Arg<TF_I32OrI64Tensor, [{the padding to apply at the start and end of each input dimensions}]>:$padding,
    Arg<TF_I32OrI64Tensor, [{dilation to apply between input elements}]>:$lhs_dilation,
    Arg<TF_I32OrI64Tensor, [{dilation to apply between kernel elements}]>:$rhs_dilation,
    Arg<TF_I32OrI64Tensor, [{number of feature groups for grouped convolution.}]>:$feature_group_count,

//     if the node is marked for deletion by autoscaler.
//  4. get proxy health by verifying that the delay between QueuedUpdate()
//     calls and Updated() calls exceeded healthTimeout or not.
type ProxierHealthServer struct {
	listener    listener
	httpFactory httpServerFactory
	clock       clock.Clock

	addr          string
	healthTimeout time.Duration

	lock                   sync.RWMutex

// e.g: plugin with name foo registers at foo.com/foo-1.9.7 later a plugin with name foo
// registers at foo.com/foo-1.9.9
//
// DeRegistration: When ReRegistration happens only the deletion of the new socket will trigger a DeRegister call
type PluginHandler interface {
	// Validate returns an error if the information provided by
	// the potential plugin is erroneous (unsupported version, ...)

			metav1.DeleteOptions{PropagationPolicy: &policy})
		if err == nil {
			klog.Infof("marking node %s for deletion", node)
			// Mark node for deletion from kubemark cluster.
			// Once it becomes unready after replication controller
			// deletion has been noticed, we will delete it explicitly.
			// This is to cover for the fact that kubemark does not
			// take care of this itself.

	OnServiceAdd(service *v1.Service)
	// OnServiceUpdate is called whenever modification of an existing
	// service object is observed.
	OnServiceUpdate(oldService, service *v1.Service)
	// OnServiceDelete is called whenever deletion of an existing service
	// object is observed.
	OnServiceDelete(service *v1.Service)
	// OnServiceSynced is called once all the initial event handlers were
	// called and the state is fully propagated to local cache.

	dnsName, caFilePath string, approveCsr, appendCaCert bool, requestedLifetime time.Duration,
) ([]byte, []byte, error) {
	// 1. Submit the CSR
	csr, err := submitCSR(client, csrData, signerName, usages, requestedLifetime)
	if err != nil {
		return nil, nil, err
	}
	log.Debugf("CSR (%v) has been created", csr.Name)

	// clean up certificate request after deletion
	defer func() {
		_ = cleanupCSR(client, csr)
	}()

func (ssc *StatefulSetController) enqueueSSAfter(ss *apps.StatefulSet, duration time.Duration) {
	key, err := controller.KeyFunc(ss)
	if err != nil {
		utilruntime.HandleError(fmt.Errorf("couldn't get key for object %#v: %v", ss, err))
		return
	}
	ssc.queue.AddAfter(key, duration)
}

	nodeLister       corelisters.NodeLister
	nodeListerSynced cache.InformerSynced

	nodeQueue workqueue.TypedDelayingInterface[string]

	terminatedPodThreshold int
	gcCheckPeriod          time.Duration
	quarantineTime         time.Duration
}

func NewPodGC(ctx context.Context, kubeClient clientset.Interface, podInformer coreinformers.PodInformer,
	nodeInformer coreinformers.NodeInformer, terminatedPodThreshold int) *PodGCController {

	}

	rsc.queue.Add(key)
}

func (rsc *ReplicaSetController) enqueueRSAfter(rs *apps.ReplicaSet, duration time.Duration) {
	key, err := controller.KeyFunc(rs)
	if err != nil {
		utilruntime.HandleError(fmt.Errorf("couldn't get key for object %#v: %v", rs, err))
		return
	}

	rsc.queue.AddAfter(key, duration)
}

func (rsc *ReplicaSetController) addRS(logger klog.Logger, obj interface{}) {

// packet size to a virtual time, in our version this corresponds to
// adding a service time (i.e., duration) to virtual time.
//
// The third difference is handled by modifying the algorithm to
// dispatch based on an initial guess at the request’s service time
// (duration) and then make the corresponding adjustments once the
// request’s actual service time is known. This is similar, although