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conduit 1.0.0.1 → 1.0.0.2

raw patch · 4 files changed

+7/−11 lines, 4 filesPVP ok

version bump matches the API change (PVP)

API changes (from Hackage documentation)

Files

Data/Conduit/Internal.hs view
@@ -570,15 +570,7 @@ -- -- Notice that the /leftover/ parameter for the @Pipe@s must be @Void@. This -- ensures that there is no accidental data loss of leftovers during fusion. If--- you have a @Pipe@ with leftovers, you must first call 'injectLeftovers'. For--- example:------ >>> import Data.Conduit.List--- >>> import Data.Conduit.Internal--- >>> :set -XNoMonomorphismRestriction--- >>> let pipe = peek >>= \x -> fold (Prelude.+) 0 >>= \y -> return (x, y)--- >>> runPipe $ sourceList [1..10] >+> injectLeftovers pipe--- (Just 1,55)+-- you have a @Pipe@ with leftovers, you must first call 'injectLeftovers'. -- -- Since 0.5.0 (>+>) :: Monad m => Pipe l a b r0 m r1 -> Pipe Void b c r1 m r2 -> Pipe l a c r0 m r2
Data/Conduit/Lazy.hs view
@@ -25,7 +25,7 @@   where     go (Done _) = return []     go (HaveOutput src _ x) = do-        xs <- go src+        xs <- liftBaseOp_ unsafeInterleaveIO $ go src         return $ x : xs     go (PipeM msrc) = liftBaseOp_ unsafeInterleaveIO $ do         a <- monadActive
conduit.cabal view
@@ -1,5 +1,5 @@ Name:                conduit-Version:             1.0.0.1+Version:             1.0.0.2 Synopsis:            Streaming data processing library. Description:     @conduit@ is a solution to the streaming data problem, allowing for production, transformation, and consumption of streams of data in constant memory. It is an alternative to lazy I\/O which guarantees deterministic resource handling, and fits in the same general solution space as @enumerator@/@iteratee@ and @pipes@. For a brief tutorial, please see the "Data.Conduit" module.
test/main.hs view
@@ -319,6 +319,10 @@             bss <- runResourceT $ CLazy.lazyConsume $ CB.sourceFile "test/main.hs"             bss `shouldBe` [] +        it' "works with pure sources" $ do+            nums <- CLazy.lazyConsume $ forever $ C.yield 1+            take 100 nums `shouldBe` replicate 100 (1 :: Int)+     describe "sequence" $ do         it "simple sink" $ do             let sumSink = do