%------------------------------------------------------------------------------ % File : E-Darwin---1.5 % Problem : NLP211+1 : TPTP v6.1.0. Released v2.4.0. % Transfm : none % Format : tptp:raw % Command : e-darwin -pev TPTP -pmd true -if tptp -pl 2 -pc false -ps false %s % Computer : n012.star.cs.uiowa.edu % Model : x86_64 x86_64 % CPU : Intel(R) Xeon(R) CPU E5-2609 0 2.40GHz % Memory : 16127.75MB % OS : Linux 2.6.32-431.20.3.el6.x86_64 % CPULimit : 300s % DateTime : Fri Aug 1 22:06:43 EDT 2014 % Result : CounterSatisfiable 0.28s % Output : Model 0.28s % Verified : % SZS Type : None (Parsing solution fails) % Syntax : Number of formulae : 0 % Comments : %------------------------------------------------------------------------------ %----ERROR: Could not form TPTP format derivation %------------------------------------------------------------------------------ %----ORIGINAL SYSTEM OUTPUT % % Problem : NLP211+1 : TPTP v6.1.0. Released v2.4.0. % % Command : e-darwin -pev TPTP -pmd true -if tptp -pl 2 -pc false -ps false %s % % Computer : n012.star.cs.uiowa.edu % % Model : x86_64 x86_64 % % CPU : Intel(R) Xeon(R) CPU E5-2609 0 @ 2.40GHz % % Memory : 16127.75MB % % OS : Linux 2.6.32-431.20.3.el6.x86_64 % % CPULimit : 300 % % DateTime : Sat Jul 26 03:49:21 CDT 2014 % % CPUTime : 0.28 % E-Darwin 1.5 2012/06/20 (based on Darwin 1.3) % % % Defaulting to tptp format. % Parsing /export/starexec/sandbox/benchmark/theBenchmark.p ... % % % % Proving ... % % % SZS status CounterSatisfiable for /export/starexec/sandbox/benchmark/theBenchmark.p % % START OF MODEL (DIG): % (sK12(sK0(sK9, sK3)) = sK0(sK9, sK3)) % (sK12(sK1(sK9, sK3)) = sK1(sK9, sK3)) % abstraction(sK3, sK6) % actual_world(sK3) % agent(sK3, sK8, sK5) % animate(sK3, sK0(sK9, sK3)) % animate(sK3, sK1(sK9, sK3)) % artifact(sK3, sK7) % artifact(sK3, sK4) % artifact(sK3, sK5) % barrel(sK3, sK8) % be(sK3, sK11(sK0(sK9, sK3)), sK0(sK9, sK3), sK0(sK9, sK3)) % be(sK3, sK11(sK0(sK9, sK3)), sK0(sK9, sK3), sK12(sK0(sK9, sK3))) % be(sK3, sK11(sK1(sK9, sK3)), sK1(sK9, sK3), sK12(sK1(sK9, sK3))) % be(sK3, sK11(sK1(sK9, sK3)), sK1(sK9, sK3), sK1(sK9, sK3)) % car(sK3, sK5) % chevy(sK3, sK5) % city(sK3, sK7) % dirty(sK3, sK5) % down(sK3, sK8, sK7) % entity(sK3, sK0(sK9, sK3)) % entity(sK3, sK7) % entity(sK3, sK4) % entity(sK3, sK1(sK9, sK3)) % entity(sK3, sK5) % event(sK3, sK8) % event(sK3, sK11(sK0(sK9, sK3))) % event(sK3, sK11(sK1(sK9, sK3))) % eventuality(sK3, sK8) % eventuality(sK3, sK11(sK0(sK9, sK3))) % eventuality(sK3, sK11(sK1(sK9, sK3))) % existent(sK3, sK0(sK9, sK3)) % existent(sK3, sK7) % existent(sK3, sK4) % existent(sK3, sK1(sK9, sK3)) % existent(sK3, sK5) % fellow(sK3, sK0(sK9, sK3)) % fellow(sK3, sK1(sK9, sK3)) % frontseat(sK3, sK4) % furniture(sK3, sK4) % general(sK3, sK6) % group(sK3, sK9) % group(sK3, sK10) % hollywood_placename(sK3, sK6) % human(sK3, sK0(sK9, sK3)) % human(sK3, sK1(sK9, sK3)) % human_person(sK3, sK0(sK9, sK3)) % human_person(sK3, sK1(sK9, sK3)) % impartial(sK3, sK0(sK9, sK3)) % impartial(sK3, sK7) % impartial(sK3, sK4) % impartial(sK3, sK1(sK9, sK3)) % impartial(sK3, sK5) % in(sK3, sK8, sK7) % in(sK3, sK0(sK9, sK3), sK4) % in(sK3, sK12(sK0(sK9, sK3)), sK4) % in(sK3, sK12(sK1(sK9, sK3)), sK4) % in(sK3, sK1(sK9, sK3), sK4) % instrumentality(sK3, sK4) % instrumentality(sK3, sK5) % living(sK3, sK0(sK9, sK3)) % living(sK3, sK1(sK9, sK3)) % location(sK3, sK7) % lonely(sK3, sK7) % male(sK3, sK0(sK9, sK3)) % male(sK3, sK1(sK9, sK3)) % man(sK3, sK0(sK9, sK3)) % man(sK3, sK1(sK9, sK3)) % member(sK3, sK0(sK9, sK3), sK9) % member(sK3, sK1(sK9, sK3), sK9) % multiple(sK3, sK9) % multiple(sK3, sK10) % nonexistent(sK3, sK8) % nonexistent(sK3, sK11(sK0(sK9, sK3))) % nonexistent(sK3, sK11(sK1(sK9, sK3))) % nonhuman(sK3, sK6) % nonliving(sK3, sK7) % nonliving(sK3, sK4) % nonliving(sK3, sK5) % object(sK3, sK7) % object(sK3, sK4) % object(sK3, sK5) % of(sK3, sK6, sK7) % old(sK3, sK5) % organism(sK3, sK0(sK9, sK3)) % organism(sK3, sK1(sK9, sK3)) % placename(sK3, sK6) % present(sK3, sK8) % relation(sK3, sK6) % relname(sK3, sK6) % seat(sK3, sK4) % set(sK3, sK9) % set(sK3, sK10) % singleton(sK3, sK8) % singleton(sK3, sK6) % singleton(sK3, sK0(sK9, sK3)) % singleton(sK3, sK11(sK0(sK9, sK3))) % singleton(sK3, sK11(sK1(sK9, sK3))) % singleton(sK3, sK7) % singleton(sK3, sK4) % singleton(sK3, sK1(sK9, sK3)) % singleton(sK3, sK5) % specific(sK3, sK8) % specific(sK3, sK0(sK9, sK3)) % specific(sK3, sK11(sK0(sK9, sK3))) % specific(sK3, sK11(sK1(sK9, sK3))) % specific(sK3, sK7) % specific(sK3, sK4) % specific(sK3, sK1(sK9, sK3)) % specific(sK3, sK5) % state(sK3, sK11(sK0(sK9, sK3))) % state(sK3, sK11(sK1(sK9, sK3))) % street(sK3, sK7) % thing(sK3, sK8) % thing(sK3, sK6) % thing(sK3, sK0(sK9, sK3)) % thing(sK3, sK11(sK0(sK9, sK3))) % thing(sK3, sK11(sK1(sK9, sK3))) % thing(sK3, sK7) % thing(sK3, sK4) % thing(sK3, sK1(sK9, sK3)) % thing(sK3, sK5) % transport(sK3, sK5) % two(sK3, sK9) % unisex(sK3, sK8) % unisex(sK3, sK6) % unisex(sK3, sK11(sK0(sK9, sK3))) % unisex(sK3, sK11(sK1(sK9, sK3))) % unisex(sK3, sK7) % unisex(sK3, sK4) % unisex(sK3, sK5) % vehicle(sK3, sK5) % way(sK3, sK7) % white(sK3, sK5) % young(sK3, sK0(sK9, sK3)) % young(sK3, sK1(sK9, sK3)) % END OF MODEL % EOF %------------------------------------------------------------------------------