}
	if _, f := e.endpointsByServiceAndSlice[hostname]; !f {
		e.endpointsByServiceAndSlice[hostname] = make(map[string][]*model.IstioEndpoint)
	}
	// We will always overwrite. A conflict here means an endpoint is transitioning
	// from one slice to another See
	// https://github.com/kubernetes/website/blob/master/content/en/docs/concepts/services-networking/endpoint-slices.md#duplicate-endpoints

	// enabled if gen != 0. This is used as an optimistic fast path check.
	//
	// Transitioning this value from true -> false is easy (once gen is 0)
	// because it's OK for enabled to have a stale "true" value. traceAcquire will
	// always double-check gen.
	//
	// Transitioning this value from false -> true is harder. We need to make sure

func applyExpiryRule(event lifecycle.Event, src lcEventSrc, obj ObjectInfo) bool {
	globalExpiryState.enqueueByDays(obj, event, src)
	return true
}

// Perform actions (removal or transitioning of objects), return true the action is successfully performed
func applyLifecycleAction(event lifecycle.Event, src lcEventSrc, obj ObjectInfo) (success bool) {
	switch action := event.Action; action {

            if (service.state() != NEW) {
              servicesInBadStates.add(service);
            }
          }
          throw new IllegalArgumentException(
              "Services started transitioning asynchronously before "
                  + "the ServiceManager was constructed: "
                  + servicesInBadStates);
        }
      } finally {
        monitor.leave();
      }
    }

            if (service.state() != NEW) {
              servicesInBadStates.add(service);
            }
          }
          throw new IllegalArgumentException(
              "Services started transitioning asynchronously before "
                  + "the ServiceManager was constructed: "
                  + servicesInBadStates);
        }
      } finally {
        monitor.leave();
      }
    }

// timer resolution to 15.6 ms, this keeps timer error under roughly 1
// part in 4.
const osRelaxMinNS = 60 * 1e6

// osRelax is called by the scheduler when transitioning to and from
// all Ps being idle.
//
// Some versions of Windows have high resolution timer. For those
// versions osRelax is noop.
// For Windows versions without high resolution timer, osRelax

		}
	}
	newPodStatus.Conditions = podConditions

	// ResourceClaimStatuses is not owned and not modified by kubelet.
	newPodStatus.ResourceClaimStatuses = oldPodStatus.ResourceClaimStatuses

	// Delay transitioning a pod to a terminal status unless the pod is actually terminal.
	// The Kubelet should never transition a pod to terminal status that could have running

	// of the G's stack. Note: it's safe to access gp.waitreason here.
	// We're only checking if this is true if we took ownership of the
	// G with the _Gscan bit. This prevents the goroutine from transitioning,
	// which prevents gp.waitreason from changing.
	if traceEnabled() && readgstatus(gp)&^_Gscan == _Gwaiting && gp.waitreason.isWaitingForGC() {
		return false
	}
	return true
}

		gp.trackingStamp = now
	case _Grunnable:
		// We just transitioned into runnable, so record what
		// time that happened.
		now := nanotime()
		gp.trackingStamp = now
	case _Grunning:
		// We're transitioning into running, so turn off
		// tracking and record how much time we spent in
		// runnable.
		gp.tracking = false
		sched.timeToRun.record(gp.runnableTime)
		gp.runnableTime = 0
	}
}

	fs.DurationVar(&c.EvictionPressureTransitionPeriod.Duration, "eviction-pressure-transition-period", c.EvictionPressureTransitionPeriod.Duration, "Duration for which the kubelet has to wait before transitioning out of an eviction pressure condition.")