forked from JavaTX/JavaCompilerCore
modified: src/de/dhbwstuttgart/typeinference/typeAlgo/TYPEStmt.java
modified: src/de/dhbwstuttgart/typeinference/unify/TypeUnifyTask.java OderConstraints in Unify integriert
This commit is contained in:
Martin Plümicke
parent
d08708878f
commit
fc3331d810
@ -228,7 +228,8 @@ public class TYPEStmt implements StatementVisitor{
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binary.operation.equals(BinaryExpr.Operator.ADD)||
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binary.operation.equals(BinaryExpr.Operator.SUB)){
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Set<Constraint<Pair>> numericAdditionOrStringConcatenation = new HashSet<>();
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- Auf importierte Typen einschraenken
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- pruefen, ob die Typen richtig bestimmt werden.
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//Zuerst der Fall für Numerische AusdrücPairOpnumericeratorke, das sind Mul, Mod und Div immer:
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//see: https://docs.oracle.com/javase/specs/jls/se7/html/jls-15.html#jls-15.17
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//Expression muss zu Numeric Convertierbar sein. also von Numeric erben
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@ -159,12 +159,20 @@ public class TypeUnifyTask extends RecursiveTask<Set<Set<UnifyPair>>> {
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}
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*/
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protected Set<Set<UnifyPair>> computeOld() {
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Set<Set<UnifyPair>> res = unify(eq, fc, parallel);
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protected Set<Set<UnifyPair>> compute() {
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Set<UnifyPair> neweq = new HashSet<>(eq);
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/* 1-elementige Oder-Constraints werden in und-Constraints umgewandelt */
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oderConstraints.stream()
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.filter(x -> x.size()==1)
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.map(y -> y.stream().findFirst().get()).forEach(x -> neweq.addAll(x));
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ArrayList<Set<Set<UnifyPair>>> remainingOderconstraints = oderConstraints.stream()
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.filter(x -> x.size()>1)
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.collect(Collectors.toCollection(ArrayList::new));
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Set<Set<UnifyPair>> res = unify(neweq, remainingOderconstraints, fc, parallel);
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if (isUndefinedPairSetSet(res)) { return new HashSet<>(); }
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else return res;
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}
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/*
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@Override
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protected Set<Set<UnifyPair>> compute() {
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Set<Set<UnifyPair>> fstElems = new HashSet<>();
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@ -173,6 +181,8 @@ public class TypeUnifyTask extends RecursiveTask<Set<Set<UnifyPair>>> {
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if (isUndefinedPairSetSet(res)) { return new HashSet<>(); }
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else return res;
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}
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*/
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public Set<Set<UnifyPair>> computeCartesianRecursiveOderConstraints(Set<Set<UnifyPair>> fstElems, List<Set<Set<UnifyPair>>> topLevelSets, IFiniteClosure fc, boolean parallel) {
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//ArrayList<Set<Set<UnifyPair>>> remainingSets = new ArrayList<>(topLevelSets);
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@ -186,7 +196,7 @@ public class TypeUnifyTask extends RecursiveTask<Set<Set<UnifyPair>>> {
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if (remainingSets.isEmpty()) {//Alle Elemente sind 1-elementig
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Set<UnifyPair> eq = new HashSet<>();
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fstElems.stream().forEach(x -> eq.addAll(x));
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Set<Set<UnifyPair>> result = unify(eq, fc, parallel);
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Set<Set<UnifyPair>> result = unify(eq, new ArrayList<>(), fc, parallel);
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return result;
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}
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Set<Set<UnifyPair>> nextSet = remainingSets.remove(0);
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@ -289,7 +299,7 @@ public class TypeUnifyTask extends RecursiveTask<Set<Set<UnifyPair>>> {
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System.out.println(noou);
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Set<UnifyPair> eq = new HashSet<>();
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elems.stream().forEach(x -> eq.addAll(x));
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res = unify(eq, fc, parallel);
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res = unify(eq, new ArrayList<>(), fc, parallel);
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}
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else {//duerfte gar nicht mehr vorkommen PL 2018-04-03
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res = computeCartesianRecursiveOderConstraints(elems, remainingSets, fc, parallel);
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@ -428,18 +438,21 @@ public class TypeUnifyTask extends RecursiveTask<Set<Set<UnifyPair>>> {
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* @param fc The finite closure
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* @return The set of all principal type unifiers
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*/
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protected Set<Set<UnifyPair>> unify(Set<UnifyPair> eq, IFiniteClosure fc, boolean parallel) {
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protected Set<Set<UnifyPair>> unify(Set<UnifyPair> eq, List<Set<Set<UnifyPair>>> oderConstraints, IFiniteClosure fc, boolean parallel) {
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//Set<UnifyPair> aas = eq.stream().filter(x -> x.getLhsType().getName().equals("AA") //&& x.getPairOp().equals(PairOperator.SMALLERDOT)
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// ).collect(Collectors.toCollection(HashSet::new));
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//writeLog(nOfUnify.toString() + " AA: " + aas.toString());
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//if (aas.isEmpty()) {
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// System.out.println("");
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//}
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//.collect(Collectors.toCollection(HashSet::new)));
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/*
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* Step 1: Repeated application of reduce, adapt, erase, swap
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*/
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nOfUnify++;
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writeLog(nOfUnify.toString() + " Unifikation: " + eq.toString());
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writeLog(nOfUnify.toString() + " Oderconstraints: " + oderConstraints.toString());
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//eq = eq.stream().map(x -> {x.setVariance((byte)-1); return x;}).collect(Collectors.toCollection(HashSet::new));
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/*
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@ -505,7 +518,7 @@ public class TypeUnifyTask extends RecursiveTask<Set<Set<UnifyPair>>> {
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Set<UnifyPair> undefinedPairs = new HashSet<>();
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if (printtag) System.out.println("eq2s " + eq2s);
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//writeLog("BufferSet: " + bufferSet.toString()+"\n");
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Set<Set<Set<Set<UnifyPair>>>> secondLevelSets = calculatePairSets(eq2s, fc, undefinedPairs);
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Set<Set<Set<Set<UnifyPair>>>> secondLevelSets = calculatePairSets(eq2s, oderConstraints, fc, undefinedPairs);
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//PL 2017-09-20: Im calculatePairSets wird möglicherweise O .< java.lang.Integer
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//nicht ausgewertet Faculty Beispiel im 1. Schritt
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//PL 2017-10-03 geloest, muesste noch mit FCs mit kleineren
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@ -561,12 +574,12 @@ public class TypeUnifyTask extends RecursiveTask<Set<Set<UnifyPair>>> {
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//Aufruf von computeCartesianRecursive ANFANG
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return computeCartesianRecursive(new HashSet<>(), new ArrayList<>(topLevelSets), eq, fc, parallel);
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return computeCartesianRecursive(new HashSet<>(), new ArrayList<>(topLevelSets), eq, oderConstraints, fc, parallel);
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}
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Set<Set<UnifyPair>> unify2(Set<Set<UnifyPair>> setToFlatten, Set<UnifyPair> eq, IFiniteClosure fc, boolean parallel) {
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Set<Set<UnifyPair>> unify2(Set<Set<UnifyPair>> setToFlatten, Set<UnifyPair> eq, List<Set<Set<UnifyPair>>> oderConstraints, IFiniteClosure fc, boolean parallel) {
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//Aufruf von computeCartesianRecursive ENDE
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//keine Ahnung woher das kommt
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@ -634,12 +647,12 @@ public class TypeUnifyTask extends RecursiveTask<Set<Set<UnifyPair>>> {
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eqPrimePrimeSet.add(eqPrime);
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}
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else if(eqPrimePrime.isPresent()) {
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Set<Set<UnifyPair>> unifyres = unify(eqPrimePrime.get(), fc, false);
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Set<Set<UnifyPair>> unifyres = unify(eqPrimePrime.get(), oderConstraints, fc, false);
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eqPrimePrimeSet.addAll(unifyres);
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}
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else {
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Set<Set<UnifyPair>> unifyres = unify(eqPrime, fc, false);
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Set<Set<UnifyPair>> unifyres = unify(eqPrime, oderConstraints, fc, false);
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eqPrimePrimeSet.addAll(unifyres);
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@ -668,7 +681,7 @@ public class TypeUnifyTask extends RecursiveTask<Set<Set<UnifyPair>>> {
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Set<Set<UnifyPair>> computeCartesianRecursive(Set<Set<UnifyPair>> fstElems, ArrayList<Set<Set<UnifyPair>>> topLevelSets, Set<UnifyPair> eq, IFiniteClosure fc, boolean parallel) {
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Set<Set<UnifyPair>> computeCartesianRecursive(Set<Set<UnifyPair>> fstElems, ArrayList<Set<Set<UnifyPair>>> topLevelSets, Set<UnifyPair> eq, List<Set<Set<UnifyPair>>> oderConstraints, IFiniteClosure fc, boolean parallel) {
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//ArrayList<Set<Set<UnifyPair>>> remainingSets = new ArrayList<>(topLevelSets);
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fstElems.addAll(topLevelSets.stream()
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.filter(x -> x.size()==1)
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@ -678,7 +691,7 @@ public class TypeUnifyTask extends RecursiveTask<Set<Set<UnifyPair>>> {
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.filter(x -> x.size()>1)
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.collect(Collectors.toCollection(ArrayList::new));
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if (remainingSets.isEmpty()) {//Alle Elemente sind 1-elementig
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Set<Set<UnifyPair>> result = unify2(fstElems, eq, fc, parallel);
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Set<Set<UnifyPair>> result = unify2(fstElems, eq, oderConstraints, fc, parallel);
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return result;
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}
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Set<Set<UnifyPair>> nextSet = remainingSets.remove(0);
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@ -775,7 +788,7 @@ public class TypeUnifyTask extends RecursiveTask<Set<Set<UnifyPair>>> {
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elems.add(a);
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//if (remainingSets.isEmpty()) {//muss immer gegeben sein, weil nur 1 Element der topLevelSets mehr als ein Elemet enthaelt
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//writeLog("Vor unify2 Aufruf: " + eq.toString());
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Set<Set<UnifyPair>> res = unify2(elems, eq, fc, parallel);
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Set<Set<UnifyPair>> res = unify2(elems, eq, oderConstraints, fc, parallel);
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if (!isUndefinedPairSetSet(res) && isUndefinedPairSetSet(result)) {
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//wenn korrektes Ergebnis gefunden alle Fehlerfaelle loeschen
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result = res;
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@ -1174,15 +1187,17 @@ public class TypeUnifyTask extends RecursiveTask<Set<Set<UnifyPair>>> {
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* from the pairs that matched the case. Each generated set contains singleton sets or sets with few elements
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* (as in case 1 where sigma is added to the innermost set).
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*/
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protected Set<Set<Set<Set<UnifyPair>>>> calculatePairSets(Set<UnifyPair> eq2s, IFiniteClosure fc, Set<UnifyPair> undefined) {
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List<Set<Set<Set<UnifyPair>>>> result = new ArrayList<>(8);
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protected Set<Set<Set<Set<UnifyPair>>>> calculatePairSets(Set<UnifyPair> eq2s, List<Set<Set<UnifyPair>>> oderConstraints, IFiniteClosure fc, Set<UnifyPair> undefined) {
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List<Set<Set<Set<UnifyPair>>>> result = new ArrayList<>(9);
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// Init all 8 cases
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for(int i = 0; i < 8; i++)
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// Init all 8 cases + 9. Case: oderConstraints
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for(int i = 0; i < 9; i++)
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result.add(new HashSet<>());
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ArrayList<UnifyPair> eq2sprime = new ArrayList<>(eq2s);
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Iterator<UnifyPair> eq2sprimeit = eq2sprime.iterator();
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ArrayList<UnifyPair> eq2sAsList = new ArrayList<>();
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Boolean first = true;
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while(eq2sprimeit.hasNext()) {// alle mit Variance != 0 nach vorne schieben
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UnifyPair up = eq2sprimeit.next();
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if ((up.getLhsType() instanceof PlaceholderType && ((PlaceholderType)up.getLhsType()).getVariance() != 0)
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@ -1191,8 +1206,36 @@ public class TypeUnifyTask extends RecursiveTask<Set<Set<UnifyPair>>> {
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eq2s.remove(up);
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}
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}
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if (eq2sAsList.isEmpty()) {
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List<Set<Set<UnifyPair>>> oderConstraintsVariance = oderConstraints.stream() //Alle Elemente rauswerfen, die Variance 0 haben oder keine TPH in LHS oder RHS sind
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.filter(x -> x.stream()
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.filter(y ->
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y.stream().filter(z -> ((z.getLhsType() instanceof PlaceholderType)
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&& (((PlaceholderType)(z.getLhsType())).getVariance() != 0))
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|| ((z.getRhsType() instanceof PlaceholderType)
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&& (((PlaceholderType)(z.getRhsType())).getVariance() != 0))
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).findFirst().isPresent()
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).findFirst().isPresent()).collect(Collectors.toList());
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if (!oderConstraintsVariance.isEmpty()) {
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Set<Set<UnifyPair>> ret = oderConstraintsVariance.get(0);
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oderConstraints.remove(ret);
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result.get(8).add(ret);
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first = false;
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}
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}
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eq2sAsList.addAll(eq2s);
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Boolean first = true;
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if (eq2sAsList.isEmpty() && first) {//Alle eq2s sind empty und alle oderConstraints mit Variance != 0 sind bearbeitet
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if (!oderConstraints.isEmpty()) {
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result.get(8).add(oderConstraints.remove(0));
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first = false;
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}
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}
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- Bei allen die Abhaengigkeit der Elemente aus eq2sAsList als evtl. als Substitution
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hinzufuegen
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for(UnifyPair pair : eq2sAsList) {
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PairOperator pairOp = pair.getPairOp();
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UnifyType lhsType = pair.getLhsType();
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