// by the same GC controller in another apiserver, which is legit.
				// We don't expect other components to delete the lease.
				klog.V(4).InfoS("Apiserver lease is gone already", "err", err)
			} else {
				klog.ErrorS(err, "Error deleting lease")
			}
		}
	}
}

func isLeaseExpired(lease *v1.Lease) bool {
	currentTime := time.Now()

[[logging]]
= Logging

The log serves as the primary 'UI' of a build tool.
If it becomes overly verbose, important warnings and issues can be obscured.
However, it is essential to have relevant information to determine if something has gone wrong.

Gradle defines six log levels, detailed in <<#logLevels,Log levels>>.
In addition to the standard log levels, Gradle introduces two specific levels: _QUIET_ and _LIFECYCLE_.

	case StatusProxyAuthRequired:
		return "Proxy Authentication Required"
	case StatusRequestTimeout:
		return "Request Timeout"
	case StatusConflict:
		return "Conflict"
	case StatusGone:
		return "Gone"
	case StatusLengthRequired:
		return "Length Required"
	case StatusPreconditionFailed:
		return "Precondition Failed"
	case StatusRequestEntityTooLarge:
		return "Request Entity Too Large"

	}
	if util.PodRedirectionEnabled(ns, pod) {
		return pod, nil
	}
	return nil, nil
}

func (s *InformerHandlers) Start() {
	kube.WaitForCacheSync("informer", s.ctx.Done(), s.pods.HasSynced, s.namespaces.HasSynced)
	go s.queue.Run(s.ctx.Done())
}

// Gets a point-in-time snapshot of all pods that are CURRENTLY ambient enabled
// (as per control plane annotation)

					CanonicalRevision: "latest",
					ServiceAccount:    "sa1",
					WorkloadType:      workloadapi.WorkloadType_POD,
					WorkloadName:      "pod1",
					Services:          nil, // vips for pod1 should be gone now
				},
			},
		},
	}})

	assert.Equal(t, s.lookup(s.addrXdsName("240.240.34.56")), []model.AddressInfo{{
		Address: &workloadapi.Address{
			Type: &workloadapi.Address_Workload{

	// ensure that no further traffic for the Service gets delivered to them.
	DeletedUDPEndpoints []ServiceEndpoint

	// NewlyActiveUDPServices identifies UDP Services that have just gone from 0 to
	// non-0 endpoints. Existing conntrack entries caching the fact that these
	// services are black holes must be deleted to ensure that traffic can immediately
	// begin flowing to the new endpoints.

	// ensure that the status is up to date on the namespace
	// if we get a not found error, we assume the namespace is truly gone
	namespace, err = d.retryOnConflictError(ctx, namespace, d.updateNamespaceStatusFunc)
	if err != nil {
		if errors.IsNotFound(err) {
			return nil
		}
		return err
	}

  if (cluster_not_found) {
    RegisterExecutionForCluster(function, &it->second);
  }

  // We avoid compiling clusters that have "gone megamorphic" i.e. have an
  // excessive amount of shape dynamism.
  if (it->second.is_megamorphic) {
    BroadcastOptimizationRemark(XlaOptimizationRemark::MEGAMORPHIC_FUNCTION,
                                function.name())
        .IgnoreError();

	// Handlers should always test for this ability at runtime
	//
	// The CloseNotifier interface is implemented by ResponseWriters which allow detecting
	// when the underlying connection has gone away.
	// Deprecated: the CloseNotifier interface predates Go's context package.
	// New code should use Request.Context instead.
	inner := decorator.Unwrap()
	if innerNotifierFlusher, ok := inner.(CloseNotifierFlusher); ok {

change unified the key-management aspect within MinIO.

The unified KMS-based approach has several advantages:

- Key management is now centralized. There is one way to change or rotate encryption keys.
   There used to be two different mechanisms - one for regular S3 objects and one for IAM data.
- Reduced server startup time. For IAM encryption with the root credentials, MinIO had