</p>

<pre>
[...]Point{{1.5, -3.5}, {0, 0}}     // same as [...]Point{Point{1.5, -3.5}, Point{0, 0}}
[][]int{{1, 2, 3}, {4, 5}}          // same as [][]int{[]int{1, 2, 3}, []int{4, 5}}
[][]Point{{{0, 1}, {1, 2}}}         // same as [][]Point{[]Point{Point{0, 1}, Point{1, 2}}}
map[string]Point{"orig": {0, 0}}    // same as map[string]Point{"orig": Point{0, 0}}

func (p *RGBA) Set(x, y int, c color.Color) {
	if !(Point{x, y}.In(p.Rect)) {
		return
	}
	i := p.PixOffset(x, y)
	c1 := color.RGBAModel.Convert(c).(color.RGBA)
	s := p.Pix[i : i+4 : i+4] // Small cap improves performance, see https://golang.org/issue/27857
	s[0] = c1.R
	s[1] = c1.G
	s[2] = c1.B
	s[3] = c1.A
}

func (p *RGBA) SetRGBA64(x, y int, c color.RGBA64) {
	if !(Point{x, y}.In(p.Rect)) {
		return
	}

	AFCLASSS

	// 12.3: Double-Precision Load and Store Instructions
	AFLD
	AFSD

	// 12.4: Double-Precision Floating-Point Computational Instructions
	AFADDD
	AFSUBD
	AFMULD
	AFDIVD
	AFMIND
	AFMAXD
	AFSQRTD
	AFMADDD
	AFMSUBD
	AFNMADDD
	AFNMSUBD

	// 12.5: Double-Precision Floating-Point Conversion and Move Instructions
	AFCVTWD
	AFCVTLD
	AFCVTDW

}

// Less reports whether x is less than y.
// For floating-point types, a NaN is considered less than any non-NaN,
// and -0.0 is not less than (is equal to) 0.0.
func Less[T Ordered](x, y T) bool {
	return (isNaN(x) && !isNaN(y)) || x < y
}

// Compare returns
//
//	-1 if x is less than y,
//	 0 if x equals y,
//	+1 if x is greater than y.
//
// For floating-point types, a NaN is considered less than any non-NaN,

	PT_FPR8                 = 24  // Floating point register 8
	PT_FPR9                 = 25  // Floating point register 9
	PT_FPR10                = 26  // Floating point register 10
	PT_FPR11                = 27  // Floating point register 11
	PT_FPR12                = 28  // Floating point register 12
	PT_FPR13                = 29  // Floating point register 13
	PT_FPR14                = 30  // Floating point register 14

const p256ElementLength = 32

// P256Point is a P256 point. The zero value is NOT valid.
type P256Point struct {
	// The point is represented in projective coordinates (X:Y:Z),
	// where x = X/Z and y = Y/Z.
	x, y, z *fiat.P256Element
}

// NewP256Point returns a new P256Point representing the point at infinity point.
func NewP256Point() *P256Point {
	return &P256Point{
		x: new(fiat.P256Element),

      val byte0 = tagClass or constructedBit or tag.toInt()
      sink.writeByte(byte0)
    } else {
      val byte0 = tagClass or constructedBit or 0b0001_1111
      sink.writeByte(byte0)
      writeVariableLengthLong(tag)
    }

    // Write the length. This takes 1 byte if length is less than 128.
    val length = content.size
    if (length < 128) {
      sink.writeByte(length.toInt())
    } else {

// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.

package p

func sign(p1, p2, p3 point) bool {
	return (p1.x-p3.x)*(p2.y-p3.y)-(p2.x-p3.x)*(p1.y-p3.y) < 0
}

type point struct {
	x, y int

// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.

// Goroutine preemption
//
// A goroutine can be preempted at any safe-point. Currently, there
// are a few categories of safe-points:
//
// 1. A blocked safe-point occurs for the duration that a goroutine is
//    descheduled, blocked on synchronization, or in a system call.
//
// 2. Synchronous safe-points occur when a running goroutine checks

   (HasStaticShapeConstraint $filter),
   (HasStaticShapeAtDimsConstraint<"3"> $input)],
  [], (addBenefit 10)>;

// Same as ConvertTFConv2DToXLAConvOp but handles the case where input zero
// point is dynaically calculated so not a constant.
def ConvertTFConv2DToXLAConvOpDynamicRange : Pat<
  (TF_Conv2DOp:$conv
    (TF_SubOp:$input (TF_CastOp $input_i8, $truncate0), $input_zp),