| `minio_node_ilm_action_count_delete_restored_version_action` | Total action outcome of lifecycle checks since server start for deletion of a temporarily restored version |
| `minio_node_ilm_action_count_delete_all_versions_action`     | Total action outcome of lifecycle checks since server start for deletion of all versions                   |

## Tier Metrics

	os.TransitionVersionID = info.VersionID
}

// shouldRemoveRemoteObject determines if a transitioned object should be
// removed from remote tier. If remote object is to be deleted, returns the
// corresponding tier deletion journal entry and true. Otherwise returns empty
// jentry value and false.
func (os *objSweeper) shouldRemoveRemoteObject() (jentry, bool) {
	if os.TransitionStatus != lifecycle.TransitionComplete {
		return jentry{}, false

	ReplicationSourceRetentionTimestamp time.Time // set if MinIOSourceObjectRetentionTimestamp received
	DeletePrefix                        bool      // set true to enforce a prefix deletion, only application for DeleteObject API,
	DeletePrefixObject                  bool      // set true when object's erasure set is resolvable by object name (using getHashedSetIndex)

        }
        return themeName;
    }

    /**
     * Recursively deletes a directory and all its contents.
     * Does not throw exceptions, only logs warnings if deletion fails.
     *
     * @param dir the directory to delete
     */
    protected void closeQuietly(final Path dir) {
        if (Files.notExists(dir)) {
            if (logger.isDebugEnabled()) {

    replacement pods is blocked until old pods are definitely not running
    (indicated either by the kubelet returning from partitioned state,
    deletion of the Node object, deletion of the instance in the cloud provider,
    or force deletion of the pod from the api-server).
    This helps prevent "split brain" scenarios in clustered applications by
    ensuring that unreachable pods will not be presumed dead unless some

import jakarta.annotation.Resource;

/**
 * Service class for managing file configuration operations.
 * This service provides CRUD operations for file crawler configurations,
 * including retrieval, storage, deletion, and search functionality.
 * It handles pagination and integrates with the file authentication system.
 */
public class FileConfigService extends FessAppService {

    /**

        });
    }

    /**
     * Deletes job logs that have any of the specified job statuses.
     *
     * @param jobStatusList the list of job statuses to match for deletion
     */
    public void deleteByJobStatus(final List<String> jobStatusList) {
        jobLogBhv.queryDelete(cb -> {
            cb.query().setJobStatus_InScope(jobStatusList);
        });
    }

    /**

		if !restricted {
			return
		}

		for column, v := range selectColumns {
			if !v {
				continue
			}

			rel, ok := db.Statement.Schema.Relationships.Relations[column]
			if !ok {
				continue
			}

			switch rel.Type {
			case schema.HasOne, schema.HasMany:
				queryConds := rel.ToQueryConditions(db.Statement.Context, db.Statement.ReflectValue)

También, el mejor enfoque era usar estándares ya existentes.

Entonces, antes de siquiera empezar a programar **FastAPI**, pasé varios meses estudiando las especificaciones de OpenAPI, JSON Schema, OAuth2, etc. Entendiendo su relación, superposición y diferencias.

## Diseño

Luego pasé algún tiempo diseñando la "API" de desarrollador que quería tener como usuario (como desarrollador usando FastAPI).

    // DELETE /api/admin/duplicatehost/setting/{id}
    /**
     * Deletes a specific duplicate host setting.
     *
     * @param id the duplicate host setting ID to delete
     * @return JSON response with deletion status
     */
    @Execute
    public JsonResponse<ApiResult> delete$setting(final String id) {
        duplicateHostService.getDuplicateHost(id).ifPresent(entity -> {
            try {