def useAtPosition(x, y, func):
xDiff = selfX//ai.blockSize() - x
yDiff = selfY//ai.blockSize() - y
targetDirection = math.atan2(yDiff, xDiff)
ai.turnToRad(targetDirection)
func()
sendMessage("teacherbot")
def aim(targetId):
if targetId == 0:
pass
else:
if not (angleDiff < 0.25 or angleDiff > 2*math.pi - 0.25):
xDiff = ai.targetX(targetId) - ai.selfX()
yDiff = ai.targetY(targetId) - ai.selfY()
targetDirection = math.atan2(yDiff, xDiff)
ai.turnToRad(targetDirection)
angleDiff = abs(targetDirection - selfHeading)
def moveToPos(selfX, selfY, targetPositionPixels, stoppingDistance):
deltaX = targetPositionPixels[0] - selfX
deltaY = selfY - targetPositionPixels[1]
targetDirection = (math.atan2(deltaY, deltaX))
distanceToTarget = math.sqrt((targetPositionPixels[0] - selfX)**2 + (targetPositionPixels[1] - selfY)**2)
isBraking = distanceToTarget < stoppingDistance
if not isBraking:
ai.turnToRad(targetDirection)
thrust(40)
else:
brake(2)
def collectAim(targetId):
itemX = ai.itemX(targetId)
itemY = ai.itemY(targetId)
itemVelX = ai.itemVelX(targetId)
itemVelY = ai.itemVelY(targetId)
deltaPosX = itemX - selfX
deltaPosY = itemY - ai.selfY()
deltaVelX = itemVelX - selfVelX
deltaVelY = itemVelY - selfVelY
time = time_of_impact(deltaPosX, deltaPosY, itemVelX, itemVelY, 10)
targetPosition = vector_sum((deltaPosX, deltaPosY), scalar_product((deltaVelX, deltaVelY), time))
targetDirection = math.atan2(targetPosition[1], targetPosition[0])
ai.turnToRad(targetDirection)
def brake(targetSpeed=2):
if selfSpeed > targetSpeed:
ai.turnToRad(selfTracking + math.pi)
ai.thrust()
def aim(targetId):
xDiff = ai.targetX(targetId) - ai.selfX()
yDiff = ai.targetY(targetId) - ai.selfY()
targetDirection = math.atan2(yDiff, xDiff)
ai.turnToRad(targetDirection)
def tick():
#
# The API won't print out exceptions, so we have to catch and print them ourselves.
#
try:
#
# Declare global variables so we have access to them in the function
#
global tickCount
global mode
#
# Reset the state machine if we die.
#
if not ai.selfAlive():
tickCount = 0
mode = "ready"
return
tickCount += 1
#
# Read some "sensors" into local variables, to avoid excessive calls to the API
# and improve readability.
#
selfX = ai.selfX()
selfY = ai.selfY()
selfVelX = ai.selfVelX()
selfVelY = ai.selfVelY()
selfSpeed = ai.selfSpeed()
shotSpeed = ai.getOption("shotSpeed")
selfHeading = ai.selfHeadingRad()
# 0-2pi, 0 in x direction, positive toward y
# Add more sensors readings here
print ("tick count:", tickCount, "mode", mode)
def scalar_product(lis, n):
return [x * n for x in lis]
def vector_sum(list1, list2):
return [sum(x) for x in zip(list1, list2)]
# [a, b, c] [d, e, f]
# [a,d] [b, e] [c, f]
def time_of_impact(px, py, vx, vy, s):
a = s * s - (vx * vx + vy * vy)
b = px * vx + py * vy
c = px * px + py * py
d = b*b + a*c
t = 0 # Time
if d >= 0:
t = (b + math.sqrt(d)) / a
if (t < 0):
t = 0
return t
closest_asteroid_id = 0
if mode == "ready":
#print("self vel Y: ", selfVelY)
if ai.selfSpeed() > 7: # We're going too fast!!!
mode = "brake"
# Find closest asteroid
if tickCount % 1 == 0:
for i in range(ai.asteroidCountScreen()):
#if not 130 <= ai.radarType(i) <= 133: # We're only looking for asteroids.
# continue
radar_dist = ai.asteroidDist(i)
if radar_dist < ai.asteroidDist(closest_asteroid_id):
closest_asteroid_id = i
if ai.asteroidCountScreen() > 0:
mode = "aim"
if mode == "aim":
asteroidX = ai.asteroidX(closest_asteroid_id)
asteroidY = ai.asteroidY(closest_asteroid_id)
asteroidVelX = ai.asteroidVelX(closest_asteroid_id)
asteroidVelY = ai.asteroidVelY(closest_asteroid_id)
if asteroidX - selfX > ai.mapWidthPixels()/1.2:
print("Target is to the right. Seen to the left")
dx = ai.mapWidthPixels() - asteroidX
asteroidX = -dx
#targetPosition[0] -= ai.mapWidthPixels()
if selfX - asteroidX > ai.mapWidthPixels()/1.2:
print("Target is to the left. Seen to the right")
dx = asteroidX
asteroidX = ai.mapWidthPixels() + dx
#targetPosition[0] += ai.mapWidthPixels()
if asteroidY - selfY > ai.mapHeightPixels()/1.2:
print("Target is above. Seen below")
dx = ai.mapHeightPixels() - asteroidY
asteroidY = -dx
#targetPosition[1] -= ai.mapHeightPixels()
if selfY - asteroidY > ai.mapHeightPixels()/1.2:
print("Target is below. Seen above.")
dx = asteroidY
asteroidY = ai.mapHeightPixels() + dy
#targetPosition[1] += ai.mapHeightPixels()
time = time_of_impact(asteroidX - selfX, asteroidY - selfY,
asteroidVelX, asteroidVelY, shotSpeed)
targetPosition = vector_sum((asteroidX - selfX, asteroidY - selfY),
scalar_product((asteroidVelX, asteroidVelY), time*1.1))
print("Map size x: ", ai.mapWidthPixels())
targetAngle = math.atan2(targetPosition[1], targetPosition[0])
ai.turnToRad(targetAngle)
if abs(selfHeading - targetAngle) % 2*math.pi < 0.8:
print("Firing at", targetPosition[0], ",", targetPosition[1])
ai.fireShot()
mode = "ready"
if mode == "brake":
velocityVector = (selfVelX, selfVelY)
targetAngle = math.pi + (math.atan2(velocityVector[1], velocityVector[0])) # Negative velocity vector
ai.turnToRad(targetAngle)
ai.thrust()
selfVel = velocityVector[0] * velocityVector[0] + velocityVector[1] * velocityVector[1]
if selfVel < 3: # The bot has come to a stop.
mode = "ready"
except:
print(traceback.print_exc())
def tick():
try:
global tickCount
global mode
if not ai.selfAlive():
tickCount = 0
mode = "ready"
return
tickCount += 1
selfX = ai.selfX()
selfY = ai.selfY()
selfVelX = ai.selfVelX()
selfVelY = ai.selfVelY()
selfSpeed = ai.selfSpeed()
tracking = ai.selfTrackingRad()
selfHeading = ai.selfHeadingRad()
message = ai.scanTalkMsg(0)
mass = ai.selfMass()
friction = ai.getOption("friction")
thrustPower = ai.getPower()
def scalar_product(lis, n):
return [x * n for x in lis]
def vector_sum(list1, list2):
return [sum(x) for x in zip(list1, list2)]
def time_of_impact(px, py, vx, vy, s):
a = s * s - (vx * vx + vy * vy)
b = px * vx + py * vy
c = px * px + py * py
d = b * b + a * c
t = 0 # Time
if d >= 0:
t = (b + math.sqrt(d)) / a
if (t < 0):
t = 0
return t
def stopping_distance(mass, friction, thrustPower, selfSpeed):
fForce = friction * mass
tForce = thrustPower
accTot = ((fForce / mass) + (tForce / (mass + 5)))
return ((selfSpeed * selfSpeed) / (2 * accTot))
stopping_distance = stopping_distance(mass, friction, thrustPower,
selfSpeed)
print("tick count:", tickCount, "mode", mode)
if mode == "ready":
print(friction, mass, selfSpeed, thrustPower)
print(selfX, selfY)
if "move-to" in message:
splitmessage = message.split()
action = splitmessage[0]
if "move-to-stop" in action:
mode = "move-to-stop"
if "move-to-pass" in action:
mode = "move-to-pass"
if mode == "move-to-pass":
splitmessage = message.split()
coordX = float(splitmessage[1])
coordY = float(splitmessage[2])
print(coordX, coordY)
distance = math.sqrt(
abs(coordX - selfX)**2 + abs(coordY - selfY)**2)
time = time_of_impact((coordX - selfX), (coordY - selfY), 0, 0, 10)
targetDirection = (math.atan2(coordY - selfY, coordX - selfX))
print(targetDirection)
if tracking == targetDirection:
ai.thrust()
else:
ai.turnToRad(targetDirection)
ai.thrust()
if distance < 10:
mode == "klar"
if mode == "move-to-stop":
splitmessage = message.split()
coordX = int(splitmessage[1])
coordY = int(splitmessage[2])
print(coordX, coordY)
distance = math.sqrt(
abs(coordX - selfX)**2 + abs(coordY - selfY)**2)
time = time_of_impact((coordX - selfX), (coordY - selfY), 0, 0,
selfSpeed + 0.000001)
target_position = vector_sum(
(coordX - selfX, coordY - selfY),
scalar_product((0 - selfVelX, 0 - selfVelY), time))
targetDirection = (math.atan2(target_position[1],
target_position[0]))
print(target_position)
print(targetDirection)
if tickCount % 2 == 0:
if abs(tracking - targetDirection) > 0.01:
ai.turnToRad(targetDirection)
print("vinkel", (tracking - targetDirection), "tid", time)
#if abs(targetDirection-tracking) > 0.03:
# ai.thrust()
#ai.thrust()
# if tickCount % 2 == 0:
#if selfSpeed < 30:
ai.thrust()
#if targetDirection-tracking < -0.1:
# ai.turnRad(-(tracking-targetDirection))
# ai.thrust()
#if targetDirection-tracking < 0.1:
# ai.turnRad(-(tracking-targetDirection))
# ai.thrust()
#if not tracking == targetDirection:
# ai.turnToRad(targetDirection)
# ai.thrust()
# if distance < 10:
# mode == "klar"
# print("V", selfSpeed, "tP", thrustPower, "fr", friction, "M", mass)
print(stopping_distance, distance)
if stopping_distance > distance:
mode = "brake"
if mode == "brake":
ai.turnToRad(tracking + math.pi)
ai.thrust()
print(selfX, selfY)
splitmessage = message.split()
coordX = int(splitmessage[1])
coordY = int(splitmessage[2])
distance = math.sqrt(
abs(coordX - selfX)**2 + abs(coordY - selfY)**2)
print(distance)
if selfSpeed < 2:
mode = "xD"
if mode == "xD":
print(selfX, selfY)
splitmessage = message.split()
coordX = int(splitmessage[1])
coordY = int(splitmessage[2])
distance = math.sqrt(
abs(coordX - selfX)**2 + abs(coordY - selfY)**2)
print(distance)
except:
print(traceback.print_exc())
def tick():
#
# The API won't print out exceptions, so we have to catch and print them ourselves.
#
try:
#
# Declare global variables so we're allowed to use them in the function
#
global tickCount
global mode
global targetId
#
# Reset the state machine if we die.
#
if not ai.selfAlive():
tickCount = 0
mode = "aim"
return
tickCount += 1
#
# Read some "sensors" into local variables to avoid excessive calls to the API
# and improve readability.
#
selfX = ai.selfX()
selfY = ai.selfY()
selfHeading = ai.selfHeadingRad()
# 0-2pi, 0 in x direction, positive toward y
targetCount = ai.targetCountServer()
targetCountAlive = 0
for i in range(targetCount):
if ai.targetAlive(i):
targetCountAlive += 1
# Use print statements for debugging, either here or further down in the code.
# Useful functions: round(), math.degrees(), math.radians(), etc.
# os.system('clear') clears the terminal screen, which can be useful.
print("tick count:", tickCount, "mode:", mode, "heading:",
round(math.degrees(selfHeading)), "targets alive:",
targetCountAlive)
if mode == "wait":
if targetCountAlive > 0:
mode = "aim"
elif mode == "aim":
if targetCountAlive == 0:
mode = "wait"
return
# Loop through the indexes of targets and find one that is alive,
# save that index in targetId.
# useful variables: targetCount, targetId
# useful functions: ai.targetAlive
for i in range(targetCount):
if ai.targetAlive(i):
targetId = i
# Calculate what direction the target is in, save in
# the variable targetDirection
# useful variables: selfX, selfY
# useful functions: math.atan2, ai.targetX, ai.targetY
xDiff = ai.targetX(targetId) - ai.selfX()
yDiff = ai.targetY(targetId) - ai.selfY()
targetDirection = math.atan2(yDiff, xDiff)
# Turn to the direction of the target
# useful variables: targetDirection
# useful functions: ai.turnRad, ai.turnToRa
# If the ship keeps oscillating between a few angles
# it may be due to latency. Only turning every second
# or third tick is a simple solution (use tickCount and %)
# Check if you are aiming in the direction of the target,
# if so, change mode to shoot.
# Note that, due to how the game handles angles, the difference
# cannot be 0 for many angles.
# useful variables: selfHeading, targetDirection, mode
# There is a function defined below called angleDiff that
# is very useful as well.
if angleDiff(selfHeading,
targetDirection) < 0.1 and ai.targetAlive(targetId):
mode = "shoot"
else:
if tickCount % 3 == 0:
ai.turnToRad(targetDirection)
elif mode == "shoot":
# Shoot the target
# useful functions: ai.fireShot
# if the target is destroyed, change state to aim
# useful variables: targetId, mode
# useful functions: ai.targetAlive
ai.fireShot()
if not ai.targetAlive(targetId):
mode = "aim"
except:
#
# If tick crashes, print debugging information
#
print(traceback.print_exc())
def tick():
#NO EXCEPTION HANDLING
try:
#GLOBAL VARIABLES
global tickCount
global mode
global item
global itemId
global lastItemCount
global latestTask
global mapWidth
global mapHeight
global maplist
global finalPath
global pathThread # Does not need to be global at the moment
global searchForPath, searchQueue
global selfVelX, selfVelY
global selfSpeed
global selfTracking
global finalPosition
#RESET IF DEAD
if not ai.selfAlive():
tickCount = 0
#Create a clear function
targetPos = []
finalPath = []
mode = "idle"
return
tickCount += 1
#SENSORS READINGS
selfX = ai.selfX()
selfY = (mapHeight * ai.blockSize()) - ai.selfY()
selfVelX = ai.selfVelX()
selfVelY = ai.selfVelY()
selfSpeed = ai.selfSpeed()
selfTracking = ai.selfTrackingRad()
selfHeading = ai.selfHeadingRad()
mass = ai.selfMass()
friction = ai.getOption("friction")
thrustPower = ai.getPower()
mapWidth = ai.getOption("mapwidth")
mapHeight = ai.getOption("mapheight")
print ("tick count:", tickCount, "mode", mode)
#IN THIS MODE WE ARE WAITING FOR THE PLAYER TO GIVE THE BOT INSTRUCTIONS
if mode == "idle":
mode, value = getMessage()
if mode == "move":
finalPosition = value
elif mode == "collect":
item = value
#IN THIS MODE WE ARE CALUCLATING PATH USING ASTAR
elif mode == "move":
#GET PATH
searchForPath = True
searchQueue.put(searchForPath)
try:
finalPath = pathQueue.get(timeout=1)
except queue.Empty:
pass
#if not finalPath:
#print("CALCULATING PATH")
#finalPath = getPath(pixelsToBlockSize(mapWidth, mapHeight), tuple(finalPosition), mapWidth, mapHeight)
# else:
#SEARCH
print("final path", finalPath)
if finalPath:
print("I HAVE A FINAL PATH!")
print("FINAL PATH: ", finalPath)
searchForPath = False # We have now found a path
searchQueue.put(searchForPath)
print("Final Path:", finalPath)
print("Player Pos:","(",selfY // ai.blockSize(), selfX // ai.blockSize(),")")
targetPosition = finalPath[0]
if finalPath[0][1] == selfX // ai.blockSize() and finalPath[0][0] == selfY // ai.blockSize():
if len(finalPath) > 1:
finalPath = finalPath[1:]
else:
print("REACHED TARGETPOS")
sendMessage("teacherbot")
finalPosition = []
finalPath = []
mode = "idle"
#MOVES
if finalPath and finalPosition:
print("I HAVE A FINAL POSITION!")
stoppingDist = stopping_distance(mass, friction, thrustPower, selfSpeed)
moveToPos(selfX, selfY, [targetPosition[1]*ai.blockSize(), targetPosition[0]*ai.blockSize()], stoppingDist)
else:
print("NO FINAL POSITION")
#TODO: Search and destroy
elif mode == "destroy":
pass
#TODO: Astar safe path
elif mode == "refuel":
fuelIndex = random.randint(0, ai.fuelstationCount())
refueling = False
#GET FEULSTATION X AND Y POS
finalxPosition = ai.fuelstationBlockX(fuelIndex)
finalyPosition = mapHeight - ai.fuelstationBlockY(fuelIndex)
finalxAndyPosition = [finalyPosition - 1, finalxPosition]
targetPos = finalxAndyPosition
mode = "move"
#TODO: USE WITH ASTAR
if refueling:
'''Amount of fuel in station'''
if ai.fuelstationFuel(fuelIndex) > 0:
'''Keep calling to refuel'''
ai.refuel()
else:
mode = "idle"
'''Number of fueltanks on server'''
#ai.tankCountServer()
'''Number of fuelstations on server'''
#ai.fuelstationCount()
#IN THIS MODE WE ARE COLLECTING ITEMS
elif mode == "collect":
if ai.itemCountScreen() > 0:
itemOnScreen = False
for i in range(ai.itemCountScreen()):
if ai.itemType(i) == item:
itemId = i
itemOnScreen = True
break
if not itemOnScreen:
print("No item of type " + str(item) + " on screen")
mode = "idle"
itemX = ai.itemX(itemId)
itemY = ai.itemY(itemId)
itemVelX = ai.itemVelX(itemId)
itemVelY = ai.itemVelY(itemId)
deltaPosX = itemX - selfX
deltaPosY = itemY - ai.selfY()
deltaVelX = itemVelX - selfVelX
deltaVelY = itemVelY - selfVelY
time = time_of_impact(deltaPosX, deltaPosY, itemVelX, itemVelY, 10)
targetPosition = vector_sum((deltaPosX, deltaPosY), scalar_product((deltaVelX, deltaVelY), time))
ai.turnToRad(math.atan2(targetPosition[1], targetPosition[0]))
if selfSpeed < 10:
thrust(10)
else:
brake(2)
except:
print(traceback.print_exc())
def tick():
#
# The API won't print out exceptions, so we have to catch and print them ourselves.
#
try:
#
# Declare global variables so we have access to them in the function
#
global tickCount
global mode
global targetId
global lis
#
# Reset the state machine if we die.
#
if not ai.selfAlive():
tickCount = 0
mode = "ready"
return
tickCount += 1
#
# Read some "sensors" into local variables, to avoid excessive calls to the API
# and improve readability.
#
selfX = ai.selfX()
selfY = ai.selfY()
selfVelX = ai.selfVelX()
selfVelY = ai.selfVelY()
selfSpeed = ai.selfSpeed()
selfHeading = ai.selfHeadingRad()
selfTracking = ai.selfTrackingRad()
# 0-2pi, 0 in x direction, positive toward y
# Add more sensors readings here
print("tick count:", tickCount, "mode", mode)
if mode == "ready":
for i in range(4):
if ai.targetAlive(i):
targetId = i
break
xDiff = ai.targetX(targetId) - ai.selfX()
yDiff = ai.targetY(targetId) - ai.selfY()
targetDirection = math.atan2(yDiff, xDiff)
ai.turnToRad(targetDirection)
ai.setPower(20)
if selfSpeed < 20:
ai.thrust()
if xDiff < 400 and yDiff < 400:
mode = "brake"
if abs(selfHeading - selfTracking) > 0.1 and selfSpeed > 20:
mode = "stab"
elif mode == "stab":
if selfSpeed < 2:
mode = "ready"
else:
ai.setPower(50)
ai.turnToRad(math.pi + ai.selfTrackingRad())
ai.thrust()
elif mode == "brake":
if selfSpeed < 2:
mode = "aim"
else:
ai.setPower(50)
ai.turnToRad(math.pi + ai.selfTrackingRad())
ai.thrust()
elif mode == "aim":
xDiff = ai.targetX(targetId) - ai.selfX()
yDiff = ai.targetY(targetId) - ai.selfY()
targetDirection = math.atan2(yDiff, xDiff)
ai.turnToRad(targetDirection)
angleDiff = abs(targetDirection - selfHeading)
if angleDiff < 0.25 or angleDiff > 2 * math.pi - 0.25:
mode = "shoot"
elif mode == "shoot":
ai.fireShot()
xDiff = ai.targetX(targetId) - ai.selfX()
yDiff = ai.targetY(targetId) - ai.selfY()
targetDirection = math.atan2(yDiff, xDiff)
ai.turnToRad(targetDirection)
if not ai.targetAlive(targetId):
mode = "ready"
except:
print(traceback.print_exc())