FluentEntityMappingConfigurationSupport.java
package org.codefilarete.stalactite.engine.configurer.entity;
import java.lang.reflect.Method;
import java.util.ArrayList;
import java.util.Collection;
import java.util.List;
import java.util.Map;
import java.util.function.Consumer;
import java.util.function.Function;
import java.util.function.Supplier;
import javax.annotation.Nullable;
import org.codefilarete.reflection.Accessor;
import org.codefilarete.reflection.AccessorByMethod;
import org.codefilarete.reflection.AccessorByMethodReference;
import org.codefilarete.reflection.Accessors;
import org.codefilarete.reflection.MethodReferenceCapturer;
import org.codefilarete.reflection.MethodReferenceDispatcher;
import org.codefilarete.reflection.Mutator;
import org.codefilarete.reflection.MutatorByMethod;
import org.codefilarete.reflection.MutatorByMethodReference;
import org.codefilarete.reflection.PropertyAccessor;
import org.codefilarete.reflection.ReversibleAccessor;
import org.codefilarete.stalactite.dsl.InheritanceOptions;
import org.codefilarete.stalactite.dsl.PolymorphismPolicy;
import org.codefilarete.stalactite.dsl.embeddable.EmbeddableMappingConfiguration;
import org.codefilarete.stalactite.dsl.embeddable.EmbeddableMappingConfigurationProvider;
import org.codefilarete.stalactite.dsl.embeddable.FluentEmbeddableMappingBuilder.FluentEmbeddableMappingBuilderEmbeddableMappingConfigurationImportedEmbedOptions;
import org.codefilarete.stalactite.dsl.embeddable.FluentEmbeddableMappingBuilder.FluentEmbeddableMappingBuilderEnumOptions;
import org.codefilarete.stalactite.dsl.embeddable.ImportedEmbedWithColumnOptions;
import org.codefilarete.stalactite.dsl.entity.EntityMappingConfiguration;
import org.codefilarete.stalactite.dsl.entity.EntityMappingConfigurationProvider;
import org.codefilarete.stalactite.dsl.entity.FluentEntityMappingBuilder;
import org.codefilarete.stalactite.dsl.entity.FluentMappingBuilderManyToManyJoinTableOptions;
import org.codefilarete.stalactite.dsl.entity.FluentMappingBuilderManyToManyOptions;
import org.codefilarete.stalactite.dsl.entity.FluentMappingBuilderManyToOneOptions;
import org.codefilarete.stalactite.dsl.entity.FluentMappingBuilderOneToManyJoinTableOptions;
import org.codefilarete.stalactite.dsl.entity.FluentMappingBuilderOneToManyMappedByOptions;
import org.codefilarete.stalactite.dsl.entity.FluentMappingBuilderOneToManyOptions;
import org.codefilarete.stalactite.dsl.entity.FluentMappingBuilderOneToOneOptions;
import org.codefilarete.stalactite.dsl.entity.OptimisticLockOption;
import org.codefilarete.stalactite.dsl.idpolicy.IdentifierPolicy;
import org.codefilarete.stalactite.dsl.key.CompositeKeyMappingConfigurationProvider;
import org.codefilarete.stalactite.dsl.key.FluentEntityMappingBuilderCompositeKeyOptions;
import org.codefilarete.stalactite.dsl.key.FluentEntityMappingBuilderKeyOptions;
import org.codefilarete.stalactite.dsl.naming.AssociationTableNamingStrategy;
import org.codefilarete.stalactite.dsl.naming.ColumnNamingStrategy;
import org.codefilarete.stalactite.dsl.naming.ElementCollectionTableNamingStrategy;
import org.codefilarete.stalactite.dsl.naming.ForeignKeyNamingStrategy;
import org.codefilarete.stalactite.dsl.naming.JoinColumnNamingStrategy;
import org.codefilarete.stalactite.dsl.naming.MapEntryTableNamingStrategy;
import org.codefilarete.stalactite.dsl.naming.TableNamingStrategy;
import org.codefilarete.stalactite.dsl.naming.UniqueConstraintNamingStrategy;
import org.codefilarete.stalactite.dsl.property.ElementCollectionOptions;
import org.codefilarete.stalactite.dsl.property.EmbeddableCollectionOptions;
import org.codefilarete.stalactite.dsl.property.EnumOptions;
import org.codefilarete.stalactite.dsl.property.MapOptions;
import org.codefilarete.stalactite.dsl.property.MapOptions.EmbeddableInMapOptions;
import org.codefilarete.stalactite.dsl.property.MapOptions.EntityInMapOptions;
import org.codefilarete.stalactite.dsl.relation.ManyToManyEntityOptions;
import org.codefilarete.stalactite.dsl.relation.ManyToManyJoinTableOptions;
import org.codefilarete.stalactite.dsl.relation.ManyToOneOptions;
import org.codefilarete.stalactite.dsl.relation.OneToManyEntityOptions;
import org.codefilarete.stalactite.dsl.relation.OneToManyJoinTableOptions;
import org.codefilarete.stalactite.dsl.relation.OneToOneEntityOptions;
import org.codefilarete.stalactite.dsl.relation.OneToOneOptions;
import org.codefilarete.stalactite.engine.PersistenceContext;
import org.codefilarete.stalactite.engine.configurer.builder.DefaultPersisterBuilder;
import org.codefilarete.stalactite.engine.configurer.elementcollection.ElementCollectionRelation;
import org.codefilarete.stalactite.engine.configurer.embeddable.LinkageSupport;
import org.codefilarete.stalactite.engine.configurer.manyToOne.ManyToOneRelation;
import org.codefilarete.stalactite.engine.configurer.manytomany.ManyToManyRelation;
import org.codefilarete.stalactite.engine.configurer.map.MapRelation;
import org.codefilarete.stalactite.engine.configurer.onetomany.OneToManyRelation;
import org.codefilarete.stalactite.engine.configurer.onetoone.OneToOneRelation;
import org.codefilarete.stalactite.engine.runtime.ConfiguredRelationalPersister;
import org.codefilarete.stalactite.sql.ddl.Size;
import org.codefilarete.stalactite.sql.ddl.structure.Column;
import org.codefilarete.stalactite.sql.ddl.structure.Table;
import org.codefilarete.tool.function.Hanger.Holder;
import org.codefilarete.tool.function.Serie;
import org.codefilarete.tool.reflect.MethodDispatcher;
import org.danekja.java.util.function.serializable.SerializableBiConsumer;
import org.danekja.java.util.function.serializable.SerializableBiFunction;
import org.danekja.java.util.function.serializable.SerializableFunction;
import static org.codefilarete.tool.Reflections.propertyName;
/**
* A class that stores configuration made through a {@link FluentEntityMappingBuilder}
*
* @author Guillaume Mary
*/
public class FluentEntityMappingConfigurationSupport<C, I> implements FluentEntityMappingBuilder<C, I>, EntityMappingConfiguration<C, I> {
private final Class<C> classToPersist;
@javax.annotation.Nullable
private Table<?> targetTable;
private TableNamingStrategy tableNamingStrategy = TableNamingStrategy.DEFAULT;
private KeyMapping<C, I> keyMapping;
private final MethodReferenceCapturer methodSpy;
private final List<OneToOneRelation<C, ?, ?>> oneToOneRelations = new ArrayList<>();
private final List<OneToManyRelation<C, ?, ?, ? extends Collection>> oneToManyRelations = new ArrayList<>();
private final List<ManyToManyRelation<C, ?, ?, ? extends Collection, ? extends Collection>> manyToManyRelations = new ArrayList<>();
private final List<ManyToOneRelation<C, ?, ?, Collection<C>>> manyToOneRelations = new ArrayList<>();
private final List<ElementCollectionRelation<C, ?, ? extends Collection>> elementCollections = new ArrayList<>();
private final List<MapRelation<C, ?, ?, ? extends Map>> maps = new ArrayList<>();
private final EntityDecoratedEmbeddableConfigurationSupport<C, I> propertiesMappingConfigurationDelegate;
private ForeignKeyNamingStrategy foreignKeyNamingStrategy = ForeignKeyNamingStrategy.DEFAULT;
private UniqueConstraintNamingStrategy uniqueConstraintNamingStrategy;
private JoinColumnNamingStrategy joinColumnNamingStrategy = JoinColumnNamingStrategy.JOIN_DEFAULT;
private ColumnNamingStrategy indexColumnNamingStrategy;
private AssociationTableNamingStrategy associationTableNamingStrategy = AssociationTableNamingStrategy.DEFAULT;
private ElementCollectionTableNamingStrategy elementCollectionTableNamingStrategy = ElementCollectionTableNamingStrategy.DEFAULT;
private MapEntryTableNamingStrategy mapEntryTableNamingStrategy = MapEntryTableNamingStrategy.DEFAULT;
@Nullable
private OptimisticLockOption<C, ?> optimisticLockOption;
private InheritanceConfigurationSupport<? super C, I> inheritanceConfiguration;
private PolymorphismPolicy<C> polymorphismPolicy;
private EntityFactoryProviderSupport<C, Table> entityFactoryProvider;
/**
* Creates a builder to map the given class for persistence
*
* @param classToPersist the class to create a mapping for
*/
public FluentEntityMappingConfigurationSupport(Class<C> classToPersist) {
this.classToPersist = classToPersist;
// Helper to capture Method behind method reference
this.methodSpy = new MethodReferenceCapturer();
this.propertiesMappingConfigurationDelegate = new EntityDecoratedEmbeddableConfigurationSupport<>(this, classToPersist);
}
public void setKeyMapping(KeyMapping<C, I> keyMapping) {
this.keyMapping = keyMapping;
}
public void setEntityFactoryProvider(EntityFactoryProviderSupport<C, Table> entityFactoryProvider) {
this.entityFactoryProvider = entityFactoryProvider;
}
@javax.annotation.Nullable
public Table<?> getTable() {
return targetTable;
}
@Override
public Class<C> getEntityType() {
return classToPersist;
}
@Override
public EntityFactoryProvider<C, Table> getEntityFactoryProvider() {
return entityFactoryProvider;
}
@Override
public TableNamingStrategy getTableNamingStrategy() {
return tableNamingStrategy;
}
@Override
public ColumnNamingStrategy getColumnNamingStrategy() {
return propertiesMappingConfigurationDelegate.getColumnNamingStrategy();
}
@Override
public JoinColumnNamingStrategy getJoinColumnNamingStrategy() {
return joinColumnNamingStrategy;
}
@Override
public ColumnNamingStrategy getIndexColumnNamingStrategy() {
return indexColumnNamingStrategy;
}
private Method captureLambdaMethod(SerializableFunction getter) {
return this.methodSpy.findMethod(getter);
}
private Method captureLambdaMethod(SerializableBiConsumer setter) {
return this.methodSpy.findMethod(setter);
}
@Override
public KeyMapping<C, I> getKeyMapping() {
return keyMapping;
}
@Override
public EmbeddableMappingConfiguration<C> getPropertiesMapping() {
return propertiesMappingConfigurationDelegate;
}
@Nullable
@Override
public OptimisticLockOption<C, ?> getOptimisticLockOption() {
return this.optimisticLockOption;
}
@Override
public <TRGT, TRGTID> List<OneToOneRelation<C, TRGT, TRGTID>> getOneToOnes() {
return (List) oneToOneRelations;
}
@Override
public <TRGT, TRGTID> List<OneToManyRelation<C, TRGT, TRGTID, Collection<TRGT>>> getOneToManys() {
return (List) oneToManyRelations;
}
@Override
public <TRGT, TRGTID> List<ManyToManyRelation<C, TRGT, TRGTID, Collection<TRGT>, Collection<C>>> getManyToManys() {
return (List) manyToManyRelations;
}
@Override
public <TRGT, TRGTID> List<ManyToOneRelation<C, TRGT, TRGTID, Collection<C>>> getManyToOnes() {
return (List) manyToOneRelations;
}
@Override
public <TRGT> List<ElementCollectionRelation<C, TRGT, ? extends Collection<TRGT>>> getElementCollections() {
return (List) elementCollections;
}
@Override
public List<MapRelation<C, ?, ?, ? extends Map>> getMaps() {
return maps;
}
@javax.annotation.Nullable
@Override
public InheritanceConfiguration<? super C, I> getInheritanceConfiguration() {
return inheritanceConfiguration;
}
@Override
public ForeignKeyNamingStrategy getForeignKeyNamingStrategy() {
return this.foreignKeyNamingStrategy;
}
@javax.annotation.Nullable
@Override
public UniqueConstraintNamingStrategy getUniqueConstraintNamingStrategy() {
return uniqueConstraintNamingStrategy;
}
@Override
public AssociationTableNamingStrategy getAssociationTableNamingStrategy() {
return this.associationTableNamingStrategy;
}
@Override
public ElementCollectionTableNamingStrategy getElementCollectionTableNamingStrategy() {
return this.elementCollectionTableNamingStrategy;
}
@Override
public MapEntryTableNamingStrategy getEntryMapTableNamingStrategy() {
return this.mapEntryTableNamingStrategy;
}
@Override
public EntityMappingConfiguration<C, I> getConfiguration() {
return this;
}
@Override
public PolymorphismPolicy<C> getPolymorphismPolicy() {
return polymorphismPolicy;
}
@Override
public FluentEntityMappingBuilderKeyOptions<C, I> mapKey(SerializableFunction<C, I> getter, IdentifierPolicy<I> identifierPolicy) {
SingleKeyLinkageSupport<C, I> mapping = propertiesMappingConfigurationDelegate.addKeyMapping(getter, identifierPolicy);
return this.propertiesMappingConfigurationDelegate.wrapWithKeyOptions(mapping);
}
@Override
public <T extends Table> FluentEntityMappingBuilderKeyOptions<C, I> mapKey(SerializableFunction<C, I> getter, IdentifierPolicy<I> identifierPolicy,
Column<T, I> column) {
SingleKeyLinkageSupport<C, I> mapping = propertiesMappingConfigurationDelegate.addKeyMapping(getter, identifierPolicy, column);
return this.propertiesMappingConfigurationDelegate.wrapWithKeyOptions(mapping);
}
@Override
public FluentEntityMappingBuilderKeyOptions<C, I> mapKey(SerializableFunction<C, I> getter, IdentifierPolicy<I> identifierPolicy,
String columnName) {
SingleKeyLinkageSupport<C, I> mapping = propertiesMappingConfigurationDelegate.addKeyMapping(getter, identifierPolicy, columnName);
return this.propertiesMappingConfigurationDelegate.wrapWithKeyOptions(mapping);
}
@Override
public FluentEntityMappingBuilderKeyOptions<C, I> mapKey(SerializableBiConsumer<C, I> setter, IdentifierPolicy<I> identifierPolicy) {
SingleKeyLinkageSupport<C, I> mapping = propertiesMappingConfigurationDelegate.addKeyMapping(setter, identifierPolicy);
return this.propertiesMappingConfigurationDelegate.wrapWithKeyOptions(mapping);
}
@Override
public <T extends Table> FluentEntityMappingBuilderKeyOptions<C, I> mapKey(SerializableBiConsumer<C, I> setter, IdentifierPolicy<I> identifierPolicy, Column<T, I> column) {
SingleKeyLinkageSupport<C, I> mapping = propertiesMappingConfigurationDelegate.addKeyMapping(setter, identifierPolicy, column);
return this.propertiesMappingConfigurationDelegate.wrapWithKeyOptions(mapping);
}
@Override
public FluentEntityMappingBuilderKeyOptions<C, I> mapKey(SerializableBiConsumer<C, I> setter, IdentifierPolicy<I> identifierPolicy, String columnName) {
SingleKeyLinkageSupport<C, I> mapping = propertiesMappingConfigurationDelegate.addKeyMapping(setter, identifierPolicy, columnName);
return this.propertiesMappingConfigurationDelegate.wrapWithKeyOptions(mapping);
}
@Override
public FluentEntityMappingBuilderCompositeKeyOptions<C, I> mapCompositeKey(SerializableFunction<C, I> getter,
CompositeKeyMappingConfigurationProvider<I> compositeKeyMappingBuilder,
Consumer<C> markAsPersistedFunction,
Function<C, Boolean> isPersistedFunction) {
return this.propertiesMappingConfigurationDelegate.wrapWithKeyOptions(
propertiesMappingConfigurationDelegate.addCompositeKeyMapping(
Accessors.accessor(getter),
compositeKeyMappingBuilder,
markAsPersistedFunction,
isPersistedFunction));
}
@Override
public FluentEntityMappingBuilderCompositeKeyOptions<C, I> mapCompositeKey(SerializableBiConsumer<C, I> setter,
CompositeKeyMappingConfigurationProvider<I> compositeKeyMappingBuilder,
Consumer<C> markAsPersistedFunction,
Function<C, Boolean> isPersistedFunction) {
return this.propertiesMappingConfigurationDelegate.wrapWithKeyOptions(
propertiesMappingConfigurationDelegate.addCompositeKeyMapping(
Accessors.mutator(setter),
compositeKeyMappingBuilder,
markAsPersistedFunction,
isPersistedFunction));
}
@Override
public <O> FluentMappingBuilderPropertyOptions<C, I, O> map(SerializableFunction<C, O> getter) {
LinkageSupport<C, O> mapping = propertiesMappingConfigurationDelegate.addMapping(getter);
return this.propertiesMappingConfigurationDelegate.wrapWithAdditionalPropertyOptions(mapping);
}
@Override
public <O> FluentMappingBuilderPropertyOptions<C, I, O> map(SerializableBiConsumer<C, O> setter) {
LinkageSupport<C, O> mapping = propertiesMappingConfigurationDelegate.addMapping(setter);
return this.propertiesMappingConfigurationDelegate.wrapWithAdditionalPropertyOptions(mapping);
}
@Override
public <O> FluentMappingBuilderPropertyOptions<C, I, O> map(String fieldName) {
LinkageSupport<C, O> mapping = propertiesMappingConfigurationDelegate.addMapping(fieldName);
return this.propertiesMappingConfigurationDelegate.wrapWithAdditionalPropertyOptions(mapping);
}
@Override
public <E extends Enum<E>> FluentMappingBuilderEnumOptions<C, I, E> mapEnum(SerializableFunction<C, E> getter) {
LinkageSupport<C, E> linkage = propertiesMappingConfigurationDelegate.addMapping(getter);
return wrapEnumOptions(propertiesMappingConfigurationDelegate.wrapWithEnumOptions(linkage));
}
@Override
public <E extends Enum<E>> FluentMappingBuilderEnumOptions<C, I, E> mapEnum(SerializableBiConsumer<C, E> setter) {
LinkageSupport<C, E> linkage = propertiesMappingConfigurationDelegate.addMapping(setter);
return wrapEnumOptions(propertiesMappingConfigurationDelegate.wrapWithEnumOptions(linkage));
}
@Override
public <E extends Enum<E>> FluentMappingBuilderEnumOptions<C, I, E> mapEnum(String fieldName) {
LinkageSupport<C, E> linkage = propertiesMappingConfigurationDelegate.addMapping(fieldName);
return wrapEnumOptions(propertiesMappingConfigurationDelegate.wrapWithEnumOptions(linkage));
}
private <E extends Enum<E>> FluentMappingBuilderEnumOptions<C, I, E> wrapEnumOptions(FluentEmbeddableMappingBuilderEnumOptions<C, E> enumOptionsHandler) {
// we redirect all EnumOptions methods to the instance that can handle them, returning the dispatcher on these methods so one can chain
// with some other methods, any methods out of EnumOptions are redirected to "this" because it can handle them.
return new MethodDispatcher()
.redirect(EnumOptions.class, enumOptionsHandler, true)
.fallbackOn(this)
.build((Class<FluentMappingBuilderEnumOptions<C, I, E>>) (Class) FluentMappingBuilderEnumOptions.class);
}
@Override
public <K, V, M extends Map<K, V>> FluentMappingBuilderMapOptions<C, I, K, V, M> mapMap(SerializableFunction<C, M> getter, Class<K> keyType, Class<V> valueType) {
MapRelation<C, K, V, M> mapRelation = new MapRelation<>(getter, keyType, valueType);
this.maps.add(mapRelation);
return wrapWithMapOptions(mapRelation);
}
@Override
public <K, V, M extends Map<K, V>> FluentMappingBuilderMapOptions<C, I, K, V, M> mapMap(SerializableBiConsumer<C, M> setter, Class<K> keyType, Class<V> valueType) {
MapRelation<C, K, V, M> mapRelation = new MapRelation<>(setter, keyType, valueType);
this.maps.add(mapRelation);
return wrapWithMapOptions(mapRelation);
}
private <K, V, M extends Map<K, V>> FluentMappingBuilderMapOptions<C, I, K, V, M> wrapWithMapOptions(MapRelation<C, K, V, M> mapRelation) {
Holder<FluentMappingBuilderMapOptions> proxyHolder = new Holder<>();
FluentMappingBuilderMapOptions<C, I, K, V, M> result = new MethodReferenceDispatcher()
.redirect(MapOptions.class, new MapOptions<K, V, M>() {
@Override
public MapOptions<K, V, M> reverseJoinColumn(String columnName) {
mapRelation.setReverseColumnName(columnName);
return null;
}
@Override
public MapOptions<K, V, M> keyColumn(String columnName) {
mapRelation.setKeyColumnName(columnName);
return null;
}
@Override
public MapOptions<K, V, M> keySize(Size columnSize) {
mapRelation.setKeyColumnSize(columnSize);
return null;
}
@Override
public MapOptions<K, V, M> valueColumn(String columnName) {
mapRelation.setValueColumnName(columnName);
return null;
}
@Override
public MapOptions<K, V, M> valueSize(Size columnSize) {
mapRelation.setValueColumnSize(columnSize);
return null;
}
@Override
public MapOptions<K, V, M> initializeWith(Supplier<? extends M> mapFactory) {
mapRelation.setMapFactory(mapFactory);
return null;
}
@Override
public MapOptions<K, V, M> onTable(String tableName) {
mapRelation.setTargetTableName(tableName);
return null;
}
@Override
public MapOptions<K, V, M> onTable(Table table) {
mapRelation.setTargetTable(table);
return null;
}
@Override
public EntityInMapOptions<K, V, M> withKeyMapping(EntityMappingConfigurationProvider<K, ?> mappingConfigurationProvider) {
// This method is not call because it is overwritten by a dedicated redirect(..) call below
// mapRelation.setKeyConfigurationProvider(mappingConfigurationProvider);
return null;
}
@Override
public EmbeddableInMapOptions<K> withKeyMapping(EmbeddableMappingConfigurationProvider<K> mappingConfigurationProvider) {
// This method is not call because it is overwritten by a dedicated redirect(..) call below
// mapRelation.setKeyConfigurationProvider(mappingConfigurationProvider);
return null;
}
@Override
public EntityInMapOptions<K, V, M> withValueMapping(EntityMappingConfigurationProvider<V, ?> mappingConfigurationProvider) {
// This method is not call because it is overwritten by a dedicated redirect(..) call below
// mapRelation.setValueConfigurationProvider(mappingConfigurationProvider);
return null;
}
@Override
public EmbeddableInMapOptions<V> withValueMapping(EmbeddableMappingConfigurationProvider<V> mappingConfigurationProvider) {
// This method is not call because it is overwritten by a dedicated redirect(..) call below
// mapRelation.setValueConfigurationProvider(mappingConfigurationProvider);
return null;
}
@Override
public MapOptions<K, V, M> fetchSeparately() {
mapRelation.fetchSeparately();
return null;
}
}, true)
// This will overwrite withKeyMapping(EntityMappingConfigurationProvider) capture to return a proxy
// that will let us configure cascading of the relation
.redirect((SerializableBiFunction<MapOptions<K, V, M>, EntityMappingConfigurationProvider<K, ?>, EntityInMapOptions<K, V, M>>) MapOptions::withKeyMapping,
entityMappingConfigurationProvider -> {
mapRelation.setKeyConfigurationProvider(entityMappingConfigurationProvider);
return new MethodReferenceDispatcher()
.redirect(EntityInMapOptions.class, relationMode -> {
mapRelation.setKeyEntityRelationMode(relationMode);
return null;
}, true)
.fallbackOn(proxyHolder)
.build((Class<FluentMappingBuilderEntityInMapOptions<C, I, K, V, M>>) (Class) FluentMappingBuilderEntityInMapOptions.class);
})
.redirect((SerializableBiFunction<MapOptions<K, V, M>, EmbeddableMappingConfigurationProvider<K>, EmbeddableInMapOptions<K>>) MapOptions::withKeyMapping,
entityMappingConfigurationProvider -> {
mapRelation.setKeyConfigurationProvider(entityMappingConfigurationProvider);
return new MethodReferenceDispatcher()
.redirect(EmbeddableInMapOptions.class, new EmbeddableInMapOptions<K>() {
@Override
public EmbeddableInMapOptions<K> overrideName(SerializableFunction<K, ?> getter, String columnName) {
mapRelation.overrideKeyName(getter, columnName);
return null;
}
@Override
public EmbeddableInMapOptions<K> overrideName(SerializableBiConsumer<K, ?> setter, String columnName) {
mapRelation.overrideKeyName(setter, columnName);
return null;
}
@Override
public EmbeddableInMapOptions<K> overrideSize(SerializableFunction<K, ?> getter, Size columnSize) {
mapRelation.overrideKeySize(getter, columnSize);
return null;
}
@Override
public EmbeddableInMapOptions<K> overrideSize(SerializableBiConsumer<K, ?> setter, Size columnSize) {
mapRelation.overrideKeySize(setter, columnSize);
return null;
}
}, true)
.fallbackOn(proxyHolder)
.build((Class<FluentMappingBuilderEmbeddableInMapOptions<C, I, K, V, M, K>>) (Class) FluentMappingBuilderEmbeddableInMapOptions.class);
})
.redirect((SerializableBiFunction<MapOptions<K, V, M>, EntityMappingConfigurationProvider<V, ?>, EntityInMapOptions<K, V, M>>) MapOptions::withValueMapping,
entityMappingConfigurationProvider -> {
mapRelation.setValueConfigurationProvider(entityMappingConfigurationProvider);
return new MethodReferenceDispatcher()
.redirect(EntityInMapOptions.class, relationMode -> {
mapRelation.setValueEntityRelationMode(relationMode);
return null;
}, true)
.fallbackOn(proxyHolder)
.build((Class<FluentMappingBuilderEntityInMapOptions<C, I, K, V, M>>) (Class) FluentMappingBuilderEntityInMapOptions.class);
})
.redirect((SerializableBiFunction<MapOptions<K, V, M>, EmbeddableMappingConfigurationProvider<V>, EmbeddableInMapOptions<V>>) MapOptions::withValueMapping,
entityMappingConfigurationProvider -> {
mapRelation.setValueConfigurationProvider(entityMappingConfigurationProvider);
return new MethodReferenceDispatcher()
.redirect(EmbeddableInMapOptions.class, new EmbeddableInMapOptions<V>() {
@Override
public EmbeddableInMapOptions<V> overrideName(SerializableFunction<V, ?> getter, String columnName) {
mapRelation.overrideValueName(getter, columnName);
return null;
}
@Override
public EmbeddableInMapOptions<V> overrideName(SerializableBiConsumer<V, ?> setter, String columnName) {
mapRelation.overrideValueName(setter, columnName);
return null;
}
@Override
public EmbeddableInMapOptions<V> overrideSize(SerializableFunction<V, ?> getter, Size columnSize) {
mapRelation.overrideValueSize(getter, columnSize);
return null;
}
@Override
public EmbeddableInMapOptions<V> overrideSize(SerializableBiConsumer<V, ?> setter, Size columnSize) {
mapRelation.overrideValueSize(setter, columnSize);
return null;
}
}, true)
.fallbackOn(proxyHolder)
.build((Class<FluentMappingBuilderEmbeddableInMapOptions<C, I, K, V, M, V>>) (Class) FluentMappingBuilderEmbeddableInMapOptions.class);
})
.fallbackOn(this)
.build((Class<FluentMappingBuilderMapOptions<C, I, K, V, M>>) (Class) FluentMappingBuilderMapOptions.class);
proxyHolder.set(result);
return result;
}
@Override
public <O, S extends Collection<O>> FluentMappingBuilderElementCollectionOptions<C, I, O, S> mapCollection(SerializableFunction<C, S> getter,
Class<O> componentType) {
ElementCollectionRelation<C, O, S> elementCollectionRelation = new ElementCollectionRelation<>(getter, componentType,
propertiesMappingConfigurationDelegate, null);
elementCollections.add(elementCollectionRelation);
return wrapWithElementCollectionOptions(elementCollectionRelation);
}
@Override
public <O, S extends Collection<O>> FluentMappingBuilderElementCollectionOptions<C, I, O, S> mapCollection(SerializableBiConsumer<C, S> setter,
Class<O> componentType) {
ElementCollectionRelation<C, O, S> elementCollectionRelation = new ElementCollectionRelation<>(setter, componentType, null);
elementCollections.add(elementCollectionRelation);
return wrapWithElementCollectionOptions(elementCollectionRelation);
}
private <O, S extends Collection<O>> FluentMappingBuilderElementCollectionOptions<C, I, O, S> wrapWithElementCollectionOptions(
ElementCollectionRelation<C, O, S> elementCollectionRelation) {
return new MethodReferenceDispatcher()
.redirect(ElementCollectionOptions.class, wrapAsOptions(elementCollectionRelation), true)
.fallbackOn(this)
.build((Class<FluentMappingBuilderElementCollectionOptions<C, I, O, S>>) (Class) FluentMappingBuilderElementCollectionOptions.class);
}
@Override
public <O, S extends Collection<O>> FluentMappingBuilderElementCollectionImportEmbedOptions<C, I, O, S> mapCollection(SerializableFunction<C, S> getter,
Class<O> componentType,
EmbeddableMappingConfigurationProvider<O> embeddableConfiguration) {
ElementCollectionRelation<C, O, S> elementCollectionRelation = new ElementCollectionRelation<>(getter, componentType,
propertiesMappingConfigurationDelegate,
embeddableConfiguration);
elementCollections.add(elementCollectionRelation);
return wrapWithElementCollectionImportOptions(elementCollectionRelation);
}
@Override
public <O, S extends Collection<O>> FluentMappingBuilderElementCollectionImportEmbedOptions<C, I, O, S> mapCollection(SerializableBiConsumer<C, S> setter,
Class<O> componentType,
EmbeddableMappingConfigurationProvider<O> embeddableConfiguration) {
ElementCollectionRelation<C, O, S> elementCollectionRelation = new ElementCollectionRelation<>(setter, componentType, embeddableConfiguration);
elementCollections.add(elementCollectionRelation);
return wrapWithElementCollectionImportOptions(elementCollectionRelation);
}
private <O, S extends Collection<O>> FluentMappingBuilderElementCollectionImportEmbedOptions<C, I, O, S> wrapWithElementCollectionImportOptions(
ElementCollectionRelation<C, O, S> elementCollectionRelation) {
return new MethodReferenceDispatcher()
.redirect(EmbeddableCollectionOptions.class, new EmbeddableCollectionOptions<C, O, S>() {
@Override
public <IN> EmbeddableCollectionOptions<C, O, S> overrideName(SerializableFunction<O, IN> getter, String columnName) {
elementCollectionRelation.overrideName(getter, columnName);
return null;
}
@Override
public <IN> EmbeddableCollectionOptions<C, O, S> overrideName(SerializableBiConsumer<O, IN> setter, String columnName) {
elementCollectionRelation.overrideName(setter, columnName);
return null;
}
@Override
public <IN> EmbeddableCollectionOptions<C, O, S> overrideSize(SerializableFunction<O, IN> getter, Size columnSize) {
elementCollectionRelation.overrideSize(getter, columnSize);
return null;
}
@Override
public <IN> EmbeddableCollectionOptions<C, O, S> overrideSize(SerializableBiConsumer<O, IN> setter, Size columnSize) {
elementCollectionRelation.overrideSize(setter, columnSize);
return null;
}
@Override
public EmbeddableCollectionOptions<C, O, S> initializeWith(Supplier<? extends S> collectionFactory) {
elementCollectionRelation.setCollectionFactory(collectionFactory);
return null;
}
@Override
public EmbeddableCollectionOptions<C, O, S> reverseJoinColumn(String name) {
elementCollectionRelation.setReverseColumnName(name);
return null;
}
@Override
public EmbeddableCollectionOptions<C, O, S> indexed() {
elementCollectionRelation.ordered();
return null;
}
@Override
public EmbeddableCollectionOptions<C, O, S> indexedBy(String columnName) {
elementCollectionRelation.setIndexingColumnName(columnName);
return null;
}
@Override
public EmbeddableCollectionOptions<C, O, S> onTable(Table table) {
elementCollectionRelation.setTargetTable(table);
return null;
}
@Override
public EmbeddableCollectionOptions<C, O, S> onTable(String tableName) {
elementCollectionRelation.setTargetTableName(tableName);
return null;
}
}, true)
.fallbackOn(this)
.build((Class<FluentMappingBuilderElementCollectionImportEmbedOptions<C, I, O, S>>) (Class) FluentMappingBuilderElementCollectionImportEmbedOptions.class);
}
private <O, S extends Collection<O>> ElementCollectionOptions<C, O, S> wrapAsOptions(ElementCollectionRelation<C, O, S> elementCollectionRelation) {
return new ElementCollectionOptions<C, O, S>() {
@Override
public ElementCollectionOptions<C, O, S> initializeWith(Supplier<? extends S> collectionFactory) {
elementCollectionRelation.setCollectionFactory(collectionFactory);
return null;
}
@Override
public ElementCollectionOptions<C, O, S> elementColumnName(String columnName) {
elementCollectionRelation.setElementColumnName(columnName);
return null;
}
@Override
public ElementCollectionOptions<C, O, S> elementColumnSize(Size columnSize) {
elementCollectionRelation.setElementColumnSize(columnSize);
return null;
}
@Override
public FluentMappingBuilderElementCollectionOptions<C, I, O, S> reverseJoinColumn(String name) {
elementCollectionRelation.setReverseColumnName(name);
return null;
}
@Override
public FluentMappingBuilderElementCollectionOptions<C, I, O, S> indexed() {
elementCollectionRelation.ordered();
return null;
}
@Override
public FluentMappingBuilderElementCollectionOptions<C, I, O, S> indexedBy(String columnName) {
elementCollectionRelation.setIndexingColumnName(columnName);
return null;
}
@Override
public ElementCollectionOptions<C, O, S> onTable(Table table) {
elementCollectionRelation.setTargetTable(table);
return null;
}
@Override
public ElementCollectionOptions<C, O, S> onTable(String tableName) {
elementCollectionRelation.setTargetTableName(tableName);
return null;
}
};
}
@Override
public FluentMappingBuilderInheritanceOptions<C, I> mapSuperClass(EntityMappingConfigurationProvider<? super C, I> mappingConfiguration) {
inheritanceConfiguration = new InheritanceConfigurationSupport<>(mappingConfiguration.getConfiguration());
return new MethodReferenceDispatcher()
.redirect(InheritanceOptions.class, new InheritanceOptions() {
@Override
public InheritanceOptions withJoinedTable() {
inheritanceConfiguration.setJoinTable(true);
return null;
}
@Override
public InheritanceOptions withJoinedTable(Table parentTable) {
inheritanceConfiguration.setJoinTable(true);
inheritanceConfiguration.setTable(parentTable);
return null;
}
}, true)
.fallbackOn(this)
.build((Class<FluentMappingBuilderInheritanceOptions<C, I>>) (Class) FluentMappingBuilderInheritanceOptions.class);
}
@Override
public FluentEntityMappingBuilder<C, I> mapSuperClass(EmbeddableMappingConfigurationProvider<? super C> superMappingConfiguration) {
this.propertiesMappingConfigurationDelegate.mapSuperClass(superMappingConfiguration);
return this;
}
@Override
public <O, J> FluentMappingBuilderOneToOneOptions<C, I, O> mapOneToOne(
SerializableBiConsumer<C, O> setter,
EntityMappingConfigurationProvider<? extends O, J> mappingConfiguration) {
// we keep close to user demand: we keep its method reference ...
Mutator<C, O> mutatorByMethodReference = Accessors.mutatorByMethodReference(setter);
// ... but we can't do it for accessor, so we use the most equivalent manner: an accessor based on setter method (fallback to property if not present)
Accessor<C, O> accessor = new MutatorByMethod<C, O>(captureLambdaMethod(setter)).toAccessor();
return mapOneToOne(accessor, mutatorByMethodReference, mappingConfiguration);
}
@Override
public <O, J> FluentMappingBuilderOneToOneOptions<C, I, O> mapOneToOne(
SerializableFunction<C, O> getter,
EntityMappingConfigurationProvider<? extends O, J> mappingConfiguration) {
// we keep close to user demand: we keep its method reference ...
AccessorByMethodReference<C, O> accessorByMethodReference = Accessors.accessorByMethodReference(getter);
// ... but we can't do it for mutator, so we use the most equivalent manner: a mutator based on getter method (fallback to property if not present)
Mutator<C, O> mutator = new AccessorByMethod<C, O>(captureLambdaMethod(getter)).toMutator();
return mapOneToOne(accessorByMethodReference, mutator, mappingConfiguration);
}
private <O, J> FluentMappingBuilderOneToOneOptions<C, I, O> mapOneToOne(
Accessor<C, O> accessor,
Mutator<C, O> mutator,
EntityMappingConfigurationProvider<? extends O, J> mappingConfiguration) {
OneToOneRelation<C, O, J> oneToOneRelation = new OneToOneRelation<>(
new PropertyAccessor<>(accessor, mutator),
() -> this.polymorphismPolicy instanceof PolymorphismPolicy.TablePerClassPolymorphism,
mappingConfiguration);
this.oneToOneRelations.add((OneToOneRelation<C, Object, Object>) oneToOneRelation);
return wrapForAdditionalOptions(oneToOneRelation);
}
private <O, J> FluentMappingBuilderOneToOneOptions<C, I, O> wrapForAdditionalOptions(OneToOneRelation<C, O, J> oneToOneRelation) {
// then we return an object that allows fluent settings over our OneToOne cascade instance
return new MethodDispatcher()
.redirect(OneToOneEntityOptions.class, new OneToOneEntityOptions<C, J, O>() {
@Override
public OneToOneOptions<C, O> cascading(RelationMode relationMode) {
oneToOneRelation.setRelationMode(relationMode);
return null; // we can return null because dispatcher will return proxy
}
@Override
public OneToOneEntityOptions<C, J, O> mandatory() {
oneToOneRelation.setNullable(false);
return null; // we can return null because dispatcher will return proxy
}
@Override
public OneToOneEntityOptions<C, J, O> mappedBy(SerializableFunction<? super O, C> reverseLink) {
oneToOneRelation.setReverseGetter(reverseLink);
return null; // we can return null because dispatcher will return proxy
}
@Override
public OneToOneEntityOptions<C, J, O> mappedBy(SerializableBiConsumer<? super O, C> reverseLink) {
oneToOneRelation.setReverseSetter(reverseLink);
return null; // we can return null because dispatcher will return proxy
}
@Override
public OneToOneEntityOptions<C, J, O> reverseJoinColumn(Column<?, J> reverseLink) {
oneToOneRelation.setReverseColumn(reverseLink);
return null; // we can return null because dispatcher will return proxy
}
@Override
public OneToOneEntityOptions<C, J, O> reverseJoinColumn(String reverseColumnName) {
oneToOneRelation.setReverseColumn(reverseColumnName);
return null; // we can return null because dispatcher will return proxy
}
@Override
public OneToOneEntityOptions<C, J, O> fetchSeparately() {
oneToOneRelation.fetchSeparately();
return null; // we can return null because dispatcher will return proxy
}
@Override
public OneToOneOptions<C, O> columnName(String columnName) {
oneToOneRelation.setColumnName(columnName);
return null; // we can return null because dispatcher will return proxy
}
@Override
public OneToOneEntityOptions<C, J, O> unique() {
oneToOneRelation.setUnique(true);
return null; // we can return null because dispatcher will return proxy
}
}, true) // true to allow "return null" in implemented methods
.fallbackOn(this)
.build((Class<FluentMappingBuilderOneToOneOptions<C, I, O>>) (Class) FluentMappingBuilderOneToOneOptions.class);
}
@Override
public <O, J, S extends Collection<O>> FluentMappingBuilderOneToManyOptions<C, I, O, S> mapOneToMany(
SerializableFunction<C, S> getter,
EntityMappingConfigurationProvider<? super O, J> mappingConfiguration) {
AccessorByMethodReference<C, S> getterReference = Accessors.accessorByMethodReference(getter);
ReversibleAccessor<C, S> propertyAccessor = new PropertyAccessor<>(
// we keep close to user demand : we keep its method reference ...
getterReference,
// ... but we can't do it for mutator, so we use the most equivalent manner : a mutator based on setter method (fallback to property if not present)
new AccessorByMethod<C, S>(captureLambdaMethod(getter)).toMutator());
return mapOneToMany(propertyAccessor, mappingConfiguration);
}
@Override
public <O, J, S extends Collection<O>> FluentMappingBuilderOneToManyOptions<C, I, O, S> mapOneToMany(
SerializableBiConsumer<C, S> setter,
EntityMappingConfigurationProvider<? super O, J> mappingConfiguration) {
MutatorByMethodReference<C, S> setterReference = Accessors.mutatorByMethodReference(setter);
PropertyAccessor<C, S> propertyAccessor = new PropertyAccessor<>(
Accessors.accessor(setterReference.getDeclaringClass(), propertyName(setterReference.getMethodName())),
setterReference
);
return mapOneToMany(propertyAccessor, mappingConfiguration);
}
private <TRGT, TRGTID, S extends Collection<TRGT>> FluentMappingBuilderOneToManyOptions<C, I, TRGT, S> mapOneToMany(
ReversibleAccessor<C, S> propertyAccessor,
EntityMappingConfigurationProvider<? super TRGT, TRGTID> mappingConfiguration) {
OneToManyRelation<C, TRGT, TRGTID, S> oneToManyRelation = new OneToManyRelation<>(
propertyAccessor,
() -> this.polymorphismPolicy instanceof PolymorphismPolicy.TablePerClassPolymorphism,
mappingConfiguration);
this.oneToManyRelations.add(oneToManyRelation);
OneToManyEntityOptionsSupport<C, I, TRGT, S, TRGTID> optionsSupport = new OneToManyEntityOptionsSupport<>(oneToManyRelation);
// Code below is a bit complicated due to mandatory() method after mappedBy(..) ones: we must provide a support for mandatory() after them
// which also allow to call default oneToMany options that are available on the main proxy. Therefore we have to use Holder objects
// to built the complex global proxy
Holder<FluentMappingBuilderOneToManyOptions<C, I, TRGT, S>> result = new Holder<>();
FluentMappingBuilderOneToManyMappedByOptions<C, I, TRGT, S> reverseAsMandatorySupport = new MethodReferenceDispatcher()
.redirect(
(SerializableFunction<FluentMappingBuilderOneToManyMappedByOptions<C, I, TRGT, S>, FluentMappingBuilderOneToManyMappedByOptions<C, I, TRGT, S>>) FluentMappingBuilderOneToManyMappedByOptions::mandatory,
() -> oneToManyRelation.setReverseAsMandatory(true))
.fallbackOn(result) // for all other methods, methods are called on the main proxy
.build((Class<FluentMappingBuilderOneToManyMappedByOptions<C, I, TRGT, S>>) (Class) FluentMappingBuilderOneToManyMappedByOptions.class);
FluentMappingBuilderOneToManyJoinTableOptions<C, I, TRGT, S> joinTableOptionsSupport = new MethodReferenceDispatcher()
.redirect(
(SerializableBiFunction<FluentMappingBuilderOneToManyJoinTableOptions<C, I, TRGT, S>, String, FluentMappingBuilderOneToManyJoinTableOptions<C, I, TRGT, S>>) FluentMappingBuilderOneToManyJoinTableOptions::sourceJoinColumn,
oneToManyRelation::setSourceJoinColumnName)
.redirect(
(SerializableBiFunction<FluentMappingBuilderOneToManyJoinTableOptions<C, I, TRGT, S>, String, FluentMappingBuilderOneToManyJoinTableOptions<C, I, TRGT, S>>) FluentMappingBuilderOneToManyJoinTableOptions::targetJoinColumn,
oneToManyRelation::setTargetJoinColumnName)
.fallbackOn(result) // for all other methods, methods are called on the main proxy
.build((Class<FluentMappingBuilderOneToManyJoinTableOptions<C, I, TRGT, S>>) (Class) FluentMappingBuilderOneToManyJoinTableOptions.class);
FluentMappingBuilderOneToManyOptions<C, I, TRGT, S> build = new MethodReferenceDispatcher()
.redirect(OneToManyEntityOptions.class, optionsSupport, true)
.redirect(
(SerializableBiFunction<FluentMappingBuilderOneToManyOptions<C, I, TRGT, S>, SerializableBiConsumer<TRGT, ? super C>, FluentMappingBuilderOneToManyMappedByOptions<C, I, TRGT, S>>) FluentMappingBuilderOneToManyOptions::mappedBy,
(consumer) -> {
optionsSupport.mappedBy(consumer);
return reverseAsMandatorySupport; // to let user call mandatory() special option
})
.redirect(
(SerializableBiFunction<FluentMappingBuilderOneToManyOptions<C, I, TRGT, S>, SerializableFunction<TRGT, ? super C>, FluentMappingBuilderOneToManyMappedByOptions<C, I, TRGT, S>>) FluentMappingBuilderOneToManyOptions::mappedBy,
(consumer) -> {
optionsSupport.mappedBy(consumer);
return reverseAsMandatorySupport; // to let user call mandatory() special option
})
.redirect(
(SerializableBiFunction<FluentMappingBuilderOneToManyOptions<C, I, TRGT, S>, Column<?, I>, FluentMappingBuilderOneToManyMappedByOptions<C, I, TRGT, S>>) FluentMappingBuilderOneToManyOptions::mappedBy,
(consumer) -> {
optionsSupport.mappedBy(consumer);
return reverseAsMandatorySupport; // to let user call mandatory() special option
})
.redirect(
(SerializableBiFunction<FluentMappingBuilderOneToManyOptions<C, I, TRGT, S>, String, FluentMappingBuilderOneToManyMappedByOptions<C, I, TRGT, S>>) FluentMappingBuilderOneToManyOptions::reverseJoinColumn,
(consumer) -> {
optionsSupport.reverseJoinColumn(consumer);
return reverseAsMandatorySupport; // to let user call mandatory() special option
})
.redirect(
(SerializableBiFunction<OneToManyEntityOptions<C, I, TRGT, S>, String, OneToManyJoinTableOptions<C, TRGT, S>>) OneToManyEntityOptions::joinTable,
(consumer) -> {
optionsSupport.joinTable(consumer);
return joinTableOptionsSupport; // to let user call mandatory() special option
})
.fallbackOn(this)
.build((Class<FluentMappingBuilderOneToManyOptions<C, I, TRGT, S>>) (Class) FluentMappingBuilderOneToManyOptions.class);
result.set(build);
return build;
}
@Override
public <O, J, S1 extends Collection<O>, S2 extends Collection<C>>
FluentMappingBuilderManyToManyOptions<C, I, O, S1, S2>
mapManyToMany(SerializableFunction<C, S1> getter, EntityMappingConfigurationProvider<? super O, J> mappingConfiguration) {
AccessorByMethodReference<C, S1> getterReference = Accessors.accessorByMethodReference(getter);
ReversibleAccessor<C, S1> propertyAccessor = new PropertyAccessor<>(
// we keep close to user demand : we keep its method reference ...
getterReference,
// ... but we can't do it for mutator, so we use the most equivalent manner : a mutator based on setter method (fallback to property if not present)
new AccessorByMethod<C, S1>(captureLambdaMethod(getter)).toMutator());
return mapManyToMany(propertyAccessor, mappingConfiguration);
}
@Override
public <O, J, S1 extends Collection<O>, S2 extends Collection<C>>
FluentMappingBuilderManyToManyOptions<C, I, O, S1, S2>
mapManyToMany(SerializableBiConsumer<C, S1> setter,
EntityMappingConfigurationProvider<? super O, J> mappingConfiguration) {
MutatorByMethodReference<C, S1> setterReference = Accessors.mutatorByMethodReference(setter);
PropertyAccessor<C, S1> propertyAccessor = new PropertyAccessor<>(
Accessors.accessor(setterReference.getDeclaringClass(), propertyName(setterReference.getMethodName())),
setterReference
);
return mapManyToMany(propertyAccessor, mappingConfiguration);
}
private <O, J, S1 extends Collection<O>, S2 extends Collection<C>, T extends Table> FluentMappingBuilderManyToManyOptions<C, I, O, S1, S2> mapManyToMany(
ReversibleAccessor<C, S1> propertyAccessor,
EntityMappingConfigurationProvider<? super O, J> mappingConfiguration) {
ManyToManyRelation<C, O, J, S1, S2> manyToManyRelation = new ManyToManyRelation<>(
propertyAccessor,
() -> this.polymorphismPolicy instanceof PolymorphismPolicy.TablePerClassPolymorphism,
mappingConfiguration);
this.manyToManyRelations.add(manyToManyRelation);
Holder<FluentMappingBuilderManyToManyOptions<C, I, O, S1, S2>> result = new Holder<>();
FluentMappingBuilderManyToManyJoinTableOptions<C, I, O, S1, S2> joinTableOptionsSupport = new MethodReferenceDispatcher()
.redirect(
(SerializableBiFunction<FluentMappingBuilderManyToManyJoinTableOptions<C, I, O, S1, S2>, String, FluentMappingBuilderManyToManyJoinTableOptions<C, I, O, S1, S2>>) FluentMappingBuilderManyToManyJoinTableOptions::sourceJoinColumn,
manyToManyRelation::setSourceJoinColumnName)
.redirect(
(SerializableBiFunction<FluentMappingBuilderManyToManyJoinTableOptions<C, I, O, S1, S2>, String, FluentMappingBuilderManyToManyJoinTableOptions<C, I, O, S1, S2>>) FluentMappingBuilderManyToManyJoinTableOptions::targetJoinColumn,
manyToManyRelation::setTargetJoinColumnName)
.fallbackOn(result) // for all other methods, methods are called on the main proxy
.build((Class<FluentMappingBuilderManyToManyJoinTableOptions<C, I, O, S1, S2>>) (Class) FluentMappingBuilderManyToManyJoinTableOptions.class);
ManyToManyEntityOptionsSupport<C, J, O, S1, S2> optionsSupport = new ManyToManyEntityOptionsSupport<>(manyToManyRelation);
FluentMappingBuilderManyToManyOptions<C, I, O, S1, S2> build = new MethodReferenceDispatcher()
.redirect(ManyToManyEntityOptions.class, optionsSupport, true) // true to allow "return null" in implemented methods
.redirect(
(SerializableBiFunction<ManyToManyEntityOptions<C, O, S1, S2>, String, ManyToManyJoinTableOptions<C, O, S1, S2>>) ManyToManyEntityOptions::joinTable,
(consumer) -> {
optionsSupport.joinTable(consumer);
return joinTableOptionsSupport; // to let user call mandatory() special option
})
.fallbackOn(this)
.build((Class<FluentMappingBuilderManyToManyOptions<C, I, O, S1, S2>>) (Class) FluentMappingBuilderManyToManyOptions.class);
result.set(build);
return build;
}
@Override
public <O, J, S extends Collection<C>> FluentMappingBuilderManyToOneOptions<C, I, O, S> mapManyToOne(
SerializableBiConsumer<C, O> setter,
EntityMappingConfigurationProvider<? extends O, J> mappingConfiguration) {
// we keep close to user demand: we keep its method reference ...
Mutator<C, O> mutatorByMethodReference = Accessors.mutatorByMethodReference(setter);
// ... but we can't do it for accessor, so we use the most equivalent manner: an accessor based on setter method (fallback to property if not present)
Accessor<C, O> accessor = new MutatorByMethod<C, O>(captureLambdaMethod(setter)).toAccessor();
return mapManyToOne(accessor, mutatorByMethodReference, mappingConfiguration);
}
@Override
public <O, J, S extends Collection<C>> FluentMappingBuilderManyToOneOptions<C, I, O, S> mapManyToOne(
SerializableFunction<C, O> getter,
EntityMappingConfigurationProvider<? extends O, J> mappingConfiguration) {
// we keep close to user demand: we keep its method reference ...
AccessorByMethodReference<C, O> accessorByMethodReference = Accessors.accessorByMethodReference(getter);
// ... but we can't do it for mutator, so we use the most equivalent manner: a mutator based on getter method (fallback to property if not present)
Mutator<C, O> mutator = new AccessorByMethod<C, O>(captureLambdaMethod(getter)).toMutator();
return mapManyToOne(accessorByMethodReference, mutator, mappingConfiguration);
}
private <O, J, S extends Collection<C>> FluentMappingBuilderManyToOneOptions<C, I, O, S> mapManyToOne(
Accessor<C, O> accessor,
Mutator<C, O> mutator,
EntityMappingConfigurationProvider<? extends O, J> mappingConfiguration) {
ManyToOneRelation<C, O, J, S> manyToOneRelation = new ManyToOneRelation<>(
new PropertyAccessor<>(accessor, mutator),
() -> this.polymorphismPolicy instanceof PolymorphismPolicy.TablePerClassPolymorphism,
mappingConfiguration);
this.manyToOneRelations.add((ManyToOneRelation<C, Object, Object, Collection<C>>) manyToOneRelation);
return wrapForAdditionalOptions(manyToOneRelation);
}
private <O, J, S extends Collection<C>> FluentMappingBuilderManyToOneOptions<C, I, O, S> wrapForAdditionalOptions(ManyToOneRelation<C, O, J, S> manyToOneRelation) {
// then we return an object that allows fluent settings over our OneToOne cascade instance
return new MethodDispatcher()
.redirect(ManyToOneOptions.class, new ManyToOneOptions<C, O, S>() {
@Override
public ManyToOneOptions<C, O, S> cascading(RelationMode relationMode) {
manyToOneRelation.setRelationMode(relationMode);
return null; // we can return null because dispatcher will return proxy
}
@Override
public ManyToOneOptions<C, O, S> mandatory() {
manyToOneRelation.setNullable(false);
return null; // we can return null because dispatcher will return proxy
}
@Override
public ManyToOneOptions<C, O, S> reverselySetBy(SerializableBiConsumer<O, C> reverseLink) {
manyToOneRelation.getMappedByConfiguration().setCombiner(reverseLink);
return null; // we can return null because dispatcher will return proxy
}
@Override
public ManyToOneOptions<C, O, S> reverseCollection(SerializableFunction<O, S> collectionAccessor) {
manyToOneRelation.getMappedByConfiguration().setAccessor(collectionAccessor);
return null; // we can return null because dispatcher will return proxy
}
@Override
public ManyToOneOptions<C, O, S> reverseCollection(SerializableBiConsumer<O, S> collectionMutator) {
manyToOneRelation.getMappedByConfiguration().setMutator(collectionMutator);
return null; // we can return null because dispatcher will return proxy
}
@Override
public ManyToOneOptions<C, O, S> reverselyInitializeWith(Supplier<S> collectionFactory) {
manyToOneRelation.getMappedByConfiguration().setFactory(collectionFactory);
return null; // we can return null because dispatcher will return proxy
}
@Override
public ManyToOneOptions<C, O, S> fetchSeparately() {
manyToOneRelation.fetchSeparately();
return null; // we can return null because dispatcher will return proxy
}
@Override
public ManyToOneOptions<C, O, S> columnName(String columnName) {
manyToOneRelation.setColumnName(columnName);
return null;
}
}, true) // true to allow "return null" in implemented methods
.fallbackOn(this)
.build((Class<FluentMappingBuilderManyToOneOptions<C, I, O, S>>) (Class) FluentMappingBuilderManyToOneOptions.class);
}
@Override
public <O> FluentMappingBuilderEmbeddableMappingConfigurationImportedEmbedOptions<C, I, O> embed(SerializableFunction<C, O> getter,
EmbeddableMappingConfigurationProvider<? extends O> embeddableMappingBuilder) {
return embed(propertiesMappingConfigurationDelegate.embed(getter, embeddableMappingBuilder));
}
@Override
public <O> FluentMappingBuilderEmbeddableMappingConfigurationImportedEmbedOptions<C, I, O> embed(SerializableBiConsumer<C, O> setter,
EmbeddableMappingConfigurationProvider<? extends O> embeddableMappingBuilder) {
return embed(propertiesMappingConfigurationDelegate.embed(setter, embeddableMappingBuilder));
}
private <O> FluentMappingBuilderEmbeddableMappingConfigurationImportedEmbedOptions<C, I, O> embed(FluentEmbeddableMappingBuilderEmbeddableMappingConfigurationImportedEmbedOptions<C, O> support) {
return new MethodDispatcher()
.redirect(ImportedEmbedWithColumnOptions.class, new ImportedEmbedWithColumnOptions<O>() {
@Override
public <IN> ImportedEmbedWithColumnOptions<O> overrideName(SerializableBiConsumer<O, IN> setter, String columnName) {
support.overrideName(setter, columnName);
return null; // we can return null because dispatcher will return proxy
}
@Override
public <IN> ImportedEmbedWithColumnOptions<O> overrideName(SerializableFunction<O, IN> getter, String columnName) {
support.overrideName(getter, columnName);
return null; // we can return null because dispatcher will return proxy
}
@Override
public <IN> ImportedEmbedWithColumnOptions<O> overrideSize(SerializableBiConsumer<O, IN> setter, Size columnSize) {
support.overrideSize(setter, columnSize);
return null; // we can return null because dispatcher will return proxy
}
@Override
public <IN> ImportedEmbedWithColumnOptions<O> overrideSize(SerializableFunction<O, IN> getter, Size columnSize) {
support.overrideSize(getter, columnSize);
return null; // we can return null because dispatcher will return proxy
}
@Override
public <IN> ImportedEmbedWithColumnOptions<O> override(SerializableBiConsumer<O, IN> setter, Column<? extends Table, IN> targetColumn) {
propertiesMappingConfigurationDelegate.currentInset().override(setter, targetColumn);
return null;
}
@Override
public <IN> ImportedEmbedWithColumnOptions<O> override(SerializableFunction<O, IN> getter, Column<? extends Table, IN> targetColumn) {
propertiesMappingConfigurationDelegate.currentInset().override(getter, targetColumn);
return null;
}
@Override
public <IN> ImportedEmbedWithColumnOptions<O> exclude(SerializableBiConsumer<O, IN> setter) {
support.exclude(setter);
return null; // we can return null because dispatcher will return proxy
}
@Override
public <IN> ImportedEmbedWithColumnOptions<O> exclude(SerializableFunction<O, IN> getter) {
support.exclude(getter);
return null; // we can return null because dispatcher will return proxy
}
}, true)
.fallbackOn(this)
.build((Class<FluentMappingBuilderEmbeddableMappingConfigurationImportedEmbedOptions<C, I, O>>) (Class) FluentMappingBuilderEmbeddableMappingConfigurationImportedEmbedOptions.class);
}
@Override
public FluentEntityMappingBuilder<C, I> withElementCollectionTableNaming(ElementCollectionTableNamingStrategy tableNamingStrategy) {
this.elementCollectionTableNamingStrategy = tableNamingStrategy;
return this;
}
@Override
public FluentEntityMappingBuilder<C, I> withMapEntryTableNaming(MapEntryTableNamingStrategy tableNamingStrategy) {
this.mapEntryTableNamingStrategy = tableNamingStrategy;
return this;
}
@Override
public FluentEntityMappingBuilder<C, I> withForeignKeyNaming(ForeignKeyNamingStrategy foreignKeyNamingStrategy) {
this.foreignKeyNamingStrategy = foreignKeyNamingStrategy;
return this;
}
@Override
public FluentEntityMappingBuilder<C, I> withTableNaming(TableNamingStrategy tableNamingStrategy) {
this.tableNamingStrategy = tableNamingStrategy;
return this;
}
@Override
public FluentEntityMappingBuilder<C, I> withColumnNaming(ColumnNamingStrategy columnNamingStrategy) {
this.propertiesMappingConfigurationDelegate.withColumnNaming(columnNamingStrategy);
return this;
}
@Override
public FluentEntityMappingBuilder<C, I> withUniqueConstraintNaming(UniqueConstraintNamingStrategy uniqueConstraintNamingStrategy) {
this.uniqueConstraintNamingStrategy = uniqueConstraintNamingStrategy;
return this;
}
@Override
public FluentEntityMappingBuilder<C, I> withJoinColumnNaming(JoinColumnNamingStrategy columnNamingStrategy) {
this.joinColumnNamingStrategy = columnNamingStrategy;
return this;
}
@Override
public FluentEntityMappingBuilder<C, I> withIndexColumnNaming(ColumnNamingStrategy columnNamingStrategy) {
this.indexColumnNamingStrategy = columnNamingStrategy;
return this;
}
@Override
public FluentEntityMappingBuilder<C, I> withAssociationTableNaming(AssociationTableNamingStrategy associationTableNamingStrategy) {
this.associationTableNamingStrategy = associationTableNamingStrategy;
return this;
}
@Override
public <V> FluentEntityMappingBuilder<C, I> versionedBy(SerializableFunction<C, V> getter) {
optimisticLockOption = new OptimisticLockOption<>(getter, null);
return this;
}
@Override
public <V> FluentEntityMappingBuilder<C, I> versionedBy(SerializableFunction<C, V> getter, Serie<V> serie) {
optimisticLockOption = new OptimisticLockOption<>(getter, serie);
return this;
}
@Override
public <V> FluentEntityMappingBuilder<C, I> versionedBy(SerializableBiConsumer<C, V> setter) {
optimisticLockOption = new OptimisticLockOption<>(setter, null);
return this;
}
@Override
public <V> FluentEntityMappingBuilder<C, I> versionedBy(SerializableBiConsumer<C, V> setter, Serie<V> serie) {
optimisticLockOption = new OptimisticLockOption<>(setter, serie);
return this;
}
@Override
public <V> FluentEntityMappingBuilder<C, I> versionedBy(String fieldName) {
return versionedBy(fieldName, null);
}
@Override
public <V> FluentEntityMappingBuilder<C, I> versionedBy(String fieldName, Serie<V> serie) {
optimisticLockOption = new OptimisticLockOption<>(classToPersist, fieldName, serie);
return this;
}
@Override
public FluentEntityMappingBuilder<C, I> onTable(String tableName) {
return onTable(new Table<>(tableName));
}
@Override
public FluentEntityMappingBuilder<C, I> onTable(Table table) {
this.targetTable = table;
return this;
}
@Override
public FluentEntityMappingBuilder<C, I> mapPolymorphism(PolymorphismPolicy<C> polymorphismPolicy) {
this.polymorphismPolicy = polymorphismPolicy;
return this;
}
@Override
public ConfiguredRelationalPersister<C, I> build(PersistenceContext persistenceContext) {
DefaultPersisterBuilder persisterBuilder = new DefaultPersisterBuilder(persistenceContext);
ConfiguredRelationalPersister<C, I> persister = persisterBuilder.build(this.getConfiguration());
persistenceContext.getPersisterRegistry().addPersister(persister);
return persister;
}
}