quic-0.1.9: test/IOSpec.hs
{-# LANGUAGE OverloadedStrings #-}
module IOSpec where
import Control.Monad
import qualified Data.ByteString as BS
import Test.Hspec
import UnliftIO.Concurrent
import qualified UnliftIO.Exception as E
import Network.QUIC
import qualified Network.QUIC.Client as C
import Network.QUIC.Internal
import Network.QUIC.Server
import Config
spec :: Spec
spec = do
sc0 <- runIO makeTestServerConfigR
var <- runIO newEmptyMVar
let sc =
sc0
{ scHooks =
(scHooks sc0)
{ onServerReady = putMVar var ()
}
}
let cc = testClientConfigR
let waitS = takeMVar var :: IO ()
describe "send & recv" $ do
it "can exchange data on random dropping" $ do
withPipe (Randomly 20) $ testSendRecv cc sc waitS 1000
it "can exchange data on server 0" $ do
withPipe (DropServerPacket [0]) $ testSendRecv cc sc waitS 20
it "can exchange data on server 1" $ do
withPipe (DropServerPacket [1]) $ testSendRecv cc sc waitS 20
it "can exchange data on server 2" $ do
withPipe (DropServerPacket [2]) $ testSendRecv cc sc waitS 20
it "can exchange data on server 3" $ do
withPipe (DropServerPacket [3]) $ testSendRecv cc sc waitS 20
it "can exchange data on server 4" $ do
withPipe (DropServerPacket [4]) $ testSendRecv cc sc waitS 20
it "can exchange data on server 5" $ do
withPipe (DropServerPacket [5]) $ testSendRecv cc sc waitS 20
it "can exchange data on server 6" $ do
withPipe (DropServerPacket [6]) $ testSendRecv cc sc waitS 20
it "can exchange data on server 7" $ do
withPipe (DropServerPacket [7]) $ testSendRecv cc sc waitS 20
it "can exchange data on server 8" $ do
withPipe (DropServerPacket [8]) $ testSendRecv cc sc waitS 20
it "can exchange data on server 9" $ do
withPipe (DropServerPacket [9]) $ testSendRecv cc sc waitS 20
it "can exchange data on server 10" $ do
withPipe (DropServerPacket [10]) $ testSendRecv cc sc waitS 20
it "can exchange data on server 11" $ do
withPipe (DropServerPacket [11]) $ testSendRecv cc sc waitS 20
it "can exchange data on client 0" $ do
withPipe (DropClientPacket [0]) $ testSendRecv cc sc waitS 20
it "can exchange data on client 1" $ do
withPipe (DropClientPacket [1]) $ testSendRecv cc sc waitS 20
it "can exchange data on client 2" $ do
withPipe (DropClientPacket [2]) $ testSendRecv cc sc waitS 20
it "can exchange data on client 3" $ do
withPipe (DropClientPacket [3]) $ testSendRecv cc sc waitS 20
it "can exchange data on client 4" $ do
withPipe (DropClientPacket [4]) $ testSendRecv cc sc waitS 20
it "can exchange data on client 5" $ do
withPipe (DropClientPacket [5]) $ testSendRecv cc sc waitS 20
it "can exchange data on client 6" $ do
withPipe (DropClientPacket [6]) $ testSendRecv cc sc waitS 20
it "can exchange data on client 7" $ do
withPipe (DropClientPacket [7]) $ testSendRecv cc sc waitS 20
it "can exchange data on client 8" $ do
withPipe (DropClientPacket [8]) $ testSendRecv cc sc waitS 20
it "can exchange data on client 9" $ do
withPipe (DropClientPacket [9]) $ testSendRecv cc sc waitS 20
it "can exchange data on client 10" $ do
withPipe (DropClientPacket [10]) $ testSendRecv cc sc waitS 20
it "can exchange data on client 11" $ do
withPipe (DropClientPacket [11]) $ testSendRecv cc sc waitS 20
describe "recvStream" $ do
-- https://github.com/kazu-yamamoto/quic/pull/54
it "don't block if client stop sending first" $ do
withPipe (Randomly 20) $ testRecvStreamClientStopFirst cc sc waitS
it "don't block if server stop sending first" $ do
withPipe (Randomly 20) $ testRecvStreamServerStopFirst cc sc waitS
consumeBytes :: Stream -> Int -> IO ()
consumeBytes _ 0 = return ()
consumeBytes strm left = do
bs <- recvStream strm 1024
when (BS.null bs) $ expectationFailure "no enough bytes received"
let len = BS.length bs
when (len > left) $ expectationFailure "extra bytes received"
consumeBytes strm (left - len)
assertEndOfStream :: Stream -> IO ()
assertEndOfStream strm = recvStream strm 1024 `shouldReturn` ""
testRecvStreamClientStopFirst
:: C.ClientConfig -> ServerConfig -> IO () -> IO ()
testRecvStreamClientStopFirst cc sc waitS = do
mvar <- newEmptyMVar
E.bracket (forkIO $ server mvar) killThread $ \_ -> client mvar
where
aerr = ApplicationProtocolError 0
client mvar = do
waitS
C.run cc $ \conn -> do
strm <- stream conn
sendStream strm (BS.replicate 10000 0)
takeMVar mvar `shouldReturn` ()
stopStream strm aerr
resetStream strm aerr
takeMVar mvar `shouldReturn` ()
server mvar = run sc $ \conn -> do
strm <- acceptStream conn
consumeBytes strm 10000 `shouldReturn` ()
-- notify client to stop stream after all bytes are received.
putMVar mvar ()
-- verify that recvStream does not block
assertEndOfStream strm
putMVar mvar ()
testRecvStreamServerStopFirst
:: C.ClientConfig -> ServerConfig -> IO () -> IO ()
testRecvStreamServerStopFirst cc sc waitS = do
mvar <- newEmptyMVar
E.bracket (forkIO $ server mvar) killThread $ \_ -> client mvar
where
aerr = ApplicationProtocolError 0
client mvar = do
waitS
C.run cc $ \conn -> do
strm <- stream conn
sendStream strm (BS.replicate 10000 0)
takeMVar mvar `shouldReturn` ()
server mvar = run sc $ \conn -> do
strm <- acceptStream conn
consumeBytes strm 10000 `shouldReturn` ()
-- ask client to stop sending.
stopStream strm aerr
-- verify that recvStream does not block
assertEndOfStream strm
resetStream strm aerr
putMVar mvar ()
testSendRecv :: C.ClientConfig -> ServerConfig -> IO () -> Int -> IO ()
testSendRecv cc sc waitS times = do
mvar <- newEmptyMVar
E.bracket (forkIO $ server mvar) killThread $ \_ -> client mvar
where
client mvar = do
waitS
C.run cc $ \conn -> do
strm <- stream conn
let bs = BS.replicate 10000 0
replicateM_ times $ sendStream strm bs
shutdownStream strm
takeMVar mvar `shouldReturn` ()
server mvar = run sc $ \conn -> do
strm <- acceptStream conn
consumeBytes strm (10000 * times)
assertEndOfStream strm
putMVar mvar ()