}
	return phase
}

func getCertPhaseFlags(name string) []string {
	flags := []string{
		options.CertificatesDir,
		options.CfgPath,
		options.KubernetesVersion,
		options.DryRun,
	}
	if name == "all" || name == "apiserver" {
		flags = append(flags,
			options.APIServerAdvertiseAddress,
			options.ControlPlaneEndpoint,
			options.APIServerCertSANs,

private
fun applyConventionMappingTo(taskType: Class<*>, relevantFields: List<RelevantField>): List<RelevantField> =
    conventionAwareFieldsOf(taskType).toMap().let { flags ->
        relevantFields.map { relevantField ->
            relevantField.run {
                flags[field]?.let { flagField ->
                    copy(isExplicitValueField = flagField.apply(Field::makeAccessible))
                }
            } ?: relevantField

	allPlugins = append(allPlugins, local.ProbeVolumePlugins()...)
	allPlugins = append(allPlugins, csi.ProbeVolumePlugins()...)
	return allPlugins
}

func NewHollowKubelet(
	flags *options.KubeletFlags,
	config *kubeletconfig.KubeletConfiguration,
	client *clientset.Clientset,
	heartbeatClient *clientset.Clientset,
	cadvisorInterface cadvisor.Interface,
	imageService internalapi.ImageManagerService,

// queueMsg queues a message, with an optional payload.
// sender should not reference msg.Payload
func (c *Connection) queueMsg(msg message, payload sender) error {
	// Add baseflags.
	msg.Flags.Set(c.baseFlags)
	// This cannot encode subroute.
	msg.Flags.Clear(FlagSubroute)
	if payload != nil {
		if sz := payload.Msgsize(); cap(msg.Payload) < sz {
			PutByteBuffer(msg.Payload)
			msg.Payload = GetByteBufferCap(sz)
		}

	}

	return s, level, nil
}

// AttachCobraFlags attaches a set of Cobra flags to the given Cobra command.
//
// Cobra is the command-line processor that Istio uses. This command attaches
// the necessary set of flags to expose a CLI to let the user control all
// logging options.
func (o *Options) AttachCobraFlags(cmd *cobra.Command) {
	o.AttachFlags(

		Long: `Istio configuration command line utility for service operators to
debug and diagnose their Istio mesh.
`,
	}

	rootCmd.SetArgs(args)

	flags := rootCmd.PersistentFlags()
	rootOptions := cli.AddRootFlags(flags)

	ctx := cli.NewCLIContext(rootOptions)

	_ = rootCmd.RegisterFlagCompletionFunc(cli.FlagIstioNamespace, func(
		cmd *cobra.Command, args []string, toComplete string,

      ConvertArg(model_flags_proto_txt_raw, &error);
  if (error) {
    PyErr_SetString(PyExc_ValueError, "Model flags are invalid.");
    return nullptr;
  }
  std::string toco_flags_proto_txt =
      ConvertArg(toco_flags_proto_txt_raw, &error);
  if (error) {
    PyErr_SetString(PyExc_ValueError, "Toco flags are invalid.");
    return nullptr;
  }

  // Use TOCO to produce new outputs.

	}
}

// evaluate an ARM64 op against a flags value
// that is potentially constant; return 1 for true,
// -1 for false, and 0 for not constant.
func ccARM64Eval(op Op, flags *Value) int {
	fop := flags.Op
	if fop == OpARM64InvertFlags {
		return -ccARM64Eval(op, flags.Args[0])
	}
	if fop != OpARM64FlagConstant {
		return 0
	}
	fc := flagConstant(flags.AuxInt)
	b2i := func(b bool) int {
		if b {

          $flags+=" --config.custom-plugin-monitor={0}" -f ($custom_plugin_monitors -join ",")
        }
      }
      else {
        $flags = ${kube_env}['NODE_PROBLEM_DETECTOR_CUSTOM_FLAGS']
      }
      $kubernetes_master_name = ${kube_env}['KUBERNETES_MASTER_NAME']

# END TF TEST SUITE OPTIONS

# START CROSS-COMPILE CONFIGS
# Set execution platform to Linux x86
# Note: Lot of the "host_" flags such as "host_cpu" and "host_crosstool_top"
# flags seem to be actually used to specify the execution platform details. It
# seems it is this way because these flags are old and predate the distinction
# between host and execution platform.
build:cross_compile_base --host_cpu=k8