def draw_cursor(pos):
(x, y, z) = pos
base = color_lut[self.grid[x, y, z]]
x *= 2
y *= 2
z *= 2
color = cubehelper.mix_color(base, WHITE, 1.0 - self.ccount)
(i, j) = self.coffset
self.cube.set_pixel((x+i,y+j,z), color)
self.cube.set_pixel((x+1-i,y+1-j,z+1), color)
color = cubehelper.mix_color(base, WHITE, self.ccount)
(i, j) = self.cnext
self.cube.set_pixel((x+i,y+j,z), color)
self.cube.set_pixel((x+1-i,y+1-j,z+1), color)
def draw_cursor(pos):
(x, y, z) = pos
base = color_lut[self.grid[x, y, z]]
x *= 2
y *= 2
z *= 2
color = cubehelper.mix_color(base, WHITE, 1.0 - self.ccount)
(i, j) = self.coffset
self.cube.set_pixel((x + i, y + j, z), color)
self.cube.set_pixel((x + 1 - i, y + 1 - j, z + 1), color)
color = cubehelper.mix_color(base, WHITE, self.ccount)
(i, j) = self.cnext
self.cube.set_pixel((x + i, y + j, z), color)
self.cube.set_pixel((x + 1 - i, y + 1 - j, z + 1), color)
def tick(self):
color = cubehelper.mix_color((0.0,0.0,0.0), self.color, self.level)
for y in range(0, self.cube.size):
for z in range(0, self.cube.size):
for x in range(0, self.cube.size):
self.cube.set_pixel((x, y, z), color)
self.level += self.delta
if self.level >= 1.0:
self.delta = -self.delta
if self.level <= 0:
raise StopIteration
def tick(self):
color = cubehelper.mix_color((0.0, 0.0, 0.0), self.color, self.level)
for y in range(0, self.cube.size):
for z in range(0, self.cube.size):
for x in range(0, self.cube.size):
self.cube.set_pixel((x, y, z), color)
self.level += self.delta
if self.level >= 1.0:
self.delta = -self.delta
self.level = 1.0
if self.level <= 0.0:
self.delta = -self.delta
self.level = 0.0
self.color = cubehelper.random_color()
raise StopIteration
def tick(self):
self.cube.clear()
sz = self.cube.size
y = 0.5
step = self.offset
if self.delta > 0:
cfrac = self.offset
else:
cfrac = 2.0 - self.offset
color = cubehelper.mix_color(self.color, self.next_color, cfrac/2.0)
cubepos = [0]*3
for x in range(0, sz):
if self.mirror0:
val = (sz - 1) - x
else:
val = x
cubepos[self.axis0] = val
val = int(y)
if self.mirror1:
val = (sz - 1) - val
cubepos[self.axis1] = val
for z in range(0, sz):
cubepos[self.axis2] = z
self.cube.set_pixel(cubepos, color)
y += step
self.offset += self.delta
if self.offset >= 1.0:
self.offset = 2.0 - self.offset
self.delta = -self.delta
tmp = self.axis0
self.axis0 = self.axis1
self.axis1 = tmp
tmp = self.mirror0
self.mirror0 = self.mirror1
self.mirror1 = tmp
if self.offset < 0.0:
self.offset = -self.offset
self.delta = -self.delta
self.color = self.next_color
self.next_color = self.pick_color()
n = random.randrange(3)
if n > 0:
tmp = self.axis0
self.axis0 = self.axis2
self.axis2 = tmp
if n < 2:
self.mirror0 = not self.mirror0
raise StopIteration
def tick(self):
self.cube.clear()
sz = self.cube.size
y = 0.5
step = self.offset
if self.delta > 0:
cfrac = self.offset
else:
cfrac = 2.0 - self.offset
color = cubehelper.mix_color(self.color, self.next_color, cfrac/2.0)
cubepos = [0]*3
for x in range(0, sz):
if self.mirror0:
val = (sz - 1) - x
else:
val = x
cubepos[self.axis0] = val
val = int(y)
if self.mirror1:
val = (sz - 1) - val
cubepos[self.axis1] = val
for z in range(0, sz):
cubepos[self.axis2] = z
self.cube.set_pixel(cubepos, color)
y += step
self.offset += self.delta
if self.offset >= 1.0:
self.offset = 2.0 - self.offset
self.delta = -self.delta
tmp = self.axis0
self.axis0 = self.axis1
self.axis1 = tmp
tmp = self.mirror0
self.mirror0 = self.mirror1
self.mirror1 = tmp
if self.offset < 0.0:
self.offset = -self.offset
self.delta = -self.delta
self.color = self.next_color
self.next_color = self.pick_color()
n = random.randrange(3)
if n > 0:
tmp = self.axis0
self.axis0 = self.axis2
self.axis2 = tmp
if n < 2:
self.mirror0 = not self.mirror0
raise StopIteration
def tick(self):
self.cube.clear()
color = cubehelper.mix_color(
self.prevColor, self.color,
(math.sin(self.sinwidth * self.iter) + 1) / 2)
ran = random.randrange(100)
for x in range(0, self.cube.size):
for y in range(0, self.cube.size):
z = math.floor(
math.sin(self.sinwidth * (self.iter + (x + y))) * 3.2 + 4)
self.cube.set_pixel((x, y, int(z)), rainbow(self.iter + x, 10))
self.iter += self.delta
if (math.sin(self.sinwidth * self.iter) + 1) / 2 < 0.1:
self.prevColor = self.color
self.color = cubehelper.random_color()
def tick(self):
def draw_cursor(pos):
(x, y, z) = pos
base = color_lut[self.grid[x, y, z]]
x *= 2
y *= 2
z *= 2
color = cubehelper.mix_color(base, WHITE, 1.0 - self.ccount)
(i, j) = self.coffset
self.cube.set_pixel((x + i, y + j, z), color)
self.cube.set_pixel((x + 1 - i, y + 1 - j, z + 1), color)
color = cubehelper.mix_color(base, WHITE, self.ccount)
(i, j) = self.cnext
self.cube.set_pixel((x + i, y + j, z), color)
self.cube.set_pixel((x + 1 - i, y + 1 - j, z + 1), color)
color_lut = [0, RED, BLUE]
dim = 2 - self.current_player
if self.server is None:
bright = DIM_AUTO
else:
bright = DIM_MANUAL
color_lut[dim] = cubehelper.mix_color(0, color_lut[dim], bright)
for y in range(0, 4):
for z in range(0, 4):
for x in range(0, 4):
color = color_lut[self.grid[x, y, z]]
self.box(x, y, z, color)
if self.winner is None:
draw_cursor(self.cursor)
if self.won_line is not None:
for pos in self.won_line:
draw_cursor(pos)
self.ccount += self.cdelta * DT
if self.ccount > 1.0:
self.ccount -= 1.0
self.coffset = self.cnext
self.cnext = next(self.coffset_iter)
if (self.current_player
== 1) or (self.server is None) or (self.winner is not None):
self.ai_tick -= DT
if self.ai_tick < 0:
if self.winner is not None:
raise StopIteration
self.ai_tick = TURN_DELAY
self.do_ai()
def tick(self):
def draw_cursor(pos):
(x, y, z) = pos
base = color_lut[self.grid[x, y, z]]
x *= 2
y *= 2
z *= 2
color = cubehelper.mix_color(base, WHITE, 1.0 - self.ccount)
(i, j) = self.coffset
self.cube.set_pixel((x+i,y+j,z), color)
self.cube.set_pixel((x+1-i,y+1-j,z+1), color)
color = cubehelper.mix_color(base, WHITE, self.ccount)
(i, j) = self.cnext
self.cube.set_pixel((x+i,y+j,z), color)
self.cube.set_pixel((x+1-i,y+1-j,z+1), color)
color_lut = [0, RED, BLUE]
dim = 2 - self.current_player
if self.server is None:
bright = DIM_AUTO
else:
bright = DIM_MANUAL
color_lut[dim] = cubehelper.mix_color(0, color_lut[dim], bright)
for y in range(0, 4):
for z in range(0, 4):
for x in range(0, 4):
color = color_lut[self.grid[x, y, z]]
self.box(x, y, z, color)
if self.winner is None:
draw_cursor(self.cursor)
if self.won_line is not None:
for pos in self.won_line:
draw_cursor(pos)
self.ccount += self.cdelta * DT
if self.ccount > 1.0:
self.ccount -= 1.0
self.coffset = self.cnext
self.cnext = next(self.coffset_iter)
if (self.current_player == 1) or (self.server is None) or (self.winner is not None):
self.ai_tick -= DT
if self.ai_tick < 0:
if self.winner is not None:
raise StopIteration
self.ai_tick = TURN_DELAY
self.do_ai()
def descend(self):
color = cubehelper.mix_color((0.0,0.0,0.0), self.bit_color, self.fade)
for bit in self.bits:
pos = bit.pos
v = bit.v
v[0] *= FRICTION
v[1] *= FRICTION
v[2] *= FRICTION
v[2] -= GRAVITY * DT
for i in range(0, 3):
pos[i] += v[i] * DT
if pos[i] < 0.0:
pos[i] = 0.0
v[i] = 0
elif pos[i] > 1.0:
pos[i] = 1.0
self.plot(bit, color)
self.fade -= FADE * DT
if self.fade < 0.5 and self.rocket is None:
self.launch()
if self.fade <= 0:
self.bits = None
def descend(self):
color = cubehelper.mix_color((0.0,0.0,0.0), self.bit_color, self.fade)
for bit in self.bits:
pos = bit.pos
v = bit.v
v[0] *= FRICTION
v[1] *= FRICTION
v[2] *= FRICTION
v[2] -= GRAVITY * DT
for i in range(0, 3):
pos[i] += v[i] * DT
if pos[i] < 0.0:
pos[i] = 0.0
v[i] = 0
elif pos[i] > 1.0:
pos[i] = 1.0
self.plot(bit, color)
self.fade -= FADE * DT
if self.fade < 0.5 and self.rocket is None:
self.relaunch = True
if self.fade <= 0:
self.bits = None
def draw(self):
c = cubehelper.mix_color((0, 0, 0), self.colour, self.opacity)
self.cube.set_pixel(self.coords(), c)
def draw(self):
c = cubehelper.mix_color((0, 0, 0), self.colour, self.opacity)
self.cube.set_pixel(self.coords(), c)
def color_for_energy(self, e):
if self.cube.color:
color = self.cube.plasma(e * 5.0)
else:
color = (1.0, 1.0, 1.0)
return cubehelper.mix_color(0, color, e)
def color_for_energy(self, e):
if self.cube.color:
color = color_from_val(int(math.modf(e * 5.0)[0] * 256))
else:
color = (1.0, 1.0, 1.0)
return cubehelper.mix_color(0, color, e)
def color_for_energy(self, e):
if self.cube.color:
color = self.cube.plasma(e * 5.0)
else:
color = (1.0, 1.0, 1.0)
return cubehelper.mix_color(0, color, e)
