if podWorkers.CouldHaveRunningContainers(types.UID("0")) {
		t.Errorf("Expected pod to be terminated (deleted and terminated)")
	}
	if podWorkers.CouldHaveRunningContainers(types.UID("1")) {
		t.Errorf("Expected pod to be terminated")
	}
	if !podWorkers.CouldHaveRunningContainers(types.UID("2")) {
		t.Errorf("Expected pod to not be terminated")
	}

	if !podWorkers.ShouldPodContentBeRemoved(types.UID("0")) {

				CallMode: simulation.CallModeInbound,
			},
			Disabled: simulation.Result{
				// This is probably a user error, but there is no reason we should block mTLS traffic
				// we just will not terminate it
				ClusterMatched: "inbound|70||",
			},
			Permissive: simulation.Result{
				ClusterMatched: "inbound|70||",
			},
			Strict: simulation.Result{
				ClusterMatched: "inbound|70||",
			},
		},

	// Cancel the watch after some time to check if it will properly
	// terminate instead of hanging forever.
	go func() {
		defer cancel()
		cacher.clock.Sleep(1 * time.Second)
	}()

	// Watch hangs waiting on watchcache being initialized.
	// Ensure that it terminates when its context is cancelled
	// (e.g. the request is terminated for whatever reason).

		if wd := testTimeout / 10; wd < 5*time.Second {
			testWaitDelay = 5 * time.Second
		} else {
			testWaitDelay = wd
		}

		// We expect the test binary to terminate itself (and dump stacks) after
		// exactly testTimeout. We give it up to one WaitDelay or one minute,
		// whichever is longer, to finish dumping stacks before we send it an

	UseVendorAll bool

	// AllowErrors indicates that LoadPackages should not terminate the process if
	// an error occurs.
	AllowErrors bool

	// SilencePackageErrors indicates that LoadPackages should not print errors
	// that occur while matching or loading packages, and should not terminate the
	// process if such an error occurs.
	//
	// Errors encountered in the module graph will still be reported.

	reflector.WatchListPageSize = storageWatchListPageSize
	// When etcd loses leader for 3 cycles, it returns error "no leader".
	// We don't want to terminate all watchers as recreating all watchers puts high load on api-server.
	// In most of the cases, leader is reelected within few cycles.
	reflector.MaxInternalErrorRetryDuration = time.Second * 30

}

// Proxier implements proxy.Provider
var _ proxy.Provider = &Proxier{}

// NewProxier returns a new nftables Proxier. Once a proxier is created, it will keep
// nftables up to date in the background and will not terminate if a particular nftables
// call fails.
func NewProxier(ctx context.Context,
	ipFamily v1.IPFamily,
	syncPeriod time.Duration,
	minSyncPeriod time.Duration,
	masqueradeAll bool,
	masqueradeBit int,

	}
	defer watcher.Stop()

	done := make(chan struct{})
	errc := make(chan error, 1)
	var wg sync.WaitGroup
	wg.Add(1)
	// We must wait for the waitgroup to exit before we terminate the cache or the server in prior defers.
	defer wg.Wait()
	// Call close first, so the goroutine knows to exit.
	defer close(done)

	go func() {
		defer wg.Done()
		for i := 0; i < 100; i++ {

// An error will be returned if iptables fails to update or acquire the initial lock.
// Once a proxier is created, it will keep iptables up to date in the background and
// will not terminate if a particular iptables call fails.
func NewProxier(ctx context.Context,
	ipFamily v1.IPFamily,
	ipt utiliptables.Interface,
	sysctl utilsysctl.Interface,
	exec utilexec.Interface,
	syncPeriod time.Duration,

		// provide packages in all.
		hasDepsInAll := make(map[string]bool)
		seen := map[module.Version]bool{}
		for _, m := range roots {
			hasDepsInAll[m.Path] = true
		}
		// This loop will terminate because it will call enqueue on each version of
		// each dependency of the modules in hasDepsInAll at most once (and only
		// calls enqueue on successively increasing versions of each dependency).
		for {