private final Deque<Runnable> tasks = Queues.newArrayDeque();

    @Override
    public void execute(Runnable task) {
      tasks.add(task);
    }

    private void runNext() {
      tasks.removeFirst().run();
    }
  }

  public void testAsyncReload() throws Exception {
    final AtomicInteger loadCount = new AtomicInteger();
    final AtomicInteger reloadCount = new AtomicInteger();

      tasks.add(command);
    }

    boolean hasNext() {
      return !tasks.isEmpty();
    }

    void runNext() {
      assertTrue("expected at least one task to run", hasNext());
      tasks.remove().run();
    }

    void runAll() {
      while (hasNext()) {
        runNext();
      }
    }
  }

  private FakeExecutor fakePool;
  private SequentialExecutor e;

  @Override

      tasks.add(command);
    }

    boolean hasNext() {
      return !tasks.isEmpty();
    }

    void runNext() {
      assertTrue("expected at least one task to run", hasNext());
      tasks.remove().run();
    }

    void runAll() {
      while (hasNext()) {
        runNext();
      }
    }
  }

  private FakeExecutor fakePool;
  private SequentialExecutor e;

  @Override

func runqget(pp *p) (gp *g, inheritTime bool) {
	// If there's a runnext, it's the next G to run.
	next := pp.runnext
	// If the runnext is non-0 and the CAS fails, it could only have been stolen by another P,
	// because other Ps can race to set runnext to 0, but only the current P can set it to non-0.
	// Hence, there's no need to retry this CAS if it fails.
	if next != 0 && pp.runnext.cas(next, 0) {
		return next.ptr(), true
	}

		}
		if handoff && cansemacquire(addr) {
			s.ticket = 1
		}
		readyWithTime(s, 5+skipframes)
		if s.ticket == 1 && getg().m.locks == 0 {
			// Direct G handoff
			// readyWithTime has added the waiter G as runnext in the
			// current P; we now call the scheduler so that we start running
			// the waiter G immediately.
			// Note that waiter inherits our time slice: this is desirable

	goidcache    uint64
	goidcacheend uint64

	// Queue of runnable goroutines. Accessed without lock.
	runqhead uint32
	runqtail uint32
	runq     [256]guintptr
	// runnext, if non-nil, is a runnable G that was ready'd by
	// the current G and should be run next instead of what's in
	// runq if there's time remaining in the running G's time
	// slice. It will inherit the time left in the current time

		if scanBytes+gp.gcAssistBytes >= 0 {
			// Satisfy this entire assist debt.
			scanBytes += gp.gcAssistBytes
			gp.gcAssistBytes = 0
			// It's important that we *not* put gp in
			// runnext. Otherwise, it's possible for user
			// code to exploit the GC worker's high
			// scheduler priority to get itself always run
			// before other goroutines and always in the
			// fresh quantum started by GC.

		// Ready the goroutine by injecting it. We use injectglist instead
		// of ready or goready in order to allow us to run this function
		// without a P. injectglist also avoids placing the goroutine in
		// the current P's runnext slot, which is desirable to prevent
		// the scavenger from interfering with user goroutine scheduling
		// too much.
		var list gList
		list.push(s.g)
		injectglist(&list)
	}
	unlock(&s.lock)
}

		// N.B. we intentionally wait on each goroutine individually
		// rather than starting all in a batch and then waiting once
		// afterwards. By running one goroutine at a time, we can take
		// advantage of runnext to bounce back and forth between
		// workers and this goroutine. In an overloaded application,
		// this can reduce GC start latency by prioritizing these
		// goroutines rather than waiting on the end of the run queue.

  }

  @Test
  @TestMetadata("annotatedExpr.kt")
  public void testAnnotatedExpr() {
    runTest("analysis/analysis-api/testData/components/expressionInfoProvider/isUsedAsExpression/annotatedExpr.kt");
  }

  @Test
  @TestMetadata("annotatedExprAnnotation.kt")
  public void testAnnotatedExprAnnotation() {
    runTest("analysis/analysis-api/testData/components/expressionInfoProvider/isUsedAsExpression/annotatedExprAnnotation.kt");
  }