module Data.AIG.Trace where
import Prelude hiding (not, and, or)
import Data.IORef
import System.IO
import Control.Exception
import System.IO.Unsafe
import Data.AIG.Interface
class Traceable l where
compareLit :: l s -> l s -> Ordering
showLit :: l s -> String
newtype TraceLit l s = TraceLit { unTraceLit :: l s }
data TraceGraph (l :: * -> * ) g s
= TraceGraph
{ tGraph :: g s
, tActive :: IORef (Maybe Handle)
}
proxy :: Traceable l => Proxy l g -> Proxy (TraceLit l) (TraceGraph l g)
proxy (Proxy _) = Proxy (\x -> x)
activateTracing :: TraceGraph l g s -> FilePath -> IO ()
activateTracing g fp = do
maybe (return ()) hClose =<< readIORef (tActive g)
h <- openFile fp WriteMode
writeIORef (tActive g) (Just h)
deactiveTracing :: TraceGraph l g s -> IO ()
deactiveTracing g = do
maybe (return ()) hClose =<< readIORef (tActive g)
writeIORef (tActive g) Nothing
withTracing :: TraceGraph l g s -> FilePath -> IO a -> IO a
withTracing g fp m =
bracket (do old <- readIORef (tActive g)
h <- openFile fp WriteMode
writeIORef (tActive g) (Just h)
return (h,old))
(\(h,old) -> hClose h >> writeIORef (tActive g) old)
(\_ -> m)
instance IsLit l => IsLit (TraceLit l) where
not (TraceLit l) = TraceLit (not l)
(TraceLit x) === (TraceLit y) = x === y
instance Traceable l => Eq (TraceLit l s) where
(TraceLit x) == (TraceLit y) = compareLit x y == EQ
instance Traceable l => Ord (TraceLit l s) where
compare (TraceLit x) (TraceLit y) = compareLit x y
class TraceOp l g a where
traceOp :: (Traceable l, IsAIG l g) => TraceGraph l g s -> String -> a -> a
class TraceOutput l g x where
traceOutput :: (Traceable l, IsAIG l g) => TraceGraph l g s -> x -> String
instance TraceOp l g b => TraceOp l g (Int -> b) where
traceOp g msg f i = traceOp g (msg++" "++show i) (f i)
instance TraceOp l g b => TraceOp l g (TraceLit l s -> b) where
traceOp g msg f i = traceOp g (msg++" "++showLit (unTraceLit i)) (f i)
instance TraceOp l g b => TraceOp l g ([TraceLit l s] -> b) where
traceOp g msg f is = traceOp g (msg++" ["++unwords (map (showLit . unTraceLit) is)++"]") (f is)
instance TraceOp l g b => TraceOp l g (FilePath -> b) where
traceOp g msg f i = traceOp g (msg++" "++i) (f i)
instance TraceOutput l g x => TraceOp l g (IO x) where
traceOp g msg f = do
mh <- readIORef (tActive g)
case mh of
Nothing -> f
Just h -> do
hPutStr h msg
hFlush h
x <- f
hPutStrLn h $ " result "++traceOutput g x
hFlush h
return x
instance TraceOutput l g (TraceLit l s) where
traceOutput _g (TraceLit l) = showLit l
instance TraceOutput l g Int where
traceOutput _g i = show i
instance TraceOutput l g () where
traceOutput _g () = "()"
instance TraceOutput l g SatResult where
traceOutput _g r = show r
instance TraceOutput l g VerifyResult where
traceOutput _g r = show r
withNewGraphTracing :: (IsAIG l g, Traceable l)
=> Proxy l g
-> FilePath
-> (forall s. TraceGraph l g s -> IO a)
-> IO a
withNewGraphTracing _ fp f = withNewGraph undefined $ \g -> withTracing g fp (f g)
instance (IsAIG l g, Traceable l) => IsAIG (TraceLit l) (TraceGraph l g) where
withNewGraph _ f = withNewGraph undefined $ \g -> do
r <- newIORef Nothing
f (TraceGraph g r)
aigerNetwork _ fp = do
(Network g outs) <- aigerNetwork undefined fp
r <- newIORef Nothing
return (Network (TraceGraph g r) (map TraceLit outs))
trueLit g = TraceLit $ trueLit (tGraph g)
falseLit g = TraceLit $ falseLit (tGraph g)
newInput g = traceOp g "NewInput" $ fmap TraceLit $ newInput (tGraph g)
and g = traceOp g "and" $ \(TraceLit x) (TraceLit y) -> fmap TraceLit $ and (tGraph g) x y
or g = traceOp g "or" $ \(TraceLit x) (TraceLit y) -> fmap TraceLit $ or (tGraph g) x y
implies g = traceOp g "implies" $ \(TraceLit x) (TraceLit y) -> fmap TraceLit $ implies (tGraph g) x y
eq g = traceOp g "eq" $ \(TraceLit x) (TraceLit y) -> fmap TraceLit $ eq (tGraph g) x y
xor g = traceOp g "xor" $ \(TraceLit x) (TraceLit y) -> fmap TraceLit $ xor (tGraph g) x y
mux g = traceOp g "mux" $ \(TraceLit x) (TraceLit y) (TraceLit z) -> fmap TraceLit $ mux (tGraph g) x y z
inputCount g = traceOp g "inputCount" $ inputCount (tGraph g)
getInput g = traceOp g "getInput" $ \i -> fmap TraceLit $ getInput (tGraph g) i
writeAiger fp0 (Network g outs0) =
(traceOp g "writeAiger" $ \fp outs -> writeAiger fp (Network (tGraph g) (map unTraceLit outs))) fp0 outs0
checkSat g = traceOp g "checkSat" $ \(TraceLit x) -> checkSat (tGraph g) x
cec (Network g1 outs1') (Network g2 outs2') =
(traceOp g1 "cec" $ \outs1 outs2 ->
cec (Network (tGraph g1) (map unTraceLit outs1))
(Network (tGraph g2) (map unTraceLit outs2)))
outs1' outs2'
evaluator g ins =
do mh <- readIORef (tActive g)
maybe (return ()) (\h -> (hPutStrLn h $ unwords ["building evaluator",show ins]) >> hFlush h) mh
let traceIO l x h = (hPutStrLn h $ unwords ["evaluator call",show ins,showLit l,show x]) >> hFlush h
let trace l x =
case mh of
Nothing -> x
Just h -> seq (unsafePerformIO (traceIO l x h)) x
ev <- evaluator (tGraph g) ins
return (\(TraceLit l) -> trace l $ ev l)
abstractEvaluateAIG g f =
do mh <- readIORef (tActive g)
maybe (return ()) (\h -> (hPutStrLn h $ unwords ["building abstract evaluator"]) >> hFlush h) mh
let traceIO l h = (hPutStrLn h $ unwords ["abstract evaluator call",showLit l]) >> hFlush h
let trace l x =
case mh of
Nothing -> return x
Just h -> traceIO l h >> return x
ev <- abstractEvaluateAIG (tGraph g) f
return (\(TraceLit l) -> trace l =<< ev l)