def receiveMove(self, move):
self._movesReceived += 1
# notify Model
self.HexBoard.receiveMove([move[0], move[1]])
self._moveCounter = self._moveCounter + 1
# finnaly it's possible to determine where we should play
if self._moveCounter == 2:
if self._movesCalculated != self._movesReceived:
self._player = 2
else:
self._player = 1
self.HexBoard.setPlayer(self._player)
self.PatternMatcher = PatternMatcher(self.HexBoard, self)
print("The player is", self._player)
if sum(self.modeCounter) > 0:
pass #print(round((self.modeCounter[0] * 100 / sum(self.modeCounter))),round((self.modeCounter[1] * 100 / sum(self.modeCounter))),round((self.modeCounter[2] * 100 / sum(self.modeCounter))))
if self.modeCounter[0] / sum(self.modeCounter) < 0.8:
pass #self.Game.pause()
def receiveMove(self, move):
self._movesReceived += 1
# notify Model
self.HexBoard.receiveMove([move[0], move[1]])
self._moveCounter = self._moveCounter + 1
# finnaly it's possible to determine where we should play
if self._moveCounter == 2:
if self._movesCalculated != self._movesReceived:
self._player = 2
else:
self._player = 1
self.HexBoard.setPlayer(self._player)
self.PatternMatcher = PatternMatcher(self.HexBoard, self)
print("The player is", self._player)
if sum(self.modeCounter) > 0:
pass#print(round((self.modeCounter[0] * 100 / sum(self.modeCounter))),round((self.modeCounter[1] * 100 / sum(self.modeCounter))),round((self.modeCounter[2] * 100 / sum(self.modeCounter))))
if self.modeCounter[0]/sum(self.modeCounter) < 0.8:
pass#self.Game.pause()
def receiveMove(self, move):
self._movesReceived += 1
# notify Model
self.HexBoard.receiveMove([move[0], move[1]])
# finnaly it's possible to determine where we should play
if self._moveCounter == 1:
if self._movesCalculated == 0:
self.setPlayerIdentity(2)
else:
self.setPlayerIdentity(1)
if self._moveCounter == 2:
self.PatternMatcher = PatternMatcher(self.HexBoard, self)
self.changePlayer()
self._moveCounter = self._moveCounter + 1
class HexKI:
def __init__(self, m, n):
self._moveCounter = 1
self._movesReceived = 0
self._movesCalculated = 0
self.Size = Size(m,n)
self.HexBoard = HexBoardKI(self.Size.m, self.Size.n)
self.PatternMatcher = None
self._player = 0
# pattern, random
self.modeCounter = [0,0]
def getPlayer(self):
return self._player
def getEnemy(self):
if self._player == 1:
return 2
else:
return 1
def receiveMove(self, move):
self._movesReceived += 1
# notify Model
self.HexBoard.receiveMove([move[0], move[1]])
self._moveCounter = self._moveCounter + 1
# finnaly it's possible to determine where we should play
if self._moveCounter == 2:
if self._movesCalculated != self._movesReceived:
self._player = 2
else:
self._player = 1
self.HexBoard.setPlayer(self._player)
self.PatternMatcher = PatternMatcher(self.HexBoard, self)
print("The player is", self._player)
if sum(self.modeCounter) > 0:
pass#print(round((self.modeCounter[0] * 100 / sum(self.modeCounter))),round((self.modeCounter[1] * 100 / sum(self.modeCounter))),round((self.modeCounter[2] * 100 / sum(self.modeCounter))))
if self.modeCounter[0]/sum(self.modeCounter) < 0.8:
pass#self.Game.pause()
def nextMove(self):
self._movesCalculated += 1
# get the next move
return self.calculateMove()
#chooseOrder(self, firstmove) soll basierend auf dem ersten Zug entscheiden, ob als zweiter Spieler weitergespielt wird oder stattdessen der Computergegner als erster Spieler spielt. Der Ru ̈ckgabewert soll 1 oder 2 sein; bei 1 soll der Computergegner als erster Spieler weiterspielen, bei 2 soll er zweiter Spieler bleiben.
def chooseOrder(self, firstmove):
pass
#calculateMove(self) soll den na ̈chsten Zug berechnen und True zuru ̈ckgeben, wenn die Berechnung fertiggestellt ist. Beim Testen werden wir Ihre Prozesse nach einer gewissen Zeit abbrechen. Es sollte also immer eine Mo ̈glichkeit fu ̈r einen na ̈chsten Zug (in einer Instanzvariable) gespeichert sein.
def calculateMove(self):
# asymmetric board
if self.Size.m != self.Size.n:
# set the result
pass
else:
# if first move
if self._moveCounter == 1:
# calc first move 75% down right
return [round(self.Size.m * 0.75), round(self.Size.n * 0.75)]
else:
# first check for patterns
# but only when it's clear where to play to
if self._moveCounter >= 3:
move = self.PatternMatcher.getMove()
if move != False:
#print("MODE:", "Pattern")
self.modeCounter[0] += 1
return move
# finally pick random
#print("MODE:", "random")
self.modeCounter[1] += 1
vertices = self.HexBoard.getVertices("unmarked")
shuffle(vertices)
vertex = vertices.pop()
move = [vertex.i, vertex.j]
return move
# read the current board
def readBoard(self):
pass
class HexKI:
def __init__(self, m, n):
self._moveCounter = 1
self._movesReceived = 0
self._movesCalculated = 0
self.Size = Size(m, n)
self.HexBoard = HexBoardKI(self.Size.m, self.Size.n)
self.PatternMatcher = None
self._player = 0
# pattern, random
self.modeCounter = [0, 0]
def getPlayer(self):
return self._player
def getEnemy(self):
if self._player == 1:
return 2
else:
return 1
def receiveMove(self, move):
self._movesReceived += 1
# notify Model
self.HexBoard.receiveMove([move[0], move[1]])
self._moveCounter = self._moveCounter + 1
# finnaly it's possible to determine where we should play
if self._moveCounter == 2:
if self._movesCalculated != self._movesReceived:
self._player = 2
else:
self._player = 1
self.HexBoard.setPlayer(self._player)
self.PatternMatcher = PatternMatcher(self.HexBoard, self)
print("The player is", self._player)
if sum(self.modeCounter) > 0:
pass #print(round((self.modeCounter[0] * 100 / sum(self.modeCounter))),round((self.modeCounter[1] * 100 / sum(self.modeCounter))),round((self.modeCounter[2] * 100 / sum(self.modeCounter))))
if self.modeCounter[0] / sum(self.modeCounter) < 0.8:
pass #self.Game.pause()
def nextMove(self):
self._movesCalculated += 1
# get the next move
return self.calculateMove()
#chooseOrder(self, firstmove) soll basierend auf dem ersten Zug entscheiden, ob als zweiter Spieler weitergespielt wird oder stattdessen der Computergegner als erster Spieler spielt. Der Ru ̈ckgabewert soll 1 oder 2 sein; bei 1 soll der Computergegner als erster Spieler weiterspielen, bei 2 soll er zweiter Spieler bleiben.
def chooseOrder(self, firstmove):
pass
#calculateMove(self) soll den na ̈chsten Zug berechnen und True zuru ̈ckgeben, wenn die Berechnung fertiggestellt ist. Beim Testen werden wir Ihre Prozesse nach einer gewissen Zeit abbrechen. Es sollte also immer eine Mo ̈glichkeit fu ̈r einen na ̈chsten Zug (in einer Instanzvariable) gespeichert sein.
def calculateMove(self):
# asymmetric board
if self.Size.m != self.Size.n:
# set the result
pass
else:
# if first move
if self._moveCounter == 1:
# calc first move 75% down right
return [round(self.Size.m * 0.75), round(self.Size.n * 0.75)]
else:
# first check for patterns
# but only when it's clear where to play to
if self._moveCounter >= 3:
move = self.PatternMatcher.getMove()
if move != False:
#print("MODE:", "Pattern")
self.modeCounter[0] += 1
return move
# finally pick random
#print("MODE:", "random")
self.modeCounter[1] += 1
vertices = self.HexBoard.getVertices("unmarked")
shuffle(vertices)
vertex = vertices.pop()
move = [vertex.i, vertex.j]
return move
# read the current board
def readBoard(self):
pass
class HexKI(PlayerController):
def __init__(self, m, n):
super().__init__()
self._moveCounter = 1
self._movesReceived = 0
self._movesCalculated = 0
self.Size = Size(m,n)
self.HexBoard = HexBoard(self.Size.m, self.Size.n)
self.HexBoard.suppressEvents()
self.HexBoard.setReferenceToGame(self)
self.PatternMatcher = None
#self.MCTS = MCTS()
# pattern, mcts, random
self.modeCounter = [0,0,0]
def receiveMove(self, move):
self._movesReceived += 1
# notify Model
self.HexBoard.receiveMove([move[0], move[1]])
# finnaly it's possible to determine where we should play
if self._moveCounter == 1:
if self._movesCalculated == 0:
self.setPlayerIdentity(2)
else:
self.setPlayerIdentity(1)
if self._moveCounter == 2:
self.PatternMatcher = PatternMatcher(self.HexBoard, self)
self.changePlayer()
self._moveCounter = self._moveCounter + 1
def nextMove(self):
self._movesCalculated += 1
self._myTurn = True
# get the next move
return self.calculateMove()
#chooseOrder(self, firstmove) soll basierend auf dem ersten Zug entscheiden, ob als zweiter Spieler weitergespielt wird oder stattdessen der Computergegner als erster Spieler spielt. Der Ru ̈ckgabewert soll 1 oder 2 sein; bei 1 soll der Computergegner als erster Spieler weiterspielen, bei 2 soll er zweiter Spieler bleiben.
#def chooseOrder(self, firstmove):
# Schranke = ((self.Board.size[0] // 2) // 2)
# i = firstmove[1]
# j = firstmove[0]
# if (i > Schranke and (j > Schranke or j < (self.Board.size[1] -1) - Schranke)) or ((i < ((self.Board.size[0] -1) - Schranke))and (j > Schranke or j < (self.Board.size[1] -1) - Schranke)):
#DO SWAP PLAYER
#calculateMove(self) soll den na ̈chsten Zug berechnen und True zuru ̈ckgeben, wenn die Berechnung fertiggestellt ist. Beim Testen werden wir Ihre Prozesse nach einer gewissen Zeit abbrechen. Es sollte also immer eine Mo ̈glichkeit fu ̈r einen na ̈chsten Zug (in einer Instanzvariable) gespeichert sein.
def calculateMove(self):
# asymmetric board
if self.Size.m != self.Size.n:
if self._moveCounter == 1:
# calc first move
return [round(self.Size.m * 0.75), round(self.Size.n * 0.75)]
else:
Movege= self.HexBoard.getLastMove()
i=Movege[0]
j=Movege[1]
if self.Size.m < self.Size.n:
unters=self.Size.n-self.Size.m
maxi=self.Size.m -1
maxj=self.Size.n -unters
if (i+j) < maxj:
gesj=maxj-i
gesi=maxi-j
else:
gesj=maxi-i
gesi=maxj-j
#restspalten
if unters%2==1 and unters!=1 and j>maxj:
if j%2==1:
gesj= j-1
gesi= i
else:
gesj=j+1
gesi=i
elif unters!=1 and j>maxj:
if j==self.Size.n-1 and i ==self.Size.m-1:
vertices = self.HexBoard.getVertices("unmarked")
shuffle(vertices)
vertex = vertices.pop()
move = [vertex.i, vertex.j]
return move
if j!= self.Size.n-1:
if j%2==1 :
gesj= j-1
gesi= i
else:
gesj=j+1
gesi=i
else:
if i%2==1:
gesj=j
gesi=i-1
else:
gesj=j
gesi=i+1
#länger als breiter
else:
unters=self.Size.m-self.Size.n
maxj=self.Size.n -1
maxi=self.Size.m -unters
if (i+j) < maxi:
gesi=maxi-j
gesj=maxj-i
else:
gesi=maxj-j
gesj=maxi-i
if unters % 2 == 1 and unters!=1 and i>maxi:
print("hello")
if j%2==1:
gesj= j
gesi= i+1
else:
gesj=j
gesi=i-1
elif unters!=1 and i>maxi:
if j==self.Size.n-1 and i ==self.Size.m-1:
vertices = self.HexBoard.getVertices("unmarked")
shuffle(vertices)
vertex = vertices.pop()
move = [vertex.i, vertex.j]
return move
if i!= self.Size.m-1:
if i%2==1 :
gesi= i-1
gesj= j
else:
gesi=i+1
gesj=j
else:
if j%2==1:
gesi=i
gesj=j-1
else:
gesi=i
gesj=j+1
if self.HexBoard.isMarked(gesi,gesj)==True:
vertices = self.HexBoard.getVertices("unmarked")
shuffle(vertices)
vertex = vertices.pop()
move = [vertex.i, vertex.j]
return move
gesmove=[gesi,gesj]
return gesmove
else:
# if first move
if self._moveCounter == 1:
# calc first move 75% down right
return [round(self.Size.m * 0.75), round(self.Size.n * 0.75)]
else:
# first check for patterns
# but only when it's clear where to play to
if self._moveCounter >= 3:
# then get rule network
patternMoves = self.PatternMatcher.getMove()
graphMoves = self.GraphSearch.getConnectingMoves()
Q = []
if patternMoves != False and len(graphMoves) > 0:
for pattern in patternMoves:
for graph in graphMoves:
if pattern == graph:
Q.append(pattern)
if len(Q) > 0:
#print("MIXED VERSION")
move = Q.pop()
elif len(graphMoves) > 0:
#print("GRAPH Preference")
move = graphMoves[0]
elif patternMoves != False and len(patternMoves) > 0:
#print("PATTERN Preference")
move = patternMoves[0]
else:
move = False
if move != False:
#print("MODE:", "Pattern")
self.modeCounter[0] += 1
return move
# then check the mcts results
#move = self.MCTS.getMove()
#if move != False:
# #print("MODE:", "MCTS")
# self.modeCounter[1] += 1
# return move
# finally pick random
self.modeCounter[2] += 1
vertices = self.HexBoard.getVertices("unmarked")
shuffle(vertices)
vertex = vertices.pop()
move = [vertex.i, vertex.j]
return move
# read the current board
def readBoard(self, board, current = True):
self.HexBoard.readBoard(board, current)
