Observium_CE/includes/discovery/sensors/radlan-phy-mib.inc.php

392 lines
21 KiB
PHP

<?php
/**
* Observium
*
* This file is part of Observium.
*
* @package observium
* @subpackage discovery
* @copyright (C) Adam Armstrong
*
*/
/*
RADLAN-PHY-MIB::rlPhyTestGetResult.49.rlPhyTestTableTransceiverTemp = INTEGER: 22
RADLAN-PHY-MIB::rlPhyTestGetResult.49.rlPhyTestTableTransceiverSupply = INTEGER: 3290100
RADLAN-PHY-MIB::rlPhyTestGetResult.49.rlPhyTestTableTxBias = INTEGER: 9900
RADLAN-PHY-MIB::rlPhyTestGetResult.49.rlPhyTestTableTxOutput = INTEGER: -5515
RADLAN-PHY-MIB::rlPhyTestGetResult.49.rlPhyTestTableRxOpticalPower = INTEGER: -8986
RADLAN-PHY-MIB::rlPhyTestGetResult.49.rlPhyTestTableDataReady = INTEGER: 1
RADLAN-PHY-MIB::rlPhyTestGetResult.49.rlPhyTestTableLOS = INTEGER: 0
RADLAN-PHY-MIB::rlPhyTestGetResult.49.rlPhyTestTableTxFault = INTEGER: 0
RADLAN-PHY-MIB::rlPhyTestGetResult.49.rlPhyTestTableSFPEepromQualified = INTEGER: 2
RADLAN-PHY-MIB::rlPhyTestGetResult.49.rlPhyTestTableRxOpticalPower1 = INTEGER: -8986
RADLAN-PHY-MIB::rlPhyTestGetResult.49.rlPhyTestTableRxOpticalPower2 = INTEGER: -8986
RADLAN-PHY-MIB::rlPhyTestGetResult.49.rlPhyTestTableRxOpticalPower3 = INTEGER: -8986
RADLAN-PHY-MIB::rlPhyTestGetResult.49.rlPhyTestTableTxBias1 = INTEGER: 9888
RADLAN-PHY-MIB::rlPhyTestGetResult.49.rlPhyTestTableTxBias2 = INTEGER: 9892
RADLAN-PHY-MIB::rlPhyTestGetResult.49.rlPhyTestTableTxBias3 = INTEGER: 9892
RADLAN-PHY-MIB::rlPhyTestGetResult.49.rlPhyTestTableLOS1 = INTEGER: 0
RADLAN-PHY-MIB::rlPhyTestGetResult.49.rlPhyTestTableLOS2 = INTEGER: 0
RADLAN-PHY-MIB::rlPhyTestGetResult.49.rlPhyTestTableLOS3 = INTEGER: 0
RADLAN-PHY-MIB::rlPhyTestGetUnits.49.rlPhyTestTableTransceiverTemp = INTEGER: degree(7)
RADLAN-PHY-MIB::rlPhyTestGetUnits.49.rlPhyTestTableTransceiverSupply = INTEGER: microVolt(8)
RADLAN-PHY-MIB::rlPhyTestGetUnits.49.rlPhyTestTableTxBias = INTEGER: microAmper(10)
RADLAN-PHY-MIB::rlPhyTestGetUnits.49.rlPhyTestTableTxOutput = INTEGER: milidbm(17)
RADLAN-PHY-MIB::rlPhyTestGetUnits.49.rlPhyTestTableRxOpticalPower = INTEGER: milidbm(17)
RADLAN-PHY-MIB::rlPhyTestGetUnits.49.rlPhyTestTableDataReady = INTEGER: boolean(2)
RADLAN-PHY-MIB::rlPhyTestGetUnits.49.rlPhyTestTableLOS = INTEGER: boolean(2)
RADLAN-PHY-MIB::rlPhyTestGetUnits.49.rlPhyTestTableTxFault = INTEGER: boolean(2)
RADLAN-PHY-MIB::rlPhyTestGetUnits.49.rlPhyTestTableSFPEepromQualified = INTEGER: boolean(2)
RADLAN-PHY-MIB::rlPhyTestGetUnits.49.rlPhyTestTableRxOpticalPower1 = INTEGER: milidbm(17)
RADLAN-PHY-MIB::rlPhyTestGetUnits.49.rlPhyTestTableRxOpticalPower2 = INTEGER: milidbm(17)
RADLAN-PHY-MIB::rlPhyTestGetUnits.49.rlPhyTestTableRxOpticalPower3 = INTEGER: milidbm(17)
RADLAN-PHY-MIB::rlPhyTestGetUnits.49.rlPhyTestTableTxBias1 = INTEGER: microAmper(10)
RADLAN-PHY-MIB::rlPhyTestGetUnits.49.rlPhyTestTableTxBias2 = INTEGER: microAmper(10)
RADLAN-PHY-MIB::rlPhyTestGetUnits.49.rlPhyTestTableTxBias3 = INTEGER: microAmper(10)
RADLAN-PHY-MIB::rlPhyTestGetUnits.49.rlPhyTestTableLOS1 = INTEGER: boolean(2)
RADLAN-PHY-MIB::rlPhyTestGetUnits.49.rlPhyTestTableLOS2 = INTEGER: boolean(2)
RADLAN-PHY-MIB::rlPhyTestGetUnits.49.rlPhyTestTableLOS3 = INTEGER: boolean(2)
RADLAN-PHY-MIB::rlPhyTestGetStatus.49.rlPhyTestTableTransceiverTemp = INTEGER: success(2)
RADLAN-PHY-MIB::rlPhyTestGetStatus.49.rlPhyTestTableTransceiverSupply = INTEGER: success(2)
RADLAN-PHY-MIB::rlPhyTestGetStatus.49.rlPhyTestTableTxBias = INTEGER: success(2)
RADLAN-PHY-MIB::rlPhyTestGetStatus.49.rlPhyTestTableTxOutput = INTEGER: success(2)
RADLAN-PHY-MIB::rlPhyTestGetStatus.49.rlPhyTestTableRxOpticalPower = INTEGER: success(2)
RADLAN-PHY-MIB::rlPhyTestGetStatus.49.rlPhyTestTableDataReady = INTEGER: success(2)
RADLAN-PHY-MIB::rlPhyTestGetStatus.49.rlPhyTestTableLOS = INTEGER: success(2)
RADLAN-PHY-MIB::rlPhyTestGetStatus.49.rlPhyTestTableTxFault = INTEGER: success(2)
RADLAN-PHY-MIB::rlPhyTestGetStatus.49.rlPhyTestTableSFPEepromQualified = INTEGER: success(2)
RADLAN-PHY-MIB::rlPhyTestGetStatus.49.rlPhyTestTableRxOpticalPower1 = INTEGER: success(2)
RADLAN-PHY-MIB::rlPhyTestGetStatus.49.rlPhyTestTableRxOpticalPower2 = INTEGER: success(2)
RADLAN-PHY-MIB::rlPhyTestGetStatus.49.rlPhyTestTableRxOpticalPower3 = INTEGER: success(2)
RADLAN-PHY-MIB::rlPhyTestGetStatus.49.rlPhyTestTableTxBias1 = INTEGER: success(2)
RADLAN-PHY-MIB::rlPhyTestGetStatus.49.rlPhyTestTableTxBias2 = INTEGER: success(2)
RADLAN-PHY-MIB::rlPhyTestGetStatus.49.rlPhyTestTableTxBias3 = INTEGER: success(2)
RADLAN-PHY-MIB::rlPhyTestGetStatus.49.rlPhyTestTableLOS1 = INTEGER: success(2)
RADLAN-PHY-MIB::rlPhyTestGetStatus.49.rlPhyTestTableLOS2 = INTEGER: success(2)
RADLAN-PHY-MIB::rlPhyTestGetStatus.49.rlPhyTestTableLOS3 = INTEGER: success(2)
*/
$oids = snmpwalk_cache_twopart_oid($device, 'rlPhyTestGetResult', [], 'RADLAN-PHY-MIB');
$oids = snmpwalk_cache_twopart_oid($device, 'rlPhyTestGetStatus', $oids, 'RADLAN-PHY-MIB');
$new_oids = [];
foreach ($oids as $index => $entry) {
// Skip all non-dom entries
if (!isset($entry['rlPhyTestTableTransceiverTemp']) || $entry['rlPhyTestTableTransceiverTemp']['rlPhyTestGetResult'] == 0) {
continue;
}
$new_oids[$index] = $entry;
// Detect multilane
$multilane = FALSE;
if (isset($entry['rlPhyTestTableRxOpticalPower1']) && in_array($entry['rlPhyTestTableRxOpticalPower1']['rlPhyTestGetStatus'], ['success', 'inProgress'])) {
// FIXME. Seems as incorrectly report as multi-lane
//$multilane = TRUE;
}
$new_oids[$index]['multilane'] = $multilane;
}
if (count($new_oids) == 0) {
// Stop walk if not exist DOM sensors
return;
}
// Get additional OIDs
$oids = snmpwalk_cache_twopart_oid($device, 'rlPhyTestGetUnits', $oids, 'RADLAN-PHY-MIB');
// Vendor specific
$extra_oids = [];
if (is_device_mib($device, 'ELTEX-MES-PHYSICAL-DESCRIPTION-MIB', FALSE)) {
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdType.49.temperature = INTEGER: temperature(0)
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdType.49.supply = INTEGER: supply(1)
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdType.49.txBias = INTEGER: txBias(2)
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdType.49.txOutput = INTEGER: txOutput(3)
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdType.49.rxOpticalPower = INTEGER: txOutput(3)
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdHighAlarm.49.temperature = INTEGER: 90
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdHighAlarm.49.supply = INTEGER: 3600000
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdHighAlarm.49.txBias = INTEGER: 65000
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdHighAlarm.49.txOutput = INTEGER: 999
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdHighAlarm.49.rxOpticalPower = INTEGER: 999
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdHighWarning.49.temperature = INTEGER: 85
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdHighWarning.49.supply = INTEGER: 3500000
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdHighWarning.49.txBias = INTEGER: 55000
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdHighWarning.49.txOutput = INTEGER: -3000
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdHighWarning.49.rxOpticalPower = INTEGER: -3000
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdLowWarning.49.temperature = INTEGER: -5
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdLowWarning.49.supply = INTEGER: 3100000
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdLowWarning.49.txBias = INTEGER: 3000
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdLowWarning.49.txOutput = INTEGER: -9501
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdLowWarning.49.rxOpticalPower = INTEGER: -18997
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdLowAlarm.49.temperature = INTEGER: -10
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdLowAlarm.49.supply = INTEGER: 3000000
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdLowAlarm.49.txBias = INTEGER: 1000
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdLowAlarm.49.txOutput = INTEGER: -13497
// ELTEX-MES-PHYSICAL-DESCRIPTION-MIB::eltPhdTransceiverThresholdLowAlarm.49.rxOpticalPower = INTEGER: -23011
$oids = snmpwalk_cache_twopart_oid($device, 'eltPhdTransceiverThresholdTable', $oids, 'ELTEX-MES-PHYSICAL-DESCRIPTION-MIB');
}
print_debug_vars($oids);
foreach ($new_oids as $ifIndex => $entry1) {
$multilane = $entry1['multilane'];
foreach ($oids[$ifIndex] as $oid_name => $entry) {
if (!in_array($entry['rlPhyTestGetStatus'], ['success', 'inProgress'])) {
continue;
}
if (str_starts_with($entry['rlPhyTestGetUnits'], 'micro')) {
$scale = si_to_scale('micro');
} elseif (str_starts_with($entry['rlPhyTestGetUnits'], 'mili')) {
$scale = si_to_scale('milli');
} elseif (str_starts_with($entry['rlPhyTestGetUnits'], 'deci')) {
$scale = si_to_scale('deci');
} else {
$scale = 1;
}
$entry['ifIndex'] = $ifIndex;
$match = ['measured_match' => ['entity_type' => 'port', 'field' => 'ifIndex', 'match' => '%ifIndex%']];
$options = entity_measured_match_definition($device, $match, $entry);
//print_debug_vars($options);
$name = $options['port_label'];
switch ($oid_name) {
case 'rlPhyTestTableTransceiverTemp':
$descr = $name . " Temperature";
$index = $ifIndex . '.5';
$oid = ".1.3.6.1.4.1.89.90.1.2.1.3.$index";
$class = 'temperature';
// Limits
if (is_device_mib($device, 'ELTEX-MES-PHYSICAL-DESCRIPTION-MIB', FALSE)) {
$entry_limits = $oids[$ifIndex]['temperature'];
$options['limit_high'] = $entry_limits['eltPhdTransceiverThresholdHighAlarm'];
$options['limit_high_warn'] = $entry_limits['eltPhdTransceiverThresholdHighWarning'];
$options['limit_low'] = $entry_limits['eltPhdTransceiverThresholdLowAlarm'];
$options['limit_low_warn'] = $entry_limits['eltPhdTransceiverThresholdLowWarning'];
}
break;
case 'rlPhyTestTableTransceiverSupply':
$descr = $name . " Voltage";
$index = $ifIndex . '.6';
$oid = ".1.3.6.1.4.1.89.90.1.2.1.3.$index";
$class = 'voltage';
// Limits
if (is_device_mib($device, 'ELTEX-MES-PHYSICAL-DESCRIPTION-MIB', FALSE)) {
// microVolt
$entry_limits = $oids[$ifIndex]['supply'];
$options['limit_high'] = $entry_limits['eltPhdTransceiverThresholdHighAlarm'] * 0.000001;
$options['limit_high_warn'] = $entry_limits['eltPhdTransceiverThresholdHighWarning'] * 0.000001;
$options['limit_low'] = $entry_limits['eltPhdTransceiverThresholdLowAlarm'] * 0.000001;
$options['limit_low_warn'] = $entry_limits['eltPhdTransceiverThresholdLowWarning'] * 0.000001;
}
break;
case 'rlPhyTestTableTxBias':
if ($multilane) {
$name .= " Lane 1";
}
$descr = $name . " Tx Bias";
$index = $ifIndex . '.7';
$oid = ".1.3.6.1.4.1.89.90.1.2.1.3.$index";
$class = 'current';
// Limits
if (is_device_mib($device, 'ELTEX-MES-PHYSICAL-DESCRIPTION-MIB', FALSE)) {
// microAmper
$entry_limits = $oids[$ifIndex]['txBias'];
$options['limit_high'] = $entry_limits['eltPhdTransceiverThresholdHighAlarm'] * 0.000001;
$options['limit_high_warn'] = $entry_limits['eltPhdTransceiverThresholdHighWarning'] * 0.000001;
$options['limit_low'] = $entry_limits['eltPhdTransceiverThresholdLowAlarm'] * 0.000001;
$options['limit_low_warn'] = $entry_limits['eltPhdTransceiverThresholdLowWarning'] * 0.000001;
}
break;
case 'rlPhyTestTableTxBias1':
if (!$multilane) {
continue 2;
} // Skip when not multi-lane
$name .= " Lane 2";
$descr = $name . " Tx Bias";
$index = $ifIndex . '.30';
$oid = ".1.3.6.1.4.1.89.90.1.2.1.3.$index";
$class = 'current';
// Limits
if (is_device_mib($device, 'ELTEX-MES-PHYSICAL-DESCRIPTION-MIB', FALSE)) {
// microAmper
$entry_limits = $oids[$ifIndex]['txBias'];
$options['limit_high'] = $entry_limits['eltPhdTransceiverThresholdHighAlarm'] * 0.000001;
$options['limit_high_warn'] = $entry_limits['eltPhdTransceiverThresholdHighWarning'] * 0.000001;
$options['limit_low'] = $entry_limits['eltPhdTransceiverThresholdLowAlarm'] * 0.000001;
$options['limit_low_warn'] = $entry_limits['eltPhdTransceiverThresholdLowWarning'] * 0.000001;
}
break;
case 'rlPhyTestTableTxBias2':
if (!$multilane) {
continue 2;
} // Skip when not multi-lane
$name .= " Lane 3";
$descr = $name . " Tx Bias";
$index = $ifIndex . '.31';
$oid = ".1.3.6.1.4.1.89.90.1.2.1.3.$index";
$class = 'current';
// Limits
if (is_device_mib($device, 'ELTEX-MES-PHYSICAL-DESCRIPTION-MIB', FALSE)) {
// microAmper
$entry_limits = $oids[$ifIndex]['txBias'];
$options['limit_high'] = $entry_limits['eltPhdTransceiverThresholdHighAlarm'] * 0.000001;
$options['limit_high_warn'] = $entry_limits['eltPhdTransceiverThresholdHighWarning'] * 0.000001;
$options['limit_low'] = $entry_limits['eltPhdTransceiverThresholdLowAlarm'] * 0.000001;
$options['limit_low_warn'] = $entry_limits['eltPhdTransceiverThresholdLowWarning'] * 0.000001;
}
break;
case 'rlPhyTestTableTxBias3':
if (!$multilane) {
continue 2;
} // Skip when not multi-lane
$name .= " Lane 4";
$descr = $name . " Tx Bias";
$index = $ifIndex . '.32';
$oid = ".1.3.6.1.4.1.89.90.1.2.1.3.$index";
$class = 'current';
// Limits
if (is_device_mib($device, 'ELTEX-MES-PHYSICAL-DESCRIPTION-MIB', FALSE)) {
// microAmper
$entry_limits = $oids[$ifIndex]['txBias'];
$options['limit_high'] = $entry_limits['eltPhdTransceiverThresholdHighAlarm'] * 0.000001;
$options['limit_high_warn'] = $entry_limits['eltPhdTransceiverThresholdHighWarning'] * 0.000001;
$options['limit_low'] = $entry_limits['eltPhdTransceiverThresholdLowAlarm'] * 0.000001;
$options['limit_low_warn'] = $entry_limits['eltPhdTransceiverThresholdLowWarning'] * 0.000001;
}
break;
case 'rlPhyTestTableTxOutput':
$descr = $name . " TX Power";
$index = $ifIndex . '.8';
$oid = ".1.3.6.1.4.1.89.90.1.2.1.3.$index";
$class = 'dbm';
// Limits
if (is_device_mib($device, 'ELTEX-MES-PHYSICAL-DESCRIPTION-MIB', FALSE)) {
// microWatt (really milli dBm)
$entry_limits = $oids[$ifIndex]['txOutput'];
// $options['limit_unit'] = 'W';
$options['limit_high'] = $entry_limits['eltPhdTransceiverThresholdHighAlarm'] * 0.001;
$options['limit_high_warn'] = $entry_limits['eltPhdTransceiverThresholdHighWarning'] * 0.001;
$options['limit_low'] = $entry_limits['eltPhdTransceiverThresholdLowAlarm'] * 0.001;
$options['limit_low_warn'] = $entry_limits['eltPhdTransceiverThresholdLowWarning'] * 0.001;
}
break;
case 'rlPhyTestTableRxOpticalPower':
if ($multilane) {
$name .= " Lane 1";
}
$descr = $name . " RX Power";
$index = $ifIndex . '.9';
$oid = ".1.3.6.1.4.1.89.90.1.2.1.3.$index";
$class = 'dbm';
// Limits
if (is_device_mib($device, 'ELTEX-MES-PHYSICAL-DESCRIPTION-MIB', FALSE)) {
// microWatt
$entry_limits = $oids[$ifIndex]['rxOpticalPower'];
// $options['limit_unit'] = 'W';
$options['limit_high'] = $entry_limits['eltPhdTransceiverThresholdHighAlarm'] * 0.001;
$options['limit_high_warn'] = $entry_limits['eltPhdTransceiverThresholdHighWarning'] * 0.001;
$options['limit_low'] = $entry_limits['eltPhdTransceiverThresholdLowAlarm'] * 0.001;
$options['limit_low_warn'] = $entry_limits['eltPhdTransceiverThresholdLowWarning'] * 0.001;
}
break;
case 'rlPhyTestTableRxOpticalPower1':
if (!$multilane) {
continue 2;
} // Skip when not multi-lane
$name .= " Lane 2";
$descr = $name . " RX Power";
$index = $ifIndex . '.27';
$oid = ".1.3.6.1.4.1.89.90.1.2.1.3.$index";
$class = 'dbm';
// Limits
if (is_device_mib($device, 'ELTEX-MES-PHYSICAL-DESCRIPTION-MIB', FALSE)) {
// microWatt
$entry_limits = $oids[$ifIndex]['rxOpticalPower'];
// $options['limit_unit'] = 'W';
$options['limit_high'] = $entry_limits['eltPhdTransceiverThresholdHighAlarm'] * 0.001;
$options['limit_high_warn'] = $entry_limits['eltPhdTransceiverThresholdHighWarning'] * 0.001;
$options['limit_low'] = $entry_limits['eltPhdTransceiverThresholdLowAlarm'] * 0.001;
$options['limit_low_warn'] = $entry_limits['eltPhdTransceiverThresholdLowWarning'] * 0.001;
}
break;
case 'rlPhyTestTableRxOpticalPower2':
if (!$multilane) {
continue 2;
} // Skip when not multi-lane
$name .= " Lane 3";
$descr = $name . " RX Power";
$index = $ifIndex . '.28';
$oid = ".1.3.6.1.4.1.89.90.1.2.1.3.$index";
$class = 'dbm';
// Limits
if (is_device_mib($device, 'ELTEX-MES-PHYSICAL-DESCRIPTION-MIB', FALSE)) {
// microWatt
$entry_limits = $oids[$ifIndex]['rxOpticalPower'];
// $options['limit_unit'] = 'W';
$options['limit_high'] = $entry_limits['eltPhdTransceiverThresholdHighAlarm'] * 0.001;
$options['limit_high_warn'] = $entry_limits['eltPhdTransceiverThresholdHighWarning'] * 0.001;
$options['limit_low'] = $entry_limits['eltPhdTransceiverThresholdLowAlarm'] * 0.001;
$options['limit_low_warn'] = $entry_limits['eltPhdTransceiverThresholdLowWarning'] * 0.001;
}
break;
case 'rlPhyTestTableRxOpticalPower3':
if (!$multilane) {
continue 2;
} // Skip when not multi-lane
$name .= " Lane 4";
$descr = $name . " RX Power";
$index = $ifIndex . '.29';
$oid = ".1.3.6.1.4.1.89.90.1.2.1.3.$index";
$class = 'dbm';
// Limits
if (is_device_mib($device, 'ELTEX-MES-PHYSICAL-DESCRIPTION-MIB', FALSE)) {
// microWatt
$entry_limits = $oids[$ifIndex]['rxOpticalPower'];
// $options['limit_unit'] = 'W';
$options['limit_high'] = $entry_limits['eltPhdTransceiverThresholdHighAlarm'] * 0.001;
$options['limit_high_warn'] = $entry_limits['eltPhdTransceiverThresholdHighWarning'] * 0.001;
$options['limit_low'] = $entry_limits['eltPhdTransceiverThresholdLowAlarm'] * 0.001;
$options['limit_low_warn'] = $entry_limits['eltPhdTransceiverThresholdLowWarning'] * 0.001;
}
break;
default:
continue 2;
}
$value = $entry['rlPhyTestGetResult'];
discover_sensor_ng($device, $class, $mib, 'rlPhyTestGetResult', $oid, $index, $descr, $scale, $value, $options);
}
}
// EOF