def main():
agent1 = deep_q_learning.DeepQLearning()
agent1.define_model()
print(agent1.model.summary())
print(agent1.model.inputs)
agent2 = random_agent.RandomAgent()
wins = collections.defaultdict(int)
numberOfSetsOfGames = 100
if os.path.isfile(LEARNING_FILE):
agent1.loadLearning(LEARNING_FILE)
print('loaded learning')
print(agent1.model.get_weights())
print('running....')
for i in range(numberOfSetsOfGames):
agent1.reset()
gg = g.SuperTicTacToe(verbose=0)
sim = simulate.Simulate(agent1, agent2, gg, verbose=0)
result = sim.run(i)
agent1.update(gg)
wins[str(result)] += 1
if i % 1000 == 0:
print(i)
print('x won ' + str(wins['x'] / float(numberOfSetsOfGames)) +
'% of the time')
print('o won ' + str(wins['o'] / float(numberOfSetsOfGames)) +
'% of the time')
print('tie ' + str(wins['False'] / float(numberOfSetsOfGames)) +
'% of the time')
agent1.saveLearning(LEARNING_FILE)
def new_world(self):
p = []
p += self.add_humans()
p += self.add_ai()
#p+=self.add_sp_ai()
s = simulate.Simulate(p, 400)
for i in range(200):
s.simulate_day()
return s
def new_world(self):
p = []
#p+=self.add_humans()
#p+=self.add_ai()
p += self.add_sp_ai()
s = simulate.Simulate(p, 100)
for i in range(400):
s.simulate_day()
return s.timeseries
def main():
# g = game.SuperTicTacToe()
# g.start()
# g.play()
wins = collections.defaultdict(int)
numTrials = 100
print('out of ' + str(numTrials) + ' games....')
for i in range(0, numTrials):
# game = simulate.Simulate(agent1 = mcts.MonteCarloTreeSearch(g.SuperTicTacToe(verbose = 0)), agent2 = random_agent.RandomAgent(), game = g.SuperTicTacToe(verbose = 0), verbose = 0)
# result = game.run(trial)
game = simulate.Simulate(\
# agent1 = deep_q_learning.DeepQLearning(),\
agent1 = minimax.MiniMax(), \
agent2 = random_agent.RandomAgent(),\
game = g.SuperTicTacToe(verbose = 0),\
verbose = 1\
)
result = game.run(i)
wins[str(result)] += 1
print('x won ' + str(wins['x'] / float(numTrials)) + '% of the time')
print('o won ' + str(wins['o'] / float(numTrials)) + '% of the time')
print('tie ' + str(wins['False'] / float(numTrials)) + '% of the time')
def initSimulate(w):
w.simulate = simulate.Simulate()
def main():
my_restaurant = restaurant.Restaurant()
my_simulation = simulate.Simulate(my_restaurant)
my_simulation.run()
#coding:utf-8
import pandas as pd
import os
import re #Regular expression
import copy
import json
import csv
import numpy as np
import func
import simulate
S = simulate.Simulate()
X = func.Func()
def getPipsPerMonth(currency, codeStr, codeArgValStr, year):
spread = X.getSpread(S.getCurrency())
try:
result = X.getResult(currency, codeStr, codeArgValStr, year)
if len(result.index) > 0:
month = float(result['month'][len(result.index) - 1]) - 1 + float(
result['day'][len(result.index) - 1]) / 31
deltaRate = result.sum()['delta'] / (60 * 24 * 20 * month)
average = result.mean()['gain']
if deltaRate > 1:
countPerMonth = len(result.index) / month / deltaRate
else:
countPerMonth = len(result.index) / month
return (average - spread) * countPerMonth
else:
return 0
def main():
numberOfNodes = 100
numberOfPacketsPerNode = 300
contentionWindowMin = 8
numberOfSims = 1000
packetSize = 10
isQoS = True # type: bool
# isQoS = False # type: bool
isBurstModeEnabled = True
isBlockACKEnabled = True
# Initializing random function for the whole simulation
rand = random.Random()
rand.seed(time.gmtime())
timings = [] # type: list[int]
collisions = [] # type: list[int]
burstSize = 3
nodalTransmissionTimes = [[0 for _ in range(numberOfSims)]
for _ in range(numberOfNodes)
] # type: list[int][int]
if (not isQoS and (isBlockACKEnabled or isBurstModeEnabled)):
print("The Block/Burst mode cannot be used in a non-QoS environment")
elif (isQoS and not isBurstModeEnabled and isBlockACKEnabled):
print(
"The Block ACK mode requires Burst mode to be active for implementation"
)
else:
for simNum in range(numberOfSims):
print("{0}".format(simNum), end="")
sim = simulate.Simulate() # type: simulate.Simulate
# Create a new Network object for each simulation run
network = ntwk.Network(numberOfNodes, numberOfPacketsPerNode,
contentionWindowMin,
packetSize) # type: ntwk.Network
network.rand = rand
network.burstSize = burstSize
network.isBurstModeEnabled = isBurstModeEnabled
network.isBlockACKEnabled = isBlockACKEnabled
# Initiating simulation
sim.run(network, isQoS)
# Collects nodal time statistics
for nodeNum in range(numberOfNodes):
nodalTransmissionTimes[nodeNum][simNum] = network.nodes[
nodeNum].timeToCompleteTransmission
# Collects simulation's average time and collision count
timings.append(sim.time)
collisions.append(sim.collisionCount)
avgTime = sum(timings) / numberOfSims
print("\nAverage Time: {0}".format(avgTime))
nodalTimeAverages = []
for i in range(numberOfNodes):
nodalTimeAverages.append(
sum(nodalTransmissionTimes[i]) / numberOfSims)
print("Nodal Average Times: ", nodalTimeAverages)
print("Average Throughput {0}".format(
(numberOfPacketsPerNode * numberOfNodes) / avgTime))
print("Average collisions: {0}".format(sum(collisions) / numberOfSims))