def test_get_actions_randomly(self):
not_expected = []
for action in list(Action):
not_expected.append(action)
result = Action.get_actions(True)
while result == not_expected:
result = Action.get_actions(True)
self.assertNotEqual(not_expected, result)
def create_all_next_surviving_actions(self, game: Game) -> List[Action]:
"""Calculates not only one but all actions that will let the player survive for the next rounds.
Args:
game: The current state of the game.
Returns:
A list of actions which will let the player survive for the next rounds.
"""
root = SearchTreeRoot(game.copy())
player_ids_to_watch = game.get_other_player_ids(
self.player, self.__distance_to_check, True)
combinations = Action.get_combinations(len(player_ids_to_watch))
search_tree_actions = []
for action in Action.get_actions():
if root.calculate_action(self.player, player_ids_to_watch,
combinations, self.__depth,
self._turn_ctr, True, [action],
self._max_speed, True) is not None:
search_tree_actions.append(action)
return search_tree_actions
def test_get_actions_in_order(self):
expected = []
for action in list(Action):
expected.append(action)
result = Action.get_actions()
self.assertEqual(expected, result)
def __get_actions(root: bool, first_actions: List[Action], randomize: bool) -> List[Action]:
if root and first_actions is not None and len(first_actions) >= 1:
return first_actions
return Action.get_actions(randomize)
