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This chapter explains how to diagnose and handle alarms generated by the Cisco 6100 system.
Each subsection details the following information about each of the documented alarms.
If none of the actions presented on the alarm page are successful, please contact Cisco TAC for support.
The Event History window shows all the alarms that have been asserted and cleared for a particular Cisco 6100 system. ViewRunner will poll the node for new alarms/events at 15-second intervals by default throughout a session. The user may change this poll interval by selecting the Options > > ViewRunner Preferences menu option.
The 6100 node saves up to 200 events at a time, beginning with number "1" and incrementing indefinitely. When the node event log exceeds 200 events, the oldest event in the queue, Event 1, is removed, and the newest event is added to the bottom of the queue as Event 201. Therefore, depending on how many alarms/events are generated, the node queue could begin with sequence Event 101 and end with Event 300.
ViewRunner, on the other hand, can save more than 200 events at a time. That is, if the node alarm/event queue is showing Event 101 through 300, the ViewRunner may be displaying alarm/Event 50 through 300 depending on how long the ViewRunner session has been active and what the node was showing at the time the session began. There is a one-to-one correspondence between the sequence number of an alarm/event in the node with the Sequence Id of an alarm/event displayed by the ViewRunner for the most recent 200 events. However, if alarms/events have been removed from the top of queue at the node between ViewRunner sessions or between polls, the user will never see them. For example, if more than 200 events occur since the last ViewRunner session, you would not see those that had already been removed from the node queue when you begin the new session. ViewRunner does, however, generate its own alarm indicating that alarms/events have been missed during its current poll.
If the ViewRunner detects a system controller (SC) reset during an active session, all displayed alarms/events are removed from the Event History window, and only alarms/events occurring after the reset are displayed. The 6100 node itself loses alarm history and begins numbering again at "1" after an SC reset.
The figure below is an example of the Event History window for ViewRunner for Windows.

The fields in this figure are described in the following table.
| Field | Field Description |
|---|---|
Sequence Id
| The sequence number of the alarm/event in the ViewRunner's event log for this session. The field also contains an alarm icon in which the color indicates something about the severity of the alarm: Red - Critical/Asserted |
Severity | The severity of the alarm/event as determined by Cisco. The alarm/event severities are defined as follows: Service outage is defined as either line down or no cell throughput. Service impairment is defined as cell loss not associated with network congestion, but is great enough to result in a noticeable throughput loss. |
Log Time | The date and time on which the alarm/event occurred. |
Entity | The module against which the alarm/event is asserted. The information in this field can be used to help track down the alarm/event in this chapter. The entity can be any one of the following: ATU-C, SC, NI, LIM controller, LIM, Slot, ViewRunner, and Unknown. An "Unknown" entity is returned only when the format of the data from the node is faulty. |
AID | The Access Identifier as in the chassis and slot number associated with the alarm/event. The information in this field can pinpoint the source of the alarm/event and thus help the user to further diagnose what the problem might be. ViewRunner will display "Unknown" in the AID field if an alarm/event was asserted by an entity which was later deleted, or by an entity that was added but not yet "auto-discovered" by ViewRunner before generating an alarm. By clicking on this underlined text in this field, you can navigate directly to the entity and slot from which the alarm was received. |
Status | The current status of the alarm as in: Asserted - an alarm/event has been generated by an entity. |
Description | A short description of the alarm/event. This description should be the same as the descriptions found in the alarm/event tables in the subsections of this chapter. This description is a predefined string based on the entity and event code from the node. See the ViewRunner for Windows Provisioning and Operation Manual for exceptions to this definition. |
The contents of the ViewRunner Event History window can be sorted by any one of the fields in the preceding table by clicking on the field header. Clicking on more than one column heading allows the user to nest sorts in the order of column selection. If there are more entries than can fit in the window, a scroll bar will appear to allow scrolling through the entries.
It is also possible for the user to selectively remove entries from the display simply by selecting those entries and deleting them. Events can be selected in the Event History View and deleted by clicking the Alarm toolbar deletion button (looks like an X - see toolbar). This does not remove the alarms/events permanently from the 6100. They are removed only from the ViewRunner display. You select by clicking the Sequence Id number of each row. Use Shift or Ctrl to select multiple entries.
Logical service oriented screen navigation is available in the Event History window. Click on the blue underlined text, and ViewRunner will take you to the Properties window of the chassis, slot, and port where the alarm was asserted.
The Current Alarms window displays a concise list of all currently asserted alarms in the system, including module, slot, and image alarms. The window format is similar to the Event History window, except that it has fewer columns.
In the Current Alarms window, current alarms are retrieved and displayed when the window is first opened and when the user manually requests a refresh.
The following figure is an example of the Current Alarms window.

Logical service oriented screen navigation is available in the Current Alarms window. Click on the blue underlined text and ViewRunner will take you to the properties window of the chassis, slot, and port where the alarm was asserted.
Alarms that have been "Asserted" by the 6100 are either followed by a "Cleared" event or by an "Info" (128) event which in effect clears all alarms associated with a particular entity at a particular slot. For example, some alarms can be "Cleared" if the problem was caused by congestion or single parity errors. Other times, the module generating the alarm must be reset and/or reinserted. In this case, the only event returned is Event 128 "Module was detected." which effectively clears whatever outstanding alarms were asserted against that module.
The current alarms are displayed in ViewRunner in the Module/Port Property Status dialogs. They are also represented by the color of the ejector tabs on the modules in the Configuration View. The total number of current alarms is listed by severity on the ViewRunner toolbar under Alarm Window. These objects define the set of alarms currently asserted for a slot/board/port, and the severity levels. When an alarm is cleared, it is removed from the set. These alarms correspond to the active alarms in the 6100. They may differ from the ViewRunner Event History window display in that alarms are not removed from the Event History window display when they are cleared. Both "Asserted" and "Cleared" alarms remain in the Event History window display as long as the session is active to serve as a history of alarms/events.
Given the wide variety of severity mapping decisions that could be selected based on the previous factors, a set of paradigms must be established to treat like events in a similar fashion, and thus ensure that severity is set in a practical fashion. These guidelines will become arbitrary with the introduction of network provider controlled alarm severity mapping. Additionally, with the advent of more sophisticated 6100 and ViewRunner performance monitoring, threshold alarming, and so on, these guidelines will be replaced by well known rules for handling network element anomalies and faults, as defined in GR-820-CORE. For this release, however, the guidelines established are as follows.
The following rules are used to define an event versus an alarm, and the severity therein:
Exceptions to the above guidelines are used as follows.
Fundamentally, an alarm-related event (there are events that are not alarm related) will either result in a service impairment or a service outage. However, it is possible to receive alarm events that are not necessarily service affecting in any manner. A "service impairment" typically results in a loss of end to end traffic for some number of subscriber connections (one to many) for some period of time (milliseconds to seconds, but normally less than a minute unless repeat occurrences are encountered). A "service outage" is the absolute loss of the ability to connect one or more subscribers. The severities below are mapped according to the following philosophy:
The checklist of alarms appears in a table under each aspect of the system for which the alarm is relevant. The tables include the ID, definition, severity, and description of the each alarm.
All of those tables are concatenated here for easy reference. Each table is repeated in its own section with detailed information which includes alarm summary, description, impact, and action.
| ID | Definition | Severity | Description |
|---|---|---|---|
2 | SAC_SOFTWARE_FAILED_CRC | Major | Software failed CRC check during download. |
3 | SAC_OUT_OF_MEMORY | Critical | Application was unable to allocate memory. |
128 | LR_CREATE_OBJ | Info | Module was detected. |
129 | LR_PING_FAIL | Critical | Module did not respond to system monitor. |
| ID | Definition | Severity | Description |
|---|---|---|---|
2 | SC_IP_MISMATCH | Minor | The IP number assigned to the 6100 is unusable. |
3 | SC_SUBNET_ERROR | Minor | The subnet mask for the IP number is incorrect. |
4 | SC_DOWNLOAD_DONE | Info | Download to the SC is complete. |
127 |
| Critical | Loss of communication with SC |
| ID | Definition | Severity | Description |
|---|---|---|---|
128 | LR_CREATE_OBJ | Info | Module was detected. |
129 | LR_PING_FAIL | Critical | Module did not respond to the system monitor. |
| ID | Definition | Severity | Description |
|---|---|---|---|
0 | FC_ALM_EXT_MEM_PAR_ERR | Minor | ATM chipset external memory parity error. |
1 | FC_ALM_IN_RCV_PAR_ERR | Minor | ATM chipset, cell dropped due to ingress receive side UTOPIA bus parity error. |
2 | FC_ALM_EG_RCV_PAR_ERR | Minor | ATM chipset, cell dropped due to egress receive side UTOPIA bus parity error. |
3 | FC_ALM_UTOPIA_SYNC_ERR | Minor | ATM chipset, UTOPIA bus synchronization error detected. |
4 | FC_ALM_POL_EU_TIMEOUT_ERR | Minor | ATM chipset, parity error detected on policing EU word access. |
5 | FC_ALM_VCI_SIZE_ERR | Minor | ATM chipset, ingress VCI value above max value. |
6 | FC_ALM_VPI_SIZE_ERR | Minor | ATM chipset, ingress VPI value above max value. |
7 | FC_ALM_MPHY_PORT_OVERRUN | Minor | ATM chipset, ingress UTOPIA synchronization error detected. |
8 | FC_ALM_IN_FIFO_FULL | Minor | ATM chipset, ingress cells are being dropped due to ingress capture fifo full condition. Fabric control driver software will attempt to clear the condition. |
9 | FC_ALM_EG_CAP_SYNC_ERR | Minor | ATM chipset, an egress capture fifo synchronization error is detected. The device will be reset by fabric control driver software. Device must be re-initialized and connections re-established. |
10 | FC_ALM_IN_CAP_SYNC_ERR | Minor | ATM chipset, an ingress capture fifo synchronization error is detected. The device will be reset by fabric control driver software. Device must be re-initialized and connections re-established. |
11 | FC_ALM_INSERT_SYNC_ERR | Minor | ATM chipset, ingress insertion fifo synch error. Fabric control driver software resets fifo. |
12 | FC_ALM_FULL_MEM_TEST_FAILURE | Minor | ATM chipset, diagnostic memory test detects memory failure. |
13 | FC_ABM_SEQ_ERROR_ILL | Minor | ATM chipset, a sequence error in the ingress linked list was detected. Fabric control driver software will reset, and re-initialize the device. Connections must be re-established. |
14 | FC_ABM_PAR_ERR_ING_CELL | Minor | ATM chipset, cell dropped due to ingress parity error. |
15 | FC_ABM_SEQ_ERROR_ELL | Minor | ATM chipset, a sequence error in the egress linked list was detected. Fabric control driver software will reset, and re-initialize the device. Connections must be re-established. |
16 | FC_ABM_PAR_ERR_ING_STORED | Minor | ATM chipset, parity error detected in ingress buffer RAM. |
17 | FC_ABM_PAR_ERR_ING_STORED | Minor | ATM chipset, parity error detected in egress buffer RAM. |
18 | FC_ABM_PAR_ERR_PRAM | Minor | ATM chipset, external pointer RAM parity error detected. Fabric control driver software will reset, and re-initialize the device. Connections must be re-established. |
19 | FC_ABM_PRAM_ILL_ERROR | Minor | ATM chipset, ingress linked list empty. Cell processing halts until pointers become available. |
20 | FC_ABM_PRAM_ELL_ERROR | Minor | ATM chipset, egress linked list empty. Cell processing halts until pointers become available. |
21 | FC_ABM_PRAM_EIPLL_ERROR | Minor | ATM chipset, egress IP free list empty. Cell processing halts until pointers become available. |
22 | FC_ABM_ING_SYNC_ERROR | Minor | ATM chipset, cell dropped due to ingress UTOPIA sync error. |
23 | FC_ABM_EG_SYNC_ERROR | Minor | ATM chipset, cell dropped due to egress UTOPIA sync error. |
24 | FC_ABM_PTR_MEM_TEST_FAILURE | Minor | ATM chipset, diagnostic detected external memory failure. |
25 | FC_ASX_CRCERR | Minor | ATM chipset, CRC error detected on incoming cell. Cell dropped. |
26 | FC_ASX_IPRTOERR | Minor | ATM chipset, input port overrun error. |
27 | FC_ASX_LLERR | Minor | ATM chipset, linked list error detected. Fabric control driver software must reset and re-initialize the device. |
28 | FC_ASX_PARITY_ERR | Minor | ATM chipset, input parity error detected. Cell dropped. |
29 | FC_CD_INIT_FAILURE | Minor | Cell delineator initialization failure. |
30 | FC_SONET_INIT_FAILURE | Minor | OC3 hardware initialization failure. |
31 | NO_IPC_QUEUE_DEFINED | Minor | IPC does not recognize User Plane queue request. |
32 | FC_CD_RX_ERROR | Minor | Cell Delineator receive error. |
33 | FC_CD_TX_ERROR | Minor | Cell Delineator transmit error. |
34 | FC_CD_CFG_FAILURE | Minor | Cell Delineator configuration failure. |
38 | FC_ABM_BP_OVERRIDE | Minor | ATM chipset, backpressure indications from switch are being overridden to prevent cell loss. |
39 | FC_ATM_CNX_FAIL_ERROR | Info | Fabric control was unable to complete a requested connection. |
42 | FC_SUBTEND_PORT_BUFFER_OVERFLOW | Info | Buffer overflow in the cell buffer on the subtend module. |
43 | FC_SUBTEND_PORT_UTOPIA_ERROR | Info | Error in UTOPIA chip. |
46 | FC_SUBTEND_PORT_EGRESS_PARITY | Info | Parity error in cell egress path. |
| ID | Definition | Severity | Description |
|---|---|---|---|
48 | FC_OC3_LCD_FAULT | Info | SONET, loss of cell delineation. |
49 | FC_OC3_OCD_FAULT | Critical | SONET, out of cell delineation. |
50 | FC_OC3_FIFO_FULL | Critical | SONET, framer FIFO overflow. |
51 | FC_OC3_C2_MISMATCH | Critical | SONET, received payload incorrect type. |
52 | FC_OC3_PRDI | Critical | SONET, path RDI received. |
53 | FC_OC3_PAIS | Critical | SONET, path AIS received. |
54 | FC_OC3_APS_CHANGE | Critical | SONET, auto protection switch. |
55 | FC_OC3_APS_IAB | Minor | SONET, auto protection switch byte is corrupted 3 of 12 times. |
56 | FC_OC3_POINTER_CHANGE | Info | SONET, data pointer changed. |
57 | FC_OC3_LOP | Critical | SONET, loss of pointer condition. |
58 | FC_OC3_LRDI | Critical | SONET, line RDI received. |
59 | FC_OC3_LAIS | Critical | SONET, line AIS received. |
60 | FC_OC3_LOF | Info | SONET, loss of frame condition. |
61 | FC_OC3_OOF | Critical | SONET, out of frame condition detected. |
62 | FC_OC3_LOSY | Critical | SONET, loss of signal detected by optical transceiver. |
63 | FC_OC3_LOS | Critical | SONET, loss of signal detected by SONET device. |
| ID | Definition | Severity | Description |
|---|---|---|---|
81 | FC_DS3_OCD | Critical | DS3, out of cell delineation. |
82 | FC_DS3_FIFO_FULL | Minor | DS3, framer FIFO overflow. |
83 | FC_DS3_IDLE | Critical | DS3, receiving idle. |
84 | FC_DS3_RAI | Critical | DS3, receiving remote alarm indication. |
90 | FC_DS3_YELLOW | Critical | DS3, receiving yellow alarm. |
91 | FC_DS3_AIS | Critical | DS3, receiving AIS. |
93 | FC_DS3_OOF | Critical | DS3, out of frame condition detected. |
94 | FC_DS3_LIU_LOS | Critical | DS3, loss of signal detected at LIU. |
95 | FC_DS3_LOS | Critical | DS3, loss of signal detected at framer. |
96 | FC_DS3_TX_PARITY | Minor | DS3, parity error detected on transmit UTOPIA bus. |
97 | FC_DS3_RX_PARITY | Minor | DS3, HEC error detected on receive UTOPIA bus. |
99 | FC_DS3_CPAR | Info | DS3, unexpected frame format. |
101 | FC_DS3_PLCP_OOF | Minor | DS3, PLCP out of frame condition detected. |
102 | FC_DS3_PLCP_LOF | Minor | DS3, PLCP loss of frame error detected. |
| ID | Definition | Severity | Description |
|---|---|---|---|
128 | LR_CREATE_OBJ | Info | Module was detected. |
129 | LR_PING_FAIL | Critical | Module did not respond to the system monitor. |
42 | FC_SUBTEND_PORT_BUFFER_OVERFLOW | Info | Buffer overflow in the cell buffer on the subtend module. |
44 | FC_SUBTEND_PORT_INGRESS_HEC | Info | Subtend port ingress HEC error. |
| ID | Definition | Severity | Description |
|---|---|---|---|
3 | SCL_OUT_OF_MEMORY | Critical | Application was unable to allocate memory. |
128 | LR_CREATE_OBJ | Info | Module was detected. |
129 | LR_PING_FAIL | Critical | Module did not respond to system monitor. |
| ID | Definition | Severity | Description |
|---|---|---|---|
1 | FMEVENT_LIM_DOH_CALIBRATION_FAILURE | Major | LIM was not able to perform Digital Off-Hook (DOH) calibration. |
3 | FMEVENT_LIM_CONNECT_FAILURE | Major | LIM was not able to connect to the switching matrix. |
128 | LR_CREATE_OBJ | Info | Module was detected. |
129 | LR_PING_FAIL | Critical | Module did not respond to system monitor. |
| ID | Definition | Severity | Description |
|---|---|---|---|
1 | SLOT_MISMATCH_EVENT | Minor | A module was inserted in the slot that did not match the type that was pre-provisioned for that slot. |
2 | SLOT_INVALID_EVENT | Minor | A module that was not valid for the slot was inserted in the slot. |
3 | SLOT_NO_IMAGE_EVENT | Minor | No image exists for the type module present in the slot. |
4 | SLOT_IMAGE_NOT_READY | Minor | Image for download is not ready |
5 | SLOT_DOWNLOAD_START | Info | Download of a module image to the identified slot has begun. |
6 | SLOT_DOWNLOAD_COMP | Info | Download of a module image to the identified slot has completed. |
7 | SLOT_DOWNLOAD_FAIL | Info | Download of a module image to the identified slot has failed. |
8 | SLOT_CURR_IMG_FAIL | Minor | Image could not be obtained for module in slot. |
| ID | Definition | Severity | Description |
|---|---|---|---|
1 | MUM_TFTPING_FAULT | Minor | TFTP file download failure |
2 | MUM_TFTP_SUCCESSFUL | Info | TFTP file download successful |
3 | MUM_TFTP_TIMEOUT_FAULT | Minor | TFTP timeout incurred during download |
4 | MUM_FILE_NOT_FOUND_FAULT | Minor | Requested TFTP file not found |
5 | MUM_CHKSUM_FAIL_FAULT | Minor | Checksum failed on TFTP file download |
6 | MUM_SIZE_CHK_FAULT | Minor | File size check failed on TFTP file download |
7 | MUM_DB_WRITE_FAULT | Minor | TFTP file transfer failed; image could not be written to 6100 database |
8 | MUM_NO_SPACE_FAULT | Minor | Insufficient SC memory to contained TFTP'd image |
9 | MUM_TFTP_GENERAL_FAULT | Minor | TFTP file transfer failed |
There are a number of events that could cause alarms in the 6100 system. Many of those events return messages that are informational only. Others are warnings or minor alarm conditions (those affecting few subscribers). Others are major or critical alarms which require prompt attention in case they affect a large number of subscribers.
The following table lists ATU-C module event codes, providing their IDs, definition, severity, and description. A detailed explanation of these events and the actions required to deal with them (if any) are to be found in subsections which follow the event code table.
| ID | Definition | Severity | Description |
|---|---|---|---|
2 | SAC_SOFTWARE_FAILED_CRC | Major | Software failed CRC check during download. |
3 | SAC_OUT_OF_MEMORY | Critical | Application was unable to allocate memory. |
128 | LR_CREATE_OBJ | Info | Module was detected. |
129 | LR_PING_FAIL | Critical | Module did not respond to system monitor. |
| ID | Alarm Name | Severity |
|---|---|---|
2 | SAC_SOFTWARE_FAILED_CRC | Major |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Software failed CRC check during download. |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
1. Alarms of this type are generated only during module initialization and will force a module reset automatically.
2. If reset condition continues (module never comes out of self-test mode), reinsert the module.
3. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
3 | SAC_OUT_OF_MEMORY | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Application was unable to allocate memory. |
Events of this type would normally be tagged as "Minor", but for Release 2.0 still need to be maintained as "Critical" to preserve node software's need to couple event severity from service state impact. These will be de-coupled post Release 2.0, and this category will cease to exist.
1. In some cases, a module will force itself into a self-test based on the alarm condition. In other cases, the SC will force the alarmed module to reset. A module reset forces the module to be power cycled, self-tested, and re-configured into the slot by the SC.
2. Many alarm conditions will clear as a result of a module reset.
3. Look for the alarm to clear within one minute.
4. An alarm is cleared when the SC faceplate alarm LED changes from red to off.
5. In the ViewRunner interface, an alarm cleared is evidenced by two actions:
6. If the alarm does not clear, remove module and reinsert. This will force a module to reset in those cases where the neither the module itself or the SC could force a reset.
7. A module reset in most cases will clear all alarm conditions.
8. Observe the SC alarm LED and/or ViewRunner ejector tabs to see if alarm condition returns. If the previous problem persists, the condition will probably reoccur within a minute or so.
9. If the alarm condition persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
128 | LR_CREATE_OBJ | Information |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Module was detected. |
Events of this type are benevolent, and are not indicative of service impairment or loss.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
129 | LR_PING_FAIL | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Module did not respond to the system monitor. |
Events of this type would normally be tagged as "Minor", but for Release 2.0 still need to be maintained as "Critical" to preserve node software's need to couple event severity from service state impact. These will be de-coupled post Release 2.0, and this category will cease to exist.
1. In some cases, a module will force itself into a self-test based on the alarm condition. In other cases, the SC will force the alarmed module to reset. A module reset forces the module to be power cycled, self-tested, and re-configured into the slot by the SC.
2. Many alarm conditions will clear as a result of a module reset.
3. Look for the alarm to clear within one minute.
4. An alarm is cleared when the SC faceplate alarm LED changes from red to off.
5. In the ViewRunner interface, an alarm cleared is evidenced by two actions:
6. If the alarm does not clear, remove module and reinsert. This will force a module to reset in those cases where the neither the module itself or the SC could force a reset.
7. A module reset in most cases will clear all alarm conditions.
8. Observe the SC alarm LED and/or ViewRunner ejector tabs to see if alarm condition returns. If the previous problem persists, the condition will probably reoccur within a minute or so.
9. If the alarm condition persists, replace module.
There are a number of events that could cause alarms in the 6100 system. Many of those events return messages that are informational only. Others are warnings or minor alarm conditions (those affecting few subscribers). Others are major or critical alarms which require prompt attention in case they affect a large number of subscribers.
The following table lists SC event codes, providing their IDs, definitions, severity, and description. A detailed explanation of these events and the actions required to deal with them (if any) are to be found in subsections which follow the event code table.
| ID | Definition | Severity | Description |
|---|---|---|---|
2 | SC_IP_MISMATCH | Minor | The IP number assigned to the 6100 is unusable. |
3 | SC_SUBNET_ERROR | Minor | The subnet mask for the IP number is incorrect. |
4 | SC_DOWNLOAD_DONE | Info | Download to the SC is complete. |
127 |
| Critical | Loss of communication with SC |
| ID | Alarm Name | Severity |
|---|---|---|
2 | SC_IP_MISMATCH | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
The IP number assigned to the 6100 is unusable. |
Events of this type are not "run-time" events. They occur only during node installation/configuration and only affect the node's ability to properly communicate over Ethernet.
1. Refer to the ViewRunner for Windows Set Up and Installation Manual, "The Cisco 6100 Initialization Procedure" chapter for re-establishing proper IP address information.
2. Verify that ViewRunner can access node correctly.
| ID | Alarm Name | Severity |
|---|---|---|
3 | SC_SUBNET_ERROR | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
The subnet mask for the IP number is incorrect. |
Events of this type are not "run-time" events. They occur only during node installation/configuration and only affect the node's ability to properly communicate over Ethernet.
1. Refer to the ViewRunner for Windows Set Up and Installation Manual, "The Cisco 6100 Initialization Procedure" chapter for re-establishing proper IP address information.
2. Verify that ViewRunner can access node correctly.
| ID | Alarm Name | Severity |
|---|---|---|
4 | SC_DOWNLOAD_DONE | Information |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Download to the SC is complete. |
Events of this type are not "run-time" events. They occur only during node installation/configuration and only affect the node's ability to properly communicate over Ethernet.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
127 |
| Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Loss of communication with SC. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
There are a number of events that could cause alarms in the 6100 system. Many of those events return messages that are informational only. Others are warnings or minor alarm conditions (those affecting few subscribers). Others are major or critical alarms which require prompt attention in case they affect a large number of subscribers.
The following table lists NI event codes, providing their IDs, definitions, severity, and description. A detailed explanation of these events and the actions required to deal with them (if any) are to be found in subsections which follow the event code table.
| ID | Definition | Severity | Description |
|---|---|---|---|
128 | LR_CREATE_OBJ | Info | Module was detected. |
129 | LR_PING_FAIL | Critical | Module did not respond to the system monitor. |
| ID | Alarm Name | Severity |
|---|---|---|
128 | LR_CREATE_OBJ | Information |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Module was detected. |
Events of this type are benevolent, and are not indicative of service impairment or loss.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
129 | LR_PING_FAIL | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Module did not respond to the system monitor. |
An event of this severity will cause loss of service for more than four subscribers. Examples include:
1. In some cases, a module will force itself into a self-test based on the alarm condition. In other cases, the SC will force the alarmed module to reset. A module reset forces the module to be power cycled, self-tested, and re-configured into the slot by the SC.
2. Many alarm conditions will clear as a result of a module reset.
3. Look for the alarm to clear within one minute.
4. An alarm is cleared when the SC faceplate alarm LED changes from red to off.
5. In the ViewRunner interface, an alarm cleared is evidenced by two actions:
6. If the alarm does not clear, remove module and reinsert. This will force a module to reset in those cases where the neither the module itself or the SC could force a reset.
7. A module reset in most cases will clear all alarm conditions.
8. Observe the SC alarm LED and/or ViewRunner ejector tabs to see if alarm condition returns. If the previous problem persists, the condition will probably reoccur within a minute or so.
9. If the alarm condition persists, replace module.
There are a number of events that could cause alarms in the 6100 system. Many of those events return messages that are informational only. Others are warnings or minor alarm conditions (those affecting few subscribers). Others are major or critical alarms which require prompt attention in case they affect a large number of subscribers.
The following table lists ATM fabric event codes relative to the NI module, providing their IDs, definitions, severity, and description. A detailed explanation of these events and the actions required to deal with them (if any) are to be found in subsections which follow the event code table.
| ID | Definition | Severity | Description |
|---|---|---|---|
0 | FC_ALM_EXT_MEM_PAR_ERR | Minor | ATM chipset external memory parity error. |
1 | FC_ALM_IN_RCV_PAR_ERR | Minor | ATM chipset, cell dropped due to ingress receive side UTOPIA bus parity error. |
2 | FC_ALM_EG_RCV_PAR_ERR | Minor | ATM chipset, cell dropped due to egress receive side UTOPIA bus parity error. |
3 | FC_ALM_UTOPIA_SYNC_ERR | Minor | ATM chipset, UTOPIA bus synchronization error detected. |
4 | FC_ALM_POL_EU_TIMEOUT_ERR | Minor | ATM chipset, parity error detected on policing EU word access. |
5 | FC_ALM_VCI_SIZE_ERR | Minor | ATM chipset, ingress VCI value above max value. |
6 | FC_ALM_VPI_SIZE_ERR | Minor | ATM chipset, ingress VPI value above max value. |
7 | FC_ALM_MPHY_PORT_OVERRUN | Minor | ATM chipset, ingress UTOPIA synchronization error detected. |
8 | FC_ALM_IN_FIFO_FULL | Minor | ATM chipset, ingress cells are being dropped due to ingress capture fifo full condition. Fabric control driver software will attempt to clear the condition. |
9 | FC_ALM_EG_CAP_SYNC_ERR | Minor | ATM chipset, an egress capture fifo synchronization error is detected. The device will be reset by fabric control driver software. Device must be re-initialized and connections re-established. |
10 | FC_ALM_IN_CAP_SYNC_ERR | Minor | ATM chipset, an ingress capture fifo synchronization error is detected. The device will be reset by fabric control driver software. Device must be re-initialized and connections re-established. |
11 | FC_ALM_INSERT_SYNC_ERR | Minor | ATM chipset, ingress insertion fifo synch error. Fabric control driver software resets fifo. |
12 | FC_ALM_FULL_MEM_TEST_FAILURE | Minor | ATM chipset, diagnostic memory test detects memory failure. |
13 | FC_ABM_SEQ_ERROR_ILL | Minor | ATM chipset, a sequence error in the ingress linked list was detected. Fabric control driver software will reset, and re-initialize the device. Connections must be re-established. |
14 | FC_ABM_PAR_ERR_ING_CELL | Minor | ATM chipset, cell dropped due to ingress parity error. |
15 | FC_ABM_SEQ_ERROR_ELL | Minor | ATM chipset, a sequence error in the egress linked list was detected. Fabric control driver software will reset, and re-initialize the device. Connections must be re-established. |
16 | FC_ABM_PAR_ERR_ING_STORED | Minor | ATM chipset, parity error detected in ingress buffer RAM. |
17 | FC_ABM_PAR_ERR_ING_STORED | Minor | ATM chipset, parity error detected in egress buffer RAM. |
18 | FC_ABM_PAR_ERR_PRAM | Minor | ATM chipset, external pointer RAM parity error detected. Fabric control driver software will reset, and re-initialize the device. Connections must be re-established. |
19 | FC_ABM_PRAM_ILL_ERROR | Minor | ATM chipset, ingress linked list empty. Cell processing halts until pointers become available. |
20 | FC_ABM_PRAM_ELL_ERROR | Minor | ATM chipset, egress linked list empty. Cell processing halts until pointers become available. |
21 | FC_ABM_PRAM_EIPLL_ERROR | Minor | ATM chipset, egress IP free list empty. Cell processing halts until pointers become available. |
22 | FC_ABM_ING_SYNC_ERROR | Minor | ATM chipset, cell dropped due to ingress UTOPIA sync error. |
23 | FC_ABM_EG_SYNC_ERROR | Minor | ATM chipset, cell dropped due to egress UTOPIA sync error. |
24 | FC_ABM_PTR_MEM_TEST_FAILURE | Minor | ATM chipset, diagnostic detected external memory failure. |
25 | FC_ASX_CRCERR | Minor | ATM chipset, CRC error detected on incoming cell. Cell dropped. |
26 | FC_ASX_IPRTOERR | Minor | ATM chipset, input port overrun error. |
27 | FC_ASX_LLERR | Minor | ATM chipset, linked list error detected. Fabric control driver software must reset and re-initialize the device. |
28 | FC_ASX_PARITY_ERR | Minor | ATM chipset, input parity error detected. Cell dropped. |
29 | FC_CD_INIT_FAILURE | Minor | Cell delineator initialization failure. |
30 | FC_SONET_INIT_FAILURE | Minor | OC3 hardware initialization failure. |
31 | NO_IPC_QUEUE_DEFINED | Minor | IPC does not recognize User Plane queue request. |
32 | FC_CD_RX_ERROR | Minor | Cell Delineator receive error. |
33 | FC_CD_TX_ERROR | Minor | Cell Delineator transmit error. |
34 | FC_CD_CFG_FAILURE | Minor | Cell Delineator configuration failure. |
38 | FC_ABM_BP_OVERRIDE | Minor | ATM chipset, backpressure indications from switch are being overridden to prevent cell loss. |
39 | FC_ATM_CNX_FAIL_ERROR | Info | Fabric control was unable to complete a requested connection. |
42 | FC_SUBTEND_PORT_BUFFER_OVERFLOW | Info | Buffer overflow in the cell buffer on the subtend module. |
43 | FC_SUBTEND_PORT_UTOPIA_ERROR | Info | Error in UTOPIA chip. |
46 | FC_SUBTEND_PORT_EGRESS_PARITY | Info | Parity error in cell egress path. |
| ID | Alarm Name | Severity |
|---|---|---|
0 | FC_ALM_EXT_MEM_PAR_ERR | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset external memory parity error. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
1 | FC_ALM_IN_RCV_PAR_ERR | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, cell dropped due to ingress receive UTOPIA bus parity error. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
2 | FC_ALM_EG_RCV_PAR_ERR | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, cell dropped due to egress receive side UTOPIA bus parity error. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
3 | FC_ALM_UTOPIA_SYNC_ERR | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, UTOPIA bus synchronization error detected. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
4 | FC_ALM_POL_EU_TIMEOUT_ERR | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, parity error detected on policing EU word access. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
5 | FC_ALM_VCI_SIZE_ERR | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, ingress VCI value above the max value. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
6 | FC_ALM_VPI_SIZE_ERR | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, ingress VPI value above the max value. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
7 | FC_ALM_MPHY_PORT_OVERRUN | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, ingress UTOPIA synchronization error detected. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
8 | FC_ALM_IN_FIFO_FULL | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, ingress cells are being dropped due to ingress capture FIFO full condition. Fabric control driver software will attempt to clear the condition. |
An event of this type will cause an automatic recovery attempt by the ASM fabric control driver software. The duration of the automatic recovery should be on the order of milliseconds. As such, service is only momentarily impaired, is recoverable at higher layers, and is most likely transparent from an application level perspective.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
9 | FC_ALM_EG_CAP_SYNC_ERR | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, an egress capture FIFO synchronization error is detected. The device will be reset by the fabric control driver software. Device must be re-initialized and connections re-established. |
An event of this type will result in an ATM Switch Module reset. The service-affecting period will typically be 45 seconds in duration. ADSL layer 1 connections will not be lost, but subscriber data traffic (ATM AAL5 cells) will not be switched across the switch fabric during this period.
1. In some cases, a module will force itself into a self-test based on the alarm condition. In other cases, the SC will force the alarmed module to reset. A module reset forces the module to be power cycled, self-tested, and re-configured into the slot by the SC.
2. Many alarm conditions will clear as a result of a module reset.
3. Look for the alarm to clear within one minute.
4. An alarm is cleared when the SC faceplate alarm LED changes from red to off.
5. In the ViewRunner interface, an alarm cleared is evidenced by two actions:
6. If the alarm does not clear, remove module and reinsert. This will force a module to reset in those cases where the neither the module itself or the SC could force a reset.
7. A module reset in most cases will clear all alarm conditions.
8. Observe the SC alarm LED and/or ViewRunner ejector tabs to see if alarm condition returns. If the previous problem persists, the condition will probably reoccur within a minute or so.
9. If the alarm condition persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
10 | FC_ALM_IN_CAP_SYNC_ERR | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, an ingress capture FIFO synchronization error is detected. The device will be reset by the fabric control driver software. Device must be re-initialized and connections re-established. |
An event of this type will result in an ATM Switch Module reset. The service-affecting period will typically be 45 seconds in duration. ADSL layer 1 connections will not be lost, but subscriber data traffic (ATM AAL5 cells) will not be switched across the switch fabric during this period.
1. In some cases, a module will force itself into a self-test based on the alarm condition. In other cases, the SC will force the alarmed module to reset. A module reset forces the module to be power cycled, self-tested, and re-configured into the slot by the SC.
2. Many alarm conditions will clear as a result of a module reset.
3. Look for the alarm to clear within one minute.
4. An alarm is cleared when the SC faceplate alarm LED changes from red to off.
5. In the ViewRunner interface, an alarm cleared is evidenced by two actions:
6. If the alarm does not clear, remove module and reinsert. This will force a module to reset in those cases where the neither the module itself or the SC could force a reset.
7. A module reset in most cases will clear all alarm conditions.
8. Observe the SC alarm LED and/or ViewRunner ejector tabs to see if alarm condition returns. If the previous problem persists, the condition will probably reoccur within a minute or so.
9. If the alarm condition persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
11 | FC_ALM_INSERT_SYNC_ERR | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, ingress insertion FIFO synch error. Fabric control driver software resets FIFO. |
An event of this type will cause an automatic recovery attempt by the ASM fabric control driver software. The duration of the automatic recovery should be on the order of milliseconds. As such, service is only momentarily impaired, is recoverable at higher layers, and is most likely transparent from an application level perspective.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
12 | FC_ALM_FULL_MEM_TEST_FAILURE | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, diagnostic memory test detects memory failure. |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
1. Alarms of this type are generated only during module initialization and will force a module reset automatically.
2. If reset condition continues (module never comes out of self-test mode), reinsert the module.
3. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
13 | FC_ABM_SEQ_ERROR_ILL | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, a sequence error in the ingress linked list is detected. Fabric control driver software will reset, and re-initialize the device. Connections must be re-established. |
An event of this type will result in an ATM Switch Module reset. The service-affecting period will typically be 45 seconds in duration. ADSL layer 1 connections will not be lost, but subscriber data traffic (ATM AAL5 cells) will not be switched across the switch fabric during this period.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
14 | FC_ABM_PAR_ERR_ING_CELL | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, cell dropped due to ingress parity error. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
15 | FC_ABM_SEQ_ERROR_ELL | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, sequence error in egress linked list is detected. Fabric control driver software will reset, and re-initialize the device. Connections must be re-established. |
An event of this type will result in an ATM Switch Module reset. The service-affecting period will typically be 45 seconds in duration. ADSL layer 1 connections will not be lost, but subscriber data traffic (ATM AAL5 cells) will not be switched across the switch fabric during this period.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
16 | FC_ABM_PAR_ERR_ING_STORED | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, parity error detected in ingress buffer RAM. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
17 | FC_ABM_PAR_ERR_EG_STORED | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, parity error detected in egress buffer RAM. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
18 | FC_ABM_PAR_ERR_PRAM | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, external pointer RAM error detected. Fabric control driver software will reset and re-initialize the device. Connections must be re-established. |
An event of this type will result in an ATM Switch Module reset. The service-affecting period will typically be 45 seconds in duration. ADSL layer 1 connections will not be lost, but subscriber data traffic (ATM AAL5 cells) will not be switched across the switch fabric during this period.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
19 | FC_ABM_PRAM_ILL_ERROR | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, ingress linked list empty. Cell processing halts until pointers become available. |
An event of this type will cause an automatic recovery attempt by the ASM fabric control driver software. The duration of the automatic recovery should be on the order of milliseconds. As such, service is only momentarily impaired, is recoverable at higher layers, and is most likely transparent from an application level perspective.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
20 | FC_ABM_PRAM_ELL_ERROR | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, egress linked list empty. Cell processing halts until pointers become available. |
An event of this type will cause an automatic recovery attempt by the ASM fabric control driver software. The duration of the automatic recovery should be on the order of milliseconds. As such, service is only momentarily impaired, is recoverable at higher layers, and is most likely transparent from an application level perspective.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
21 | FC_ABM_PRAM_EIPLL_ERROR | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, egress IP free list empty. Cell processing halts until pointers become available. |
An event of this type will cause an automatic recovery attempt by the ASM fabric control driver software. The duration of the automatic recovery should be on the order of milliseconds. As such, service is only momentarily impaired, is recoverable at higher layers, and is most likely transparent from an application level perspective.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
22 | FC_ABM_ING_SYNC_ERROR | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, cell dropped due to ingress UTOPIA sync error. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
23 | FC_ABM_EG_SYNC_ERROR | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, cell dropped due to egress UTOPIA sync error. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
24 | FC_ABM_PTR_MEM_TEST_FAILURE | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, diagnostic detected external memory failure. |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
1. Alarms of this type are generated only during module initialization and will force a module reset automatically.
2. If reset condition continues (module never comes out of self-test mode), reinsert the module.
3. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
25 | FC_ASX_CRCERR | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, CRC error detected on incoming cell, cell dropped. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
26 | FC_ASX_IPRTOERR | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, input port overrun error. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
27 | FC_ASX_LLERR | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, linked list error detected. Fabric control driver software must reset and re-initialize the device. |
An event of this type will result in an ATM Switch Module reset. The service-affecting period will typically be 45 seconds in duration. ADSL layer 1 connections will not be lost, but subscriber data traffic (ATM AAL5 cells) will not be switched across the switch fabric during this period.
1. In some cases, a module will force itself into a self-test based on the alarm condition. In other cases, the SC will force the alarmed module to reset. A module reset forces the module to be power cycled, self-tested, and re-configured into the slot by the SC.
2. Many alarm conditions will clear as a result of a module reset.
3. Look for the alarm to clear within one minute.
4. An alarm is cleared when the SC faceplate alarm LED changes from red to off.
5. In the ViewRunner interface, an alarm cleared is evidenced by two actions:
6. If the alarm does not clear, remove module and reinsert. This will force a module to reset in those cases where the neither the module itself or the SC could force a reset.
7. A module reset in most cases will clear all alarm conditions.
8. Observe the SC alarm LED and/or ViewRunner ejector tabs to see if alarm condition returns. If the previous problem persists, the condition will probably reoccur within a minute or so.
9. If the alarm condition persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
28 | FC_ASX_PARITY_ERR | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, input parity error detected, cell dropped. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
29 | FC_CD_INIT_FAILURE | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Cell delineator initialization failure. |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
1. Alarms of this type are generated only during module initialization and will force a module reset automatically.
2. If reset condition continues (module never comes out of self-test mode), reinsert the module.
3. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
30 | FC_SONET_INIT_FAILURE | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
OC3 hardware initialization failure. |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
1. Alarms of this type are generated only during module initialization and will force a module reset automatically.
2. If reset condition continues (module never comes out of self-test mode), reinsert the module.
3. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
31 | NO_IPC_QUEUE_DEFINED | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
IPC does not recognize a User Plane queue request. |
The event is not propagated from the module to Fault Manager, and will not be registered in the ViewRunner Event History Window.
1. Alarms of this type are generated only during module initialization and will force a module reset automatically.
2. If reset condition continues (module never comes out of self-test mode), reinsert the module.
3. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
32 | FC_CD_RX_ERROR | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Cell delineator receive error. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
33 | FC_CD_TX_ERROR | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Cell delineator transmit error. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
34 | FC_CD_CFG_FAILURE | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Cell delineator initialization failure. |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
| ID | Alarm Name | Severity |
|---|---|---|
38 | FC_ABM_BP_OVERRIDE | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
ATM chipset, backpressure indications from switch are being overridden to prevent cell loss. |
Events of this type are not system problems, but occur rather as a result of normal ATM traffic congestion buildup. As cell buffers empty, a clear message will be issued. The event is coded as minor as continued events of this type are a possible indication of the need to revisit traffic-engineering assumptions. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
39 | FC_ATM_CNX_FAIL_ERROR | Information |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Fabric control was unable to complete a requested connection. |
Events of this type are not service affecting, as they occur only at configuration time. The event is coded as informational as there is no resource state change when the condition clears, and there is, therefore, no follow-on clear event.
None.
| ID | Alarm Name | Severity |
|---|---|---|
42 | FC_SUBTEND_PORT_BUFFER_OVERFLOW | Information |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Buffer overflow in the cell buffer on the subtend module. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
43 | FC_SUBTEND_PORT_UTOPIA_ERROR | Information |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Error in UTOPIA chip. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
46 | FC_SUBTEND_PORT_EGRESS_PARITY | Information |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Parity error in cell egress path. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
There are a number of events that could cause alarms in the 6100 system. Many of those events return messages that are informational only. Others are warnings or minor alarm conditions (those affecting few subscribers). Others are major or critical alarms which require prompt attention in case they affect a large number of subscribers.
The following table lists NI OC3 alarms event codes, providing their IDs, definitions, severity, and description. A detailed explanation of these events and the actions required to deal with them (if any) are to be found in subsections which follow the event code table.
| ID | Definition | Severity | Description |
|---|---|---|---|
48 | FC_OC3_LCD_FAULT | Info | SONET, loss of cell delineation. |
49 | FC_OC3_OCD_FAULT | Critical | SONET, out of cell delineation. |
50 | FC_OC3_FIFO_FULL | Critical | SONET, framer FIFO overflow. |
51 | FC_OC3_C2_MISMATCH | Critical | SONET, received payload incorrect type. |
52 | FC_OC3_PRDI | Critical | SONET, path RDI received. |
53 | FC_OC3_PAIS | Critical | SONET, path AIS received. |
54 | FC_OC3_APS_CHANGE | Critical | SONET, auto protection switch. |
55 | FC_OC3_APS_IAB | Minor | SONET, auto protection switch byte is corrupted 3 of 12 times. |
56 | FC_OC3_POINTER_CHANGE | Info | SONET, data pointer changed. |
57 | FC_OC3_LOP | Critical | SONET, loss of pointer condition. |
58 | FC_OC3_LRDI | Critical | SONET, line RDI received. |
59 | FC_OC3_LAIS | Critical | SONET, line AIS received. |
60 | FC_OC3_LOF | Info | SONET, loss of frame condition. |
61 | FC_OC3_OOF | Critical | SONET, out of frame condition detected. |
62 | FC_OC3_LOSY | Critical | SONET, loss of signal detected by optical transceiver. |
63 | FC_OC3_LOS | Critical | SONET, loss of signal detected by SONET device. |
| ID | Alarm Name | Severity |
|---|---|---|
48 | FC_OC3_LCD_FAULT | Information |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
SONET, Loss of cell delineation. |
An event of this severity will cause loss of service for more than four subscribers. Examples include:
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
49 | FC_OC3_OCD_FAULT | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
SONET, Out of cell delineation. |
Defined by the OC3 standard as critical.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
50 | FC_OC3_FIFO_FULL | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
SONET, Framer FIFO overflow. |
Defined by the OC3 standard as critical.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
51 | FC_OC3_C2_MISMATCH | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
SONET, received payload incorrect type. |
Defined by the OC3 standard as critical.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
52 | FC_OC3_PRDI | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
SONET, path RDI received. |
Defined by the OC3 standard as critical.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
53 | FC_OC3_PAIS | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
SONET, path AIS received. |
Defined by the OC3 standard as critical.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
54 | FC_OC3_APS_CHANGE | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
SONET, auto protection switch. |
Subscriber traffic is not affected by the occurrence of this event. The event is truly informational, as there is no state change, and therefore no assert/clear cycle.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
55 | FC_OC3_APS_IAB | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
SONET, auto protection switch byte is corrupted 3 of 12 reads. |
Subscriber traffic is not affected by the occurrence of this event. The event is truly informational, as there is no state change, and therefore no assert/clear cycle.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
56 | FC_OC3_POINTER_CHANGE | Information |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
SONET, data pointer changed. |
The event is not propagated from the module to Fault Manager, and will not be registered in the ViewRunner Event History Window.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
57 | FC_OC3_LOP | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
SONET, loss of pointer condition. |
Defined by the OC3 standard as critical.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
58 | FC_OC3_LRDI | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
SONET, line RDI received. |
Defined by the OC3 standard as critical.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
59 | FC_OC3_LAIS | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
SONET, line AIS received. |
Defined by the OC3 standard as critical.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
60 | FC_OC3_LOF | Information |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
SONET, loss of frame condition. |
The event is not propagated from the module to Fault Manager, and will not be registered in the ViewRunner Event History Window.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
61 | FC_OC3_OOF | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
SONET, out of frame condition detected. |
Defined by the OC3 standard as critical.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
62 | FC_OC3_LOSY | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
SONET, loss of signal detected by optical transceiver. |
Defined by the OC3 standard as critical.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
63 | FC_OC3_LOS | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
SONET, loss of signal detected by a SONET device. |
Defined by the OC3 standard as critical.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
There are a number of events that could cause alarms in the 6100 system. Many of those events return messages that are informational only. Others are warnings or minor alarm conditions (those affecting few subscribers). Others are major or critical alarms which require prompt attention in case they affect a large number of subscribers.
The following table lists the NI DS3 event codes, providing their IDs, definitions, severity, and description. A detailed explanation of these events and the actions required to deal with them (if any) are to be found in subsections which follow the event code table.
| ID | Definition | Severity | Description |
|---|---|---|---|
81 | FC_DS3_OCD | Critical | DS3, out of cell delineation. |
82 | FC_DS3_FIFO_FULL | Minor | DS3, framer FIFO overflow. |
83 | FC_DS3_IDLE | Critical | DS3, receiving idle. |
84 | FC_DS3_RAI | Critical | DS3, receiving remote alarm indication. |
90 | FC_DS3_YELLOW | Critical | DS3, receiving yellow alarm. |
91 | FC_DS3_AIS | Critical | DS3, receiving AIS. |
93 | FC_DS3_OOF | Critical | DS3, out of frame condition detected. |
94 | FC_DS3_LIU_LOS | Critical | DS3, loss of signal detected at LIU. |
95 | FC_DS3_LOS | Critical | DS3, loss of signal detected at framer. |
96 | FC_DS3_TX_PARITY | Minor | DS3, parity error detected on transmit UTOPIA bus. |
97 | FC_DS3_RX_PARITY | Minor | DS3, HEC error detected on receive UTOPIA bus. |
99 | FC_DS3_CPAR | Info | DS3, unexpected frame format. |
101 | FC_DS3_PLCP_OOF | Minor | DS3, PLCP out of frame condition detected. |
102 | FC_DS3_PLCP_LOF | Minor | DS3, PLCP loss of frame error detected. |
| ID | Alarm Name | Severity |
|---|---|---|
81 | FC_DS3_OCD | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
DS3, out of cell delineation. |
Defined by the DS3 standard as critical.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
82 | FC_DS3_FIFO_FULL | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
DS3, framer FIFO overflow. |
An event of this type will cause an automatic recovery attempt by the ASM fabric control driver software. The duration of the automatic recovery should be on the order of milliseconds. As such, service is only momentarily impaired, is recoverable at higher layers, and is most likely transparent from an application level perspective.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
83 | FC_DS3_IDLE | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
DS3, receiving idle. |
Defined by the DS3 standard as critical.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
84 | FC_DS3_RAI | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
DS3, receiving remote alarm indication. |
Defined by the DS3 standard as critical.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
90 | FC_DS3_YELLOW | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
DS3, receiving yellow alarm. |
Defined by the DS3 standard as critical.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
91 | FC_DS3_AIS | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
DS3, receiving AIS. |
Defined by the DS3 standard as critical.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
93 | FC_DS3_OOF | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
DS3, out of frame condition detected. |
Defined by the DS3 standard as critical.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
94 | FC_DS3_LIU_LOS | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
DS3, loss of signal detected at LIU. |
Defined by the DS3 standard as critical.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
95 | FC_DS3_LOS | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
DS3, loss of signal detected at framer. |
Defined by the DS3 standard as critical.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
96 | FC_DS3_TX_PARITY | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
DS3, parity error detected on transmit UTOPIA bus. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
97 | FC_DS3_RX_PARITY | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
DS3, HEC error detected on receive UTOPIA bus. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
99 | FC_DS3_CPAR | Information |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
DS3, unexpected frame format. |
Subscriber traffic is not affected by the occurrence of this event. The event is truly informational, as there is no state change, and therefore no assert/clear cycle.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
101 | FC_DS3_PLCP_OOF | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
DS3, PLCP out of frame condition detected. |
An event of this type will result in the loss of all cell traffic until the PLCP convergence protocol is able to resynchronize to the beginning of the frame pointer. This condition could last for up to five seconds.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
102 | FC_DS3_PLCP_LOF | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
DS3, PLCP loss of frame error detected. |
An event of this type will result in the loss of all cell traffic until the PLCP convergence protocol is able to resynchronize to the beginning of the frame pointer. This condition could last for a few milliseconds.
Wait for resyncronization.
There are a number of events that could cause alarms in the 6100 system. Many of those events return messages that are informational only. Others are warnings or minor alarm conditions (those affecting few subscribers). Others are major or critical alarms which require prompt attention in case they affect a large number of subscribers.
The following table lists the DS3 Subtend Host Module (STM) event codes, providing their IDs, definitions, severity, and description. A detailed explanation of these events and the actions required to deal with them (if any) are to be found in subsections which follow the event code table.
| ID | Definition | Severity | Description |
|---|---|---|---|
128 | LR_CREATE_OBJ | Info | Module was detected. |
129 | LR_PING_FAIL | Critical | Module did not respond to the system monitor. |
42 | FC_SUBTEND_PORT_BUFFER_OVERFLOW | Info | Buffer overflow in the cell buffer on the subtend module. |
44 | FC_SUBTEND_PORT_INGRESS_HEC | Info | Subtend port ingress HEC error. |
| ID | Alarm Name | Severity |
|---|---|---|
128 | LR_CREATE_OBJ | Information |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Module was detected. |
Events of this type are benevolent, and are not indicative of service impairment or loss.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
129 | LR_PING_FAIL | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Module did not respond to the system monitor. |
Events of this type would normally be tagged as "Minor", but for Release 2.0 still need to be maintained as "Critical" to preserve node software's need to couple event severity from service state impact. These will be de-coupled post Release 2.0, and this category will cease to exist.
1. In some cases, a module will force itself into a self-test based on the alarm condition. In other cases, the SC will force the alarmed module to reset. A module reset forces the module to be power cycled, self-tested, and re-configured into the slot by the SC.
2. Many alarm conditions will clear as a result of a module reset.
3. Look for the alarm to clear within one minute.
4. An alarm is cleared when the SC faceplate alarm LED changes from red to off.
5. In the ViewRunner interface, an alarm cleared is evidenced by two actions:
6. If the alarm does not clear, remove module and reinsert. This will force a module to reset in those cases where the neither the module itself or the SC could force a reset.
7. A module reset in most cases will clear all alarm conditions.
8. Observe the SC alarm LED and/or ViewRunner ejector tabs to see if alarm condition returns. If the previous problem persists, the condition will probably reoccur within a minute or so.
9. If the alarm condition persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
42 | FC_SUBTEND_PORT_BUFFER_OVERFLOW | Information |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Buffer overflow in the cell buffer on the subtend module. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
44 | FC_SUBTEND_PORT_INGRESS_HEC | Information |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Subtend port ingress HEC error. |
An event of this type will most likely result in loss of a single cell. Loss of a single cell is a transient event, affects only one subscriber, and is recoverable at higher layers in the protocol stack. Multiple occurrences of the event are more serious, typically indicative of a failed hardware component on the ATM Switch Module (ASM). Multiple occurrences are defined as more than a couple of occurrences in a short period of time (on the order seconds). If a problem with cell loss, and ultimately subscriber traffic throughout is suspected, service personnel should review the ViewRunner History Event Log for multiple occurrences. In a future software release, multiple occurrences will cause a threshold to be crossed, generating a higher severity alarm.
1. Alarms of this type are typically due to short term (milliseconds in duration) incidents that will clear as a normal course of traffic management (buffer space becomes available, parity error recovered at a higher layer, brief loss of signal, etc.).
2. As a result, these alarms will be followed by an alarm "Cleared" event.
3. If an alarm clear is not received within one minute, reinsert the module.
4. If problem persists, replace module.
There are a number of events that could cause alarms in the 6100 system. Many of those events return messages that are informational only. Others are warnings or minor alarm conditions (those affecting few subscribers). Others are major or critical alarms which require prompt attention in case they affect a large number of subscribers.
The following table lists LIM controller module event codes, providing their IDs, definitions, severity, and description. A detailed explanation of these events and the actions required to deal with them (if any) are to be found in subsections which follow the event code table.
| ID | Definition | Severity | Description |
|---|---|---|---|
3 | SCL_OUT_OF_MEMORY | Critical | Application was unable to allocate memory. |
128 | LR_CREATE_OBJ | Info | Module was detected. |
129 | LR_PING_FAIL | Critical | Module did not respond to system monitor. |
| ID | Alarm Name | Severity |
|---|---|---|
3 | SCL_OUT_OF_MEMORY | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Application was unable to allocate memory. |
An event of this severity will cause loss of service for more than four subscribers. Examples include:
1. In some cases, a module will force itself into a self-test based on the alarm condition. In other cases, the SC will force the alarmed module to reset. A module reset forces the module to be power cycled, self-tested, and re-configured into the slot by the SC.
2. Many alarm conditions will clear as a result of a module reset.
3. Look for the alarm to clear within one minute.
4. An alarm is cleared when the SC faceplate alarm LED changes from red to off.
5. In the ViewRunner interface, an alarm cleared is evidenced by two actions:
6. If the alarm does not clear, remove module and reinsert. This will force a module to reset in those cases where the neither the module itself or the SC could force a reset.
7. A module reset in most cases will clear all alarm conditions.
8. Observe the SC alarm LED and/or ViewRunner ejector tabs to see if alarm condition returns. If the previous problem persists, the condition will probably reoccur within a minute or so.
9. If the alarm condition persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
128 | LR_CREATE_OBJ | Information |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Module was detected. |
Events of this type are benevolent, and are not indicative of service impairment or loss.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
129 | LR_PING_FAIL | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Module did not respond to the system monitor. |
An event of this severity will cause loss of service for more than four subscribers. Examples include:
1. In some cases, a module will force itself into a self-test based on the alarm condition. In other cases, the SC will force the alarmed module to reset. A module reset forces the module to be power cycled, self-tested, and re-configured into the slot by the SC.
2. Many alarm conditions will clear as a result of a module reset.
3. Look for the alarm to clear within one minute.
4. An alarm is cleared when the SC faceplate alarm LED changes from red to off.
5. In the ViewRunner interface, an alarm cleared is evidenced by two actions:
6. If the alarm does not clear, remove module and reinsert. This will force a module to reset in those cases where the neither the module itself or the SC could force a reset.
7. A module reset in most cases will clear all alarm conditions.
8. Observe the SC alarm LED and/or ViewRunner ejector tabs to see if alarm condition returns. If the previous problem persists, the condition will probably reoccur within a minute or so.
9. If the alarm condition persists, replace module.
There are a number of events that could cause alarms in the 6100 system. Many of those events return messages that are informational only. Others are warnings or minor alarm conditions (those affecting few subscribers). Others are major or critical alarms which require prompt attention in case they affect a large number of subscribers.
The following table lists LIM event codes, providing their IDs, definitions, severity, and description. A detailed explanation of these events and the actions required to deal with them (if any) are to be found in subsections which follow the event code table.
| ID | Definition | Severity | Description |
|---|---|---|---|
1 | FMEVENT_LIM_DOH_CALIBRATION_FAILURE | Major | LIM was not able to perform Digital Off-Hook (DOH) calibration. |
3 | FMEVENT_LIM_CONNECT_FAILURE | Major | LIM was not able to connect to the switching matrix. |
128 | LR_CREATE_OBJ | Info | Module was detected. |
129 | LR_PING_FAIL | Critical | Module did not respond to system monitor. |
| ID | Alarm Name | Severity |
|---|---|---|
1 | FMEVENT_LIM_DOH_CALIBRATION_FAILURE | Major |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
LIM was not able to perform DOH calibration. |
Events of this type would normally be tagged as "Minor", but for Release 2.0 still need to be maintained as "Critical" to preserve node software's need to couple event severity from service state impact. These will be de-coupled post Release 2.0, and this category will cease to exist.
1. In some cases, a module will force itself into a self-test based on the alarm condition. In other cases, the SC will force the alarmed module to reset. A module reset forces the module to be power cycled, self-tested, and re-configured into the slot by the SC.
2. Many alarm conditions will clear as a result of a module reset.
3. Look for the alarm to clear within one minute.
4. An alarm is cleared when the SC faceplate alarm LED changes from red to off.
5. In the ViewRunner interface, an alarm cleared is evidenced by two actions:
6. If the alarm does not clear, remove module and reinsert. This will force a module to reset in those cases where the neither the module itself or the SC could force a reset.
7. A module reset in most cases will clear all alarm conditions.
8. Observe the SC alarm LED and/or ViewRunner ejector tabs to see if alarm condition returns. If the previous problem persists, the condition will probably reoccur within a minute or so.
9. If the alarm condition persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
3 | FMEVENT_LIM_CONNECT_FAILURE | Major |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
LIM was not able to connect to the switching matrix. |
Events of this type would normally be tagged as "Minor", but for Release 2.0 still need to be maintained as "Critical" to preserve node software's need to couple event severity from service state impact. These will be de-coupled post Release 2.0, and this category will cease to exist.
1. In some cases, a module will force itself into a self-test based on the alarm condition. In other cases, the SC will force the alarmed module to reset. A module reset forces the module to be power cycled, self-tested, and re-configured into the slot by the SC.
2. Many alarm conditions will clear as a result of a module reset.
3. Look for the alarm to clear within one minute.
4. An alarm is cleared when the SC faceplate alarm LED changes from red to off.
5. In the ViewRunner interface, an alarm cleared is evidenced by two actions:
6. If the alarm does not clear, remove module and reinsert. This will force a module to reset in those cases where the neither the module itself or the SC could force a reset.
7. A module reset in most cases will clear all alarm conditions.
8. Observe the SC alarm LED and/or ViewRunner ejector tabs to see if alarm condition returns. If the previous problem persists, the condition will probably reoccur within a minute or so.
9. If the alarm condition persists, replace module.
| ID | Alarm Name | Severity |
|---|---|---|
128 | LR_CREATE_OBJ | Information |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Module was detected. |
Events of this type are benevolent, and are not indicative of service impairment or loss.
1. This is an informational event, not an alarm. Informational events do not represent a state change, and therefore, will not be followed by an alarm "Cleared" event.
2. Informational events are typically one-time occurrences that will be corrected by the module without a reset or will pass without service degradation.
3. No craft action required.
| ID | Alarm Name | Severity |
|---|---|---|
129 | LR_PING_FAIL | Critical |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Module did not respond to the system monitor. |
Events of this type would normally be tagged as "Minor", but for Release 2.0 still need to be maintained as "Critical" to preserve node software's need to couple event severity from service state impact. These will be de-coupled post Release 2.0, and this category will cease to exist.
1. In some cases, a module will force itself into a self-test based on the alarm condition. In other cases, the SC will force the alarmed module to reset. A module reset forces the module to be power cycled, self-tested, and re-configured into the slot by the SC.
2. Many alarm conditions will clear as a result of a module reset.
3. Look for the alarm to clear within one minute.
4. An alarm is cleared when the SC faceplate alarm LED changes from red to off.
5. In the ViewRunner interface, an alarm cleared is evidenced by two actions:
6. If the alarm does not clear, remove module and reinsert. This will force a module to reset in those cases where the neither the module itself or the SC could force a reset.
7. A module reset in most cases will clear all alarm conditions.
8. Observe the SC alarm LED and/or ViewRunner ejector tabs to see if alarm condition returns. If the previous problem persists, the condition will probably reoccur within a minute or so.
9. If the alarm condition persists, replace module.
There are a number of events that could cause alarms in the 6100 system. Many of those events return messages that are informational only. Others are warnings or minor alarm conditions (those affecting few subscribers). Others are major or critical alarms which require prompt attention in case they affect a large number of subscribers.
The following table lists slot event codes, providing their IDs, definitions, severity, and description. A detailed explanation of these events and the actions required to deal with them (if any) are to be found in subsections which follow the event code table.
| ID | Definition | Severity | Description |
|---|---|---|---|
1 | SLOT_MISMATCH_EVENT | Minor | A module was inserted in the slot that did not match the type that was pre-provisioned for that slot. |
2 | SLOT_INVALID_EVENT | Minor | A module that was not valid for the slot was inserted in the slot. |
3 | SLOT_NO_IMAGE_EVENT | Minor | No image exists for the type module present in the slot. |
4 | SLOT_IMAGE_NOT_READY | Minor | Image for download is not ready |
5 | SLOT_DOWNLOAD_START | Info | Download of a module image to the identified slot has begun. |
6 | SLOT_DOWNLOAD_COMP | Info | Download of a module image to the identified slot has completed. |
7 | SLOT_DOWNLOAD_FAIL | Info | Download of a module image to the identified slot has failed. |
8 | SLOT_CURR_IMG_FAIL | Minor | Image could not be obtained for module in slot. |
| ID | Alarm Name | Severity |
|---|---|---|
1 | SLOT_MISMATCH_EVENT | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
A module was inserted in the slot that did not match the type that was pre-provisioned for the slot. |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
1. Pre-provisioning may have been performed on this slot during system configuration (after SC was installed). Pre-provisioning implies that a slot has been configured for a given module type, and the SC has detected a different module is physically inserted in this slot.
2. Check ViewRunner information on the slot and either replace the wrong module type with the pre-provisioned module type, or delete module configuration for the slot.
| ID | Alarm Name | Severity |
|---|---|---|
2 | SLOT_INVALID_EVENT | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
A module that was not valid for the slot was inserted in the slot. |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
1. The configuration style being used in this node (DOH standard, DOH entry level, or direct connect) does not expect to see a module of the type inserted in this slot. Refer to the Cisco 6100 Set Up and Installation Manual for more information on configuration styles.
2. Remove inappropriate module and delete configuration using ViewRunner.
| ID | Alarm Name | Severity |
|---|---|---|
3 | SLOT_NO_IMAGE_EVENT | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
No image exists for the type module present in the slot. |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
1. Pre-provisioning may have been performed on this slot during system configuration (after SC was installed). Pre-provisioning implies that a slot has been configured for a given module type, and the SC has detected a different module is physically inserted in this slot.
2. Check ViewRunner information on the slot and either replace the wrong module type with the pre-provisioned module type, or delete module configuration for the slot.
| ID | Alarm Name | Severity |
|---|---|---|
4 | SLOT_IMAGE_NOT_READY | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Image for download is not ready. |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
1. Pre-provisioning may have been performed on this slot during system configuration (after SC was installed). Pre-provisioning implies that a slot has been configured for a given module type, and the SC has detected a different module is physically inserted in this slot.
2. Check ViewRunner information on the slot and either replace the wrong module type with the pre-provisioned module type, or delete module configuration for the slot.
| ID | Alarm Name | Severity |
|---|---|---|
5 | SLOT_DOWNLOAD_START | Information |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Download of a module image to the identified slot has begun |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
1. Pre-provisioning may have been performed on this slot during system configuration (after SC was installed). Pre-provisioning implies that a slot has been configured for a given module type, and the SC has detected a different module is physically inserted in this slot.
2. Check ViewRunner information on the slot and either replace the wrong module type with the pre-provisioned module type, or delete module configuration for the slot.
| ID | Alarm Name | Severity |
|---|---|---|
6 | SLOT_DOWNLOAD_COMP | Information |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Download of a module image to the identified slot has completed. |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
1. Pre-provisioning may have been performed on this slot during system configuration (after SC was installed). Pre-provisioning implies that a slot has been configured for a given module type, and the SC has detected a different module is physically inserted in this slot.
2. Check ViewRunner information on the slot and either replace the wrong module type with the pre-provisioned module type, or delete module configuration for the slot.
| ID | Alarm Name | Severity |
|---|---|---|
7 | SLOT_DOWNLOAD_FAIL | Information |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Download of a module image to the identified slot has failed. |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
1. Pre-provisioning may have been performed on this slot during system configuration (after SC was installed). Pre-provisioning implies that a slot has been configured for a given module type, and the SC has detected a different module is physically inserted in this slot.
2. Check ViewRunner information on the slot and either replace the wrong module type with the pre-provisioned module type, or delete module configuration for the slot.
| ID | Alarm Name | Severity |
|---|---|---|
8 | SLOT_CURR_IMG_FAIL | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Image could not be obtained for module in slot. |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
1. Pre-provisioning may have been performed on this slot during system configuration (after SC was installed). Pre-provisioning implies that a slot has been configured for a given module type, and the SC has detected a different module is physically inserted in this slot.
2. Check ViewRunner information on the slot and either replace the wrong module type with the pre-provisioned module type, or delete module configuration for the slot.
The software download procedure can result in various minor or informational alarms. These are not service affecting and happen only when you are attempting to download software.
The following table lists software download event codes, providing their IDs, definitions, severity, and description. A detailed explanation of these events and the actions required to deal with them (if any) are to be found in subsections which follow the event code table.
| ID | Definition | Severity | Description |
|---|---|---|---|
1 | MUM_TFTPING_FAULT | Minor | TFTP file download failure |
2 | MUM_TFTP_SUCCESSFUL | Info | TFTP file download successful |
3 | MUM_TFTP_TIMEOUT_FAULT | Minor | TFTP timeout incurred during download |
4 | MUM_FILE_NOT_FOUND_FAULT | Minor | Requested TFTP file not found |
5 | MUM_CHKSUM_FAIL_FAULT | Minor | Checksum failed on TFTP file download |
6 | MUM_SIZE_CHK_FAULT | Minor | File size check failed on TFTP file download |
7 | MUM_DB_WRITE_FAULT | Minor | TFTP file transfer failed; image could not be written to 6100 database |
8 | MUM_NO_SPACE_FAULT | Minor | Insufficient SC memory to contained TFTP'd image |
9 | MUM_TFTP_GENERAL_FAULT | Minor | TFTP file transfer failed |
| ID | Alarm Name | Severity |
|---|---|---|
1 | MUM_TFTPING_FAULT | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
TFTP file download failure. |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
1. Pre-provisioning may have been performed on this slot during system configuration (after SC was installed). Pre-provisioning implies that a slot has been configured for a given module type, and the SC has detected a different module is physically inserted in this slot.
2. Check ViewRunner information on the slot and either replace the wrong module type with the pre-provisioned module type, or delete module configuration for the slot.
| ID | Alarm Name | Severity |
|---|---|---|
2 | MUM_TFTP_SUCCESSFUL | Information |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
TFTP file download successful. |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
1. Pre-provisioning may have been performed on this slot during system configuration (after SC was installed). Pre-provisioning implies that a slot has been configured for a given module type, and the SC has detected a different module is physically inserted in this slot.
2. Check ViewRunner information on the slot and either replace the wrong module type with the pre-provisioned module type, or delete module configuration for the slot.
| ID | Alarm Name | Severity |
|---|---|---|
3 | MUM_TFTP_TIMEOUT_FAULT | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
TFTP timeout incurred during download. |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
1. Pre-provisioning may have been performed on this slot during system configuration (after SC was installed). Pre-provisioning implies that a slot has been configured for a given module type, and the SC has detected a different module is physically inserted in this slot.
2. Check ViewRunner information on the slot and either replace the wrong module type with the pre-provisioned module type, or delete module configuration for the slot.
| ID | Alarm Name | Severity |
|---|---|---|
4 | MUM_FILE_NOT_FOUND_FAULT | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Requested TFTP file not found. |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
1. Pre-provisioning may have been performed on this slot during system configuration (after SC was installed). Pre-provisioning implies that a slot has been configured for a given module type, and the SC has detected a different module is physically inserted in this slot.
2. Check ViewRunner information on the slot and either replace the wrong module type with the pre-provisioned module type, or delete module configuration for the slot.
| ID | Alarm Name | Severity |
|---|---|---|
5 | MUM_CHKSUM_FAIL_FAULT | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Checksum failed on TFTP file download. |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
1. Pre-provisioning may have been performed on this slot during system configuration (after SC was installed). Pre-provisioning implies that a slot has been configured for a given module type, and the SC has detected a different module is physically inserted in this slot.
2. Check ViewRunner information on the slot and either replace the wrong module type with the pre-provisioned module type, or delete module configuration for the slot.
| ID | Alarm Name | Severity |
|---|---|---|
6 | MUM_SIZE_CHK_FAULT | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
File size check failed on TFTP file download. |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
1. Pre-provisioning may have been performed on this slot during system configuration (after SC was installed). Pre-provisioning implies that a slot has been configured for a given module type, and the SC has detected a different module is physically inserted in this slot.
2. Check ViewRunner information on the slot and either replace the wrong module type with the pre-provisioned module type, or delete module configuration for the slot.
| ID | Alarm Name | Severity |
|---|---|---|
7 | MUM_DB_WRITE_FAULT | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
TFTP file transfer failed; image could not be written to 6100 database. |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
1. Pre-provisioning may have been performed on this slot during system configuration (after SC was installed). Pre-provisioning implies that a slot has been configured for a given module type, and the SC has detected a different module is physically inserted in this slot.
2. Check ViewRunner information on the slot and either replace the wrong module type with the pre-provisioned module type, or delete module configuration for the slot.
| ID | Alarm Name | Severity |
|---|---|---|
8 | MUM_NO_SPACE_FAULT | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
Insufficient SC memory to contained TFTP'd image. |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
1. Pre-provisioning may have been performed on this slot during system configuration (after SC was installed). Pre-provisioning implies that a slot has been configured for a given module type, and the SC has detected a different module is physically inserted in this slot.
2. Check ViewRunner information on the slot and either replace the wrong module type with the pre-provisioned module type, or delete module configuration for the slot.
| ID | Alarm Name | Severity |
|---|---|---|
9 | MUM_TFTP_GENERAL_FAULT | Minor |
This description appears in the ViewRunner Event History Window (event log).
| Description |
|---|
TFTP file transfer failed. |
Events of this type are not "run-time" events. They occur only during module power up and self-test, and are therefore non-service affecting (since subscriber service is typically not active yet). The module will fail self-test as a result of this event, and immediately retry the self-test. A self-test failure message will be generated with each failure, and this will occur infinitely. That is, the module will never complete a successful self-test. Without a successful self-test, the module cannot be put into service, so the node will not complete its installation cycle.
Software update events are coded to this category as well, as it is assumed that s/w updates are always monitored by an operator and therefore it is less important to code events as "critical" since the goal is to monitor node status until it becomes fully operational anyway.
1. Pre-provisioning may have been performed on this slot during system configuration (after SC was installed). Pre-provisioning implies that a slot has been configured for a given module type, and the SC has detected a different module is physically inserted in this slot.
2. Check ViewRunner information on the slot and either replace the wrong module type with the pre-provisioned module type, or delete module configuration for the slot.
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Posted: Tue Nov 16 11:50:16 PST 1999
Copyright 1989-1999©Cisco Systems Inc.