def check_feature(chip, feature):
sfs = list(sensors.SubFeatureIterator(chip, feature)) # get a list of all subfeatures
label = sensors.get_label(chip, feature)
skipname = len(feature.name)+1 # skip common prefix
# vals is a list of value min and max
vals = [sensors.get_value(chip, sf.number) for sf in sfs]
if feature.type == sensors.feature.INTRUSION:
# short path for INTRUSION to demonstrate type usage
status = "alarm" if int(vals[0]) == 1 else "normal"
print("\t"+label+"\t"+status)
names = [sf.name[skipname:].decode("utf-8") for sf in sfs]
data = list(zip(names, vals))
str_data = ", ".join([e[0]+": "+str(e[1]) for e in data])
if vals[2] > value_max[label]:
print("\tCheck "+src[label]+"\tFAILED! "+str(vals[2])+" > "+str(value_max[label])+")")
return False
if vals[1] < value_min[label]:
print("\tCheck "+src[label]+"\tFAILED! "+str(vals[1])+" < "+str(value_min[label])+")")
return False
print("\tCheck "+src[label]+"\t"+"\t("+str(vals[0])+") ....OK")
return True
def template(title="HELLO!", text="", error=""):
now = datetime.datetime.now()
timeString = now
drip_states = list()
last_watered = list()
for p in state.pumps:
drip_states.append(DripState(p, p in state.drip))
last_watered.append(config.get_last_watered(p))
sensor_states = list()
for s in state.sensors:
sensor_states.append(sensors.get_value(s))
templateDate = {
'title': title,
'time': timeString,
'text': text,
'error': error,
'logdate': state.logdate,
'logs': logger.get_logs(state.logdate).splitlines(),
'drips': drip_states,
'drip_delay': state.drip_delay,
'drip_duration': state.drip_duration,
'sensors': sensor_states,
'timed': state.timed,
'timed_edit': state.timed_edit,
'drip_edit': state.drip_edit,
'last_watered': last_watered,
'water_now_pump': state.water_now_pump,
'water_now_duration': state.water_now_duration
}
return templateDate
def process_temp():
print("-" * 50)
sensors.init()
critical = False
try:
for chip in sensors.ChipIterator():
for feature in sensors.FeatureIterator(chip):
subs = list(sensors.SubFeatureIterator(chip, feature))
critical = None
current = None
for sub in subs:
value = sensors.get_value(chip, sub.number)
if sub.name.endswith(b"input"):
current = value
if sub.name.endswith(b"crit"):
critical_value = value
name = sensors.get_label(chip, feature)
print("Current temp for {}: {} / {}".format(name, current,
critical_value))
if current >= critical_value:
critical = True
if critical:
play_critical()
finally:
sensors.cleanup()
def print_feature(chip, feature):
sfs = list(sensors.SubFeatureIterator(chip, feature)) # get a list of all subfeatures
label = sensors.get_label(chip, feature)
skipname = len(feature.name)+1 # skip common prefix
vals = [sensors.get_value(chip, sf.number) for sf in sfs]
if feature.type == sensors.feature.INTRUSION:
# short path for INTRUSION to demonstrate type usage
status = "alarm" if int(vals[0]) == 1 else "normal"
print("\t"+label+"\t"+status)
return
names = [sf.name[skipname:].decode("utf-8") for sf in sfs]
data = list(zip(names, vals))
str_data = ", ".join([e[0]+": "+str(e[1]) for e in data])
print("\t"+label+"\t"+str_data)
def print_feature(chip, feature):
sfs = list(sensors.SubFeatureIterator(chip, feature)) # get a list of all subfeatures
label = sensors.get_label(chip, feature)
skip_name = len(feature.name) + 1 # skip common prefix
values = [sensors.get_value(chip, sf.number) for sf in sfs]
if feature.type == sensors.Feature.INTRUSION:
# short path for INTRUSION to demonstrate type usage
status = "alarm" if int(values[0]) == 1 else "normal"
print("\t" + label + "\t" + status)
return
names = [sf.name[skip_name:].decode("utf-8") for sf in sfs]
data = list(zip(names, values))
str_data = ", ".join([e[0] + ": " + str(e[1]) for e in data])
print("\t" + label + "\t" + str_data)
def coretemp():
rv = {}
for chip in sensors.ChipIterator():
chipname = sensors.chip_snprintf_name(chip)
if "temp" not in chipname:
continue
chipdata = {}
for feature in sensors.FeatureIterator(chip):
label = sensors.get_label(chip, feature)
sfs = list(sensors.SubFeatureIterator(chip, feature)) # get a list of all subfeatures
vals = [sensors.get_value(chip, sf.number) for sf in sfs]
names = [sf.name[len(feature.name)+1:].decode("utf-8") for sf in sfs]
data = dict(zip(names, vals))
# We use the label instead of the name because the name is typically unhelpful.
chipdata[sanitizeName(label)] = data["input"]
rv[chipname] = chipdata
return rv
def get_temp():
sensors.init()
temp = 0
try:
for chip in sensors.ChipIterator():
for feature in sensors.FeatureIterator(chip):
subs = list(sensors.SubFeatureIterator(chip, feature))
try:
sensor_temp = sensors.get_value(chip, subs[0].number)
# el 200 es por que en las maquinas de desarrollo devuelve
# los RPM de los ventiladores como features. Esta es la
# solucion menos compleja para descartar ese valor.
if sensor_temp < 200 and sensor_temp > temp:
temp = sensor_temp
except Exception:
# alguno de los sensores no se pudo leer. en circunstancias
# normales no pasa pero atajamoe el error para que siga con
# el resto de las featuras
pass
finally:
sensors.cleanup()
return temp
def get_temp():
sensors.init()
temp = 0
try:
for chip in sensors.ChipIterator():
for feature in sensors.FeatureIterator(chip):
subs = list(sensors.SubFeatureIterator(chip, feature))
try:
sensor_temp = sensors.get_value(chip, subs[0].number)
# el 200 es por que en las maquinas de desarrollo devuelve
# los RPM de los ventiladores como features. Esta es la
# solucion menos compleja para descartar ese valor.
if sensor_temp < 200 and sensor_temp > temp:
temp = sensor_temp
except Exception:
# alguno de los sensores no se pudo leer. en circunstancias
# normales no pasa pero atajamoe el error para que siga con
# el resto de las featuras
pass
finally:
sensors.cleanup()
return temp
critical_alarm5 = 0
#print("*********************************")
print "Time : %f " % time.time()
cnt = 0
for chip in sensors.ChipIterator(
): # optional arg like "coretemp-*" restricts iterator
#print(sensors.chip_snprintf_name(chip)+" ("+sensors.get_adapter_name(chip.bus)+")")
print("*********************************")
for feature in sensors.FeatureIterator(chip):
#print_feature(chip, feature)
#value = sensors.get_value(chip, feature.number)
#print(value)
#print(feature.number)
if cnt == 1:
coretemp[0] = sensors.get_value(chip, 4)
coretemp[1] = sensors.get_value(chip, 8)
coretemp[2] = sensors.get_value(chip, 12)
coretemp[3] = sensors.get_value(chip, 16)
coretemp[4] = sensors.get_value(chip, 20)
coretemp[5] = sensors.get_value(chip, 24)
dateTimeObj = datetime.now()
timestampStr = dateTimeObj.strftime(
"%d-%b-%Y (%H:%M:%S.%f)")
report_statement = "An alarm was released at " + timestampStr + " reporting a violation in PR2 Robot's hardware temperature. The current processor core temperature in degree Celsius values are reported: Core 0 : " + str(
coretemp[0]) + " Core 1 : " + str(
coretemp[1]) + " Core 2 : " + str(
coretemp[2]) + " Core 3 : " + str(
coretemp[3]) + " Core 4 : " + str(
coretemp[4]) + " Core 5 : " + str(
# Подключаемся к серверу
client_sensor.connect("ks-cube.tk")
# Запускаем цикл работы с сетевым траффиком
client_sensor.loop_start()
# Запускаем вечный цикл, обрываемый исключением
try:
sensors.init()
# Получаем объект для считвания значения температуры
chip, nr = sensors.get_detected_chips(sensors.parse_chip_name("dell_smm-virtual-0"), 0)
while True:
# Получаем текущую температуру 2-го эелемента чипа dell_smm-virtual-0 (CPU)
payload = sensors.get_value(chip, 2)
# Публикуем текущую температура, печатаем результат передачи номер сообщения в сессии
print("temp: {0}".format(payload))
print(client_sensor.publish("/sensors/book1/cpu", payload=payload, qos=0, retain=False))
# ...раз в 10 секунд
time.sleep(10)
finally: # Если выброшено исключение...
print("disconnecting")
client_sensor.loop_stop() # Останавливаем сетевой цикл, Иначе получим аварийный обрыв соединения
# и брокер вышлет last will всем подписавшимся клиентам
client_sensor.disconnect() # Отключаемся
sensors.cleanup() # Чистим после себя
