trait GetObjs[Obj, Tpl] extends AnyRef
Data getter methods on molecules that return data as Lists of objects with attribute properties.
Attributes names are used as object property names.
- Self Type
- GetObjs[Obj, Tpl] with Marshalling[Obj, Tpl]
- Source
- GetObjs.scala
- Grouped
- Alphabetic
- By Inheritance
- GetObjs
- AnyRef
- Any
- Hide All
- Show All
- Public
- All
Value Members
-
final
def
!=(arg0: Any): Boolean
- Definition Classes
- AnyRef → Any
-
final
def
##(): Int
- Definition Classes
- AnyRef → Any
-
final
def
==(arg0: Any): Boolean
- Definition Classes
- AnyRef → Any
-
final
def
asInstanceOf[T0]: T0
- Definition Classes
- Any
-
def
clone(): AnyRef
- Attributes
- protected[lang]
- Definition Classes
- AnyRef
- Annotations
- @throws( ... ) @native()
-
final
def
eq(arg0: AnyRef): Boolean
- Definition Classes
- AnyRef
-
def
equals(arg0: Any): Boolean
- Definition Classes
- AnyRef → Any
-
def
finalize(): Unit
- Attributes
- protected[lang]
- Definition Classes
- AnyRef
- Annotations
- @throws( classOf[java.lang.Throwable] )
-
final
def
getClass(): Class[_]
- Definition Classes
- AnyRef → Any
- Annotations
- @native()
-
def
getObj(implicit conn: Future[Conn], ec: ExecutionContext): Future[Obj]
Convenience method to get head of list of objects matching a molecule.
Convenience method to get head of list of objects matching a molecule.
for { person <- Person.name.age.getObj _ = person.name ==> "Ben" _ = person.age ==> 42 } yield ()
- conn
Implicit Conn value in scope
- returns
List[Obj] where Obj is an object with properties matching the attributes of the molecule
-
def
getObjs(n: Int)(implicit futConn: Future[Conn], ec: ExecutionContext): Future[List[Obj]]
Get Future with List of n rows as objects matching a molecule.
Get Future with List of n rows as objects matching a molecule.
for { List(p1) <- Person.name.age.getObjs(1) _ = p1.name ==> "Ben" _ = p1.age ==> 42 } yield ()
- n
Int Number of rows returned
- futConn
Implicit Conn value in scope
- returns
Future[List[Obj]]where Obj is an object type having property types matching the attributes of the molecule
-
def
getObjs(implicit futConn: Future[Conn], ec: ExecutionContext): Future[List[Obj]]
Get Future with List of all rows as objects matching a molecule.
Get Future with List of all rows as objects matching a molecule.
for { List(p1, p2) <- Person.name.age.getObjs _ = p1.name ==> "Ben" _ = p1.age ==> 42 _ = p2.name ==> "Liz" _ = p2.age ==> 37 } yield ()
- futConn
Implicit Conn value in scope
- returns
Future[List[Obj]]where Obj is an object type having property types matching the attributes of the molecule
-
def
getObjsAsOf(date: Date, n: Int)(implicit conn: Future[Conn], ec: ExecutionContext): Future[List[Obj]]
Get Future with List of n rows as objects matching a molecule as of date.
Get Future with List of n rows as objects matching a molecule as of date.
Get data at a human point in time (a java.util.Date).for { beforeInsert = new java.util.Date // Insert tx1 <- Person.name.age insert List( ("Ben", 42), ("Liz", 37) ) List(ben, liz) = tx1.eids afterInsert = new java.util.Date // Update tx2 <- Person(ben).age(43).update afterUpdate = new java.util.Date // Get List of all rows as of afterUpdate List(a1, a2) <- Person.name.age.getObjsAsOf(afterUpdate) _ = a1.name ==> "Ben" _ = a1.age ==> 43 // <-- updated _ = a2.name ==> "Liz" _ = a2.age ==> 37 // Get List of n rows as of afterUpdate List(b1) <- Person.name.age.getObjsAsOf(afterUpdate, 1) _ = b1.name ==> "Ben" _ = b1.age ==> 43 // <-- updated } yield ()
- date
java.util.Date
- n
Int Number of rows returned
- conn
Implicit Conn value in scope
- returns
Future[List[Obj]]where Obj is an object type having property types matching the attributes of the molecule
-
def
getObjsAsOf(date: Date)(implicit conn: Future[Conn], ec: ExecutionContext): Future[List[Obj]]
Get Future with List of all rows as objects matching a molecule as of date.
Get Future with List of all rows as objects matching a molecule as of date.
Get data at a human point in time (a java.util.Date).for { beforeInsert = new java.util.Date // Insert tx1 <- Person.name.age insert List( ("Ben", 42), ("Liz", 37), ) List(ben, liz) = tx1.eids afterInsert = new java.util.Date // Update tx2 <- Person(ben).age(43).update afterUpdate = new java.util.Date // Retract tx3 <- ben.retract afterRetract = new java.util.Date // No data yet before insert _ <- Person.name.age.getObjsAsOf(beforeInsert).map(_ ==> Nil) // Get List of all rows as of afterInsert List(a1, a2) <- Person.name.age.getObjsAsOf(afterInsert) _ = a1.name ==> "Ben" _ = a1.age ==> 42 _ = a2.name ==> "Liz" _ = a2.age ==> 37 // Get List of all rows as of afterUpdate List(b1, b2) <- Person.name.age.getObjsAsOf(afterUpdate) _ = b1.name ==> "Ben" _ = b1.age ==> 43 // <-- updated _ = b2.name ==> "Liz" _ = b2.age ==> 37 // Get List of all rows as of afterRetract List(c1) <- Person.name.age.getObjsAsOf(afterRetract) _ = c1.name ==> "Liz" _ = c1.age ==> 37 } yield ()
- date
java.util.Date
- conn
Implicit Conn value in scope
- returns
Future[List[Obj]]where Obj is an object type having property types matching the attributes of the molecule
-
def
getObjsAsOf(tx: TxReport, n: Int)(implicit conn: Future[Conn], ec: ExecutionContext): Future[List[Obj]]
Get Future with List of n rows as objects matching a molecule as of tx.
Get Future with List of n rows as objects matching a molecule as of tx.
Datomic's internalasOfmethod can take a transaction entity id as argument to retrieve a database value as of that transaction (including).
Instead of supplying the transaction entity id, in Molecule we supply a TxReport that contains the transaction entity id (which is used as argument to Datomic internally). This is more convenient when using Molecule since we get a TxReport from transaction operations likeget,update,retractetc.for { // Insert (tx report 1) tx1 <- Person.name.age insert List( ("Ben", 42), ("Liz", 37) ) List(ben, liz) = tx1.eids // Update (tx report 2) tx2 <- Person(ben).age(43).update // Get List of all rows as of tx2 (after update) List(a1, a2) <- Person.name.age.getObjsAsOf(tx2) _ = a1.name ==> "Ben" _ = a1.age ==> 43 // <-- updated _ = a2.name ==> "Liz" _ = a2.age ==> 37 // Get List of n rows as of tx2 (after update) List(b1) <- Person.name.age.getObjsAsOf(tx2, 1) _ = b1.name ==> "Ben" _ = b1.age ==> 43 // <-- updated } yield ()
-
def
getObjsAsOf(tx: TxReport)(implicit conn: Future[Conn], ec: ExecutionContext): Future[List[Obj]]
Get Future with List of all rows as objects matching a molecule as of tx.
Get Future with List of all rows as objects matching a molecule as of tx.
Datomic's internalasOfmethod can take a transaction entity id as argument to retrieve a database value as of that transaction (including).
Instead of supplying the transaction entity id, in Molecule we supply a TxReport that contains the transaction entity id (which is used as argument to Datomic internally). This is more convenient when using Molecule since we get a TxReport from transaction operations likeget,update,retractetc.for { // Insert (tx report 1) tx1 <- Person.name.age insert List( ("Ben", 42), ("Liz", 37), ) List(ben, liz) = tx1.eids // Update (tx report 2) tx2 <- Person(ben).age(43).update // Retract (tx report 3) tx3 = ben.retract // Get List of all rows as of tx1 (after insert) List(a1, a2) <- Person.name.age.getObjsAsOf(tx1) _ = a1.name ==> "Ben" _ = a1.age ==> 42 _ = a2.name ==> "Liz" _ = a2.age ==> 37 // Get List of all rows as of tx2 (after update) List(b1, b2) <- Person.name.age.getObjsAsOf(tx2) _ = b1.name ==> "Ben" _ = b1.age ==> 43 // <-- updated _ = b2.name ==> "Liz" _ = b2.age ==> 37 // Get List of all rows as of tx3 (after retract) List(c1) <- Person.name.age.getObjsAsOf(tx3) _ = c1.name ==> "Liz" _ = c1.age ==> 37 } yield ()
-
def
getObjsAsOf(t: Long, n: Int)(implicit conn: Future[Conn], ec: ExecutionContext): Future[List[Obj]]
Get Future with List of n rows as objects matching a molecule as of transaction time
t.Get Future with List of n rows as objects matching a molecule as of transaction time
t.
Transaction timetis an auto-incremented transaction number assigned internally by Datomic.
tcan for instance be retrieved in a getHistory call for an attribute and then be used to get data as of that point in time (including that transaction):for { // Insert (t 1028) List(ben, liz) <- Person.name.age insert List( ("Ben", 42), ("Liz", 37), ) eids // Update (t 1031) _ <- Person(ben).age(43).update // History of Ben _ <- Person(ben).age.t.op.getHistory.sortBy(r => (r._2, r._3)).map(_ ==> List( (42, 1028, true), // Insert: 42 asserted (42, 1031, false), // Update: 42 retracted (43, 1031, true), // 43 asserted )) // Get List of all rows as of transaction t 1031 (after update) List(a1, a2) <- Person.name.age.getObjsAsOf(1031) _ = a1.name ==> "Ben" _ = a1.age ==> 43 // <-- updated _ = a2.name ==> "Liz" _ = a2.age ==> 37 // Get List of n rows as of transaction t 1031 (after update) List(b1) <- Person.name.age.getObjsAsOf(1031) _ = b1.name ==> "Ben" _ = b1.age ==> 43 // <-- updated } yield ()
- t
Long Transaction time t
- n
Int Number of rows returned
- conn
Implicit Conn value in scope
- returns
Future[List[Obj]]where Obj is an object type having property types matching the attributes of the molecule
-
def
getObjsAsOf(t: Long)(implicit conn: Future[Conn], ec: ExecutionContext): Future[List[Obj]]
Get Future with List of all rows as objects matching a molecule as of transaction time
t.Get Future with List of all rows as objects matching a molecule as of transaction time
t.
Transaction timetis an auto-incremented transaction number assigned internally by Datomic.
tcan for instance be retrieved in a getHistory call for an attribute and then be used to get data as of that point in time (including that transaction):for { // Insert (t 1028) List(ben, liz) <- Person.name.age insert List( ("Ben", 42), ("Liz", 37), ) eids // Update (t 1031) _ <- Person(ben).age(43).update // Retract (t 1032) _ <- ben.retract // History of Ben _ <- Person(ben).age.t.op.getHistory.sortBy(r => (r._2, r._3)).map(_ ==> List( (42, 1028, true), // Insert: 42 asserted (42, 1031, false), // Update: 42 retracted (43, 1031, true), // 43 asserted (43, 1032, false) // Retract: 43 retracted )) // Get List of data as of transaction t 1028 (after insert) List(a1, a2) <- Person.name.age.getObjsAsOf(1028) _ = a1.name ==> "Ben" _ = a1.age ==> 42 _ = a2.name ==> "Liz" _ = a2.age ==> 37 // Get List of data as of transaction t 1031 (after update) List(b1, b2) <- Person.name.age.getObjsAsOf(1031) _ = b1.name ==> "Ben" _ = b1.age ==> 43 // <-- updated _ = b2.name ==> "Liz" _ = b2.age ==> 37 // Get List of all rows as of transaction t 1032 (after retract) List(c1) <- Person.name.age.getObjsAsOf(1032) _ = c1.name ==> "Liz" _ = c1.age ==> 37 } yield ()
- t
Transaction time t
- conn
Implicit Conn value in scope
- returns
Future[List[Obj]]where Obj is an object type having property types matching the attributes of the molecule
-
def
getObjsHistory(implicit conn: Future[Conn], ec: ExecutionContext): Future[List[Obj]]
Get
Futurewith history of operations asListon an attribute in the db.Get
Futurewith history of operations asListon an attribute in the db.
Generic datom attributes that can be called whengetHistoryis called:
e- Entity id
a- Attribute name
v- Attribute value
ns- Namespace name
tx- TxReport
t- Transaction time t
txInstant- Transaction time as java.util.Date
op- Operation: true (add) or false (retract)
Example:for { // Insert (t 1028) List(ben, liz) <- Person.name.age insert List( ("Ben", 42), ("Liz", 37), ) eids // Update (t 1031) _ <- Person(ben).age(43).update // Retract (t 1032) _ <- ben.retract // History of Ben _ <- Person(ben).age.t.op.getObjsHistory.map(_ .sortBy(o => (o.t, o.op)) .map(o => "" + o.age + " " + o.t + " " + o.op) ==> List( "42 1028 true", // Insert: 42 asserted "42 1031 false", // Update: 42 retracted "43 1031 true", // 43 asserted "43 1032 false" // Retract: 43 retracted )) } yield ()
- conn
Implicit Conn value in scope
- returns
Future[List[Obj]]where Obj is an object type having property types matching the attributes of the molecule
-
def
getObjsSince(date: Date, n: Int)(implicit conn: Future[Conn], ec: ExecutionContext): Future[List[Obj]]
Get Future with List of n rows as objects matching a molecule since date.
Get Future with List of n rows as objects matching a molecule since date.
Get data added/retracted since a human point in time (a java.util.Date).for { // Transact 3 times (`inst` retrieves transaction time/Date from tx report) date1 <- Person.name("Ann").save.inst date2 <- Person.name("Ben").save.inst date3 <- Person.name("Cay").save.inst // Current values List(a1, a2, a3) <- Person.name.getObjs _ = a1.name ==> "Ann" _ = a2.name ==> "Ben" _ = a3.name ==> "Cay" // Ben and Cay added since date1 List(b1, b2) <- Person.name.getObjsSince(date1) _ = b1.name ==> "Ben" _ = b2.name ==> "Cay" // Ben and Cay added since date1 - only n (1) rows returned List(c1) <- Person.name.getObjsSince(date1, 1) _ = c1.name ==> "Ben" } yield ()
- date
java.util.Date
- n
Int Number of rows returned
- conn
Implicit Conn value in scope
- returns
Future[List[Obj]]where Obj is an object type having property types matching the attributes of the molecule
-
def
getObjsSince(date: Date)(implicit conn: Future[Conn], ec: ExecutionContext): Future[List[Obj]]
Get Future with List of all rows as objects matching a molecule since date.
Get Future with List of all rows as objects matching a molecule since date.
Get data added/retracted since a human point in time (a java.util.Date).for { // Transact 3 times (`inst` retrieves transaction time/Date from tx report) date1 <- Person.name("Ann").save.inst date2 <- Person.name("Ben").save.inst date3 <- Person.name("Cay").save.inst // Current values List(a1, a2, a3) <- Person.name.getObjs _ = a1.name ==> "Ann" _ = a2.name ==> "Ben" _ = a3.name ==> "Cay" // Ben and Cay added since date1 List(b1, b2) <- Person.name.getObjsSince(date1) _ = b1.name ==> "Ben" _ = b2.name ==> "Cay" // Cay added since transaction time date2 List(c1) <- Person.name.getObjsSince(date2) _ = c1.name ==> "Cay" // Nothing added since transaction time date3 _ <- Person.name.getObjsSince(date3).map(_ ==> Nil) } yield ()
- date
java.util.Date
- conn
Implicit Conn value in scope
- returns
Future[List[Obj]]where Obj is an object type having property types matching the attributes of the molecule
-
def
getObjsSince(tx: TxReport, n: Int)(implicit conn: Future[Conn], ec: ExecutionContext): Future[List[Obj]]
Get Future with List of n rows as objects matching a molecule since tx.
Get Future with List of n rows as objects matching a molecule since tx.
Datomic's internalsincecan take a transaction entity id as argument to retrieve a database value since that transaction (excluding the transaction itself).
Instead of supplying the transaction entity id, in Molecule we supply a TxReport that contains the transaction entity id (which is used as argument to Datomic internally). This is more convenient when using Molecule since we getAsyncObjList a TxReport from transaction operations likeget,update,retractetc.for { // Get tx reports for 3 transactions tx1 <- Person.name("Ann").save tx2 <- Person.name("Ben").save tx3 <- Person.name("Cay").save // Current values List(a1, a2, a3) <- Person.name.getObjs _ = a1.name ==> "Ann" _ = a2.name ==> "Ben" _ = a3.name ==> "Cay" // Ben and Cay added since tx1 List(b1, b2) <- Person.name.getObjsSince(tx1) _ = b1.name ==> "Ben" _ = b2.name ==> "Cay" // Ben and Cay added since tx1 - only n (1) rows returned List(c1) <- Person.name.getObjsSince(tx1, 1) _ = c1.name ==> "Ben" } yield ()
-
def
getObjsSince(tx: TxReport)(implicit conn: Future[Conn], ec: ExecutionContext): Future[List[Obj]]
Get Future with List of all rows as objects matching a molecule since tx.
Get Future with List of all rows as objects matching a molecule since tx.
Datomic's internalsincecan take a transaction entity id as argument to retrieve a database value since that transaction (excluding the transaction itself).
Instead of supplying the transaction entity id, in Molecule we supply a TxReport that contains the transaction entity id (which is used as argument to Datomic internally). This is more convenient when using Molecule since we getAsyncObjList a TxReport from transaction operations likeget,update,retractetc.for { // Get tx reports for 3 transactions tx1 <- Person.name("Ann").save tx2 <- Person.name("Ben").save tx3 <- Person.name("Cay").save // Current values List(a1, a2, a3) <- Person.name.getObjs _ = a1.name ==> "Ann" _ = a2.name ==> "Ben" _ = a3.name ==> "Cay" // Ben and Cay added since transaction time tx1 List(b1, b2) <- Person.name.getObjsSince(tx1) _ = b1.name ==> "Ben" _ = b2.name ==> "Cay" // Cay added since transaction time tx2 List(c1) <- Person.name.getObjsSince(tx2) _ = c1.name ==> "Cay" // Nothing added since transaction time tx3 _ <- Person.name.getObjsSince(tx3).map(_ ==> Nil) } yield ()
-
def
getObjsSince(t: Long, n: Int)(implicit conn: Future[Conn], ec: ExecutionContext): Future[List[Obj]]
Get Future with List of n rows as objects matching a molecule since transaction time
t.Get Future with List of n rows as objects matching a molecule since transaction time
t.
Transaction timetis an auto-incremented transaction number assigned internally by Datomic.
tcan for instance be retrieved by callington the tx report returned from transactional operations and then be used to get data since that point in time (excluding that transaction):for { // 3 transaction times `t` t1 <- Person.name("Ann").save.map(_.t) t2 <- Person.name("Ben").save.map(_.t) t3 <- Person.name("Cay").save.map(_.t) // Current values List(a1, a2, a3) <- Person.name.getObjs _ = a1.name ==> "Ann" _ = a2.name ==> "Ben" _ = a3.name ==> "Cay" // Ben and Cay added since transaction time t1 List(b1, b2) <- Person.name.getObjsSince(t1) _ = b1.name ==> "Ben" _ = b2.name ==> "Cay" // Ben and Cay added since transaction time t1 - only n (1) rows returned List(c1) <- Person.name.getObjsSince(t1, 1) _ = c1.name ==> "Ben" } yield ()
- t
Transaction time t
- n
Int Number of rows returned
- conn
Implicit Conn value in scope
- returns
Future[List[Obj]]where Obj is an object type having property types matching the attributes of the molecule
-
def
getObjsSince(t: Long)(implicit conn: Future[Conn], ec: ExecutionContext): Future[List[Obj]]
Get Future with List of all rows as objects matching a molecule since transaction time
t.Get Future with List of all rows as objects matching a molecule since transaction time
t.
Transaction timetis an auto-incremented transaction number assigned internally by Datomic.
tcan for instance be retrieved by callington the tx report returned from transactional operations and then be used to get data since that point in time (excluding that transaction):for { // 3 transaction times `t` t1 <- Person.name("Ann").save.map(_.t) t2 <- Person.name("Ben").save.map(_.t) t3 <- Person.name("Cay").save.map(_.t) // Current values List(a1, a2, a3) <- Person.name.getObjs _ = a1.name ==> "Ann" _ = a2.name ==> "Ben" _ = a3.name ==> "Cay" // Ben and Cay added since transaction time t1 List(b1, b2) <- Person.name.getObjsSince(t1) _ = b1.name ==> "Ben" _ = b2.name ==> "Cay" // Cay added since transaction time t2 List(c1) <- Person.name.getObjsSince(t2) _ = c1.name ==> "Cay" // Nothing added since transaction time t3 _ <- Person.name.getObjsSince(t3).map(_ ==> Nil) } yield ()
- t
Transaction time t
- conn
Implicit Conn value in scope
- returns
Future[List[Obj]]where Obj is an object type having property types matching the attributes of the molecule
-
def
getObjsWith(n: Int, txMolecules: Future[Seq[Statement]]*)(implicit conn: Future[Conn], ec: ExecutionContext): Future[List[Obj]]
Get Future with List of n rows as objects matching a molecule with applied molecule transaction data.
Get Future with List of n rows as objects matching a molecule with applied molecule transaction data.
Apply one or more molecule transactions to in-memory "branch" of db without affecting db to see how it would then look:for { // Current state List(ben, liz) <- Person.name.likes.insert( ("Ben", "pasta"), ("Liz", "pizza") ).map(_.eids) List(p1, p2) <- Person.name.likes.getObjs _ = p1.name ==> "Ben" _ = p1.likes ==> "pasta" _ = p2.name ==> "Liz" _ = p2.likes ==> "pizza" // Test multiple transactions List(testP1, testP2) <- Person.name.likes.getObjsWith( Person(ben).likes("sushi").getUpdateStmts, Person(liz).likes("cake").getUpdateStmts ) // Effect: sushi and cake now liked _ = testP1.name ==> "Ben" _ = testP1.likes ==> "sushi" _ = testP2.name ==> "Liz" _ = testP2.likes ==> "cake" // Same as above, but only n (1) rows returned: List(oneTestP) <- Person.name.likes.getObjsWith( 1 Person(ben).likes("sushi").getUpdateStmts, Person(liz).likes("cake").getUpdateStmts ) // Effect: sushi and cake now liked (but only Ben returned) _ = oneTestP.name ==> "Ben" _ = oneTestP.likes ==> "sushi" // Current state is still the same List(p3, p4) <- Person.name.likes.getObjs _ = p3.name ==> "Ben" _ = p3.likes ==> "pasta" _ = p4.name ==> "Liz" _ = p4.likes ==> "pizza" } yield ()
- n
Int Number of rows returned
- txMolecules
Transaction statements from applied Molecules with test data
- conn
Implicit Conn value in scope
- returns
Future[List[Obj]]where Obj is an object type having property types matching the attributes of the molecule
- Note
Note how the
nparameter has to come before thetxMoleculesvararg.
-
def
getObjsWith(txMolecules: Future[Seq[Statement]]*)(implicit conn: Future[Conn], ec: ExecutionContext): Future[List[Obj]]
Get Future with List of all rows as objects matching a molecule with applied molecule transaction data.
Get Future with List of all rows as objects matching a molecule with applied molecule transaction data.
Apply one or more molecule transactions to in-memory "branch" of db without affecting db to see how it would then look:for { // Current state ben <- Person.name("Ben").likes("pasta").save.map(_.eid) List(p0) <- Person.name.likes.getObjs _ = p0.name ==> "Ben" _ = p0.likes ==> "pasta" // Test adding transaction data List(pTest) <- Person.name.likes.getObjsWith( // Additional transaction data Person(ben).likes("sushi").getUpdateStmts ) // Effect: Ben would like sushi if tx was applied _ = pTest.name ==> "Ben" _ = pTest.likes ==> "sushi" // Current state is still the same List(pAfter) <- Person.name.likes.getObjs _ = pAfter.name ==> "Ben" _ = pAfter.likes ==> "pasta" } yield ()
Multiple transactions can be applied to test more complex what-if scenarios!
- txMolecules
Transaction statements from applied Molecules with test data
- conn
Implicit Conn value in scope
- returns
Future[List[Obj]]where Obj is an object type having property types matching the attributes of the molecule
-
def
hashCode(): Int
- Definition Classes
- AnyRef → Any
- Annotations
- @native()
-
final
def
isInstanceOf[T0]: Boolean
- Definition Classes
- Any
-
final
def
ne(arg0: AnyRef): Boolean
- Definition Classes
- AnyRef
-
final
def
notify(): Unit
- Definition Classes
- AnyRef
- Annotations
- @native()
-
final
def
notifyAll(): Unit
- Definition Classes
- AnyRef
- Annotations
- @native()
-
final
def
synchronized[T0](arg0: ⇒ T0): T0
- Definition Classes
- AnyRef
-
def
toString(): String
- Definition Classes
- AnyRef → Any
-
final
def
wait(): Unit
- Definition Classes
- AnyRef
- Annotations
- @throws( ... )
-
final
def
wait(arg0: Long, arg1: Int): Unit
- Definition Classes
- AnyRef
- Annotations
- @throws( ... )
-
final
def
wait(arg0: Long): Unit
- Definition Classes
- AnyRef
- Annotations
- @throws( ... ) @native()

Documentation/API for the Molecule library - a meta DSL for the Datomic database.
scalamolecule.org | Github | Forum