host = ''  # (必填)  待拉取的服务名的访问域名, 请使用 http// 或者 https:// 开头, 比如 'http://techs.upyun.com'
origin_path = ''  # (必填) 待拉取的资源路径 (默认会拉取根目录下面的所有目录的文件)
# --------------------------------------------

# ----------目标迁移服务名, 操作员信息-------------
target_bucket = ''  # (必填) 文件迁移的目标服务名
target_username = ''  # (必填) 文件迁移的目标服务名的授权操作员名
target_password = ''  # (必填) 文件迁移的目标服务名的授权操作员的密码
save_as_prefix = ''  # (选填) 目标服务名的保存路径的前置路径 (如果不填写, 默认迁移后的路径和原路径相同)
# --------------------------------------------

notify_url = ''  # 将回调地址改成自己的服务器地址, 用来接收又拍云 POST 过来的异步拉取结果

# --------------------------------------------

queue = queue.LifoQueue()


def push_tasks(url, up):
    fetch_data = [{
        'url': host + url,  # 需要拉取文件的 URL
        'random': False,  # 是否追加随机数, 默认 false
        'overwrite': True,  # 是否覆盖,默认 True
        'save_as': url
    }]
    if not notify_url:
        print('第 19 行 notify_url 参数不能为空')
        sys.exit(0)
    result = up.put_tasks(fetch_data, notify_url, 'spiderman')
    return result
import queue

__author__ = 'Max_Pengjb'
start = time.time()

# 下面写上代码块
# put 进  get 出
# 队列
que = queue.Queue()
que.put(1)
que.put(2)
a = que.get()
print(a)
print(que.get())
# 栈,就是个 后进先出 队列
stack = queue.LifoQueue()
stack.put(3)
stack.put(4)
print(stack.get())
print(stack.get())
# queue.PriorityQueue() : 队列,基于优先级
q = queue.PriorityQueue(3)  # 优先级,优先级用数字表示,数字越小优先级越高
q.put((10, 'a'))
q.put((-1, 'b'))
q.put((100, 'c'))
print(q.get())
print(q.get())
print(q.get())

# 上面中间写上代码块
end = time.time()
Beispiel #3
0
"""
Created on Mon Apr  3 12:43:47 2017

@author: thomas
"""

import asyncio
import telnetlib
import json
import subprocess

import queue

host = "127.0.0.1"
port = 54321
lq = queue.LifoQueue()


async def read_msg():
    reader, writer = await asyncio.open_connection(host, port)

    while True:
        data = await reader.read(2800)
        if data != b"":
            decoded = data.decode()
            #msgs = decoded.split("\n{\"gamestate\"")
            print(decoded)
            lq.put_nowait(decoded)
            #for msg in msgs:
            #    if msg.startswith(":{\"map\":"):
            #        rq.put_nowait(msg)
Beispiel #4
0
import queue
from time import sleep
print("queue....")
#Python queue模块的FIFO队列先进先出
#队列长度可为无限或者有限。可通过queue的构造函数的可选参数maxsize来设定队列长度。如果maxsize小于1就表示队列长度无限。
q = queue.Queue(maxsize=10)
#队列长度可为无限或者有限。可通过queue的构造函数的可选参数maxsize来设定队列长度。如果maxsize小于1就表示队列长度无限。
for i in range(10):
    q.put(i)
#调用队列对象的get()方法从队头删除并返回一个项目。
for i in range(10):
    print(q.get())
    sleep(1)

print("\nLifoqueue...")
#LIFO类似于堆,即先进后出
q = queue.LifoQueue(maxsize=10)
for i in range(10):
    q.put(i)
for i in range(10):
    print(q.get())
    sleep(1)

print("\n queue function....")
q.qsize()
q.empty()
q.empty()
# 在完成一项工作之后,q.task_done() 函数向任务已经完成的队列发送一个信号
q.task_done()
#实际上意味着等到队列为空,再执行别的操作
q.join()
Beispiel #5
0
                    filemode='a',
                    format='%(name)s - %(levelname)s - %(message)s')
"""
SCRIPT VARIABLES
"""
server_ports = [
    30151, 30152, 30153, 30154, 30155, 30156, 30157, 30158
]  #contains te port of each server the app connectes before-hand
end_flag = 1  #Determines when to finish the simulation
synch_delay = 1  #time to wait in minutes before running the script in order to synch all the clients
simulation_speed = 10  #determines the speed of the vehicle in ms. This value must match with the time.sleep of the movement thread
msg = "close_comm"  #message sent to server when clossing socket (server must have the same config)
"""
QUEUE DECLARATION
"""
q_PoA = queue.LifoQueue()  #Queue used to notify the thread_PoA_change
q_receive = queue.Queue()  #Queue used to notify the thread_receiver
"""
SETTING THE SYSTEM
"""
my_car_info = ScenarioReader.car_info(App_ID)
my_poa_info = ScenarioReader.poa_info()

vehicle_speed = my_car_info.get_vehicle_speed()
vehicle_init_pos = my_car_info.get_car_initPosition()
max_Distance = my_poa_info.get_coverage_area()
number_APs = my_poa_info.get_number_APs()

myPoA_manager = PoAManager.PoA_Manager(
    max_Distance, number_APs)  #creates an object of the PoA_Manager class
"""
Beispiel #6
0
 def __init__(self, timeout):
     self.__queue = queue.LifoQueue()
     self.__timeout = timeout
Beispiel #7
0
PROXY_VALIDATE_TIME = 'validateTime'

# 代理网页检索起始页
FETCH_START_PAGE = 1
# 代理网页检索最大截至页
FETCH_END_PAGE = 5

# 代理池大小
PROXY_POOL_SIZE = 10
# 代理池扫描更新间隔
PROXY_POOL_SCAN_INTERVAL = 300
# 代理验证线程数
PROXY_VALIDATE_THREAD_NUM = 3

# 待验证的代理信息列表
unchecked_proxy_list = queue.LifoQueue(300)
# 可用的代理池
proxy_pool = queue.Queue(100)

# 标志量,是否正在扫描代理池
is_scanning = False


# 代理服务守护线程
class ProxyDaemonThread(threading.Thread):
    def __init__(self):
        threading.Thread.__init__(self)

    def run(self):
        # 初始化配置
        self.init()
import queue
data_queue = queue.LifoQueue()

data_queue.put("funding")
data_queue.put(1)
print(data_queue.qsize())
print(data_queue.get())

Beispiel #9
0
'''
队列:queue:先进先出
lifoqueue:先进后出
priorityqueue:存储数据时可以设置优先级的队列
'''
import queue
queue1 = queue.Queue()
queue1.put(4)
print(queue1.get())
lifo = queue.LifoQueue()
lifo.put(1)
print(lifo.get())
priority = queue.PriorityQueue()
priority.put(3)
print(priority.get())
Beispiel #10
0
 def __init__(self, target_size=10, labels=None):
     super(BurstyPool, self).__init__(labels=labels)
     self.target_size = target_size
     self._database = None
     self._sessions = queue.LifoQueue(target_size)
Beispiel #11
0
import queue  #inbuilt stacks and queue
q = queue.Queue(maxsize=10)  #inbuilt queue
q.put(1)
q.put(2)
q.put(3)
q.put(4)
print(q.qsize())
while not q.empty():
    print(q.get())
q = queue.LifoQueue()  #inbuilt stack
q.put(1)
q.put(2)
q.put(3)
while not q.empty():
    print(q.get())
Beispiel #12
0
        button10.place(x=450, y=480, width=100, height=100)

        button11 = ttk.Button(self,
                              text=".",
                              command=lambda: button_click('.'))
        button11.place(x=250, y=580, width=100, height=100)

        button11 = ttk.Button(self, text="0", command=lambda: button_click(0))
        button11.place(x=350, y=580, width=100, height=100)

        button11 = ttk.Button(self, text="borrar", command=button_clear)
        button11.place(x=450, y=580, width=100, height=100)


# Create a DAC instance.
qmode = queue.LifoQueue()
mode = 'Test'
qmode.put(mode)
DAC = Adafruit_MCP4725.MCP4725(address=0x60, busnum=1)
pid = PID(0.55, 1, 0.01)
Interfaz = Emulador_UNIGRID()
KpLabel = StringVar(Interfaz)
KiLabel = StringVar(Interfaz)
KdLabel = StringVar(Interfaz)
KpLabel.set(pid.getKp())
KiLabel.set(pid.getKi())
KdLabel.set(pid.getKd())
textvarOpenFile = StringVar(Interfaz)
textvarOpenFile.set('Kelly G')
labelFileOk.configure(textvariable=textvarOpenFile)
Interfaz.attributes('-zoomed', True)
Beispiel #13
0
# 2. 알아둘 용어
# Enqueue: 큐에 데이터를 넣는 기능
# Dequeue: 큐에 데이터를 꺼내는 기능

import queue

data_queue = queue.Queue()
data_queue.put("배")
data_queue.put("병규")
print(data_queue.qsize())
print(data_queue.get()) # 맨 먼저 들어간 데이터 출력하면서 꺼냄
print(data_queue.qsize())

# 3. LifoQueue 마지막에 넣은 것이 먼저 추출

data_lifoqueue = queue.LifoQueue()

data_lifoqueue.put("문")
data_lifoqueue.put("지수")
print(data_lifoqueue.qsize())
print(data_lifoqueue.get())
print(data_lifoqueue.qsize())

# 4. 우선순위 큐 -> 우선순위도 지정해야 함(값이 작은 것이 우선순위가 높은 것)
data_PriorityQueue = queue.PriorityQueue()
data_PriorityQueue.put((10,"김"))
data_PriorityQueue.put((9,"연수"))

print(data_PriorityQueue.qsize())
print(data_PriorityQueue.get())
print(data_PriorityQueue.qsize())
Beispiel #14
0
graph = {
    'A': ['C', 'B'],
    'B': ['E', 'D', 'A'],
    'C': ['A', 'F'],
    'D': ['H', 'G', 'B'],
    'E': ['B', 'I'],
    'F': ['J', 'C'],
    'G': ['L', 'K', 'D'],
    'H': ['D'],
    'I': ['M', 'E'],
    'J': ['F'],
    'K': ['G'],
    'L': ['G'],
    'M': ['I']
}
q = q.LifoQueue()


def dfs(start, graph, goal):
    q.put(start)
    list = []
    visited = [start]
    while not q.empty():
        node = q.get()
        list.append(node)
        if node == goal:
            return list
        neighbors = graph[node]
        for neighbor in neighbors:
            if neighbor not in visited:
                q.put(neighbor)
Beispiel #15
0
 def __init__(self):
     self.call_q = queue.LifoQueue()  #(stack)
    def run(self):
        input_list = [self.server, sys.stdin]
        RUNNING = True
        FIRST = True
        while RUNNING :
            input_ready, output_ready, except_ready = select.select(input_list, [], [])

            for files in input_ready:
                if files == self.server :
                    client_socket, client_address = self.server.accept()
                    input_list.append(client_socket)
                    self.clients.append(client_socket)
                    player_index = self.clients.index(client_socket)
                    self.reply_with_id(client_socket, player_index)
                    # client_socket.send(str.encode(str(player_index)))
                    time.sleep(0.1)
                    self.broadcast_joined({
                        'count_player' : len(self.clients),
                        'player' : player_index,
                    })
                elif files == sys.stdin :
                    to_send = sys.stdin.readline()
                    to_send = to_send.strip()
                    self.clients[0].send(str.encode(to_send))
                else :
                    message = files.recv(self.BUFFER_SIZE)
                    message = pickle.loads(message)
                    print(message)
                    if message['status'] == 'QUIT':
                        self.reply_ok(files)
                        input_list.remove(files)
                        self.clients.remove(files)

                        if len(self.clients) == 0:
                            RUNNING = False
                        
                    elif message['status'] == 'UPDATE' :
                        player_id = message['data']['id']
                        is_play = message['data']['play'] == 'PLAY'
                        if is_play :
                            player_card = self.game_data['player'][player_id]['card_index']
                            player_choosen_card = message['data']['selected_card']
                            player_choosen_card_point = message['data']['selected_card_point']
                            for card in player_choosen_card:
                                player_card.remove(card)
                            self.game_data['player'][player_id]['card_index'] = player_card
                            self.game_data['player'][player_id]['card_count'] = len(player_card)
                            self.game_data['card_index_before'] = self.game_data['card_index_now']
                            self.game_data['card_point_before'] = self.game_data['card_point_now']
                            self.game_data['card_index_now'] = player_choosen_card
                            self.game_data['card_point_now'] = player_choosen_card_point
                            
                            self.game_data['turn_player_id'] = self.game_order.get()
                            
                            self.game_order.put(self.game_data['turn_player_id'])

                            if len(player_card) == 0 :
                                winner_data = {}
                                winner_data['player_id'] = player_id
                                self.broadcast_winner(winner_data)
                                RUNNING = False

                        else :
                            game_stack = queue.LifoQueue()
                            while(self.game_order.qsize() != 0):
                                game_stack.put(self.game_order.get())

                            game_stack.get()
                            
                            game_stack2 = queue.LifoQueue()
                            while(game_stack.qsize() != 0):
                                game_stack2.put(game_stack.get())

                            self.game_order = queue.Queue()
                            while(game_stack2.qsize() != 0):
                                self.game_order.put(game_stack2.get())
                            
                            x = self.game_order.get()
                            self.game_order.put(x)

                            active_player = len(list(self.game_order.queue))
                            if active_player == 1 :
                                last_man = self.game_order.get()
                                self.game_order = queue.Queue()
                                self.game_order.put(last_man)
                                for i in range(last_man + 1, len(self.clients)):
                                    self.game_order.put(i)
                                for i in range(0, last_man):
                                    self.game_order.put(i)

                                self.game_data['card_index_before'] = []
                                self.game_data['card_point_before'] = 0
                                self.game_data['card_index_now'] = []
                                self.game_data['card_point_now'] = 0

                                self.game_data['turn_player_id'] = self.game_order.get()
                                self.game_order.put(self.game_data['turn_player_id'])
                            else :
                                self.game_data['turn_player_id'] = x

                        print(list(self.game_order.queue))

                        self.broadcast_game_data(self.game_data)

        self.server.close()
deq.append(9) #extend
print(deq)
print(max(deq))
deq.appendleft(10) #extendleft
print(deq)
print(deq.popleft())
print(deq)
print(deq.pop())
print(deq)

#Queue FIFO
q = queue.Queue(maxsize=3)
print(q.qsize)
q.put('a')
q.put('b')
q.put('c')
print(q.get())
print(q.get())
print(q.get())
print(q.empty())

#Stack LIFO
S = queue.LifoQueue(maxsize=6)
S.put('a')
S.put('b')
S.put('c')
print(S.get())
print(S.get())
print(S.get())
print(S.empty())
import queue

q1 = queue.Queue(maxsize=5)
q2 = queue.LifoQueue(maxsize=5)

for i in range(5):
    q1.put(i)
    q2.put(i)

while not q1.empty():
    print('q1:', q1.get())

while not q2.empty():
    print('q2:', q2.get())
Beispiel #19
0
 def __init__(self):
     # 类似栈 后入先出 last in first out
     self.s1 = queue.LifoQueue()
     self.s2 = queue.LifoQueue()
Beispiel #20
0
# LIFO队列先进后出
import queue

queuelist = queue.LifoQueue()

for i in range(5):
    if not queuelist.full():
        queuelist.put(i)
        print("put list : %s ,now queue size is %s " % (i, queuelist.qsize()))
while not queuelist.empty():
    print("put list : %s ,now queue size is %s " % (queuelist.get(), queuelist.qsize()))
#created using Python 3.7.3

import sys
import queue

filename = "jugglefest.txt"
circuits = {}
jugglers = queue.LifoQueue()

# circuit attributes


# parse Circuit's Id including the 'C' prefix
# returns String
def cid_full(str):
    start = str.index('C', 1)
    end = str.index(' ', start)
    return str[start:end]


# parse Circuit's Id excluding the 'C' prefix
# returns integer
def cId(str):
    start = str.index('C', 1) + 1
    end = str.index(' ', start)
    return int(str[start:end])


# parse Circuit's Hand-To-Eye Coordination
# returns integer
def cH(str):
import queue

q = queue.Queue(3)
q.put('123')
q.put('ab')
q.put('dd')

print(q.get())
print(q.get())
print(q.get())

#-----------------------------------先进后出为堆栈------------------------------------

import queue

q = queue.LifoQueue(3)
q.put('123')
q.put('ab')
q.put('dd')

print(q.get())
print(q.get())
print(q.get())

#-----------------------------------优先级队列------------------------------------
import queue

q = queue.PriorityQueue(3)

#put进入一个元组,元组的第一个元素是优先级(通常是数字,也可以是非数字之间的比较),数字越小优先级越高
q.put((20, '12'))
Beispiel #23
0
def search(start, board, args):
    """
    Conduct a breadth first search (unless args.random_search is True or args.depth_first is True).
    """
    total_visited = 0
    explored = {start.signature()}
    if args.depth_first or args.random_search:
        q = queue.LifoQueue()
    else:
        q = queue.Queue()
    q.put(start)
    backpointers = {}

    while not q.empty():
        t = q.get()
        total_visited += 1

        # Check for a solution
        if board.targets == set(t.boxes):
            board.print_current(
                t,
                args.text_output,
                (
                    datetime.now().strftime('%H:%M:%S'),
                    t.depth,
                    q.qsize(),
                    total_visited,
                ),
                args.show_board,
            )
            actions = []
            trace_signature = t.signature()
            while trace_signature != start.signature():
                action, previous_signature = backpointers[trace_signature]
                actions.append(action)
                trace_signature = previous_signature
            actions.reverse()
            print('Solved!')
            print_solution(args, ''.join(actions))
            print()
            sys.exit()

        if args.show_board:
            board.print_current(t, args.text_output,
                                (datetime.now().strftime('%H:%M:%S'), t.depth,
                                 q.qsize(), total_visited))
            # print('deq:', t)
            pause(args.interval)
        elif total_visited % args.print_interval == 0:
            if args.level:
                board.print_current(
                    t,
                    args.text_output,
                    (datetime.now().strftime('%H:%M:%S'), t.depth, q.qsize(),
                     total_visited),
                    False,
                )
                print()
            else:
                print(
                    'Time: {}  Depth: {:,}  Queue: {:,}  Visited: {:,}'.format(
                        datetime.now().strftime('%H:%M:%S'), t.depth,
                        q.qsize(), total_visited))
        directions = [U, R, D, L]
        if args.random_search:
            random.shuffle(directions)
        for direction in directions:
            new_position = move(t.person, direction)
            if board.legal_position(new_position):
                new_state = None
                if new_position in t.boxes:
                    across = move(new_position, direction)
                    if board.legal_position(across) and across not in t.boxes:
                        new_boxes = t.boxes[:]
                        new_boxes.remove(new_position)
                        new_boxes.append(across)
                        if board.dead_end(direction, across, new_boxes):
                            continue
                        else:
                            new_state = State(new_position, new_boxes,
                                              t.depth + 1)
                else:
                    new_state = State(new_position, t.boxes, t.depth + 1)
                if new_state is not None:
                    new_signature = new_state.signature()
                    if new_signature not in explored:
                        explored.add(new_signature)
                        q.put(new_state)
                        backpointers[new_signature] = DIRECTION_NAME[
                            direction], t.signature()

    print('No solution found. Check the input file.')
Beispiel #24
0
      print("Exiting " + self.name)



m = 7979490791
mm = 97
F = field.GF(m)            
n = 4
t = 1
x = 5 #np.random.randint(0,50,40)

ipv4 = os.popen('ip addr show eth0').read().split("inet ")[1].split("/")[0]
pnr = party_addr.index([ipv4, port])

q = que.Queue()
q2 = que.LifoQueue()


#Initialization..
#TCP_IP = '192.168.100.246'
#TCP_PORT = 62
UDP_PORT2 = 3000
server_info = party_addr[pnr ]#(TCP_IP, TCP_PORT)
server2_info = (server_info[0], UDP_PORT2)

# Create new threads..
t1_comms = commsThread(1, "Communication Thread", server_info,q)
t2_commsSimulink = UDPcommsThread(2, "t2_commsSimulink", server2_info)
p = party(F,int(x),n,t,pnr, q, q2)

# Start new Threads
Beispiel #25
0
import queue, threading, random, time

p = queue.Queue(maxsize=2)  #先进先出的栈, 最大是2个

w = queue.LifoQueue()  # 先进后出的堆

e = queue.PriorityQueue  #按优先级来出,等级越低先出来

p.put(10)  # 放入数据

p.put(2)

#p.put_nowait(1)

print(p.full())  # 这里是满的 所以返回true
print(p.get())  #  取出数据
print(p.get())
#print(p.get_nowait())
#print(p.get(1,2))
print(p.qsize())  #  此处为0 因为已经取出2个了,里面没有东西了
print(p.empty())  # 判断是否为空,是的话返回true

q = queue.Queue(maxsize=99)


def put_in_queue():
    for i in range(10):
        i = random.randint(1, 99)
        #print(i)
        q.put(i)
        #time.sleep(1)
Beispiel #26
0
# Queues
# LIFO, FIFO, Priority
import queue as queue

print("######## LIFO queue ##########")
q = queue.Queue()  # FIFO queue

for index in range(10):
    q.put(index)

while not q.empty():
    print(q.get(), end='**\n')

print("######## LIFO queue ##########")
lq = queue.LifoQueue()  # LIFO queue

for index in range(10):
    lq.put(index)

while not lq.empty():
    print(lq.get(), end='**\n')

print("######### Priority queue#########")
pq = queue.PriorityQueue()  # Priority queue
pq.put((1, 'Data Priority 1'))
pq.put((3, 'Data Priority 3'))
pq.put((4, 'Data Priority 4'))
pq.put((2, 'Data Priority 2'))

for i in range(pq.qsize()):
    print(pq.get()[1], end='**\n')
Beispiel #27
0
airports = queue.Queue(-1)
sotq = queue.Queue(-1)
virus=[[-1 for j in range(M)]for i in range(N)]


for i in range(N):     #inserting first virus tile in queue and airports in another queue 
    for j in range(M): #and for Sotiris in another queue
        if grid[i][j] == 'W':
            myqueue.put([i,j,0,False])
        elif grid[i][j] == 'A':
            airports.put([i,j,0,True])
        elif grid[i][j] == 'S':
            sotq.put([i,j,0,(-2,-2)])
            
visited = {}            #dictionary of tiles and their parents
output = queue.LifoQueue(-1)  #a LIFO queue for the output


while not myqueue.empty() :
    virus_flood(False)  #flood_fill for the Virus

sotiris_flood()         #begin the flood_fill for Sotiris
if (output.qsize()!=0) :
    print(output.qsize())
    while not output.empty() :
        print (output.get() , sep = "", end="")
else :
    print("IMPOSSIBLE")
print("\n")

Beispiel #28
0
 def clean(self):
     self.call_q = queue.LifoQueue()
Beispiel #29
0
    def _search(self, searchType, startingNode, heuristic=""):
        steps = 1
        if searchType == "bfs":
            openList = queue.Queue()
        elif searchType == "dfs":
            openList = queue.LifoQueue()
        elif searchType == "a*":
            openList = queue.PriorityQueue()

        closed = []

        # adds first node to open
        if heuristic == "":
            openList.put(startingNode)
        else:
            openList.put((0, startingNode))

        while True:
            if openList.empty():
                print("None")
                print(steps)
                return None

            if heuristic == "":
                currNode = openList.get()
            else:
                currNode = openList.get()[1]

            currState = currNode.getState()
            currActions = currState.actions()

            for i in range(len(currActions)):
                # print("*------------ Expansion: ", steps)
                # print("Length of Closed: ", len(closed))
                newState = currState.clone()
                newState.execute(currActions[i])

                newNode = Node(newState, currNode,
                               currNode.getDistanceFromStart())
                newNode.addDistanceFromStart()

                if self.inClosed(newNode, closed):
                    # print("already in closed list")
                    continue

                if heuristic == "":
                    if self.inOpen(newNode, openList):
                        # print("already in closed list")
                        continue
                else:
                    if self.inOpen(newNode, openList, heuristic):
                        # print("already in open list")
                        continue

                if heuristic == "":
                    openList.put(newNode)
                else:
                    heurVal = heuristic(
                        newState) + newNode.getDistanceFromStart()
                    # print("Heur: ", heuristic(newState))
                    # print("Distance: ", newNode.getDistanceFromStart())
                    openList.put((heurVal, newNode))

                steps += 1
                searchPath = self.generatePath(newNode)
                self.printPath(searchPath)

                # print("------------*")

                if newState.is_goal():
                    print(steps)
                    return newNode

            closed.append(currNode)
Beispiel #30
0
# -*- coding:utf-8 -*-
#  Author:aling
import queue
q = queue.Queue()  # 先进先出
q.put('abc')
q.put('bed')
print(q.get(1))
q2 = queue.LifoQueue()  # 后进先出
q2.put('abc')
q2.put('bed')
print(q2.get(1))
q3 = queue.PriorityQueue()  # 优先级进出,值越小优先级越高
q3.put((10, 'vip_abc'))
q3.put((-1, 'bed'))
q3.put((6, 'aling_vip'))
q3.put((-5, 'alina_vip'))
print(q3.get(1))
print(q3.get(2))
print(q3.get(3))