// it will first discover at least one etcd endpoint to connect to. Once created, the client synchronizes client's endpoints with
// the known endpoints from the etcd membership API, since it is the authoritative source of truth for the list of available members.
func NewFromCluster(client clientset.Interface, certificatesDir string) (*Client, error) {

     * Represents a work node that prepares the upstream dependencies of a particular transform applied to a particular artifact.
     * This is a separate node so that this work can access project state to do the resolution and to discover additional dependencies for the transform
     * during resolution of upstream dependencies. It also allows the work of resolution to be attributed separately to the work of the transform.
     */

		return !excludeAddrs.Contains(s)
	})

	proxyArgs.IPAddresses = append(proxyArgs.IPAddresses, proxyAddrs...)
	log.Debugf("proxy IPAddresses: %v", proxyArgs.IPAddresses)

	// After IP addresses are set, let us discover IPMode.
	proxyArgs.DiscoverIPMode()

	// Extract pod variables.
	proxyArgs.ID = proxyArgs.PodName + "." + proxyArgs.PodNamespace

	// If not set, set a default based on platform - podNamespace.svc.cluster.local for

--
There are dependencies that Gradle _cannot_ discover this way.
In particular, you will notice that the CLI above uses the `help` task.
If you don't specify any task, Gradle will automatically run the default task and generate a configuration file at the end of the build too.

The difference is that Gradle _may_ discover more dependencies and artifacts depending on the tasks you execute.

        ReflectionUtils.generateInjectingInitializer(Key.of((Class<T>) instance.getClass()))
                .compile(this::getCompiledBinding)
                .accept(instance);
    }

    @Override
    public Injector discover(ClassLoader classLoader) {
        try {
            Enumeration<URL> enumeration = classLoader.getResources("META-INF/maven/org.apache.maven.api.di.Inject");
            while (enumeration.hasMoreElements()) {

	name = name[strings.LastIndex(name, `/`)+1:]
	name = name[strings.LastIndex(name, `\`)+1:]
	name = strings.TrimSuffix(name, ".exe")

	p := ""

	if s == "goexperiment" {
		// test/run.go uses this to discover the full set of
		// experiment tags. Report everything.
		p = " X:" + strings.Join(buildcfg.Experiment.All(), ",")
	} else {
		// If the enabled experiments differ from the baseline,
		// include that difference.

That's expected and ensures the portal won't be overrun with multiple experimental and duplicate greeting-type plugins.

After approval, your plugin will be available on the Gradle Plugin Portal for others to discover and use.

[[consume]]
== Consume the published plugin

Once you successfully publish a plugin, it won't immediately appear on the Portal.

	if lookupErr != nil {
		if groupLookupFailures, isLookupFailure := discovery.GroupDiscoveryFailedErrorGroups(lookupErr); isLookupFailure {
			logger.Info("failed to discover some groups", "groups", groupLookupFailures)
		} else {
			logger.Info("failed to discover preferred resources", "error", lookupErr)
		}
	}
	if preferredResources == nil {

You can use string literals for configuration names in dependency declarations and within the `configurations {}` block.

The IDE won't be able to help you discover the available configurations in this situation, but you can look them up either in the corresponding plugin's documentation or by running `gradle dependencies`.

==== Project extensions and conventions

     * all additional modules, the second step creates a {@link ClassLoader} based on the provided classpath and
     * modulepath and attempts to discover the modules which are already present.
     */
    private AdditionalClasspath filterAdditionalClasspath(Iterable<? extends File> classpath, Iterable<? extends File> modulepath, AdditionalClasspath unfiltered) {