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 Point) Sub(q Point) Point {
	return Point{p.X - q.X, p.Y - q.Y}
}

// Mul returns the vector p*k.
func (p Point) Mul(k int) Point {
	return Point{p.X * k, p.Y * k}
}

// Div returns the vector p/k.
func (p Point) Div(k int) Point {
	return Point{p.X / k, p.Y / k}
}

// In reports whether p is in r.
func (p Point) In(r Rectangle) bool {
	return r.Min.X <= p.X && p.X < r.Max.X &&

		image.Point{},
	},
	{
		"clip dr",
		image.Rect(0, 0, 100, 100),
		image.Rect(40, 40, 60, 60),
		image.Rect(0, 0, 100, 100),
		image.Rectangle{},
		image.Point{},
		image.Point{},
		true,
		image.Rect(40, 40, 60, 60),
		image.Pt(40, 40),
		image.Point{},
	},
	{
		"clip sr",
		image.Rect(0, 0, 100, 100),
		image.Rect(0, 0, 100, 100),
		image.Rect(20, 20, 80, 80),
		image.Rectangle{},
		image.Point{},

// Encoding and decoding is 1/1000th of the runtime of a scalar multiplication,
// so the overhead is acceptable.
type nistCurve[Point nistPoint[Point]] struct {
	newPoint func() Point
	params   *CurveParams
}

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

        mockGitOperation(listOf("git", "rev-parse", "--short", "master-fork-point"), "master-fork-point")

        // then
        verifyBaselineDetermination("my-branch", false, null, "5.1-commit-master-fork-point")
    }

    @Test
    fun `not determines fork point commit in security advisory fork`() {
        // given

			fn(a[i]-a[i-1], a[i+len(a)/2-2]-a[i+len(a)/2-1])
		}
	}
}

type Point struct {
	X, Y int
}

//go:noinline
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
}

func BenchmarkInvertLessThanNoov(b *testing.B) {
	p1 := Point{1, 2}
	p2 := Point{2, 3}
	p3 := Point{3, 4}
	for i := 0; i < b.N; i++ {
		sign(p1, p2, p3)
	}

func BenchmarkScalarBaseMult(b *testing.B) {
	var p Point

	for i := 0; i < b.N; i++ {
		p.ScalarBaseMult(dalekScalar)
	}
}

func BenchmarkScalarMult(b *testing.B) {
	var p Point

	for i := 0; i < b.N; i++ {
		p.ScalarMult(dalekScalar, B)
	}
}

func BenchmarkVarTimeDoubleScalarBaseMult(b *testing.B) {
	var p Point

	for i := 0; i < b.N; i++ {

	"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)