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Commit version 24.12.13800

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This commit is contained in:
Chris Hammer
2025-01-06 17:35:06 -05:00
parent b7f6a79c2c
commit 55d9218816
6133 changed files with 4239740 additions and 1374287 deletions
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811
includes/discovery/sensors/timetra-port-mib.inc.php
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@ -6,7 +6,7 @@
*
* @package observium
* @subpackage discovery
* @copyright (C) 2006-2013 Adam Armstrong, (C) 2013-2020 Observium Limited
* @copyright (C) Adam Armstrong
*
*/
@ -45,138 +45,145 @@ $oids = snmpwalk_cache_oid($device, 'tmnxDDMLaneTable', [], 'TIMETRA-PORT-MIB');
print_debug_vars($oids);
$multilane = [];
foreach ($oids as $index => $entry)
{
list($chassis, $ifIndex, $lane) = explode('.', $index);
foreach ($oids as $index => $entry) {
[$chassis, $ifIndex, $lane] = explode('.', $index);
if ($chassis > 1) { continue; }
if ($chassis > 1) {
continue;
}
$entry['ifIndex'] = $ifIndex;
$entry['index'] = $index;
$match = [ 'measured_match' => [ 'entity_type' => 'port', 'field' => 'ifIndex', 'match' => '%ifIndex%' ] ];
$options = entity_measured_match_definition($device, $match, $entry);
//print_debug_vars($options);
$entry['ifIndex'] = $ifIndex;
$entry['index'] = $index;
$match = ['measured_match' => ['entity_type' => 'port', 'field' => 'ifIndex', 'match' => '%ifIndex%']];
$options = entity_measured_match_definition($device, $match, $entry);
//print_debug_vars($options);
$name = $options['port_label'] . ' Lane ' . $lane;
$name = $options['port_label'] . ' Lane ' . $lane;
// Temperature
$descr = $name . ' Temperature';
$class = 'temperature';
$oid_name = 'tmnxDDMLaneTemperature';
$oid_num = '.1.3.6.1.4.1.6527.3.1.2.2.4.66.1.2.'.$index;
$value = $entry[$oid_name];
// Temperature
$descr = $name . ' Temperature';
$class = 'temperature';
$oid_name = 'tmnxDDMLaneTemperature';
$oid_num = '.1.3.6.1.4.1.6527.3.1.2.2.4.66.1.2.' . $index;
$value = $entry[$oid_name];
$ok = $value != 0;
$sensor_options = $options;
// Scale
// "The value of tmnxDDMLaneTemperature indicates the current temperature
// of the multi-lane optic in 1/256th degrees Celsius.
//
// The formula for translating between the value of tmnxDDMLaneTemperature
// and degrees Celsius is:
// tmnxDDMLaneTemperature / 256
//
// For example: The SNMP value 5734 is 22.4 degrees Celsius."
$scale = 1/256;
$sensor_options = $options;
// Scale
// "The value of tmnxDDMLaneTemperature indicates the current temperature
// of the multi-lane optic in 1/256th degrees Celsius.
//
// The formula for translating between the value of tmnxDDMLaneTemperature
// and degrees Celsius is:
// tmnxDDMLaneTemperature / 256
//
// For example: The SNMP value 5734 is 22.4 degrees Celsius."
$scale = 1 / 256;
// Limits
$sensor_options['limit_high'] = $entry['tmnxDDMLaneTempHiAlarm'] * $scale;
$sensor_options['limit_high_warn'] = $entry['tmnxDDMLaneTempHiWarn'] * $scale;
$sensor_options['limit_low'] = $entry['tmnxDDMLaneTempLowAlarm'] * $scale;
$sensor_options['limit_low_warn'] = $entry['tmnxDDMLaneTempLowWarn'] * $scale;
// Limits
$sensor_options['limit_high'] = $entry['tmnxDDMLaneTempHiAlarm'] * $scale;
$sensor_options['limit_high_warn'] = $entry['tmnxDDMLaneTempHiWarn'] * $scale;
$sensor_options['limit_low'] = $entry['tmnxDDMLaneTempLowAlarm'] * $scale;
$sensor_options['limit_low_warn'] = $entry['tmnxDDMLaneTempLowWarn'] * $scale;
if ($value != 0)
{
discover_sensor_ng($device, $class, $mib, $oid_name, $oid_num, $index, NULL, $descr, $scale, $value, $sensor_options);
}
if ($ok) {
$multilane[$chassis][$ifIndex][$class] = 1;
// Tx Bias
$descr = $name . ' Tx Bias';
$class = 'current';
$oid_name = 'tmnxDDMLaneTxBiasCurrent';
$oid_num = '.1.3.6.1.4.1.6527.3.1.2.2.4.66.1.7.'.$index;
$value = $entry[$oid_name];
discover_sensor_ng($device, $class, $mib, $oid_name, $oid_num, $index, $descr, $scale, $value, $sensor_options);
}
$sensor_options = $options;
// Scale
// "The value of tmnxDDMLaneTxBiasCurrent indicates the current Transmit
// Bias Current of the multi-lane optic in 1/500 milliamperes (mA).
//
// The formula for translating between the value of
// tmnxDDMLaneTxBiasCurrent and amperes is:
// tmnxDDMLaneTxBiasCurrent / 500
//
// For example: The SNMP value 2565 is 5.1 milliamperes (mA)."
$scale = 1 / 500000; // 500 * 1000
// Tx Bias
$descr = $name . ' Tx Bias';
$class = 'current';
$oid_name = 'tmnxDDMLaneTxBiasCurrent';
$oid_num = '.1.3.6.1.4.1.6527.3.1.2.2.4.66.1.7.' . $index;
$value = $entry[$oid_name];
$ok = $ok || ($value != 0); // Override ok, because multiline temperature can be 0
// Limits
$sensor_options['limit_high'] = $entry['tmnxDDMLaneTxBiasCurrentHiAlarm'] * $scale;
$sensor_options['limit_high_warn'] = $entry['tmnxDDMLaneTxBiasCurrentHiWarn'] * $scale;
$sensor_options['limit_low'] = $entry['tmnxDDMLaneTxBiasCurrentLowAlarm'] * $scale;
$sensor_options['limit_low_warn'] = $entry['tmnxDDMLaneTxBiasCurrentLowWarn'] * $scale;
$sensor_options = $options;
// Scale
// "The value of tmnxDDMLaneTxBiasCurrent indicates the current Transmit
// Bias Current of the multi-lane optic in 1/500 milliamperes (mA).
//
// The formula for translating between the value of
// tmnxDDMLaneTxBiasCurrent and amperes is:
// tmnxDDMLaneTxBiasCurrent / 500
//
// For example: The SNMP value 2565 is 5.1 milliamperes (mA)."
$scale = 1 / 500000; // 500 * 1000
if ($value != 0)
{
discover_sensor_ng($device, $class, $mib, $oid_name, $oid_num, $index, NULL, $descr, $scale, $value, $sensor_options);
}
// Limits
$sensor_options['limit_high'] = $entry['tmnxDDMLaneTxBiasCurrentHiAlarm'] * $scale;
$sensor_options['limit_high_warn'] = $entry['tmnxDDMLaneTxBiasCurrentHiWarn'] * $scale;
$sensor_options['limit_low'] = $entry['tmnxDDMLaneTxBiasCurrentLowAlarm'] * $scale;
$sensor_options['limit_low_warn'] = $entry['tmnxDDMLaneTxBiasCurrentLowWarn'] * $scale;
// Tx Power
$descr = $name . ' Tx Power';
$class = 'power';
$oid_name = 'tmnxDDMLaneTxOutputPower';
$oid_num = '.1.3.6.1.4.1.6527.3.1.2.2.4.66.1.12.'.$index;
$value = $entry[$oid_name];
if ($ok) {
$multilane[$chassis][$ifIndex][$class] = 1;
$sensor_options = $options;
// Scale
// "The value of tmnxDDMLaneTxOutputPower indicates the current Output
// Power of the multi-lane optic in one tenths of a microwatt (uW).
//
// For example:
// Using the SNMP value of 790, and using units of tenths of microwatt,
// 790 becomes 79 microwatts or 0.079 milliwatts. Converting to dBm:
// 10 x log10(0.079) = -11.0 dBm"
$scale = 1 / 1000000; // 10 * 1000 * 1000
// Limits
$sensor_options['limit_high'] = $entry['tmnxDDMLaneTxOutputPowerHiAlarm'] * $scale;
$sensor_options['limit_high_warn'] = $entry['tmnxDDMLaneTxOutputPowerHiWarn'] * $scale;
$sensor_options['limit_low'] = $entry['tmnxDDMLaneTxOutputPowerLowAlarm'] * $scale;
$sensor_options['limit_low_warn'] = $entry['tmnxDDMLaneTxOutputPowerLowWarn'] * $scale;
discover_sensor_ng($device, $class, $mib, $oid_name, $oid_num, $index, $descr, $scale, $value, $sensor_options);
}
// if ($value != 0)
// {
discover_sensor_ng($device, $class, $mib, $oid_name, $oid_num, $index, NULL, $descr, $scale, $value, $sensor_options);
//}
// Tx Power
$descr = $name . ' Tx Power';
$class = 'power';
$oid_name = 'tmnxDDMLaneTxOutputPower';
$oid_num = '.1.3.6.1.4.1.6527.3.1.2.2.4.66.1.12.' . $index;
$value = $entry[$oid_name];
// Rx Power
$descr = $name . ' Rx Power';
$class = 'power';
$oid_name = 'tmnxDDMLaneRxOpticalPower';
$oid_num = '.1.3.6.1.4.1.6527.3.1.2.2.4.66.1.17.'.$index;
$value = $entry[$oid_name];
$sensor_options = $options;
// Scale
// "The value of tmnxDDMLaneTxOutputPower indicates the current Output
// Power of the multi-lane optic in one tenths of a microwatt (uW).
//
// For example:
// Using the SNMP value of 790, and using units of tenths of microwatt,
// 790 becomes 79 microwatts or 0.079 milliwatts. Converting to dBm:
// 10 x log10(0.079) = -11.0 dBm"
$scale = 1 / 1000000; // 10 * 1000 * 1000
// Limits
$sensor_options['limit_high'] = $entry['tmnxDDMLaneTxOutputPowerHiAlarm'] * $scale;
$sensor_options['limit_high_warn'] = $entry['tmnxDDMLaneTxOutputPowerHiWarn'] * $scale;
$sensor_options['limit_low'] = $entry['tmnxDDMLaneTxOutputPowerLowAlarm'] * $scale;
$sensor_options['limit_low_warn'] = $entry['tmnxDDMLaneTxOutputPowerLowWarn'] * $scale;
$sensor_options = $options;
// Scale
// "The value of tmnxDDMLaneRxOpticalPower indicates the current Received
// Optical Power of the multi-lane optic in one tenths of a microwatt
// (uW).
//
// For example:
// Using the SNMP value of 790, and using units of tenths of microwatt,
// 790 becomes 79 microwatts or 0.079 milliwatts. Converting to dBm:
// 10 x log10(0.079) = -11.0 dBm"
$scale = 1 / 10000000; // 10 * 1000 * 1000
// Limits
$sensor_options['limit_high'] = $entry['tmnxDDMLaneRxOpticalPwrHiAlarm'] * $scale;
$sensor_options['limit_high_warn'] = $entry['tmnxDDMLaneRxOpticalPwrHiWarn'] * $scale;
$sensor_options['limit_low'] = $entry['tmnxDDMLaneRxOpticalPwrLowAlarm'] * $scale;
$sensor_options['limit_low_warn'] = $entry['tmnxDDMLaneRxOpticalPwrLowWarn'] * $scale;
if ($ok) {
$multilane[$chassis][$ifIndex][$class] = 1;
// if ($value != 0)
// {
discover_sensor_ng($device, $class, $mib, $oid_name, $oid_num, $index, NULL, $descr, $scale, $value, $sensor_options);
// }
discover_sensor_ng($device, $class, $mib, $oid_name, $oid_num, $index, $descr, $scale, $value, $sensor_options);
}
$multilane[$chassis][$ifIndex] = 1;
// Rx Power
$descr = $name . ' Rx Power';
$class = 'power';
$oid_name = 'tmnxDDMLaneRxOpticalPower';
$oid_num = '.1.3.6.1.4.1.6527.3.1.2.2.4.66.1.17.' . $index;
$value = $entry[$oid_name];
$sensor_options = $options;
// Scale
// "The value of tmnxDDMLaneRxOpticalPower indicates the current Received
// Optical Power of the multi-lane optic in one tenths of a microwatt
// (uW).
//
// For example:
// Using the SNMP value of 790, and using units of tenths of microwatt,
// 790 becomes 79 microwatts or 0.079 milliwatts. Converting to dBm:
// 10 x log10(0.079) = -11.0 dBm"
$scale = 1 / 10000000; // 10 * 1000 * 1000
// Limits
$sensor_options['limit_high'] = $entry['tmnxDDMLaneRxOpticalPwrHiAlarm'] * $scale;
$sensor_options['limit_high_warn'] = $entry['tmnxDDMLaneRxOpticalPwrHiWarn'] * $scale;
$sensor_options['limit_low'] = $entry['tmnxDDMLaneRxOpticalPwrLowAlarm'] * $scale;
$sensor_options['limit_low_warn'] = $entry['tmnxDDMLaneRxOpticalPwrLowWarn'] * $scale;
if ($ok) {
$multilane[$chassis][$ifIndex][$class] = 1;
discover_sensor_ng($device, $class, $mib, $oid_name, $oid_num, $index, $descr, $scale, $value, $sensor_options);
}
//$multilane[$chassis][$ifIndex] = 1;
}
/*
@ -312,297 +319,301 @@ TIMETRA-PORT-MIB::tmnxDDMExternallyCalibrated.1.69435392 = INTEGER: false(2)
// TIMETRA-PORT-MIB::tmnxPortSFPVendorPartNum.1.69435392 = STRING: "FTRJ8519P2BNL-A5"
$oids = snmpwalk_multipart_oid($device, 'tmnxDigitalDiagMonitorTable', [], 'TIMETRA-PORT-MIB');
if (snmp_status())
{
$oids = snmpwalk_multipart_oid($device, 'tmnxPortTransceiverType', $oids, 'TIMETRA-PORT-MIB');
if (snmp_status()) {
$oids = snmpwalk_multipart_oid($device, 'tmnxPortTransceiverType', $oids, 'TIMETRA-PORT-MIB');
}
print_debug_vars($oids);
foreach ($oids as $chassis => $transeiver)
{
if ($chassis > 1) { continue; }
foreach ($transeiver as $ifIndex => $entry)
{
$index = $chassis . '.' . $ifIndex;
$entry['ifIndex'] = $ifIndex;
$entry['index'] = $index;
$match = [ 'measured_match' => [ 'entity_type' => 'port', 'field' => 'ifIndex', 'match' => '%ifIndex%' ] ];
$options = entity_measured_match_definition($device, $match, $entry);
//print_debug_vars($options);
$name = $options['port_label'];
// Temperature
$descr = $name . ' Temperature';
$class = 'temperature';
$oid_name = 'tmnxDDMTemperature';
$oid_num = '.1.3.6.1.4.1.6527.3.1.2.2.4.31.1.1.'.$index;
$value = $entry[$oid_name];
$sensor_options = $options;
// Scale
// "The value of tmnxDDMTemperature indicates the current temperature of
// the SFF in 1/256th degrees Celsius.
//
// If the SFF is externally calibrated, the objects
// tmnxDDMExtCalTemperatureSlope and tmnxDDMExtCalTemperatureOffset
// affect the temperature calculation.
//
// The formula for translating between the value of tmnxDDMTemperature and
// degrees Celsius is:
// Internally Calibrated only:
// tmnxDDMTemperature / 256
// Externally Calibrated:
// (tmnxDDMTemperature * (tmnxDDMExtCalTemperatureSlope / 256)
// + tmnxDDMExtCalTemperatureOffset) / 256
//
// For example (internally calibrated SFF): The SNMP value 5734 is 22.4
// degrees Celsius."
$scale = 1/256;
if ($entry['tmnxDDMExternallyCalibrated'] == 'true')
{
$scale = ($entry['tmnxDDMExtCalTemperatureSlope'] / 256) / 256;
if ($entry['tmnxDDMExtCalTemperatureOffset'] != 0)
{
$sensor_options['sensor_addition'] = $entry['tmnxDDMExtCalTemperatureOffset'] / 256;
}
}
// Limits
$sensor_options['limit_high'] = $entry['tmnxDDMTempHiAlarm'] * $scale;
$sensor_options['limit_high_warn'] = $entry['tmnxDDMTempHiWarning'] * $scale;
$sensor_options['limit_low'] = $entry['tmnxDDMTempLowAlarm'] * $scale;
$sensor_options['limit_low_warn'] = $entry['tmnxDDMTempLowWarning'] * $scale;
if ($sensor_options['sensor_addition'])
{
$sensor_options['limit_high'] += $sensor_options['sensor_addition'];
$sensor_options['limit_high_warn'] += $sensor_options['sensor_addition'];
$sensor_options['limit_low'] += $sensor_options['sensor_addition'];
$sensor_options['limit_low_warn'] += $sensor_options['sensor_addition'];
foreach ($oids as $chassis => $transeiver) {
if ($chassis > 1) {
continue;
}
if ($value != 0 && !isset($multilane[$chassis][$ifIndex]))
{
discover_sensor_ng($device, $class, $mib, $oid_name, $oid_num, $index, NULL, $descr, $scale, $value, $sensor_options);
foreach ($transeiver as $ifIndex => $entry) {
$index = $chassis . '.' . $ifIndex;
$entry['ifIndex'] = $ifIndex;
$entry['index'] = $index;
$match = [ 'measured_match' => [ 'entity_type' => 'port', 'field' => 'ifIndex', 'match' => '%ifIndex%' ] ];
$options = entity_measured_match_definition($device, $match, $entry);
//print_debug_vars($options);
$name = $options['port_label'];
// Temperature
$descr = $name . ' Temperature';
$class = 'temperature';
$oid_name = 'tmnxDDMTemperature';
$oid_num = '.1.3.6.1.4.1.6527.3.1.2.2.4.31.1.1.' . $index;
$value = $entry[$oid_name];
$ok = $value != 0;
$sensor_options = $options;
// Scale
// "The value of tmnxDDMTemperature indicates the current temperature of
// the SFF in 1/256th degrees Celsius.
//
// If the SFF is externally calibrated, the objects
// tmnxDDMExtCalTemperatureSlope and tmnxDDMExtCalTemperatureOffset
// affect the temperature calculation.
//
// The formula for translating between the value of tmnxDDMTemperature and
// degrees Celsius is:
// Internally Calibrated only:
// tmnxDDMTemperature / 256
// Externally Calibrated:
// (tmnxDDMTemperature * (tmnxDDMExtCalTemperatureSlope / 256)
// + tmnxDDMExtCalTemperatureOffset) / 256
//
// For example (internally calibrated SFF): The SNMP value 5734 is 22.4
// degrees Celsius."
$scale = 1 / 256;
if ($entry['tmnxDDMExternallyCalibrated'] === 'true') {
$scale = ($entry['tmnxDDMExtCalTemperatureSlope'] / 256) / 256;
if ($entry['tmnxDDMExtCalTemperatureOffset'] != 0) {
$sensor_options['sensor_addition'] = $entry['tmnxDDMExtCalTemperatureOffset'] / 256;
}
}
// Limits
$sensor_options['limit_high'] = $entry['tmnxDDMTempHiAlarm'] * $scale;
$sensor_options['limit_high_warn'] = $entry['tmnxDDMTempHiWarning'] * $scale;
$sensor_options['limit_low'] = $entry['tmnxDDMTempLowAlarm'] * $scale;
$sensor_options['limit_low_warn'] = $entry['tmnxDDMTempLowWarning'] * $scale;
if ($sensor_options['sensor_addition']) {
$sensor_options['limit_high'] += $sensor_options['sensor_addition'];
$sensor_options['limit_high_warn'] += $sensor_options['sensor_addition'];
$sensor_options['limit_low'] += $sensor_options['sensor_addition'];
$sensor_options['limit_low_warn'] += $sensor_options['sensor_addition'];
}
if ($ok && !isset($multilane[$chassis][$ifIndex][$class])) {
discover_sensor_ng($device, $class, $mib, $oid_name, $oid_num, $index, $descr, $scale, $value, $sensor_options);
}
// Voltage
$descr = $name . ' Voltage';
$class = 'voltage';
$oid_name = 'tmnxDDMSupplyVoltage';
$oid_num = '.1.3.6.1.4.1.6527.3.1.2.2.4.31.1.6.' . $index;
$value = $entry[$oid_name];
$sensor_options = $options;
// Scale
// "The value of tmnxDDMSupplyVoltage indicates the current supply voltage
// of the SFF. For 100G MSA Transponder, the supply voltage is in
// millivolts (mV). For all other types the voltage is in deci-millivolts
// (1/10th of a millivolt or 100 microvolt units).
//
// If the SFF is externally calibrated, the objects
// tmnxDDMExtCalVoltageSlope and tmnxDDMExtCalVoltageOffset affect the
// voltage calculation.
//
// The formula for translating between the value of tmnxDDMSupplyVoltage
// and Voltage is:
// Internally Calibrated only:
// tmnxDDMSupplyVoltage * conversion_factor
// Externally Calibrated:
// (tmnxDDMSupplyVoltage * (tmnxDDMExtCalVoltageSlope / 256)
// + tmnxDDMExtCalVoltageOffset) * conversion_factor
// where conversion_factor is 1/1000 for 100G MSA transponders and
// 1/10000 for all the others.
//
// For example (internally calibrated SFF): 1. For 100G MSA transponders,
// the SNMP value 32851 is 32.851 Volts (V). 2. For all others, the SNMP
// value 32851 is 3.2851 Volts (V)."
$factor = $entry['tmnxPortTransceiverType'] === 'oifMsa100gLh' ? 1000 : 10000;
$scale = 1 / $factor;
if ($entry['tmnxDDMExternallyCalibrated'] === 'true') {
$scale = ($entry['tmnxDDMExtCalVoltageSlope'] / 256) / $factor;
if ($entry['tmnxDDMExtCalVoltageOffset'] != 0) {
$sensor_options['sensor_addition'] = $entry['tmnxDDMExtCalVoltageOffset'] / $factor;
}
}
// Limits
$sensor_options['limit_high'] = $entry['tmnxDDMSupplyVoltageHiAlarm'] * $scale;
$sensor_options['limit_high_warn'] = $entry['tmnxDDMSupplyVoltageHiWarning'] * $scale;
$sensor_options['limit_low'] = $entry['tmnxDDMSupplyVoltageLowAlarm'] * $scale;
$sensor_options['limit_low_warn'] = $entry['tmnxDDMSupplyVoltageLowWarning'] * $scale;
if ($sensor_options['sensor_addition']) {
$sensor_options['limit_high'] += $sensor_options['sensor_addition'];
$sensor_options['limit_high_warn'] += $sensor_options['sensor_addition'];
$sensor_options['limit_low'] += $sensor_options['sensor_addition'];
$sensor_options['limit_low_warn'] += $sensor_options['sensor_addition'];
}
if ($ok && !isset($multilane[$chassis][$ifIndex][$class])) {
discover_sensor_ng($device, $class, $mib, $oid_name, $oid_num, $index, $descr, $scale, $value, $sensor_options);
}
if (isset($multilane[$chassis][$ifIndex])) {
// Skip bias, tx/rx power for already multilane sensors
continue;
}
// Tx Bias
$descr = $name . ' Tx Bias';
$class = 'current';
$oid_name = 'tmnxDDMTxBiasCurrent';
$oid_num = '.1.3.6.1.4.1.6527.3.1.2.2.4.31.1.11.' . $index;
$value = $entry[$oid_name];
$sensor_options = $options;
// Scale
// "The value of tmnxDDMTxBiasCurrent indicates the current Transmit Bias
// Current of the SFF in 1/500 milliamperes (mA).
//
// If the SFF is externally calibrated, the objects
// tmnxDDMExtCalTxLaserBiasSlope and tmnxDDMExtCalTxLaserBiasOffset
// affect the ampere calculation.
//
// The formula for translating between the value of tmnxDDMTxBiasCurrent
// and milliamperes is:
// Internally Calibrated only:
// tmnxDDMTxBiasCurrent / 500
// Externally Calibrated:
// (tmnxDDMTxBiasCurrent * (tmnxDDMExtCalTxLaserBiasSlope / 256)
// + tmnxDDMExtCalTxLaserBiasOffset) / 500
//
// For example (internally calibrated SFF): The SNMP value 2565 is 5.1
// milliamperes (mA)."
$factor = 500000; // 500 * 1000
$scale = 1 / $factor;
if ($entry['tmnxDDMExternallyCalibrated'] === 'true') {
$scale = ($entry['tmnxDDMExtCalTxLaserBiasSlope'] / 256) / $factor;
if ($entry['tmnxDDMExtCalTxLaserBiasOffset'] != 0) {
$sensor_options['sensor_addition'] = $entry['tmnxDDMExtCalTxLaserBiasOffset'] / $factor;
}
}
// Limits
$sensor_options['limit_high'] = $entry['tmnxDDMTxBiasCurrentHiAlarm'] * $scale;
$sensor_options['limit_high_warn'] = $entry['tmnxDDMTxBiasCurrentHiWarning'] * $scale;
$sensor_options['limit_low'] = $entry['tmnxDDMTxBiasCurrentLowAlarm'] * $scale;
$sensor_options['limit_low_warn'] = $entry['tmnxDDMTxBiasCurrentLowWarning'] * $scale;
if ($sensor_options['sensor_addition']) {
$sensor_options['limit_high'] += $sensor_options['sensor_addition'];
$sensor_options['limit_high_warn'] += $sensor_options['sensor_addition'];
$sensor_options['limit_low'] += $sensor_options['sensor_addition'];
$sensor_options['limit_low_warn'] += $sensor_options['sensor_addition'];
}
if ($ok) {
discover_sensor_ng($device, $class, $mib, $oid_name, $oid_num, $index, $descr, $scale, $value, $sensor_options);
}
// Tx Power
$descr = $name . ' Tx Power';
$class = 'power';
$oid_name = 'tmnxDDMTxOutputPower';
$oid_num = '.1.3.6.1.4.1.6527.3.1.2.2.4.31.1.16.' . $index;
$value = $entry[$oid_name];
$sensor_options = $options;
// Scale
// "The value of tmnxDDMTxOutputPower indicates the current Output Power
// of the SFF in one tenths of a microwatt (uW).
//
// If the SFF is externally calibrated, the objects
// tmnxDDMExtCalTxPowerSlope and tmnxDDMExtCalTxPowerOffset affect the
// output power calculation.
//
// For example (internally calibrated SFF):
// Using the SNMP value of 790, and using units of tenths of microwatt,
// 790 becomes 79 microwatts or 0.079 milliwatts. Converting to dBm:
// 10 x log10(0.079) = -11.0 dBm"
$factor = 10000000; // 10 * 1000 * 1000
$scale = 1 / $factor;
if ($entry['tmnxDDMExternallyCalibrated'] === 'true') {
// tmnxDDMTxOutputPower.1.1292402691 = 2792
// tmnxDDMTxOutputPowerLowWarning.1.1292402691 = 1259
// tmnxDDMTxOutputPowerLowAlarm.1.1292402691 = 1000
// tmnxDDMTxOutputPowerHiWarning.1.1292402691 = 5012
// tmnxDDMTxOutputPowerHiAlarm.1.1292402691 = 6310
// tmnxDDMExternallyCalibrated.1.1292402691 = true
// tmnxDDMExtCalTxPowerSlope.1.1292402691 = 256
// tmnxDDMExtCalTxPowerOffset.1.1292402691 = 0
$scale = ($entry['tmnxDDMExtCalTxPowerSlope'] / 256) / $factor;
if ($entry['tmnxDDMExtCalTxPowerOffset'] != 0) {
$sensor_options['sensor_addition'] = $entry['tmnxDDMExtCalTxPowerOffset'] / $factor;
}
}
// Limits
$sensor_options['limit_high'] = $entry['tmnxDDMTxOutputPowerHiAlarm'] * $scale;
$sensor_options['limit_high_warn'] = $entry['tmnxDDMTxOutputPowerHiWarning'] * $scale;
$sensor_options['limit_low'] = $entry['tmnxDDMTxOutputPowerLowAlarm'] * $scale;
$sensor_options['limit_low_warn'] = $entry['tmnxDDMTxOutputPowerLowWarning'] * $scale;
if ($sensor_options['sensor_addition']) {
$sensor_options['limit_high'] += $sensor_options['sensor_addition'];
$sensor_options['limit_high_warn'] += $sensor_options['sensor_addition'];
$sensor_options['limit_low'] += $sensor_options['sensor_addition'];
$sensor_options['limit_low_warn'] += $sensor_options['sensor_addition'];
}
if ($ok) {
discover_sensor_ng($device, $class, $mib, $oid_name, $oid_num, $index, $descr, $scale, $value, $sensor_options);
}
// Rx Power
$descr = $name . ' Rx Power';
$class = 'power';
$oid_name = 'tmnxDDMRxOpticalPower';
$oid_num = '.1.3.6.1.4.1.6527.3.1.2.2.4.31.1.21.' . $index;
$value = $entry[$oid_name];
$sensor_options = $options;
// Scale
// "The value of tmnxDDMRxOpticalPower indicates the current Received
// Optical Power of the SFF in one tenths of a microwatt (uW).
//
// If the SFF is externally calibrated, the objects
// tmnxDDMExtCalRxPower4, tmnxDDMExtCalRxPower3, tmnxDDMExtCalRxPower2,
// tmnxDDMExtCalRxPower1 and tmnxDDMExtCalRxPower0 affect the output
// power calculation.
// Table 3.16 in the SFF Committee Standard's document SFF-8472 Rev 10.2.
//
// For example (internally calibrated SFF):
// Using the SNMP value of 790, and using units of tenths of microwatt,
// 790 becomes 79 microwatts or 0.079 milliwatts. Converting to dBm:
// 10 x log10(0.079) = -11.0 dBm"
$factor = 10000000; // 10 * 1000 * 1000
$scale = 1 / $factor;
if ($entry['tmnxDDMExternallyCalibrated'] === 'true') {
// tmnxDDMRxOpticalPower.1.1292402691 = 1936
// tmnxDDMRxOpticalPowerLowWarning.1.1292402691 = 453
// tmnxDDMRxOpticalPowerLowAlarm.1.1292402691 = 357
// tmnxDDMRxOpticalPowerHiWarning.1.1292402691 = 23145
// tmnxDDMRxOpticalPowerHiAlarm.1.1292402691 = 29158
// tmnxDDMRxOpticalPowerType.1.1292402691 = average
// tmnxDDMExternallyCalibrated.1.1292402691 = true
// tmnxDDMExtCalRxPower4.1.1292402691 = 0
// tmnxDDMExtCalRxPower3.1.1292402691 = 0
// tmnxDDMExtCalRxPower2.1.1292402691 = 2998520959
// tmnxDDMExtCalRxPower1.1.1292402691 = 1046360211
// tmnxDDMExtCalRxPower0.1.1292402691 = 1070575314
$sensor_options['sensor_convert'] = 'tmnx_rx_power'; // added extra oids polling and conversion in sensor_value_scale()
// Dear fucking god.. how this calculated.. how we can poll this????
// tmnxDDMExtCalRxPower0 +
// (tmnxDDMExtCalRxPower1 * tmnxDDMRxOpticalPower^1) +
// (tmnxDDMExtCalRxPower2 * tmnxDDMRxOpticalPower^2) +
// (tmnxDDMExtCalRxPower3 * tmnxDDMRxOpticalPower^3) +
// (tmnxDDMExtCalRxPower4 * tmnxDDMRxOpticalPower^4)
foreach ([ 'tmnxDDMRxOpticalPower', 'tmnxDDMRxOpticalPowerHiAlarm', 'tmnxDDMRxOpticalPowerHiWarning',
'tmnxDDMRxOpticalPowerLowAlarm', 'tmnxDDMRxOpticalPowerLowWarning' ] as $oid) {
$entry[$oid] = value_unit_tmnx_rx_power($entry[$oid], $entry['tmnxDDMExtCalRxPower0'], $entry['tmnxDDMExtCalRxPower1'],
$entry['tmnxDDMExtCalRxPower2'], $entry['tmnxDDMExtCalRxPower3'], $entry['tmnxDDMExtCalRxPower4']);
}
$value = $entry[$oid_name];
}
// Limits
$sensor_options['limit_high'] = $entry['tmnxDDMRxOpticalPowerHiAlarm'] * $scale;
$sensor_options['limit_high_warn'] = $entry['tmnxDDMRxOpticalPowerHiWarning'] * $scale;
$sensor_options['limit_low'] = $entry['tmnxDDMRxOpticalPowerLowAlarm'] * $scale;
$sensor_options['limit_low_warn'] = $entry['tmnxDDMRxOpticalPowerLowWarning'] * $scale;
if ($ok) {
discover_sensor_ng($device, $class, $mib, $oid_name, $oid_num, $index, $descr, $scale, $value, $sensor_options);
}
}
// Voltage
$descr = $name . ' Voltage';
$class = 'voltage';
$oid_name = 'tmnxDDMSupplyVoltage';
$oid_num = '.1.3.6.1.4.1.6527.3.1.2.2.4.31.1.6.'.$index;
$value = $entry[$oid_name];
$sensor_options = $options;
// Scale
// "The value of tmnxDDMSupplyVoltage indicates the current supply voltage
// of the SFF. For 100G MSA Transponder, the supply voltage is in
// millivolts (mV). For all other types the voltage is in deci-millivolts
// (1/10th of a millivolt or 100 microvolt units).
//
// If the SFF is externally calibrated, the objects
// tmnxDDMExtCalVoltageSlope and tmnxDDMExtCalVoltageOffset affect the
// voltage calculation.
//
// The formula for translating between the value of tmnxDDMSupplyVoltage
// and Voltage is:
// Internally Calibrated only:
// tmnxDDMSupplyVoltage * conversion_factor
// Externally Calibrated:
// (tmnxDDMSupplyVoltage * (tmnxDDMExtCalVoltageSlope / 256)
// + tmnxDDMExtCalVoltageOffset) * conversion_factor
// where conversion_factor is 1/1000 for 100G MSA transponders and
// 1/10000 for all the others.
//
// For example (internally calibrated SFF): 1. For 100G MSA transponders,
// the SNMP value 32851 is 32.851 Volts (V). 2. For all others, the SNMP
// value 32851 is 3.2851 Volts (V)."
$factor = $entry['tmnxPortTransceiverType'] == 'oifMsa100gLh' ? 1000 : 10000;
$scale = 1 / $factor;
if ($entry['tmnxDDMExternallyCalibrated'] == 'true')
{
$scale = ($entry['tmnxDDMExtCalVoltageSlope'] / 256) / $factor;
if ($entry['tmnxDDMExtCalVoltageOffset'] != 0)
{
$sensor_options['sensor_addition'] = $entry['tmnxDDMExtCalVoltageOffset'] / $factor;
}
}
// Limits
$sensor_options['limit_high'] = $entry['tmnxDDMSupplyVoltageHiAlarm'] * $scale;
$sensor_options['limit_high_warn'] = $entry['tmnxDDMSupplyVoltageHiWarning'] * $scale;
$sensor_options['limit_low'] = $entry['tmnxDDMSupplyVoltageLowAlarm'] * $scale;
$sensor_options['limit_low_warn'] = $entry['tmnxDDMSupplyVoltageLowWarning'] * $scale;
if ($sensor_options['sensor_addition'])
{
$sensor_options['limit_high'] += $sensor_options['sensor_addition'];
$sensor_options['limit_high_warn'] += $sensor_options['sensor_addition'];
$sensor_options['limit_low'] += $sensor_options['sensor_addition'];
$sensor_options['limit_low_warn'] += $sensor_options['sensor_addition'];
}
if ($value != 0)
{
discover_sensor_ng($device, $class, $mib, $oid_name, $oid_num, $index, NULL, $descr, $scale, $value, $sensor_options);
}
if (isset($multilane[$chassis][$ifIndex]))
{
// Skip bias, tx/rx power for already multilane sensors
continue;
}
// Tx Bias
$descr = $name . ' Tx Bias';
$class = 'current';
$oid_name = 'tmnxDDMTxBiasCurrent';
$oid_num = '.1.3.6.1.4.1.6527.3.1.2.2.4.31.1.11.'.$index;
$value = $entry[$oid_name];
$sensor_options = $options;
// Scale
// "The value of tmnxDDMTxBiasCurrent indicates the current Transmit Bias
// Current of the SFF in 1/500 milliamperes (mA).
//
// If the SFF is externally calibrated, the objects
// tmnxDDMExtCalTxLaserBiasSlope and tmnxDDMExtCalTxLaserBiasOffset
// affect the ampere calculation.
//
// The formula for translating between the value of tmnxDDMTxBiasCurrent
// and milliamperes is:
// Internally Calibrated only:
// tmnxDDMTxBiasCurrent / 500
// Externally Calibrated:
// (tmnxDDMTxBiasCurrent * (tmnxDDMExtCalTxLaserBiasSlope / 256)
// + tmnxDDMExtCalTxLaserBiasOffset) / 500
//
// For example (internally calibrated SFF): The SNMP value 2565 is 5.1
// milliamperes (mA)."
$factor = 500000; // 500 * 1000
$scale = 1 / $factor;
if ($entry['tmnxDDMExternallyCalibrated'] == 'true')
{
$scale = ($entry['tmnxDDMExtCalTxLaserBiasSlope'] / 256) / $factor;
if ($entry['tmnxDDMExtCalTxLaserBiasOffset'] != 0)
{
$sensor_options['sensor_addition'] = $entry['tmnxDDMExtCalTxLaserBiasOffset'] / $factor;
}
}
// Limits
$sensor_options['limit_high'] = $entry['tmnxDDMTxBiasCurrentHiAlarm'] * $scale;
$sensor_options['limit_high_warn'] = $entry['tmnxDDMTxBiasCurrentHiWarning'] * $scale;
$sensor_options['limit_low'] = $entry['tmnxDDMTxBiasCurrentLowAlarm'] * $scale;
$sensor_options['limit_low_warn'] = $entry['tmnxDDMTxBiasCurrentLowWarning'] * $scale;
if ($sensor_options['sensor_addition'])
{
$sensor_options['limit_high'] += $sensor_options['sensor_addition'];
$sensor_options['limit_high_warn'] += $sensor_options['sensor_addition'];
$sensor_options['limit_low'] += $sensor_options['sensor_addition'];
$sensor_options['limit_low_warn'] += $sensor_options['sensor_addition'];
}
if ($value != 0)
{
discover_sensor_ng($device, $class, $mib, $oid_name, $oid_num, $index, NULL, $descr, $scale, $value, $sensor_options);
}
// Tx Power
$descr = $name . ' Tx Power';
$class = 'power';
$oid_name = 'tmnxDDMTxOutputPower';
$oid_num = '.1.3.6.1.4.1.6527.3.1.2.2.4.31.1.16.'.$index;
$value = $entry[$oid_name];
$sensor_options = $options;
// Scale
// "The value of tmnxDDMTxOutputPower indicates the current Output Power
// of the SFF in one tenths of a microwatt (uW).
//
// If the SFF is externally calibrated, the objects
// tmnxDDMExtCalTxPowerSlope and tmnxDDMExtCalTxPowerOffset affect the
// output power calculation.
//
// For example (internally calibrated SFF):
// Using the SNMP value of 790, and using units of tenths of microwatt,
// 790 becomes 79 microwatts or 0.079 milliwatts. Converting to dBm:
// 10 x log10(0.079) = -11.0 dBm"
$factor = 10000000; // 10 * 1000 * 1000
$scale = 1 / $factor;
if ($entry['tmnxDDMExternallyCalibrated'] == 'true')
{
$scale = ($entry['tmnxDDMExtCalTxPowerSlope'] / 256) / $factor;
if ($entry['tmnxDDMExtCalTxPowerOffset'] != 0)
{
$sensor_options['sensor_addition'] = $entry['tmnxDDMExtCalTxPowerOffset'] / $factor;
}
}
// Limits
$sensor_options['limit_high'] = $entry['tmnxDDMTxOutputPowerHiAlarm'] * $scale;
$sensor_options['limit_high_warn'] = $entry['tmnxDDMTxOutputPowerHiWarning'] * $scale;
$sensor_options['limit_low'] = $entry['tmnxDDMTxOutputPowerLowAlarm'] * $scale;
$sensor_options['limit_low_warn'] = $entry['tmnxDDMTxOutputPowerLowWarning'] * $scale;
if ($sensor_options['sensor_addition'])
{
$sensor_options['limit_high'] += $sensor_options['sensor_addition'];
$sensor_options['limit_high_warn'] += $sensor_options['sensor_addition'];
$sensor_options['limit_low'] += $sensor_options['sensor_addition'];
$sensor_options['limit_low_warn'] += $sensor_options['sensor_addition'];
}
// if ($value != 0)
// {
discover_sensor_ng($device, $class, $mib, $oid_name, $oid_num, $index, NULL, $descr, $scale, $value, $sensor_options);
//}
// Rx Power
$descr = $name . ' Rx Power';
$class = 'power';
$oid_name = 'tmnxDDMRxOpticalPower';
$oid_num = '.1.3.6.1.4.1.6527.3.1.2.2.4.31.1.21.'.$index;
$value = $entry[$oid_name];
$sensor_options = $options;
// Scale
// "The value of tmnxDDMRxOpticalPower indicates the current Received
// Optical Power of the SFF in one tenths of a microwatt (uW).
//
// If the SFF is externally calibrated, the objects
// tmnxDDMExtCalRxPower4, tmnxDDMExtCalRxPower3, tmnxDDMExtCalRxPower2,
// tmnxDDMExtCalRxPower1 and tmnxDDMExtCalRxPower0 affect the output
// power calculation.
// Table 3.16 in the SFF Committee Standard's document SFF-8472 Rev 10.2.
//
// For example (internally calibrated SFF):
// Using the SNMP value of 790, and using units of tenths of microwatt,
// 790 becomes 79 microwatts or 0.079 milliwatts. Converting to dBm:
// 10 x log10(0.079) = -11.0 dBm"
$factor = 10000000; // 10 * 1000 * 1000
$scale = 1 / $factor;
if ($entry['tmnxDDMExternallyCalibrated'] == 'true')
{
//FIXME. Dear fucking god.. how this calculated.. how we can poll this????
// tmnxDDMExtCalRxPower0 +
// (tmnxDDMExtCalRxPower1 * tmnxDDMRxOpticalPower) +
// (tmnxDDMExtCalRxPower2 * tmnxDDMRxOpticalPower^2) +
// (tmnxDDMExtCalRxPower3 * tmnxDDMRxOpticalPower^3) +
// (tmnxDDMExtCalRxPower4 * tmnxDDMRxOpticalPower^4)
// $scale = ($entry['tmnxDDMExtCalTxPowerSlope'] / 256) / $factor;
// if ($entry['tmnxDDMExtCalTxPowerOffset'] != 0)
// {
// $sensor_options['sensor_addition'] = $entry['tmnxDDMExtCalTxPowerOffset'] / $factor;
// }
}
// Limits
$sensor_options['limit_high'] = $entry['tmnxDDMRxOpticalPowerHiAlarm'] * $scale;
$sensor_options['limit_high_warn'] = $entry['tmnxDDMRxOpticalPowerHiWarning'] * $scale;
$sensor_options['limit_low'] = $entry['tmnxDDMRxOpticalPowerLowAlarm'] * $scale;
$sensor_options['limit_low_warn'] = $entry['tmnxDDMRxOpticalPowerLowWarning'] * $scale;
// if ($value != 0)
// {
discover_sensor_ng($device, $class, $mib, $oid_name, $oid_num, $index, NULL, $descr, $scale, $value, $sensor_options);
// }
}
}
// EOF