Fore-Switch-MIB: View SNMP OID List / Download MIB

An asxSwLinkDown trap signifies that the sending protocol entity recognizes a failure in one of the ATM Switch links that is connected to another switch.

An asxSwLinkUp trap signifies that the sending protocol entity recognizes that one of the ATM Switch links that is connected to another switch has come up.

An asxHostLinkDown trap signifies that the sending protocol entity recognizes a failure in one of the ATM Switch links that is connected to a host.

An asxHostLinkUp trap signifies that the sending protocol entity recognizes that one of the ATM Switch links that is connected to a host has come up.

An asxNetModuleDown trap signifies that the sending protocol entity recognizes a failure in one of the ATM Switch network modules, that is identified by the board and the module numbers. This is probably caused by a hot-swap of a network module.

An asxNetModuleUp trap signifies that the sending protocol entity recognizes a new operational ATM Switch network module, that is identified by the board and the module numbers. This is probably caused by a hot-swap of a network module.

This trap alerts that one ATM switch power supply failed due to failure in the input voltage. The power supply that failed is identified by the power supply index. Note that an input voltage may be out of spec and may not cause a power supply failure if high loads are not applied.

This trap alerts that one ATM switch power supply that had an input failure is up. The power supply that is back up is identified by the power supply index.

This trap alerts that one ATM switch power supply output failed, or the power supply was physically removed. The power supply that failed is identified by the power supply index.

This trap alerts that one ATM switch power supply that had an output failure or was removed is now up. The power supply that is back up is identified by the power supply index.

This trap alerts that one ATM switch fan bank failed. The fan bank that failed is identified by the fan bank index.

This trap alerts that one ATM switch fan bank is up. The fan bank that is back up is identified by the fan bank index.

This trap alerts that the link that is identified by portName was configured up, but its underlying physical layer has lost its carrier (or the framing bit) and is currently down.

This trap alerts that the link that is identified by portName is back up.

This trap alerts that the SPANS signalling on the link that is identified by the sigPathPort and sigPathVPI failed.

This trap alerts that the SPANS signalling on the link that is identified by the sigPathPort and sigPathVPI is up.

This trap alerts that one of the temperature sensors indicates over temperature. The temperature sensor is identified by the temperature sensor index.

This trap alerts that one of the temperature sensors indicates regular temperature. The temperature sensor is identified by the temperature sensor index.

This trap alerts that one of the temperature sensors indicates over temperature. The temperature sensor is identified by the temperature sensor index.

This trap alerts that one of the temperature sensors indicates regular temperature. The temperature sensor is identified by the temperature sensor index.

This trap indicates that the specified SONET port is experiencing Loss Of Signal. Bellcore Document TA-NWT-000253 Section 6.3.1.1.1 states that... A SONET NE shall declare a LOS failure when the LOS defect persists for 2.5 (+- .5) seconds, or when a LOS defect is present and the criteria for LOF failure declaration have been met.

This trap indicates that the LOS condition identified by trap asxSonetLOSDetected has been cleared.

This trap indicates that the specified SONET port is receiving and errored C2 Path Label byte. Reference Bellcore Document TA-NWT-000253 Section 3.3.2.3 and 6.3.1.1.8 the Path Label (C2) byte should have the value 0x13 or 0x01.

This trap indicates that the Errored Path Label (C2) byte error condition signaled by the asxSonetPathLabelDetected trap has been cleared.

This trap indicates that the specified SONET port is receiving a Line level Alarm Indication Signal from the far-end equipment.

This trap indicates that the Line AIS error condition signaled by the asxSonetLineAISDetected trap has been cleared.

This trap indicates that the specified DS3 port has detected incoming PLCP Yellow Alarm.

This trap indicates that the specified DS3 port has detected clearance of incoming PLCP Yellow Alarm.

This trap indicates that the specified DS3 port has detected incoming PLCP LOF Alarm.

This trap indicates that the specified DS3 port has detected clearance of incoming PLCP LOF Alarm.

This trap indicates that Loss Of Frame(LOF) is detected on the incoming signal.

This trap indicates that Loss Of Frame is cleared on the incoming signal.

This trap indicates that AIS Alarm is detected on the incoming signal.

This trap indicates that AIS Alarm is cleared on the incoming signal.

This trap indicates that the specified DS1 port has detected incoming PLCP Yellow Alarm.

This trap indicates that the specified DS1 port has detected clearance of incoming PLCP Yellow Alarm.

This trap indicates that the specified DS1 port has detected incoming PLCP LOF Alarm.

This trap indicates that the specified DS1 port has detected clearance of incoming PLCP LOF Alarm.

This trap indicates that Yellow Alarm is detected on the incoming signal.

This trap indicates that Yellow Alarm is cleared on the incoming signal.

This trap indicates that AIS Alarm is detected on the incoming signal.

This trap indicates that AIS Alarm is cleared on the incoming signal.

This trap indicates that LOS Alarm is detected on the incoming signal.

This trap indicates that LOS Alarm is cleared on the incoming signal.

This trap indicates that LOF Alarm is detected on the incoming signal.

This trap indicates that LOF Alarm is cleared on the incoming signal.

This trap indicates that FERF Alarm or DS3 Yellow Alarm is detected on the incoming signal.

This trap indicates that FERF Alarm or DS3 Yellow Alarm is cleared on the incoming signal.

This trap indicates that the Yellow Alarm is being detected on the incoming signal.

This trap indicates that Yellow alarm has cleared on the incoming signal.

This trap indicates that Out Of Frame (OOF) is detected on the incoming signal.

This trap indicates that Loss Of Frame is cleared on the incoming signal.

This trap indicates that the specified E3 port is experiencing Loss of Cell Deliniation (LCD). A LCD failure is declared when the LCD defect persists for a period of 2.5 +/- 0.5 seconds.

This trap indicates that the LCD failure identified by trap asxE3AtmLCDDetected has been cleared. A LCD failure is cleared when the LCD defect is absent for 10 +/- 0.5 seconds.

This trap indicates that the specified E3 port has detected incoming PLCP Yellow Alarm.

This trap indicates that the specified E3 port has detected clearance of incoming PLCP Yellow Alarm.

This trap indicates that the Yellow Alarm is being detected on the incoming signal.

This trap indicates that Yellow alarm has cleared on the incoming signal.

This trap indicates that LOF is being detected on the incoming signal.

This trap indicates that LOF is cleared on the incoming signal.

This trap indicates that the specified E1 port has detected incoming PLCP Yellow Alarm.

This trap indicates that the specified E1 port has detected clearance of incoming PLCP Yellow Alarm.

This trap indicates that the specified E1 port has detected incoming PLCP LOF Alarm.

This trap indicates that incoming PLCP LOF alarm has been cleared on the specified E1 port.

This trap indicates that the specified E1 port has detected incoming LOS Alarm.

This trap indicates that incoming LOS alarm has been cleared on the specified E1 port.

This trap indicates that the specified E1 port has detected incoming AIS Alarm.

This trap indicates that incoming AIS alarm has been cleared on the specified E1 port.

This trap indicates that the specified E3 port has detected incoming AIS Alarm.

This trap indicates that incoming AIS alarm has been cleared on the specified E3 port.

This trap indicates that the specified E3 port has detected incoming LOS Alarm.

This trap indicates that incoming LOS alarm has been cleared on the specified E3 port.

This trap indicates that the specified E3 port has detected incoming PLCP LOF Alarm.

This trap indicates that incoming PLCP LOF alarm has been cleared on the specified E3 port.

This trap indicates that Yellow Alarm is detected on the incoming signal.

This trap indicates that Yellow Alarm is cleared on the incoming signal.

This trap indicates that AIS Alarm is detected on the incoming signal.

This trap indicates that AIS Alarm is cleared on the incoming signal.

This trap indicates that LOS Alarm is detected on the incoming signal.

This trap indicates that LOS Alarm is cleared on the incoming signal.

This trap indicates that LOF Alarm is detected on the incoming signal.

This trap indicates that LOF Alarm is cleared on the incoming signal.

This trap indicates that the specified DS3 port has detected incoming LOS Alarm.

This trap indicates that the incoming LOS Alarm has been cleared on the specified DS3 port.

This trap indicates that the specified SONET port is experiencing Loss Of Frame (LOF) failure. An LOF failure is declared when the LOF defect persists fore a period of 2.5 +/- 0.5 seconds, except when an LOS defect or failure is present.

This trap indicates that the LOF failure identified by trap asxSonetLOFDetected has been cleared. The LOF failure is cleared when the LOS failure is declared, or when the LOF defect is absent for 10 +/- 0.5 seconds.

This trap indicates that the specified SONET port is experiencing Line Remote Defect Indication (LRDI). A Line RDI failure is declared when the incoming Line RDI defects lasts for 2.5 +/- 0.5 seconds.

This trap indicates that the Line RDI failure identified by trap asxSonetLineRDIDetected has been cleared. The Line RDI failure is cleared when no Line RDI defects are detected for 10 +/- 0.5 seconds.

This trap indicates that the specified SONET port is experiencing Path Alarm Inidication Signal (PAIS). A Path AIS failure is declared when the Path AIS defect persists for 2.5 +/- 0.5 seconds.

This trap indicates that the PathAIS failure identified by trap asxSonetPathAISDetected has been cleared. A PAIS failure is cleared when the PAIS defect is absent for 10 +/- 0.5 seconds.

This trap indicates that the specified SONET port is experiencing Loss Of Pointer (LOP). A LOP failure is declared when the LOP defect persists for a period of 2.5 +/- 0.5 seconds.

This trap indicates that the LOP failure identified by trap asxSonetLOPDetected has been cleared. A LOP failure is cleared when the LOP defect is absent for 10 +/- 0.5 seconds.

This trap indicates that the specified SONET port is experiencing unequiped (UNEQ). A UNEQ failure is declared when the UNEQ defect persists for a period of 2.5 +/- 0.5 seconds.

This trap indicates that the UNEQ failure identified by trap asxSonetUNEQDetected has been cleared. A UNEQ failure is cleared when the UNEQ defect is absent for 10 +/- 0.5 seconds.

This trap indicates that the specified SONET port is experiencing Path Remote Defect Indication (PRDI). A Path RDI failure is declared when the incoming Path RDI defects lasts for 2.5 +/- 0.5 seconds.

This trap indicates that the Path RDI failure identified by trap asxSonetPathRDIDetected has been cleared. The Path RDI failure is cleared when no Path RDI defects are detected for 10 +/- 0.5 seconds.

This trap indicates that the specified SONET port is experiencing Loss of Cell Deliniation (LCD). A LCD failure is declared when the LCD defect persists for a period of 2.5 +/- 0.5 seconds.

This trap indicates that the LCD failure identified by trap asxSonetAtmLCDDetected has been cleared. A LCD failure is cleared when the LCD defect is absent for 10 +/- 0.5 seconds.

This trap indicates that the specified SONET port is experiencing Bit Interleaved Parity (BIP) errors. A Line BIP failure is declared when the Line BIP defect persists for a period of 2.5 +/- 0.5 seconds.

This trap indicates that the Line BIP failure identified by trap asxSonetAtmLineBIPDetected has been cleared. A Line BIP failure is cleared when the Line BIP defect is absent for 10 +/- 0.5 seconds.

This trap indicates that an Idle Maintenance Signal (IDLE) is detected on the incoming signal.

This trap indicates that an Idle Maintenance Signal (IDLE) is cleared on the incoming signal.

This trap indicates that the specified DS3 port is experiencing Loss of Cell Deliniation (LCD). A LCD failure is declared when the LCD defect persists for a period of 2.5 +/- 0.5 seconds.

This trap indicates that the LCD failure identified by trap asxDS3AtmLCDDetected has been cleared. A LCD failure is cleared when the LCD defect is absent for 10 +/- 0.5 seconds.

This trap indicates that the specified DS3 port is experiencing P-bit Parity errors. A P-bit Parity Error failure is declared when the P-bit Parity Error persists for a period of 2.5 +/- 0.5 seconds.

This trap indicates that the P-bit Parity Error failure identified by trap asxDS3PbitPerrDetected has been cleared. A P-bit Parity Error failure is cleared when the P-bit Parity Error defect is absent for 10 +/- 0.5 seconds.

This trap indicates that PRBS pattern is detected on the incoming signal.

This trap indicates that PRBS pattern is cleared on the incoming signal.

This trap indicates that the specified DS1 port is experiencing Loss of Cell Deliniation (LCD). A LCD failure is declared when the LCD defect persists for a period of 2.5 +/- 0.5 seconds.

This trap indicates that the LCD failure identified by trap asxDS1AtmLCDDetected has been cleared. A LCD failure is cleared when the LCD defect is absent for 10 +/- 0.5 seconds.

This trap indicates that the specified DS1 port is experiencing excessive CRC-6 errors. A CRC-6 Error failure is declared when the CRC-6 Error persists for a period of 2.5 +/- 0.5 seconds.

This trap indicates that the excessive CRC-6 Error failure identified by trap asxDS1CRCErrDetected has been cleared. A CRC-6 Parity Error failure is cleared when the CRC-6 Error defect is absent for 10 +/- 0.5 seconds.

This trap indicates that a change in the trail trace message was detected on the incoming signal.

This trap indicates that the specified E1 port is experiencing Loss of Cell Deliniation (LCD). A LCD failure is declared when the LCD defect persists for a period of 2.5 +/- 0.5 seconds.

This trap indicates that the LCD failure identified by trap asxE1AtmLCDDetected has been cleared. A LCD failure is cleared when the LCD defect is absent for 10 +/- 0.5 seconds.

This trap indicates that Receive Loss of Clock (RLOC) is detected on the incoming signal.

This trap indicates that Receive Loss of Clock (RLOC) is cleared on the incoming signal.

This trap indicates that High Bit Error Rate (HBER) is detected on the incoming signal.

This trap indicates that High Bit Error Rate (HBER) is cleared on the incoming signal.

This trap indicates that Payload Alarm Indication Signal (PAIS) is detected on the incoming signal.

This trap indicates that Payload Alarm Indication SIgnal (PAIS) is cleared on the incoming signal.

This trap indicates that the specified J2 port is experiencing Loss of Cell Deliniation (LCD). A LCD failure is declared when the LCD defect persists for a period of 2.5 +/- 0.5 seconds.

This trap indicates that the LCD failure identified by trap asxJ2AtmLCDDetected has been cleared. A LCD failure is cleared when the LCD defect is absent for 10 +/- 0.5 seconds.

This trap indicates that Transmit Loss of Clock (TLOC) is detected.

This trap indicates that Transmit Loss of Clock (TLOC) is cleared.

This trap indicates that LOS Alarm is detected on the incoming signal.

This trap indicates that LOS Alarm is cleared on the incoming signal.

This trap indicates that the output queue for the given priority has exceeded its dedicated length, and has begun overflowing into the shared buffer space on the netmod.

This trap indicates that the output queue for the given priority has overflowed and cells have been dropped.

This trap indicates that a series A or B network module was inserted into a switch board running in extended mode. Multicast will not work on the series B module without removing all series D modules and rebooting the rebooted.

This trap indicates that a series C or greater network module was inserted into a switch board running in non-extended mode.

This trap is generated when the allocated callrecord memory(as indicated by crMemoryAllocated) is exceeded.

This trap is generated when the call record transfer to the primary host(as indicated by crXfrPrimaryUrl) fails.

This trap is generated when the call record transfer to the secondary host(as indicated by crXfrSecondaryUrl) fails.

This trap is generated when Callrecord functionality is unable to allocate memory as specified by crMemoryAllocated. This can happen when the crConfAdminStatus changes state from `off' or when the switch reboots when Callrecords is configured `on'.

This trap is generated when any of the callrecord related functionality fails for any reason. One example would be when the Callrecord Module fails to schedule an interval timer.

This trap indicates that automatic CDB synchronization is disabled due to failures.

This trap indicates that the backup SCP has taken control of the switch.

This trap indicates that an SCP hotswap insertion or removal has occurred.

This trap indicates that the Alarm Indication Signal (AIS) is detected on the incoming (terminating) virtual path. This trap is generated once when the virtual path is declared to be in the active AIS state.

This trap indicates that the Alarm Indication Signal (AIS) has been removed from the incoming (terminating) virtual path. This trap is generated once when the virtual path is declared to be in the inactive AIS state.

This trap indicates that the Remote Defect Indication (RDI) is detected on the incoming (terminating) virtual path. This trap is generated once when the virtual path is declared to be in the active RDI state.

This trap indicates that the Remote Defect Indication (RDI) has been removed from the incoming (terminating) virtual path. This trap is generated once when the virtual path is declared to be in the inactive RDI state.

This trap indicates that a series D network module was inserted into a switch board running in non-extended mode. Multicast will not work on the series D module without removing all series B modules and rebooting the switch.

This trap indicates that a unsupported network module was inserted into a switch.

This trap indicates that there is a change in the state of dual SCP Redundancy.

An asxIpFilterViolation trap occurs when an incoming IP packet is unauthorized to enter the switch control port and has been dropped.

This trap is generated whenever any q2931 UNI with Address Filtering enabled rejects a Setup request because the request matched a template with the action 'reject'. The variables sent in the trap identify the source and destination UNI for the call.

This trap is generated whenever any q2931 UNI with Address Filtering enabled rejects a Setup request because the address matched no template. The variables sent in the trap identify the source and destination UNI for the call.

This trap is generated whenever a switch fails to create a UNI. This is most likely due to a resource limitation on the switch.

This trap alerts that one ATM switch power supply had a curent failure. The power supply that failed is identified by the power supply index.

This trap alerts that one ATM switch power supply that had a curent failure is now up. The power supply that is back up is identified by the power supply index.

This trap alerts that one ATM switch power supply had a +5V failure. The power supply that failed is identified by the power supply index.

This trap alerts that one ATM switch power supply that had a +5V failure is now up. The power supply that is back up is identified by the power supply index.

An asxSwitchLoginDetected trap signifies that a user logged in on the switch.

An asxSwitchLoginFailed trap signifies that a user's attempt to log in on the switch failed.

This trap is generated when guardband memory reserve for any of the PNNI TDB(Topology Database) related functionalites like creation,modification and deletion on objects like node, ptse,flags,interal prefixes,external prefixes and etc fails. The switch is low on memory.

This trap is generated when PNNI TDB(Topology Database) is in an unrecoverable error condition due to MALLOC and other TDB related faliures. When this happenes the associated logical node is shutdown and this trap is sent.The switch has to be rebooted to bring this PNNI logical node up again.

This trap indicates that the output queue for the given priority has exceeded its dedicated length, and has begun overflowing into the shared buffer space on the netmod.

This trap indicates that the output queue for the given priority has overflowed and cells have been dropped.

This trap is generated when a fabric detects excessive level 3 lookup errors. The level 3 lookup count is read every second. If the lookup count is non-null for 5 consecutive seconds, then this trap is generated. If the errors continue, this trap will be generated continuously every 5 seconds. This trap can be caused by: a misconfigured PVC; bad hardware.

This trap is generated when the SCP detects inconsistant information in the HDCOMP lookup. The switch has corrected the bad information in the HDCOMP lookup ASIC's data structures.

This trap is sent when a SPVC is being re-routed due to a better path being found.

This trap is generated whenever UNI signalling goes down.

This trap is generated whenever UNI signalling goes up.

An asxFabricDown trap signifies that the sending protocol entity recognizes a failure in one of the ATM Switch fabric, that is identified by the board number. This is probably caused by a hot-swap of a fabric module.

An asxFabricUp trap signifies that the sending protocol entity recognizes a new operational ATM Switch fabric, that is identified by the board number. This is probably caused by a hot-swap of a fabric module.

This trap is generated whenever calls are cleared in a signalling interface for the following reasons. * Carrier loss * SONET alarms in case of SONE * VP failure

This trap is sent when a SPVC call is cleared or deleted. The pnniSpvcSrcDownReason indicates if the call was cleared due to a better route being found or a network failure. It also may indicate SPVC deletion. This trap is only sent if pnniSpvcTrapMode is all.

This trap is send when a SPVC call is established. It identifies the SPVC and the old and new cost. If the call has not been up before, the pnniSpvcSrcOldRouteCost will be -1. This trap is only sent if pnniSpvcTrapMode is failure or all.

This trap is sent when a SPVC call that is down fails to get connected on 16 consecutive attempts. This trap is only sent if pnniSpvcTrapMode is failure or all.

This trap is sent when a SPVP call is cleared. The pnniSpvcSrcDownReason indicates if the call was cleared due to a better route being found or a network failure. It also may indicate SPVPC deletion. This trap is only sent if pnniSpvpcTrapMode is all.

This trap is send when a SPVP call is established. It identifies the SPVP and the old and new cost. If the call has not been up before, the pnniSpvcSrcOldRouteCost will be -1. This trap is only sent if pnniSpvpcTrapMode is all or failure.

This trap is sent when a SPVP call that is down fails to get connected on 16 consecutive attempts. This trap is only sent if pnniSpvpcTrapMode is all or failure.

An asxPortCardDown trap signifies that the sending protocol entity recognizes a failure in one of the ATM Switch portcards, that is identified by the portcard name. This is probably caused by a hot-swap of the port card.

An asxPortCardUp trap signifies that the sending protocol entity recognizes a new operational ATM Switch port card, that is identified by the portcard name. This is probably caused by a hot-swap of the port card.

This trap indicates that the output queue for the service category has exceeded its dedicated length, and has begun overflowing into the shared buffer space on the netmod.

This trap indicates that the output queue for the given service category has overflowed and cells have been dropped.

This trap is generated on transition from the normal state to the overload state.

This trap is generated on transition from the overload to the normal state.

This trap is sent when a party is being re-routed due to a better path being found or if a reroute is requested using a AMI command.

This trap is send when a pmp SPVC call is established. This trap is only sent if pnniSpvcTrapMode is failure or all.

This trap is sent when a pmp SPVC call is cleared. The pnniSpvcSrcDownReason indicates if the call was cleared due to a better route being found or a network failure. This trap is only sent if pnniSpvpcTrapMode is all.

This trap is sent when a SPVC call that is down fails to get connected on 16 consecutive attempts. This trap is only sent if pnniSpvcTrapMode is failure or all.

This trap is sent when a automatic switch over occurs in a SPVC Redundancy group that has automatic PVC switch over enabled.

This trap is sent when the SVx/SPVx Preservation module is unable to transfer call and interface state information to the Standby SCP, due either to temporary unavailablility of system resources or to a permanent system error requiring a system reboot.

This trap is sent when the SVx/SPVx Preservation module has restarted its transfer of call and interface state information to the Standby SCP, which transfer was halted due to unavailablility of system resources.

This trap is sent when the SVx/SPVx Preservation module has insufficient memory to store one or more calls during its transfer of call and interface state information to the Standby SCP. Such calls therefore will be lost (not preserved on switchover). This trap is sent only once, no matter how many calls suffer this fate. Recovering any lost calls is possible only by disabling and then re-enabling SVx/SPVx Preservation, in order to provoke a complete retrial of the transfer process.

A table of ATM switch board information.

A table entry containing ATM switch board information.

The index of this board within the ATM switch.

The ATM switch board version number in hex. The version number 0x1 is revision A, 0x2 is revision B etc. Version number 0x0 represents an unknown type.

The ATM switch board model number. Enumeration: 'le25': 19, 'asx150': 22, 'sfcs200wg': 10, 'asx200wg': 4, 'sfcs1000': 12, 'tnx1100': 16, 'unknown': 0, 'tnx1100b': 21, 'sfcs200bx': 11, 'asx4000': 18, 'asx200bx': 5, 'asx1200': 17, 'cabletron9A000': 7, 'asx100': 1, 'asx200bxe': 6, 'asx1000': 8, 'esx3000': 20, 'le155': 9, 'asx200': 2, 'tnx210': 15.

The ATM switch board serial number.

The number of network modules on this ATM switch board.

The number of VPI lookup errors.

The number of VCI lookup errors.

This object identifies the index for the control port on this switch board.

This object identifies the version number of the HDCOMP ASIC on this switch board.

This object is the index into mcastSpaceTable that gives the number of multicast connections currently supported on this board. Changing this value has the effect of changing the number of multicast connections supported. Change will be effective after reboot only.

The number of switch boards on this ATM switch.

The time the procUtilValue was last updated

The percentage of the processor power that has been used over the last monitoring interval

The amount of time between calculations of the procUtilValue. This value is expressed in units of 10 msec, (100 per sec). This value may take the value of 1 to 60 seconds

The MIN percentage of the processor power that has been. This value can be reset by setting the field procUtilHistoryReset.

The time the procUtilMinLoad was last updated

The MAX percentage of the processor power that has been. This value can be reset by setting the field procUtilHistoryReset.

The time the procUtilMaxLoad was last updated

This is in effect a WRITE_ONLY field. Setting this field resets the procUtilMinLoad, procUtilMinLoadLastUpdate, procUtilMaxLoad, and procUtilMaxLoadLastUpdate. This field can be set to anything by the NMS. When this field is read, it will always report NULL.

The number of malloc partitions used on this SCP.

The partition ID os the system MALLOC pool. Use this value as an ID into the mallocUtilTable to view the system malloc pool statistics

A table containing malloc statistics for each memory partition

A table containing malloc statistics for each memory partition

The partition number for this malloc partition. The switch has a default partition named (procUtilsSystemPartitionID).

Number of Free Bytes in this partition

The number of free blocks in this partition

The max block size that is free

Number of allocated bytes in this partition

The number of allocated blocks in this partiton

mbufs obtained from page pool

clusters obtained from page pool

interface pages obtained from page pool

Free Clusters

Times failed to find space

Times waited for space

Times drained protocols for space

# of mbufs allocated to free list

# of mbufs allocated to dynamic (data) allocation

# of mbufs allocated to packet headers

# of mbufs allocated to socket structures

# of mbufs allocated to protocol control blocks

# of mbufs allocated to routing tables

# of mbufs allocated to IMP Host Tables

# of mbufs allocated to Address Resolution Tables

# of mbufs allocated to Socket Name

# of mbufs allocated to Zombie Processes

# of mbufs allocated to Socket Options

# of mbufs allocated to Fragment Re-assembly Headers

# of mbufs allocated to Access Rights

# of mbufs allocated to Interface Addresses

A table of ATM switch fabric statistics information.

A table entry containing ATM switch fabric statistics information.

The index of this fabric within the ATM switch.

The index of this statistics within the ATM switch fabric.

The name of this statistics within the ATM switch fabric.

The value of this statistics within the ATM switch fabric.

A table of ATM switch port card information.

A table entry containing ATM switch port card information.

The unique index of this port card within the ATM switch.

The name of this port card.

The flavor of this port card.

The type description of this port card.

The length of time this port card has been up in hundredths of a second.

The serial number of this port card.

The assembly revision number of this port card.

The hardware configuration number of this port card.

The desired state of this port card. If set to reset(1), the port card is reset. Normally, when the port card is active, it is inService(2). Enumeration: 'reset': 1, 'outOfService': 3, 'inService': 2.

A table of ATM switch fabric traffic management features that can be controlled per fabric and per priority.

A table entry of ATM switch fabric traffic management features that can be controlled per fabric and per priority.

The index of the fabric.

The index of the traffic priority.

The index of the feature. Feature 1 is EPD Threshold.

The name of the traffic priority (e.g. CBR or UBR).

The value of the specified feature for the specified priority.

A table of network module information.

A table entry containing network module information.

The index of this board within the ATM switch.

The number of this network module within the ATM switch.

The type name of this network module within the ATM switch.

The speed of this network module within the ATM switch.

The number of ports on this network module.

The length of time this network module has been up, in hundredths of a second.

The hardware major revision number of the network module. For generationD network modules this revision number is an ascii character value.

The hardware minor revision number of the network module.

The hardware version of this network module. Enumeration: 'generationC2': 67, 'generationE': 10, 'generationD': 6, 'generationA': 1, 'generationC': 3, 'generationB': 2, 'generationPCF1': 11, 'generationLC': 4, 'generationLE': 5, 'generationPC2': 8, 'generationPC1': 7.

Does this network module support distributed timing? Enumeration: 'yes': 2, 'no': 1.

The product number of this network module.

The desired state of this network module. If set to reset(1), the netmod is reset. Normally, when the netmod is active, it is inService(2). To put a netmod out of service, this entry must be set to outOfService(3). Enumeration: 'reset': 1, 'outOfService': 3, 'resetPair': 4, 'inService': 2.

The string representing the serial number for this network module.

This variable indicates the hardware test configuration of the network module. It can be set to startTest(2), which starts the hardware tests on the network module. abortTest(3) aborts the test, if the network module is under test. The network module returns to normal(0) after the test ends or is aborted. Enumeration: 'startTest': 2, 'abortTest': 3, 'normal': 1.

The status of the hardware tests on the network module. normal (1) indicates that the network module has never undergone hardware tests. The network module is underTest (2), after the test is started on it, and goes to testSuccessful (3) or testFailed (4), after the tests end. If the tests are aborted, the network module goes to testAborted (5) state. Those network modules that do not support hardware tests like Series-C and LC modules, are in testUnsupported (6) state. Enumeration: 'normal': 1, 'testUnsupported': 6, 'underTest': 2, 'testAborted': 5, 'testSuccessful': 3, 'testFailed': 4.

A message describing the status of the current test

The actual state of this network module. The netmod state is directed by the moduleState variable. This variable gives the actual state at a given time (which may lag behind the moduleState by several seconds). Enumeration: 'outOfService': 2, 'inService': 1.

The Common Language Equipment identifications (CLEI) of this network module.

A table of output buffer information.

A table entry containing output buffer information.

The index of this output buffer's switch board.

The number of the network module for this output buffer.

The Priority of this output buffer- 0 is lowest priority

The operational status of this output buffer. Enumeration: 'disabled': 3, 'other': 1, 'enabled': 2.

The logical size of this output buffer, in cells.

The number of cells in this output buffer.

The number of cells dropped because this output buffer was full.

The priority name (eg. CBR, VBR) for this buffer.

The name (eg. 1, 1A) of this buffer.

A table of hardware port information.

A table entry containing hardware port information.

The switch board index of this port.

The network module number of this port.

The number of this port within its network module.

The generation of this network module. In general, generation A indicates the most original FORE Systems netmods. Generation-B are intermediate DS3/E3/TAXI. Generation-C are shared-memory based netmods. Enumeration: 'generationC2': 67, 'generationE': 10, 'generationD': 6, 'generationA': 1, 'generationC': 3, 'generationB': 2, 'generationPCF1': 11, 'generationLC': 4, 'generationLE': 5, 'generationPC2': 8, 'generationPC1': 7.

The type of physical connection of this port. The model-ASX(7) indicates this is the control port of the switch. NOTE: as of 2/8/95 the elements model-6port-TAXI-100(6) and model-DS3-PDH(16) should no longer be used. Use the basic types model-TAXI-100(1) and model-DS3(3) to indicate these. Enumeration: 'model-FRAME1': 26, 'model-RJ-45': 29, 'model-STM1': 31, 'model-OC12': 8, 'model-ASX-BP': 22, 'model-CESDS1': 23, 'model-E3': 17, 'model-E1': 20, 'model-IMADS1': 27, 'model-IMAE1': 28, 'model-ASX-CTL': 7, 'model-OC3': 4, 'model-CHOC12': 30, 'model-FRAMDS1': 25, 'model-CESE1': 24, 'model-J2': 18, 'model-DS1': 19, 'model-DS3': 3, 'model-OC48': 9, 'model-TAXI-100': 1, 'model-CHOC3': 34, 'model-ETH': 35, 'model-TAXI-140': 2, 'model-TP25': 21, 'model-8B10B': 5, 'model-6port-TAXI-100': 6, 'model-DS3-PDH': 16, 'model-OC12-POS': 33, 'model-OC3-POS': 32.

The operational status of this port. If a port was administered up (by hwPortAdminStatus), but the carrier or the framing bits were lost, the hwPortOperStatus indicates that the port is down(3). Otherwise, the hwPortOperStatus is up(2). Enumeration: 'down': 3, 'unused': 4, 'other': 1, 'up': 2.

The logical size of this port's output buffer, in cells.

The number of cells in this port's output buffer.

The number of seconds in which cells were dropped because this port's output buffer was full.

The number of seconds in which errored cells were dropped by this port.

The presence or absence of carrier at this port. Enumeration: 'carrier': 1, 'noCarrier': 2.

The global index of this port within the ATM switch as a whole. It corresponds to the port number used in the software group of this MIB.

A textual description of the port indicating the Board Network module and Port (BNP) identifiers. The module is indicated by a letter (A-D), while the board and the port are indicated by numbers.

The administrative state of the physical layer of this port. When a port is configured up(1), the physical layer is configured to process all physical layer events including the transmission and reception of data (cells). When a port is configured down(2), the physical layer should be shut down and should ignore all physical layer events (e.g. cell reception, carrier loss, loss of framing, parity errors, etc.). The operational status of a port is reflected in the hwPortOperStatus object. Enumeration: 'down': 2, 'up': 1.

This variable represents the loopback status of a TAXI port. For non-TAXI ports (e.g. DS3/E3 or SONET) the loopback configuration should be set in their specific tables. Enumeration: 'noLoopback': 1, 'loopback': 2.

The LED model to use for setting the colors of the LEDs on each port. LAN models typically blink the LEDs when data is transmitted or received on the port. WAN models typically keep the LEDs green unless an error condition exists on the port. With SONET netmods the LED models use the following algorithms: LAN (3 states): if (LOS || LOF || AIS_L || LOP_P || UNEQ_P || PLM_P || LCD) { rxLED = RED } else if (RDI_L) { rxLED = YELLOW } else { rxLED = AUTO } txLED = AUTO WAN (3 states): if (LOS || LOF || AIS_L || LOP_P || UNEQ_P || PLM_P || LCD) { rxLED = RED } else if (RDI_L) { rxLED = YELLOW } else { rxLED = GREEN } txLED = GREEN With LAN and WAN models: RED means fault in receive direction, YELLOW means fault in transmit direction (RDI_L defect), AUTO/GREEN means no fault. Only the receive LED color is changed. These models show only three states and do not reflect the status of the AIS_P and RDI_P defects. Enumeration: 'wan': 2, 'lan': 1.

Indicates the color of the transmit LED for this port. Auto means that the LED is under hardware control. Typically hardware control means that the LED is normally dark with green blinks to indicate data traffic. Enumeration: 'green': 2, 'off': 1, 'yellow': 4, 'red': 3, 'auto': 5.

Indicates the color of the receive LED for this port. Auto means that the LED is under hardware control. Typically hardware control means that the LED is normally dark with green blinks to indicate data traffic. Enumeration: 'green': 2, 'off': 1, 'yellow': 4, 'red': 3, 'auto': 5.

This entry indicates the IfIndex used to identify this port. It corresponds to the ifIndex used in the rfc2233 rfc1573 ifTables

The synchronization LED which only applies to the receivers. When green, it indicates that the port is providing the 8 khz clock reference to the switch. This is a new entry which makes sense to those netmod ( currently only FRAM netmod support this LED) which can provide a 8 khz clock reference to the switch. At the netmod scope, only one such LED should be green if the switch is importing a port timing clock. Enumeration: 'green': 2, 'off': 1.

Indicates when this port's physical interface counters were reset. The TimeStamp is equal to moduleUptime when the reset occurred. If this ports counters were never reset, hwPortCounterResetTime will be zero. This variable is updated whenever hwPortCounterReset or switchCounterReset is written.

Writing a value of resetRequest will result in a reset of all physical interface counters on this port. VCC indexed counters are excluded. A response value of resetTrue indicates a resetRequest has succeeded and is currently in effect. A response value of resetFalse indicates a reset is not currently in effect. Enumeration: 'resetTrue': 3, 'resetFalse': 4, 'resetRequest': 1.

The speed of this physical port in the ATM switch.

A table of network module alarms information categorized on a per slot basis.

A table entry containing network module alarm information.

This number represents the unique number of this netmod within the ATM switch. This number starts at 0.

The priority assigned to this slot. Possible values are High (corresponding to netmodRemovedHighPrio), Low (corresponding to netmodRemovedLowPrio) and None (default) Enumeration: 'high': 1, 'none': 3, 'low': 2.

The presence/absence of a netmod in this slot is determined by this variable. Enumeration: 'absent': 2, 'present': 1.

The name of this netmod. Example: 1A, 3D for ASX4000 and A, B for pre-ASX4000 switches.

A table for information about HDCOMPs.

A table for information about HDCOMPs.

Index of the HDCOMP on the switch.

Description of the HDCOMP location on the switch.

Version number of the HDCOMP ASIC on the switch.

The number of VPI lookup errors.

The number of VCI lookup errors.

A table consisting of hardware components that have on-board CPUs. Currently, the FR/ATM, FUNI and IMA network modules appear in this table.

A table entry containing application module information.

The index of the application module in this switch.

The name of this application module.

The operational state of this network module's hardware. Enumeration: 'shutDownInProgress': 4, 'notConfigured': 1, 'up': 3, 'down': 5, 'failed': 6, 'hwInitInProgress': 2.

A text string describing the current state of the hardware.

This variable indicates the application(s) running on this application module.

Version of the software running on this application module.

Version of the BOOT PROM software on this application module.

The color of the OOS LED on the application module. This LED is off (1) when the network module is up and running and red (2) when the network module is down (administratively placed out of service or operationally down temporarily). For example, when the network module's hardware initialization is in progress, the LED will be red until the hardware initialization is complete. Enumeration: 'off': 1, 'red': 2.

This variable indicates the action to be taken if the on-board CPU fails. This module will be reset if this variable is set to reset(1) and will be suspended if this variable is set to suspend(2). Enumeration: 'reset': 1, 'suspend': 2.

This table is deprecated as the advanced timing options are removed.

A table entry containing network modeul timing information.

The index of this board within the ATM switch.

The number of this network module within the switch board.

The port number on this network module that provides the primary 8KHz reference clock from its received signal.

The port number on this network module that provides the secondary 8KHz reference clock from its received signal.

The primary 8KHz clock exported by this network module. The exported clock may be used as the network module global clock, which in turn, may be used by all ports that link their transmit clock to the network module global clock. The noClock option is valid only for tp25 (25mb) netmods. Enumeration: 'primaryRecoveredClock': 1, 'crystalClock': 2, 'noClock': 3.

The secondary 8KHz clock exported by this network module. The exported clock may be used as the network module global clock. The secondary exported clock will be used if the primary exported clock is not available. The noClock option is valid only for tp25 (25mb) netmods. Enumeration: 'crystalClock': 2, 'noClock': 3, 'secondaryRecoveredClock': 1.

The global 8KHz clock that is available to every port on this network module, when the port links its trasnmit clock to the network module global clock. Enumeration: 'exportClock': 1, 'importClock': 2.

The currently active 8KHz clock configuration. The tertiaryClock(3) is determined by the switch control software if both the primary and secondary clocks are not available. Enumeration: 'crystalClock': 3, 'secondaryClock': 2, 'primaryClock': 1.

The primary 8kHz clock imported by this network module. The imported clock may be used as the network module global clock, which in turn, may be used by all ports that link their transmit clock to the network module global clock. Enumeration: 'netmodBExportClock': 2, 'board3PrimaryClock': 7, 'board2PrimaryClock': 6, 'managementStationClock': 9, 'netmodAExportClock': 1, 'netmodCExportClock': 3, 'netmodDExportClock': 4, 'board4PrimaryClock': 8, 'board1PrimaryClock': 5.

The secondary 8kHz clock imported by this network module. The imported clock may be used as the network module global clock. The secondary imported clock will be used if the primary imported clock is not available. Enumeration: 'netmodBExportClock': 2, 'board3PrimaryClock': 7, 'board2PrimaryClock': 6, 'managementStationClock': 9, 'netmodAExportClock': 1, 'netmodCExportClock': 3, 'netmodDExportClock': 4, 'board4PrimaryClock': 8, 'board1PrimaryClock': 5.

The currently active 8kHz import clock configuration. The tertiaryClock(3) is determined by the switch control software if both the primary and secondary clocks are not available. Enumeration: 'netmodExportClock': 3, 'secondaryClock': 2, 'primaryClock': 1.

This table is deprecated as the advanced timing options are removed.

A table entry containing switch board timing information.

The index of this board within the ATM switch.

The source of the primary 8kHz clock for this board. The clock may be used by each network module in the switch as the network module import clock. The clock may also be used by the management station as the primary or secondary source of the Stratum 3E clock. Enumeration: 'netmodAExportClock': 1, 'netmodBExportClock': 2, 'netmodCExportClock': 3, 'netmodDExportClock': 4, 'netmodNone': 5.

The source of the secondary 8kHz clock. The clock may be used by the management station as the primary or secondary source of the Stratum 3E clock. Enumeration: 'netmodAExportClock': 1, 'netmodBExportClock': 2, 'netmodCExportClock': 3, 'netmodDExportClock': 4, 'netmodNone': 5.

The current state of the 8kHz primary clock. Enumeration: 'clockDown': 2, 'clockUp': 1.

The current state of the 8kHz secondary clock. Enumeration: 'clockDown': 2, 'clockUp': 1.

A table of switch alarm definitions and configuration.

A table entry containing switch alarm definitions.

The type of the alarm. Enumeration: 'fabricRemoved': 11, 'powerSupplyOverCurrent': 7, 'tempSensorOverTemp': 4, 'fanBankFailed': 3, 'allTimingRefsFailed': 14, 'powerSupplyInputFailed': 1, 'linkFailed': 5, 'powerSupplyOutputFailed': 2, 'singleTimingRefFailed': 13, 'spansFailed': 6, 'allTCMsFailed': 16, 'genPortFailure': 12, 'netmodRemovedHighPrio': 9, 'powerSupply5VoltFailed': 8, 'singleTCMFailed': 15, 'netmodRemovedLowPrio': 10.

The status of this alarm entry. An alarm becomes active if the underlying condition is detected. For power supplies, the input failed alarm condition is asserted if the input voltage is not within the nominal range for the supply. This does not necessarily mean that an ouput failure will result. A power supply output failure condition is asserted if any power supply is failing or if it is physically removed. Power supply output alarms are only applicable to switches with multiple power supplies. Fan bank and temperature sensor failures are applicable only to switches with the appropriate sensing capabilities. Link and spans failures are applicable to all switches. Enumeration: 'active': 1, 'inactive': 2.

This object indicates whether a minor alarm is triggered when this event occurs. Enumeration: 'disabled': 2, 'enabled': 1.

This object indicates whether a major alarm is triggered when this event occurs. Enumeration: 'disabled': 2, 'enabled': 1.

The manager may set this to the value 0 or 1 to cancel a current alarm. This is useful for silencing alarms triggered via edge detection. If this variable is readable, then the alarm is resettable. Enumeration: 'default': 0, 'enabled': 1.

This object indicates whether a critical alarm is triggered when this event occurs. This is supported only on certain platforms. Enumeration: 'disabled': 2, 'enabled': 1.

This object indicates the Alarm Cutoff Status(ACO) of this alarm entry. To silence an active alarm relay condition this value can be set to on(1), by pushing the front panel ACO button. The ACO is turned off when the alarm status(SwAlarmStatus) becomes inactive. Enumeration: 'on': 1, 'off': 2.

This object indicates the current state of the major alarm relay. If one or more of the alarms (swAlarmType) that are defined major (swAlarmMajorCategory) are currently active (swAlarmStatus), and the alarm cutoff(swAlarmACOState) is off then this object will be on(1). Enumeration: 'on': 1, 'off': 2.

This object indicates the current state of the minor alarm relay. If one or more of the alarms (swAlarmType) that are defined minor (swAlarmMinorCategory) are currently active (swAlarmStatus), and the alarm cutoff(swAlarmACOState) is off then this object will be on(1). Enumeration: 'on': 1, 'off': 2.

This object indicates the current state of the critical alarm relay. If one or more of the alarms (swAlarmType) that are defined critical (swAlarmCriticalCategory) are currently active (swAlarmStatus), and the alarm cutoff(swAlarmACOState) is off then this object will be on(1). Enumeration: 'on': 1, 'off': 2.

This table contains the alarm relay definitions for the switch alarms

This entry contains the alarm relay definitions for the switch alarms.

This is the index of the alarm relay on the switch.

This is the alarm function associated with an alarm relay on the switch. An alarm relay may either be unused, assigned to one of critical, major and minor alarm. Enumeration: 'swUnusedRelay': 1, 'swCriticalAlarmRelay': 4, 'swMinorAlarmRelay': 3, 'swMajorAlarmRelay': 2.

This is the current state of the alarm relay. The state 'on' means that the alarm relay is activated; the state 'off' means that it is deactivated. Enumeration: 'on': 1, 'off': 2.

This variable represents the operational mode of the relay. The operational mode 'enabled' means that the relay is under software control and the relay state will reflect 'on' or 'off' according to the alarm conditions. 'disabled' will make the alarm relay state always 'off'. 'test' will make it always 'on'. Enumeration: 'disabled': 2, 'test': 3, 'enabled': 1.

The maximum number of power supplies that can be installed on this ATM switch.

The number of power supply entries in the power supply table. This is the number of power supplies actually present.

A table of power supply information.

A table entry containing power supply information.

The index of this power supply.

The type of this power supply. Enumeration: 'ps30ADC': 7, 'psRM1000HA': 6, 'psRM1000HA-C': 8, 'psAutoRangeAC': 4, 'ps48VDC': 5, 'psUnknown': 1.

The state of the input voltage to this power supply.

The status of the output of this power supply. In case there are several output supplies (like +5V, +12V, -12V) this object indicates the aggregate state of all outputs.

The serial number of this power supply, if available.

The version of this power supply, if available.

The state of the current on the input return path of this power supply. Should be within 28A +/-2A.

The state of the +5V output of this power supply. Should be within tolerance of 5.0 +/-0.1VDC.

The number of fan banks on this ATM switch.

A table of fan bank information.

A table entry containing fan bank information.

The index of this fan bank.

The status of the fan bank.

Serial number of the fan tray.

The type of fan bank installed.

The revision of the fan bank, as an ASCII character.

The number of temperature sensors installed on this ATM switch.

A table of temperature sensors information.

A table entry containing temperature sensor information.

The index of this temperature sensor. The value of the index provides an indication of the location and function of the temperature sensor. The set of temperature sensors may vary by switch type. Enumeration: 'power-supply-5': 6, 'power-supply-1': 2, 'power-supply-2': 3, 'power-supply-3': 4, 'power-supply-4': 5, 'enclosure': 1.

The temperature state of this sensor. Enumeration: 'overTemp': 2, 'normal': 1.

The maximum number of CPUs that can be installed on this ATM switch.

The number entries in the CPU table.

A table of CPU information.

A table entry containing CPU information.

The board index of this CPU.

The slot index of this CPU.

The type of this CPU. The i960 processor further can be of three types - ca, cf and ha. Enumeration: 'cpv5000': 11, 'p266': 12, 'p6': 10, 'i960cf': 6, 'i960ca': 5, 'sparc': 4, 'other': 1, 'p200': 13, 'sun4c': 3, 'p55': 9, 'i960hd': 8, 'sun4e': 2, 'i960ha': 7.

The state of the processor. Enumeration: 'fail': 2, 'standby': 3, 'boot': 4, 'normal': 1.

The size of the DRAM in bytes installed on the SCP.

The revision level of the processor.

Size of Flash in bytes installed on this SCP board.

Revision number of this SCP board. A 32-bit number with the most significant 16 bits represent the revison alphabet. For example, 0x20000 represents Rev B, 0xd0000 represents Rev M.

Revision number of the SCP PROM. Currently only available for boards with i960HA and i960HD processors. A 32-bit number. For example, 0x20000 represents Rev 2.0 and 0x20001 represents Rev 2.1

MAC address of ethernet chip on the SCP board.

Serial number of the SCP card. This gives the SCPIM serial number on an ASX-4000.

Product part number of the SCE. This gives the marketing product part number of RASCAL.

The Common Language Equipment Identification (CLEI) of this SCP.

Size of IDE disk in bytes installed on this SCP board.

The board type of the management station or backplane.

The board revision number of the management station or backplane.

The serial number of the management station or backplane.

The temperature threshold in degrees C at which a fabric temperature alarm will be raised.

The temperature in degrees C at which a fabric temperature alarm will be cancelled.

A table of fabric environmental information

A table containing fabric environmental information

The index of the fabric

The temperature measured at the fabric, in degrees C

The software state of this fabric temperature sensor. This will indicate `normal' until the sensor temperature reaches the current trip threshold. It will then indicate `overTemp' until the temperature reaches the current reset threshold (or until the switch fabric is restarted). Enumeration: 'overTemp': 2, 'normal': 1.

A table for shared memory network modules configuration. Implementation of this table is mandatory if at least one of the network modules' hardware is based on shared memory. The user should walk this table and select the shared memory configuration that suits his/her needs. The selection is done in the specific network module shared memory configuration entry (netmodShmemTable).

A table entry containing shared memory network module configuration information.

The index of this shared memory configuration.

The maximum number of unicast connections that is supported by this shared memory configuration.

The maximum number of multicast connections that is supported by this shared memory configuration.

The memory allocated for VPI/VCI lists (which is used for multicast connections) by this shared memory configuration.

The number of cells buffers that is supported by this shared memory configuration.

The name of this shared memory configuration.

The size of this shared memory configuration in units of 48 bit words (x48).

A table for shared memory network modules configuration. Implementation of this table is mandatory if the network module hardware is based on shared memory.

A table entry containing shared memory network module configuration information.

The index of this board within the ATM switch.

The number of this network module within the switch board.

This object identify the row in the shared memory configuration table that was selected for this network module.

The amount of memory that was configured for this network module given all the user requirements as specified in the selected shared memory configuration row.

The current number of unicast connections active on this shared memory network module.

The current number of multicast connections active on this shared memory network module.

The current number of VPI/VCI lists active on this shared memory network module.

The current number cells buffers active on this shared memory network module.

The current value of the used shared memory on this network module.

The AAL5 packet drop threshold in percentage of cells. The switch software provides a reasonable default, however, the user may wish to change this value according to the type of traffic and size of packets being transmitted on the network.

This variable establishes the setting fo the XACPT bit in the fs200sm main control register (section 3.1). This bit determines whether the signal XACPT is asserted whenever the shared memory is full. XACPT prevents the switch from sending cells to the network module. This bit takes advantage of any buffers on the switch to reduce cell loss, but it should not be used if guaranteed cell delay is being provided to high priority cells. Enumeration: 'assertXACPT': 2, 'clearXACPT': 1.

The size of this Series-C network module's shared memory in units of 48 bit words (x48).

A table for shared memory network modules configuration that is specified on a port basis. Implementation of this table is mandatory if the network module hardware is based on shared memory.

A table entry containing port configuration information for shared memory network modules.

The index of this board within the ATM switch.

The number of this network module within the switch board.

The number of this port within the switch board and network module.

The maximum transmitting CDV (Cell Delay Variation) in microseconds for CBR (Constant Bit Rate) / rtVBR (Real-Time Variable Bit Rate) traffic.

The maximum transmitting CDV (Cell Delay Variation) in microseconds for nrtVBR (Non-Real-Time Variable Bit Rate) traffic.

The dedicated queue size in cells for ABR (Available Bit Rate) traffic.

The treshold on which the EFCI (Explicit Forward Congestion Indication) bit is turned on for ABR (Available Bit Rate) and UBR (Unspecified Bit Rate) traffic.

The treshold on which the EFCI (Explicit Forward Congestion Indication) bit is turned off for ABR (Available Bit Rate) and UBR (Unspecified Bit Rate) traffic.

The dedicated queue size in cells for CBR (Constant Bit Rate) / rtVBR (Real-Time Variable Bit Rate) traffic.

The dedicated queue size in cells for nrtVBR (Non-Real-Time Variable Bit Rate) traffic.

The CLP=1 discard threshold in cells for CBR (Constant Bit Rate) / rtVBR (Real-Time Variable Bit Rate) traffic.

The CLP=1 discard threshold in cells for nrtVBR (Non-Real-Time Variable Bit Rate) traffic.

The CLP=1 discard threshold in cells for ABR (Available Bit Rate) traffic.

The Atm interface index correspong to this port. This is also the index of the portTable.

A table for current state of port on shared memory network modules. Implementation of this table is mandatory if the network module hardware is based on shared memory.

A table entry containing current port configuration information for shared memory network modules.

The index of this board within the ATM switch.

The number of this network module within the switch board.

The number of this port within the switch board and network module.

The traffic type. Enumeration: 'priorityUBR-ABR': 1, 'priorityVBR': 2, 'priorityCBR': 3.

The threshold level in number of cells in which CLP=1 cells will be dropped.

The dedicated queue size for this type of traffic as was calculated by the switch software. The dedicated queue size is determined by the configured maximum CDV (Cell Delay Variation) for CBR/rtVBR (Constant Bit Rate / Real-Time Variable Bit Rate) and nrtVBR (Non-Real-Time Variable Bit Rate) as well as the configurable queue size for ABR (Available Bit Rate) and UBR (Unspecified Bit Rate) traffic.

The current size of the queue.

The number of cells that were transmitted for this port and priority queue.

The total number of cells that were lost for this port and priority queue.

A table for shared memory network modules configuration. Implementation of this table is mandatory if at least one of the network modules' hardware is based on shared memory. The user should walk this table and select the shared memory configuration that suits his/her needs. The selection is done in the specific network module shared memory configuration entry (netmodShmemTable).

A table entry containing shared memory network module configuration information.

The index of this shared memory configuration.

The maximum number of unicast connections that is supported by this shared memory configuration.

The maximum number of multicast connections that is supported by this shared memory configuration.

The number of cells buffers that is supported by this shared memory configuration.

The name of this shared memory configuration.

The number of counters that is supported by this shared memory configuration.

The size of this shared memory cell RAM configuration in units of 64 bit words (x64).

The size of this shared memory table RAM configuration in units of 32 bit words (x32).

The number of priorities that this shared memory configuration supports.

A table for shared memory network modules configuration. Implementation of this table is mandatory if the network module hardware is based on shared memory.

A table entry containing shared memory network module configuration information.

The index of this board within the ATM switch.

The number of this network module within the switch board.

This object identify the row in the shared memory configuration table that was selected for this network module.

The amount of memory that was configured for this network module given all the user requirements as specified in the selected shared memory configuration row.

The current number of unicast connections active on this shared memory network module.

The current number of multicast connections active on this shared memory network module.

The current number cells buffers active on this shared memory network module.

The current value of the used shared memory on this network module.

The AAL5 packet drop threshold in percentage of cells. The switch software provides a reasonable default, however, the user may wish to change this value according to the type of traffic and size of packets being transmitted on the network.

The AAL5 packet drop threshold, in percentage of cells for UBR queue in a four priority configuration or priorityNrt queue in a two priority configuration. The switch software provides a reasonable default. However, the user may wish to change this value according to the type of traffic and size of packets being transmitted on the network.

The threshold on which the EFCI (Explicit Forward Congestion Indication) is enabled for UBR (Unspecified Bit Rate) and ABR (Available Bit Rate) traffic.

The threshold on which the EFCI (Explicit Forward Congestion Indication) is disabled for UBR (Unspecified Bit Rate) and ABR (Available Bit Rate) traffic.

The size of this shared memory cell RAM configuration in units of 64 bit words (x64).

The size of this shared memory table RAM configuration in units of 32 bit words (x32).

The number of priorities that this network module supports.

The queue through which VBR traffic is routed in a two priority configuration (priorityRt or priorityNrt). For a four priority configuration, it is unSupported. Enumeration: 'priorityRt': 1, 'unSupported': 3, 'priorityNrt': 2.

A table for shared memory custom BCS mappings

A table entry containing shared memory custom BCS mappings

The index of this board within the ATM switch.

The number of this network module within the switch board.

The value of this BCS

The weight assigned to this BCS

Administrative status of this entry

A table for shared memory network modules configuration that is specified on a port basis. Implementation of this table is mandatory if the network module hardware is based on shared memory.

A table entry containing port configuration information for shared memory network modules.

The index of this board within the ATM switch.

The number of this network module within the switch board.

The number of this port within the switch board and network module.

The dedicated queue size in cells for CBR (Constant Bit Rate) / rtVBR (Real-Time Variable Bit Rate) traffic.

The dedicated queue size in cells for nrtVBR (Non-Real-Time Variable Bit Rate) traffic.

The dedicated queue size in cells for ABR (Available Bit Rate) traffic.

The dedicated queue size in cells for UBR (Unspecified Bit Rate) traffic.

The CLP=1 discard threshold in cells for CBR (Constant Bit Rate) / rtVBR (Real-Time Variable Bit Rate) traffic.

The CLP=1 discard threshold in cells for nrtVBR (Non-Real-Time Variable Bit Rate) traffic.

The CLP=1 discard threshold in cells for ABR (Available Bit Rate) traffic.

The CLP=1 discard threshold in cells for UBR (Unspecified Bit Rate) traffic.

The Atm interface index correspong to this port. This is also the index of the portTable.

A table for current state of port on shared memory network modules. Implementation of this table is mandatory if the network module hardware is based on shared memory.

A table entry containing current port configuration information for shared memory network modules.

The index of this board within the ATM switch.

The number of this network module within the switch board.

The number of this port within the switch board and network module.

The priority queue in the shared memory network module. Enumeration: 'priorityRt': 5, 'priorityUBR': 4, 'priorityCBR': 3, 'priorityVBR': 2, 'priorityABR': 1, 'priorityNrt': 6.

The threshold level in number of cells in which CLP=1 cells will be dropped.

The dedicated queue size for this type of traffic as was calculated by the switch software. The dedicated queue size is determined by the configured maximum CDV (Cell Delay Variation) for CBR/rtVBR (Constant Bit Rate / Real-Time Variable Bit Rate) and nrtVBR (Non-Real-Time Variable Bit Rate) as well as the configurable queue size for ABR (Available Bit Rate) and UBR (Unspecified Bit Rate) traffic.

The current size of the queue.

The number of cells that were transmitted for this port and priority queue.

The total number of cells that were lost for this port and priority queue.

The number of cells that were lost for this port and priority queue due to EPD (Early Packet Discard) or PPD (Partial Packet Discard).

The number of cells that were lost for this port and priority queue due to output memory shortages or the CLP (Cell Loss Priority) threshold.

A table for shared memory network modules configuration that is specified on a port-priority basis. Implementation of this table is mandatory if the network module hardware is based on shared memory.

A table entry containing port-priority configuration information for shared memory network modules.

The index of this board within the ATM switch.

The number of this network module within the switch board.

The number of this port within the switch board and the network module.

The priority queue in the shared memory network module. Enumeration: 'priorityRt': 5, 'priorityUBR': 4, 'priorityCBR': 3, 'priorityVBR': 2, 'priorityABR': 1, 'priorityNrt': 6.

The dedicated queue size for this port-priority combination, in number of cells.

CLP=1 threshold of this port-priority combination, in number of cells.

A table of information about the channels through this shared memory network module.

A table entry containing channel shmem2 information.

The value of this object identifies the output port of this channel and is the same as the opathPort, and portNumber.

The value of this object identifies the output VPI (Virtual Path Identifier) of this channel and is the same as the opathVPI.

The output VCI (Virtual Channel Identifier) of this channel.

The number of cells on this channel that were dropped by the output network module.

The number of cells on this channel that were dropped due to EPD (Early Packet Discard) or PPD (Partial Packet Discard).

The number of cells on this channel that were dropped due to output memory shortages or the CLP (Cell Loss Priority) threshold.

The number of cells on this channel that were transmitted.

A table of information about the paths through this shared memory network module.

A table entry containing path shmem2 information.

The value of this object identifies the output port of this path and is the same as the portNumber.

The output VPI (Virtual Path Identifier) of this path.

The number of cells on this path that were dropped by the output network module.

The number of cells on this path that were dropped due to EPD (Early Packet Discard) or PPD (Partial Packet Discard).

The number of cells on this path that were dropped due to output memory shortages or the CLP (Cell Loss Priority) threshold.

The number of cells on this path that were transmitted.

A table for shared memory network modules configuration. Implementation of this table is mandatory if at least one of the network modules' hardware is based on shared memory. The user should walk this table and select the shared memory configuration that suits his/her needs. The selection is done in the specific network module shared memory configuration entry (netmodShmemTable).

A table entry containing shared memory network module configuration information.

The index of this shared memory configuration.

The maximum number of unicast connections that is supported by this shared memory configuration.

The maximum number of multicast connections that is supported by this shared memory configuration.

The memory allocated for VPI/VCI lists (which is used for multicast connections) by this shared memory configuration.

The number of cells buffers that is supported by this shared memory configuration.

The name of this shared memory configuration.

The number of counters that is supported by this shared memory configuration.

The size of this shared memory cell RAM configuration.

The size of this shared memory table RAM configuration.

A table for shared memory network modules configuration. Implementation of this table is mandatory if the network module hardware is based on shared memory.

A table entry containing shared memory network module configuration information.

The index of this board within the ATM switch.

The number of this network module within the switch board.

This object identify the row in the shared memory configuration table that was selected for this network module.

The amount of memory that was configured for this network module given all the user requirements as specified in the selected shared memory configuration row.

The current number of unicast connections active on this shared memory network module.

The current number of multicast connections active on this shared memory network module.

The current number of VPI/VCI lists active on this shared memory network module.

The current number cells buffers active on this shared memory network module.

The AAL5 packet drop threshold in number of cells. The switch software provides a reasonable default, however, the user may wish to change this value according to the type of traffic and size of packets being transmitted on the network. Must be between 0 and 32767

The AAL5 packet drop threshold for UBR traffic in percentage of cells. The switch software provides a reasonable default, however, the user may wish to change this value according to the type of traffic and size of packets being transmitted on the network. Must be between 0 and 32767

The threshold on which the EFCI (Explicit Forward Congestion Indication) is enabled for UBR (Unspecified Bit Rate) and ABR (Available Bit Rate) traffic. Must be a multiple of 32, greater than or equal to EFCI-off threshold, and less than or equal to 32736.

The threshold on which the EFCI (Explicit Forward Congestion Indication) is disabled for UBR (Unspecified Bit Rate) and ABR (Available Bit Rate) traffic. Must be a multiple of 32, greater than or equal to 32, and less than or equal to EFCI-on threshold.

The physical size of this shared memory cell RAM configuration.

The physical size of this shared memory table RAM configuration.

Setting this variable to enable(1) causes the network module to count the number of AAL5 packets. Enumeration: 'enable': 2, 'disable': 1.

Alternate CLP=1 threshold for nrt-VBR service class. Must be a multiple of 16, greater than or equal to 0, and less than AltCLP01 threshold.

Alternate CLP=0+1 threshold for nrt-VBR service class. Must be a multiple of 16, greater than AltCLP1 threshold and less than or equal to 4080.

Per class CLP=1 threshold for CBR/rtVBR service class. Must be a multiple of 16, greater than or equal to 0, and less than VcCLP01ForCBR threshold.

Per class CLP=0+1 threshold for CBR/rtVBR service class. Must be a multiple of 16, greater than VcCLP1ForCBR threshold, and less than or equal to 4080.

Per class CLP=1 threshold for nrt-VBR service class. Must be a multiple of 16, greater than or equal to 0, and less than VcCLP01ForVBR threshold.

Per class CLP=0+1 threshold for nrt-VBR service class. Must be a multiple of 16, greater than VcCLP1ForVBR threshold, and less than or equal to 4080.

Per class CLP=1 threshold for ABR service class. Must be a multiple of 16, greater than or equal to 0, and less than VcCLP01ForABR threshold.

Per class CLP=0+1 threshold for ABR service class. Must be a multiple of 16, greater than VcCLP1ForABR threshold, and less than or equal to 4080.

Per class CLP=1 threshold for UBR service class. Must be a multiple of 16, greater than or equal to 0, and less than VcCLP01ForUBR threshold.

Per class CLP=0+1 threshold for UBR service class. Must be a multiple of 16, greater than VcCLP1ForUBR threshold, and less than or equal to 4080.

A table for shared memory network modules configuration that is specified on a port basis. Implementation of this table is mandatory if the network module hardware is based on shared memory.

A table entry containing port configuration information for shared memory network modules.

The index of this board within the ATM switch.

The number of this network module within the switch board.

The number of this port within the switch board and network module.

The dedicated queue size in cells for CBR (Constant Bit Rate) / rtVBR (Real-Time Variable Bit Rate) traffic.

The dedicated queue size in cells for nrtVBR (Non-Real-Time Variable Bit Rate) traffic.

The dedicated queue size in cells for ABR (Available Bit Rate) traffic.

The dedicated queue size in cells for UBR (Unspecified Bit Rate) traffic.

The CLP=0+1 discard threshold in cells for CBR (Constant Bit Rate) / rtVBR (Real-Time Variable Bit Rate) traffic.

The CLP=1 discard threshold in cells for CBR (Constant Bit Rate) / rtVBR (Real-Time Variable Bit Rate) traffic.

The CLP=0+1 discard threshold in cells for nrtVBR (Variable Bit Rate) traffic.

The CLP=1 discard threshold in cells for nrtVBR (Variable Bit Rate) traffic.

The CLP=0+1 discard threshold in cells for ABR (Available Bit Rate) traffic.

The CLP=1 discard threshold in cells for ABR (Available Bit Rate) traffic.

The CLP=0+1 discard threshold in cells for UBR (Unspecified Bit Rate) traffic.

The CLP=1 discard threshold in cells for UBR (Unspecified Bit Rate) traffic.

The number of cells/second to limit this port. This in effect, sets a new logical line rate for this network module. If set to 0, rate-limiting is disabled. (i.e. full bandwidth is returned to the port).

This variable defines the scheduling discipline that is going to be used to service all CBR SVC connections that are output across this Series-D port. roundrobin: On Series-D netmod, this means that all CBR SVC's will be served only by one of the two round robin queues. smoothed: On Series-D netmod, this means that all CBR SVC's will be served by the rate controller. guaranteed: On Series-D netmod, this means that all CBR SVC's will be served by both the rate controller and the round robin queues. Enumeration: 'roundrobin': 2, 'guaranteed': 4, 'smoothed': 3.

This variable defines the scheduling discipline that is going to be used to service all CBR PVC connections that are output across this port. Series-D netmods support all three scheduling modes. perupc: This means that each individual CBR PVC will be scheduled based on the discipline associated with the UPC contract used to open the connection. roundrobin: This means that each individual CBR PVC will served only by the rate controller. smoothed: On Series-D netmod, this means that all CBR PVC's will be served only by the rate controller. guaranteed: This means that all CBR PVC's will be served by both the rate controller and the round robin queues. Enumeration: 'roundrobin': 2, 'guaranteed': 4, 'smoothed': 3, 'perupc': 1.

This variable defines the scheduling discipline that is going to be used to service all VBR SVC connections that are output across this Series-D port. roundrobin: On Series-D netmod, this means that all VBR SVC's will be served only by one of the two round robin queues. smoothed: On Series-D netmod, this means that all VBR SVC's will be served by the rate controller. guaranteed: On Series-D netmod, this means that all VBR SVC's will be served by both the rate controller and the round robin queues. Enumeration: 'roundrobin': 2, 'guaranteed': 4, 'smoothed': 3.

This variable defines the scheduling discipline that is going to be used to service all VBR PVC connections that are output across this port. Series-D netmods support all three scheduling modes. perupc: This means that each individual VBR PVC will be scheduled based on the discipline associated with the UPC contract used to open the connection. roundrobin: This means that each individual VBR PVC will served only by the rate controller. smoothed: On Series-D netmod, this means that all VBR PVC's will be served only by the rate controller. guaranteed: This means that all VBR PVC's will be served by both the rate controller and the round robin queues. Enumeration: 'roundrobin': 2, 'guaranteed': 4, 'smoothed': 3, 'perupc': 1.

This vairable defines the per-port configuration for the use of the VC level Alternate CLP Thresholdold on CBR/rtVBR connections. The states mean the following: allOn: All CBR/rtVBR connections use the alt CLP threshold. allOff: No CBR/rtVBR connections use the alt CLP threshold. svcOn: All CBR/rtVBR SVC's will use the alt CLP threshold. For CBR/rtVBR PVC's, whether the alt CLP threshold is used is determined by the presence or absence of the 'altCLPthresh' flag in the UPC contract. svcOff: No CBR/rtVBR SVC's will use the alt CLP threshold. For CBR/rtVBR PVC's, whether the alt CLP threshold is used is determined by the presence or absence of the 'altCLPthresh' flag in the UPC contract. Enumeration: 'svcOff': 4, 'svcOn': 3, 'allOff': 2, 'allOn': 1.

This vairable defines the per-port configuration for the use of the VC level Alternate CLP Thresholdold on nrtVBR connections. The states mean the following: allOn: All nrtVBR connections use the alt CLP threshold. allOff: No nrtVBR connections use the alt CLP threshold. svcOn: All nrtVBR SVC's will use the alt CLP threshold. For nrtVBR PVC's, whether the alt CLP threshold is used is determined by the presence or absence of the 'altCLPthresh' flag in the UPC contract. svcOff: No nrtVBR SVC's will use the alt CLP threshold. For nrtVBR PVC's, whether the alt CLP threshold is used is determined by the presence or absence of the 'altCLPthresh' flag in the UPC contract. Enumeration: 'svcOff': 4, 'svcOn': 3, 'allOff': 2, 'allOn': 1.

This vairable defines the per-port configuration for the use of the VC level Alternate CLP Thresholdold on UBR connections. The states mean the following: allOn: All UBR connections use the alt CLP threshold. allOff: No UBR connections use the alt CLP threshold. svcOn: All UBR SVC's will use the alt CLP threshold. For UBR PVC's, whether the alt CLP threshold is used is determined by the presence or absence of the 'altCLPthresh' flag in the UPC contract. svcOff: No UBR SVC's will use the alt CLP threshold. For UBR PVC's, whether the alt CLP threshold is used is determined by the presence or absence of the 'altCLPthresh' flag in the UPC contract. Enumeration: 'svcOff': 4, 'svcOn': 3, 'allOff': 2, 'allOn': 1.

The Atm interface index correspong to this port. This is also the index of the portTable.

A table for current state of port on shared memory network modules. Implementation of this table is mandatory if the network module hardware is based on shared memory.

A table entry containing current port configuration information for shared memory network modules.

The index of this board within the ATM switch.

The number of this network module within the switch board.

The number of this port within the switch board and network module.

The traffic type. Enumeration: 'priorityCBR': 3, 'priorityVBR': 2, 'priorityABR': 1, 'priorityUBR': 4.

The current size of the queue.

The number of cells that were transmitted for this port and priority queue.

The number of cells that were lost for this port and priority queue due to EPD threshold.

The number of cells that were lost for this port and priority queue due CLP=0+1 threshold.

The number of cells that were lost for this port and priority queue due to CLP=1 threshold.

The number of cells that were lost for this port and priority queue due to per VC CLP=1 and CLP=0+1 thresholds.

The number of cells that were lost for this port and priority queue due to memory overflows.

The number of cells that were lost for this port and priority queue due to EPD, per port and per VC CLP, and memory overflows.

A table of information about the channels through this shared memory network module.

A table entry containing channel seriesD information.

The value of this object identifies the output port of this channel and is the same as the opathPort, and portNumber.

The value of this object identifies the output VPI (Virtual Path Identifier) of this channel and is the same as the opathVPI.

The output VCI (Virtual Channel Identifier) of this channel.

The number of cells on this channel that were dropped due to EPD (Early Packet Discard) or PPD (Partial Packet Discard).

The number of cells on this channel that were dropped due to output memory shortages or the CLP (Cell Loss Priority) threshold.

The number of CLP=0 cells on this channel that were transmitted.

The number of CLP=1 cells on this channel that were transmitted.

The number of cells lost on this channel due to EPD.

The number of cells lost on this channel due to CLP=1 threshold.

The number of cells lost on this channel due to CLP=0+1 threshold.

The number of transmitted packets.

The current size of the queue.

A table of information about the paths through this shared memory network module.

A table entry containing path seriesD information.

The value of this object identifies the output port of this path and is the same as the portNumber.

The output VPI (Virtual Path Identifier) of this path.

The number of cells on this path that were dropped due to output memory shortages or the CLP (Cell Loss Priority) threshold.

The number of CLP=0 cells on this path that were transmitted.

The number of CLP=1 cells on this path that were transmitted.

The number of cells lost on this path due to CLP=1 threshold.

The number of cells lost on this path due to CLP=0+1 threshold.

The number of transmitted packets.

The current size of the queue.

A table for simple network modules. Implementation of this table is optional.

A table entry containing simple network module configuration information

The index of this board within the ATM switch.

The number of this network module within the switch board.

The subindex of this generic shmem within the network module.

The current number of unicast connections active on this network module. If a separate unicast connection space is not supported, this value will be -1.

The current number of multicast connections active on this network module. If a separate multicast connection space is not supported, this value will be -1.

The current number of connections (either multicast or unicast) active on this network module.

The total number of unicast connections that this network module can support. If a separate unicast connection space is not supported, this value will be -1. The largest possible number of ATM connections can be 2^28 - 1 (i.e., 268435455) since VPI and VCI fields in the ATM cell header occupies a total of 28 bits (12 bits of VPI and 16 bits of VCI). Any value greater than 2^28 - 1 for this MIB will indicate that this network module can support an unlimited number of unicast connections.

The total number of multicast connections that this network module can support. If a separate multicast connection space is not supported, this value will be -1. The largest possible number of ATM connections can be 2^28 - 1 (i.e., 268435455) since VPI and VCI fields in the ATM cell header occupies a total of 28 bits (12 bits of VPI and 16 bits of VCI). Any value greater than 2^28 - 1 for this MIB will indicate that this network module can support an unlimited number of multicast connections.

The total number of connections (either multicast or unicast) that this network module can support. The largest possible number of ATM connections can be 2^28 - 1 (i.e., 268435455) since VPI and VCI fields in the ATM cell header occupies a total of 28 bits (12 bits of VPI and 16 bits of VCI). Any value greater than 2^28 - 1 for this MIB will indicate that this network module can support an unlimited number of connections.

A table for simple network modules. Implementation of this table is optional.

A table entry containing simple network module configuration information

The index of this board within the ATM switch.

The number of this port group(module) within a switch board. This is the number that identifies the port group within a switch board.

The subindex of this port group identifying a port within this port group.

The priority on the port.

The AAL5 packet drop threshold in percentage of cells. The switch software provides a reasonable default, however, the user may wish to change this value according to the type of traffic and size of packets being transmitted on the network.

The threshold at which the EFCI (Explicit Forward Congestion Indication) bit is turned on for ABR (Available Bit Rate) traffic.

The threshold at which the EFCI (Explicit Forward Congestion Indication) bit is turned off for ABR (Available Bit Rate) traffic.

The priority name (CBR, VBR, ABR, UBR) for this priority index.

A table for shared memory custom BCS mappings

A table entry containing shared memory custom BCS mappings

The index of this board within the ATM switch.

The number of this network module within the switch board.

The subindex of this generic shmem within the network module.

The value of this BCS

The weight assigned to this BCS

Administrative status of this entry

A table for managing the configurable items for a port in a generic manner. Implementation of this table is optional.

A table entry containing generic port configuration information

The index of this board within the ATM switch

The number of this port group within the switch board.

The number identifies the port within a switch board and a port group.

The priority on the output port.

The dedicated (minimum) queue size, in cells for this pport and priority

The CLP=1 discard threshold, in cells for this port and priority.

The CLP=0+1 discard threshold, in cells for this port and priority.

The priority name (CBR, VBR, ABR, UBR) for this genericOutputPortIndex on this port.

The AtmIf(BNP) of this shmem within the ATM switch

A table for managing Statistics information about the current state of a port in a generic manner. Implementation of this table is optional.

A table entry containing generic port configuration information

The index of this board within the ATM switch.

The number of this port group within the switch board.

The number of this port within the switch board and the port group.

The index of this priority.

The number of cells transmitted on this port for this priority

The number of cells lost on this port for this priority due to CLP=1 threshold.

The number of cells lost on this port for this priority due to CLP=0+1 threshold.

The priority name (CBR, VBR, ABR, UBR) for this genericOutputPortIndex on this port.

The index of Atmif associated with this shmem in the ATM switch.

The number of cells lost on this port for this priority due to EPD/PPD threshold.

A table for current state of dual SCP configuration.

A table entry containing current dual SCP configuration.

The slot number for this SCP. Enumeration: 'slotY': 2, 'slotX': 1.

Shows whether the switch is operating with a single or dual SCPs. The value other(3) denotes that both SCPs are present but communication is not yet established. Enumeration: 'other': 3, 'dual': 2, 'standalone': 1.

This variable contains the current state of synchronization.

Controls which SCP is designated as the primary SCP. Enumeration: 'slotY': 2, 'slotX': 1.

Disables the dual SCP failover mechanism. When set to disable(2), the backup SCP will not take over if the main SCP goes down. Enumeration: 'enable': 1, 'disable': 2.

This variable can be used to manually synchronize the entire flash or any of the specified files. syncIdle(1) - No synchronization. syncFlash(2) - Synchronize the entire flash. syncCdb(3) - Synchronize the CDB file. syncPassword(4) - Synchronize the password file (depracated). syncLecsConfig(5) - Synchronize the LECS configuration file. syncOS(6) - Synchronize the OS. syncInit(7) - Reformat the entire flash. syncSecurid(8) - Synchronize the securid configuration file. syncSecret(9) - Synchronize the securid node secret file. syncLoader(10) - Synchronize the mini-loader. syncKrb5KeyTab(12)- Synchronize the kerberos v5srvtab file. Enumeration: 'syncCdb': 3, 'syncPassword': 4, 'syncIdle': 1, 'syncKrb5KeyTab': 12, 'syncLecsConfig': 5, 'syncFlash': 2, 'syncOS': 6, 'syncLoader': 10, 'syncSecret': 9, 'syncSecurid': 8, 'syncInit': 7.

Controls whether CDB synchronization will be manual or automatic. Enumeration: 'automatic': 2, 'manual': 1.

Forces the backup SCP to take switch control from the main SCP. Enumeration: 'enable': 1, 'disable': 2.

Show the time when switch over occurred.

Amount of time the standby SCP will wait after loss of active SCP's heartbeat before it takes control of the switch. The valid range is 2-300 seconds.

The current list of items that are waiting to be synchronized. This is a bit pattern containing the specified enumurated bits. The bit definitions are: 0x02 -- syncFlash 0x04 -- syncCdb 0x08 -- syncPassword 0x10 -- syncLecsConfig 0x20 -- syncOS 0x40 -- syncInit 0x80 -- syncSecurid 0x100 -- syncSecret 0x200 -- syncLoader 0x800 -- syncKrb5KeyTab

The number of synchronization requests since this agent was initialized.

The number of synchronization failures since this agent was initialized.

Setting this variable to enable(1) resets the backup SCP forcing it to start over. Enumeration: 'enable': 1, 'disable': 2.

Setting this variable to enable(1) instructs the backup SCP to remove old files during file synchronization in order to make room for the files that are being synchronized. This usually removes older copies of OS files. When synchronizing the OS, the current version of the OS will be removed if there isn't sufficient space for the new OS being synchronized. Enumeration: 'enable': 1, 'disable': 2.

This variable contains the current state of Dual SCP Redundancy.

When SVx/SPVx Preservation is enabled, call state information will be transferred from the Active SCP to the Standby SCP, prior to any SCP control transfer. This MIB variable tracks the completion percentage of the information transfer. Before SCP control transfer occurs, the user can query this variable to find out how much of the information transfer has been done.

When SVx/SPVx Preservation is enabled, call state information will be transferred from the Active SCP to the Standby SCP. The value returned is 'Failed' for any failure in this transfer, 'OK' otherwise. Enumeration: 'failed': 1, 'ok': 2.

SVx/SPVx Preservation has failed to preserve zero or more calls, whose number is given here.

The version of the ATM switch hardware in hex. The version number 0x1 is revision A, 0x2 is revision B etc. Version number 0x0 represents an unknown type.

The version of the ATM switch control software in hex. The version number is encoded into 6 hex digits. For example, version 1.2.3 is encoded as 0x010203.

The maximum number of input VPIs (Virtual Path Identifies).

The maximum number of input VCIs (Virtual Channel Identifiers).

The address of this ATM switch.

The length of time this ATM switch has been up, in hundredths of a second.

The switch Cell Delay Variation (CDV) specified in microseconds, indicates the time window in which a cell may be received on a connection and be accepted. A cell that is received on a connection outside the CDV window will be tagged or dropped as indicated by the switchPolicingAction object. The switchCDV is the default CDV for all the connections on this switch. Individual connections can be set to explicitly override this value.

This object indicates the action the switch will take in case of bandwidth violation. The switchPolicingAction is the default policing action for all the connections on this switch. Individual connections can be set to explicitly override this default action. Enumeration: 'drop': 2, 'tag': 1.

The version of the ATM switch control software. This object provides text information about the internal software configuration that was used when the switch control software was built.

This object identifies the switch type. Enumeration: 'le25': 19, 'sfcs200wg': 10, 'asx200wg': 4, 'sfcs1000': 12, 'tnx1100': 16, 'asx150': 22, 'sfcs200bx': 11, 'asx4000': 18, 'asx200bx': 5, 'asx1200': 17, 'cabletron9A000': 7, 'asx100': 1, 'asx200bxe': 6, 'asx1000': 8, 'esx3000': 20, 'le155': 9, 'asx200': 2, 'tnx210': 15.

The minimum VCI that is reserved for PMP connections.

The maximum VCI that is reserved for PMP connections.

The TimeZone configured for this ATM switch. This variable follows the POSIX standard 1003.1-1988 for the format of the TZ environment variable. In particular, it is general enough to specify the rules for converting from Standard to Daylight Savings time for most timezones of the world. By default, the switch has the rules built in for the following timezones: EST5EDT CST6CDT MST7MDT PST8PDT AKST9AKDT. Locales outside of these timezones will need to supply the appropriate rule for switching between Daylight and Standard time.

The switch's notion of Greenwich Mean Time. Linked to hrSystemDate. Offset part of time spec, if supplied, is considered an error.

The transfer protocol that is used when upgrading the switch software, backing up the CDB, etc. Enumeration: 'ftp': 2, 'tftp': 1.

The value of this object identifies the user currently logged in or attempting to log in on the switch. It would be a NULL string if no one is logged in currently.

This string gives the IP address of the host from where the current user is logged in or attempting to log in. A NULL string is returned if no one is currently logged in on the switch. If its a serial port login, the string indicates the same

The port number whose 8KHz clock is used as primary clock by all the netmods on all the boards in this switch.