def test_true_count():
rules = {"num_decks": 1}
game = Game([Player(100)], rules)
game.play_round()
remaining_decks = len(game.deck) / 52
true_count = game.count / remaining_decks
assert game.true_count == pytest.approx(true_count)
def test_game_implementation():
with pytest.raises(TypeError):
Game([Player(100)], "str")
# ensure that the parameters are updated properly
rules = {"insurance_allowed": False,
"blackjack_payout": 1.2}
game = Game([Player(100)], rules)
assert game.game_params.blackjack_payout == 1.2
assert not game.game_params.insurance_allowed
# ensure player limits are imposed
rules = {"max_players": 2}
with pytest.raises(AssertionError):
Game([Player(100), Player(100), Player(100)], rules)
with pytest.raises(AssertionError):
Game([])
# ensure surrender throws and error if not allowed
# decided this test just isn't relevant right now. will bring back
# when I figure out a better implementation
rules = {"surrender_allowed": False}
def surrender(**kwargs):
return "SURRENDER"
player = Player(100, strategy_func=surrender)
game = Game([player], rules=rules)
with pytest.raises(ValueError):
game.play_round()
# test split and count implementations
rules = {"shuffle_freq": 0}
t_game = Game([Player(100)], rules=rules, test=True)
t_game.play_round()
assert t_game.player_list[0].bankroll == 110.0
assert t_game.count == 3