val DEFAULT_EXCLUDES_FOR_TEST = listOf(
            "org/gradle",
            "java",
            "javax/xml",
            "javax/inject",
            "groovy",
            "groovyjarjarantlr",
            "net/rubygrapefruit",
            "org/codehaus/groovy",
            "org/apache/tools/ant",
            "org/apache/commons/logging",
            "org/slf4j",
            "org/apache/log4j",
            "org/apache/xerces",

 * specific language governing permissions and limitations
 * under the License.
 */
package org.apache.maven.model.validation;

import javax.inject.Inject;
import javax.inject.Named;
import javax.inject.Singleton;

import java.io.File;
import java.util.Arrays;
import java.util.Collection;
import java.util.Collections;
import java.util.Deque;
import java.util.HashMap;

        config = configFile("codenarc-integtests.xml")
    }
}

val SourceSet.allGroovy: SourceDirectorySet
    get() = the<GroovySourceDirectorySet>()

abstract class CodeNarcRule @Inject constructor(
    private val groovyVersion: String
) : ComponentMetadataRule {
    override fun execute(context: ComponentMetadataContext) {
        context.details.allVariants {
            withDependencies {

can use different Istio versions and different configuration defaults.

`istioctl kube-inject` or the automatic sidecar injector are used to select the environment.
In the case of the sidecar injector, the namespace label `istio-env: <NAME_OF_ENV>` is used instead
of the conventional `istio-injected: true`. The name of the environment is defined as the namespace

	cmd.PersistentFlags().StringVarP(&revision, "revision", "r", "", revisionHelpStr)
	cmd.PersistentFlags().StringVarP(&webhookName, "webhook-name", "", "", webhookNameHelpStr)
	cmd.PersistentFlags().BoolVar(&autoInjectNamespaces, "auto-inject-namespaces", false, autoInjectNamespacesHelpStr)
	_ = cmd.MarkPersistentFlagRequired("revision")

	return cmd
}

func tagGenerateCommand(ctx cli.Context) *cobra.Command {
	cmd := &cobra.Command{

    // Inject failure to function instantiation if finding a node that contains
    // the given node name (error_node_) and requested device (error_device_).
    for (const auto node : graph->get()->nodes()) {
      if (node->name().find(error_node_) != string::npos &&
          node->requested_device() == error_device_) {
        return tensorflow::errors::Internal("Injected graph pass error.");
      }
    }

	osMetricStat
	osMetricAccess
	osMetricCreate
	osMetricReadDirent
	osMetricFdatasync
	osMetricSync

	// .... add more

	osMetricLast
)

var globalOSMetrics osMetrics

func init() {
	// Inject metrics.
	ioutilx.OsOpenFile = OpenFile
	ioutilx.OpenFileDirectIO = OpenFileDirectIO
	ioutilx.OsOpen = Open
}

type osMetrics struct {
	// All fields must be accessed atomically and aligned.

        val versionsToIncubating = mutableMapOf<Version, MutableSet<IncubatingDescription>>()
        JavaParser().parse(sourceFile).getResult().get().run {
            solver.inject(this)
            findAllIncubating()
                .map { node -> toVersionIncubating(sourceFile, node) }
                .forEach { (version, incubating) ->

		if err != nil {
			t.Fatalf("could not parse webhook from generated YAML: %s", webhookYAML)
		}
		wh := whObject.(*admitv1.MutatingWebhookConfiguration)

		// expect both namespace.sidecar-injector.istio.io and object.sidecar-injector.istio.io webhooks
		if len(wh.Webhooks) != tc.numWebhooks {
			t.Errorf("expected %d webhook(s) in MutatingWebhookConfiguration, found %d",
				tc.numWebhooks, len(wh.Webhooks))
		}

And then, that system (in this case **FastAPI**) will take care of doing whatever is needed to provide your code with those needed dependencies ("inject" the dependencies).

This is very useful when you need to:

* Have shared logic (the same code logic again and again).
* Share database connections.
* Enforce security, authentication, role requirements, etc.