throw new RuntimeException(Arrays.toString(stimuli), e);
    }
  }

  private void recurse(int level) {
    // We're going to reuse the stimuli array 3^steps times by overwriting it
    // in a recursive loop.  Sneaky.
    if (level == stimuli.length) {
      // We've filled the array.
      compareResultsForThisListOfStimuli();
    } else {
      // Keep recursing to fill the array.

// in the pallocBits and returns the index.
//
// See find for an explanation of the searchIdx parameter.
func (b *pallocBits) find1(searchIdx uint) uint {
	_ = b[0] // lift nil check out of loop
	for i := searchIdx / 64; i < uint(len(b)); i++ {
		x := b[i]
		if ^x == 0 {
			continue
		}
		return i*64 + uint(sys.TrailingZeros64(^x))
	}
	return ^uint(0)
}

				if !m.closed {
					gridLogIf(m.ctx, m.sendLocked(message{Op: OpUnblockSrvMux, MuxID: m.MuxID}))
				}
				m.respMu.Unlock()
			case <-m.ctx.Done():
				// Client canceled. Don't block.
				// Next loop will catch it.
			case <-pingTimer:
				if !m.doPing(respHandler) {
					return
				}
				goto sendResp
			}
		case <-pingTimer:
			if !m.doPing(respHandler) {
				return
			}
		}
	}

	cachedPostorder  []*Block   // cached postorder traversal
	cachedIdom       []*Block   // cached immediate dominators
	cachedSdom       SparseTree // cached dominator tree
	cachedLoopnest   *loopnest  // cached loop nest information
	cachedLineStarts *xposmap   // cached map/set of xpos to integers

	auxmap    auxmap             // map from aux values to opaque ids used by CSE

      CompactHashing.tableSet(newTable, targetHash & newMask, targetEntryIndex + 1);
    }

    Object oldTable = requireTable();
    int[] entries = requireEntries();

    // Loop over `oldTable` to construct its replacement, ``newTable`. The entries do not move, so
    // the `keys` and `values` arrays do not need to change. But because the "short hash" now has a

		// add calls to AddUint32/StoreUint32, and we don't want to
		// somehow create an infinite loop.
		//
		// Note that in the current implementation (Go 1.20) both
		// routines are assembly stubs that forward calls to the
		// internal/runtime/atomic equivalents, hence the infinite
		// loop scenario is purely theoretical (maybe if in some
		// future implementation one of these functions might be

func (hc hostClassification) Matches(h host.Name) bool {
	// exact lookup is fast, so check that first
	if hc.exactHosts.Contains(h) {
		return true
	}

	// exactHosts not found, fallback to loop allHosts
	hIsWildCarded := h.IsWildCarded()
	for _, importedHost := range hc.allHosts {
		// If both are exact hosts, then fallback is not needed.
		// In this scenario it should be determined by exact lookup.

			partStart = i
			break
		}
		cumulativeSum += size
		encPartSize, _ := sio.EncryptedSize(uint64(size))
		encCumulativeSum += int64(encPartSize)
	}
	// partStart is always found in the loop above,
	// because off is validated.

	sseDAREEncPackageBlockSize := int64(SSEDAREPackageBlockSize + SSEDAREPackageMetaSize)
	startPkgNum := (off - cumulativeSum) / SSEDAREPackageBlockSize

  public void testNoRaceConditions() throws Exception {
    final BloomFilter<Integer> bloomFilter =
        BloomFilter.create(Funnels.integerFunnel(), 15_000_000, 0.01);

    // This check has to be BEFORE the loop because the random insertions can
    // flip GOLDEN_PRESENT_KEY to true even if it wasn't explicitly inserted
    // (false positive).
    assertThat(bloomFilter.mightContain(GOLDEN_PRESENT_KEY)).isFalse();

      }
    }
  }

  private void recurse(int level) {
    // We're going to reuse the stimuli array 3^steps times by overwriting it
    // in a recursive loop.  Sneaky.
    if (level == stimuli.length) {
      // We've filled the array.
      compareResultsForThisListOfStimuli();
    } else {
      // Keep recursing to fill the array.