</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>

          mappedTo.writeUtf8CodePoint(readHexadecimalUnsignedLong().toInt())
        }
      }

      TYPE_DISALLOWED, TYPE_DISALLOWED_STD3_VALID, TYPE_IGNORED, TYPE_VALID -> Unit

      else -> throw IOException("unexpected type")
    }

    skipRestOfLine()

    result +=
      Mapping(
        sourceCodePoint0.toInt(),
        sourceCodePoint1.toInt(),
        type,
        mappedTo.readByteString(),

  )
}

/**
 * If [mapping] qualifies to be encoded as [MappedRange.InlineDelta] return new instance, otherwise null.
 * An [MappedRange.InlineDelta] must be a mapping from a single code-point to a single code-point with a difference
 * that can be represented in 2^18-1.
 */
internal fun inlineDeltaOrNull(mapping: Mapping): MappedRange.InlineDelta? {
  if (mapping.hasSingleSourceCodePoint) {

   * For example, the tags in this schema are 0 and 1:
   *
   * ```
   * Point ::= SEQUENCE {
   *   x [0] INTEGER OPTIONAL,
   *   y [1] INTEGER OPTIONAL
   * }
   * ```
   *
   * You may also specify a tag class like [DerHeader.TAG_CLASS_APPLICATION]. The default tag class
   * is [DerHeader.TAG_CLASS_CONTEXT_SPECIFIC].
   *
   * ```
   * Point ::= SEQUENCE {
   *   x [APPLICATION 0] INTEGER OPTIONAL,

func (p *{{.P}}Point) ScalarMult(q *{{.P}}Point, scalar []byte) (*{{.P}}Point, error) {
	// Compute a {{.p}}Table for the base point q. The explicit New{{.P}}Point
	// calls get inlined, letting the allocations live on the stack.
	var table = {{.p}}Table{New{{.P}}Point(), New{{.P}}Point(), New{{.P}}Point(),
		New{{.P}}Point(), New{{.P}}Point(), New{{.P}}Point(), New{{.P}}Point(),

	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,

    val flags = buf.readShort().toInt() and 0xffff
    require(flags shr 15 != 0) { "not a response" }

    val responseCode = flags and 0xf

    if (responseCode == NXDOMAIN) {
      throw UnknownHostException("$hostname: NXDOMAIN")
    } else if (responseCode == SERVFAIL) {
      throw UnknownHostException("$hostname: SERVFAIL")
    }

    val questionCount = buf.readShort().toInt() and 0xffff