def setUp(self):
_ui = UserInput()
_ui.request('com4')
self.flex = Flex(_ui)
self.flex.open()
_ = self.flex.do_cmd_list(postproc.INITIALZE_FLEX)
self.assertEqual(13, len(_))
def setUp(self):
"""setUp()
"""
_ui = UserInput()
_ui.request('com4')
self.flex = Flex(_ui)
self.flex.open()
self.flex.do_cmd_list(postproc.INITIALZE_FLEX)
def test01_instantiate(self):
"""test_instantiate()
check if Flex instiantiates and has expected str and repr without flex being opened
"""
_ui = UserInput()
_ui.request('com4')
flex = Flex(_ui)
self.assertEqual('Flex cat: com4, opened: False', str(flex))
self.assertEqual('[Flex] Flex cat: com4, opened: False', repr(flex))
flex.close()
def tearDownClass(cls):
_ui = UserInput()
_ui.request('com4')
flex = Flex(_ui)
flex.open()
flex.restore_state(cls.initial_state)
flex.close()
def setUpClass(cls):
_ui = UserInput()
_ui.request('com4')
flex = Flex(_ui)
flex.open()
cls.initial_state = flex.save_current_state()
flex.close()
def setUpClass(cls):
"""setUpClass()
"""
_ui = UserInput()
_ui.request('com4')
flex = Flex(_ui)
flex.open()
cls.initial_state = flex.save_current_state()
flex.close()
postproc.enable_bands(['10', '20'])
def main():
"""main()
"""
# bandrd = Bandreadings(
# ['14000000', '14073400', '14100000', '14200000'], None)
#bd = bandrd.bandid
ui: UserInput = UserInput()
ui.request(port='com4')
flexr: Flex = Flex(ui)
initial_state = None
try:
if not flexr.open():
raise (RuntimeError('Flex not connected to serial serial port'))
print('saving current flex state')
initial_state = flexr.save_current_state()
print('initializing dbg flex state')
flexr.do_cmd_list(postproc.INITIALZE_FLEX)
bandr = Bandreadings('20', flexr)
print('start scanning for noise')
bss: SMeterAvg = bandr.doit()
if False:
with open('banddata.json', 'w') as jso: # jsonpickle.encode
_ = jsonpickle.encode(bss)
jso.write(_)
with open('banddata.json', 'r') as jsi:
aa = jsi.readline()
cpybss = jsonpickle.decode(aa)
if str(bss) != str(cpybss):
print('bss <> cpybss')
print('end scanning for noise')
print(f'band noise is {bandr.band_signal_strength}')
except RuntimeError as re:
raise
except Exception as e:
#a = 0
print(e)
raise e
finally:
print('restore flex prior state')
flexr.restore_state(initial_state)
flexr.close()
def doita(
): # the program to be run by _thread_template the return 0 says that no work need be done when stopping
try:
UI: UserInput = UserInput()
UI.request(port='com4')
flexr: Flex = Flex(UI)
nf: Noisefloor = Noisefloor(flexr,
arg.qs[QK.dQ],
arg.stope,
run_till_stopped=True)
nf.open()
nf.doit(loops=0, runtime=0, interval=100, dups=True)
except StopEventException as see:
nf.close()
raise see
class Testnoisefloor(unittest.TestCase):
def setUp(self):
"""setUp()
"""
_ui = UserInput()
_ui.request('com4')
self.flex = Flex(_ui)
self.flex.open()
self.flex.do_cmd_list(postproc.INITIALZE_FLEX)
def tearDown(self):
"""tearDown()
"""
self.flex.close()
@classmethod
def setUpClass(cls):
"""setUpClass()
"""
_ui = UserInput()
_ui.request('com4')
flex = Flex(_ui)
flex.open()
cls.initial_state = flex.save_current_state()
flex.close()
postproc.enable_bands(['10', '20'])
@classmethod
def tearDownClass(cls):
"""tearDownClass()
"""
_ui = UserInput()
_ui.request('com4')
flex = Flex(_ui)
flex.open()
flex.restore_state(cls.initial_state)
flex.close()
def test_A01SMeter(self):
try:
smeter = SMeter(SMArgkeys(
'ZZSM000;',
5_000_000,
))
self.assertEqual('[SMeter: freq:5000000, -140.00000dBm, S0]',
str(smeter))
gg = repr(smeter)
self.assertEqual('SMeter: freq:5000000, -140.00000dBm, S0',
gg) # repr(smeter))
except:
a = 0
a = 1
def test_A02Noisefloor_inst(self):
dataq = QUEUES[QK.dQ]
#stope = STOP_EVENTS['acquireData']
stope = STOP_EVENTS[SEK.ad]
# , testdata='noisefloordata.pickle')
nf: Noisefloor = Noisefloor(self.flex, dataq, stope)
self.assertTrue(nf.open(), 'smartSDR not running')
nf.doit(loops=10, testdatafile='nfrlistdata.pickle', dups=True)
self.assertTrue(nf.close())
results: List[NFResult] = []
try:
while True:
results.append(dataq.get(timeout=3))
except QEmpty:
pass
self.assertEqual(10, len(results))
samp: NFResult = results[2].get()
self.assertEqual('Jul 15 2020 11:14:43', samp.starttime)
self.assertEqual('Jul 15 2020 11:15:49', samp.endtime)
r0bss: SMeterAvg = samp.readings[0]
self.assertEqual('40', r0bss.band)
self.assertEqual(-86.5, r0bss.dBm['mdBm'])
def test_B01NoiseFloorStopEvent(self):
"""test_005NoiseFloorStopEvent
The two seperate operations in this section make sure that
1) shutdown works with no threads, first and 3rd thread and 3rd and 5th threads
2) disabled threads start and end correctly
3) that all the threads can be started and operate reaonable (with test data)
the only data sent on a queue is to the TESTQ which basically the result of myprint calls
and the debug text output for this is disabled by default.
these tests check operation of trackermain.timedwork, but not much else as all the test
functions are in the test routine
"""
# must release the flex and ui setup in the per test setup for this test
self.flex.close()
#from queuesandevents import QUEUES, STOP_EVENTS
from qdatainfo import NFQ
barrier: CTX.Barrier = CTX.Barrier(0)
# timesdic = {'tf': 15, 'nf': 4, 'dqr': 5, 'da': 6, 'db': 7}
def tf(arg: Threadargs
): # the program periodically executed by the timer thread
"""tf()
"""
pass
#
# Threadargs = namedtuple('Threadargs', ['execute', 'barrier', 'stope',
# 'qs', 'name', 'interval', 'doit'])
#
def nf(arg: Threadargs, **kwargs):
"""
noisefloor proxy
arg is named tuple Threadargs
Justs writes the routine name, thread name and time to TESTQ and maybe the consule
"""
def doita(
): # the program to be run by _thread_template the return 0 says that no work need be done when stopping
try:
UI: UserInput = UserInput()
UI.request(port='com4')
flexr: Flex = Flex(UI)
nf: Noisefloor = Noisefloor(flexr,
arg.qs[QK.dQ],
arg.stope,
run_till_stopped=True)
nf.open()
nf.doit(loops=0, runtime=0, interval=100, dups=True)
except StopEventException as see:
nf.close()
raise see
# update the interval and function
mma: Threadargs = arg._replace(doit=doita)
# run it
return _thread_template(mma, printfun=myprint, **kwargs)
def dqr(arg: Threadargs, **kwargs):
"""
noisefloor proxy
arg is named tuple Threadargs
Justs writes the routine name, thread name and time to TESTQ and maybe the consule
"""
def doita(
): # the program to be run by _thread_template the return 0 says that no work need be done when stopping
pass
mma = arg._replace(interval=1, doit=doita)
# run it
return _thread_template(mma, printfun=myprint, **kwargs)
def daf(arg: Threadargs, **kwargs):
"""
noisefloor proxy
arg is named tuple Threadargs
Justs writes the routine name, thread name and time to TESTQ and maybe the consule
"""
def doita(
): # the program to be run by _thread_template the return 0 says that no work need be done when stopping
pass
mma = arg._replace(interval=1, doit=doita)
# run it
return _thread_template(mma, printfun=myprint, **kwargs)
def dbf(arg: Threadargs, **kwargs):
"""
noisefloor proxy
arg is named tuple Threadargs
Justs writes the routine name, thread name and time to TESTQ and maybe the consule
"""
def doita(
): # the program to be run by _thread_template the return 0 says that no work need be done when stopping
pass
mma = arg._replace(interval=1, doit=doita)
# run it
return _thread_template(mma, printfun=myprint, **kwargs)
# def runthreads(calls: Tuple[Callable, ...], argdicin: Dict[str, Threadargs], tpex) -> Dict[str, Any]:
#futures: Dict[str, Any] = {}
# futures[FK.w] = tpex.submit(
# calls.w, argdicin[AK.w], printfn=myprint)
# gets banddata data
#futures[FK.n] = tpex.submit(calls.n, argdicin[AK.n])
# reads the dataQ and sends to the data processing queue dpq
#futures[FK.t] = tpex.submit(calls.t, argdicin[AK.t])
# looks at the data and generates the approprate sql to send to dbwriter
#futures[FK.da] = tpex.submit(calls.da, argdicin[AK.da])
# reads the database Q and writes it to the database
#futures[FK.db] = tpex.submit(calls.db, argdicin[AK.db])
# _ = tpex.submit(breakwait, barrier) # break the barrier
# _.add_done_callback(bwdone)
# return futures
# turn off all selected thread routines
bollst: Tuple[bool, ...] = ENABLES(
w=False,
n=False,
t=False,
da=False,
db=False,
)
"""
# Check empty submit works with tracker.shutdown
"""
calls: Tuple[Callable, ...] = ENABLES(w=trackermain.timed_work,
n=nf,
t=dqr,
da=daf,
db=dbf)
# no threads running
futures: Dict[str, Any] = {}
waitresults: Tuple[Set,
Set] = trackermain.shutdown(futures, QUEUES,
STOP_EVENTS)
self.assertTrue(waitresults is None)
"""
# Check submit and shutdown works with all threads disabled
"""
argdic: Dict[int, Threadargs] = genargs(barrier, bollst)
#tpex = None
"""
This did not work when placed in a with construct, and it stops the diagnostic from completing!
No idea why not
"""
if False:
if True:
tpex = concurrent.futures.ThreadPoolExecutor(
max_workers=10, thread_name_prefix='dbc-')
futures: Dict[str, Any] = runthreads(barrier, calls, argdic,
tpex)
for _ in range(1):
Sleep(1) # wait for a while to let the threads work
waitresults = trackermain.shutdown(futures,
QUEUES,
STOP_EVENTS,
time_out=1)
a = 0
# wait = True cause hang, false doesn't let the diagnostic end
tpex.shutdown(wait=True)
# all 5 threads ran to completion
self.assertEqual(5, len(waitresults.done))
self.assertEqual(0, len(waitresults.not_done))
cleartestq()
bollst: Tuple[bool, ...] = ENABLES(
w=False,
n=False,
t=False,
da=False,
db=False,
)
bc: int = sum([1 for _ in bollst if _]) + 1 # count them for barrier
barrier = CTX.Barrier(bc)
myprint('starting')
argdic: Dict[int, Threadargs] = genargs(barrier, bollst)
# mods for test
argdic[AK.w] = argdic[AK.w]._replace(name='timed_work',
interval=10.5,
doit=tf)
"""
Start the threads, all should just activate and then exit leaving a trace this time
"""
# mythreadname = threading.currentThread().getName()
# mythread = threading.currentThread()
with concurrent.futures.ThreadPoolExecutor(
max_workers=10, thread_name_prefix='dbc-') as tpex:
futures: Dict[str, Any] = runthreads(barrier, calls, argdic, tpex)
for _ in range(1):
Sleep(1)
waitresults = trackermain.shutdown(futures, QUEUES, STOP_EVENTS)
self.assertEqual(5, len(waitresults.done))
self.assertEqual(0, len(waitresults.not_done))
# check that the results were expected
for _ in waitresults.done:
self.assertTrue(_.done())
rrr = repr(_.result())
self.assertTrue(rrr in ['[]', 'None', 'deque([], maxlen=10)'])
# turn on noisefloor thread
bollst: Tuple[bool, ...] = ENABLES(False, True, False, False, False)
# count them for barrier the plus 1 is for starting thread
bc = sum([1 for _ in bollst if _]) + 1
barrier = CTX.Barrier(bc)
runtime = 90 # either 60, or 120 if not one of these, some of the asserts are ignored
cleartestq()
RESET_STOP_EVENTS()
argdic: Dict[int, Threadargs] = genargs(barrier, bollst)
# mods for test
argdic[AK.w] = argdic[AK.w]._replace(interval=1, doit=tf)
argdic[AK.n] = argdic[AK.n]._replace(interval=None)
argdic[AK.t] = argdic[AK.t]._replace(interval=1)
argdic[AK.da] = argdic[AK.da]._replace(interval=1)
argdic[AK.db] = argdic[AK.db]._replace(interval=1)
"""
Try running the noise floor for real on a thread
check that shutdown will actually stop it
"""
start = monotonic()
futures: Dict[str, Any] = None
with concurrent.futures.ThreadPoolExecutor(
max_workers=10, thread_name_prefix='dbc-') as tpex:
futures: Dict[str, Any] = runthreads(barrier, calls, argdic, tpex)
for _ in range(
runtime): # wait for a while to let the threads work
Sleep(1)
waitresults = trackermain.shutdown(
futures, QUEUES, STOP_EVENTS,
time_out=120) # wait max 60 for the threads to stop
end = monotonic()
elapsed = end - start
myprint(
f'elapsed: {elapsed}, runtime set to: {runtime}, 120 sec timeout delay'
)
# took the expected one reading
self.assertEqual(1, QUEUES[QK.dQ].qsize())
nfqdta: NFQ = QUEUES[QK.dQ].get_nowait()
nfr: NFResult = nfqdta.get()
if (nfr is None):
print('nfr is none')
else:
self.assertTrue(nfr._started and nfr._ended)
self.assertEqual(4, len(nfr.readings)) # got all 4 bands
bollst: Tuple[bool, ...] = ENABLES(w=False,
n=True,
t=False,
da=False,
db=False)
# count them for barrier the plus 1 is for starting thread
bc = sum([1 for _ in bollst if _]) + 1
barrier = CTX.Barrier(bc)
# runtime = 100 # either 60, or 120 if not one of these, some of the asserts are ignored
cleartestq()
RESET_STOP_EVENTS()
argdic: Dict[int, Threadargs] = genargs(barrier, bollst)
# mods for test
argdic[AK.w] = argdic[AK.w]._replace(interval=1, doit=tf)
argdic[AK.n] = argdic[AK.n]._replace(interval=None)
argdic[AK.t] = argdic[AK.t]._replace(interval=1)
argdic[AK.da] = argdic[AK.da]._replace(interval=1)
argdic[AK.db] = argdic[AK.db]._replace(interval=1)
"""
Try running the noise floor for real on a thread
check that setting stop event will stop it
Set to stop in the mid band scan
"""
start = monotonic()
with concurrent.futures.ThreadPoolExecutor(
max_workers=10, thread_name_prefix='dbc-') as tpex:
futures: Dict[str, Any] = runthreads(barrier, calls, argdic, tpex)
for _ in range(int(runtime /
3)): # wait for a while to let the threads work
Sleep(1)
STOP_EVENTS[SEK.da].set() # stop the the data acquisition
waitresults = trackermain.shutdown(
futures, QUEUES, STOP_EVENTS,
time_out=120) # wait max 60 for the threads to stop
end = monotonic()
elapsed = end - start
# aborted before it could complete a cycle
self.assertEqual(0, QUEUES[QK.dQ].qsize())
myprint(
f'elapsed: {elapsed}, runtime set to: {int(runtime/3)}, 120 sec timeout delay'
)
a = 0
def test_A03Noisefloortestfiles(self):
from qdatainfo import NFQ
from math import isclose
from datetime import datetime as DT
from datetime import timedelta as TD
nfqldata: List[NFQ] = []
with open('nfqlistdata.pickle', 'rb') as jso:
nfqldata = pickle.load(jso)
self.assertEqual(90, len(nfqldata))
nfrldata: List[NFResult] = []
with open('nfrlistdata.pickle', 'rb') as jso:
nfrldata = pickle.load(jso)
self.assertEqual(90, len(nfrldata))
smavdata: List[SMeterAvg] = []
with open('smavflistdata.pickle', 'rb') as jso:
smavdata = pickle.load(jso)
self.assertEqual(270, len(smavdata))
nfq = nfqldata[0]
nfqtimel: List[Tuple[int, TD, DT, DT, ]] = []
for i in range(1, len(nfqldata)):
t1: DT = nfqldata[i].utctime
t0: DT = nfqldata[i - 1].utctime
td: TD = t1 - t0
if not isclose(td.total_seconds(), 90.0, abs_tol=0.5):
nfqtimel.append((
i,
td,
t0,
t1,
))
self.assertEqual(4, len(nfqtimel))
# index, time delta between starts, time taken
nfrlderr: List[Tuple[int, TD, TD]] = []
for i in range(1, len(nfrldata)):
st1: DT = DT.strptime(nfrldata[i].starttime, '%b %d %Y %H:%M:%S')
st0: DT = DT.strptime(nfrldata[i - 1].starttime,
'%b %d %Y %H:%M:%S')
et: DT = DT.strptime(nfrldata[i].endtime, '%b %d %Y %H:%M:%S')
sd: TD = st1 - st0
dur: TD = et - st1
if not isclose(sd.seconds, 90.0, abs_tol=0.5) or not isclose(
dur.seconds, 65.0, abs_tol=3.0):
nfrlderr.append((i, sd, dur))
self.assertEqual(3, len(nfrlderr))
class Testflex(unittest.TestCase):
"""Testflex
unit testing for the flex class
"""
# def initialize_flex(self):
# """initialize_flex()
# """
# _ui = UserInput()
# _ui.request('com4')
# self.flex = Flex(_ui)
# self.flex.open()
# self.initialize_flex()
# self.flex.do_cmd_list(postproc.INITIALZE_FLEX)
# results = self.flex.do_cmd_list(postproc.INITIALZE_FLEX)
# return results
def setUp(self):
_ui = UserInput()
_ui.request('com4')
self.flex = Flex(_ui)
self.flex.open()
_ = self.flex.do_cmd_list(postproc.INITIALZE_FLEX)
self.assertEqual(13, len(_))
def tearDown(self):
self.flex.close()
@classmethod
def setUpClass(cls):
_ui = UserInput()
_ui.request('com4')
flex = Flex(_ui)
flex.open()
cls.initial_state = flex.save_current_state()
flex.close()
@classmethod
def tearDownClass(cls):
_ui = UserInput()
_ui.request('com4')
flex = Flex(_ui)
flex.open()
flex.restore_state(cls.initial_state)
flex.close()
def test01_instantiate(self):
"""test_instantiate()
check if Flex instiantiates and has expected str and repr without flex being opened
"""
_ui = UserInput()
_ui.request('com4')
flex = Flex(_ui)
self.assertEqual('Flex cat: com4, opened: False', str(flex))
self.assertEqual('[Flex] Flex cat: com4, opened: False', repr(flex))
flex.close()
def test02_open_close(self):
"""test_open_close()
check if Flex instiantiates and opens and has expected str and repr flex
verifies that flex closes
verifies re-open and can do a simple do_cmd
"""
self.assertEqual('Flex cat: com4, opened: True', str(self.flex))
self.assertEqual('[Flex] Flex cat: com4, opened: True',
repr(self.flex))
self.flex.close()
self.assertEqual('Flex cat: com4, opened: False', str(self.flex))
self.assertEqual('[Flex] Flex cat: com4, opened: False',
repr(self.flex))
self.flex.open()
result = self.flex.do_cmd('ZZIF;')
self.assertEqual(41, len(result))
def test03_do_cmd(self):
"""test_do_cmd()
checks error conditions on do_cmd
"""
result = self.flex.do_cmd('ZZIF;')
self.assertEqual(41, len(result))
result = self.flex.do_cmd('ZZIF')
self.assertEqual(41, len(result))
result = self.flex.do_cmd('')
self.assertEqual('??;', result)
result = self.flex.do_cmd('junk')
self.assertEqual('??;', result)
def test04_save_current_state(self):
"""test_save_current_state()
checks that flex state can be saved, modified and restored
"""
savedstate = self.flex.save_current_state()
self.assertEqual(savedstate, self.flex.saved_state[:])
self.flex.restore_saved_state()
newsavedstate = self.flex.save_current_state()
self.assertEqual(savedstate, newsavedstate)
_aa = int([i for i in newsavedstate if 'ZZFA' in i][0][-12:-1])
_aa = 14000000 if _aa != 14000000 else 15000000
# aat = f'ZZFA{_aa:011};'
self.flex.do_cmd(f'ZZFA{_aa:011};')
modstate = self.flex.save_current_state()
self.assertNotEqual(modstate, newsavedstate)
restore_results = self.flex.restore_state(newsavedstate)
self.assertEqual(19, len(restore_results))
self.assertEqual(newsavedstate, self.flex.saved_state)
def test10_get_cat_data(self):
"""testget_cat_data()
"""
gdata1 = [
CMDListEnt(
'wait0.5',
None,
),
CMDListEnt(
'ZZIF;',
postproc.zzifpost,
),
]
stime = time.perf_counter()
results = self.flex.get_cat_data([], 14_000_000)
etime = time.perf_counter()
dtime = etime - stime
self.assertAlmostEqual(0.00, dtime, delta=0.001)
stime = time.perf_counter()
results = self.flex.get_cat_data([CMDListEnt(
'wait0.5',
None,
)], 14_000_000)
etime = time.perf_counter()
dtime = etime - stime
self.assertAlmostEqual(0.50, dtime, delta=0.1)
results = self.flex.get_cat_data(gdata1, 14_000_000)
dtime = etime - stime
self.assertAlmostEqual(0.50, dtime, delta=0.1)
self.assertEqual(1, len(results))
def test05_jsonpickel(self):
import jsonpickle
try:
self.flex.close()
jsonpickelst = jsonpickle.encode(
self.flex) # _ui cannot be pickeled
testob = jsonpickle.decode(jsonpickelst)
rp1 = repr(self.flex)
rp2 = repr(testob)
self.assertEqual(rp1, rp2)
except Exception as ex:
self.fail("unexpected exception")
a = 0
b = 0
def test000011_get_cat_dataA(self):
myband: BandPrams = BANDS['20']
proto: List[Tuple[Any, Any]] = GET_SMETER_PROTO[:]
cmdlst: List[Tuple[Any, Any]] = []
for cmdt in myband.get_freq_cmds():
cmdlst.extend([CMDListEnt(cmdt, None)])
cmdlst.extend(proto)
cmdresult: List[Any] = self.flex.get_cat_dataA(cmdlst)
sm_readings: List[SMeter] = [
_ for _ in cmdresult if isinstance(_, SMeter)
]
sm_readings.sort()
cmdresultB: List[Any] = [
_ for _ in cmdresult if not isinstance(_, SMeter)
]
cmdrestup = tuple(cmdresultB)
self.assertEqual(myband.get_freq_cmds(), cmdrestup)
maplist: List[Mapping[str, float]] = [
list(_.signal_st.items()) for _ in sm_readings
]
keyset: Set[str] = set(
[list(sm.signal_st.items())[0][1] for sm in sm_readings])
noisedic: Dict[str, List[SMeter]] = {}
for k in keyset:
noisedic.setdefault(k, [])
for ls in maplist:
noisedic[ls[0][1]].append(ls[1][1])
key = sorted(list(noisedic.keys()))[0]
dkdk: List[SMeter] = [
sm for sm in sm_readings if sm.signal_st['sl'] == key
]
sma: SMeterAvg = SMeterAvg(dkdk, myband.bandid)
a = 0
def main(stop_events: Mapping[str, CTX.Event], queues: Mapping[str, CTX.JoinableQueue]):
from smeteravg import SMeterAvg
UI = UserInput()
NOISE = None
UI.request(port='com4')
flexr = Flex(UI)
initial_state = None
try:
if not flexr.open():
raise (RuntimeError('Flex not connected to serial serial port'))
print('saving current flex state')
initial_state = flexr.save_current_state()
print('initializing dbg flex state')
flexr.do_cmd_list(INITIALZE_FLEX)
flexr.close()
resultQ = queues.get(QK.dQ)
stop_event = stop_events.get(SEK.da)
NOISE = Noisefloor(flexr, resultQ, stop_event)
NOISE.open()
# loops must be less than 100 as that is the queue size and I am not emptying it here
NOISE.doit(loops=90, interval=90, dups=True)
# NOISE.doit(runtime=1, interval=60)
try:
stop_event.set()
except StopEventException:
pass
if NOISE and NOISE.is_open:
flexr.restore_state(initial_state)
NOISE.close()
indata: List[NFQ] = []
deck: Deck = Deck(1000)
deck.q2deck(resultQ, mark_done=True)
indata = deck.deck2lst()
# try:
# while True:
#indata.append(resultQ.get(True, 1))
# resultQ.task_done()
# except QEmpty:
# pass # q is empty
# except Exception as ex:
# print(ex)
#raise ex
with open('nfqlistdata.pickle', 'wb') as jso:
pickle.dump(indata, jso)
unpacked: List[NFResult] = [npq.get() for npq in indata]
with open('nfrlistdata.pickle', 'wb') as jso:
pickle.dump(unpacked, jso)
reads: List[SMeterAvg] = []
for nfr in unpacked:
reads.extend(nfr.readings)
with open('smavflistdata.pickle', 'wb') as jso:
pickle.dump(reads, jso)
up0: NFResult = unpacked[0]
outdata = []
with open('nfqlistdata.pickle', 'rb') as jsi:
outdata = pickle.load(jsi)
brlst: List[Bandreadings] = []
for nfq in outdata:
br: Bandreadings = nfq.get()
brlst.append(br)
a = indata[0]
b = outdata[0]
except(Exception, KeyboardInterrupt) as exc:
if NOISE and NOISE.is_open:
flexr.restore_state(initial_state)
NOISE.close()
UI.close()
raise exc
finally:
print('restore flex prior state')
if NOISE and NOISE.is_open:
flexr.restore_state(initial_state)
NOISE.close()
UI.close()
class TestBandreadings(unittest.TestCase):
"""TestBandreadings
"""
def setUp(self):
"""setUp()
"""
_ui = UserInput()
_ui.request('com4')
self.flex = Flex(_ui)
self.flex.open()
self.flex.do_cmd_list(postproc.INITIALZE_FLEX)
def tearDown(self):
"""tearDown()
"""
self.flex.close()
@classmethod
def setUpClass(cls):
"""setUpClass()
"""
_ui = UserInput()
_ui.request('com4')
flex = Flex(_ui)
flex.open()
cls.initial_state = flex.save_current_state()
flex.close()
postproc.enable_bands(['10', '20'])
@classmethod
def tearDownClass(cls):
"""tearDownClass()
"""
_ui = UserInput()
_ui.request('com4')
flex = Flex(_ui)
flex.open()
flex.restore_state(cls.initial_state)
flex.close()
def test01_instat(self):
"""test01_instat()
"""
postproc.enable_bands('80', False)
postproc.enable_bands('10')
_br: Bandreadings = None
try:
_br = Bandreadings(None, self.flex)
self.fail('should have had a KeyError')
except KeyError as ke:
pass
try:
_br = Bandreadings('80', self.flex)
self.fail('should have had a ValueError')
except ValueError as ve:
pass
_br = Bandreadings('10', self.flex)
self.assertEqual('no reading, band 10', str(_br))
self.assertEqual('Bandreadings: no reading, band 10', repr(_br))
self.assertEqual('10', _br.bandid)
_br = Bandreadings('20', self.flex)
self.assertEqual('no reading, band 20', str(_br))
self.assertEqual('Bandreadings: no reading, band 20', repr(_br))
self.assertEqual('20', _br.bandid)
_br = Bandreadings(
'20', self.flex) # these freqs in 20m band
self.assertEqual('no reading, band 20', str(_br))
self.assertEqual('Bandreadings: no reading, band 20', repr(_br))
self.assertEqual('20', _br.bandid)
def test02_radioaccess(self):
"""test02_radioaccess()
"""
import multiprocessing as mp
import queue
CTX = mp.get_context('spawn') # threading context
dataq = CTX.JoinableQueue(maxsize=100)
try:
_br: Bandreadings = Bandreadings(
'20', self.flex)
_br.get_readings(testing='./quiet20band.json')
self.assertEqual(
'[SMeterAvg: b:20, -103.45833adBm, -103.50000mdBm, S3, var: 0.15720, stddv: 0.39648]',
repr(_br.band_signal_strength))
bss0: SMeterAvg = _br.band_signal_strength
_br.flexradio = None # must be done to allow pikceling in the que
dataq.put(_br)
_br.get_readings(testing='./noisy20band.json')
self.assertEqual(
'[SMeterAvg: b:20, -102.06250adBm, -103.50000mdBm, S3, var: 12.79583, stddv: 3.57713]',
repr(_br.band_signal_strength))
bss1: SMeterAvg = _br.band_signal_strength
dataq.put(_br)
# if _br.band_signal_strength.signal_st.get('stddv') > 1.5:
# _br.changefreqs(
# testing='./focusedbadspotreading.json')
# self.assertEqual(
#'[SMeterAvg: -103.32090adBm, -103.50000mdBm, S3, var: 0.74774, stddv: 0.86472]',
# repr(_br.band_signal_strength))
datain: List[SMeterAvg] = []
try:
while True:
datain.append(dataq.get(True, 0.005))
dataq.task_done()
except queue.Empty as mt:
b = 0
pass
except Exception as ex:
a = 0
pass
self.assertEqual(2, len(datain))
self.assertEqual(
'[Bandreadings: SMeterAvg: [band:20, avgsignal: -103.45833dBm, S3, var: 0.15720, stddv: 0.39648]]', repr(datain[0]))
tbr = datain[0]
self.assertEqual(
'band:20, enabled: True, chan: False, [14000000, 14035000, 14070000, 14105000, 14140000, 14175000, 14210000, 14245000, 14280000, 14315000, 14350000]',
str(tbr.myband))
# self.assertFalse(tbr.useable)
bss0a = datain[0].band_signal_strength
bss1a = datain[1].band_signal_strength
self.assertEqual(repr(bss0), repr(bss0a))
self.assertEqual(repr(bss1), repr(bss1a))
except(Exception, KeyboardInterrupt) as exc:
excs = str(exc)
self.fail(f'unexpected exception {excs}')
def test03_get_readings(self):
"""test03_get_readings()
"""
_br = Bandreadings(
'20', self.flex) # 14000000
_br.get_readings(testing='./noisy20band.json')
smar = _br.band_signal_strength
self.assertEqual(16, len(smar.smlist))
self.assertEqual(
'SMeter: freq:14000000, -105.00000dBm, S3', repr(smar.smlist[0]))
self.assertEqual(
'SMeter: freq:14074000, -96.00000dBm, S5', repr(smar.smlist[6]))
self.assertEqual(
'[SMeterAvg: b:20, -102.06250adBm, -103.50000mdBm, S3, var: 12.79583, stddv: 3.57713]',
repr(smar))
import db_helper
import lineApiTools
from linebot import (LineBotApi, WebhookHandler)
from linebot.exceptions import (InvalidSignatureError)
from linebot.models import *
import time
from flex import Flex
import flask
CHANNEL_ACCESS_TOKEN = os.environ['LINE_CHANNEL_ACCESS_TOKEN']
CHANNEL_SECRET = os.environ['LINE_CHANNEL_SECRET']
line_bot_api = LineBotApi(CHANNEL_ACCESS_TOKEN)
handler = WebhookHandler(CHANNEL_SECRET)
app = Flask(__name__)
flex = Flex()
@app.route('/favicon.ico')
def favicon():
return "OK.There is noting!"
@app.route('/')
def index():
return '元気に動作中'
@app.route('/callback', methods=['POST'])
def callback():
# get X-Line-Signature header value