def test_getpdu_xcvr_temperature_sensor(self):
"""
Test case for correct transceiver temperature sensor MIB values
"""
expected_values = [
rfc3433.EntitySensorDataType.CELSIUS,
rfc3433.EntitySensorDataScale.UNITS,
6, # precision
25390000, # expected sensor value
rfc3433.EntitySensorStatus.OK
]
self._test_getpdu_xcvr_sensor(
get_transceiver_sensor_sub_id(self.IFINDEX, SENSOR_TYPE_TEMP)[0],
expected_values)
def test_getpdu_xcvr_voltage_sensor(self):
"""
Test case for correct transceiver voltage sensor MIB values
"""
expected_values = [
rfc3433.EntitySensorDataType.VOLTS_DC,
rfc3433.EntitySensorDataScale.UNITS,
4, # precision
33700, # expected sensor value
rfc3433.EntitySensorStatus.OK
]
self._test_getpdu_xcvr_sensor(
get_transceiver_sensor_sub_id(self.IFINDEX, 'voltage')[0],
expected_values)
def test_getpdu_xcvr_temperature_sensor_asic1(self):
"""
Test case for correct transceiver temperature sensor MIB values
"""
print(rfc3433.PhysicalSensorTableMIB.updater.sub_ids)
expected_values = [
rfc3433.EntitySensorDataType.CELSIUS,
rfc3433.EntitySensorDataScale.UNITS,
6, # precision
30390000, # expected sensor value
rfc3433.EntitySensorStatus.OK
]
self._test_getpdu_xcvr_sensor(
get_transceiver_sensor_sub_id(self.IFINDEX_ASIC1,
'temperature')[0], expected_values)
def test_getpdu_xcvr_tx_bias_sensor_overflow(self):
"""
Test case for correct transceiver tx bias sensor MIB values
when tx bias is grater than 1E9
"""
expected_values = [
rfc3433.EntitySensorDataType.AMPERES,
rfc3433.EntitySensorDataScale.MILLI,
3, # precision
1E9, # expected sensor value
rfc3433.EntitySensorStatus.OK
]
self._test_getpdu_xcvr_sensor(
get_transceiver_sensor_sub_id(self.IFINDEX, 'tx3bias')[0],
expected_values)
def test_getpdu_xcvr_tx_bias_sensor_unknown(self):
"""
Test case for correct transceiver tx bias sensor MIB values, when
tx bias sensor is set to "UNKNOWN" in state DB
"""
expected_values = [
rfc3433.EntitySensorDataType.AMPERES,
rfc3433.EntitySensorDataScale.MILLI,
3, # precision
0, # expected sensor value
rfc3433.EntitySensorStatus.UNAVAILABLE
]
self._test_getpdu_xcvr_sensor(
get_transceiver_sensor_sub_id(self.IFINDEX, 'tx1bias')[0],
expected_values)
def test_getpdu_xcvr_rx_power_sensor_minus_infinity(self):
"""
Test case for correct transceiver rx power sensor MIB values
in case when rx power == -inf
"""
expected_values = [
rfc3433.EntitySensorDataType.WATTS,
rfc3433.EntitySensorDataScale.MILLI,
4, # precision
0, # expected sensor value
rfc3433.EntitySensorStatus.OK
]
self._test_getpdu_xcvr_sensor(
get_transceiver_sensor_sub_id(self.IFINDEX, 'rx1power')[0],
expected_values)
def test_getpdu_xcvr_voltage_sensor_asic1(self):
"""
Test case for correctness of transceiver voltage sensor MIB values
"""
expected_values = [
rfc3433.EntitySensorDataType.VOLTS_DC,
rfc3433.EntitySensorDataScale.UNITS,
4, # precision
23700, # expected sensor value
rfc3433.EntitySensorStatus.OK
]
self._test_getpdu_sensor(
get_transceiver_sensor_sub_id(self.IFINDEX_ASIC1,
SENSOR_TYPE_VOLTAGE)[0],
expected_values)
def test_getpdu_xcvr_tx_bias_sensor(self):
"""
Test case for correct transceiver tx bias sensor MIB values
"""
expected_values = [
rfc3433.EntitySensorDataType.AMPERES,
rfc3433.EntitySensorDataScale.MILLI,
3, # precision
4440, # expected sensor value
rfc3433.EntitySensorStatus.OK
]
# test for each channel
for channel in (2, 4):
sensor = 'tx{}bias'.format(channel)
self._test_getpdu_xcvr_sensor(
get_transceiver_sensor_sub_id(self.IFINDEX, sensor)[0],
expected_values)
def test_getpdu_xcvr_tx_power_sensor(self):
"""
Test case for correct transceiver rx power sensor MIB values
"""
expected_values = [
rfc3433.EntitySensorDataType.WATTS,
rfc3433.EntitySensorDataScale.MILLI,
4, # precision
2884, # expected sensor value
rfc3433.EntitySensorStatus.OK
]
# test for each channel except first, we already test above
for channel in (1, 2, 3, 4):
sensor = 'tx{}power'.format(channel)
self._test_getpdu_xcvr_sensor(
get_transceiver_sensor_sub_id(self.IFINDEX, sensor)[0],
expected_values)
def test_getpdu_xcvr_rx_power_sensor(self):
"""
Test case for correct transceiver rx power sensor MIB values
"""
expected_values = [
rfc3433.EntitySensorDataType.WATTS,
rfc3433.EntitySensorDataScale.MILLI,
4, # precision
7998, # expected sensor value
rfc3433.EntitySensorStatus.OK
]
# test for each channel except first, we already test above
for channel in (2, 3, 4):
self._test_getpdu_xcvr_sensor(
get_transceiver_sensor_sub_id(
self.IFINDEX, SENSOR_TYPE_PORT_RX_POWER + channel)[0],
expected_values)
def test_getpdu_xcvr_tx_bias_sensor(self):
"""
Test case for correctness of transceiver tx bias sensor MIB values
"""
expected_values = [
rfc3433.EntitySensorDataType.AMPERES,
rfc3433.EntitySensorDataScale.MILLI,
3, # precision
4440, # expected sensor value
rfc3433.EntitySensorStatus.OK
]
# test for each channel
for channel in (2, 4):
self._test_getpdu_sensor(
get_transceiver_sensor_sub_id(
self.IFINDEX, SENSOR_TYPE_PORT_TX_BIAS + channel)[0],
expected_values)
def test_getpdu_xcvr_dom(self):
expected_mib = {
get_transceiver_sensor_sub_id(1, 'temperature')[0]:
"DOM Temperature Sensor for etp1",
get_transceiver_sensor_sub_id(1, 'voltage')[0]:
"DOM Voltage Sensor for etp1",
get_transceiver_sensor_sub_id(1, 'rx1power')[0]:
"DOM RX Power Sensor for etp1/1",
get_transceiver_sensor_sub_id(1, 'rx2power')[0]:
"DOM RX Power Sensor for etp1/2",
get_transceiver_sensor_sub_id(1, 'rx3power')[0]:
"DOM RX Power Sensor for etp1/3",
get_transceiver_sensor_sub_id(1, 'rx4power')[0]:
"DOM RX Power Sensor for etp1/4",
get_transceiver_sensor_sub_id(1, 'tx1bias')[0]:
"DOM TX Bias Sensor for etp1/1",
get_transceiver_sensor_sub_id(1, 'tx2bias')[0]:
"DOM TX Bias Sensor for etp1/2",
get_transceiver_sensor_sub_id(1, 'tx3bias')[0]:
"DOM TX Bias Sensor for etp1/3",
get_transceiver_sensor_sub_id(1, 'tx4bias')[0]:
"DOM TX Bias Sensor for etp1/4",
get_transceiver_sensor_sub_id(1, 'tx1power')[0]:
"DOM TX Power Sensor for etp1/1",
get_transceiver_sensor_sub_id(1, 'tx2power')[0]:
"DOM TX Power Sensor for etp1/2",
get_transceiver_sensor_sub_id(1, 'tx3power')[0]:
"DOM TX Power Sensor for etp1/3",
get_transceiver_sensor_sub_id(1, 'tx4power')[0]:
"DOM TX Power Sensor for etp1/4",
}
phyDescr, phyClass = 2, 5
# check physical class value
oids = [
ObjectIdentifier(
12, 0, 1, 0,
(1, 3, 6, 1, 2, 1, 47, 1, 1, 1, 1, field_id, sub_id))
for field_id in (phyDescr, phyClass) for sub_id in expected_mib
]
get_pdu = GetNextPDU(header=PDUHeader(1, PduTypes.GET, 16, 0, 42, 0, 0,
0),
oids=oids)
encoded = get_pdu.encode()
response = get_pdu.make_response(self.lut)
for mib_key, value in zip(expected_mib, response.values):
if phyClass == value.name.subids[-2]:
sub_id = (phyClass, mib_key)
expected_type, expected_value = ValueType.INTEGER, PhysicalClass.SENSOR
elif phyDescr == value.name.subids[-2]:
sub_id = (phyDescr, mib_key)
expected_type, expected_value = ValueType.OCTET_STRING, expected_mib[
mib_key]
else:
# received unexpected
self.assertTrue(False)
expected_oid = ObjectIdentifier(
12, 0, 1, 0, (1, 3, 6, 1, 2, 1, 47, 1, 1, 1, 1, *sub_id))
self.assertEqual(str(value.name), str(expected_oid))
self.assertEqual(value.type_, expected_type)
self.assertEqual(str(value.data), str(expected_value))
