}

// sandboxTemplate is a sandbox template to create fake sandbox.
type sandboxTemplate struct {
	pod         *v1.Pod
	attempt     uint32
	createdAt   int64
	state       runtimeapi.PodSandboxState
	running     bool
	terminating bool
}

// containerTemplate is a container template to create fake container.
type containerTemplate struct {
	pod            *v1.Pod

		t.Error("updateStorage failed to recreate volumes")
	}
	pod = newStatefulSetPod(set, 1)
	for i := range pod.Spec.Volumes {
		pod.Spec.Volumes[i].PersistentVolumeClaim = nil
	}
	if storageMatches(set, pod) {
		t.Error("Pod with invalid Volumes claim valid storage")
	}
	updateStorage(set, pod)
	if !storageMatches(set, pod) {
		t.Error("updateStorage failed to recreate volume claims")
	}

func TestXLStorageReadAll(t *testing.T) {
	// create xlStorage test setup
	xlStorage, _, err := newXLStorageTestSetup(t)
	if err != nil {
		t.Fatalf("Unable to create xlStorage test setup, %s", err)
	}

	// Create files for the test cases.
	if err = xlStorage.MakeVol(context.Background(), "exists"); err != nil {
		t.Fatalf("Unable to create a volume \"exists\", %s", err)
	}

                                         assert(false && "Should not happen");
                                       });
  // Recreate the while op.
  OpBuilder builder(while_op);
  // Now use the filtered original operands, which will be replaced by
  // AddLoadsStoresOutsideControlFlowOp().
  auto new_while = builder.create<TF::WhileOp>(
      while_op.getLoc(), body.getFunctionType().getResults(),

            filter_op->getLoc(), *rewriter.getContext(), filter_scale_values,
            filter_zero_point_values,
            /*quantization_dimension=*/3);

    // Create a new constant op for the filter in i8.
    auto quantized_filter_constant_op = rewriter.create<stablehlo::ConstantOp>(
        filter_op->getLoc(),
        /*output=*/
        filter_i8_value_attr.getType().clone(filter_quantized_element_type),

const (
	// OrderedReadyPodManagement will create pods in strictly increasing order on
	// scale up and strictly decreasing order on scale down, progressing only when
	// the previous pod is ready or terminated. At most one pod will be changed
	// at any time.
	OrderedReadyPodManagement PodManagementPolicyType = "OrderedReady"
	// ParallelPodManagement will create and delete pods as soon as the stateful set

		if podutil.IsPodReady(p) {
			cnt++
		}
	}
	return cnt
}

// This checks if we should apply PodReplacementPolicy.
// PodReplacementPolicy controls when we recreate pods if they are marked as terminating
// Failed means that we recreate only once the pod has terminated.
func onlyReplaceFailedPods(job *batch.Job) bool {
	// We check both PodReplacementPolicy for nil and failed

) (proxy.Provider, error) {

	// Create an ipv4 instance of the single-stack proxier
	ipv4Proxier, err := NewProxier(v1.IPv4Protocol, syncPeriod, minSyncPeriod,
		hostname, nodeIPs[v1.IPv4Protocol], recorder, healthzServer,
		healthzBindAddress, config)

	if err != nil {
		return nil, fmt.Errorf("unable to create ipv4 proxier: %v, hostname: %s, nodeIP:%v", err, hostname, nodeIPs[v1.IPv4Protocol])
	}

  }

  if (common_inner_operands.empty()) {
    return MakeInternedAndOr(std::move(simplified_ops), pred_kind);
  }

  // For all predicates that can be factored out, remove them and recreate the
  // subops.
  std::vector<Predicate*> factored_ops;
  for (Predicate* op : simplified_ops) {
    std::vector<Predicate*> new_sub_op_ops;
    absl::c_copy_if(op->GetOperands(), std::back_inserter(new_sub_op_ops),

//  2. Kill pod sandbox if necessary.
//  3. Kill any containers that should not be running.
//  4. Create sandbox if necessary.
//  5. Create ephemeral containers.
//  6. Create init containers.
//  7. Resize running containers (if InPlacePodVerticalScaling==true)
//  8. Create normal containers.