"ketkä", "keitä", "keissä", "keistä", "keihin", "keillä", "keiltä", "keille", "keinä", "keiksi", "mikä", "minkä", "minkä", "mitä", "missä", "mistä", "mihin", "millä", "miltä", "mille", "minä", "miksi", "mitkä", "joka", "jonka", "jota", "jossa", "josta", "johon", "jolla", "jolta", "jolle", "jona", "joksi", "jotka", "joiden", "joita", "joissa", "joista", "joihin", "joilla", "joilta", "joille", "joina", "joiksi", "että", "ja", "jos", "koska", "kuin", "mutta", "niin", "sekä", "sillä", "tai", "vaan",...

Jinzhu <******@****.***> 1748158840 +0800

			return
		}

		joins := make([]string, 0, len(db.Statement.Joins))
		for _, join := range db.Statement.Joins {
			joins = append(joins, join.Name)
		}

		tx := preloadDB(db, db.Statement.ReflectValue, db.Statement.Dest)
		if tx.Error != nil {
			return
		}

					Name: "nested-joins-manager-namepet-1",
					Toy: Toy{
						Name: "nested-joins-manager-namepet-toy-1",
					},
				},
			},
			NamedPet: &Pet{Name: "nested-joins-namepet-1", Toy: Toy{Name: "nested-joins-namepet-toy-1"}},
		},
		{
			Name:     "nested-joins-2",
			Manager:  GetUser("nested-joins-manager-2", Config{Company: true, NamedPet: true}),

			Name: "generics-nested-joins-1",
			Manager: &User{
				Name: "generics-nested-joins-manager-1",
				Company: Company{
					Name: "generics-nested-joins-manager-company-1",
				},
				NamedPet: &Pet{
					Name: "generics-nested-joins-manager-namepet-1",
					Toy: Toy{
						Name: "generics-nested-joins-manager-namepet-toy-1",
					},
				},
			},

	}
	return
}

// Joins specify Joins conditions
//
//	db.Joins("Account").Find(&user)
//	db.Joins("JOIN emails ON emails.user_id = users.id AND emails.email = ?", "******@****.***").Find(&user)
//	db.Joins("Account", DB.Select("id").Where("user_id = users.id AND name = ?", "someName").Model(&Account{}))
func (db *DB) Joins(query string, args ...interface{}) (tx *DB) {
	return joins(db, clause.LeftJoin, query, args...)
}

				expr.Vars = append(expr.Vars, clause.AndConditions{Exprs: j.On.Exprs})
			}

			j.Expression = expr
		}

		db.Statement.Joins = append(db.Statement.Joins, j)
		sort.Slice(db.Statement.Joins, func(i, j int) bool {
			return db.Statement.Joins[i].Name < db.Statement.Joins[j].Name
		})
		return db
	})
}

func (c chainG[T]) Select(query string, args ...interface{}) ChainInterface[T] {

// If the current relationship is embedded or joined, current query will be ignored.
//
//nolint:cyclop
func preloadEntryPoint(db *gorm.DB, joins []string, relationships *schema.Relationships, preloads map[string][]interface{}, associationsConds []interface{}) error {
	preloadMap := parsePreloadMap(db.Statement.Schema, preloads)

	// avoid random traversal of the map

	}

	for k, c := range stmt.Clauses {
		newStmt.Clauses[k] = c
	}

	for k, p := range stmt.Preloads {
		newStmt.Preloads[k] = p
	}

	if len(stmt.Joins) > 0 {
		newStmt.Joins = make([]join, len(stmt.Joins))
		copy(newStmt.Joins, stmt.Joins)
	}

	if len(stmt.scopes) > 0 {
		newStmt.scopes = make([]func(*DB) *DB, len(stmt.scopes))
		copy(newStmt.scopes, stmt.scopes)
	}

   */
  public MapJoiner withKeyValueSeparator(String keyValueSeparator) {
    return new MapJoiner(this, keyValueSeparator);
  }

  /**
   * An object that joins map entries in the same manner as {@code Joiner} joins iterables and
   * arrays. Like {@code Joiner}, it is thread-safe and immutable.
   *
   * <p>In addition to operating on {@code Map} instances, {@code MapJoiner} can operate on {@code