Name:           name,
		CurrentVersion: currentVersion,
		NewVersion:     newVersion,
		NodeName:       nodeName,
	}
}

// runPlan takes care of outputting available versions to upgrade to for the user
func runPlan(flagSet *pflag.FlagSet, flags *planFlags, args []string, printer output.Printer) error {

		io.WriteString(w, s)
		w.Close()
		return
	}

	var currentLen, last, runeLen int
	for i := 0; i < len(s); i += runeLen {
		// Multi-byte characters must not be split across encoded-words.
		// See RFC 2047, section 5.3.
		_, runeLen = utf8.DecodeRuneInString(s[i:])

		if currentLen+runeLen <= maxBase64Len {
			currentLen += runeLen
		} else {
			io.WriteString(w, s[last:i])
			w.Close()

	cleanFuzzcache bool // clean -fuzzcache flag
	cleanModcache  bool // clean -modcache flag
	cleanTestcache bool // clean -testcache flag
)

func init() {
	// break init cycle
	CmdClean.Run = runClean

	CmdClean.Flag.BoolVar(&cleanI, "i", false, "")
	CmdClean.Flag.BoolVar(&cleanR, "r", false, "")
	CmdClean.Flag.BoolVar(&cleanCache, "cache", false, "")
	CmdClean.Flag.BoolVar(&cleanFuzzcache, "fuzzcache", false, "")

			}
			return si < sj
		})

		// runLen returns the string length associated with a
		// particular run of exprClauses.
		runLen := func(run []exprClause) int64 { return int64(len(ir.StringVal(run[0].lo))) }

		// Collapse runs of consecutive strings with the same length.
		var runs [][]exprClause
		start := 0
		for i := 1; i < len(cc); i++ {
			if runLen(cc[start:]) != runLen(cc[i:]) {
				runs = append(runs, cc[start:i])

	{MaxRune, 4},
	{0xD800, -1},
	{0xDFFF, -1},
	{MaxRune + 1, -1},
	{-1, -1},
}

func TestRuneLen(t *testing.T) {
	for _, tt := range runelentests {
		if size := RuneLen(tt.r); size != tt.size {
			t.Errorf("RuneLen(%#U) = %d, want %d", tt.r, size, tt.size)
		}
	}
}

type ValidTest struct {
	in  string
	out bool
}

var validTests = []ValidTest{
	{"", true},
	{"a", true},

	}
	r, size = DecodeRuneInString(s[start:end])
	if start+size != end {
		return RuneError, 1
	}
	return r, size
}

// RuneLen returns the number of bytes in the UTF-8 encoding of the rune.
// It returns -1 if the rune is not a valid value to encode in UTF-8.
func RuneLen(r rune) int {
	switch {
	case r < 0:
		return -1
	case r <= rune1Max:
		return 1
	case r <= rune2Max:
		return 2

	buf := bytes.NewBuffer(nil)
	for _, r := range m {
		// Ignore non-printable characters
		if !unicode.IsPrint(r) {
			continue
		}
		// Only append if we have room for it
		if buf.Len()+utf8.RuneLen(r) > validation.FieldManagerMaxLength {
			break
		}
		buf.WriteRune(r)
	}
	return buf.String()

			"byLiteral.Swap",
			"(*dictDecoder).tryWriteCopy",
		},
		"encoding/base64": {
			"assemble32",
			"assemble64",
		},
		"unicode/utf8": {
			"FullRune",
			"FullRuneInString",
			"RuneLen",
			"AppendRune",
			"ValidRune",
		},
		"unicode/utf16": {
			"Decode",
		},
		"reflect": {
			"Value.Bool",
			"Value.Bytes",
			"Value.CanAddr",
			"Value.CanComplex",

	i := len(buf)

	// For %#U we want to add a space and a quoted character at the end of the buffer.
	if f.sharp && u <= utf8.MaxRune && strconv.IsPrint(rune(u)) {
		i--
		buf[i] = '\''
		i -= utf8.RuneLen(rune(u))
		utf8.EncodeRune(buf[i:], rune(u))
		i--
		buf[i] = '\''
		i--
		buf[i] = ' '
	}
	// Format the Unicode code point u as a hexadecimal number.
	for u >= 16 {
		i--

		}
		break
	}
	if errRead == io.EOF {
		return nil, errRead
	}

	// Parse each field in the record.
	var err error
	const quoteLen = len(`"`)
	commaLen := utf8.RuneLen(r.Comma)
	recLine := r.numLine // Starting line for record
	r.recordBuffer = r.recordBuffer[:0]
	r.fieldIndexes = r.fieldIndexes[:0]
	r.fieldPositions = r.fieldPositions[:0]
	pos := position{line: r.numLine, col: 1}