def test_cardgame_post_fair_pre_filtering(self):
fsm = self.cardgame_post_fair()
self.assertTrue(
check(fsm,
parseATLK(
"K<'player'>'pcard=none' & K<'player'>'dcard=none'")[0],
implementation="symbolic",
pre_filtering=True))
self.assertTrue(
check(
fsm,
parseATLK(
"AG('step = 1' -> ~(K<'player'> 'dcard=Ac' | K<'player'> 'dcard=K' | K<'player'> 'dcard=Q'))"
)[0],
implementation="symbolic",
pre_filtering=True))
self.assertTrue(
check(fsm,
parseATLK("AG('step = 1' -> ~<'player'> X 'win')")[0],
implementation="symbolic",
pre_filtering=True))
self.assertTrue(
check(fsm,
parseATLK("['player'] X 'pcard=Ac'")[0],
implementation="symbolic",
pre_filtering=True))
self.assertTrue(
check(fsm,
parseATLK("<'dealer'> X 'pcard=Ac'")[0],
implementation="symbolic",
pre_filtering=True))
def test_counters_FSF(self):
fsm = self.counters()
from pynusmv_tools.atlkPO.evalGen import split
agents = {'a1', 'a2'}
strats = split(fsm,
fsm.protocol(agents) & fsm.reachable_states,
agents,
semantics='individual')
self.assertEqual(len(list(strats)), 16)
config.partial.filtering = True
self.assertTrue(
check(fsm,
parseATLK("<'a1', 'a2'> F 'v1 & v2'")[0],
semantics="individual",
implem="partialSI"))
self.assertFalse(
check(fsm,
parseATLK("<'a1', 'a2'> G '!v1 & !v2'")[0],
semantics="individual",
implem="partialSI"))
self.assertTrue(
check(
fsm,
parseATLK("AG('!v1 & !v2' -> <'a1', 'a2'> G '!v1 | !v2')")[0],
semantics="individual",
implem="partialSI"))
config.partial.filtering = False
def test_coins(self):
fsm = self.coins()
from pynusmv_tools.atlkPO.evalGen import split
agents = {'a1', 'a2'}
strats = split(fsm,
fsm.protocol(agents) & fsm.reachable_states,
agents,
semantics='individual')
self.assertEqual(len(list(strats)), 64)
self.assertFalse(
check(fsm,
parseATLK("<'a1', 'a2'> F 'result = win'")[0],
semantics="individual"))
self.assertFalse(
check(fsm,
parseATLK("<'a1', 'a2'> F 'result = win'")[0],
semantics="individual",
variant="FSF"))
self.assertFalse(
check(fsm,
parseATLK("<'a1', 'a2'> F 'result = win'")[0],
semantics="individual",
variant="FS"))
def test_fail(self):
kos = ["", "'test", "A<'test'>H 'q'", "O", "A<'a'>E<'e'>G 'true'",
"E<'ac'>[A<'ac'>['a' E<'ac'>['b' W 'c'] W 'd'] "
"U A<'ac'>['e' U 'f']]", "A<'t't'>G 'q'"]
for s in kos:
with self.assertRaises(ParseException):
parseATLK(s)
def test_cardgame(self):
fsm = self.cardgame()
self.assertTrue(check(fsm, parseATLK("<'dealer'> X 'pcard=Ac'")[0]))
self.assertFalse(check(fsm, parseATLK("<'dealer'> G ~'win'")[0]))
self.assertTrue(check(fsm, parseATLK("['player'] X 'pcard=Ac'")[0]))
self.assertTrue(check(fsm, parseATLK("['dealer'] F 'win'")[0]))
self.assertTrue(check(fsm, parseATLK("<'player'> F 'win'")[0]))
def test_tpfni_partial_vs_normal(self):
fsm = self.transmission_post_fair()
self.assertTrue(check(fsm, parseATLK("<'sender'> F 'received'")[0]))
self.assertTrue(
check(fsm,
parseATLK("<'sender'> F 'received'")[0],
implem="partial"))
def test_cardgame_post_fair_pre_filtering(self):
fsm = self.cardgame_post_fair()
self.assertTrue(
check(fsm,
parseATLK(
"K<'player'>'pcard=none' & K<'player'>'dcard=none'")[0],
implementation="naive",
pre_filtering=True))
self.assertTrue(
check(
fsm,
parseATLK(
"AG('step = 1' -> ~(K<'player'> 'dcard=Ac' | K<'player'> 'dcard=K' | K<'player'> 'dcard=Q'))"
)[0],
implementation="naive",
pre_filtering=True))
self.assertTrue(
check(fsm,
parseATLK("AG('step = 1' -> ~<'player'> X 'win')")[0],
implementation="naive",
pre_filtering=True))
self.assertFalse(
check(fsm,
parseATLK("['dealer'] F 'win'")[0],
implementation="naive",
pre_filtering=True))
self.assertTrue(
check(fsm,
parseATLK("['player'] X 'pcard=Ac'")[0],
implementation="naive",
pre_filtering=True))
self.assertTrue(
check(fsm,
parseATLK("<'dealer'> X 'pcard=Ac'")[0],
implementation="naive",
pre_filtering=True))
self.assertTrue(
check(fsm,
parseATLK("<'dealer'> G ~'win'")[0],
implementation="naive",
pre_filtering=True))
# Player can win
self.assertTrue(
check(fsm,
parseATLK("<'player'> F 'win'")[0],
implementation="naive",
pre_filtering=True))
# Dealer can avoid fairness
self.assertTrue(
check(fsm,
parseATLK("<'dealer'> F 'FALSE'")[0],
implementation="naive",
pre_filtering=True))
def test_cardgame_post_fair_not_improved(self):
fsm = self.cardgame_post_fair()
self.assertTrue(
check(fsm,
parseATLK(
"K<'player'>'pcard=none' & K<'player'>'dcard=none'")[0],
implem="partialSI",
semantics="individual"))
self.assertTrue(
check(
fsm,
parseATLK(
"AG('step = 1' -> ~(K<'player'> 'dcard=Ac' | K<'player'> 'dcard=K' | K<'player'> 'dcard=Q'))"
)[0],
implem="partialSI",
semantics="individual"))
self.assertTrue(
check(fsm,
parseATLK("AG('step = 1' -> ~<'player'> X 'win')")[0],
implem="partialSI",
semantics="individual"))
self.assertFalse(
check(fsm,
parseATLK("['dealer'] F 'win'")[0],
implem="partialSI",
semantics="individual"))
self.assertTrue(
check(fsm,
parseATLK("['player'] X 'pcard=Ac'")[0],
implem="partialSI",
semantics="individual"))
self.assertTrue(
check(fsm,
parseATLK("<'dealer'> X 'pcard=Ac'")[0],
implem="partialSI",
semantics="individual"))
self.assertTrue(
check(fsm,
parseATLK("<'dealer'> G ~'win'")[0],
implem="partialSI",
semantics="individual"))
# Player can win
self.assertTrue(
check(fsm,
parseATLK("<'player'> F 'win'")[0],
implem="partialSI",
semantics="individual"))
# Dealer can avoid fairness
self.assertTrue(
check(fsm,
parseATLK("<'dealer'> F 'FALSE'")[0],
implem="partialSI",
semantics="individual"))
def test_cardgame_post_fair_others_pre_filtering(self):
fsm = self.cardgame_post_fair()
# Player can win
self.assertTrue(
check(fsm,
parseATLK("<'player'> F 'win'")[0],
implementation="symbolic",
pre_filtering=True))
# Dealer can avoid fairness
self.assertTrue(
check(fsm,
parseATLK("<'dealer'> F 'FALSE'")[0],
implementation="symbolic",
pre_filtering=True))
def test_cardgame_post_fair_improved_symbolic(self):
fsm = self.cardgame_post_fair()
self.assertFalse(
check(fsm,
parseATLK("<'player'> X 'win'")[0],
implem="symbolic",
variant="FSF"))
self.assertTrue(
check(fsm,
parseATLK(
"K<'player'>'pcard=none' & K<'player'>'dcard=none'")[0],
implem="symbolic",
variant="FSF"))
def test_cardgame_no_x_win_pre_filtering(self):
fsm = self.cardgame()
self.assertTrue(
check(fsm,
parseATLK("AG('step = 1' -> ~<'player'> X 'win')")[0],
implementation="early",
pre_filtering=True))
def test_cardgame_dealer_x_pcard_pre_filtering(self):
fsm = self.cardgame()
self.assertTrue(
check(fsm,
parseATLK("<'dealer'> X 'pcard=Ac'")[0],
implementation="early",
pre_filtering=True))
def test_cardgame_dealer_not_win_pre_filtering(self):
fsm = self.cardgame()
self.assertFalse(
check(fsm,
parseATLK("<'dealer'> G ~'win'")[0],
implementation="early",
pre_filtering=True))
def test_cardgame_post_fair_dealer_f_win_pre_filtering(self):
fsm = self.cardgame_post_fair()
self.assertFalse(
check(fsm,
parseATLK("['dealer'] F 'win'")[0],
implementation="symbolic",
pre_filtering=True))
def test_cardgame_post_fair_player_x_pcard_pre_filtering(self):
fsm = self.cardgame_post_fair()
self.assertTrue(
check(fsm,
parseATLK("['player'] X 'pcard=Ac'")[0],
implementation="symbolic",
pre_filtering=True))
def test_cardgame_player_win_pre_filtering(self):
fsm = self.cardgame()
self.assertFalse(
check(fsm,
parseATLK("<'player'> F 'win'")[0],
implementation="symbolic",
pre_filtering=True))
def test_cardgame_dealer_x_pcard(self):
fsm = self.cardgame()
self.assertTrue(
check(fsm,
parseATLK("<'dealer'> X 'pcard=Ac'")[0],
implementation="symbolic",
pre_filtering=False))
def test_transmission_with_know_transmitter_never_received(self):
fsm = self.transmission_with_knowledge()
self.assertTrue(
check(fsm,
parseATLK("<'transmitter'> G ~'received'")[0],
implementation="symbolic",
pre_filtering=False))
def test_cardgame_post_fair_improved_symbolic4(self):
fsm = self.cardgame_post_fair()
self.assertTrue(
check(fsm,
parseATLK("['player'] X 'pcard=Ac'")[0],
implem="symbolic",
variant="FSF"))
def test_cardgame_post_fair_improved_symbolic12(self):
fsm = self.cardgame_post_fair()
self.assertFalse(
check(fsm,
parseATLK("['dealer'] F 'win'")[0],
implem="symbolic",
variant="FSF"))
def test_cardgame_post_fair_improved_symbolic11(self):
fsm = self.cardgame_post_fair()
self.assertTrue(
check(fsm,
parseATLK("<'player'> F <'player'>[~'lose' U 'win']")[0],
implem="symbolic",
variant="FSF"))
def test_cardgame_post_fair_improved_symbolic6(self):
fsm = self.cardgame_post_fair()
self.assertTrue(
check(fsm,
parseATLK("<'dealer'> G ~'win'")[0],
implem="symbolic",
variant="FSF"))
def test_cardgame_post_fair_improved_symbolic3(self):
fsm = self.cardgame_post_fair()
self.assertTrue(
check(fsm,
parseATLK("AG('step = 1' -> ~<'player'> X 'win')")[0],
implem="symbolic",
variant="FSF"))
def test_little2(self):
fsm = self.little2()
self.assertTrue(fsm.check_mas())
self.assertTrue(
check(fsm,
parseATLK("<'agent'> F 'o = 3'")[0],
implementation="naive"))
self.assertTrue(
check(fsm,
parseATLK("<'agent'> F 'o = 3'")[0],
implementation="partial"))
self.assertTrue(
check(fsm,
parseATLK("<'agent'> F 'o = 3'")[0],
implementation="early"))
self.assertTrue(
check(fsm,
parseATLK("<'agent'> F 'o = 3'")[0],
implementation="naive",
pre_filtering=True))
self.assertTrue(
check(fsm,
parseATLK("<'agent'> F 'o = 3'")[0],
implementation="partial",
pre_filtering=True))
self.assertTrue(
check(fsm,
parseATLK("<'agent'> F 'o = 3'")[0],
implementation="early",
pre_filtering=True))
self.assertTrue(
check(fsm,
parseATLK("<'agent'> F 'o = 3'")[0],
implementation="backward"))
def test_atom(self):
s = "'c <= 3'"
asts = parseATLK(s)
self.assertEqual(len(asts), 1)
ast = asts[0]
self.assertTrue(isinstance(ast, Spec))
self.assertTrue(isinstance(ast, Atom))
self.assertEqual(ast.value, "c <= 3")
def test_cardgame_ctl(self):
fsm = self.cardgame()
self.assertTrue(
check(fsm,
parseATLK("EG ~'win'")[0],
implementation="symbolic",
pre_filtering=False))
self.assertTrue(
check(fsm,
parseATLK("EF 'win'")[0],
implementation="symbolic",
pre_filtering=False))
self.assertFalse(
check(fsm,
parseATLK("AF 'win'")[0],
implementation="symbolic",
pre_filtering=False))
def test_cardgame_post_fair_improved_symbolic9(self):
fsm = self.cardgame_post_fair()
self.assertTrue(
check(fsm,
parseATLK("EG ~'win'")[0],
implem="symbolic",
variant="FSF"))
self.assertTrue(
check(fsm,
parseATLK("EF 'win'")[0],
implem="symbolic",
variant="FSF"))
self.assertFalse(
check(fsm,
parseATLK("AF 'win'")[0],
implem="symbolic",
variant="FSF"))
def test_cardgame_post_fair_improved_symbolic8(self):
fsm = self.cardgame_post_fair()
# Dealer can avoid fairness
self.assertTrue(
check(fsm,
parseATLK("<'dealer'> F 'FALSE'")[0],
implem="symbolic",
variant="FSF"))
def test_cardgame_post_fair_improved_symbolic7(self):
fsm = self.cardgame_post_fair()
# Player can win
self.assertTrue(
check(fsm,
parseATLK("<'player'> F 'win'")[0],
implem="symbolic",
variant="FSF"))
def test_transmission_with_know(self):
fsm = self.transmission_with_knowledge()
self.assertFalse(
check(fsm,
parseATLK("<'sender'> F 'received'")[0],
implementation="backward"))
self.assertFalse(
check(fsm,
parseATLK("<'sender'> X 'received'")[0],
implementation="backward"))
self.assertTrue(
check(fsm,
parseATLK("<'transmitter'> X ~'received'")[0],
implementation="backward"))
self.assertFalse(
check(fsm,
parseATLK("<'transmitter'> F 'received'")[0],
implementation="backward"))
