def play(self):
log.log("Launching the game")
gfx.start()
self.running = True
self.screen = gfx.scr()
self.gui.init()
self.gui.owner = self.world.player
self.loop()
self.quit()
def waitForInput(key = None):
c = -1
if key == None:
while str(c)=="-1":
c = gfx.scr().getch()
return c
else:
while str(c) != str(key):
c = gfx.scr().getch()
if c!=-1:
log.log(str(c))
def on(self, duration=None):
self_level = self.level(AmpBuff.SELF_AMP)
team_level = self.level(AmpBuff.TEAM_AMP)
if self_level >= self.publish_level:
self_level = -1
team_level = min(team_level, self.max_team_level - 1)
team_description = self.toggle_buffs(
AmpBuff.TEAM_AMP, self.publish_level + team_level)
else:
if team_level > 0:
buff_value = self.buffs[self.publish_level + team_level -
1].get()
buff_time = self.buffs[self.publish_level + team_level -
1].timeleft()
team_description = f" lv{team_level}({buff_value:.2f}/{buff_time:.2f}s)"
else:
team_description = " lv0"
self_description = self.toggle_buffs(AmpBuff.SELF_AMP, self_level)
log(
"amp",
self.name,
f"self{self_description}",
f"team{team_description}",
)
return self
def on(self):
if not self.active:
if self.zeroed is not None:
self.zeroed[0].index = self.zeroed[1]
self.zeroed = None
act = self.a_x_alt[1]
doing = act._static.doing
if not doing.idle and doing.status == -1:
try:
doing.startup_timer.off()
doing._setprev()
doing._static.doing = doing.nop
act()
except:
pass
log('debug', '{} x_alt on'.format(self.name))
self.active = True
self.adv.x = self.x_alt
if self.l_x_alt:
self.adv.l_x.off()
self.l_x_alt.on()
if self.no_fs:
self.adv.fs = self.act_off
if self.no_dodge:
self.adv.dodge = self.act_off
def d_shift_end(self, t):
if self.action_timer is not None:
self.action_timer.off()
self.action_timer = None
duration = now() - self.shift_start_time
log(
self.name, '{:.2f}dmg / {:.2f}s, {:.2f} dps'.format(
self.shift_damage_sum, duration,
self.shift_damage_sum / duration), ' '.join(self.act_sum))
self.act_sum = []
self.act_list = []
self.dracolith_mod.off()
if self.off_ele_mod is not None:
self.off_ele_mod.off()
self.ds_reset()
if not self.is_dragondrive:
self.shift_silence = True
Timer(self.end_silence).on(10)
self.dragon_gauge_pause_timer = Timer(self.resume_auto_gauge).on(
self.dragon_gauge_timer_diff)
self.status = -2
self._setprev() # turn self from doing to prev
self._static.doing = self.nop
self.end_event()
self.idle_event()
def makeLink(self, localName, remoteURL=""):
remoteHost = None
remotePort = None
remoteID = None
if remoteURL != "":
URL = urlparse(remoteURL)
remoteHost = URL.hostname
remotePort = settings.defaultPort if URL.port == None else URL.port
remoteID = URL.path[1:]
self.handleMessage(messages.MakeLink(
localHost=self.settings.advertizedHost,
localPort=self.settings.advertizedPort,
localID=localName,
remoteHost=remoteHost,
remotePort=remotePort,
remoteID=remoteID
))
try:
self.makeConnection(localName)
except network.ConnectFailed:
log.log("Connect failed (ignored)")
return "amikolink://%s/%s" % \
(self.settings.getAdvertizedNetworkLocation(), localName)
def d_act_do(self, t):
if self.c_act_name == 'ds':
self.skill_use -= 1
self.skill_spc = 0
self.ds_event()
self.shift_damage_sum += self.ds_proc() or 0
self.shift_end_timer.add(self.conf.ds.startup+self.conf.ds.recovery)
self.act_sum.append('s')
elif self.c_act_name == 'end':
self.d_shift_end(None)
self.shift_end_timer.off()
return
elif self.c_act_name != 'dodge':
# dname = self.c_act_name[:-1] if self.c_act_name != 'dshift' else self.c_act_name
self.shift_damage_sum += self.adv.dmg_make(self.c_act_name, self.c_act_conf.dmg, 'x' if self.c_act_name != 'dshift' else self.c_act_name)
if self.c_act_name.startswith('dx'):
if len(self.act_sum) > 0 and self.act_sum[-1][0] == 'c' and int(self.act_sum[-1][1]) < int(self.c_act_name[-1]):
self.act_sum[-1] = 'c'+self.c_act_name[-1]
else:
self.act_sum.append('c'+self.c_act_name[-1])
if self.skill_sp > 0 and self.skill_spc < self.skill_sp:
self.skill_spc += self.adv.sp_convert(self.adv.sp_mod('x'), 5)
if self.skill_spc > self.skill_sp:
self.skill_spc = self.skill_sp
log(self.c_act_name, 'sp', f'{self.skill_spc}/{self.skill_sp}')
if self.c_act_conf.hit > -1:
self.adv.hits += self.c_act_conf.hit
else:
self.adv.hits = -self.c_act_conf.hit
self.d_act_next()
def l_extend_time(self, e):
if self.get(
) and e.name != 'ds' and e.base == self.base and e.group == self.group:
skill = self.adv.a_s_dict[self.base]
delta = skill.ac.getstartup() + skill.ac.getrecovery()
self.add_time(delta)
log('debug', e.name, 'extend', delta)
def check(self, k, group=None, seq=None, *args):
if self.get(k, False):
subdict = self[k]
if group is not None:
if isinstance(group, int):
group -= 1
if seq is not None:
try:
return subdict[group][seq].get()
except KeyError:
return False
else:
try:
log(
'debug',
str([(b.name, b.get())
for b in subdict[group].values()]))
return any(b.get() for b in subdict[group].values())
except KeyError:
return False
else:
return any(b.get() for sub in subdict.values()
for b in sub.values())
else:
return False
def handleMessage(self, msg):
returnValue = None
with self.__node: #makes sure the state is saved or restored in the end
messageQueue = [msg]
while len(messageQueue) > 0:
msg = messageQueue.pop(0)
newMessages = []
log.log("Processing message %s" % str(msg.__class__))
#Messages for the API:
if msg.__class__ == messages.ReturnValue:
#Should happen only once per call of this function.
#Otherwise, some return values will be forgotten.
returnValue = msg.value
else:
#All other messages go to the node:
newMessages = self.__node.handleMessage(msg)
#Put new messages in the right places:
for msg in newMessages:
if msg.__class__ == messages.TimeoutMessage:
#Add to the list of time-out messages:
self.__addTimeoutMessage(msg)
else:
#Process in another iteration of the loop we're in:
messageQueue.append(msg)
self.__cleanupState()
return returnValue
def timeleft(self):
from core.log import log
log("timeleft", self.timing - _g_now, self.pause_time)
if self.pause_time > 0:
return self.pause_time
return self.timing - _g_now
def effect_on(self):
value = self.get()
if self.mod_type == "defense" and value > 0:
db = Event("defchain")
db.source = self.source
db.on()
if self.bufftype == "team":
log("buff", "doublebuff", 15 * self.bufftime())
if self.bufftime == self._bufftime:
self._static.adv.slots.c.set_need_bufftime()
elif self.mod_type == "maxhp":
if self._static.adv.sub_mod("maxhp", "buff") < Buff.MAXHP_BUFF_CAP:
self.modifier.on()
percent = value * 100
log("heal", self.name, self._static.adv.max_hp * value,
"team" if self.bufftype == "team" else "self")
self._static.adv.add_hp(percent)
# FIXME: heal formula 1day twust
elif self.mod_type == "regen" and value != 0:
self.set_hp_event = Event("set_hp")
self.set_hp_event.delta = value
self.regen_timer = Timer(self.hp_regen, 3.9, True).on()
elif self.mod_type == "heal" and value != 0:
self.set_hp_event = Event("heal_make")
self.set_hp_event.name = self.name
self.set_hp_event.delta = self._static.adv.heal_formula(
self.source, value)
self.set_hp_event.target = "team" if self.bufftype == "team" else "self"
self.regen_timer = Timer(self.hp_regen, 2.9, True).on()
else:
return self.modifier and self.modifier.on()
def count_team_buff(self):
base_mods = [
Modifier('base_cc', 'crit', 'chance', 0.12),
Modifier('base_killer', 'killer','passive', 0.30)
]
self.dmg_test_event.modifiers = ModifierDict()
for mod in base_mods:
self.dmg_test_event.modifiers.append(mod)
for b in filter(lambda b: b.get() and b.bufftype == 'simulated_def', self._static.all_buffs):
self.dmg_test_event.modifiers.append(b.modifier)
self.dmg_test_event()
no_team_buff_dmg = self.dmg_test_event.dmg
placeholders = []
for b in filter(lambda b: b.get() and b.bufftype in ('team', 'debuff'), self._static.all_buffs):
placehold = None
if b.modifier.mod_type == 's':
placehold = Modifier('placehold_sd', 'att', 'sd', b.modifier.get() / 2)
elif b.modifier.mod_type == 'spd':
placehold = Modifier('placehold_spd', 'att', 'spd', b.modifier.get())
elif b.modifier.mod_type.endswith('_killer'):
placehold = Modifier('placehold_k', 'killer', 'passive', b.modifier.get())
if placehold:
self.dmg_test_event.modifiers.append(placehold)
placeholders.append(placehold)
else:
self.dmg_test_event.modifiers.append(b.modifier)
self.dmg_test_event()
team_buff_dmg = self.dmg_test_event.dmg
log('buff', 'team', team_buff_dmg / no_team_buff_dmg - 1)
for mod in chain(base_mods, placeholders):
mod.off()
def switch_t(self, t):
prev_x = t.prev_x_alt
log("debug", "{} x_alt off".format(prev_x.name))
if prev_x.active:
doing = prev_x.a_x_alt[1]._static.doing
prev_x.zeroed = (doing, doing.index)
doing.index = 0
prev_x.active = False
if prev_x.l_x_alt:
prev_x.l_x_alt.off()
prev_x.adv.l_x.on()
if prev_x.no_fs:
prev_x.adv.fs = prev_x.fs_og
if prev_x.no_dodge:
prev_x.adv.dodge = prev_x.dodge_og
log("debug", "{} x_alt on".format(self.name))
self.active = True
self.adv.x = self.x_alt
if self.l_x_alt:
self.adv.l_x.off()
self.l_x_alt.on()
if self.no_fs:
self.adv.fs = self.act_off
if self.no_dodge:
self.adv.dodge = self.act_off
def check(self, dryrun=True):
if self.disabled or self.shift_silence:
return False
if self.dragon_gauge < self.shift_cost and not (
self.is_dragondrive and self.dragondrive_buff.get()):
return False
doing = self.getdoing()
if not doing.idle:
if isinstance(doing, S) or isinstance(doing, DragonForm):
return False
if dryrun == False:
if doing.status == Action.STARTUP:
doing.startup_timer.off()
doing.end_event()
log(
"interrupt",
doing.name,
"by " + self.name,
"after {:.2f}s".format(now() - doing.startup_start),
)
elif doing.status == Action.RECOVERY:
doing.recovery_timer.off()
doing.end_event()
log(
"cancel",
doing.name,
"by " + self.name,
"after {:.2f}s".format(now() - doing.recover_start),
)
return True
def d_act_next(self):
nact = None
if self.repeat_act and not self.act_list:
self.parse_act(self.conf.act)
if self.act_list:
if self.act_list[0] != 'ds' or self.ds_check():
if self.act_list[0] == 'end' and not self.allow_end:
nact = None
else:
nact = self.act_list.pop(0)
# print('CHOSE BY LIST', nact, self.c_act_name)
if nact is None:
if self.c_act_name[0:2] == 'dx':
nact = 'dx{}'.format(int(self.c_act_name[2])+1)
if not nact in self.dx_list:
if self.ds_check():
nact = 'ds'
elif self.dodge_cancel():
nact = 'dodge'
else:
nact = 'dx1'
else:
nact = 'dx1'
# print('CHOSE BY DEFAULT', nact, self.c_act_name)
if nact == 'ds' or nact == 'dodge' or (nact == 'end' and self.c_act_name != 'ds'): # cancel
count = self.clear_delayed()
if count > 0:
log('cancel', self.c_act_name, f'by {nact}', f'lost {count} hit{"s" if count > 1 else ""}')
self.act_timer(self.d_act_start_t, self.conf.latency, nact)
else: # regular recovery
self.act_timer(self.d_act_start_t, self.c_act_conf.recovery, nact)
def _charge_utp(self, name, value):
# sync with timer value
if self.utp_infinte:
self.utp_gauge = self.max_utp_gauge
if self.status:
self.utp_gauge = self.shift_end_timer.timeleft() * self.utp_drain
gauge_before = self.utp_gauge
# use utp_gauge from here on
self.utp_gauge = max(0, min(self.max_utp_gauge, gauge_before + value))
delta = self.utp_gauge - gauge_before
if delta != 0:
if self.log_utp:
log(
"utpgauge",
name,
f"{int(delta):+} ({delta/self.utp_drain:+2.4}s)",
f"{int(self.utp_gauge)}/{int(self.max_utp_gauge)} ({self.dtime():2.4}s)",
)
if self.utp_gauge <= 0:
self.utp_gauge = 0
self.d_shift_end(reason="gauge deplete")
else:
self.shift_end_timer.add(delta / self.utp_drain)
self.utp_event.name = name
self.utp_event.value = value
self.utp_event.delta = delta
self.utp_event.gauge = self.utp_gauge
self.utp_event()
return value
def __cleanupState(self):
with self.__node: #makes sure the state is saved or restored in the end
#Remove finished payer and related objects:
if not (self.__node.payerLink is None) and \
self.__node.payerLink.state in [payerlink.PayerLink.states.cancelled, payerlink.PayerLink.states.committed]:
log.log('Cleaning up payer')
if not (self.__node.payerLink.amount is None):
self.payLog.writePayer(self.__node.payerLink)
self.__node.payerLink = None
self.__node.connections[messages.payerLocalID].close()
self.__node.timeoutMessages = \
[
msg
for msg in self.__node.timeoutMessages
if msg.message.__class__ != messages.Timeout
]
#Remove finished payee and related objects:
payeeIDs = self.__node.payeeLinks.keys()
for payeeID in payeeIDs:
payee = self.__node.payeeLinks[payeeID]
if payee.state in [payeelink.PayeeLink.states.cancelled, payeelink.PayeeLink.states.committed]:
log.log('Cleaning up payee ' + payeeID)
self.payLog.writePayee(payee)
del self.__node.payeeLinks[payeeID]
self.__node.connections[payeeID].close()
def __loadState(self):
oldFile = self.settings.stateFile + ".old"
if os.access(oldFile, os.F_OK):
if os.access(self.settings.stateFile, os.F_OK):
#Remove old file if normal state file exists:
os.remove(oldFile)
else:
#Use old file if state file does not exist:
os.rename(oldFile, self.settings.stateFile)
try:
with open(self.settings.stateFile, 'rb') as fp:
state = json.load(fp)
#print state
except IOError:
log.log("Failed to load from %s" % self.settings.stateFile)
log.log("Starting with empty state")
state = {"links":[], "meetingPoints":[]}
for lnk in state["links"]:
self.routingContext.links.append(link.Link(
self.context, self.routingContext, self.bitcoind,
self.settings, lnk))
for mp in state["meetingPoints"]:
self.routingContext.meetingPoints.append(
meetingpoint.MeetingPoint(str(mp["ID"])))
def charge_gauge(self,
value,
utp=False,
dhaste=True,
percent=False,
auto=False):
# if dhaste is None:
# dhaste = not utp
dh = self.dhaste() if dhaste else 1
if utp:
dh *= self.adv.mod("utph", operator=operator.add)
if percent:
value *= self.max_gauge / 100
value = self.adv.sp_convert(dh, value)
delta = min(self.dragon_gauge + value,
self.max_gauge) - self.dragon_gauge
if self.is_dragondrive and self.dragondrive_buff.get():
self.add_drive_gauge_time(delta)
elif delta != 0:
self.dragon_gauge += delta
log(
"dragon_gauge",
"{:+} ({:+.2f}%)".format(int(delta),
delta / self.max_gauge * 100),
f"{int(self.dragon_gauge)}/{int(self.max_gauge)}",
"{:.2f}%".format(self.dragon_gauge / self.max_gauge * 100),
"auto" if auto else "",
)
return value
def remove_charges(self):
from core.log import log
prev_charge = self.Skillful_Charges
if self.Skillful_Charges > 0:
self.Skillful_Charges -= 1
log('debug', 'Skillful_Trickster', f'+{-1}', self.Skillful_Charges)
self.trickster_check(prev_charge)
def d_shift_end(self, t):
if self.action_timer is not None:
self.action_timer.off()
self.action_timer = None
duration = now()-self.shift_start_time
shift_dmg = g_logs.shift_dmg
g_logs.log_shift_dmg(False)
count = self.clear_delayed()
if count > 0:
log('cancel', self.c_act_name, f'by shift end', f'lost {count} hit{"s" if count > 1 else ""}')
log(self.name, '{:.2f}dmg / {:.2f}s, {:.2f} dps'.format(shift_dmg, duration, shift_dmg/duration), ' '.join(self.act_sum))
self.act_sum = []
self.act_list = []
if self.off_ele_mod is not None:
self.off_ele_mod.off()
if self.shift_spd_mod is not None:
self.shift_spd_mod.off()
self.ds_reset()
if not self.is_dragondrive:
self.shift_silence = True
Timer(self.end_silence).on(10)
self.dragon_gauge_pause_timer = Timer(self.resume_auto_gauge).on(self.dragon_gauge_timer_diff)
self.status = Action.OFF
self._setprev() # turn self from doing to prev
self._static.doing = self.nop
self.end_event()
self.idle_event()
def __call__(self):
if not self.check(dryrun=False):
return False
self.shift_count += 1
if self.is_dragondrive:
self.act_list = ['end']
if self.dragondrive_buff.get():
self.d_dragondrive_end('<turn off>')
return True
else:
self.dragondrive_timer.on(self.max_gauge / self.drain)
self.dragondrive_buff.on()
else:
if len(self.act_list) == 0:
self.parse_act(self.conf.act)
self.dragon_gauge -= self.shift_cost
self.dracolith_mod.mod_value = self.ddamage()
self.dracolith_mod.on()
if self.off_ele_mod is not None:
self.off_ele_mod.on()
self.pause_auto_gauge()
self.shift_damage_sum = 0
self.status = -1
self._setdoing()
self.shift_start_time = now()
self.shift_end_timer.on(self.dtime())
self.shift_event()
log('cast', 'dshift', self.name)
self.d_act_start('dshift')
return True
def makeLink(self, localName, remoteURL=""):
remoteHost = None
remotePort = None
remoteID = None
if remoteURL != "":
URL = urlparse(remoteURL)
remoteHost = URL.hostname
remotePort = settings.defaultPort if URL.port == None else URL.port
remoteID = URL.path[1:]
self.handleMessage(messages.MakeLink(
localHost=self.settings.advertizedHost,
localPort=self.settings.advertizedPort,
localID=localName,
remoteHost=remoteHost,
remotePort=remotePort,
remoteID=remoteID
))
try:
self.makeConnection(localName)
except network.ConnectFailed:
log.log("Connect failed (ignored)")
return "amikolink://%s/%s" % \
(self.settings.getAdvertizedNetworkLocation(), localName)
def __call__(self):
if not self.check(dryrun=False):
return False
if self.is_dragondrive:
self.act_list = ['end']
if self.dragondrive_buff.get():
self.d_dragondrive_end('<turn off>')
return True
else:
log('cast', 'dragondrive', self.name, f'base duration {self.dragon_gauge/self.drain:.4}s')
self.dragondrive_timer.on(self.dragon_gauge/self.drain)
self.dragondrive_buff.on()
else:
log('cast', 'dshift', self.name)
if len(self.act_list) == 0:
self.parse_act(self.conf.act)
self.dragon_gauge -= self.shift_cost
if self.off_ele_mod is not None:
self.off_ele_mod.on()
if self.shift_spd_mod is not None:
self.shift_spd_mod.on()
self.pause_auto_gauge()
self.shift_count += 1
self.status = Action.STARTUP
self._setdoing()
g_logs.log_shift_dmg(True)
self.shift_start_time = now()
self.shift_end_timer.on(self.dtime())
self.reset_allow_end()
self.shift_event()
self.d_act_start('dshift')
return True
def resume(self, e=None):
if self.pause_time > 0:
for b in self.buffs:
self.pause_time = max(self.pause_time, b.refresh_time)
for b in self.buffs:
b.buff_end_timer.on(self.pause_time)
log("resume", self.pause_by, self.pause_time, now() + self.pause_time)
self.pause_time = -1
def __handlePaySignal(self, connection, message):
for p in self.payees:
if p.ID == message.value:
p.connect(connection)
return
log.log("Received pay message with unknown ID")
connection.close()
def __handleLinkSignal(self, connection, message):
for lnk in self.routingContext.links:
if lnk.localID == message.ID:
lnk.connect(connection, message)
return
log.log("Received link message with unknown ID")
connection.close()
def d_act_start(self, name):
if name in self.conf and self._static.doing == self and self.action_timer is None:
log('d_act', name)
self.prev_act = self.c_act_name
self.prev_conf = self.c_act_conf
self.c_act_name = name
self.c_act_conf = self.conf[name]
self.act_timer(self.d_act_do, self.c_act_conf.startup)
def permanent_curse(e):
if hasattr(adv, 'afflict_guard') and adv.afflict_guard > 0:
adv.afflict_guard -= 1
else:
adv.skill._static.silence = 1
adv.dragonform.disabled = True
from core.log import log
log('debug', 'permanent_curse')
def on(self, uses=1):
log('debug', 'fs_alt on', uses)
self.uses = uses
self.adv.a_fs = self.a_fs_alt
self.adv.conf = self.conf_alt
self.adv.fs_proc = self.fs_proc
if self.has_fsf:
self.adv.fsf = self.a_fsf_alt
def resume(self, e=None):
if self.pause_time > 0:
self.pause_time = max(self.pause_time,
self.buffs[self.level - 1].refresh_time)
self.buffs[self.level - 1].buff_end_timer.on(self.pause_time)
log("resume", self.pause_by, self.pause_time,
now() + self.pause_time)
self.pause_time = -1
def ds_proc_slayer(e):
log("ds_proc_slayer", "wweeeee")
if o_ds_proc:
o_ds_proc()
e = adv.Event("slayed")
e.count = 25
e.name = "dx"
e()
def off(self):
log('debug', 'fs_alt off', 0)
self.uses = 0
self.adv.a_fs = self.a_fs_og
self.adv.conf = self.conf_og
self.adv.fs_proc = self.fs_proc_og
if self.has_fsf:
self.adv.fsf = self.a_fsf_og
def l_extend_time(self, e):
if self.get(
) and e.name != "ds" and e.base == self.base and e.group == self.group:
skill = self.adv.a_s_dict[self.base]
delta = (skill.ac.getstartup() +
skill.ac.getrecovery()) / self.adv.speed()
self.add_time(delta)
log("debug", e.name, "extend", delta)
def reset_allow_end(self):
if self.is_dragondrive:
self.allow_end = True
else:
log('allow_end', self.allow_end_cd)
self.allow_end = False
self.allow_force_end_timer = Timer(self.set_allow_end, timeout=self.allow_end_cd)
self.allow_force_end_timer.on()
self.allow_end_cd += self.conf.allow_end_step
def x_proc_default(self, e):
xseq = e.name
dmg_coef = self.conf[xseq].dmg
sp = self.conf[xseq].sp
hit = self.conf[xseq].hit
log("x", xseq, self.name)
self.adv.hits += hit
self.adv.dmg_make(xseq, dmg_coef)
self.adv.charge(xseq, sp)
def d_dragondrive_end(self, t):
log('dragondrive', 'end')
self.dragondrive_buff.off()
Timer(self.end_silence).on(10)
self.status = -2
self._setprev() # turn self from doing to prev
self._static.doing = self.nop
self.dragondrive_end_event()
self.idle_event()
def makeConnection(self, ID): persistentConn = self.__node.connections[ID] if None in (persistentConn.host, persistentConn.port, persistentConn.connectMessage): log.log( 'Not enough information for creating connection %s; skipping' % \ ID) return self.__network.makeConnection( (persistentConn.host, persistentConn.port), ID, persistentConn.connectMessage)
def handleMessage(self, msg):
returnValue = None
setEvents = set([])
with self.__node: #makes sure the state is saved or restored in the end
messageQueue = [msg]
while len(messageQueue) > 0:
msg = messageQueue.pop(0)
newMessages = []
log.log("Processing message %s" % str(msg.__class__))
#Messages for the API:
if msg.__class__ == messages.ReturnValue:
#Should happen only once per call of this function.
#Otherwise, some return values will be forgotten.
returnValue = msg.value
elif msg.__class__ == messages.SetEvent:
setEvents.add(msg.event)
#Messages for Bitcoind:
elif msg.__class__ == messages.BitcoinCommand:
#Right now, these messages are not buffered/stored.
#We depend on bitcoind to remain available.
#TODO: find out whether buffering of messages in the node
#state makes sense.
newMessages = self.bitcoind.handleMessage(msg)
else:
#All other messages go to the node:
newMessages = self.__node.handleMessage(msg)
#Put new messages in the right places:
for msg in newMessages:
if msg.__class__ == messages.TimeoutMessage:
#Add to the list of time-out messages:
self.__addTimeoutMessage(msg)
else:
#Process in another iteration of the loop we're in:
messageQueue.append(msg)
self.__cleanupState()
# Set all generated events, but only after the above processing is
# completely finished, and no exceptions have occurred.
for e in setEvents:
self.__events[e].set()
return returnValue
def run(self):
"""
The thread function.
Intended for internal use by Node.
Not intended to be part of the API.
"""
log.log("\n\nAmiko thread started")
#Start listening
listener = network.Listener(self.context,
self.settings.listenHost, self.settings.listenPort)
#TODO: (re-)enable creation of new transactions
self.__stop = False
while True:
self.context.dispatchNetworkEvents()
self.context.dispatchTimerEvents()
self.watchdog.check()
with self._commandFunctionLock:
s = self._commandFunction
if s != None:
try:
self._commandReturnValue = s[0](self, *s[1], **s[2])
except Exception as e:
self._commandReturnValue = e
log.logException()
self._commandProcessed.set()
self._commandFunction = None
if self.__doSave:
self.__saveState()
self.__doSave = False
self.__movePayeesToPayLog()
if self.__stop:
#TODO: stop creation of new transactions
#TODO: only break once there are no more open transactions
break
#This closes all network connections etc.
self.context.sendSignal(None, event.signals.quit)
log.log("Node thread terminated\n\n")
def __init__(self, conf="amikopay.conf"):
"""
Constructor.
Arguments:
conf: Name of the configuration file to be loaded, or a
settings.Settings instance
"""
threading.Thread.__init__(self)
if isinstance(conf, settings.Settings):
self.settings = conf
else:
self.settings = settings.Settings(conf)
#threading.Thread attribute; used in log.py
self.name = self.settings.name
self.__network = network.Network(
self.settings.listenHost, self.settings.listenPort, callback=self)
self.bitcoind = bitcoind.Bitcoind(self.settings)
self.payLog = paylog.PayLog(self.settings)
self.__stop = False
self._commandFunctionLock = threading.Lock()
self._commandFunction = None
self._commandProcessed = threading.Event()
self._commandReturnValue = None
# TODO: recover from a state where one of the events can be set,
# but the user interface is not waiting for it anymore after a re-start.
self.__events = {name: threading.Event() for name in messages.SetEvent.events}
self.__node = persistentobject.PersistentObject(
filename=self.settings.stateFile,
defaultObject=nodestate.NodeState() #empty state; used when file can not be loaded
)
#Establish connections
for ID in self.__node.connections.keys():
try:
self.makeConnection(ID)
except network.ConnectFailed as e:
log.log("Connect failed (ignored)")
def start():
global screen
screen = curses.initscr()
curses.noecho()
curses.cbreak()
curses.curs_set(0)
screen.keypad(1)
screen.nodelay(1)
curses.nonl()
screen.scrollok(False)
curses.start_color()
for i in range(0, 17):
curses.init_pair(i+1, i, 0)
#log.log("Pair : ({}, {}, 0)".format(i+1,i))
h, w = screen.getmaxyx()
log.log("Screen size : {}x{}".format(h, w))
def __saveState(self):
state = self.__getState(forDisplay=False)
#ensure_ascii doesn't seem to do what I expected,
#so it becomes required that state is ASCII-only.
state = json.dumps(state, sort_keys=True, ensure_ascii=True,
indent=4, separators=(',', ': '))
#print state
newFile = self.settings.stateFile + ".new"
log.log("Saving in " + newFile)
with open(newFile, 'wb') as fp:
fp.write(state)
oldFile = self.settings.stateFile + ".old"
#Replace old data with new data
os.rename(self.settings.stateFile, oldFile)
os.rename(newFile, self.settings.stateFile)
os.remove(oldFile)
def __init__(self):
#self.map = utils.textToMap("data/map.txt")
self.map = utils.generateMap(29,71)
self.min_y = 0
self.min_x = 0
self.w = len(self.map[0])
self.h = len(self.map)
self.seen = [[0 for i in range(self.w)] for j in range(self.h)]
self.player = entity.Player("Character Random Name", 4, 6)
self.entities = utils.jsonToEntities("data/ent_map.json")
self.chests = utils.jsonToChests("data/items.json")
self.moving = True
self.fov = None
log.log("{} entité(s) chargée(s)".format(len(self.entities)))
log.log("-----Debut Map------")
for y in self.map:
tLigne = ""
for x in y:
tLigne+=x
log.log(tLigne)
log.log("-----Fin Map------")
log.log("Taille map : {}x{}".format(self.h, self.w))
def run(self):
"""
The thread function.
Intended for internal use by Node.
Not intended to be part of the API.
"""
log.log("\n\nNode thread started")
#TODO: (re-)enable creation of new transactions
self.__stop = False
while True:
self.__network.processNetworkEvents(timeout=0.01)
#API events:
with self._commandFunctionLock:
s = self._commandFunction
if s != None:
try:
self._commandReturnValue = s[0](self, *s[1], **s[2])
except Exception as e:
self._commandReturnValue = e
log.logException()
self._commandProcessed.set()
self._commandFunction = None
#Time-out events:
while len(self.__node.timeoutMessages) > 0 and self.__node.timeoutMessages[0].timestamp < time.time():
msg = self.__node.timeoutMessages.pop(0)
self.handleMessage(msg.message)
#Connections: data transmission and closing
doSaveState = False
for localID, c in self.__node.connections.copy().iteritems():
#New attempt to send the outbox:
if c.transmit(self.__network):
doSaveState = True
#Close interface whenever requested:
if c.canBeClosed():
log.log('Closing persistent connection ' + localID)
del self.__node.connections[localID]
self.__network.closeInterface(localID)
doSaveState = True
if doSaveState:
self.__node.save()
if self.__stop:
#TODO: stop creation of new transactions
#TODO: only break once there are no more open transactions
break
log.log("Node thread terminated\n\n")
def log(self, text):
self.logs.append(text)
if len(self.logs)>self.nbLines+15:
self.logs.remove(self.logs[0])
log.log(text)
def quit(self):
gfx.stop()
log.log("Stopping the game")
def __handleSaveSignal(self):
log.log("Save handler called")
self.__doSave = True
