def test_iots_traces(self):
"""
测试标记迁移系统 s0 -?act0-> s1, s0 -!act1> s2, s1 -act2-> s3 是否可以正常变成图对象
"""
state0 = State("s0")
state1 = State("s1")
state2 = State("s2")
state3 = State("s3")
action0 = Action("act0")
action1 = Action("act1")
action2 = Action("act2")
transition0 = Transition(state0, action0, state1)
transition1 = Transition(state0, action1, state2)
transition2 = Transition(state1, action2, state3)
iots = IOTS(state0,
[state0, state1, state2, state3],
[action0, action1, action2],
[action0],
[action1],
[transition0, transition1, transition2])
ts_graph = iots_to_graph(iots)
traces = iots_traces(ts_graph)
print(traces)
self.assertEqual(True, True)
def add_state(self, state_name):
if self.states:
return self.states.setdefault(state_name, State(state_name))
else:
self.initial_state = State(state_name)
self.states[state_name] = self.initial_state
return self.initial_state
def test_lts_print(self):
"""
用来验证lts格式化输出时是否正常
:return:
"""
state_a = State("a")
state_b = State("b")
state_c = State("c")
init_state = state_a
states = [state_a, state_b, state_c]
act1 = Action("act1")
act2 = Action("act2")
actions = [act1, act2]
hide_actions = []
transitions = [
Transition(state_a, act1, state_b),
Transition(state_a, act2, state_c)
]
lts = LTS(init_state, states, actions, hide_actions, transitions)
print(lts)
self.assertEqual(True, True)
def test_add_transiction_to_state():
initial_state = State('Idle')
target = State('Target')
event = Event('D1CL', 'Door closed')
initial_state.add_transition(event, target)
assert len(initial_state.transitions) == 1
assert initial_state.transitions[event.code] == target
def test_state_machine():
idle = State('idle')
active = State('active')
d1cl = Event('D1CL', 'Door 1 closed')
idle.add_transition(d1cl, active)
sm = StateMachine(idle)
assert sm.start == sm.current_state == idle
assert sm.all_states() == set([idle, active])
sm.handle('D1CL')
assert sm.current_state == active
def play(self, event):
if not State.result and Board.playables[
self.position[1]] == self.position[0]:
self.itemconfig(self.circle, fill=Board.colourToPlay())
State.playMove(self.position)
Board.playables[self.position[1]] -= 1
if State.findLongestLine(State.state, self.position) == 4:
State.result = 4
else:
print(self.position)
def state_machine(request):
idle = State('Idle')
a = State('A')
b = State('B')
idle.add_transition(Event('EVT1', 'Primer evento'), a)
a.add_transition(Event('EVT2', 'Segundo evento'), b)
sm = StateMachine(idle)
return sm
def add_state(self, state_name):
s = State(state_name)
if not self.states:
self.states = [s]
self.state_machine = StateMachine(s)
else:
self.states.append(s)
def __init__(self, config, parent=None):
QtWidgets.QSystemTrayIcon.__init__(self, parent)
self.config = config
self.state = State()
icon_path = resource_path(f'assets/{Icon[self.state.status]}.png')
self.setIcon(QtGui.QIcon(icon_path))
menu = QtWidgets.QMenu(parent)
label_action = menu.addAction("Pyraficator-tray")
label_action.triggered.connect(partial(SystemTrayIcon.open_in_browser, self, WEB_URL))
menu.addSeparator()
self.status_action = menu.addAction(f"Status: {Status.Unknown}")
menu.addSeparator()
self.error_menu = menu.addMenu(f"Failed items")
self.in_progress_menu = menu.addMenu(f"Items in progress")
self.success_menu = menu.addMenu(f"Succeeded items")
menu.addSeparator()
exit_action = menu.addAction("Exit")
exit_action.triggered.connect(self.exit)
self.setContextMenu(menu)
self.timer = QtCore.QTimer(self)
self.timer.setInterval(config.refreshInterval)
self.timer.timeout.connect(self.refresh_state)
self.timer.start()
def __init__(self, handlers: List[MessageHandler], end_block: EndBlockHandler):
self.sequence = 0
self.private_key, self.public_key = create_key_pair()
self.state = State(tuple(), tuple(), None, None, 0)
self.handlers: Dict[type, MessageHandler] = {h.message_type: h for h in handlers}
self.end_block_handler = end_block
def __init__(self, name, *terminal_names, **init_state):
self.name = name
self.terminals = [Terminal(self, name) for name in terminal_names]
self.states = [
State(self, name, val) for name, val in init_state.items()
]
for term in self.terminals:
setattr(self, term.name, term)
for state in self.states:
setattr(self, state.name, state)
def end_block(self, state: State, req) -> Tuple[State, ResponseEndBlock]:
if req.height == state.blow_up_height:
losses = list(state.losses)
losses[state.potato_holder] += 1
losses = tuple(losses)
blowup = state.blow_up_height + self.blow_up_inc
elif state.blow_up_height is not None and state.blow_up_height < 0: # New game
losses = state.losses
blowup = state.last_block_height + self.blow_up_inc
else:
losses = state.losses
blowup = state.blow_up_height
return State(state.players, losses, state.potato_holder, blowup, req.height), ResponseEndBlock()
def test_lts_to_tsgrah(self):
"""
测试标记迁移系统 s0 -act0-> s1, s0 -act1> s2, s1 -act2-> s3 是否可以正常变成图对象
"""
state0 = State("s0")
state1 = State("s1")
state2 = State("s2")
state3 = State("s3")
action0 = Action("act0")
action1 = Action("act1")
action2 = Action("act2")
transition0 = Transition(state0, action0, state1)
transition1 = Transition(state0, action1, state2)
transition2 = Transition(state1, action2, state3)
lts = LTS(state0, [state0, state1, state2, state3],
[action0, action1, action2],
[transition0, transition1, transition2])
lts_graph = lts_to_graph(lts)
self.assertEqual(True, True)
def sts_parser(file_name: str) -> STS:
"""
根据*.ts文件中描述的输入输出迁移系统，生成对应的STS对象
:param file_name: .ts结尾的文件
:return: STS对象
"""
init_s = parse_initial_state(file_name)
s = parse_states(file_name)
a = parse_actions(file_name)
t = parse_transitions(file_name)
# 构造所有状态对象
states = [State(name) for name in s]
init_state = [s for s in states if s.state_name == init_s][0]
in_actions = a[0]
out_actions = a[1]
hide_actions = a[2]
# 输入动作、输出动作、内部动作对象
outs = [Action(name) for name in out_actions]
ins = [Action(name) for name in in_actions]
hides = [Action(name) for name in hide_actions]
# 所有动作的对象
all_actions = outs + ins + hides
# 动作名到动作的一个映射
act_map = dict()
for act in all_actions:
act_map[act.action_name] = act
# 状态名到状态对象的一个映射
state_map = dict()
for s in states:
state_map[s.state_name] = s
# 构造所有迁移对象集合
transitions = list()
for first_state, act, second_state in t:
transitions.append(
Transition(state_map[first_state], act_map[act],
state_map[second_state]))
secure_level = parse_secure_level_with_sts(file_name)
return STS(init_state, states, all_actions, ins, outs, transitions,
secure_level)
def deliver_tx(self, state: State, message: Message) -> Tuple[State, ResponseDeliverTx]:
assert type(message.data) is TossPotato
if message.sender != state.players[state.potato_holder]:
return state, ResponseDeliverTx(code=1, info='Not holding the potato')
if message.data.receiver not in state.players:
return state, ResponseDeliverTx(code=1, info='Target player does not exist')
idx = state.players.index(message.data.receiver)
return State(
state.players,
state.losses,
idx,
state.blow_up_height,
state.last_block_height
), ResponseDeliverTx(code=0)
def deliver_tx(self, state: State, message: Message) -> Tuple[State, ResponseDeliverTx]:
if message.sender in state.players:
return state, ResponseDeliverTx(code=1, info='Already playing')
if len(state.players) == 1: # We have enough players to start
blowup = -1
holder = 1
else:
blowup = state.blow_up_height
holder = state.potato_holder
return State(
state.players + (message.sender, ),
state.losses + (0, ),
holder,
blowup,
state.last_block_height,
), ResponseDeliverTx(code=0)
def _transition_list_iots(trans_list: List) -> IOTS:
if not trans_list:
return
old_init_state = trans_list[0][0]
ins = set()
outs = set()
acts = set()
states = set()
for s1, act, s2 in trans_list:
if act.action_type == ActionEnum.INPUT:
ins.add(act.action_name)
elif act.action_type == ActionEnum.OUTPUT:
outs.add(act.action_name)
acts.add(act.action_name)
states.add(s1.state_name)
states.add(s2.state_name)
acts_map = dict()
states_map = dict()
states = [State(s) for s in list(states)]
acts = [Action(a) for a in list(acts)]
for s in states:
states_map[s.state_name] = s
for a in acts:
acts_map[a.action_name] = acts
new_init_state = states_map[old_init_state.state_name]
outs = [acts_map[a] for a in list(outs)]
ins = [acts_map[a] for a in list(ins)]
transitions = list()
for s1, act, s2 in trans_list:
t = Transition(states_map[s1.state_name], acts_map[act.action_name],
states_map[s2.state_name])
transitions.append(t)
return IOTS(new_init_state, states, acts, ins, outs, transitions)
def lts_parser(file_name: str) -> LTS:
"""
根据*.ts文件中描述的输入输出迁移系统，生成对应的LTS对象
:param file_name: .ts结尾的文件
:return: LTS对象
"""
init_s = parse_initial_state(file_name)
s = parse_states(file_name)
a = parse_actions(file_name)
t = parse_transitions(file_name)
# 构造所有状态对象
states = [State(name) for name in s]
init_state = [s for s in states if s.state_name == init_s][0]
actions = a[0] + a[1]
hide_actions = a[-1]
# 所有可观察动作的对象
acts = [Action(name) for name in actions]
hide_acts = [Action(name) for name in hide_actions]
# 动作名到动作的一个映射
act_map = dict()
for act in (acts + hide_acts):
act_map[act.action_name] = act
# 状态名到状态对象的一个映射
state_map = dict()
for s in states:
state_map[s.state_name] = s
# 构造所有迁移对象集合
transitions = list()
for first_state, act, second_state in t:
transitions.append(
Transition(state_map[first_state], act_map[act],
state_map[second_state]))
return LTS(init_state, states, acts, hide_acts, transitions)
#!/usr/bin/env python3
"""
该模块用来构建一些简单的迁移系统对象常量，方便进行测试程序的正确性
"""
from core import Action
from core import State
from core import Transition
from ts import IOTS
"""
SIMPLE_IOTS 表示如下迁移系统：
s0->act1?->s1
s1->act2!->s2
s1->act3!->s3
"""
s0, s1, s2, s3 = (State(s) for s in ("s0", "s1", "s2", "s3"))
act1, act2, act3 = (Action(a) for a in ("act1", "act2", "act3"))
states = [s0, s1, s2, s3]
actions = [act1, act2, act3]
ins = [act1]
outs = [act2, act3]
transitions = [
Transition(s0, act1, s1),
Transition(s1, act2, s2),
Transition(s1, act3, s3)
]
SIMPLE_IOTS_TEST = IOTS(s0, states, actions, ins, outs, transitions)
def test_state_with_description_as_string():
s = State('Idle', 'En espera')
assert str(s) == 'Idle (En espera)'
def test_state_as_string_with_desc():
s = State('idle', 'Estado de reposo')
assert str(s) == 'idle (Estado de reposo)'
#!/usr/bin/env python
# -*- coding: utf-8 -*-
from core import State, Event, NetworkBus, StateMachine
# States
idle = State('idle', 'En espera')
active = State('active', 'Activo')
key1 = State('k1', 'keyboard key 1 pressed')
key2 = State('k2', 'keyboard key 2 pressed')
# Events
door_closed = Event('D1CL', 'Door closed')
key_one_pressed = Event('KEY1', 'Key 1 pressed')
key_two_pressed = Event('KEY2', 'Key 2 pressed')
open_batcave = Event('OPEN', 'Open batcave')
# Transitions
idle.add_transition(door_closed, active)
active.add_transition(key_one_pressed, key1)
key1.add_transition(key_two_pressed, key2)
key2.add_action(open_batcave)
key2.add_transition(open_batcave, idle)
sm = StateMachine(idle)
print('All states:', ', '.join([_.name for _ in sm.all_states()]))
bus = NetworkBus()
bus.subscribe(sm)
def test_create_state():
s = State('Idle')
assert s.name == 'Idle'
assert s.actions == []
assert len(s.transitions) == 0
def test_state_as_string():
s = State('idle')
assert str(s) == 'idle (Idle state)'