def __init__(self):
self.width = 30 #int(settings.game_data['map_width'])
self.height = 20 #int(settings.game_data['map_height'])
self.seed = 42352336
self.water = 5 # int(settings.game_data['water_level'])
self.max_diff = 1
self.canvas = Canvas()
self.tile = generator.generate_map(
width=self.width,
height=self.height,
seed=self.seed,
water=self.water,
max_diff=self.max_diff
)
for x in range(self.width):
for y in range(self.height):
self.tile[x][y].map = self
self.canvas.add(self.tile[x][y])
# real pixel dimensions
self.real_x = 0
self.real_y = 0
self.real_w = 0
self.real_h = 0
def draw(self):
app = App.get_running_app()
if not self.canvas:
self.canvas = Canvas()
self.canvas.clear()
with self.canvas:
Color(rgb=app.COLOR_PALETTE[self.bg_color])
Rectangle(pos=self.pos, size=(self.width, self.height))
Color(rgb=app.COLOR_PALETTE[self.fg_color])
Rectangle(texture=self.texture,
pos=self.pos,
size=(self.width, self.height))
def __init__(self, **kwargs):
super().__init__(**kwargs)
if self.canvas is None:
self.canvas = Canvas(opacity=self.opacity)
self.add_background(self.user_pos,
opacity=self.opacity,
last_canvas=self.canvas)
def __init__(self, canvas=None):
self.drawBones = True
self.drawRegionAttachments = True
self.drawBoundingBoxes = True
self.drawMeshHull = True
self.drawMeshTriangles = True
self.bounds = SkeletonBounds()
self.shapes = None
self.scale = 1
self.boneWidth = 2
self.preMultipliedAlpha = False
if canvas is None:
self.shapes = Canvas()
else:
self.shapes = canvas
class CharDisplay(Widget):
binary_char_data = ListProperty([])
fg_color = NumericProperty(0)
bg_color = NumericProperty(1)
def __init__(self, **kwargs):
self.texture = Texture.create(size=(8, 8))
self.texture.min_filter = 'nearest'
self.texture.mag_filter = 'nearest'
super(CharDisplay, self).__init__(**kwargs)
def on_binary_char_data(self, *args, **kwargs):
buf = []
for b in numpy.unpackbits(self.binary_char_data):
buf.append(255)
buf.append(255)
buf.append(255)
buf.append(255 if b else 0)
buf = bytes(buf)
self.texture.blit_buffer(buf, colorfmt='rgba', bufferfmt='ubyte')
self.draw()
def draw(self):
app = App.get_running_app()
if not self.canvas:
self.canvas = Canvas()
self.canvas.clear()
with self.canvas:
Color(rgb=app.COLOR_PALETTE[self.bg_color])
Rectangle(pos=self.pos, size=(self.width, self.height))
Color(rgb=app.COLOR_PALETTE[self.fg_color])
Rectangle(texture=self.texture,
pos=self.pos,
size=(self.width, self.height))
def initialize(self):
self.initialized = True
try:
self.window_width
self.window_height
except AttributeError:
win = self.get_parent_window()
# `window_width` & `window_height`: dimensions of the window, in pixels
self.window_width = win.width
self.window_height = win.height
# `matrix`: the matrix holding the maze. Values in this matrix are:
# - nonnegative numbers: corridors; the value represents the shortest
# distance to the exit (these will be set using set_walls later)
# -1: regular (breakable) wall
# -2: perimeter (unbreakable) wall
# -3: exit
# -4: entrance
self.matrix = -numpy.transpose(
numpy.array(create_maze(
self.window_width // MAZE_CELL_SIZE,
self.window_height // MAZE_CELL_SIZE,
), dtype=numpy.int8)
)
# `width`/`height`: size of the maze, in tiles
self.width, self.height = self.matrix.shape
# `cell_width`/`cell_height`: size of a tile, in pixels
self.cell_width = self.window_width / self.width
self.cell_height = self.window_height / self.height
# `cell_size`: average size of a tile, as a scalar
self.cell_size = (self.cell_width + self.cell_height) / 2
# Initialize perimeter walls and entrance/exit
for x in range(self.width):
self.matrix[x, 0] = self.matrix[x, self.height - 1] = -2
for y in range(self.height):
self.matrix[0, y] = self.matrix[self.width - 1, y] = -2
self.matrix[0, 1] = -3
self.matrix[self.width - 1, self.height - 2] = -4
# `balls`: list of Ball widgets on this board
self.balls = []
# `start_point`, `start_cranny`: Coordinates of the entrance and the
# tile next to it. (The corresponding coordinates for the exit are
# simply (0, 1) and (1, 1))
self.start_point = self.width - 2, self.height - 2
self.start_cranny = self.width - 1, self.height - 2
# `bdist`: same as `matrix` except positive numbers indicate shortest
# distance to the entrance or nearest ball
# `dist`: ditto with shortest distance to just the entrance
self.bdist = self.dist = self.matrix
self.set_walls(self.matrix)
# Initialize the graphic representation
self.background_canvas = Canvas()
self.canvas.add(self.background_canvas)
self.draw()
# Add the ball source (zero-sized initially)
self.ball_source = BallSource(size=(0, 0),
pos=(self.window_width, self.window_height))
self.add_widget(self.ball_source)
# Initialize the countdown for the solver
Clock.schedule_once(lambda dt: self.countdown(COUNTDOWN_START), 1)
# Redraw every 30th of a second
Clock.schedule_interval(self.redraw, 0.03)
class MazeBoard(TickingWidget):
"""A maze for a single turn in the game
MazeBoard contains the maze. Balls and builders are child widgets of a
MazeBoard.
"""
darkWalls = True
def __init__(self):
self.initialized = False
super(MazeBoard, self).__init__()
Clock.schedule_once(lambda dt: self.initialize())
self.must_redraw = False
self.time = 0
def initialize(self):
self.initialized = True
try:
self.window_width
self.window_height
except AttributeError:
win = self.get_parent_window()
# `window_width` & `window_height`: dimensions of the window, in pixels
self.window_width = win.width
self.window_height = win.height
# `matrix`: the matrix holding the maze. Values in this matrix are:
# - nonnegative numbers: corridors; the value represents the shortest
# distance to the exit (these will be set using set_walls later)
# -1: regular (breakable) wall
# -2: perimeter (unbreakable) wall
# -3: exit
# -4: entrance
self.matrix = -numpy.transpose(
numpy.array(create_maze(
self.window_width // MAZE_CELL_SIZE,
self.window_height // MAZE_CELL_SIZE,
), dtype=numpy.int8)
)
# `width`/`height`: size of the maze, in tiles
self.width, self.height = self.matrix.shape
# `cell_width`/`cell_height`: size of a tile, in pixels
self.cell_width = self.window_width / self.width
self.cell_height = self.window_height / self.height
# `cell_size`: average size of a tile, as a scalar
self.cell_size = (self.cell_width + self.cell_height) / 2
# Initialize perimeter walls and entrance/exit
for x in range(self.width):
self.matrix[x, 0] = self.matrix[x, self.height - 1] = -2
for y in range(self.height):
self.matrix[0, y] = self.matrix[self.width - 1, y] = -2
self.matrix[0, 1] = -3
self.matrix[self.width - 1, self.height - 2] = -4
# `balls`: list of Ball widgets on this board
self.balls = []
# `start_point`, `start_cranny`: Coordinates of the entrance and the
# tile next to it. (The corresponding coordinates for the exit are
# simply (0, 1) and (1, 1))
self.start_point = self.width - 2, self.height - 2
self.start_cranny = self.width - 1, self.height - 2
# `bdist`: same as `matrix` except positive numbers indicate shortest
# distance to the entrance or nearest ball
# `dist`: ditto with shortest distance to just the entrance
self.bdist = self.dist = self.matrix
self.set_walls(self.matrix)
# Initialize the graphic representation
self.background_canvas = Canvas()
self.canvas.add(self.background_canvas)
self.draw()
# Add the ball source (zero-sized initially)
self.ball_source = BallSource(size=(0, 0),
pos=(self.window_width, self.window_height))
self.add_widget(self.ball_source)
# Initialize the countdown for the solver
Clock.schedule_once(lambda dt: self.countdown(COUNTDOWN_START), 1)
# Redraw every 30th of a second
Clock.schedule_interval(self.redraw, 0.03)
def countdown(self, num):
"""The countdown for the solving player
For positive `num`, shows the number near the maze entrance, animates
it, and schedules a call to countdown(num-1) for one second.
For num == 0, display 'Go!', animate it, and grow the ball source.
"""
label = Label(
text=str(num) if num else 'Go!',
font_size=24,
color=(0, 0, 1, 1),
)
with label.canvas.before:
PushMatrix()
Translate(
self.window_width - self.cell_size * 1,
self.window_height - self.cell_size * 5,
0,
)
Rotate(90, 0, 0, 1)
with label.canvas.after:
PopMatrix()
animation = Animation(font_size=256, color=(0, 0, 1, 0),
t='in_cubic', duration=1.5)
animation.start(label)
self.add_widget(label)
if num > 0:
Clock.schedule_once(lambda dt: self.countdown(num - 1), 1)
else:
self.ball_source.grow(self.cell_size * 3)
if self.parent:
self.parent.set_message(True,
u'Take a ball from the blue corner.')
def add_time(self, time):
"""Add time to the solving player's clock
"""
self.time += time
if self.time > 15:
# If the player is taking a long time, display a (hopefully
# helpful) hint
self.parent.set_message(True,
u"Take another ball if you're really stuck.")
self.parent.add_time(time)
def draw(self):
"""Draw the board.
The colors are filled in later, in tick()
"""
self.colors = {}
self.background_canvas.clear()
with self.background_canvas:
for y in range(self.height):
y_coord = y * self.cell_height
for x in range(self.width):
x_coord = x * self.cell_width
self.colors[x, y] = Color(0, 0, 0)
Rectangle(pos=(x_coord, y_coord),
size=(self.cell_width, self.cell_height))
self.redraw()
def redraw(self, dt=None):
"""Called any time the maze's colors change
"""
self.must_redraw = True
def tick(self, dt=None):
"""Set all tile colors to the appropriate values
"""
if not self.must_redraw:
return
else:
self.must_redraw = False
sys.stdout.flush()
self.set_walls(self.matrix)
for y in range(self.height):
y_coord = y * self.cell_height
for x in range(self.width):
self.colors[x, y].rgba = self.tile_color(x, y)
self.background_canvas.ask_update()
def tile_color(self, x, y):
"""Get the color for the tile at (x, y)
"""
if self.matrix[x, y] == -4:
# Entrance; same color as neighboring tile
return self.tile_color(x - 1, y)
elif self.matrix[x, y] == -3:
# Exit; same color as neighboring tile
return self.tile_color(x + 1, y)
elif self.matrix[x, y] < 0:
# Wall, transparent black
if self.darkWalls:
return 0, 0, 0, 0
else:
# (with light walls; white)
return 1, 1, 1, 1
else:
# Corridor; a light color based on distances to the entrance, exit
# and nearest ball
m = self.matrix[x, y]
d = self.dist[x, y]
b = self.bdist[x, y]
mmax = self.matrix.max() or 1
dmax = self.dist.max() or 1
bmax = self.bdist.max() or 1
r = m / mmax
g = 1 - d / dmax
b = 1 - min(m, b) / min(mmax, bmax)
if self.darkWalls:
a = (numpy.array((max(g, b), max(r, b), max(r, g), 0)) ** 8)
return 1 - a / 2
else:
# (with light walls; a dark color)
return numpy.array((r, g, b, 1)) ** 8
def set_walls(self, matrix):
"""Set walls and solve the maze. No-op if maze is unsolvable.
`matrix`: A 2D matrix with negative values for walls
"""
mstart = numpy.zeros(matrix.shape + (3,), dtype=numpy.int32)
mstart[self.start_point + (0,)] = mstart[(1, 1, 1)] = 1
mstart[self.start_cranny + (2,)] = 1
mstart[self.start_point + (2,)] = 1
for ball in self.balls:
tile_pos = self.pixel_to_tile(ball.pos)
mstart[int(tile_pos[0]), int(tile_pos[1]), 2] = 1
corridors = matrix >= 0
m = solvemaze(corridors, mstart)
if m is None:
return False
m[self.start_point + (0,)] = m[(1, 1, 1)] = 1
self.bdist = m[:, :, 2]
self.dist = m[:, :, 1]
m = m[:, :, 0]
self.matrix = numpy.select([matrix < 0, True], [matrix, m])
# Clear cache of unsuccessful building attempts
self.build_tries = defaultdict(set)
return True
def set_wall(self, coord, create):
"""Set (create== True) or destroy (create == False) a wall at coord
If the operation would create an unsolvable maze, nothing is done.
These unsuccessful attempts are cached in `build_tries` until the maze
is changed
"""
if coord in self.build_tries[create]:
return False
self.build_tries[create].add(coord)
if coord == self.start_cranny or coord == (2, 1):
return False
try:
current_state = self.matrix[coord]
except IndexError:
return False
m = self.matrix.copy()
if not create and current_state >= 0:
# Build a wall
m[coord] = -1
rv = self.set_walls(m)
elif create and current_state == -1:
# Build a corridor
m[coord] = 0
rv = self.set_walls(m)
else:
return False
if rv:
self.redraw()
return rv
def pixel_to_tile(self, pos):
"""Convert pixel coordinates to tile coordinates
Returns a pair of floats
"""
return (
pos[0] / self.cell_width,
pos[1] / self.cell_height,
)
def tile_to_pixel(self, tile_coord):
"""Convert tile coordinates to pixel coordinates
Returns a pair of floats
"""
return (
float(tile_coord[0] * self.cell_width),
float(tile_coord[1] * self.cell_height),
)
def wall_at_pixel(self, pos):
"""True if there is a wall at the specified pixel coordinates
"""
return self.wall_at_tile(self.pixel_to_tile(pos))
def wall_at_tile(self, tile_coord):
"""True if there is a wall at the specified tile coordinates
"""
try:
tile_value = self.matrix[int(tile_coord[0]), int(tile_coord[1])]
except IndexError:
# Outside of the maze – a wall
return True
else:
return tile_value in (-1, -2)
def on_touch_down(self, touch):
if not self.initialized:
return
for child in self.children[:]:
# Pass the event to children
if child.dispatch('on_touch_down', touch):
return True
if self.ball_source.collide_point(touch.x, touch.y):
# Create a new ball
ball = Ball(self, pos=self.tile_to_pixel((
(self.start_cranny[0] + 0.5),
(self.start_cranny[1] + 0.5),
)))
self.add_widget(ball)
self.balls.append(ball)
ball.on_touch_down(touch, force=True)
self.parent.set_message(True,
"Move the ball to the opposite corner.")
else:
# Create a new builder
tile_coord = self.pixel_to_tile(touch.pos)
build_loop = BuildLoop(
spin=-1 if self.wall_at_tile(tile_coord) else 1,
pos=self.tile_to_pixel((
int(tile_coord[0]) + 0.5,
int(tile_coord[1]) + 0.5,
))
)
self.add_widget(build_loop)
build_loop.on_touch_down(touch, force=True)
self.parent.set_message(False,
"Loop clockwise to build corridors, CCW to destroy them.")
def win(self):
"""End the current round, destroy the widget.
Called when a ball reaches the goal area.
"""
for child in list(self.children):
self.remove_widget(child)
self.balls = []
self.ball_source.size = 0, 0
self.parent.win()
class Map:
def __init__(self):
self.width = 30 #int(settings.game_data['map_width'])
self.height = 20 #int(settings.game_data['map_height'])
self.seed = 42352336
self.water = 5 # int(settings.game_data['water_level'])
self.max_diff = 1
self.canvas = Canvas()
self.tile = generator.generate_map(
width=self.width,
height=self.height,
seed=self.seed,
water=self.water,
max_diff=self.max_diff
)
for x in range(self.width):
for y in range(self.height):
self.tile[x][y].map = self
self.canvas.add(self.tile[x][y])
# real pixel dimensions
self.real_x = 0
self.real_y = 0
self.real_w = 0
self.real_h = 0
def update_canvas(self, x, y, w, h):
# gets maximal rectangle dimensions in pixels to contain canvas
help_points_size = (self.width * 3 + 1, self.height * 2 + 1)
if w / self.width > h / (self.height * numpy.sqrt(3)):
# more padding on left and right
uy = h // help_points_size[1]
ux = int(uy // numpy.sqrt(3))
else:
# more padding on top and bottom
ux = w // help_points_size[0]
uy = int(ux * numpy.sqrt(3)) + 1
self.real_x = (w - help_points_size[0] * ux) / 2
self.real_y = (h - help_points_size[1] * uy) / 2
self.real_w = help_points_size[0] * ux
self.real_h = help_points_size[1] * uy
for column in range(self.width):
x = 3 * ux * column + self.real_x
for row in range(self.height):
y = uy * 2 * row + uy * ((column + 1) % 2) + uy - ux * 2 + self.real_y
self.tile[column][row].set_pos_and_size(pos=(x, y), size=(ux * 4 - 2, ux * 4 - 2))
def click(self, position):
tiles = []
for x in range(self.width):
for y in range(self.height):
if self.tile[x][y].contains(position):
tiles.append(self.tile[x][y])
tile = util_get_closest_tile(tiles, position)
if tile is not None:
side = tile.get_side(position)
print(f"{tile.grid_pos} {side}")
tile.activate_line(side)
else:
print("Poza")
def random_free_tile(self):
x = random.randrange(0, self.width)
y = random.randrange(0, self.height)
while self.tile[x][y].depth != 0:
x = random.randrange(0, self.width)
y = random.randrange(0, self.height)
return self.tile[x][y]
class SkeletonRendererDebug:
boneLineColor = Color(1, 0, 0, 1)
boneOriginColor = Color(0, 1, 0, 1)
attachmentLineColor = Color(0, 0, 1, 0.5)
triangleLineColor = Color(1, 0.64, 0, 0.5)
boundingBoxColor = Color(0, 1, 0, 0.8)
aabbColor = Color(0, 1, 0, 0.5)
def __init__(self, canvas=None):
self.drawBones = True
self.drawRegionAttachments = True
self.drawBoundingBoxes = True
self.drawMeshHull = True
self.drawMeshTriangles = True
self.bounds = SkeletonBounds()
self.shapes = None
self.scale = 1
self.boneWidth = 2
self.preMultipliedAlpha = False
if canvas is None:
self.shapes = Canvas()
else:
self.shapes = canvas
def draw(self, skeleton):
self.shapes.clear()
skeletonX = skeleton.getX()
skeletonY = skeleton.getY()
glEnable(GL_BLEND)
srcFunc = GL_ONE if self.preMultipliedAlpha else GL_SRC_ALPHA
glBlendFunc(srcFunc, GL_ONE_MINUS_SRC_ALPHA)
bones = skeleton.getBones()
if self.drawBones:
self.shapes.add(self.boneLineColor)
for i in range(len(bones)):
bone = bones[i]
if bone.parent is None:
continue
x = skeletonX + bone.data.length * bone.m00 + bone.worldX
y = skeletonY + bone.data.length * bone.m10 + bone.worldY
self.shapes.add(
Line(points=[
skeletonX + bone.worldX, skeletonY + bone.worldY, x, y
],
width=self.boneWidth * self.scale))
self.shapes.add(Line(circle=(skeletonX, skeletonY,
4 * self.scale)))
if self.drawRegionAttachments:
self.shapes.add(self.attachmentLineColor)
slots = skeleton.getSlots()
for i in range(len(slots)):
slot = slots[i]
attachment = slot.attachment
if isinstance(attachment, RegionAttachment):
attachment.updateWorldVertices(slot, False)
vertices = attachment.getWorldVertices()
self.shapes.add(
Line(points=([
vertices[X1], vertices[Y1], vertices[X2],
vertices[Y2]
])))
self.shapes.add(
Line(points=([
vertices[X2], vertices[Y2], vertices[X3],
vertices[Y3]
])))
self.shapes.add(
Line(points=([
vertices[X3], vertices[Y3], vertices[X4],
vertices[Y4]
])))
self.shapes.add(
Line(points=([
vertices[X4], vertices[Y4], vertices[X1],
vertices[Y1]
])))
if self.drawMeshHull or self.drawMeshTriangles:
slots = skeleton.getSlots()
for i in range(len(slots)):
slot = slots[i]
attachment = slot.attachment
vertices = None
triangles = None
hullLength = 0
if isinstance(attachment, MeshAttachment):
attachment.updateWorldVertices(slot, False)
vertices = attachment.getWorldVertices()
triangles = attachment.getTriangles()
hullLength = attachment.getHullLength()
elif isinstance(attachment, SkinnedMeshAttachment):
attachment.updateWorldVertices(slot, False)
vertices = attachment.getWorldVertices()
triangles = attachment.getTriangles()
hullLength = attachment.getHullLength()
if vertices is None or triangles is None:
continue
if self.drawMeshTriangles:
self.shapes.add(self.triangleLineColor)
for ii in range(0, len(triangles), 3):
v1, v2, v3 = triangles[ii] * 5, triangles[
ii + 1] * 5, triangles[ii + 3] * 5
self.shapes.add(
Line(points=[
vertices[v1], vertices[v1 + 1], vertices[v2],
vertices[v2 + 1], vertices[v3], vertices[v3 +
1]
]))
if self.drawMeshHull and hullLength > 0:
self.shapes.add(self.attachmentLineColor)
hullLength = hullLength / 2 * 5
lastX, lastY = vertices[hullLength -
5], vertices[hullLength - 4]
for ii in range(0, hullLength, 5):
x, y = vertices[ii], vertices[ii + 1]
self.shapes.add(Line(points=[x, y, lastX, lastY]))
lastX = x
lastY = y
if self.drawBoundingBoxes:
bounds = self.bounds
bounds.update(skeleton, True)
self.shapes.add(self.aabbColor)
self.shapes.add(
Rectangle(x=bounds.getMinX(),
y=bounds.getMinY(),
width=bounds.getWidth(),
height=bounds.getHeight()))
self.shapes.add(self.boundingBoxColor)
polygons = bounds.getPolygons()
for polygon in polygons:
self.shapes.add(Line(points=polygon))
if self.drawBones:
self.shapes.add(self.boneOriginColor)
for bone in bones:
self.shapes.add(Color(0, 1, 0, 1))
self.shapes.add(
Line(circle=(skeletonX + bone.worldX,
skeletonY + bone.worldY, 3 * self.scale)))
del bones
def getShapeRenderer(self):
return self.shapes
def setBones(self, bones):
self.drawBones = bones
def setScale(self, scale):
self.scale = scale
def setRegionAttachments(self, regionAttachments):
self.drawRegionAttachments = regionAttachments
def setBoundingBoxes(self, boundingBoxes):
self.drawBoundingBoxes = boundingBoxes
def setMeshHull(self, meshHull):
self.drawMeshHull = meshHull
def setMeshTriangles(self, meshTriangles):
self.drawMeshTriangles = meshTriangles
def setPremultipliedAlpha(self, premultipliedAlpha):
self.preMultipliedAlpha = premultipliedAlpha
def initialize(self):
self.initialized = True
try:
self.window_width
self.window_height
except AttributeError:
win = self.get_parent_window()
# `window_width` & `window_height`: dimensions of the window, in pixels
self.window_width = win.width
self.window_height = win.height
# `matrix`: the matrix holding the maze. Values in this matrix are:
# - nonnegative numbers: corridors; the value represents the shortest
# distance to the exit (these will be set using set_walls later)
# -1: regular (breakable) wall
# -2: perimeter (unbreakable) wall
# -3: exit
# -4: entrance
self.matrix = -numpy.transpose(
numpy.array(create_maze(
self.window_width // MAZE_CELL_SIZE,
self.window_height // MAZE_CELL_SIZE,
),
dtype=numpy.int8))
# `width`/`height`: size of the maze, in tiles
self.width, self.height = self.matrix.shape
# `cell_width`/`cell_height`: size of a tile, in pixels
self.cell_width = self.window_width / self.width
self.cell_height = self.window_height / self.height
# `cell_size`: average size of a tile, as a scalar
self.cell_size = (self.cell_width + self.cell_height) / 2
# Initialize perimeter walls and entrance/exit
for x in range(self.width):
self.matrix[x, 0] = self.matrix[x, self.height - 1] = -2
for y in range(self.height):
self.matrix[0, y] = self.matrix[self.width - 1, y] = -2
self.matrix[0, 1] = -3
self.matrix[self.width - 1, self.height - 2] = -4
# `balls`: list of Ball widgets on this board
self.balls = []
# `start_point`, `start_cranny`: Coordinates of the entrance and the
# tile next to it. (The corresponding coordinates for the exit are
# simply (0, 1) and (1, 1))
self.start_point = self.width - 2, self.height - 2
self.start_cranny = self.width - 1, self.height - 2
# `bdist`: same as `matrix` except positive numbers indicate shortest
# distance to the entrance or nearest ball
# `dist`: ditto with shortest distance to just the entrance
self.bdist = self.dist = self.matrix
self.set_walls(self.matrix)
# Initialize the graphic representation
self.background_canvas = Canvas()
self.canvas.add(self.background_canvas)
self.draw()
# Add the ball source (zero-sized initially)
self.ball_source = BallSource(size=(0, 0),
pos=(self.window_width,
self.window_height))
self.add_widget(self.ball_source)
# Initialize the countdown for the solver
Clock.schedule_once(lambda dt: self.countdown(COUNTDOWN_START), 1)
# Redraw every 30th of a second
Clock.schedule_interval(self.redraw, 0.03)
class MazeBoard(TickingWidget):
"""A maze for a single turn in the game
MazeBoard contains the maze. Balls and builders are child widgets of a
MazeBoard.
"""
darkWalls = True
def __init__(self):
self.initialized = False
super(MazeBoard, self).__init__()
Clock.schedule_once(lambda dt: self.initialize())
self.must_redraw = False
self.time = 0
def initialize(self):
self.initialized = True
try:
self.window_width
self.window_height
except AttributeError:
win = self.get_parent_window()
# `window_width` & `window_height`: dimensions of the window, in pixels
self.window_width = win.width
self.window_height = win.height
# `matrix`: the matrix holding the maze. Values in this matrix are:
# - nonnegative numbers: corridors; the value represents the shortest
# distance to the exit (these will be set using set_walls later)
# -1: regular (breakable) wall
# -2: perimeter (unbreakable) wall
# -3: exit
# -4: entrance
self.matrix = -numpy.transpose(
numpy.array(create_maze(
self.window_width // MAZE_CELL_SIZE,
self.window_height // MAZE_CELL_SIZE,
),
dtype=numpy.int8))
# `width`/`height`: size of the maze, in tiles
self.width, self.height = self.matrix.shape
# `cell_width`/`cell_height`: size of a tile, in pixels
self.cell_width = self.window_width / self.width
self.cell_height = self.window_height / self.height
# `cell_size`: average size of a tile, as a scalar
self.cell_size = (self.cell_width + self.cell_height) / 2
# Initialize perimeter walls and entrance/exit
for x in range(self.width):
self.matrix[x, 0] = self.matrix[x, self.height - 1] = -2
for y in range(self.height):
self.matrix[0, y] = self.matrix[self.width - 1, y] = -2
self.matrix[0, 1] = -3
self.matrix[self.width - 1, self.height - 2] = -4
# `balls`: list of Ball widgets on this board
self.balls = []
# `start_point`, `start_cranny`: Coordinates of the entrance and the
# tile next to it. (The corresponding coordinates for the exit are
# simply (0, 1) and (1, 1))
self.start_point = self.width - 2, self.height - 2
self.start_cranny = self.width - 1, self.height - 2
# `bdist`: same as `matrix` except positive numbers indicate shortest
# distance to the entrance or nearest ball
# `dist`: ditto with shortest distance to just the entrance
self.bdist = self.dist = self.matrix
self.set_walls(self.matrix)
# Initialize the graphic representation
self.background_canvas = Canvas()
self.canvas.add(self.background_canvas)
self.draw()
# Add the ball source (zero-sized initially)
self.ball_source = BallSource(size=(0, 0),
pos=(self.window_width,
self.window_height))
self.add_widget(self.ball_source)
# Initialize the countdown for the solver
Clock.schedule_once(lambda dt: self.countdown(COUNTDOWN_START), 1)
# Redraw every 30th of a second
Clock.schedule_interval(self.redraw, 0.03)
def countdown(self, num):
"""The countdown for the solving player
For positive `num`, shows the number near the maze entrance, animates
it, and schedules a call to countdown(num-1) for one second.
For num == 0, display 'Go!', animate it, and grow the ball source.
"""
label = Label(
text=str(num) if num else 'Go!',
font_size=24,
color=(0, 0, 1, 1),
)
with label.canvas.before:
PushMatrix()
Translate(
self.window_width - self.cell_size * 1,
self.window_height - self.cell_size * 5,
0,
)
Rotate(90, 0, 0, 1)
with label.canvas.after:
PopMatrix()
animation = Animation(font_size=256,
color=(0, 0, 1, 0),
t='in_cubic',
duration=1.5)
animation.start(label)
self.add_widget(label)
if num > 0:
Clock.schedule_once(lambda dt: self.countdown(num - 1), 1)
else:
self.ball_source.grow(self.cell_size * 3)
if self.parent:
self.parent.set_message(True,
u'Take a ball from the blue corner.')
def add_time(self, time):
"""Add time to the solving player's clock
"""
self.time += time
if self.time > 15:
# If the player is taking a long time, display a (hopefully
# helpful) hint
self.parent.set_message(
True, u"Take another ball if you're really stuck.")
self.parent.add_time(time)
def draw(self):
"""Draw the board.
The colors are filled in later, in tick()
"""
self.colors = {}
self.background_canvas.clear()
with self.background_canvas:
for y in range(self.height):
y_coord = y * self.cell_height
for x in range(self.width):
x_coord = x * self.cell_width
self.colors[x, y] = Color(0, 0, 0)
Rectangle(pos=(x_coord, y_coord),
size=(self.cell_width, self.cell_height))
self.redraw()
def redraw(self, dt=None):
"""Called any time the maze's colors change
"""
self.must_redraw = True
def tick(self, dt=None):
"""Set all tile colors to the appropriate values
"""
if not self.must_redraw:
return
else:
self.must_redraw = False
sys.stdout.flush()
self.set_walls(self.matrix)
for y in range(self.height):
y_coord = y * self.cell_height
for x in range(self.width):
self.colors[x, y].rgba = self.tile_color(x, y)
self.background_canvas.ask_update()
def tile_color(self, x, y):
"""Get the color for the tile at (x, y)
"""
if self.matrix[x, y] == -4:
# Entrance; same color as neighboring tile
return self.tile_color(x - 1, y)
elif self.matrix[x, y] == -3:
# Exit; same color as neighboring tile
return self.tile_color(x + 1, y)
elif self.matrix[x, y] < 0:
# Wall, transparent black
if self.darkWalls:
return 0, 0, 0, 0
else:
# (with light walls; white)
return 1, 1, 1, 1
else:
# Corridor; a light color based on distances to the entrance, exit
# and nearest ball
m = self.matrix[x, y]
d = self.dist[x, y]
b = self.bdist[x, y]
mmax = self.matrix.max() or 1
dmax = self.dist.max() or 1
bmax = self.bdist.max() or 1
r = m / mmax
g = 1 - d / dmax
b = 1 - min(m, b) / min(mmax, bmax)
if self.darkWalls:
a = (numpy.array((max(g, b), max(r, b), max(r, g), 0))**8)
return 1 - a / 2
else:
# (with light walls; a dark color)
return numpy.array((r, g, b, 1))**8
def set_walls(self, matrix):
"""Set walls and solve the maze. No-op if maze is unsolvable.
`matrix`: A 2D matrix with negative values for walls
"""
mstart = numpy.zeros(matrix.shape + (3, ), dtype=numpy.int32)
mstart[self.start_point + (0, )] = mstart[(1, 1, 1)] = 1
mstart[self.start_cranny + (2, )] = 1
mstart[self.start_point + (2, )] = 1
for ball in self.balls:
tile_pos = self.pixel_to_tile(ball.pos)
mstart[int(tile_pos[0]), int(tile_pos[1]), 2] = 1
corridors = matrix >= 0
m = solvemaze(corridors, mstart)
if m is None:
return False
m[self.start_point + (0, )] = m[(1, 1, 1)] = 1
self.bdist = m[:, :, 2]
self.dist = m[:, :, 1]
m = m[:, :, 0]
self.matrix = numpy.select([matrix < 0, True], [matrix, m])
# Clear cache of unsuccessful building attempts
self.build_tries = defaultdict(set)
return True
def set_wall(self, coord, create):
"""Set (create== True) or destroy (create == False) a wall at coord
If the operation would create an unsolvable maze, nothing is done.
These unsuccessful attempts are cached in `build_tries` until the maze
is changed
"""
if coord in self.build_tries[create]:
return False
self.build_tries[create].add(coord)
if coord == self.start_cranny or coord == (2, 1):
return False
try:
current_state = self.matrix[coord]
except IndexError:
return False
m = self.matrix.copy()
if not create and current_state >= 0:
# Build a wall
m[coord] = -1
rv = self.set_walls(m)
elif create and current_state == -1:
# Build a corridor
m[coord] = 0
rv = self.set_walls(m)
else:
return False
if rv:
self.redraw()
return rv
def pixel_to_tile(self, pos):
"""Convert pixel coordinates to tile coordinates
Returns a pair of floats
"""
return (
pos[0] / self.cell_width,
pos[1] / self.cell_height,
)
def tile_to_pixel(self, tile_coord):
"""Convert tile coordinates to pixel coordinates
Returns a pair of floats
"""
return (
float(tile_coord[0] * self.cell_width),
float(tile_coord[1] * self.cell_height),
)
def wall_at_pixel(self, pos):
"""True if there is a wall at the specified pixel coordinates
"""
return self.wall_at_tile(self.pixel_to_tile(pos))
def wall_at_tile(self, tile_coord):
"""True if there is a wall at the specified tile coordinates
"""
try:
tile_value = self.matrix[int(tile_coord[0]), int(tile_coord[1])]
except IndexError:
# Outside of the maze – a wall
return True
else:
return tile_value in (-1, -2)
def on_touch_down(self, touch):
if not self.initialized:
return
for child in self.children[:]:
# Pass the event to children
if child.dispatch('on_touch_down', touch):
return True
if self.ball_source.collide_point(touch.x, touch.y):
# Create a new ball
ball = Ball(self,
pos=self.tile_to_pixel((
(self.start_cranny[0] + 0.5),
(self.start_cranny[1] + 0.5),
)))
self.add_widget(ball)
self.balls.append(ball)
ball.on_touch_down(touch, force=True)
self.parent.set_message(True,
"Move the ball to the opposite corner.")
else:
# Create a new builder
tile_coord = self.pixel_to_tile(touch.pos)
build_loop = BuildLoop(
spin=-1 if self.wall_at_tile(tile_coord) else 1,
pos=self.tile_to_pixel((
int(tile_coord[0]) + 0.5,
int(tile_coord[1]) + 0.5,
)))
self.add_widget(build_loop)
build_loop.on_touch_down(touch, force=True)
self.parent.set_message(
False,
"Loop clockwise to build corridors, CCW to destroy them.")
def win(self):
"""End the current round, destroy the widget.
Called when a ball reaches the goal area.
"""
for child in list(self.children):
self.remove_widget(child)
self.balls = []
self.ball_source.size = 0, 0
self.parent.win()
def __init__(self, app, music_player):
"""Create main GUI
Arguments:
parent -- parent application to this widget
music_player -- audio generator for full application
network -- network client and server handler
"""
# Initialize Tkinter, and instruct it hide root window
self.tk_root = Tkinter.Tk()
self.tk_root.withdraw()
# Perform widget initializations
super(GUI, self).__init__()
# OVERALL STRUCTURE
WINDOW_WIDTH = 800
WINDOW_HEIGHT = 600
OUTER_PADDING = 20
# Set default parameters to be used in accurately loading an
# initial state to the GUI
self.app = app
self.music_player = music_player
self.track_id = MusicPlayer.WAVETABLE_A
self.popup_count = 0
# Turn off multi-touch in this GUI
Config.set('input', 'mouse', 'mouse,disable_multitouch')
# Determine image directory
IMAGE_DIR = system.get_images_dir()
# For dynamic GUI coloring
self.TRACK_COLORS = [[.7, .4, .9, 1.0],
[.6, .9, .4, 1.0],
[.8, .5, .3, 1.0]]
self.colorables = []
# Create widget for the main layout. This will be added separately
# from each of our popup windows
self.main_layout = NSWidget()
self.add_widget(self.main_layout)
# BUTTON GRID
NOTE_BUTTON_WIDTH = 48
NOTE_BUTTON_HEIGHT = 48
NOTE_BUTTON_PADDING = 7
ROW_LABEL_WIDTH = 54
ROW_LABEL_HEIGHT = NOTE_BUTTON_HEIGHT
ROW_LABEL_FONT_SIZE = 10
NOTE_BUTTON_ROWS = MusicPlayer.NUM_ROWS
NOTE_BUTTON_COLS = MusicPlayer.NUM_COLS
GRID_WIDTH = NOTE_BUTTON_PADDING + ROW_LABEL_WIDTH + \
NOTE_BUTTON_PADDING + (NOTE_BUTTON_COLS *
(NOTE_BUTTON_WIDTH + NOTE_BUTTON_PADDING))
GRID_HEIGHT = NOTE_BUTTON_PADDING + (NOTE_BUTTON_ROWS *
(NOTE_BUTTON_HEIGHT + NOTE_BUTTON_PADDING))
GRID_X = OUTER_PADDING
GRID_Y = WINDOW_HEIGHT - OUTER_PADDING - GRID_HEIGHT
PLAYHEAD_WIDTH = NOTE_BUTTON_WIDTH + 4
PLAYHEAD_HEIGHT = GRID_HEIGHT
PLAYHEAD_OPACITY = .5
PLAYHEAD_COLOR = Color(1.0, 1.0, 1.0)
# Playhead
playhead_widget = Widget()
playhead_canvas = Canvas()
playhead_canvas.add(PLAYHEAD_COLOR)
playhead = Rectangle(size=[PLAYHEAD_WIDTH, PLAYHEAD_HEIGHT])
playhead_canvas.add(playhead)
playhead_canvas.opacity = PLAYHEAD_OPACITY
playhead_widget.canvas = playhead_canvas
self.main_layout.add_widget(playhead_widget)
self.playhead = playhead
# For each row, create labels and notes
self.row_labels = []
self.note_buttons = []
row_top = GRID_Y + GRID_HEIGHT - NOTE_BUTTON_PADDING
for row in range(0, NOTE_BUTTON_ROWS):
col_x = GRID_X + NOTE_BUTTON_PADDING
# Make label for row
row_label = Label(text=str(row), width=ROW_LABEL_WIDTH,
height=ROW_LABEL_HEIGHT,
text_size=[ROW_LABEL_WIDTH, ROW_LABEL_HEIGHT],
font_size=ROW_LABEL_FONT_SIZE, halign='center',
valign='middle')
row_label.x = col_x
row_label.top = row_top
self.main_layout.add_widget(row_label)
self.row_labels.append(row_label)
col_x = col_x + ROW_LABEL_WIDTH + NOTE_BUTTON_PADDING
# Create all buttons for row
row_notes = []
for col in range(0, NOTE_BUTTON_COLS):
col_button = NSToggleButton(width=NOTE_BUTTON_WIDTH,
height=NOTE_BUTTON_HEIGHT)
col_button.id = 'row' + str(row) + ',col' + str(col)
col_button.x = col_x
col_button.top = row_top
col_button.bind(on_press=self.trigger_note)
row_notes.append(col_button)
self.main_layout.add_widget(col_button)
self.colorables.append(col_button)
col_x = col_x + NOTE_BUTTON_WIDTH + NOTE_BUTTON_PADDING
self.note_buttons.append(row_notes)
row_top = row_top - NOTE_BUTTON_PADDING - NOTE_BUTTON_HEIGHT
# Set playhead start position
leftmost_note = self.note_buttons[0][0]
playhead_x = leftmost_note.center_x - (PLAYHEAD_WIDTH / 2)
playhead_y = GRID_Y
self.playhead.pos = [playhead_x, playhead_y]
# PLAYBACK MENU
PLAYBACK_X = OUTER_PADDING
PLAYBACK_Y = OUTER_PADDING
PLAYBACK_WIDTH = GRID_WIDTH
PLAYBACK_HEIGHT = WINDOW_HEIGHT - OUTER_PADDING - GRID_HEIGHT - \
OUTER_PADDING - OUTER_PADDING
PLAYBACK_CENTER_Y = PLAYBACK_Y + (PLAYBACK_HEIGHT / 2)
PLAYBACK_TOP = PLAYBACK_Y + PLAYBACK_HEIGHT
PLAY_BUTTON_WIDTH = 48
PLAY_BUTTON_HEIGHT = 48
PLAYALL_BUTTON_WIDTH = 60
PLAYALL_BUTTON_HEIGHT = PLAY_BUTTON_HEIGHT / 2
PLAYALL_BUTTON_FONT_SIZE = 8
PLAYALL_BUTTON_TEXT_SIZE = [PLAYALL_BUTTON_WIDTH,
PLAYALL_BUTTON_HEIGHT]
PAGE_BUTTON_WIDTH = 20
PAGE_BUTTON_HEIGHT = 30
NUM_PAGE_BUTTONS = MusicPlayer.NUM_PAGES
PAGE_LABEL_WIDTH = (PAGE_BUTTON_WIDTH * NUM_PAGE_BUTTONS)
PAGE_LABEL_HEIGHT = 20
PAGE_LABEL_FONT_SIZE = 10
PAGE_LABEL_OFFSET = 5
TRACK_BUTTON_WIDTH = 48
TRACK_BUTTON_HEIGHT = 48
NUM_TRACK_BUTTONS = MusicPlayer.NUM_TRACKS
NUM_PLAYBACK_ELEMENTS = 4
TRACK_LABEL_WIDTH = TRACK_BUTTON_WIDTH * NUM_TRACK_BUTTONS
TRACK_LABEL_HEIGHT = PAGE_LABEL_HEIGHT
TRACK_LABEL_FONT_SIZE = PAGE_LABEL_FONT_SIZE
TRACK_LABEL_TEXT_SIZE = [TRACK_LABEL_WIDTH, TRACK_LABEL_HEIGHT]
TRACK_LABEL_OFFSET = PAGE_LABEL_OFFSET
PLAYBACK_PADDING = (PLAYBACK_WIDTH - (PAGE_BUTTON_WIDTH *
NUM_PAGE_BUTTONS) - (PLAY_BUTTON_WIDTH) -
(TRACK_BUTTON_WIDTH * NUM_TRACK_BUTTONS) -
PLAYALL_BUTTON_WIDTH) / (NUM_PLAYBACK_ELEMENTS + 1)
# Play/pause button
PLAY_BUTTON_X = PLAYBACK_X + PLAYBACK_PADDING
# TODO: add a border for this button
play_button = ToggleButton(width=PLAY_BUTTON_WIDTH,
height=PLAY_BUTTON_HEIGHT)
play_button.bind(on_press=self.play_pause)
play_button.background_normal = \
os.path.join(IMAGE_DIR, "media-playback-start-4.png")
play_button.background_down = \
os.path.join(IMAGE_DIR, "media-playback-pause-4.png")
play_button.x = PLAY_BUTTON_X
play_button.center_y = PLAYBACK_CENTER_Y
self.play_button = play_button
self.main_layout.add_widget(play_button)
self.colorables.append(play_button)
# Buttons to play one page or all
one_page_button = NSToggleButton(width=PLAYALL_BUTTON_WIDTH,
height=PLAYALL_BUTTON_HEIGHT,
text='One page',
text_size=PLAYALL_BUTTON_TEXT_SIZE,
font_size=PLAYALL_BUTTON_FONT_SIZE,
halign='center', valign='middle')
one_page_button.bind(on_press=self.play_one_page)
one_page_button.x = play_button.right + PLAYBACK_PADDING
one_page_button.top = PLAYBACK_CENTER_Y + PLAYALL_BUTTON_HEIGHT
self.one_page_button = one_page_button
self.main_layout.add_widget(one_page_button)
self.colorables.append(one_page_button)
all_pages_button = NSToggleButton(width=PLAYALL_BUTTON_WIDTH,
height=PLAYALL_BUTTON_HEIGHT,
text='All pages',
text_size=PLAYALL_BUTTON_TEXT_SIZE,
font_size=PLAYALL_BUTTON_FONT_SIZE,
halign='center', valign='middle')
all_pages_button.bind(on_press=self.play_all_pages)
all_pages_button.x = one_page_button.x
all_pages_button.top = PLAYBACK_CENTER_Y
self.all_pages_button = all_pages_button
self.main_layout.add_widget(all_pages_button)
self.colorables.append(all_pages_button)
if music_player.play_all == False:
one_page_button.state = 'down'
all_pages_button.state = 'normal'
elif music_player.play_all == True:
one_page_button.state = 'normal'
all_pages_button.state = 'down'
# Page selection buttons
self.page_buttons = []
page_buttons = []
page_label = Label(text='Page Select', text_size=[PAGE_LABEL_WIDTH,
PAGE_LABEL_HEIGHT], font_size=PAGE_LABEL_FONT_SIZE,
width=PAGE_LABEL_WIDTH, height=PAGE_LABEL_HEIGHT,
halign='center', valign='middle')
page_button_x = all_pages_button.right + PLAYBACK_PADDING
page_label.x = page_button_x
page_label.top = PLAYBACK_CENTER_Y - (PAGE_BUTTON_HEIGHT / 2) - \
PAGE_LABEL_OFFSET
self.main_layout.add_widget(page_label)
for page_index in range(0, NUM_PAGE_BUTTONS):
page_id = 'page' + str(page_index)
page_button = NSToggleButton(width=PAGE_BUTTON_WIDTH,
height=PAGE_BUTTON_HEIGHT, id=page_id)
page_button.bind(on_press=self.select_page)
page_button.x = page_button_x
page_button.center_y = PLAYBACK_CENTER_Y
page_buttons.append(page_button)
self.main_layout.add_widget(page_button)
self.colorables.append(page_button)
page_button_x += PAGE_BUTTON_WIDTH
self.page_buttons = page_buttons
# Select the current music player's page with the GUI
page_buttons[music_player.page_index].state = 'down'
# Track selection buttons
TRACK_BUTTON_FONT_SIZE = 10
TRACK_BUTTON_TEXT_SIZE = [TRACK_BUTTON_WIDTH, TRACK_BUTTON_HEIGHT]
track_text = ["Bass", "Lead", "Drum"]
track_buttons = []
self.track_buttons = []
track_button_x = page_buttons[len(page_buttons) - 1].right + \
PLAYBACK_PADDING
for track_index in range(0, NUM_TRACK_BUTTONS):
track_id = 'track' + str(track_index)
track_button = NSToggleButton(text=track_text[track_index],
width=TRACK_BUTTON_WIDTH,
height=TRACK_BUTTON_HEIGHT, id=track_id,
text_size=TRACK_BUTTON_TEXT_SIZE,
font_size=TRACK_BUTTON_FONT_SIZE,
halign='center', valign='middle')
track_button.bind(on_press=self.select_track)
track_button.x = track_button_x
track_button.center_y = PLAYBACK_CENTER_Y
track_buttons.append(track_button)
self.main_layout.add_widget(track_button)
track_button_x += TRACK_BUTTON_WIDTH
self.track_buttons = track_buttons
# Select the current track in the GUI
track_buttons[self.track_id].state = 'down'
leftmost_track_button = self.track_buttons[0]
track_label = Label(text='Instrument Select',
text_size=TRACK_LABEL_TEXT_SIZE,
font_size=TRACK_LABEL_FONT_SIZE,
width=TRACK_LABEL_WIDTH,
height=TRACK_LABEL_HEIGHT,
halign='center', valign='middle')
track_label.x = leftmost_track_button.x
track_label.top = leftmost_track_button.y - TRACK_LABEL_OFFSET
# self.main_layout.add_widget(track_label)
# SETTINGS TABS
TABS_X = OUTER_PADDING + GRID_WIDTH + OUTER_PADDING
TABS_Y = GRID_Y
TABS_WIDTH = WINDOW_WIDTH - OUTER_PADDING - GRID_WIDTH - \
OUTER_PADDING - OUTER_PADDING
TABS_HEIGHT = GRID_HEIGHT
# Element is button, label, etc. Section is vertical group of elements
TAB_SECTION_PADDING = 20
TAB_ELEMENT_PADDING = 10
# Note: it's a good idea to make these tabs the size of our icons,
# which is 48x48
TAB_HEADER_WIDTH = 48
TAB_HEADER_HEIGHT = TAB_HEADER_WIDTH
TAB_HEADER_FONT_SIZE = 20
SECTION_LABEL_FONT_SIZE = 16
SECTION_LABEL_WIDTH = TABS_WIDTH - TAB_SECTION_PADDING * 2
SECTION_LABEL_HEIGHT = 30
SECTION_LABEL_TEXT_SIZE = [SECTION_LABEL_WIDTH, SECTION_LABEL_HEIGHT]
ELEMENT_LABEL_FONT_SIZE = 10
ELEMENT_LABEL_WIDTH = TABS_WIDTH - TAB_ELEMENT_PADDING * 2
ELEMENT_LABEL_HEIGHT = 20
ELEMENT_LABEL_TEXT_SIZE = [ELEMENT_LABEL_WIDTH, ELEMENT_LABEL_HEIGHT]
TAB_CONTENT_HEIGHT = TABS_HEIGHT - TAB_HEADER_HEIGHT
TAB_CONTENT_TOP = TABS_Y + TAB_CONTENT_HEIGHT
# Create main tabbed panel
tabs = TabbedPanel(tab_width=TAB_HEADER_WIDTH,
tab_height=TAB_HEADER_HEIGHT, width=TABS_WIDTH,
height=TABS_HEIGHT)
tabs.x = TABS_X
tabs.y = TABS_Y
self.main_layout.add_widget(tabs)
self.tabs = tabs
# Music tab (default)
music_tab_content = Widget(width=TABS_WIDTH, height=TAB_CONTENT_HEIGHT)
tabs.default_tab_content = music_tab_content
tabs.default_tab.text = ""
# TODO: make these paths absolute?
tabs.default_tab.background_normal = \
os.path.join(IMAGE_DIR, "audio-keyboard.png")
print "@@ default tab bg: ", tabs.default_tab.background_normal
tabs.default_tab.background_down = \
os.path.join(IMAGE_DIR, "audio-keyboard-down.png")
# Global music options
global_music_label = Label(text='Global',
font_size=SECTION_LABEL_FONT_SIZE,
width=SECTION_LABEL_WIDTH,
height=SECTION_LABEL_HEIGHT,
text_size=SECTION_LABEL_TEXT_SIZE,
halign='center', valign='middle')
global_music_label.center_x = tabs.center_x
global_music_label.top = TAB_CONTENT_TOP - TAB_SECTION_PADDING
music_tab_content.add_widget(global_music_label)
MUSIC_SLIDER_WIDTH = TABS_WIDTH - 40
MUSIC_SLIDER_HEIGHT = 20
# Note: these sliders buttons have a predefined height, so we are a
# slave to that height for positioning the sliders
global_volume_slider = NSSlider(min=MusicPlayer.MIN_VOLUME,
max=MusicPlayer.MAX_VOLUME,
value=music_player.global_volume,
orientation='horizontal',
height=MUSIC_SLIDER_HEIGHT,
width=MUSIC_SLIDER_WIDTH)
global_volume_slider.bind(on_touch_move=self.change_global_volume)
global_volume_slider.center_x = tabs.center_x
global_volume_slider.top = global_music_label.y - TAB_ELEMENT_PADDING
music_tab_content.add_widget(global_volume_slider)
self.global_volume_slider = global_volume_slider
self.colorables.append(global_volume_slider)
global_volume_label = Label(text='Volume',
font_size=ELEMENT_LABEL_FONT_SIZE,
width=ELEMENT_LABEL_WIDTH,
height=ELEMENT_LABEL_HEIGHT,
text_size=ELEMENT_LABEL_TEXT_SIZE,
halign='center', valign='middle')
global_volume_label.center_x = tabs.center_x
global_volume_label.top = global_volume_slider.y - TAB_ELEMENT_PADDING
music_tab_content.add_widget(global_volume_label)
global_tempo_slider = NSSlider(min=MusicPlayer.MIN_TEMPO,
max=MusicPlayer.MAX_TEMPO,
value=music_player.tempo,
orientation='horizontal',
height=MUSIC_SLIDER_HEIGHT,
width=MUSIC_SLIDER_WIDTH)
global_tempo_slider.bind(on_touch_move=self.change_global_tempo)
global_tempo_slider.center_x = tabs.center_x
global_tempo_slider.top = global_volume_label.y - TAB_ELEMENT_PADDING
music_tab_content.add_widget(global_tempo_slider)
self.global_tempo_slider = global_tempo_slider
self.colorables.append(global_tempo_slider)
global_tempo_label = Label(text='Tempo',
font_size=ELEMENT_LABEL_FONT_SIZE,
width=ELEMENT_LABEL_WIDTH,
height=ELEMENT_LABEL_HEIGHT,
text_size=ELEMENT_LABEL_TEXT_SIZE,
halign='center', valign='middle')
global_tempo_label.center_x = tabs.center_x
global_tempo_label.top = global_tempo_slider.y - TAB_ELEMENT_PADDING
music_tab_content.add_widget(global_tempo_label)
# Instrument settings
track_music_label = Label(text='Instrument',
font_size=SECTION_LABEL_FONT_SIZE,
width=SECTION_LABEL_WIDTH,
height=SECTION_LABEL_HEIGHT,
text_size=SECTION_LABEL_TEXT_SIZE,
halign='center', valign='middle')
track_music_label.center_x = tabs.center_x
track_music_label.top = global_tempo_label.y - TAB_SECTION_PADDING
music_tab_content.add_widget(track_music_label)
track_volume_initial = music_player.get_volume(self.track_id)
track_volume_slider = NSSlider(min=MusicPlayer.MIN_VOLUME,
max=MusicPlayer.MAX_VOLUME,
value=track_volume_initial,
orientation='horizontal',
height=MUSIC_SLIDER_HEIGHT,
width=MUSIC_SLIDER_WIDTH)
track_volume_slider.bind(on_touch_move=self.change_track_volume)
track_volume_slider.center_x = tabs.center_x
track_volume_slider.top = track_music_label.y - TAB_ELEMENT_PADDING
music_tab_content.add_widget(track_volume_slider)
self.track_volume_slider = track_volume_slider
self.colorables.append(track_volume_slider)
track_volume_label = Label(text='Volume',
font_size=ELEMENT_LABEL_FONT_SIZE,
width=ELEMENT_LABEL_WIDTH,
height=ELEMENT_LABEL_HEIGHT,
text_size=ELEMENT_LABEL_TEXT_SIZE,
halign='center', valign='middle')
track_volume_label.center_x = tabs.center_x
track_volume_label.top = track_volume_slider.y - TAB_ELEMENT_PADDING
music_tab_content.add_widget(track_volume_label)
track_reverb_initial = music_player.get_reverb(self.track_id)
track_reverb_slider = NSSlider(min=MusicPlayer.MIN_REVERB,
max=MusicPlayer.MAX_REVERB,
value=track_reverb_initial,
orientation='horizontal',
height=MUSIC_SLIDER_HEIGHT,
width=MUSIC_SLIDER_WIDTH)
track_reverb_slider.bind(on_touch_move=self.change_track_reverb)
track_reverb_slider.center_x = tabs.center_x
track_reverb_slider.top = track_volume_label.y - TAB_ELEMENT_PADDING
music_tab_content.add_widget(track_reverb_slider)
self.track_reverb_slider = track_reverb_slider
self.colorables.append(track_reverb_slider)
track_reverb_label = Label(text='Reverb',
font_size=ELEMENT_LABEL_FONT_SIZE,
width=ELEMENT_LABEL_WIDTH,
height=ELEMENT_LABEL_HEIGHT,
text_size=ELEMENT_LABEL_TEXT_SIZE,
halign='center', valign='middle')
track_reverb_label.center_x = tabs.center_x
track_reverb_label.top = track_reverb_slider.y - TAB_ELEMENT_PADDING
music_tab_content.add_widget(track_reverb_label)
# Network tab
network_tab = TabbedPanelHeader()
network_tab.text = ""
network_tab.background_normal = \
os.path.join(IMAGE_DIR, "network-wired-2.png")
network_tab.background_down = \
os.path.join(IMAGE_DIR, "network-wired-2-down.png")
tabs.add_widget(network_tab)
TEXT_INPUT_HEIGHT = 30
PORT_INPUT_WIDTH = 70
IP_INPUT_WIDTH = TABS_WIDTH - TAB_SECTION_PADDING - \
PORT_INPUT_WIDTH - TAB_ELEMENT_PADDING - \
TAB_SECTION_PADDING
PORT_LABEL_TEXT_SIZE = [PORT_INPUT_WIDTH, ELEMENT_LABEL_HEIGHT]
IP_LABEL_TEXT_SIZE = [IP_INPUT_WIDTH, ELEMENT_LABEL_HEIGHT]
NETWORK_BUTTON_WIDTH = TABS_WIDTH - TAB_SECTION_PADDING * 2
NETWORK_BUTTON_HEIGHT = 80
NETWORK_BUTTON_FONT_SIZE = 16
NETWORK_BUTTON_TEXT_SIZE = [NETWORK_BUTTON_WIDTH, NETWORK_BUTTON_HEIGHT]
SERVER_PORT_TEXT = 'Server Port'
SERVER_IP_TEXT = 'Server IP Address'
network_tab_content = Widget(width=TABS_WIDTH, height=TAB_CONTENT_HEIGHT)
network_tab.content = network_tab_content
# Server input labels
server_port_label = Label(text=SERVER_PORT_TEXT,
width=PORT_INPUT_WIDTH,
height=ELEMENT_LABEL_HEIGHT,
text_size=PORT_LABEL_TEXT_SIZE,
font_size=ELEMENT_LABEL_FONT_SIZE)
server_port_label.top = TAB_CONTENT_TOP - TAB_SECTION_PADDING
server_port_label.x = TABS_X + TAB_SECTION_PADDING
network_tab_content.add_widget(server_port_label)
server_ip_label = Label(text=SERVER_IP_TEXT,
width=IP_INPUT_WIDTH,
height=ELEMENT_LABEL_HEIGHT,
text_size=IP_LABEL_TEXT_SIZE,
font_size=ELEMENT_LABEL_FONT_SIZE)
server_ip_label.top = server_port_label.top
server_ip_label.x = server_port_label.right + TAB_ELEMENT_PADDING
network_tab_content.add_widget(server_ip_label)
# Server startup input
server_port_input = NSTextInput(text='',
width=PORT_INPUT_WIDTH,
height=TEXT_INPUT_HEIGHT,
multiline=False)
server_port_input.bind(focus=self.select_text_input)
server_port_input.original_text = SERVER_PORT_TEXT
server_port_input.x = server_port_label.x
server_port_input.top = server_port_label.y - TAB_ELEMENT_PADDING
network_tab_content.add_widget(server_port_input)
self.server_port_input = server_port_input
server_ip_input = NSTextInput(text='',
width=IP_INPUT_WIDTH,
height=TEXT_INPUT_HEIGHT,
multiline=False)
server_ip_input.bind(focus=self.select_text_input)
server_ip_input.original_text=SERVER_IP_TEXT
server_ip_input.x = server_ip_label.x
server_ip_input.top = server_port_input.top
network_tab_content.add_widget(server_ip_input)
self.server_ip_input = server_ip_input
server_start_button = NSDisableButton(text='Start server',
width=NETWORK_BUTTON_WIDTH,
height=NETWORK_BUTTON_HEIGHT,
text_size=NETWORK_BUTTON_TEXT_SIZE,
font_size=NETWORK_BUTTON_FONT_SIZE,
halign='center', valign='middle')
server_start_button.bind(on_press=self.start_server)
server_start_button.center_x = tabs.center_x
server_start_button.top = server_ip_input.y - TAB_ELEMENT_PADDING
network_tab_content.add_widget(server_start_button)
self.server_start_button = server_start_button
join_server_button = NSDisableButton(text='Join server',
width=NETWORK_BUTTON_WIDTH,
height=NETWORK_BUTTON_HEIGHT,
text_size=NETWORK_BUTTON_TEXT_SIZE,
font_size=NETWORK_BUTTON_FONT_SIZE,
halign='center', valign='middle')
join_server_button.bind(on_press=self.ask_join_server)
join_server_button.x = server_start_button.x
join_server_button.top = server_start_button.y - TAB_ELEMENT_PADDING
network_tab_content.add_widget(join_server_button)
self.join_server_button = join_server_button
end_connection_button = NSDisableButton(text='End connection',
width=NETWORK_BUTTON_WIDTH,
height=NETWORK_BUTTON_HEIGHT,
text_size=NETWORK_BUTTON_TEXT_SIZE,
font_size=NETWORK_BUTTON_FONT_SIZE,
halign='center', valign='middle')
end_connection_button.bind(on_press=self.ask_end_connection)
end_connection_button.disable()
end_connection_button.x = server_start_button.x
end_connection_button.top = join_server_button.y - TAB_ELEMENT_PADDING
network_tab_content.add_widget(end_connection_button)
self.end_connection_button = end_connection_button
# System options tab
system_tab = TabbedPanelHeader()
system_tab.background_normal = \
os.path.join(IMAGE_DIR, "media-floppy.png")
system_tab.background_down = \
os.path.join(IMAGE_DIR, "media-floppy-down.png")
tabs.add_widget(system_tab)
system_tab_content = Widget(width=TABS_WIDTH, height=TAB_CONTENT_HEIGHT)
system_tab.content = system_tab_content
NUM_SYSTEM_BUTTONS = 3
SYSTEM_BUTTON_PADDING = 20
SYSTEM_BUTTON_FONT_SIZE = 24
SYSTEM_BUTTON_WIDTH = TABS_WIDTH - SYSTEM_BUTTON_PADDING * 2
SYSTEM_BUTTON_HEIGHT = (TAB_CONTENT_HEIGHT - SYSTEM_BUTTON_PADDING *
(NUM_SYSTEM_BUTTONS + 1)) / NUM_SYSTEM_BUTTONS
SYSTEM_BUTTON_TEXT_SIZE = [SYSTEM_BUTTON_WIDTH, SYSTEM_BUTTON_HEIGHT]
# Load button
load_button = NSDisableButton(text='Load', width=SYSTEM_BUTTON_WIDTH,
height=SYSTEM_BUTTON_HEIGHT,
text_size=SYSTEM_BUTTON_TEXT_SIZE,
font_size=SYSTEM_BUTTON_FONT_SIZE,
halign='center', valign='middle')
load_button.bind(on_press=self.load_file)
load_button.center_x = tabs.center_x
load_button.top = TAB_CONTENT_TOP - SYSTEM_BUTTON_PADDING
system_tab_content.add_widget(load_button)
self.load_button = load_button
# Save button
save_button = NSDisableButton(text='Save', width=SYSTEM_BUTTON_WIDTH,
height=SYSTEM_BUTTON_HEIGHT,
text_size=SYSTEM_BUTTON_TEXT_SIZE,
font_size=SYSTEM_BUTTON_FONT_SIZE,
halign='center', valign='middle')
save_button.bind(on_press=self.save_file)
save_button.center_x = tabs.center_x
save_button.top = load_button.y - SYSTEM_BUTTON_PADDING
system_tab_content.add_widget(save_button)
# Quit button
quit_button = NSDisableButton(text='Quit', width=SYSTEM_BUTTON_WIDTH,
height=SYSTEM_BUTTON_HEIGHT,
text_size=SYSTEM_BUTTON_TEXT_SIZE,
font_size=SYSTEM_BUTTON_FONT_SIZE,
halign='center', valign='middle')
quit_button.bind(on_press=self.request_exit)
quit_button.center_x = tabs.center_x
quit_button.top = save_button.y - SYSTEM_BUTTON_PADDING
system_tab_content.add_widget(quit_button)
# APPLICATION TITLE
TITLE_WIDTH = TABS_WIDTH
TITLE_HEIGHT = 50
TITLE_TEXT_SIZE = [TITLE_WIDTH, TITLE_HEIGHT]
TITLE_FONT_SIZE = 30
SUBTITLE_WIDTH = TITLE_WIDTH
SUBTITLE_HEIGHT = 30
SUBTITLE_TEXT_SIZE = [SUBTITLE_WIDTH, SUBTITLE_HEIGHT]
SUBTITLE_FONT_SIZE = 15
TITLE_X = TABS_X
title_label = Label(text='NetSeq', width=TITLE_WIDTH,
height=TITLE_HEIGHT, halign='center',
valign='middle', text_size=TITLE_TEXT_SIZE,
font_size=TITLE_FONT_SIZE)
title_label.top = PLAYBACK_TOP
title_label.x = TITLE_X
self.main_layout.add_widget(title_label)
subtitle_label = Label(text='Music with Friends',
width=SUBTITLE_WIDTH,
height=SUBTITLE_HEIGHT,
text_size=SUBTITLE_TEXT_SIZE,
font_size=SUBTITLE_FONT_SIZE,
halign='center', valign='middle')
subtitle_label.top = title_label.y
subtitle_label.x = TITLE_X
self.main_layout.add_widget(subtitle_label)
# Finishing steps
self.set_color(self.track_id)
self.reload_row_labels()
def __init__(self):
super(MyWidget, self).__init__()
self.cos_table = CosTable([(0,0), (100,1), (1000,.25), (8191,0)])
self.osc_out = Osc(table=self.cos_table, freq=220)
# For each element of the GUI, make sure to
# 1. Create a unique reference attached to this object for
# future manipulation. e.g. self.main_box = main_box after you've
# created a BoxLayout called main_box
# Interesting things about Kivy UI programming:
# 1. y starts counting from bottom left
# 2. set size_hint to '[None, None]' for all new widgets if defining
# the size and manually
# MAIN LAYOUT
main_layout = FloatLayout(size=[800,600], orientation='horizontal')
self.main_layout = main_layout
self.add_widget(main_layout)
# TABS WITH GAME CONTROL
# Tabbed panel for music, settings, network
# Y-position of tabbed panel depends on tab height!
tabs = TabbedPanel(tab_width=50, size=[160, 480], pos=[0, 120],
size_hint=(None, None))
self.tabs = tabs
main_layout.add_widget(tabs)
# Music tab
music_button = Button(text="Music things")
tabs.default_tab_content = music_button
tabs.default_tab.text = "Music"
# Network tab
network_tab = TabbedPanelHeader(text="Net")
tabs.add_widget(network_tab)
network_layout = BoxLayout(orientation="vertical", padding=10)
server_button = Button(text="Start server")
ip_label = Label(text="Your IP is\n123.234.456.789");
client_label = Label(text="Connect to server: ");
server_ip_input = TextInput(text="Enter server IP")
network_layout.add_widget(server_button)
network_layout.add_widget(ip_label)
network_layout.add_widget(client_label)
network_layout.add_widget(server_ip_input)
network_tab.content = network_layout
# Global tab
global_tab = TabbedPanelHeader(text="Global")
tabs.add_widget(global_tab)
global_button = Button(text="Global things")
global_tab.content = global_button
# END TABS
# RIGHT-SIDE LAYOUT: NOTES GRID AND PLAYBACK UI
music_layout = FloatLayout(size=[640, 600], pos=[161, 0],
size_hint=[None, None])
self.music_layout = music_layout
main_layout.add_widget(music_layout)
# NOTES GRID
# Right now Kivy isn't really paying attention to button size and
# padding. Later on, we'll fix this with a FloatLayout
note_rows = note_cols = 8
padding_between = 5
note_grid = GridLayout(size=[640, 480], pos=[161, 121],
size_hint=[None, None], rows=note_rows,
cols=note_cols, padding=padding_between)
music_layout.add_widget(note_grid)
edge_padding = 30
grid_start_x = note_grid.x + edge_padding
grid_end_x = note_grid.right - edge_padding
grid_start_y = note_grid.y + edge_padding
grid_end_y = note_grid.top - edge_padding
notes_matrix = []
note_width = grid_end_x - grid_start_x - padding_between * \
(note_rows - 1)
note_height = grid_end_y - grid_start_y - padding_between * \
(note_rows - 1)
# Adding a rectangle to test playback indicator
self.playback_indicator = Rectangle(pos=[161,121], size=[75, 480])
self.playback_canvas = Canvas()
playback_widget = Widget()
self.playback_canvas.add(self.playback_indicator)
self.playback_canvas.opacity = .5
playback_widget.canvas = self.playback_canvas
music_layout.add_widget(playback_widget)
for row in range(0, note_rows):
for col in range(0, note_cols):
new_id = str(row) + "," + str(col)
new_button = ToggleButton(text=new_id, id=new_id,
width=note_width,
height=note_height)
active_color = (1, 0, 0, 1)
new_button.background_color = active_color
new_button.bind(on_press=self.play_note)
note_grid.add_widget(new_button)
# PLAYBACK BUTTONS
playback = Button(text="For playback", size=[640, 120],
size_hint=[None, None], pos=[161, 0])
music_layout.add_widget(playback)