def main():
random_tile = tiles.Tile()
cold_tile = tiles.Tile("Michael Dresser", "wl")
print(random_tile)
print(cold_tile)
input()
def makeMap(self, cols, rows):
lands = ["grassland", "forest", "mountain"]
lands_weight = [5, 3, 2]
land_distro = []
land_chance = 0.5
# Apply weights to land types because py2 doesn't have random.choices()
for i in range(len(lands)):
for j in range(lands_weight[i]):
land_distro.append(lands[i])
waters = ['ocean']
# Set up the new tile array
new_map = []
for r in range(rows):
new_row = []
for c in range(cols):
# Choose terrain type for tile
is_land = random.random() < land_chance
if is_land:
new_terrain = random.choice(land_distro)
else:
new_terrain = 'ocean'
# Add tile to grid
new_row.append(tiles.Tile(self, new_terrain, c, r))
new_map.append(new_row)
return new_map
def tile_array_placement(self, newTiles=True):
screenLst = []
for d1Idx in range(self.tilesArr.shape[0]):
for d2Idx in range(self.tilesArr.shape[1]):
tileXpos = (self.tileSize * d1Idx + self.BORDER[0])
tileYpos = (self.tileSize * d2Idx + self.BORDER[0])
if newTiles == True:
self.tilesArr[d1Idx][d2Idx] = tiles.Tile(
tileXpos, tileYpos, self.tileSize, [d1Idx, d2Idx])
if -2 * self.tileSize < tileXpos < self.WINSPECS[
self.windowResolutionIdx][
0] + self.tileSize and -2 * self.tileSize < tileYpos < self.WINSPECS[
self.windowResolutionIdx][1] + self.tileSize:
screenLst.append((d1Idx, d2Idx))
self.tilesOnScreen = np.zeros(len(screenLst), dtype=tuple)
for idx, x in enumerate(screenLst):
self.tilesOnScreen[idx] = x
self.firstTileOnScrIdxX = self.tilesOnScreen[0][0]
self.firstTileOnScrIdxY = self.tilesOnScreen[0][1]
self.selectedTile = self.tilesArr[0][0]
def my_rides():
rides, visited_tiles, cluster, max_square, w = [], [], [], [], 0
if os.path.exists(conf.ride_file):
with open(conf.ride_file, 'r') as rides_file:
reader = csv.DictReader(rides_file)
for row in reader:
row['route'] = polyline.decode(row['polyline'])
rides.append(row)
if len(rides) > 0:
most_visited, visited_tiles = tiles.parse(rides)
max_square_tl, w = tiles.max_square(visited_tiles, most_visited,
conf.max_square_bounds)
max_square = max_square_tl.square(w)
square_center = tiles.Tile(max_square_tl.x + int(w / 2),
max_square_tl.y + int(w / 2))
cluster = tiles.max_cluster(visited_tiles, square_center)
for r in rides:
# redo route point decoding on browser, amount of data is huge and takes time/bandwidth if transmitted
del r['route']
return render_template('app.html.j2',
rides=json.dumps(rides),
tiles=json.dumps(
[t.polygon() for t in visited_tiles]),
cluster=json.dumps([t.polygon() for t in cluster]),
max_square=json.dumps({
'shape': max_square,
'l': w
}))
def handleLeftButton(self):
self.sceneDirty = True
mousePos = pygame.mouse.get_pos()
if self.selectMode:
if self.selectionStartX == -1: self.selectionStartX = mousePos[0]
if self.selectionStartY == -1: self.selectionStartY = mousePos[1]
else:
ts = self.engine.scene.getTilestackAt(
self.scene.viewport.x + mousePos[0],
self.scene.viewport.y + mousePos[1])
if self.layerInUse == "base":
if isinstance(self.selectedTile, int):
ts.addBaseTile(
tiles.Tile(self.tileFactory, self.selectedTile))
elif isinstance(self.selectedTile, str):
# an irregularly-sized tile, so paint it's pieces separately
self.paintIrregularTile(mousePos)
else:
ts.addRoofTile(tiles.Tile(self.tileFactory, self.selectedTile))
def update(self, *args):
self.update_player_decisions()
self.vote_direction()
if self.game.ticks - self.game.last_player_move >= 1:
self.game.last_player_move += 1
# resolving effects
# stun
if self.stunned:
self.stunned -= 1
return
# Vision reduction
if self.impaired_vision_turns != 0:
self.impaired_vision_turns -= 1
else:
self.vision_radius = self.settings.vision_radius
dest = (self.pos_x + self.direction.x, self.pos_y + self.direction.y)
collision = bool(self.game.wall_graph.get(self.pos)) and dest in self.game.wall_graph.get(self.pos)
if not collision:
self.pos_x += self.direction.x
self.pos_y += self.direction.y
consumed = self.game.board[self.pos_y][self.pos_x].on_step(self)
if consumed:
self.game.board[self.pos_y][self.pos_x].kill()
self.game.board[self.pos_y][self.pos_x] = tiles.Tile(self.settings, self.pos_x, self.pos_y)
if self.pos == self.game.minotaur.pos:
if self.power / len(self.player_list) > 5:
self.game.minotaur.kill()
logger.info("Minotaur is dead")
self.game.text_display.print("Zabiliście Minotaura!")
else:
self.game.squad.dead = True
logger.info("Player is dead")
self.game.text_display.print("Nie żyjecie!")
for player in self.player_list:
player.update_goals()
def __init__(self, scene):
self.scene = scene
self.root_obj = None
self.tiles = dict()
id_counter = 0
for obj in self.scene.objects:
if 'TILE' in obj:
# Mutate the game object into a tile:
new_tile = tiles.Tile(obj, id_counter)
# Check the mutation succeeded
assert isinstance(new_tile, tiles.Tile)
self.tiles[new_tile.name] = new_tile
self.root_obj = new_tile.parent
id_counter += 1
self.pieces = list()
self.direction = False
def makeMap(self, cols, rows):
# Apply weights to land types because py2 doesn't have random.choices()
lands = ["grassland"] * 5 + ["forest"] * 3 + ["mountain"] * 2
waters = ['ocean']
land_chance = 0.5
# Set up the new tile array
new_map = []
for r in range(rows):
new_row = []
for c in range(cols):
# Choose terrain type for tile
is_land = random.random() < land_chance
if is_land:
new_terrain = random.choice(lands)
else:
new_terrain = random.choice(waters)
# Add tile to grid
new_tile = tiles.Tile(self, new_terrain, c, r)
new_row.append(new_tile)
new_map.append(new_row)
return new_map
signal.signal(signal.SIGINT, signal_handler)
# ************************** River specific code start **************************
#One time setup of the scenario map variables
JohnRiverMap = [] #This is the scenario map which holds all the tiles
JohnRiverTiles = [
] #Important tiles, will be randomized over the map. (Only placed once)
JohnRiverFluffTiles = [
] #"filler tiles" to populate around the "real scenario tiles". (Can appear multiple times)
JohnRiverAvailableItems = [
"Lost Lure", "Fishing Hook", "Wrench"
] #Available items which can be placed randomly over the map.
#These are the important scenario tiles. Put your items and events here.
#Usage:Tiles.Tile("Tile description",ignore this field, pass a number,"name of an event you can test for and act on","name of item which can be found on tile"
JohnRiverTiles.append(
Tiles.Tile("a pool of floating fish", 1, "", "a nearly-dead fish"))
JohnRiverTiles.append(
Tiles.Tile("someone 'fishing' in a boat", 1, "Fisherman", ""))
JohnRiverTiles.append(
Tiles.Tile("a snake in the water", 1, "Snake", "one ticked off snake"))
JohnRiverTiles.append(
Tiles.Tile("water with a shiny surface", 1, "Net", "fishing net"))
JohnRiverTiles.append(
Tiles.Tile("a diner on the shore", 1, "PulpFictionRestaurant",
"a greasy spoon"))
JohnRiverTiles.append(
Tiles.Tile("open waters with an abandon boat", 1, "BrokenBoat",
"spare boat parts"))
JohnRiverTiles.append(
Tiles.Tile("shack with a tin roof .... RUSTED..", 1, "B52", ""))
JohnRiverTiles.append(
def score_word(word):
return sum([tiles.Tile(i) for i in word])
import sea_monster
cur_dir = os.path.dirname(os.path.abspath(__file__))
mytiles = []
with open(f"{cur_dir}/input") as f:
cur_line = f.readline()
while cur_line != "":
tile_id = int(cur_line.strip().split()[1][:-1])
tile_layout = []
cur_line = f.readline()
while cur_line.strip() != "":
tile_layout.append([x for x in cur_line.strip()])
cur_line = f.readline()
mytiles.append(tiles.Tile(tile_id, tile_layout))
cur_line = f.readline()
corners = []
tile_lookup = {}
for tile in mytiles:
tile.determine_possible_neighbors(mytiles)
# tile.print_neighbor_candidates()
if tile.number_of_edges_possible_to_connect() == 2:
corners.append(tile.id)
tile_lookup[tile.id] = tile
corner_val = 1
for x in corners:
corner_val *= x
signal.signal(signal.SIGINT, signal_handler)
# ************************** River specific code start **************************
#One time setup of the scenario map variables
RiverMap = [] #This is the scenario map which holds all the tiles
RiverTiles = [
] #Important tiles, will be randomized over the map. (Only placed once)
RiverFluffTiles = [
] #"filler tiles" to populate around the "real scenario tiles". (Can appear multiple times)
RiverAvailableItems = [
"Gold Coin", "Fishing Hook", "Wrench"
] #Available items which can be placed randomly over the map.
#These are the important scenario tiles. Put your items and events here.
#Usage:Tiles.Tile("Tile description",ignore this field, pass a number,"name of an event you can test for and act on","name of item which can be found on tile"
RiverTiles.append(
Tiles.Tile("a pool of floating fish", 1, "", "a nearly-dead fish"))
RiverTiles.append(Tiles.Tile("someone fishing in a boat", 1, "Fisherman", ""))
RiverTiles.append(Tiles.Tile("river Tile 2", 1, "", ""))
RiverTiles.append(
Tiles.Tile("a snake in the water", 1, "Snake", "a dead snake"))
RiverTiles.append(
Tiles.Tile("water with a shiny surface", 1, "Net", "fishing net"))
RiverTiles.append(Tiles.Tile("river Tile 4", 1, "", "old lure"))
RiverTiles.append(Tiles.Tile("river Tile 5", 1, "", "torn shirt"))
#These are the filler scenario tiles. Don't put items here. You can do it separately when the GenerateMap() code is called You can put events here.
RiverFluffTiles.append(Tiles.Tile("clear, open water", 0, "", ""))
RiverFluffTiles.append(Tiles.Tile("blue water", 0, "", ""))
RiverFluffTiles.append(Tiles.Tile("beautiful, blue water", 0, "", ""))
RiverFluffTiles.append(Tiles.Tile("slightly, murky water", 0, "", ""))
#Generate the scenario map!
RiverMap = GenerateMap(5, 5, RiverTiles, RiverFluffTiles, RiverAvailableItems)
def clear(self):
self._allTiles = {
xyPos: tiles.Tile(self, xyPos)
for xyPos in self.allPoses()
}
self.regionSources = []
seq = tiles.QuiltSequence(seed_quilt, name="triples", n_columns=3)
seq.extend_sequence(reps=6)
seq.extend_sequence(reps=7,
fg_colors=["aqua", "CornFlowerBlue", "navy"],
bg_colors=["white", "aqua", "CornFlowerBlue", "navy"],
left_edge_swatch=["CornFlowerBlue", "aqua"],
top_edge_swatch=["CornFlowerBlue", "aqua"])
seq.implement(overwrite=True)
seq.extend_sequence(reps=7,
fg_colors=["aqua", "CornFlowerBlue", "navy"],
bg_colors=["CornFlowerBlue", "navy"])
seq.implement()
t = tiles.Tile(bg_color="white",
ellipses=[(-1, 0, 1, 1, webcolors.name_to_rgb("red")),
(1, 0, 1, 1, webcolors.name_to_rgb("red"))],
name="tmp",
tile_size=(70, 70))
# (-1,1,2,2,webcolors.name_to_rgb("red"))
# Tile filename will be "tmp_40"
t.create_tile_image(overwrite=True)
q = tiles.Quilt(grid_size=(5, 5), ellipses)
reload(tiles)
u = tiles.Tile(bg_color="white",
ellipses=[(-1, -1, 2, 2, "red"), (1, 1, 2, 2, "SeaGreen"),
(0, 1, .5, .5, "blue")],
tile_size=[80, 80],
name="tmp")
u.create_tile_image(overwrite=True)
[webcolors.rgb_to_name(x) for x in u.edge_colors]
def __init__(self, settings: Settings):
### PYGAME INITS
pygame.init()
pygame.font.init()
pygame.mixer.init()
###
self.settings = settings
self.main_surf = pygame.Surface(self.settings.resolution)
self.background = make_background(pygame.image.load("assets/tile.png"),
self.settings.resolution)
self.display = pygame.display.set_mode(
(self.settings.resolution[0] + 300, self.settings.resolution[1]))
self.display.set_colorkey(self.settings.background_color)
self.board = []
self.orphans = [
] # Tile objects which for some reason are not in self.board
# fill board with empty tiles
for i in range(settings.width):
row = []
for j in range(settings.height):
row.append(tiles.Tile(settings, i, j))
self.board.append(row)
self.ticks = 0.0 # game clock. Increments by 1 every turn. Player moves on 1, 2, 3.. etc. Minotaur on 1.5, 2.5, 3.5.. etc.
# This should be OK in terms of floating point math
self.last_tick_time = time.time()
self.labyrinth_finished = False
self.last_player_move = 0
self.last_minotaur_move = -0.5
self.running = False
self.running = True
### SERVER INITS
self.server_queue = Queue() # main queue to receive movements
self.new_player_queue = Queue() # queue to receive new player objects
self.goal_queue = Queue() # queue to send new goals
self.info_queue = Queue() # queue to send gametime info
self.server = server.Server("0.0.0.0", 6666, 6665, self.server_queue,
self.new_player_queue, self.goal_queue,
self.info_queue)
self.server.start()
###
unscaled = pygame.image.load(
"assets/wall_horizontal.png").convert_alpha()
self.wall_horizontal = pygame.transform.scale(
unscaled,
(self.settings.tile_size * 7 // 6, self.settings.tile_size))
unscaled = pygame.image.load(
"assets/wall_vertical.png").convert_alpha()
self.wall_vertical = pygame.transform.scale(
unscaled, (self.settings.tile_size // 6, self.settings.tile_size))
# prepare sound
self.sound_bank = {}
self.make_sound_bank()
c = pygame.mixer.Channel(AMBIENT_CHANNEL)
if not self.settings.mute:
c.play(self.sound_bank["ambient"], loops=-1)
self.unmute_thread: DelayedCall = None
#
self.clock = pygame.time.Clock()
self.text_display = textDisplay.TextDisplay((300, 300), "dejavu", 24)
self.text_display.print("Test")
self.squad = group.Squad(settings, self)
self.minotaur = minotaur.Minotaur(settings, self)
self.minotaur.pos = (15, 15)
self.all_sprites = pygame.sprite.Group()
self.all_sprites.add(self.squad)
self.all_sprites.add(self.minotaur)
self.trap_gen = contentGen.TrapContentGen(settings, self)
self.content_gens: List[contentGen.ContentGen] = [
contentGen.TreasureContentGen(settings, self) for i in range(3)
]
self.content_gens.append(self.trap_gen)
self.content_gens.append(
contentGen.OutOfLabirynthContentGen(settings, self))
self.content_gens.append(contentGen.WeaponContentGen(settings, self))
self.content_gens.append(contentGen.MinotaurContectGen(settings, self))
for i in range(150):
self.add_special_tile()
self.wall_list, entrance_wall, exit_wall = labgen.actually_gen_lab(
settings.height)
self.squad.pos = entrance_wall.x1, entrance_wall.y1
exit_tile = tiles.LabExit(self.settings, exit_wall.x1 - 1,
exit_wall.y1)
self.board[exit_wall.y1][exit_wall.x1 - 1] = exit_tile
self.wall_graph = wall_graph(
self.wall_list) # Graph representing nodes blocked by walls
self.nrwg = minotaur.non_retarded_wall_graph(
self.wall_graph, settings) # Graph representing nodes accessible
def random_tile():
return tiles.Tile(tiles.COLORS)
def main():
london_x1 = 51.700559
london_y1 = -0.497709
london_x2 = 51.308527
london_y2 = 0.246893
big_tile = tiles.Tile(london_x1, london_y1, london_x2, london_y2)
smaller_tiles = tiles.fragment_tile(big_tile, tiles.m_to_lat(200),
tiles.m_to_lon(200 / 3, london_x1))
filename = 'fusion.csv'
done_tiles = {}
for i in xrange(len(smaller_tiles)):
done_tiles[i] = -1.0
for i in xrange(len(smaller_tiles)):
tile = smaller_tiles[i]
key = tile.key
if done_tiles[key] >= 0:
continue
pollution_value = pollution.get_pollution_value(
tile.start_x, tile.start_y, 0)
done_tiles[key] = pollution_value
neighbour_keys = [
key + 1, key - 1, (key + 169), (key - 169), (key + 170),
(key + 168), (key - 170), (key - 168)
]
weights = [1.0, 1.0, 1.0, 1.0, 1.0, 1.0, 1.0, 1.0]
for j in xrange(len(neighbour_keys)):
index = neighbour_keys[j]
if 0 < index < len(smaller_tiles):
if done_tiles[index] >= 0:
done_tiles[index] = (done_tiles[index] +
(weights[j] * pollution_value)) / 2.0
else:
done_tiles[index] = weights[j] * pollution_value
print "Progress: " + str(i) + "/" + str(len(smaller_tiles))
with open(filename, 'w') as f:
for tile in smaller_tiles:
line = "\"" + tile.kml() + "\"" + ", " + str(
done_tiles[tile.key]) + ", " + str(tile.key) + "\n"
f.write(line)
success = False
tries = 0
while (success is False) and tries < 3:
tries += 1
try:
print "Try no:" + str(tries) + " to update table"
update_table(filename)
success = True
except Exception:
print "Failed to update table"
if success:
print "Last fusion update: " + str(datetime.datetime.now())