def chanceOpponentHasProtection(self, team, attack):
# Chance that a particular opponent has protection from a particular attack in their hand.
safety = Cards.attackToSafety(attack)
remedy = Cards.attackToRemedy(attack)
if safety in team.safeties:
self.debug("Team %d has already played safety v. %s",
team.number,
Cards.cardToString(attack))
return 1.0
# Odds based on number of the card lurking out there somewhere.
odds = self.percentOfCardsRemaining(safety, remedy)
# Boost likelihood by 50% for each remedy they've discarded.
remedyDiscards = 0
for player in team.playerNumbers:
for _ in xrange(self.interestingRemedyDiscardsByPlayer[player][remedy]):
remedyDiscards += 1
odds *= self.__class__.constants.remedy_discard_boost
self.debug("Team %d protection odds %r v. %s, based on %d safety %d remedy %d discards.",
team.number,
odds,
Cards.cardToString(attack),
self.cardsUnseen[safety],
self.cardsUnseen[remedy],
remedyDiscards)
return odds
def chanceOpponentHasProtection(self, team, attack):
# Chance that a particular opponent has protection from a particular attack in their hand.
safety = Cards.attackToSafety(attack)
remedy = Cards.attackToRemedy(attack)
if safety in team.safeties:
self.debug("Team %d has already played safety v. %s", team.number,
Cards.cardToString(attack))
return 1.0
# Odds based on number of the card lurking out there somewhere.
odds = self.percentOfCardsRemaining(safety, remedy)
# Boost likelihood by 50% for each remedy they've discarded.
remedyDiscards = 0
for player in team.playerNumbers:
for _ in xrange(
self.interestingRemedyDiscardsByPlayer[player][remedy]):
remedyDiscards += 1
odds *= self.__class__.constants.remedy_discard_boost
self.debug(
"Team %d protection odds %r v. %s, based on %d safety %d remedy %d discards.",
team.number, odds, Cards.cardToString(attack),
self.cardsUnseen[safety], self.cardsUnseen[remedy], remedyDiscards)
return odds
def findValidPlays(self):
for card in self.hand:
# You can always discard
self.validMoves.append(Move(Move.DISCARD, card))
type = Cards.cardToType(card)
if (card == self.us.needRemedy or
(card == Cards.REMEDY_END_OF_LIMIT and self.us.speedLimit) or
(self.us.moving and type == Cards.MILEAGE and
((not self.us.speedLimit) or card in Cards.LOW_MILEAGE) and
(self.us.twoHundredsPlayed < 2 or card != Cards.MILEAGE_200)
and
(self.us.mileage + Cards.cardToMileage(card) <= self.target))
or type == Cards.SAFETY):
self.validMoves.append(Move(Move.PLAY, card))
elif type == Cards.ATTACK:
for opponent in self.opponents:
if card == Cards.ATTACK_SPEED_LIMIT:
if ((not opponent.speedLimit)
and Cards.SAFETY_RIGHT_OF_WAY
not in opponent.safeties):
self.validMoves.append(
Move(Move.PLAY, card, opponent.number))
elif (opponent.moving and Cards.attackToSafety(card)
not in opponent.safeties):
self.validMoves.append(
Move(Move.PLAY, card, opponent.number))
def playerPlayed(self, player, move):
type = Cards.cardToType(move.card)
if move.type == Move.PLAY and type == Cards.ATTACK:
ElliotAI.adjustScoresForAttack(move.card, self.attackCounts, self.priorities)
elif move.type == Move.DISCARD and type == Cards.REMEDY:
# When a team discards a remedy, they're a less attractive target for
# that attack
self.priorities[Move(Move.PLAY, Cards.remedyToAttack(move.card), player.teamNumber)] += -.5
def adjustScoresForAttack(card, attackCounts, priorities):
# Discarding the associated remedy is a better move, and an
# auto-discard if all three have been played now
# Also that safety is less useful as a coup fourre
attackCounts[card] += 1
if attackCounts[card] == 3:
priorities[Move(Move.PLAY, Cards.attackToSafety(card))] = 100
priorities[Move(Move.DISCARD, Cards.attackToRemedy(card))] = 0
else:
priorities[Move(Move.PLAY, Cards.attackToSafety(card))] += 1
priorities[Move(Move.DISCARD, Cards.attackToRemedy(card))] += .5
def playerPlayed(self, player, move):
type = Cards.cardToType(move.card)
if move.type == Move.PLAY and type == Cards.ATTACK:
ElliotAI.adjustScoresForAttack(move.card, self.attackCounts,
self.priorities)
elif move.type == Move.DISCARD and type == Cards.REMEDY:
# When a team discards a remedy, they're a less attractive target for
# that attack
self.priorities[Move(Move.PLAY, Cards.remedyToAttack(move.card),
player.teamNumber)] += -.5
def adjustScoresForAttack(card, attackCounts, priorities):
# Discarding the associated remedy is a better move, and an
# auto-discard if all three have been played now
# Also that safety is less useful as a coup fourre
attackCounts[card] += 1
if attackCounts[card] == 3:
priorities[Move(Move.PLAY, Cards.attackToSafety(card))] = 100
priorities[Move(Move.DISCARD, Cards.attackToRemedy(card))] = 0
else:
priorities[Move(Move.PLAY, Cards.attackToSafety(card))] += 1
priorities[Move(Move.DISCARD, Cards.attackToRemedy(card))] += .5
def __str__(self):
ret = "Team " + str(self.number) + ': ' + str(self.mileage) + " miles\n"
if self.needRemedy != None:
ret += ' Needs ' + Cards.cardToString(self.needRemedy) + "\n"
if self.moving:
ret += " Moving\n"
if self.speedLimit:
ret += " Under a speed limit\n"
for safety in self.safeties:
ret += ' ' + Cards.cardToString(safety) + "\n"
return ret
def __str__(self):
ret = "Team " + str(self.number) + ': ' + str(
self.mileage) + " miles\n"
if self.needRemedy != None:
ret += ' Needs ' + Cards.cardToString(self.needRemedy) + "\n"
if self.moving:
ret += " Moving\n"
if self.speedLimit:
ret += " Under a speed limit\n"
for safety in self.safeties:
ret += ' ' + Cards.cardToString(safety) + "\n"
return ret
def goForExtension(self, gameState):
score = 0
# Safeties played
# print str(len(gameState.us.safeties)) + ' safeties played'
score += len(gameState.us.safeties) * 200
# Mileage in hand
mileage = 0
for card in gameState.hand:
try:
mileage += Cards.cardToMileage(card)
except ValueError:
pass
if mileage > 300:
mileage = 300
# print str(mileage) + ' miles in hand'
score += mileage
# Each card is on average worth 33 miles
expectedMiles = 33 * (gameState.cardsLeft / len(gameState.opponents) +
1)
if expectedMiles > 300 - mileage:
expectedMiles = 300 - mileage
score += expectedMiles
# print str(expectedMiles) + ' expected miles in ' + str(gameState.cardsLeft) + ' cards'
# Played attacks
for attack in Cards.ATTACKS:
if not Cards.attackToSafety(attack) in gameState.us.safeties:
score += 60 * self.attackCounts[attack]
# print str(self.attackCounts[attack]) + ' ' + Cards.cardToString(attack) + ' cards played'
# Opponents
for opponent in gameState.opponents:
score -= opponent.mileage
# print 'Team ' + str(opponent.number) + ' has ' + str(opponent.mileage) + ' miles'
score -= len(opponent.safeties) * 100
# print 'Team ' + str(opponent.number) + ' has ' + str(len(opponent.safeties)) + ' safeties'
if opponent.moving:
# print 'Team ' + str(opponent.number) + ' is moving'
score -= 200
# print 'Score: ' + str(score)
if score > 500:
return True
else:
return False
def ConsiderPlaySafety(self, state, safeties):
# If I'm stuck and the safety resolves it, play it
if (not state.us.moving):
needRemedy = state.us.needRemedy
needSafe = Cards.remedyToSafety(needRemedy)
for safety in safeties:
if (safety.card == needSafe):
return safety
# If all the hazards are visible, just play the safety
for safety in safeties:
if (safety.card == Cards.SAFETY_PUNCTURE_PROOF):
flats = self.CountCard(state, Cards.ATTACK_FLAT_TIRE)
if (flats >= 3):
return safety
elif (safety.card == Cards.SAFETY_EXTRA_TANK):
outs = self.CountCard(state, Cards.ATTACK_OUT_OF_GAS)
if (outs >= 3):
return safety
elif (safety.card == Cards.SAFETY_DRIVING_ACE):
acc = self.CountCard(state, Cards.ATTACK_ACCIDENT)
if (acc >= 3):
return safety
# Out of cards, just play the safety
if (len(state.hand) == len(safeties)):
return safety
# Been stuck for too long, have to do something
if (self.needRoll >= 10):
return safeties[0]
def movePlayed(self, game, playerNum, drawnCard, move):
cardType = Cards.cardToType(move.card)
player = game.players[playerNum]
team = game.teams[game.players[playerNum].teamNumber]
playerStr = self.currentGamePlayers[playerNum]
teamPlayers = self.currentGameTeams[team.number]
if game.target > self.currentHandTarget:
self.currentHandTarget = game.target
self.sawPlayerEvent("declaredExtension", playerStr, teamPlayers)
if team.needRemedy and team.needRemedy != Cards.REMEDY_GO and team.needRemedy != Cards.REMEDY_END_OF_LIMIT:
self.sawPlayerEvent("needRemedyTurn", playerStr, teamPlayers)
elif not team.moving:
self.sawPlayerEvent("needGoTurn", playerStr, teamPlayers)
if team.speedLimit:
self.sawPlayerEvent("speedLimitTurn", playerStr, teamPlayers)
if move.type == Move.DISCARD:
self.sawPlayerEvent("discard", playerStr, teamPlayers)
elif cardType == Cards.ATTACK:
self.sawPlayerEvent("attack", playerStr, teamPlayers)
self.sawTeamEvent("targeted", self.currentGameTeams[move.target])
elif cardType == Cards.MILEAGE:
if drawnCard is None:
self.sawPlayerEvent("movedWithEmptyDeck", playerStr, teamPlayers)
elif cardType == Cards.SAFETY:
if move.coupFourre:
self.sawPlayerEvent("coupFourred", playerStr, teamPlayers)
self.sawPlayerEvent("attackFailed", self.lastPlayerMoved, teamPlayers)
self.sawPlayerEvent("safety", playerStr, teamPlayers)
self.lastPlayerMoved = playerStr
def GetBestAttack(self, state, attacks):
# Best attack is one where safety is visible
for attack in attacks:
safety = Cards.attackToSafety(attack.card)
safetyVisible = self.CountCard(state, safety)
if (safetyVisible >= 1):
return attack
# Count remedies for 3 regular attacks, and figure out which is best
gas = self.CountCard(state, Cards.REMEDY_GASOLINE)
repairs = self.CountCard(state, Cards.REMEDY_REPAIRS)
spares = self.CountCard(state, Cards.REMEDY_SPARE_TIRE)
bestAttack = attacks[0] # Could be Stop or Limit
for attack in attacks:
if attack.card == Cards.ATTACK_OUT_OF_GAS:
if ((gas >= repairs) & (gas >= spares)):
bestAttack = attack
elif attack.card == Cards.ATTACK_ACCIDENT:
if ((repairs >= gas) & (repairs >= spares)):
bestAttack = attack
elif attack.card == Cards.ATTACK_FLAT_TIRE:
if ((spares >= gas) & (spares >= repairs)):
bestAttack = attack
if ((bestAttack.card == Cards.ATTACK_STOP) | (bestAttack.card == Cards.ATTACK_SPEED_LIMIT)):
# Anything's better than Stop/Limit
bestAttack = attack
return bestAttack
def getDangerCards(self, gameState):
#Danger cards are cards that can actually stop us
dangerCards = 0
if len(gameState.us.safeties) == 4:
#If we have all of the safeties, there are no danger cards.
return 0
else:
for card in self.cardsLeft:
if Cards.cardToType(card) == Cards.ATTACK and Cards.attackToSafety(card) not in gameState.us.safeties and card != Cards.ATTACK_SPEED_LIMIT:
#For each card that's an attack and we don't have the safety
if Cards.attackToRemedy(card) not in gameState.hand:
#If the remedy isn't in our hand, all cards are danger cards
dangerCards+=self.cardsLeft[card]
elif gameState.hand.count(Cards.attackToRemedy(card)) < self.cardsLeft[card]:
#If The number of remedies we have is less than the number of attacks out there
dangerCards+=(self.cardsLeft[card] - gameState.hand.count(Cards.attackToRemedy(card)))
def mileageCardValue(self, card):
# TODO: This assumes an extension.
tripMileageRemaining = 1000 - self.gameState.us.mileage
tripRemainingMileagePercentConsumed = Cards.cardToMileage(card) / tripMileageRemaining
# TODO: Factor in delayed action, safe trip, shutout.
# TODO: Assumes extension.
# e.g. the game is currently at 0 points (0% done), and completing this trip will net 600 points
# (600/5000=12% done). And the trip is currently at 900km (100km remaining), and playing this mileage
# card will get us to 1000k (100% of remaining distance.) Value of playing this move is:
# 1.00 * 0.12
ret = tripRemainingMileagePercentConsumed * self.valueOfPoints(400 + 200, self.gameState.us) * self.__class__.constants.mileage_boost
self.debug("Value of %dkm: %r, since it covers %r of remaining trip distance.",
Cards.cardToMileage(card),
ret,
tripRemainingMileagePercentConsumed)
return ret
def goForExtension(self, state):
milesInHand = 0
for card in state.hand:
if (Cards.cardToType(card) == Cards.MILEAGE):
milesInHand = milesInHand + Cards.cardToMileage(card)
if ((state.cardsLeft < 5) & (milesInHand < 300)):
# Not enough cards to bother
return False
theirSafeties = 0
# If opponent is at 600, or they have all the safeties, don't extend
for opponent in state.opponents:
if opponent.mileage >= 600:
return False
theirSafeties = theirSafeties + len(opponent.safeties)
if theirSafeties >= 3:
return False;
return True
def goForExtension(self, gameState):
score = 0
# Safeties played
# print str(len(gameState.us.safeties)) + ' safeties played'
score += len(gameState.us.safeties) * 200
# Mileage in hand
mileage = 0
for card in gameState.hand:
try:
mileage += Cards.cardToMileage(card)
except ValueError:
pass
if mileage > 300:
mileage = 300
# print str(mileage) + ' miles in hand'
score += mileage
# Each card is on average worth 33 miles
expectedMiles = 33 * (gameState.cardsLeft / len(gameState.opponents) + 1)
if expectedMiles > 300 - mileage:
expectedMiles = 300 - mileage
score += expectedMiles
# print str(expectedMiles) + ' expected miles in ' + str(gameState.cardsLeft) + ' cards'
# Played attacks
for attack in Cards.ATTACKS:
if not Cards.attackToSafety(attack) in gameState.us.safeties:
score += 60 * self.attackCounts[attack]
# print str(self.attackCounts[attack]) + ' ' + Cards.cardToString(attack) + ' cards played'
# Opponents
for opponent in gameState.opponents:
score -= opponent.mileage
# print 'Team ' + str(opponent.number) + ' has ' + str(opponent.mileage) + ' miles'
score -= len(opponent.safeties) * 100
# print 'Team ' + str(opponent.number) + ' has ' + str(len(opponent.safeties)) + ' safeties'
if opponent.moving:
# print 'Team ' + str(opponent.number) + ' is moving'
score -= 200
# print 'Score: ' + str(score)
if score > 500:
return True
else:
return False
def playerPlayed(self, player, move):
if player == self._usPlayerNumber:
return
self.cardSeen(move.card)
if Cards.cardToType(move.card) == Cards.REMEDY and move.card != Cards.REMEDY_GO:
if move.type == Move.DISCARD:
self.interestingRemedyDiscardsByPlayer[player][move.card] += 1
else:
self.interestingRemedyDiscardsByPlayer[player][move.card] = 0
def playerPlayed(self, player, move):
if player == self._usPlayerNumber:
return
self.cardSeen(move.card)
if Cards.cardToType(
move.card) == Cards.REMEDY and move.card != Cards.REMEDY_GO:
if move.type == Move.DISCARD:
self.interestingRemedyDiscardsByPlayer[player][move.card] += 1
else:
self.interestingRemedyDiscardsByPlayer[player][move.card] = 0
def GetDiscard(self, state, discards):
milesLeft = state.target - state.us.mileage
milesInHand = 0
for discard in discards:
# Excess mileage; discard the card that puts me over the top
if (Cards.cardToType(discard.card) == Cards.MILEAGE):
milesInHand = milesInHand + Cards.cardToMileage(discard.card)
if (milesInHand > milesLeft):
return discard
# Too many 200s
if (discard.card == Cards.MILEAGE_200):
total200 = state.us.twoHundredsPlayed + state.hand.count(Cards.MILEAGE_200)
if (total200 > 2):
return discard
# Attack that opponent has a safety for, if only 1 opponent
if (len(state.opponents) == 1) & (Cards.cardToType(discard.card) == Cards.ATTACK):
safety = Cards.attackToSafety(discard.card)
if safety in state.opponents[0].safeties:
return discard
# Remedy for a safety that I have
if Cards.cardToType(discard.card) == Cards.REMEDY:
safety = Cards.remedyToSafety(discard.card)
if (safety in state.hand) | (safety in state.us.safeties):
return discard
# Now that we've gone through the best options, try second-tier discards
for discard in discards:
# 2 of the same remedy, or 3 if it's GO
if Cards.cardToType(discard.card) == Cards.REMEDY:
count = state.hand.count(discard.card)
if (count > 1) & (discard.card != Cards.REMEDY_GO):
return discard
if count > 2:
return discard
# Weak mileage, unless near the end of the game
if (milesLeft > 100):
if discard.card == Cards.MILEAGE_25:
return discard
if discard.card == Cards.MILEAGE_50:
return discard
if discard.card == Cards.MILEAGE_75:
return discard
# Nothing good to discard; just toss something that's not attack or safety
for d in discards:
if ((Cards.cardToType(d.card) != Cards.SAFETY) &
(Cards.cardToType(d.card) != Cards.ATTACK)):
return d;
def playSafety(self, team, card):
team.safeties.append(card)
if card == Cards.SAFETY_RIGHT_OF_WAY:
team.speedLimit = False
if Cards.remedyToSafety(team.needRemedy) == card:
if (card == Cards.SAFETY_RIGHT_OF_WAY
or Cards.SAFETY_RIGHT_OF_WAY in team.safeties):
team.needRemedy = None
team.moving = True
else:
team.needRemedy = Cards.REMEDY_GO
def playSafety(self, team, card):
team.safeties.append(card)
if card == Cards.SAFETY_RIGHT_OF_WAY:
team.speedLimit = False
if Cards.remedyToSafety(team.needRemedy) == card:
if (card == Cards.SAFETY_RIGHT_OF_WAY
or Cards.SAFETY_RIGHT_OF_WAY in team.safeties):
team.needRemedy = None
team.moving = True
else:
team.needRemedy = Cards.REMEDY_GO
def mileageCardValue(self, card):
# TODO: This assumes an extension.
tripMileageRemaining = 1000 - self.gameState.us.mileage
tripRemainingMileagePercentConsumed = Cards.cardToMileage(
card) / tripMileageRemaining
# TODO: Factor in delayed action, safe trip, shutout.
# TODO: Assumes extension.
# e.g. the game is currently at 0 points (0% done), and completing this trip will net 600 points
# (600/5000=12% done). And the trip is currently at 900km (100km remaining), and playing this mileage
# card will get us to 1000k (100% of remaining distance.) Value of playing this move is:
# 1.00 * 0.12
ret = tripRemainingMileagePercentConsumed * self.valueOfPoints(
400 + 200,
self.gameState.us) * self.__class__.constants.mileage_boost
self.debug(
"Value of %dkm: %r, since it covers %r of remaining trip distance.",
Cards.cardToMileage(card), ret,
tripRemainingMileagePercentConsumed)
return ret
def GetBestMove(self, state, mileage):
# If the race is almost over, may not want to play highest card
needToPlay = -1
if self.milesLeft == 125: # 100/25 or 75/50
if ((Cards.MILEAGE_75 in state.hand) & (Cards.MILEAGE_50 in state.hand)):
needToPlay = Cards.MILEAGE_75
if ((Cards.MILEAGE_100 in state.hand) & (Cards.MILEAGE_25 in state.hand)):
needToPlay = Cards.MILEAGE_100
elif self.milesLeft == 100: # 75/25 or 50/50, or 100
if (state.hand.count(Cards.MILEAGE_50) >= 2):
needToPlay= Cards.MILEAGE_50
if (Cards.MILEAGE_100 in state.hand):
needToPlay = Cards.MILEAGE_100
highCard = mileage[0]
for mileCard in mileage:
if (mileCard.card == needToPlay):
return mileCard
if (Cards.cardToMileage(mileCard.card)) > (Cards.cardToMileage(highCard.card)):
highCard = mileCard
return highCard
def makeMove(self, gameState):
print 'Opponents:'
for opponent in gameState.opponents:
print opponent
print 'Us:'
print gameState.us
print 'Cards left in deck: ' + str(gameState.cardsLeft)
print 'Target: ' + str(gameState.target) + ' miles'
print 'Your hand: ',
print Cards.cardsToStrings(gameState.hand)
print 'Valid moves:'
for i in range(len(gameState.validMoves)):
print str(i) + ':',
print gameState.validMoves[i]
moveint = -1
while moveint not in range(len(gameState.validMoves)):
move = raw_input('Enter move index: ')
try:
moveint = int(move)
except ValueError:
moveint = -1
return gameState.validMoves[int(move)]
def makeMove(self, gameState):
print 'Opponents:'
for opponent in gameState.opponents:
print opponent
print 'Us:'
print gameState.us
print 'Cards left in deck: ' + str(gameState.cardsLeft)
print 'Target: ' + str(gameState.target) + ' miles'
print 'Your hand: ',
print Cards.cardsToStrings(gameState.hand)
print 'Valid moves:'
for i in range(len(gameState.validMoves)):
print str(i) + ':',
print gameState.validMoves[i]
moveint = -1
while moveint not in range(len(gameState.validMoves)):
move = raw_input('Enter move index: ')
try:
moveint = int(move)
except ValueError:
moveint = -1
return gameState.validMoves[int(move)]
def findValidPlays(self):
for card in self.hand:
# You can always discard
self.validMoves.append(Move(Move.DISCARD, card))
type = Cards.cardToType(card)
if (card == self.us.needRemedy
or (card == Cards.REMEDY_END_OF_LIMIT and self.us.speedLimit)
or (self.us.moving and type == Cards.MILEAGE
and ((not self.us.speedLimit) or card in Cards.LOW_MILEAGE)
and (self.us.twoHundredsPlayed < 2 or card != Cards.MILEAGE_200)
and (self.us.mileage + Cards.cardToMileage(card) <= self.target))
or type == Cards.SAFETY):
self.validMoves.append(Move(Move.PLAY, card))
elif type == Cards.ATTACK:
for opponent in self.opponents:
if card == Cards.ATTACK_SPEED_LIMIT:
if ((not opponent.speedLimit)
and Cards.SAFETY_RIGHT_OF_WAY not in opponent.safeties):
self.validMoves.append(Move(Move.PLAY, card, opponent.number))
elif (opponent.moving
and Cards.attackToSafety(card) not in opponent.safeties):
self.validMoves.append(Move(Move.PLAY, card, opponent.number))
def makeMove(self, gameState):
discards = []
mileage = []
attacks = []
remedies = []
safeties = []
for play in gameState.validMoves:
if (play.type == Move.DISCARD):
discards.append(play)
else:
type = Cards.cardToType(play.card)
if type == Cards.MILEAGE:
mileage.append(play)
elif type == Cards.REMEDY:
remedies.append(play)
elif type == Cards.ATTACK:
attacks.append(play)
elif type == Cards.SAFETY:
safeties.append(play)
# If we can move, move
if len(mileage) > 0:
return mileage[0]
# Play a red card if appropriate
if len(attacks) > 0:
return attacks[0]
# Play a remedy if we can
if len(remedies) > 0:
return remedies[0]
# Play a safety rather than discard
if len(safeties) > 0:
return safeties[0]
# Discard something
return discards[0]
def makeMove(self, gameState):
discards = []
mileage = []
attacks = []
remedies = []
safeties = []
for play in gameState.validMoves:
if (play.type == Move.DISCARD):
discards.append(play)
else:
type = Cards.cardToType(play.card)
if type == Cards.MILEAGE:
mileage.append(play)
elif type == Cards.REMEDY:
remedies.append(play)
elif type == Cards.ATTACK:
attacks.append(play)
elif type == Cards.SAFETY:
safeties.append(play)
# If we can move, move
if len(mileage) > 0:
return mileage[0]
# Play a red card if appropriate
if len(attacks) > 0:
return attacks[0]
# Play a remedy if we can
if len(remedies) > 0:
return remedies[0]
# Play a safety rather than discard
if len(safeties) > 0:
return safeties[0]
# Discard something
return discards[0]
def movePlayed(self, game, playerNum, drawnCard, move):
cardType = Cards.cardToType(move.card)
player = game.players[playerNum]
team = game.teams[game.players[playerNum].teamNumber]
playerStr = self.currentGamePlayers[playerNum]
teamPlayers = self.currentGameTeams[team.number]
if game.target > self.currentHandTarget:
self.currentHandTarget = game.target
self.sawPlayerEvent("declaredExtension", playerStr, teamPlayers)
if team.needRemedy and team.needRemedy != Cards.REMEDY_GO and team.needRemedy != Cards.REMEDY_END_OF_LIMIT:
self.sawPlayerEvent("needRemedyTurn", playerStr, teamPlayers)
elif not team.moving:
self.sawPlayerEvent("needGoTurn", playerStr, teamPlayers)
if team.speedLimit:
self.sawPlayerEvent("speedLimitTurn", playerStr, teamPlayers)
if move.type == Move.DISCARD:
self.sawPlayerEvent("discard", playerStr, teamPlayers)
elif cardType == Cards.ATTACK:
self.sawPlayerEvent("attack", playerStr, teamPlayers)
self.sawTeamEvent("targeted", self.currentGameTeams[move.target])
elif cardType == Cards.MILEAGE:
if drawnCard is None:
self.sawPlayerEvent("movedWithEmptyDeck", playerStr,
teamPlayers)
elif cardType == Cards.SAFETY:
if move.coupFourre:
self.sawPlayerEvent("coupFourred", playerStr, teamPlayers)
self.sawPlayerEvent("attackFailed", self.lastPlayerMoved,
teamPlayers)
self.sawPlayerEvent("safety", playerStr, teamPlayers)
self.lastPlayerMoved = playerStr
def handleMove(self,
currentPlayer,
currentTeam,
move,
forceExtension=False):
if True: # To keep the indent level of all this the same as in upstream and make the diff prettier. :(
currentPlayerNumber = currentPlayer.number
# Handle moves
if move.type == Move.PLAY:
card = move.card
type = Cards.cardToType(card)
if type == Cards.MILEAGE:
currentTeam.mileage += Cards.cardToMileage(card)
currentTeam.mileagePile.append(card)
if card == Cards.MILEAGE_200:
currentTeam.safeTrip = False
currentTeam.twoHundredsPlayed += 1
if currentTeam.mileage == self.target:
tempState = self.makeState(currentPlayer)
if self.extensionPossible and (
forceExtension
or currentPlayer.ai.goForExtension(tempState)):
if self.debug:
print 'Player ' + str(
currentPlayerNumber
) + ' goes for the extension'
self.extension = True
self.extensionPossible = False
self.target = 1000
else:
if self.debug:
print 'Race complete'
self.winner = currentPlayer.teamNumber
self.tripComplete = True
return
elif type == Cards.REMEDY:
currentTeam.battlePile.append(card)
if card == Cards.REMEDY_END_OF_LIMIT:
currentTeam.speedLimit = False
else:
currentTeam.needRemedy = Cards.REMEDY_GO
if (card == Cards.REMEDY_GO or Cards.SAFETY_RIGHT_OF_WAY
in currentTeam.safeties):
currentTeam.needRemedy = None
currentTeam.moving = True
elif type == Cards.ATTACK:
targetTeam = self.teams[(move.target)]
# Check for coup fourre
neededSafety = Cards.attackToSafety(card)
coupFourrePlayerNumber = -1
for targetPlayerNumber in targetTeam.playerNumbers:
targetPlayer = self.players[targetPlayerNumber]
if neededSafety in targetPlayer.hand:
tempState = self.makeState(targetPlayer)
if targetPlayer.ai and targetPlayer.ai.playCoupFourre(
card, tempState):
coupFourrePlayerNumber = targetPlayerNumber
# There's only one of each safety, so if we found it, we don't
# need to keep looking
break
if coupFourrePlayerNumber == -1:
# The attack resolves
targetTeam.battlePile.append(card)
if card == Cards.ATTACK_SPEED_LIMIT:
self.teams[move.target].speedLimit = True
else:
self.teams[move.target].moving = False
self.teams[
move.target].needRemedy = Cards.attackToRemedy(
card)
else:
# Coup fourre
self.playSafety(targetTeam, neededSafety)
nextPlayerNumber = coupFourrePlayerNumber
# Remove the safety from the player's hand
del self.players[coupFourrePlayerNumber].hand[
self.players[coupFourrePlayerNumber].hand.index(
neededSafety)]
# Draw an extra card to replace the one just played
try:
player = self.players[coupFourrePlayerNumber]
cfCard = self.draw(player)
player.hand.append(cfCard)
except IndexError:
cfCard = None
pass
targetTeam.coupFourres += 1
cfMove = Move(Move.PLAY, neededSafety, None, True)
if self.debug:
print self.players[nextPlayerNumber],
print cfMove
cfPlayer = copy(self.players[nextPlayerNumber])
cfPlayer.hand = []
cfPlayer.ai = None
self.notifyPlayers(cfPlayer, cfMove)
if self.transcriptWriter:
self.transcriptWriter.writeMove(
cfPlayer.number, cfCard, cfMove, False)
elif type == Cards.SAFETY:
self.playSafety(currentTeam, card)
nextPlayerNumber = currentPlayerNumber
else:
raise ValueError('Unknown card type!')
elif move.type == Move.DISCARD:
self.discardPile.append(move.card)
def handleMove(self, currentPlayer, currentTeam, move, forceExtension = False):
if True: # To keep the indent level of all this the same as in upstream and make the diff prettier. :(
currentPlayerNumber = currentPlayer.number
# Handle moves
if move.type == Move.PLAY:
card = move.card
type = Cards.cardToType(card)
if type == Cards.MILEAGE:
currentTeam.mileage += Cards.cardToMileage(card)
currentTeam.mileagePile.append(card)
if card == Cards.MILEAGE_200:
currentTeam.safeTrip = False
currentTeam.twoHundredsPlayed += 1
if currentTeam.mileage == self.target:
tempState = self.makeState(currentPlayer)
if self.extensionPossible and (forceExtension or
currentPlayer.ai.goForExtension(tempState)):
if self.debug:
print 'Player ' + str(currentPlayerNumber) + ' goes for the extension'
self.extension = True
self.extensionPossible = False
self.target = 1000
else:
if self.debug:
print 'Race complete'
self.winner = currentPlayer.teamNumber
self.tripComplete = True
return
elif type == Cards.REMEDY:
currentTeam.battlePile.append(card)
if card == Cards.REMEDY_END_OF_LIMIT:
currentTeam.speedLimit = False
else:
currentTeam.needRemedy = Cards.REMEDY_GO
if (card == Cards.REMEDY_GO
or Cards.SAFETY_RIGHT_OF_WAY in currentTeam.safeties):
currentTeam.needRemedy = None
currentTeam.moving = True
elif type == Cards.ATTACK:
targetTeam = self.teams[(move.target)]
# Check for coup fourre
neededSafety = Cards.attackToSafety(card)
coupFourrePlayerNumber = -1
for targetPlayerNumber in targetTeam.playerNumbers:
targetPlayer = self.players[targetPlayerNumber]
if neededSafety in targetPlayer.hand:
tempState = self.makeState(targetPlayer)
if targetPlayer.ai and targetPlayer.ai.playCoupFourre(card, tempState):
coupFourrePlayerNumber = targetPlayerNumber
# There's only one of each safety, so if we found it, we don't
# need to keep looking
break
if coupFourrePlayerNumber == -1:
# The attack resolves
targetTeam.battlePile.append(card)
if card == Cards.ATTACK_SPEED_LIMIT:
self.teams[move.target].speedLimit = True
else:
self.teams[move.target].moving = False
self.teams[move.target].needRemedy = Cards.attackToRemedy(card)
else:
# Coup fourre
self.playSafety(targetTeam, neededSafety)
nextPlayerNumber = coupFourrePlayerNumber
# Remove the safety from the player's hand
del self.players[coupFourrePlayerNumber].hand[self.players[coupFourrePlayerNumber].hand.index(neededSafety)]
# Draw an extra card to replace the one just played
try:
player = self.players[coupFourrePlayerNumber]
cfCard = self.draw(player)
player.hand.append(cfCard)
except IndexError:
cfCard = None
pass
targetTeam.coupFourres += 1
cfMove = Move(Move.PLAY, neededSafety, None, True)
if self.debug:
print self.players[nextPlayerNumber],
print cfMove
cfPlayer = copy(self.players[nextPlayerNumber])
cfPlayer.hand = []
cfPlayer.ai = None
self.notifyPlayers(cfPlayer, cfMove)
if self.transcriptWriter:
self.transcriptWriter.writeMove(cfPlayer.number,
cfCard,
cfMove,
False)
elif type == Cards.SAFETY:
self.playSafety(currentTeam, card)
nextPlayerNumber = currentPlayerNumber
else:
raise ValueError('Unknown card type!')
elif move.type == Move.DISCARD:
self.discardPile.append(move.card)
def cardSeen(self, card):
self.cardsUnseen[card] -= 1
self.numCardsUnseen -= 1
self.debug("After seeing %s, unseen cards:\n%s",
Cards.cardToString(card), self.unseenCardsToString)
def makeMove(self, gameState):
discards = []
mileage = []
attacks = []
remedies = []
safeties = []
worthlessCards = [] #These are cards that cannot ever help us and are first to be discarded.
milesToGo = gameState.target - gameState.us.mileage
numMiles = []
targetTeam = self.priorityTarget(gameState)
for play in gameState.validMoves:
type = Cards.cardToType(play.card)
if (play.type == Move.DISCARD):
#Never discard a safety.
if type != Cards.SAFETY:
if type == Cards.MILEAGE:
#Mileage cards are worthless if they put us over 1000 miles.
if Cards.cardToMileage(play.card) + gameState.us.mileage > 1000:
worthlessCards.append(play)
#200 miles is worthless if we've played 2 of them, or if # played + # in hand > 2, the surplus is worthless
else:
discards.append(play)
elif type == Cards.ATTACK:
#Attack cards are worthless if we only have one opponent and they have played the safety
if targetTeam == -1:
for opponent in gameState.opponents:
if Cards.attackToSafety(play.card) in opponent.safeties:
worthlessCards.append(play)
else:
discards.append(play)
else:
discards.append(play)
elif type == Cards.REMEDY:
#Remedies are worthless if the we have played the safety
if Cards.remedyToSafety(play.card) in gameState.us.safeties:
worthlessCards.append(play)
#Remedies are worthless if we have the safety for it in our hand
elif Cards.remedyToSafety(play.card) in gameState.hand:
worthlessCards.append(play)
#Remedies are worthless if all of the appropriate attack cards have been played and we do not need it right now.
elif self.cardsLeft[Cards.remedyToAttack(play.card)] == 0 and gameState.us.needRemedy != Cards.remedyToAttack(play.card):
worthlessCards.append(play)
else:
discards.append(play)
else:
if type == Cards.MILEAGE:
#Sort as we insert, biggest mileage at the front of the list
if len(mileage) == 0:
numMiles.append(Cards.cardToMileage(play.card))
mileage.append(play)
elif len(mileage) == 1:
if Cards.cardToMileage(play.card) > numMiles[0]:
numMiles.insert(0, Cards.cardToMileage(play.card))
mileage.insert(0, play)
else:
numMiles.append(Cards.cardToMileage(play.card))
mileage.append(play)
elif len(mileage) == 2:
if Cards.cardToMileage(play.card) > numMiles[0]:
numMiles.insert(0, Cards.cardToMileage(play.card))
mileage.insert(0, play)
elif Cards.cardToMileage(play.card) > numMiles[1]:
numMiles.insert(1, Cards.cardToMileage(play.card))
mileage.insert(1, play)
else:
numMiles.append(Cards.cardToMileage(play.card))
mileage.append(play)
else:
#If it's biggest, insert it first
if Cards.cardToMileage(play.card) > numMiles[0]:
numMiles.insert(0, Cards.cardToMileage(play.card))
mileage.insert(0, play)
#If it's smallest, insert it last
elif Cards.cardToMileage(play.card) < numMiles[len(numMiles) - 1]:
numMiles.insert((1 - len(numMiles)), Cards.cardToMileage(play.card))
mileage.insert((1 - len(mileage)), play)
#Otherwise Insert it at index 1
else:
numMiles.insert(1, Cards.cardToMileage(play.card))
mileage.insert(1, play)
elif type == Cards.ATTACK:
if targetTeam == -1:
#No priority target
attacks.append(play)
#Sort as we insert, priority targets in front
elif play.target == targetTeam:
attacks.insert(0, play)
else:
attacks.append(play)
elif type == Cards.REMEDY:
remedies.append(play)
elif type == Cards.SAFETY:
safeties.append(play)
#If there are less than 10 cards left, play any safeties in our hand
# NOTE: Investigate how much this changes AI results
if gameState.cardsLeft <= 10:
if len(safeties) > 0:
return safeties[0]
#If we can win the game, play a safety if we can, then check to see if we are safe to go for delayed action, otherwise win the game.
if milesToGo in numMiles:
if len(safeties) > 0:
return safeties[0]
elif gameState.cardsLeft == 0:
#Win the game if we already have a delayed action.
return mileage[numMiles.index(milesToGo)]
elif self.getDangerCards(gameState) == 0:
#If we are safe, attack if we can, pitch a worthless card if we can't, win the game otherwise.
if len(attacks) > 0:
return attacks[0]
elif len(worthlessCards) > 0:
return worthlessCards[0]
else:
return mileage[numMiles.index(milesToGo)]
else:
#For the time being, consider even one potential attack too deadly, and end the game.
#TINKER HERE LATER
return mileage[numMiles.index(milesToGo)]
if len(attacks) > 0:
attacks = self.sortAttacks(attacks, targetTeam)
#Attack if we can in a two player game always.
if targetTeam == -1 :
return attacks[0]
#If we can't move in a 3 player game, attack first.
elif len(mileage) == 0:
return attacks[0]
#If we have a valid move for 100 miles or more and we've got a ways to go, move, otherwise attack.
elif Cards.cardToMileage(mileage[0].card) >= 100 and milesToGo >= 400:
return mileage[0]
else:
return attacks[0]
#Fix what needs fixing in a two player game, attack in a 3 player game (since we aren't moving)
if len(remedies) > 0:
return remedies[0]
#If we need a remedy and we have the safety for it after move 10, just play it.
if gameState.us.needRemedy != None and len(safeties) > 0:
for s in safeties:
if Cards.remedyToSafety(gameState.us.needRemedy) == s.card and len(self.gameHistory) >= 10:
return s
# If we can move
if len(mileage) > 0:
#Move as fast as we can if we haven't gone too far
if milesToGo > 400:
return mileage[0]
#If we've already played a 200 and our biggest mileage card leaves us at or over 100 miles, play it
if (milesToGo - Cards.cardToMileage(mileage[0].card) >= 100):
if (gameState.us.twoHundredsPlayed > 0):
return mileage[0]
#If we have more than 200 miles to go, haven't played a 200, have a 100, and we're not under a speed limit, play the 100
if milesToGo > 200 and gameState.us.twoHundredsPlayed == 0 and Cards.MILEAGE_100 in gameState.hand and not(gameState.us.speedLimit):
for i in mileage:
if numMiles[mileage.index(i)] == 100:
return i
#If we're over 100 miles away and we can get to 100 miles away, do it
if milesToGo > 100:
for i in numMiles:
if milesToGo - i == 100:
return mileage[numMiles.index(i)]
#If we're under a speed limit, play the biggest mileage we have
if gameState.us.speedLimit:
return mileage[0]
#If we're at 200 miles or less, play our smallest mileage (if we could win the game, we already would have done so)
if milesToGo <= 200:
mileage.reverse()
return mileage[0]
#Return our biggest mileage
return mileage[0]
# Discard something worthless if we have it
if len(worthlessCards) > 0:
return worthlessCards[0]
#If we are at the end of the game, discard high mileage, then remedies, then attacks, then low mileage.
if gameState.cardsLeft == 0:
for d in discards:
if d.card <= 4:
if d.card >= 2:
return d
for d in discards:
if d.card <= 9:
if d.card >= 2:
return d
for d in discards:
if d.card <= 14:
if d.card >= 2:
return d
for d in discards:
if d.card <= 2:
return d
for d in discards:
#If we have more of a remedy than there are attacks in the game, discard it.
if Cards.cardToType(d.card) == Cards.REMEDY and discards.count(d) > self.cardsLeft[Cards.remedyToAttack(d.card)]:
return d
#If we have 3 of any given card, discard it.
if discards.count(d) >= 3:
return d
#If we're under a speed limit, discard 75 if we have it, 100 if we already popped our safeTrip cherry, 200 if we haven't and are halfway through the race, the rest of the mileage.
if gameState.us.speedLimit:
if d.card == Cards.MILEAGE_75:
return d
if gameState.us.safeTrip and ((gameState.target == 1000 and gameState.us.handScore >= 600) or (gameState.target == 700 and gameState.us.handScore > 400)) and d.card == Cards.MILEAGE_200:
return d
if d.card == Cards.MILEAGE_100:
return d
if d.card == Cards.MILEAGE_200:
return d
else:
if d.card == Cards.MILEAGE_25:
return d
#Pitch doubles next - low mileage first, then high mileage, then remedies
for d in discards:
if discards.count(d) > 1:
if d.card <= 1:
return d
for d in discards:
if discards.count(d) > 1:
if d.card <= 4:
return d
for d in discards:
if discards.count(d) > 1:
if d.card <= 9:
return d
#Pitch crappy single cards.
if Cards.MILEAGE_25 in gameState.hand:
return Move(Move.DISCARD, Cards.MILEAGE_25)
if Cards.MILEAGE_75 in gameState.hand:
return Move(Move.DISCARD, Cards.MILEAGE_75)
if Cards.MILEAGE_50 in gameState.hand:
return Move(Move.DISCARD, Cards.MILEAGE_50)
if Cards.REMEDY_END_OF_LIMIT in gameState.hand:
return Move(Move.DISCARD, Cards.REMEDY_END_OF_LIMIT)
#Pitch any mileage that puts us over 700 if the target is 700
for d in discards:
if Cards.cardToType(d.card) == Cards.MILEAGE:
if gameState.target == 700 and Cards.cardToMileage(d.card) + gameState.us.mileage > 700:
return d
#If we have an attack and the remedy for the attack, pitch the remedy
for d in discards:
if Cards.cardToType(d.card) == Cards.ATTACK:
if Cards.attackToRemedy(d.card) in gameState.hand:
return Move(Move.DISCARD, Cards.attackToRemedy(d.card))
#Pitch duplicate attack cards now, but only if we don't have the safety for it already played.
for d in discards:
if discards.count(d) > 1:
if d.card <= 14 and Cards.attackToSafety(d.card) not in gameState.us.safeties:
return d
#If we've gotten here we have a pretty good hand - so play a safety if we have one
if len(safeties) > 0:
return safeties[0]
#Pitch attacks we don't have the safety for
for d in discards:
if Cards.cardToType(d.card) == Cards.ATTACK and Cards.attackToSafety(d.card) not in gameState.us.safeties:
return d
#Pitch any duplicates at this point
for d in discards:
if discards.count(d) > 1:
return d
#Pitch Speed Limit next
for d in discards:
if d.card == 14:
return d
#Pitch Stop next
for d in discards:
if d.card == 13:
return d
#In nearly a million runs total this hasn't ever triggered. But it seems best to leave it here.
return discards[0]
readTranscript = None
writeTranscript = None
#readTranscript = "/tmp/millegame"
#writeTranscript = "/tmp/millegame"
# End configurable parameters
if readTranscript:
reader = TranscriptReader(
readTranscript,
lambda *args: stdout.write("Transcript game start!\n"),
lambda *args: stdout.write("Transcript hand start!\n"),
lambda game, player, drawnCard, move: stdout.write(
"Transcript move: %d drew %s %s\n" % (
player, Cards.cardToString(drawnCard) if drawnCard else "nothing", move)),
lambda *args: stdout.write("Transcript hand end!\n"),
lambda game: stdout.write("Transcript game end! Scores: %s\n" % (
" ".join(map(lambda team: "%d" % team.totalScore,
game.teams)))))
reader.read(debug = True)
exit(0)
players = []
competitor = 0
for i in range(numPlayers):
players.append(competitors[competitor]())
competitor += 1
if competitor >= len(competitors):
competitor = 0
def chanceTeamWillCompleteTrip(self, team):
if self.useMonteCarloSimulation():
self.debug(
"Using monte carlo method for team trip completion estimate.")
teamResults = [
result[team.number + 1]
for result in self.monteCarloMileageSimulation()
]
completionCount = 0
for result in teamResults:
if result == 0:
completionCount += 1
ret = completionCount / len(teamResults)
self.debug("%r chance that %d will complete trip (%d/%d)", ret,
team.number, completionCount, len(teamResults))
else:
self.debug(
"Using card-counting method for team trip completion estimate."
)
turnsLeft = self.deckExhaustionTurnsLeft()
playersOnTeam = len(team.playerNumbers)
teamMovesLeft = turnsLeft * playersOnTeam
if team.moving:
goCoeff = 1.0
else:
goCoeff = min(
1.0,
self.percentOfCardsRemaining(Cards.REMEDY_GO) *
teamMovesLeft)
if team.needRemedy and team.needRemedy != Cards.REMEDY_GO:
remedyCoeff = min(
1.0,
self.percentOfCardsRemaining(
team.needRemedy, Cards.remedyToSafety(team.needRemedy))
* teamMovesLeft)
else:
remedyCoeff = 1.0
if goCoeff == 0.0 or remedyCoeff == 0.0:
self.debug(
"Team %d can't complete trip due to remedy unavailable.",
team.number)
return 0.0
needMileage = 1000 - team.mileage
validMileageCards = [
card for card in Cards.MILEAGE_CARDS
if Cards.cardToMileage(card) <= needMileage
]
validMileageCards.sort(reverse=True)
validMileagePct = self.percentOfCardsRemaining(*validMileageCards)
unseenTotalMileage = sum([
Cards.cardToMileage(card) * self.cardsUnseen[card]
for card in validMileageCards
])
if unseenTotalMileage < needMileage:
self.debug(
"Not enough mileage left in deck for team %d to complete trip.",
team.number)
ret = 0.0
else:
ret = min(1.0, (validMileagePct *
(unseenTotalMileage / needMileage) *
teamMovesLeft * remedyCoeff * goCoeff))
self.debug(
"Team %d has %r of trip completion, based on crude card count: %r * (%r / %r) * %r * %r * %r",
team.number, ret, validMileagePct, unseenTotalMileage,
needMileage, teamMovesLeft, remedyCoeff, goCoeff)
return ret
def monteCarloMileageSimulation(self):
# Returns a list of many (turns elapsed, team 0 trip mileage remaining, team 1 trip remaining, ...)
# TODO: Assumes extension.
results = []
for _ in xrange(self.perfConstants.monteCarloIterations):
needMileage = dict((team.number, team.mileage) for team in self.gameState.teams)
moving = dict((team.number, team.moving) for team in self.gameState.teams)
needRemedy = dict((team.number, team.needRemedy) for team in self.gameState.teams)
twoHundredsPlayed = dict((team.number, team.twoHundredsPlayed) for team in self.gameState.teams)
tripCompletedBy = None
deck = collections.deque()
for (card, qty) in self.cardsUnseen.iteritems():
for _ in xrange(qty):
deck.append(card)
random.shuffle(deck)
turnsElapsed = 1
while deck:
for currentTurnTeam in self.gameState.teams:
if not deck:
break
teamNo = currentTurnTeam.number
teamNeedMileage = needMileage[teamNo]
teamNeedRemedy = needRemedy[teamNo]
teamMoving = moving[teamNo]
teamTwoHundredsPlayed = twoHundredsPlayed[teamNo]
if teamNeedRemedy:
teamNeedSafety = Cards.remedyToSafety(teamNeedRemedy)
else:
teamNeedSafety = None
for playerNum in currentTurnTeam.playerNumbers:
if tripCompletedBy == playerNum:
deck = None
break
if not deck:
break
card = deck.pop()
cardType = Cards.cardToType(card)
if Cards.cardToType(card) != Cards.MILEAGE:
if card == Cards.REMEDY_GO:
teamMoving = True
if teamNeedRemedy == Cards.REMEDY_GO:
teamNeedRemedy = None
elif teamNeedRemedy:
if ((cardType == Cards.SAFETY and teamNeedSafety == card) or
(cardType == Cards.REMEDY and needRemedy[teamNo] == card)):
teamNeedRemedy = None
else:
mileage = Cards.cardToMileage(card)
if mileage == 200 and teamTwoHundredsPlayed >= 2:
continue
elif mileage > teamNeedMileage:
continue
elif mileage == 200:
teamTwoHundredsPlayed += 1
teamNeedMileage -= mileage
if teamNeedMileage == 0 and teamMoving and not teamNeedRemedy:
tripCompletedBy = playerNum
break
needMileage[teamNo] = teamNeedMileage
needRemedy[teamNo] = teamNeedRemedy
moving[teamNo] = teamMoving
twoHundredsPlayed[teamNo] = teamTwoHundredsPlayed
turnsElapsed += 1
result = [turnsElapsed]
for i in xrange(len(self.gameState.opponents) + 1):
if i == self.gameState.us.number:
team = self.gameState.us
else:
team = self.gameState.teamNumberToTeam(i)
if needRemedy[i] or not moving[i]:
mileage = 1000 - team.mileage
else:
mileage = needMileage[i]
result.append(mileage)
results.append(result)
return results
def makeMove(self, gameState):
discards = []
mileage = []
attacks = []
remedies = []
safeties = []
cardsPlayed = []
us = gameState.us
cardsPlayed = cardsPlayed + us.mileagePile
cardsPlayed = cardsPlayed + us.speedPile
cardsPlayed = cardsPlayed + us.battlePile
cardsPlayed = cardsPlayed + us.safeties
MyMileage = us.mileage
MyRunningTotal = MyMileage + us.totalScore + len(us.safeties) * 100 + us.coupFourres * 300
opponents = gameState.opponents
ourSafeties = us.safeties
playedSafeties = ourSafeties
opponentsCount = 0
opponentsSafeties = []
for opponent in opponents:
opponentsCount = opponentsCount + 1
opponentsSafeties = opponentsSafeties + opponent.safeties
cardsPlayed = cardsPlayed + opponent.mileagePile
cardsPlayed = cardsPlayed + opponent.speedPile
cardsPlayed = cardsPlayed + opponent.battlePile
cardsPlayed = cardsPlayed + opponent.safeties
playedSafeties = playedSafeties + opponentsSafeties
cardsPlayed = cardsPlayed + gameState.discardPile
cardPlayedByType = {}
for x in xrange(0, 19):
cardPlayedByType[x] = 0
for card in cardsPlayed:
cardPlayedByType[card] += 1
target = gameState.target
target_minus_25 = target - 25
target_minus_50 = target - 50
target_minus_75 = target - 75
target_minus_100 = target - 100
target_minus_200 = target - 200
for play in gameState.validMoves:
if play.type == Move.DISCARD:
discards.append(play)
else:
type = Cards.cardToType(play.card)
if type == Cards.MILEAGE:
mileage.append(play)
elif type == Cards.REMEDY:
remedies.append(play)
elif type == Cards.ATTACK:
attacks.append(play)
elif type == Cards.SAFETY:
safeties.append(play)
#######################
# IF CAN GO FOR WIN DO IT!
#######################
if len(mileage) > 0:
if us.mileage == target_minus_25:
for mi in mileage:
if mi.card == Cards.MILEAGE_25:
return mi
elif us.mileage == target_minus_50:
for mi in mileage:
if mi.card == Cards.MILEAGE_50:
return mi
elif us.mileage == target_minus_75:
for mi in mileage:
if mi.card == Cards.MILEAGE_75:
return mi
elif us.mileage == target_minus_100:
for mi in mileage:
if mi.card == Cards.MILEAGE_100:
return mi
elif us.mileage == target_minus_200:
for mi in mileage:
if mi.card == Cards.MILEAGE_200:
return mi
########################
# play a red card based on weighted factors
# but check to see if the corrosponding safety is known in play or in your hand
# if not known dont play if less then X cards in deck
#####################################
numberOfCardsLeftToNotAttack = 10
if len(attacks) > 0:
highestWeight = -10
weightedAttacks = {}
for attack in attacks:
opponent = gameState.teamNumberToTeam(attack.target)
opponentMileage = opponent.mileage
opponentRunningTotal = (
opponentMileage + opponent.totalScore + len(opponent.safeties) * 100 + opponent.coupFourres * 300
)
weight = 0
if opponentRunningTotal >= 3000:
# print "opponentRunningTotal >= 3500"
weight += 1
if opponentRunningTotal >= 3500:
# print "opponentRunningTotal >= 3500"
weight += 1
if opponentRunningTotal >= 4000:
# print "opponentRunningTotal >= 4000"
weight += 1
if opponentRunningTotal >= 4500:
# print "opponentRunningTotal >= 4500"
weight += 2
if opponentRunningTotal >= MyRunningTotal + 1000:
# print "opponentRunningTotal >= myRunningTotal+2000"
weight += 1
if opponentRunningTotal >= MyRunningTotal + 2000:
# print "opponentRunningTotal >= myRunningTotal+2000"
weight += 3
if opponentMileage >= MyMileage + 400:
# print "opponentMileage >= my mileage + 400"
weight += 1
if opponentMileage >= target_minus_200:
if opponentMileage >= target_minus_50 and attack.card == Cards.ATTACK_SPEED_LIMIT:
weight = -10
# print "opponet withi 50 of end and attack=limit"
else:
weight += 1
# print "opponent within 200 of end"
if attack.card != Cards.ATTACK_SPEED_LIMIT and attack.card != Cards.ATTACK_STOP:
weight += 0.6
if attack.card == Cards.ATTACK_SPEED_LIMIT:
weight += 0
if attack.card == Cards.ATTACK_STOP:
weight += 0.01
# print "attack card not limit or stop"
corrospondingSafetyisNotKnown = True
corrospondingSafety = Cards.attackToSafety(attack.card)
if cardPlayedByType[corrospondingSafety] == 1:
corrospondingSafetyisNotKnown = False
for safet in safeties:
if Cards.attackToSafety(attack.card) == safet.card:
corrospondingSafetyisNotKnown = False
if corrospondingSafetyisNotKnown:
if gameState.cardsLeft < numberOfCardsLeftToNotAttack:
weight = -10 # nop
# print "safety NOT known and gameState.cardsLeft < numberOfCardsLeftToNotAttack"
else:
# print "safety not known"
weight -= 0.5
# print "proceed with attack!!!!!!!!!!"
else:
# print "safety KNOWN!"
weight += 0.5
# print "weight="+str(weight)
if weight > highestWeight:
highestWeight = weight
weightedAttacks[weight] = attack
if highestWeight > -1:
# print "=============highest Weight="+str(highestWeight)
# print weightedAttacks[highestWeight]
return weightedAttacks[highestWeight]
##################3
# play a remedy
##################
if len(remedies) > 0:
remedies.sort(key=lambda x: x.card)
if remedies[0].card == Cards.REMEDY_END_OF_LIMIT and us.mileage >= target_minus_50 and len(mileage) > 0:
mileage.sort(key=lambda x: x.card, reverse=True)
# print "remedy= EOL AND us.mileage="+str(us.mileage)+" mileage[0]="+str(mileage[0].card)
return mileage[0]
else:
return remedies[0]
#####################
# play a mileage:
# first check to see if you are 200 or less away, if any 2 card combonation in hand will finish race
# if not, play highest mileage
######################
if len(mileage) > 0:
mileage.sort(key=lambda x: x.card, reverse=True)
if len(mileage) > 2 and us.mileage > target_minus_200:
num = 0
for mi in mileage:
num += 1
mileageCopy = mileage[num:]
for mi2 in mileageCopy:
mivalue = Cards.cardToMileage(mi.card)
mi2value = Cards.cardToMileage(mi2.card)
total = us.mileage + mivalue + mi2value
if total == target:
return mi
return mileage[0]
##############################
# If have safety that solves a problem we have... use it
############################
remedyNeeded = us.needRemedy
if remedyNeeded > 0:
for safet in safeties:
if safet.card == Cards.remedyToSafety(remedyNeeded):
return safet
if us.speedLimit == True:
for safet in safeties:
if safet.card == Cards.SAFETY_RIGHT_OF_WAY:
return safet
####################
# ENTER EASY DISCARD PHASE
##############
# reuse these because this used to be in a seperate function
mileage = []
attacks = []
remedies = []
for play in discards:
type = Cards.cardToType(play.card)
if type == Cards.MILEAGE:
mileage.append(play)
elif type == Cards.REMEDY:
remedies.append(play)
elif type == Cards.ATTACK:
attacks.append(play)
##################
# Remedies we have safeties for in play, in hand or for all attacks have been played
################
if len(remedies) > 0:
for remedy in remedies:
for safet in safeties:
if Cards.remedyToSafety(remedy.card) == safet.card:
return remedy
if Cards.remedyToSafety(remedy.card) in ourSafeties:
return remedy
corrospondingAttack = Cards.remedyToAttack(remedy.card)
if corrospondingAttack == Cards.ATTACK_FLAT_TIRE:
if cardPlayedByType[Cards.ATTACK_FLAT_TIRE] == 3:
# print "discard spare due to all flats played"
return remedy
elif corrospondingAttack == Cards.ATTACK_OUT_OF_GAS:
if cardPlayedByType[Cards.ATTACK_OUT_OF_GAS] == 3:
# print "discard gas due to all out of gas played"
return remedy
elif corrospondingAttack == Cards.ATTACK_ACCIDENT:
if cardPlayedByType[Cards.ATTACK_ACCIDENT] == 3:
# print "discard repairs due to all accidents played"
return remedy
elif corrospondingAttack == Cards.ATTACK_SPEED_LIMIT:
if cardPlayedByType[Cards.ATTACK_SPEED_LIMIT] == 4:
# print "discard end of limit due to all spedlimits played"
return remedy
########################
# Attacks that opponents have safeties for (if not 3 or 6 person game)
######################
if len(attacks) > 0:
if opponentsCount == 1:
for attack in attacks:
if Cards.attackToSafety(attack.card) in opponentsSafeties:
return attack
###################
# mileage discard due to limit:
# if an opponent has right of way and all EOL played and we have speed limit discard mileage over 50
######################
mileage.sort(key=lambda x: x.card)
if len(mileage) > 0:
opponentRightOfWay = False
for safet in opponentsSafeties:
if safet == Cards.SAFETY_RIGHT_OF_WAY:
opponentRightOfWay = True
if cardPlayedByType[Cards.REMEDY_END_OF_LIMIT] == 6 and us.speedLimit and opponentRightOfWay:
for mi in mileage:
if mi.card > 1:
# print "discarding mi:" + Cards.cardToString(mi.card)
return mi
########################
# milage that we can no longer play due to being to close to the end
# or playing 2 2 hundreds
#########################
thp = us.twoHundredsPlayed
for mi in mileage:
if thp == 2 or us.mileage > target_minus_200:
if mi.card == Cards.MILEAGE_200:
return mi
if us.mileage > target_minus_100:
if mi.card == Cards.MILEAGE_100:
return mi
if us.mileage > target_minus_75:
if mi.card == Cards.MILEAGE_75:
return mi
if us.mileage > target_minus_50:
if mi.card == Cards.MILEAGE_50:
return mi
#########################
# Enter "Smart" discard phases
########################
########################
# Remedy smart discard: remedies we have dupes of (save 1 of each, except GO save 2)
###########################
remedyDupes = {}
for x in xrange(5, 10):
remedyDupes[x] = 0
if len(remedies) > 0:
for remedy in remedies:
remedyDupes[remedy.card] += 1
if remedyDupes[Cards.REMEDY_SPARE_TIRE] > 1:
for remedy in remedies:
if remedy.card == Cards.REMEDY_SPARE_TIRE:
return remedy
elif remedyDupes[Cards.REMEDY_GASOLINE] > 1:
for remedy in remedies:
if remedy.card == Cards.REMEDY_GASOLINE:
return remedy
elif remedyDupes[Cards.REMEDY_REPAIRS] > 1:
for remedy in remedies:
if remedy.card == Cards.REMEDY_REPAIRS:
return remedy
elif remedyDupes[Cards.REMEDY_GO] > 2:
for remedy in remedies:
if remedy.card == Cards.REMEDY_GO:
return remedy
elif remedyDupes[Cards.REMEDY_END_OF_LIMIT] > 1:
for remedy in remedies:
if remedy.card == Cards.REMEDY_END_OF_LIMIT:
return remedy
####################
# play a safety as no more easy discards are available
###################
# Play a safety rather than discard
if len(safeties) > 0:
return safeties[0]
####################
# attack smart discard: if have more then 2 attack cards discard stops/ speedlimits
####################
attackDupes = {}
for x in xrange(10, 16):
attackDupes[x] = 0
if len(attacks) > 0:
totalAttackCardsInHand = 0
for attack in attacks:
totalAttackCardsInHand += 1
attackDupes[attack.card] += 1
if totalAttackCardsInHand > 2:
for attack in attacks:
if attack.card == Cards.ATTACK_SPEED_LIMIT:
return attack
if attack.card == Cards.ATTACK_STOP:
return attack
#####################
# final "smart" discard: if more then one mileage in hand discard lowest mileage
# if exactly 1 mileage in hand first discard a non GO remedy(starting with EOL, then an attack (order EOL, stop, then others)
########################
if len(mileage) > 0:
if len(mileage) == 1:
remedies.sort(key=lambda x: x.card, reverse=True)
for remedy in remedies:
if remedy.card != Cards.REMEDY_GO:
return remedy
attacks.sort(key=lambda x: x.card, reverse=True)
for attack in attacks:
return attack
else:
return mileage[0]
##################
# discard whatever is left
##################
return discards[0] # toDiscard
def chanceTeamWillCompleteTrip(self, team):
if self.useMonteCarloSimulation():
self.debug("Using monte carlo method for team trip completion estimate.")
teamResults = [result[team.number + 1]
for result
in self.monteCarloMileageSimulation()]
completionCount = 0
for result in teamResults:
if result == 0:
completionCount += 1
ret = completionCount/len(teamResults)
self.debug("%r chance that %d will complete trip (%d/%d)",
ret, team.number, completionCount, len(teamResults))
else:
self.debug("Using card-counting method for team trip completion estimate.")
turnsLeft = self.deckExhaustionTurnsLeft()
playersOnTeam = len(team.playerNumbers)
teamMovesLeft = turnsLeft * playersOnTeam
if team.moving:
goCoeff = 1.0
else:
goCoeff = min(1.0, self.percentOfCardsRemaining(Cards.REMEDY_GO) * teamMovesLeft)
if team.needRemedy and team.needRemedy != Cards.REMEDY_GO:
remedyCoeff = min(1.0, self.percentOfCardsRemaining(
team.needRemedy,
Cards.remedyToSafety(team.needRemedy)) * teamMovesLeft)
else:
remedyCoeff = 1.0
if goCoeff == 0.0 or remedyCoeff == 0.0:
self.debug("Team %d can't complete trip due to remedy unavailable.", team.number)
return 0.0
needMileage = 1000 - team.mileage
validMileageCards = [card
for card in Cards.MILEAGE_CARDS
if Cards.cardToMileage(card) <= needMileage]
validMileageCards.sort(reverse=True)
validMileagePct = self.percentOfCardsRemaining(*validMileageCards)
unseenTotalMileage = sum([Cards.cardToMileage(card) * self.cardsUnseen[card]
for card in validMileageCards])
if unseenTotalMileage < needMileage:
self.debug("Not enough mileage left in deck for team %d to complete trip.",
team.number)
ret = 0.0
else:
ret = min(1.0,
(validMileagePct *
(unseenTotalMileage / needMileage) *
teamMovesLeft *
remedyCoeff *
goCoeff))
self.debug("Team %d has %r of trip completion, based on crude card count: %r * (%r / %r) * %r * %r * %r",
team.number,
ret,
validMileagePct,
unseenTotalMileage,
needMileage,
teamMovesLeft,
remedyCoeff,
goCoeff)
return ret
def goForExtension(self, gameState):
milesInHand = 0
opponentScore = 0
haveATwoHundred = False
dangerscore = 0
remainingCards = 0
expectedMiles = 0
totalPlayers = len(gameState.us.playerNumbers)
if totalPlayers == 3 or totalPlayers == 6:
numTeams = 3
else:
numTeams = 2
for i in self.cardsLeft:
remainingCards += self.cardsLeft[i]
for i in gameState.opponents:
totalPlayers += len(i.playerNumbers)
opponentScore = i.totalScore + i.mileage + 100 * len(i.safeties) + 300 * i.coupFourres
if opponentScore > 5000:
dangerscore = opponentScore
scoreIfWeStop = gameState.us.totalScore + 700 + 100 * len(gameState.us.safeties) + 300 * gameState.us.coupFourres + 400
if remainingCards == 0:
scoreIfWeStop += 300
if gameState.us.safeTrip == True:
scoreIfWeStop += 300
#I am being lazy and not including shutout - if we have a shutout it's kinda hard to mess up.
#Don't go for an extension if the win puts us over 5000 points and no opponent would have more
if scoreIfWeStop >= 5000 and scoreIfWeStop > dangerscore:
return False
#Can't lose the game on purpose!
if dangerscore > scoreIfWeStop:
return True
#If we have a safe trip let's not mess with it and just stop now. This makes later logic much easier for 200 cards.
if gameState.us.safeTrip == True:
return False
for h in gameState.hand:
if Cards.cardToType(h) == Cards.MILEAGE:
if h == Cards.MILEAGE_200 and gameState.us.twoHundredsPlayed == 1:
haveATwoHundred = True
milesInHand += Cards.cardToMileage(h)
else:
milesInHand += Cards.cardToMileage(h)
#We have enough to make it directly, so let's go for it.
if milesInHand >= 300:
return True
#If we don't have 300 miles in hand and there are no cards to draw then we definitely don't want to go for it.
if remainingCards == 0:
return False
#Plan: Assign equal probability for any mileage to be in any given players' unknown cards, remove those from the list.
#Assign equal weight to draw each card to our team (just use 2 vs 3 for simplicity)
#If we should draw the mileage we need more than X% of the time, we should go for it.
#Start with x = 57%, test different values though on 50k runs minimum - start with 0%, 57%, 100%, make sure we can see
#A difference over 50k runs, then adjust up or down from 57% based on results using a half the distance method.
#Note: 57% is 4/7 and should be GTO based on scoring considerations.
#Need to handle 200 mileage cards differently - we could only play 1, and we can only do that if we haven't played 2.
#Making these floats also because math.
unknown25s = self.cardsLeft[0] * 1.0
unknown50s = self.cardsLeft[1] * 1.0
unknown75s = self.cardsLeft[2] * 1.0
unknown100s = self.cardsLeft[3] * 1.0
#If we can play a 200 and they exist in the deck
if gameState.us.twoHundredsPlayed == 1 and self.cardsLeft[4] > 0:
unknown200s = self.cardsLeft[4] * 1.0
#Subtract expected number of 200s left in the deck after accounting for other players' hands
unknown200s -= unknown200s * (6.0 * (totalPlayers - 1) / remainingCards)
#Presume even chance for us to get one, but we can only use one.
if (unknown200s / totalPlayers) > 1.0:
expectedMiles += 200
#If there's less than an even chance for us to get one, expected miles goes up by the chance we'll get one times 200.
else:
expectedMiles += (unknown200s / totalPlayers) * 200
#We can use any number of 100s/75s/50s/25s so we can just do this:
unknown100s -= unknown100s * (6.0 * (totalPlayers - 1) / remainingCards)
expectedMiles += (unknown100s / totalPlayers) * 100
unknown75s -= unknown75s * (6.0 * (totalPlayers - 1) / remainingCards)
expectedMiles += (unknown75s / totalPlayers) * 75
unknown50s -= unknown50s * (6.0 * (totalPlayers - 1) / remainingCards)
expectedMiles += (unknown50s / totalPlayers) * 50
unknown25s -= unknown25s * (6.0 * (totalPlayers - 1) / remainingCards)
expectedMiles += (unknown25s / totalPlayers) * 25
#Amazingly this is the same for any game size.
if expectedMiles >= 1250:
return True
else:
return False
def cardValue(self, card, cardIdx, cards):
# cardIdx and cards let us disambiguate between two equal cards in our hand.
#
# All equally worthless:
# * Safeties in play or elsewhere in our hand
# * Remedies for safeties in play or elsewhere in our hand
# * 200mi if we've already maxed out
# * Mileage > distance remaining (assuming extension will be played)
# TODO: ...but what if an extension *won't* be played?
# * Safeties we have in our hand
# How many of this card do we already have in our hand?
numDuplicates = len([c for c in cards if c == card])
# Make this card less valuable if we have more if it on our hand.
# The obvious thing to do is a straight divisor:
# If we have 2 dupes, value each at 1/2; if 3, value each at 1/3.
# But that's too severe, having 2 200km is more valuable than having
# 1 200km! So, we take the "duplicate fraction", 1/numDuplicates,
# and we want to scale down *the inverse of that* to bring it
# nearer to 1 (to reduce the severity of the penalty), and then
# invert again to cancel out the inversion.
dupeFrac = 1/numDuplicates
dupePenaltyFactor = self.__class__.constants.dupe_penalty_factor
dupeCoefficient = 1-(1-dupeFrac)/dupePenaltyFactor
cardType = Cards.cardToType(card)
if cardType == Cards.MILEAGE:
mileage = Cards.cardToMileage(card)
mileageRemaining = 1000 - self.gameState.us.mileage
if mileage > mileageRemaining:
return 0.0 * dupeCoefficient
elif mileage == 200 and self.gameState.us.twoHundredsPlayed >= 2:
return 0.0 * dupeCoefficient
elif mileage == 25 and cards.index(card) == cardIdx:
# Try to hold onto a single 25km card in case we need it to finish.
return 1.0 * dupeCoefficient
else:
return self.mileageCardValue(card) * dupeCoefficient
elif cardType == Cards.REMEDY:
# Attacks that could necessitate this card.
if card == Cards.REMEDY_GO:
relevantAttacks = Cards.ATTACKS[:]
else:
relevantAttacks = [Cards.remedyToAttack(card)]
relevantAttacks = [c for c in relevantAttacks
if not Cards.attackToSafety(c) in self.gameState.us.safeties + cards]
# Factor in:
# 1. Value of taking a turn.
# 2. Likelihood of getting hit with a relevant attack.
# (Number of attacks remaining / number of teams in game.)
# NB: If no attacks are relevant, this will be 0.
# TODO: Also add likelihood of drawing another remedy (or the safety.)
turnPoints = self.expectedTurnPoints(self.gameState.us)
turnPointValue = self.valueOfPoints(turnPoints, self.gameState.us)
# Hold onto at least one of the card if we already know we need it!
if (cards.index(card) == cardIdx and
((not self.gameState.us.moving and card == Cards.REMEDY_GO) or
(self.gameState.us.speedLimit and card == Cards.REMEDY_END_OF_LIMIT) or
(self.gameState.us.needRemedy and card == self.gameState.us.needRemedy))):
self.debug("We need %s, attack on us odds == 1.0!", Cards.cardToString(card))
attackOnUsOdds = 1.0
else:
attackOdds = self.percentOfCardsRemaining(*relevantAttacks) * self.expectedTurnsLeft()
attackOnUsOdds = attackOdds / (len(self.gameState.opponents) + 1)
value = turnPointValue * attackOnUsOdds
self.debug("Card %s val: %r = %r * %r = val(%d) * pctLeft(%s)/#teams",
Cards.cardToString(card),
value,
turnPointValue, attackOnUsOdds,
turnPoints,
",".join([Cards.cardToString(c) for c in relevantAttacks]))
return value * dupeCoefficient
elif cardType == Cards.SAFETY:
# Never discard a safety!
# (Assuming default deck composition of 1 of each type...)
return 1.0 * dupeCoefficient
elif cardType == Cards.ATTACK:
safety = Cards.attackToSafety(card)
remedy = Cards.attackToRemedy(card)
valuesPerTarget = []
for target in self.gameState.opponents:
valuesPerTarget.append(
(1-self.chanceOpponentHasProtection(target, card)) *
(1-self.percentOfCardsRemaining(safety, remedy)) *
self.valueOfPoints(self.expectedTurnPoints(target), target))
return sum(valuesPerTarget)/len(valuesPerTarget) * dupeCoefficient
else:
raise Exception("Unknown card type for %r: %r" % (card, cardType))
def makeMove(self, gameState):
# If an opponent is threatening to win, play safeties
for opponent in gameState.opponents:
if (opponent.mileage > gameState.target - 100
or (opponent.mileage == gameState.target - 200
and opponent.twoHundredsPlayed < 2)):
self.priorities[Move(Move.PLAY, Cards.SAFETY_PUNCTURE_PROOF)] = 100
self.priorities[Move(Move.PLAY, Cards.SAFETY_DRIVING_ACE)] = 100
self.priorities[Move(Move.PLAY, Cards.SAFETY_RIGHT_OF_WAY)] = 100
self.priorities[Move(Move.PLAY, Cards.SAFETY_EXTRA_TANK)] = 100
break
# If we can't play any more 200s, they're automatic discards
if gameState.us.twoHundredsPlayed == 2:
self.priorities[Move(Move.DISCARD, Cards.MILEAGE_200)] = 0
# Adjust priorities based on our hand contents
priorities = deepcopy(self.priorities)
attackCounts = copy(self.attackCounts)
remedyCounts = {}
for card in gameState.hand:
type = Cards.cardToType(card)
if type == Cards.ATTACK:
ElliotAI.adjustScoresForAttack(card, attackCounts, priorities)
elif type == Cards.REMEDY:
try:
remedyCounts[card] += 1
except KeyError:
remedyCounts[card] = 1
for remedy, count in remedyCounts.items():
if remedy == Cards.REMEDY_GO:
if count > 3:
self.priorities[Move(Move.DISCARD, remedy)] = 0
elif count > 2:
self.priorities[Move(Move.DISCARD, remedy)] = -2
else:
if count > 2:
self.priorities[Move(Move.DISCARD, remedy)] = 0
elif count == 2:
self.priorities[Move(Move.DISCARD, remedy)] = -2
movePriorities = {}
# Shuffle possible plays so that we pick a random move when two
# are equally good
shuffle(gameState.validMoves)
for play in gameState.validMoves:
try:
priority = self.priorities[play]
movePriorities[priority] = play
except:
pass
sortedMoves = sorted(movePriorities.items(), None, None, True)
if gameState.debug:
for i in sortedMoves:
print str(i[0]) + ': ' + str(i[1])
myMove = sortedMoves[0][1]
# If this move would make us win, see if we can play a safety first
# instead
if (myMove.type == Move.PLAY
and Cards.cardToType(myMove.card) == Cards.MILEAGE
and Cards.cardToMileage(myMove.card) + gameState.us.mileage == gameState.target):
for move in gameState.validMoves:
if (move.type == Move.PLAY
and Cards.cardToType(move.card) == Cards.SAFETY):
return move
return myMove
def makeMove(self, state):
if (state.us.needRemedy == Cards.REMEDY_GO):
self.needRoll = self.needRoll + 1
else:
self.needRoll = 0
# Miles we need to win
self.milesLeft = state.target - state.us.mileage
discards = []
mileage = []
attacks = []
remedies = []
safeties = []
#print '--- AI cards ---'
#print Cards.cardsToStrings(state.hand)
#print '------'
for play in state.validMoves:
if (play.type == Move.DISCARD):
discards.append(play)
else:
type = Cards.cardToType(play.card)
if type == Cards.MILEAGE:
mileage.append(play)
elif type == Cards.REMEDY:
remedies.append(play)
elif type == Cards.ATTACK:
attacks.append(play)
elif type == Cards.SAFETY:
safeties.append(play)
# If there's only one card left, play a safety to draw it
if ((state.cardsLeft == 1) & (len(safeties)>0)):
return safeties[0]
# Could this be the last round?
lastRound = False
iCanWin = False
if (((self.milesLeft == 25) & (Cards.MILEAGE_25 in state.hand)) |
((self.milesLeft == 50) & (Cards.MILEAGE_50 in state.hand)) |
((self.milesLeft == 75) & (Cards.MILEAGE_75 in state.hand)) |
((self.milesLeft == 100) & (Cards.MILEAGE_100 in state.hand)) |
((self.milesLeft == 200) & (Cards.MILEAGE_200 in state.hand))):
lastRound = True
iCanWin = True
for team in state.opponents:
milesOther = state.target - team.mileage
if ((milesOther == 25) | (milesOther == 50) | (milesOther == 75) |
(milesOther == 100) | (milesOther == 200)):
lastRound = True
# If anyone can win and I have a safety, play it.
if (lastRound) & (len(safeties) > 0):
return safeties[0]
# Play the best red card if possible, unless I can win
if ((not(iCanWin)) & (len(attacks) > 0)):
best = self.GetBestAttack(state, attacks)
return best
# Play a remedy, EoL as lowest priority
for remedy in remedies:
if remedy.card != Cards.REMEDY_END_OF_LIMIT:
return remedy
# Consider EoL now, unless near the end of the game
for remedy in remedies:
# Play EOL unless near the end of the game
if (self.milesLeft > 50):
return remedy
# If we can move, play the highest mileage; this may win
if len(mileage) > 0:
best = self.GetBestMove(state, mileage)
return best
# Consider playing a safety
if len(safeties) > 0:
safety = self.ConsiderPlaySafety(state, safeties)
if (not safety is None):
return safeties[0]
# Discard something
disc = self.GetDiscard(state, discards)
if (not (disc is None)):
return disc
# Hand is all safeties and attacks. Play safety
if len(safeties) > 0:
return safeties[0]
# Discard random
return discards[0]
debug = False
readTranscript = None
writeTranscript = None
#readTranscript = "/tmp/millegame"
#writeTranscript = "/tmp/millegame"
# End configurable parameters
if readTranscript:
reader = TranscriptReader(
readTranscript, lambda *args: stdout.write("Transcript game start!\n"),
lambda *args: stdout.write("Transcript hand start!\n"),
lambda game, player, drawnCard, move: stdout.write(
"Transcript move: %d drew %s %s\n" %
(player, Cards.cardToString(drawnCard)
if drawnCard else "nothing", move)),
lambda *args: stdout.write("Transcript hand end!\n"),
lambda game: stdout.write("Transcript game end! Scores: %s\n" % (
" ".join(map(lambda team: "%d" % team.totalScore, game.teams)))))
reader.read(debug=True)
exit(0)
players = []
competitor = 0
for i in range(numPlayers):
players.append(competitors[competitor]())
competitor += 1
if competitor >= len(competitors):
competitor = 0
def moveValue(self, move, discardIdx, discardCards):
# Value of a move is the amount it moves us closer to winning,
# or (amount it harms an opponent / number of opponents), or
# (for discard) expected net value of replacement card.
card = move.card
cardType = Cards.cardToType(card)
if move.type == Move.DISCARD:
cardValue = self.cardValue(card, discardIdx, discardCards)
# TODO: Factor in expected value of replacement card.
return (1 - cardValue) * self.__class__.constants.discard_move_value_penalty
# TODO: Factor in "safe trip" cost of playing 200km,
# "shutout" cost of failing to play an attack,
# and "delayed action" cost of failing to discard.
card = move.card
cardType = Cards.cardToType(card)
if cardType == Cards.MILEAGE:
# TODO: Avoid playing a 75 unless we have a 25,
# and avoid playing a 25 unless we need it.
value = self.mileageCardValue(card)
mileage = Cards.cardToMileage(card)
if mileage == 200 and self.gameState.us.twoHundredsPlayed == 0:
safeTripFactor = self.__class__.constants.safe_trip_factor
else:
safeTripFactor = 1.0
if mileage == self.gameState.target - self.gameState.us.mileage:
return 1.0 * safeTripFactor
elif mileage == 25 and len([card for card in discardCards if card == card]) < 2:
# Don't play our last 25km (unless we need to).
return 0.0
else:
return value * safeTripFactor
elif cardType == Cards.REMEDY:
if card == Cards.REMEDY_END_OF_LIMIT and not self.gameState.us.speedLimit:
return 0.0
# If we need a remedy to move, and we have that remedy, it's a rather strong play!
return 1.0
elif cardType == Cards.SAFETY:
return self.__class__.constants.safety_horde_factor
elif cardType == Cards.ATTACK:
target = self.gameState.teamNumberToTeam(move.target)
if card == Cards.ATTACK_SPEED_LIMIT:
# If they're already under a speed limit, don't bother with another.
if target.speedLimit:
return 0.0
else:
# If they already need a remedy, don't bother with another -- unless they need
# "go", in which case the attack is still worthwhile because now they need
# the specific attack's remedy *in addition to* go.
if target.needRemedy and target.needRemedy != Cards.REMEDY_GO:
return 0.0
# TODO: Balance these, and also factor in chance opponent can get protection in the future.
# And also factor in trip distance remaining for speed limit.
if card == Cards.ATTACK_STOP:
attackQualityModifier = self.__class__.constants.attack_quality_mod_stop
elif card == Cards.ATTACK_SPEED_LIMIT:
attackQualityModifier = self.__class__.constants.attack_quality_mod_limit
else:
attackQualityModifier = 1.0
# TODO: Add an "aggressiveness" constant?
return ((1 - self.chanceOpponentHasProtection(target, card)) *
self.chanceTeamWillWin(target) *
self.chanceTeamWillCompleteTrip(target) *
attackQualityModifier *
self.__class__.constants.aggressiveness)
# than playing them outright, so that we can save safeties for coup fourre.
if len(safeties) > 0:
return safeties[0]
def moveValue(self, move, discardIdx, discardCards):
# Value of a move is the amount it moves us closer to winning,
# or (amount it harms an opponent / number of opponents), or
# (for discard) expected net value of replacement card.
card = move.card
cardType = Cards.cardToType(card)
if move.type == Move.DISCARD:
cardValue = self.cardValue(card, discardIdx, discardCards)
# TODO: Factor in expected value of replacement card.
return (1 - cardValue
) * self.__class__.constants.discard_move_value_penalty
# TODO: Factor in "safe trip" cost of playing 200km,
# "shutout" cost of failing to play an attack,
# and "delayed action" cost of failing to discard.
card = move.card
cardType = Cards.cardToType(card)
if cardType == Cards.MILEAGE:
# TODO: Avoid playing a 75 unless we have a 25,
# and avoid playing a 25 unless we need it.
value = self.mileageCardValue(card)
mileage = Cards.cardToMileage(card)
if mileage == 200 and self.gameState.us.twoHundredsPlayed == 0:
safeTripFactor = self.__class__.constants.safe_trip_factor
else:
safeTripFactor = 1.0
if mileage == self.gameState.target - self.gameState.us.mileage:
return 1.0 * safeTripFactor
elif mileage == 25 and len(
[card for card in discardCards if card == card]) < 2:
# Don't play our last 25km (unless we need to).
return 0.0
else:
return value * safeTripFactor
elif cardType == Cards.REMEDY:
if card == Cards.REMEDY_END_OF_LIMIT and not self.gameState.us.speedLimit:
return 0.0
# If we need a remedy to move, and we have that remedy, it's a rather strong play!
return 1.0
elif cardType == Cards.SAFETY:
return self.__class__.constants.safety_horde_factor
elif cardType == Cards.ATTACK:
target = self.gameState.teamNumberToTeam(move.target)
if card == Cards.ATTACK_SPEED_LIMIT:
# If they're already under a speed limit, don't bother with another.
if target.speedLimit:
return 0.0
else:
# If they already need a remedy, don't bother with another -- unless they need
# "go", in which case the attack is still worthwhile because now they need
# the specific attack's remedy *in addition to* go.
if target.needRemedy and target.needRemedy != Cards.REMEDY_GO:
return 0.0
# TODO: Balance these, and also factor in chance opponent can get protection in the future.
# And also factor in trip distance remaining for speed limit.
if card == Cards.ATTACK_STOP:
attackQualityModifier = self.__class__.constants.attack_quality_mod_stop
elif card == Cards.ATTACK_SPEED_LIMIT:
attackQualityModifier = self.__class__.constants.attack_quality_mod_limit
else:
attackQualityModifier = 1.0
# TODO: Add an "aggressiveness" constant?
return ((1 - self.chanceOpponentHasProtection(target, card)) *
self.chanceTeamWillWin(target) *
self.chanceTeamWillCompleteTrip(target) *
attackQualityModifier *
self.__class__.constants.aggressiveness)
# than playing them outright, so that we can save safeties for coup fourre.
if len(safeties) > 0:
return safeties[0]
def cardSeen(self, card):
self.cardsUnseen[card] -= 1
self.numCardsUnseen -= 1
self.debug("After seeing %s, unseen cards:\n%s",
Cards.cardToString(card),
self.unseenCardsToString)
def cardValue(self, card, cardIdx, cards):
# cardIdx and cards let us disambiguate between two equal cards in our hand.
#
# All equally worthless:
# * Safeties in play or elsewhere in our hand
# * Remedies for safeties in play or elsewhere in our hand
# * 200mi if we've already maxed out
# * Mileage > distance remaining (assuming extension will be played)
# TODO: ...but what if an extension *won't* be played?
# * Safeties we have in our hand
# How many of this card do we already have in our hand?
numDuplicates = len([c for c in cards if c == card])
# Make this card less valuable if we have more if it on our hand.
# The obvious thing to do is a straight divisor:
# If we have 2 dupes, value each at 1/2; if 3, value each at 1/3.
# But that's too severe, having 2 200km is more valuable than having
# 1 200km! So, we take the "duplicate fraction", 1/numDuplicates,
# and we want to scale down *the inverse of that* to bring it
# nearer to 1 (to reduce the severity of the penalty), and then
# invert again to cancel out the inversion.
dupeFrac = 1 / numDuplicates
dupePenaltyFactor = self.__class__.constants.dupe_penalty_factor
dupeCoefficient = 1 - (1 - dupeFrac) / dupePenaltyFactor
cardType = Cards.cardToType(card)
if cardType == Cards.MILEAGE:
mileage = Cards.cardToMileage(card)
mileageRemaining = 1000 - self.gameState.us.mileage
if mileage > mileageRemaining:
return 0.0 * dupeCoefficient
elif mileage == 200 and self.gameState.us.twoHundredsPlayed >= 2:
return 0.0 * dupeCoefficient
elif mileage == 25 and cards.index(card) == cardIdx:
# Try to hold onto a single 25km card in case we need it to finish.
return 1.0 * dupeCoefficient
else:
return self.mileageCardValue(card) * dupeCoefficient
elif cardType == Cards.REMEDY:
# Attacks that could necessitate this card.
if card == Cards.REMEDY_GO:
relevantAttacks = Cards.ATTACKS[:]
else:
relevantAttacks = [Cards.remedyToAttack(card)]
relevantAttacks = [
c for c in relevantAttacks
if not Cards.attackToSafety(c) in self.gameState.us.safeties +
cards
]
# Factor in:
# 1. Value of taking a turn.
# 2. Likelihood of getting hit with a relevant attack.
# (Number of attacks remaining / number of teams in game.)
# NB: If no attacks are relevant, this will be 0.
# TODO: Also add likelihood of drawing another remedy (or the safety.)
turnPoints = self.expectedTurnPoints(self.gameState.us)
turnPointValue = self.valueOfPoints(turnPoints, self.gameState.us)
# Hold onto at least one of the card if we already know we need it!
if (cards.index(card) == cardIdx and
((not self.gameState.us.moving and card == Cards.REMEDY_GO) or
(self.gameState.us.speedLimit
and card == Cards.REMEDY_END_OF_LIMIT) or
(self.gameState.us.needRemedy
and card == self.gameState.us.needRemedy))):
self.debug("We need %s, attack on us odds == 1.0!",
Cards.cardToString(card))
attackOnUsOdds = 1.0
else:
attackOdds = self.percentOfCardsRemaining(
*relevantAttacks) * self.expectedTurnsLeft()
attackOnUsOdds = attackOdds / (len(self.gameState.opponents) +
1)
value = turnPointValue * attackOnUsOdds
self.debug(
"Card %s val: %r = %r * %r = val(%d) * pctLeft(%s)/#teams",
Cards.cardToString(card), value, turnPointValue,
attackOnUsOdds, turnPoints,
",".join([Cards.cardToString(c) for c in relevantAttacks]))
return value * dupeCoefficient
elif cardType == Cards.SAFETY:
# Never discard a safety!
# (Assuming default deck composition of 1 of each type...)
return 1.0 * dupeCoefficient
elif cardType == Cards.ATTACK:
safety = Cards.attackToSafety(card)
remedy = Cards.attackToRemedy(card)
valuesPerTarget = []
for target in self.gameState.opponents:
valuesPerTarget.append(
(1 - self.chanceOpponentHasProtection(target, card)) *
(1 - self.percentOfCardsRemaining(safety, remedy)) *
self.valueOfPoints(self.expectedTurnPoints(target),
target))
return sum(valuesPerTarget) / len(
valuesPerTarget) * dupeCoefficient
else:
raise Exception("Unknown card type for %r: %r" % (card, cardType))
def playHand(self):
self.resetHandState()
# Fresh deck
self.deck = Deck()
# Deal hands
for player in self.players:
player.hand = self.draw(player, 6)
if self.transcriptWriter:
self.transcriptWriter.writeHandStart()
currentPlayerNumber = 0
# Normally this is currentPlayerNumber + 1, but in the case of a coup
# fourre it gets changed to give the player another turn
nextPlayerNumber = 1
while True:
currentPlayer = self.players[currentPlayerNumber]
currentTeam = self.teams[currentPlayer.teamNumber]
drewCardThisMove = None
try:
drewCardThisMove = self.draw(currentPlayer)
currentPlayer.hand.append(drewCardThisMove)
except IndexError:
self.delayedAction = True
if self.debug:
print 'Hand contents:',
print Cards.cardsToStrings(currentPlayer.hand)
if len(currentPlayer.hand) == 0:
totalHandSize = 0
for player in self.players:
totalHandSize += len(player.hand)
if totalHandSize == 0:
# Everyone's out of cards - game over
break
else:
# Pass and let someone else go
currentPlayerNumber = nextPlayerNumber
nextPlayerNumber += 1
if nextPlayerNumber >= len(self.players):
nextPlayerNumber = 0
continue
state = self.makeState(currentPlayer)
state.findValidPlays()
# Store a copy of this locally, just in case the AI changes it
validMoves = state.validMoves
move = currentPlayer.ai.makeMove(state)
# Replace invalid moves with a random discard
if move not in validMoves:
print 'Warning: invalid play'
move = Move(Move.DISCARD, currentPlayer.hand[0])
if self.debug:
print currentPlayer,
print move
sanitizedPlayer = copy(currentPlayer)
sanitizedPlayer.hand = []
sanitizedPlayer.ai = None
self.notifyPlayers(sanitizedPlayer, move)
oldTarget = self.target
self.handleMove(currentPlayer, currentTeam, move)
if self.transcriptWriter:
extensionWasDeclared = self.target > oldTarget
self.transcriptWriter.writeMove(currentPlayer.number,
drewCardThisMove, move,
extensionWasDeclared)
if self.tripComplete:
break
# Remove the card from the player's hand
del currentPlayer.hand[currentPlayer.hand.index(move.card)]
if self.debug:
for team in self.teams:
print team
print ''
# Go on to the next player. If a safety got played, nextPlayerNumber
# got changed and will cause us to break out of the normal rotation
currentPlayerNumber = nextPlayerNumber
nextPlayerNumber += 1
if nextPlayerNumber >= len(self.players):
nextPlayerNumber = 0
if self.debug:
print 'Hand complete'
if self.transcriptWriter:
self.transcriptWriter.writeHandEnd()
self.computeHandScores()
def monteCarloMileageSimulation(self):
# Returns a list of many (turns elapsed, team 0 trip mileage remaining, team 1 trip remaining, ...)
# TODO: Assumes extension.
results = []
for _ in xrange(self.perfConstants.monteCarloIterations):
needMileage = dict(
(team.number, team.mileage) for team in self.gameState.teams)
moving = dict(
(team.number, team.moving) for team in self.gameState.teams)
needRemedy = dict((team.number, team.needRemedy)
for team in self.gameState.teams)
twoHundredsPlayed = dict((team.number, team.twoHundredsPlayed)
for team in self.gameState.teams)
tripCompletedBy = None
deck = collections.deque()
for (card, qty) in self.cardsUnseen.iteritems():
for _ in xrange(qty):
deck.append(card)
random.shuffle(deck)
turnsElapsed = 1
while deck:
for currentTurnTeam in self.gameState.teams:
if not deck:
break
teamNo = currentTurnTeam.number
teamNeedMileage = needMileage[teamNo]
teamNeedRemedy = needRemedy[teamNo]
teamMoving = moving[teamNo]
teamTwoHundredsPlayed = twoHundredsPlayed[teamNo]
if teamNeedRemedy:
teamNeedSafety = Cards.remedyToSafety(teamNeedRemedy)
else:
teamNeedSafety = None
for playerNum in currentTurnTeam.playerNumbers:
if tripCompletedBy == playerNum:
deck = None
break
if not deck:
break
card = deck.pop()
cardType = Cards.cardToType(card)
if Cards.cardToType(card) != Cards.MILEAGE:
if card == Cards.REMEDY_GO:
teamMoving = True
if teamNeedRemedy == Cards.REMEDY_GO:
teamNeedRemedy = None
elif teamNeedRemedy:
if ((cardType == Cards.SAFETY
and teamNeedSafety == card)
or (cardType == Cards.REMEDY
and needRemedy[teamNo] == card)):
teamNeedRemedy = None
else:
mileage = Cards.cardToMileage(card)
if mileage == 200 and teamTwoHundredsPlayed >= 2:
continue
elif mileage > teamNeedMileage:
continue
elif mileage == 200:
teamTwoHundredsPlayed += 1
teamNeedMileage -= mileage
if teamNeedMileage == 0 and teamMoving and not teamNeedRemedy:
tripCompletedBy = playerNum
break
needMileage[teamNo] = teamNeedMileage
needRemedy[teamNo] = teamNeedRemedy
moving[teamNo] = teamMoving
twoHundredsPlayed[teamNo] = teamTwoHundredsPlayed
turnsElapsed += 1
result = [turnsElapsed]
for i in xrange(len(self.gameState.opponents) + 1):
if i == self.gameState.us.number:
team = self.gameState.us
else:
team = self.gameState.teamNumberToTeam(i)
if needRemedy[i] or not moving[i]:
mileage = 1000 - team.mileage
else:
mileage = needMileage[i]
result.append(mileage)
results.append(result)
return results
def makeMove(self, gameState):
discards = []
mileage = []
attacks = []
remedies = []
safeties = []
cardsPlayed = []
us = gameState.us
cardsPlayed = cardsPlayed + us.mileagePile
cardsPlayed = cardsPlayed + us.speedPile
cardsPlayed = cardsPlayed + us.battlePile
cardsPlayed = cardsPlayed + us.safeties
MyMileage = us.mileage
MyRunningTotal = MyMileage + us.totalScore + len(
us.safeties) * 100 + us.coupFourres * 300
opponents = gameState.opponents
ourSafeties = us.safeties
playedSafeties = ourSafeties
opponentsCount = 0
opponentsSafeties = []
for opponent in opponents:
opponentsCount = opponentsCount + 1
opponentsSafeties = opponentsSafeties + opponent.safeties
cardsPlayed = cardsPlayed + opponent.mileagePile
cardsPlayed = cardsPlayed + opponent.speedPile
cardsPlayed = cardsPlayed + opponent.battlePile
cardsPlayed = cardsPlayed + opponent.safeties
playedSafeties = playedSafeties + opponentsSafeties
cardsPlayed = cardsPlayed + gameState.discardPile
cardPlayedByType = {}
for x in xrange(0, 19):
cardPlayedByType[x] = 0
for card in cardsPlayed:
cardPlayedByType[card] += 1
target = gameState.target
target_minus_25 = target - 25
target_minus_50 = target - 50
target_minus_75 = target - 75
target_minus_100 = target - 100
target_minus_200 = target - 200
for play in gameState.validMoves:
if (play.type == Move.DISCARD):
discards.append(play)
else:
type = Cards.cardToType(play.card)
if type == Cards.MILEAGE:
mileage.append(play)
elif type == Cards.REMEDY:
remedies.append(play)
elif type == Cards.ATTACK:
attacks.append(play)
elif type == Cards.SAFETY:
safeties.append(play)
#######################
# IF CAN GO FOR WIN DO IT!
#######################
if len(mileage) > 0:
if us.mileage == target_minus_25:
for mi in mileage:
if mi.card == Cards.MILEAGE_25:
return mi
elif us.mileage == target_minus_50:
for mi in mileage:
if mi.card == Cards.MILEAGE_50:
return mi
elif us.mileage == target_minus_75:
for mi in mileage:
if mi.card == Cards.MILEAGE_75:
return mi
elif us.mileage == target_minus_100:
for mi in mileage:
if mi.card == Cards.MILEAGE_100:
return mi
elif us.mileage == target_minus_200:
for mi in mileage:
if mi.card == Cards.MILEAGE_200:
return mi
########################
# play a red card based on weighted factors
# but check to see if the corrosponding safety is known in play or in your hand
# if not known dont play if less then X cards in deck
#####################################
numberOfCardsLeftToNotAttack = 10
if len(attacks) > 0:
highestWeight = -10
weightedAttacks = {}
for attack in attacks:
opponent = gameState.teamNumberToTeam(attack.target)
opponentMileage = opponent.mileage
opponentRunningTotal = opponentMileage + opponent.totalScore + len(
opponent.safeties) * 100 + opponent.coupFourres * 300
weight = 0
if opponentRunningTotal >= 3000:
# print "opponentRunningTotal >= 3500"
weight += 1
if opponentRunningTotal >= 3500:
# print "opponentRunningTotal >= 3500"
weight += 1
if opponentRunningTotal >= 4000:
# print "opponentRunningTotal >= 4000"
weight += 1
if opponentRunningTotal >= 4500:
# print "opponentRunningTotal >= 4500"
weight += 2
if opponentRunningTotal >= MyRunningTotal + 1000:
# print "opponentRunningTotal >= myRunningTotal+2000"
weight += 1
if opponentRunningTotal >= MyRunningTotal + 2000:
# print "opponentRunningTotal >= myRunningTotal+2000"
weight += 3
if opponentMileage >= MyMileage + 400:
# print "opponentMileage >= my mileage + 400"
weight += 1
if opponentMileage >= target_minus_200:
if opponentMileage >= target_minus_50 and attack.card == Cards.ATTACK_SPEED_LIMIT:
weight = -10
# print "opponet withi 50 of end and attack=limit"
else:
weight += 1
# print "opponent within 200 of end"
if attack.card != Cards.ATTACK_SPEED_LIMIT and attack.card != Cards.ATTACK_STOP:
weight += 0.6
if attack.card == Cards.ATTACK_SPEED_LIMIT:
weight += 0
if attack.card == Cards.ATTACK_STOP:
weight += 0.01
# print "attack card not limit or stop"
corrospondingSafetyisNotKnown = True
corrospondingSafety = Cards.attackToSafety(attack.card)
if cardPlayedByType[corrospondingSafety] == 1:
corrospondingSafetyisNotKnown = False
for safet in safeties:
if Cards.attackToSafety(attack.card) == safet.card:
corrospondingSafetyisNotKnown = False
if corrospondingSafetyisNotKnown:
if gameState.cardsLeft < numberOfCardsLeftToNotAttack:
weight = -10 #nop
# print "safety NOT known and gameState.cardsLeft < numberOfCardsLeftToNotAttack"
else:
# print "safety not known"
weight -= 0.5
#print "proceed with attack!!!!!!!!!!"
else:
# print "safety KNOWN!"
weight += 0.5
#print "weight="+str(weight)
if weight > highestWeight:
highestWeight = weight
weightedAttacks[weight] = attack
if highestWeight > -1:
#print "=============highest Weight="+str(highestWeight)
#print weightedAttacks[highestWeight]
return weightedAttacks[highestWeight]
##################3
# play a remedy
##################
if len(remedies) > 0:
remedies.sort(key=lambda x: x.card)
if remedies[
0].card == Cards.REMEDY_END_OF_LIMIT and us.mileage >= target_minus_50 and len(
mileage) > 0:
mileage.sort(key=lambda x: x.card, reverse=True)
#print "remedy= EOL AND us.mileage="+str(us.mileage)+" mileage[0]="+str(mileage[0].card)
return mileage[0]
else:
return remedies[0]
#####################
# play a mileage:
# first check to see if you are 200 or less away, if any 2 card combonation in hand will finish race
# if not, play highest mileage
######################
if len(mileage) > 0:
mileage.sort(key=lambda x: x.card, reverse=True)
if len(mileage) > 2 and us.mileage > target_minus_200:
num = 0
for mi in mileage:
num += 1
mileageCopy = mileage[num:]
for mi2 in mileageCopy:
mivalue = Cards.cardToMileage(mi.card)
mi2value = Cards.cardToMileage(mi2.card)
total = us.mileage + mivalue + mi2value
if total == target:
return mi
return mileage[0]
##############################
# If have safety that solves a problem we have... use it
############################
remedyNeeded = us.needRemedy
if remedyNeeded > 0:
for safet in safeties:
if safet.card == Cards.remedyToSafety(remedyNeeded):
return safet
if us.speedLimit == True:
for safet in safeties:
if safet.card == Cards.SAFETY_RIGHT_OF_WAY:
return safet
####################
# ENTER EASY DISCARD PHASE
##############
# reuse these because this used to be in a seperate function
mileage = []
attacks = []
remedies = []
for play in discards:
type = Cards.cardToType(play.card)
if type == Cards.MILEAGE:
mileage.append(play)
elif type == Cards.REMEDY:
remedies.append(play)
elif type == Cards.ATTACK:
attacks.append(play)
##################
# Remedies we have safeties for in play, in hand or for all attacks have been played
################
if len(remedies) > 0:
for remedy in remedies:
for safet in safeties:
if Cards.remedyToSafety(remedy.card) == safet.card:
return remedy
if Cards.remedyToSafety(remedy.card) in ourSafeties:
return remedy
corrospondingAttack = Cards.remedyToAttack(remedy.card)
if corrospondingAttack == Cards.ATTACK_FLAT_TIRE:
if cardPlayedByType[Cards.ATTACK_FLAT_TIRE] == 3:
# print "discard spare due to all flats played"
return remedy
elif corrospondingAttack == Cards.ATTACK_OUT_OF_GAS:
if cardPlayedByType[Cards.ATTACK_OUT_OF_GAS] == 3:
# print "discard gas due to all out of gas played"
return remedy
elif corrospondingAttack == Cards.ATTACK_ACCIDENT:
if cardPlayedByType[Cards.ATTACK_ACCIDENT] == 3:
# print "discard repairs due to all accidents played"
return remedy
elif corrospondingAttack == Cards.ATTACK_SPEED_LIMIT:
if cardPlayedByType[Cards.ATTACK_SPEED_LIMIT] == 4:
# print "discard end of limit due to all spedlimits played"
return remedy
########################
# Attacks that opponents have safeties for (if not 3 or 6 person game)
######################
if len(attacks) > 0:
if opponentsCount == 1:
for attack in attacks:
if Cards.attackToSafety(attack.card) in opponentsSafeties:
return attack
###################
# mileage discard due to limit:
# if an opponent has right of way and all EOL played and we have speed limit discard mileage over 50
######################
mileage.sort(key=lambda x: x.card)
if len(mileage) > 0:
opponentRightOfWay = False
for safet in opponentsSafeties:
if safet == Cards.SAFETY_RIGHT_OF_WAY:
opponentRightOfWay = True
if cardPlayedByType[
Cards.
REMEDY_END_OF_LIMIT] == 6 and us.speedLimit and opponentRightOfWay:
for mi in mileage:
if mi.card > 1:
#print "discarding mi:" + Cards.cardToString(mi.card)
return mi
########################
# milage that we can no longer play due to being to close to the end
# or playing 2 2 hundreds
#########################
thp = us.twoHundredsPlayed
for mi in mileage:
if thp == 2 or us.mileage > target_minus_200:
if mi.card == Cards.MILEAGE_200:
return mi
if us.mileage > target_minus_100:
if mi.card == Cards.MILEAGE_100:
return mi
if us.mileage > target_minus_75:
if mi.card == Cards.MILEAGE_75:
return mi
if us.mileage > target_minus_50:
if mi.card == Cards.MILEAGE_50:
return mi
#########################
# Enter "Smart" discard phases
########################
########################
# Remedy smart discard: remedies we have dupes of (save 1 of each, except GO save 2)
###########################
remedyDupes = {}
for x in xrange(5, 10):
remedyDupes[x] = 0
if len(remedies) > 0:
for remedy in remedies:
remedyDupes[remedy.card] += 1
if remedyDupes[Cards.REMEDY_SPARE_TIRE] > 1:
for remedy in remedies:
if remedy.card == Cards.REMEDY_SPARE_TIRE:
return remedy
elif remedyDupes[Cards.REMEDY_GASOLINE] > 1:
for remedy in remedies:
if remedy.card == Cards.REMEDY_GASOLINE:
return remedy
elif remedyDupes[Cards.REMEDY_REPAIRS] > 1:
for remedy in remedies:
if remedy.card == Cards.REMEDY_REPAIRS:
return remedy
elif remedyDupes[Cards.REMEDY_GO] > 2:
for remedy in remedies:
if remedy.card == Cards.REMEDY_GO:
return remedy
elif remedyDupes[Cards.REMEDY_END_OF_LIMIT] > 1:
for remedy in remedies:
if remedy.card == Cards.REMEDY_END_OF_LIMIT:
return remedy
####################
# play a safety as no more easy discards are available
###################
# Play a safety rather than discard
if len(safeties) > 0:
return safeties[0]
####################
# attack smart discard: if have more then 2 attack cards discard stops/ speedlimits
####################
attackDupes = {}
for x in xrange(10, 16):
attackDupes[x] = 0
if len(attacks) > 0:
totalAttackCardsInHand = 0
for attack in attacks:
totalAttackCardsInHand += 1
attackDupes[attack.card] += 1
if totalAttackCardsInHand > 2:
for attack in attacks:
if attack.card == Cards.ATTACK_SPEED_LIMIT:
return attack
if attack.card == Cards.ATTACK_STOP:
return attack
#####################
# final "smart" discard: if more then one mileage in hand discard lowest mileage
# if exactly 1 mileage in hand first discard a non GO remedy(starting with EOL, then an attack (order EOL, stop, then others)
########################
if len(mileage) > 0:
if len(mileage) == 1:
remedies.sort(key=lambda x: x.card, reverse=True)
for remedy in remedies:
if remedy.card != Cards.REMEDY_GO:
return remedy
attacks.sort(key=lambda x: x.card, reverse=True)
for attack in attacks:
return attack
else:
return mileage[0]
##################
# discard whatever is left
##################
return discards[0] #toDiscard
