server.Port.Name + "." + cfg.Name + "." + cfg.Namespace + bind // Format: https.%d.%s.%s.%s.%s
	}

	return ""
}

// ParseGatewayRDSRouteName is used by the EnvoyFilter patching logic to match
// a specific route configuration to patch.
func ParseGatewayRDSRouteName(name string) (portNumber int, portName, gatewayName string) {
	if strings.HasPrefix(name, "http.") {

		for k, v := range subset.Annotations {
			if k == "proxy.istio.io/config" {
				if err := patchProxyConfigFile(path.Join(subsetDir, "mesh.yaml"), v); err != nil {
					return fmt.Errorf("failed patching proxyconfig: %v", err)
				}
			}
		}

		if err := customizeVMEnvironment(ctx, cfg, path.Join(subsetDir, "cluster.env"), istiodAddr); err != nil {
			return fmt.Errorf("failed customizing cluster.env: %v", err)

			// if clusterIPs are the same, then clear on their behalf
			if sameClusterIPs(oldSvc, newSvc) {
				newSvc.Spec.ClusterIPs = nil
			}

			// if they provided nil, then we are fine (handled by patching case above)
			// if they changed it then validation will catch it
		} else {
			// ClusterIP has changed but not cleared *and* ClusterIPs are the same
			// then we set ClusterIPs based on ClusterIP

	updatePod *example.Pod

	// expectedPod is the pod that you expect to get back after the patch is complete
	expectedPod   *example.Pod
	expectedError string
	// if set, indicates the number of times patching was expected to be attempted
	expectedTries int
}

func (tc *patchTestCase) Run(t *testing.T) {
	t.Logf("Starting test %s", tc.name)

	namespace := tc.startingPod.Namespace
	name := tc.startingPod.Name

			virtualHosts = append(virtualHosts, v)
		}
	}

	util.SortVirtualHosts(virtualHosts)

	routeCfg := &route.RouteConfiguration{
		// Retain the routeName as its used by EnvoyFilter patching logic
		Name:                           routeName,
		VirtualHosts:                   virtualHosts,
		ValidateClusters:               proto.BoolFalse,
		IgnorePortInHostMatching:       !node.IsProxylessGrpc(),

For example, the `javaCompile` task action calls the Java compiler to transform source code into byte code.

It is possible to dynamically modify task actions for tasks that are already registered.
This is helpful for testing, patching, or modifying core build logic.

Let's look at an example of a simple Gradle build with one `app` subproject that makes up a Java application – containing one Java class and using Gradle's `application` plugin.

        when:
        1 * one.missing >> false
        0 * componentSelectionRules.apply(_, _)

        then:
        chooser.selectNewestComponent(one, two) == one
    }

    def "chooses newest matching version without requiring metadata"() {
        given:
        def a = component('1.2')
        def b = component('1.3')
        def c = component('2.0')

    HISTORICAL_PERFORMANCE("Historical Performance", "Once a week: Run performance tests for multiple Gradle versions", "HistoricalPerformance"),
    EXPERIMENTAL_VFS_RETENTION("Experimental FS Watching", "On demand checks to run tests with file system watching enabled", "ExperimentalVfsRetention"),
    EXPERIMENTAL_PERFORMANCE("Experimental Performance", "Try out new performance test running", "ExperimentalPerformance");

    val id: String

Enables project isolation, which enables configuration caching.
+
_Default is `false`._

`org.gradle.vfs.verbose=(true,false)`::
Configures verbose logging when <<file_system_watching.adoc#sec:daemon_watch_fs,watching the file system>>.
+
_Default is `false`._

`org.gradle.vfs.watch=(true,false)`::
Toggles <<file_system_watching.adoc#sec:daemon_watch_fs,watching the file system>>.

     * for variants that are selected by means other than attribute matching.
     *
     * Note: This does not need to be called for variants selected via attribute matching, since
     * attribute matching ensures selected variants are compatible with the requested attributes.
     */
    private void validateVariantAttributes(