def handle_revision(revision):
print "revision: %s" % revision
filename = os.path.join("mtn2cache", "revision", revision)
if not os.path.exists(filename):
data = Child(*MTN + ["au", "get_revision", revision]).stdout
try:
file(filename, "w").write(data)
except:
os.unlink(filename)
raise
filename = os.path.join("mtn2cache", "manifest", revision)
if not os.path.exists(filename):
data = Child(*MTN + ["au", "get_manifest_of", revision]).stdout
try:
file(filename, "w").write(data)
except:
os.unlink(filename)
raise
filename = os.path.join("mtn2cache", "certs", revision)
if not os.path.exists(filename):
data = Child(*MTN + ["au", "certs", revision]).stdout
try:
file(filename, "w").write(data)
except:
os.unlink(filename)
raise
def __init__(self, game, name):
Child.__init__(self, game, name)
self.game = game
self.name = name
self.states = States
self.state = self.states.FOLLOW
if len(self.game.bots) == 0:
self.radius_x = 40
self.radius_y = 40
else:
self.radius_x = 80
self.radius_y = 80
self.keys = {
self.UP:False, self.DOWN:False,
self.LEFT:False, self.RIGHT:False
}
self.player = self.game.player
self.MAX_HP += self.player.party_health
self.attack += self.player.party_attack
self.block_id = "bot"
self.set_hitbox_size((32, 32))
def main(controller, cosine_annealing_scheduler):
running_reward = 0
child = Child(dropout_rate=float(args.dropout),
use_auxiliary=args.use_auxiliary).to(device)
child_optimizer = optim.SGD(child.parameters(),
lr=0.05,
momentum=0.9,
weight_decay=1e-4,
nesterov=True)
cosine_lr_scheduler = cosine_annealing_scheduler(child_optimizer, lr=0.05)
for epoch in range(150):
cosine_lr_scheduler.step()
child = train_child(epoch, controller, child, child_optimizer)
torch.save(child.state_dict(), './save_model/child.pth')
torch.save(controller.state_dict(), './save_model/controller.pth')
if epoch < 150 - 1:
controller_model, running_reward = train_controller(
controller, child, running_reward)
final_model = model
final_acc = test_final_model(final_model)
print('training is done. Final accuarcy is ', final_acc)
def remote_takeProxy(self, name, transport):
'''设置代理通道
@param addr: (hostname,port)hostname 根节点的主机名,根节点的端口
'''
log.msg('node [%s] takeProxy ready' % name)
child = Child(name, name)
self.childsmanager.addChild(child)
child.setTransport(transport)
def remote_takeProxy(self,name,transport):
'''设置代理通道
@param addr: (hostname,port)hostname 根节点的主机名,根节点的端口
'''
log.msg('node [%s] takeProxy ready'%name)
child = Child(name,name)
self.childsmanager.addChild(child)
child.setTransport(transport)
def remote_takeProxy(self, name, transport):
"""设置代理通道
@param addr: (hostname,port)hostname 根节点的主机名,根节点的端口
"""
log.msg("node [%s] takeProxy ready" % name)
child = Child(name, name)
self.childsmanager.addChild(child)
child.setTransport(transport)
self.doChildConnect(name, transport)
def remote_takeProxy(self,name,transport):
'''设置代理通道
@param name: 根节点的名称
'''
log.msg('node [%s] takeProxy ready'%name)
child = Child(name)
self.childsmanager.addChild(child)
child.setTransport(transport)
self.doChildConnect(name, transport)
def remote_takeProxy(self, name, transport):
'''设置代理通道
@param name: 根节点的名称
'''
log.msg('node [%s] takeProxy ready' % name)
child = Child(name, name)
self.childsmanager.addChild(child)
child.setTransport(transport)
self.doChildConnect(name, transport)
def remote_takeProxy(self, name, transport):
"""设置代理通道
@param name: 根节点的名称
"""
logger.info('>1 node [%s] takeProxy ready' % name)
child = Child(self._index, name)
self._index += 1
self.childsmanager.addChild(child)
child.setTransport(transport)
self.doChildConnect(name, transport)
logger.info('>2 node [%s] takeProxy ready' % name)
def remote_takeProxy(self, name, transport):
"""设置代理通道
@param name: 根节点的名称
"""
logger.info('>1 node [%s] takeProxy ready' % name)
child = Child(self._index, name)
self._index += 1
self.childsmanager.addChild(child)
child.setTransport(transport)
self.doChildConnect(name, transport)
logger.info('>2 node [%s] takeProxy ready' % name)
def main():
c = Child(3000, 100)
print(c.money, c.face_value)
c.play()
c.eat()
# 注意：父类中方法名相同，默认调用括号中排前面的父类的方法。
c.func()
def main():
c = Child(300, 100)
print(c.money, c.faceValue)
c.play()
c.eat()
#注意：父类中方法名相同，默认调用的是在class(参数括号)中派遣
c.func()
def main():
c = Child(300, 100)
print(c.money, c.faceValue)
c.play()
c.eat()
#注意：父类中方法名相同，默认调用的是在括号中排前面的父类中的方法
c.func()
class TestChild(unittest.TestCase):
@classmethod
def setUpClass(self):
print('Set up class')
self.sue = Child("sue")
# Create an instance of the loot that can be used in all tests
def test_item_delivered(self):
self.sue.item_delivered()
self.assertTrue(self.sue.item_delivered)
def test_add_toy(self):
sues_bike = self.sue.add_toy("bike")
self.assertEqual(self.sue.add_toy("bike"), sues_bike)
def adjust_child_corrals(self, n_cor_full):
childs = []
corrals = []
for i, row in enumerate(self.cells):
for j, col in enumerate(row):
if col[1]:
childs.append((i, j))
elif col[2]:
corrals.append((i, j))
idx_taken = []
while True:
if n_cor_full == 0:
break
r_idx = random.randint(0, len(childs) - 1)
if r_idx not in idx_taken:
idx_taken.append(r_idx)
child_pos = childs[r_idx]
corral_pos = corrals[r_idx]
self.cells[child_pos[0]][child_pos[1]][1] = 0
self.cells[corral_pos[0]][corral_pos[1]][2] = 2
n_cor_full -= 1
n = 0
n_childs = {}
for i, row in enumerate(self.cells):
for j, col in enumerate(row):
if col[1]:
n_childs[n] = Child(n, (i, j))
n += 1
self.childs = n_childs
def handle_parents(revision):
parents = Child(*MTN +
["au", "parents", revision]).stdout.strip().split('\n')
if not parents:
return
print "revision: %s (parents: %s)" % (revision, parents)
for parent in parents:
filename = os.path.join("mtn2cache", "patch", parent + "-" + revision)
curfilename = os.path.join("mtn2cache", "manifest", revision)
parfilename = os.path.join("mtn2cache", "manifest", parent)
if not os.path.exists(filename):
diff = Child(*DIFF + [parfilename, curfilename]).stdout
try:
file(filename, "w").write(diff)
except:
os.unlink(filename)
raise
def add_childs(self):
childs = {}
n = self.n_childs
while n:
i, j = self.get_rand_tuple()
if not any(self.cells[i][j]):
self.cells[i][j][1] = 1
childs[n] = Child(n, (i, j))
n -= 1
return childs
def update(self):
Child.update(self)
self.regen()
### Follow Player ###
if self.state == self.states.FOLLOW:
# get player location
p_x, p_y = self.player.rect.centerx, self.player.rect.centery
# check if bot in range
rad_x = range(p_x - self.radius_x, p_x + self.radius_x)
rad_y = range(p_y - self.radius_y, p_y + self.radius_y)
rect_x, rect_y = self.rect.centerx, self.rect.centery
# if not next to player, move bot to player
self.reset_keys()
if rect_x not in rad_x:
if rect_x < rad_x[0]: self.move_dir(self.RIGHT)
if rect_x > rad_x[0]: self.move_dir(self.LEFT)
self.h_decel = False
self.update_movement(self.keys)
else:
self.h_decel = True
if rect_y not in rad_y:
if rect_y < rad_y[0]: self.move_dir(self.DOWN)
if rect_y > rad_y[0]: self.move_dir(self.UP)
self.v_decel = False
self.update_movement(self.keys)
else:
self.v_decel = True
### Attack Enemies ###
elif self.state == self.states.ATTACK:
pass
### Defend Player ###
elif self.state == self.states.DEFEND:
pass
### Collect Scales ###
elif self.state == self.states.COLLECT:
pass
def test_ctrl():
# obtain datasets
t = time.time()
images, labels = read_data()
t = time.time() - t
print('read dataset consumes %.2f sec' % t)
# config of a model
class_num = 10
child_num_layers = 6
out_channels = 32
batch_size = 32
device = 'gpu'
epoch_num = 4
# files to print sampled archs
child_filename = 'child_file.txt'
ctrl_filename = 'controller_file.txt'
child_file = open(child_filename, 'w')
ctrl_file = open(ctrl_filename, 'w')
# create a controller
ctrl = Controller(child_num_layers=child_num_layers)
# create a child, set epoch to 1; later this will be moved to an over epoch
child = Child(images, labels, class_num, child_num_layers, out_channels,
batch_size, device, 1)
print(len(list(child.net.graph)))
# print(child.net.graph)
# train multiple epochs
for _ in range(epoch_num):
# sample an arch
ctrl.ctrl.net_sample()
sample_arch = ctrl.ctrl.sample_arch
print_sample_arch(sample_arch, child_file)
# train a child model
# t = time.time()
# child.train(sample_arch)
# t = time.time() - t
# print('child training time %.2f sec' % t)
# train controller
t = time.time()
ctrl.train(child, ctrl_file)
t = time.time() - t
print('ctrller training time %.2f sec' % t)
from father import Father from mother import Mother from child import Child #child继承了两个父类：Father和Mother，两个父类都有Func方法，当子类调用func方法时，默认调用的是继承括号中的第一个父类 c = Child(1000,100) print(c.faceValue,c.money) c.eat() c.play() c.func()
def update(self):
Child.update(self)
self.regen()
def main():
c = Child(1111, 100)
c.play()
c.eat()
#注意：父类中方法名相同，默认调用的是在括号中排前面的父类中的方法
c.func()
def distance(lon1, lat1, lon2, lat2):
return wikimeasure(lon1, lat1, lon2, lat2)
children = {}
with open('nicelist.txt') as f:
for line in f.readlines():
vals = line.split(';')
id = vals[0]
long = float(vals[1])
lat = float(vals[2])
weight = int(vals[3])
children[id] = Child(id, long, lat, weight)
out = []
dist = 0.0
def measure(santalong, santalat, ordering, children):
d = 0.0
long = santalong
lat = santalat
for i in ordering:
child = children[i]
childlong, childlat = child.long, child.lat
d += distance(long, lat, childlong, childlat)
from logging import getLogger, FileHandler, DEBUG
from child import Child
test1 = getLogger("test1")
test2 = getLogger("test2")
fh1 = FileHandler("test1.log", "a+")
fh2 = FileHandler("test2.log", "a+")
test1.addHandler(fh1)
test2.addHandler(fh2)
test1.setLevel(DEBUG)
test2.setLevel(DEBUG)
child = Child()
test1.info("test1test1")
test2.debug("test2test2")
child.writeLog()
from child import Child;
michael = Child("Michael", "Jackson", 5, 30);
# print(michael.lastName);
# print(michael.nrOfToys);
michael.show_info();
def openChild(self):
Child(self.parent, self)
def main():
c = Child(3000, 100)
print(c.money, c.faceValue)
c.play()
c.eat()
c.func()
def fork_child(self,url):
id =uuid4()
child = Child(str(id),url)
process = Process(target=lambda : child.start())
self.childs[str(id)] = (child,process)
def main():
obj = Child()
obj.display()
#coding: utf-8 from parent import Parent from child import Child parent = Parent() parent.hogehoge() child = Child() child.hogehoge()
def main():
branches = Child(*MTN + ["au", "branches"]).stdout.strip().split('\n')
for branch in branches:
handle_branch(branch)
import random
from child import Child
population = []
for i in range(0, 200):
c = Child()
c.randomize()
population.append(c)
while (1):
selection = []
for i in population:
i.calc_fitness()
i.show()
print("Fitness is ", i.fitness)
if i.fitness == 28:
find()
for j in range(0, i.fitness):
selection.append(i)
population = []
print("length is ", len(selection))
for i in range(0, 200):
a = random.randint(0, len(selection) - 1)
#print ("a is ", a)
b = random.randint(0, len(selection) - 1)
#print ("b is ", b)
c = selection[a].crossover(selection[b])
population.append(c)
def find():
def handle_branch(branch):
print "branch: %s" % branch
heads = Child(*MTN + ["au", "heads", branch]).stdout.strip().split('\n')
for head in heads:
handle_head(head)
def main():
xiaohua = Child(30000,100)
xiaohua.play()#父类Father方法
xiaohua.eat()#父类Mother方法
xiaohua.fun()#多继承的几个父类有相同名称的方法，继承对象列表第一个父类的方法
def handle_head(head):
print "head: %s" % head
ancestors = Child(*MTN +
["au", "ancestors", head]).stdout.strip().split('\n')
pool.map(handle_revision, ancestors)
pool.map(handle_parents, ancestors)
def __init__(self, name, age, father, mother):
Child.__init__(self, name, age, father, mother)
Female.__init__(self, name, age)
def main():
c = Child(30, 300)
print(c.money, c.faceValue)
# 注意：父类中方法相同，默认调用的是括号内排前面的
c.func()
from child import Child ''' 测试模块 演示多继承的结构和使用： 子类：Child 直接父类(多个)：Father、Mother 注意： 由于有多个直接父类，多个父类都要自己给其属性赋值， 避免混淆，我们使用类名.__init__(...)这样格式的构造调用 ''' c = Child(100000000, '漂亮', 'python') print(c.money, c.faceValue, c.work) c.playing() c.shopping() c.smoking()
from child import Child from uuid import uuid4 child = Child(str(uuid4()),"http://localhost:8000") child.start()
