def __init__(self, bolt, creator, destination):
angle_ = 135 + angle(get_cell(creator), destination)
super().__init__(bolt,
get_cell(creator),
destination,
angle=angle_,
**ArrowPhysics.parameters)
def create_healing_aura(actor, _object):
if not isinstance(_object, Unit)\
or actor.activity.actions == 0\
or cab_distance(get_cell(actor), get_cell(_object)) > actor.stats.vision:
return Dummy()
else:
actor.activity.make_action(1)
return action_manager.create_heal_action("healing aura", _object)
def create_attack(actor, cell):
# impossible to attack further than one's vision allows
if cab_distance(get_cell(actor), cell) > actor.stats.vision\
or actor.activity.actions == 0\
or get_cell(actor) == cell:
return Dummy() # described in tech_bits.py
else:
actor.activity.make_action(1) # for now the cost of every attack is 1
return actor.attack(cell)
def _cell_highlight(self):
if self.inspected_cell is not None:
current = game_manager.current_turn()
if 1 < mapping.cab_distance(mapping.get_cell(current), self.inspected_cell)\
<= current.stats.vision:
mapping.highlight(self.inspected_cell, _color=arcade.color.RED)
else:
mapping.highlight(self.inspected_cell)
def attack(self, cell):
if cab_distance(get_cell(self), cell) > 1:
return create_attack_action("handaxe",
self,
cell,
damage=self.stats.damage,
damage_factor=1)
else:
return Dummy()
def move(obj, direction):
if isinstance(
obj, Unit
): # checker which might be useful in the future if NPCs are implemented
cell = get_cell(obj)
x, y = cell_to_grid(cell)
new_cell = grid_to_cell(x + direction[0], y + direction[1])
if new_cell is None or new_cell.is_occupied():
pass
elif not is_water(new_cell) and new_cell.height <= obj.activity.steps:
obj.activity.make_step(
new_cell.height) # attached in def create_unit()
cell.reset()
new_cell.state = obj
set_cell(obj, new_cell)
def __init__(self, bolt, creator, destination):
super().__init__(bolt, get_cell(creator), destination,
**FireballPhysics.parameters)