Added types to all the cases where the monomorhpism restriction applied

backends/GenerateCTest.hs

@@ -337,6 +337,7 @@ testArraySubscript = TestList
     
  ]
  where
+   stateTrans :: CSM m => m ()
    stateTrans = defineName (simpleName "foo") $ simpleDefDecl "foo" (A.Array [A.Dimension 7,A.Dimension 8,A.Dimension 8] A.Int)
    m = "\"" ++ show emptyMeta ++ "\""
 
@@ -398,7 +399,9 @@ testOverArray = TestList $ map testOverArray'
               "for\\(int ([[:alnum:]_]+)=0;\\2<foo" ++ sz 1 ++ ";\\2\\+\\+)\\{" ++
               "for\\(int ([[:alnum:]_]+)=0;\\3<foo" ++ sz 2 ++ ";\\3\\+\\+)\\{" ++
               "foo" ++ (f' [("\\1",[1,2]),("\\2",[2]),("\\3",[])]) ++ suff ++ ";\\}\\}\\}$"
+        state1 :: CSM m => m ()
         state1 = defineName (simpleName "foo") $ simpleDefDecl "foo" (A.Array [A.Dimension 7] A.Int)
+        state3 :: CSM m => m ()
         state3 = defineName (simpleName "foo") $ simpleDefDecl "foo" (A.Array [A.Dimension 7, A.Dimension 8, A.Dimension 9] A.Int)
 
 testReplicator :: Test
@@ -1046,6 +1049,7 @@ testOutput = TestList
  
    chan = simpleName "c"
    chanOut = simpleName "cOut"
+   state :: CSM m => m ()
    state = do defineName chan $ simpleDefDecl "c" (A.Chan A.DirUnknown (A.ChanAttributes False False) $ A.UserProtocol foo)
               defineName chanOut $ simpleDefDecl "cOut" (A.Chan A.DirOutput (A.ChanAttributes False False) $ A.UserProtocol foo)
    overOutput ops = ops {genOutput = override2 caret}

common/Errors.hs

@@ -61,6 +61,7 @@ dieIO (Just m@(Meta (Just fn) line column),s) = liftIO $
        putStrLn ""
        printError $ (show m) ++ " " ++ s
          where
+           contextLines :: Int
            contextLines = 5
            -- start is unit-based, so we need to convert to zero-based
            getLines :: String -> Int -> Int -> [String]

common/FlowGraphTest.hs

@@ -511,6 +511,7 @@ genProcess n = nextIdT >>* makeMeta' >>= \m -> (flip oneofLS) n
 genGraph :: A.Structured -> FlowGraph Identity ()
 genGraph s = either (\e -> error $ "QuickCheck graph did not build properly: " ++ e ++ ", from: " ++ pshow s) id $ runIdentity $ buildFlowGraph funcs s
   where
+    empty :: a -> Identity ()
     empty = const (return ())
     funcs = GLF empty empty empty empty empty empty 
 

frontends/ParseOccam.hs

@@ -370,6 +370,7 @@ matchType et rt
             else bad
         _ -> if rt == et then return () else bad
   where
+    bad :: OccParser ()
     bad = die $ "type mismatch (got " ++ showOccam rt ++ "; expected " ++ showOccam et ++ ")"
 
 -- | Check that two lists of types match (for example, for parallel assignment).
@@ -1462,7 +1463,9 @@ formalArgSet
     <|> formalItem (aa channelSpecifier) newChannelName
     <|> formalItem (aa timerSpecifier) newTimerName
     <|> formalItem (aa portSpecifier) newPortName
-  where aa = liftM (\t -> (A.Abbrev, t))
+  where
+    aa :: OccParser A.Type -> OccParser (A.AbbrevMode, A.Type)
+    aa = liftM (\t -> (A.Abbrev, t))
 
 formalVariableType :: OccParser (A.AbbrevMode, A.Type)
 formalVariableType

frontends/StructureOccam.hs

@@ -64,6 +64,7 @@ structureOccam ts = analyse 1 firstLine ts (emptyMeta, EndOfLine)
                            _ -> False
 
         -- A new line -- look to see what's going on with the indentation.
+        newLine :: [Token] -> PassM [Token]
         newLine rest
           | col == prevCol + 2   = withEOL $ (m, Indent) : rest
           -- FIXME: If col > prevCol, then look to see if there's a VALOF
@@ -76,6 +77,7 @@ structureOccam ts = analyse 1 firstLine ts (emptyMeta, EndOfLine)
           | otherwise            = bad
             where
               steps = (prevCol - col) `div` 2
+              bad :: PassM [Token]
               bad = dieP m "Invalid indentation"
               -- This is actually the position at which the new line starts
               -- rather than the end of the previous line.

transformations/ArrayUsageCheck.hs

@@ -531,7 +531,7 @@ getIneqs (low, high) = concatMap getLH
       
         getLH :: EqualityConstraintEquation -> [InequalityConstraintEquation]
         getLH eq = [eq `addEq` (amap negate low),high `addEq` amap negate eq]
-        
+        addEq :: EqualityConstraintEquation -> EqualityConstraintEquation -> EqualityConstraintEquation
         addEq = arrayZipWith' 0 (+)
     
 -- | Given an expression, forms equations (and accompanying additional equation-sets) and returns it
@@ -662,4 +662,3 @@ squareEquations (eqs,ineqs) = uncurry transformPair (mkPair $ map $ makeSize (0,
     
       where      
         highest = maximum $ 0 : (concatMap indices $ eqs ++ ineqs)
-

transformations/ArrayUsageCheckTest.hs

@@ -187,7 +187,8 @@ makeConsistent eqs ineqs = (map ensure eqs', map ensure ineqs')
   where
     eqs' = map (\(Eq e) -> e) eqs
     ineqs' = map (\(Ineq e) -> e) ineqs
-      
+    
+    ensure :: [(CoeffIndex, Integer)] -> EqualityConstraintEquation
     ensure = accumArray (+) 0 (0, largestIndex)
     largestIndex = maximum $ map (maximum . map fst) $ [[(0,0)]] ++ eqs' ++ ineqs'
 
@@ -374,9 +375,13 @@ testMakeEquations = TestList
     joinMapping :: [VarMap] -> ([HandyEq],[HandyIneq]) -> [(VarMap,[HandyEq],[HandyIneq])]
     joinMapping vms (eq,ineq) = map (\vm -> (vm,eq,ineq)) vms
   
+    i_mapping :: VarMap
     i_mapping = Map.singleton (Scale 1 $ (variable "i",0)) 1
+    ij_mapping :: VarMap
     ij_mapping = Map.fromList [(Scale 1 $ (variable "i",0),1),(Scale 1 $ (variable "j",0),2)]
+    i_mod_mapping :: Integer -> VarMap
     i_mod_mapping n = Map.fromList [(Scale 1 $ (variable "i",0),1),(Modulo (Set.singleton $ Scale 1 $ (variable "i",0)) (Set.singleton $ Const n),2)]
+    i_mod_j_mapping :: VarMap
     i_mod_j_mapping = Map.fromList [(Scale 1 $ (variable "i",0),1),(Scale 1 $ (variable "j",0),2),
       (Modulo (Set.singleton $ Scale 1 $ (variable "i",0)) (Set.singleton $ Scale 1 $ (variable "j",0)),3)]
     _3i_2j_mod_mapping n = Map.fromList [(Scale 1 $ (variable "i",0),1),(Scale 1 $ (variable "j",0),2),
@@ -387,7 +392,9 @@ testMakeEquations = TestList
       ,(Modulo (Set.fromList [Scale 1 $ (variable "i",0), Const 1]) (Set.singleton $ Const n),3)
      ]
 
+    rep_i_mapping :: VarMap
     rep_i_mapping = Map.fromList [((Scale 1 (variable "i",0)),1), ((Scale 1 (variable "i",1)),2)]
+    rep_i_mapping' :: VarMap
     rep_i_mapping' = Map.fromList [((Scale 1 (variable "i",0)),2), ((Scale 1 (variable "i",1)),1)]
 
     both_rep_i = joinMapping [rep_i_mapping, rep_i_mapping']
@@ -507,6 +514,7 @@ testIndexes = TestList
     isMod var@[(ind,1)] alpha divisor = ([alpha_minus_div_sigma === var], leq [con 0, alpha_minus_div_sigma, con $ divisor - 1])
       where
         alpha_minus_div_sigma = alpha ++ (negate divisor) ** sigma
+        sigma :: [(Int, Integer)]
         sigma = [(ind+1,1)]
     
     -- | Adds both k and m to the equation!

transformations/Omega.hs

@@ -352,6 +352,7 @@ pruneIneq ineq = do let (opps,others) = splitEither $ groupOpposites $ map prune
 numVariables :: InequalityProblem -> Int
 numVariables ineq = length (nub $ concatMap findVars ineq)
   where
+    findVars :: InequalityConstraintEquation -> [CoeffIndex]
     findVars = map fst . filter ((/= 0) . snd) . tail . assocs
 
 -- | Adds a constant value to an equation:

transformations/PassTest.hs

@@ -451,9 +451,11 @@ testInputCase = TestList
     a0 = simpleName "a0"
     b2 = simpleName "b2"
     c1 = simpleName "c1"
+    defineMyProtocol :: CSM m => m ()
     defineMyProtocol = defineName (simpleName "prot") $ A.NameDef emptyMeta "prot" "prot" A.ProtocolName
       (A.ProtocolCase emptyMeta [(a0,[]),(b2,[A.Int,A.Int]),(c1,[A.Int])])
       A.Original A.Unplaced
+    defineC :: CSM m => m ()
     defineC = defineName (simpleName "c") $ simpleDefDecl "c" (A.Chan A.DirUnknown (A.ChanAttributes False False) (A.UserProtocol $ simpleName "prot"))
     
     specInt s = A.Spec emptyMeta (A.Specification emptyMeta (simpleName s) $ A.Declaration emptyMeta A.Int Nothing)

transformations/RainUsageCheckTest.hs

@@ -66,6 +66,7 @@ a_eq_not_b = A.Assign m [vA] $ A.ExpressionList m [A.Monadic m A.MonadicNot (A.E
 testGetVarProc :: Test
 testGetVarProc = TestList (map doTest tests)
  where
+   tests :: [(Int,[Var],[Var],[Var],[Var],A.Process)]
    tests =
     [
 --TODO test channel reads and writes (incl. reads in alts)

transformations/SimplifyComms.hs

@@ -33,6 +33,7 @@ import Utils
 simplifyComms :: Pass
 simplifyComms = runPasses passes
   where
+    passes :: [(String, Pass)]
     passes =
       [ ("Define temporary variables for outputting expressions", outExprs)
        ,("Transform ? CASE statements/guards into plain CASE", transformInputCase)

transformations/SimplifyExprs.hs

@@ -33,6 +33,7 @@ import Types
 simplifyExprs :: Pass
 simplifyExprs = runPasses passes
   where
+    passes :: [(String, Pass)]
     passes =
       [ ("Convert FUNCTIONs to PROCs", functionsToProcs)
       , ("Convert AFTER to MINUS", removeAfter)

transformations/SimplifyProcs.hs

@@ -31,6 +31,7 @@ import Pass
 simplifyProcs :: Pass
 simplifyProcs = runPasses passes
   where
+    passes :: [(String, Pass)]
     passes =
       [ ("Wrap PAR subprocesses in PROCs", parsToProcs)
       , ("Remove parallel assignment", removeParAssign)

transformations/SimplifyTypes.hs

@@ -29,6 +29,7 @@ import Types
 simplifyTypes :: Pass
 simplifyTypes = runPasses passes
   where
+    passes :: [(String,Pass)]
     passes =
       [ ("Resolve types in AST", resolveNamedTypes)
       , ("Resolve types in state", rntState)