key, err := cache.MetaNamespaceKeyFunc(new)
			if err == nil {
				r.svcQueue.Add(key)
			}
		},
		DeleteFunc: func(obj interface{}) {
			// IndexerInformer uses a delta queue, therefore for deletes we have to use this
			// key function.
			key, err := cache.DeletionHandlingMetaNamespaceKeyFunc(obj)
			if err == nil {
				r.svcQueue.Add(key)
			}
		},
	}, interval)

    }

    @Override
    public ListenableScheduledFuture<?> schedule(Runnable command, long delay, TimeUnit unit) {
      TrustedListenableFutureTask<@Nullable Void> task =
          TrustedListenableFutureTask.create(command, null);
      ScheduledFuture<?> scheduled = delegate.schedule(task, delay, unit);
      return new ListenableScheduledTask<@Nullable Void>(task, scheduled);
    }

    @Override

      exit 2
      ;;
  esac
}

# Retries a command forever with a delay between retries.
# Args:
#  $1    : delay between retries, in seconds.
#  $2... : the command to run.
function retry-forever {
  local -r delay="$1"
  shift 1

  until "$@"; do
    echo "== $* failed, retrying after ${delay}s"
    sleep "${delay}"
  done
}

# Initializes variables used by the log-* functions.
#

      "FINE: Q10000 finished run in   0 µs: task",
      "FINE: Q10000 starting              : task",
      "FINE: Q10000 finished run in   0 µs: task",
    )
  }

  /** Repeat with a delay of 200 but schedule with a delay of 50. The schedule wins. */
  @Test fun executeScheduledEarlierReplacesRepeatedLater() {
    val task =
      object : Task("task") {
        val schedules = mutableListOf(50.µs)

			proxy.connectedMutex.Lock()
			defer proxy.connectedMutex.Unlock()
			if proxy.connected != nil {
				return fmt.Errorf("still connected")
			}
			return nil
		}, retry.Timeout(time.Second), retry.Delay(time.Millisecond))
	}
	expectCondition := func(expected string) {
		t.Helper()
		retry.UntilSuccessOrFail(t, func() error {
			cfg := f.Store().Get(gvk.WorkloadEntry, "group-1.1.1.1", "default")
			if cfg == nil {

    }
  }

  public void testCopyOf_concurrentlyMutating() {
    List<String> sample = Lists.newArrayList("a", "b", "c");
    for (int delta : new int[] {-1, 0, 1}) {
      for (int i = 0; i < sample.size(); i++) {
        Collection<String> misleading = Helpers.misleadingSizeCollection(delta);
        List<String> expected = sample.subList(0, i);
        misleading.addAll(expected);

  }

  public void testToArray_threadSafe() {
    for (int delta : new int[] {+1, 0, -1}) {
      for (int i = 0; i < VALUES.length; i++) {
        List<Character> list = Chars.asList(VALUES).subList(0, i);
        Collection<Character> misleadingSize = Helpers.misleadingSizeCollection(delta);
        misleadingSize.addAll(list);
        char[] arr = Chars.toArray(misleadingSize);

	})
	for _, fn := range fns {
		l.AddRunFunction(fn)
	}
	stop := make(chan struct{})
	go l.Run(stop)

	retry.UntilOrFail(t, func() bool {
		return l.isLeader() == expectLeader
	}, retry.Converge(5), retry.Delay(time.Millisecond*100), retry.Timeout(time.Second*10))
	return l, stop
}

type fakeDefaultWatcher struct {
	defaultRevision string
}

func (w *fakeDefaultWatcher) Run(stop <-chan struct{}) {
}

    boolean[] VALUES = BooleansTest.VALUES;
    VALUES = Booleans.concat(VALUES, VALUES);

    for (int delta : new int[] {+1, 0, -1}) {
      for (int i = 0; i < VALUES.length; i++) {
        List<Boolean> list = Booleans.asList(VALUES).subList(0, i);
        Collection<Boolean> misleadingSize = Helpers.misleadingSizeCollection(delta);
        misleadingSize.addAll(list);
        boolean[] arr = Booleans.toArray(misleadingSize);

	count := func() int {
		var i int
		structSize.Range(func(_, _ any) bool {
			i++
			return true
		})
		return i
	}

	var total int
	added := func() int {
		delta := count() - total
		total += delta
		return delta
	}

	type foo struct {
		A uint32
	}

	type bar struct {
		A Struct
		B foo
		C Struct
	}

	testcases := []struct {
		val  any
		want int