def game_map_turn_correct( arrow, play_map, direction ): # Is arrow near grid center that need to check current grid bound arrow_grid = play_map.detect_grid( arrow.position ) grid_position = play_map.grid_center( arrow_grid ) if ( cal.distance(arrow.position, grid_position) < res.distance_grid_turn*arrow.speed ): if ( direction!=arrow.direction and direction!=cal.reverse(arrow.direction) ): if ( game_map.direction_to_wall(direction) & play_map.grids[arrow_grid[1]*play_map.map_size[0]+arrow_grid[0]] == 0): arrow.set_direction( direction ) arrow.set_position( grid_position )
def game_arrow_encounter(arrow_p1, arrow_p2): # arrow encounter detect and handle if( cal.distance(arrow_p1.position, arrow_p2.position) < res.distance_collision): # pygame.draw.rect(gameDisplay, res.color_obj, [0,0,30,30], 5) if(arrow_p1.direction == arrow_p2.direction): return res.game_brokeback elif(arrow_p1.direction == cal.reverse(arrow_p2.direction)): arrow_p1.set_direction( cal.reverse(arrow_p1.direction) ) arrow_p1.position = (arrow_p1.position[0]+arrow_p1.direction[0]*res.distance_collision, arrow_p1.position[1]+arrow_p1.direction[1]*res.distance_collision) arrow_p2.set_direction( cal.reverse(arrow_p2.direction) ) arrow_p2.position = (arrow_p2.position[0] + arrow_p2.direction[0]*res.distance_collision, arrow_p2.position[1] + arrow_p2.direction[1]*res.distance_collision) return res.game_collision else: # if p1 bumps p2 if ( arrow_p1.direction == cal.unit( cal.vector(arrow_p1.position, arrow_p2.position) ) ): arrow_p1.set_direction( cal.reverse(arrow_p1.direction) ) else: arrow_p2.set_direction( cal.reverse(arrow_p2.direction) ) return res.game_side_collision
def invoke(self, arrow):
arrow.set_direction(cal.reverse(arrow.direction))
def invoke(self, arrow): arrow.set_direction( cal.reverse(arrow.direction) )