)

// Union returns an audit Backend which logs events to a set of backends. The returned
// Sink implementation blocks in turn for each call to ProcessEvents.
func Union(backends ...Backend) Backend {
	if len(backends) == 1 {
		return backends[0]
	}
	return union{backends}
}

type union struct {
	backends []Backend
}

func (u union) ProcessEvents(events ...*auditinternal.Event) bool {

	b.ProcessEvents(events...)

	for i, b := range backends {
		// so we can inspect the underlying events.
		backend := b.(*fakeBackend)

		if got := len(backend.events); got != n {
			t.Errorf("backend %d wanted %d events, got %d", i, n, got)
			continue
		}
		for j, event := range backend.events {
			wantID := types.UID(strconv.Itoa(j))
			if event.AuditID != wantID {

  std::vector<std::unique_ptr<tac::TargetHardware>> backends;
  for (const auto& hardware_name : options_.hardware_backends) {
    auto factory = tac::GetTargetHardwareFactory(hardware_name);
    backends.emplace_back(factory());
    backends.back()->Init();
  }
  return backends;
}

absl::Status TacModule::Run() {
  // Construct all backends.
  backends_ = InstantiateBackends();

			tlsConfig.InsecureSkipVerify = false
		}
	}

	backends := []Backend{}
	for server := range servers {
		backends = append(backends, Backend{
			Server: server,
			// We can't share TLSConfig across different backends to avoid races.
			// For more details see: https://pr.k8s.io/59338
			TLSConfig: tlsConfig.Clone(),
		})
	}
	return backends
}

  std::unique_ptr<TacImporter> importer_;
  std::unique_ptr<TacExporter> exporter_;
  // Owned list of all target hardware backends.
  std::vector<std::unique_ptr<tac::TargetHardware>> backends_;
  // Holder for const pointers for the data in 'backends_'
  std::vector<const tac::TargetHardware*> const_backends_;
  // Extra dialects requested by the user.
  mlir::DialectRegistry registry_;

plugins {
    id("gradlebuild.internal.java")
}

description = "Asciidoctor extensions that only work with html backends"

val asciiDoctorVersion = "2.5.11"

dependencies {
    api("org.asciidoctor:asciidoctorj-api:$asciiDoctorVersion")
    api("org.asciidoctor:asciidoctorj:$asciiDoctorVersion")

    implementation("commons-io:commons-io:2.11.0")
    implementation(project(":docs-asciidoctor-extensions-base"))
}

java {

plugins {
    id("gradlebuild.internal.java")
    groovy
}

description = "Asciidoctor extensions that work with all backends"

val asciiDoctorVersion = "2.5.11"

errorprone {
    disabledChecks.addAll(
        "DefaultCharset", // 1 occurrences
        "OperatorPrecedence", // 1 occurrences
        "StringCaseLocaleUsage", // 1 occurrences
    )
}

dependencies {
    api("org.asciidoctor:asciidoctorj-api:$asciiDoctorVersion")

DNS Horizontal Autoscaler enables horizontal autoscaling feature for DNS service
in Kubernetes clusters. This autoscaler runs as a Deployment. It collects cluster
status from the APIServer, horizontally scales the number of DNS backends based
on demand. Autoscaling parameters could be tuned by modifying the `kube-dns-autoscaler`
ConfigMap in `kube-system` namespace.

Learn more about:

	return nil, nil
}

func (f fakeStorageFactory) ResourcePrefix(groupResource schema.GroupResource) string {
	return ""
}

func (f fakeStorageFactory) Backends() []storage.Backend {
	return []storage.Backend{{Server: "etcd-0"}}
}

func (f fakeStorageFactory) Configs() []storagebackend.Config {
	return []storagebackend.Config{{Transport: storagebackend.TransportConfig{ServerList: []string{"etcd-0"}}}}

func (s *SimpleStorageFactory) Configs() []storagebackend.Config {
	return serverstorage.Configs(s.StorageConfig)
}

func (s *SimpleStorageFactory) Backends() []serverstorage.Backend {
	// nothing should ever call this method but we still provide a functional implementation
	return serverstorage.Backends(s.StorageConfig)
}

var _ serverstorage.StorageFactory = &transformerStorageFactory{}

type transformerStorageFactory struct {