def makeMove(self):
self.states.append(self.playerIdx)
legal = self.legal_plays(self.board) #all legal moves
# states = [( (self.states, legal[0][i], legal[1][i]) ) for i in xrange(len(legal[0]))]
states = [((legal[0][i], legal[1][i]), tuple(self.states)) for i in xrange(len(legal[0]))]
print "self.states", self.states
# print states
begin, games = datetime.datetime.utcnow(), 0
'''Start MonteCarlo method'''
while datetime.datetime.utcnow() - begin < self.max_time:
self.random_game()
games += 1
print "#random_game", games, datetime.datetime.utcnow() - begin
print self.wins[self.playerIdx].get(tuple(self.states))
move = max(
(self.wins[self.playerIdx].get(S,0) / self.plays[self.playerIdx].get(S,1), p)
for p, S in states)[1]
# move = max(
# (self.wins[self.playerIdx].get(S,0) / self.plays[self.playerIdx].get(S,1), (x,y))
# for (S,x,y) in states)[1]
# move = self.make_random_move()
self.updatePoints(self.playerIdx, self.myMoves, move[0], move[1])
genVoronoi.generate_voronoi_diagram(2, self.numMoves, self.points, self.colors, None, 0, 0)
print 'Current score: {0}'.format(self.get_score())
return move
def probe_score(self, moveNum, player, x, y):
self.points[player][moveNum][0] = x
self.points[player][moveNum][1] = y
genVoronoi.generate_voronoi_diagram(2, self.numMoves, self.points, self.colors, None, 0, 0)
scores = self.get_score()
# undo
self.points[player][moveNum][0] = -1
self.points[player][moveNum][1] = -1
genVoronoi.generate_voronoi_diagram(2, self.numMoves, self.points, self.colors, None, 0, 0)
return scores
def probe_score(self, x, y):
self.points[self.myIdx][self.myCnt][0] = x
self.points[self.myIdx][self.myCnt][1] = y
genVoronoi.generate_voronoi_diagram(2, self.numMoves, self.points, self.colors, None, 0, 0)
scores = self.get_score()
#undo
self.points[self.myIdx][self.myCnt][0] = -1
self.points[self.myIdx][self.myCnt][1] = -1
genVoronoi.generate_voronoi_diagram(2, self.numMoves, self.points, self.colors, None, 0, 0)
return scores[0]
def makeMove(self):
"""
move = self.make_random_move()
"""
simulation = MonteCarlo(self, myMoves=self.myMoves, oppMoves=self.oppMoves, numMoves=self.numMoves)
print "{0} using greedy".format(self.name)
move = simulation.greedy_play()
self.updatePoints(self.playerIdx, self.myMoves, move[0], move[1])
genVoronoi.generate_voronoi_diagram(2, self.numMoves, self.points, self.colors, None, 0, 0)
print "Current score: {0}".format(self.get_score())
return move
def thinkNextMove(self, board, deep, deepSet, points, Moves, OppMoves):
if Moves==0 and OppMoves ==0:
return (500,500)
if deep > deepSet:
genVoronoi.generate_voronoi_diagram(2, Moves, points, self.colors, None, 0, 0)
scores = genVoronoi.get_scores(2)
myScore = scores[self.playerIdx]
oppScore = scores[self.oppIdx]
return myScore
legalMoves = self.legal_plays(board)
if deep%2 == 1:
randSampling = 10
else:
randSampling = 10
randIdx = np.random.choice(len(legalMoves[0]), randSampling)
tmp = []
for idx in randIdx:
tmp.append((legalMoves[0][idx], legalMoves[1][idx]))
legalMoves = tmp
score = -sys.maxint - 1
bestMove = ()
for eachMove in legalMoves:
# print deep, eachMove
myBoard = np.copy(board)
myPoints = np.copy(points)
myMoves = copy.copy(Moves)
myOppMoves = copy.copy(OppMoves)
if deep%2 == 1: # it's me
myPoints[self.playerIdx][myMoves][0] = eachMove[0]
myPoints[self.playerIdx][myMoves][1] = eachMove[1]
tmp_val = self.thinkNextMove(board, deep+1, deepSet, myPoints, myMoves+1, myOppMoves)
board[eachMove[0]][eachMove[1]] = self.playerIdx
else:
myPoints[self.oppIdx][myOppMoves][0] = eachMove[0]
myPoints[self.oppIdx][myOppMoves][1] = eachMove[1]
tmp_val = self.thinkNextMove(board, deep+1, deepSet, myPoints, myMoves, myOppMoves+1)
board[eachMove[0]][eachMove[1]] = self.oppIdx
# tmp_val = self.thinkNextMove(board, deep, deepSet, myPoints, myMoves, myOppMoves)
if not isinstance(tmp_val, tuple) and tmp_val > score:
score = tmp_val
bestMove = eachMove
print "result in thinkNextMove"
print score, bestMove, self.myMoves, deep
if deep == 2:
return score
else:
return bestMove
def winner(self, myMoves, myOppMoves, myPoints):
# print "winner", myMoves, myOppMoves
if myMoves == myOppMoves and myOppMoves == self.numMoves-1:
genVoronoi.generate_voronoi_diagram(2, myMoves, myPoints, self.colors, None, 0, 0)
scores = genVoronoi.get_scores(2)
myScore = scores[self.playerIdx]
oppScore = scores[self.oppIdx]
print "myScore", myScore
if myScore >= oppScore:
return self.playerIdx
else:
return self.oppIdx
else:
return 0
def makeMove(self):
# move = self.make_random_move()
print "before thinkNextMove", self.myMoves
move = self.thinkNextMove(self.board, 1, 2, self.points, self.myMoves, self.oppMoves)
# if self.myMoves < self.numMoves-1:
# move = self.thinkNextMove(self.board, 1, 2, self.points, self.myMoves, self.oppMoves)
# elif self.myMoves < self.numMoves-1 and self.playerIdx == 0:
# move = self.thinkNextMove(self.board, 1, 2, self.points, self.myMoves, self.oppMoves)
# # move = self.findBestLastOne(self.board, 1, 2, self.points, self.myMoves, self.oppMoves)
# else:
# move = self.findBestLastOne(self.board, 1, 2, self.points, self.myMoves, self.oppMoves)
print "makeMove", move
self.updatePoints(self.playerIdx, self.myMoves, move[0], move[1])
genVoronoi.generate_voronoi_diagram(2, self.numMoves, self.points, self.colors, None, 0, 0)
print 'Current score: {0}'.format(self.get_score())
return move
def makeMove(self):
'''
move = self.make_random_move()
'''
simulation = MonteCarlo(self, myMoves = self.myMoves,
oppMoves = self.oppMoves,
numMoves = self.numMoves)
if self.playerIdx == 0:
print 'Using Mixed: {0}'.format(self.name)
move = simulation.mixed_play()
else:
print 'Using Minmax + MCTS: {0}'.format(self.name)
move = simulation.minmax_and_mcts()
self.updatePoints(self.playerIdx, self.myMoves, move[0], move[1])
genVoronoi.generate_voronoi_diagram(2, self.numMoves, self.points, self.colors, None, 0, 0)
print 'Current score: {0}'.format(self.get_score())
return move
def findBestLastOne(self, board, deep, deepSet, points, Moves, OppMoves):
legalMoves = self.legal_plays(board)
randIdx = np.random.choice(len(legalMoves[0]), 100)
tmp = []
for idx in randIdx:
tmp.append((legalMoves[0][idx], legalMoves[1][idx]))
legalMoves = tmp
score = -sys.maxint - 1
bestMove = ()
for eachMove in legalMoves:
points[self.playerIdx][Moves+1][0] = eachMove[0]
points[self.playerIdx][Moves+1][1] = eachMove[1]
genVoronoi.generate_voronoi_diagram(2, Moves+1, points, self.colors, None, 0, 0)
scores = genVoronoi.get_scores(2)
myScore = scores[self.playerIdx]
print "myScore", myScore, eachMove
if score < myScore:
score = myScore
bestMove = eachMove
points[self.playerIdx][Moves+1][0] = -1
points[self.playerIdx][Moves+1][1] = -1
return bestMove
if __name__ == '__main__':
num_players, num_moves = tuple(int(n) for n in raw_input().split())
points = np.zeros([num_players, num_moves, 2], dtype=np.int)
points.fill(-1)
# Can put any garbage here. Not using this in the end.
image = np.zeros([10, 10, 3], dtype=np.uint8)
colors = np.zeros([num_players, 3], dtype=np.uint8)
for p in xrange(num_players):
player, actual_move_count = tuple(int(n) for n in raw_input().split())
for m in xrange(actual_move_count):
x, y = tuple(int(n) for n in raw_input().split())
points[p, m, 0] = x
points[p, m, 1] = y
genVoronoi.init_cache()
# Important to put GUIOn as false
genVoronoi.generate_voronoi_diagram(num_players, num_moves, points, colors, image, 0, 1)
scores, colors_index = genVoronoi.get_color_indices_and_scores(num_players, num_moves, points)
for i in range(num_players):
print scores[i]
for i in range(1000):
for j in range(1000):
n = colors_index[i,j,0]
print n,
for k in range(1, n+1):
print colors_index[i,j,k],
print
def updateUI(self, move):
if self.move == num_moves:
return
x_pos, y_pos = move
self.points[self.current_player, self.move, 0] = x_pos
self.points[self.current_player, self.move, 1] = y_pos
t1 = time.time()
genVoronoi.generate_voronoi_diagram(
num_players,
num_moves,
self.points,
self.colors,
self.imagenp,
1,
scale
)
print "Time to set pixels", time.time() - t1
t2 = time.time()
pixmap = QtGui.QPixmap.fromImage(self.image)
self.lbl.setPixmap(pixmap)
print self.points
painter = QtGui.QPainter()
painter.begin(self.lbl.pixmap())
for p in xrange(num_players):
for m in xrange(num_moves):
if self.points[p, m, 0] == -1:
break
painter.setBrush(
QtGui.QColor(
self.dark_colors[p][0],
self.dark_colors[p][1],
self.dark_colors[p][2]
)
)
painter.drawEllipse(
(self.points[p, m, 0] - 4*scale)/scale,
(self.points[p, m, 1] - 4*scale)/scale,
4*scale,
4*scale,
)
del painter
print "Time to draw ellipses", time.time() - t2
scores = self.get_scores()
for p in range(num_players):
font = self.textlbl[p].font();
if (self.current_player+1)%num_players == p:
font.setPointSize(24);
font.setBold(True);
else:
font.setPointSize(18);
self.textlbl[p].setFont(font);
palette = self.textlbl[p].palette()
role = self.textlbl[p].backgroundRole()
color = QtGui.QColor(
self.colors[p][0],
self.colors[p][1],
self.colors[p][2]
)
palette.setColor(role, color)
palette.setColor(self.textlbl[p].foregroundRole(), QtCore.Qt.white)
self.textlbl[p].setPalette(palette)
self.textlbl[p].setAlignment(QtCore.Qt.AlignCenter)
self.textlbl[p].setText("Player "+str(p+1)+": "+str(scores[p]))
self.textlbl[p].adjustSize()
if self.current_player == num_players-1:
self.move += 1
self.current_player = (self.current_player + 1) % num_players
if self.move == num_moves:
print self.get_scores()
def undoPoints(self, player, move, x, y):
self.points[player][move][0] = -1
self.points[player][move][1] = -1
self.board[x][y] = -1
genVoronoi.generate_voronoi_diagram(2, self.numMoves, self.points, self.colors, None, 0, 0)
def updateUI(self, player, move, move_num):
if move_num == num_moves:
return
x_pos, y_pos = move
self.points[player, move_num, 0] = x_pos
self.points[player, move_num, 1] = y_pos
t1 = time.time()
genVoronoi.generate_voronoi_diagram(
num_players,
num_moves,
self.points,
self.colors,
self.imagenp,
self.GUIOn,
scale
)
print "Time to set pixels", time.time() - t1
if self.GUIOn:
t2 = time.time()
pixmap = QtGui.QPixmap.fromImage(self.image)
self.lbl.setPixmap(pixmap)
painter = QtGui.QPainter()
painter.begin(self.lbl.pixmap())
for p in xrange(num_players):
for m in xrange(num_moves):
if self.points[p, m, 0] == -1:
break
painter.setBrush(
QtGui.QColor(
self.dark_colors[p][0],
self.dark_colors[p][1],
self.dark_colors[p][2]
)
)
painter.drawEllipse(
(self.points[p, m, 0] - 2*scale)/scale,
(self.points[p, m, 1] - 2*scale)/scale,
4,
4,
)
del painter
print "Time to draw ellipses", time.time() - t2
scores = self.endMatch()
for p in range(num_players):
font = self.textlbl[p].font();
if (player+1)%num_players == p:
font.setPointSize(32);
font.setBold(True);
else:
font.setPointSize(18);
self.textlbl[p].setFont(font);
palette = self.textlbl[p].palette()
role = self.textlbl[p].backgroundRole()
color = QtGui.QColor(
self.colors[p][0],
self.colors[p][1],
self.colors[p][2]
)
palette.setColor(role, color)
palette.setColor(self.textlbl[p].foregroundRole(), QtCore.Qt.white)
self.textlbl[p].setPalette(palette)
self.textlbl[p].setAlignment(QtCore.Qt.AlignCenter)
self.textlbl[p].setText(self.player_names[p]+": "+str(scores[p]))
self.textlbl[p].adjustSize()
if self.delay - time.time() + t1 > 0:
time.sleep(self.delay - time.time() + t1)
def updatePoints(self, player, move, x, y): self.points[player][move][0] = x self.points[player][move][1] = y genVoronoi.generate_voronoi_diagram(2, self.numMoves, self.points, self.colors, None, 0, 0)