import org.gradle.internal.component.external.model.DefaultModuleComponentSelector
import org.gradle.kotlin.dsl.support.serviceOf

/**
 * A map from artifact name to a set of class name prefixes that should be kept.
 * Artifacts matched by this map will be minified to only contain the specified
 * classes and the classes they depend on. The classes are not relocated, they all
 * remain in their original namespace. This reduces the final Gradle distribution

     * @param params the search request parameters including pagination, filters, etc.
     * @param userBean the optional user bean for access control and personalization
     * @return the search result containing matched documents and metadata
     */
    protected abstract SearchResult search(String query, SearchRequestParams params, OptionalThing<FessUserBean> userBean);

    fun Task.typeSimpleName(): String =
        DslObject(this).declaredType.simpleName

    fun isIncompatible(task: Task): Boolean = when {

        // Working tasks that would otherwise be matched by filters below
        task.name in listOf(
            "publishEmbeddedKotlinPluginMarkerMavenPublicationToTestRepository",
            "publishKotlinDslBasePluginMarkerMavenPublicationToTestRepository",

     *
     * @param clazz       Class to check
     * @param methodInfos array of methods we are searching to match
     * @param upcastCount current number of methods we have matched
     * @return count of matched methods
     */
    private static int getAccessibleMethods(Class<?> clazz, MethodInfo[] methodInfos, int upcastCount) {
        int l = methodInfos.length;

 * this implementation type; that is no hint/name.
 *
 * This leads to a second side effect in that any @Inject request for just ModelProcessor in
 * the same injector is immediately matched to this explicit binding, which means extensions
 * cannot override this binding. This is because the lookup is always short-circuited in this
 * specific situation (plain @Inject request, and plain explicit binding for the same type.)

				t.Errorf("Failed, expected %v, got %v", address1.Name, info.Address.Name)
			}
		}
	}

	if !personMatched {
		t.Errorf("Failed, no person matched")
	}
	if !addressMatched {
		t.Errorf("Failed, no address matched")
	}

	personDupField := Person{ID: person1.ID}
	if err := DB.Select("people.id, people.*").
		First(&personDupField).Error; err != nil {

   * @param errorMessageTemplate a template for the exception message should the check fail. The
   *     message is formed by replacing each {@code %s} placeholder in the template with an
   *     argument. These are matched by position - the first {@code %s} gets {@code
   *     errorMessageArgs[0]}, etc. Unmatched arguments will be appended to the formatted message in
   *     square braces. Unmatched placeholders will be left as-is.

				matched := true
				for idx, ref := range r.References {
					if rel.References[idx].PrimaryKey != ref.PrimaryKey ||
						rel.References[idx].ForeignKey != ref.ForeignKey ||
						rel.References[idx].PrimaryValue != ref.PrimaryValue {
						matched = false
						break
					}
				}

				if matched {
					return nil
				}
			}
		}
	}

        if (rule != null) {
          wildcardMatch = rule
          break
        }
      }
    }

    // Exception rules only apply to wildcard rules, so only try it if we matched a wildcard.
    var exception: String? = null
    if (wildcardMatch != null) {
      for (labelIndex in 0 until domainLabelsUtf8Bytes.size - 1) {
        val rule =
          publicSuffixList.exceptionBytes.binarySearch(

   * @param errorMessageTemplate a template for the exception message should the check fail. The
   *     message is formed by replacing each {@code %s} placeholder in the template with an
   *     argument. These are matched by position - the first {@code %s} gets {@code
   *     errorMessageArgs[0]}, etc. Unmatched arguments will be appended to the formatted message in
   *     square braces. Unmatched placeholders will be left as-is.