* The pointer to a key is stored in hashTable[Hashing.smear(key.hashCode()) % table.length],
   * save that if that location is already full, we try the next index, and the next, until we
   * find an empty table position.  Since the table has a power-of-two size, we use
   * & (table.length - 1) instead of % table.length, though.
   */

  private final transient @Nullable Object hashTable;

  }

  private static final int ENDPOINT = -2;

  // TODO(user): predecessors and successors should be collocated (reducing cache misses).
  // Might also explore collocating all of [hash, next, predecessor, successor] fields of an
  // entry in a *single* long[], though that reduces the maximum size of the set by a factor of 2

  /**

                // Set recommended heartbeat interval from server
                response.setRecommendedHeartbeatInterval(message.getHeartbeatInterval());
                log.debug("Witness heartbeat successful, next interval: {} ms", message.getHeartbeatInterval());
            } else {
                response.setError(message.getErrorMessage());
                log.warn("Witness heartbeat failed: {}", message.getErrorMessage());

	}

	ageDelta, err := time.ParseDuration(minimumObjectAge)
	if err != nil {
		log.Fatalln(err)
	}

	maxObjectModTime := time.Now().Add(-ageDelta)

	// Next object is used to ignore new objects in the source & target
	nextObject := func(ch <-chan minio.ObjectInfo) (ctnt minio.ObjectInfo, ok bool) {
		for {
			ctnt, ok := <-ch
			if !ok {
				return minio.ObjectInfo{}, false

          }
          collide = false;
          continue; // Retry with expanded table
        }
        h ^= h << 13; // Rehash
        h ^= h >>> 17;
        h ^= h << 5;
        hc[0] = h; // Record index for next time
      } else if (busy == 0 && cells == as && casBusy()) {
        boolean init = false;
        try { // Initialize table
          if (cells == as) {
            Cell[] rs = new Cell[2];

     * @return true if retry should be attempted
     */
    public boolean shouldRetry(int attemptNumber) {
        return retryPolicy.shouldRetry(this, attemptNumber);
    }

    /**
     * Get the delay before next retry
     *
     * @param attemptNumber the current attempt number
     * @return delay in milliseconds
     */
    public long getRetryDelayMs(int attemptNumber) {

		select {
		case <-ctx.Done():
			return
		case <-monitor.C:
			if serverDebugLog {
				console.Debugln("running drive monitoring")
			}

			s.connectDisks(true)

			// Reset the timer for next interval
			monitor.Reset(monitorInterval)
		}
	}
}

func (s *erasureSets) GetLockers(setIndex int) func() ([]dsync.NetLocker, string) {
	return func() ([]dsync.NetLocker, string) {

        boolean result = request.isResponseAsync();

        // Then
        assertFalse(result);
        verify(request, times(1)).isResponseAsync();
    }

    @Test
    @DisplayName("Test getNext returns next chained message")
    void testGetNextWithChainedMessage() {
        // Given
        when(request.getNext()).thenReturn(nextRequest);

        // When
        CommonServerMessageBlockRequest result = request.getNext();

	fsDirs, err := getRandomDisks(nDisks)
	if err != nil {
		b.Fatal(err)
	}

	endpoints := mustGetNewEndpoints(0, 16, fsDirs...)
	b.RunParallel(func(pb *testing.PB) {
		endpoints := endpoints
		for pb.Next() {
			initStorageDisksWithErrors(endpoints, storageOpts{cleanUp: false, healthCheck: false})
		}
	})

    void testGetService() {
        // When
        String service = response.getService();

        // Then
        assertNull(service);
    }

    @Test
    @DisplayName("Should prepare next request correctly when received")
    void testPrepareWhenReceived() throws Exception {
        // Given
        ServerMessageBlock2Request mockNext = mock(ServerMessageBlock2Request.class);