def test_sort_squares(self):
s1, s2 = Square("wheat", 0), Square("grass", 1)
t1 = Tile(s1, s2)
self.assertEqual(str(t1), "[1grass|0wheat]", "Crowns should be t1")
s1, s2 = Square("forest", 0), Square("wheat", 0)
t2 = Tile(s1, s2)
self.assertEqual(str(t2), "[0wheat|0forest]", "wheat is before forest")
def __init__(self, origin, size, scale, rand=True):
"""Creates a map of tiles using"""
# Call parent constructor
super().__init__(pygame.Rect(origin, (size * scale, size * scale)))
# Create tile group
self.tileGroup = pygame.sprite.Group()
# Create tile map
for y in range(size):
for x in range(size):
# Generate random tile of the 4 variants
if rand:
tile = Tile.variant(random.randrange(4), scale)
# Dunno if this is useful
else:
tile = Tile(scale)
# Place the tile depeding on loop progress
tile.rect.x = x * config.game.tileSize
tile.rect.y = y * config.game.tileSize
# Add tile to sprite groups
self.tileGroup.add(tile)
def test_print(self):
"""Testing that the print statement works"""
s1, s2 = Square("wheat", 0), Square("forest", 0)
t1 = Tile(s1, s2)
self.assertEqual(str(t1), "[0wheat|0forest]")
s1, s2 = Square("swamp", 2), Square("mine", 0)
t2 = Tile(s1, s2)
self.assertEqual(str(t2), "[2swamp|0mine]")
def test_standard_deck(self):
d = Deck(True)
s13, s14 = Square("wheat", 0), Square("wheat", 0)
t7 = Tile(s13, s14, 1)
s15, s16 = Square("wheat", 1), Square("grass", 0)
t8 = Tile(s15, s16, 21)
self.assertTrue(d.contains(t7), "Deck contains standard Tile #1")
self.assertTrue(d.contains(t8), "Deck contains standard Tile #21")
def test_get(self):
"""Testing the get methods for Tile Class"""
s1, s2 = Square("wheat", 0), Square("forest", 1)
t = Tile(s1, s2)
self.assertEqual(str(t.get_square2()), "0wheat")
self.assertEqual(str(t.get_square1()), "1forest")
self.assertEqual(t.square2.get_terrain(), "wheat")
self.assertEqual(t.square1.get_terrain(), "forest")
self.assertEqual(t.square2.get_crowns(), 0)
self.assertEqual(t.square1.get_crowns(), 1)
self.assertEqual(t.get_direction(), "right")
def convertBoard(self, board):
TileBoard = [[Tile(0, 0, 0) for x in range(7)] for y in range(9)]
y = 1.5
for i in range(9):
x = 1
for j in range(7):
emoji = board[i][j]
TileBoard[i][j] = Tile(emoji, x, y)
x += 1
y += 1
return TileBoard
def __init__(self, origin, width, height):
# Call parent constructor
super().__init__(pygame.Rect(origin, (width, height)))
# Create config object
self.cfg = config.interface()
# Create blank tile
self.tile = Tile(config.game.tileSize)
# Create tile icon
# Create starting rect with tile size
iconRect = pygame.Rect((0, 0),
(self.tile.rect.width, self.tile.rect.height))
# Create tileIcon using rect
self.tileIcon = Icon(iconRect,
self.tile.image,
border=self.cfg.imgBorder,
bc=config.color.brown,
outer=True)
# Center tileIcon rect
self.tileIcon.rect.center = (self.rect.width * self.cfg.imgXRatio,
self.rect.height * self.cfg.imgYRatio)
def generateTileGrid(dimX, dimY, dataStore, seed=None):
random.seed(seed)
listOfTiles = list()
for x in range(dimX):
for y in range(dimY):
randInt = random.randint(0, 12)
tile = Tile.Tile(dataStore)
tile.ID.IdX = x
tile.ID.IdY = y
if randInt == 0:
tile.ResourceType = "Wood"
elif randInt == 1:
tile.ResourceType = "Food"
elif randInt == 2:
tile.ResourceType = "Stone"
elif randInt == 3:
tile.ResourceType = "Water"
tile.Walkable = False
elif randInt == 4:
tile.ResourceType = "Iron"
listOfTiles.append(tile)
random.seed(None)
return listOfTiles
def test_test_deck(self):
s13, s14 = Square("swamp", 2), Square("water", 0)
t7 = Tile(s13, s14)
s15, s16 = Square("grass", 2), Square("swamp", 0)
t8 = Tile(s15, s16)
d = Deck(deck=[t7, t8])
s15, s16 = Square("grass", 2), Square("swamp", 0)
t9 = Tile(s15, s16)
s15, s16 = Square("grass", 2), Square("swamp", 1)
t10 = Tile(s15, s16)
self.assertTrue(d.contains(t7),
"Passing a Deck (for testing purpose) to Deck")
self.assertTrue(d.contains(t9),
"Passing a Deck (for testing purpose) to Deck")
self.assertFalse(d.contains(t10),
"Passing a Deck (for testing purpose) to Deck")
def generate_board(self, size_x, size_y, mines, starting_choice_x,
starting_choice_y):
board = [[Tile() for x in range(size_x)] for y in range(size_y)]
for m in range(mines):
not_placed = True
while not_placed:
x = randrange(size_x)
y = randrange(size_y)
if not (x == starting_choice_x
and y == starting_choice_y) and not board[y][x].mined:
board[y][x].mine_tile()
not_placed = False
y = -1
for s in board:
y += 1
for x in range(len(s)):
if not board[y][x].mined:
if x != 0:
if board[y][x - 1].mined:
board[y][x].increase_number()
if y != 0:
if board[y - 1][x - 1].mined:
board[y][x].increase_number()
if y != size_y - 1:
if board[y + 1][x - 1].mined:
board[y][x].increase_number()
if y != 0:
if board[y - 1][x].mined:
board[y][x].increase_number()
if y != size_y - 1:
if board[y + 1][x].mined:
board[y][x].increase_number()
if x != size_x - 1:
if board[y][x + 1].mined:
board[y][x].increase_number()
if y != 0:
if board[y - 1][x + 1].mined:
board[y][x].increase_number()
if y != size_y - 1:
if board[y + 1][x + 1].mined:
board[y][x].increase_number()
board[starting_choice_y][starting_choice_x].uncover_tile()
self.board = board
self.size_y = size_y
self.size_x = size_x
self.update_board()
def reset(self):
"""Restarts the game"""
# Clear sprite groups
self.allGroup.empty()
# Create map based on config
self.map = Map((0, 0),
config.game.mapSize // config.game.tileSize,
config.game.tileSize,
rand=True)
# Create interface
self.interface = Interface((config.game.mapSize, 0),
config.game.interfaceWidth,
config.game.mapSize)
# Create tile selector
self.selectedTile = Tile(config.game.tileSize)
def rand_tile(x, y):
tid = random.randint(0, 9)
return Tile(x, y, tid)
def gen_smoothed_random_env():
grid = [[None for _ in range(DIM)] for _ in range(DIM)]
num_industries = 5#random.randint(3, 5)
# create a list of DIM randomly selected points
industries = []
for _ in range(num_industries):
origin_location = (random.randint(0, DIM - 1), random.randint(0, DIM - 1))
x, y = origin_location
vals = rand_tile(x, y)
# only add this point to the list if there is not one at this location already
if sum(point_loc == origin_location for point_loc, _ in industries) == 0:
grid[y][x] = Tile(x, y, 9)
industries.append((origin_location, vals))
industry_locs = [loc for loc, _ in industries]
# keep a list of all of the locations that something has been placed in
available_locs = []
for x in range(DIM):
for y in range(DIM):
if (x, y) not in industry_locs:
available_locs.append((x, y))
# randomly choose origin points for certain environment features (forest, residential area, etc)
# and organically expand these areas to create realistic-looking terrain
while len(available_locs) != 0:
origin_location = available_locs[random.randint(0, len(available_locs) - 1)]
orig_x, orig_y = origin_location
available_locs.remove(origin_location)
# keep a list of all locations that are a part of this environment feature
environment_feature_locs = [origin_location]
# take a random choice of non-industry tiles
tile_id = random.randint(0, 8)
grid[orig_y][orig_x] = Tile(orig_x, orig_y, tile_id)
# choose a relatively high but arbitrary threshold ([0.7, 0.9]) to determine whether this environment
# feature should continue getting expanded
thres = 0.7 + random.random() * 0.2
r = random.random()
while r < thres:
possible_next_locs = set()
# get all available locations to expand by taking mapping of the current environment feature
# expanded one unit in each direction and finding which ones are available
def add_locs(dx, dy):
for loc_x, loc_y in environment_feature_locs:
if (loc_x + dx, loc_y + dy) in available_locs:
possible_next_locs.add((loc_x + dx, loc_y + dy))
add_locs(1, 0)
add_locs(-1, 0)
add_locs(0, 1)
add_locs(0, -1)
if len(possible_next_locs) == 0:
break
# sort the possible locations by distance away from origin of environment feature (to
# make new points closer to origin more likely to be expanded to create organic-looking
# terrain)
def get_dist(loc_1, loc_2):
l1x, l1y = loc_1
l2x, l2y = loc_2
return (l1x - l2x)**2 + (l1y - l2y)**2
possible_next_locs = list(possible_next_locs)
random.shuffle(possible_next_locs)
possible_next_locs = sorted(possible_next_locs, key=lambda loc: get_dist(loc, origin_location))
# allow closer locations to be more likely
next_loc_i = int(random.randint(0, len(possible_next_locs) - 1) ** 0.8)
next_loc = possible_next_locs[next_loc_i]
next_loc_x, next_loc_y = next_loc
environment_feature_locs.append(next_loc)
grid[next_loc_y][next_loc_x] = Tile(next_loc_x, next_loc_y, tile_id)
available_locs.remove(next_loc)
r = random.random()
return grid
from Tiles import Tile
import copy
platform = Tile.Platform()
torch = Tile.Torch()
background = Tile.Background()
crate = Tile.Crate()
meme_crate = Tile.MemeCrate()
current_object = None
hex_dict = {
"#0026FF": platform,
"#FF6A00": torch,
"#FFFFFF": background,
"#FFD800": crate,
"#00FF21": meme_crate
}
def init_empty_obj(hex_val, x, y):
temp = copy.copy(hex_dict.get(hex_val))
temp.set_pos(x, y)
return temp
def get_object(hex_val, x, y):
temp = hex_dict[hex_val]
temp.set_pos(x, y)
return temp
def test_calculate_value(self):
# mono-suit tiles, no crowns
s1, s2 = Square("grass", 0), Square("grass", 0)
t1 = Tile(s1, s2)
s3, s4 = Square("wheat", 0), Square("water", 0)
t2 = Tile(s3, s4)
self.assertGreater(t2.get_value(), t1.get_value(),
"Mono-tiles are lowest")
s5, s6 = Square("forest", 0), Square("forest", 0)
t3 = Tile(s5, s6)
self.assertGreater(t1.get_value(), t3.get_value(),
"Mono-tiles are ordered")
# crowns
s7, s8 = Square("wheat", 1), Square("forest", 0)
t4 = Tile(s7, s8)
self.assertGreater(t4.get_value(), t1.get_value(),
"Crowns are greater")
s9, s10 = Square("swamp", 2), Square("forest", 0)
t5 = Tile(s9, s10)
s11, s12 = Square("mine", 3), Square("water", 0)
t6 = Tile(s11, s12)
self.assertGreater(t6.get_value(), t4.get_value(),
"More crowns are greater")
self.assertGreater(t6.get_value(), t5.get_value(),
"More crowns are greater")
s13, s14 = Square("swamp", 2), Square("water", 0)
t7 = Tile(s13, s14)
s15, s16 = Square("grass", 2), Square("swamp", 0)
t8 = Tile(s15, s16)
self.assertGreater(t7.get_value(), t5.get_value(),
"Order within crowns works")
self.assertGreater(t7.get_value(), t8.get_value(),
"Order within crowns works")
# same tile, same value
s17, s18 = Square("grass", 0), Square("grass", 0)
t9 = Tile(s17, s18)
self.assertEqual(t1.get_value(), t9.get_value(),
"Identical tile has same value")
# random_check on standard tiles
d = Deck(True)
d.shuffle()
for n in range(10):
t1, t2 = d.deal_tile(), d.deal_tile()
v1, v2 = t1.get_value(), t2.get_value()
if v1 >= v2:
bigger, smaller = t1, t2
else:
bigger, smaller = t2, t1
self.assertGreaterEqual(bigger.calculate_value(),
smaller.calculate_value(),
("Random check number " + str(n) +
"\ninputs:" + str(t1) + str(t2) + "\n"))
def test_rotate(self):
s1, s2 = Square("wheat", 0), Square("forest", 1)
t = Tile(s1, s2)
self.assertEqual(t.get_direction(), "right")
t.rotate("clockwise")
self.assertEqual(t.get_direction(), "down")
t.rotate("counterclockwise")
t.rotate("counterclockwise")
self.assertEqual(t.get_direction(), "up")
t.rotate("counterclockwise")
self.assertEqual(t.get_direction(), "left")
def __init__(self, player):
self.platform = Tile.Platform()
self.player = player
self.inCollisionDown = False
self.plat = Mapper.get_platforms()
def __init__(self, window, screenManager):
print ("Creating Level One")
self.window = window
self.batch = pyglet.graphics.Batch()
self.screenManager = screenManager
self.player = Player(self.batch, 128, 300)
self.cameraOffset = 0
self.hSpeed = 128
self.MoveLeft = False
self.MoveRight = False
self.group = pyglet.graphics.OrderedGroup(0)
self.currentAnimation = pyglet.sprite.Sprite(AssetManager.getInstance().Background, batch=self.batch, group=self.group)
self.tiles = []
#this one can be the cage if we get it
self.tiles.append(Tile(self.batch, 10, 7, AssetManager.getInstance().ground5))
#steps
self.tiles.append(Tile(self.batch, 14, 6, AssetManager.getInstance().grassleft))
self.tiles.append(Tile(self.batch, 15, 5, AssetManager.getInstance().grassleft))
self.tiles.append(Tile(self.batch, 16, 4, AssetManager.getInstance().grassleft))
self.tiles.append(Tile(self.batch, 17, 4, AssetManager.getInstance().ground0))
self.tiles.append(Tile(self.batch, 18, 4, AssetManager.getInstance().grassright))
#tower
self.tiles.append(Tile(self.batch, 3, 7, AssetManager.getInstance().ground5))
self.tiles.append(Tile(self.batch, 4, 7, AssetManager.getInstance().ground5))
self.tiles.append(Tile(self.batch, 4, 6, AssetManager.getInstance().ground5))
#obstacle wall
self.tiles.append(Tile(self.batch, 20, 7, AssetManager.getInstance().ground5))
self.tiles.append(Tile(self.batch, 20, 6, AssetManager.getInstance().ground5))
self.tiles.append(Tile(self.batch, 20, 5, AssetManager.getInstance().ground5))
#second steps
self.tiles.append(Tile(self.batch, 25, 6, AssetManager.getInstance().grassleft))
self.tiles.append(Tile(self.batch, 26, 5, AssetManager.getInstance().grassleft))
self.tiles.append(Tile(self.batch, 27, 4, AssetManager.getInstance().grassleft))
self.tiles.append(Tile(self.batch, 28, 4, AssetManager.getInstance().ground0))
self.tiles.append(Tile(self.batch, 29, 4, AssetManager.getInstance().grassright))
#Boulder will be at 29, 3, ontop of the second steps
# pre first hole
for i in range(0,10):
for j in range(0,29):
if i == 9:
self.tiles.append(Tile(self.batch, j, i, AssetManager.getInstance().ground5))
if i == 8:
self.tiles.append(Tile(self.batch, j, i, AssetManager.getInstance().grass2))
#between hole and bit
for i in range(0,10):
for j in range(31,35):
if i == 9:
self.tiles.append(Tile(self.batch, j, i, AssetManager.getInstance().ground5))
if i == 8:
self.tiles.append(Tile(self.batch, j, i, AssetManager.getInstance().grass2))
#post pit
for i in range(0,10):
for j in range(40,50):
if i == 9:
self.tiles.append(Tile(self.batch, j, i, AssetManager.getInstance().ground5))
if i == 8:
self.tiles.append(Tile(self.batch, j, i, AssetManager.getInstance().grass2))
#Tower
# self.tiles.append(Tile(self.batch, 3, 7, AssetManager.getInstance().TileGrassTopLeft))
# self.tiles.append(Tile(self.batch, 4, 7, AssetManager.getInstance().TileGrassRight))
# self.tiles.append(Tile(self.batch, 4, 6, AssetManager.getInstance().TileGrassTop))
self.label = pyglet.text.Label('Level One',
font_name='Times New Roman',
font_size=36,
x=window.width//2, y=window.height-36,
anchor_x='center', anchor_y='center')