def test_noise():
noise = libtcodpy.noise_new(1)
libtcodpy.noise_set_type(noise, libtcodpy.NOISE_SIMPLEX)
libtcodpy.noise_get(noise, [0])
libtcodpy.noise_get_fbm(noise, [0], 4)
libtcodpy.noise_get_turbulence(noise, [0], 4)
libtcodpy.noise_delete(noise)
def create():
display.create_surface('background')
display.create_surface('text')
display.blit_background('background')
roll()
NOISE = tcod.noise_new(2, h=tcod.NOISE_DEFAULT_HURST, random=tcod.random_new())
for y in range(0, constants.WINDOW_HEIGHT):
for x in range(0, constants.WINDOW_WIDTH):
_noise_values = [(ZOOM * x / (constants.WINDOW_WIDTH)),
(ZOOM * y / (constants.WINDOW_HEIGHT))]
_height = 1 - tcod.noise_get_turbulence(NOISE, _noise_values, tcod.NOISE_SIMPLEX)
_dist_to_crosshair = 30
_crosshair_mod = abs((_dist_to_crosshair - 1))
if _height > .4:
_height = (_height - .4) / .4
_r, _g, _b = numbers.clip(30 * _height, 20, 255), 50 * _height, numbers.clip(30 * _height, 30, 255)
else:
_r, _g, _b = 20, 0, 30
_r += 30# * _crosshair_mod
if x < SIDEBAR_WIDTH:
if y < 7:
_r = numbers.interp(_r, .0, .4)
_g = numbers.interp(_g, .0, .4)
_b = numbers.interp(_b, .0, .4)
elif y < 43:
_r = numbers.interp(_r, .0, .6)
_g = numbers.interp(_g, .0, .6)
_b = numbers.interp(_b, .0, .6)
elif y < constants.WINDOW_HEIGHT:
_r = numbers.interp(_r, 1, .7)
_g = numbers.interp(_g, 1, .7)
_b = numbers.interp(_b, 1, .7)
else:
_r = (int(round(_r * 1.0)))
_g = (int(round(_g * .2)))
_b = (int(round(_b * .2)))
if x > SIDEBAR_WIDTH + 3 and x < constants.WINDOW_WIDTH - 6:
if y > 18 and y < 36:
_r = numbers.interp(_r, 255, .1)
_g = numbers.interp(_g, 255, .1)
_b = numbers.interp(_b, 255, .1)
if x > SIDEBAR_WIDTH + 3 and x < constants.WINDOW_WIDTH - 6:
if y > 10 and y < 16:
_r = numbers.interp(_r, .0, .4)
_g = numbers.interp(_g, .0, .4)
_b = numbers.interp(_b, .0, .4)
display._set_char('background', x, y, ' ', (0, 0, 0), (_r, _g, _b))
def get_noise_value(x, y, scale=16, type='FBM'):
nx, ny = float(x) / scale, float(y) / scale
if type == 'DEFAULT':
pre_value = libtcod.noise_get(noise_field, (nx, ny) , libtcod.NOISE_PERLIN)
elif type == 'FBM':
pre_value = libtcod.noise_get_fbm(noise_field, (nx, ny), 8, libtcod.NOISE_DEFAULT)
elif type == 'TURB':
pre_value = libtcod.noise_get_turbulence(noise_field, (nx, ny), 1, libtcod.NOISE_PERLIN)
return pre_value
def paint_map(initial=False):
global SPARK_SIZE, REDRAW_RATE
if REDRAW_RATE:
REDRAW_RATE -= 1
return
REDRAW_RATE = 0.0
if initial:
_x_range = 0, constants.WINDOW_WIDTH
_y_range = 0, constants.WINDOW_HEIGHT
else:
_x_range = 30, 50
_y_range = 5, 20
SPARK_SIZE = numbers.clip(SPARK_SIZE + random.uniform(-3, 3), 6.0, 12.0)
for y in range(_y_range[0], _y_range[1]):
for x in range(_x_range[0], _x_range[1]):
_noise_values = [(ZOOM * x / (constants.WINDOW_WIDTH)),
(ZOOM * y / (constants.WINDOW_HEIGHT))]
_height = 1 - tcod.noise_get_turbulence(NOISE, _noise_values,
tcod.NOISE_SIMPLEX)
_dist_to_crosshair = numbers.clip(
(abs(y - 12) *
(abs(x - 38))) / (SPARK_SIZE + random.uniform(-3.5, 1)), 0, 1)
#_height *= _dist_to_crosshair
_crosshair_mod = abs((_dist_to_crosshair - 1))
#if not initial and not _crosshair_mod:
# continue
if _height > .4:
_height = (_height - .4) / .4
_r, _g, _b = numbers.clip(30 * _height, 20,
255), 50 * _height, numbers.clip(
30 * _height, 30, 255)
else:
_r, _g, _b = 20, 0, 30
#_height = 1 - (_height / .5)
#_r, _g, _b = 60 * _height, 60 * _height, 100 * _height
_r += 80 * _crosshair_mod
display._set_char('background', x, y, ' ', (0, 0, 0), (_r, _g, _b))
display.blit_background('background')
def get_noise_value(x, y, scale=16, type='FBM'):
nx, ny = float(x) / scale, float(y) / scale
if type == 'DEFAULT':
pre_value = libtcod.noise_get(noise_field, (nx, ny),
libtcod.NOISE_PERLIN)
elif type == 'FBM':
pre_value = libtcod.noise_get_fbm(noise_field, (nx, ny), 8,
libtcod.NOISE_DEFAULT)
elif type == 'TURB':
pre_value = libtcod.noise_get_turbulence(noise_field, (nx, ny), 1,
libtcod.NOISE_PERLIN)
return pre_value
def make_house():
bsp_tree = tcod.bsp_new_with_size(0, 0, HOUSE_WIDTH - 1, HOUSE_HEIGHT - 1)
tcod.bsp_split_recursive(bsp_tree, 0, BSP_DEPTH, MIN_ROOM_WIDTH, MIN_ROOM_HEIGHT,
MAX_H_RATIO, MAX_V_RATIO)
tcod.bsp_traverse_inverted_level_order(bsp_tree, handle_node)
house_array[-1][-1] = Tile("wall", True, True)
noise = tcod.noise_new(2, HURST, LACNULARITY)
for x in xrange(HOUSE_WIDTH):
for y in xrange(HOUSE_HEIGHT):
if tcod.noise_get_turbulence(noise, [x, y], 32.0, tcod.NOISE_SIMPLEX) > THRESHOLD:
house_array[y][x] = Tile("floor", True, True)
def paint_map(initial=False):
global SPARK_SIZE, REDRAW_RATE
if REDRAW_RATE:
REDRAW_RATE -= 1
return
REDRAW_RATE = 0.0
if initial:
_x_range = 0, constants.WINDOW_WIDTH
_y_range = 0, constants.WINDOW_HEIGHT
else:
_x_range = 30, 50
_y_range = 5, 20
SPARK_SIZE = numbers.clip(SPARK_SIZE + random.uniform(-3, 3), 6.0, 12.0)
for y in range(_y_range[0], _y_range[1]):
for x in range(_x_range[0], _x_range[1]):
_noise_values = [(ZOOM * x / (constants.WINDOW_WIDTH)), (ZOOM * y / (constants.WINDOW_HEIGHT))]
_height = 1 - tcod.noise_get_turbulence(NOISE, _noise_values, tcod.NOISE_SIMPLEX)
_dist_to_crosshair = numbers.clip(
(abs(y - 12) * (abs(x - 38))) / (SPARK_SIZE + random.uniform(-3.5, 1)), 0, 1
)
# _height *= _dist_to_crosshair
_crosshair_mod = abs((_dist_to_crosshair - 1))
# if not initial and not _crosshair_mod:
# continue
if _height > 0.4:
_height = (_height - 0.4) / 0.4
_r, _g, _b = numbers.clip(30 * _height, 20, 255), 50 * _height, numbers.clip(30 * _height, 30, 255)
else:
_r, _g, _b = 20, 0, 30
# _height = 1 - (_height / .5)
# _r, _g, _b = 60 * _height, 60 * _height, 100 * _height
_r += 80 * _crosshair_mod
display._set_char("background", x, y, " ", (0, 0, 0), (_r, _g, _b))
display.blit_background("background")
def _build_background(self):
"""
Make a background noise that will more or less look like
an old map.
"""
noise = tcod.noise_new(2)
tcod.noise_set_type(noise, tcod.NOISE_SIMPLEX)
background = []
for y in range(self.height):
background.append([])
for x in range(self.width):
background[y].append(
tcod.noise_get_turbulence(noise,
[y / 100.0, x / 100.0], 32.0))
tcod.noise_delete(noise)
return background
def _build_background(self):
"""
Make a background noise that will more or less look like
an old map.
"""
noise = tcod.noise_new(2)
tcod.noise_set_type(noise, tcod.NOISE_SIMPLEX)
background = []
for y in range(self.height):
background.append([])
for x in range(self.width):
background[y].append(
tcod.noise_get_turbulence(noise, [y / 100.0, x / 100.0],
32.0))
tcod.noise_delete(noise)
return background
def _post_process_clouds(x, y, clouds, zoom, clouds_x, clouds_y, size, sunlight, noise, inside): _noise_values = [(zoom * x / (constants.MAP_VIEW_WIDTH)) + clouds_x, (zoom * y / (constants.MAP_VIEW_HEIGHT)) + clouds_y] _shade = tcod.noise_get_turbulence(noise, _noise_values, tcod.NOISE_SIMPLEX) _shade_mod = numbers.clip(abs(_shade), sunlight, 1) #TODO: Inside lighting #if not (camera.X+x, camera.Y+y) in inside: clouds[y][x] -= _shade_mod clouds[y][x] *= SHADOWS[camera.Y+y][camera.X+x].clip(SUNLIGHT-.5, 1) #else: # clouds[y][x] *= SHADOWS[camera.Y+y][camera.X+x] #TODO: Inside lighting here #TODO: Future #clouds *= LIGHTS[camera.Y:camera.Y+y, camera.X:camera.X+x] clouds[y][x] *= LIGHTS[camera.Y+y, camera.X+x]
def get_cylindrical_projection(stars, width=360, height=180):
"""
Return a tcod console instance of width and height that renders an equirectangular projection of the given list of stars.
"""
console = tcod.console_new(width, height)
for star in stars:
azimuthal = int((star.azimuthal * width) / (2 * math.pi))
polar = int((star.polar / math.pi) * height)
# Color Work
rgb = temperature_to_rgb(random.uniform(4000, 20000))
brightness = 1.0 - star.radial * 0.75
color = tcod.Color(rgb[0], rgb[1], rgb[2])
(h, s, v) = tcod.color_get_hsv(color)
tcod.color_set_hsv(color, h, s, brightness)
tcod.console_put_char_ex(console, azimuthal, polar, star.sprite, color,
tcod.black)
# Background Texture
noise3d = tcod.noise_new(3)
for map_x in range(width):
for map_y in range(height):
azimuthal = (map_x / (width * 1.0)) * 2.0 * math.pi
polar = (map_y / (height * 1.0)) * math.pi
x = math.sin(polar) * math.cos(azimuthal)
y = math.sin(polar) * math.sin(azimuthal)
z = math.cos(polar)
blue = int(
tcod.noise_get_turbulence(noise3d, [x, y, z], 32.0) * 16.0 +
16.0)
green = int(tcod.noise_get(noise3d, [x, y, z]) * 8.0 + 8.0)
red = int(tcod.noise_get_fbm(noise3d, [x, y, z], 32.0) * 4.0 + 4.0)
background = tcod.Color(red, green, blue)
if map_y == height / 2 or map_x == 0 or map_x == width / 2:
background = tcod.darkest_yellow
tcod.console_set_char_background(console, map_x, map_y, background)
tcod.noise_delete(noise3d)
return console
def _post_process_clouds(x, y, clouds, zoom, clouds_x, clouds_y, size,
sunlight, noise, inside):
_noise_values = [(zoom * x / (constants.MAP_VIEW_WIDTH)) + clouds_x,
(zoom * y / (constants.MAP_VIEW_HEIGHT)) + clouds_y]
_shade = tcod.noise_get_turbulence(noise, _noise_values,
tcod.NOISE_SIMPLEX)
_shade_mod = numbers.clip(abs(_shade), sunlight, 1)
#TODO: Inside lighting
#if not (camera.X+x, camera.Y+y) in inside:
clouds[y][x] -= _shade_mod
clouds[y][x] *= SHADOWS[camera.Y + y][camera.X + x].clip(SUNLIGHT - .5, 1)
#else:
# clouds[y][x] *= SHADOWS[camera.Y+y][camera.X+x] #TODO: Inside lighting here
#TODO: Future
#clouds *= LIGHTS[camera.Y:camera.Y+y, camera.X:camera.X+x]
clouds[y][x] *= LIGHTS[camera.Y + y, camera.X + x]
def activate(zone_id):
global ACTIVE_ZONE
ACTIVE_ZONE = zone_id
_zone = ZONES[zone_id]
_noise = tcod.noise_new(2)
logging.info('Bringing zone \'%s\' online...' % _zone['name'])
_zone['astar_map'] = pathfinding.setup(_zone['width'], _zone['height'],
_zone['solids'])
_zone['los_map'] = mapgen.generate_los_map(_zone['width'], _zone['height'],
_zone['solids'])
display.create_surface('tiles',
width=_zone['width'],
height=_zone['height'])
maps.render_map(_zone['tile_map'], _zone['width'], _zone['height'])
post_processing.start()
events.register_event('logic', post_processing.tick_sun)
_static_lighting = display.create_shader(_zone['width'],
_zone['height'],
start_offset=1)
_zone['shaders'].append(
post_processing.generate_shadow_map(_zone['width'], _zone['height'],
_zone['solids'], _zone['trees'],
_zone['inside']))
_zone['shaders'].append(
post_processing.generate_light_map(_zone['width'], _zone['height'],
_zone['solids'], _zone['trees']))
_zone['light_maps']['static_lighting'] = _static_lighting
_zone['shaders'].append(_static_lighting)
_noise = tcod.noise_new(3)
_zoom = 2.0
_zone['fader'] = display.create_shader(_zone['width'], _zone['height'])
_shader = display.create_shader(_zone['width'], _zone['height'])
for y in range(0, _zone['height']):
for x in range(0, _zone['width']):
if (x, y) in _zone['inside']:
_height = .75
else:
_noise_values = [(_zoom * x / _zone['width']),
(_zoom * y / _zone['height'])]
_height = .35 + numbers.clip(
tcod.noise_get_turbulence(_noise, _noise_values,
tcod.NOISE_SIMPLEX), .35, 1)
_shader[0][y, x] = 1.3 * _height
_shader[1][y, x] = 1.3 * _height
_shader[2][y, x] = 1.1 * _height
_zone['shaders'].append(_shader)
for light in _zone['lights']:
effects.light(light[0],
light[1],
light[2],
r=light[3],
g=light[4],
b=light[5],
light_map='static_lighting')
#if not '--no-fx' in sys.argv:
# post_processing.run(time=8,
# repeat=-1,
# repeat_callback=lambda _: post_processing.post_process_clouds(constants.MAP_VIEW_WIDTH,
# constants.MAP_VIEW_HEIGHT,
# 8,
# _noise,
# _zone['inside']))
post_processing.run(
time=0,
repeat=-1,
repeat_callback=lambda _: post_processing.post_process_lights())
#post_processing.run(time=0,
# repeat=-1,
# repeat_callback=lambda _: post_processing.sunlight())
camera.set_limits(0, 0, _zone['width'] - constants.MAP_VIEW_WIDTH,
_zone['height'] - constants.MAP_VIEW_HEIGHT)
logging.info('Zone \'%s\' is online' % _zone['name'])
def activate(zone_id):
global ACTIVE_ZONE
ACTIVE_ZONE = zone_id
_zone = ZONES[zone_id]
_noise = tcod.noise_new(2)
logging.info('Bringing zone \'%s\' online...' % _zone['name'])
_zone['astar_map'] = pathfinding.setup(_zone['width'], _zone['height'], _zone['solids'])
_zone['los_map'] = mapgen.generate_los_map(_zone['width'], _zone['height'], _zone['solids'])
display.create_surface('tiles', width=_zone['width'], height=_zone['height'])
maps.render_map(_zone['tile_map'], _zone['width'], _zone['height'])
post_processing.start()
events.register_event('logic', post_processing.tick_sun)
_static_lighting = display.create_shader(_zone['width'], _zone['height'], start_offset=1)
_zone['shaders'].append(post_processing.generate_shadow_map(_zone['width'], _zone['height'], _zone['solids'], _zone['trees'], _zone['inside']))
_zone['shaders'].append(post_processing.generate_light_map(_zone['width'], _zone['height'], _zone['solids'], _zone['trees']))
_zone['light_maps']['static_lighting'] = _static_lighting
_zone['shaders'].append(_static_lighting)
_noise = tcod.noise_new(3)
_zoom = 2.0
_zone['fader'] = display.create_shader(_zone['width'], _zone['height'])
_shader = display.create_shader(_zone['width'], _zone['height'])
for y in range(0, _zone['height']):
for x in range(0, _zone['width']):
if (x, y) in _zone['inside']:
_height = .75
else:
_noise_values = [(_zoom * x / _zone['width']),
(_zoom * y / _zone['height'])]
_height = .35 + numbers.clip(tcod.noise_get_turbulence(_noise, _noise_values, tcod.NOISE_SIMPLEX), .35, 1)
_shader[0][y, x] = 1.3 * _height
_shader[1][y, x] = 1.3 * _height
_shader[2][y, x] = 1.1 * _height
_zone['shaders'].append(_shader)
for light in _zone['lights']:
effects.light(light[0], light[1], light[2], r=light[3], g=light[4], b=light[5], light_map='static_lighting')
#if not '--no-fx' in sys.argv:
# post_processing.run(time=8,
# repeat=-1,
# repeat_callback=lambda _: post_processing.post_process_clouds(constants.MAP_VIEW_WIDTH,
# constants.MAP_VIEW_HEIGHT,
# 8,
# _noise,
# _zone['inside']))
post_processing.run(time=0,
repeat=-1,
repeat_callback=lambda _: post_processing.post_process_lights())
#post_processing.run(time=0,
# repeat=-1,
# repeat_callback=lambda _: post_processing.sunlight())
camera.set_limits(0, 0, _zone['width']-constants.MAP_VIEW_WIDTH, _zone['height']-constants.MAP_VIEW_HEIGHT)
logging.info('Zone \'%s\' is online' % _zone['name'])
def create():
display.create_surface('background')
display.create_surface('text')
display.blit_background('background')
roll()
NOISE = tcod.noise_new(2,
h=tcod.NOISE_DEFAULT_HURST,
random=tcod.random_new())
for y in range(0, constants.WINDOW_HEIGHT):
for x in range(0, constants.WINDOW_WIDTH):
_noise_values = [(ZOOM * x / (constants.WINDOW_WIDTH)),
(ZOOM * y / (constants.WINDOW_HEIGHT))]
_height = 1 - tcod.noise_get_turbulence(NOISE, _noise_values,
tcod.NOISE_SIMPLEX)
_dist_to_crosshair = 30
_crosshair_mod = abs((_dist_to_crosshair - 1))
if _height > .4:
_height = (_height - .4) / .4
_r, _g, _b = numbers.clip(30 * _height, 20,
255), 50 * _height, numbers.clip(
30 * _height, 30, 255)
else:
_r, _g, _b = 20, 0, 30
_r += 30 # * _crosshair_mod
if x < SIDEBAR_WIDTH:
if y < 7:
_r = numbers.interp(_r, .0, .4)
_g = numbers.interp(_g, .0, .4)
_b = numbers.interp(_b, .0, .4)
elif y < 43:
_r = numbers.interp(_r, .0, .6)
_g = numbers.interp(_g, .0, .6)
_b = numbers.interp(_b, .0, .6)
elif y < constants.WINDOW_HEIGHT:
_r = numbers.interp(_r, 1, .7)
_g = numbers.interp(_g, 1, .7)
_b = numbers.interp(_b, 1, .7)
else:
_r = (int(round(_r * 1.0)))
_g = (int(round(_g * .2)))
_b = (int(round(_b * .2)))
if x > SIDEBAR_WIDTH + 3 and x < constants.WINDOW_WIDTH - 6:
if y > 18 and y < 36:
_r = numbers.interp(_r, 255, .1)
_g = numbers.interp(_g, 255, .1)
_b = numbers.interp(_b, 255, .1)
if x > SIDEBAR_WIDTH + 3 and x < constants.WINDOW_WIDTH - 6:
if y > 10 and y < 16:
_r = numbers.interp(_r, .0, .4)
_g = numbers.interp(_g, .0, .4)
_b = numbers.interp(_b, .0, .4)
display._set_char('background', x, y, ' ', (0, 0, 0), (_r, _g, _b))
def generate(width, height):
_weight_map, _tile_map, _solids, _node_grid = mapgen.create_map(width, height)
_c_x, _c_y = width/2, height/2
_zoom = 1.2
_noise = tcod.noise_new(3)
_possible_trees = set()
for y in range(height):
for x in range(width):
_c_dist = numbers.float_distance((x, y), (_c_x, _c_y)) / float(max([width, height]))
_noise_values = [(_zoom * x / (constants.MAP_VIEW_WIDTH)),
(_zoom * y / (constants.MAP_VIEW_HEIGHT))]
_noise_value = numbers.clip(tcod.noise_get_turbulence(_noise, _noise_values, tcod.NOISE_SIMPLEX) - .7, .5-_c_dist, 1)
if _noise_value > .3:
_tile = tiles.grass(x, y)
_possible_trees.add((x, y))
elif _noise_value > .2:
if random.uniform(.2, .3) + (_noise_value-.2) > .3:
if _c_dist < .35:
_tile = tiles.grass(x, y)
_possible_trees.add((x, y))
else:
_tile = tiles.grass(x, y)
_possible_trees.add((x, y))
else:
#TODO: Slowly dither in swamp water
if _c_dist < .35:
_tile = tiles.swamp_water(x, y)
else:
_tile = tiles.swamp_water(x, y)
elif _noise_value >= 0:
_r_val = random.uniform(0, .2) + (_noise_value)
if _r_val > .2:
_tile = tiles.swamp_water(x, y)
else:
if random.uniform(0, .2) + (_noise_value) > .2:
_tile = tiles.swamp_water(x, y)
else:
_tile = tiles.tall_grass(x, y)
elif _noise_value < 0:
_tile = tiles.tall_grass(x, y)
_possible_trees.add((x, y))
else:
_tile = tiles.swamp(x, y)
_tile_map[y][x] = _tile
_weight_map[y][x] = _tile['w']
#############
#Trader camp#
#############
_s_x, _s_y = ((width/2)-20, (height/2)-20)
_building_space = set()
_walls = set()
#Building
_width, _height = random.choice([(20, 20), (12, 20), (20, 12)])
_random_dir = random.randint(0, 3)
if _random_dir == 1:
_door_x = _width / 2
_door_y = 0
elif _random_dir == 2:
_door_x = _width / 2
_door_y = _height
elif _random_dir == 3:
_door_x = 0
_door_y = _height / 2
else:
_door_x = _width
_door_y = _height / 2
if _width > _height:
if _random_dir in [1, 3]:
_mod = .75
else:
_mod = .25
_trade_room_x = int(round(_width * _mod))
_trade_room_y = -1
_trade_window_x = _trade_room_x
_trade_window_y = _height / 2
else:
if _random_dir == 1:
_mod = .75
else:
_mod = .25
_trade_room_x = -1
_trade_room_y = int(round(_height * _mod))
_trade_window_x = _width / 2
_trade_window_y = _trade_room_y
for y in range(_height+1):
_y = _s_y+y
for x in range(_width+1):
_x = _s_x+x
if (x, y) == (_door_x, _door_y):
_tile = tiles.concrete(_x, _y)
elif x == 0 or y == 0 or x == _width or y == _height:
_tile = tiles.wooden_fence(_x, _y)
_solids.add((_x, _y))
_walls.add((_x, _y))
else:
if x == _trade_window_x and y == _trade_window_y:
_tile = tiles.trade_window(_x, _y)
elif x == _trade_room_x or y == _trade_room_y:
_tile = tiles.wooden_fence(_x, _y)
_solids.add((_x, _y))
_walls.add((_x, _y))
else:
_tile = tiles.wood_floor(_x, _y)
_weight_map[_y][_x] = _tile['w']
_tile_map[_y][_x] = _tile
_building_space.add((_x, _y))
#Wall
_width, _height = _width * 4, _height * 4
_ground_space = set()
for y in range(_height + 1):
_y = _s_y + y
_yy = _y - int(round(_height * .4))
for x in range(_width + 1):
_x = _s_x + x
_xx = _x - int(round(_width * .4))
if random.uniform(0, 1) >= .75:
continue
if x == 0 or y == 0 or x == _width or y == _height:
_tile = tiles.wooden_fence(_xx, _yy)
else:
if (_xx, _yy) in _building_space:
continue
_ground_space.add((_xx, _yy))
continue
_weight_map[_yy][_xx] = _tile['w']
_tile_map[_yy][_xx] = _tile
_solids.add((_xx, _yy))
#Ground: Inside wall - outside building
_ground_seeds = random.sample(list(_ground_space - _building_space), 50)
for x, y in _ground_seeds:
_walker_x = x
_walker_y = y
_last_dir = -2, -2
for i in range(random.randint(80, 90)):
_tile = tiles.concrete_striped(_walker_x, _walker_y)
_weight_map[_walker_y][_walker_x] = _tile['w']
_tile_map[_walker_y][_walker_x] =_tile
_dir = random.randint(-1, 1), random.randint(-1, 1)
_n_x = _walker_x + _dir[0]
_n_y = _walker_y + _dir[1]
while (_n_x, _n_y) in _building_space or (_n_x, _n_y) in _solids or _last_dir == _dir:
_dir = random.randint(-1, 1), random.randint(-1, 1)
_n_x = _walker_x + _dir[0]
_n_y = _walker_y + _dir[1]
_last_dir = _dir[0] * -1, _dir[0] * -1
_walker_x = _n_x
_walker_y = _n_y
#Bushes around outside wall
#Campfires
"""for room in _rooms:
_build_doors = []
for plot_x, plot_y in room['plots']:
_room = _building[(plot_x, plot_y)]
_build_walls = ['north', 'south', 'east', 'west']
for n_plot_x, n_plot_y in [(plot_x-1, plot_y), (plot_x+1, plot_y), (plot_x, plot_y-1), (plot_x, plot_y+1)]:
if ((n_plot_x, n_plot_y) == _room['door_plot']) or (not _build_doors and not (n_plot_x, n_plot_y) in room['plots'] and (n_plot_x, n_plot_y) in _building):
if n_plot_x - plot_x == -1:
_build_doors.append('west')
if 'west' in _build_walls:
_build_walls.remove('west')
elif n_plot_x - plot_x == 1:
_build_doors.append('east')
if 'east' in _build_walls:
_build_walls.remove('east')
if n_plot_y - plot_y == -1:
_build_doors.append('north')
if 'north' in _build_walls:
_build_walls.remove('north')
elif n_plot_y - plot_y == 1:
_build_doors.append('south')
if 'south' in _build_walls:
_build_walls.remove('south')
if (n_plot_x, n_plot_y) in _building:
if n_plot_x - plot_x == -1 and not _building[(n_plot_x, n_plot_y)]['type'] in buildinggen.ROOM_TYPES[room['type']]['avoid_rooms']:
if 'west' in _build_walls:
_build_walls.remove('west')
elif n_plot_x - plot_x == 1 and not _building[(n_plot_x, n_plot_y)]['type'] in buildinggen.ROOM_TYPES[room['type']]['avoid_rooms']:
if 'east' in _build_walls:
_build_walls.remove('east')
if n_plot_y - plot_y == -1 and not _building[(n_plot_x, n_plot_y)]['type'] in buildinggen.ROOM_TYPES[room['type']]['avoid_rooms']:
if 'north' in _build_walls:
_build_walls.remove('north')
elif n_plot_y - plot_y == 1 and not _building[(n_plot_x, n_plot_y)]['type'] in buildinggen.ROOM_TYPES[room['type']]['avoid_rooms']:
if 'south' in _build_walls:
_build_walls.remove('south')
_x, _y = (_s_x + (plot_x*_room_size)), (_s_y + (plot_y*_room_size))
for y in range(_y, _y+_room_size):
for x in range(_x, _x+_room_size):
if ((x-_x == 0 and 'west' in _build_walls) or (y-_y == 0 and 'north' in _build_walls) or (x-_x == _room_size-1 and 'east' in _build_walls) or (y-_y == _room_size-1 and 'south' in _build_walls)):
_weight_map[y][x] = _tile['w']
_tile_map[y][x] = tiles.wooden_fence(x, y)
_solids.add((x, y))
else:
_tile_map[y][x] = buildinggen.ROOM_TYPES[room['type']]['tiles'](x, y)
_building_space.add((x, y))
for y in range(_y, _y+_room_size):
for x in range(_x-1, _x+_room_size+1):
if (x-_x in [-1, 0] and 'west' in _build_doors and (y-_y<=2 or y-_y>=_room_size-3)) or (x-_x in [_room_size, _room_size+1] and 'east' in _build_doors and (y-_y<=2 or y-_y>=_room_size-3)):
_weight_map[y][x] = _tile['w']
_tile_map[y][x] = tiles.wooden_fence(x, y)
_solids.add((x, y))
for y in range(_y-1, _y+_room_size+1):
for x in range(_x, _x+_room_size):
if (y-_y in [-1, 0] and 'north' in _build_doors and (x-_x<=2 or x-_x>=_room_size-3)) or (y-_y in [_room_size, _room_size+1] and 'south' in _build_doors and (x-_x<=2 or x-_x>=_room_size-3)):
_weight_map[y][x] = _tile['w']
_tile_map[y][x] = tiles.wooden_fence(x, y)
_solids.add((x, y))
_last_plot_x, _last_plot_y = plot_x, plot_y
#TODO: Make this into a function?
_min_x, _max_x = (width, 0)
_min_y, _max_y = (height, 0)
for x, y in _building:
_x, _y = (_s_x + (x*_room_size)), (_s_y + (y*_room_size))
if _x > _max_x:
_max_x = _x
if _x < _min_x:
_min_x = _x
if _y > _max_y:
_max_y = _y
if _y < _min_y:
_min_y = _y"""
_plot_pole_x, _plot_pole_y = _s_x, _s_y
_tree_plots = _possible_trees - _solids
_tree_plots = list(_tree_plots - _building_space)
_trees = {}
_used_trees = random.sample(_tree_plots, numbers.clip(int(round((width * height) * .001)), 0, len(_tree_plots)))
_bush_plots = set(_tree_plots) - set(_used_trees)
_used_bush = random.sample(_bush_plots, numbers.clip(int(round((width * height) * .003)), 0, len(_bush_plots)))
_swamp_plots = set(_tree_plots) - set(_used_bush)
_used_swamp = random.sample(_swamp_plots, numbers.clip(int(round((width * height) * .003)), 0, len(_swamp_plots)))
for x, y in _used_trees:
_size = random.randint(7, 12)
_trees[x, y] = _size
for w in range(random.randint(1, 2)):
_walker_x = x
_walker_y = y
_walker_direction = random.randint(0, 359)
for i in range(random.randint(_size/4, _size/2)):
_actual_x, _actual_y = int(round(_walker_x)), int(round(_walker_y))
if _actual_x < 0 or _actual_y < 0 or _actual_x >= width or _actual_y >= height or (_actual_x, _actual_y) in _solids:
break
_center_mod = numbers.float_distance((_actual_x, _actual_y), (x, y)) / float(_size)
_tile = tiles.tree(_actual_x, _actual_y)
_weight_map[_actual_y][_actual_x] = _tile['w']
_tile_map[_actual_y][_actual_x] = _tile
if random.randint(0, 3):
_trees[_actual_x, _actual_y] = random.randint(1, _size)
_solids.add((_actual_x, _actual_y))
_walker_direction += random.randint(-45, 45)
_n_x, _n_y = numbers.velocity(_walker_direction, 1)
_walker_x += _n_x
_walker_y += _n_y
for x, y in _used_bush:
_center_mod = numbers.float_distance((x, y), (_plot_pole_x, _plot_pole_y)) / 60.0
_walker_x = x
_walker_y = y
for i in range(int(round(random.randint(44, 55) * _center_mod))):
_tile = tiles.swamp_water(_walker_x, _walker_y)
_weight_map[_walker_y][_walker_x] = _tile['w']
_tile_map[_walker_y][_walker_x] =_tile
_walker_x += random.randint(-1, 1)
_walker_y += random.randint(-1, 1)
if _walker_x < 0 or _walker_y < 0 or _walker_x >= width or _walker_y >= height or (_walker_x, _walker_y) in _solids:
break
for x, y in _used_swamp:
_center_mod = numbers.float_distance((x, y), (_plot_pole_x, _plot_pole_y)) / 120.0
_walker_x = x
_walker_y = y
for i in range(int(round(random.randint(44, 55) * (1-_center_mod)))):
_tile = tiles.swamp(_walker_x, _walker_y)
_weight_map[_walker_y][_walker_x] = _tile['w']
_tile_map[_walker_y][_walker_x] =_tile
_walker_x += random.randint(-1, 1)
_walker_y += random.randint(-1, 1)
if _walker_x < 0 or _walker_y < 0 or _walker_x >= width or _walker_y >= height or (_walker_x, _walker_y) in _solids:
break
mapgen.build_node_grid(_node_grid, _solids)
mapgen.add_plot_pole(_plot_pole_x, _plot_pole_y, 40, _solids)
_fsl = {'Terrorists': {'bases': 1, 'squads': 0, 'trader': True, 'type': life.human_runner},
'Militia': {'bases': 0, 'squads': 1, 'trader': False, 'type': life.human_bandit}}
#'Wild Dogs': {'bases': 0, 'squads': 1, 'trader': False, 'type': life.wild_dog}}
return width, height, _node_grid, mapgen.NODE_SETS.copy(), _weight_map, _tile_map, _solids, _fsl, _trees, _building_space - _walls
def generate(width, height):
_weight_map, _tile_map, _solids, _node_grid = mapgen.create_map(
width, height)
_zoom = .95
_noise = tcod.noise_new(3)
_low_grass = 25
_fsl = {}
_building_space = set()
_walls = set()
_possible_trees = set()
_river_start_x = random.randint(int(round(width * .35)),
int(round(width * .65)))
_river_start_y = 0 #random.randint(int(round(height * .15)), int(round(height * .85)))
_x = _river_start_x
_y = _river_start_y
_px, _py = _river_start_x, _river_start_y
_river_direction = 270
_turn_rate = random.randint(-1, 1)
_river_tiles = set()
_river_size = random.randint(7, 10)
_ground_tiles = set()
_possible_camps = set()
while 1:
for i in range(4, 10):
for __x, __y in shapes.circle(_x, _y, _river_size):
if __x < 0 or __y < 0 or __x >= width or __y >= height or (
__x, __y) in _solids:
continue
_river_tiles.add((__x, __y))
_tile = tiles.swamp_water(__x, __y)
_tile_map[__y][__x] = _tile
_weight_map[__y][__x] = _tile['w']
_river_direction += _turn_rate
_xv, _yv = numbers.velocity(_river_direction, 1)
_px += _xv
_py += _yv
_x = int(round(_px))
_y = int(round(_py))
if _x < 0 or _y < 0 or _x >= width or _y >= height or (
_x, _y) in _solids:
break
if _x < 0 or _y < 0 or _x >= width or _y >= height:
break
_turn_rate = random.uniform(-2.5, 2.5)
_river_size = numbers.clip(_river_size + random.randint(-1, 1), 7, 10)
for y in range(height):
for x in range(width):
if (x, y) in _river_tiles:
continue
_tile = tiles.grass(x, y)
_tile_map[y][x] = _tile
_weight_map[y][x] = _tile['w']
_ground_tiles.add((x, y))
tcod.noise_set_type(_noise, tcod.NOISE_WAVELET)
for y in range(height):
for x in range(width):
if (x, y) in _river_tiles:
continue
_noise_values = [(_zoom * x / (constants.MAP_VIEW_WIDTH)),
(_zoom * y / (constants.MAP_VIEW_HEIGHT))]
_noise_value = 100 * tcod.noise_get_turbulence(
_noise, _noise_values, tcod.NOISE_WAVELET)
if _low_grass <= _noise_value <= 100:
_tile = tiles.tall_grass(x, y)
if _noise_value >= 40:
if not x < width * .15 and not x > width * .85 and not y < height * .15 and not y > height * .85:
_possible_camps.add((x, y))
if random.uniform(0, 1) > .5:
_possible_trees.add((x, y))
elif _noise_value >= _low_grass - 10 and 10 * random.uniform(
0, 1) > _low_grass - _noise_value:
_tile = tiles.grass(x, y)
else:
_tile = tiles.rock(x, y)
_solids.add((x, y))
_tile_map[y][x] = _tile
_weight_map[y][x] = _tile['w']
_trees = {}
_tree_plots = _possible_trees - _solids - _river_tiles
_used_trees = random.sample(
_tree_plots,
numbers.clip(int(round((width * height) * .002)), 0, len(_tree_plots)))
for x, y in _used_trees:
_size = random.randint(1, 3)
for _x, _y in shapes.circle(x, y, _size):
if _x < 0 or _y < 0 or _x >= width or _y >= height or (
_x, _y) in _solids:
break
_tile = tiles.tree(_x, _y)
_weight_map[_y][_x] = _tile['w']
_tile_map[_y][_x] = _tile
_trees[_x, _y] = random.uniform(2, 3.5) * _size
_solids.add((_x, _y))
_ground_tiles = _ground_tiles - _solids
_plot_pole_x, _plot_pole_y = width / 2, height / 2
_bushes = random.sample(
_ground_tiles,
numbers.clip(int(round((width * height) * .0003)), 0,
len(_ground_tiles)))
_camps = set()
while len(_possible_camps):
_camp_1 = random.choice(list(_possible_camps))
_possible_camps.remove(_camp_1)
_camps.add(_camp_1)
for camp_2 in _possible_camps.copy():
_dist = numbers.distance(_camp_1, camp_2)
if _dist <= 250:
_possible_camps.remove(camp_2)
for x, y in _bushes:
_walker_x = x
_walker_y = y
_last_dir = -2, -2
for i in range(random.randint(10, 15)):
_tile = tiles.tree(_walker_x, _walker_y)
_weight_map[_walker_y][_walker_x] = _tile['w']
_tile_map[_walker_y][_walker_x] = _tile
_dir = random.randint(-1, 1), random.randint(-1, 1)
_n_x = _walker_x + _dir[0]
_n_y = _walker_y + _dir[1]
if _n_x < 0 or _n_y < 0 or _n_x >= width or _n_y >= height or (
_n_x, _n_y) in _solids:
break
_last_dir = _dir[0] * -1, _dir[0] * -1
_walker_x = _n_x
_walker_y = _n_y
_camp_info = {}
for c_x, c_y in _camps:
_building_walls = random.sample(['north', 'south', 'east', 'west'],
random.randint(2, 3))
_broken_walls = random.sample(
_building_walls,
numbers.clip(random.randint(0, 3), 0, len(_building_walls)))
_camp = {'center': (c_x, c_y)}
_camp_ground = []
for y in range(-10, 10 + 1):
for x in range(-10, 10 + 1):
_x = x + c_x
_y = y + c_y
if (_x, _y) in _solids or (_x, _y) in _river_tiles:
continue
if (x == -10 and 'west' in _building_walls) or (
y == -10 and 'north' in _building_walls) or (
x == 10 and 'east' in _building_walls) or (
y == 10 and 'south' in _building_walls):
if x == -10 and 'west' in _building_walls and 'west' in _broken_walls and random.uniform(
0, 1) > .75:
continue
if x == 10 and 'east' in _building_walls and 'east' in _broken_walls and random.uniform(
0, 1) > .75:
continue
if y == -10 and 'north' in _building_walls and 'north' in _broken_walls and random.uniform(
0, 1) > .75:
continue
if y == 10 and 'south' in _building_walls and 'south' in _broken_walls and random.uniform(
0, 1) > .75:
continue
_tile = tiles.wooden_fence(_x, _y)
_weight_map[_y][_x] = _tile['w']
_tile_map[_y][_x] = _tile
_solids.add((_x, _y))
elif (x > -10 and x <= 10) and (y > -10 and y <= 10):
_camp_ground.append((_x, _y))
_camp['ground'] = _camp_ground[:]
_camp_info[c_x, c_y] = _camp
mapgen.build_node_grid(_node_grid, _solids)
for c_x, c_y in _camps:
mapgen.add_plot_pole(c_x, c_y, 40, _solids)
_fsl = {
'Terrorists': {
'bases': 1,
'squads': 0,
'trader': False,
'type': life.human_runner
}
}
# #'Militia': {'bases': 0, 'squads': 1, 'trader': False, 'type': life.human_bandit},
# 'Wild Dogs': {'bases': 0, 'squads': 1, 'trader': False, 'type': life.wild_dog}}
return width, height, _node_grid, mapgen.NODE_SETS.copy(
), _weight_map, _tile_map, _solids, _fsl, _trees, _building_space - _walls
def make_bare_surface_map(player=None):
"""
Creates a map which is open by default, and then filled with boulders, mesas and rocks.
Uses a 2D noise generator. The map has an impenetrable border.
"""
objects_for_this_map = []
if player is None:
#Creating the object representing the player:
fighter_component = Fighter(hp=30, defense=2, power=5, xp=0, death_function=player_death) #creating the fighter aspect of the player
player = GamePiece(0, 0, 219, 'player', libtcod.white, blocks=False, fighter=fighter_component, speed=PLAYER_SPEED)
player.level = 1
objects_for_this_map.append(player)
else:
# This must not be a new game. We need to put the pre-existing player into the list and later give them an
# appropriate spot in the map to have spatial translation continuity.
objects_for_this_map.append(player)
noise2d = libtcod.noise_new(2) #create a 2D noise generator
libtcod.noise_set_type(noise2d, libtcod.NOISE_SIMPLEX) #tell it to use simplex noise for higher contrast
# Create the map with a default tile choice of empty unblocked squares.
newmap = [[ Tile(blocked=False, block_sight=False, char=' ', fore=color_ground, back=color_ground)
for y in range(MAP_HEIGHT)]
for x in range(MAP_WIDTH) ]
#Put a border around the map so the characters can't go off the edge of the world
for x in range(0, MAP_WIDTH):
newmap[x][0].blocked = True
newmap[x][0].block_sight = True
newmap[x][0].mapedge = True
newmap[x][0].fore = color_wall
newmap[x][0].back = color_wall
newmap[x][MAP_HEIGHT-1].blocked = True
newmap[x][MAP_HEIGHT-1].block_sight = True
newmap[x][MAP_HEIGHT-1].mapedge = True
newmap[x][MAP_HEIGHT-1].fore = color_wall
newmap[x][MAP_HEIGHT-1].back = color_wall
for y in range(0, MAP_HEIGHT):
newmap[0][y].blocked = True
newmap[0][y].block_sight = True
newmap[0][y].mapedge = True
newmap[0][y].fore = color_wall
newmap[0][y].back = color_wall
newmap[MAP_WIDTH-1][y].blocked = True
newmap[MAP_WIDTH-1][y].block_sight = True
newmap[MAP_WIDTH-1][y].mapedge = True
newmap[MAP_WIDTH-1][y].fore = color_wall
newmap[MAP_WIDTH-1][y].back = color_wall
# Create natural looking landscape
for x in range(1, MAP_WIDTH-1):
for y in range(1, MAP_HEIGHT-1):
if libtcod.noise_get_turbulence(noise2d, [x, y], 128.0, libtcod.NOISE_SIMPLEX) < 0.4:
#Turbulent simplex noise returns values between 0.0 and 1.0, with many values greater than 0.9.
newmap[x][y].blocked = True
newmap[x][y].block_sight = True
newmap[x][y].fore = color_wall
newmap[x][y].back = color_wall
# Scatter debris around the map to add flavor:
place_junk(newmap)
# Choose a spot for the player to start
player.x, player.y = choose_random_unblocked_spot(newmap)
return newmap, objects_for_this_map
def make_surface_map(player=None):
"""
Creates a map which is open by default, and then filled with boulders, mesas and buildings.
Uses a 2D noise generator. The map has an impenetrable border.
"""
objects_for_this_map = []
new_objects = []
more_objects = []
if player is None:
#Creating the object representing the player:
fighter_component = Fighter(hp=30, defense=2, power=5, xp=0, death_function=player_death) #creating the fighter aspect of the player
player = GamePiece(0, 0, 219, 'player', libtcod.white, blocks=False, fighter=fighter_component, speed=PLAYER_SPEED)
player.level = 1
objects_for_this_map.append(player)
else:
# This must not be a new game. We need to put the pre-existing player into the list and later give them an
# appropriate spot in the map to have spatial translation continuity.
objects_for_this_map.append(player)
noise2d = libtcod.noise_new(2) #create a 2D noise generator
libtcod.noise_set_type(noise2d, libtcod.NOISE_SIMPLEX) #tell it to use simplex noise for higher contrast
# Create the map with a default tile choice of empty unblocked squares.
newmap = [[ Tile(blocked=False, block_sight=False, char=' ', fore=color_ground, back=color_ground)
for y in range(MAP_HEIGHT)]
for x in range(MAP_WIDTH) ]
#Put a border around the map so the characters can't go off the edge of the world
for x in range(0, MAP_WIDTH):
newmap[x][0].blocked = True
newmap[x][0].block_sight = True
newmap[x][0].mapedge = True
newmap[x][0].fore = color_wall
newmap[x][0].back = color_wall
newmap[x][MAP_HEIGHT-1].blocked = True
newmap[x][MAP_HEIGHT-1].block_sight = True
newmap[x][MAP_HEIGHT-1].mapedge = True
newmap[x][MAP_HEIGHT-1].fore = color_wall
newmap[x][MAP_HEIGHT-1].back = color_wall
for y in range(0, MAP_HEIGHT):
newmap[0][y].blocked = True
newmap[0][y].block_sight = True
newmap[0][y].mapedge = True
newmap[0][y].fore = color_wall
newmap[0][y].back = color_wall
newmap[MAP_WIDTH-1][y].blocked = True
newmap[MAP_WIDTH-1][y].block_sight = True
newmap[MAP_WIDTH-1][y].mapedge = True
newmap[MAP_WIDTH-1][y].fore = color_wall
newmap[MAP_WIDTH-1][y].back = color_wall
# Create natural looking landscape
for x in range(1, MAP_WIDTH-1):
for y in range(1, MAP_HEIGHT-1):
if libtcod.noise_get_turbulence(noise2d, [x, y], 128.0, libtcod.NOISE_SIMPLEX) < 0.4:
#Turbulent simplex noise returns values between 0.0 and 1.0, with many values greater than 0.9.
newmap[x][y].blocked = True
newmap[x][y].block_sight = True
newmap[x][y].fore = color_wall
newmap[x][y].back = color_wall
# Place buildings
buildings = []
num_buildings = 0
for r in range(MAX_BUILDINGS):
w = libtcod.random_get_int(0, BUILDING_MIN_SIZE, BUILDING_MAX_SIZE)
h = libtcod.random_get_int(0, BUILDING_MIN_SIZE, BUILDING_MAX_SIZE)
x = libtcod.random_get_int(0, 0, MAP_WIDTH - w - 1)
y = libtcod.random_get_int(0, 0, MAP_HEIGHT - h - 1)
new_building = Rect(x, y, w, h)
create_building(newmap, new_building)
buildings.append(new_building)
num_buildings += 1
#Create stairs in the last building
if num_buildings == MAX_BUILDINGS:
new_x, new_y = new_building.center()
stairs = GamePiece(new_x, new_y, '>', 'stairs', libtcod.white, always_visible=True)
objects_for_this_map.append(stairs)
#stairs.send_to_back(newmap.objects) #so that it gets drawn below NPCs. I commented this out because
# it should be at the end anyway, since its being appended.
#Put doors in buildings. Have to do this AFTER they are built or later ones will overwrite earlier ones
# door_chances = { 'left': 25, 'right': 25, 'top': 25, 'bottom': 25 }
for place in buildings:
# num_doors = libtcod.random_get_int(0, 2, 4)
# for case in switch(num_doors):
# if case(2):
# choice = random_choice(door_chances)
doorx, doory = place.middle_of_wall('left')
if newmap[doorx][doory].blocked and not newmap[doorx][doory].mapedge:
newmap[doorx][doory].char = LEFT_DOOR
newmap[doorx][doory].blocked = False
newmap[doorx][doory].fore = libtcod.white
newmap[doorx][doory].back = libtcod.grey
doorx, doory = place.middle_of_wall('top')
if newmap[doorx][doory].blocked and not newmap[doorx][doory].mapedge:
newmap[doorx][doory].char = TOP_DOOR
newmap[doorx][doory].blocked = False
newmap[doorx][doory].fore = libtcod.white
newmap[doorx][doory].back = libtcod.grey
doorx, doory = place.middle_of_wall('right')
if newmap[doorx][doory].blocked and not newmap[doorx][doory].mapedge:
newmap[doorx][doory].char = RIGHT_DOOR
newmap[doorx][doory].blocked = False
newmap[doorx][doory].fore = libtcod.white
newmap[doorx][doory].back = libtcod.grey
doorx, doory = place.middle_of_wall('bottom')
if newmap[doorx][doory].blocked and not newmap[doorx][doory].mapedge:
newmap[doorx][doory].char = BOTTOM_DOOR
newmap[doorx][doory].blocked = False
newmap[doorx][doory].fore = libtcod.white
newmap[doorx][doory].back = libtcod.grey
more_objects = place_objects(newmap, place) #add some contents to this room
if more_objects is not None:
for item in more_objects:
new_objects.append(item)
# Scatter debris around the map to add flavor:
place_junk(newmap)
# Choose a spot for the player to start
player.x, player.y = choose_random_unblocked_spot(newmap)
for item in new_objects:
objects_for_this_map.append(item)
return newmap, objects_for_this_map
def generate(width, height):
_weight_map, _tile_map, _solids, _node_grid = mapgen.create_map(width, height)
_zoom = .95
_noise = tcod.noise_new(3)
_low_grass = 25
_fsl = {}
_building_space = set()
_walls = set()
_possible_trees = set()
_river_start_x = random.randint(int(round(width * .35)), int(round(width * .65)))
_river_start_y = 0#random.randint(int(round(height * .15)), int(round(height * .85)))
_x = _river_start_x
_y = _river_start_y
_px, _py = _river_start_x, _river_start_y
_river_direction = 270
_turn_rate = random.randint(-1, 1)
_river_tiles = set()
_river_size = random.randint(7, 10)
_ground_tiles = set()
_possible_camps = set()
while 1:
for i in range(4, 10):
for __x, __y in shapes.circle(_x, _y, _river_size):
if __x < 0 or __y < 0 or __x >= width or __y >= height or (__x, __y) in _solids:
continue
_river_tiles.add((__x, __y))
_tile = tiles.swamp_water(__x, __y)
_tile_map[__y][__x] = _tile
_weight_map[__y][__x] = _tile['w']
_river_direction += _turn_rate
_xv, _yv = numbers.velocity(_river_direction, 1)
_px += _xv
_py += _yv
_x = int(round(_px))
_y = int(round(_py))
if _x < 0 or _y < 0 or _x >= width or _y >= height or (_x, _y) in _solids:
break
if _x < 0 or _y < 0 or _x >= width or _y >= height:
break
_turn_rate = random.uniform(-2.5, 2.5)
_river_size = numbers.clip(_river_size + random.randint(-1, 1), 7, 10)
for y in range(height):
for x in range(width):
if (x, y) in _river_tiles:
continue
_tile = tiles.grass(x, y)
_tile_map[y][x] = _tile
_weight_map[y][x] = _tile['w']
_ground_tiles.add((x, y))
tcod.noise_set_type(_noise, tcod.NOISE_WAVELET)
for y in range(height):
for x in range(width):
if (x, y) in _river_tiles:
continue
_noise_values = [(_zoom * x / (constants.MAP_VIEW_WIDTH)),
(_zoom * y / (constants.MAP_VIEW_HEIGHT))]
_noise_value = 100 * tcod.noise_get_turbulence(_noise, _noise_values, tcod.NOISE_WAVELET)
if _low_grass <= _noise_value <= 100:
_tile = tiles.tall_grass(x, y)
if _noise_value >= 40:
if not x < width * .15 and not x > width * .85 and not y < height * .15 and not y > height * .85:
_possible_camps.add((x, y))
if random.uniform(0, 1) > .5:
_possible_trees.add((x, y))
elif _noise_value >= _low_grass - 10 and 10 * random.uniform(0, 1) > _low_grass-_noise_value:
_tile = tiles.grass(x, y)
else:
_tile = tiles.rock(x, y)
_solids.add((x, y))
_tile_map[y][x] = _tile
_weight_map[y][x] = _tile['w']
_trees = {}
_tree_plots = _possible_trees - _solids - _river_tiles
_used_trees = random.sample(_tree_plots, numbers.clip(int(round((width * height) * .002)), 0, len(_tree_plots)))
for x, y in _used_trees:
_size = random.randint(1, 3)
for _x, _y in shapes.circle(x, y, _size):
if _x < 0 or _y < 0 or _x >= width or _y >= height or (_x, _y) in _solids:
break
_tile = tiles.tree(_x, _y)
_weight_map[_y][_x] = _tile['w']
_tile_map[_y][_x] = _tile
_trees[_x, _y] = random.uniform(2, 3.5) * _size
_solids.add((_x, _y))
_ground_tiles = _ground_tiles - _solids
_plot_pole_x, _plot_pole_y = width/2, height/2
_bushes = random.sample(_ground_tiles, numbers.clip(int(round((width * height) * .0003)), 0, len(_ground_tiles)))
_camps = set()
while len(_possible_camps):
_camp_1 = random.choice(list(_possible_camps))
_possible_camps.remove(_camp_1)
_camps.add(_camp_1)
for camp_2 in _possible_camps.copy():
_dist = numbers.distance(_camp_1, camp_2)
if _dist <= 250:
_possible_camps.remove(camp_2)
for x, y in _bushes:
_walker_x = x
_walker_y = y
_last_dir = -2, -2
for i in range(random.randint(10, 15)):
_tile = tiles.tree(_walker_x, _walker_y)
_weight_map[_walker_y][_walker_x] = _tile['w']
_tile_map[_walker_y][_walker_x] =_tile
_dir = random.randint(-1, 1), random.randint(-1, 1)
_n_x = _walker_x + _dir[0]
_n_y = _walker_y + _dir[1]
if _n_x < 0 or _n_y < 0 or _n_x >= width or _n_y >= height or (_n_x, _n_y) in _solids:
break
_last_dir = _dir[0] * -1, _dir[0] * -1
_walker_x = _n_x
_walker_y = _n_y
_camp_info = {}
for c_x, c_y in _camps:
_building_walls = random.sample(['north', 'south', 'east', 'west'], random.randint(2, 3))
_broken_walls = random.sample(_building_walls, numbers.clip(random.randint(0, 3), 0, len(_building_walls)))
_camp = {'center': (c_x, c_y)}
_camp_ground = []
for y in range(-10, 10+1):
for x in range(-10, 10+1):
_x = x + c_x
_y = y + c_y
if (_x, _y) in _solids or (_x, _y) in _river_tiles:
continue
if (x == -10 and 'west' in _building_walls) or (y == -10 and 'north' in _building_walls) or (x == 10 and 'east' in _building_walls) or (y == 10 and 'south' in _building_walls):
if x == -10 and 'west' in _building_walls and 'west' in _broken_walls and random.uniform(0, 1) > .75:
continue
if x == 10 and 'east' in _building_walls and 'east' in _broken_walls and random.uniform(0, 1) > .75:
continue
if y == -10 and 'north' in _building_walls and 'north' in _broken_walls and random.uniform(0, 1) > .75:
continue
if y == 10 and 'south' in _building_walls and 'south' in _broken_walls and random.uniform(0, 1) > .75:
continue
_tile = tiles.wooden_fence(_x, _y)
_weight_map[_y][_x] = _tile['w']
_tile_map[_y][_x] = _tile
_solids.add((_x, _y))
elif (x > -10 and x <= 10) and (y > -10 and y <= 10):
_camp_ground.append((_x, _y))
_camp['ground'] = _camp_ground[:]
_camp_info[c_x, c_y] = _camp
mapgen.build_node_grid(_node_grid, _solids)
for c_x, c_y in _camps:
mapgen.add_plot_pole(c_x, c_y, 40, _solids)
_fsl = {'Terrorists': {'bases': 1, 'squads': 0, 'trader': False, 'type': life.human_runner}}
# #'Militia': {'bases': 0, 'squads': 1, 'trader': False, 'type': life.human_bandit},
# 'Wild Dogs': {'bases': 0, 'squads': 1, 'trader': False, 'type': life.wild_dog}}
return width, height, _node_grid, mapgen.NODE_SETS.copy(), _weight_map, _tile_map, _solids, _fsl, _trees, _building_space - _walls
def create_map():
_grid = world_strategy.MAP['grid']
_color_map = world_strategy.MAP['color_map']
_ownable_plots = set()
_banned_plots = set()
#Mountains
_noise = tcod.noise_new(3)
_zoom = 1.25
_c_pos = constants.STRAT_MAP_WIDTH/2, constants.STRAT_MAP_HEIGHT/2
_solids = set()
for y in range(0, constants.STRAT_MAP_HEIGHT):
for x in range(0, constants.STRAT_MAP_WIDTH):
_m_x = x / constants.MAP_CELL_SPACE
_m_y = y / constants.MAP_CELL_SPACE
_m_x = numbers.clip(_m_x, 1, (constants.STRAT_MAP_WIDTH/constants.MAP_CELL_SPACE) - 2)
_m_y = numbers.clip(_m_y, 1, (constants.STRAT_MAP_HEIGHT/constants.MAP_CELL_SPACE) - 2)
_c_mod = numbers.float_distance(_c_pos, (x, y))/max([constants.STRAT_MAP_WIDTH/2, constants.STRAT_MAP_HEIGHT/2])
_noise_values = [(_zoom * x / (constants.STRAT_MAP_WIDTH)),
(_zoom * y / (constants.STRAT_MAP_HEIGHT))]
_height = tcod.noise_get_turbulence(_noise, _noise_values, tcod.NOISE_SIMPLEX) * _c_mod
_char = ' '
#Mountain
if _height > .55:
_color_map[x, y] = random.choice([constants.DARKER_GRAY_1,
constants.DARKER_GRAY_2,
constants.DARKER_GRAY_3])
_grid[_m_x, _m_y]['is_ownable'] = False
_banned_plots.add((_m_x, _m_y))
_c_1 = int(round(_color_map[x, y][0] * (1.8 * _height)))
_c_2 = int(round(_color_map[x, y][1] * (1.8 * _height)))
_c_3 = int(round(_color_map[x, y][2] * (1.8 * _height)))
else:
_color_map[x, y] = random.choice([constants.FOREST_GREEN_1,
constants.FOREST_GREEN_2,
constants.FOREST_GREEN_3])
_ownable_plots.add((_m_x, _m_y))
if _height <= .2:
_char = random.choice([',', '.', '\'', ' ' * (1 + (20 * int(round(_height))))])
_height -= .1
_c_1 = int(round(_color_map[x, y][0] * (.7 + _height * 2.8)))
_c_2 = int(round(_color_map[x, y][1] * (1.0 + _height * .9)))
_c_3 = int(round(_color_map[x, y][2] * (.75 + _height * 1.2)))
display._set_char('map', x, y, _char, (int(round(_c_1 * .8)), int(round(_c_2 * .8)), int(round(_c_3 * .8))), (_c_1, _c_2, _c_3))
_solids = [(x, y) for x, y in list(_banned_plots)]
world_strategy.MAP['astar_map'] = pathfinding.setup(constants.STRAT_MAP_WIDTH/constants.MAP_CELL_SPACE,
constants.STRAT_MAP_HEIGHT/constants.MAP_CELL_SPACE,
_solids)
return list(_ownable_plots - _banned_plots)