_ = wait.PollImmediateUntil(1*time.Minute, func() (bool, error) {
		c.queue.Add(keyFn())
		return false, nil
	}, ctx.Done())

	// wait until we're told to stop
	<-ctx.Done()
}

func (c *Controller) runWorker() {
	// hot loop until we're told to stop.  processNextWorkItem will automatically wait until there's work
	// available, so we don't worry about secondary waits
	for c.processNextWorkItem() {
	}
}

		}
		val = val.Elem()
	}
	if val.CanInterface() && val.Type().Implements(unmarshalerAttrType) {
		// This is an unmarshaler with a non-pointer receiver,
		// so it's likely to be incorrect, but we do what we're told.
		return val.Interface().(UnmarshalerAttr).UnmarshalXMLAttr(attr)
	}
	if val.CanAddr() {
		pv := val.Addr()
		if pv.CanInterface() && pv.Type().Implements(unmarshalerAttrType) {

  private static final Runnable PARKED = new DoNothingRunnable();
  // Why 1000?  WHY NOT!
  private static final int MAX_BUSY_WAIT_SPINS = 1000;

  @SuppressWarnings("ThreadPriorityCheck") // The cow told me to
  @Override
  public final void run() {
    /*
     * Set runner thread before checking isDone(). If we were to check isDone() first, the task

  private static final Runnable PARKED = new DoNothingRunnable();
  // Why 1000?  WHY NOT!
  private static final int MAX_BUSY_WAIT_SPINS = 1000;

  @SuppressWarnings("ThreadPriorityCheck") // The cow told me to
  @Override
  public final void run() {
    /*
     * Set runner thread before checking isDone(). If we were to check isDone() first, the task

		// one (because the call to getComponentConfigVersionStates requires the currently installed version).
		// This also makes the KubernetesVersion value returned for `upgrade plan` consistent as that command
		// allows to not specify a target version in which case KubernetesVersion will always hold the currently
		// installed one.
		initCfg.KubernetesVersion = newK8sVersion

				r.readImport()
			}
			r.nextByte(false)
		} else {
			r.readImport()
		}
	}

	info.header = r.buf

	// If we stopped successfully before EOF, we read a byte that told us we were done.
	// Return all but that last byte, which would cause a syntax error if we let it through.
	if r.err == nil && !r.eof {
		info.header = r.buf[:len(r.buf)-1]
	}

	// Kim is 22 years old.
}

func ExamplePrintln() {
	const name, age = "Kim", 22
	fmt.Println(name, "is", age, "years old.")

	// It is conventional not to worry about any
	// error returned by Println.

	// Output:
	// Kim is 22 years old.
}

func ExamplePrintf() {
	const name, age = "Kim", 22
	fmt.Printf("%s is %d years old.\n", name, age)

	// It is conventional not to worry about any

The fundamental problem was that the tab code was
not being told what column the text began in, so it
didn't know where to put the tab stops.  Another problem
was that some of the code assumed that string byte
offsets were the same as column offsets, which is only
true if there are no tabs.

In the process of fixing this, I cleaned up the arguments
to Fold and ExpandTabs and renamed them Break and

			// Unlike the other cases, we actually want to use the "old" event for terminated job pods
			// - kubernetes will (weirdly) issue a new status to the pod with no IP on termination, meaning
			// our check of `pod.status` will fail for (some) termination events.
			//
			// We will get subsequent events that append a new status with the IP put back, but it's simpler
			// and safer to just check the old pod status for the IP.

				r.readImport()
			}
			r.nextByte(false)
		} else {
			r.readImport()
		}
	}

	info.header = r.buf

	// If we stopped successfully before EOF, we read a byte that told us we were done.
	// Return all but that last byte, which would cause a syntax error if we let it through.
	if r.err == nil && !r.eof {
		info.header = r.buf[:len(r.buf)-1]
	}