var BigEndian bigEndian

type littleEndian struct{}

func (littleEndian) Uint16(b []byte) uint16 {
	_ = b[1] // bounds check hint to compiler; see golang.org/issue/14808
	return uint16(b[0]) | uint16(b[1])<<8
}

func (littleEndian) PutUint16(b []byte, v uint16) {
	_ = b[1] // early bounds check to guarantee safety of writes below
	b[0] = byte(v)
	b[1] = byte(v >> 8)
}

func (x *Nat) Equal(y *Nat) choice {
	// Eliminate bounds checks in the loop.
	size := len(x.limbs)
	xLimbs := x.limbs[:size]
	yLimbs := y.limbs[:size]

	equal := yes
	for i := 0; i < size; i++ {
		equal &= ctEq(xLimbs[i], yLimbs[i])
	}
	return equal
}

// IsZero returns 1 if x == 0, and 0 otherwise.
func (x *Nat) IsZero() choice {
	// Eliminate bounds checks in the loop.
	size := len(x.limbs)

		return
	}

	b := pm.Bounds()
	if b.Min.X < 0 || b.Max.X >= 1<<16 || b.Min.Y < 0 || b.Max.Y >= 1<<16 {
		e.err = errors.New("gif: image block is too large to encode")
		return
	}
	if !b.In(image.Rectangle{Max: image.Point{e.g.Config.Width, e.g.Config.Height}}) {
		e.err = errors.New("gif: image block is out of bounds")
		return
	}

	transparentIndex := -1

        assertFullMessageCorrect("""   > Found multiple transforms that can produce a variant of project : with requested attributes:
       - color 'red'
       - shape 'round'
     Found the following transforms:
       - From 'configuration ':roundBlueLiquidElements'':
           - With source attributes:
               - color 'blue'
               - shape 'round'
               - state 'liquid'

	case i <= rune1Max:
		p[0] = byte(r)
		return 1
	case i <= rune2Max:
		_ = p[1] // eliminate bounds checks
		p[0] = t2 | byte(r>>6)
		p[1] = tx | byte(r)&maskx
		return 2
	case i > MaxRune, surrogateMin <= i && i <= surrogateMax:
		r = RuneError
		fallthrough
	case i <= rune3Max:
		_ = p[2] // eliminate bounds checks
		p[0] = t3 | byte(r>>12)
		p[1] = tx | byte(r>>6)&maskx
		p[2] = tx | byte(r)&maskx

      if (type == null) {
        Type[] bounds = var.getBounds();
        if (bounds.length == 0) {
          return var;
        }
        Type[] resolvedBounds = new TypeResolver(forDependants).resolveTypes(bounds);
        /*
         * We'd like to simply create our own TypeVariable with the newly resolved bounds. There's

		return "", fmt.Errorf("invalid suffix, require round mode bit:%x", u)
	}

	u &^= rmSuffixBit
	for k, v := range rmSuffixSet {
		if v == u {
			return k, nil
		}
	}
	return "", fmt.Errorf("unknown suffix:%x", u)
}

const (
	RM_RNE uint8 = iota // Round to Nearest, ties to Even
	RM_RTZ              // Round towards Zero
	RM_RDN              // Round Down
	RM_RUP              // Round Up

       * complementLowerBoundWindow. Complement range lower bounds are either positive range upper
       * bounds, or Cut.belowAll().
       *
       * positiveItr starts at the first positive range with lower bound greater than
       * firstComplementRangeLowerBound. (Positive range lower bounds correspond to complement range
       * upper bounds.)
       */

  module attributes {tf.versions = {bad_consumers = [], min_consumer = 0 : i32, producer = 268 : i32}} {
  func.func @main(%arg0: tensor<?xi32, #mhlo.type_extensions<bounds = [3]>> ) -> (tensor<?xi32, #mhlo.type_extensions<bounds = [3]>>) {
    func.return %arg0 : tensor<?xi32, #mhlo.type_extensions<bounds = [3]>>
  }
})";

  auto compilation_result = CompileMlirModule(
      kMlirModuleWithBoundedDynamicArgStr,

       * complementLowerBoundWindow. Complement range lower bounds are either positive range upper
       * bounds, or Cut.belowAll().
       *
       * positiveItr starts at the first positive range with lower bound greater than
       * firstComplementRangeLowerBound. (Positive range lower bounds correspond to complement range
       * upper bounds.)
       */