def test_remove_node_one_agent():
worlds = [World('1', {'p': True}), World('2', {'p': True})]
relations = {'a': {('1', '2')}}
ks = KripkeStructure(worlds, relations)
ks_expected = KripkeStructure([World('2', {'p': True})], {'a': set()})
ks.remove_node_by_name('1')
assert ks_expected.__eq__(ks)
def test_remove_node_trivial_case():
worlds = [World('1', {'p': True}), World('2', {'p': True})]
relations = {('1', '2')}
ks = KripkeStructure(worlds, relations)
ks_expected = KripkeStructure([World('2', {'p': True})], {})
ks.remove_node_by_name('1')
assert ks_expected.__eq__(ks)
def test_eq_one_agent():
worlds = [World('1', {'p': True}), World('2', {'p': True})]
relations = {'a': {('1', '2')}}
ks = KripkeStructure(worlds, relations)
ks_expected = KripkeStructure(
[World('1', {'p': True}),
World('2', {'p': True})], {'a': {('1', '2')}})
assert ks_expected.__eq__(ks)
def test_kripke_structure_init():
worlds = [World('1', {'p': True})]
relations = {}
ks = KripkeStructure(worlds, relations)
assert ks.relations == {}
assert ks.worlds[0].name == '1'
assert ks.worlds[0].assignment == {'p': True}
def test_semantic_box_a_true():
worlds = [World('1', {'p': False}), World('2', {'p': True})]
relations = {'a': {('1', '2'), ('1', '1')}}
ks = KripkeStructure(worlds, relations)
mpl = Diamond_a('a', Atom('p'))
assert True == mpl.semantic(ks, '1')
def test_semantic_box_a_two_agents():
worlds = [World('1', {'p': False}), World('2', {'p': False})]
relations = {'a': {('1', '2')}, 'b': {}}
ks = KripkeStructure(worlds, relations)
mpl = Diamond_a('b', Atom('p'))
assert False == mpl.semantic(ks, '1')
def test_semantic_box_a_empty_relations():
worlds = [World('1', {'p': False}), World('2', {'p': True})]
relations = {}
ks = KripkeStructure(worlds, relations)
mpl = Diamond_a('a', Atom('p'))
assert False == mpl.semantic(ks, '1')
def kripke_model(game):
deck = game.deck.dealt_cards
# Worlds
worlds = []
for w, p in game.world.possible_worlds.items():
worlds.append(
World(
w, {
str(0) + str(p[0]): True,
str(1) + str(p[1]): True,
str(2) + str(p[2]): True
}))
# Relations
relations = {0: set([]), 1: set([]), 2: set([])}
colors = game.players[0].colors
for r_id, r in game.world.relations.items():
relations[colors.index(r[2])].add((r[0], r[1]))
# relations.update(add_reflexive_edges(worlds, relations))
# relations.update(add_symmetric_edges(relations))
# Make kripke model
ks = KripkeStructure(worlds, relations)
# This doesn't work
# formula = str(2) + str(('1S', '2S'))
# g = Box_a('0', Not(Atom(formula)))
#
# model = ks.solve(g)
print(relations)
def test_semantic_not_q():
worlds = [
World('1', {'q': False})
]
relations = {('1', '2'), ('1', '3')}
ks = KripkeStructure(worlds, relations)
mpl = Not(Atom('q'))
assert True == mpl.semantic(ks, '1')
def test_semantic_diamond_p_three_worlds_false():
worlds = [
World('1', {'p': False}),
World('2', {'p': True}),
World('3', {'p': False}),
]
relations = {('1', '2'), ('1', '3')}
ks = KripkeStructure(worlds, relations)
mpl = Diamond(Atom('p'))
assert True == mpl.semantic(ks, '1')
def test_semantic_box_p_implies_p():
worlds = [
World('1', {'p': False}),
World('2', {'p': True}),
World('3', {'p': True}),
]
relations = {('1', '2'), ('1', '3')}
ks = KripkeStructure(worlds, relations)
mpl = Implies(Box(Atom('p')), Atom('p'))
assert False == mpl.semantic(ks, '1')
def initialize_model(num_agents, played_cards, top_card, stacks):
#Ml solver objects
worlds = []
#worlds identifiable by their numbers for building the relations
worldsNumValues = []
# All cards that fit on the first stack
for cardP1S1 in range(stacks[0][0][-1] + 1, top_card):
# Card wasn't seen before
if not played_cards.get(cardP1S1, False):
# All cards that fit on the second stack
for cardP1S2 in range(2, stacks[1][0][-1]):
#cannot be played already, and cannot better for stack 1.
if (not played_cards.get(cardP1S2, False)
and not (cardP1S2 > stacks[0][0][-1]
and cardP1S2 < cardP1S1)):
for cardP2S1 in range(stacks[0][0][-1] + 1, top_card):
if (not played_cards.get(cardP2S1, False)
and (cardP2S1 != cardP1S1)
and (cardP2S1 != cardP1S2)):
for cardP2S2 in range(2, stacks[1][0][-1]):
#cannot be played already, cannot better for stack 1 and no duplicates
if (not played_cards.get(cardP2S2, False)
and not (cardP2S2 > stacks[0][0][-1]
and cardP2S2 < cardP2S1)
and (cardP2S2 != cardP1S1)
and (cardP2S2 != cardP1S2)):
#Create the worlds and add them to the numiric value list
worlds.append(
createWorld(cardP1S1, cardP1S2,
cardP2S1, cardP2S2))
worldsNumValues.append([
cardP1S1, cardP1S2, cardP2S1, cardP2S2
])
#make relations
P1relations = set()
P2relations = set()
#Use numeric value list for relations
for world1 in worldsNumValues:
for world2 in worldsNumValues:
if (world1[0] == world2[0] and world1[1] == world2[1]):
P1relations.add(
(createNameFromArray(world1), createNameFromArray(world2)))
if (world1[2] == world2[2] and world1[3] == world2[3]):
P2relations.add(
(createNameFromArray(world1), createNameFromArray(world2)))
relations = {'1': P1relations, '2': P2relations}
return KripkeStructure(worlds, relations)
def test_get_power_set_of_worlds():
worlds = [
World('1', {'p': True}),
World('2', {'p': True}),
World('3', {'p': True})
]
relations = {('1', '2'), ('1', '1'), ('2', '2')}
ks = KripkeStructure(worlds, relations)
expected_result = [{}, {'1'}, {'2'}, {'3'}, {'1', '2'}, {'1', '3'},
{'2', '3'}, {'1', '2', '3'}]
result = ks.get_power_set_of_worlds()
for i, j in zip(result, expected_result):
assert i == j
def preprocess(self):
self.game_state = "Generating Kripke Models"
#print("start")
combination_numbers = combinations(range(self.n_players),
self.n_fascists)
self.possible_combinations = []
for combo in combination_numbers:
atoms = ["{}=fascist".format(p) for p in combo] + [
"{}=liberal".format(p)
for p in range(self.n_players) if p not in combo
]
self.possible_combinations.append(atoms)
#print("end")
self.worlds = [
World("{}".format(idx), {atom: True
for atom in atoms})
for idx, atoms in enumerate(self.possible_combinations)
]
self.n_worlds = len(self.worlds)
self.models = []
for player in range(self.n_players):
worlds = copy.deepcopy(self.worlds)
relations = {
# Just the liberal relations
(str(x), str(y))
for x, y in list(combinations((range(self.n_worlds)), 2))
} if self.is_liberal(player) else set()
relations.update(self.add_reflexive_edges(worlds, relations))
relations.update(self.add_symmetric_edges(relations))
model = KripkeStructure(worlds, relations)
atom = Atom('{}=fascist'.format(player)) if self.is_fascist(
player) else Atom('{}=liberal'.format(player))
model = model.solve(atom)
self.models.append(model)
for player in range(self.n_players):
if self.is_fascist(player):
for p in range(self.n_players):
if self.is_liberal(p):
a = Atom('{}=liberal'.format(p))
self.models[player] = self.models[player].solve(a)
#print("done")
t1 = threading.Thread(target=self.run_game)
t1.start()
def test_solve_with_model_first_ann():
wise_men_model = WiseMenWithHat()
ks = wise_men_model.ks
model = ks.solve(wise_men_model.knowledge_base[1])
worlds_expected = [
World('RRW', {
'1:R': True,
'2:R': True,
'3:W': True
}),
World('RRR', {
'1:R': True,
'2:R': True,
'3:R': True
}),
World('WRR', {
'1:W': True,
'2:R': True,
'3:R': True
}),
World('WWR', {
'1:W': True,
'2:W': True,
'3:R': True
}),
World('RWR', {
'1:R': True,
'2:W': True,
'3:R': True
}),
World('WRW', {
'1:W': True,
'2:R': True,
'3:W': True
}),
]
relations_expected = {
'1': {('RRW', 'WRW'), ('RWR', 'WWR'), ('WRR', 'RRR')},
'2': {('RWR', 'RRR'), ('WRR', 'WWR')},
'3': {('RRR', 'RRW'), ('WRW', 'WRR')}
}
relations_expected.update(
Model.add_reflexive_edges(worlds_expected, relations_expected))
relations_expected.update(Model.add_symmetric_edges(relations_expected))
ks_expected = KripkeStructure(worlds_expected, relations_expected)
assert ks_expected.__eq__(model)
def __init__(self, n):
self.build_agents(n)
print("Agents: ", self.agents)
worlds, propositions = self.build_worlds(n)
#print("Worlds:", worlds)
kripke_worlds = []
self.propositions = propositions
#print("Propositions:", propositions)
#print()
# create World objects for the Kripke structure
for world in worlds:
kripke_worlds.append(World(world, worlds[world]))
# initialize the agent world relations
relations = {}
for i in range(n):
id = str(i)
relations[id] = []
for world in worlds:
for i in range(n):
id = str(i)
# if the agent has no murderer in a world, the agent cannot possibly access this world (because the
# agent is dead in this case)
if (id not in world):
continue
# an agent only has an accessibility relation to a world where their target is the same
# find the current agent's target
formulas = worlds[world]
for formula in formulas:
if (formula[0]) == str(i):
break
# look for other worlds where the agent has the same target
for other_world in worlds:
if (formula in worlds[other_world] and id in other_world):
relations[id].append((world, other_world))
for r in relations:
relations[r] = set(relations[r])
#print("Relations:")
self.ks = KripkeStructure(kripke_worlds, relations)
def test_nodes_not_follow_formula():
worlds = [
World('RWW', {
'1:R': True,
'2:W': True,
'3:W': True
}),
World('RRW', {
'1:R': True,
'2:R': True,
'3:W': True
})
]
relations = {}
ks = KripkeStructure(worlds, relations)
formula = And(Atom('2:W'), Atom('3:W'))
expected_result = ['RRW']
result = ks.nodes_not_follow_formula(formula)
assert expected_result == result
def __init__(self):
# There are only two possible configurations of killer-targer pairs
# Note that world 231, for example, stands for the world where 1 targets 2, 2 targets 3, 3 targets 1
worlds = [
World('231', {
't12': True,
't23': True,
't31': True
}),
World('312', {
't13': True,
't21': True,
't32': True
}),
]
# In the 3-agent case, from each world only the world itself is accessible for each agents
relations = {
'1': {('231', '231'), ('312', '312')},
'2': {('231', '231'), ('312', '312')},
'3': {('231', '231'), ('312', '312')}
}
# Build the Kripke model and store it in ks
self.ks = KripkeStructure(worlds, relations)
def test_eq_empty_one_empty_world():
ks_one = KripkeStructure([World('s', {'p': True})], {})
ks_two = KripkeStructure([], {})
assert not ks_one == ks_two
def test_ks_one_world():
worlds = [World('1', {'p': True})]
relations = {}
ks = KripkeStructure(worlds, relations)
atom = Atom('p')
assert True == atom.semantic(ks, '1')
def test_semantic_p_and_q():
worlds = [World('1', {'p': True, 'q': True})]
relations = {}
ks = KripkeStructure(worlds, relations)
mpl = And(Atom('p'), Atom('q'))
assert True == mpl.semantic(ks, '1')
def test_box_star_three_agents_box_phi_not_hold():
ks = KripkeStructure(
[World('1', {'p': True}), World('2', {'p': False}), World('3', {'p': True}), World('4', {'p': True})],
{'agent_1': {('1', '2'), ('1', '1')}, 'agent_2': {('1', '3'), ('1', '1')}, 'agent_3': {('1', '4'), ('1', '1')}})
formula = Box_star(Atom('p'))
assert not formula.semantic(ks, '1')
def test_atom_is_false_if_q_not_in_V():
worlds = [World('1', {'p': True})]
relations = {}
ks = KripkeStructure(worlds, relations)
atom = Atom('q')
assert False == atom.semantic(ks, '1')
def test_semantic_diamond_p_one_world_reflex_edge_false():
worlds = [World('1', {'p': False})]
relations = {('1', '1')}
ks = KripkeStructure(worlds, relations)
mpl = Diamond(Atom('p'))
assert False == mpl.semantic(ks, '1')
def test_semantic_diamond_p_one_world_true():
worlds = [World('1', {'p': True})]
relations = {}
ks = KripkeStructure(worlds, relations)
mpl = Diamond(Atom('p'))
assert False == mpl.semantic(ks, '1')
def test_semantic_box_p_two_worlds_false():
worlds = [World('1', {'p': False}), World('2', {'p': False})]
relations = {('1', '2')}
ks = KripkeStructure(worlds, relations)
mpl = Box(Atom('p'))
assert False == mpl.semantic(ks, '1')
def test_semantic_box_p_one_world_true():
worlds = [World('1', {'p': True})]
relations = {}
ks = KripkeStructure(worlds, relations)
mpl = Box(Atom('p'))
assert True == mpl.semantic(ks, '1')
def test_eq_empty_set():
ks_one = KripkeStructure([World('2', {'p': True})], {'a': set()})
ks_two = KripkeStructure([World('2', {'p': True})], {'a': set()})
assert ks_one.__eq__(ks_two)
def test_ks_wrong_type():
with pytest.raises(TypeError):
KripkeStructure("p", [])
assert True
def test_box_star_empty_relations():
ks = KripkeStructure([World('1', {'p': True})], {})
formula = Box_star(Atom('p'))
assert formula.semantic(ks, '1')