {
-			continue
-		}
-		switch tok {
-		case tokEnd:
-			break Loop
-		case tokOr:
-			if s.or >= 0 {
-				t.parseError("extra .or in .section")
-				break Loop
-			}
-			s.or = t.elems.Len()
-		case tokSection:
-			t.parseSection(w)
-		case tokRepeated:
-			t.parseRepeated(w)
-		case tokAlternates:
-			t.parseError(".alternates not in .repeated")
-		default:
-			t.parseError("internal error: unknown section item: %s", item)
-		}
-	}
-	s.end = t.elems.Len()
-	return s
-}
-
-func (t *Template) parse() {
-	for {
-		item := t.nextItem()
-		if len(item) == 0 {
-			break
-		}
-		done, tok, w := t.parseSimple(item)
-		if done {
-			continue
-		}
-		switch tok {
-		case tokOr, tokEnd, tokAlternates:
-			t.parseError("unexpected %s", w[0])
-		case tokSection:
-			t.parseSection(w)
-		case tokRepeated:
-			t.parseRepeated(w)
-		default:
-			t.parseError("internal error: bad directive in parse: %s", item)
-		}
-	}
-}
-
-// -- Execution
-
-// Evaluate interfaces and pointers looking for a value that can look up the name, via a
-// struct field, method, or map key, and return the result of the lookup.
-func (t *Template) lookup(st *state, v reflect.Value, name string) reflect.Value {
-	for v.IsValid() {
-		typ := v.Type()
-		if n := v.Type().NumMethod(); n > 0 {
-			for i := 0; i < n; i++ {
-				m := typ.Method(i)
-				mtyp := m.Type
-				if m.Name == name && mtyp.NumIn() == 1 && mtyp.NumOut() == 1 {
-					if !isExported(name) {
-						t.execError(st, t.linenum, "name not exported: %s in type %s", name, st.data.Type())
-					}
-					return v.Method(i).Call(nil)[0]
-				}
-			}
-		}
-		switch av := v; av.Kind() {
-		case reflect.Ptr:
-			v = av.Elem()
-		case reflect.Interface:
-			v = av.Elem()
-		case reflect.Struct:
-			if !isExported(name) {
-				t.execError(st, t.linenum, "name not exported: %s in type %s", name, st.data.Type())
-			}
-			return av.FieldByName(name)
-		case reflect.Map:
-			if v := av.MapIndex(reflect.ValueOf(name)); v.IsValid() {
-				return v
-			}
-			return reflect.Zero(typ.Elem())
-		default:
-			return reflect.Value{}
-		}
-	}
-	return v
-}
-
-// indirectPtr returns the item numLevels levels of indirection below the value.
-// It is forgiving: if the value is not a pointer, it returns it rather than giving
-// an error.  If the pointer is nil, it is returned as is.
-func indirectPtr(v reflect.Value, numLevels int) reflect.Value {
-	for i := numLevels; v.IsValid() && i > 0; i++ {
-		if p := v; p.Kind() == reflect.Ptr {
-			if p.IsNil() {
-				return v
-			}
-			v = p.Elem()
-		} else {
-			break
-		}
-	}
-	return v
-}
-
-// Walk v through pointers and interfaces, extracting the elements within.
-func indirect(v reflect.Value) reflect.Value {
-loop:
-	for v.IsValid() {
-		switch av := v; av.Kind() {
-		case reflect.Ptr:
-			v = av.Elem()
-		case reflect.Interface:
-			v = av.Elem()
-		default:
-			break loop
-		}
-	}
-	return v
-}
-
-// If the data for this template is a struct, find the named variable.
-// Names of the form a.b.c are walked down the data tree.
-// The special name "@" (the "cursor") denotes the current data.
-// The value coming in (st.data) might need indirecting to reach
-// a struct while the return value is not indirected - that is,
-// it represents the actual named field. Leading stars indicate
-// levels of indirection to be applied to the value.
-func (t *Template) findVar(st *state, s string) reflect.Value {
-	data := st.data
-	flattenedName := strings.TrimLeft(s, "*")
-	numStars := len(s) - len(flattenedName)
-	s = flattenedName
-	if s == "@" {
-		return indirectPtr(data, numStars)
-	}
-	for _, elem := range strings.Split(s, ".") {
-		// Look up field; data must be a struct or map.
-		data = t.lookup(st, data, elem)
-		if !data.IsValid() {
-			return reflect.Value{}
-		}
-	}
-	return indirectPtr(data, numStars)
-}
-
-// Is there no data to look at?
-func empty(v reflect.Value) bool {
-	v = indirect(v)
-	if !v.IsValid() {
-		return true
-	}
-	switch v.Kind() {
-	case reflect.Bool:
-		return v.Bool() == false
-	case reflect.String:
-		return v.String() == ""
-	case reflect.Struct:
-		return false
-	case reflect.Map:
-		return false
-	case reflect.Array:
-		return v.Len() == 0
-	case reflect.Slice:
-		return v.Len() == 0
-	}
-	return false
-}
-
-// Look up a variable or method, up through the parent if necessary.
-func (t *Template) varValue(name string, st *state) reflect.Value {
-	field := t.findVar(st, name)
-	if !field.IsValid() {
-		if st.parent == nil {
-			t.execError(st, t.linenum, "name not found: %s in type %s", name, st.data.Type())
-		}
-		return t.varValue(name, st.parent)
-	}
-	return field
-}
-
-func (t *Template) format(wr io.Writer, fmt string, val []interface{}, v *variableElement, st *state) {
-	fn := t.formatter(fmt)
-	if fn == nil {
-		t.execError(st, v.linenum, "missing formatter %s for variable %s", fmt, v.word[0])
-	}
-	fn(wr, fmt, val...)
-}
-
-// Evaluate a variable, looking up through the parent if necessary.
-// If it has a formatter attached ({var|formatter}) run that too.
-func (t *Template) writeVariable(v *variableElement, st *state) {
-	// Turn the words of the invocation into values.
-	val := make([]interface{}, len(v.word))
-	for i, word := range v.word {
-		val[i] = t.varValue(word, st).Interface()
-	}
-
-	for i, fmt := range v.fmts[:len(v.fmts)-1] {
-		b := &st.buf[i&1]
-		b.Reset()
-		t.format(b, fmt, val, v, st)
-		val = val[0:1]
-		val[0] = b.Bytes()
-	}
-	t.format(st.wr, v.fmts[len(v.fmts)-1], val, v, st)
-}
-
-// Execute element i.  Return next index to execute.
-func (t *Template) executeElement(i int, st *state) int {
-	switch elem := t.elems.At(i).(type) {
-	case *textElement:
-		st.wr.Write(elem.text)
-		return i + 1
-	case *literalElement:
-		st.wr.Write(elem.text)
-		return i + 1
-	case *variableElement:
-		t.writeVariable(elem, st)
-		return i + 1
-	case *sectionElement:
-		t.executeSection(elem, st)
-		return elem.end
-	case *repeatedElement:
-		t.executeRepeated(elem, st)
-		return elem.end
-	}
-	e := t.elems.At(i)
-	t.execError(st, 0, "internal error: bad directive in execute: %v %T\n", reflect.ValueOf(e).Interface(), e)
-	return 0
-}
-
-// Execute the template.
-func (t *Template) execute(start, end int, st *state) {
-	for i := start; i < end; {
-		i = t.executeElement(i, st)
-	}
-}
-
-// Execute a .section
-func (t *Template) executeSection(s *sectionElement, st *state) {
-	// Find driver data for this section.  It must be in the current struct.
-	field := t.varValue(s.field, st)
-	if !field.IsValid() {
-		t.execError(st, s.linenum, ".section: cannot find field %s in %s", s.field, st.data.Type())
-	}
-	st = st.clone(field)
-	start, end := s.start, s.or
-	if !empty(field) {
-		// Execute the normal block.
-		if end < 0 {
-			end = s.end
-		}
-	} else {
-		// Execute the .or block.  If it's missing, do nothing.
-		start, end = s.or, s.end
-		if start < 0 {
-			return
-		}
-	}
-	for i := start; i < end; {
-		i = t.executeElement(i, st)
-	}
-}
-
-// Return the result of calling the Iter method on v, or nil.
-func iter(v reflect.Value) reflect.Value {
-	for j := 0; j < v.Type().NumMethod(); j++ {
-		mth := v.Type().Method(j)
-		fv := v.Method(j)
-		ft := fv.Type()
-		// TODO(rsc): NumIn() should return 0 here, because ft is from a curried FuncValue.
-		if mth.Name != "Iter" || ft.NumIn() != 1 || ft.NumOut() != 1 {
-			continue
-		}
-		ct := ft.Out(0)
-		if ct.Kind() != reflect.Chan ||
-			ct.ChanDir()&reflect.RecvDir == 0 {
-			continue
-		}
-		return fv.Call(nil)[0]
-	}
-	return reflect.Value{}
-}
-
-// Execute a .repeated section
-func (t *Template) executeRepeated(r *repeatedElement, st *state) {
-	// Find driver data for this section.  It must be in the current struct.
-	field := t.varValue(r.field, st)
-	if !field.IsValid() {
-		t.execError(st, r.linenum, ".repeated: cannot find field %s in %s", r.field, st.data.Type())
-	}
-	field = indirect(field)
-
-	start, end := r.start, r.or
-	if end < 0 {
-		end = r.end
-	}
-	if r.altstart >= 0 {
-		end = r.altstart
-	}
-	first := true
-
-	// Code common to all the loops.
-	loopBody := func(newst *state) {
-		// .alternates between elements
-		if !first && r.altstart >= 0 {
-			for i := r.altstart; i < r.altend; {
-				i = t.executeElement(i, newst)
-			}
-		}
-		first = false
-		for i := start; i < end; {
-			i = t.executeElement(i, newst)
-		}
-	}
-
-	if array := field; array.Kind() == reflect.Array || array.Kind() == reflect.Slice {
-		for j := 0; j < array.Len(); j++ {
-			loopBody(st.clone(array.Index(j)))
-		}
-	} else if m := field; m.Kind() == reflect.Map {
-		for _, key := range m.MapKeys() {
-			loopBody(st.clone(m.MapIndex(key)))
-		}
-	} else if ch := iter(field); ch.IsValid() {
-		for {
-			e, ok := ch.Recv()
-			if !ok {
-				break
-			}
-			loopBody(st.clone(e))
-		}
-	} else {
-		t.execError(st, r.linenum, ".repeated: cannot repeat %s (type %s)",
-			r.field, field.Type())
-	}
-
-	if first {
-		// Empty. Execute the .or block, once.  If it's missing, do nothing.
-		start, end := r.or, r.end
-		if start >= 0 {
-			newst := st.clone(field)
-			for i := start; i < end; {
-				i = t.executeElement(i, newst)
-			}
-		}
-		return
-	}
-}
-
-// A valid delimiter must contain no white space and be non-empty.
-func validDelim(d []byte) bool {
-	if len(d) == 0 {
-		return false
-	}
-	for _, c := range d {
-		if white(c) {
-			return false
-		}
-	}
-	return true
-}
-
-// checkError is a deferred function to turn a panic with type *Error into a plain error return.
-// Other panics are unexpected and so are re-enabled.
-func checkError(error *os.Error) {
-	if v := recover(); v != nil {
-		if e, ok := v.(*Error); ok {
-			*error = e
-		} else {
-			// runtime errors should crash
-			panic(v)
-		}
-	}
-}
-
-// -- Public interface
-
-// Parse initializes a Template by parsing its definition.  The string
-// s contains the template text.  If any errors occur, Parse returns
-// the error.
-func (t *Template) Parse(s string) (err os.Error) {
-	if t.elems == nil {
-		return &Error{1, "template not allocated with New"}
-	}
-	if !validDelim(t.ldelim) || !validDelim(t.rdelim) {
-		return &Error{1, fmt.Sprintf("bad delimiter strings %q %q", t.ldelim, t.rdelim)}
-	}
-	defer checkError(&err)
-	t.buf = []byte(s)
-	t.p = 0
-	t.linenum = 1
-	t.parse()
-	return nil
-}
-
-// ParseFile is like Parse but reads the template definition from the
-// named file.
-func (t *Template) ParseFile(filename string) (err os.Error) {
-	b, err := ioutil.ReadFile(filename)
-	if err != nil {
-		return err
-	}
-	return t.Parse(string(b))
-}
-
-// Execute applies a parsed template to the specified data object,
-// generating output to wr.
-func (t *Template) Execute(wr io.Writer, data interface{}) (err os.Error) {
-	// Extract the driver data.
-	val := reflect.ValueOf(data)
-	defer checkError(&err)
-	t.p = 0
-	t.execute(0, t.elems.Len(), &state{parent: nil, data: val, wr: wr})
-	return nil
-}
-
-// SetDelims sets the left and right delimiters for operations in the
-// template.  They are validated during parsing.  They could be
-// validated here but it's better to keep the routine simple.  The
-// delimiters are very rarely invalid and Parse has the necessary
-// error-handling interface already.
-func (t *Template) SetDelims(left, right string) {
-	t.ldelim = []byte(left)
-	t.rdelim = []byte(right)
-}
-
-// Parse creates a Template with default parameters (such as {} for
-// metacharacters).  The string s contains the template text while
-// the formatter map fmap, which may be nil, defines auxiliary functions
-// for formatting variables.  The template is returned. If any errors
-// occur, err will be non-nil.
-func Parse(s string, fmap FormatterMap) (t *Template, err os.Error) {
-	t = New(fmap)
-	err = t.Parse(s)
-	if err != nil {
-		t = nil
-	}
-	return
-}
-
-// ParseFile is a wrapper function that creates a Template with default
-// parameters (such as {} for metacharacters).  The filename identifies
-// a file containing the template text, while the formatter map fmap, which
-// may be nil, defines auxiliary functions for formatting variables.
-// The template is returned. If any errors occur, err will be non-nil.
-func ParseFile(filename string, fmap FormatterMap) (t *Template, err os.Error) {
-	b, err := ioutil.ReadFile(filename)
-	if err != nil {
-		return nil, err
-	}
-	return Parse(string(b), fmap)
-}
-
-// MustParse is like Parse but panics if the template cannot be parsed.
-func MustParse(s string, fmap FormatterMap) *Template {
-	t, err := Parse(s, fmap)
-	if err != nil {
-		panic("template.MustParse error: " + err.String())
-	}
-	return t
-}
-
-// MustParseFile is like ParseFile but panics if the file cannot be read
-// or the template cannot be parsed.
-func MustParseFile(filename string, fmap FormatterMap) *Template {
-	b, err := ioutil.ReadFile(filename)
-	if err != nil {
-		panic("template.MustParseFile error: " + err.String())
-	}
-	return MustParse(string(b), fmap)
-}
diff --git a/src/cmd/fix/testdata/reflect.type.go.in b/src/cmd/fix/testdata/reflect.type.go.in
deleted file mode 100644
index 34963bef92..0000000000
--- a/src/cmd/fix/testdata/reflect.type.go.in
+++ /dev/null
@@ -1,790 +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 (
-	"fmt"
-	"os"
-	"reflect"
-	"sync"
-	"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 os.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, ok := ut.base.(*reflect.PtrType)
-		if !ok {
-			break
-		}
-		ut.base = pt.Elem()
-		if ut.base == slowpoke { // ut.base lapped slowpoke
-			// recursive pointer type.
-			return nil, os.NewError("can't represent recursive pointer type " + ut.base.String())
-		}
-		if ut.indir%2 == 0 {
-			slowpoke = slowpoke.(*reflect.PtrType).Elem()
-		}
-		ut.indir++
-	}
-	ut.isGobEncoder, ut.encIndir = implementsInterface(ut.user, gobEncoderCheck)
-	ut.isGobDecoder, ut.decIndir = implementsInterface(ut.user, gobDecoderCheck)
-	userTypeCache[rt] = ut
-	return
-}
-
-const (
-	gobEncodeMethodName = "GobEncode"
-	gobDecodeMethodName = "GobDecode"
-)
-
-// implements returns whether the type implements the interface, as encoded
-// in the check function.
-func implements(typ reflect.Type, check func(typ reflect.Type) bool) bool {
-	if typ.NumMethod() == 0 { // avoid allocations etc. unless there's some chance
-		return false
-	}
-	return check(typ)
-}
-
-// gobEncoderCheck makes the type assertion a boolean function.
-func gobEncoderCheck(typ reflect.Type) bool {
-	_, ok := reflect.MakeZero(typ).Interface().(GobEncoder)
-	return ok
-}
-
-// gobDecoderCheck makes the type assertion a boolean function.
-func gobDecoderCheck(typ reflect.Type) bool {
-	_, ok := reflect.MakeZero(typ).Interface().(GobDecoder)
-	return ok
-}
-
-// implementsInterface reports whether the type implements the
-// interface. (The actual check is done through the provided function.)
-// It also returns the number of indirections required to get to the
-// implementation.
-func implementsInterface(typ reflect.Type, check func(typ reflect.Type) bool) (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 implements(rt, check) {
-			return true, indir
-		}
-		if p, ok := rt.(*reflect.PtrType); ok {
-			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 _, ok := typ.(*reflect.PtrType); !ok {
-		// Not a pointer, but does the pointer work?
-		if implements(reflect.PtrTo(typ), check) {
-			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) {
-	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()
-}
-
-// Common elements of all types.
-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)
-	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, os.Error) {
-	// Does this type implement GobEncoder?
-	if ut.isGobEncoder {
-		return newGobEncoderType(name), nil
-	}
-	var err os.Error
-	var type0, type1 gobType
-	defer func() {
-		if err != nil {
-			types[rt] = nil, false
-		}
-	}()
-	// Install the top-level type before the subtypes (e.g. struct before
-	// fields) so recursive types can be constructed safely.
-	switch t := rt.(type) {
-	// All basic types are easy: they are predefined.
-	case *reflect.BoolType:
-		return tBool.gobType(), nil
-
-	case *reflect.IntType:
-		return tInt.gobType(), nil
-
-	case *reflect.UintType:
-		return tUint.gobType(), nil
-
-	case *reflect.FloatType:
-		return tFloat.gobType(), nil
-
-	case *reflect.ComplexType:
-		return tComplex.gobType(), nil
-
-	case *reflect.StringType:
-		return tString.gobType(), nil
-
-	case *reflect.InterfaceType:
-		return tInterface.gobType(), nil
-
-	case *reflect.ArrayType:
-		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.MapType:
-		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.SliceType:
-		// []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.StructType:
-		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
-			}
-			st.Field = append(st.Field, &fieldType{f.Name, gt.id()})
-		}
-		return st, nil
-
-	default:
-		return nil, os.NewError("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, os.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, os.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).(*reflect.PtrType).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, os.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.(type) {
-	case *reflect.ArrayType:
-		info.wire = &wireType{ArrayT: t.(*arrayType)}
-	case *reflect.MapType:
-		info.wire = &wireType{MapT: t.(*mapType)}
-	case *reflect.SliceType:
-		// []byte == []uint8 is a special case handled separately
-		if typ.Elem().Kind() != reflect.Uint8 {
-			info.wire = &wireType{SliceT: t.(*sliceType)}
-		}
-	case *reflect.StructType:
-		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.String())
-	}
-	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 transmissable 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, os.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) os.Error
-}
-
-var (
-	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")
-	}
-	base := userType(reflect.Typeof(value)).base
-	// Check for incompatible duplicates.
-	if t, ok := nameToConcreteType[name]; ok && t != base {
-		panic("gob: registering duplicate types for " + name)
-	}
-	if n, ok := concreteTypeToName[base]; ok && n != name {
-		panic("gob: registering duplicate names for " + base.String())
-	}
-	// 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[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.
-	// Dereference one pointer looking for a named type.
-	star := ""
-	if rt.Name() == "" {
-		if pt, ok := rt.(*reflect.PtrType); ok {
-			star = "*"
-			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(false)
-	Register("")
-	Register([]byte(nil))
-}
diff --git a/src/cmd/fix/testdata/reflect.type.go.out b/src/cmd/fix/testdata/reflect.type.go.out
deleted file mode 100644
index d729ea471a..0000000000
--- a/src/cmd/fix/testdata/reflect.type.go.out
+++ /dev/null
@@ -1,790 +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 (
-	"fmt"
-	"os"
-	"reflect"
-	"sync"
-	"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 os.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, os.NewError("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, gobEncoderCheck)
-	ut.isGobDecoder, ut.decIndir = implementsInterface(ut.user, gobDecoderCheck)
-	userTypeCache[rt] = ut
-	return
-}
-
-const (
-	gobEncodeMethodName = "GobEncode"
-	gobDecodeMethodName = "GobDecode"
-)
-
-// implements returns whether the type implements the interface, as encoded
-// in the check function.
-func implements(typ reflect.Type, check func(typ reflect.Type) bool) bool {
-	if typ.NumMethod() == 0 { // avoid allocations etc. unless there's some chance
-		return false
-	}
-	return check(typ)
-}
-
-// gobEncoderCheck makes the type assertion a boolean function.
-func gobEncoderCheck(typ reflect.Type) bool {
-	_, ok := reflect.Zero(typ).Interface().(GobEncoder)
-	return ok
-}
-
-// gobDecoderCheck makes the type assertion a boolean function.
-func gobDecoderCheck(typ reflect.Type) bool {
-	_, ok := reflect.Zero(typ).Interface().(GobDecoder)
-	return ok
-}
-
-// implementsInterface reports whether the type implements the
-// interface. (The actual check is done through the provided function.)
-// It also returns the number of indirections required to get to the
-// implementation.
-func implementsInterface(typ reflect.Type, check func(typ reflect.Type) bool) (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 implements(rt, check) {
-			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 implements(reflect.PtrTo(typ), check) {
-			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) {
-	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()
-}
-
-// Common elements of all types.
-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)
-	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, os.Error) {
-	// Does this type implement GobEncoder?
-	if ut.isGobEncoder {
-		return newGobEncoderType(name), nil
-	}
-	var err os.Error
-	var type0, type1 gobType
-	defer func() {
-		if err != nil {
-			types[rt] = nil, false
-		}
-	}()
-	// 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
-			}
-			st.Field = append(st.Field, &fieldType{f.Name, gt.id()})
-		}
-		return st, nil
-
-	default:
-		return nil, os.NewError("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, os.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, os.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, os.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.String())
-	}
-	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 transmissable 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, os.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) os.Error
-}
-
-var (
-	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")
-	}
-	base := userType(reflect.TypeOf(value)).base
-	// Check for incompatible duplicates.
-	if t, ok := nameToConcreteType[name]; ok && t != base {
-		panic("gob: registering duplicate types for " + name)
-	}
-	if n, ok := concreteTypeToName[base]; ok && n != name {
-		panic("gob: registering duplicate names for " + base.String())
-	}
-	// 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[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.
-	// Dereference one pointer looking for a named type.
-	star := ""
-	if rt.Name() == "" {
-		if pt := rt; pt.Kind() == reflect.Ptr {
-			star = "*"
-			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(false)
-	Register("")
-	Register([]byte(nil))
-}