def create_hallway(self, room1: Rect, room2: Rect, horiz=False) -> None:
halls = randint(2, 3)
for i in range(0, halls):
if not horiz:
top = [point for point in room1.points_top]
edge_point = top[randrange(0, len(top))]
closest_point = edge_point.get_closest_point(
[p for p in room2.points])
if room2.with_inset(1).contains(
next(edge_point.path_L_to(closest_point))):
bottom = [point for point in room1.points_bottom]
edge_point = bottom[randrange(0, len(bottom))]
closest_point = edge_point.get_closest_point(
[p for p in room2.points])
edge_tile = self.cell(edge_point)
closest_tile = self.cell(closest_point)
self.connect_tiles(edge_tile, closest_tile, manhattan=True)
else:
right = [point for point in room1.points_right]
edge_point = right[randrange(0, len(right))]
closest_point = edge_point.get_closest_point(
[p for p in room2.points])
if room2.with_inset(1).contains(
next(edge_point.path_L_to(closest_point))):
left = [point for point in room1.points_left]
edge_point = left[randrange(0, len(left))]
closest_point = edge_point.get_closest_point(
[p for p in room2.points])
edge_tile = self.cell(edge_point)
closest_tile = self.cell(closest_point)
self.connect_tiles(edge_tile, closest_tile, manhattan=True)
def layout_subviews(self):
for i in range(len(self.labels)):
is_in_view = self.get_is_in_view(i)
if is_in_view:
y = 1 + self.frame.y + i - self.min_row
self.labels[i].frame = Rect(
Point(self.frame.x + 1, y),
Size(self.frame.width - self.value_column_width - 2, 1))
self.values[i].frame = Rect(
Point(
self.frame.x + 1 + self.frame.width -
self.value_column_width - 2, y),
Size(self.value_column_width, 1))
self.labels[i].is_hidden = not is_in_view
self.values[i].is_hidden = not is_in_view
def __init__(self, origin: Point, size: Size):
super().__init__(size, cell_class=Empty)
self.size = size
self.entities = []
self.room_min = self.ROOM_MIN
self.room_max = self.ROOM_MAX
self.leaf_min = self.LEAF_MIN
self.stairs_up = None
self.stairs_down = None
self.bsp_tree = RandomBSPTree(self.size, self.leaf_min)
self.bounds = Rect(origin, size)
self.area = self.bounds.with_inset(1)
self.generate()
def layout_subviews(self):
self.rect_view.apply_springs_and_struts_layout_in_superview()
if self.scroll_fraction >= 0:
self.scroll_indicator_view.frame = Rect(
Point(self.bounds.width - 1, 1 +
floor(self.inner_height * self.scroll_fraction)),
Size(1, 1))
for i in range(len(self.labels)):
is_in_view = self.get_is_in_view(i)
if is_in_view:
y = 1 + self.bounds.y + i - self.min_row
self.labels[i].frame = Rect(
Point(self.bounds.x + 1, y),
Size(self.bounds.width - self.value_column_width - 2, 1))
self.values[i].frame = Rect(
Point(self.bounds.x + 1 + self.bounds.width -
self.value_column_width - 2, y),
Size(self.value_column_width, 1))
self.labels[i].is_hidden = not is_in_view
self.values[i].is_hidden = not is_in_view
def draw(self, ctx):
ctx.bkcolor('#000000')
ctx.clear_area(self.bounds)
current_player_position = self.game_state.level.player.position
if current_player_position is not None:
self.last_known_player_position = current_player_position
half_size = (self.bounds.size / 2).floored
draw_game(self.game_state,
bounds=Rect(self.last_known_player_position - half_size,
self.bounds.size),
ctx=ctx)
def __init__(self):
self.window = Window()
self.message_log = []
self.gutter = []
self.gutter_size = Size(
self.window.width - MAP_SIZE.width + MAP_ORIGIN.x,
self.window.height - MAP_ORIGIN.y)
self.gutter_rect = Rect(
Point(self.window.width - self.gutter_size.width,
self.window.height - self.gutter_size.height),
self.gutter_size)
self.log_height = LOG_HEIGHT
super().__init__()
def place_room(self, room: Rect, no_floor: bool = False):
if not no_floor:
for point in room.with_inset(1).points:
self.set_cell(FloorTile(point))
for point in room.points_top:
self.set_cell(Wall(point, Orientation.HORIZONTAL))
for point in room.points_bottom:
self.set_cell(Wall(point, Orientation.HORIZONTAL))
for point in room.points_left:
self.set_cell(Wall(point, Orientation.VERTICAL))
for point in room.points_right:
self.set_cell(Wall(point, Orientation.VERTICAL))
self.set_cell(Wall(room.origin, Orientation.TOP_LEFT))
self.set_cell(Wall(room.point_top_right, Orientation.TOP_RIGHT))
self.set_cell(Wall(room.point_bottom_right, Orientation.BOTTOM_RIGHT))
self.set_cell(Wall(room.point_bottom_left, Orientation.BOTTOM_LEFT))
def __init__(self, scene: 'GameScene'):
self.__floors = {}
self._floor_size = self.FLOOR_SIZE
self._origin = self.ORIGIN
self._center = Point(int(self._floor_size.width / 2),
int(self._floor_size.height / 2))
self._view_size = self.VIEW_SIZE
self._view_rect = Rect(self._origin, self._view_size)
self._view_center = Point(int(self._view_size.width / 2),
int(self._view_size.height / 2))
self._current_floor = 0
self.scene = scene
for i in range(0, self.FLOORS):
self.__floors[i] = Floor(self._origin, self._floor_size)
self.populate_floor(self.__floors[i])
for index in self.__floors:
floor = self.__floors.get(index + 1)
if floor:
self.place_stairs(index, index + 1)
for floor in self.__floors.values():
if floor.stairs_down and floor.stairs_up:
floor.connect_tiles(floor.stairs_down, floor.stairs_up)
player_start_tile = self.floor.cell(
self.floor.stairs_up.point.get_farthest_point(
[tile.point for tile in self.floor.get_open_tiles()]))
self.player = Player(player_start_tile, self, self.scene)
self.floor.connect_tiles(player_start_tile, self.floor.stairs_up)
last_floor = self.get_floor(self.FLOORS - 1)
chronotherium_start_tile = last_floor.cell(
last_floor.find_open_point())
Chronotherium(chronotherium_start_tile, self, self.scene)
last_floor.connect_tiles(chronotherium_start_tile,
last_floor.stairs_down)
def _apply_springs_and_struts_layout_to_view(view):
options = view.layout_options
spec = view.layout_spec
superview_bounds = view.superview.bounds
fields = [
('left', 'right', 'x', 'width'),
('top', 'bottom', 'y', 'height'),
]
final_frame = Rect(Point(-1000, -1000), Size(-1000, -1000))
for field_start, field_end, field_coord, field_size in fields:
debug_string = options.get_debug_string_for_keys(
[field_start, field_size, field_end])
matches = (options.get_is_defined(field_start),
options.get_is_defined(field_size),
options.get_is_defined(field_end))
if matches == (True, True, True):
raise ValueError(
"Invalid spring/strut definition: {}".format(debug_string))
if matches == (False, False, False):
raise ValueError(
"Invalid spring/strut definition: {}".format(debug_string))
elif matches == (True, False, False):
setattr(final_frame, field_coord,
options.get_value(field_start, view))
# pretend that size is constant from frame
setattr(final_frame, field_size, getattr(spec, field_size))
elif matches == (True, True, False):
setattr(final_frame, field_coord,
options.get_value(field_start, view))
setattr(final_frame, field_size,
options.get_value(field_size, view))
elif matches == (False, True, False): # magical centering!
size_val = options.get_value(field_size, view)
setattr(final_frame, field_size, size_val)
setattr(final_frame, field_coord,
getattr(superview_bounds, field_size) / 2 - size_val / 2)
elif matches == (False, True, True):
size_val = options.get_value(field_size, view)
setattr(
final_frame, field_coord,
getattr(superview_bounds, field_size) -
options.get_value(field_end, view) - size_val)
setattr(final_frame, field_size, size_val)
elif matches == (False, False, True):
setattr(
final_frame, field_coord,
getattr(superview_bounds, field_size) -
options.get_value(field_end, view))
# pretend that size is constant from frame
setattr(final_frame, field_size, getattr(spec, field_size))
elif matches == (True, False, True):
start_val = options.get_value(field_start, view)
end_val = options.get_value(field_end, view)
setattr(final_frame, field_coord, start_val)
setattr(
final_frame, field_size,
getattr(superview_bounds, field_size) - start_val - end_val)
else:
raise ValueError("Unhandled case: {}".format(debug_string))
assert (final_frame.x != -1000)
assert (final_frame.y != -1000)
assert (final_frame.width != -1000)
assert (final_frame.height != -1000)
view.frame = final_frame.floored
import weakref
from collections import namedtuple
from numbers import Real
from clubsandwich.geom import Point, Rect, Size
from clubsandwich.blt.context import BearLibTerminalContext
from .layout_options import LayoutOptions
ZERO_RECT = Rect(Point(0, 0), Size(0, 0))
class View:
def __init__(self,
frame=None,
subviews=None,
scene=None,
layout_options=None):
if isinstance(layout_options, dict): # have pity on the user's imports
opts = LayoutOptions()._asdict()
opts.update(layout_options)
layout_options = LayoutOptions(**opts)
self._scene = scene
self._superview_weakref = lambda: None
self.needs_layout = True
self._frame = frame or ZERO_RECT
self._bounds = self.frame.with_origin(Point(0, 0))
self.subviews = []
self.add_subviews(subviews or [])
self.is_first_responder = False
self.is_hidden = False
def in_range(self, other):
range_rect = Rect(self.position - Point(self._range, self._range),
Size(self._range * 2, self._range * 2))
return range_rect.contains(other.position)
def bounds(self) -> Rect:
return Rect(self.map.origin, self.map.view_size)
"""
Demonstrates BearLibTerminalContext (more convenient rendering) and blt_state
"""
from clubsandwich.blt.state import blt_state
from clubsandwich.blt.context import BearLibTerminalContext
from clubsandwich.geom import Rect, Size, Point
terminal = BearLibTerminalContext()
terminal.open()
terminal.bkcolor('#ff0000')
# move frame of reference to middle of screen
with terminal.translate(
(Point(blt_state.width, blt_state.height) / 2).floored):
terminal.clear_area(Rect(Point(-1, -1), Size(3, 2)))
terminal.refresh()
# less verbose than terminal.state(terminal.TK_ESCAPE)!
while not blt_state.escape:
terminal.read()
terminal.close()
class Floor(TileMap):
LEAF_MIN = 6
ROOM_MIN = 5
ROOM_MAX = 7
def __init__(self, origin: Point, size: Size):
super().__init__(size, cell_class=Empty)
self.size = size
self.entities = []
self.room_min = self.ROOM_MIN
self.room_max = self.ROOM_MAX
self.leaf_min = self.LEAF_MIN
self.stairs_up = None
self.stairs_down = None
self.bsp_tree = RandomBSPTree(self.size, self.leaf_min)
self.bounds = Rect(origin, size)
self.area = self.bounds.with_inset(1)
self.generate()
def set_cell(self, tile: Tile):
try:
self._cells[tile.point.x][tile.point.y] = tile
tile.floor = self
except IndexError:
logger.info("Setting cell out of bounds!")
return False
def get_empty_tiles(self, rect: Rect = None):
empty_tiles = []
if rect is not None:
for point in rect.points:
if isinstance(self.cell(point), Empty):
empty_tiles.append(self.cell(point))
else:
for cell in self.cells:
if isinstance(cell, Empty):
empty_tiles.append(cell)
return empty_tiles
def get_open_tiles(self, rect: Rect = None):
open_tiles = []
if rect is not None:
for point in rect.points:
if self.cell(point).open:
open_tiles.append(self.cell(point))
else:
for cell in self.cells:
if cell.open:
open_tiles.append(cell)
return open_tiles
def find_empty_point(self, rect: Rect = None) -> Point:
empty_tiles = self.get_empty_tiles(rect=rect)
return empty_tiles[randrange(0, len(empty_tiles))].point
def find_open_point(self, rect: Rect = None) -> Point:
open_tiles = self.get_open_tiles(rect=rect)
return open_tiles[randrange(0, len(open_tiles))].point
def connect_tiles(self,
tile1: Tile,
tile2: Tile,
doors: bool = True,
manhattan: bool = False):
origin = tile1.point
dest = origin.get_closest_point(
[neighbor for neighbor in tile2.point.neighbors])
self.hallway_tile(origin, doors)
if manhattan:
for point in origin.path_L_to(dest):
self.hallway_tile(point, doors)
else:
for point in origin.points_bresenham_to(dest):
self.hallway_tile(point, doors)
self.hallway_tile(dest, doors)
def hallway_tile(self, point, doors=True):
if isinstance(self.cell(point), Wall):
if doors:
if any([
neighbor for neighbor in point.neighbors
if isinstance(neighbor, Door)
]):
return
else:
tile = Door(point)
else:
if isinstance(self.cell(point), Door):
return
else:
tile = FloorTile(point)
else:
tile = FloorTile(point)
self.set_cell(tile)
def connect_nodes(self,
node1: BSPNode,
node2: BSPNode,
connect_parents: bool = False):
if not node1.data.get('connected_to_sibling') or not node2.data.get(
'connected_to_sibling'):
room1 = node1.data.get('room')
room2 = node2.data.get('room')
if room1 and room2:
self.create_hallway(room1, room2, horiz=node1.is_horz)
else:
halls = randint(2, 4)
for i in range(0, halls):
tile1 = self.cell(
self.find_open_point(rect=node1.rect.with_inset(1)))
tile2 = self.cell(
self.find_open_point(rect=node2.rect.with_inset(1)))
self.connect_tiles(tile1, tile2)
node1.data['connected_to_sibling'] = True
node2.data['connected_to_sibling'] = True
if connect_parents:
parent1 = node1.parent_weakref()
parent2 = node2.parent_weakref()
if parent1 and parent2:
self.connect_nodes(parent1, parent2)
def generate(self):
rooms = []
for leaf in self.bsp_tree.root.leaves:
room = leaf.rect.get_random_rect(
min_size=Size(self.room_min, self.room_min))
leaf.data['room'] = room
leaf.data['connected_to_sibling'] = False
rooms.append(room)
for room in rooms:
self.place_room(room)
for siblings in self.bsp_tree.root.sibling_pairs:
self.connect_nodes(*siblings)
for leaf in self.bsp_tree.root.leaves:
self.connect_nodes(leaf,
next(self.bsp_tree.root.leaves),
connect_parents=True)
def create_hallway(self, room1: Rect, room2: Rect, horiz=False) -> None:
halls = randint(2, 3)
for i in range(0, halls):
if not horiz:
top = [point for point in room1.points_top]
edge_point = top[randrange(0, len(top))]
closest_point = edge_point.get_closest_point(
[p for p in room2.points])
if room2.with_inset(1).contains(
next(edge_point.path_L_to(closest_point))):
bottom = [point for point in room1.points_bottom]
edge_point = bottom[randrange(0, len(bottom))]
closest_point = edge_point.get_closest_point(
[p for p in room2.points])
edge_tile = self.cell(edge_point)
closest_tile = self.cell(closest_point)
self.connect_tiles(edge_tile, closest_tile, manhattan=True)
else:
right = [point for point in room1.points_right]
edge_point = right[randrange(0, len(right))]
closest_point = edge_point.get_closest_point(
[p for p in room2.points])
if room2.with_inset(1).contains(
next(edge_point.path_L_to(closest_point))):
left = [point for point in room1.points_left]
edge_point = left[randrange(0, len(left))]
closest_point = edge_point.get_closest_point(
[p for p in room2.points])
edge_tile = self.cell(edge_point)
closest_tile = self.cell(closest_point)
self.connect_tiles(edge_tile, closest_tile, manhattan=True)
def get_rect(self) -> Rect:
width = randint(self.room_min, self.room_max)
height = randint(self.room_min, self.room_max)
origin = self.find_empty_point()
return Rect(origin, Size(width, height))
def place_room(self, room: Rect, no_floor: bool = False):
if not no_floor:
for point in room.with_inset(1).points:
self.set_cell(FloorTile(point))
for point in room.points_top:
self.set_cell(Wall(point, Orientation.HORIZONTAL))
for point in room.points_bottom:
self.set_cell(Wall(point, Orientation.HORIZONTAL))
for point in room.points_left:
self.set_cell(Wall(point, Orientation.VERTICAL))
for point in room.points_right:
self.set_cell(Wall(point, Orientation.VERTICAL))
self.set_cell(Wall(room.origin, Orientation.TOP_LEFT))
self.set_cell(Wall(room.point_top_right, Orientation.TOP_RIGHT))
self.set_cell(Wall(room.point_bottom_right, Orientation.BOTTOM_RIGHT))
self.set_cell(Wall(room.point_bottom_left, Orientation.BOTTOM_LEFT))
def bounds_room(self):
for point in self.area.points:
self.set_cell(FloorTile(point))
self.place_room(self.bounds, no_floor=True)
def get_rect(self) -> Rect:
width = randint(self.room_min, self.room_max)
height = randint(self.room_min, self.room_max)
origin = self.find_empty_point()
return Rect(origin, Size(width, height))
