OWL11Parser.hs revision a6082d6cfdfbdc6a4e70430bb25638dfa4f0db9b
{- |
Module : $Header$
Copyright : Heng Jiang, Uni Bremen 2004-2006
License : similar to LGPL, see HetCATS/LICENSE.txt or LIZENZ.txt
Maintainer : jiang@informatik.uni-bremen.de
Stability : provisional
Portability : non-portable (imports Logic.Logic)
analyse OWL files by calling the external Java parser.
-}
module Main() where
import OWL_DL.OWL11.FFS
-- import OWL_DL.Logic_OWL_DL
-- import OWL_DL.Namespace
import OWL_DL.OWL11.ReadWrite
-- import OWL_DL.StaticAna
-- import OWL_DL.Sign
-- import OWL_DL.StructureAna
-- import Static.GTheory
-- import Static.DevGraph
-- import Common.Id
-- import Common.GlobalAnnotations
-- import Common.ExtSign
-- import Common.Result
import Common.Utils
-- import Common.AS_Annotation hiding (isAxiom,isDef)
import Common.ATerm.ReadWrite
import Common.ATerm.Unshared
-- import Syntax.AS_Library
import Driver.Options
-- import Logic.Logic
-- import Logic.Grothendieck
-- import Logic.Prover
import System.IO
import System.Time
import System.Cmd(system)
import System.Exit
import System.Posix.Process
import System.Environment(getEnv, getArgs)
import qualified Data.Map as Map
import qualified Data.List as List
-- import Data.Graph.Inductive.Graph
-- import Data.Maybe(fromJust)
-- | call for owl parser (env. variable $HETS_OWL_PARSER muss be defined)
main :: IO()
main = do args <- getArgs
if (null args) || (length args > 1) then
putStrLn "usage: OWL11Parser <URI>"
else process args
where isURI :: String -> Bool
isURI str = let preU = take 7 str
in if preU == "http://" || preU == "file://"
then True
else False
process :: [String] -> IO()
process args =
do
pwd <- getEnv "PWD"
if isURI $ head args then
do res <- parseOWL $ head args
putStrLn $ show res
else if (head $ head args) == '/' then
do res <- parseOWL ("file://" ++ head args)
putStrLn $ show res
else do res <- parseOWL ("file://" ++ pwd ++ "/" ++ head args)
putStrLn $ show res
parseOWL :: FilePath -- ^ local filepath or uri
-> IO OntologyMap -- ^ map: uri -> Ontology
parseOWL filename =
do
pwd <- getEnv "PWD"
if null filename
then
error "empty file name!"
else do
pid <- getProcessID
currTime <- getClockTime
calend <- toCalendarTime currTime
let tmpFile = "/tmp/" ++ (basename filename) ++ "-" ++ (show pid)
++ "-" ++ (buildTime calend) ++ ".term"
if checkUri filename
then
do exitCode <-
system ("$HETS_OWL_PARSER/OWL11/owl_parser " ++ filename ++
" " ++ tmpFile)
run exitCode tmpFile
else if (head filename) == '/'
then
do
exitCode <-
system ("$HETS_OWL_PARSER/OWL11/owl_parser file://"
++ filename ++ " " ++ tmpFile)
run exitCode tmpFile
else do exitCode <-
system ("$HETS_OWL_PARSER/OWL11/owl_parser file://"
++ pwd ++ "/" ++ filename ++
" " ++ tmpFile)
run exitCode tmpFile
where buildTime cTime =
(show $ ctYear cTime) ++ (show $ ctMonth cTime) ++
(show $ ctDay cTime) ++ (show $ ctHour cTime) ++
(show $ ctMin cTime) ++ (show $ ctSec cTime)
run :: ExitCode -> FilePath -> IO OntologyMap
run exitCode tmpFile
| exitCode == ExitSuccess =
do
putStrLn ("ATerm-File has been saved: " ++ tmpFile)
t <- parseProc tmpFile
-- system ("rm -f " ++ tmpFile)
return t
| otherwise = error ("process stop! " ++ (show exitCode))
-- | parse the file "output.term" from java-owl-parser
parseProc :: FilePath -> IO OntologyMap
parseProc filename =
do d <- readFile filename
let aterm = getATermFull $ readATerm d
case aterm of
AList paarList _ ->
return $ Map.fromList $ parsingAll paarList
_ -> error ("false file: " ++ show filename ++ ".")
-- | parse an ontology with all imported ontologies
parsingAll :: [ATerm] -> [(String, OntologyFile)]
parsingAll [] = []
parsingAll (aterm:res) =
(aTerm2Ontology aterm):(parsingAll res)
-- | ontology parser, this version ignore validation, massages of java-parser.
{-
ontologyParse :: ATerm -> (String, OntologyFile)
ontologyParse
(AAppl "UOPaar"
[AAppl uri _ _,
AAppl "OntologyFile" [ns, onto] _] _)
= case ontology of
Ontology _ _ namespace ->
(if head uri == '"' then read uri::String else uri,
-- propagateNspaces namespace $ createAndReduceClassAxiom ontology)
where ontology = fromATerm onto::Ontology
namespace = fromATerm ns::Namespace
ontologyParse _ = error "false ontology file."
-}
aTerm2Ontology :: ATerm -> (String, OntologyFile)
aTerm2Ontology (AAppl "UOPaar" [AAppl uri _ _, ontoFile] _) =
(if head uri == '"' then read uri::String else uri,
fromATerm ontoFile:: OntologyFile)
aTerm2Ontology _ = error "false ontology file."
{-
-- | remove equivalent disjoint class axiom, create equivalentClasses,
-- | subClassOf axioms, and sort directives (definitions of classes and
-- | properties muss be moved to begin of directives)
createAndReduceClassAxiom :: Ontology -> Ontology
createAndReduceClassAxiom (Ontology oid directives ns) =
let (definition, axiom, other) =
findAndCreate (List.nub directives) ([], [], [])
directives' = reverse definition ++ reverse axiom ++ reverse other
in Ontology oid directives' ns
where -- search directives list, sort the define concept and role,
-- axioms, and rest
findAndCreate :: [Directive]
-> ([Directive], [Directive], [Directive])
-> ([Directive], [Directive], [Directive])
findAndCreate [] res = res
findAndCreate (h:r) (def, axiom, rest) =
case h of
Ax (Class cid _ Complete _ desps) ->
-- the original directive must also be saved.
findAndCreate r
(h:def,(Ax (EquivalentClasses (DC cid) desps)):axiom,rest)
Ax (Class cid _ Partial _ desps) ->
if null desps then
findAndCreate r (h:def, axiom, rest)
else
findAndCreate r (h:def,
(appendSubClassAxiom cid desps) ++ axiom,
rest)
Ax (EnumeratedClass _ _ _ _) ->
findAndCreate r (h:def, axiom, rest)
Ax (DisjointClasses _ _ _) ->
if any (eqClass h) r then
findAndCreate r (def, axiom, rest)
else findAndCreate r (def,h:axiom, rest)
Ax (DatatypeProperty _ _ _ _ _ _ _) ->
findAndCreate r (h:def, axiom, rest)
Ax (ObjectProperty _ _ _ _ _ _ _ _ _) ->
findAndCreate r (h:def, axiom, rest)
_ -> findAndCreate r (def, axiom, h:rest)
-- append single subClassOf axioms from an derective of ontology
appendSubClassAxiom :: ClassID -> [Description] -> [Directive]
appendSubClassAxiom _ [] = []
appendSubClassAxiom cid (hd:rd) =
(Ax (SubClassOf (DC cid) hd)):(appendSubClassAxiom cid rd)
-- check if two disjointClasses axiom are equivalent
-- (a disjointOf b == b disjointOf a)
eqClass :: Directive -> Directive -> Bool
eqClass dj1 dj2 =
case dj1 of
Ax (DisjointClasses c1 c2 _) ->
case dj2 of
Ax (DisjointClasses c3 c4 _) ->
if (c1 == c4 && c2 == c3)
then True
else False
_ -> False
_ -> False
-- | structure analysis bases of ontologyMap from owl parser
structureAna :: FilePath
-> HetcatsOpts
-> OntologyMap
-> IO (Maybe (LIB_NAME, -- filename
LibEnv -- DGraphs for imported modules
))
structureAna file opt ontoMap =
do
let (newOntoMap, dg) = buildDevGraph ontoMap
case analysis opt of
Structured -> do -- only structure analysis
printMsg $ labNodesDG dg
putStrLn $ show $ dgBody dg
return (Just (simpleLibName file,
simpleLibEnv file $ reverseGraph dg))
Skip -> return $ fail "" -- Nothing is ambiguous
_ -> staticAna file opt (newOntoMap, dg)
where -- output Analyzing messages for structured anaylsis
printMsg :: [LNode DGNodeLab] -> IO()
printMsg [] = putStrLn ""
printMsg ((_, node):rest) =
do putStrLn ("Analyzing ontology " ++
(showName $ dgn_name node))
printMsg rest
-- simpleLibEnv and simpleLibName builded two simple lib-entities for
-- showGraph
simpleLibEnv :: FilePath -> DGraph -> LibEnv
simpleLibEnv filename dg =
Map.singleton (simpleLibName filename) dg
{ globalEnv = Map.singleton (mkSimpleId "")
(SpecEntry ((JustNode nodeSig), [], g_sign, nodeSig))}
where nodeSig = NodeSig 0 g_sign
g_sign = G_sign OWL_DL (mkExtSign emptySign) 0
simpleLibName :: FilePath -> LIB_NAME
simpleLibName s = Lib_id $ Direct_link ("library_" ++ s) nullRange
-- | static analysis if the HetcatesOpts is not only Structured.
-- | sequence call for nodesStaticAna on the basis of topologically
-- | sort of all nodes
staticAna :: FilePath
-> HetcatsOpts
-> (OntologyMap, DGraph)
-> IO (Maybe (LIB_NAME, -- filename
LibEnv -- DGraphs for imported modules
))
staticAna file opt (ontoMap, dg) =
do let topNodes = topsortDG dg
Result diagnoses res <-
case res of
Just (_, dg', _) -> do
showDiags opt $ List.nub diagnoses
let dg'' = insEdgesDG (reverseLinks $ labEdgesDG dg')
(delEdgesDG (edgesDG dg') dg')
-- putStrLn $ show dg''
return (Just (simpleLibName file,
simpleLibEnv file dg''))
_ -> error "no devGraph..."
-- | a map to save which node has been analysed.
type SignMap = Map.Map Node (Sign, [Named Sentence])
-- | call to static analyse of all nodes
nodesStaticAna :: [Node] -- ^ topologically sort of graph
-> SignMap -- ^ an map of analyzed nodes
-> OntologyMap -- ^ an map of parsed ontology
-> Namespace -- ^ global namespaces
-> DGraph -- ^ current graph
-> [Diagnosis] -- ^ diagnosis of result
-> IO (Result (SignMap, DGraph, Namespace))
-- ^ result is tuple of new map of signs and sentences,
-- ^ new grpah, and new global namespace map.
nodesStaticAna [] signMap _ ns dg diag =
return $ Result diag (Just (signMap, dg, ns))
nodesStaticAna (h:r) signMap ontoMap globalNs dg diag = do
Result digs res <-
-- Each node must be analyzed with the associated imported nodes.
-- Those search for imported nodes is by bfs accomplished.
nodeStaticAna (reverse $ map (matchNode dg) (bfsDG h dg))
(emptySign, diag)
signMap ontoMap globalNs dg
case res of
Just (newSignMap, newDg, newGlobalNs) ->
nodesStaticAna r newSignMap ontoMap newGlobalNs newDg (diag++digs)
-- Warning or Error message
nodesStaticAna r signMap ontoMap globalNs dg (diag++digs)
-- | call to static analyse of single nodes
nodeStaticAna :: [LNode DGNodeLab] -- ^ imported nodes of one node
-- ^ (incl. itself)
-> (Sign, [Diagnosis]) -- ^ here saved incoming sign, diagnoses
-> SignMap -- ^ an map of analyzed nodes
-> OntologyMap -- ^ an map of parsed ontology
-> Namespace -- ^ global namespaces
-> DGraph -- ^ current graph
-> IO (Result (SignMap, DGraph, Namespace))
nodeStaticAna [] _ _ _ _ _ =
do return initResult -- remove warning
-- the last node in list is current top node.
nodeStaticAna
((n,topNode):[]) (inSig, oldDiags) signMap ontoMap globalNs dg =
do
let nn@(nodeName, _, _) = dgn_name topNode
putStrLn ("Analyzing ontology " ++ (show nodeName))
case Map.lookup n signMap of
Just _ ->
return $ Result oldDiags (Just (signMap, dg, globalNs))
_ ->
do
let ontology@(Ontology mid _ _) = fromJust $
Map.lookup (getNameFromNode nn) ontoMap
Result diag res =
-- static analysis of current ontology with all sign of
-- imported ontology.
basicOWL_DLAnalysis (ontology, inSig, emptyGlobalAnnos)
case res of
Just (_, ExtSign accSig _, sent) ->
do
let (newGlobalNs, tMap) =
integrateNamespaces globalNs (namespaceMap accSig)
newSent = map (renameNamespace tMap) sent
difSig = diffSig accSig inSig
newDifSig = renameNamespace tMap difSig
newSig = mkExtSign $ renameNamespace tMap accSig
-- the new node (with sign and sentence) has the sign of
-- accumulated sign with imported signs, but the sentences
-- is only of current ontology, because all sentences of
-- imported ontoloies can be automatically outputed by
-- showTheory (see GUI)
newLNode =
(n, topNode {dgn_theory =
G_theory OWL_DL newSig 0 (toThSens newSent)
0})
-- by remove of an node all associated edges are also deleted
-- so the deges must be saved before remove the node, then
-- appended again.
-- The out edges (after reverse are inn edges) must
-- also with new signature be changed.
ledges = innDG dg n ++
map (changeGMorOfEdges newSig) (outDG dg n)
newG = insEdgesDG ledges (insNodeDG newLNode (delNodeDG n dg))
return $ Result (oldDiags ++ diag)
(Just ((Map.insert n (newDifSig, newSent) signMap),
newG, newGlobalNs))
_ -> do let actDiag = mkDiag Error
("error by analysing of " ++ (show mid)) ()
return $ Result (actDiag:oldDiags) Prelude.Nothing
-- The GMorphism of edge should also with new Signature be changed,
-- since with "show theory" the edges also with Sign one links
-- (see Static.DevGraph.joinG_sentences).
where changeGMorOfEdges newSign (n1, n2, edge) =
let newCMor = idComorphism (Logic OWL_DL)
Result _ newGMor = gEmbedComorphism newCMor
(G_sign OWL_DL newSign 0)
in (n1, n2, edge {dgl_morphism = fromJust newGMor})
-- The other nodes in list are examined whether they were already analyzed.
-- if yes then signs of it for further analysis are taken out; otherwise they
-- are first analyzed (with complete part tree of this node).
nodeStaticAna ((n, _):r) (inSig, oldDiags) signMap ontoMap globalNs dg
=
do
case Map.lookup n signMap of
Just (sig, _) ->
nodeStaticAna r ((integSign sig inSig), oldDiags)
signMap ontoMap globalNs dg
do
Result digs' res' <-
nodeStaticAna (reverse $ map (matchNode dg) (bfsDG n dg))
(emptySign, [])
signMap ontoMap globalNs dg
case res' of
Just (signMap', dg', globalNs') ->
do
let (sig', _) = fromJust $ Map.lookup n signMap'
nodeStaticAna r
((integSign sig' inSig), (oldDiags ++ digs'))
signMap' ontoMap globalNs' dg'
_ -> do error "Error by analysis : nodeStaticAna"
nodeStaticAna r (inSig, oldDiags)
signMap ontoMap globalNs dg
-- | build up two sign
integSign :: Sign -> Sign -> Sign
integSign inSig totalSig =
let (newNamespace, transMap) =
integrateNamespaces (namespaceMap totalSig) (namespaceMap inSig)
in addSign (renameNamespace transMap inSig)
(totalSig {namespaceMap = newNamespace})
-- | turn edges over
reverseLinks :: [LEdge DGLinkLab] -> [LEdge DGLinkLab]
reverseLinks [] = []
reverseLinks ((source, target, edge):r) =
(target, source, edge):(reverseLinks r)
-- | turn all edges over of graph
reverseGraph :: DGraph -> DGraph
reverseGraph dg =
let newLinks = reverseLinks $ labEdgesDG dg
in insEdgesDG newLinks (delEdgesDG (edgesDG dg) dg)
-- | find a node in DevGraph
matchNode :: DGraph -> Node -> LNode DGNodeLab
matchNode dgraph node =
let (mcontext, _ ) = matchDG node dgraph
(_, _, dgNode, _) = fromJust mcontext
in (node, dgNode)
-}