def init(self):
self.sea = Seastar(self.getMapWidth(), self.getMapHeight())
self.vex = DroidsVexulizer(self, True)
self.building = set()
self.builditerator = None
if self.getPlayerID() == 0:
import buildorder0
self.buildit = buildorder0.buildorder(self)
if self.getPlayerID() == 1:
import buildorder1
self.buildit = buildorder1.buildorder(self)
self.vtobuild = self.buildit.next()
def init(self):
self.sea = Seastar(self.getMapWidth(), self.getMapHeight())
self.vex = DroidsVexulizer(self, True)
self.building = set()
self.builditerator = None
if self.getPlayerID() == 0:
import buildorder0
self.buildit = buildorder0.buildorder(self)
if self.getPlayerID() == 1:
import buildorder1
self.buildit = buildorder1.buildorder(self)
self.vtobuild = self.buildit.next()
class AI(BaseAI):
"""The class implementing gameplay logic."""
@staticmethod
def username():
return "ActionBot"
@staticmethod
def password():
return "HamSandwich"
##This function is called once, before your first turn
def init(self):
self.sea = Seastar(self.getMapWidth(), self.getMapHeight())
self.vex = DroidsVexulizer(self, True)
self.building = set()
self.builditerator = None
if self.getPlayerID() == 0:
import buildorder0
self.buildit = buildorder0.buildorder(self)
if self.getPlayerID() == 1:
import buildorder1
self.buildit = buildorder1.buildorder(self)
self.vtobuild = self.buildit.next()
##This function is called once, after your last turn
def end(self):
try:
self.vex.end(self)
except AttributeError:
pass
def validate(self):
# With rigor, check properties
for droid in self.droids:
assert droid.getHealthLeft() <= droid.getMaxHealth()
assert droid.getMovementLeft() <= droid.getMaxMovement()
assert droid.getArmor() <= droid.getMaxArmor()
assert droid.getAttacksLeft() <= droid.getMaxAttacks()
assert droid.getMovementLeft() >= 0
assert droid.getAttacksLeft() >= 0
for tile in self.tiles:
# assert tile.getScrapAmount() > 0
assert tile.getTurnsUntilAssembled() >= 0
assert (
tile.getOwner() == NEUTRAL_PLAYER and tile.getTurnsUntilAssembled() == 0
) or tile.owner != NEUTRAL_PLAYER
def distance(self, c1, c2):
return abs(c1[0] - c2[0]) + abs(c1[1] - c2[1])
def engineer_behavior(self, units, retreats=True):
if len(units) == 0:
return
healing_targets = filter(
lambda x: (x.getArmor() < x.getMaxArmor() or x.getHackets() > 0), self.mydroids_g + self.mybases
)
potential_targets = filter(lambda x: x.getVariant() != UNIT_ENGINEER, self.mydroids_g)
retreats = retreats and len(healing_targets) > 0
self.engage_objectives(
units, healing_targets, potential_targets, within=units[0].getRange(), retreat_dance=retreats
)
def unit_only_behavior(self, units):
if len(units) == 0:
return
primary_targets = filter(lambda x: x.getHealthLeft() > 0, self.enemycontrol)
secondary_targets = []
self.engage_objectives(units, primary_targets, secondary_targets, within=units[0].getRange())
def unit_focused_behavior(self, units):
if len(units) == 0:
return
primary_targets = filter(lambda x: x.getHealthLeft() > 0, self.enemycontrol)
secondary_targets = filter(lambda x: x.getHealthLeft() > 0, self.enemybases)
self.engage_objectives(units, primary_targets, secondary_targets, within=units[0].getRange())
def balanced_behavior(self, units, retreats=True):
if len(units) == 0:
return
primary_targets = filter(lambda x: x.getHealthLeft() > 0 and x.getHackedTurnsLeft() == 0, self.enemyunits)
secondary_targets = []
self.engage_objectives(
units, primary_targets, secondary_targets, within=units[0].getRange(), retreat_dance=retreats
)
def base_focused_behavior(self, units):
if len(units) == 0:
return
primary_targets = filter(lambda x: x.getHealthLeft() > 0, self.enemybases)
secondary_targets = filter(lambda x: x.getHealthLeft() > 0, self.enemycontrol)
self.engage_objectives(units, primary_targets, secondary_targets, within=units[0].getRange())
def defense_focused_behavior(self, units):
if len(units) == 0:
return
primary_targets = filter(
lambda x: x.getHealthLeft() > 0 and x.getX() >= self.myhalf[0] and x.getX() <= self.myhalf[1],
self.enemydroids,
)
secondary_targets = filter(lambda x: x.getHealthLeft() > 0, self.enemydroids)
self.engage_objectives(units, primary_targets, secondary_targets, within=units[0].getRange())
def engage_objectives(self, units, primary, secondary, within=1, retreat_dance=True):
tomove = {}
if len(primary) == 0:
primary = secondary
secondary = []
for unit in units:
if unit.getMovementLeft() <= 0:
continue
if unit.getHealthLeft() <= 0:
continue
tomove[unit.getId()] = unit
while len(tomove) > 0:
starts = set([(unit.getX(), unit.getY()) for (_, unit) in tomove.iteritems()])
ends = set([(unit.getX(), unit.getY()) for unit in primary])
p = self.sea.get_path(starts, ends)
if len(p) > 0:
unit = self.unitsxy[p[0]]
if unit.getHealthLeft() > 0:
self.follow_path(unit, p, primary + secondary, within)
self.update_state()
tomove.pop(unit.getId(), None)
else:
# No unit can reach an objective
break
self.update_state()
for unit in units:
self.attack_set(unit, primary)
self.attack_set(unit, secondary)
self.update_state()
if retreat_dance:
tomove = {}
for unit in units:
if unit.getMovementLeft() <= 0:
continue
if unit.getHealthLeft() <= 0:
continue
tomove[unit.getId()] = unit
while len(tomove) > 0:
starts = [(unit.getX(), unit.getY()) for (_, unit) in tomove.iteritems()]
ends = [(unit.getX(), unit.getY()) for unit in self.mybases]
p = self.sea.get_path(starts, ends)
if len(p) > 0:
unit = self.unitsxy[p[0]]
self.follow_path(unit, p, primary + secondary, within)
self.update_state()
tomove.pop(unit.getId(), None)
else:
# No unit can reach an objective
break
self.update_state()
def follow_path(self, unit, path, operables, within):
origpath = list(path)
if len(path) == 0:
return
if path[0] == (unit.getX(), unit.getY()):
path.pop(0)
else:
print "Path doesn't start with location"
return
for i in range(within):
if len(path) == 0:
return
path.pop()
for i in range(len(path) - 1):
assert self.distance(path[i], path[i + 1]) == 1
for step in path:
if unit.getMovementLeft() <= 0:
break
d = self.distance(step, (unit.getX(), unit.getY()))
if d != 1:
print "Distance is {}".format(d)
print "Bad Unit is"
print unit
break
if not unit.move(step[0], step[1]): # Seastar should only yield good moves
print "Moving Unit:"
print unit
print "Failed at {}".format(step)
print "Path was:"
for step2 in origpath:
try:
contains = self.unitsxy[step2]
except KeyError:
contains = "None"
print "{} (Has {})".format(step2, contains)
if step2 == step:
break
assert False
self.attack_set(unit, operables)
def attack_set(self, unit, targets):
starting_attacks = unit.getAttacksLeft()
if len(targets) == 0:
return
if unit.getAttacksLeft() == 0:
return
targets = filter(
lambda x: x.getHealthLeft() > 0
and 1 <= self.distance((x.getX(), x.getY()), (unit.getX(), unit.getY())) <= unit.getRange(),
targets,
)
if len(targets) == 0:
return
targs = sorted(targets, key=lambda x: self.distance((x.getX(), x.getY()), (unit.getX(), unit.getY())))
while unit.getAttacksLeft() > 0:
result = 0
for enemy in targs:
if enemy.getHealthLeft() <= 0:
continue
if unit.getVariant() == UNIT_HACKER and (
enemy.getHackets() >= enemy.getHacketsMax() or enemy.getHackedTurnsLeft() > 0
):
continue
if unit.getAttacksLeft() == 0:
break
if not unit.operate(enemy.getX(), enemy.getY()):
print "OPERATING FAILED:"
print "attacker:"
print unit
print "Target:"
print enemy
assert False
else:
result += 1
if not result:
return
def update_state(self):
# Player objects
self.me = [x for x in self.players if x.getId() == self.getPlayerID()][0]
self.myid = self.getPlayerID()
self.enemy = [x for x in self.players if x.getId() != self.getPlayerID()][0]
self.enemyid = self.enemy.getId()
assert self.myid != self.enemyid
if self.myid == 0:
self.myhalf = (0, self.getMapWidth() / 2)
else:
self.myhalf = (self.getMapWidth() / 2 + 1, self.getMapWidth())
# My Droids
self.myunits = [x for x in self.droids if x.getOwner() == self.myid and x.getHealthLeft() > 0]
self.mydroids = [x for x in self.myunits if x.getVariant() != UNIT_HANGAR]
gf = lambda x: x.getHackedTurnsLeft() == 0
hf = lambda x: x.getHackedTurnsLeft() > 0
# Droids filter on hacked ness
self.mydroids_g = filter(gf, self.mydroids)
self.mydroids_h = filter(hf, self.mydroids)
# Enemy Droids
self.enemyunits = [x for x in self.droids if x.getOwner() == self.enemyid and x.getHealthLeft() > 0]
self.enemydroids = [x for x in self.enemyunits if x.getVariant() != UNIT_HANGAR]
# Droids filter on hacked ness
self.enemydroids_g = filter(gf, self.enemydroids)
self.enemydroids_h = filter(hf, self.enemydroids)
self.mycontrol = self.mydroids_g + self.enemydroids_h
self.enemycontrol = self.mydroids_h + self.enemydroids_g
# Units that can move
mf = lambda x: x.getMaxMovement() > 0
self.mymoveables = filter(mf, self.mycontrol)
self.enemycontrol = filter(mf, self.enemycontrol)
# Units that can't move.
hf = lambda x: x.getTurnsToBeHacked() > 0 and x.getVariant() != UNIT_WALL
self.enemyhackables = filter(hf, self.enemydroids)
self.myhackables = filter(hf, self.mydroids)
# Tiles
self.mytiles = [x for x in self.tiles if x.getOwner() == self.myid]
self.enemytiles = [x for x in self.tiles if x.getOwner() == self.enemyid]
# Hangar Units
wf = lambda x: x.getVariant() == UNIT_HANGAR
self.mybases = filter(wf, self.myunits)
self.enemybases = filter(wf, self.enemyunits)
# Built walls
wf = lambda x: x.getVariant() == UNIT_WALL
self.mywalls = filter(wf, self.mydroids)
self.enemywalls = filter(wf, self.enemydroids)
# Built Turrets
wf = lambda x: x.getVariant() == UNIT_TURRET
self.myturrets = filter(wf, self.mydroids)
self.enemyturrets = filter(wf, self.enemydroids)
# Building wall tile
wf = lambda x: x.getTurnsUntilAssembled() > 0 and x.getVariantToAssemble() == UNIT_WALL
self.mywalls_b = filter(wf, self.mytiles)
self.enemywalls_b = filter(wf, self.enemytiles)
# Building (next turn)
wf = lambda x: x.getTurnsUntilAssembled() == 1 and x.getVariantToAssemble() == UNIT_WALL
self.mywalls_n = filter(wf, self.mytiles)
self.enemywalls_n = filter(wf, self.enemytiles)
# Building turret tile
wf = lambda x: x.getTurnsUntilAssembled() > 0 and x.getVariantToAssemble() == UNIT_TURRET
self.myturrets_b = filter(wf, self.mytiles)
self.enemyturrets_b = filter(wf, self.enemytiles)
# Building (next turn)
wf = lambda x: x.getTurnsUntilAssembled() == 1 and x.getVariantToAssemble() == UNIT_TURRET
self.myturrets_n = filter(wf, self.mytiles)
self.enemyturrests_n = filter(wf, self.enemytiles)
# Neutral tiles
self.opentiles = [x for x in self.tiles if x.getTurnsUntilAssembled() == 0]
self.droppingtiles = [x for x in self.tiles if x.getTurnsUntilAssembled() > 0]
self.nexttiles = [x for x in self.tiles if x.getTurnsUntilAssembled() == 1]
# Dicts, (x,y) -> tiles and units
self.tilesxy = {}
for tile in self.tiles:
self.tilesxy[(tile.getX(), tile.getY())] = tile
self.unitsxy = {}
for unit in self.droids:
if unit.getHealthLeft <= 0:
continue
self.unitsxy[(unit.getX(), unit.getY())] = unit
# Seastar layers
layers = {
"MY_CONTROL": 1,
"ENEMY_CONTROL": 2,
"DROP_NEXT": 4,
"ENEMY_WALLS": 8,
"MY_WALLS": 16,
"ENEMY_TURRETS": 128,
"MY_TURRETS": 256,
"ENEMY_BASES": 1024,
"MY_BASES": 2048,
}
# Bitwise or to combine layers into a mask
BLOCKING = 0
for k in layers:
BLOCKING |= layers[k]
self.sea.set_blocking(BLOCKING)
self.sea.reset_obstacles()
# Seastar: Add layers
self.sea.add_mappables(self.myunits, layers["MY_CONTROL"])
self.sea.add_mappables(self.enemyunits, layers["ENEMY_CONTROL"])
self.sea.add_mappables(self.nexttiles, layers["DROP_NEXT"])
self.sea.add_mappables(self.enemywalls, layers["ENEMY_WALLS"])
self.sea.add_mappables(self.mywalls, layers["MY_WALLS"])
self.sea.add_mappables(self.enemyturrets, layers["ENEMY_TURRETS"])
self.sea.add_mappables(self.myturrets, layers["MY_TURRETS"])
self.sea.add_mappables(self.enemybases, layers["ENEMY_BASES"])
self.sea.add_mappables(self.mybases, layers["MY_BASES"])
# Push the game state into the vexulizer.
self.vex.snapshot(self)
##This function is called each time it is your turn
##Return true to end your turn, return false to ask the server for updated information
def run(self):
self.update_state()
print "Turn {}".format(self.getTurnNumber())
# Mappables
"""
REPORTED AS BUG 25
assert len(self.mappables) > 0 # This was a problem in reef
"""
# Before we start, check some stuff out, then continue.
self.validate()
if False:
"""
WORKING AT 3:26 4/2/2014
"""
initial_scrap = self.me.getScrapAmount()
# Validate that you can't spawn where another unit curently dropping
for tile in self.droppingtiles:
self.me.orbitalDrop(tile.getX(), tile.getY(), self.modelVariants[0].getVariant())
assert initial_scrap == self.me.getScrapAmount()
# assert tile.getTurnsUntilAssembled == 0
"""
Reported in #20
if False:
#Validate you can't drop base tiles
for tile in self.opentiles:
self.me.orbitalDrop(tile.getX(), tile.getY(), UNIT_HANGAR)
assert tile.getTurnsUntilAssembled == 0
"""
print "Spawning Units"
self.building = set()
spawnpts = list(self.opentiles)
while 1:
variant = filter(lambda x: x.getVariant() == self.vtobuild[0], self.modelVariants)[0]
if self.vtobuild[1] == None:
if self.myid == 0:
spawntarget = (0, self.getMapHeight() / 2)
else:
spawntarget = (self.getMapWidth() - 1, self.getMapHeight() / 2)
else:
spawntarget = self.vtobuild[1]
spawnpts.sort(key=lambda x: (abs(spawntarget[0] - x.getX()), abs(spawntarget[1] - x.getY())))
if self.me.getScrapAmount() < variant.getCost():
break
print "Building {0}".format(self.vtobuild)
# Simple AI, pick a unit type, (Other than hangar), and drop those
for tile in spawnpts:
if (tile.getX(), tile.getY()) in self.unitsxy:
continue
if (tile.getX(), tile.getY()) in self.building:
continue
# If we've made it this far, we can spawn the variant
initial_scrap = self.me.getScrapAmount()
self.me.orbitalDrop(tile.getX(), tile.getY(), variant.getVariant())
self.building.add((tile.getX(), tile.getY()))
assert initial_scrap > self.me.getScrapAmount()
break
self.vtobuild = self.buildit.next()
self.update_state()
"""
UNIT_CLAW = 0
UNIT_ARCHER = 1
UNIT_ENGINEER = 2
UNIT_HACKER = 3
UNIT_TURRET = 4 # This is a unit type?
UNIT_WALL = 5
UNIT_TERMINATOR = 6
UNIT_HANGAR = 7
"""
hackers = filter(lambda x: x.getVariant() == UNIT_HACKER, self.mycontrol)
engineers = filter(lambda x: x.getVariant() == UNIT_ENGINEER, self.mycontrol)
claws = filter(lambda x: x.getVariant() == UNIT_CLAW, self.mycontrol)
archers = filter(lambda x: x.getVariant() == UNIT_ARCHER, self.mycontrol)
turrets = filter(lambda x: x.getVariant() == UNIT_TURRET, self.mycontrol)
terminators = filter(lambda x: x.getVariant() == UNIT_TERMINATOR, self.mycontrol)
self.update_state()
self.engineer_behavior(engineers)
self.balanced_behavior(claws)
self.balanced_behavior(archers)
self.balanced_behavior(terminators, retreats=True)
self.unit_only_behavior(hackers)
self.balanced_behavior(turrets)
print "Finished"
return 1
def __init__(self, conn):
BaseAI.__init__(self, conn)
class AI(BaseAI):
"""The class implementing gameplay logic."""
@staticmethod
def username():
return "ActionBot"
@staticmethod
def password():
return "HamSandwich"
##This function is called once, before your first turn
def init(self):
self.sea = Seastar(self.getMapWidth(), self.getMapHeight())
self.vex = DroidsVexulizer(self, True)
self.building = set()
self.builditerator = None
if self.getPlayerID() == 0:
import buildorder0
self.buildit = buildorder0.buildorder(self)
if self.getPlayerID() == 1:
import buildorder1
self.buildit = buildorder1.buildorder(self)
self.vtobuild = self.buildit.next()
##This function is called once, after your last turn
def end(self):
try:
self.vex.end(self)
except AttributeError:
pass
def validate(self):
#With rigor, check properties
for droid in self.droids:
assert droid.getHealthLeft() <= droid.getMaxHealth()
assert droid.getMovementLeft() <= droid.getMaxMovement()
assert droid.getArmor() <= droid.getMaxArmor()
assert droid.getAttacksLeft() <= droid.getMaxAttacks()
assert droid.getMovementLeft() >= 0
assert droid.getAttacksLeft() >= 0
for tile in self.tiles:
#assert tile.getScrapAmount() > 0
assert tile.getTurnsUntilAssembled() >= 0
assert (tile.getOwner() == NEUTRAL_PLAYER and tile.getTurnsUntilAssembled() == 0) \
or tile.owner != NEUTRAL_PLAYER
def distance(self, c1, c2):
return abs(c1[0] - c2[0]) + abs(c1[1] - c2[1])
def engineer_behavior(self, units, retreats=True):
if len(units) == 0:
return
healing_targets = filter(
lambda x: (x.getArmor() < x.getMaxArmor() or x.getHackets() > 0),
self.mydroids_g + self.mybases)
potential_targets = filter(lambda x: x.getVariant() != UNIT_ENGINEER,
self.mydroids_g)
retreats = retreats and len(healing_targets) > 0
self.engage_objectives(units,
healing_targets,
potential_targets,
within=units[0].getRange(),
retreat_dance=retreats)
def unit_only_behavior(self, units):
if len(units) == 0:
return
primary_targets = filter(lambda x: x.getHealthLeft() > 0,
self.enemycontrol)
secondary_targets = []
self.engage_objectives(units,
primary_targets,
secondary_targets,
within=units[0].getRange())
def unit_focused_behavior(self, units):
if len(units) == 0:
return
primary_targets = filter(lambda x: x.getHealthLeft() > 0,
self.enemycontrol)
secondary_targets = filter(lambda x: x.getHealthLeft() > 0,
self.enemybases)
self.engage_objectives(units,
primary_targets,
secondary_targets,
within=units[0].getRange())
def balanced_behavior(self, units, retreats=True):
if len(units) == 0:
return
primary_targets = filter(
lambda x: x.getHealthLeft() > 0 and x.getHackedTurnsLeft() == 0,
self.enemyunits)
secondary_targets = []
self.engage_objectives(units,
primary_targets,
secondary_targets,
within=units[0].getRange(),
retreat_dance=retreats)
def base_focused_behavior(self, units):
if len(units) == 0:
return
primary_targets = filter(lambda x: x.getHealthLeft() > 0,
self.enemybases)
secondary_targets = filter(lambda x: x.getHealthLeft() > 0,
self.enemycontrol)
self.engage_objectives(units,
primary_targets,
secondary_targets,
within=units[0].getRange())
def defense_focused_behavior(self, units):
if len(units) == 0:
return
primary_targets = filter(
lambda x: x.getHealthLeft() > 0 and x.getX() >= self.myhalf[0] and
x.getX() <= self.myhalf[1], self.enemydroids)
secondary_targets = filter(lambda x: x.getHealthLeft() > 0,
self.enemydroids)
self.engage_objectives(units,
primary_targets,
secondary_targets,
within=units[0].getRange())
def engage_objectives(self,
units,
primary,
secondary,
within=1,
retreat_dance=True):
tomove = {}
if len(primary) == 0:
primary = secondary
secondary = []
for unit in units:
if unit.getMovementLeft() <= 0:
continue
if unit.getHealthLeft() <= 0:
continue
tomove[unit.getId()] = unit
while len(tomove) > 0:
starts = set([(unit.getX(), unit.getY())
for (_, unit) in tomove.iteritems()])
ends = set([(unit.getX(), unit.getY()) for unit in primary])
p = self.sea.get_path(starts, ends)
if len(p) > 0:
unit = self.unitsxy[p[0]]
if unit.getHealthLeft() > 0:
self.follow_path(unit, p, primary + secondary, within)
self.update_state()
tomove.pop(unit.getId(), None)
else:
# No unit can reach an objective
break
self.update_state()
for unit in units:
self.attack_set(unit, primary)
self.attack_set(unit, secondary)
self.update_state()
if retreat_dance:
tomove = {}
for unit in units:
if unit.getMovementLeft() <= 0:
continue
if unit.getHealthLeft() <= 0:
continue
tomove[unit.getId()] = unit
while len(tomove) > 0:
starts = [(unit.getX(), unit.getY())
for (_, unit) in tomove.iteritems()]
ends = [(unit.getX(), unit.getY()) for unit in self.mybases]
p = self.sea.get_path(starts, ends)
if len(p) > 0:
unit = self.unitsxy[p[0]]
self.follow_path(unit, p, primary + secondary, within)
self.update_state()
tomove.pop(unit.getId(), None)
else:
# No unit can reach an objective
break
self.update_state()
def follow_path(self, unit, path, operables, within):
origpath = list(path)
if len(path) == 0:
return
if path[0] == (unit.getX(), unit.getY()):
path.pop(0)
else:
print "Path doesn't start with location"
return
for i in range(within):
if len(path) == 0:
return
path.pop()
for i in range(len(path) - 1):
assert (self.distance(path[i], path[i + 1]) == 1)
for step in path:
if unit.getMovementLeft() <= 0:
break
d = self.distance(step, (unit.getX(), unit.getY()))
if d != 1:
print "Distance is {}".format(d)
print "Bad Unit is"
print unit
break
if not unit.move(step[0],
step[1]): #Seastar should only yield good moves
print "Moving Unit:"
print unit
print "Failed at {}".format(step)
print "Path was:"
for step2 in origpath:
try:
contains = self.unitsxy[step2]
except KeyError:
contains = "None"
print "{} (Has {})".format(step2, contains)
if step2 == step:
break
assert False
self.attack_set(unit, operables)
def attack_set(self, unit, targets):
starting_attacks = unit.getAttacksLeft()
if len(targets) == 0:
return
if unit.getAttacksLeft() == 0:
return
targets = filter(
lambda x: x.getHealthLeft() > 0 and 1 <= self.distance(
(x.getX(), x.getY()),
(unit.getX(), unit.getY())) <= unit.getRange(), targets)
if len(targets) == 0:
return
targs = sorted(targets,
key=lambda x: self.distance((x.getX(), x.getY()),
(unit.getX(), unit.getY())))
while unit.getAttacksLeft() > 0:
result = 0
for enemy in targs:
if enemy.getHealthLeft() <= 0:
continue
if unit.getVariant() == UNIT_HACKER and (
enemy.getHackets() >= enemy.getHacketsMax()
or enemy.getHackedTurnsLeft() > 0):
continue
if unit.getAttacksLeft() == 0:
break
if not unit.operate(enemy.getX(), enemy.getY()):
print "OPERATING FAILED:"
print "attacker:"
print unit
print "Target:"
print enemy
assert False
else:
result += 1
if not result:
return
def update_state(self):
# Player objects
self.me = [x for x in self.players
if x.getId() == self.getPlayerID()][0]
self.myid = self.getPlayerID()
self.enemy = [
x for x in self.players if x.getId() != self.getPlayerID()
][0]
self.enemyid = self.enemy.getId()
assert self.myid != self.enemyid
if self.myid == 0:
self.myhalf = (0, self.getMapWidth() / 2)
else:
self.myhalf = (self.getMapWidth() / 2 + 1, self.getMapWidth())
# My Droids
self.myunits = [
x for x in self.droids
if x.getOwner() == self.myid and x.getHealthLeft() > 0
]
self.mydroids = [
x for x in self.myunits if x.getVariant() != UNIT_HANGAR
]
gf = lambda x: x.getHackedTurnsLeft() == 0
hf = lambda x: x.getHackedTurnsLeft() > 0
# Droids filter on hacked ness
self.mydroids_g = filter(gf, self.mydroids)
self.mydroids_h = filter(hf, self.mydroids)
# Enemy Droids
self.enemyunits = [
x for x in self.droids
if x.getOwner() == self.enemyid and x.getHealthLeft() > 0
]
self.enemydroids = [
x for x in self.enemyunits if x.getVariant() != UNIT_HANGAR
]
# Droids filter on hacked ness
self.enemydroids_g = filter(gf, self.enemydroids)
self.enemydroids_h = filter(hf, self.enemydroids)
self.mycontrol = self.mydroids_g + self.enemydroids_h
self.enemycontrol = self.mydroids_h + self.enemydroids_g
# Units that can move
mf = lambda x: x.getMaxMovement() > 0
self.mymoveables = filter(mf, self.mycontrol)
self.enemycontrol = filter(mf, self.enemycontrol)
# Units that can't move.
hf = lambda x: x.getTurnsToBeHacked() > 0 and x.getVariant(
) != UNIT_WALL
self.enemyhackables = filter(hf, self.enemydroids)
self.myhackables = filter(hf, self.mydroids)
# Tiles
self.mytiles = [x for x in self.tiles if x.getOwner() == self.myid]
self.enemytiles = [
x for x in self.tiles if x.getOwner() == self.enemyid
]
#Hangar Units
wf = lambda x: x.getVariant() == UNIT_HANGAR
self.mybases = filter(wf, self.myunits)
self.enemybases = filter(wf, self.enemyunits)
#Built walls
wf = lambda x: x.getVariant() == UNIT_WALL
self.mywalls = filter(wf, self.mydroids)
self.enemywalls = filter(wf, self.enemydroids)
#Built Turrets
wf = lambda x: x.getVariant() == UNIT_TURRET
self.myturrets = filter(wf, self.mydroids)
self.enemyturrets = filter(wf, self.enemydroids)
#Building wall tile
wf = lambda x: x.getTurnsUntilAssembled(
) > 0 and x.getVariantToAssemble() == UNIT_WALL
self.mywalls_b = filter(wf, self.mytiles)
self.enemywalls_b = filter(wf, self.enemytiles)
#Building (next turn)
wf = lambda x: x.getTurnsUntilAssembled(
) == 1 and x.getVariantToAssemble() == UNIT_WALL
self.mywalls_n = filter(wf, self.mytiles)
self.enemywalls_n = filter(wf, self.enemytiles)
#Building turret tile
wf = lambda x: x.getTurnsUntilAssembled(
) > 0 and x.getVariantToAssemble() == UNIT_TURRET
self.myturrets_b = filter(wf, self.mytiles)
self.enemyturrets_b = filter(wf, self.enemytiles)
#Building (next turn)
wf = lambda x: x.getTurnsUntilAssembled(
) == 1 and x.getVariantToAssemble() == UNIT_TURRET
self.myturrets_n = filter(wf, self.mytiles)
self.enemyturrests_n = filter(wf, self.enemytiles)
# Neutral tiles
self.opentiles = [
x for x in self.tiles if x.getTurnsUntilAssembled() == 0
]
self.droppingtiles = [
x for x in self.tiles if x.getTurnsUntilAssembled() > 0
]
self.nexttiles = [
x for x in self.tiles if x.getTurnsUntilAssembled() == 1
]
# Dicts, (x,y) -> tiles and units
self.tilesxy = {}
for tile in self.tiles:
self.tilesxy[(tile.getX(), tile.getY())] = tile
self.unitsxy = {}
for unit in self.droids:
if unit.getHealthLeft <= 0:
continue
self.unitsxy[(unit.getX(), unit.getY())] = unit
# Seastar layers
layers = {
'MY_CONTROL': 1,
'ENEMY_CONTROL': 2,
'DROP_NEXT': 4,
'ENEMY_WALLS': 8,
'MY_WALLS': 16,
'ENEMY_TURRETS': 128,
'MY_TURRETS': 256,
'ENEMY_BASES': 1024,
'MY_BASES': 2048,
}
# Bitwise or to combine layers into a mask
BLOCKING = 0
for k in layers:
BLOCKING |= layers[k]
self.sea.set_blocking(BLOCKING)
self.sea.reset_obstacles()
# Seastar: Add layers
self.sea.add_mappables(self.myunits, layers['MY_CONTROL'])
self.sea.add_mappables(self.enemyunits, layers['ENEMY_CONTROL'])
self.sea.add_mappables(self.nexttiles, layers['DROP_NEXT'])
self.sea.add_mappables(self.enemywalls, layers['ENEMY_WALLS'])
self.sea.add_mappables(self.mywalls, layers['MY_WALLS'])
self.sea.add_mappables(self.enemyturrets, layers['ENEMY_TURRETS'])
self.sea.add_mappables(self.myturrets, layers['MY_TURRETS'])
self.sea.add_mappables(self.enemybases, layers['ENEMY_BASES'])
self.sea.add_mappables(self.mybases, layers['MY_BASES'])
#Push the game state into the vexulizer.
self.vex.snapshot(self)
##This function is called each time it is your turn
##Return true to end your turn, return false to ask the server for updated information
def run(self):
self.update_state()
print "Turn {}".format(self.getTurnNumber())
# Mappables
"""
REPORTED AS BUG 25
assert len(self.mappables) > 0 # This was a problem in reef
"""
# Before we start, check some stuff out, then continue.
self.validate()
if False:
"""
WORKING AT 3:26 4/2/2014
"""
initial_scrap = self.me.getScrapAmount()
# Validate that you can't spawn where another unit curently dropping
for tile in self.droppingtiles:
self.me.orbitalDrop(tile.getX(), tile.getY(),
self.modelVariants[0].getVariant())
assert initial_scrap == self.me.getScrapAmount()
#assert tile.getTurnsUntilAssembled == 0
"""
Reported in #20
if False:
#Validate you can't drop base tiles
for tile in self.opentiles:
self.me.orbitalDrop(tile.getX(), tile.getY(), UNIT_HANGAR)
assert tile.getTurnsUntilAssembled == 0
"""
print "Spawning Units"
self.building = set()
spawnpts = list(self.opentiles)
while 1:
variant = filter(lambda x: x.getVariant() == self.vtobuild[0],
self.modelVariants)[0]
if self.vtobuild[1] == None:
if self.myid == 0:
spawntarget = (0, self.getMapHeight() / 2)
else:
spawntarget = (self.getMapWidth() - 1,
self.getMapHeight() / 2)
else:
spawntarget = self.vtobuild[1]
spawnpts.sort(key=lambda x: (abs(spawntarget[0] - x.getX()),
abs(spawntarget[1] - x.getY())))
if self.me.getScrapAmount() < variant.getCost():
break
print "Building {0}".format(self.vtobuild)
#Simple AI, pick a unit type, (Other than hangar), and drop those
for tile in spawnpts:
if (tile.getX(), tile.getY()) in self.unitsxy:
continue
if (tile.getX(), tile.getY()) in self.building:
continue
#If we've made it this far, we can spawn the variant
initial_scrap = self.me.getScrapAmount()
self.me.orbitalDrop(tile.getX(), tile.getY(),
variant.getVariant())
self.building.add((tile.getX(), tile.getY()))
assert initial_scrap > self.me.getScrapAmount()
break
self.vtobuild = self.buildit.next()
self.update_state()
"""
UNIT_CLAW = 0
UNIT_ARCHER = 1
UNIT_ENGINEER = 2
UNIT_HACKER = 3
UNIT_TURRET = 4 # This is a unit type?
UNIT_WALL = 5
UNIT_TERMINATOR = 6
UNIT_HANGAR = 7
"""
hackers = filter(lambda x: x.getVariant() == UNIT_HACKER,
self.mycontrol)
engineers = filter(lambda x: x.getVariant() == UNIT_ENGINEER,
self.mycontrol)
claws = filter(lambda x: x.getVariant() == UNIT_CLAW, self.mycontrol)
archers = filter(lambda x: x.getVariant() == UNIT_ARCHER,
self.mycontrol)
turrets = filter(lambda x: x.getVariant() == UNIT_TURRET,
self.mycontrol)
terminators = filter(lambda x: x.getVariant() == UNIT_TERMINATOR,
self.mycontrol)
self.update_state()
self.engineer_behavior(engineers)
self.balanced_behavior(claws)
self.balanced_behavior(archers)
self.balanced_behavior(terminators, retreats=True)
self.unit_only_behavior(hackers)
self.balanced_behavior(turrets)
print "Finished"
return 1
def __init__(self, conn):
BaseAI.__init__(self, conn)
