// in "rval". f must be fully processed, so that each Value is where it
// will be when machine code is emitted.
func BuildFuncDebug(ctxt *obj.Link, f *Func, loggingLevel int, stackOffset func(LocalSlot) int32, rval *FuncDebug) {
	if f.RegAlloc == nil {
		f.Fatalf("BuildFuncDebug on func %v that has not been fully processed", f)
	}
	state := &f.Cache.debugState

	Pop(logger klog.Logger) (*framework.QueuedPodInfo, error)
	// Done must be called for pod returned by Pop. This allows the queue to
	// keep track of which pods are currently being processed.
	Done(types.UID)
	Update(logger klog.Logger, oldPod, newPod *v1.Pod) error
	Delete(pod *v1.Pod) error
	// TODO(sanposhiho): move all PreEnqueueCkeck to Requeue and delete it from this parameter eventually.

			expectError:         "Cannot evict pod as it would violate the pod's disruption budget.: TooManyRequests: The disruption budget foo is still being processed by the server.",
			podPhase:            api.PodPending,
			podName:             "t2",
			podTerminating:      false,
			expectedDeleteCount: 2,
			prc: &api.PodCondition{
				Type:   api.PodReady,

		t.Fatalf("Couldn't create cacher: %v", err)
	}
	defer cacher.Stop()

	concurrency := 1000
	wg := sync.WaitGroup{}
	wg.Add(concurrency)

	// Ensure that test doesn't deadlock if cacher already processed everything
	// and get back into Pending state before some watches get called.
	ctx, cancel := context.WithTimeout(context.Background(), 3*time.Second)
	defer cancel()

	errCh := make(chan error, concurrency)

std::unique_ptr<OperationPass<ModuleOp>>
CreateTFExecutorTPUV1IslandCoarseningPass();

// Creates a pass to outlining TPU clusters from single IslandOp into a nested
// module suitable for being processed as-if it was a V2 module.
// This is a V1 backward compatibility.
std::unique_ptr<OperationPass<ModuleOp>>
CreateTFExecutorTPUV1IslandOutliningPass();

            // then reset the state of the node that owns those dependencies.
            // This way, all edges of the node will be re-processed.
            pendingDepsVisitor.complete();
            if (shouldComputeOwnStrictVersions) {
                storeOwnStrictVersions(strictVersionsSet);
            }
        }
    }

			} {
				metric.Reset()
			}
			metrics.MirrorPodCount.Set(0)

			testKubelet := newTestKubelet(t, false)
			defer testKubelet.Cleanup()
			kl := testKubelet.kubelet

			podWorkers, _, processed := createPodWorkers()
			kl.podWorkers = podWorkers
			originalPodSyncer := podWorkers.podSyncer
			syncFuncs := newPodSyncerFuncs(originalPodSyncer)
			podWorkers.podSyncer = &syncFuncs

  }

  if ((Get-service $service).Status -ne 'Stopped') {
    # Force kill the processes.
    Stop-Process -Force -PassThru -Id (Get-WmiObject win32_process |
      Where CommandLine -Like $cmdline).ProcessId

    # Wait until process has stopped.
    $waited = 0
    $log_period = 10
    $timeout = 60
    while ((Get-service $service).Status -ne 'Stopped' -and $waited -lt $timeout) {
      Start-Sleep 1

            is FirAnonymousFunctionExpression ->
                realPsi?.parent as? KtLabeledExpression ?: realPsi as? KtExpression
            is FirWhenSubjectExpression ->
                // The subject variable is not processed here as we don't have KtExpression to represent it.
                // K1 creates a fake expression in this case.
                whenRef.value.subject?.findSourceKtExpressionForCallArgument()

	expected := s.XDSServer.InboundUpdates.Load()
	return kubelib.WaitForCacheSync("push context", stop, func() bool { return s.pushContextReady(expected) })
}

// pushContextReady indicates whether pushcontext has processed all inbound config updates.
func (s *Server) pushContextReady(expected int64) bool {
	committed := s.XDSServer.CommittedUpdates.Load()
	if committed < expected {