// UnschedulablePlugins records the plugin names that the Pod failed with Unschedulable or UnschedulableAndUnresolvable status.
	// It's registered only when the Pod is rejected in PreFilter, Filter, Reserve, PreBind or Permit (WaitOnPermit).
	UnschedulablePlugins sets.Set[string]
	// PendingPlugins records the plugin names that the Pod failed with Pending status.
	PendingPlugins sets.Set[string]

	// so that it can give good error messages about forward declarations.
	// Exceptions: a few standard packages have forward declarations for
	// pieces supplied behind-the-scenes by package runtime.
	extFiles := len(p.CgoFiles) + len(p.CFiles) + len(p.CXXFiles) + len(p.MFiles) + len(p.FFiles) + len(p.SFiles) + len(p.SysoFiles) + len(p.SwigFiles) + len(p.SwigCXXFiles)
	if p.Standard {

func BuildAddress(bind string, port uint32) *core.Address {
	address := BuildNetworkAddress(bind, port, istionetworking.TransportProtocolTCP)
	if address != nil {
		return address
	}

	return &core.Address{
		Address: &core.Address_Pipe{
			Pipe: &core.Pipe{
				Path: strings.TrimPrefix(bind, model.UnixAddressPrefix),
			},
		},
	}
}

		// Check that GOROOT/bin is bound before /bin.
		pid := strings.Replace(readfile("#c/pid"), " ", "", -1)
		ns := fmt.Sprintf("/proc/%s/ns", pid)
		if !strings.Contains(readfile(ns), fmt.Sprintf("bind -b %s /bin", gorootBin)) {
			xprintf("*** You need to bind %s before /bin.\n", gorootBin)
		}
	} else {
		// Check that GOROOT/bin appears in $PATH.
		pathsep := ":"
		if gohostos == "windows" {
			pathsep = ";"
		}

			addedInformerNodes: []*v1.Node{testutil.NewNode("node")},
			pods: []*v1.Pod{
				makePod("a", "node", v1.PodFailed),
			},
			itemsInQueue: 1,
		},
		{
			// It shouldn't happen that client will be lagging behind informer.
			// This test case is more a sanity check.
			name:               "node deleted from client after quarantine",
			initialClientNodes: []*v1.Node{testutil.NewNode("node")},

  let description = [{
    Drop `shape_invariant` attribute from tf.While and tf.WhileRegion op. This
    would allow shape inference pass to further refine operand/result shapes of
    these ops. This is only safe to do when compiling to XLA.
  }];

  let constructor = "TF::CreateDropWhileShapeInvariantPass()";
}

	[]Struct{},
	([]Struct)(nil),
	[1]Struct{},
}

func TestSizeAllocs(t *testing.T) {
	for _, data := range sizableTypes {
		t.Run(fmt.Sprintf("%T", data), func(t *testing.T) {
			// Size uses a sync.Map behind the scenes. The slow lookup path of
			// that does allocate, so we need a couple of runs here to be
			// allocation free.
			allocs := testing.AllocsPerRun(10, func() {
				_ = Size(data)
			})
			if allocs != 0 {

// corresponding service; these endpoints need to be deleted. We only need to
// do this once on startup, because in steady-state these are detected (but
// some stragglers could have been left behind if the endpoint controller
// reboots).
func (e *Controller) checkLeftoverEndpoints() {
	list, err := e.endpointsLister.List(labels.Everything())
	if err != nil {

	for _, file := range toRemove {
		os.RemoveAll(file)
	}

	_, coreErrAfter := os.Stat("core")
	if coreErrBefore != nil && coreErrAfter == nil {
		fmt.Fprintln(os.Stderr, "runtime.test: some test left a core file behind")
		if status == 0 {
			status = 1
		}
	}

	os.Exit(status)
}

var testprog struct {
	sync.Mutex
	dir    string
	target map[string]*buildexe
}

type buildexe struct {

//
// Synchronous scavenging happens for one of two reasons: if an allocation would
// exceed the memory limit or whenever the heap grows in size, for some
// definition of heap-growth. The intuition behind this second reason is that the
// application had to grow the heap because existing fragments were not sufficiently
// large to satisfy a page-level memory allocation, so we scavenge those fragments