encapsulating_function, uncompilable_nodes);
    VLOG(2) << "Rejecting node " << node.name() << ": " << uncompilable_reason
            << ".";
    return false;
  }
  if (!IsCompilableCall(call, lib_runtime, stack_trace, encapsulating_function,
                        uncompilable_nodes)) {
    VLOG(2) << "Rejecting node " << node.name()
            << ": can't compile : " << call.op();
    return false;

    # always skip the injection on pods that match that label selector, regardless of the global policy.
    # See https://istio.io/docs/setup/kubernetes/additional-setup/sidecar-injection/#more-control-adding-exceptions
    neverInjectSelector: []
    alwaysInjectSelector: []

    # injectedAnnotations are additional annotations that will be added to the pod spec after injection

    # always skip the injection on pods that match that label selector, regardless of the global policy.
    # See https://istio.io/docs/setup/kubernetes/additional-setup/sidecar-injection/#more-control-adding-exceptions
    neverInjectSelector: []
    alwaysInjectSelector: []
    # injectedAnnotations are additional annotations that will be added to the pod spec after injection

    /**
     * Returns the services available for injection into the implementation instance.
     */
    public ServiceLookup servicesForImplementation(@Nullable PARAMS params, ServiceLookup allServices) {
        return servicesForImplementation(params, allServices, Collections.emptyList(), c -> false);
    }

    /**
     * Returns the services available for injection into the implementation instance.
     */

- and the other end is in ztunnel's pod

and setting up iptables rules to funnel traffic thru that socket "tube" to ztunnel and back.

This effectively behaves like ztunnel is an in-pod sidecar, without actually requiring the injection of ztunnel as a sidecar into the pod manifest, or mutatating the application pod in any way.

	revLabel := klabels.Set{"istio.io/rev": "canary"}
	legacyAndRevLabel := klabels.Set{"istio-injection": "enabled", "istio.io/rev": "canary"}
	legacyDisabledAndRevLabel := klabels.Set{"istio-injection": "disabled", "istio.io/rev": "canary"}
	legacyLabel := klabels.Set{"istio-injection": "enabled"}
	legacyLabelDisabled := klabels.Set{"istio-injection": "disabled"}

	objEnabled := klabels.Set{"sidecar.istio.io/inject": "true"}

				return nil
			})
		}
		// Set up injection webhook patching for remote clusters we are controlling.
		// The config cluster has this patching set up elsewhere. We may eventually want to move it here.
		// We can not use leader election for webhook patching because each revision needs to patch its own
		// webhook.
		if shouldLead && !configCluster && m.caBundleWatcher != nil {
			// Patch injection webhook cert

### Einbringen von Abhängigkeiten (Dependency Injection)

FastAPI enthält ein extrem einfach zu verwendendes, aber extrem mächtiges <abbr title='Dependency Injection – Einbringen von Abhängigkeiten: Auch bekannt als Komponenten, Resourcen, Dienste, Dienstanbieter'><strong>Dependency Injection</strong></abbr> System.

        return firstResult
    }

    // In JUnit 3/4 test case name is exactly the method name
    // In JUnit 5 test method injection is allowed: http://junit.org/junit5/docs/current/user-guide/#writing-tests-dependency-injection
    // So test case name is [method name + parameters]
    static String removeParentheses(String testName) {

Es erreicht etwas Ähnliches wie Flask-apispec.

Es verfügt über ein integriertes Dependency Injection System, welches von Angular 2 inspiriert ist. Erfordert ein Vorab-Registrieren der „Injectables“ (wie alle anderen Dependency Injection Systeme, welche ich kenne), sodass der Code ausschweifender wird und es mehr Codeverdoppelung gibt.