def evaluate(inp, client, l, DBlocation):
inp = inp.split(' ')
status = client.status()
if len(inp) > 1 and not str(inp[1]):
inp.pop()
if inp[0] == 'p' or 'play' == (inp[0]):
try:
if not status['state'] == 'stop':
if len(inp) == 1:
util.pause(client)
else:
util.play(client, int(inp[1]))
else:
if len(inp) == 1:
util.play(client, 0)
else:
util.play(client, int(inp[1]))
except:
print('mpd error: bad song index')
elif inp[0] == 'pause':
util.pause(client)
elif inp[0] == 'next' or inp[0] == 'n':
util.next(client)
elif inp[0] == 'previous' or inp[0] == 'ps':
util.previous(client)
elif inp[0] == 'stop':
util.stop(client)
elif inp[0] == 'pl' or inp[0] == 'playlist':
util.print_playlist(client)
elif inp[0] == 'update' or inp[0] == 'u':
util.update(client)
elif inp[0] == 'clear':
util.clear(client)
elif inp[0] == 'random':
util.mpdrandom(client, inp[1])
elif inp[0] == 'shuffle':
util.shuffle(client)
elif inp[0] == 'consume':
util.consume(client, inp[1])
elif inp[0] == 'swap':
util.swap(client, int(inp[1]) - 1, int(inp[2]) - 1)
elif inp[0] == 'single':
util.single(client, inp[1])
elif inp[0] == 'search' or inp[0] == 's':
if '-f' in inp or '--filter' in inp:
l = util.mpdsearch(inp[1], inp, DBlocation, True)
else:
l = util.mpdsearch(inp[1], inp, DBlocation, False)
elif inp[0] == 'a' or inp[0] == 'add':
if l:
for line in l:
client.add(line)
else:
print('You have to search first!')
elif inp[0] == 'q' or inp[0] == 'quit':
quit()
return l
def rt_equiv(self, obj):
if not UT.is_satisfies(RT.Sequential, obj):
return false
ms = UT.seq(obj)
s = UT.seq(self)
while s is not nil:
if ms is nil or UT.equiv(UT.first(s), UT.first(ms)) is false:
return false
ms = UT.next(ms)
s = UT.next(s)
return true if ms is nil else false
def rt_equiv(self, obj):
if not UT.is_satisfies(RT.Sequential, obj):
return false
ms = UT.seq(obj)
s = UT.seq(self)
while s is not nil:
if ms is nil or UT.equiv(UT.first(s), UT.first(ms)) is false:
return false
ms = UT.next(ms)
s = UT.next(s)
return true if ms is nil else false
def rt_equiv(self, other):
if UT.is_satisfies(RT.IPersistentVector, other):
if UT.equiv(RT.count.invoke1(self), UT.count(other)) is false:
return false
for x in range(self._cnt):
i = wrap_int(x)
if RT.equiv(RT.nth.invoke1(self, i), UT.nth(self, i)) is false:
return false
return true
else:
if RT.is_satisfies.invoke1(RT.Sequential, other) is false:
return false
ms = RT.seq.invoke1(other)
for x in range(self._cnt):
if ms is nil or UT.equiv(UT.nth(x, wrap_int(x)),
UT.first(ms)) is false:
return false
ms = UT.next(ms)
if ms is not nil:
return false
return true
def process():
global callback, database, timer
# now
now = datetime.now()
(c, n) = util.next(now, database)
current_prediction_time = c
current_prediction_value = database[c]
next_predition_time = n
next_predition_value = database[n]
if callback:
callback((current_prediction_value, current_prediction_time,
next_predition_value, next_predition_time))
sleep_dt = next_predition_time - now
# print "&&&&&&&&&&&&&&&&&&&&&&&&"
# print current_prediction_time
# print current_prediction_value
# print "-----"
# print now
# print next_predition_time
# print "sleep for: "
# print next_predition_time - now
# time.sleep(sleep_dt.total_seconds())
timer = threading.Timer(sleep_dt.total_seconds(), process)
timer.start()
def rt_equiv(self, other):
if UT.is_satisfies(RT.IPersistentVector, other):
if UT.equiv(RT.count.invoke1(self), UT.count(other)) is false:
return false
for x in range(self._cnt):
i = wrap_int(x)
if RT.equiv(RT.nth.invoke1(self, i), UT.nth(self, i)) is false:
return false
return true
else:
if RT.is_satisfies.invoke1(RT.Sequential, other) is false:
return false
ms = RT.seq.invoke1(other)
for x in range(self._cnt):
if ms is nil or UT.equiv(UT.nth(x, wrap_int(x)), UT.first(ms)) is false:
return false
ms = UT.next(ms)
if ms is not nil:
return false
return true