}

	// we're waiting until after the informer start that happens once all the controllers are initialized.  This ensures
	// that they don't get unexpected events on their work queues.
	<-qm.informersStarted

	monitors := qm.monitors
	started := 0
	for _, monitor := range monitors {
		if monitor.stopCh == nil {
			monitor.stopCh = make(chan struct{})
			qm.informerFactory.Start(qm.stopCh)
			go monitor.Run()
			started++

		}
	}

	// We recorded the LMS-substring starts but really want the ends.
	// Luckily, with two differences, the start indexes and the end indexes are the same.
	// The first difference is that the rightmost LMS-substring's end index is len(text),
	// so the caller must pretend that sa[-1] == len(text), as noted above.
	// The second difference is that the first leftmost LMS-substring start index

	defer userRegion(id, regionEndCode, regionType)
	fn()
}

// StartRegion starts a region and returns it.
// The returned Region's [Region.End] method must be called
// from the same goroutine where the region was started.
// Within each goroutine, regions must nest. That is, regions started
// after this region must be ended before this region can be ended.
// Recommended usage is
//

			g := gs[ev.G]
			p := ps[ev.P]
			if g.state != gRunnable {
				return fmt.Errorf("g %d is not runnable before start (time %d)", ev.G, ev.Ts)
			}
			if p.g != 0 {
				return fmt.Errorf("p %d is already running g %d while start g %d (time %d)", ev.P, p.g, ev.G, ev.Ts)
			}
			g.state = gRunning
			g.evStart = ev
			p.g = ev.G
			if g.evCreate != nil {
				ev.StkID = uint32(g.evCreate.Args[1])

	ch, quit := make(chan interface{}), make(chan interface{})
	return ch, quit, NewOperationExecutor(newFakeOperationGenerator(ch, quit))
}

// This function starts by writing to ch and blocks on the quit channel
// until it is closed by the currently running test
func startOperationAndBlock(ch chan<- interface{}, quit <-chan interface{}) {
	ch <- nil
	<-quit

			}
		}
	}

	// Store the new stats
	s.latest.Store(PodVolumeStats{EphemeralVolumes: ephemeralStats,
		PersistentVolumes: persistentStats})
}

// parsePodVolumeStats converts (internal) volume.Metrics to (external) stats.VolumeStats structures
func (s *volumeStatCalculator) parsePodVolumeStats(podName string, pvcRef *stats.PVCReference, metric *volume.Metrics, volSpec v1.Volume) stats.VolumeStats {

	var (

     * Returns the additional parameters passed to the compiler.
     * Each parameter starts with '-'.
     */
    @Nullable @Optional @Input
    public List<String> getAdditionalParameters() {
        return additionalParameters;
    }

    /**
     * Sets the additional parameters passed to the compiler.
     * Each parameter must start with '-'.
     */

object WebSocketProtocol {
  /** Magic value which must be appended to the key in a response header. */
  internal const val ACCEPT_MAGIC = "258EAFA5-E914-47DA-95CA-C5AB0DC85B11"

  /*
  Each frame starts with two bytes of data.

   0 1 2 3 4 5 6 7    0 1 2 3 4 5 6 7
  +-+-+-+-+-------+  +-+-------------+
  |F|R|R|R| OP    |  |M| LENGTH      |
  |I|S|S|S| CODE  |  |A|             |
  |N|V|V|V|       |  |S|             |

	if quit {
		return false
	}
	defer c.queue.Done(key)

	// log slow aggregations
	start := time.Now()
	defer func() {
		elapsed := time.Since(start)
		if elapsed > time.Second {
			klog.Warningf("slow openapi aggregation of %q: %s", key, elapsed)
		}
	}()

	err := c.syncFn(key)
	if err == nil {
		c.queue.Forget(key)
		return true
	}

	rt2 := dt.roundTrip()
	c2 := dt.wantDial()
	rt1.finish()
	rt2.wantDone(c1)

	// This section is a bit overfitted to the current Transport implementation:
	// A third request starts. We have an in-progress dial that was started by rt2,
	// but this new request (rt3) is going to ignore it and make a dial of its own.
	// rt3 will use the first of these dials that completes.
	rt3 := dt.roundTrip()
	c3 := dt.wantDial()