def main():
self = Container()
UnitInfo.setup()
print(os.getcwd())
print("pystarting")
# A GameController is the main type that you talk to the game with.
# Its constructor will connect to a running game.
self.gc = bc.GameController()
print("pystarted")
# It's a good idea to try to keep your bots deterministic, to make debugging easier.
# determinism isn't required, but it means that the same things will happen in every thing you run,
# aside from turns taking slightly different amounts of time due to noise.
random.seed(6137)
# For the purposes of this program, (0, 0) is the UPPERLEFT corner and Point(y, x) <=> [y][x] <=> bc.MapLocation(self.planet, x, y)
self.directions = [
Point(1, 0),
Point(1, 1),
Point(0, 1),
Point(-1, 1),
Point(-1, 0),
Point(-1, -1),
Point(0, -1),
Point(1, -1)
]
self.planet = self.gc.planet()
self.planet_map = self.gc.starting_map(self.planet)
self.team = self.gc.team()
self.asteroids = self.gc.asteroid_pattern()
self.orbit = self.gc.orbit_pattern()
# self.kmap[row][col] is an amount of karbonite >= 0 or -1 if impassable
self.kmap = phase0.generate_kmap(self)
if self.planet == bc.Planet.Earth:
main_earth(self)
else:
main_mars(self)
class Manager():
'''Manager class to distribute the GameController'''
game_controller = bc.GameController()
# Lists for pathing
directions = [
bc.Direction.North, bc.Direction.Northeast, bc.Direction.East,
bc.Direction.Southeast, bc.Direction.South, bc.Direction.Southwest,
bc.Direction.West, bc.Direction.Northwest
]
tryRotate = [0, -1, 1, -2, 2]
num_worker = 0
num_factory = 0
num_mage = 0
num_ranger = 0
yourStart = []
enemyStart = []
earthMap = None
def __init__(self):
print("Hello")
def countWorker(self):
self.num_worker += 1
print('Worker Count: ' + str(self.num_worker))
def locateEnemy(self):
pathing.findEnemy(self.game_controller, self.earthMap, self.yourStart,
self.enemyStart)
def fuzzygoto(self, unit, dest):
pathing.fuzzygoto(self.game_controller, unit, dest)
import battlecode as bc
import random
import sys
import traceback
import time
import os
print(os.getcwd())
print("pystarting")
#Test
# A GameController is the main type that you talk to the game with.
# Its constructor will connect to a running game.
gc = bc.GameController()
directions = list(bc.Direction)
print("pystarted")
# It's a good idea to try to keep your bots deterministic, to make debugging easier.
# determinism isn't required, but it means that the same things will happen in every thing you run,
# aside from turns taking slightly different amounts of time due to noise.
random.seed(6137)
# let's start off with some research!
# we can queue as much as we want.
gc.queue_research(bc.UnitType.Rocket)
gc.queue_research(bc.UnitType.Worker)
gc.queue_research(bc.UnitType.Knight)
my_team = gc.team()
import battlecode as bc
import random
import sys
import traceback
from RunEarth import RunEarth
from RunMars import RunMars
print("Starting bananabot Player")
# A GameController is the main type that you talk to the game with.
# Its constructor will connect to a running game.
GAMECONTROLLER = bc.GameController()
PLANETS = bc.Planet
MY_TEAM = GAMECONTROLLER.team()
RUNEARTH = RunEarth(GAMECONTROLLER)
RUNMARS = RunMars(GAMECONTROLLER)
# Main game loop
# Avoid placing additional code here if possible
while True:
try:
if GAMECONTROLLER.planet() == PLANETS.Earth:
#print('Running Earth Turn')
RUNEARTH.Run()
else:
#print('Running Mars Turn')
RUNMARS.Run()
except Exception as e:
def goto(unit, dest): #implementing a* over here instead of their pathfinding cheese
print("pystarting")
# A GameController is the main type that you talk to the game with.
# Its constructor will connect to a running game.
gc = bc.GameController()
directions = [bc.Direction.NORTH, bc.Direction.NORTHEAST, bc.Direction.EAST,
bc.Direction.SOUTHEAST, bc.Direction.SOUTH, bc.Direction.SOUTHWEST,
bc.Direction.WEST, bc.Direction.NORTHWEST]
print("pystarted")
# It's a good idea to try to keep your bots deterministic, to make debugging easier.
# determinism isn't required, but it means that the same things will happen in every thing you run,
# aside from turns taking slightly different amounts of time due to noise.
random.seed(6137)
# let's start off with some research!
# we can queue as much as we want.
if gc.planet() == bc.Planet.Earth #initializing the map, and starting locations
myStart = gc.my_units()[0].location.map_location()
earthMap = gc.starting_map(bc.Planet.Earth)
enemyStart = invert(myStart)
print(os.getcwd())
gc.queue_research(bc.UnitType.Rocket)
gc.queue_research(bc.UnitType.Worker)
gc.queue_research(bc.UnitType.Knight)
my_team = gc.team()
while True:
# We only support Python 3, which means brackets around print()
print('pyround:', gc.round(), 'time left:', gc.get_time_left_ms(), 'ms')
# frequent try/catches are a good idea
try:
# walk through our units:
for unit in gc.my_units():
# first, factory logic
if unit.unit_type == bc.UnitType.Factory:
garrison = unit.structure_garrison()
if len(garrison) > 0:
d = random.choice(directions)
if gc.can_unload(unit.id, d):
print('unloaded a knight!')
gc.unload(unit.id, d)
continue
elif gc.can_produce_robot(unit.id, bc.UnitType.Knight):
gc.produce_robot(unit.id, bc.UnitType.Knight)
print('produced a knight!')
continue
# first, let's look for nearby blueprints to work on
location = unit.location
if location.is_on_map():
nearby = gc.sense_nearby_units(location.map_location(), 2)
for other in nearby:
if unit.unit_type == bc.UnitType.Worker and gc.can_build(unit.id, other.id):
gc.build(unit.id, other.id)
print('built a factory!')
# move onto the next unit
continue
if other.team != my_team and gc.is_attack_ready(unit.id) and gc.can_attack(unit.id, other.id):
print('attacked a thing!')
gc.attack(unit.id, other.id)
continue
# okay, there weren't any dudes around
# pick a random direction:
d = random.choice(directions)
# or, try to build a factory:
if gc.karbonite() > bc.UnitType.Factory.blueprint_cost() and gc.can_blueprint(unit.id, bc.UnitType.Factory, d):
gc.blueprint(unit.id, bc.UnitType.Factory, d)
# and if that fails, try to move
elif gc.is_move_ready(unit.id) and gc.can_move(unit.id, d):
gc.move_robot(unit.id, d)
except Exception as e:
print('Error:', e)
# use this to show where the error was
traceback.print_exc()
# send the actions we've performed, and wait for our next turn.
gc.next_turn()
# these lines are not strictly necessary, but it helps make the logs make more sense.
# it forces everything we've written this turn to be written to the manager.
sys.stdout.flush()
sys.stderr.flush()
def main():
print("pystarting")
# A GameController is the main type that you talk to the game with.
# Its constructor will connect to a running game.
gc = bc.GameController()
directions = list(bc.Direction)
print("pystarted")
# It's a good idea to try to keep your bots deterministic, to make debugging easier.
# determinism isn't required, but it means that the same things will happen in every thing you run,
# aside from turns taking slightly different amounts of time due to noise.
random.seed(6137)
# let's start off with some research!
# we can queue as much as we want.
gc.queue_research(bc.UnitType.Rocket)
gc.queue_research(bc.UnitType.Worker)
gc.queue_research(bc.UnitType.Knight)
my_team = gc.team()
#inKarbs1=(genInKarbLocs())
#p=Pool(processes=10)
#inKarbs2=p.map(genInKarbLocs,[])
#p.close()
#print(inKarbs1)
#print(inKarbs2)
while True:
# We only support Python 3, which means brackets around print()
print('pyround:', gc.round())
# print(PlanetMap.initial_karbonite_at(location()))
# frequent try/catches are a good idea
try:
# walk through our units:
for unit in gc.my_units():
if(unit.unit_type==bc.UnitType.Worker):
location = (unit.location).map_location()
surr=gc.all_locations_within(location,9)
moves=[]
for loc in surr:
if(gc.karbonite_at(loc)>0):
moves.append(location.direction_to(loc))
move=random.choice(moves)
movePoss=gc.is_move_ready(unit.id)
moveOcc=gc.is_occupiable(location.add(move))
if(movePoss and moveOcc):
gc.move_robot(unit.id,move)
print(gc.karbonite())
'''if location.is_on_map():
if unit.unit_type == bc.UnitType.Worker:
# d = random.choice(directions)
d = directions[0]
# gc.move_robot(unit.id, d)
if gc.karbonite_at(location.map_location()) > 0:
if gc.can_harvest(unit.id,d) == True:
gc.harvest(unit.id,d)
print("Amount of Kryptonite left here" + str(gc.karbonite_at(location.map_location())))
print("Total karbonite is" + str(gc.karbonite()))
'''
except Exception as e:
print('Error:', e)
# use this to show where the error was
traceback.print_exc()
# send the actions we've performed, and wait for our next turn.
# this is the final yield function.
gc.next_turn()
# these lines are not strictly necessary, but it helps make the logs make more sense.
# it forces everything we've written this turn to be written to the manager.
sys.stdout.flush()
sys.stderr.flush()
class game_controller():
gc = bc.GameController()
my_team = gc.team()
import traceback
import sys
import battlecode as bc
import random
from ai import AI
from game.game_controller import GC
from pathfinding.pathfinder import PathFinder
random.seed(6137)
GC(bc.GameController())
PathFinder()
ai = AI()
while True:
try:
ai.play_round()
except Exception as e:
print(traceback.format_exc())
GC.get().next_turn()
# these lines are not strictly necessary, but it helps make the logs make more sense
# it forces everything we've written this turn to be written to the manager
sys.stdout.flush()
sys.stderr.flush()
