bias     int
}

var float32info = floatInfo{23, 8, -127}
var float64info = floatInfo{52, 11, -1023}

// FormatFloat converts the floating-point number f to a string,
// 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),

  val ideaVersionString = System.getProperty("idea.version") ?: return false

  return try {
    val (major, minor, _) = ideaVersionString.split(".", limit = 3)
    KotlinVersion(major.toInt(), minor.toInt()) < KotlinVersion(2023, 2)
  } catch (e: Exception) {
    false // Unknown version, presumably compatible.
  }

	%#v	a Go-syntax representation of the value
		(floating-point infinities and NaNs print as ±Inf and NaN)
	%T	a Go-syntax representation of the type of the value
	%%	a literal percent sign; consumes no value

Boolean:

	%t	the word true or false

Integer:

	%b	base 2
	%c	the character represented by the corresponding Unicode code point
	%d	base 10
	%o	base 8
	%O	base 8 with 0o prefix

//   signatures to convert. tag_names: Comma-separated list of tags for loading
//    SavedModel.
//   input_arg_shapes_str: A string representation of input argument
//    shapes for 'main' entry-point, separating tensors with ':', dimension
//    with ',', and using '?' for unknown sizes. For example,
//    'input-arg-shapes=1,2::1,?' expresses argument shapes [1,2], [] and [1,?].
//
// Returns:

			case windows.IF_TYPE_SOFTWARE_LOOPBACK:
				ifi.Flags |= FlagLoopback | FlagMulticast
			case windows.IF_TYPE_ATM:
				ifi.Flags |= FlagBroadcast | FlagPointToPoint | FlagMulticast // assume all services available; LANE, point-to-point and point-to-multipoint
			}
			if aa.Mtu == 0xffffffff {
				ifi.MTU = -1
			} else {
				ifi.MTU = int(aa.Mtu)
			}
			if aa.PhysicalAddressLength > 0 {

			}
		}
	}
}

func TestEncodeNonZeroMinPoint(t *testing.T) {
	points := []image.Point{
		{-8, -9},
		{-4, -4},
		{-3, +3},
		{+0, +0},
		{+2, +2},
	}
	for _, p := range points {
		src := image.NewPaletted(image.Rectangle{
			Min: p,
			Max: p.Add(image.Point{6, 6}),
		}, palette.Plan9)
		var buf bytes.Buffer
		if err := Encode(&buf, src, nil); err != nil {

// to provide any security property.
type CurveParams struct {
	P       *big.Int // the order of the underlying field
	N       *big.Int // the order of the base point
	B       *big.Int // the constant of the curve equation
	Gx, Gy  *big.Int // (x,y) of the base point
	BitSize int      // the size of the underlying field
	Name    string   // the canonical name of the curve
}

func (curve *CurveParams) Params() *CurveParams {

// %2 = stablehlo.constant  // Input 1 inverse scale 1 / s1.
// %3 = stablehlo.constant  // Input 1 zero point z1 (i8).
// %4 = stablehlo.constant  // Input 1 zero point z1 (i32).
// %5 = stablehlo.constant  // Input 2 inverse scale 1 / s2.
// %6 = stablehlo.constant  // Input 2 zero point z2 (i8).
// %7 = stablehlo.constant  // Input 2 zero point z2 (i32).
// %8 = stablehlo.constant  // Input 3 inverse scale 1 / s3.

     */
    public ModelBuilderException(ModelBuilderResult result) {
        super(result.toString());
        this.result = result;
    }

    /**
     * Gets the interim result of the model building up to the point where it failed.
     *
     * @return The interim model building result or {@code null} if not available.
     */
    public ModelBuilderResult getResult() {
        return result;
    }

    /**

	// Copy args to the stack.
	MOVQ	SP, DI
	CLD
	REP; MOVSQ
	MOVQ	SP, SI

	// Load first 4 args into correspondent registers.
	// Floating point arguments are passed in the XMM
	// registers. Set them here in case any of the arguments
	// are floating point values. For details see
	//	https://learn.microsoft.com/en-us/cpp/build/x64-calling-convention?view=msvc-170
_4args:
	MOVQ	24(SI), R9
	MOVQ	R9, X3
_3args: