class Commands:
def __init__(self):
self.protocol = None
self.vision_process = None
self.world = None
self.strategy = None
self.highstrategy = None
self.game = None
print("! Remember to call:")
print("! init <room: 0/1> <team_color: blue/yellow> <our_single_spot_color: green/pink>")
print("! vision")
print("! connect <device_no>")
self.init()
self.vision()
#self.connect()
#self.highstrategy.main()
def init(self, room_num=1, team_color='yellow', our_color='green', computer_goal=False):
print("init: Room: %s, team color: %s, our single spot color: %s, computer goal: %s" %
(room_num, team_color, our_color, computer_goal))
self.world = World(int(room_num), team_color, our_color, computer_goal)
self.strategy = SimpleStrategy(self.world, self)
self.game = Game(self.world, self)
self.highstrategy = StrategyTools(self.world, self, self.game, self.strategy)
def connect(self, device_no='0'):
print("connect: Connecting to RF stick")
self.protocol = RobotProtocol('/dev/ttyACM' + device_no)
def vision(self):
if not self.vision_process:
print("vision: Starting vision")
self.vision_process = multiprocessing.Process(target=Vision, args=(self.world,))
self.vision_process.start()
def query_ball(self):
a = self.protocol.query_ball()
print("We have the ball: %s" % a)
return a
def start_game(self, case_no):
#1 is when venus kicks off the game
if int(case_no) == 1:
self.highstrategy.kick_off_us()
else:
self.highstrategy.kick_off_them()
self.runstrategy()
def penalty_attack(self, clockno):
self.highstrategy.penalty_attack(clockno)
def penalty_defend(self):
self.highstrategy.penalty_defend()
def runstrategy(self):
self.highstrategy.main()
def attackwithball(self):
self.highstrategy.attackwithball()
def ballwithenemy(self, no):
self.highstrategy.ballwithenemy(int(no))
def ballindefensearea(self):
a= self.highstrategy.ballindefensearea()
print(a)
def ballwithfriend(self):
self.highstrategy.ballwithfriend()
def grab_ball(self):
self.strategy.grab_ball()
def goal(self):
self.strategy.goal()
def grab_goal(self):
self.strategy.grab_goal()
def pass_ball(self):
self.strategy.pass_ball()
def catch_ball(self):
self.strategy.catch_ball()
def intercept(self):
self.strategy.intercept()
def catch_pass(self):
self.strategy.catch_pass()
def pw(self):
print(self.world)
def pot(self):
self.game.mid("FREE_BALL_YOURS", True)
def pot1(self):
self.game.mid("FREE_BALL_2_GOALSIDE", True)
def positionTest(self):
print self.world.our_goalX, self.world.our_goalmeanY
def flush(self):
self.protocol.flush()
def test1(self):
self.game.local_potential = np.array([[666, 100, 666, 100, 666],
[666, 100, 0, 0, 666],
[666, 100, 1, 100, 666],
[666, 100, 666, 100, 666],
[666, 100, 666, 100, 666]], dtype=np.float64)
self.game.points = np.arange(50).reshape((5, 5, 2))
print self.game.move()
def test2(self):
# for x in range(0, 10):
# self.forward_right()
self.forward_left()
self.forward_right()
self.pause()
self.sharp_left()
self.forward_left()
self.pause()
self.sharp_right()
self.forward_right()
def test3(self):
self.forward()
self.pause()
self.sharp_left()
def test4(self):
"""Test of swerving"""
self.forward()
self.swerve_left(200)
self.swerve_right(200)
self.swerve_left(200)
self.swerve_right(200)
self.forward()
def hol(self):
self.protocol.move(10, [(FRONT_LEFT, 100), (BACK_LEFT, 100), (FRONT_RIGHT, -100), (BACK_RIGHT, -100), ], wait=True)
time.sleep(20)
self.s()
def stopped(self):
self.protocol.block_until_stop()
print("Now it has stopped")
def turn(self, x, grab=None):
"""Turn clockwise, negative means counter-clockwise"""
print(" Turn %d deg" % int(x))
x = int(x)
s = sign(x)
x = abs(x)
# Last calibration: 14 March
if s > 0: # Clockwise
if x > 90:
x = 1.8055555556 * x - 85.0
else:
x = 0.0067224213 * (x ** 2) + 0.2676702509 * x
else: # Counter-clockwise
if x > 90:
x = 1.7477777778 * x - 93.5
else:
x = 0.0063082437 * (x ** 2) + 0.1935483871 * x
x = int(x)
if x > 0:
self.protocol.schedule(x, MOTOR_TURN, [(MOTOR_LEFT, -100 * s),
(MOTOR_RIGHT, 100 * s),
(MOTOR_TURN, 100 * s)], self.grab_time(grab))
def forward_forever(self):
"""Move forward forever"""
self.protocol.move_forever([(MOTOR_LEFT, -100),
(MOTOR_RIGHT, -100)])
def backward_forever(self):
"""Move backward forever"""
self.protocol.move_forever([(MOTOR_LEFT, 100),
(MOTOR_RIGHT, 100)])
def swerve_right(self, x):
"""Swerve right whilst moving forwards"""
self.protocol.schedule(x, MOTOR_TURN, [(MOTOR_TURN, 100),
(MOTOR_LEFT, -100),
(MOTOR_RIGHT, -100)])
def swerve_left(self, x):
"""Swerve left whilst moving forwards"""
self.protocol.schedule(x, MOTOR_TURN, [(MOTOR_TURN, -100),
(MOTOR_LEFT, -100),
(MOTOR_RIGHT, -100)])
def pause(self):
"""Pause between motions that immediately change motor direction"""
#self.protocol.schedule_pause(400)
def grab_time(self, grab):
if grab == 'T':
grab = True
elif grab == 'F':
grab = False
if grab is None:
return 0
elif grab:
return -300
else:
return 400
def forward(self, grab=None):
"""Move a cell forward"""
print(" Forward")
self.protocol.move(80, [(MOTOR_LEFT, -100),
(MOTOR_RIGHT, -100)], wait=True)
# self.protocol.schedule(90, MOTOR_LEFT, [(MOTOR_LEFT, -100),
# (MOTOR_RIGHT, -100)], self.grab_time(grab))
def backward(self, grab=None):
"""Move a cell backward"""
print(" Backward")
self.protocol.move(90, [(MOTOR_LEFT, 100),
(MOTOR_RIGHT, 100)], wait=True)
# self.protocol.schedule(70, MOTOR_LEFT, [(MOTOR_LEFT, 100),
# (MOTOR_RIGHT, 100)], self.grab_time(grab))
def forward_left(self, grab=None):
"""Move forward and to left"""
print(" Forward left")
self.protocol.move(150, [(MOTOR_TURN, -100),
(MOTOR_LEFT, -80),
(MOTOR_RIGHT, -100)], wait=True)
#self.protocol.move(50, [(MOTOR_LEFT, -100),
# (MOTOR_RIGHT, -100)], wait=True)
# self.protocol.schedule(170, MOTOR_TURN, [(MOTOR_TURN, -100),
# (MOTOR_LEFT, -80),
# (MOTOR_RIGHT, -100)], self.grab_time(grab))
# self.protocol.schedule(50, MOTOR_LEFT, [(MOTOR_LEFT, -100),
# (MOTOR_RIGHT, -100)])
def forward_right(self, grab=None):
"""Move forward and to right"""
print(" Forward right")
self.protocol.move(240, [(MOTOR_TURN, 100),
(MOTOR_LEFT, -100),
(MOTOR_RIGHT, -80)], wait=True)
#self.protocol.move(50, [(MOTOR_LEFT, -100),
# (MOTOR_RIGHT, -100)], wait=True)
# self.protocol.schedule(170, MOTOR_TURN, [(MOTOR_TURN, 100),
# (MOTOR_LEFT, -100),
# (MOTOR_RIGHT, -60)], self.grab_time(grab))
# self.protocol.schedule(50, MOTOR_RIGHT, [(MOTOR_LEFT, -100),
# (MOTOR_RIGHT, -100)])
def backward_left(self, grab=None):
"""Move backward and to left"""
print(" Backward left")
#self.protocol.move(20, [(MOTOR_LEFT, 100),
# (MOTOR_RIGHT, 100)], wait=True)
self.protocol.move(190, [(MOTOR_TURN, 100),
(MOTOR_LEFT, 80),
(MOTOR_RIGHT, 100)], wait=True)
# self.protocol.schedule(3, MOTOR_LEFT, [(MOTOR_LEFT, 100),
# (MOTOR_RIGHT, 100)], self.grab_time(grab))
# self.protocol.schedule(190, MOTOR_TURN, [(MOTOR_TURN, 100),
# (MOTOR_LEFT, 80),
# (MOTOR_RIGHT, 100)])
def backward_right(self, grab=None):
"""Move backward and to right"""
print(" Backward right")
#self.protocol.schedule(20, MOTOR_RIGHT, [(MOTOR_LEFT, 100),
# (MOTOR_RIGHT, 100)], self.grab_time(grab))
self.protocol.move(250, [(MOTOR_TURN, -100),
(MOTOR_LEFT, 100),
(MOTOR_RIGHT, 80)], wait=True)
#this was commented out before changing to move:
# self.protocol.schedule(230, MOTOR_TURN, [(MOTOR_TURN, -100),
# (MOTOR_LEFT, 100),
# (MOTOR_RIGHT, 80)])
def sharp_left(self, grab=None):
"""Move to a cell left"""
print(" Sharp left")
self.c(-90)
# self.protocol.move(12, [(MOTOR_TURN, -100),
# (MOTOR_LEFT, 100),
# (MOTOR_RIGHT, -100)], wait=True)
self.protocol.move(80, [(MOTOR_LEFT, -100),
(MOTOR_RIGHT, -100)], wait=True)
# self.protocol.schedule(12, MOTOR_TURN, [(MOTOR_TURN, -100),
# (MOTOR_LEFT, 100),
# (MOTOR_RIGHT, -100)], self.grab_time(grab))
# self.protocol.schedule(50, MOTOR_LEFT, [(MOTOR_LEFT, -100),
# (MOTOR_RIGHT, -100)])
def sharp_right(self, grab=None):
"""Move to a cell right"""
print(" Sharp right")
self.c(90)
# self.protocol.move(18, [(MOTOR_TURN, 100),
# (MOTOR_LEFT, -100),
# (MOTOR_RIGHT, 100)], wait=True)
self.protocol.move(80, [(MOTOR_LEFT, -100),
(MOTOR_RIGHT, -100)], wait=True)
# self.protocol.schedule(18, MOTOR_TURN, [(MOTOR_TURN, 100),
# (MOTOR_LEFT, -100),
# (MOTOR_RIGHT, 100)], self.grab_time(grab))
# self.protocol.schedule(50, MOTOR_RIGHT, [(MOTOR_LEFT, -100),
# (MOTOR_RIGHT, -100)])
def f(self, x):
"""Move forward, negative x means backward"""
x = int(x)
s = sign(x)
if x > 0:
if x > 17:
x = 7.5145299398 * x - 80.3832872418
else:
x = 0.0432484778 * (x ** 2) + 2.1632771388 * x
else:
x = 13.964509832 * -x - 75.2448595458
x = int(x)
if x > 0:
self.protocol.move(x, [(MOTOR_LEFT, -100 * s),
(MOTOR_RIGHT, -100 * s)], wait=True)
def c(self, x):
"""Rotate clockwise, negative x means counter-clockwise"""
x = int(x)
s = sign(x)
x = abs(x)
# Last calibration: 12 March
if x > 90:
x = 0.9933333333 * x - 43
else:
x = 0.0018797292 * (x ** 2) + 0.420501791 * x
x = int(x)
if x > 0:
self.protocol.move(x, [(MOTOR_LEFT, -100 * s),
(MOTOR_RIGHT, 100 * s),
(MOTOR_TURN, 100 * s)], wait=True)
def k(self, x):
"""Kick"""
x = int(x)
# Not using rotary encoders, granularity too low
self.protocol.move(x, [(2, 100)], time=True)
def g(self, x=-300):
"""Grab, positive x means release"""
x = int(x)
# This motor does not have rotary encoders
self.world.grabber_open = x > 0
self.protocol.move(abs(x), [(MOTOR_GRAB, 100 * sign(x))], time=True)
def open_wide(self):
self.g(400)
def open_narrow(self):
self.g(350)
def x(self, x):
"""Kick and release"""
x = int(x)
self.k(x)
self.open_narrow()
def s(self):
self.protocol.stop()
def move(self, x, y, deg):
"""Milestone 1: Move"""
x = int(x)
y = int(y)
deg = int(deg)
print("First turn, clockwise")
self.c(90)
time.sleep(1)
print("Go x")
self.f(x)
time.sleep(1)
print("Second turn, counterclockwise")
self.c(-85)
print("Go y")
time.sleep(1)
self.f(y)
print("Do final turn")
time.sleep(1)
self.c(deg)
def kick(self, distance):
"""Milestone 1: Kick"""
distance = int(distance)
# Last calibration: 12 March
time_value = 2.3530438329 * distance + 38.5507807011
print("Time for kicking motor: " + str(time_value))
self.x(time_value)
'''
if distance == 50:
# time = 260
time = 242
elif distance == 100:
# time = 290
time = 275 # 295?
elif distance == 150:
# time = 310
time = 303
else:
time = 0
self.k(time)
'''
def transfer(self, filename, freq_hz):
"""Milestone 1: Communications and Timing"""
freq_hz = float(freq_hz)
seconds = 1.0 / freq_hz
print("Transferring file '%s' at freq %fHz, %fs" %
(filename, freq_hz, seconds))
with open(filename, "rb") as f:
byte = f.read(1)
while byte != "":
self.protocol.transfer(byte)
time.sleep(seconds)
byte = f.read(1)
# self.p.read_all()
def reset_input(self):
self.protocol.reset_input()
def block_goal(self, enemy_num):
self.strategy.block_goal(int(enemy_num))
def connect(self, device_no='0'):
print("connect: Connecting to RF stick")
self.protocol = RobotProtocol('/dev/ttyACM' + device_no)
class Commands:
def __init__(self):
self.protocol = None
self.vision_process = None
self.world = None
self.strategy = None
self.highstrategy = None
self.game = None
print("! Remember to call:")
print("! init <room: 0/1> <team_color: blue/yellow> <our_single_spot_color: green/pink>")
print("! vision")
print("! connect <device_no>")
self.init()
self.vision()
#self.connect()
#self.highstrategy.main()
def hs(self):
self.highstrategy.main()
def init(self, room_num=0, team_color='yellow', our_color='pink', computer_goal=False):
print("init: Room: %s, team color: %s, our single spot color: %s, computer goal: %s" %
(room_num, team_color, our_color, computer_goal))
self.world = World(int(room_num), team_color, our_color, computer_goal)
self.strategy = SimpleStrategy(self.world, self)
self.game = Game(self.world, self)
self.highstrategy = StrategyTools(self.world, self, self.game, self.strategy)
def connect(self, device_no='0'):
print("connect: Connecting to RF stick")
self.protocol = RobotProtocol('/dev/ttyACM' + device_no)
def vision(self):
if not self.vision_process:
print("vision: Starting vision")
self.vision_process = multiprocessing.Process(target=Vision, args=(self.world,))
self.vision_process.start()
def map(self, state, num):
self.game.mid(state, True, num)
def test(self, state):
while True:
self.game.mid(state, False)
def move(self, direction, angle): # direction is between our orientation and where we want to go
dir = int(direction)
ang = int(angle)
if dir < 0:
d = 45 - dir
else:
d = -(dir - 45)
a = -math.radians(ang)
dir = math.radians(d)
idea = np.array([np.cos(dir), np.sin(dir), a])
rad = 0.1
m = np.array([[1, 0, rad],
[0, -1, rad],
[-1, 0, rad],
[0, 1, rad]])
movement = np.dot(m, idea)
sizes = np.fabs(movement)
factor = np.amax(sizes)
movement = np.multiply(100.0/factor, movement)
movement = movement.round()
s = np.sign(movement)
movement = s*((40*abs(movement))/100 + 60)
self.protocol.move_forever([(0, int(movement[0])), (1, int(movement[1])), (2, int(movement[2])), (3, int(movement[3])), ])
#self.protocol.move(20, [(0, movement[0]), (1, movement[1]), (2, movement[2]), (3, movement[3]), ], wait=True)
def penalty_attack(self, clockno):
self.highstrategy.penalty_attack(clockno)
def penalty_defend(self):
self.highstrategy.penalty_defend()
def runstrategy(self):
self.highstrategy.main()
def attackwithball(self):
self.highstrategy.attackwithball()
def ballwithenemy(self, no):
self.highstrategy.ballwithenemy(int(no))
def ballindefensearea(self):
a= self.highstrategy.ballindefensearea()
print(a)
def ballwithfriend(self):
self.highstrategy.ballwithfriend()
def f(self, x):
"""Move forward, negative x means backward"""
x = int(x)
s = sign(x)
x = abs(x)
# Calibrated for the holonomic robot on 27 March, only forward
x = 5.3169850194 * x - 14.9575723714
x = int(x)
if x > 0:
self.protocol.move(x, [(0, 100 * s), (1, -100 * s), (2, -100 * s), (3, 100 * s)], wait=True)
def c(self, x):
"""Rotate clockwise, negative x means counter-clockwise"""
x = int(x)
s = sign(x)
x = abs(x)
# Calibrated for the holonomic robot on 30 March
if s > 0:
if x > 90:
x = 0.8 * x - 37.0
else:
x = 0.0015306535 * (x ** 2) + 0.3025825153 * x
else:
if x > 90:
x = 0.823333333 * x - 33.5
else:
x = 0.001206074 * (x ** 2) + 0.3634378289 * x
x = int(x)
if x > 0:
self.protocol.move(x, [(0, -80 * s), (1, -80 * s), (2, -80 * s), (3, -80 * s)], wait=True)
def s(self):
self.protocol.stop()
def k(self):
# self.protocol.move(500, [(4, -100)], time=True)
self.protocol.move_forever([(0, -100), (1, 100), (2, 100), (3, -100), ])
time.sleep(0.5)
self.protocol.move_forever([(0, 100), (1, -100), (2, -100), (3, 100), ])
time.sleep(1)
self.protocol.stop()
def o(self):
self.protocol.move(400, [(4, -100)], time=True, wait=True)
def g(self):
self.protocol.move(400, [(4, 80)], time=True, wait=True)
def ss(self, x):
x = int(x)
s = sign(x)
x = abs(x)
if x < 90:
return
if x > 90:
if s > 0:
x = 0.0008417761 * (x ** 2) + 0.3865014241 * x - 41.5767918089
else:
x = 0.0013813605 * (x ** 2) + 0.1536110506 * x - 25.1058020478
x = int(x)
self.protocol.schedule(x, 0, [(0, -100 * s), (1, -100 * s), (2, -100 * s), (3, -100 * s)])
self.protocol.schedule(200, 0, [(0, -100 * s), (1, -100 * s), (2, -100 * s), (3, -100 * s)], grab=-400)
#self.protocol.move(400, [(4, -100)], time=True)
def flush(self):
self.protocol.flush()
def ee(self, x):
x = int(x)
s = sign(x)
self.protocol.move(400, [(4, -100)], time=True)
self.protocol.move(200, [(0, -100 * s), (1, -100 * s), (2, -100 * s), (3, -100 * s)], wait=True)
def w(self):
print self.world
def query_ball(self):
if self.world.room_num == 0:
threshold = 180
else:
threshold = 192
a = self.protocol.query_ball(threshold)
print("We have the ball: %s" % a)
return a
def pass_ball(self):
self.strategy.pass_ball()
def catch_ball(self):
self.strategy.catch_ball()
def goal(self):
self.strategy.goal()
def who(self):
print "Who has the ball?"
if self.world.venus.hasBallInRange[0]:
print "0: venus"
if self.world.friend.hasBallInRange[0]:
print "1: friend"
if self.world.enemy1.hasBallInRange[0]:
print "2: enemy1"
if self.world.enemy2.hasBallInRange[0]:
print "3: enemy2"
def rr(self):
self.protocol.move_forever([(0, 70), (1, -100), (2, -70), (3, 100), ])
def stopped(self):
self.protocol.block_until_stop()
print("Now it has stopped")
def v(self):
while True:
#print "---"
#print self.world.ball_velocity[0], self.world.ball_velocity[1]
print math.sqrt(self.world.ball_velocity[0]**2 + self.world.ball_velocity[1]**2)/6.0
def j(self):
angle, motion_length = self.strategy.calculate_angle_length_ball()
print angle, motion_length
self.c(angle)
def b(self):
last = self.world.ball_moving[0]
i = 0
while True:
this = self.world.ball_moving[0]
if last == 0 and this == 1:
print "\a%d Started moving" % i
i += 1
elif last == 1 and this == 0:
print "\a%d Stopped moving" % i
i += 1
last = this
def gg(self):
while True:
self.game.mid("FREE_BALL_YOURS", False)