locality *core.Locality, proxyLabels map[string]string, meshConfig *meshconfig.MeshConfig,
) {
	// Disable panic threshold when SendUnhealthyEndpoints is enabled as enabling it "may" send traffic to unready
	// end points when load balancer is in panic mode.
	if features.SendUnhealthyEndpoints.Load() {
		c.CommonLbConfig.HealthyPanicThreshold = &xdstype.Percent{Value: 0}
	}

	}

	// At this point there was either no PDB or we succeeded in decrementing or
	// the pod was unhealthy (unready) and we have enough healthy replicas

	deleteOptions := originalDeleteOptions

	// Set deleteOptions.Preconditions.ResourceVersion to ensure
	// the pod hasn't been considered healthy (ready) since we calculated
	if updateDeletionOptions {
		// Take a copy so we can compare to client-provied Options later.

		}
	}

	return v1.PodCondition{
		Type:   v1.ContainersReady,
		Status: v1.ConditionTrue,
	}
}

// GeneratePodReadyCondition returns "Ready" condition of a pod.
// The status of "Ready" condition is "True", if all containers in a pod are ready
// AND all matching conditions specified in the ReadinessGates have status equal to "True".

			&BaseEndpointInfo{endpoint: "10.0.0.1:80", ready: false},
		},
		clusterEndpoints: sets.New[string](),
		localEndpoints:   nil,
	}, {
		name:        "Cluster traffic policy, some endpoints are Ready",
		serviceInfo: &BaseServicePortInfo{},
		endpoints: []Endpoint{
			&BaseEndpointInfo{endpoint: "10.0.0.0:80", ready: false},
			&BaseEndpointInfo{endpoint: "10.0.0.1:80", ready: true},
		},

		} else {
			// If oldpod != ready && newpod != ready, but the ambient annotation was added,
			// then assume this event was generated by the CNI plugin labeling the pod on startup,
			// and skip the event.
			//
			// This isn't perfect (someone could manually annotate an unready pod,
			// then install Istio, then the pod goes ready, and we'd miss capture) - but that
			// seems vanishingly unlikely

		logger.Info("marked pod ready", "pod", pod.Name, "ready", ready)
		count--
	}
	if count > 0 {
		t.Fatalf("could not mark %d pods ready=%t", count, ready)
	}
}

func currentDSHash(dsc *daemonSetsController, ds *apps.DaemonSet) (string, error) {
	// Construct histories of the DaemonSet, and get the hash of current history
	cur, _, err := dsc.constructHistory(context.TODO(), ds)
	if err != nil {
		return "", err

		},
		expectedQueueLen: 1,
	}, {
		name: "lopsided but 1 unready, queue required because unready node means 0 CPU in one zone",
		nodes: []nodeInfo{
			{zoneLabel: &zoneA, ready: &readyFalse, cpu: &cpu100},
			{zoneLabel: &zoneB, ready: &readyTrue, cpu: &cpu1000},
			{zoneLabel: &zoneC, ready: &readyTrue, cpu: &cpu2000},
		},
		topologyCacheEnabled: true,

	// Before accessing the cacher's cache, wait for the ready to be ok.
	// This is necessary to prevent users from accessing structures that are
	// uninitialized or are being repopulated right now.
	// ready needs to be set to false when the cacher is paused or stopped.
	// ready needs to be set to true when the cacher is ready to use after
	// initialization.
	ready *ready

	// Underlying storage.Interface.

	newPod.Status.PodIPs = []v1.PodIP{
		{
			IP: pod.Status.PodIP,
		},
	}
	newPod.Status.Phase = v1.PodRunning

	// Also need to sets the pod to be ready as now we only add pod into service entry endpoint when it's ready
	setPodReady(newPod)
	_, err = c.CoreV1().Pods(pod.Namespace).UpdateStatus(context.TODO(), newPod, metav1.UpdateOptions{})
	if err != nil {
		t.Fatal(err)
	}
}

	pod := newPod("node-1-", "node-1", simpleDaemonSetLabel, ds)
	pod.CreationTimestamp.Time = time.Unix(100, 0)
	manager.podStore.Add(pod)

	// will be deleted because it is unready
	oldUnreadyPod := newPod("node-1-old-unready-", "node-1", simpleDaemonSetLabel, ds)
	delete(oldUnreadyPod.Labels, apps.ControllerRevisionHashLabelKey)
	oldUnreadyPod.CreationTimestamp.Time = time.Unix(50, 0)