return element;
}
+void CSolver::mustHaveValue(Element *element){
+ element->getElementEncoding()->anyValue = true;
+}
+
Set *CSolver::getElementRange (Element *element) {
return element->getRange();
}
return applyLogicalOperation(op, array, 1);
}
-static int ptrcompares(const void *p1, const void *p2) {
- uintptr_t b1 = *(uintptr_t const *) p1;
- uintptr_t b2 = *(uintptr_t const *) p2;
+static int booleanEdgeCompares(const void *p1, const void *p2) {
+ BooleanEdge be1 = *(BooleanEdge const *) p1;
+ BooleanEdge be2 = *(BooleanEdge const *) p2;
+ uint64_t b1 = be1->id;
+ uint64_t b2 = be2->id;
if (b1 < b2)
return -1;
else if (b1 == b2)
} else if (newindex == 1) {
return newarray[0];
} else {
- bsdqsort(newarray, newindex, sizeof(BooleanEdge), ptrcompares);
+ bsdqsort(newarray, newindex, sizeof(BooleanEdge), booleanEdgeCompares);
array = newarray;
asize = newindex;
}
}
delete orderit;
}
- model_print("*****************Before any modifications:************\n");
- printConstraints();
computePolarities(this);
long long time2 = getTimeNano();
model_print("Polarity time: %f\n", (time2 - starttime) / NANOSEC);
-// Preprocess pp(this);
-// pp.doTransform();
+ Preprocess pp(this);
+ pp.doTransform();
long long time3 = getTimeNano();
-// model_print("Preprocess time: %f\n", (time3 - time2) / NANOSEC);
+ model_print("Preprocess time: %f\n", (time3 - time2) / NANOSEC);
DecomposeOrderTransform dot(this);
dot.doTransform();
model_print("Elapse Encode time: %f\n", elapsedTime / NANOSEC);
model_print("Is problem UNSAT after encoding: %d\n", unsat);
- model_print("########## After all modifications: #############\n");
- printConstraints();
int result = unsat ? IS_UNSAT : satEncoder->solve();
- model_print("Result Computed in CSolver: %d\n", result);
+ model_print("Result Computed in SAT solver: %d\n", result);
if (deleteTuner) {
delete tuner;