processed[types.UID("6-static")]; !reflect.DeepEqual(expected, actual) {
		t.Fatalf("unexpected sync pod calls: %s", cmp.Diff(expected, actual))
	}

	// ensure 5-static exits when we deliver the event out of order
	channels.Channel("5-static").Release()
	drainAllWorkers(podWorkers)
	pod5 = podWorkers.podSyncStatuses[types.UID("5-static")]
	if !pod5.IsTerminated() {

	sys.iamRefreshInterval = iamRefreshInterval
	// Initialize IAM store
	sys.initStore(objAPI, etcdClient)
	sys.Unlock()

	retryCtx, cancel := context.WithCancel(ctx)

	// Indicate to our routine to exit cleanly upon return.
	defer cancel()

	r := rand.New(rand.NewSource(time.Now().UnixNano()))

	// Migrate storage format if needed.
	for {
		// Migrate IAM configuration, if necessary.

	// affects how the merge is done; the goal is to maximize sharing
	// and avoid allocation.
	everProcessed bool
}

// A liveSlot is a slot that's live in loc at entry/exit of a block.
type liveSlot struct {
	VarLoc
}

func (ls *liveSlot) String() string {
	return fmt.Sprintf("0x%x.%d.%d", ls.Registers, ls.stackOffsetValue(), int32(ls.StackOffset)&1)
}

- Pause: add a -v flag to the Windows variant of the pause binary, which prints the version of pause and exits. The Linux pause already has the flag. ([#125067](https://github.com/kubernetes/kubernetes/pull/125067), [@neolit123](https://github.com/neolit123)) [SIG Windows]

	// Wait for informers cache sync
	informerFactory.Start(ctx.Done())
	for v, synced := range informerFactory.WaitForCacheSync(ctx.Done()) {
		if !synced {
			logger.Error(nil, "Error syncing informer", "informer", v)
			os.Exit(1)
		}
	}

	// Add storageclasses
	waitMode := storagev1.VolumeBindingWaitForFirstConsumer
	immediateMode := storagev1.VolumeBindingImmediate
	classes := []*storagev1.StorageClass{
		{

	//
	// Note: we might have a P here. The P might not be released
	// eagerly by the runtime, and it might get stolen back later
	// (or never again, if the program is going to exit).
	if err := validateCtx(curCtx, event.SchedReqs{Thread: event.MustHave, Proc: event.MayHave, Goroutine: event.MustHave}); err != nil {
		return curCtx, false, err
	}

	pr, pw := xioutil.WaitPipe()
	go func() {
		pw.CloseWithError(er.getObjectWithFileInfo(ctx, bucket, object, off, length, pw, fi, metaArr, onlineDisks))
	}()

	// Cleanup function to cause the go routine above to exit, in
	// case of incomplete read.
	pipeCloser := func() {
		pr.CloseWithError(nil)
	}

	if !unlockOnDefer {
		return fn(pr, h, pipeCloser, nsUnlocker)
	}

	return fn(pr, h, pipeCloser)
}

  ```

  `cond` is the condition region and `body` is the body region. Both these
  regions accept the current value of the iteration variables as inputs.

  The condition region yields a tensor<i1> which, if false, will exit the loop.
  It can also, optionally and additionally, yield the iteration variables, which
  must be unchanged.

  The body region always has to yield the (possibly updated) iteration variables.

      if (compile_op == nullptr) {
        compile_op = op;
      } else {
        ops_to_erase.insert(op);
      }
    }
    // If there's no outside compilation, we can exit early because this isn't
    // a TPU function.
    if (compile_op == nullptr) {
      return LogicalResult::success();
    }

    TF::TPUReplicateMetadataOp metadata_op = nullptr;

			active, action, manageJobErr = jm.manageJob(ctx, &job, jobCtx)
			manageJobCalled = true
		}
		complete := false
		if job.Spec.Completions == nil {
			// This type of job is complete when any pod exits with success.
			// Each pod is capable of
			// determining whether or not the entire Job is done.  Subsequent pods are
			// not expected to fail, but if they do, the failure is ignored.  Once any