}

// Run starts the EstablishingController.
func (ec *EstablishingController) Run(stopCh <-chan struct{}) {
	defer utilruntime.HandleCrash()
	defer ec.queue.ShutDown()

	klog.Info("Starting EstablishingController")
	defer klog.Info("Shutting down EstablishingController")

	if !cache.WaitForCacheSync(stopCh, ec.crdSynced) {
		return
	}

	// only start one worker thread since its a slow moving API

		if schedule == nil {
			t.Errorf("expected 1 start time, got nil")
		} else if !schedule.Equal(T1) {
			t.Errorf("expected: %v, got: %v", T1, schedule)
		}
	}
	{
		// Case 3: known LastScheduleTime, no start needed.
		// Creation time is before T1.
		cj.ObjectMeta.CreationTimestamp = metav1.Time{Time: T1.Add(-10 * time.Minute)}
		// Status shows a start at the expected time.

// order to release associated system resources.
func (c *Cmd) Start() error {
	// Check for doubled Start calls before we defer failure cleanup. If the prior
	// call to Start succeeded, we don't want to spuriously close its pipes.
	if c.Process != nil {
		return errors.New("exec: already started")
	}

	started := false
	defer func() {
		closeDescriptors(c.childIOFiles)

automation, a control loop is a non-terminating loop that regulates the state of
the system. In Kubernetes, a controller is a control loop that watches the shared
state of the cluster through the apiserver and makes changes attempting to move the
current state towards the desired state. Examples of controllers that ship with
Kubernetes today are the replication controller, endpoints controller, namespace

	}

	// 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++

	// work.
	var period int
	// slash+1: if there's no slash, the value is -1 and start is 0; otherwise
	// start is the byte after the slash.
	for start := slash + 1; start < len(arg); start = period + 1 {
		period = strings.Index(arg[start:], ".")
		symbol := ""
		if period < 0 {
			period = len(arg)
		} else {
			period += start
			symbol = arg[period+1:]
		}
		// Have we identified a package already?

		sec = 1
	}

	configureWriteDeadline(w, r, sec)

	// Set Content Type assuming trace.Start will work,
	// because if it does it starts writing.
	w.Header().Set("Content-Type", "application/octet-stream")
	w.Header().Set("Content-Disposition", `attachment; filename="trace"`)
	if err := trace.Start(w); err != nil {
		// trace.Start failed, so no writes yet.
		serveError(w, http.StatusInternalServerError,

			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

		}
	}

	// 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