def userInputToPlayer(player):
keys = pygame.key.get_pressed()
if keys[pygame.K_UP]:
player.moveForward()
if keys[pygame.K_DOWN]:
player.moveBackward()
if keys[pygame.K_LEFT]:
player.rotateLeft()
if keys[pygame.K_RIGHT]:
player.rotateRight()
if keys[pygame.K_a]:
player.accelerate()
if keys[pygame.K_d]:
player.brake()
def __game_cycle(self):
p = self.player
l = self.level
p.travel(l.track_length(), self.window)
base_segment = l.find_segment(p.position)
player_segment = l.find_segment(p.position + s.PLAYER_Z)
p.accelerate()
p.steer(player_segment)
p.climb(base_segment)
p.detect_collisions(player_segment)
p.handle_crash()
# Sprinkle some random bonuses into the next lap if we are lucky.
if p.new_lap:
if random.randint(1, s.CHANCE_OF_BONUSES) == 1:
l.insert_bonuses()
# Move the other players.
for c in l.competitors:
old_seg = l.find_segment(c.position)
c.travel(l.track_length())
new_seg = l.find_segment(c.position)
c.play_engine(p.position)
if old_seg.index != new_seg.index:
if c in old_seg.competitors:
old_seg.competitors.remove(c)
new_seg.competitors.append(c)
coverage = [base_segment, base_segment, base_segment]
tunnel_exit = base_segment
pre_renders = []
curve = 0
curve_delta = -(base_segment.curve * p.segment_percent())
# Position backgrounds according to current curve.
for bg in l.backgrounds:
if base_segment.curve != 0:
bg.step(base_segment.curve, p.speed_percent())
bg.render(self.window)
# Loop through segments we should draw for this frame.
for i in range(s.DRAW_DISTANCE):
segment = l.offset_segment(base_segment.index + i)
projected_position = p.position
camera_x = p.x * s.ROAD_WIDTH
# Past end of track and looped back.
if segment.index < base_segment.index:
projected_position -= l.track_length()
segment.project(camera_x, curve, curve_delta, projected_position,
p.y)
curve += curve_delta
curve_delta += segment.curve
# Remember biggest LEFT, TOP, RIGHT coordinates so we can clip sprites later.
segment.clip = [
coverage[0].bottom["screen"]["x"] -
coverage[0].bottom["screen"]["w"],
coverage[1].top["screen"]["y"],
coverage[2].bottom["screen"]["x"] +
coverage[2].bottom["screen"]["w"]
]
if len(segment.pre_polygons) > 0:
pre_renders.append(segment)
if segment.tunnel_end:
tunnel_exit = segment
if segment.should_ignore(coverage[1]):
continue
segment.render_grass(self.window)
segment.render_road(self.window)
if (segment.top["screen"]["y"] > coverage[1].top["screen"]["y"]):
coverage[1] = segment
# Remember where we should draw the left and right tunnel walls.
if segment.in_tunnel:
s_top = segment.top["screen"]
tl_top = coverage[0].top["screen"]
tr_top = coverage[2].top["screen"]
if (s_top["x"] - s_top["w"]) > (tl_top["x"] - tl_top["w"]):
coverage[0] = segment
if (s_top["x"] + s_top["w"]) < (tr_top["x"] + tr_top["w"]):
coverage[2] = segment
# Draw tunnel roof and walls.
if base_segment.in_tunnel:
self.player.in_tunnel = True
tunnel_exit.render_tunnel_roof(self.window,
coverage[1].top["screen"]["y"])
coverage[0].render_left_tunnel(self.window)
coverage[2].render_right_tunnel(self.window)
else:
self.player.in_tunnel = False
# Let backgrounds know how much height they need to cover on the next paint.
for bg in l.backgrounds:
bg.visible_height = s.DIMENSIONS[1] - coverage[1].top["screen"]["y"]
# Draw sprites in from back to front (painters algorithm).
for segment in reversed(pre_renders):
segment.render_polygons(self.window, coverage)
for i in reversed(range(1, s.DRAW_DISTANCE)):
segment = l.offset_segment(base_segment.index + i)
segment.render_world_objects(self.window)
p.render(self.window, base_segment)
p.render_hud(self.window)
if p.blood_alpha > 0:
p.render_blood(self.window)
for e in pygame.event.get():
u.try_quit(e)
if e.type == pygame.KEYDOWN and e.key == pygame.K_RETURN:
pygame.mixer.music.pause()
self.paused = True
# Steering, acceleration.
keys = pygame.key.get_pressed()
p.set_acceleration(keys)
p.set_direction(keys)
gameplay = np.flip(pygame.surfarray.pixels3d(self.window), axis=(0, 2))
gameplay = np.rot90(gameplay, k=-1)
ret, gameplay = cv2.imencode('.jpg', gameplay)
ret, video = self.cam.read()
video = cv2.resize(video, s.DIMENSIONS)
ret, video = cv2.imencode('.jpg', video)
publish.single("gameplay",
gameplay.tobytes(),
hostname="mr4b11zrabb.messaging.mymaas.net",
port=1883,
auth={
'username': "******",
'password': "******"
},
transport="tcp")
publish.single("video",
video.tobytes(),
hostname="mr4b11zrabb.messaging.mymaas.net",
port=1883,
auth={
'username': "******",
'password': "******"
},
transport="tcp")
def __game_cycle(self):
p = self.player
l = self.level
p.travel(l.track_length(), self.window)
base_segment = l.find_segment(p.position)
player_segment = l.find_segment(p.position + s.PLAYER_Z)
p.accelerate()
p.steer(player_segment)
p.climb(base_segment)
p.detect_collisions(player_segment)
p.handle_crash()
# Sprinkle some random bonuses into the next lap if we are lucky.
if p.new_lap:
if random.randint(1, s.CHANCE_OF_BONUSES) == 1:
l.insert_bonuses()
# Move the other players.
for c in l.competitors:
old_seg = l.find_segment(c.position)
c.travel(l.track_length())
new_seg = l.find_segment(c.position)
c.play_engine(p.position)
if old_seg.index != new_seg.index:
if c in old_seg.competitors:
old_seg.competitors.remove(c)
new_seg.competitors.append(c)
coverage = [base_segment, base_segment, base_segment]
tunnel_exit = base_segment
pre_renders = []
curve = 0
curve_delta = -(base_segment.curve * p.segment_percent())
# Position backgrounds according to current curve.
for bg in l.backgrounds:
if base_segment.curve != 0:
bg.step(base_segment.curve, p.speed_percent())
bg.render(self.window)
# Loop through segments we should draw for this frame.
for i in range(s.DRAW_DISTANCE):
segment = l.offset_segment(base_segment.index + i)
projected_position = p.position
camera_x = p.x * s.ROAD_WIDTH
# Past end of track and looped back.
if segment.index < base_segment.index:
projected_position -= l.track_length()
segment.project(camera_x,
curve,
curve_delta,
projected_position,
p.y)
curve += curve_delta
curve_delta += segment.curve
# Remember biggest LEFT, TOP, RIGHT coordinates so we can clip sprites later.
segment.clip = [
coverage[0].bottom["screen"]["x"] - coverage[0].bottom["screen"]["w"],
coverage[1].top["screen"]["y"],
coverage[2].bottom["screen"]["x"] + coverage[2].bottom["screen"]["w"]]
if len(segment.pre_polygons) > 0:
pre_renders.append(segment)
if segment.tunnel_end:
tunnel_exit = segment
if segment.should_ignore(coverage[1]):
continue
segment.render_grass(self.window)
segment.render_road(self.window)
if (segment.top["screen"]["y"] > coverage[1].top["screen"]["y"]):
coverage[1] = segment
# Remember where we should draw the left and right tunnel walls.
if segment.in_tunnel:
s_top = segment.top["screen"]
tl_top = coverage[0].top["screen"]
tr_top = coverage[2].top["screen"]
if (s_top["x"] - s_top["w"]) > (tl_top["x"] - tl_top["w"]):
coverage[0] = segment
if (s_top["x"] + s_top["w"]) < (tr_top["x"] + tr_top["w"]):
coverage[2] = segment
# Draw tunnel roof and walls.
if base_segment.in_tunnel:
self.player.in_tunnel = True
tunnel_exit.render_tunnel_roof(self.window, coverage[1].top["screen"]["y"])
coverage[0].render_left_tunnel(self.window)
coverage[2].render_right_tunnel(self.window)
else:
self.player.in_tunnel = False
# Let backgrounds know how much height they need to cover on the next paint.
for bg in l.backgrounds:
bg.visible_height = s.DIMENSIONS[1] - coverage[1].top["screen"]["y"]
# Draw sprites in from back to front (painters algorithm).
for segment in reversed(pre_renders):
segment.render_polygons(self.window, coverage)
for i in reversed(range(1, s.DRAW_DISTANCE)):
segment = l.offset_segment(base_segment.index + i)
segment.render_world_objects(self.window)
p.render(self.window, base_segment)
p.render_hud(self.window)
if p.blood_alpha > 0:
p.render_blood(self.window)
for e in pygame.event.get():
u.try_quit(e)
if e.type == pygame.KEYDOWN and e.key == pygame.K_RETURN:
pygame.mixer.music.pause()
self.paused = True
# Steering, acceleration.
keys = pygame.key.get_pressed()
p.set_acceleration(keys)
p.set_direction(keys)
def __game_cycle(self):
# rospy.init_node('listener', anonymous=True)
rospy.Subscriber("/bender/joy/joy0", Joy, callback)
global pausa
p = self.player
l = self.level
resp = p.travel(l.track_length(), self.window)
if resp == "exit":
return resp
base_segment = l.find_segment(p.position)
player_segment = l.find_segment(p.position + s.PLAYER_Z)
p.accelerate()
p.steer(player_segment)
p.climb(base_segment)
p.detect_collisions(player_segment)
p.handle_crash()
# Sprinkle some random bonuses into the next lap if we are lucky.
if p.new_lap:
if random.randint(1, s.CHANCE_OF_BONUSES) == 1:
l.insert_bonuses()
# Move the other players.
for c in l.competitors:
old_seg = l.find_segment(c.position)
c.travel(l.track_length())
new_seg = l.find_segment(c.position)
c.play_engine(p.position)
if old_seg.index != new_seg.index:
if c in old_seg.competitors:
old_seg.competitors.remove(c)
new_seg.competitors.append(c)
coverage = [base_segment, base_segment, base_segment]
tunnel_exit = base_segment
pre_renders = []
curve = 0
curve_delta = -(base_segment.curve * p.segment_percent())
# Position backgrounds according to current curve.
for bg in l.backgrounds:
if base_segment.curve != 0:
bg.step(base_segment.curve, p.speed_percent())
bg.render(self.window)
# Loop through segments we should draw for this frame.
for i in range(s.DRAW_DISTANCE):
segment = l.offset_segment(base_segment.index + i)
projected_position = p.position
camera_x = p.x * s.ROAD_WIDTH
# Past end of track and looped back.
if segment.index < base_segment.index:
projected_position -= l.track_length()
segment.project(camera_x, curve, curve_delta, projected_position,
p.y)
curve += curve_delta
curve_delta += segment.curve
# Remember biggest LEFT, TOP, RIGHT coordinates so we can clip sprites later.
segment.clip = [
coverage[0].bottom["screen"]["x"] -
coverage[0].bottom["screen"]["w"],
coverage[1].top["screen"]["y"],
coverage[2].bottom["screen"]["x"] +
coverage[2].bottom["screen"]["w"]
]
if len(segment.pre_polygons) > 0:
pre_renders.append(segment)
if segment.tunnel_end:
tunnel_exit = segment
if segment.should_ignore(coverage[1]):
continue
segment.render_grass(self.window)
segment.render_road(self.window)
if (segment.top["screen"]["y"] > coverage[1].top["screen"]["y"]):
coverage[1] = segment
# Remember where we should draw the left and right tunnel walls.
if segment.in_tunnel:
s_top = segment.top["screen"]
tl_top = coverage[0].top["screen"]
tr_top = coverage[2].top["screen"]
if (s_top["x"] - s_top["w"]) > (tl_top["x"] - tl_top["w"]):
coverage[0] = segment
if (s_top["x"] + s_top["w"]) < (tr_top["x"] + tr_top["w"]):
coverage[2] = segment
# Draw tunnel roof and walls.
if base_segment.in_tunnel:
self.player.in_tunnel = True
tunnel_exit.render_tunnel_roof(self.window,
coverage[1].top["screen"]["y"])
coverage[0].render_left_tunnel(self.window)
coverage[2].render_right_tunnel(self.window)
else:
self.player.in_tunnel = False
# Let backgrounds know how much height they need to cover on the next paint.
for bg in l.backgrounds:
bg.visible_height = s.DIMENSIONS[1] - coverage[1].top["screen"]["y"]
# Draw sprites in from back to front (painters algorithm).
for segment in reversed(pre_renders):
segment.render_polygons(self.window, coverage)
for i in reversed(range(1, s.DRAW_DISTANCE)):
segment = l.offset_segment(base_segment.index + i)
segment.render_world_objects(self.window)
p.render(self.window, base_segment)
# p.render_hud(self.window)
resp = p.render_hud(self.window)
#print resp
if resp == "over":
return resp
if resp == "win":
return resp
if p.blood_alpha > 0:
p.render_blood(self.window)
for e in pygame.event.get():
u.try_quit(e)
if e.type == pygame.KEYDOWN and e.key == pygame.K_RETURN:
pygame.mixer.music.pause()
self.paused = True
if pausa == 1:
pygame.mixer.music.pause()
self.paused = True
pausa = 0
# Steering, acceleration.
keys = pygame.key.get_pressed()
p.set_acceleration(keys)
p.set_direction(keys)
