///

## Importez le `BaseModel` de Pydantic

Commencez par importer la classe `BaseModel` du module `pydantic` :

{* ../../docs_src/body/tutorial001.py hl[4] *}

## Créez votre modèle de données

Déclarez ensuite votre modèle de données en tant que classe qui hérite de `BaseModel`.

Utilisez les types Python standard pour tous les attributs :

@Experimental
@Immutable
public interface Dependency extends Artifact {
    /**
     * {@return the type of the dependency}.
     * A dependency can be a <abbr>JAR</abbr> file,
     * a modular-<abbr>JAR</abbr> if it is intended to be placed on the module path,
     * a <abbr>JAR</abbr> containing test classes, <i>etc.</i>
     *
     * @see DependencyCoordinates#getType()
     */
    @Nonnull
    Type getType();

    /**

 *   <li><strong>Schema Location Update</strong>: Updates xsi:schemaLocation to Maven 4.1.0 XSD</li>
 *   <li><strong>Module Conversion</strong>: Converts {@code <modules>} to {@code <subprojects>} and {@code <module>} to {@code <subproject>}</li>
 *   <li><strong>Model Version Update</strong>: Updates {@code <modelVersion>} to 4.1.0</li>
 * </ol>
 *
 * <h3>Default Behavior</h3>

            return filtered;
        }

        // Distinct the projects to avoid duplicates.  Duplicates are possible in multi-module projects.
        //
        // Given a scenario where there is an aggregate POM with modules A, B, C, D, and E and project E depends on
        // A, B, C, and D. If the aggregate POM is being filtered for non-transitive and downstream dependencies where

        return plugins.keySet();
    }

    /**
     * Performs a lookup using Plexus API to make sure we can look up only "visible" (see Maven classloading) components
     * from current module and for example not extensions coming from other modules.
     */
    private LifecycleMapping lookupLifecycleMapping(final String packaging) {
        return lookup.lookupOptional(LifecycleMapping.class, packaging).orElse(null);
    }

     */
    private String deprecated;

    /**
     * Flags this Mojo to run it in a multi-module way, i.e. aggregate the build with the set of projects listed as
     * modules. By default, no need to aggregate the Maven project and its child modules
     */
    private boolean aggregator = false;

    // ----------------------------------------------------------------------
    //

                  <project path="$PROJECT_DIR$/build-logic/buildquality" />
                  <project path="$PROJECT_DIR$/build-logic/cleanup" />
                  <project path="$PROJECT_DIR$/build-logic/dependency-modules" />
                  <project path="$PROJECT_DIR$/build-logic/documentation" />
                  <project path="$PROJECT_DIR$/build-logic/idea" />
                  <project path="$PROJECT_DIR$/build-logic/integration-testing" />

     *   where multiple modules in the reactor have the same artifactId.
     * <p>
     * {@code -rf :artifactId} will pick up the first module which matches, but when multiple modules in the reactor
     *   have the same artifactId, effective failed module might be later in build reactor.
     * This means that developer will either have to type groupId or wait for build execution of all modules which

     * This value can determine whether a dependency will be placed on the class-path or on the module-path.
     * For example, if the {@code module-info.class} entry of a <abbr>JAR</abbr> file exists only in the
     * {@code META-INF/versions/17/} sub-directory, then the default location of that dependency will be
     * the module-path only if the {@code --release} option is equal or greater than 17.
     *

import gradlebuild.integrationtests.tasks.DistributionTest
import gradlebuild.integrationtests.tasks.GenerateAutoTestedSamplesTestTask
import gradlebuild.integrationtests.tasks.IntegrationTest
import gradlebuild.modules.extension.ExternalModulesExtension
import gradlebuild.testing.services.BuildBucketProvider
import org.gradle.api.Action
import org.gradle.api.Project
import org.gradle.api.artifacts.Configuration