406 lines
17 KiB
Haskell
406 lines
17 KiB
Haskell
{-
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Tock: a compiler for parallel languages
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Copyright (C) 2007 University of Kent
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This program is free software; you can redistribute it and/or modify it
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under the terms of the GNU General Public License as published by the
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Free Software Foundation, either version 2 of the License, or (at your
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option) any later version.
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This program is distributed in the hope that it will be useful, but
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WITHOUT ANY WARRANTY; without even the implied warranty of
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MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
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General Public License for more details.
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You should have received a copy of the GNU General Public License along
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with this program. If not, see <http://www.gnu.org/licenses/>.
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-}
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module FlowGraphTest (tests) where
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import Control.Monad.Identity
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import Control.Monad.State
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import Data.Generics
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import Data.Graph.Inductive
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import Data.List
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import qualified Data.Map as Map
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import Data.Maybe
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import Test.HUnit hiding (Node, State)
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import Test.QuickCheck
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import qualified AST as A
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import FlowGraph
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import Metadata
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import TestUtil
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import Utils
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makeMeta :: Int -> Meta
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makeMeta n = Meta (Just "FlowGraphTest") n 0
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-- To make typing the tests as short as possible (typing a function call means bracketing is needed, which is a pain):
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m0 = makeMeta 0
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m1 = makeMeta 1
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m2 = makeMeta 2
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m3 = makeMeta 3
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m4 = makeMeta 4
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m5 = makeMeta 5
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m6 = makeMeta 6
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m7 = makeMeta 7
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m8 = makeMeta 8
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m9 = makeMeta 9
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m10 = makeMeta 10
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m11 = makeMeta 11
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-- For meta tags that shouldn't be used in the graph:
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mU = makeMeta (-1)
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sub :: Meta -> Int -> Meta
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sub m n = m {metaColumn = n}
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sm0 = A.Skip m0
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sm1 = A.Skip m1
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sm2 = A.Skip m2
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sm3 = A.Skip m3
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sm4 = A.Skip m4
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sm5 = A.Skip m5
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sm6 = A.Skip m6
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sm7 = A.Skip m7
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sm8 = A.Skip m8
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sm9 = A.Skip m9
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sm10 = A.Skip m10
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showGraph :: (Graph g, Show a, Show b) => g a b -> String
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showGraph g = " Nodes: " ++ show (labNodes g) ++ " Edges: " ++ show (labEdges g)
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nextId :: Data t => t -> State (Map.Map Meta Int) Int
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nextId = nextId' 1
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nextId' :: Data t => Int -> t -> State (Map.Map Meta Int) Int
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nextId' inc t
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= do mp <- get
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case Map.lookup m mp of
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Just n -> do put $ Map.adjust ((+) inc) m mp
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return n
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Nothing -> do put $ Map.insert m inc mp
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return 0
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where m = findMeta t
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testGraph :: String -> [(Int, Meta)] -> [(Int, Int, EdgeLabel)] -> A.Process -> Test
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testGraph testName nodes edges proc
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= TestCase $
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case evalState (buildFlowGraph testOps (A.OnlyP emptyMeta proc)) Map.empty of
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Left err -> assertFailure (testName ++ " graph building failed: " ++ err)
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Right g -> checkGraphEquality (nodes, edges) g
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where
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-- Checks two graphs are equal by creating a node mapping from the expected graph to the real map (checkNodeEquality),
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-- then mapping the edges across (transformEdge) and checking everything is right (in checkGraphEquality)
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deNode :: Monad m => FNode m a -> (Meta, a)
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deNode (Node (x,y,_)) = (x,y)
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testOps :: GraphLabelFuncs (State (Map.Map Meta Int)) Int
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testOps = GLF nextId nextId nextId nextId (nextId' 100) (nextId' 100)
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checkGraphEquality :: (Graph g, Show b, Ord b, Monad m) => ([(Int, Meta)], [(Int, Int, b)]) -> g (FNode m Int) b -> Assertion
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checkGraphEquality (nodes, edges) g
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= do let (remainingNodes, nodeLookup, ass) = foldl checkNodeEquality (Map.fromList (map revPair nodes),Map.empty, return ()) (map (transformPair id deNode) $ labNodes g)
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ass
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assertBool (testName ++ " Test graph had nodes not found in the real graph: " ++ show remainingNodes ++ ", real graph: " ++ showGraph g) (Map.null remainingNodes)
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edges' <- mapM (transformEdge nodeLookup) edges
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assertEqual (testName ++ " Edge lists not equal") (sort $ edges') (sort $ labEdges g)
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checkNodeEquality :: (Map.Map Meta Int, Map.Map Int Int, Assertion) -> (Node, (Meta, Int)) -> (Map.Map Meta Int, Map.Map Int Int, Assertion)
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checkNodeEquality (metaToTestId, realToTestId, ass) (nodeId, (metaTag,metaSub))
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= case Map.lookup (sub metaTag metaSub) metaToTestId of
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Nothing -> (metaToTestId, realToTestId, ass >> assertFailure (testName ++ " Node with meta tag " ++ show (sub metaTag metaSub) ++ " not found in expected test data"))
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Just testId -> let realToTestId' = Map.insert testId nodeId realToTestId in
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let metaToTestId' = Map.delete (sub metaTag metaSub) metaToTestId in
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(metaToTestId', realToTestId', ass)
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transformEdge :: Show b => Map.Map Int Int -> (Int, Int, b) -> IO (Int, Int, b)
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transformEdge nodeMap e@(start, end, label)
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= case mergeMaybe (Map.lookup start nodeMap) (Map.lookup end nodeMap) of
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Nothing -> do assertFailure ("Could not map test edge to real edge: " ++ show e)
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return e
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Just (start', end') -> return (start', end', label)
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someSpec :: Meta -> A.Specification
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someSpec m = A.Specification m (simpleName $ show m) undefined
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testSeq :: Test
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testSeq = TestList
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[
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testSeq' 0 [(0,m1)] [] (A.Several m1 [])
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,testSeq' 1 [(0,m2)] [] (A.OnlyP m1 sm2)
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,testSeq' 2 [(0,m3)] [] (A.Several m1 [A.OnlyP m2 sm3])
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,testSeq' 3 [(0,m3),(1,m5)] [(0,1,ESeq)] (A.Several m1 [A.OnlyP m2 sm3,A.OnlyP m4 sm5])
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,testSeq' 4 [(0,m3),(1,m5),(2,m7)] [(0,1,ESeq),(1,2,ESeq)] (A.Several m1 [A.OnlyP m2 sm3,A.OnlyP m4 sm5,A.OnlyP m6 sm7])
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,testSeq' 5 [(0,m3),(1,m5)] [(0,1,ESeq)] (A.Several m1 [A.Several m1 [A.OnlyP m2 sm3],A.Several m1 [A.OnlyP m4 sm5]])
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,testSeq' 6 [(0,m3),(1,m5),(2,m7),(3,m9)] [(0,1,ESeq),(1,2,ESeq),(2,3,ESeq)]
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(A.Several m1 [A.Several m1 [A.OnlyP m2 sm3,A.OnlyP m4 sm5,A.OnlyP m6 sm7], A.OnlyP m8 sm9])
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,testSeq' 10 [(0,m1),(1,m4),(100,sub m1 100)] [(0,1,ESeq),(1,100,ESeq)] (A.Spec m1 (someSpec m2) $ A.OnlyP m3 sm4)
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,testSeq' 11
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[(1,m1),(3,m4),(5,m5),(7,m7),(9,m10),(101,sub m1 100),(105,sub m5 100),(107,sub m7 100)]
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[(1,3,ESeq),(3,101,ESeq),(101,5,ESeq),(5,7,ESeq),(7,9,ESeq),(9,107,ESeq),(107,105,ESeq)]
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(A.Several m11 [A.Spec m1 (someSpec m2) $ A.OnlyP m3 sm4,A.Spec m5 (someSpec m6) $ A.Spec m7 (someSpec m8) $ A.OnlyP m9 sm10])
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]
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where
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testSeq' :: Int -> [(Int, Meta)] -> [(Int, Int, EdgeLabel)] -> A.Structured -> Test
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testSeq' n a b s = testGraph ("testSeq " ++ show n) a b (A.Seq m0 s)
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testPar :: Test
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testPar = TestList
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[
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testPar' 0 [(0,m1)] [] (A.Several m1 [])
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,testPar' 1 [(0,m2)] [] (A.OnlyP m1 sm2)
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,testPar' 2 [(0,m3)] [] (A.Several m1 [A.OnlyP m2 sm3])
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,testPar' 3 [(0,m1), (1, m3), (2, m5), (3,sub m1 1)]
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[(0,1,EStartPar 0),(1,3,EEndPar 0), (0,2,EStartPar 0), (2,3,EEndPar 0)]
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(A.Several m1 [A.OnlyP m2 sm3,A.OnlyP m4 sm5])
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,testPar' 4 [(0,m1), (1,sub m1 1), (3,m3),(5,m5),(7,m7)]
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[(0,3,EStartPar 0),(3,1,EEndPar 0),(0,5,EStartPar 0),(5,1,EEndPar 0),(0,7,EStartPar 0),(7,1,EEndPar 0)]
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(A.Several m1 [A.OnlyP m2 sm3,A.OnlyP m4 sm5,A.OnlyP m6 sm7])
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,testPar' 5 [(0,m1), (1, m3), (2, m5), (3,sub m1 1)]
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[(0,1,EStartPar 0),(1,3,EEndPar 0), (0,2,EStartPar 0), (2,3,EEndPar 0)]
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(A.Several m1 [A.Several m1 [A.OnlyP m2 sm3],A.Several m1 [A.OnlyP m4 sm5]])
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,testPar' 6 [(0,m1), (1,sub m1 1),(3,m3),(5,m5),(7,m7),(9,m9),(10,m10),(11,sub m10 1)]
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[(10,3,EStartPar 0),(10,5,EStartPar 0),(10,7,EStartPar 0),(3,11,EEndPar 0),(5,11,EEndPar 0),(7,11,EEndPar 0)
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,(0,10,EStartPar 1),(11,1,EEndPar 1),(0,9,EStartPar 1),(9,1,EEndPar 1)]
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(A.Several m1 [A.Several m10 [A.OnlyP m2 sm3,A.OnlyP m4 sm5,A.OnlyP m6 sm7], A.OnlyP m8 sm9])
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,testPar' 10 [(0,m1), (1, m3), (2, m5), (3,sub m1 1), (6, m6),(106,sub m6 100)]
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[(0,6,EStartPar 0),(6,1,ESeq),(1,106,ESeq),(106,3,EEndPar 0), (0,2,EStartPar 0), (2,3,EEndPar 0)]
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(A.Several m1 [A.Spec m6 (someSpec m7) $ A.OnlyP m2 sm3,A.OnlyP m4 sm5])
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--TODO test nested pars
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]
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where
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testPar' :: Int -> [(Int, Meta)] -> [(Int, Int, EdgeLabel)] -> A.Structured -> Test
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testPar' n a b s = testGraph ("testPar " ++ show n) a b (A.Par m0 A.PlainPar s)
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testWhile :: Test
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testWhile = TestList
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[
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testGraph "testWhile 0" [(0,m0), (1,m1)] [(0,1,ESeq), (1,0,ESeq)] (A.While m0 (A.True m10) sm1)
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,testGraph "testWhile 1" [(2,m2), (3, m3), (5, m5)] [(2,3,ESeq), (3,2,ESeq), (2,5,ESeq)]
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(A.Seq m0 $ A.Several m1 [A.OnlyP m9 $ A.While m2 (A.True m10) sm3,A.OnlyP m4 sm5])
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,testGraph "testWhile 2" [(2,m2), (3, m3), (5, m5), (7, m7)] [(7,2,ESeq), (2,3,ESeq), (3,2,ESeq), (2,5,ESeq)]
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(A.Seq m0 $ A.Several m1 [A.OnlyP m6 sm7,A.OnlyP m9 $ A.While m2 (A.True m10) sm3,A.OnlyP m4 sm5])
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,testGraph "testWhile 3" [(2,m2), (3, m3), (5, m5), (7, m7), (9, m9)] [(7,2,ESeq), (2,3,ESeq), (3,9,ESeq), (9,2,ESeq), (2,5,ESeq)]
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(A.Seq m0 $ A.Several m1 [A.OnlyP m6 sm7,A.OnlyP mU $ A.While m2 (A.True mU) $ A.Seq mU $ A.Several mU [A.OnlyP mU sm3,A.OnlyP mU sm9],A.OnlyP m4 sm5])
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]
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testCase :: Test
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testCase = TestList
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[
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testGraph "testCase 0" [(0,m10),(1,m0),(2,m3)] [(0,2,ESeq),(2,1,ESeq)] (A.Case m0 (A.True m10) $ cases m1 [A.Else m2 sm3])
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,testGraph "testCase 1"
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[(0,m10),(1,m0),(2,m2),(3,m3)]
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[(0,2,ESeq),(2,3,ESeq),(3,1,ESeq)]
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(A.Case m0 (A.True m10) $ cases m1 [A.Option m2 [A.True mU] sm3])
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,testGraph "testCase 2"
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[(0,m10),(1,m0),(2,m2),(3,m3),(4,m4),(5,m5)]
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[(0,2,ESeq),(2,3,ESeq),(3,1,ESeq), (0,4,ESeq),(4,5,ESeq),(5,1,ESeq)]
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(A.Case m0 (A.True m10) $ cases m1 [A.Option m2 [A.True mU] sm3, A.Option m4 [A.True mU] sm5])
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--TODO test case statements that have specs
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]
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where
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cases :: Meta -> [A.Option] -> A.Structured
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cases m = (A.Several m) . (map (A.OnlyO mU))
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testIf :: Test
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testIf = TestList
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[
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testGraph "testIf 0" [(0,m0), (1,sub m0 1), (2,m2), (3,m3)] [(0,2,ESeq),(2,3,ESeq),(3,1,ESeq)]
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(A.If m0 $ ifs mU [(A.True m2, sm3)])
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,testGraph "testIf 1" [(0,m0), (1,sub m0 1), (2,m2), (3,m3), (4,m4), (5, m5)]
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[(0,2,ESeq),(2,3,ESeq),(3,1,ESeq), (2,4,ESeq),(4,5,ESeq),(5,1,ESeq)]
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(A.If m0 $ ifs mU [(A.True m2, sm3), (A.True m4, sm5)])
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,testGraph "testIf 2" [(0,m0), (1,sub m0 1), (2,m2), (3,m3), (4,m4), (5, m5), (6, m6), (7, m7)]
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[(0,2,ESeq),(2,3,ESeq),(3,1,ESeq), (2,4,ESeq),(4,5,ESeq),(5,1,ESeq), (4,6,ESeq),(6,7,ESeq),(7,1,ESeq)]
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(A.If m0 $ ifs mU [(A.True m2, sm3), (A.True m4, sm5), (A.True m6, sm7)])
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]
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where
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ifs :: Meta -> [(A.Expression, A.Process)] -> A.Structured
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ifs m = (A.Several m) . (map (\(e,p) -> A.OnlyC mU $ A.Choice (findMeta e) e p))
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--TODO test replicated seq/par
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--TODO test alts
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--TODO occam stuff:
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--TODO test input-case statements
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--TODO test replicated ifs
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-- The idea here is that each type we generate an interesting node,
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-- we want to generate its replaced version too. Then combine these as
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-- we go back up the tree to form a set of all possible trees (which is like the powerset of possible replacements, I think).
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-- We also want to ensure that the meta tags are unique (to label replacements), and I don't think
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-- QuickCheck easily supports that.
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-- So how to do this, given that QuickCheck expects something of type Gen a to come
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-- back out of Arbitrary? We could generate Gen [a], with the understanding that the head
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-- is the source, all the others are possible replacements. But then we need to label the replacements,
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-- which means we'd want Gen [([Meta],a)]
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-- However, in order to ensure we make unique meta tags, we have to add the StateT Int wrapper:
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type GenL a = StateT Int Gen [([Meta], a)]
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replaceMeta :: Meta -> Meta
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replaceMeta m = sub m 8
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genMeta :: Meta -> GenL Meta
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genMeta m = return [([],m),([m],replaceMeta m)]
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-- Helper functions for dealing with the AST:
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genElem1 :: (Meta -> b) -> Meta -> GenL b
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genElem1 f m = comb1 f (genMeta m) --return [([],f m),([m],f $ replaceMeta m)]
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genElem2 :: (Meta -> a0 -> b) -> Meta -> GenL a0 -> GenL b
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genElem2 f m = comb2 f (genMeta m)
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genElem3 :: (Meta -> a0 -> a1 -> b) -> Meta -> GenL a0 -> GenL a1 -> GenL b
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genElem3 f m = comb3 f (genMeta m)
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comb0 :: forall a. a -> GenL a
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comb0 x = return [([],x)]
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comb1 :: forall a0 b. (a0 -> b) -> GenL a0 -> GenL b
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comb1 func list0 = list0 >>* map process1
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where
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process1 :: ([Meta], a0) -> ([Meta],b)
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process1 = transformPair id func
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comb2 :: forall a0 a1 b. (a0 -> a1 -> b) -> GenL a0 -> GenL a1 -> GenL b
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comb2 func list0 list1 = (liftM2 (,)) list0 list1 >>* product2 >>* map (uncurry process2)
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where
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process2 :: ([Meta], a0) -> ([Meta], a1) -> ([Meta],b)
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process2 (keys0, val0) (keys1, val1) = (keys0++keys1, func val0 val1)
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comb3 :: forall a0 a1 a2 b. (a0 -> a1 -> a2 -> b) -> GenL a0 -> GenL a1 -> GenL a2 -> GenL b
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comb3 func list0 list1 list2 = (liftM3 (,,)) list0 list1 list2 >>* product3 >>* map (uncurry3 process3)
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where
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process3 :: ([Meta], a0) -> ([Meta], a1) -> ([Meta],a2) -> ([Meta],b)
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process3 (keys0, val0) (keys1, val1) (keys2, val2) = (keys0++keys1++keys2, func val0 val1 val2)
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-- | Wrapper for Quickcheck.
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-- In order to stop conflict with Quickcheck's in-built rules for things such as pairs
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-- (which do not allow overlapping instances), we have to wrap such types ourself.
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data QC a = QC a deriving (Eq, Show)
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instance Arbitrary (QC (A.Structured, Map.Map [Meta] A.Structured)) where
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arbitrary = evalStateT genStructured 0 >>* findEmpty >>* QC
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where
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-- Copies the value for the empty-list key into the first element of the tuple:
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findEmpty :: [([Meta], a)] -> (a, Map.Map [Meta] a)
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findEmpty xs = (fromJust $ Map.lookup [] m, m)
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where m = Map.fromList xs
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-- TODO define a method for coarbitrary?
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nextIdT :: Monad m => StateT Int m Int
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nextIdT = modify' ((+) 1)
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oneofL :: [GenL a] -> GenL a
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oneofL gs = do i <- lift $ choose (0,length gs-1)
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gs !! i
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replaceM :: (Eq a, Monad m) => a -> a -> (a -> m a)
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replaceM find replace x | find == x = return replace
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| otherwise = return x
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genStructured :: GenL A.Structured
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genStructured = nextIdT >>* makeMeta >>= \m -> oneofL
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[
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genElem2 A.OnlyP m genProcess
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-- TODO A.Several m []
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]
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genProcess :: GenL A.Process
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genProcess = nextIdT >>* makeMeta >>= \m -> oneofL
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[
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genElem1 A.Skip m
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,genElem1 A.Stop m
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]
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-- TODO put this in proper error monad
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genGraph :: A.Structured -> FlowGraph Identity ()
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genGraph s = either (const $ error "QuickCheck graph did not build properly") id $ runIdentity $ buildFlowGraph funcs s
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where
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empty = const (return ())
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funcs = GLF empty empty empty empty empty empty
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pickFuncId :: Monad m => FlowGraph m () -> [A.Structured -> m A.Structured]
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pickFuncId g = map (applyFunc . getFunc) (labNodes g)
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where
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getFunc (_,Node (_,_,f)) = f
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applyFunc (AlterProcess f) = f return
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applyFunc (AlterExpression f) = f return
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applyFunc (AlterExpressionList f) = f return
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applyFunc (AlterSpec f) = f return
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applyFunc (AlterNothing) = return
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pickFuncRep :: Monad m => FlowGraph m () -> Map.Map Meta (A.Structured -> m A.Structured)
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pickFuncRep gr = Map.fromList $ map (helpApplyFunc . getMetaFunc) (labNodes gr)
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where
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getMetaFunc (_,Node (m,_,f)) = (m,f)
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helpApplyFunc (m,f) = (m, applyFunc (m,f))
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applyFunc (m,AlterProcess f) = f (g m)
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applyFunc (m,AlterExpression f) = f (g m)
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applyFunc (m,AlterExpressionList f) = f (g m)
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applyFunc (m,AlterSpec f) = f (g m)
|
|
applyFunc (m,AlterNothing) = g m
|
|
|
|
g m = everywhereM (mkM $ {-applyOnce $-} replaceM m (replaceMeta m))
|
|
|
|
-- TODO don't let the tree grow too deep (suggest 10 as maximum number of nodes that could be changed, so 2^10 powersets)
|
|
-- TODO alter the number of tests run
|
|
|
|
deepCheck p = check (defaultConfig { configMaxTest = 1000}) p
|
|
|
|
testModify :: Test
|
|
testModify = TestList
|
|
[
|
|
TestCase $ deepCheck prop_Id
|
|
,TestCase $ deepCheck prop_Rep
|
|
]
|
|
where
|
|
prop_Id :: QC (A.Structured, Map.Map [Meta] A.Structured) -> Bool
|
|
prop_Id (QC (g,_)) = collectAll $ (flip map) (map (foldFuncsM) $ powerset $ pickFuncId $ genGraph g) $ \f -> runIdentity (f g) == g
|
|
prop_Rep :: QC (A.Structured, Map.Map [Meta] A.Structured) -> Bool
|
|
prop_Rep (QC (g,rest)) = collectAll $ (flip map) (helper $ pickFuncRep $ genGraph g) $
|
|
\(funcs,ms) -> Just (runIdentity (applyMetas ms funcs g)) == Map.lookup ms rest
|
|
|
|
-- Repeatedly pairs the map with each element of the powerset of its keys
|
|
helper :: Monad m => Map.Map Meta (A.Structured -> m A.Structured) -> [(Map.Map Meta (A.Structured -> m A.Structured), [Meta])]
|
|
helper fs = zip (repeat fs) (powerset $ Map.keys fs)
|
|
|
|
-- Applies the functions associated with the given meta tags
|
|
applyMetas :: Monad m => [Meta] -> Map.Map Meta (A.Structured -> m A.Structured) -> (A.Structured -> m A.Structured)
|
|
applyMetas ms funcs = foldFuncsM $ concatMap (\m -> Map.lookup m funcs) ms
|
|
|
|
|
|
-- Collects multiple tests together:
|
|
collectAll = and
|
|
-- collectAll = foldl collect (property ())
|
|
|
|
--Returns the list of tests:
|
|
tests :: Test
|
|
tests = TestList
|
|
[
|
|
testCase
|
|
,testIf
|
|
,testModify
|
|
,testPar
|
|
,testSeq
|
|
,testWhile
|
|
]
|