def msp430():
"""
MSP430 sensors (e.g., external temperature)
"""
prefix = "msp430"
while True:
try:
ser = serial.Serial(port='/dev/ttyACM0', baudrate=9600)
db = sqlite.open(LOG_PATH_FORMAT % prefix)
try:
while True:
ser.write("1")
line = ser.readline().strip()
for sensor in line.split(';'):
name, value = sensor.split('\t')
db[int(time())] = \
[tuple(sensor.split('\t')) for sensor in line.split(';')]
sleep(2)
finally:
ser.close()
except serial.SerialException, e:
print e.message
sleep(2)
def __enter__(self):
if not self.local:
# Create a new thread for each time this memoizing agent is
# entered. This allows a CWMemo to be reused.
self.client = cw.client.ClientThread(self.completion, self.host)
self.completion_thread_db = None
self.completion_cond = self.client.jobs_cond
self.client.start()
self.db = sshelve.open(self.dbname)
return self
def __enter__(self):
if not self.local:
# Create a new thread for each time this memoizing agent is
# entered. This allows a CWMemo to be reused.
self.client = cw.client.ClientThread(self.completion, self.host)
self.completion_thread_db = None
self.completion_cond = self.client.jobs_cond
self.client.start()
self.db = sshelve.open(self.dbname)
return self
def all_sensors():
sensors = []
for sensor in os.listdir(LOG_PATH):
if not fnmatch.fnmatch(sensor, 'sensor_*'):
continue
file_name = os.path.join(LOG_PATH, sensor)
if os.path.exists(file_name):
data = sqlite.open(file_name).getlast()[0][1]
sensors.append({"name": sensor[len("sensor_"):], "data": data})
return render_template("all_sensors.html", data=sensors, info=get_info())
def index():
sensors = {}
if os.path.exists(LOG_PATH):
for sensor in os.listdir(LOG_PATH):
if not fnmatch.fnmatch(sensor, 'sensor_*'):
continue
file_name = os.path.join(LOG_PATH, sensor)
if os.path.exists(file_name):
data = sqlite.open(file_name).getlast()[0][1]
sensors.update({sensor[len("sensor_"):]: dict(data)})
return render_template("index.html", data=sensors, info=get_info())
def completion(self, jobid, output):
"""Callback invoked when a cluster-workers job finishes. We
store the result for a later get() call and wake up any pending
get()s.
"""
self.logger.info(
u'job completed ({} pending)'.format(len(self.jobs) - 1))
# Called in a different thread, so we need a separate SQLite
# connection.
if not self.completion_thread_db:
self.completion_thread_db = sshelve.open(self.dbname)
db = self.completion_thread_db
# Get the arguments and save them with the result.
with self.client.jobs_cond:
key = self.jobs.pop(jobid)
db[key] = output
def completion(self, jobid, output):
"""Callback invoked when a cluster-workers job finishes. We
store the result for a later get() call and wake up any pending
get()s.
"""
self.logger.info(u'job completed ({} pending)'.format(
len(self.jobs) - 1
))
# Called in a different thread, so we need a separate SQLite
# connection.
if not self.completion_thread_db:
self.completion_thread_db = sshelve.open(self.dbname)
db = self.completion_thread_db
# Get the arguments and save them with the result.
with self.client.jobs_cond:
key = self.jobs.pop(jobid)
db[key] = output
def acpi():
"""
ACPI sensors (e.g., computer internal temperature)
"""
sensors.init()
print "ACPI Sensors found: %s" % list(sensors.iter_detected_chips())
db = dict((sensor.prefix, sqlite.open(LOG_PATH_FORMAT % sensor.prefix)) for sensor
in sensors.iter_detected_chips() )
try:
while True:
for sensor in sensors.iter_detected_chips():
#MONGO?
for feature in sensor:
print "%s: %s=%s" % (sensor.prefix, feature.name, feature.get_value())
db[sensor.prefix][int(time())] = \
[(feature.name, feature.get_value()) for feature in sensor]
sleep(2)
finally:
sensors.cleanup()
def chart(device, sensor):
file_name = os.path.join(LOG_PATH, device)
if os.path.exists(file_name):
N = 3*60*60//2
C = 10
d = sqlite.open(file_name).getlast(N)
d += [(d[-1][0], [(x[0], x[1]) for x in d[-1][1]]) for x in xrange(N-len(d))]
# print d
data = [[(d[0][1][n][0], (d[K*(N//C)][0], sum([float(o) for o in row]) /
(1 if len(row) == 0 else len(row)))) for n, row in
enumerate([[x[i][1] for x in [x[1] for x in d][(K*(N//C)):(K+1)*(N//C)]] for i in
xrange(len(d[0][1]))])] for K in xrange(C)]
# data = [sum(numpy.array(data[(i*(N/C)):((i+1)*(N/C))][1]))/(N/C) for i in xrange(C)]
# data.reverse()
print data
keys = [int(dict(v)[sensor][0]) for v in data]
keys = ["-%d min" % ((v-min(keys))/60) for v in keys]
return render_template("chart.html", device_name=device,
sensor_name=sensor,
data={
'x': keys,
'y': [str(dict(v)[sensor][1])[:4] for v in data],
},
info=get_info())
def chart_sensors(device):
file_name = os.path.join(LOG_PATH, device)
if os.path.exists(file_name):
data = sqlite.open(file_name).getlast()[0][1]
return render_template("device_sensors.html", device_name=device,
sensors=sorted(dict(data).keys()), info=get_info())