return l;
    }

    /* Encode floats
     */

    public static int enc_floatle( float f, byte[] dst, int di )
    {
        return enc_uint32le( Float.floatToIntBits( f ), dst, di );
    }
    public static int enc_floatbe( float f, byte[] dst, int di )
    {
        return enc_uint32be( Float.floatToIntBits( f ), dst, di );
    }

    /* Decode floating point numbers

             "enable post training quantization. Only used in tests">,
      Option<"legacy_float_scale_", "legacy-float-scale", "bool", "false",
             "calculate quantization scales in float instead of double">,
      Option<"disable_per_channel_", "disable-per-channel", "bool", "false",
             "Whether disable per-channel quantized weights.">,

}

// 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() * math.MaxFloat64
	if rand.Int()&1 == 1 {
		f = -f

// and rounding mode.
func ParseFloat(s string, base int, prec uint, mode RoundingMode) (f *Float, b int, err error) {
	return new(Float).SetPrec(prec).SetMode(mode).Parse(s, base)
}

var _ fmt.Scanner = (*Float)(nil) // *Float must implement fmt.Scanner

// Scan is a support routine for [fmt.Scanner]; it sets z to the value of

// according to the format fmt and precision prec. It rounds the
// result assuming that the original was obtained from a floating-point
// value of bitSize bits (32 for float32, 64 for float64).
//
// The format fmt is one of
// 'b' (-ddddp±ddd, a binary exponent),
// 'e' (-d.dddde±dd, a decimal exponent),
// 'E' (-d.ddddE±dd, a decimal exponent),
// 'f' (-ddd.dddd, no exponent),

	case abi.Uint64:
		print(typestring, "(", *(*uint64)(eface.data), ")")
	case abi.Uintptr:
		print(typestring, "(", *(*uintptr)(eface.data), ")")
	case abi.Float32:
		print(typestring, "(", *(*float32)(eface.data), ")")
	case abi.Float64:
		print(typestring, "(", *(*float64)(eface.data), ")")
	case abi.Complex64:
		print(typestring, *(*complex64)(eface.data))
	case abi.Complex128:
		print(typestring, *(*complex128)(eface.data))

				}
			case float64:
				field.ReflectValueOf(ctx, value).SetFloat(data)
			case float32:
				field.ReflectValueOf(ctx, value).SetFloat(float64(data))
			case int64:
				field.ReflectValueOf(ctx, value).SetFloat(float64(data))
			case int:
				field.ReflectValueOf(ctx, value).SetFloat(float64(data))
			case int8:
				field.ReflectValueOf(ctx, value).SetFloat(float64(data))
			case int16:

		ve float64 = 3.9496598225815571993e-3
	)

	testKe = make([]uint32, 256)
	testWe = make([]float32, 256)
	testFe = make([]float32, 256)

	q := ve / math.Exp(-de)
	testKe[0] = uint32((de / q) * m2)
	testKe[1] = 0
	testWe[0] = float32(q / m2)
	testWe[255] = float32(de / m2)
	testFe[0] = 1.0
	testFe[255] = float32(math.Exp(-de))
	for i := 254; i >= 1; i-- {
		de = -math.Log(ve/de + math.Exp(-de))

	switch tp.Kind() {
	case reflect.Map, reflect.Slice, reflect.Pointer:
		errs = append(errs, ensureNoTags(gvk, tp.Elem(), parents, typesAllowedTags)...)

	case reflect.String, reflect.Bool, reflect.Float32, reflect.Float64, reflect.Int32, reflect.Int64, reflect.Uint8, reflect.Uint16, reflect.Uint32, reflect.Uint64, reflect.Uintptr, reflect.Interface:
		// no-op

	case reflect.Struct:
		for i := 0; i < tp.NumField(); i++ {

type _ struct {
	bool
	a, b, c int
	int "tag"
	ES // comment
	float "tag"  // comment
	f int  // comment
	f, ff, fff, ffff int  // comment
	g float "tag"
	h float "tag"  // comment
}

type _ struct { a, b,
c, d int  // this line should be indented
u, v, w, x float // this line should be indented
p, q,
r, s float // this line should be indented
}


// difficult cases
type _ struct {