def main():
print "How many Kitties are playing per team?"
print "There must be at least 1."
playerCount = input()*2
print "How many balls does each team receive?"
print "There must be at least 1."
ballCount = input()*2
print "Please type in the full filename of the database you with to use (in quotes)."
print "(For Purposes of the project, please input exactly the following: 'Database.txt')"
fileName = input()
time.sleep(1)
playerTotal = playerCount
#The following creates the environment,
# the ideal state of the environment each team strives for,
# a small knowledge database given to each player,
# and a list of the players.
court = Import_Module.importDatabase(fileName, ballCount, playerCount)
redTeamGoal = Import_Module.createRedGoal(playerCount)
blueTeamGoal = Import_Module.createBlueGoal(playerCount)
dodgeBallKnowledge = Productions_Module.instantiateKnowledge()
listOfAgents = Import_Module.returnListOfAgents()
time.sleep(6)
print ''
#This loop is what simulates the game of dodge-ball,
# with each player choosing one action (production) each for each iteration of the loop.
notDone = True
listOfActions = {}
while notDone == True:
listOfActionsToremove = []
#This function is what causes throwing a ball to take two iterations
# of the loop to hit a player. When the throwBall action is taken,
# the ball thrown begins flying through the air at its target,
# and within the listOfActions, the throwBall action's value is increased by 1.
# Once the the throwBall action's value is higher than 2,
# it is marked for removal from the environment.
for actions in listOfActions:
for items in actions.rightSideAdd:
flightIncrement = 'notNeeded'
if 'Flying_At' in items and listOfActions[actions] <= 2:
for facts in court.facts:
if items == facts.ID:
flightIncrement = 'needed'
if flightIncrement == 'needed':
listOfActions[actions]+=1
else:
listOfActionsToremove.append(actions)
else:
listOfActionsToremove.append(actions)
#This is where throwBall actions that have been ongoing
# for a sufficient amount of time are removed.
for items in listOfActionsToremove:
del listOfActions[items]
#This function is what causes a ball that has been flying through the air
# for a turn to hit its target. It goes through the list of actions looking for any
# statement concerning balls in flight that have persisted for two iterations
# of the main loop. If it finds any, it causes them to hit their targets,
# which sends that target to jail and causes the ball to land on the target's
# side of the court.
for actions in listOfActions:
for items in actions.rightSideAdd:
if 'Flying_At' in items and listOfActions[actions] == 3:
court.removeFacts(items)
ball = items[0]
playerThatDied = items[2]
for facts in court.facts:
if playerThatDied in facts.ID and 'Is_On' in facts.ID:
colourOfPlayerThatDied = facts.thingY
if 'Red_Team' in colourOfPlayerThatDied:
court.addFacts((ball, 'Is_In', 'Red_Court'))
court.removeFacts((playerThatDied, 'Is_In', 'Red_Court'))
elif 'Blue_Team' in colourOfPlayerThatDied:
court.addFacts((ball, "Is_In", 'Blue_Court'))
court.removeFacts((playerThatDied, 'Is_In', 'Blue_Court'))
court.addFacts((playerThatDied, 'Is_In', 'Jail'))
print ''
print playerThatDied, 'was sent to Jail!'
print ''
for facts in court.facts:
if playerThatDied in facts.ID and 'Carrying' in facts.ID:
court.removeFacts(facts)
print ''
time.sleep(4)
#All of the above functions must occur before each player takes their actions,
# as they involve curating the facts in the environment.
# The players take their actions via the functions below.
#This function determines the team of each player,
# and then has each player choose which production to fire,
# based upon the goal of the team they belong to.
for players in listOfAgents:
for facts in court.facts:
if players.ID in facts.ID and 'Is_On' in facts.ID:
agentTeam = facts.thingY
if agentTeam == 'Red_Team':
listOfActions[Interpreter_Module.chooseProduction(players, court, redTeamGoal, blueTeamGoal, playerTotal, ballCount)] = 0
else:
listOfActions[Interpreter_Module.chooseProduction(players, court, blueTeamGoal, redTeamGoal, playerTotal, ballCount)] = 0
#Following each player choosing their action,
# the consequences of those actions occur,
# either adding or removing facts from the environment.
# As facts in the environment change, they are printed out,
# along with player actions.
#Note that player actions have numbers on the end.
# Those numbers are meaningless and are simply there
# for the purposes of the program.
stuffToDelete = []
for actions in listOfActions:
if listOfActions[actions] == 0:
print players.ID + 'uses: ' + actions.ID
print ''
for addFacts in actions.rightSideAdd:
court.addFacts(addFacts)
for removeFacts in actions.rightSideDel:
court.removeFacts(removeFacts)
for facts in actions.rightSideAdd:
if 'Flying_At' in facts:
listOfActions[actions] += 1
if listOfActions[actions] == 0:
stuffToDelete.append(actions)
for item in court.facts:
if 'Carrying' in item.ID:
print item.ID
if 'Flying_At' in item.ID:
print item.ID
if 'Is_In' in item.ID:
print item.ID
print ''
time.sleep(3)
for items in stuffToDelete:
del listOfActions[items]
#Now that the players have taken their actions,
# and the results of those actions have had their effects upon the environment,
# it is time to see if either time has won via their actions this turn.
#First, the system checks how many players are in jail.
# This value is calculated anew every round, and not carried over
# from round to round.
redPlayersInJail = 0
bluePlayersInJail = 0
redPlayersInJail == 0
bluePlayersInJail == 0
#For each player, this function first calculates whether or not they're in jail.
# If so, it determines which team that player is on,
# and then adds 1 to the value of number of players in jail on that player's team.
for players in listOfAgents:
playerInJail = 0
redPlayer = 0
bluePlayer = 0
playerInJail == 0
redPlayer == 0
bluePlayer == 0
for statements in court.facts:
if players.ID in statements.ID and 'Jail' in statements.ID:
playerInJail += 1
if players.ID in statements.ID and "Red_Team" in statements.ID:
redPlayer += 1
elif players.ID in statements.ID and 'Blue_Team' in statements.ID:
bluePlayer += 1
if playerInJail == 1 and redPlayer == 1:
redPlayersInJail += 1
playerInJail -= 1
redPlayer -= 1
elif playerInJail == 1 and bluePlayer == 1:
bluePlayersInJail += 1
playerInJail -= 1
bluePlayer -= 1
#Winning is achieved by having the entire other team in jail,
# so if the number of players in either jail is equal to
# half of the players on the field, the opposing team wins.
if redPlayersInJail == playerTotal/2:
print 'Blue Team won!'
notDone = False
elif bluePlayersInJail == playerTotal/2:
print 'Red Team Won!'
notDone = False
def main():
print "How many Kitties are playing per team?"
print "There must be at least 1."
playerCount = input() * 2
print "How many balls does each team receive?"
print "There must be at least 1."
ballCount = input() * 2
print "Please type in the full filename of the database you with to use (in quotes)."
print "(For Purposes of the project, please input exactly the following: 'Database.txt')"
fileName = input()
time.sleep(1)
playerTotal = playerCount
#The following creates the environment,
# the ideal state of the environment each team strives for,
# a small knowledge database given to each player,
# and a list of the players.
court = Import_Module.importDatabase(fileName, ballCount, playerCount)
redTeamGoal = Import_Module.createRedGoal(playerCount)
blueTeamGoal = Import_Module.createBlueGoal(playerCount)
dodgeBallKnowledge = Productions_Module.instantiateKnowledge()
listOfAgents = Import_Module.returnListOfAgents()
time.sleep(6)
print ''
#This loop is what simulates the game of dodge-ball,
# with each player choosing one action (production) each for each iteration of the loop.
notDone = True
listOfActions = {}
while notDone == True:
listOfActionsToremove = []
#This function is what causes throwing a ball to take two iterations
# of the loop to hit a player. When the throwBall action is taken,
# the ball thrown begins flying through the air at its target,
# and within the listOfActions, the throwBall action's value is increased by 1.
# Once the the throwBall action's value is higher than 2,
# it is marked for removal from the environment.
for actions in listOfActions:
for items in actions.rightSideAdd:
flightIncrement = 'notNeeded'
if 'Flying_At' in items and listOfActions[actions] <= 2:
for facts in court.facts:
if items == facts.ID:
flightIncrement = 'needed'
if flightIncrement == 'needed':
listOfActions[actions] += 1
else:
listOfActionsToremove.append(actions)
else:
listOfActionsToremove.append(actions)
#This is where throwBall actions that have been ongoing
# for a sufficient amount of time are removed.
for items in listOfActionsToremove:
del listOfActions[items]
#This function is what causes a ball that has been flying through the air
# for a turn to hit its target. It goes through the list of actions looking for any
# statement concerning balls in flight that have persisted for two iterations
# of the main loop. If it finds any, it causes them to hit their targets,
# which sends that target to jail and causes the ball to land on the target's
# side of the court.
for actions in listOfActions:
for items in actions.rightSideAdd:
if 'Flying_At' in items and listOfActions[actions] == 3:
court.removeFacts(items)
ball = items[0]
playerThatDied = items[2]
for facts in court.facts:
if playerThatDied in facts.ID and 'Is_On' in facts.ID:
colourOfPlayerThatDied = facts.thingY
if 'Red_Team' in colourOfPlayerThatDied:
court.addFacts((ball, 'Is_In', 'Red_Court'))
court.removeFacts(
(playerThatDied, 'Is_In', 'Red_Court'))
elif 'Blue_Team' in colourOfPlayerThatDied:
court.addFacts((ball, "Is_In", 'Blue_Court'))
court.removeFacts(
(playerThatDied, 'Is_In', 'Blue_Court'))
court.addFacts((playerThatDied, 'Is_In', 'Jail'))
print ''
print playerThatDied, 'was sent to Jail!'
print ''
for facts in court.facts:
if playerThatDied in facts.ID and 'Carrying' in facts.ID:
court.removeFacts(facts)
print ''
time.sleep(4)
#All of the above functions must occur before each player takes their actions,
# as they involve curating the facts in the environment.
# The players take their actions via the functions below.
#This function determines the team of each player,
# and then has each player choose which production to fire,
# based upon the goal of the team they belong to.
for players in listOfAgents:
for facts in court.facts:
if players.ID in facts.ID and 'Is_On' in facts.ID:
agentTeam = facts.thingY
if agentTeam == 'Red_Team':
listOfActions[Interpreter_Module.chooseProduction(
players, court, redTeamGoal, blueTeamGoal, playerTotal,
ballCount)] = 0
else:
listOfActions[Interpreter_Module.chooseProduction(
players, court, blueTeamGoal, redTeamGoal, playerTotal,
ballCount)] = 0
#Following each player choosing their action,
# the consequences of those actions occur,
# either adding or removing facts from the environment.
# As facts in the environment change, they are printed out,
# along with player actions.
#Note that player actions have numbers on the end.
# Those numbers are meaningless and are simply there
# for the purposes of the program.
stuffToDelete = []
for actions in listOfActions:
if listOfActions[actions] == 0:
print players.ID + 'uses: ' + actions.ID
print ''
for addFacts in actions.rightSideAdd:
court.addFacts(addFacts)
for removeFacts in actions.rightSideDel:
court.removeFacts(removeFacts)
for facts in actions.rightSideAdd:
if 'Flying_At' in facts:
listOfActions[actions] += 1
if listOfActions[actions] == 0:
stuffToDelete.append(actions)
for item in court.facts:
if 'Carrying' in item.ID:
print item.ID
if 'Flying_At' in item.ID:
print item.ID
if 'Is_In' in item.ID:
print item.ID
print ''
time.sleep(3)
for items in stuffToDelete:
del listOfActions[items]
#Now that the players have taken their actions,
# and the results of those actions have had their effects upon the environment,
# it is time to see if either time has won via their actions this turn.
#First, the system checks how many players are in jail.
# This value is calculated anew every round, and not carried over
# from round to round.
redPlayersInJail = 0
bluePlayersInJail = 0
redPlayersInJail == 0
bluePlayersInJail == 0
#For each player, this function first calculates whether or not they're in jail.
# If so, it determines which team that player is on,
# and then adds 1 to the value of number of players in jail on that player's team.
for players in listOfAgents:
playerInJail = 0
redPlayer = 0
bluePlayer = 0
playerInJail == 0
redPlayer == 0
bluePlayer == 0
for statements in court.facts:
if players.ID in statements.ID and 'Jail' in statements.ID:
playerInJail += 1
if players.ID in statements.ID and "Red_Team" in statements.ID:
redPlayer += 1
elif players.ID in statements.ID and 'Blue_Team' in statements.ID:
bluePlayer += 1
if playerInJail == 1 and redPlayer == 1:
redPlayersInJail += 1
playerInJail -= 1
redPlayer -= 1
elif playerInJail == 1 and bluePlayer == 1:
bluePlayersInJail += 1
playerInJail -= 1
bluePlayer -= 1
#Winning is achieved by having the entire other team in jail,
# so if the number of players in either jail is equal to
# half of the players on the field, the opposing team wins.
if redPlayersInJail == playerTotal / 2:
print 'Blue Team won!'
notDone = False
elif bluePlayersInJail == playerTotal / 2:
print 'Red Team Won!'
notDone = False
def importDatabase(filename, numberOfBalls, numberOfPlayers):
'''Opens up the specified Dodge Ball database,
imports the information it contains,
and generates the start condition of the game.'''
#Creates an empty enviornment.
court = Chunk_Module.Environment([])
#Imports the database
database = open(filename)
print ''
print filename, "successfully opened."
print ''
#Establishes the empty list of balls, players, and pandas.
ballList = []
playerList = []
for line in database:
newline = line.split()
if "Ball_{0}" in newline[2]:
counter = 1
#Populates the environment with a number of dodge balls.
for item in range(numberOfBalls):
theThingx = newline[0]
theRelation = newline[1]
theThingy = newline[2].format(counter)
counter = counter + 1
theChunkID = theThingx, theRelation, theThingy
Chunk_Module.Chunk3(court, theChunkID, theThingx, theRelation,
theThingy)
ballList.append(theThingy)
elif "Player_{0}" in newline[2]:
counter = 1
#Populates the environment with a number of players.
for item in range(numberOfPlayers):
theThingx = newline[0]
theRelation = newline[1]
theThingy = newline[2].format(counter)
counter = counter + 1
theChunkID = theThingx, theRelation, theThingy
Chunk_Module.Chunk3(court, theChunkID, theThingx, theRelation,
theThingy)
playerList.append(theThingy)
else:
#Populates the environment with every other fact stated in the database.
theThingx = newline[0]
theRelation = newline[1]
theThingy = newline[2]
theChunkID = theThingx, theRelation, theThingy
Chunk_Module.Chunk3(court, theChunkID, theThingx, theRelation,
theThingy)
#Turns balls and players into instances of Ball and Player classes.
# Also splits the players into teams, and assigns starting positions to both balls and players.
counter = 1
for item in ballList:
if counter <= (len(ballList)) / 2:
theThingx = item
theRelation = 'Is_In'
theThingy = 'Red_Court'
theChunkID = theThingx, theRelation, theThingy
Chunk_Module.Chunk3(court, theChunkID, theThingx, theRelation,
theThingy)
counter = counter + 1
else:
theThingx = item
theRelation = 'Is_In'
theThingy = 'Blue_Court'
theChunkID = theThingx, theRelation, theThingy
Chunk_Module.Chunk3(court, theChunkID, theThingx, theRelation,
theThingy)
counter = counter + 1
counter = 1
for item in playerList:
kitty = Game_Module.Player(item, 'kitty',
Productions_Module.instantiateProduction(),
Productions_Module.instantiateKnowledge())
#Note below that each instance of the player class is also appended
# to the listOfAgents. This list is used by Run_Program.
listOfAgents.append(kitty)
if counter <= (len(playerList)) / 2:
theThingx = item
theRelation = 'Is_On'
theThingy = 'Red_Team'
theChunkID = theThingx, theRelation, theThingy
Chunk_Module.Chunk3(court, theChunkID, theThingx, theRelation,
theThingy)
theRelation = 'Is_In'
theThingy = 'Red_Court'
theChunkID = theThingx, theRelation, theThingy
Chunk_Module.Chunk3(court, theChunkID, theThingx, theRelation,
theThingy)
counter = counter + 1
else:
theThingx = item
theRelation = 'Is_On'
theThingy = 'Blue_Team'
theChunkID = theThingx, theRelation, theThingy
Chunk_Module.Chunk3(court, theChunkID, theThingx, theRelation,
theThingy)
theRelation = 'Is_In'
theThingy = 'Blue_Court'
theChunkID = theThingx, theRelation, theThingy
Chunk_Module.Chunk3(court, theChunkID, theThingx, theRelation,
theThingy)
counter = counter + 1
#Closes the database, prints the starting conditions of the simulation,
# and returns the environment - which is used by Run_Program.
database.close()
for item in court.facts:
print item.ID
return court
def importDatabase(filename, numberOfBalls, numberOfPlayers):
'''Opens up the specified Dodge Ball database,
imports the information it contains,
and generates the start condition of the game.'''
#Creates an empty enviornment.
court = Chunk_Module.Environment([])
#Imports the database
database = open(filename)
print ''
print filename, "successfully opened."
print ''
#Establishes the empty list of balls, players, and pandas.
ballList = []
playerList = []
for line in database:
newline = line.split()
if "Ball_{0}" in newline[2]:
counter = 1
#Populates the environment with a number of dodge balls.
for item in range(numberOfBalls):
theThingx = newline[0]
theRelation = newline[1]
theThingy = newline[2].format(counter)
counter = counter + 1
theChunkID = theThingx, theRelation, theThingy
Chunk_Module.Chunk3(court, theChunkID, theThingx, theRelation, theThingy)
ballList.append(theThingy)
elif "Player_{0}" in newline[2]:
counter = 1
#Populates the environment with a number of players.
for item in range(numberOfPlayers):
theThingx = newline[0]
theRelation = newline[1]
theThingy = newline[2].format(counter)
counter = counter + 1
theChunkID = theThingx, theRelation, theThingy
Chunk_Module.Chunk3(court, theChunkID, theThingx, theRelation, theThingy)
playerList.append(theThingy)
else:
#Populates the environment with every other fact stated in the database.
theThingx = newline[0]
theRelation = newline[1]
theThingy = newline[2]
theChunkID = theThingx, theRelation, theThingy
Chunk_Module.Chunk3(court, theChunkID, theThingx, theRelation, theThingy)
#Turns balls and players into instances of Ball and Player classes.
# Also splits the players into teams, and assigns starting positions to both balls and players.
counter = 1
for item in ballList:
if counter <= (len(ballList))/2:
theThingx = item
theRelation = 'Is_In'
theThingy = 'Red_Court'
theChunkID = theThingx, theRelation, theThingy
Chunk_Module.Chunk3(court, theChunkID, theThingx, theRelation, theThingy)
counter = counter + 1
else:
theThingx = item
theRelation = 'Is_In'
theThingy = 'Blue_Court'
theChunkID = theThingx, theRelation, theThingy
Chunk_Module.Chunk3(court, theChunkID, theThingx, theRelation, theThingy)
counter = counter + 1
counter = 1
for item in playerList:
kitty = Game_Module.Player(item, 'kitty', Productions_Module.instantiateProduction(), Productions_Module.instantiateKnowledge())
#Note below that each instance of the player class is also appended
# to the listOfAgents. This list is used by Run_Program.
listOfAgents.append(kitty)
if counter <= (len(playerList))/2:
theThingx = item
theRelation = 'Is_On'
theThingy = 'Red_Team'
theChunkID = theThingx, theRelation, theThingy
Chunk_Module.Chunk3(court, theChunkID, theThingx, theRelation, theThingy)
theRelation = 'Is_In'
theThingy = 'Red_Court'
theChunkID = theThingx, theRelation, theThingy
Chunk_Module.Chunk3(court, theChunkID, theThingx, theRelation, theThingy)
counter = counter + 1
else:
theThingx = item
theRelation = 'Is_On'
theThingy = 'Blue_Team'
theChunkID = theThingx, theRelation, theThingy
Chunk_Module.Chunk3(court, theChunkID, theThingx, theRelation, theThingy)
theRelation = 'Is_In'
theThingy = 'Blue_Court'
theChunkID = theThingx, theRelation, theThingy
Chunk_Module.Chunk3(court, theChunkID, theThingx, theRelation, theThingy)
counter = counter + 1
#Closes the database, prints the starting conditions of the simulation,
# and returns the environment - which is used by Run_Program.
database.close()
for item in court.facts:
print item.ID
return court
