"unsafe"
)

type Struct struct {
	Int8       int8
	Int16      int16
	Int32      int32
	Int64      int64
	Uint8      uint8
	Uint16     uint16
	Uint32     uint32
	Uint64     uint64
	Float32    float32
	Float64    float64
	Complex64  complex64
	Complex128 complex128
	Array      [4]uint8
	Bool       bool
	BoolArray  [4]bool
}

type T struct {
	Int     int
	Uint    uint
	Uintptr uintptr

table QuantizationParameters {
  // These four parameters are the asymmetric linear quantization parameters.
  // Given a quantized value q, the corresponding float value f should be:
  //   f = scale * (q - zero_point)
  // For other quantization types, the QuantizationDetails below is used.
  min:[float];  // For importing back into tensorflow.
  max:[float];  // For importing back into tensorflow.

			return
		}

		x.mode = novalue
		if check.recordTypes() {
			check.recordBuiltinType(call.Fun, makeSig(nil, map_, key))
		}

	case _Imag, _Real:
		// imag(complexT) floatT
		// real(complexT) floatT

		// convert or check untyped argument
		if isUntyped(x.typ) {
			if x.mode == constant_ {
				// an untyped constant number can always be considered
				// as a complex constant

		err = errors.New("entity too large")
		return
	}

	configuredPartSize := minPartSize
	// Use floats for part size for all calculations to avoid
	// overflows during float64 to int64 conversions.
	partSizeFlt := float64(objectSize / maxPartsCount)
	partSizeFlt = math.Ceil(partSizeFlt/float64(configuredPartSize)) * float64(configuredPartSize)

	// Part size.
	partSize = int64(partSizeFlt)
	if partSize == 0 {

		{`package e0; const _ = float32( 1e-200)`, `float32(1e-200)`, `float32`, `0`},
		{`package e1; const _ = float32(-1e-200)`, `float32(-1e-200)`, `float32`, `0`},
		{`package e2; const _ = float64( 1e-2000)`, `float64(1e-2000)`, `float64`, `0`},
		{`package e3; const _ = float64(-1e-2000)`, `float64(-1e-2000)`, `float64`, `0`},

}
</pre>

<p>
Union elements denote unions of type sets:
</p>

<pre>
// The Float interface represents all floating-point types
// (including any named types whose underlying types are
// either float32 or float64).
type Float interface {
	~float32 | ~float64
}
</pre>

<p>
The type <code>T</code> in a term of the form <code>T</code> or <code>~T</code> cannot

	case Uint, Uint8, Uint16, Uint32, Uint64, Uintptr:
		return v1.Uint() == v2.Uint()
	case String:
		return v1.String() == v2.String()
	case Bool:
		return v1.Bool() == v2.Bool()
	case Float32, Float64:
		return v1.Float() == v2.Float()
	case Complex64, Complex128:
		return v1.Complex() == v2.Complex()
	default:
		// Normal equality suffices
		return valueInterface(v1, false) == valueInterface(v2, false)
	}
}

					f, err := strconv.ParseFloat(s, bits)
					if err != nil {
						log.Fatal(err)
					}
					next := math.Nextafter
					if bits == 32 {
						next = func(g, h float64) float64 {
							return float64(math.Nextafter32(float32(g), float32(h)))
						}
					}
					test(f, bits)
					test(next(f, bigger), bits)
					test(next(f, smaller), bits)
					if nfail > 50 {
						t.Fatalf("stopping test early")

		{float32(1.0), " 1 ", false},
		{float32(-1.0), " -1 ", false},
		{float32(0.5), " 0.5 ", false},
		{float32(-0.5), " -0.5 ", false},
		{float32(1.0) / float32(256), " 0.00390625 ", false},
		{float32(0), " 0 ", false},
		{math.Copysign(0, -1), " -0 ", false},
		{float64(1.0), " 1 ", false},
		{float64(-1.0), " -1 ", false},
		{float64(0.5), " 0.5 ", false},

	// ppc64x:"FNABS\t"
	sink64[1] = -math.Abs(y)
}

// Check that it's using integer registers
func abs32(x float32) float32 {
	// s390x:"LPDFR",-"LDEBR",-"LEDBR"     (no float64 conversion)
	return float32(math.Abs(float64(x)))
}

// Check that it's using integer registers
func copysign(a, b, c float64) {
	// amd64:"BTRQ\t[$]63","ANDQ","ORQ"
	// s390x:"CPSDR",-"MOVD"         (no integer load/store)
	// ppc64x:"FCPSGN"