class Client(object):
def __init__(self, addr, coder=None):
self.sock = Socket()
self.addr = addr
self.loop = Loop()
self.ch = Channel(self.sock, self.loop, coder)
self.ch.set_read_callback(self.on_msg_in)
self.ch.set_write_callback(self.on_msg_sent)
self.ch.set_error_callback(self.on_error)
def start(self):
self.ch.connect(self.addr)
self.loop.loop()
def on_msg_in(self, msg):
pass
def on_msg_sent(self):
pass
def on_error(self):
pass
def send(self, msg):
self.ch.send(msg)
def __init__(self, addr, coder=None):
self.loop = Loop()
self.acceptor = Acceptor(addr, self.loop)
self.coder = coder
self.clients = {}
self.acceptor.set_error_callback(self.fatal_error)
self.acceptor.set_connect_callback(self.process_new)
def __init__(self, addr, coder=None):
self.sock = Socket()
self.addr = addr
self.loop = Loop()
self.ch = Channel(self.sock, self.loop, coder)
self.ch.set_read_callback(self.on_msg_in)
self.ch.set_write_callback(self.on_msg_sent)
self.ch.set_error_callback(self.on_error)
def __init__(self, window, parent=None):
super(Display, self).__init__(parent)
self.loop = Loop(window)
self.setWindow(window)
self.startTimer(100)
def __init__(self, addr, retry_times=3):
self.sock = Socket()
self.fd = self.sock.fd
self.addr = addr
self.loop = Loop(2)
self.loop.set_timeout(2, self.on_timeout)
self.times = retry_times
self.retry_time = 0
self.stat = 0
def test_canvas_rejects_loop_with_repeated_numbers():
dwg = svgwrite.Drawing("foo")
canvas = Canvas(dwg)
loop = Loop('acgu', [1, 2, 3, 4], None)
loop2 = Loop('acgu', [1, 2, 3, 4], None)
with pytest.raises(Exception) as e_info:
canvas.add_loop(loop)
canvas.add_loop(loop2)
def parse(dir_name):
print("#####PARSING#####")
arn_list = []
for filename in os.listdir(dir_name):
file = open(dir_name + filename, 'r')
print("file: " + dir_name + filename)
# On construit l'objet ARN
arn = ARN(filename.split("_")[0])
file.readline()
file.readline()
chain = file.readline().split(" ")[1].rsplit('\t')
chain_id = chain[0]
chain = chain[1].rsplit('\n')[0]
arn.chain = chain
arn.chain_id = chain_id
file.readline()
# On ajoute les interactions et bases a l'ARN
arn._set_bases()
for line in file:
line = line.rsplit('\t')
base1 = Base(line[2], int(line[5]))
base2 = Base(line[6], int(line[9].rsplit('\n')[0]))
interaction = Interaction(base1, line[1], base2)
arn._add_interaction(interaction)
# On ajoute les boucles a l'ARN
expr = "Catalog_results/loop." + arn.name + "*"
for loop_file_name in glob.glob(expr):
print("|\tloop file: " + loop_file_name)
loop_file = open(loop_file_name)
loop = Loop(arn.name, arn.chain_id, loop_file.readline().split(":")[1].rsplit('\n')[0])
loop_bases = loop_file.readline().split(": ")[1].split(", ")
loop_bases[-1] = loop_bases[-1].rsplit('\n')[0]
loop.bases = [Base(b[:1], b[1:]) for b in loop_bases]
loop_file.readline()
for line in loop_file:
line = line.rsplit('\t')
base1 = Base(line[0][:1], int(line[0][1:]))
base2 = Base(line[2][:1], int(line[2][1:].rsplit('\n')[0]))
interaction = Interaction(base1, line[1], base2)
print("|\t|\tadding interaction " + str(interaction))
loop.add_interaction(interaction)
arn._add_loop(loop)
loop_file.close()
file.close()
arn_list.append(arn)
print("#####FINISHED PARSING#####")
return arn_list
class Server(object):
def __init__(self, addr, coder=None):
self.loop = Loop()
self.acceptor = Acceptor(addr, self.loop)
self.coder = coder
self.clients = {}
self.acceptor.set_error_callback(self.fatal_error)
self.acceptor.set_connect_callback(self.process_new)
def start(self):
self.acceptor.listen()
self.loop.loop()
def fatal_error(self, msg):
print msg
self.quit()
def quit(self):
for fd in self.clients.keys():
ch = self.clients.pop(fd)
ch.close()
self.loop.quit()
def process_new(self, sock):
ch = Channel(Socket(sock), self.loop, self.coder)
ch.set_read_callback(self.on_msg_in)
ch.set_write_callback(self.on_msg_sent)
ch.set_error_callback(self.on_error)
ch.set_peer_closed(self.peer_closed)
self.clients[ch.fd] = ch
self.on_connect(ch)
def on_connect(self, ch=None):
print 'client {} connect.'.format(ch.peer_addr)
pass
def on_msg_in(self, msg, ch=None):
pass
def on_msg_sent(self, ch=None):
pass
def on_error(self, ch=None):
print 'error'
self.clients.pop(ch.fd)
def peer_closed(self, ch=None):
print 'client {} disconnect.'.format(ch.peer_addr)
self.clients.pop(ch.fd)
def main():
pygame.mixer.init(44100, -16, 2, 1024)
pygame.init()
screen = pygame.display.set_mode(DISPLAY)
pygame.display.set_caption("py Wheels")
bg = Surface((WIN_WIDTH, WIN_HEIGHT))
bg.fill(Color(BACKGROUND_COLOR))
timer = pygame.time.Clock()
margin_row = 0
margin_sect = MARGIN * 0.5
list_loops = []
total_dict_loops = {}
pygame.mouse.set_cursor(*pygame.cursors.diamond)
for row in range(0, COUNT_ROWS):
margin_row += MARGIN
margin_sect += row * MARGIN * 0.5
loops = []
margin_loop = 0
for col in range(0, COUNT_IN_ROW):
margin_loop += MARGIN
x = LOOP_RAD + 2 * col * LOOP_RAD + margin_loop + TOTAL_X_MARGIN
y = LOOP_RAD + 2 * row * LOOP_RAD + margin_row + TOTAL_Y_MARGIN
loop = Loop(LOOP_RAD, x, y)
total_dict_loops.update({loop.id: loop})
loops.append(loop)
height = (2 * LOOP_RAD) + MARGIN
y = row * height + MARGIN * 0.5 + TOTAL_Y_MARGIN
width = (2 * LOOP_RAD * COUNT_IN_ROW) + (MARGIN * (COUNT_IN_ROW + 1))
sect = Section(TOTAL_X_MARGIN, y, width, height)
list_loops.append([sect, loops])
loop_sync = LoopSync(
LOOP_RAD_SYNC, TOTAL_X_MARGIN + (width / 2),
MARGIN + height * COUNT_ROWS + LOOP_RAD_SYNC + TOTAL_Y_MARGIN)
main_process(screen, bg, list_loops, total_dict_loops, loop_sync, timer)
class Display(QtWidgets.QLabel):
def __init__(self, window, parent=None):
super(Display, self).__init__(parent)
self.loop = Loop(window)
self.setWindow(window)
self.startTimer(100)
def setWindow(self, window):
self.window = window
self.loop.window = window
self.setFixedSize(window.width, window.height)
self.updateContent()
self.show()
def updateContent(self):
self.window.getContent()
i = QtGui.QImage(
self.window.pixels,
self.window.width,
self.window.height,
QtGui.QImage.Format_RGBX8888,
).rgbSwapped()
self.setPixmap(QtGui.QPixmap.fromImage(i))
self.update()
def timerEvent(self, e):
self.updateContent()
def mouseReleaseEvent(self, e):
pos = e.pos()
right = e.button() == Qt.RightButton
self.window.click(pos.x(), pos.y(), right=right)
self.loop.addClick(pos.x(), pos.y(), right)
def loop(self, sequences=None, outputs=None, non_sequences=None, block=None, **kwargs):
"""
Start a loop.
Usage:
```
with deepy.graph.loop(sequences={"x": x}, outputs={"o": None}) as vars:
vars.o = vars.x + 1
loop_outputs = deepy.graph.loop_outputs()
result = loop_outputs.o
```
"""
from loop import Loop
return Loop(sequences, outputs, non_sequences, block, **kwargs)
class Client(object):
def __init__(self, addr, coder=None):
self.sock = None
self.addr = addr
self.coder = coder
self.loop = Loop()
self.ch = None
def start(self):
self.connect()
self.loop.loop()
def connect(self, retry=3):
self.sock = Connector(self.addr).connect()
if not self.sock:
print 'connect timeout.'
exit()
self.ch = Channel(self.sock, self.loop, self.coder)
self.ch.set_read_callback(self.on_msg_in)
self.ch.set_write_callback(self.on_msg_sent)
self.ch.set_error_callback(self.on_error)
self.ch.set_peer_closed(self.peer_closed)
def on_msg_in(self, msg, ch=None):
pass
def on_msg_sent(self, ch=None):
pass
def on_error(self, ch=None):
pass
def peer_closed(self, ch=None):
print 'server offline.'
self.loop.quit()
def send(self, msg):
self.ch.send(msg)
def gen_random_loops(self, num_loops=7):
loop_dim_dist = [6, 6, 7, 7, 8, 9, 10]
for i in range(num_loops):
rand_corner = (random.randint(0, self.width - 3),
random.randint(0, self.height - 3))
rand_width = random.choice(loop_dim_dist)
if rand_corner[0] + rand_width >= self.width:
rand_width = self.width - rand_corner[0]
rand_height = random.choice(loop_dim_dist)
if rand_corner[1] + rand_height >= self.height:
rand_height = self.height - rand_corner[1]
cand = Loop(rand_corner, rand_width, rand_height)
self.add_loop(cand)
self.append_frame()
def test_sane_loop_order():
# this stem is an impossibility of numbering -- just so that we can add to a canvas.
stem = Stem('acguacgu', [[1, 8], [2, 7], [3, 6], [4, 5]])
loop = Loop('acgu', [1, 2, 3, 4], stem)
for loop_idx, loop_nt in enumerate(loop.nucleotides.keys()):
print loop_idx, loop_nt, loop.nucleotides[loop_nt].name
dwg = svgwrite.Drawing("foo")
canvas = Canvas(dwg)
canvas.add_stem(stem)
canvas.add_loop(loop)
for loop_idx, loop_nt in enumerate(canvas.loops[0].nucleotides.keys()):
print loop_idx, loop_nt, loop.nucleotides[loop_nt].name
def on_pushButton_send_clicked(self):
# 若是发送按钮
if self.pushButton_send.text() == '发送':
# 按钮名改为停止
self.pushButton_send.setText('停止')
# 队列不为空
while not self.queue.empty():
# 读取队列
self.queue.get()
# 网站循环发送（时间，队列，数据源类型）
self.loop = Loop(self.doubleSpinBox_speed.value(), self.queue,
self.comboBox_data.currentText())
# 线程
self.thread = Thread(target=self.loop.run,
name='loop_run',
args=())
# 启动线程
self.thread.start()
# 休眠
sleep(0.1)
# 线程不可用
if not self.thread.is_alive():
# 警告框
QMessageBox.warning(self, '余时锐警告', '请检查网络连接', QMessageBox.Yes)
# 按钮变回发送
self.pushButton_send.setText('发送')
# 若是停止按钮，按钮名改为发送
else:
# 按钮改名为发送
self.pushButton_send.setText('发送')
# 写队列，等待时间1秒
self.queue.put(1)
def _create_loops(self):
points = []
g_cities = nx.DiGraph()
for city in self.cities:
city = self.cities.get(city)
g_cities.add_node('f-' + str(city.id), bipartite=0)
g_cities.add_node('t-' + str(city.id), bipartite=1)
points.append([city.x, city.y])
points = np.array(points)
vor = Voronoi(points, incremental=True)
for point in vor.ridge_points:
self.cities[point[0]].add_neighbor(self.cities[point[1]])
self.cities[point[1]].add_neighbor(self.cities[point[0]])
g_cities.add_edge('f-' + str(self.cities[point[0]]),
't-' + str(self.cities[point[1]]))
g_cities.add_edge('f-' + str(self.cities[point[1]]),
't-' + str(self.cities[point[0]]))
temp = bipartite.maximum_matching(g_cities)
print(temp)
del g_cities
islands = nx.DiGraph()
i = 0
for key, value in temp.items():
# connect cities ...
self.cities[int(key[2:])].connect_to(self.cities[int(value[2:])])
islands.add_edge(self.cities[int(key[2:])],
self.cities[int(value[2:])])
i += 1
if (i >= temp.__len__() / 2):
break
for i, c in enumerate(nx.recursive_simple_cycles(islands)):
# for i, c in enumerate(nx.simple_cycles(islands)):
loop = Loop(c, i)
self._loops.append(loop)
self.loops.add(i)
import socket
from urllib.parse import urlparse
from loop import Loop
loop = Loop()
async def connect(host):
sock = socket.socket()
sock.setblocking(False)
await loop.sock_connect(sock, (host, 80))
return sock
async def get(host):
request = (b"GET / HTTP/1.1\r\n"
b"Host: " + host.encode('ascii') + b"\r\n"
b"Connection: close\r\n"
b"\r\n")
sock = await connect(host)
await loop.sock_sendall(sock, request)
chunks = []
while True:
chunks.append(await loop.sock_recv(sock, 4096))
if not chunks[-1]: # Server closed connection
break
sock.close()
import resource
import socket
from urllib.parse import urlparse
from loop import Loop
loop = Loop()
connection_count = 0
async def echo(sock):
global connection_count
while True:
data = await loop.sock_recv(sock, 1024)
if not data:
break
await loop.sock_sendall(sock, b'Echo: ' + data)
print('Connection', connection_count, 'closed')
connection_count -= 1
async def listen(address):
global connection_count
server_sock = socket.socket()
server_sock.setsockopt(socket.SOL_SOCKET, socket.SO_REUSEADDR, 1)
server_sock.bind(address)
server_sock.listen()
server_sock.setblocking(False)
while True:
import socket
import resource
from urllib.parse import urlparse
from loop import Loop
loop = Loop()
async def connect(address):
sock = socket.socket()
sock.setblocking(False)
await loop.sock_connect(sock, address)
return sock
async def start_client(i, address):
sock = await connect(address)
await loop.sock_sendall(sock, b'Hello from client %d!' % i)
reply = await loop.sock_recv(sock, 1024)
print('Client', i, 'got:', reply)
# Keep client alive with a read that never returns
await loop.sock_recv(sock, 1024)
async def start_clients(address):
for i in range(5000):
loop.create_task(start_client(i, address))
if __name__ == '__main__':
soft, hard = resource.getrlimit(resource.RLIMIT_NOFILE)
def __init__(self):
Loop.__init__(self)
self.sock = 3
def startup(sim_pipe):
#Sonnesystem
python_position = [
#"Sun"
[0, 0, 0],
#"Mercury"
[57_909_175_000, 0, 0],
#"Venus"
[108_208_930_000, 0, 0],
#"Earth"
[149_597_890_000, 0, 0],
#"Moon"
[149_597_890_000, 384_400_000, 0],
#"Mars"
[227_936_640_000, 0, 0],
#"Jupiter"
[778_412_020_000, 0, 0],
#"Saturn"
[1_426_725_400_000, 0, 0],
#"Uranus"
[2_870_972_200_000, 0, 0],
#"Neptune"
[4_498_252_900_000, 0, 0]
]
python_speed = [
#"Sun"
[0, 0, 0],
#"Mercury"
[0, 47_872, 0],
#"Venus"
[0, 35_021, 0],
#"Earth"
[0, 29_786, 0],
#"Moon"
[-1_022, 0, 0],
#"Mars"
[0, 24_131, 0],
#"Jupiter"
[0, 13_069, 0],
#"Saturn"
[0, 9_672, 0],
#"Uranus"
[0, 6_835, 0],
#"Neptune"
[0, 5_477, 0]
]
python_masse = [
#"Sun"
1.9889 * 10**30,
#"Mercury"
3.3022 * 10**23,
#"Venus"
4.8685 * 10**24,
#"Earth"
5.97219 * 10**24,
#"Moon"
7.34767309 * 10**22,
#"Mars"
6.4185 * 10**23,
#"Jupiter"
1.8987 * 10**27,
#"Saturn"
5.6851 * 10**26,
#"Uranus"
8.6849 * 10**25,
#"Neptune"
1.0244 * 10**26
]
FACTOR = 0.1
radius = [
0.25 * FACTOR, 0.02 * FACTOR, 0.06 * FACTOR, 0.06 * FACTOR,
0.01 * FACTOR, 0.03 * FACTOR, 0.18 * FACTOR, 0.15 * FACTOR,
0.1 * FACTOR, 0.1 * FACTOR
]
position = np.array(python_position, dtype=np.float64)
speed = np.array(python_speed, dtype=np.float64)
masse = np.array(python_masse, dtype=np.float64)
dt = 60 * 60 * 2
while True:
if sim_pipe.poll():
message = sim_pipe.recv()
if isinstance(message, str) and message == END_MESSAGE:
print('simulation exiting ...')
sys.exit(0)
for i in range(24 * 7):
Loop(dt, position, speed, masse)
body_array = np.zeros((len(position), 4), dtype=np.float64)
normalization = -11
for body_index in range(len(python_position)):
body_array[body_index][
0] = position[body_index][0] / 4_498_252_900_000
body_array[body_index][
1] = position[body_index][1] / 4_498_252_900_000
body_array[body_index][
2] = position[body_index][2] / 4_498_252_900_000
body_array[body_index][3] = radius[body_index]
#print(body_array)
#time.sleep(1/60)
sim_pipe.send(body_array)
with open('../etc/config.json') as cf:
config = json.loads(''.join(cf.readlines()))
with open('../etc/users.json') as cf:
users = json.loads(''.join(cf.readlines()))
return config, users
if __name__ == "__main__":
# as the method says...
config, users = load_configuration()
from loop import Loop
looper = Loop(config)
# importing the handler
from handlers import Handler
# initializing the handler
# includes all callbacks
handler = Handler(looper.com, users)
# importing the server implmentation
from server import HTTPServer
# Starting the webserver, passing in all
# route definitions
http_server = HTTPServer(config, handler.routes)
def __calculate_iteration_domain(statement, params, matrix, columns):
"""
Establishes the loops of a given statement from a matrix corresponding to the SCoPLib
domain from a .scop file
Parameters
----------
statement : the statement to assign the loops
params : the list of parameters for the .scop file
matrix : the matrix of the SCoPLib domain from a .scop file as a list of lists
columns : the number of columns of the matrix
Returns
-------
None
"""
number_of_loops = columns - 2 - len(params)
loops = []
for tup in matrix:
d_loop = dict()
d_loop['tup'] = tup
d_loop['p_tup'] = list(filter(lambda c: c != '',
tup.split(' ')))[:columns]
d_loop['is_greater_than'] = int(d_loop['p_tup'][0])
# Last iterator with a coefficient different from 0.
# This is the less restrictive loop for which this condition_text can belong
num = 0
iterators = d_loop['p_tup'][1:1 + number_of_loops]
for i, value in enumerate(iterators[::-1]):
if value != '0':
num = len(iterators) - i
break
d_loop['for_loop_num'] = num - 1
loops.append(d_loop)
statement_loops = []
for i in range(number_of_loops):
loop = Loop()
loop.iterator = 'optimization_iterator_' + str(i)
statement_loops.append(loop)
for d_loop in loops:
condition = Condition()
coefficients = {}
for cond in range(number_of_loops):
if int(d_loop['p_tup'][cond + 1]):
itera = 'optimization_iterator_' + str(cond)
val = int(d_loop['p_tup'][cond + 1])
coefficients[itera] = val
for cond, _ in enumerate(params):
if int(d_loop['p_tup'][cond + number_of_loops + 1]):
par = params[cond]
val = int(d_loop['p_tup'][cond + number_of_loops + 1])
coefficients[par] = val
condition.coefficients = coefficients
condition.term = int(d_loop['p_tup'][-1])
if len(statement_loops) == 0:
statement.if_conditions.append(condition)
else:
statement_loops[d_loop['for_loop_num']].loop_conditions.append(
condition)
statement.loops = statement_loops
from branch import Branch
from ifcond import IfCond
from loop import Loop
if __name__ == '__main__':
cond = 'x > 0'
branch = Branch(cond)
print(branch.toString())
then_b = 'x++;'
else_b = 'x--;'
ifcond = IfCond(cond, then_b, else_b)
print(ifcond.toString())
body = 'y++;'
loop = Loop(cond, body)
print(loop.toString())
class Connector(object):
def __init__(self, addr, retry_times=3):
self.sock = Socket()
self.fd = self.sock.fd
self.addr = addr
self.loop = Loop(2)
self.loop.set_timeout(2, self.on_timeout)
self.times = retry_times
self.retry_time = 0
self.stat = 0
def on_timeout(self):
if self.retry_time > self.times:
self.close()
return
self.retry_time += 1
self.loop.set_timeout(self.retry_time, self.on_timeout)
if self.sock.connect(self.addr):
self.on_connect()
def run_onece(self, fd, evt):
if evt < 8:
self.on_connect()
# else:
# print 'connector ', evt
def on_connect(self):
self.close()
self.stat = 1
self.sock.stat = 1
def close(self):
self.loop.unregister(self.fd)
self.loop.quit()
def poll(self):
self.loop.register(self.fd, EPOLLET | EPOLLOUT, self.run_onece)
self.loop.loop()
def connect(self):
self.sock.connect(self.addr)
self.poll()
if self.stat:
print 'connected'
return self.sock
return None
# Loops as a list of loopconnection object that contains (list<string>
# elements,List<string> strarts, List <ends> ends)
dicarr = gateway.entry_point.getLoops()
Loops = []
for i in range(0, len(dicarr)):
n = dicarr[i]
elements = []
starts = []
ends = []
for x in dicarr[i].getElements():
elements.append(x.getLabel())
for x in dicarr[i].getStarts():
starts.append(x.getLabel())
for x in dicarr[i].getEnds():
ends.append(x.getLabel())
l = Loop(dicarr[i].getId(), elements, starts, ends)
Loops.append(l)
gateway.shutdown()
GivenConfidenceLevel = 0
''' removing folders '''
txtDirectory = "labeledEventLog_txt/"
csvDirectory = "labeledEventLog_csv/"
xesDirectory = "labeledEventLog_xes/"
otherDirectory = "otherEventLog_all/"
if os.path.exists(txtDirectory):
shutil.rmtree(txtDirectory)
if os.path.exists(csvDirectory):
shutil.rmtree(csvDirectory)
if os.path.exists(xesDirectory):
shutil.rmtree(xesDirectory)
varX = Variable("x")
varX.setValue(Mul(Const(2), Const(5)))
varY = Variable("y")
varY.setValue(Const(3))
expr2 = Sub(Add(Const(1), varY), varX) #-6
print(str(expr2) + " = " + str(expr2.calculate()))
expr3 = IfCond(
IfCond(expr2, Const(0), Const(1)),
Sub(expr2, Const(10)), #-16
Add(expr2, Const(10))) #4
print(str(expr3) + " = " + str(expr3.execute()))
#expr4 = varX.setValue(Sub(varX, Const(1)))
#print(str(expr4) + " = " + str(varX.getValue()))
#expr4 = varX.setValue(Sub(varX, Const(1)))
#print(str(expr4) + " = " + str(varX.getValue()))
#print(varX) #x
#print(varX.setValue(Const(1))) #x = 1
#print(varX.getValue()) #1
expr5 = Loop(IfCond(Const(0), Const(1), Const(2)),
varY.setValue(Add(varY, Const(1))))
print(str(expr5) + " = " + str(expr5.execute()))
def run(qubit, gf=10.0, pf=128.0):
screen = pygame.display.set_mode(g.windowSize)
screen.convert()
pygame.display.set_caption('Qubit visualization')
def graphics_update():
screen.fill(g.CYAN)
e.event_log.act(pygame.mouse.get_pos())
qubit.draw(e.camera, g.WHITE, g.BLUE, g.RED, g.FOREST_GREEN, g.CYAN)
g.draw(pygame.draw, screen)
pygame.display.flip()
gr.draw()
physics = Loop(pf, time_dependent_func=qubit.step)
gr = Graph((0, 1), (-1, 1))
qubit.add_state_graph(gr, .2)
stop = False
last = time()
graphics = Loop(gf, time_independent_func=graphics_update)
graphics.init(last)
physics.init(last)
run = True
while run:
for event in pygame.event.get():
if event.type == pygame.QUIT:
run = False
elif event.type == pygame.KEYDOWN:
e.event_log.log(event.key)
if event.key == 32:
stop = True
elif event.type == pygame.KEYUP:
e.event_log.remove(event.key)
elif event.type == pygame.MOUSEBUTTONDOWN:
e.event_log.click()
elif event.type == pygame.MOUSEBUTTONUP:
e.event_log.unclick()
dt = time() - last
graphics.go(dt)
if not stop:
physics.act(dt)
last += dt
pygame.display.quit()
result += "\n]"
return result
def __str__(self):
return self.format()
def __repr__(self):
return "CommandSequence(" + str(self) + ")"
if __name__ == "__main__":
from comment import Comment
from loop import Loop
from parallel import Parallel
print CommandSequence([Loop('x', 1, 10, 0.5)])
print CommandSequence([Loop('x', 1, 10, 0.5, Comment("Hello"))])
print CommandSequence(
[Loop('x', 1, 10, 0.5, Comment("Hello"), completion=True)])
print CommandSequence([
Loop('x',
1,
10,
0.5, [Comment("Hello"), Comment("World")],
completion=True,
timeout=10)
])
from loop import Loop
import random
def callback(x):
x *= x
return {"a": random.random()}
class Batata:
def __init__(self):
self.a = 2
arg = Batata()
l = Loop()
a = l.create_coro(callback, arg)
b = l.create_coro(callback, arg)
print(l.run([a, b]))
print(arg.a)