startBucketID     int64
	clock             clock.Clock
	bookmarkFrequency time.Duration
}

func newTimeBucketWatchers(clock clock.Clock, bookmarkFrequency time.Duration) *watcherBookmarkTimeBuckets {
	return &watcherBookmarkTimeBuckets{
		watchersBuckets:   make(map[int64][]*cacheWatcher),
		createTime:        clock.Now(),
		startBucketID:     0,
		clock:             clock,
		bookmarkFrequency: bookmarkFrequency,

}

// Option configures a PriorityQueue
type Option func(*priorityQueueOptions)

// WithClock sets clock for PriorityQueue, the default clock is clock.RealClock.
func WithClock(clock clock.Clock) Option {
	return func(o *priorityQueueOptions) {
		o.clock = clock
	}
}

// WithPodInitialBackoffDuration sets pod initial backoff duration for PriorityQueue.

//
// Operating systems provide both a “wall clock,” which is subject to
// changes for clock synchronization, and a “monotonic clock,” which is
// not. The general rule is that the wall clock is for telling time and
// the monotonic clock is for measuring time. Rather than split the API,
// in this package the Time returned by [time.Now] contains both a wall
// clock reading and a monotonic clock reading; later time-telling

	return plugin.NewAttacher()
}

func (plugin *FakeVolumePlugin) GetAttachers() (Attachers []*FakeVolume) {
	plugin.RLock()
	defer plugin.RUnlock()
	return plugin.Attachers
}

func (plugin *FakeVolumePlugin) GetNewAttacherCallCount() int {
	plugin.RLock()
	defer plugin.RUnlock()
	return plugin.NewAttacherCallCount
}

func (plugin *FakeVolumePlugin) NewDetacher() (volume.Detacher, error) {

		orphanQueue:           workqueue.NewTypedRateLimitingQueueWithConfig(workqueue.NewTypedItemExponentialFailureRateLimiter[string](DefaultJobApiBackOff, MaxJobApiBackOff), workqueue.TypedRateLimitingQueueConfig[string]{Name: "job_orphan_pod", Clock: clock}),
		broadcaster:           eventBroadcaster,

	etcd3testing "k8s.io/apiserver/pkg/storage/etcd3/testing"
	utilfeature "k8s.io/apiserver/pkg/util/feature"
	featuregatetesting "k8s.io/component-base/featuregate/testing"
	"k8s.io/utils/clock"
	testingclock "k8s.io/utils/clock/testing"
	"k8s.io/utils/pointer"
)

func newTestCacherWithoutSyncing(s storage.Interface) (*Cacher, storage.Versioner, error) {
	prefix := "pods"
	config := Config{
		Storage:        s,

	cache := store.rlock()
	defer store.runlock()

	u, ok := cache.iamUsersMap[user]
	if !ok {
		// Check the sts map
		u, ok = cache.iamSTSAccountsMap[user]
	}
	return u, ok
}

// GetMappedPolicy - fetches mapped policy from memory.
func (store *IAMStoreSys) GetMappedPolicy(name string, isGroup bool) (MappedPolicy, bool) {
	cache := store.rlock()
	defer store.runlock()

func (w *timeIncrementingWorkers) tick() {
	w.lock.Lock()
	defer w.lock.Unlock()
	w.w.clock.(*clocktesting.FakePassiveClock).SetTime(w.w.clock.Now().Add(time.Second))
}

// createTimeIncrementingPodWorkers will guarantee that each call to UpdatePod and each worker goroutine invocation advances the clock by one second,
// although multiple workers will advance the clock in an unpredictable order. Use to observe

	// resyncInterval is the duration to wait until the next sync.
	resyncInterval time.Duration

	// podCache stores kubecontainer.PodStatus for all pods.
	podCache kubecontainer.Cache

	// clock is used for testing timing
	clock clock.PassiveClock
}

func newPodWorkers(
	podSyncer podSyncer,
	recorder record.EventRecorder,
	workQueue queue.WorkQueue,
	resyncInterval, backOffPeriod time.Duration,

		}
		s.usedSinceBlockStart |= regMask(1) << r2
		c = s.curBlock.NewValue1(pos, OpCopy, v.Type, s.regs[r2].c)
	} else if v.rematerializeable() {
		// Rematerialize instead of loading from the spill location.
		c = v.copyIntoWithXPos(s.curBlock, pos)
	} else {
		// Load v from its spill location.
		spill := s.makeSpill(v, s.curBlock)
		if s.f.pass.debug > logSpills {