def __init__(self):
self.path_finder = PathFinder()
self.food_orders = {}
self.food_targets = set()
self.explore_orders = {}
self.attaking_orders = {}
self.food_gathering_ants = []
self.enemy_hills = []
self.water = set()
self.prox_dest = set()
self.times_stats = {'food':2, 'unseen':5, 'enemy_hill':5, 'attack_hill':10}
self.fifth_turn = -1
self.first_turn = True
self.rose = ['n','e','s','w']
self.not_spawned_ants = 0
# visibles spaces around hills
self.neighbourhood = {}
# spaces with permanent ants, around hills
self.hill_defending_locations = {}
self.hill_exitway = {}
self.hill_shield = {}
def process(v):
subp.Popen("cls", shell=True)
if v != 3:
filename = filedialog.askopenfilename(initialdir = "./", title = "Seleccione input", filetypes = (("Archivo de lista de adyacencia","*.al"), ("Todos los archivos", "*")))
if v == 0:
#subp.Popen("cls", shell=True)
#subp.Popen("\"PathFinder\PathFinder.py\" " + filename, shell=True)
PF.run(filename)
if v == 1:
#subp.Popen("cls", shell=True)
#subp.Popen("\"WarshallFinder\WarshallFinder.py\" " + filename, shell=True)
WF.run(filename)
if v == 2:
#subp.Popen("cls", shell=True)
#subp.Popen("MCB\MCB.py" + filename)
MCB.run(filename)
if v == 3:
filename = filedialog.askopenfilename(initialdir = "./BF/", title = "Seleccione input", filetypes = (("Archivos de valores delimitados por comas","*.csv"), ("Todos los archivos", "*")))
#subp.Popen("cls", shell=True)
#subp.Popen("\"BF\BF.py\" " + filename, shell=True)
BF.run(filename)
def __init__(self, bzrc, tank_index):
self.bzrc = bzrc
self.obstacles = self.bzrc.get_obstacles()
self.tank_index = tank_index
self.G_FROB = 0.90
self.R_FROB = 0.1
self.path = []
self.has_path = False
self.has_flag = False
self.path_finder = PathFinder(self.bzrc, self.tank_index)
def main():
cols, rows = 10, 10
screen = Screen(500, 500, rows)
screen.show()
screen.makeGrid()
grid = [[Spot(screen, i, j) for j in range(0, rows)] for i in range(0, cols)]
for i in range(0, cols):
for j in range(0, rows):
grid[i][j].addNeigbors(grid, cols, rows)
start = grid[0][0]
start.obstacle = False
stop = grid[cols - 1][rows - 1]
stop.obstacle = False
pathFinder = PathFinder(grid, start, stop)
while True:
for event in pygame.event.get():
if (event.type == pygame.QUIT):
screen.close()
result = pathFinder.findPath()
pathFinder.showOpenSet()
pathFinder.showPath()
screen.update()
def main():
# Process CLI arguments.
try:
execname, host, port = sys.argv
except ValueError:
execname = sys.argv[0]
print >>sys.stderr, '%s: incorrect number of arguments' % execname
print >>sys.stderr, 'usage: %s hostname port' % sys.argv[0]
sys.exit(-1)
# Connect.
# bzrc = BZRC(host, int(port), debug=True)
bzrc = BZRC(host, int(port))
path_finder = PathFinder(bzrc, 0)
remove_old_plot_files()
### Depth First Search Visualizations ###
path = path_finder.get_depth_first_search_path()
plot_single(path, bzrc.get_obstacles(), '../plots/dfs_plots/dfs.png')
snapshots = path_finder.search_snapshots
plot_snapshots(snapshots, "../plots/dfs_plots/dfs", bzrc.get_obstacles())
### Breadth First Search Visualizations ###
path = path_finder.get_breadth_first_search_path()
plot_single(path, bzrc.get_obstacles(), '../plots/bfs_plots/bfs.png')
snapshots = path_finder.search_snapshots
plot_snapshots(snapshots, "../plots/bfs_plots/bfs", bzrc.get_obstacles())
### A* Visualizations ###
path = path_finder.get_a_star_path()
plot_single(path, bzrc.get_obstacles(), '../plots/a_star_plots/a_star.png')
snapshots = path_finder.search_snapshots
plot_snapshots(snapshots, "../plots/a_star_plots/a_star", bzrc.get_obstacles())
print("finished")
bzrc.close()
def __init__(self, bzrc, tank_index):
self.bzrc = bzrc
self.obstacles = self.bzrc.get_obstacles()
self.tank_index = tank_index
self.G_FROB = 0.90
self.R_FROB = 0.1
self.path = []
self.has_path = False
self.has_flag = False
self.path_finder = PathFinder(self.bzrc, self.tank_index)
def __init__(self, clock, dungeon, locale_id):
self.clock = clock
self.dungeon = dungeon
self.path_finder = PathFinder(dungeon)
self.locale_id = locale_id
self.queue = PriorityQueue()
self.factions = {}
self.playing = True
self.dungeon_expire = self.clock.max_locale_time
self.char_id = 'DM'
self.placement_locations = {
'ne': [],
'e': [],
'se': [],
'nw': [],
'w': [],
'sw': [],
}
self.init_placement_locations()
self.clock.set_local_time(locale_id=locale_id, locale_time=0)
def draw_graph(self):
pos = nx.spring_layout(self.graph)
# print(self.color_graph())
nx.draw_networkx_nodes(self.graph, pos=pos, node_size=700)
# hamilton = Hamilton(self)
# is_hamilton_cycle = hamilton.is_hamilton_cycle()
#
# if is_hamilton_cycle:
# nx.draw_networkx_edges(self.graph, pos, edgelist=hamilton.visited_edges, width=6)
# edge_labels = self.get_edge_dict_with_property('placement')
# nx.draw_networkx_edge_labels(self.graph, pos=pos, edge_labels=edge_labels)
nx.draw_networkx_edges(self.graph, pos)
if not self.are_all_weights_equal():
edge_labels = self.get_edge_dict_with_property('weight')
nx.draw_networkx_edge_labels(self.graph, pos=pos, edge_labels=edge_labels)
nx.draw_networkx_labels(self.graph, pos)
# eulerian = Eulerian(self.graph)
#
# if eulerian.is_eulerian_circuit():
# plt.suptitle('Is an Euler\'s circuit.', color='green')
# else:
# plt.suptitle('Is not an Euler\'s circuit.', color='red')
#
# eulerian.eulerian_circuit(0)
# print('Critical edges: ' + str(self.get_critical_edges()))
pathFinder = PathFinder(self, list(self.get_nodes())[0])
print(pathFinder.get_shortest_path_to_node(3))
# print(pathFinder.get_shortest_path_to_all_nodes_using_weights())
plt.axis('off')
plt.show()
def __init__(self):
# Must come before pygame.init()
self.sounds = Sounds()
self._clock = pygame.time.Clock()
pygame.init()
pygame.display.set_mode(
(1, 1)) # temporarily initialise display so bitmaps can be loaded
pygame.display.set_caption("Pacman")
self.graphics = Graphics(self)
self._img_Background = self.graphics.loadImage("backgrounds", "1.gif")
# create the pacman
self.player = Player(self)
# create a path_finder object
self.path = PathFinder()
# create ghost objects
self.ghosts = {}
for i in range(0, 6, 1):
# remember, ghost[4] is the blue, vulnerable ghost
self.ghosts[i] = Ghost(self, i)
# create piece of fruit
self.fruit = Fruit(self)
self.tileID = {} # gives tile ID (when the name is known)
self.tileIDImage = {} # gives tile image (when the ID# is known)
# create game and level objects and load first level
self.game = Game(self)
self.level = Level(self)
self.level.loadLevel(self.game.getLevelNum())
self.graphics.initDisplay()
# initialise the joystick
if pygame.joystick.get_count() > 0:
if JS_DEVNUM < pygame.joystick.get_count():
self._js = pygame.joystick.Joystick(JS_DEVNUM)
else:
self._js = pygame.joystick.Joystick(0)
self._js.init()
else:
self._js = None
def __choose__qCard(self):
date = datetime.date
month = date.month
if month == 12:
if randrange(1, 2) == 1:
finder = PathFinder("Questions.txt")
infile = open(finder.getPath())
qCards = infile.readlines()
CardNo = randrange(0, len(qCards))
self.__qCard = qCards[CardNo]
else:
finder = PathFinder("Holiday Expansion Questions.txt")
infile = open(finder.getPath())
qCards = infile.readlines()
CardNo = randrange(0, len(qCards))
self.__qCard = qCards[CardNo]
else:
finder = PathFinder("Questions.txt")
infile = open(finder.getPath())
qCards = infile.readlines()
CardNo = randrange(0, len(qCards))
self.__qCard = qCards[CardNo]
def GenerateObstacle(self):
self.obstacle_point.append(
PathFinder.Point(self.size // 2, self.size // 2))
self.obstacle_point.append(
PathFinder.Point(self.size // 2, self.size // 2 - 1))
# Generate an obstacle in the middle
for i in range(self.size // 2 - self.size // 3, self.size // 2):
self.obstacle_point.append(PathFinder.Point(i, self.size - i))
self.obstacle_point.append(PathFinder.Point(i, self.size - i - 1))
self.obstacle_point.append(PathFinder.Point(self.size - i, i))
self.obstacle_point.append(PathFinder.Point(self.size - i, i - 1))
def __getAnswerCard():
date = datetime.date
month = date.month
if month == 12:
if randrange(1, 2) == 1:
finder = PathFinder("Answers.txt")
infile = open(finder.getPath())
aCards = infile.readlines()
CardNo = randrange(0, len(aCards))
__aCard = aCards[CardNo]
else:
finder = PathFinder("Holiday Expansion Answers.txt")
infile = open(finder.getPath())
aCards = infile.readlines()
CardNo = randrange(0, len(aCards))
__aCard = aCards[CardNo]
else:
finder = PathFinder("Answers.txt")
infile = open(finder.getPath())
aCards = infile.readlines()
CardNo = randrange(0, len(aCards))
__aCard = aCards[CardNo]
return __aCard
def start(self):
rospy.wait_for_service("apriltags_info")
try:
info_query = rospy.ServiceProxy("apriltags_info", apriltags_info)
resp = info_query()
for i in range(len(resp.polygons)):
# A polygon (access points using poly.points)
poly = resp.polygons[i]
# The polygon's id (just an integer, 0 is goal, all else is bad)
t_id = resp.ids[i]
polyPoints = []
for point in poly.points:
polyPoints.append(Point(point.x, point.y))
self.world.addTag(PolyField(t_id, polyPoints))
self.world.createFields()
PathFinder(self.world)
except Exception, e:
print "Exception: " + str(e)
def __choose__qCard(self):
date = datetime.date
month = date.month
if month == 12:
if randrange(1, 2) == 1:
finder = PathFinder("Questions.txt")
infile = open(finder.getPath())
qCards = infile.readlines()
CardNo = randrange(0, len(qCards))
self.__qCard = qCards[CardNo]
else:
finder = PathFinder("Holiday Expansion Questions.txt")
infile = open(finder.getPath())
qCards = infile.readlines()
CardNo = randrange(0, len(qCards))
self.__qCard = qCards[CardNo]
else:
finder = PathFinder("Questions.txt")
infile = open(finder.getPath())
qCards = infile.readlines()
CardNo = randrange(0, len(qCards))
self.__qCard = qCards[CardNo]
def __getAnswerCard():
date = datetime.date
month = date.month
if month == 12:
if randrange(1, 2) == 1:
finder = PathFinder("Answers.txt")
infile = open(finder.getPath())
aCards = infile.readlines()
CardNo = randrange(0, len(aCards))
__aCard = aCards[CardNo]
else:
finder = PathFinder("Holiday Expansion Answers.txt")
infile = open(finder.getPath())
aCards = infile.readlines()
CardNo = randrange(0, len(aCards))
__aCard = aCards[CardNo]
else:
finder = PathFinder("Answers.txt")
infile = open(finder.getPath())
aCards = infile.readlines()
CardNo = randrange(0, len(aCards))
__aCard = aCards[CardNo]
return __aCard
from PathFinder import PathFinder pathFinder = PathFinder() pathFinder.clustering( )
class MyBot:
def __init__(self):
self.path_finder = PathFinder()
self.food_orders = {}
self.food_targets = set()
self.explore_orders = {}
self.attaking_orders = {}
self.food_gathering_ants = []
self.enemy_hills = []
self.water = set()
self.prox_dest = set()
self.times_stats = {'food':2, 'unseen':5, 'enemy_hill':5, 'attack_hill':10}
self.fifth_turn = -1
self.first_turn = True
self.rose = ['n','e','s','w']
self.not_spawned_ants = 0
# visibles spaces around hills
self.neighbourhood = {}
# spaces with permanent ants, around hills
self.hill_defending_locations = {}
self.hill_exitway = {}
self.hill_shield = {}
def do_setup(self, ants):
self.rows = ants.rows
self.cols = ants.cols
#random.seed(ants.player_seed)
#self.explore_map = ExploreMap(self.rows, self.cols, 3, ants.viewradius2)
#self.explore_map = DiffusionMap.DiffusionMap(self.rows, self.cols, ants.viewradius2)
self.explore_map = SimpleExploreMap(self.rows, self.cols)
# precalculate squares around an ant, of radius sqrt(rad2)
def get_pre_radius(rad2):
offsets = []
mx = int(sqrt(rad2))
for d_row in range(-mx,mx+1):
for d_col in range(-mx,mx+1):
d = d_row**2 + d_col**2
if d <= rad2:
offsets.append((
d_row%self.rows-self.rows,
d_col%self.cols-self.cols
))
return offsets
extra_rad = 0
# attack_rad*2 + extra_rad
attack_rad2 = int(4*ants.attackradius2+(extra_rad**2)+4*extra_rad*sqrt(ants.attackradius2))
extra_rad = -1
# attack_rad + extra_rad
defend_rad2 = int(ants.attackradius2+(extra_rad**2)+2*extra_rad*sqrt(ants.attackradius2))
self.ant_view_area = get_pre_radius(ants.viewradius2)
self.ant_attack_area = get_pre_radius(attack_rad2)
self.ant_defend_area = get_pre_radius(defend_rad2)
self.food_rad = get_pre_radius(ants.spawnradius2)
def do_turn(self, ants):
self.ants = ants
self.fifth_turn = (self.fifth_turn +1)%5
time_left = ants.time_remaining
# track all moves, prevent collisions and prevent stepping on my own hills
self.prox_dest = set(ants.my_hills())
self.water.update(ants.water())
free_ants = ants.my_ants()[:]
initial_n_ants = len(free_ants)
if self.first_turn:
#self.explore_map = WaveFrontMap(self.rows, self.cols, ants.my_hills()[0], ants.viewradius2)
self.not_spawned_ants = initial_n_ants
self.set_hills_areas()
self.first_turn = False
self.explore_map.update(ants)
self.detect_enemy_hills()
self.check_razed_hills(free_ants)
if time_left() < 10:
return
self.maintain_ants_at_defending_location(initial_n_ants, free_ants)
self.defend_my_hills(free_ants)
if time_left() < 10:
return
self.fight(free_ants)
if time_left() < 20:
return
self.unblock_own_hill(initial_n_ants, free_ants)
self.continue_with_attaking_orders(free_ants)
self.continue_with_food_orders(free_ants)
if time_left() < 10:
return
self.find_close_food(free_ants, time_left, 1)
self.attack_enemy_hills(free_ants, time_left, 2)
if time_left() < 25:
return
#self.continue_with_explore_orders(free_ants)
#if self.fifth_turn == 4:
# print("time left before explore: "+str(time_left()))
self.explore2(free_ants, time_left, 3)
if time_left() < 20:
return
self.check_collected_food()
#if self.fifth_turn == 4:
# print("time left: "+str(time_left()))
###############################################################################################
############### Helper Functions ##############################################################
###############################################################################################
# receive set of obstacles
# return function giving possible moves using these obstacles
def possible_moves(self, obstacles):
def temp(loc):
d = self.ants.destination
rose = self.rose
moves = [ loc for loc in [ d(loc, direction) for direction in rose ] if loc not in obstacles ]
return moves
return temp
def do_move_direction(self, loc, direction, free_ants):
new_loc = self.ants.destination(loc, direction)
if(self.ants.unoccupied(new_loc) and new_loc not in self.prox_dest):
self.ants.issue_order((loc, direction))
self.prox_dest.add(new_loc)
free_ants.remove(loc)
if loc in self.ants.my_hills():
self.not_spawned_ants-=1
return True
else:
return False
def do_move_location(self, loc, dest, free_ants):
directions = self.ants.direction(loc, dest)
for direction in directions:
if self.do_move_direction(loc, direction, free_ants):
return True
return False
def get_radius(self, loc, area):
a_row, a_col = loc
return set([ ((a_row+v_row)%self.rows, (a_col+v_col)%self.cols) for v_row, v_col in area])
def get_full_shield(self, hill):
# .sss.
# sssss
# ssHss
# sssss
# .sss.
h_row, h_col = hill
shield = set([ (row%self.rows, col%self.cols) for row in range(h_row-2, h_row+2) for col in range(h_col-2, h_col+2) ])
shield.remove(hill)
shield.difference_update(self.water)
shield.difference_update(set([((h_row+2)%self.rows, (h_col+2)%self.cols), ((h_row+2)%self.rows, (h_col-2)%self.cols),
((h_row-2)%self.rows, (h_col-2)%self.cols), ((h_row-2)%self.rows, (h_col+2)%self.cols)]))
d = self.ants.euclidian_distance
dist = [ (d(loc,hill), loc) for loc in shield ]
dist.sort()
return dist
def get_inner_shield(self, hill):
# .....
# .sss.
# .sHs.
# .sss.
# .....
h_row, h_col = hill
shield = set([ (row%self.rows, col%self.cols) for row in range(h_row-1, h_row+1) for col in range(h_col-1, h_col+1) ])
shield.difference_update(self.water)
shield.remove(hill)
d = self.ants.euclidian_distance
dist = [ (d(loc,hill), loc) for loc in shield ]
dist.sort()
return dist
def get_inner_odd_shield(self, hill):
# .....
# ..s..
# .sHs.
# ..s..
# .....
h_row, h_col = hill
shield = set([ ((h_row-1)%self.rows, (h_col)%self.cols), ((h_row)%self.rows, (h_col+1)%self.cols),
((h_row+1)%self.rows, (h_col)%self.cols), ((h_row)%self.rows, (h_col-1)%self.cols) ])
shield.difference_update(self.water)
d = self.ants.euclidian_distance
dist = [ (d(loc,hill), loc) for loc in shield ]
dist.sort()
return dist
def get_inner_even_shield(self, hill):
# .....
# .s.s.
# ..H..
# .s.s.
# .....
h_row, h_col = hill
return set([(h_row+1,h_col+1), (h_row-1,h_col-1), (h_row-1,h_col+1), (h_row+1,h_col-1)]) - self.water
def get_outer_shield(self, hill):
# .sss.
# s...s
# s.H.s
# s...s
# .sss.
h_row, h_col = hill
shield = set([ ((h_row-2)%self.rows, (h_col-1)%self.cols), ((h_row-2)%self.rows, (h_col)%self.cols), ((h_row-2)%self.rows, (h_col+1)%self.cols),
((h_row-1)%self.rows, (h_col-2)%self.cols), ((h_row-1)%self.rows, (h_col+2)%self.cols),
((h_row)%self.rows, (h_col-2)%self.cols), ((h_row)%self.rows, (h_col+2)%self.cols),
((h_row+1)%self.rows, (h_col-2)%self.cols), ((h_row+1)%self.rows, (h_col+2)%self.cols),
((h_row+2)%self.rows, (h_col-1)%self.cols), ((h_row+2)%self.rows, (h_col)%self.cols), ((h_row+2)%self.rows, (h_col+1)%self.cols) ])
shield.difference_update(self.water)
d = self.ants.euclidian_distance
dist = [ (d(loc,hill), loc) for loc in shield ]
dist.sort()
return dist
def get_exit_ways(self, hill):
h_row, h_col = hill
potencial_exit_ways = [((h_row+1,h_col), 's'), ((h_row-1,h_col), 'n'), ((h_row,h_col+1), 'e'), ((h_row,h_col-1), 'w')]
exit_ways = []
for loc, direction in potencial_exit_ways:
if loc not in self.water:
next_loc = self.ants.destination(loc, direction)
if next_loc not in self.water:
exit_ways.append((loc, direction))
if len(exit_ways) > 0:
return exit_ways
else:
return potencial_exit_ways
###############################################################################################
############### Action Functions ##############################################################
###############################################################################################
def check_razed_hills(self, free_ants):
for enemy_hill in self.enemy_hills[:]:
if enemy_hill in free_ants:
self.enemy_hills.remove(enemy_hill)
def detect_enemy_hills(self):
for hill_loc, hill_owner in self.ants.enemy_hills():
if hill_loc not in self.enemy_hills:
self.enemy_hills.append(hill_loc)
def set_hills_areas(self):
for hill in self.ants.my_hills():
self.neighbourhood[hill] = self.get_radius(hill, self.ant_view_area) - self.water
self.hill_defending_locations[hill] = self.get_inner_even_shield(hill)
self.hill_exitway[hill] = self.get_exit_ways(hill)
self.hill_shield[hill] = {}
#self.hill_shield[hill]['full'] = self.get_full_shield(hill)
self.hill_shield[hill]['inner'] = self.get_inner_shield(hill)
self.hill_shield[hill]['outer'] = self.get_outer_shield(hill)
def maintain_ants_at_defending_location(self, initial_n_ants, free_ants):
my_hills = self.ants.my_hills()
ants_per_hill = initial_n_ants/(len(my_hills)+1)
if ants_per_hill > 6:
n_expected_ants = 4
elif ants_per_hill > 3:
n_expected_ants = 2
elif ants_per_hill > 1:
n_expected_ants = 1
else:
n_expected_ants = 0
for hill in my_hills:
n_defending_ants = 0
for defend_loc in self.hill_defending_locations[hill]:
if n_defending_ants >= n_expected_ants:
break
n_defending_ants+=1
if defend_loc in free_ants: # if there is an ant, stay there
free_ants.remove(defend_loc)
self.prox_dest.add(defend_loc)
else:
paths = self.path_finder.BFS(defend_loc, free_ants, self.possible_moves(self.water), backward=True)
for path in paths:
self.do_move_location(path['source'], path['path'][path['source']], free_ants)
def unblock_own_hill(self, initial_n_ants, free_ants):
my_hills = self.ants.my_hills()
if initial_n_ants > (15 * len(my_hills)):
ideal_def = int(initial_n_ants * 0.10)
else:
ideal_def = 0
for hill in my_hills:
for loc, direction in self.hill_exitway[hill]:
if loc in free_ants:
self.do_move_direction(loc, direction, free_ants)
if hill in free_ants:
if self.not_spawned_ants >= ideal_def:
for direction in self.rose:
if self.do_move_direction(hill, direction, free_ants):
break
else:
free_ants.remove(hill)
def check_collected_food(self):
for food in self.ants.food():
close_ants = self.get_radius(food, self.food_rad) & self.prox_dest
if len(close_ants) > 0:
self.not_spawned_ants+=1
def continue_with_attaking_orders(self, free_ants):
# orders_format: (hill_loc, path)
new_orders = {}
for ant_loc in free_ants[:]:
if ant_loc in self.attaking_orders and self.attaking_orders[ant_loc][0] in self.enemy_hills:
new_loc = self.attaking_orders[ant_loc][1][ant_loc]
self.do_move_location(ant_loc, new_loc, free_ants)
new_orders[new_loc] = self.attaking_orders[ant_loc]
self.attaking_orders = new_orders
def continue_with_food_orders(self, free_ants):
# orders_format: (food_loc, path)
foods = self.ants.food()
new_orders = {}
for ant_loc in self.food_gathering_ants[:]:
# if ant is still alive and if food still exist, go for it
if ant_loc in free_ants and self.food_orders[ant_loc][0] in foods:
new_loc = self.food_orders[ant_loc][1][ant_loc]
if self.do_move_location(ant_loc, new_loc, free_ants) and new_loc == self.food_orders[ant_loc][0]:
self.food_targets.remove(new_loc) # discard collected food
new_orders[new_loc] = self.food_orders[ant_loc]
self.food_orders = new_orders
self.food_gathering_ants = self.food_orders.keys()
def continue_with_explore_orders(self, free_ants):
# orders_format: (dest_loc, path)
new_orders = {}
for ant_loc in free_ants[:]:
if ant_loc in self.explore_orders and ant_loc != self.explore_orders[ant_loc][0]:
new_loc = self.explore_orders[ant_loc][1][ant_loc]
if self.do_move_location(ant_loc, new_loc, free_ants):
new_orders[new_loc] = self.explore_orders[ant_loc]
self.explore_orders = new_orders
def find_close_food(self, free_ants, time_left, stat_update_turn):
#if self.fifth_turn == stat_update_turn:
# ini = time.time()
# ~1ms/ant
foods = set(self.ants.food())
possible_moves = self.possible_moves(self.water)
#if time_left()-self.times_stats['food'] > 20:
for ant_loc in free_ants[:]:
paths = self.path_finder.BFS(ant_loc, foods-self.food_targets, possible_moves)
for path in paths:
if self.do_move_location(ant_loc, path['path'][ant_loc], free_ants):
self.food_targets.add(path['goal'])
self.food_orders[path['path'][ant_loc]] = (path['goal'], path['path'])
self.food_gathering_ants.append(path['path'][ant_loc])
# if self.fifth_turn == stat_update_turn:
# self.times_stats['food'] = int(1000*(time.time()-ini))+2
def find_close_food2(self, free_ants, time_left, stat_update_turn):
foods = set(self.ants.food()) - self.food_targets
possible_moves = self.possible_moves(self.water)
for food_loc in foods:
paths = self.path_finder.BFS(food_loc, free_ants, possible_moves, max_cost=15, backward=True)
for path in paths:
if self.do_move_location(path['source'], path['path'][path['source']], free_ants):
self.food_targets.add(food_loc)
self.food_orders[path['path'][path['source']]] = (food_loc, path['path'])
self.food_gathering_ants.append(path['path'][path['source']])
def attack_enemy_hills(self, free_ants, time_left, stat_update_turn):
if self.fifth_turn == stat_update_turn:
#num = len(free_ants)+1
ini = time.time()
possible_moves = self.possible_moves(self.water)
if time_left()-self.times_stats['attack_hill'] > 20:
for hill_loc in self.enemy_hills:
paths = self.path_finder.BFS(hill_loc, set(free_ants), possible_moves, num=30, max_cost=40, backward=True)
for path in paths:
if path['source'] in free_ants and self.do_move_location(path['source'], path['path'][path['source']], free_ants):
self.attaking_orders[path['path'][path['source']]] = (hill_loc, path['path'])
if self.fifth_turn == stat_update_turn:
self.times_stats['attack_hill'] = int(1000*(time.time()-ini))+2#/num +2
def explore(self, free_ants, time_left, stat_update_turn):
#if self.fifth_turn == stat_update_turn:
num = len(free_ants)+1
ini = time.time()
possible_moves = self.possible_moves(self.water)
for ant_loc in free_ants[:]:
if time_left()-self.times_stats['unseen'] < 20:
break
# new_locs = self.explore_map.get_higher_locs(ant_loc)
# for val, loc in new_locs:
# if self.do_move_location(ant_loc, loc, free_ants):
# break
new_locs = self.explore_map.all_val_locs(ant_loc)
for val, locs in new_locs:
break2 = False
paths = self.path_finder.BFS(ant_loc, set(locs), possible_moves, num=15, max_cost=15)
for path in paths:
#if ant_loc not in path['path']:
# sys.stdout.flush()
# sys.exit()
try:
if self.do_move_location(ant_loc, path['path'][ant_loc], free_ants):
self.explore_orders[path['path'][ant_loc]] = (path['goal'], path['path'])
break2 = True
break
except KeyError, e:
pass
#print(path)
#print(ant_loc)
if break2:
break
#if self.fifth_turn == stat_update_turn:
self.times_stats['unseen'] = int(1000*(time.time()-ini))/num +2
from MapManager import MapManager
from PathFinder import PathFinder
MapMgr = MapManager()
PF = PathFinder()
mandatory_tasks = ['push_top','push_mid','push_bot']
addictional_tasks = ['take_rune','def_top','def_mid','def_bot']
task_queue = []
if !task_queue:
task = mandatory_tasks[0]
task_queue.append(task)
current_task = task_queue.pick()
if current_task == 'push_top':
MapMgr.blockArea(MapMgr.top_blocks) #add top part of map to blocked area
PF.goTo(MapMgr.home) #go to the home location
destination = MapMgr.getPushPoint('top') #get point where to go to
class PathAgent(object):
def __init__(self, bzrc, tank_index):
self.bzrc = bzrc
self.obstacles = self.bzrc.get_obstacles()
self.tank_index = tank_index
self.G_FROB = 0.90
self.R_FROB = 0.1
self.path = []
self.has_path = False
self.has_flag = False
self.path_finder = PathFinder(self.bzrc, self.tank_index)
def tick(self, time_diff):
self.commands = []
tank = self.bzrc.get_mytanks()[self.tank_index]
# if our tank is dead, invalidate its path and we're done
if tank.status == "dead":
self.has_path = False
return
# if the tank picks up the flag, recalculate path
if not self.has_flag and not tank.flag =='-':
self.has_path = False
self.has_flag = True
if not self.has_path:
# get the path by choosing from DFS, BFS, A*, etc.
print "updating visibility graph for tank", self.tank_index
self.path_finder.update_visibility_graph(self.tank_index)
print "calculating path for tank", self.tank_index
self.path = self.path_finder.get_path()
self.has_path = True
if not len(self.path) == 0:
dist_from_next = math.sqrt((tank.x - self.path[0][0]) ** 2 + (tank.y - self.path[0][1]) **2)
next_point = self.path[0]
if dist_from_next < 25:
self.path.remove(self.path[0])
self.traverse_path(next_point, tank)
else:
self.has_path = False
return
def traverse_path(self, next_point, tank):
forces = []
x_force = 0
y_force = 0
forces.append(self.calculate_goal_force(next_point, tank))
forces.append(self.calculate_random_force(tank))
for force in forces:
x_force += force[0]
y_force += force[1]
self.move(x_force, y_force, tank)
def calculate_goal_force(self, goal, tank):
x_force = min(goal[0] - tank.x, 200)
y_force = min(goal[1] - tank.y, 200)
output = [x_force * self.G_FROB, y_force * self.G_FROB]
return output
def calculate_random_force(self, tank):
return [random.randint(-10, 10) * self.R_FROB, random.randint(-10, 10) * self.R_FROB]
def move(self, x_force, y_force, tank):
magnitude = math.sqrt(x_force ** 2 + y_force ** 2)/20
targetAngle = math.atan2(y_force, x_force)
# randomly shoot
should_shoot = False
if random.random() < .05:
should_shoot = True
command = Command(self.tank_index, magnitude, self.calculate_angvel(tank, targetAngle), should_shoot)
self.commands.append(command)
if self.commands:
self.bzrc.do_commands(self.commands)
def calculate_angvel(self, tank, targetAngle):
targetAngle = self.two_pi_normalize(targetAngle)
current = self.two_pi_normalize(tank.angle)
output = self.normalize_angle(targetAngle - current)
return output
def normalize_angle(self, angle):
"""Make any angle be between +/- pi."""
angle -= 2 * math.pi * int (angle / (2 * math.pi))
if angle <= -math.pi:
angle += 2 * math.pi
elif angle > math.pi:
angle -= 2 * math.pi
return angle
def two_pi_normalize(self, angle):
"""Make any angle between 0 to 2pi."""
angle += 2 * math.pi
return angle % (2 * math.pi)
import matplotlib.pyplot as plt
from matplotlib.patches import Rectangle
from PathFinder import RandomMap, PathFinder
plt.figure(figsize=(6, 6))
graph = RandomMap.RandomMap(size=50)
ax = plt.gca()
ax.set_xlim([0, graph.size])
ax.set_ylim([0, graph.size])
for i in range(graph.size):
for j in range(graph.size):
if graph.IsObstacle(PathFinder.Point(i, j)):
rec = Rectangle((i, j), width=1, height=1, color='gray')
ax.add_patch(rec)
else:
rec = Rectangle((i, j),
width=1,
height=1,
edgecolor='gray',
facecolor='w')
ax.add_patch(rec)
rec = Rectangle((0, 0), width=1, height=1, facecolor='b')
ax.add_patch(rec)
rec = Rectangle((graph.size - 1, graph.size - 1),
width=1,
def __init__(self):
self.rose = ['n','e','s','w']
self.water = set()
self.path_finder = PathFinder()
def run(self):
"""
Starts the maze solving process. This method blocks until the maze has been solved, but
will call update_callback on a regular basis to allow the UI to be updated.
"""
self._stopped = False
self._finished = False
if self.fixed_image_path is None:
camera = cv2.VideoCapture(self.camera_index)
retval, self._current_image = camera.read()
if not retval:
raise IOError("Failed to read initial image from camera.")
else:
self._current_image = cv2.imread(self.fixed_image_path)
# Run initial image processing
mazenodes = MazeNodes(self._current_image, self.end_colour_lower,
self.end_colour_upper, self.start_colour_lower,
self.start_colour_upper, self.play_colour_lower,
self.play_colour_upper, self.debug)
mazenodes.runProcessing()
nodes = mazenodes.nodes
start_node = mazenodes.start
end_node = mazenodes.end
# Start and end nodes not necessarily on grid with other nodes, must find
# their neighbours separately
img.findRegionCenterNeighbours(start_node, nodes, mazenodes.x_div_len,
mazenodes.y_div_len)
img.findRegionCenterNeighbours(end_node, nodes, mazenodes.x_div_len,
mazenodes.y_div_len)
# Find path through maze
pathfinder = PathFinder(nodes, start_node, end_node)
self._path = pathfinder.findPath()
self._end_x, self._end_y = end_node.coordinates
if self.debug:
img.drawResults(self._current_image, nodes, self._path, start_node,
end_node)
if not self.fixed_image_path is None:
# Debug: draw result of pathfinding
img.drawResults(self._current_image, nodes, self._path, start_node,
end_node)
else:
# Live ball tracking
ball_finder = FindBall(mazenodes.start_lower,
mazenodes.start_upper, mazenodes.filt_close,
mazenodes.filt_open)
planner = BallPathPlanner(self._path)
with ServoConnection(port=self.serial_port) as conn:
# Get "flat" x and y positions of servos over serial connection
try:
flat_x = conn.get_x_val()
flat_y = conn.get_y_val()
except SerialException:
flat_x = conn.get_x_val()
flat_y = conn.get_y_val()
while not planner.isFinished():
if self._stopped:
break
start_time = time.clock()
# Get current image of maze
retval, self._current_image = camera.read()
if not retval:
raise IOError("Failed to read image from camera.")
# Find ball, its acceleration, and where its currently trying to get to
self._ball_x, self._ball_y = ball_finder.findBall(
self._current_image)
self._acc_x, self._acc_y = planner.getAcceleration(
self._ball_x, self._ball_y)
self._target_coords = planner.get_target_pos()
try:
# Determine how to tilt the board next to acheive desired acceleraton and direction
new_x_acc = max(
-1 * MAX_ACC,
min(MAX_ACC,
self._acc_x * ACC_MULTIPLIER + flat_x))
new_y_acc = max(
-1 * MAX_ACC,
min(MAX_ACC,
self._acc_y * ACC_MULTIPLIER + flat_y))
# Send command for x servo over serial
conn.set_x_val(int(new_x_acc))
self._ser_results.append(1)
time.sleep(0.001)
# Send command for y servo over serial
conn.set_y_val(int(new_y_acc))
self._ser_results.append(1)
except SerialException as ex:
print ex
self._ser_results.append(0)
self.update_callback(self)
time.sleep(
max(1.0 / FRAMERATE - (time.clock() - start_time), 0))
self._finished = planner.isFinished()
# Release camera
camera.release()
from Repository import Repository
from PathFinder import PathFinder
from Service import Service
from UI import UI
repository = Repository("ll\\tsp.txt", "ll\\tsp_solution.txt")
pathFinder = PathFinder(repository)
service = Service(pathFinder)
ui = UI(service)
ui.start()
import sys
sys.path.append("View")
sys.path.append("PathAlgorithms")
sys.path.append("Images")
sys.path.append("Common")
from PathFinder import PathFinder
if __name__ == "__main__":
pathFinder = PathFinder();
pathFinder.bestSearch()
self.start_index = start_node
self.end_index = end_node
self.memory = {}
for row in self.board:
for node in row:
self.memory[node] = float('inf')
self.memory[start_node] = 0
def execute(self):
pass
def run(self):
pass
def find_distance(self):
pass
def find_adjacent_nodes(self):
pass
if __name__ == "__main__":
WINDOW_RES = (301, 301)
NODE_SIZE = 20
program = PathFinder(WINDOW_RES, NODE_SIZE)
program.run()
screen = pygame.display.set_mode(SCREEN_SIZE, HWSURFACE | DOUBLEBUF, 32)
screen.fill((0,0,0))
pygame.display.set_caption("PathFinder - v1.0 @ ShannonXu")
#init font
uiFont = pygame.font.SysFont("arial", 20)
# path finder init
gridMap = GM(31,56)
# map drawer
mapDrawer = MD(pygame, screen, SCREEN_SIZE, gridMap)
#path finder
pathFinder = PF()
pathFinder.setMapDrawer(mapDrawer)
#maze maker
mazeMaker = MM()
gridMap.setMazeMaker(mazeMaker)
# rts sim
rtss = RTSS()
rtss.setMapDrawer(mapDrawer)
lastTime = time.time()
while True:
currTime = time.time()
update(screen, uiFont, int(round(currTime * 1000)) - int(round(lastTime * 1000)))
lastTime = currTime
startNode = Node.Node()
endNode = Node.Node()
for n in nodes:
if nodes.get(n).start:
startNode = nodes.get(n)
if nodes.get(n).end:
endNode = nodes.get(n)
imgpro.findRegionCenterNeighbours(startNode, nodes, mn.x_div_len,
mn.y_div_len)
imgpro.findRegionCenterNeighbours(endNode, nodes, mn.x_div_len,
mn.y_div_len)
pf = PathFinder(nodes, startNode, endNode)
path = pf.findPath()
planner = bpp.BallPathPlanner(path)
planner.speed = 400
ballsim = BallSimulator(startNode.coordinates[0], startNode.coordinates[1])
while not planner.isFinished():
start = time.clock()
x, y = ballsim.getBallPos()
cv2.circle(image, (int(x), int(y)), 8, BALL_COLOUR)
acc = planner.getAcceleration(x, y)
ballsim.setAcceleration(acc[0], acc[1])
time.sleep(max(0.03 - (time.clock() - start), 0))
(3, 11, 12), (3, 18, 19), (3, 24, 25), (3, 31, 36), (4, 3, 12),
(4, 22, 25), (5, 11, 12), (5, 18, 25), (6, 11, 32), (7, 16, 19),
(7, 27, 33), (8, 3, 22), (8, 30, 31), (9, 10, 15), (9, 30, 32),
(10, 13, 15), (10, 24, 32), (11, 13,
19), (11, 24,
25), (12, 9, 15), (12, 24, 30),
(13, 24, 25), (14, 8, 25), (15, 0, 9), (15, 15, 30), (16, 0, 1))
START = (16, 0)
STARTNEIGHBOORS = {"left": False, "right": False, "front": True, "back": False}
END = (3, 35)
ENDNEIGHBOORS = {"left": True, "right": False, "front": False, "back": False}
maze = Maze(WALL, PATH, WENTPATH, PATHTUPLE, START, END)
graph = Graph(maze)
pathFinder = PathFinder(graph, START, END)
mario = {"show": "@", "loc": START}
def display():
for i in range(maze.size[0]):
tempr = ""
for j in range(maze.size[1]):
tempr = tempr + maze.maze[i, j] + " "
print(tempr)
def takeStep(y, x):
maze.maze[mario["loc"]] = WENTPATH
maze.maze[y, x] = mario["show"]
def main(screen):
clock = pygame.time.Clock()
main_menu = MainMenu()
dirty_drawing = DirtyDrawing()
dirty_drawing.world_window_is_dirty = True
dirty_drawing.world_window_redraw = True
map_loader = MapLoader(MapData, dirty_drawing, NPC, Intent)
map_data = map_loader.load_default_map()
passable_tiles = map_data.passable_tiles
path_finder = PathFinder(passable_tiles)
floor_s = pygame.Surface((1280, 840))
pathfinder_screen_s = floor_s.copy()
pathfinder_screen_s.set_colorkey(colorBlack)
intent = Intent()
hero = Hero("dg_classm32_swordHero.gif", Intent(), Inventory())
if not map_data.tile_occupied((1, 1)):
map_data.charLayer[(1, 1)] = hero
hero.move(1, 1)
hero.inventory.add_item(Weapon("Knuckles +1Fat"))
message_log = MessageLog(defaultFont, dirty_drawing)
message_log.position = (screen.get_size()[0] - message_log.render.get_size()[0], 0)
# Temporary. Combat is on at the start
in_combat = False
entities_in_combat = []
for entity in map_data.charLayer.values():
entities_in_combat.append(entity)
reaction_order = []
new_event = pygame.event.Event(pygame.USEREVENT, subtype="combat", combat_situation="start")
pygame.event.post(new_event)
screen.fill(colorBlack)
update_game_window = True
# MAINLOOP--------------------------
while 1:
clock.tick(40)
hero.intent.type = 0
for event in pygame.event.get():
if event.type == pygame.QUIT:
sys.exit()
if event.type == pygame.KEYUP:
if event.key == pygame.K_SPACE:
hero.intent.type = intent.WAIT
elif event.key == pygame.K_UP or event.key == pygame.K_KP8:
hero.intent.type = intent.MOVE
hero.intent.direction = (0, -1)
elif event.key == pygame.K_DOWN or event.key == pygame.K_KP2:
hero.intent.type = intent.MOVE
hero.intent.direction = (0, 1)
elif event.key == pygame.K_LEFT or event.key == pygame.K_KP4:
hero.intent.type = intent.MOVE
hero.intent.direction = (-1, 0)
elif event.key == pygame.K_RIGHT or event.key == pygame.K_KP6:
hero.intent.type = intent.MOVE
hero.intent.direction = (1, 0)
elif event.key == pygame.K_KP7:
hero.intent.type = intent.MOVE
hero.intent.direction = (-1, -1)
elif event.key == pygame.K_KP9:
hero.intent.type = intent.MOVE
hero.intent.direction = (1, -1)
elif event.key == pygame.K_KP3:
hero.intent.type = intent.MOVE
hero.intent.direction = (1, 1)
elif event.key == pygame.K_KP1:
hero.intent.type = intent.MOVE
hero.intent.direction = (-1, 1)
elif event.key == pygame.K_KP_PLUS:
npc = add_monster_to_random_position(
map_data, NPC("dg_monster132_thug.gif", Intent()), dirty_drawing
)
entities_in_combat.append(npc)
update_game_window = True
elif event.key == pygame.K_KP_MINUS:
pygame.event.post(pygame.event.Event(pygame.USEREVENT, subtype="menu"))
if event.type == pygame.USEREVENT:
if event.subtype is "combat":
if event.combat_situation == "start":
in_combat = True
reaction_order = roll_reactions(entities_in_combat)
creature_in_turn = reaction_order[0]
message_log.newline("RR")
if event.combat_situation == "first_turn":
creature_in_turn = reaction_order[0]
if creature_in_turn == hero:
message_log.newline("You start")
else:
message_log.newline("{} starts".format(reaction_order[0].name))
if event.combat_situation == "turn_change":
try:
reaction_order.remove(creature_in_turn)
except ValueError:
print "{} not in reaction order.".format(creature_in_turn)
try:
creature_in_turn = reaction_order[0]
if creature_in_turn == hero:
message_log.newline("Your turn.")
else:
message_log.newline("{}'s turn.".format(reaction_order[0].name))
except IndexError:
creature_in_turn = None
pygame.event.post(
pygame.event.Event(pygame.USEREVENT, subtype="combat", combat_situation="end_of_phase")
)
update_game_window = True
if event.combat_situation == "end_of_phase":
if in_combat:
reaction_order = roll_reactions(entities_in_combat)
creature_in_turn = None
message_log.newline("EOP- RR")
pygame.event.post(
pygame.event.Event(pygame.USEREVENT, subtype="combat", combat_situation="first_turn")
)
if event.combat_situation == "end":
in_combat = False
elif event.subtype is "menu":
main_menu.open_menu(screen)
if in_combat is True:
if isinstance(creature_in_turn, Hero):
hero_makes_decision = hero_turn(hero, map_data, message_log)
if hero_makes_decision:
pygame.event.post(
pygame.event.Event(pygame.USEREVENT, subtype="combat", combat_situation="turn_change")
)
if hero.intent.type is intent.MOVE:
map_data.attempt_move("char", hero.positionOnMap, direction=hero.intent.direction)
hero.move(*hero.intent.direction)
elif hero.intent.type is intent.ATTACK:
handle_attack(
hero,
hero.intent.target,
message_log,
map_data,
dirty_drawing,
entities_in_combat,
reaction_order,
)
elif hero.intent.type == intent.WAIT:
pass
else:
raise "No Hero intention_:{}".format(hero.intent.type)
elif isinstance(creature_in_turn, NPC):
npc = creature_in_turn
path = path_finder.find_path_between_points(npc.positionOnMap, hero.positionOnMap, pathfinder_screen_s)
if path == "No route found":
pass
if len(path) == 1:
handle_attack(npc, hero, message_log, map_data, dirty_drawing, entities_in_combat, reaction_order)
pygame.event.post(
pygame.event.Event(pygame.USEREVENT, subtype="combat", combat_situation="turn_change")
)
else:
move_success = map_data.attempt_move("char", npc.positionOnMap, destination=path[1])
if move_success is True:
# npc.move(*npc.intent.direction)
npc.set_position(*path[1])
pygame.event.post(
pygame.event.Event(pygame.USEREVENT, subtype="combat", combat_situation="turn_change")
)
elif isinstance(move_success, NPC):
npc.intent = Intent.WAIT
pygame.event.post(
pygame.event.Event(pygame.USEREVENT, subtype="combat", combat_situation="turn_change")
)
else:
print "ERRORROROREREERRROR"
enable_pathfinder_screen = True
if enable_pathfinder_screen == True:
dirty_drawing.world_window_redraw = True
floor_s, update_game_window, screen = dirty_drawing.draw(
map_data, floor_s, update_game_window, screen, message_log, pathfinder_screen_s
)
pygame.display.flip()
class DungeonMaster(object):
def __init__(self, clock, dungeon, locale_id):
self.clock = clock
self.dungeon = dungeon
self.path_finder = PathFinder(dungeon)
self.locale_id = locale_id
self.queue = PriorityQueue()
self.factions = {}
self.playing = True
self.dungeon_expire = self.clock.max_locale_time
self.char_id = 'DM'
self.placement_locations = {
'ne': [],
'e': [],
'se': [],
'nw': [],
'w': [],
'sw': [],
}
self.init_placement_locations()
self.clock.set_local_time(locale_id=locale_id, locale_time=0)
def init_placement_locations(self):
center = self.dungeon.get_hex(x=0, y=0, z=0)
ring_1 = self.dungeon.ring(center, self.dungeon.map_radius - 1)
ring_2 = self.dungeon.ring(center, self.dungeon.map_radius)
rings = ring_1 + ring_2
high = self.dungeon.map_radius - 1
low = 1
for point in rings:
x = abs(point.x)
y = abs(point.y)
z = abs(point.z)
if x >= high and y > low and y < high:
if point.x < 0:
self.placement_locations['w'].append(point)
else:
self.placement_locations['e'].append(point)
elif y >= high and x > low and x < high:
if point.y < 0:
self.placement_locations['se'].append(point)
else:
self.placement_locations['nw'].append(point)
elif z >= high and x > low and x < high:
if point.z < 0:
self.placement_locations['ne'].append(point)
else:
self.placement_locations['sw'].append(point)
def run_dungeon(self):
while self.is_playing():
self.run()
def run(self):
char = self.next_char()
self.increment_time()
while self.get_time() < char.gcd:
self.increment_time()
self.activate_char(char)
def is_playing(self):
if self.get_time() > self.dungeon_expire:
self.playing = False
elif len(self.factions) <= 1:
self.playing = False
else:
self.playing = True
return self.playing
def add_char(self, member, faction='dm', edge='dm', insert_time=0):
if faction == 'dm':
faction = self
if faction.faction_id not in self.factions.keys():
self.factions[faction.faction_id] = []
if insert_time == 0:
insert_time = self.get_time() + member.get_stat('initiative')
self.factions[faction.faction_id].append(member)
self.queue.put(member, insert_time)
member.dm = self
faction.place_char(member, self.get_placement_locations(edge))
def remove_char(self, member):
faction_id = member.faction.faction_id
self.factions[faction_id].remove(member)
if len(self.factions[faction_id]) == 0:
self.factions.pop(faction_id, None)
def next_char(self):
return self.queue.get()
def get_time(self):
return self.clock.get_locale_time(self.locale_id)
def increment_time(self):
self.clock.increment_locale_time(self.locale_id)
def activate_char(self, char):
priority = char.activate()
if char.health > 0:
self.queue.put(char, priority)
def get_placement_locations(self, edge):
sides = ['ne', 'e', 'se', 'sw', 'w', 'nw']
if edge in sides:
return self.placement_locations[edge]
def get_adjacent_enemies(self, requestor):
hexes = self.dungeon.neighbors(requestor.dungeon_hex)
return self.get_enemies(requestor, hexes)
def get_nearby_enemies(self, requestor, radius=2):
hexes = self.dungeon.spiral(requestor.dungeon_hex, radius)
return self.get_enemies(requestor, hexes)
def get_enemies(self, requestor, hexes):
enemies = []
for dungeon_hex in hexes:
if dungeon_hex is None:
next
elif dungeon_hex.character is None:
next
elif dungeon_hex.character.faction != requestor.faction:
enemies.append(dungeon_hex.character)
return enemies
def get_nearest_enemy(self, requestor):
enemies = []
min_dist = requestor.sight_range
closest = None
for faction in self.factions.keys():
if faction != requestor.faction.faction_id:
for member in self.factions[faction]:
enemies.append(member)
for enemy in enemies:
current = self.distance(requestor, enemy)
if current < min_dist:
min_dist = current
closest = enemy
requestor.target_enemy = enemy
requestor.distance_to_enemy = min_dist
return closest
def distance(self, actor, target):
return self.dungeon.distance(actor.dungeon_hex, target.dungeon_hex)
def move_char_along_path(self, actor, source, dest, distance):
path = self.path_finder.find_path(
start=source,
goal=dest,
)
if (len(path) - 1) < distance:
distance = (len(path) - 1)
actor.move(path[distance])
from PathFinder import PathFinder
triangle_blocks = [[(1, 8), (1, 2), (1, 4)], [(5, 4), (2, 1), (8, 1)],
[(9, 8), (6, 5), (9, 2)], [(2, 9), (5, 6), (8, 9)]]
PF = PathFinder()
print PF.inTriangle((2, 5), ((1, 8), (1, 2), (4, 5)))
def main(screen):
# -----------Debug------------
enable_pathfinder_screen = False # Draws the found pathfinder path
# ----------------------------
clock = pygame.time.Clock()
floor_s = pygame.Surface((10 * 64, 20 * 64))
world_s = pygame.Surface((10 * 64, 20 * 64))
pathfinder_screen_s = floor_s.copy()
pathfinder_screen_s.set_colorkey(colorBlack)
pathfinding_screen_reset = False
sword_surface = resource_loader.load_sprite('sword')
main_menu = MainMenu()
map_loader = MapLoader(MapData, NPC, Intent)
map_data = map_loader.load_default_map()
path_finder = PathFinder(map_data.passable_tiles)
dirty_drawing = DirtyDrawing()
dirty_drawing.prepare_floor(floor_s, map_data.get_texture_layer)
dirty_drawing.issue_world_surface_redraw()
intent = Intent()
hero = Hero(surface=resource_loader.load_sprite('hero'), intent_instance=Intent(), inventory_instance=Inventory())
if not map_data.tile_occupied((1, 1)):
map_data.set_character_on_map(hero, (1, 1))
hero.move(1, 1)
new_weapon = Weapon(generate_item_name('sword'))
print hero.inventory
hero.inventory.add_item(new_weapon)
camera = Camera(starting_position=hero.positionOnMap, viewport_size=(10, 10))
camera.set_viewport_boundaries((0, 0), map_data.mapBoundaries)
message_log = MessageLog(defaultFont)
message_log.position = (screen.get_size()[0] - message_log.render.get_size()[0], 0)
# Temporary. Combat is on at the start
in_combat = False
entities_in_combat = []
for entity in map_data.get_characters_on_map:
entities_in_combat.append(entity)
reaction_order = []
creature_in_turn = None
new_event = pygame.event.Event(pygame.USEREVENT, subtype="combat", combat_situation="start")
pygame.event.post(new_event)
screen.fill(colorBlack)
new_sword = Weapon(generate_item_name(), surface=sword_surface)
map_data.set_item_on_map(new_sword, (3, 4))
# MAINLOOP--------------------------
while 1:
clock.tick(40)
hero.intent.type = 0
for event in pygame.event.get():
if event.type == pygame.QUIT:
sys.exit()
if event.type == pygame.KEYUP:
if event.key == pygame.K_SPACE:
hero.intent.type = intent.WAIT
elif event.key == pygame.K_UP or event.key == pygame.K_KP8:
hero.intent.type = intent.MOVE
hero.intent.direction = (0, -1)
elif event.key == pygame.K_DOWN or event.key == pygame.K_KP2:
hero.intent.type = intent.MOVE
hero.intent.direction = (0, 1)
elif event.key == pygame.K_LEFT or event.key == pygame.K_KP4:
hero.intent.type = intent.MOVE
hero.intent.direction = (-1, 0)
elif event.key == pygame.K_RIGHT or event.key == pygame.K_KP6:
hero.intent.type = intent.MOVE
hero.intent.direction = (1, 0)
elif event.key == pygame.K_KP7:
hero.intent.type = intent.MOVE
hero.intent.direction = (-1, -1)
elif event.key == pygame.K_KP9:
hero.intent.type = intent.MOVE
hero.intent.direction = (1, -1)
elif event.key == pygame.K_KP3:
hero.intent.type = intent.MOVE
hero.intent.direction = (1, 1)
elif event.key == pygame.K_KP1:
hero.intent.type = intent.MOVE
hero.intent.direction = (-1, 1)
elif event.key == pygame.K_KP_PLUS:
npc = add_monster_to_random_position(map_data, NPC(resource_loader.load_sprite('thug'),
Intent(), Inventory()))
entities_in_combat.append(npc)
elif event.key == pygame.K_KP_MINUS:
pygame.event.post(pygame.event.Event(pygame.USEREVENT,
subtype="menu"))
elif event.key == pygame.K_i:
message_log.newline("-----Inventory:-----")
for item in hero.inventory.get_items:
assert isinstance(item, Item)
message_log.newline(item.name)
elif event.key == pygame.K_COMMA:
pick_up_item(hero, map_data)
if event.type == pygame.USEREVENT:
if event.subtype is "combat":
if event.combat_situation == 'start':
in_combat = True
reaction_order = Dice.roll_reactions(entities_in_combat)
message_log.newline('RR')
pygame.event.post(pygame.event.Event(pygame.USEREVENT,
subtype="combat", combat_situation='first_turn'))
if event.combat_situation == 'first_turn':
creature_in_turn = reaction_order[0]
if creature_in_turn == hero:
message_log.newline("You start")
else:
message_log.newline('{} starts'.format(reaction_order[0].name))
if event.combat_situation == 'turn_change':
try:
reaction_order.remove(creature_in_turn)
except ValueError:
print '{} not in reaction order.'.format(creature_in_turn)
try:
creature_in_turn = reaction_order[0]
if creature_in_turn == hero:
message_log.newline("Your turn.")
else:
message_log.newline("{}'s turn.".format(reaction_order[0].name))
except IndexError:
creature_in_turn = None
pygame.event.post(pygame.event.Event(pygame.USEREVENT,
subtype="combat", combat_situation='end_of_phase'))
if event.combat_situation == "end_of_phase" and in_combat:
reaction_order = Dice.roll_reactions(entities_in_combat)
creature_in_turn = None
message_log.newline('EOP- RR')
pathfinding_screen_reset = True
pygame.event.post(pygame.event.Event(pygame.USEREVENT,
subtype="combat", combat_situation='first_turn'))
if event.combat_situation == "end":
in_combat = False
elif event.subtype is 'menu':
main_menu.open_menu(screen)
if in_combat is True:
if isinstance(creature_in_turn, Hero):
hero_makes_decision = hero_turn(hero, map_data, message_log)
if hero_makes_decision:
pygame.event.post(pygame.event.Event(pygame.USEREVENT,
subtype="combat", combat_situation="turn_change"))
if hero.intent.type is intent.MOVE:
map_data.attempt_move("char", hero.positionOnMap, direction=hero.intent.direction)
hero.move(*hero.intent.direction)
elif hero.intent.type is intent.ATTACK:
handle_attack(hero, hero.intent.target,
message_log, map_data, entities_in_combat, reaction_order,
sword_surface=sword_surface)
elif hero.intent.type == intent.WAIT:
pass
else:
raise "No Hero intention_:{}".format(hero.intent.type)
elif isinstance(creature_in_turn, NPC):
npc = creature_in_turn
path = path_finder.find_path_between_points(npc.positionOnMap, hero.positionOnMap)
if enable_pathfinder_screen == True:
if pathfinding_screen_reset == True:
pathfinder_screen_s.fill(colorBlack)
pathfinding_screen_reset = False
draw_pathfinder_path(pathfinder_screen_s, path)
if path == 'path not found':
pygame.event.post(pygame.event.Event(pygame.USEREVENT,
subtype="combat", combat_situation="turn_change"))
else:
move_success = map_data.attempt_move("char", npc.positionOnMap, destination=path[1])
if move_success is True:
# npc.move(*npc.intent.direction)
npc.set_position(path[1])
pygame.event.post(pygame.event.Event(pygame.USEREVENT,
subtype="combat", combat_situation="turn_change"))
elif isinstance(move_success, NPC):
npc.intent = Intent.WAIT
pygame.event.post(pygame.event.Event(pygame.USEREVENT,
subtype="combat", combat_situation="turn_change"))
elif isinstance(move_success, Hero):
handle_attack(npc, hero, message_log, map_data, entities_in_combat, reaction_order)
pygame.event.post(pygame.event.Event(pygame.USEREVENT,
subtype="combat", combat_situation="turn_change"))
else:
print "ERRORROROREREERRROR"
camera.set_tile_position(hero.positionOnMap)
if enable_pathfinder_screen:
dirty_drawing.issue_world_surface_redraw()
dirty_drawing.draw(screen, world_s, camera, floor_s, map_data)
if message_log.get_is_dirty is True:
dirty_drawing.draw_message_log(screen, message_log)
if enable_pathfinder_screen:
pass
# dirty_drawing.draw_pathfinder_screen(screen, pathfinder_screen_s)
pygame.display.flip()
class PathAgent(object):
def __init__(self, bzrc, tank_index):
self.bzrc = bzrc
self.obstacles = self.bzrc.get_obstacles()
self.tank_index = tank_index
self.G_FROB = 0.90
self.R_FROB = 0.1
self.path = []
self.has_path = False
self.has_flag = False
self.path_finder = PathFinder(self.bzrc, self.tank_index)
def tick(self, time_diff):
self.commands = []
tank = self.bzrc.get_mytanks()[self.tank_index]
# if our tank is dead, invalidate its path and we're done
if tank.status == "dead":
self.has_path = False
return
# if the tank picks up the flag, recalculate path
if not self.has_flag and not tank.flag == '-':
self.has_path = False
self.has_flag = True
if not self.has_path:
# get the path by choosing from DFS, BFS, A*, etc.
print "updating visibility graph for tank", self.tank_index
self.path_finder.update_visibility_graph(self.tank_index)
print "calculating path for tank", self.tank_index
self.path = self.path_finder.get_path()
self.has_path = True
if not len(self.path) == 0:
dist_from_next = math.sqrt((tank.x - self.path[0][0])**2 +
(tank.y - self.path[0][1])**2)
next_point = self.path[0]
if dist_from_next < 25:
self.path.remove(self.path[0])
self.traverse_path(next_point, tank)
else:
self.has_path = False
return
def traverse_path(self, next_point, tank):
forces = []
x_force = 0
y_force = 0
forces.append(self.calculate_goal_force(next_point, tank))
forces.append(self.calculate_random_force(tank))
for force in forces:
x_force += force[0]
y_force += force[1]
self.move(x_force, y_force, tank)
def calculate_goal_force(self, goal, tank):
x_force = min(goal[0] - tank.x, 200)
y_force = min(goal[1] - tank.y, 200)
output = [x_force * self.G_FROB, y_force * self.G_FROB]
return output
def calculate_random_force(self, tank):
return [
random.randint(-10, 10) * self.R_FROB,
random.randint(-10, 10) * self.R_FROB
]
def move(self, x_force, y_force, tank):
magnitude = math.sqrt(x_force**2 + y_force**2) / 20
targetAngle = math.atan2(y_force, x_force)
# randomly shoot
should_shoot = False
if random.random() < .05:
should_shoot = True
command = Command(self.tank_index, magnitude,
self.calculate_angvel(tank, targetAngle),
should_shoot)
self.commands.append(command)
if self.commands:
self.bzrc.do_commands(self.commands)
def calculate_angvel(self, tank, targetAngle):
targetAngle = self.two_pi_normalize(targetAngle)
current = self.two_pi_normalize(tank.angle)
output = self.normalize_angle(targetAngle - current)
return output
def normalize_angle(self, angle):
"""Make any angle be between +/- pi."""
angle -= 2 * math.pi * int(angle / (2 * math.pi))
if angle <= -math.pi:
angle += 2 * math.pi
elif angle > math.pi:
angle -= 2 * math.pi
return angle
def two_pi_normalize(self, angle):
"""Make any angle between 0 to 2pi."""
angle += 2 * math.pi
return angle % (2 * math.pi)