final class InvariantOps[F[_], O] extends AnyVal
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final
def
!=(arg0: Any): Boolean
- Definition Classes
- Any
-
final
def
##(): Int
- Definition Classes
- Any
-
def
+(other: String): String
- Implicit
- This member is added by an implicit conversion from InvariantOps[F, O] to any2stringadd[InvariantOps[F, O]] performed by method any2stringadd in scala.Predef.
- Definition Classes
- any2stringadd
-
def
++[O2 >: O](s2: ⇒ Stream[F, O2]): Stream[F, O2]
Appends
s2to the end of this stream. -
def
->[B](y: B): (InvariantOps[F, O], B)
- Implicit
- This member is added by an implicit conversion from InvariantOps[F, O] to ArrowAssoc[InvariantOps[F, O]] performed by method ArrowAssoc in scala.Predef.
- Definition Classes
- ArrowAssoc
- Annotations
- @inline()
-
final
def
==(arg0: Any): Boolean
- Definition Classes
- Any
-
def
>>[O2](s2: ⇒ Stream[F, O2]): Stream[F, O2]
Alias for
flatMap(_ => s2). -
def
append[O2 >: O](s2: ⇒ Stream[F, O2]): Stream[F, O2]
Appends
s2to the end of this stream.Appends
s2to the end of this stream. Alias fors1 ++ s2. -
final
def
asInstanceOf[T0]: T0
- Definition Classes
- Any
-
def
changes(implicit eq: Eq[O]): Stream[F, O]
Emits only elements that are distinct from their immediate predecessors, using natural equality for comparison.
Emits only elements that are distinct from their immediate predecessors, using natural equality for comparison.
scala> import cats.implicits._ scala> Stream(1,1,2,2,2,3,3).changes.toList res0: List[Int] = List(1, 2, 3)
Example: -
def
compile: ToEffect[F, O]
Gets a projection of this stream that allows converting it to an
F[..]in a number of ways.Gets a projection of this stream that allows converting it to an
F[..]in a number of ways.scala> import cats.effect.IO scala> val prg: IO[Vector[Int]] = Stream.eval(IO(1)).append(Stream(2,3,4)).compile.toVector scala> prg.unsafeRunSync res2: Vector[Int] = Vector(1, 2, 3, 4)
Example: -
def
concurrently[O2](that: Stream[F, O2])(implicit F: Effect[F], ec: ExecutionContext): Stream[F, O]
Runs the supplied stream in the background as elements from this stream are pulled.
Runs the supplied stream in the background as elements from this stream are pulled.
The resulting stream terminates upon termination of this stream. The background stream will be interrupted at that point. Early termination of
thatdoes not terminate the resulting stream.Any errors that occur in either
thisorthatstream result in the overall stream terminating with an error.Upon finalization, the resulting stream will interrupt the background stream and wait for it to be finalized.
This method is similar to
this mergeHaltL that.drainbut ensures thethat.drainstream continues to be evaluated regardless of howthisis evaluated or how the resulting stream is processed. This method is also similar toStream(this,that).join(2)but terminatesthatupon termination ofthis.scala> import cats.effect.IO, scala.concurrent.ExecutionContext.Implicits.global scala> val data: Stream[IO,Int] = Stream.range(1, 10).covary[IO] scala> Stream.eval(async.signalOf[IO,Int](0)).flatMap(s => Stream(s).concurrently(data.evalMap(s.set))).flatMap(_.discrete).takeWhile(_ < 9, true).compile.last.unsafeRunSync res0: Option[Int] = Some(9)
Example: -
def
covary[F2[x] >: F[x]]: Stream[F2, O]
Lifts this stream to the specified effect type.
Lifts this stream to the specified effect type.
scala> import cats.effect.IO scala> Stream(1, 2, 3).covary[IO] res0: Stream[IO,Int] = Stream(..)
Example: -
def
covaryAll[F2[x] >: F[x], O2 >: O]: Stream[F2, O2]
Lifts this stream to the specified effect and output types.
Lifts this stream to the specified effect and output types.
scala> import cats.effect.IO scala> Stream.empty.covaryAll[IO,Int] res0: Stream[IO,Int] = Stream(..)
Example: -
def
either[O2](that: Stream[F, O2])(implicit F: Effect[F], ec: ExecutionContext): Stream[F, Either[O, O2]]
Like
merge, but tags each output with the branch it came from.Like
merge, but tags each output with the branch it came from.scala> import scala.concurrent.duration._, scala.concurrent.ExecutionContext.Implicits.global, cats.effect.IO scala> val s = Scheduler[IO](1).flatMap { scheduler => | val s1 = scheduler.awakeEvery[IO](1000.millis).scan(0)((acc, i) => acc + 1) | s1.either(scheduler.sleep_[IO](500.millis) ++ s1).take(10) | } scala> s.take(10).compile.toVector.unsafeRunSync res0: Vector[Either[Int,Int]] = Vector(Left(0), Right(0), Left(1), Right(1), Left(2), Right(2), Left(3), Right(3), Left(4), Right(4))
Example: -
def
ensuring(cond: (InvariantOps[F, O]) ⇒ Boolean, msg: ⇒ Any): InvariantOps[F, O]
- Implicit
- This member is added by an implicit conversion from InvariantOps[F, O] to Ensuring[InvariantOps[F, O]] performed by method Ensuring in scala.Predef.
- Definition Classes
- Ensuring
-
def
ensuring(cond: (InvariantOps[F, O]) ⇒ Boolean): InvariantOps[F, O]
- Implicit
- This member is added by an implicit conversion from InvariantOps[F, O] to Ensuring[InvariantOps[F, O]] performed by method Ensuring in scala.Predef.
- Definition Classes
- Ensuring
-
def
ensuring(cond: Boolean, msg: ⇒ Any): InvariantOps[F, O]
- Implicit
- This member is added by an implicit conversion from InvariantOps[F, O] to Ensuring[InvariantOps[F, O]] performed by method Ensuring in scala.Predef.
- Definition Classes
- Ensuring
-
def
ensuring(cond: Boolean): InvariantOps[F, O]
- Implicit
- This member is added by an implicit conversion from InvariantOps[F, O] to Ensuring[InvariantOps[F, O]] performed by method Ensuring in scala.Predef.
- Definition Classes
- Ensuring
-
def
evalMap[O2](f: (O) ⇒ F[O2]): Stream[F, O2]
Alias for
flatMap(o => Stream.eval(f(o))).Alias for
flatMap(o => Stream.eval(f(o))).scala> import cats.effect.IO scala> Stream(1,2,3,4).evalMap(i => IO(println(i))).compile.drain.unsafeRunSync res0: Unit = ()
Example: -
def
evalScan[O2](z: O2)(f: (O2, O) ⇒ F[O2]): Stream[F, O2]
Like
Stream#scan, but accepts a function returning anF[_].Like
Stream#scan, but accepts a function returning anF[_].scala> import cats.effect.IO scala> Stream(1,2,3,4).evalScan(0)((acc,i) => IO(acc + i)).compile.toVector.unsafeRunSync res0: Vector[Int] = Vector(0, 1, 3, 6, 10)
Example: -
def
flatMap[O2](f: (O) ⇒ Stream[F, O2]): Stream[F, O2]
Creates a stream whose elements are generated by applying
fto each output of the source stream and concatenated all of the results.Creates a stream whose elements are generated by applying
fto each output of the source stream and concatenated all of the results.scala> Stream(1, 2, 3).flatMap { i => Stream.segment(Segment.seq(List.fill(i)(i))) }.toList res0: List[Int] = List(1, 2, 2, 3, 3, 3)
Example: -
def
foldMonoid(implicit O: Monoid[O]): Stream[F, O]
Folds this stream with the monoid for
O.Folds this stream with the monoid for
O.scala> import cats.implicits._ scala> Stream(1, 2, 3, 4, 5).foldMonoid.toList res0: List[Int] = List(15)
Example: -
def
formatted(fmtstr: String): String
- Implicit
- This member is added by an implicit conversion from InvariantOps[F, O] to StringFormat[InvariantOps[F, O]] performed by method StringFormat in scala.Predef.
- Definition Classes
- StringFormat
- Annotations
- @inline()
-
def
getClass(): Class[_ <: AnyVal]
- Definition Classes
- AnyVal → Any
-
def
handleErrorWith[O2 >: O](h: (Throwable) ⇒ Stream[F, O2]): Stream[F, O2]
If
thisterminates withStream.raiseError(e), invokeh(e).If
thisterminates withStream.raiseError(e), invokeh(e).scala> Stream(1, 2, 3).append(Stream.raiseError(new RuntimeException)).handleErrorWith(t => Stream(0)).toList res0: List[Int] = List(1, 2, 3, 0)
Example: -
def
interleave(that: Stream[F, O]): Stream[F, O]
Determinsitically interleaves elements, starting on the left, terminating when the end of either branch is reached naturally.
Determinsitically interleaves elements, starting on the left, terminating when the end of either branch is reached naturally.
scala> Stream(1, 2, 3).interleave(Stream(4, 5, 6, 7)).toList res0: List[Int] = List(1, 4, 2, 5, 3, 6)
Example: -
def
interleaveAll(that: Stream[F, O]): Stream[F, O]
Determinsitically interleaves elements, starting on the left, terminating when the ends of both branches are reached naturally.
Determinsitically interleaves elements, starting on the left, terminating when the ends of both branches are reached naturally.
scala> Stream(1, 2, 3).interleaveAll(Stream(4, 5, 6, 7)).toList res0: List[Int] = List(1, 4, 2, 5, 3, 6, 7)
Example: -
def
interruptScope(implicit F: Effect[F], ec: ExecutionContext): Stream[F, O]
Creates a scope that may be interrupted by calling scope#interrupt.
-
def
interruptWhen(haltOnSignal: F[Either[Throwable, Unit]])(implicit F: Effect[F], ec: ExecutionContext): Stream[F, O]
Interrupts the stream, when
haltOnSignalfinishes its evaluation. -
def
interruptWhen(haltWhenTrue: Signal[F, Boolean])(implicit F: Effect[F], ec: ExecutionContext): Stream[F, O]
Alias for
interruptWhen(haltWhenTrue.discrete). -
def
interruptWhen(haltWhenTrue: Stream[F, Boolean])(implicit F: Effect[F], ec: ExecutionContext): Stream[F, O]
Let through the
s2branch as long as thes1branch isfalse, listening asynchronously for the left branch to becometrue.Let through the
s2branch as long as thes1branch isfalse, listening asynchronously for the left branch to becometrue. This halts as soon as either branch halts.Consider using the overload that takes a
Signal.Caution: interruption is checked as elements are pulled from the returned stream. As a result, streams which stop pulling from the returned stream end up uninterrubtible. For example,
s.interruptWhen(s2).flatMap(_ => infiniteStream)will not be interrupted whens2is true becauses1.interruptWhen(s2)is never pulled for another element after the first element has been emitted. To fix, considers.flatMap(_ => infiniteStream).interruptWhen(s2). -
final
def
isInstanceOf[T0]: Boolean
- Definition Classes
- Any
-
def
join[O2](maxOpen: Int)(implicit ev: <:<[O, Stream[F, O2]], F: Effect[F], ec: ExecutionContext): Stream[F, O2]
Nondeterministically merges a stream of streams (
outer) in to a single stream, opening at mostmaxOpenstreams at any point in time.Nondeterministically merges a stream of streams (
outer) in to a single stream, opening at mostmaxOpenstreams at any point in time.The outer stream is evaluated and each resulting inner stream is run concurrently, up to
maxOpenstream. Once this limit is reached, evaluation of the outer stream is paused until one or more inner streams finish evaluating.When the outer stream stops gracefully, all inner streams continue to run, resulting in a stream that will stop when all inner streams finish their evaluation.
When the outer stream fails, evaluation of all inner streams is interrupted and the resulting stream will fail with same failure.
When any of the inner streams fail, then the outer stream and all other inner streams are interrupted, resulting in stream that fails with the error of the stream that caused initial failure.
Finalizers on each inner stream are run at the end of the inner stream, concurrently with other stream computations.
Finalizers on the outer stream are run after all inner streams have been pulled from the outer stream but not before all inner streams terminate -- hence finalizers on the outer stream will run AFTER the LAST finalizer on the very last inner stream.
Finalizers on the returned stream are run after the outer stream has finished and all open inner streams have finished.
- maxOpen
Maximum number of open inner streams at any time. Must be > 0.
-
def
joinUnbounded[O2](implicit ev: <:<[O, Stream[F, O2]], F: Effect[F], ec: ExecutionContext): Stream[F, O2]
Like join but races all inner streams simultaneously.
-
def
merge[O2 >: O](that: Stream[F, O2])(implicit F: Effect[F], ec: ExecutionContext): Stream[F, O2]
Interleaves the two inputs nondeterministically.
Interleaves the two inputs nondeterministically. The output stream halts after BOTH
s1ands2terminate normally, or in the event of an uncaught failure on eithers1ors2. Has the property thatmerge(Stream.empty, s) == sandmerge(raiseError(e), s)will eventually terminate withraiseError(e), possibly after emitting some elements ofsfirst.The implementation always tries to pull one chunk from each side before waiting for it to be consumed by resulting stream. As such, there may be up to two chunks (one from each stream) waiting to be processed while the resulting stream is processing elements.
Also note that if either side produces empty chunk, the processing on that side continues, w/o downstream requiring to consume result.
If either side does not emit anything (i.e. as result of drain) that side will continue to run even when the resulting stream did not ask for more data.
Note that even when
s1.merge(s2.drain) == s1.concurrently(s2), theconcurrentlyalternative is more efficient.scala> import scala.concurrent.duration._, scala.concurrent.ExecutionContext.Implicits.global, cats.effect.IO scala> val s = Scheduler[IO](1).flatMap { scheduler => | val s1 = scheduler.awakeEvery[IO](500.millis).scan(0)((acc, i) => acc + 1) | s1.merge(scheduler.sleep_[IO](250.millis) ++ s1) | } scala> s.take(6).compile.toVector.unsafeRunSync res0: Vector[Int] = Vector(0, 0, 1, 1, 2, 2)
Example: -
def
mergeHaltBoth[O2 >: O](that: Stream[F, O2])(implicit F: Effect[F], ec: ExecutionContext): Stream[F, O2]
Like
merge, but halts as soon as _either_ branch halts. -
def
mergeHaltL[O2 >: O](that: Stream[F, O2])(implicit F: Effect[F], ec: ExecutionContext): Stream[F, O2]
Like
merge, but halts as soon as thes1branch halts. -
def
mergeHaltR[O2 >: O](that: Stream[F, O2])(implicit F: Effect[F], ec: ExecutionContext): Stream[F, O2]
Like
merge, but halts as soon as thes2branch halts. -
def
observe(sink: Sink[F, O])(implicit F: Effect[F], ec: ExecutionContext): Stream[F, O]
Synchronously sends values through
sink.Synchronously sends values through
sink.If
sinkfails, then resulting stream will fail. If sinkhaltsthe evaluation will halt too.Note that observe will only output full segments of
Othat are known to be successfully processed bysink. So if Sink terminates/fail in midle of segment processing, the segment will not be available in resulting stream.scala> import scala.concurrent.ExecutionContext.Implicits.global, cats.effect.IO, cats.implicits._ scala> Stream(1, 2, 3).covary[IO].observe(Sink.showLinesStdOut).map(_ + 1).compile.toVector.unsafeRunSync res0: Vector[Int] = Vector(2, 3, 4)
Example: -
def
observe1(f: (O) ⇒ F[Unit])(implicit F: Functor[F]): Stream[F, O]
Like
observebut observes with a functionO => F[Unit]instead of a sink.Like
observebut observes with a functionO => F[Unit]instead of a sink. Alias forevalMap(o => f(o).as(o)). -
def
observeAsync(maxQueued: Int)(sink: Sink[F, O])(implicit F: Effect[F], ec: ExecutionContext): Stream[F, O]
Send chunks through
sink, allowing up tomaxQueuedpending _segments_ before blockings. -
def
onComplete[O2 >: O](s2: ⇒ Stream[F, O2]): Stream[F, O2]
Run
s2afterthis, regardless of errors duringthis, then reraise any errors encountered duringthis.Run
s2afterthis, regardless of errors duringthis, then reraise any errors encountered duringthis.Note: this should *not* be used for resource cleanup! Use
bracketoronFinalizeinstead.scala> Stream(1, 2, 3).onComplete(Stream(4, 5)).toList res0: List[Int] = List(1, 2, 3, 4, 5)
Example: -
def
onFinalize(f: F[Unit])(implicit F: Applicative[F]): Stream[F, O]
Run the supplied effectful action at the end of this stream, regardless of how the stream terminates.
-
def
pauseWhen(pauseWhenTrue: Signal[F, Boolean])(implicit F: Effect[F], ec: ExecutionContext): Stream[F, O]
Alias for
pauseWhen(pauseWhenTrue.discrete). -
def
pauseWhen(pauseWhenTrue: Stream[F, Boolean])(implicit F: Effect[F], ec: ExecutionContext): Stream[F, O]
Like
interruptbut resumes the stream when left branch goes to true. -
def
prefetch(implicit ec: ExecutionContext, F: Effect[F]): Stream[F, O]
Alias for
prefetchN(1). -
def
prefetchN(n: Int)(implicit ec: ExecutionContext, F: Effect[F]): Stream[F, O]
Behaves like
identity, but starts fetches up tonsegments in parallel with downstream consumption, enabling processing on either side of theprefetchNto run in parallel. -
def
pull: ToPull[F, O]
Gets a projection of this stream that allows converting it to a
Pullin a number of ways. -
def
reduceSemigroup(implicit S: Semigroup[O]): Stream[F, O]
Reduces this stream with the Semigroup for
O.Reduces this stream with the Semigroup for
O.scala> import cats.implicits._ scala> Stream("The", "quick", "brown", "fox").intersperse(" ").reduceSemigroup.toList res0: List[String] = List(The quick brown fox)
Example: -
def
repartition(f: (O) ⇒ Chunk[O])(implicit S: Semigroup[O]): Stream[F, O]
Repartitions the input with the function
f.Repartitions the input with the function
f. On each stepfis applied to the input and all elements but the last of the resulting sequence are emitted. The last element is then appended to the next input using the SemigroupS.scala> import cats.implicits._ scala> Stream("Hel", "l", "o Wor", "ld").repartition(s => Chunk.array(s.split(" "))).toList res0: List[String] = List(Hello, World)
Example: -
def
repeatPull[O2](using: (ToPull[F, O]) ⇒ Pull[F, O2, Option[Stream[F, O]]]): Stream[F, O2]
Repeatedly invokes
using, running the resultantPulleach time, halting when a pull returnsNoneinstead ofSome(nextStream). -
def
scanSegments[S, O2](init: S)(f: (S, Segment[O, Unit]) ⇒ Segment[O2, S]): Stream[F, O2]
Like
scanbutfis applied to each segment of the source stream.Like
scanbutfis applied to each segment of the source stream. The resulting segment is emitted and the result of the segment is used in the next invocation off.Many stateful pipes can be implemented efficiently (i.e., supporting fusion) with this method.
-
def
scanSegmentsOpt[S, O2](init: S)(f: (S) ⇒ Option[(Segment[O, Unit]) ⇒ Segment[O2, S]]): Stream[F, O2]
More general version of
scanSegmentswhere the current state (i.e.,S) can be inspected to determine if another segment should be pulled or if the stream should terminate.More general version of
scanSegmentswhere the current state (i.e.,S) can be inspected to determine if another segment should be pulled or if the stream should terminate. Termination is signaled by returningNonefromf. Otherwise, a function which consumes the next segment is returned wrapped inSome.scala> def take[F[_],O](s: Stream[F,O], n: Long): Stream[F,O] = | s.scanSegmentsOpt(n) { n => if (n <= 0) None else Some(_.take(n).mapResult(_.fold(_._2, _ => 0))) } scala> take(Stream.range(0,100), 5).toList res0: List[Int] = List(0, 1, 2, 3, 4)
Example: -
def
through[O2](f: Pipe[F, O, O2]): Stream[F, O2]
Transforms this stream using the given
Pipe.Transforms this stream using the given
Pipe.scala> Stream("Hello", "world").through(text.utf8Encode).toVector.toArray res0: Array[Byte] = Array(72, 101, 108, 108, 111, 119, 111, 114, 108, 100)
Example: -
def
through2[O2, O3](s2: Stream[F, O2])(f: Pipe2[F, O, O2, O3]): Stream[F, O3]
Transforms this stream and
s2using the givenPipe2. -
def
through2Pure[O2, O3](s2: Stream[F, O2])(f: Pipe2[Pure, O, O2, O3]): Stream[F, O3]
Transforms this stream and
s2using the given purePipe2.Transforms this stream and
s2using the given purePipe2.Sometimes this has better type inference than
through2(e.g., whenFisNothing). -
def
throughPure[O2](f: Pipe[Pure, O, O2]): Stream[F, O2]
Transforms this stream using the given pure
Pipe.Transforms this stream using the given pure
Pipe.Sometimes this has better type inference than
through(e.g., whenFisNothing). -
def
to(f: Sink[F, O]): Stream[F, Unit]
Applies the given sink to this stream.
Applies the given sink to this stream.
scala> import cats.effect.IO, cats.implicits._ scala> Stream(1,2,3).covary[IO].to(Sink.showLinesStdOut).compile.drain.unsafeRunSync res0: Unit = ()
Example: -
def
toString(): String
- Definition Classes
- Any
-
def
translate[G[_]](u: ~>[F, G]): Stream[G, O]
Translates effect type from
FtoGusing the suppliedFunctionK. -
def
zip[O2](that: Stream[F, O2]): Stream[F, (O, O2)]
Determinsitically zips elements, terminating when the end of either branch is reached naturally.
Determinsitically zips elements, terminating when the end of either branch is reached naturally.
scala> Stream(1, 2, 3).zip(Stream(4, 5, 6, 7)).toList res0: List[(Int,Int)] = List((1,4), (2,5), (3,6))
Example: -
def
zipAll[O2](that: Stream[F, O2])(pad1: O, pad2: O2): Stream[F, (O, O2)]
Determinsitically zips elements, terminating when the ends of both branches are reached naturally, padding the left branch with
pad1and padding the right branch withpad2as necessary.Determinsitically zips elements, terminating when the ends of both branches are reached naturally, padding the left branch with
pad1and padding the right branch withpad2as necessary.scala> Stream(1,2,3).zipAll(Stream(4,5,6,7))(0,0).toList res0: List[(Int,Int)] = List((1,4), (2,5), (3,6), (0,7))
Example: -
def
zipAllWith[O2, O3](that: Stream[F, O2])(pad1: O, pad2: O2)(f: (O, O2) ⇒ O3): Stream[F, O3]
Determinsitically zips elements with the specified function, terminating when the ends of both branches are reached naturally, padding the left branch with
pad1and padding the right branch withpad2as necessary.Determinsitically zips elements with the specified function, terminating when the ends of both branches are reached naturally, padding the left branch with
pad1and padding the right branch withpad2as necessary.scala> Stream(1,2,3).zipAllWith(Stream(4,5,6,7))(0, 0)(_ + _).toList res0: List[Int] = List(5, 7, 9, 7)
Example: -
def
zipWith[O2, O3](that: Stream[F, O2])(f: (O, O2) ⇒ O3): Stream[F, O3]
Determinsitically zips elements using the specified function, terminating when the end of either branch is reached naturally.
Determinsitically zips elements using the specified function, terminating when the end of either branch is reached naturally.
scala> Stream(1, 2, 3).zipWith(Stream(4, 5, 6, 7))(_ + _).toList res0: List[Int] = List(5, 7, 9)
Example: -
def
→[B](y: B): (InvariantOps[F, O], B)
- Implicit
- This member is added by an implicit conversion from InvariantOps[F, O] to ArrowAssoc[InvariantOps[F, O]] performed by method ArrowAssoc in scala.Predef.
- Definition Classes
- ArrowAssoc
Deprecated Value Members
-
def
run(implicit F: Sync[F]): F[Unit]
Deprecated alias for
compile.drain.Deprecated alias for
compile.drain.- Annotations
- @deprecated
- Deprecated
(Since version 0.10.0) Use compile.drain instead
-
def
runFold[B](init: B)(f: (B, O) ⇒ B)(implicit F: Sync[F]): F[B]
Deprecated alias for
compile.fold.Deprecated alias for
compile.fold.- Annotations
- @deprecated
- Deprecated
(Since version 0.10.0) Use compile.fold instead
-
def
runLast(implicit F: Sync[F]): F[Option[O]]
Deprecated alias for
compile.last.Deprecated alias for
compile.last.- Annotations
- @deprecated
- Deprecated
(Since version 0.10.0) Use compile.last instead
-
def
runLog(implicit F: Sync[F]): F[Vector[O]]
Deprecated alias for
compile.toVector.Deprecated alias for
compile.toVector.- Annotations
- @deprecated
- Deprecated
(Since version 0.10.0) Use compile.toVector instead