SITEBOSS-570-STD-MIB: View SNMP OID List / Download MIB

MIB module for managing Asentria SiteBoss 570

This table organizes 4 basic attributes of points. A point is a particular sensor on an EventSensor (e.g., temperature, humidity, contact closure 2, output 5, etc.). The 4 point attributes are its name, whether it's in its event state, the point's value as a number and its value as a string. Points are referenced by a point index. The point index is a string of 3 numbers separated by periods. It contains all the information necessary for getting a piece of data off an event sensor; namely, which EventSensor, point class, and which-sensor-of-that-class (a.k.a. point).

Entry for EventSensor point table

The part of the point index that refers to an EventSensor. The point index is a string of 3 numbers separated by periods. It contains all the information necessary for getting a piece of data off an event sensor; namely, which EventSensor, point class, and which-sensor-of-that-class (a.k.a. point). This object's allowable values are 1 through 16, and 200. 200 always refers to the EventSensor inside the unit. 1 through 16 refer to additional attached EventSensors. The number corresponding to an EventSensor is determined by the user at the initial configuration time. If there is an internal sensor in the unit, it will always be the first item in the Sensor Events setup menu. For example, if a new EventSensor is configured as the 2nd entry AFTER the internal EventSensor (if one exists) in the Sensor Events Setup Menu, then that EventSensor will be known from then on as EventSensor 2. All point indeces with esIndexES=2 will now refer to that particular EventSensor.

The part of the point index that refers to point class. The point index is a string of 3 numbers separated by periods. It contains all the information necessary for getting a piece of data off an event sensor; namely, which EventSensor, point class, and which-sensor-of-that-class (a.k.a. point). The values for this object are: 1=temperature sensor 2=contact closure 3=humidity sensor 4=noise sensor 5=analog input 6=output (relay output or power output)

The part of the point index that delineates which sensor on the EventSensor. So this combined with esIndexPC (Point Class or type) and esIndexES (which EventSensor) uniquely defines each point (sensor or output) attached to a unit. For example, if esIndexES is 3, esIndexPC is 1 and esIndexPoint is 4 then this is the Fourth Temperature Sensor on EventSensor number 3.

The name of the point on an EventSensor. For example, 'AC temp' (in the case of the temperature sensor on an EventSensor). There can be multiple points of the same point class on an EventSensor (e.g., 8 contact closures) and multiple sensor classes on an EventSensor (e.g., temperature, contact closure, humidity). If the point referenced by a given point index is solitary (e.g., temperature sensor, because there can be only one on an EventSensor), then this object reads as ''. Setting this object for solitary point indices sets the EventSensor name only. On the other hand, if a given point is among other points of the same point class on an EventSensor, then this object reads as ''. Setting this object for these NON- solitary point indices sets the sensor name only - not the EventSensor name.

A number referring to the event state of a point on an EventSensor. This number can have different meanings depending on the point class. If the point class is temperature, humidity, or analog input, then the values of this object are: 1=very low 2=low 3=normal 4=high 5=very high For contact closures the values of this object are: 1=point in event state 2=point in normal state For outputs the values of this object is the numeric code for the logical state of the output: 1 or 2. The logical state of the output is either active/inactive for relay outputs or on/off for power outputs. The logical state of the output has different nomenclature depending on the type of the output (relay output or power output): 1=active (for relay output) or on (for power output) 2=inactive (for relay output) or off (for power output) This is not necessarily representative of physical state of the output. Physical state is energized/de-energized, for both relay and power outputs. For relay outputs, the active logical state corresponds to either the energized physical state or the de-energized physical state depending on how the relay output is configured. For power outputs, the on logical state always corresponds to the energized physical state. For any point class and any point, if the event state is undefined, then the value of this object is 0. For any point class except output, this object is read-only. For outputs, setting this object to 1 puts the output into its active logical state. Setting this object to 2 puts the output into its inactive logical state. Setting this object to any value greater than 2 puts the output into its active logical state for that many seconds (up to 3600), after which time it puts the output into its inactive logical state.

A read-only number referring to the value of a point on an EventSensor. If the point class is temperature, then this object is the temperature in its configured scale (default is Fahrenheit). If the point class is contact closure, then this object is either 0 (open) or 1 (closed). If the point class is humidity, then this object is the percent relative humidity. If the point class is analog input, then this object is the signed input value in tenths of the configured units. If the point class is an output, then this object is the numeric code for the physical state of the output. 0=de-energized 1=energized This object cannot be used to control the output, i.e, change its logical or physical state (instead use the esPointInEventState object).

A string referring to the value of a point on an EventSensor. For contact closures this object is either 'Open' or 'Closed'. For outputs this object is a concatenation of the logical state and physical state, separated by '/'. For a relay output this object can be one of the following 4 possible values: Active/Energized Inactive/Energized Active/De-energized Inactve/De-energized For a power output this object can be one of the following 2 possible values: On/Energized Off/De-energized For temperature and humidity point classes, this object is the string representation of the esPointValueInt object. For temperature, 'C' or 'F' is including in the string to indicate scale. For analog inputs, this object is the string representation of the plus/minus input in the configured units appended with the unit name.

The time of the last time an event was triggerred for a point on an EventSensor in MM/DD/YY HH:MM:SS format. For contact closures, the possible events are Active and Inactive. For temperature, humidity, and analog inputs, the possible events are Normal, High, Very High, Low, and Very Low. For outputs, this object is a null string.

The time of the last time an event was triggerred for a point on an EventSensor in 100ths of seconds since reset. For contact closures, the possible events are Active and Inactive. For temperature, humidity, and analog inputs, the possible events are Normal, High, Very High, Low, and Very Low. For outputs, this object is 0.

Data Event Status Table

EventSensor status entry

Index for Data Events

Data Event name

Number of times a data record has matched this event's equation. Range: 1-999999999

Number of times the equation is matched before an event is triggered. Range: 1-999999999

status of modem (idle, dialing, connected, etc.)

Table of numbers of recent dialing parties

Entry for table of CLID log entries

Index for table of CLID log entries

recently logged number of dialing party

Fuel sensor status table

Fuel sensor status table entry

Index for fuel sensors

Fuel sensor name

Fuel sensor device state

Fuel volume. Range is -2,147,483,648 to 2,147,483,647. This value reads -999 when the fuel sensor is disconnected

Height of the fluid in the tank expressed as a percentage of the tank height, in hundredths of a percent.

Current event status of the fuel sensor.

Combined status string intended to be parsed by NMS: deviceState`deviceStateColorCode`percentRounded`valueAsFloat`volumeEventState`volumeEventStateColorCode`capacity`units`name

Wireless modem status

Wireless modem Signal strength

Wireless modem Signal strength (RSSI)

Wireless modem Bit Error Rate

Wireless modem info last update time

Wireless modem registration status

Wireless modem Location Area Code

Wireless modem Cell ID

Wireless modem Internation Mobile Subscriber Identity number

Wireless modem phone number

Local IP address of modem on wireless network

Wireless modem manufacturer ID

Wireless modem model ID

Wireless modem International Mobile Equipment Identity number

Wireless modem revision ID

Wireless modem network name

Wireless modem (E)GPRS status

Wireless modem band

Wireless modem channel

Wireless modem country code

Wireless modem network code

Wireless modem PLMN color

Wireless modem BS color

Wireless modem max power RACH

Wireless modem minimum receive level

Wireless modem base coefficient

WWireless modem SIM status

Wireless modem SIM ICCID

Wireless modem type

AC power monitor status table

AC power monitor status table entry

Index for AC power monitors

Name for the AC power monitor device.

Average voltage, in volts. This is calculated using the formula (register * PT ratio * 0.1). This could be either the average of the phase voltages, or the sum of the phase voltages, depending on device configuration.

Minimum average voltage value since last reset, in volts.

Maximum average voltage value since last reset, in volts.

Average average voltage value since last reset, in volts. This is the unit's average of its measurements of the average voltage reported by the AC power monitor device.

Event state of this AC power monitor voltage (Low, Normal, High, etc.).

Phase A voltage, in volts. This is calculated using the formula (register * PT ratio * 0.1).

Phase B voltage, in volts. This is calculated using the formula (register * PT ratio * 0.1).

Phase C voltage, in volts. This is calculated using the formula (register * PT ratio * 0.1).

Average current, in amps. This is calculated using the formula (register * CT ratio * 0.001). This could be either the average of the phase currents, or the sum of the phase currents, depending on device configuration.

Minimum average current value since last reset, in amps.

Maximum average current value since last reset, in amps.

Average average current value since last reset, in amps. This is the unit's average of its measurements of the average current reported by the AC power monitor device.

Event state of this AC power monitor current (Low, Normal, High, etc.).

Phase A current, in amps. This is calculated using the formula (register * CT ratio * 0.001).

Phase B current, in amps. This is calculated using the formula (register * CT ratio * 0.001).

Phase C current, in amps. This is calculated using the formula (register * CT ratio * 0.001).

Frequency, in hertz. On the YD2010, this is calculated using the formula (register * 0.00106813). On the WattsOn, this is calculated using the formula (register * 0.1).

Minimum frequency value since last reset, in hertz.

Maximum frequency value since last reset, in hertz.

Average frequency value since last reset, in hertz. This is the unit's average of its measurements of the average frequency reported by the AC power monitor device.

Event state of this AC power monitor frequency (Low, Normal, High, etc.).

Total real power, in watts. On the YD2010, this is calculated using the formula (register * PT ratio * CT ratio * Urg * 0.4), where Urg is the voltage range taken from register 0x30A. On the WattsOn models, this is calculated using the formula (register * PT * CT).

Minimum total real power value since last reset, in watts.

Maximum total real power value since last reset, in watts.

Average total real power value since last reset, in watts. This is the unit's average of its measurements of the average total real power reported by the AC power monitor device.

Event state of this AC power monitor total real power (Low, Normal, High, etc.).

Phase A real power, in watts. On the YD2010, this is calculated using the formula (register * PT ratio * CT ratio * Urg * 0.4), where Urg is the voltage range taken from register 0x30A. On the WattsOn, this is calculated using the formula (register * PT * CT).

Phase B real power, in watts. On the YD2010, this is calculated using the formula (register * PT ratio * CT ratio * Urg * 0.4), where Urg is the voltage range taken from register 0x30A. On the WattsOn, this is calculated using the formula (register * PT * CT).

Phase C real power, in watts. On the YD2010, this is calculated using the formula (register * PT ratio * CT ratio * Urg * 0.4), where Urg is the voltage range taken from register 0x30A. On the WattsOn, this is calculated using the formula (register * PT * CT).

Combined status string intended to be parsed by NMS: name`deviceState`deviceStateColorCode`voltage`current`frequency`power~voltageEventState`voltageColorCode`currentEventState`currentColorCode`frequencyEventState`freuencyColorCode`powerEventState`powerColorCode

Total power factor.

Total power factor minimum value since last reset.

Total power factor maximum value since last reset.

Total power factor average value since last reset.

Total power factor event state.

Phase A power factor.

Phase B power factor.

Phase C power factor.

Total reactive power, in VAR.

Total reactive power minimum value since last reset, in VAR.

Total reactive power maximum value since last reset, in VAR.

Total reactive power average value since last reset, in VAR.

Phase A reactive power, in VAR.

Phase B reactive power, in VAR.

Phase C reactive power, in VAR.

Total apparent power, in VA.

Total apparent power minimum value since last reset, in VA.

Total apparent power maximum value since last reset, in VA.

Total apparent power average value since last reset, in VA.

Phase A apparent power, in VA.

Phase B apparent power, in VA.

Phase C apparent power, in VA.

Total energy, in Wh.

Total reactive energy, in VAR.

Total apparent energy, in VA.

The number of EventSensors recognized by the unit, including the internal EventSensor. Range: 1-17

The table of what EventSensors are attached to the unit, including the internal EventSensor

Table entry for EventSensor table

This number refers to an EventSensor; it has the same meaning as the esIndexES object (see above), except that this object is used only within the esTable branch. This object's allowable values are 1 through 16, and 200. 200 always refers to the EventSensor inside the unit. 1 through 16 refer to additional attached EventSensors. The number corresponding to an EventSensor is determined by the user at the initial configuration time. If there is an internal sensor in the unit, it will always be the first item in the Sensor Events setup menu. For example, if a new EventSensor is configured as the 2nd entry AFTER the internal EventSensor (if one exists) in the Sensor Events Setup Menu, then that EventSensor will be known from then on as EventSensor 2. All point indeces with esIndex=2 will now refer to that particular EventSensor.

The name of the EventSensor

The factory-assigned ID of the EventSensor

The number of temperature sensors on the EventSensor

Description of how temperature values should be interpreted.

The number of contact closures on the EventSensor.

Description of how CC values should be interpreted.

The number of humidity sensors on the EventSensor.

Description of how humidity sensor values should be interpreted.

The number of noise sensors on the EventSensor.

Description of how noise sensor values should be interpreted.

The number of airflow sensors on the EventSensor.

Description of how airflow sensor values should be interpreted.

The number of analog inputs on the EventSensor.

Description of how analog input values should be interpreted.

The number of outputs (relay or power) on the EventSensor

Description of how output values should be interpreted.

Combined status string intended to be parsed by NMS: name`value`scale`eventState`eventColorCode

Combined status string intended to be parsed by NMS: numInBlock~name1`value1`eventColorCode1`alias1~name2`value2`eventColorCode2`alias2~...name8`value8`eventColorCode8`alias8

Combined status string intended to be parsed by NMS: numInBlock~name9`value9`eventColorCode9`alias9~name10`value10`eventColorCode10`alias10~...name16`value16`eventColorCode16`alias16

Combined status string intended to be parsed by NMS: numInBlock~name17`value17`eventColorCode17`alias17~name18`value18`eventColorCode18`alias18~...name24`value24`eventColorCode24`alias24

Combined status string intended to be parsed by NMS: numInBlock~name25`value25`eventColorCode25`alias25~name26`value26`eventColorCode26`alias26~...name32`value32`eventColorCode32`alias32

Combined status string intended to be parsed by NMS: numInBlock~name33`value33`eventColorCode33`alias33~name34`value34`eventColorCode34`alias35~...name40`value40`eventColorCode40`alias40

Combined status string intended to be parsed by NMS: numInBlock~name41`value41`eventColorCode41`alias41~name42`value42`eventColorCode42`alias43~...name48`value48`eventColorCode48`alias48

Combined status string intended to be parsed by NMS: numInBlock~name49`value49`eventColorCode49`alias49~name50`value50`eventColorCode50`alias50~...name56`value56`eventColorCode56`alias56

Combined status string intended to be parsed by NMS: numInBlock~name57`value57`eventColorCode57`alias57~name57`value57`eventColorCode564`alias57~...name64`value64`eventColorCode64`alias64

Combined status string intended to be parsed by NMS: name`value`eventState`eventColorCode

Combined status string intended to be parsed by NMS: numInBlock~name1`value1`units1`eventState`eventColorCode1~name2`value2`units2`eventState`eventColorCode2~...

Combined status string intended to be parsed by NMS: numInBlock~name9`value9`units9`eventState9`eventColorCode9~...

Combined status string intended to be parsed by NMS: numInBlock~namex`valuex`unitsx`eventStatex`eventColorCodex~...

Combined status string intended to be parsed by NMS: numInBlock~namex`valuex`unitsx`eventStatex`eventColorCodex~...

Combined status string intended to be parsed by NMS: numInBlock~namex`valuex`unitsx`eventStatex`eventColorCodex~...

Combined status string intended to be parsed by NMS: numInBlock~namex`valuex`unitsx`eventStatex`eventColorCodex~...

Combined status string intended to be parsed by NMS: numInBlock~namex`valuex`unitsx`eventStatex`eventColorCodex~...

Combined status string intended to be parsed by NMS: numInBlock`namex`valuex`aliasx~namey`valuey`aliasy~...namez`valuez`aliasz

String representing the number of new (attached but unconfigured) EventSensors

This table organizes 3 basic attributes of temperature sensor points. A point is a particular sensor on an EventSensor. The 3 point attributes organizes in this table are: 1. the configuration item (e.g., enable, name, etc.) 2. the eventsensor on which this point resides 3. the point number (always 1 for temp sensors) Points are referenced by a point config index. The point config index is a string of 2 numbers separated by periods. It contains all the information necessary for getting a piece of data off an event sensor within the context of this emperature point config table ; namely, which EventSensor, and which sensor (a.k.a. point) (always 1 for temperature sensors).

Entry for EventSensor point config temperature table

The part of the point index that refers to an EventSensor. The point config index is a string of 2 numbers separated by a period. It contains all the information necessary for getting a piece of data off an event sensor within the the context of the eventsensor point config temperature table; namely, which EventSensor, and which sensor (a.k.a. point). This object's allowable values are 1 through 16, and 200. 200 always refers to the EventSensor inside the unit. 1 through 16 refer to additional attached EventSensors. The number corresponding to an EventSensor is determined by the user at the initial configuration time. If there is an internal sensor in the unit, it will always be the first item in the Sensor Events setup menu. For example, if a new EventSensor is configured as the 2nd entry AFTER the internal EventSensor (if one exists) in the Sensor Events Setup Menu, then that EventSensor will be known from then on as EventSensor 2. All point indeces with esIndexES=2 will now refer to that particular EventSensor.

The part of the point index that delineates which sensor on the EventSensor. So this combined with espcTempIndexES (which EventSensor) uniquely defines each point attached to a unit within the context of temperature point configuration.

ON/OFF enable this temperature sensor

Scale (C/F) for this temperature sensor

Deadband for this temperature sensor (in floating-point format)

Very high temperature event threshold for this temperature sensor (in floating-point format)

Very high temperature event actions for this temperature sensor

Very high temperature event trap number for this temperature sensor

Very high temperature event class for this temperature sensor

High temperature event threshold for this temperature sensor (in floating-point format)

High temperature event actions for this temperature sensor

High temperature event trap number for this temperature sensor

High temperature event class for this temperature sensor

Return-to-normal event actions for this temperature sensor

Return-to-normal event trap number for this temperature sensor

Return-to-normal event class for this temperature sensor

Low temperature event threshold for this temperature sensor (in floating-point format)

Low temperature event actions for this temperature sensor

Low temperature event trap number for this temperature sensor

Low temperature event class for this temperature sensor

Very Low temperature event threshold for this temperature sensor (in floating-point format)

Very Low temperature event actions for this temperature sensor

Very Low temperature event trap number for this temperature sensor

Very Low temperature event class for this temperature sensor

This table organizes 3 basic attributes of contact closure points. A point is a particular sensor on an EventSensor. The 3 point attributes organizes in this table are: 1. the configuration item (e.g., enable, name, etc.) 2. the eventsensor on which this point resides 3. the point number Points are referenced by a point config index. The point config index is a string of 2 numbers separated by a period. It contains all the information necessary for getting a piece of data off an event sensor within the context of this contact closure point config table ; namely, which EventSensor and which sensor.

Entry for EventSensor point config contact closure table

The part of the point index that refers to an EventSensor. The point config index is a string of 2 numbers separated by a period. It contains all the information necessary for getting a piece of data off an event sensor within the the context of the eventsensor point config contact closure table; namely, which EventSensor and which sensor (a.k.a. point). This object's allowable values are 1 through 16, and 200. 200 always refers to the EventSensor inside the unit. 1 through 16 refer to additional attached EventSensors.

The part of the point index that delineates which sensor on the EventSensor. So this combined with espcCCIndexES (which EventSensor) uniquely defines each point attached to a unit within the context of contact closure point configuration.

ON/OFF enable for this contact closure

Name for this contact closure

Event state for this contact closure

Event threshold (seconds) for this contact closure

Event actions for this contact closure

Event trap number for this contact closure

Event class for this contact closure

Return-to-normal actions for this contact closure

Return-to-normal trap number for this contact closure

Return-to-normal class for this contact closure

Event alias for this contact closure

Return-to-normal alias for this contact closure

Event threshold (seconds) for this contact closure to return to normal

Override global reminder interval (evReminderInterval) for this CC.

Individual reminder interval for this CC, applicable when the global reminder is overriden.

This table organizes 3 basic attributes of humidity points. A point is a particular sensor on an EventSensor. The 3 point attributes organizes in this table are: 1. the configuration item (e.g., enable, name, etc.) 2. the eventsensor on which this point resides 3. the point number (always 1 for humidity sensors) Points are referenced by a point config index. The point config index is a string of 2 numbers separated by a period. It contains all the information necessary for getting a piece of data off an event sensor within the context of this humidity point config table ; namely, which EventSensor and which sensor.

Entry for EventSensor point config humidity table

The part of the point index that refers to an EventSensor. The point config index is a string of 2 numbers separated by a period. It contains all the information necessary for getting a piece of data off an event sensor within the the context of the eventsensor point config contact closure table; namely, which EventSensor and which sensor (a.k.a. point). This object's allowable values are 1 through 16, and 200. 200 always refers to the EventSensor inside the unit. 1 through 16 refer to additional attached EventSensors.

The part of the point index that delineates which sensor on the EventSensor. So this combined with espcHumidIndexES (which EventSensor) uniquely defines each point attached to a unit within the context of contact closure point configuration.

ON/OFF enable for this humidity sensor

Deadband for this humidity sensor

Very high event threshold for this humidity sensor

Very high event actions for this humidity sensor

Very high event trap number for this humidity sensor

Very high event class for this humidity sensor

High event threshold for this humidity sensor

High event actions for this humidity sensor

High event trap number for this humidity sensor

High event class for this humidity sensor

Return-to-normal actions for this humidity sensor

Return-to-normal trap number for this humidity sensor

Return-to-normal class for this humidity sensor

Low event threshold for this humidity sensor

Low event actions for this humidity sensor

Low event trap number for this humidity sensor

Low event class for this humidity sensor

Very low event threshold for this humidity sensor

Very low event actions for this humidity sensor

Very low event trap number for this humidity sensor

Very low event class for this humidity sensor

This table organizes 3 basic attributes of analog input points. A point is a particular sensor on an EventSensor. The 3 point attributes organizes in this table are: 1. the configuration item (e.g., enable, name, etc.) 2. the eventsensor on which this point resides 3. the point number Points are referenced by a point config index. The point config index is a string of 2 numbers separated by a period. It contains all the information necessary for getting a piece of data off an event sensor within the context of this analog input point config table ; namely, which EventSensor and which sensor.

Entry for EventSensor point config analog input table

The part of the point index that refers to an EventSensor. The point config index is a string of 2 numbers separated by a period. It contains all the information necessary for getting a piece of data off an event sensor within the the context of the eventsensor point config contact closure table; namely, which EventSensor and which sensor (a.k.a. point). This object's allowable values are 1 through 16, and 200. 200 always refers to the EventSensor inside the unit. 1 through 16 refer to additional attached EventSensors.

The part of the point index that delineates which sensor on the EventSensor. So this combined with espcAIIndexES (which EventSensor) uniquely defines each point attached to a unit within the context of contact closure point configuration.

ON/OFF for this analog input sensor

Deadband for this analog input sensor

Very high event threshold (decivolts or tenths of milliamps) for this analog input sensor

Very high event actions for this analog input sensor

Very high event trap number for this analog input sensor

Very high event class for this analog input sensor

High event threshold (decivolts or tenths of milliamps) for this analog input sensor

High event actions for this analog input sensor

High event trap number for this analog input sensor

High event class for this analog input sensor

Return-to-normal actions for this analog input sensor

Return-to-normal trap number for this analog input sensor

Return-to-normal class for this analog input sensor

Low event threshold (decivolts or tenths of milliamps) for this analog input sensor

Low event actions for this analog input sensor

Low event trap number for this analog input sensor

Low event class for this analog input sensor

Very low event threshold (decivolts or tenths of milliamps) for this analog input sensor

Very low event actions for this analog input sensor

Very low event actions for this analog input sensor

Very low event class for this analog input sensor

Converstion unit name for this analog input sensor

Conversion high value for this analog input sensor

Conversion high unit value for this analog input sensor

Conversion low value for this analog input sensor

Conversion unit low unit value for this analog input sensor

Analog input display format

This table organizes configuration items for output points. A point is a particular sensor on an EventSensor. The 3 point attributes organized in this table are: 1. the configuration item (e.g., enable, name, etc.) 2. the eventsensor on which this point resides 3. the point number Points are referenced by a point config index. The point config index is a string of 2 numbers separated by a period. It contains all the information necessary for getting a piece of data off an event sensor within the context of this output config table ; namely, which EventSensor and which sensor.

Entry for EventSensor point config output table

The part of the point index that refers to an EventSensor. The point config index is a string of 2 numbers separated by a period. It contains all the information necessary for getting a piece of data off an event sensor within the the context of the eventsensor point config contact closure table; namely, which EventSensor and which sensor (a.k.a. point). This object's allowable values are 1 through 16, and 200. 200 always refers to the EventSensor inside the unit. 1 through 16 refer to additional attached EventSensors.

The part of the point index that delineates which sensor on the EventSensor. So this combined with espcOutputIndexES (which EventSensor) uniquely defines each point attached to a unit within the context of output point configuration.

Enables the output event for this output. This has no effect on whether the relay changes state, only on whether a state change triggers an event.

Which state is considered the active state: energized/de-energized.

Output type: RELAY, POWER, SSR, TTL.

Output alias corresponding to its event state.

Output color corresponding to its event state.

Alias for the output active state.

Output color (as rendered in the web UI, in RGB hex format) corresponding to the output active state.

Actions for the output active event.

Actions for the output active event.

Class (severity) for the output active event.

Alias for the output inactive state.

Output color (as rendered in the web UI, in RGB hex format) corresponding to the output inactive state.

Actions for the output inactive event.

Actions for the output inactive event.

Class (severity) for the output inactive event.

Number of RS-232 ports found. Range: 2 or 4

Port config table

Port config entry

Index for ports

Baud rate, 19200, 9600, etc.

Value representing word length, parity, and stop bits: 0=8N1, 1=7E1, 2=7O1, 3=7N1, 4=8O2

Strip passthrough LFs sent to device on this port: 1=yes, 0=no.

Strip passthrough LFs received from device on this port: 1=yes, 0=no.

1=Use the character mask on this port. 0=Do not use the mask. When the mask is enabled, the following ASCII characters are ignored on the port: 0, 1, 4-9, 11, 12, 14-31, 128-255. When the mask is disabled, all characters are accepted on the port.

1=Enable the Data Alarm Evaluator for data on this port. 0=Do not evaluate data on this port.

ON/OFF: store alarms received during passthrough

Timeout after last unterminated data received upon which data collected so far is stored as a record.

How the port interprets incoming data: ASCII/BINARY

ON/OFF whether the port translates incoming ETX to CRLF

ON/OFF Whether Multiline Records are collected on this port.

Position of MLR start field 1

Text to match MLR start field 1

Position of MLR start field 2

Text to match MLR start field 2

Number of lines before the starting line which should be included in the MLR

How the MLR parser determines what ends an MLR: by FORMULA, number of lines received so far (COUNT), or number of blank lines received so far (BLANKS)

Number of lines in the MLR (used by the end detection mode)

Position of MLR end field 1

Text to match MLR end field 1

Position of MLR end field 2

Text to match MLR end field 2

ON/OFF MLR parser uses complex rules (field possitions/ formulas, etc.)

ON/OFF records received during passthrough mode are buffered/stored in the database

The text identifer for the port

Mode of the serial port.

Handshaking mode of the serial port.

Mode of the Ethernet1 interface: STATIC,DHCP,VLAN

Ethernet1 IP address

Ethernet1 subnet mask

Ethernet1 router

Ethernet1 VLAN1 ID

Ethernet1 VLAN1 priority

Ethernet1 VLAN1 IP address

Ethernet1 VLAN1 subnet mask

Ethernet1 VLAN1 router

Ethernet1 VLAN2 ID

Ethernet1 VLAN2 priority

Ethernet1 VLAN2 IP address

Ethernet1 VLAN2 subnet mask

Ethernet1 VLAN2 router

Ethernet1 VLAN3 ID

Ethernet1 VLAN3 priority

Ethernet1 VLAN3 IP address

Ethernet1 VLAN3 subnet mask

Ethernet1 VLAN3 router

Ethernet1 VLAN4 ID

Ethernet1 VLAN4 priority

Ethernet1 VLAN4 IP address

Ethernet1 VLAN4 subnet mask

Ethernet1 VLAN4 router

Ethernet1 VLAN5 ID

Ethernet1 VLAN5 priority

Ethernet1 VLAN5 IP address

Ethernet1 VLAN5 subnet mask

Ethernet1 VLAN5 router

Ethernet1 VLAN6 ID

Ethernet1 VLAN6 priority

Ethernet1 VLAN6 IP address

Ethernet1 VLAN6 subnet mask

Ethernet1 VLAN6 router

Ethernet1 MAC

Controls IPv6 operation for this Ethernet interface.

he static IPv6 address to use for this interface when in operating in STATIC mode.

The IPv6 router to engage as the default router when this interface operates in STATIC mode.

One of the automatically-acquired IPv6 addresses.

One of the automatically-acquired IPv6 addresses.

One of the automatically-acquired IPv6 addresses.

One of the automatically-acquired IPv6 addresses.

The link local IPv6 address for this interface. This is present when the IPv6 mode is not OFF.

Mode of the Ethernet2 interface: STATIC,DHCP,VLAN

Ethernet2 IP address

Ethernet2 subnet mask

Ethernet2 router

Ethernet2 VLAN1 ID

Ethernet2 VLAN1 priority

Ethernet2 VLAN1 IP address

Ethernet2 VLAN1 subnet mask

Ethernet2 VLAN1 router

Ethernet2 VLAN2 ID

Ethernet2 VLAN2 priority

Ethernet2 VLAN2 IP address

Ethernet2 VLAN2 subnet mask

Ethernet2 VLAN2 router

Ethernet2 VLAN3 ID

Ethernet2 VLAN3 priority

Ethernet2 VLAN3 IP address

Ethernet2 VLAN3 subnet mask

Ethernet2 VLAN3 router

Ethernet2 VLAN4 ID

Ethernet2 VLAN4 priority

Ethernet2 VLAN4 IP address

Ethernet2 VLAN4 subnet mask

Ethernet2 VLAN4 router

Ethernet2 VLAN5 ID

Ethernet2 VLAN5 priority

Ethernet2 VLAN5 IP address

Ethernet2 VLAN5 subnet mask

Ethernet2 VLAN5 router

Ethernet2 VLAN6 ID

Ethernet2 VLAN6 priority

Ethernet2 VLAN6 IP address

Ethernet2 VLAN6 subnet mask

Ethernet2 VLAN6 router

Ethernet2 MAC

Controls IPv6 operation for this Ethernet interface.

he static IPv6 address to use for this interface when in operating in STATIC mode.

The IPv6 router to engage as the default router when this interface operates in STATIC mode.

One of the automatically-acquired IPv6 addresses.

One of the automatically-acquired IPv6 addresses.

One of the automatically-acquired IPv6 addresses.

One of the automatically-acquired IPv6 addresses.

The link local IPv6 address for this interface. This is present when the IPv6 mode is not OFF.

The default router/gateway

DNS server address table

DNS server address entry

Index for DNS server address

DNS server address

The hostname of the unit

Static host table

Static host entry

Index for static host

Static host declaration string (i.e. 'address hostname')

For network command processor: 1=Input characters are echoed; 0=no echo.

Network command processor inactivity timeout

ON/OFF for snmp agent

ON/OFF unit receives and stores SNMP traps/informs

File to which unit stores received SNMP traps/informs

Maximum of times the unit attempts to send a notification (trap/inform) in 1 cycle

Number of seconds between retries of sending a notification

Number of times the unit attempts a group of attempts to send a notification (a cycle)

Minutes between cycles

Enable FTP push for REGULAR (protocol: FTP) or SECURE (protocol: SFTP) operation, or disable it (OFF)

FTP server to which data should be pushed

FTP push account

FTP push directory

Minutes between pushes

Table of files to push

Entry for table of files to push

Index for table of files to push

ON/OFF push this local FILEx

ON/OFF push the audit log

ON/OFF push the alarms/events file

Table of remote names of files to push

Entry for table of remote names of files to push

Index for table of remote names of files to push

remote name of pushed FILEx (name on server)

Filename on server for alarms

ON/OFF use ftp passive mode

ON/OFF include the date in the name of the pushed file

ON/OFF include the time in the name of the pushed file

ON/OFF include a sequence number in the name of the pushed file

ON/OFF PPP dialout enabled

phone number to dial

Seconds of inactivity after which the unit disconnects

Number of dialing retries for PPP

Number of seconds to wait after dialing for CD before giving up

Seconds to wait to negotiate PPP after connecting

Modem init string to use when dialing PPP

IP address to suggest as the unit's end (local end) of the PPP link

ON/OFF look for login/password prompt before negotiating PPP

ON/OFF Unit accepts PPP negotiation

Seconds of inactivity after which PPP-hosted link will terminate

Local IP address to negotiate

Remote IP address to hand out to PPP peer

ON/OFF unit routes IP traffic from PPP/Wireless to Ethernet

ON/OFF unit routes IP traffic from Ethernet to PPP/Wireless

ON/OFF unit applies NAT on routed IP frames egressing the unit on its PPP interface

When Ethernet routing is enabled (routing.1), this is the Ethernet interface to which IP frames received on PPP are routed

Make ETH2 operate as a WAN port to route outbound traffic arriving on ETH1.

Table of IP restrictions

Entry for table of IP restrictions

Index for table of IP restrictions

ON/OFF enable this IP restriction

IP restriction mask

Table of RTS files

Entry for table of RTS files

Index for table of RTS files

RTS mode (OFF,LISTEN,PUSH) for FILEx

Show answer string upon RTS connect for FILEx

ON/OFF require XON to start flow for FILEx

Idle connection close timer (0 means no timeout) for FILEx

ON/OFF close the socket when FILEx is empty

Host to which FILEx should be pushed via RTS

TCP port to which FILEx should be pushed via RTS

Retry timer (seconds) for retrying failed RTS push connect attempts

RTS mode (OFF,LISTEN,PUSH) for alarms file

Show answer string upon RTS connect for alarms file

ON/OFF require XON to start flow for alarms file

Idle connection close timer (0 means no timeout) for alarms file

ON/OFF close the socket when this file is empty for alarms file

Host to which alarms file should be pushed via RTS

TCP port to which alarms file should be pushed via RTS

Retry timer (seconds) for retrying failed RTS push connect attempts

ON/OFF include date and time in stock trap message

ON/OFF include site name in stock trap message

ON/OFF include sensor ID in stock trap message

ON/OFF include user defined name in stock trap message

ON/OFF include user defined state in stock trap message

ON/OFF include source IP address in stock trap message

ON/OFF enable trap sent upon SNMP authentication failure

ON/OFF enable route testing

The period which a route is considered valid

Table of route testing addresses

Entry for table of RTS files

Index for table of RTS files

Address to ping to see if the route to it is valid

Wireless mode (OFF,PERMANENT-EDGE)

Wireless access point name

Wireless idle timeout

Wireless modem SIM PIN

Default route enable for wireless network interface. When this is ON, the wireless link, if up, becomes the default route, overriding the default route setting (defaultRouter object). When OFF, the default route setting controls the default route and the wireless link does not become the default route.

Username for PPP-based wireless modem connections.

Enable wireless modem firewall.

Minutes of no RX activity before sending keep-alive.

Enable wireless modem PPP debug.

Enable wireless modem connectivity check.

Wireless connectivity check interval in minutes.

Wireless connectivity fail threshold.

Wireless connectivity check IP address 1.

Wireless connectivity check IP address 2.

SMTP server to which the unit sends email

Domain to use in recipient address

ON/OFF enable SMTP authentication

ARP filter code

ON/OFF for the web interface

TCP port on which web interface listens

Web interface session timeout (seconds)

IPv4 address of the unit reachable by nodes on the network interface consisting of the Ethernet Expansion Card(s). If this is default (0.0.0.0), then each card will still convey Ethernet traffic (acting as Ethernet switch) among its nodes but those nodes will not be able to communicate with the unit.

IPv4 subnet mask for the Ethernet Expansion network interface.

Table of Ethernet Expansion cards

Entry for table of Ethernet Expansion cards

Index for table of Ethernet Expansion cards

MAC address for each Ethernet Expansion Card that is bridged together to form the Ethernet Expansion network interface.

Starting IP address for serving DHCP addresses on the Ethernet Expansion network interface. If this is default (0.0.0.0) then the unit will not run DHCP to serve addresses.

Lease time for Ethernet Expansion DHCP clients in minutes.

The IPv6 default router in use.

Table of CPEs

Entry for table of CPEs

Index for table of CPEs

CPE host (IP address or DNS name)

CPE name, informational only

CPE description, informational only

Number of seconds between each successful ping request.

Number of unsuccessful pings that triggers the CPE event.

CPE event reminder interval (minutes).

CPE ping period in 16ths of a second (nonzero overrides keepalive).

Number of bytes in CPE ping payload

Set any number to reset CPE ping stats.

Total number of requests transmitted.

Total number of non-corrupt responses.

Total number of corrupt responses.

Total number of requests with no response.

Percent loss (missing responses / total requests).

Percent corrupt (corrupt responses / total requests).

Modem data format (8N1,7E1,7O1,7N1)

Init string for modem

Max mumber of times the modem should try to call out until successful connect

Minimum delay (seconds) between callouts

Number of minutes after which an idle command session via modem is terminated

When a user connects, where that user is routed (command session, passthrough to port 1, passthrough to port 2, etc.)

ON/OFF Calling Line Identification security

Table of authorized callers identified by phone number

Entry for table of CLID numbers

Index for table of CLID numbers

auhorized CLID number

Init string to use for TAP (pager) connections

ON/OFF: use 8N1 data/parity/stop for TAP connections

Text string for date and time; e.g. 'SUN 01/02/98 12:34:27'. When setting this object, only the date and time are required; the unit will ignore a specified day of week because it is calculated from the date and time. When this object is included in a notification as a varbind, it represents the time that the triggering event occurred.

ON/OFF characters echoed on telnet command session

Minutes of inactivity after which telnet command session is terminated

Console baud rate

Console data format (8N1,7E1,7O1,7N1,8O2)

Console handshaking mode

ON/OFF Prompt to confirm certain actions

ON/OFF show password prompt upon login

ON/OFF login required upon connecting via console

ON/OFF login required upon connecting via modem

ON/OFF login required upon connecting via Telnet

ON/OFF login required upon connecting via Telnet to pass- through ports (TCP ports 210x)

ON/OFF login required upon connecting to RTS (TCP ports 220x)

Authentication mode (USERNAME/PW,PW/USERNAME,PASSWORD ONLY)

The set of aliases used for the 8 available rights levels

Shared secret for challenges

Table of users

Entry for table of users

Index for table of users

ON/OFF enable user

Methods by which user is allowed to connect: L=local (console) T=Telnet M=modem F=FTP R=RTS S=SSH

The function presented to the user upon login (COMMAND, PASSTHROUGH,MENU)

The default access file associated with the user

The function presented to the user upon escaping pass- through: currently only MENU

The kind of PPP access allowed to this user cannot connect via PPP (NONE), can connect but only to the unit (LOCAL), or can connect and route to Ethernet (ROUTING)

The rights level granted to this user

DENY/ALLOW user to read the events/alarms file

DENY/ALLOW user to read the audit log

DENY/ALLOW user to delete the events file

DENY/ALLOW user to write to the audit log

Expiration date/time of this user

Number slot 1 the unit calls for dialback

Number slot 2 the unit calls for dialback

Number slot 3 the unit calls for dialback

Telnet challenge mode: when user logs in via telnet, unit allows access (OFF), presents a challenge (CHALLENGE), or unit sends a one-time-password (SEND PASSWORD) to a destination configured by secUserChallengeTelnetSendTo

Modem challenge mode: when user logs in via modem, unit allows access (OFF), presents a challenge (CHALLENGE), sends a one-time-password (SEND PASSWORD) to a destination configured by secUserChallengeTelnetSendTo, or dials a number (CALLBACK) configured with secUserCallbackNumberx

Console challenge mode: when user logs in via console, unit allows access (OFF), or presents a challenge (CHALLENGE)

Email action used as the destination address for one-time- password when a user logs in with a challenge mode of SEND PASSWORD

Modem action used as the destination phone number for one- time-password when a user logs in with a challenge mode of SEND PASSWORD

Time (in minutes) after which a one-time-password is sent that it can be used to log in

ON/OFF enable factory access

Secret used for factory access

Table of classes

Entry for table of classes

Index for table of classes

Class name for this slot

Interval (minutes) between EventSensor reminder events

ON/OFF enable event log

ON/OFF store data alarms in event log

max size (in KB) of event log

ON/OFF store EventSensor events in event log

ON/OFF put timestamps on event log entries

ON/OFF prepend data event name to data alarm records in event log

Number of sensors that have generated events since reset. Write this to reprocess each sensor's last generated event since reset. The value to write determines what kind of events should be reprocessed: 'all': all sensor events 'cc': cc events 'temperature': temperature events 'humidity': humidity events 'analog': analog input events

ON/OFF: Data alarm evaluator stops checking record against alarm equations when it finds an equation that matches

What happens to a record that matches an equation: REJECT/ACCEPT

Character (in decimal ASCII code format) used to indicate wildcards in data alarm equation

Table of data events

Entry for table of data events

Index for table of data events

ON/OFF enable this data event

Name for this data event

Equation for this data event

Number of equation matches that must happen to trigger this data event

ON/OFF this data alarm is automatically cleared (re-armed) upon reaching the threshold number of matches

Interval at which this alarm is automatically cleared (no bearing with evdAutoClear)

Tie of day (HH:MM) at which this data alarm is cleared (no bearing with evdAutoClear)

Actions for this data event

Class for this data event

Trap number for this event

ALARM/FILTER: what is happens when this data event triggers: either generate actions (mode=ALARM) )or ACCEPT/REJECT (via evdFilterAction) the record (mode=FILTER)

Table of data event fields

Entry for table of data event fields

Index for table of data event fields

Start position (1-based) for this data event field

Number of characters this data event field occupies

Start position (1-based) for this data event field

Line number (1-based, for multiline records) for this data event field

Alpha/Numeric type for this data event field

Table of data event macros

Entry for table of data event macros

Index for table of data event macros

Name of this macro for use in data event equations

Equation for this data event macro

ON/OFF enable this no data event

Actions for this no data event

Message for this no data event

Trap number for this no data event

Class for this no data event

Schedule 1 begin time (HH:MM) for this no data event

Schedule 1 end time (HH:MM) for this no data event

Duration (minutes) for schedule 1 of this no data event

Schedule 2 begin time (HH:MM) for this no data event

Schedule 2 end time (HH:MM) for this no data event

Duration (minutes) for schedule 2 of this no data event

Table of no data event 1 port enables

Entry for table of no data event 1 port enables

Index for table of no data event 1 port enables

ON/OFF: no data event 1 observes this port

Exclusions (space-separated MM/DD-formatted dates) for this no data event

Days of the week on which this no event is active

ON/OFF enable this no data event

Actions for this no data event

Message for this no data event

Trap number for this no data event

Class for this no data event

Schedule 1 begin time (HH:MM) for this no data event

Schedule 1 end time (HH:MM) for this no data event

Duration (minutes) for schedule 1 of this no data event

Schedule 2 begin time (HH:MM) for this no data event

Schedule 2 end time (HH:MM) for this no data event

Duration (minutes) for schedule 2 of this no data event

Table of no data event 2 port enables

Entry for table of no data event 2 port enables

Index for table of no data event 2 port enables

ON/OFF: no data event 2 observes this port

Exclusions (space-separated MM/DD-formatted dates) for this no data event

Days of the week on which this no event is active

ON/OFF enable this scheduled event

Actions for this scheduled event

Message for this scheduled event

Trap number for this scheduled event

Class for this scheduled event

Time on Sunday (HH:MM) when this scheduled event triggers

Time on Monday (HH:MM) when this scheduled event triggers

Time on Tuesday (HH:MM) when this scheduled event triggers

Time on Wednesday (HH:MM) when this scheduled event triggers

Time on Thursday (HH:MM) when this scheduled event triggers

Time on Friday (HH:MM) when this scheduled event triggers

Time on Saturday (HH:MM) when this scheduled event triggers

Exclusions (space-separated MM/DD-formatted dates) for this scheduled event

ON/OFF enable this scheduled event

Actions for this scheduled event

Message for this scheduled event

Trap number for this scheduled event

Class for this scheduled event

Time on Sunday (HH:MM) when this scheduled event triggers

Time on Monday (HH:MM) when this scheduled event triggers

Time on Tuesday (HH:MM) when this scheduled event triggers

Time on Wednesday (HH:MM) when this scheduled event triggers

Time on Thursday (HH:MM) when this scheduled event triggers

Time on Friday (HH:MM) when this scheduled event triggers

Time on Saturday (HH:MM) when this scheduled event triggers

Exclusions (space-separated MM/DD-formatted dates) for this scheduled event

Table of serial handshaking low events

Entry for table of serial handshaking low events

Index for table of serial handshaking low events

ON/OFF: enable the serial handshaking low event for this port

Actions for the serial handshaking low event for this port

Message for the serial handshaking low event for this port

Class for the serial handshaking low event for this port

Trap number for the serial handshaking low event for this port

Table of serial handshaking high events

Entry for table of serial handshaking high events

Index for table of serial handshaking high events

ON/OFF: enable the serial handshaking high event for this port

Actions for the serial handshaking high event for this port

Message for the serial handshaking high event for this port

Class for the serial handshaking high event for this port

Trap number for the serial handshaking high event for this port

Timeout (seconds) after which an EventSensor becomes unresponsive that this event is triggered

Actions for no sensor event

Trap number for no sensor event

Class for no sensor event

This table organizes general fuel sensor attributes.

Entry for fuel sensor general config table.

Which fuel sensor in the fuel sensor general config table.

Fuel sensor name.

Type of fuel sensor in use; NONE disables the fuel sensor.

Distance units in use when setting and indicating tank dimensions.

Analog input reading corresponding to the SENSOR FULL point.

Distance, in the specified distance unit, between the SENSOR FULL point and the TANK FULL point. The value is positive if the SENSOR FULL point is above the TANK FULL point, and negative if it is below.

Analog input reading corresponding to the minimum fluid height measurable by the fuel sensor.

Distance, in the specified distance unit, between the SENSOR EMPTY point and the TANK EMPTY point. The value is positive if the SENSOR EMPTY point is above the TANK EMPTY point, and negative if it is below.

Which eventsensor contains the analog input associated with this fuel sensor. Allowed values are 200 (for internal ES), or 1-16.

Which analog input point, on the specified eventsensor, that is associated with the fuel sensor.

Fuel sensor filter averaging factor.

Fuel sensor System Reporting enable.

Fuel sensor System Reporting threshold (floating point value).

Fuel sensor System Reporting limit.

Fuel sensor System Reporting package number.

Fuel sensor ASM profile type.

This table organizes tank-specific fuel sensor attributes.

Entry for fuel sensor tank config table.

Which fuel sensor in the fuel sensor tank config table.

Height of the tank, from the TANK EMPTY point to the TANK FULL point, in the specified distance unit (i.e. TANK HEIGHT). This is a floating point value.