d.mu.RUnlock()
		// Don't sleep for really small amount of time
		wantSleep := time.Duration(float64(base) * factor)
		if wantSleep <= minWait {
			return
		}
		if maxWait > 0 && wantSleep > maxWait {
			wantSleep = maxWait
		}
		timer := time.NewTimer(wantSleep)
		select {
		case <-ctx.Done():
			if !timer.Stop() {
				<-timer.C
				if d.isScanner {

          public final void awaitRunning(long timeout, TimeUnit unit) throws TimeoutException {
            delegate.awaitRunning(timeout, unit);
          }

          @Override
          public final void awaitTerminated() {
            delegate.awaitTerminated();
          }

          @Override
          public final void awaitTerminated(long timeout, TimeUnit unit) throws TimeoutException {

            auth1.equals(auth2);
        }
    }

    /**
     * Test that password comparison is constant-time by comparing execution times
     * for passwords that differ at different positions.
     */
    @Test
    public void testConstantTimePasswordComparison() throws Exception {

        boolean async = request.isResponseAsync();
        int size = request.size();
        Integer timeout = request.getOverrideTimeout();
        boolean canChain = request.allowChain(nextRequest);

        // Then
        assertTrue(async);
        assertEquals(100, size);
        assertEquals(3000, timeout);
        assertTrue(canChain);
        verify(request).isResponseAsync();
        verify(request).size();

            }
            return;
        }

        final int timeout = getTimeout();
        final RequestConfig requestConfig = RequestConfig.custom()
                .setConnectionRequestTimeout(Timeout.ofMilliseconds(timeout))
                .setResponseTimeout(Timeout.ofMilliseconds(timeout))
                .build();
        httpClient = HttpClients.custom()

    }

    /**
     * Gets the current time as a Date object.
     *
     * @return The current time.
     */
    public Date getCurrentTime() {
        return new Date(getCurrentTimeAsLong());
    }

    /**
     * Gets the current time in milliseconds.
     *
     * @return The current time in milliseconds.
     */
    public long getCurrentTimeAsLong() {

        }

        // Start all threads simultaneously
        startLatch.countDown();

        // Wait for completion
        assertTrue(endLatch.await(30, TimeUnit.SECONDS), "All threads should complete within timeout");
        executor.shutdown();

        // Then - Verify no exceptions occurred
        if (!exceptions.isEmpty()) {
            fail("Concurrent operations caused exceptions: " + exceptions.get(0));
        }

	if d == "" {
		cfg.MaxTimeout = 30 * time.Second
	} else {
		dur, _ := time.ParseDuration(d)
		if dur < time.Second {
			cfg.MaxTimeout = 30 * time.Second
		} else {
			cfg.MaxTimeout = getMaxTimeout(dur)
		}
	}
	return cfg, err
}

func getMaxTimeout(t time.Duration) time.Duration {
	if t > time.Second {
		return t
	}
	// get default value

  }

  /**
   * Enters this monitor. Blocks at most the given time, and may be interrupted.
   *
   * @return whether the monitor was entered
   * @throws InterruptedException if interrupted while waiting
   */
  @SuppressWarnings("GoodTime") // should accept a java.time.Duration
  public boolean enterInterruptibly(long time, TimeUnit unit) throws InterruptedException {
    return lock.tryLock(time, unit);

	// 	if trhttp2 != nil {
	// 		// ReadIdleTimeout is the timeout after which a health check using ping
	// 		// frame will be carried out if no frame is received on the
	// 		// connection. 5 minutes is sufficient time for any idle connection.
	// 		trhttp2.ReadIdleTimeout = 5 * time.Minute
	// 		// PingTimeout is the timeout after which the connection will be closed
	// 		// if a response to Ping is not received.