/** *************************************************************** */
public static void testParseProofStep() {
String ps1 = "fof(c_0_5, axiom, (s__subclass(s__Artifact,s__Object)), c_0_3).";
String ps2 =
"fof(c_0_2, negated_conjecture,(~(?[X1]:(s__subclass(X1,s__Object)&~$answer(esk1_1(X1))))),"
+ "inference(assume_negation,[status(cth)],[inference(add_answer_literal,[status(thm)],[c_0_0, theory(answers)])])).";
String ps3 =
"cnf(c_0_14,negated_conjecture,($false), "
+ "inference(eval_answer_literal,[status(thm)], [inference(spm,[status(thm)],[c_0_12, c_0_13, theory(equality)]), theory(answers)]), ['proof']).";
TPTP3ProofProcessor tpp = new TPTP3ProofProcessor();
tpp.idTable.put("c_0_0", new Integer(0));
tpp.idTable.put("c_0_3", new Integer(1));
tpp.idTable.put("c_0_12", new Integer(2));
tpp.idTable.put("c_0_13", new Integer(3));
System.out.println(tpp.parseProofStep(ps1));
System.out.println();
System.out.println(tpp.parseProofStep(ps1));
System.out.println();
System.out.println(tpp.parseProofStep(ps3));
}
/**
* *************************************************************** Compute binding and proof from
* E's response
*/
public static TPTP3ProofProcessor parseProofOutput(ArrayList<String> lines, KB kb) {
TPTP3ProofProcessor tpp = new TPTP3ProofProcessor();
try {
boolean inProof = false;
boolean finishAnswersTuple = false;
String line;
Iterator<String> it = lines.iterator();
while (it.hasNext()) {
line = it.next();
if (line.indexOf("SZS output start") != -1) {
inProof = true;
line = it.next();
}
if (line.indexOf("SZS status") != -1) {
tpp.status = line.substring(15);
}
if (line.indexOf("SZS answers") != -1) {
if (!finishAnswersTuple) {
tpp.processAnswers(line.substring(20).trim());
finishAnswersTuple = true;
}
}
if (inProof) {
if (line.indexOf("SZS output end") != -1) {
inProof = false;
} else {
ProofStep ps = tpp.parseProofStep(line);
if (ps != null) {
tpp.proof.add(ps);
}
}
}
}
} catch (Exception ex) {
System.out.println(ex.getMessage());
}
// remove unnecessary steps, eg: conjectures, duplicate trues
tpp.proof = ProofStep.removeUnnecessary(tpp.proof);
tpp.proof = ProofStep.removeDuplicates(tpp.proof);
// find types for skolem terms
findTypesForSkolemTerms(tpp, kb);
return tpp;
}