SIGHUP, SIGINT, or SIGTERM signal causes the program to exit. A
SIGQUIT, SIGILL, SIGTRAP, SIGABRT, SIGSTKFLT, SIGEMT, or SIGSYS signal
causes the program to exit with a stack dump. A SIGTSTP, SIGTTIN, or
SIGTTOU signal gets the system default behavior (these signals are
used by the shell for job control). The SIGPROF signal is handled
directly by the Go runtime to implement runtime.CPUProfile. Other
signals will be caught but no action will be taken.

    - `istio-cni-config` configmap with CNI plugin config to add to CNI plugin chained config
    - creates service-account `istio-cni` with `ClusterRoleBinding` to allow gets on pods' info and delete/modifications for recovery.

- `install-cni` container
    - copies `istio-cni` and `istio-iptables` to `/opt/cni/bin`
    - creates kubeconfig for the service account the pod runs under

		klog.V(2).Infof("%v", change.ToString())
	}
	return nil
}

// GetCoreDNSInfo gets the current CoreDNS installed and the current Corefile Configuration of CoreDNS.
func GetCoreDNSInfo(client clientset.Interface) (*v1.ConfigMap, string, string, error) {
	coreDNSConfigMap, err := client.CoreV1().ConfigMaps(metav1.NamespaceSystem).Get(context.TODO(), kubeadmconstants.CoreDNSConfigMap, metav1.GetOptions{})
	if err != nil {

        when:
        def p1 = container.register("task")
        def p2 = container.named("task")
        def replaced = container.replace("task")

        then:
        p1.get() == p2.get()
        p1.get() == replaced
        p1.get() == container.getByName("task")
    }

    void "fails if unknown task is requested"() {
        when:
        container.getByName("unknown")

        then:

	NoLock                              bool      // indicates to lower layers if the caller is expecting to hold locks.
	ProxyRequest                        bool      // only set for GET/HEAD in active-active replication scenario
	ProxyHeaderSet                      bool      // only set for GET/HEAD in active-active replication scenario
	ReplicationRequest                  bool      // true only if replication request

      tensorflow::OpRegistry::Global(), tensorflow::FunctionDefLibrary());
  pflr_ = std::make_unique<tensorflow::ProcessFunctionLibraryRuntime>(
      device_mgr_.get(), tensorflow::Env::Default(), /*config=*/nullptr,
      version_or.value(), flib_def_.get(), tensorflow::OptimizerOptions());
  params_.function_library = pflr_->GetFLR(device_->name());
  return success();
}

	staticStrictPolicyName = "istio_converted_static_strict" // use '_' character since those are illegal in k8s names
)

func (a *index) Policies(requested sets.Set[model.ConfigKey]) []model.WorkloadAuthorization {
	// TODO: use many Gets instead of List?
	cfgs := a.authorizationPolicies.List()
	l := len(cfgs)
	if len(requested) > 0 {
		l = len(requested)
	}
	res := make([]model.WorkloadAuthorization, 0, l)
	for _, cfg := range cfgs {

		// add post start hook to start hot reload controller
		// adding this hook here will ensure that it gets configured exactly once
		err = c.AddPostStartHook(
			"start-encryption-provider-config-automatic-reload",
			func(_ server.PostStartHookContext) error {

We also configure Kotlin, Java, tests and more.

Our build file is beginning to grow...

The more plugins we apply and the more plugins we configure, the larger it gets.
There's also repetition in the build files of the `app` and `data-model` subprojects, especially when configuring common extensions like setting the Java version and Kotlin support.

To address this, we use convention plugins.

    accelerator_device_info->stream = stream_.get();
    accelerator_device_info->default_context = device_contexts_.at(0);
    set_tensorflow_accelerator_device_info(accelerator_device_info.get());
    accelerator_device_info_ = std::move(accelerator_device_info);
    VLOG(1) << "XlaDevice " << this << " new AcceleratorDeviceInfo "
            << accelerator_device_info_.get();
  }

  return device_contexts_;
}