}

		// FIPS 186-4 makes us check k <= N - 2 and then add one.
		// Checking 0 < k <= N - 1 is strictly equivalent.
		// None of this matters anyway because the chance of selecting
		// zero is cryptographically negligible.
		if _, err = k.SetBytes(b, c.N); err == nil && k.IsZero() == 0 {
			break
		}

		if testingOnlyRejectionSamplingLooped != nil {
			testingOnlyRejectionSamplingLooped()
		}
	}

    new_outputs = root.signatures['serving_default'](
        input_tensor=ops.convert_to_tensor(input_data)
    )

    # Indirectly tests that the model is not quantized by asserting that there
    # are negligible numeric difference.
    self.assertAllClose(new_outputs, expected_outputs, rtol=0.000001)

    # Due to other meta data, the compression is not exactly 1/4.
    self.assertLess(
        testing.get_size_ratio(

		// The use of math.Ceil here means that the results might sum
		// to a little more than serverConcurrencyLimit but the
		// difference will be negligible.
		concurrencyLimit := int(math.Ceil(float64(meal.cfgCtlr.serverConcurrencyLimit) * float64(*nominalConcurrencyShares) / meal.shareSum))
		var lendableCL, borrowingCL int
		if lendablePercent != nil {

	// are empty. This should be ensured by gcMarkDone before we
	// enter mark termination.
	//
	// TODO: We could clear out buffers just before mark if this
	// has a non-negligible impact on STW time.
	for _, p := range allp {
		// The write barrier may have buffered pointers since
		// the gcMarkDone barrier. However, since the barrier
		// ensured all reachable objects were marked, all of

int64_t L2NormalizationOp::GetArithmeticCount(Operation* op) {
  int64_t count;
  // Computing the squared L2 norm is N multiply-adds so 2N ops,
  // then the single inverse-sqrt is negligible, then we multiply each
  // value by the resulting multiplier, so an extra N ops. count 3N ops.
  if (ArithmeticCountUtilHelper::GetFirstOutputCount(op, &count)) {
    return 3 * count;
  }

  return -1;

		// add them to the eligible nodes
		nodeNames := util.GetLocalPersistentVolumeNodeNames(pv)
		if len(nodeNames) != 0 {
			// on the first found list of eligible nodes for the local PersistentVolume,
			// insert to the eligible node set.
			if eligibleNodes == nil {
				eligibleNodes = sets.New(nodeNames...)
			} else {
				// for subsequent finding of eligible nodes for the local PersistentVolume,

    if (pooled2 != null) return pooled2

    return connect
  }

  /**
   * Returns the connection already attached to the call if it's eligible for a new exchange.
   *
   * If the call's connection exists and is eligible for another exchange, it is returned. If it
   * exists but cannot be used for another exchange, it is closed and this returns null.
   */

### Timer changes

Go 1.23 makes two significant changes to the implementation of
[time.Timer] and [time.Ticker].

<!-- go.dev/issue/61542 -->
First, `Timer`s and `Ticker`s that are no longer referred to by the program
become eligible for garbage collection immediately, even if their
`Stop` methods have not been called.
Earlier versions of Go did not collect unstopped `Timer`s until after
they had fired and never collected unstopped `Ticker`s.

	dur := 100 * time.Millisecond
	func() {
		// Create a region in the execution trace. Set and clear goroutine
		// labels fully within that region, so we know that any CPU profile
		// sample with the label must also be eligible for inclusion in the
		// execution trace.
		ctx := context.Background()
		defer trace.StartRegion(ctx, "cpuHogger").End()
		pprof.Do(ctx, pprof.Labels("tracing", "on"), func(ctx context.Context) {

Weak pointers are pointers that explicitly do not keep a value live and
must be queried for a regular Go pointer.
The result of such a query may be observed as nil at any point after a
weakly-pointed-to object becomes eligible for reclamation by the garbage
collector.
More specifically, weak pointers become nil as soon as the garbage collector
identifies that the object is unreachable, before it is made reachable
again by a finalizer.