// meta-data blob of length 'dlen' for the package in question, 'hash'
// is a compiler-computed md5.sum for the blob, 'pkpath' is the
// package path, 'pkid' is the hard-coded ID that the compiler is
// using for the package (or -1 if the compiler doesn't think a
// hard-coded ID is needed), and 'cmode'/'cgran' are the coverage
// counter mode and granularity requested by the user. Return value is

		print("a binary compiled for hard floating point. Recompile adding ,softfloat\n")
		print("to GOARM.\n")
		exit(1)
	}
	if goarm > 6 && cpu.HWCap&_HWCAP_VFPv3 == 0 && goarmsoftfp == 0 {
		print("runtime: this CPU has no VFPv3 floating point hardware, so it cannot run\n")
		print("a binary compiled for VFPv3 hard floating point. Recompile adding ,softfloat\n")

		print("a binary compiled for hard floating point. Recompile adding ,softfloat\n")
		print("to GOARM.\n")
		exit(1)
	}
	if goarm > 6 && cpu.HWCap&_HWCAP_VFPv3 == 0 && goarmsoftfp == 0 {
		print("runtime: this CPU has no VFPv3 floating point hardware, so it cannot run\n")
		print("a binary compiled for VFPv3 hard floating point. Recompile adding ,softfloat\n")

	resourceQuota := &corev1.ResourceQuota{}
	resourceQuota.Name = "quota"
	resourceQuota.Namespace = "test"
	resourceQuota.Status = corev1.ResourceQuotaStatus{
		Hard: corev1.ResourceList{},
		Used: corev1.ResourceList{},
	}
	resourceQuota.Status.Hard[corev1.ResourceMemory] = resource.MustParse("2Gi")
	resourceQuota.Status.Used[corev1.ResourceMemory] = resource.MustParse("1Gi")
	stopCh := make(chan struct{})
	defer close(stopCh)

var origRlimitNofile atomic.Pointer[Rlimit]

// Some systems set an artificially low soft limit on open file count, for compatibility
// with code that uses select and its hard-coded maximum file descriptor
// (limited by the size of fd_set).
//
// Go does not use select, so it should not be subject to these limits.
// On some systems the limit is 256, which is very easy to run into,

		// Re-build the endpoints for this service with a new discoverability policy.
		// Also update any internal caching.
		endpoints := ec.buildEndpointsForService(svc, true)
		shard := model.ShardKeyFromRegistry(ec)
		ec.opts.XDSUpdater.EDSUpdate(shard, svc.Hostname.String(), se.GetNamespace(), endpoints)
	}
}

func (ec *serviceExportCacheImpl) EndpointDiscoverabilityPolicy(svc *model.Service) model.EndpointDiscoverabilityPolicy {

// Returns "/tensorflow/core/checkpoint/sharding/num_checkpoint_shards_written"
// cell which describes how many checkpoint shard files were written during
// saving.
monitoring::CounterCell& NumCheckpointShardsWritten();

// Returns "/tensorflow/core/checkpoint/sharding/callback_description" cell
// which describes the callback used to shard the checkpoint during saving.
monitoring::GaugeCell<std::string>& ShardingCallbackDescription();

{{- if .Values.cni.resourceQuotas.enabled }}
apiVersion: v1
kind: ResourceQuota
metadata:
  name: {{ template "name" . }}-resource-quota
  namespace: {{ .Release.Namespace }}
spec:
  hard:
    pods: {{ .Values.cni.resourceQuotas.pods | quote }}
  scopeSelector:
    matchExpressions:
    - operator: In
      scopeName: PriorityClass
      values:
      - system-node-critical

		// First get endpoint level service accounts
		shard, f := env.EndpointIndex.ShardsForService(string(svc.Hostname), svc.Attributes.Namespace)
		if f {
			shard.RLock()
			// copy here to reduce the lock time
			// endpoints could update frequently, so the longer it locks, the more likely it will block other threads.
			accounts = shard.ServiceAccounts.Copy()
			shard.RUnlock()
		}
		if len(svc.ServiceAccounts) > 0 {

                    setDirectory(workingDir).
                    setCloneSubmodules(true);
            git = clone.call();
            git.reset().setMode(ResetCommand.ResetType.HARD).setRef(ref.getCanonicalId()).call();
        } catch (GitAPIException | URISyntaxException | JGitInternalException e) {
            throw wrapGitCommandException("clone", gitSpec.getUrl(), workingDir, e);
        } finally {