if len(evictor.queue.queue) != len(queuePattern) {
		t.Fatalf("Queue %v should have length %d", evictor.queue.queue, len(queuePattern))
	}
	if !CheckQueueEq(queuePattern, evictor.queue.queue) {
		t.Errorf("Invalid queue. Got %v, expected %v", evictor.queue.queue, queuePattern)
	}

	setPattern := sets.NewString("first", "second", "third")
	if len(evictor.queue.set) != len(setPattern) {

   *
   * @param queue the queue to be wrapped in a synchronized view
   * @return a synchronized view of the specified queue
   * @since 14.0
   */
  public static <E extends @Nullable Object> Queue<E> synchronizedQueue(Queue<E> queue) {
    return Synchronized.queue(queue, null);
  }

  /**
   * Returns a synchronized (thread-safe) deque backed by the specified deque. In order to guarantee

    delayNanos: Long,
  ) {
    lock.assertHeld()

    val queue = task.queue!!
    check(queue.activeTask === task)

    val cancelActiveTask = queue.cancelActiveTask
    queue.cancelActiveTask = false
    queue.activeTask = null
    busyQueues.remove(queue)

    if (delayNanos != -1L && !cancelActiveTask && !queue.shutdown) {
      queue.scheduleAndDecide(task, delayNanos, recurrence = true)
    }

					qs.qCfg.Name, now.Format(nsTimeFmt), qs.currentR, r.descr1, r.descr2, r.workEstimate.MaxSeats(), r.queue.index,
					r.queue.nextDispatchR, actualServiceDuration.Seconds(), r.queue.requestsWaiting.Length(), r.queue.requestsWaiting.QueueSum(), r.queue.requestsExecuting.Len(), r.queue.seatsInUse)
			} else {

 * defined as the <i>least</i> element in the queue according to the queue's comparator. But unlike
 * a regular priority queue, the methods {@link #peekLast}, {@link #pollLast} and {@link
 * #removeLast} are also provided, to act on the <i>greatest</i> element in the queue instead.
 *
 * <p>A min-max priority queue can be configured with a maximum size. If so, each time the size of

   *
   * @param queue the queue to be wrapped in a synchronized view
   * @return a synchronized view of the specified queue
   * @since 14.0
   */
  public static <E extends @Nullable Object> Queue<E> synchronizedQueue(Queue<E> queue) {
    return Synchronized.queue(queue, null);
  }

  /**
   * Returns a synchronized (thread-safe) deque backed by the specified deque. In order to guarantee

/**
 * A bounded {@linkplain BlockingQueue blocking queue} backed by an array. This queue orders
 * elements FIFO (first-in-first-out). The head of the queue is that element that has been
 * on the queue the longest time. The tail of the queue is that element that has been on
 * the queue the shortest time. New elements are inserted at the tail of the queue, and the queue
 * retrieval operations obtain elements at the head of the queue.

    private final BlockingQueue<String> queue;

    public EnableWrites(BlockingQueue<String> queue, long tMinus) {
      super(tMinus);
      assertFalse(queue.isEmpty());
      assertFalse(queue.offer("shouldBeRejected"));
      this.queue = queue;
    }

    @Override
    protected void doAction() {
      assertNotNull(queue.remove());
    }
  }

    private final BlockingQueue<String> queue;

    public EnableWrites(BlockingQueue<String> queue, long tMinus) {
      super(tMinus);
      assertFalse(queue.isEmpty());
      assertFalse(queue.offer("shouldBeRejected"));
      this.queue = queue;
    }

    @Override
    protected void doAction() {
      assertNotNull(queue.remove());
    }
  }

    const std::vector<std::vector<uint64_t>> &dependency_graph) {
  std::vector<uint64_t> queue;
  queue.reserve(is_consumed_id.size());
  for (auto id : explicitly_consumed_ids) {
    is_consumed_id[id] = true;
    queue.push_back(id);
  }
  while (!queue.empty()) {
    auto i = queue.back();
    queue.pop_back();

    // If there is a consumer which cannot be found in dependency graph, return
    // false.