// Annotation indicating the number of failures for the index corresponding
	// to the pod, which are counted towards the backoff limit.
	JobIndexFailureCountAnnotation = labelPrefix + "job-index-failure-count"
	// Annotation indicating the number of failures for the index corresponding
	// to the pod, which don't count towards the backoff limit, according to the
	// pod failure policy. When the annotation is absent zero is implied.

	// Annotation indicating the number of failures for the index corresponding
	// to the pod, which are counted towards the backoff limit.
	JobIndexFailureCountAnnotation = labelPrefix + "job-index-failure-count"
	// Annotation indicating the number of failures for the index corresponding
	// to the pod, which don't count towards the backoff limit, according to the
	// pod failure policy. When the annotation is absent zero is implied.

	"colspan":         contentTypePlain,
	"content":         contentTypeUnsafe,
	"contenteditable": contentTypePlain,
	"contextmenu":     contentTypePlain,
	"controls":        contentTypePlain,
	"coords":          contentTypePlain,
	"crossorigin":     contentTypeUnsafe,
	"data":            contentTypeURL,
	"datetime":        contentTypePlain,
	"default":         contentTypePlain,
	"defer":           contentTypeUnsafe,

    int begin;
    int end;
    int insert;
  };

  // Gives the peak memory location and size after inserting operations
  // according to `remat` (but doesn't actually insert them.)  Ties are broken
  // towards later locations. `remat` must be valid (see above).
  MemSpec GetPeakMemory(const RematSpec& remat = {}) const;

  // Gives memory profile after inserting operations according to `remat` (but

	indVarMaxInc                            // maximum value is inclusive (default: exclusive)
	indVarCountDown                         // if set the iteration starts at max and count towards min (default: min towards max)
)

type indVar struct {
	ind   *Value // induction variable
	nxt   *Value // the incremented variable
	min   *Value // minimum value, inclusive/exclusive depends on flags

are given, and thereby a Lens be formed, which shall make the Rays flow towards or from what Place you please.[B] So then the Meaning of this Axiom is, that if Rays fall upon any Plane or Spherical Surface or Lens, and before their Incidence flow from or towards any Point Q, they shall after Reflexion or Refraction flow from or towards the Point _q_ found by the foregoing Rules. And if the incident Rays flow from or towards several points Q, the reflected or refracted Rays shall flow from or towards...

    int rem = p - q * div; // equal to p % q

    if (rem == 0) {
      return div;
    }

    /*
     * Normal Java division rounds towards 0, consistently with RoundingMode.DOWN. We just have to
     * deal with the cases where rounding towards 0 is wrong, which typically depends on the sign of
     * p / q.
     *
     * signum is 1 if p and q are both nonnegative or both negative, and -1 otherwise.
     */

    int rem = p - q * div; // equal to p % q

    if (rem == 0) {
      return div;
    }

    /*
     * Normal Java division rounds towards 0, consistently with RoundingMode.DOWN. We just have to
     * deal with the cases where rounding towards 0 is wrong, which typically depends on the sign of
     * p / q.
     *
     * signum is 1 if p and q are both nonnegative or both negative, and -1 otherwise.
     */

shall make the Rays flow towards or from what Place you please.[B]

So then the Meaning of this Axiom is, that if Rays fall upon any Plane
or Spherical Surface or Lens, and before their Incidence flow from or
towards any Point Q, they shall after Reflexion or Refraction flow from
or towards the Point _q_ found by the foregoing Rules. And if the
incident Rays flow from or towards several points Q, the reflected or

var scOne, _ = new(Scalar).SetCanonicalBytes(scOneBytes[:])
var scMinusOne, _ = new(Scalar).SetCanonicalBytes(scalarMinusOneBytes[:])

// Generate returns a valid (reduced modulo l) Scalar with a distribution
// weighted towards high, low, and edge values.
func (Scalar) Generate(rand *mathrand.Rand, size int) reflect.Value {
	var s [32]byte
	diceRoll := rand.Intn(100)
	switch {
	case diceRoll == 0:
	case diceRoll == 1:
		s = scOneBytes