R
- The record type associated with this tablepublic interface Table<R extends Record> extends TableLike<R>
Modifier and Type | Method and Description |
---|---|
Table<R> |
as(java.lang.String alias)
Create an alias for this table.
|
Table<R> |
as(java.lang.String alias,
java.lang.String... fieldAliases)
Create an alias for this table and its fields
Note that the case-sensitivity of the returned table and columns depends
on
Settings.getRenderNameStyle() . |
Table<R> |
asOfScn(Field<? extends java.lang.Number> scn)
Create an
SQLDialect.ORACLE flashback query clause from this
table. |
Table<R> |
asOfScn(java.lang.Number scn)
Create an
SQLDialect.ORACLE flashback query clause from this
table. |
Table<R> |
asOfTimestamp(Field<java.sql.Timestamp> timestamp)
Create an
SQLDialect.ORACLE flashback query clause from this
table. |
Table<R> |
asOfTimestamp(java.sql.Timestamp timestamp)
Create an
SQLDialect.ORACLE flashback query clause from this
table. |
Table<Record> |
crossApply(java.lang.String sql)
CROSS APPLY a table to this table. |
Table<Record> |
crossApply(java.lang.String sql,
java.lang.Object... bindings)
CROSS APPLY a table to this table. |
Table<Record> |
crossApply(java.lang.String sql,
QueryPart... parts)
CROSS APPLY a table to this table. |
Table<Record> |
crossApply(TableLike<?> table)
CROSS APPLY a table to this table. |
Table<Record> |
crossJoin(java.lang.String sql)
CROSS JOIN a table to this table. |
Table<Record> |
crossJoin(java.lang.String sql,
java.lang.Object... bindings)
CROSS JOIN a table to this table. |
Table<Record> |
crossJoin(java.lang.String sql,
QueryPart... parts)
CROSS JOIN a table to this table. |
Table<Record> |
crossJoin(TableLike<?> table)
CROSS JOIN a table to this table. |
DivideByOnStep |
divideBy(Table<?> divisor)
Create a new
TABLE reference from this table, applying
relational division. |
Table<R> |
forceIndex(java.lang.String... indexes)
Specify a MySQL style table hint for query optimisation.
|
Table<R> |
forceIndexForGroupBy(java.lang.String... indexes)
Specify a MySQL style table hint for query optimisation.
|
Table<R> |
forceIndexForJoin(java.lang.String... indexes)
Specify a MySQL style table hint for query optimisation.
|
Table<R> |
forceIndexForOrderBy(java.lang.String... indexes)
Specify a MySQL style table hint for query optimisation.
|
TableOnStep |
fullOuterJoin(java.lang.String sql)
FULL OUTER JOIN a table to this table. |
TableOnStep |
fullOuterJoin(java.lang.String sql,
java.lang.Object... bindings)
FULL OUTER JOIN a table to this table. |
TableOnStep |
fullOuterJoin(java.lang.String sql,
QueryPart... parts)
FULL OUTER JOIN a table to this table. |
TableOnStep |
fullOuterJoin(TableLike<?> table)
FULL OUTER JOIN a table to this table. |
java.lang.String |
getComment()
The comment given to the table.
|
Identity<R,? extends java.lang.Number> |
getIdentity()
Retrieve the table's
IDENTITY information, if available. |
java.util.List<UniqueKey<R>> |
getKeys()
Retrieve all of the table's unique keys.
|
java.lang.String |
getName()
The name of this table.
|
UniqueKey<R> |
getPrimaryKey()
Retrieve the table's primary key
|
TableField<R,? extends java.util.Date> |
getRecordTimestamp()
A "timestamp" field holding record timestamp information used for
optimistic locking
jOOQ supports optimistic locking in
UpdatableRecord.store() and
UpdatableRecord.delete() if
Settings.isExecuteWithOptimisticLocking() is enabled. |
java.lang.Class<? extends R> |
getRecordType()
The record type produced by this table.
|
TableField<R,? extends java.lang.Number> |
getRecordVersion()
A "version" field holding record version information used for optimistic
locking
jOOQ supports optimistic locking in
UpdatableRecord.store() and
UpdatableRecord.delete() if
Settings.isExecuteWithOptimisticLocking() is enabled. |
java.util.List<ForeignKey<R,?>> |
getReferences()
Get the list of
FOREIGN KEY 's of this table |
<O extends Record> |
getReferencesFrom(Table<O> other)
Get a list of
FOREIGN KEY 's of a specific table, referencing
a this table. |
<O extends Record> |
getReferencesTo(Table<O> other)
Get a list of
FOREIGN KEY 's of this table, referencing a
specific table. |
Schema |
getSchema()
Get the table schema.
|
Table<R> |
ignoreIndex(java.lang.String... indexes)
Specify a MySQL style table hint for query optimisation.
|
Table<R> |
ignoreIndexForGroupBy(java.lang.String... indexes)
Specify a MySQL style table hint for query optimisation.
|
Table<R> |
ignoreIndexForJoin(java.lang.String... indexes)
Specify a MySQL style table hint for query optimisation.
|
Table<R> |
ignoreIndexForOrderBy(java.lang.String... indexes)
Specify a MySQL style table hint for query optimisation.
|
TableOnStep |
join(java.lang.String sql)
INNER JOIN a table to this table. |
TableOnStep |
join(java.lang.String sql,
java.lang.Object... bindings)
INNER JOIN a table to this table. |
TableOnStep |
join(java.lang.String sql,
QueryPart... parts)
INNER JOIN a table to this table. |
TableOnStep |
join(TableLike<?> table)
INNER JOIN a table to this table. |
TableOptionalOnStep |
join(TableLike<?> table,
JoinType type)
Join a table to this table using a
JoinType
Depending on the JoinType , a subsequent
TableOnStep.on(Condition...) or
TableOnStep.using(Field...) clause is required. |
TablePartitionByStep |
leftOuterJoin(java.lang.String sql)
LEFT OUTER JOIN a table to this table. |
TablePartitionByStep |
leftOuterJoin(java.lang.String sql,
java.lang.Object... bindings)
LEFT OUTER JOIN a table to this table. |
TablePartitionByStep |
leftOuterJoin(java.lang.String sql,
QueryPart... parts)
LEFT OUTER JOIN a table to this table. |
TablePartitionByStep |
leftOuterJoin(TableLike<?> table)
LEFT OUTER JOIN a table to this table. |
Table<Record> |
naturalJoin(java.lang.String sql)
NATURAL JOIN a table to this table. |
Table<Record> |
naturalJoin(java.lang.String sql,
java.lang.Object... bindings)
NATURAL JOIN a table to this table. |
Table<Record> |
naturalJoin(java.lang.String sql,
QueryPart... parts)
NATURAL JOIN a table to this table. |
Table<Record> |
naturalJoin(TableLike<?> table)
NATURAL JOIN a table to this table. |
Table<Record> |
naturalLeftOuterJoin(java.lang.String sql)
NATURAL LEFT OUTER JOIN a table to this table. |
Table<Record> |
naturalLeftOuterJoin(java.lang.String sql,
java.lang.Object... bindings)
NATURAL LEFT OUTER JOIN a table to this table. |
Table<Record> |
naturalLeftOuterJoin(java.lang.String sql,
QueryPart... parts)
NATURAL LEFT OUTER JOIN a table to this table. |
Table<Record> |
naturalLeftOuterJoin(TableLike<?> table)
NATURAL LEFT OUTER JOIN a table to this table. |
Table<Record> |
naturalRightOuterJoin(java.lang.String sql)
NATURAL RIGHT OUTER JOIN a table to this table. |
Table<Record> |
naturalRightOuterJoin(java.lang.String sql,
java.lang.Object... bindings)
NATURAL RIGHT OUTER JOIN a table to this table. |
Table<Record> |
naturalRightOuterJoin(java.lang.String sql,
QueryPart... parts)
NATURAL RIGHT OUTER JOIN a table to this table. |
Table<Record> |
naturalRightOuterJoin(TableLike<?> table)
NATURAL RIGHT OUTER JOIN a table to this table. |
R |
newRecord()
Create a new
Record of this table's type. |
Table<Record> |
outerApply(java.lang.String sql)
OUTER APPLY a table to this table. |
Table<Record> |
outerApply(java.lang.String sql,
java.lang.Object... bindings)
OUTER APPLY a table to this table. |
Table<Record> |
outerApply(java.lang.String sql,
QueryPart... parts)
OUTER APPLY a table to this table. |
Table<Record> |
outerApply(TableLike<?> table)
OUTER APPLY a table to this table. |
PivotForStep |
pivot(java.util.Collection<? extends Field<?>> aggregateFunctions)
Create a new
TABLE reference from this table, pivoting it
into another form. |
PivotForStep |
pivot(Field<?>... aggregateFunctions)
Create a new
TABLE reference from this table, pivoting it
into another form. |
RecordType<R> |
recordType()
The record type produced by this table.
|
TablePartitionByStep |
rightOuterJoin(java.lang.String sql)
RIGHT OUTER JOIN a table to this table. |
TablePartitionByStep |
rightOuterJoin(java.lang.String sql,
java.lang.Object... bindings)
RIGHT OUTER JOIN a table to this table. |
TablePartitionByStep |
rightOuterJoin(java.lang.String sql,
QueryPart... parts)
RIGHT OUTER JOIN a table to this table. |
TablePartitionByStep |
rightOuterJoin(TableLike<?> table)
RIGHT OUTER JOIN a table to this table. |
Table<R> |
useIndex(java.lang.String... indexes)
Specify a MySQL style table hint for query optimisation.
|
Table<R> |
useIndexForGroupBy(java.lang.String... indexes)
Specify a MySQL style table hint for query optimisation.
|
Table<R> |
useIndexForJoin(java.lang.String... indexes)
Specify a MySQL style table hint for query optimisation.
|
Table<R> |
useIndexForOrderBy(java.lang.String... indexes)
Specify a MySQL style table hint for query optimisation.
|
VersionsBetweenAndStep<R,java.lang.Number> |
versionsBetweenScn(Field<? extends java.lang.Number> scn)
Create an
SQLDialect.ORACLE flashback versions query clause from
this table. |
VersionsBetweenAndStep<R,java.lang.Number> |
versionsBetweenScn(java.lang.Number scn)
Create an
SQLDialect.ORACLE flashback versions query clause from
this table. |
VersionsBetweenAndStep<R,java.lang.Number> |
versionsBetweenScnMinvalue()
Create an
SQLDialect.ORACLE flashback versions query clause from
this table. |
VersionsBetweenAndStep<R,java.sql.Timestamp> |
versionsBetweenTimestamp(Field<java.sql.Timestamp> timestamp)
Create an
SQLDialect.ORACLE flashback versions query clause from
this table. |
VersionsBetweenAndStep<R,java.sql.Timestamp> |
versionsBetweenTimestamp(java.sql.Timestamp timestamp)
Create an
SQLDialect.ORACLE flashback versions query clause from
this table. |
VersionsBetweenAndStep<R,java.sql.Timestamp> |
versionsBetweenTimestampMinvalue()
Create an
SQLDialect.ORACLE flashback versions query clause from
this table. |
Table<R> |
with(java.lang.String hint)
Specify a SQL Server style table hint for query optimisation.
|
Schema getSchema()
java.lang.String getName()
java.lang.String getComment()
If this Table
is a generated table from your database, it
may provide its DDL comment through this method. All other table
expressions return the empty string ""
here, never
null
.
RecordType<R> recordType()
java.lang.Class<? extends R> getRecordType()
R newRecord()
Record
of this table's type.DSLContext.newRecord(Table)
Identity<R,? extends java.lang.Number> getIdentity()
IDENTITY
information, if available.
With SQL:2003, the concept of IDENTITY
columns was
introduced in most RDBMS. These are special kinds of columns that have
auto-increment functionality when INSERT
statements are
performed.
An IDENTITY
column is usually part of the
PRIMARY KEY
or of a UNIQUE KEY
in the table,
although in some RDBMS, this is not required. There can only be at most
one IDENTITY
column.
Note: Unfortunately, this is not supported in the Oracle dialect, where identities simulated by triggers cannot be formally detected.
IDENTITY
information, or
null
, if no such information is available.UniqueKey<R> getPrimaryKey()
null
for an updatable
table.TableField<R,? extends java.lang.Number> getRecordVersion()
jOOQ supports optimistic locking in UpdatableRecord.store()
and
UpdatableRecord.delete()
if
Settings.isExecuteWithOptimisticLocking()
is enabled. Optimistic
locking is performed in a single UPDATE
or
DELETE
statement if tables provide a "version" or
"timestamp" field, or in two steps using an additional
SELECT .. FOR UPDATE
statement otherwise.
This method is overridden in generated subclasses if their corresponding tables have been configured accordingly. A table may have both a "version" and a "timestamp" field.
null
, if this table has no
"version" field.getRecordTimestamp()
,
UpdatableRecord.store()
,
UpdatableRecord.delete()
,
Settings.isExecuteWithOptimisticLocking()
TableField<R,? extends java.util.Date> getRecordTimestamp()
jOOQ supports optimistic locking in UpdatableRecord.store()
and
UpdatableRecord.delete()
if
Settings.isExecuteWithOptimisticLocking()
is enabled. Optimistic
locking is performed in a single UPDATE
or
DELETE
statement if tables provide a "version" or
"timestamp" field, or in two steps using an additional
SELECT .. FOR UPDATE
statement otherwise.
This method is overridden in generated subclasses if their corresponding tables have been configured accordingly. A table may have both a "version" and a "timestamp" field.
null
, if this table has no
"timestamp" field.getRecordVersion()
,
UpdatableRecord.store()
,
UpdatableRecord.delete()
,
Settings.isExecuteWithOptimisticLocking()
java.util.List<UniqueKey<R>> getKeys()
null
. This is never empty
for a Table
with a getPrimaryKey()
. This
method returns an unmodifiable list.<O extends Record> java.util.List<ForeignKey<O,R>> getReferencesFrom(Table<O> other)
FOREIGN KEY
's of a specific table, referencing
a this table.O
- The other table's record typeother
- The other table of the foreign key relationshipFOREIGN KEY
's towards an this
table. This is never null
. This method returns an
unmodifiable list.java.util.List<ForeignKey<R,?>> getReferences()
FOREIGN KEY
's of this tableFOREIGN KEY
's. This is never
null
.<O extends Record> java.util.List<ForeignKey<R,O>> getReferencesTo(Table<O> other)
FOREIGN KEY
's of this table, referencing a
specific table.O
- The other table's record typeother
- The other table of the foreign key relationshipFOREIGN KEY
's towards an other table.
This is never null
.@Support Table<R> as(java.lang.String alias)
Note that the case-sensitivity of the returned table depends on
Settings.getRenderNameStyle()
. By default, table aliases are
quoted, and thus case-sensitive!
alias
- The alias name@Support Table<R> as(java.lang.String alias, java.lang.String... fieldAliases)
Note that the case-sensitivity of the returned table and columns depends
on Settings.getRenderNameStyle()
. By default, table aliases are
quoted, and thus case-sensitive!
Note, not all databases support derived column lists for their table
aliases. On the other hand, some databases do support derived column
lists, but only for derived tables. jOOQ will try to turn table
references into derived tables to make this syntax work. In other words,
the following statements are equivalent:
-- Using derived column lists to rename columns (e.g. Postgres)
SELECT t.a, t.b
FROM my_table t(a, b)
-- Nesting table references within derived tables (e.g. SQL Server)
SELECT t.a, t.b
FROM (
SELECT * FROM my_table
) t(a, b)
Other databases may not support derived column lists at all, but they do
support common table expressions. The following statements are
equivalent:
-- Using derived column lists to rename columns (e.g. Postgres)
SELECT t.a, t.b
FROM (
SELECT 1, 2
) AS t(a, b)
-- Using UNION ALL to produce column names (e.g. MySQL)
SELECT t.a, t.b
FROM (
SELECT null a, null b FROM DUAL WHERE 1 = 0
UNION ALL
SELECT 1, 2 FROM DUAL
) t
alias
- The alias namefieldAliases
- The field aliases. Excess aliases are ignored,
missing aliases will be substituted by this table's field
names.@Support TableOptionalOnStep join(TableLike<?> table, JoinType type)
JoinType
Depending on the JoinType
, a subsequent
TableOnStep.on(Condition...)
or
TableOnStep.using(Field...)
clause is required. If it is required
but omitted, a DSL.trueCondition()
, i.e. 1 = 1
condition will be rendered
@Support TableOnStep join(TableLike<?> table)
INNER JOIN
a table to this table.@Support @PlainSQL TableOnStep join(java.lang.String sql)
INNER JOIN
a table to this table.
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String)
@Support @PlainSQL TableOnStep join(java.lang.String sql, java.lang.Object... bindings)
INNER JOIN
a table to this table.
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String, Object...)
@Support @PlainSQL TableOnStep join(java.lang.String sql, QueryPart... parts)
INNER JOIN
a table to this table.
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String, QueryPart...)
@Support TablePartitionByStep leftOuterJoin(TableLike<?> table)
LEFT OUTER JOIN
a table to this table.@Support @PlainSQL TablePartitionByStep leftOuterJoin(java.lang.String sql)
LEFT OUTER JOIN
a table to this table.
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String)
@Support @PlainSQL TablePartitionByStep leftOuterJoin(java.lang.String sql, java.lang.Object... bindings)
LEFT OUTER JOIN
a table to this table.
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String, Object...)
@Support @PlainSQL TablePartitionByStep leftOuterJoin(java.lang.String sql, QueryPart... parts)
LEFT OUTER JOIN
a table to this table.
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String, QueryPart...)
@Support(value={ACCESS,ASE,CUBRID,DB2,DERBY,FIREBIRD,H2,HANA,HSQLDB,INFORMIX,INGRES,MARIADB,MYSQL,ORACLE,POSTGRES,SQLSERVER,SYBASE}) TablePartitionByStep rightOuterJoin(TableLike<?> table)
RIGHT OUTER JOIN
a table to this table.
This is only possible where the underlying RDBMS supports it
@Support(value={ACCESS,ASE,CUBRID,DB2,DERBY,FIREBIRD,H2,HANA,HSQLDB,INFORMIX,INGRES,MARIADB,MYSQL,ORACLE,POSTGRES,SQLSERVER,SYBASE}) @PlainSQL TablePartitionByStep rightOuterJoin(java.lang.String sql)
RIGHT OUTER JOIN
a table to this table.
This is only possible where the underlying RDBMS supports it
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String)
@Support(value={ACCESS,ASE,CUBRID,DB2,DERBY,FIREBIRD,H2,HANA,HSQLDB,INFORMIX,INGRES,MARIADB,MYSQL,ORACLE,POSTGRES,SQLSERVER,SYBASE}) @PlainSQL TablePartitionByStep rightOuterJoin(java.lang.String sql, java.lang.Object... bindings)
RIGHT OUTER JOIN
a table to this table.
This is only possible where the underlying RDBMS supports it
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String, Object...)
@Support(value={ACCESS,ASE,CUBRID,DB2,DERBY,FIREBIRD,H2,HANA,HSQLDB,INFORMIX,INGRES,MARIADB,MYSQL,ORACLE,POSTGRES,SQLSERVER,SYBASE}) @PlainSQL TablePartitionByStep rightOuterJoin(java.lang.String sql, QueryPart... parts)
RIGHT OUTER JOIN
a table to this table.
This is only possible where the underlying RDBMS supports it
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String, QueryPart...)
@Support(value={DB2,FIREBIRD,HANA,HSQLDB,INFORMIX,INGRES,ORACLE,POSTGRES,SQLSERVER,SYBASE}) TableOnStep fullOuterJoin(TableLike<?> table)
FULL OUTER JOIN
a table to this table.
This is only possible where the underlying RDBMS supports it
@Support(value={DB2,FIREBIRD,HANA,HSQLDB,INFORMIX,INGRES,ORACLE,POSTGRES,SQLSERVER,SYBASE}) @PlainSQL TableOnStep fullOuterJoin(java.lang.String sql)
FULL OUTER JOIN
a table to this table.
This is only possible where the underlying RDBMS supports it
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String)
@Support(value={DB2,FIREBIRD,HANA,HSQLDB,INFORMIX,INGRES,ORACLE,POSTGRES,SQLSERVER,SYBASE}) @PlainSQL TableOnStep fullOuterJoin(java.lang.String sql, java.lang.Object... bindings)
FULL OUTER JOIN
a table to this table.
This is only possible where the underlying RDBMS supports it
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String, Object...)
@Support(value={DB2,FIREBIRD,HANA,HSQLDB,INFORMIX,INGRES,ORACLE,POSTGRES,SQLSERVER,SYBASE}) @PlainSQL TableOnStep fullOuterJoin(java.lang.String sql, QueryPart... parts)
FULL OUTER JOIN
a table to this table.
This is only possible where the underlying RDBMS supports it
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String, QueryPart...)
@Support(value={ASE,CUBRID,DB2,DERBY,FIREBIRD,H2,HANA,HSQLDB,INFORMIX,INGRES,MARIADB,MYSQL,ORACLE,POSTGRES,SQLITE,SQLSERVER,SYBASE}) Table<Record> crossJoin(TableLike<?> table)
CROSS JOIN
a table to this table.
If this syntax is unavailable, it is simulated with a regular
INNER JOIN
. The following two constructs are equivalent:
A cross join B
A join B on 1 = 1
@Support(value={ASE,CUBRID,DB2,DERBY,FIREBIRD,H2,HANA,HSQLDB,INFORMIX,INGRES,MARIADB,MYSQL,ORACLE,POSTGRES,SQLITE,SQLSERVER,SYBASE}) @PlainSQL Table<Record> crossJoin(java.lang.String sql)
CROSS JOIN
a table to this table.
If this syntax is unavailable, it is simulated with a regular
INNER JOIN
. The following two constructs are equivalent:
A cross join B
A join B on 1 = 1
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String)
@Support(value={ASE,CUBRID,DB2,DERBY,FIREBIRD,H2,HANA,HSQLDB,INFORMIX,INGRES,MARIADB,MYSQL,ORACLE,POSTGRES,SQLITE,SQLSERVER,SYBASE}) @PlainSQL Table<Record> crossJoin(java.lang.String sql, java.lang.Object... bindings)
CROSS JOIN
a table to this table.
If this syntax is unavailable, it is simulated with a regular
INNER JOIN
. The following two constructs are equivalent:
A cross join B
A join B on 1 = 1
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String, Object...)
@Support(value={ASE,CUBRID,DB2,DERBY,FIREBIRD,H2,HANA,HSQLDB,INFORMIX,INGRES,MARIADB,MYSQL,ORACLE,POSTGRES,SQLITE,SQLSERVER,SYBASE}) @PlainSQL Table<Record> crossJoin(java.lang.String sql, QueryPart... parts)
CROSS JOIN
a table to this table.
If this syntax is unavailable, it is simulated with a regular
INNER JOIN
. The following two constructs are equivalent:
A cross join B
A join B on 1 = 1
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String, QueryPart...)
@Support Table<Record> naturalJoin(TableLike<?> table)
NATURAL JOIN
a table to this table.
If this is not supported by your RDBMS, then jOOQ will try to simulate this behaviour using the information provided in this query.
@Support @PlainSQL Table<Record> naturalJoin(java.lang.String sql)
NATURAL JOIN
a table to this table.
If this is not supported by your RDBMS, then jOOQ will try to simulate this behaviour using the information provided in this query.
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String)
@Support @PlainSQL Table<Record> naturalJoin(java.lang.String sql, java.lang.Object... bindings)
NATURAL JOIN
a table to this table.
If this is not supported by your RDBMS, then jOOQ will try to simulate this behaviour using the information provided in this query.
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String, Object...)
@Support @PlainSQL Table<Record> naturalJoin(java.lang.String sql, QueryPart... parts)
NATURAL JOIN
a table to this table.
If this is not supported by your RDBMS, then jOOQ will try to simulate this behaviour using the information provided in this query.
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String, QueryPart...)
@Support Table<Record> naturalLeftOuterJoin(TableLike<?> table)
NATURAL LEFT OUTER JOIN
a table to this table.
If this is not supported by your RDBMS, then jOOQ will try to simulate this behaviour using the information provided in this query.
@Support @PlainSQL Table<Record> naturalLeftOuterJoin(java.lang.String sql)
NATURAL LEFT OUTER JOIN
a table to this table.
If this is not supported by your RDBMS, then jOOQ will try to simulate this behaviour using the information provided in this query.
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String)
@Support @PlainSQL Table<Record> naturalLeftOuterJoin(java.lang.String sql, java.lang.Object... bindings)
NATURAL LEFT OUTER JOIN
a table to this table.
If this is not supported by your RDBMS, then jOOQ will try to simulate this behaviour using the information provided in this query.
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String, Object...)
@Support @PlainSQL Table<Record> naturalLeftOuterJoin(java.lang.String sql, QueryPart... parts)
NATURAL LEFT OUTER JOIN
a table to this table.
If this is not supported by your RDBMS, then jOOQ will try to simulate this behaviour using the information provided in this query.
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String, QueryPart...)
@Support(value={ACCESS,ASE,CUBRID,DB2,DERBY,FIREBIRD,H2,HSQLDB,INFORMIX,INGRES,MARIADB,MYSQL,ORACLE,POSTGRES,SQLSERVER,SYBASE}) Table<Record> naturalRightOuterJoin(TableLike<?> table)
NATURAL RIGHT OUTER JOIN
a table to this table.
If this is not supported by your RDBMS, then jOOQ will try to simulate this behaviour using the information provided in this query.
@Support(value={ACCESS,ASE,CUBRID,DB2,DERBY,FIREBIRD,H2,HSQLDB,INFORMIX,INGRES,MARIADB,MYSQL,ORACLE,POSTGRES,SQLSERVER,SYBASE}) @PlainSQL Table<Record> naturalRightOuterJoin(java.lang.String sql)
NATURAL RIGHT OUTER JOIN
a table to this table.
If this is not supported by your RDBMS, then jOOQ will try to simulate this behaviour using the information provided in this query.
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String)
@Support(value={ACCESS,ASE,CUBRID,DB2,DERBY,FIREBIRD,H2,HSQLDB,INFORMIX,INGRES,MARIADB,MYSQL,ORACLE,POSTGRES,SQLSERVER,SYBASE}) @PlainSQL Table<Record> naturalRightOuterJoin(java.lang.String sql, java.lang.Object... bindings)
NATURAL RIGHT OUTER JOIN
a table to this table.
If this is not supported by your RDBMS, then jOOQ will try to simulate this behaviour using the information provided in this query.
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String, Object...)
@Support(value={ACCESS,ASE,CUBRID,DB2,DERBY,FIREBIRD,H2,HSQLDB,INFORMIX,INGRES,MARIADB,MYSQL,ORACLE,POSTGRES,SQLSERVER,SYBASE}) @PlainSQL Table<Record> naturalRightOuterJoin(java.lang.String sql, QueryPart... parts)
NATURAL RIGHT OUTER JOIN
a table to this table.
If this is not supported by your RDBMS, then jOOQ will try to simulate this behaviour using the information provided in this query.
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String, QueryPart...)
@Support(value={ORACLE12C,SQLSERVER,SYBASE}) Table<Record> crossApply(TableLike<?> table)
CROSS APPLY
a table to this table.@Support(value={ORACLE12C,SQLSERVER,SYBASE}) @PlainSQL Table<Record> crossApply(java.lang.String sql)
CROSS APPLY
a table to this table.
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String)
@Support(value={ORACLE12C,SQLSERVER,SYBASE}) @PlainSQL Table<Record> crossApply(java.lang.String sql, java.lang.Object... bindings)
CROSS APPLY
a table to this table.
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String, Object...)
@Support(value={ORACLE12C,SQLSERVER,SYBASE}) @PlainSQL Table<Record> crossApply(java.lang.String sql, QueryPart... parts)
CROSS APPLY
a table to this table.
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String, QueryPart...)
@Support(value={ORACLE12C,SQLSERVER,SYBASE}) Table<Record> outerApply(TableLike<?> table)
OUTER APPLY
a table to this table.@Support(value={ORACLE12C,SQLSERVER,SYBASE}) @PlainSQL Table<Record> outerApply(java.lang.String sql)
OUTER APPLY
a table to this table.
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String)
@Support(value={ORACLE12C,SQLSERVER,SYBASE}) @PlainSQL Table<Record> outerApply(java.lang.String sql, java.lang.Object... bindings)
OUTER APPLY
a table to this table.
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String, Object...)
@Support(value={ORACLE12C,SQLSERVER,SYBASE}) @PlainSQL Table<Record> outerApply(java.lang.String sql, QueryPart... parts)
OUTER APPLY
a table to this table.
NOTE: When inserting plain SQL into jOOQ objects, you must guarantee syntax integrity. You may also create the possibility of malicious SQL injection. Be sure to properly use bind variables and/or escape literals when concatenated into SQL clauses!
DSL.table(String, QueryPart...)
@Support(value={MARIADB,MYSQL}) Table<R> useIndex(java.lang.String... indexes)
Example:
create.select()
.from(BOOK.as("b").useIndex("MY_INDEX")
.fetch();
@Support(value={MARIADB,MYSQL}) Table<R> useIndexForJoin(java.lang.String... indexes)
Example:
create.select()
.from(BOOK.as("b").useIndexForJoin("MY_INDEX")
.fetch();
@Support(value={MARIADB,MYSQL}) Table<R> useIndexForOrderBy(java.lang.String... indexes)
Example:
create.select()
.from(BOOK.as("b").useIndexForOrderBy("MY_INDEX")
.fetch();
@Support(value={MARIADB,MYSQL}) Table<R> useIndexForGroupBy(java.lang.String... indexes)
Example:
create.select()
.from(BOOK.as("b").useIndexForGroupBy("MY_INDEX")
.fetch();
@Support(value={MARIADB,MYSQL}) Table<R> ignoreIndex(java.lang.String... indexes)
Example:
create.select()
.from(BOOK.as("b").useIndex("MY_INDEX")
.fetch();
@Support(value={MARIADB,MYSQL}) Table<R> ignoreIndexForJoin(java.lang.String... indexes)
Example:
create.select()
.from(BOOK.as("b").useIndexForJoin("MY_INDEX")
.fetch();
@Support(value={MARIADB,MYSQL}) Table<R> ignoreIndexForOrderBy(java.lang.String... indexes)
Example:
create.select()
.from(BOOK.as("b").useIndexForOrderBy("MY_INDEX")
.fetch();
@Support(value={MARIADB,MYSQL}) Table<R> ignoreIndexForGroupBy(java.lang.String... indexes)
Example:
create.select()
.from(BOOK.as("b").useIndexForGroupBy("MY_INDEX")
.fetch();
@Support(value={MARIADB,MYSQL}) Table<R> forceIndex(java.lang.String... indexes)
Example:
create.select()
.from(BOOK.as("b").useIndex("MY_INDEX")
.fetch();
@Support(value={MARIADB,MYSQL}) Table<R> forceIndexForJoin(java.lang.String... indexes)
Example:
create.select()
.from(BOOK.as("b").useIndexForJoin("MY_INDEX")
.fetch();
@Support(value={MARIADB,MYSQL}) Table<R> forceIndexForOrderBy(java.lang.String... indexes)
Example:
create.select()
.from(BOOK.as("b").useIndexForOrderBy("MY_INDEX")
.fetch();
@Support(value={MARIADB,MYSQL}) Table<R> forceIndexForGroupBy(java.lang.String... indexes)
Example:
create.select()
.from(BOOK.as("b").useIndexForGroupBy("MY_INDEX")
.fetch();
@Support(value={SQLSERVER,SYBASE}) Table<R> with(java.lang.String hint)
This makes sense only on an actual database table or view, not on other composed table sources.
Example:
create.select()
.from(BOOK.as("b").with("READUNCOMMITTED")
.fetch();
For SQLDialect.ORACLE
style hints, see
SelectFromStep.hint(String)
and SelectQuery.addHint(String)
@Support(value={ORACLE11G,ORACLE12C}) PivotForStep pivot(Field<?>... aggregateFunctions)
TABLE
reference from this table, pivoting it
into another form.
This has been observed to work with
SQLDialect.ORACLE11G
upwardsSQLDialect.SQLSERVER
(not yet officially supported)aggregateFunctions
- The aggregate functions used for pivoting.PIVOT
expression@Support(value={ORACLE11G,ORACLE12C}) PivotForStep pivot(java.util.Collection<? extends Field<?>> aggregateFunctions)
TABLE
reference from this table, pivoting it
into another form.
For more details, see pivot(Field...)
aggregateFunctions
- The aggregate functions used for pivoting.PIVOT
expressionpivot(Field...)
@Support DivideByOnStep divideBy(Table<?> divisor)
TABLE
reference from this table, applying
relational division.
Relational division is the inverse of a cross join operation. The
following is an approximate definition of a relational division:
Assume the following cross join / cartesian product
C = A × B
Then it can be said that
A = C ÷ B
B = C ÷ A
With jOOQ, you can simplify using relational divisions by using the
following syntax:
C.divideBy(B).on(C.ID.equal(B.C_ID)).returning(C.TEXT)
The above roughly translates to
SELECT DISTINCT C.TEXT FROM C "c1"
WHERE NOT EXISTS (
SELECT 1 FROM B
WHERE NOT EXISTS (
SELECT 1 FROM C "c2"
WHERE "c2".TEXT = "c1".TEXT
AND "c2".ID = B.C_ID
)
)
Or in plain text: Find those TEXT values in C whose ID's correspond to
all ID's in B. Note that from the above SQL statement, it is immediately
clear that proper indexing is of the essence. Be sure to have indexes on
all columns referenced from the on(...)
and
returning(...)
clauses.
For more information about relational division and some nice, real-life examples, see
This has been observed to work with all dialects
@Support(value=ORACLE) VersionsBetweenAndStep<R,java.lang.Number> versionsBetweenScn(java.lang.Number scn)
SQLDialect.ORACLE
flashback versions query clause from
this table.@Support(value=ORACLE) VersionsBetweenAndStep<R,java.lang.Number> versionsBetweenScn(Field<? extends java.lang.Number> scn)
SQLDialect.ORACLE
flashback versions query clause from
this table.@Support(value=ORACLE) VersionsBetweenAndStep<R,java.lang.Number> versionsBetweenScnMinvalue()
SQLDialect.ORACLE
flashback versions query clause from
this table.@Support(value=ORACLE) VersionsBetweenAndStep<R,java.sql.Timestamp> versionsBetweenTimestamp(java.sql.Timestamp timestamp)
SQLDialect.ORACLE
flashback versions query clause from
this table.@Support(value=ORACLE) VersionsBetweenAndStep<R,java.sql.Timestamp> versionsBetweenTimestamp(Field<java.sql.Timestamp> timestamp)
SQLDialect.ORACLE
flashback versions query clause from
this table.@Support(value=ORACLE) VersionsBetweenAndStep<R,java.sql.Timestamp> versionsBetweenTimestampMinvalue()
SQLDialect.ORACLE
flashback versions query clause from
this table.@Support(value=ORACLE) Table<R> asOfScn(java.lang.Number scn)
SQLDialect.ORACLE
flashback query clause from this
table.@Support(value=ORACLE) Table<R> asOfScn(Field<? extends java.lang.Number> scn)
SQLDialect.ORACLE
flashback query clause from this
table.@Support(value=ORACLE) Table<R> asOfTimestamp(java.sql.Timestamp timestamp)
SQLDialect.ORACLE
flashback query clause from this
table.Copyright © 2015. All Rights Reserved.