// Generates many inputs, builds and checks suffix arrays.
func test(t *testing.T, build func([]byte) []int) {
	t.Run("ababab...", func(t *testing.T) {
		// Very repetitive input has numLMS = len(x)/2-1
		// at top level, the largest it can be.
		// But maxID is only two (aba and ab$).
		size := 100000
		if testing.Short() {
			size = 10000
		}
		x := make([]byte, size)
		for i := range x {
			x[i] = "ab"[i%2]
		}

</ul>

<h2>Garbage collection metrics</h2>
<ul>
<li><a href="/mmu">Minimum mutator utilization</a></li>
</ul>
<p>
  This chart indicates the maximum GC pause time (the largest x value
  for which y is zero), and more generally, the fraction of time that
  the processors are available to application goroutines ("mutators"),
  for any time window of a specified size, in the worst case.
</p>

      throw new ArithmeticException("ceilingPowerOfTwo(" + x + ") is not representable as a long");
    }
    return 1L << -Long.numberOfLeadingZeros(x - 1);
  }

  /**
   * Returns the largest power of two less than or equal to {@code x}. This is equivalent to {@code
   * checkedPow(2, log2(x, FLOOR))}.
   *
   * @throws IllegalArgumentException if {@code x <= 0}
   * @since 20.0
   */

	// prefers setCounts to be sorted for optimal behavior.
	if divisibleSize < setCounts[len(setCounts)-1] {
		return divisibleSize
	}

	// Figure out largest value of total_drives_in_erasure_set which results
	// in least number of total_drives/total_drives_erasure_set ratio.
	prevD := divisibleSize / setCounts[0]
	for _, cnt := range setCounts {
		if divisibleSize%cnt == 0 {

   * @since 20.0
   */
  public static BigInteger ceilingPowerOfTwo(BigInteger x) {
    return BigInteger.ZERO.setBit(log2(x, CEILING));
  }

  /**
   * Returns the largest power of two less than or equal to {@code x}. This is equivalent to {@code
   * BigInteger.valueOf(2).pow(log2(x, FLOOR))}.
   *
   * @throws IllegalArgumentException if {@code x <= 0}
   * @since 20.0
   */

		// https://github.com/etcd-io/etcd/blob/release-3.4/embed/config.go#L56.
		// A request body might be encoded in json, and is converted to
		// proto when persisted in etcd, so we allow 2x as the largest size
		// increase the "copy" operations in a json patch may cause.
		JSONPatchMaxCopyBytes: int64(3 * 1024 * 1024),
		// 1.5MB is the recommended client request size in byte
		// the etcd server should accept. See

    display(xscale, pos, neg, displayList);
  }

  // renderStacks creates boxes with top-left at x,y with children drawn as
  // nested stacks (below or above based on the sign of direction).
  // Returns the largest y coordinate filled.
  function renderStacks(depth, xscale, x, y, places, direction) {
    // Example: suppose we are drawing the following stacks:
    //   a->b->c
    //   a->b->d
    //   a->e->f

				dumpfinalizer(p, spf.fn, spf.fint, spf.ot)
			}
		}
	}

	// Finalizer queue
	iterate_finq(finq_callback)
}

// Bit vector of free marks.
// Needs to be as big as the largest number of objects per span.
var freemark [_PageSize / 8]bool

func dumpobjs() {
	// To protect mheap_.allspans.
	assertWorldStopped()

	for _, s := range mheap_.allspans {

		handle:                          h,
		resourceAllocationScorer:        *scorePlugin(args),
	}, nil
}

// computePodResourceRequest returns a framework.Resource that covers the largest
// width in each resource dimension. Because init-containers run sequentially, we collect
// the max in each dimension iteratively. In contrast, we sum the resource vectors for
// regular containers since they run simultaneously.

   * #MANY_VALUES_COUNT} values. If all the values are finite then the mean is {@link
   * #MANY_VALUES_MEAN} and the sum-of-squares-of-deltas is {@link
   * #MANY_VALUES_SUM_OF_SQUARES_OF_DELTAS}. The smallest and largest finite values are always
   * {@link #MANY_VALUES_MIN} and {@link #MANY_VALUES_MAX}, although setting non-finite values will
   * change the true min and max.
   */
  static class ManyValues {