</contributor>
    <contributor>
      <name>Mike Mol (MNG-6665)</name>
    </contributor>
    <contributor>
      <name>Martin Kanters</name>
      <organization>JPoint</organization>
    </contributor>
    <contributor>
      <name>Maarten Mulders</name>
      <organization>Info Support</organization>
    </contributor>
    <contributor>
      <name>Luc Klaassen (MNG-6065)</name>

	if err != nil {
		return nil, err
	}
	return priv, nil
}

// randomPoint returns a random scalar and the corresponding point using the
// procedure given in FIPS 186-4, Appendix B.5.2 (rejection sampling).
func randomPoint[Point nistPoint[Point]](c *nistCurve[Point], rand io.Reader) (k *bigmod.Nat, p Point, err error) {
	k = bigmod.NewNat()
	for {
		b := make([]byte, c.N.Size())
		if _, err = io.ReadFull(rand, b); err != nil {

                            System.out.println("id = " + getRestricted().getId().get());
                            Extension.Point point = referencePoint.getOrElse(getRestricted().point(-1, -1));
                            System.out.println("referencePoint = (" + point.getX() + ", " + point.getY() + ")");
                            System.out.println("primaryAccess = { " +

	"crypto/internal/nistec"
	"crypto/internal/randutil"
	"errors"
	"internal/byteorder"
	"io"
	"math/bits"
)

type nistCurve[Point nistPoint[Point]] struct {
	name        string
	newPoint    func() Point
	scalarOrder []byte
}

// nistPoint is a generic constraint for the nistec Point types.
type nistPoint[T any] interface {
	Bytes() []byte
	BytesX() ([]byte, error)
	SetBytes([]byte) (T, error)

	// to passing floating-point argument values. Result registers are
	// identical to argument registers, so this number is used for
	// those too.
	FloatArgRegs = 0

	// EffectiveFloatRegSize describes the width of floating point
	// registers on the current platform from the ABI's perspective.
	//
	// Since Go only supports 32-bit and 64-bit floating point primitives,

func p256Select(res *P256Point, table *p256Table, idx int)

// p256AffinePoint is a point in affine coordinates (x, y). x and y are still
// Montgomery domain elements. The point can't be the point at infinity.
type p256AffinePoint struct {
	x, y p256Element
}

// p256AffineTable is a table of the first 32 multiples of a point. Points are
// stored at an index offset of -1 like in p256Table, and [0]P is not stored.

    }
    runtime(project(":gradle-cli-main")) {
        because("This is the entry point of the `gradle` command.")
    }
    runtime(project(":daemon-main")) {
        because("This is the entry point of the Gradle daemon.")
    }
    runtime(project(":tooling-api-provider")) {
        because("This is the entry point of the tooling API provider, which is the version-specific client part of the tooling API.")
    }

</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}}

}

// 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