Table Of Contents
Cable Commands: show m through show z
show nls
show nls ag-id
show nls flow
show packetcable event
show packetcable gate
show packetcable gate counter commit
show packetcable global
show processes cpu
show pxf cable
show pxf cable controller
show pxf cable feature
show pxf cable interface
show pxf cable multicast
show pxf cpu
show pxf cpu drl-trusted-sites
show pxf cpu queue
show pxf cpu queue wb-spa
show pxf cpu statistics
show pxf dma
show pxf microcode
show pxf xcm
show redundancy (ubr10012)
show redundancy config-sync
show redundancy platform
show running-config interface cable
show tech-support
show upgrade fpd file
show upgrade fpd package default
show upgrade fpd progress
show upgrade fpd table
show version
show voice port
Cable Commands: show m through show z
Revised: November 13, 2009, OL-15510-10
New Commands
Command
|
Cisco IOS Software Release
|
show pxf cable controller
|
12.3(23)BC1
|
show pxf cpu queue wb-spa
|
12.3(23)BC
|
show redundancy config-sync
|
12.2(33)SCA
|
show redundancy platform
|
12.2(33)SCA
|
show pxf cable multicast
|
12.2(33)SCB
|
show pxf cpu drl-trusted-site
|
12.2(33)SCB
|
Modified Commands
Command
|
Cisco IOS Software Release
|
show pxf cpu queue
|
12.3(23)BC1
|
show pxf cable
|
12.2(33)SCB
|
show pxf cable controller
|
12.2(33)SCB
|
show pxf cpu queue
|
12.2(33)SCB
|
show pxf cpu statistics
|
12.2(33)SCB
|
show upgrade fpd file
|
12.2(33)SCB
|
show upgrade fpd package default
|
12.2(33)SCB
|
show upgrade fpd progress
|
12.2(33)SCB
|
show upgrade fpd table
|
12.2(33)SCB
|
show tech support
|
12.2(33)SCB1
|
show tech support
|
12.3(23)BC7
|
show processes cpu
|
12.2(33)SCB3
|
show nls
To display the Network Layer Signalling (NLS) functionality state, use the show nls command in privileged EXEC mode.
show nls
Command Default
Information for the NLS state is displayed.
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
12.3(21a)BC3
|
This command was introduced.
|
Examples
The following example shows the output of the show cpd command:
NLS Authentication enabled
Related Commands
Command
|
Description
|
cpd
|
Enables CPD.
|
show nls ag-id
To display authorization group ID information, use the show nls ag-id command in privileged EXEC mode.
show nls ag-id
Command Default
Authorization group ID information is displayed. The authentication key is saved encrypted and is not displayed.
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
12.3(21a)BC3
|
This command was introduced.
|
Examples
The following example shows the output of the show nls-sg-idcommand:
Related Commands
Command
|
Description
|
cpd
|
Enables CPD.
|
show nls flow
To display NLS active flow information, use the show nls flow command in privileged EXEC mode.
show nls flow
Command Default
Information for NLS active flows are displayed.
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
12.3(21a)BC3
|
This command was introduced.
|
Examples
The following example shows the output of the show cpd command:
NLS flowid CPE IP CR Type CR ID NLS State
4294967295 16.16.1.1 1 1 PEND_B_RESP
Related Commands
Command
|
Description
|
cpd
|
Enables CPD.
|
show packetcable event
To display information the PacketCable event message (EM) server, use the show packetcable event command in user EXEC or privileged EXEC mode.
show packetcable event {df-group | radius-server | rks-group}
Syntax Description
df-group
|
Displays information about the Communications Assistance for Law Enforcement Act (CALEA) Delivery Function (DF) server groups that are configured on the router.
|
radius-server
|
Displays information about the EM Remote Authentication Dial In User Service (RADIUS) servers that are configured on the router.
|
rks-group
|
Displays information about the Record Keeping Server (RKS) groups that are configured on the router.
|
Command Modes
User EXEC, Privileged EXEC
Command History
Release
|
Modification
|
12.2(15)BC2
|
This command was introduced for the Cisco uBR7246VXR and Cisco uBR10012 universal broadband routers.
|
Usage Guidelines
This command displays information about the authentication, authorization, and accounting (AAA) servers that are configured on the Cisco CMTS router for PacketCable operations. These include DF servers (used for CALEA redirection of event messages and traffic), RADIUS servers (used for authentication), and RKS servers (used for billing).
Examples
The following example shows typical output for the show packetcable event df-group command, which shows the IP address and UDP port of the DF server to which event messages are being forwarded for CALEA electronic surveillance.
Router# show packetcable event df-group
The following example shows a typical display for the show packetcable event radius-server command, which shows the IP address for each RADIUS server that is configured on the router for PacketCable operations, along with the UDP port number that it is using.
Router# show packetcable event radius-server
The following example shows a typical display for the show packetcable event rks-group command.
Router# show packetcable event rks-group
Pri-addr Pri-port Sec-addr Sec-port Ref-cnt Batch-cnt
1.9.62.12 1813 1.9.62.20 1813 2 0
Table 0-182 describes the major fields shown in the show packetcable event rks-group display.
Table 0-182 show packetcable event rks-group Field Display
Field
|
Description
|
Pri-addr
|
IP address for the primary RKS server.
|
Pri-port
|
UDP port for the primary RKS server.
|
Sec-addr
|
IP address for the secondary RKS server.
|
Sec-port
|
UDP port for the secondary RKS server.
|
Ref-cnt
|
Number of times that the router send single event messages to the RKS server.
|
Batch-cnt
|
Number of times that the router sent batrch messages (multiple Event Messages within a single RADIUS message) to the RKS server.
|
Tip
For complete information about PacketCable event messaging, see the PacketCable Event Messages Specification, which is available at the PacketCable Event Messages SpecificationPacketCable web site at the following URL:
http://www.packetcable.com
Related Commands
Command
|
Description
|
clear packetcable gate counter commit
|
Resets the counters that track the total number of committed gates.
|
packetcable
|
Enables PacketCable operations on the Cisco CMTS.
|
show packetcable gate counter commit
|
Displays the total number of committed gates since system reset or since the counter was last cleared.
|
show packetcable global
|
Displays the current PacketCable configuration.
|
show packetcable gate
To display information about one or more gates in the gate database, use the show packetcable gate command in user EXEC or privileged EXEC mode.
show packetcable gate [downstream | upstream] {summary | gate-id}
Syntax Description
downstream
|
(Optional) Display information only for gates in the downstream direction.
|
upstream
|
(Optional) Display information only for gates in the upstream direction.
|
summary
|
Display a summary containing the gate ID, subscriber ID, subscriber IP address, and current state information.
|
gate-id
|
Display information for a specific gate ID. The valid range is 0 to 4294967295.
|
Defaults
Displays information about gates on both upstreams and downstreams, if upstream or downstream is not specified.
Command Modes
User EXEC, Privileged EXEC
Command History
Release
|
Modification
|
12.2(8)BC2
|
This command was introduced for the Cisco uBR7200 series universal broadband router.
|
12.2(11)BC3
|
The output for the summary option was enhanced to display the cable interface and service flow IDs (SFIDs) associated with each PacketCable gate.
|
12.2(15)BC1
|
Support was added for the Cisco uBR10012 router.
|
Usage Guidelines
This command displays information about one or more gates in the gate database on the Cisco CMTS. You can display a summary for all currently active gates, for all downstream or all upstream gates, or you can display detailed information about a specific gate.
Examples
The following example shows typical output for the show packetcable gate summary command, which displays all current gates on the CMTS:
Router# show packetcable gate summary
GateID Slot SubscriberID GC-Addr State SFID SFID
2566 2/0 3.18.1.4 172.22.87.45 COMMIT 9 10
18950 2/0 3.18.1.5 172.22.87.45 COMMIT 7 8
Total number of gates = 2
Total Gates committed(since bootup or clear counter) = 2
The following example shows a typical display for a specific gate. Both downstream and upstream gates are shown unless you also specify either the downstream or upstream option.
Router# show packetcable gate 196
GC Address : 192.168.80.15
Gate classifier : [protocol 17,
src addr/port 4.4.1.22/0,
dest addr/port 3.3.1.3/3456
diffserv dscp : 0x6000000
flowspec # 1 : [r/b/p/m/M 1176256512/1128792064/1176256512/200/200]
[R/S: 1176256512/0]
Gate classifier : [protocol 17,
dest addr/port 4.4.1.22/0
diffserv dscp : 0x9000000
flowspec # 1 : [r/b/p/m/M 1176256512/1128792064/1176256512/200/200]
[R/S: 1176256512/0]
address/port : 172.22.79.22/1812
security key[16] : 30 31 32 33 34 35 36 37 38 39 30 31 32 33 34 35
primary RKS : [addr/port 1.9.62.12/1813]
secondary RKS : [addr/port 255.255.255.255/65535]
billing corr ID : [3D 38 96 CC 20 20 20 20 31 30 20 30 00 00 00 41 ]
Table 0-183 describes the major fields shown in the show packetcable gate display.
Table 0-183 show packetcable gate Field Display
Field
|
Description
|
GateID
|
Unique number identifying the local gate.
|
Slot
|
Cable interface on the Cisco CMTS.
|
Subscriber ID
|
IP address for the subscriber for this service request.
|
GC-Addr
|
IP address for the gate controller that is responsible for this gate.
|
State
|
Describes the current state of the gate in both the upstream and downstream directions. The possible state values are:
• ALLOC = The CMTS has received a Gate-Alloc command from the gate controller and has created the gate in response. The CMTS must now wait for the request to be authorized.
• AUTH = The CMTS has received a Gate-Set command from the gate controller that authorizes the resources needed for the gate request. The CMTS must now wait for the actual resources to be reserved.
• RSVD = All required resources for the gate have been reserved.
• COMMIT = All resources have been committed at both the local CMTS and remote CMTS. The local CMTS has also received a commit notification from the local MTA and has finished all gate coordination with the remote end. The gate can now pass traffic.
• INVLD = The gate is invalid, typically because of an error condition or lack of resources. The CMTS will eventually delete the gate.
• UNKWN = The gate is an unknown state.
|
SFID (us)
|
SFID for the upstream associated with this PacketCable gate.
|
SFID (ds)
|
SFID for the downstream associated with this PacketCable gate.
|
Total number of gates
|
Displays the total number of gates that are currently allocated, authorized, reserved, or committed.
|
Total Gates committed
|
Displays the total number of gates that the CMTS has committed since the CMTS was last reset or since the counters were last cleared.
|

Tip
For complete information about the State field, see section 5.4, Gate Control Protocol Operation, in the PacketCable Dynamic Quality-of-Service Specification (PKT-SP-DQOS-I03-020116).
Related Commands
Command
|
Description
|
clear packetcable gate counter commit
|
Resets the counters that track the total number of committed gates.
|
packetcable
|
Enables PacketCable operations on the Cisco CMTS.
|
show packetcable gate counter commit
|
Displays the total number of committed gates since system reset or since the counter was last cleared.
|
show packetcable global
|
Displays the current PacketCable configuration.
|
show packetcable gate counter commit
To display the total number of gates that the CMTS has put into the COMMITTED state since the CMTS was last reset or since the counter was last cleared, use the show packetcable gate counter commit command in user EXEC or privileged EXEC mode.
show packetcable gate counter commit
Syntax Description
This command has no keywords or arguments.
Command Default
No default behavior or values.
Command Modes
User EXEC, Privileged EXEC
Command History
Release
|
Modification
|
12.2(8)BC2
|
This command was introduced for the Cisco uBR7200 series universal broadband router.
|
12.2(15)BC1
|
Support was added for the Cisco uBR10012 router.
|
Usage Guidelines
This command displays the total number of gates that have been committed since the Cisco uBR7200 series router was restarted or since the counter was last cleared with the clear packetcable gate counter commit command.
Note
This command displays only the count of committed gates. It does not include gates that were allocated, authorized, and reserved but that were not put into the COMMITTED state.
Examples
The following example shows that 132 gates have been committed since the Cisco CMTS was last reset or since the counters were last cleared:
Router# show packetcable gate counter commit
Total Gates committed (since bootup or clear counter) = 132
Related Commands
Command
|
Description
|
clear packetcable gate counter commit
|
Resets the counters that track the total number of committed gates.
|
packetcable
|
Enables PacketCable operations on the Cisco CMTS.
|
show packetcable gate
|
Displays information about one or more gates in the gate database.
|
show packetcable global
|
Displays the current PacketCable configuration.
|
show packetcable global
To display the current PacketCable configuration, including the maximum number of gates, the Element ID, and the DQoS timer values, use the show packetcable global command in user EXEC or privileged EXEC mode.
show packetcable global
Syntax Description
This command has no keywords or arguments.
Command Default
No default behavior or values.
Command Modes
User EXEC, Privileged EXEC
Command History
Release
|
Modification
|
12.2(8)BC2
|
This command was introduced for the Cisco uBR7200 series universal broadband router.
|
12.2(11)BC1
|
Support was added to display the Element ID for the CMTS.
|
12.2(11)BC2
|
Support was added to display whether non-PacketCable UGS service flows are authorized or not. The T2 and T5 timers were removed from the display to conform to the requirements of the PacketCable DQoS Engineering Change Notice (ECN) 02148.
|
12.2(15)BC1
|
Support was added for the Cisco uBR10012 router.
|
Examples
The following example shows a typical PacketCable configuration that is enabled and has the default values for all configurable parameters, except for the Element ID:
Router# show packetcable global
Packet Cable Global configuration:
Allow non-PacketCable UGS
Table 0-184 describes the fields shown in the show packetcable global display.
Table 0-184 show packetcable global Field Display
Field
|
Description
|
Enabled
|
Displays whether PacketCable operation is enabled or disabled. (See the packetcable command.)
|
Element ID
|
Displays the Element ID for the CMTS. If you do not manually configure this parameter with the packetcable element-id command, it defaults to a random value between 0 and 99,999 when PacketCable operations is enabled.
|
Max Gates
|
Displays the maximum number of gates that the CMTS supports. (See the packetcable gate maxcount command.)
|
Allow non-PacketCable UGS or Not Allow non-PacketCable UGS
|
Displays whether non-PacketCable, DOCSIS-style UGS service flows are allowed when PacketCable operations are enabled. (See the packetcable authorize vanilla-docsis-mta command.)
|
Default Timer value
|
Displays the current values of the following DQoS timers that the CMTS maintains. (See the packetcable timer command.)
|
T0
|
T0 specifies the amount of time that a gate ID can remain allocated without any specified gate parameters. The timer begins counting when a gate is allocated with a Gate-Alloc command. The timer stops when a Gate-Set command marks the gate as Authorized. If the timer expires without a Gate-Set command being received, the gate is deleted.
The valid range is 1 to 1,000,000,000 milliseconds, with a default value of 30000 milliseconds (30 seconds).
|
T1
|
T1 specifies the amount of time that an authorization for a gate can remain valid. It begins counting when the CMTS creates a gate with a Gate-Set command and puts the gate in the Authorized state. The timer stops when the gate is put into the committed state. If the timer expires without the gate being committed, the CMTS must close the gate and release all associated resources.
The valid range is 1 to 1,000,000,000 milliseconds, with a default value of 200000 milliseconds (200 seconds).
|
Related Commands
Command
|
Description
|
packetcable
|
Enables PacketCable operations on the Cisco CMTS.
|
packetcable authorize vanilla-docsis-mta
|
Allows Unsolicited Grant Service (UGS) service flows without a proper PacketCable gate ID when PacketCable operations are enabled on the Cisco CMTS.
|
packetcable element-id
|
Configures the PacketCable Event Message Element ID on the Cisco CMTS.
|
packetcable gate maxcount
|
Changes the maximum number of PacketCable gate IDs in the gate database on the Cisco CMTS.
|
packetcable timer
|
Changes the value of the different PacketCable DQoS timers.
|
show packetcable gate
|
Displays information about one or more gates in the gate database.
|
show packetcable gate counter commit
|
Displays the total number of committed gates since system reset or since the counter was last cleared.
|
show processes cpu
To display detailed CPU utilization statistics (CPU use per process) when Cisco IOS or Cisco IOS Software Modularity images are running, use the show processes cpu command in privileged EXEC mode.
Cisco IOS Software
show processes cpu [history | sorted]
Cisco IOS Software Modularity
show processes cpu [detailed [process-id | process-name] | history]
Syntax Description
history
|
(Optional) Displays CPU history in a graph format.
|
sorted
|
(Optional) For cisco IOS images only. Displays CPU utilization sorted by percentage.
|
detailed
|
(Optional) For Cisco IOS Software Modularity images only. Displays more detailed information about Cisco IOS processes (not for POSIX processes).
|
process-id
|
(Optional) For Cisco IOS Software Modularity images only. Process identifier.
|
process-name
|
(Optional) For Cisco IOS Software Modularity images only. Process name.
|
Command Modes
Privileged EXEC (#)
Command History
Release
|
Modification
|
12.0
|
This command was introduced.
|
12.2(2)T
|
The history keyword was added.
|
12.3(8)
|
This command was enhanced to display ARP output.
|
12.3(14)T
|
This command was enhanced to display ARP output.
|
12.2(18)SXF4
|
This command was enhanced to support Cisco IOS Software Modularity images.
|
12.2(33)SRA
|
This command was integrated into Cisco IOS Release 12.2(33)SRA.
|
12.2(33)SB
|
This command was integrated into Cisco IOS Release 12.2(33)SB.
|
12.2(33)SCB3
|
This command was integrated into Cisco IOS Release 12.2(33)SCB3. Support was added for Cisco uBR10012 and uBR7200 routers.
|
Usage Guidelines
Cisco IOS Software
If you use the optional history keyword, three graphs are displayed for Cisco IOS images:
•
CPU utilization for the last 60 seconds
•
CPU utilization for the last 60 minutes
•
CPU utilization for the last 72 hours
Maximum usage is measured and recorded every second; average usage is calculated on periods of more than one second. Consistently high CPU utilization over an extended period of time indicates a problem and using the show processes cpu command is useful for troubleshooting. Also, you can use the output of this command in the Cisco Output Interpreter tool to display potential issues and fixes. Output Interpreter is available to registered users of Cisco.com who are logged in and have Java Script enabled.
For a list of system processes, go to http://www.cisco.com/warp/public/63/showproc_cpu.html.
Cisco IOS Software Modularity
Cisco IOS Software Modularity images display only one graph that shows the CPU utilization for the last 60 minutes. The horizontal axis shows times (for example, 0, 5, 10, 15 minutes), and the vertical axis shows total percentage of CPU utilization (0 to 100 percent).
Examples
Example output varies between Cisco IOS software images and Cisco IOS Software Modularity software images. To view the appropriate output, choose one of the following sections:
•
Cisco IOS Software
•
Cisco IOS Software Modularity
Cisco IOS Software
The following is sample output from the show processes cpu command without keywords:
Router# show processes cpu
CPU utilization for five seconds: 5%/2%; one minute: 3%; five minutes: 2%
PID Runtime (ms) Invoked uSecs 5Sec 1Min 5Min TTY Process
1 1736 58 29931 0% 0% 0% 0 Check heaps
2 68 585 116 1.00% 1.00% 0% 0 IP Input
3 0 744 0 0% 0% 0% 0 TCP Timer
4 0 2 0 0% 0% 0% 0 TCP Protocols
5 0 1 0 0% 0% 0% 0 BOOTP Server
6 16 130 123 0% 0% 0% 0 ARP Input
7 0 1 0 0% 0% 0% 0 Probe Input
8 0 7 0 0% 0% 0% 0 MOP Protocols
9 0 2 0 0% 0% 0% 0 Timers
10 692 64 10812 0% 0% 0% 0 Net Background
11 0 5 0 0% 0% 0% 0 Logger
12 0 38 0 0% 0% 0% 0 BGP Open
13 0 1 0 0% 0% 0% 0 Net Input
14 540 3466 155 0% 0% 0% 0 TTY Background
15 0 1 0 0% 0% 0% 0 BGP I/O
16 5100 1367 3730 0% 0% 0% 0 IGRP Router
17 88 4232 20 0.20% 1.00% 0% 0 BGP Router
18 152 14650 10 0% 0% 0% 0 BGP Scanner
19 224 99 2262 0% 0% 1.00% 0 Exec
The following is sample output of the one-hour portion of the output. The Y-axis of the graph is the CPU utilization. The X-axis of the graph is the increment within the time period displayed in the graph. This example shows the individual minutes during the previous hour. The most recent measurement is on the left of the X-axis.
Router# show processes cpu history
!--- One minute output omitted
6665776865756676676666667667677676766666766767767666566667
6378016198993513709771991443732358689932740858269643922613
70 * * ***** * ** ***** *** **** ****** * ******* * *
60 #***##*##*#***#####*#*###*****#*###*#*#*##*#*##*#*##*****#
50 ##########################################################
40 ##########################################################
30 ##########################################################
20 ##########################################################
10 ##########################################################
0....5....1....1....2....2....3....3....4....4....5....5....
CPU% per minute (last 60 minutes)
* = maximum CPU% # = average CPU%
!--- 72-hour output omitted
The top two rows, read vertically, display the highest percentage of CPU utilization recorded during the time increment. In this example, the CPU utilization for the last minute recorded is 66 percent. The device may have reached 66 percent only once during that minute, or it may have reached 66 percent multiple times. The device records only the peak reached during the time increment and the average over the course of that increment.
The following is a sample output from the show processes cpu command on a Cisco uBR10012 router:
Router#show processes cpu
CPU utilization for five seconds: 2%/0%; one minute: 2%; five minutes: 2%
PID Runtime(ms) Invoked uSecs 5Sec 1Min 5Min TTY Process
1 8 471 16 0.00% 0.00% 0.00% 0 Chunk Manager
2 4 472 8 0.00% 0.00% 0.00% 0 Load Meter
3 0 1 0 0.00% 0.00% 0.00% 0 IPC 0x50000 Vers
4 0 10 0 0.00% 0.00% 0.00% 0 C10K Card Event
5 0 65 0 0.00% 0.00% 0.00% 0 Retransmission o
6 0 5 0 0.00% 0.00% 0.00% 0 IPC ISSU Dispatc
7 5112 472 10830 0.63% 0.18% 0.18% 0 Check heaps
8 0 1 0 0.00% 0.00% 0.00% 0 Pool Manager
9 0 2 0 0.00% 0.00% 0.00% 0 Timers
10 0 2 0 0.00% 0.00% 0.00% 0 Serial Backgroun
11 0 786 0 0.00% 0.00% 0.00% 0 WBCMTS process
12 0 1 0 0.00% 0.00% 0.00% 0 AAA_SERVER_DEADT
13 0 1 0 0.00% 0.00% 0.00% 0 Policy Manager
14 0 1 0 0.00% 0.00% 0.00% 0 Crash writer
15 0 1 0 0.00% 0.00% 0.00% 0 RO Notify Timers
16 0 1 0 0.00% 0.00% 0.00% 0 RMI RM Notify Wa
17 0 2364 0 0.00% 0.00% 0.00% 0 Facility Alarm
18 0 41 0 0.00% 0.00% 0.00% 0 IPC Dynamic Cach
The following is sample output from the show processes cpu command that shows an ARP probe process:
Router# show processes cpu | include ARP
17 38140 389690 97 0.00% 0.00% 0.00% 0 ARP Input
36 0 1 0 0.00% 0.00% 0.00% 0 IP ARP Probe
40 0 1 0 0.00% 0.00% 0.00% 0 ATM ARP INPUT
80 0 1 0 0.00% 0.00% 0.00% 0 RARP Input
114 0 1 0 0.00% 0.00% 0.00% 0 FR ARP
Table 185 describes the fields shown in the output.
Table 185 show processes cpu Field Descriptions
Field
|
Description
|
CPU utilization for five seconds
|
CPU utilization for the last 5 seconds. The second number indicates the percent of CPU time spent at the interrupt level.
|
one minute
|
CPU utilization for the last minute.
|
five minutes
|
CPU utilization for the last 5 minutes.
|
PID
|
Process ID.
|
Runtime (ms)
|
CPU time that the process has used (in milliseconds).
|
Invoked
|
Number of times that the process has been invoked.
|
uSecs
|
Microseconds of CPU time for each process invocation.
|
5Sec
|
CPU utilization by task in the last 5 seconds.
|
1Min
|
CPU utilization by task in the last minute.
|
5Min
|
CPU utilization by task in the last 5 minutes.
|
TTY
|
Terminal that controls the process.
|
Process
|
Name of the process.
|
Note
Because platforms have a 4- to 8-millisecond clock resolution, run times are considered reliable only after several invocations or a reasonable, measured run time.
Cisco IOS Software Modularity
The following is sample output from the show processes cpu command when a Software Modularity image is running:
Router# show processes cpu
Total CPU utilization for 5 seconds: 99.6%; 1 minute: 98.5%; 5 minutes: 85.3%
PID 5Sec 1Min 5Min Process
3 0.0% 0.0% 0.0% qdelogger
4 0.0% 0.0% 0.0% devc-pty
6 0.7% 0.2% 0.1% devc-ser2681
7 0.0% 0.0% 0.0% dumper.proc
8201 0.0% 0.0% 0.0% mqueue
8202 0.0% 0.0% 0.0% fsdev.proc
8203 0.0% 0.0% 0.0% flashfs_hes_slot1.proc
8204 0.0% 0.0% 0.0% flashfs_hes_slot0.proc
8205 0.0% 0.0% 0.0% flashfs_hes_bootflash.proc
8206 0.0% 0.0% 0.0% dfs_disk2.proc
8207 0.0% 0.0% 0.0% dfs_disk1.proc
8208 0.0% 0.0% 0.0% dfs_disk0.proc
8209 0.0% 0.0% 0.0% ldcache.proc
8210 0.0% 0.0% 0.0% watchdog.proc
8211 0.0% 0.0% 0.0% syslogd.proc
8212 0.0% 0.0% 0.0% name_svr.proc
8213 0.0% 0.1% 0.0% wdsysmon.proc
8214 0.0% 0.0% 0.0% sysmgr.proc
8215 0.0% 0.0% 0.0% kosh.proc
12290 0.0% 0.0% 0.0% chkptd.proc
12312 0.0% 0.0% 0.0% sysmgr.proc
12313 0.0% 0.0% 0.0% syslog_dev.proc
12314 0.0% 0.0% 0.0% itrace_exec.proc
12315 0.0% 0.0% 0.0% packet.proc
12316 0.0% 0.0% 0.0% installer.proc
12317 29.1% 28.5% 19.6% ios-base
12318 0.0% 0.0% 0.0% fh_fd_oir.proc
12319 0.0% 0.0% 0.1% fh_fd_cli.proc
12320 0.0% 0.0% 0.0% fh_metric_dir.proc
12321 0.0% 0.0% 0.0% fh_fd_snmp.proc
12322 0.0% 0.0% 0.0% fh_fd_none.proc
12323 0.0% 0.0% 0.0% fh_fd_intf.proc
12324 48.5% 48.5% 35.8% iprouting.iosproc
12325 0.0% 0.0% 0.0% fh_fd_timer.proc
12326 0.0% 0.0% 0.0% fh_fd_ioswd.proc
12327 0.0% 0.0% 0.0% fh_fd_counter.proc
12328 0.0% 0.0% 0.0% fh_fd_rf.proc
12329 0.0% 0.0% 0.0% fh_server.proc
12330 0.0% 0.0% 0.0% cdp2.iosproc
12331 0.0% 0.0% 0.0% fh_policy_dir.proc
12332 0.0% 0.0% 0.0% ipfs_daemon.proc
12333 0.0% 0.0% 0.0% raw_ip.proc
12334 0.0% 0.0% 0.0% inetd.proc
12335 19.1% 20.4% 12.6% tcp.proc
12336 0.0% 0.0% 0.0% udp.proc
Table 186 describes the significant fields shown in the display.
Table 186 show processes cpu (Software Modularity) Field Descriptions
Field
|
Description
|
Total CPU utilization for five seconds
|
Total CPU utilization for the last 5 seconds. The second number indicates the percent of CPU time spent at the interrupt level.
|
one minute
|
Total CPU utilization for the last minute.
|
five minutes
|
Total CPU utilization for the last 5 minutes.
|
PID
|
Process ID.
|
5Sec
|
Percentage of CPU time spent at the interrupt level for this process during the last five seconds.
|
1Min
|
Percentage of CPU time spent at the interrupt level for this process during the last minute.
|
5Min
|
Percentage of CPU time spent at the interrupt level for this process during the last five minutes.
|
Process
|
Process name.
|
The following is partial sample output from the show processes cpu command with the detailed keyword when a Software Modularity image is running:
Router# show processes cpu detailed
Total CPU utilization for 5 seconds: 99.6%; 1 minute: 99.3%; 5 minutes: 88.6%
PID/TID 5Sec 1Min 5Min Process Prio STATE CPU
1 0.0% 0.7% 0.7% kernel 8.900
1 0.4% 0.7% 11.4% [idle thread] 0 Ready 2m28s
2 0.0% 0.0% 0.0% 63 Receive 0.000
3 0.0% 0.0% 0.0% 10 Receive 0.000
4 0.0% 0.0% 0.1% 11 Receive 1.848
5 0.0% 0.0% 0.0% 63 Receive 0.000
PID/TID 5Sec 1Min 5Min Process Prio STATE CPU
8214 0.0% 0.0% 0.0% sysmgr.proc 0.216
1 0.0% 0.0% 0.0% 10 Receive 0.132
2 0.0% 0.0% 0.0% 10 Sigwaitin 0.000
3 0.0% 0.0% 0.0% 10 Receive 0.004
4 0.0% 0.0% 0.0% 10 Receive 0.000
5 0.0% 0.0% 0.0% 10 Receive 0.000
6 0.0% 0.0% 0.0% 10 Receive 0.004
7 0.0% 0.0% 0.0% 10 Receive 0.000
8 0.0% 0.0% 0.0% 10 Receive 0.000
9 0.0% 0.0% 0.0% 10 Receive 0.000
10 0.0% 0.0% 0.0% 10 Receive 0.000
11 0.0% 0.0% 0.0% 10 Receive 0.000
12 0.0% 0.0% 0.0% 10 Receive 0.000
13 0.0% 0.0% 0.0% 10 Receive 0.028
14 0.0% 0.0% 0.0% 10 Receive 0.040
15 0.0% 0.0% 0.0% 10 Receive 0.000
16 0.0% 0.0% 0.0% 10 Receive 0.000
17 0.0% 0.0% 0.0% 10 Receive 0.004
18 0.0% 0.0% 0.0% 10 Receive 0.000
19 0.0% 0.0% 0.0% 10 Receive 0.000
20 0.0% 0.0% 0.0% 10 Receive 0.000
21 0.0% 0.0% 0.0% 10 Receive 0.004
22 0.0% 0.0% 0.0% 10 Receive 0.000
PID/TID 5Sec 1Min 5Min Process Prio STATE CPU
8215 0.0% 0.0% 0.0% kosh.proc 0.044
1 0.0% 0.0% 0.0% 10 Reply 0.044
PID/TID 5Sec 1Min 5Min Process Prio STATE CPU
12290 0.0% 0.0% 0.0% chkptd.proc 0.080
1 0.0% 0.0% 0.0% 10 Receive 0.080
2 0.0% 0.0% 0.0% 10 Receive 0.000
PID/TID 5Sec 1Min 5Min Process Prio STATE CPU
12312 0.0% 0.0% 0.0% sysmgr.proc 0.112
1 0.0% 0.0% 0.0% 10 Receive 0.112
2 0.0% 0.0% 0.0% 10 Sigwaitin 0.000
PID/TID 5Sec 1Min 5Min Process Prio STATE CPU
12316 0.0% 0.0% 0.0% installer.proc 0.072
1 0.0% 0.0% 0.0% 10 Receive 0.000
3 0.0% 0.0% 0.0% 10 Nanosleep 0.000
4 0.0% 0.0% 0.0% 10 Sigwaitin 0.000
6 0.0% 0.0% 0.0% 10 Receive 0.000
Process sbin/ios-base, type IOS, PID = 12317
CPU utilization for five seconds: 12%/9%; one minute: 13%; five minutes: 10%
Task Runtime(ms) Invoked uSecs 5Sec 1Min 5Min TTY Task Name
1 219 1503 145 0.00% 0.00% 0.00% 0 Hot Service Task
2 23680 42384 558 2.39% 6.72% 4.81% 0 Service Task
3 6104 11902 512 3.51% 1.99% 1.23% 0 Service Task
4 1720 5761 298 1.91% 0.90% 0.39% 0 Service Task
5 0 5 0 0.00% 0.00% 0.00% 0 Chunk Manager
6 0 1 0 0.00% 0.00% 0.00% 0 Connection Mgr
7 4 106 37 0.00% 0.00% 0.00% 0 Load Meter
8 6240 7376 845 0.23% 0.15% 0.55% 0 Exec
9 379 62 6112 0.00% 0.07% 0.04% 0 Check heaps
10 0 1 0 0.00% 0.00% 0.00% 0 Pool Manager
11 3 2 1500 0.00% 0.00% 0.00% 0 Timers
12 0 1 0 0.00% 0.00% 0.00% 0 AAA_SERVER_DEADT
13 0 2 0 0.00% 0.00% 0.00% 0 AAA high-capacit
14 307 517 593 0.00% 0.05% 0.03% 0 EnvMon
15 0 1 0 0.00% 0.00% 0.00% 0 OIR Handler
16 283 58 4879 0.00% 0.04% 0.02% 0 ARP Input
17 0 2 0 0.00% 0.00% 0.00% 0 Serial Backgroun
18 0 81 0 0.00% 0.00% 0.00% 0 ALARM_TRIGGER_SC
19 0 2 0 0.00% 0.00% 0.00% 0 DDR Timers
20 0 2 0 0.00% 0.00% 0.00% 0 Dialer event
21 4 2 2000 0.00% 0.00% 0.00% 0 Entity MIB API
22 0 54 0 0.00% 0.00% 0.00% 0 Compute SRP rate
23 0 9 0 0.00% 0.00% 0.00% 0 IPC Dynamic Cach
24 0 1 0 0.00% 0.00% 0.00% 0 IPC Zone Manager
25 0 1 0 0.00% 0.00% 0.00% 0 IPC Punt Process
26 4 513 7 0.00% 0.00% 0.00% 0 IPC Periodic Tim
27 11 513 21 0.00% 0.00% 0.00% 0 IPC Deferred Por
28 0 1 0 0.00% 0.00% 0.00% 0 IPC Seat Manager
29 83 1464 56 0.00% 0.00% 0.00% 0 EEM ED Syslog
Table 187 describes the significant fields shown in the display.
Table 187 show processes cpu detailed (Software Modularity) Field Descriptions
Field
|
Description
|
Total CPU utilization for five seconds
|
Total CPU utilization for the last 5 seconds. The second number indicates the percent of CPU time spent at the interrupt level.
|
one minute
|
Total CPU utilization for the last minute.
|
five minutes
|
Total CPU utilization for the last 5 minutes.
|
PID/TID
|
Process ID or task ID.
|
5Sec
|
Percentage of CPU time spent at the interrupt level for this process during the last five seconds.
|
1Min
|
Percentage of CPU time spent at the interrupt level for this process during the last minute.
|
5Min
|
Percentage of CPU time spent at the interrupt level for this process during the last five minutes.
|
Process
|
Process name.
|
Prio
|
Priority level of the process.
|
STATE
|
Current state of the process.
|
CPU
|
CPU utilization of the process in minutes and seconds.
|
type
|
Type of process; can be either IOS or POSIX.
|
Task
|
Task sequence number.
|
Runtime(ms)
|
CPU time that the process has used (in milliseconds).
|
Invoked
|
Number of times that the process has been invoked.
|
uSecs
|
Microseconds of CPU time for each process invocation.
|
5Sec
|
CPU utilization by task in the last 5 seconds.
|
1Min
|
CPU utilization by task in the last minute.
|
5Min
|
CPU utilization by task in the last 5 minutes.
|
TTY
|
Terminal that controls the process.
|
Task Name
|
Task name.
|
Related Commands
Command
|
Description
|
show processes
|
Displays information about active processes.
|
show processes memory
|
Displays the amount of system memory used per system process.
|
show pxf cable
To display information about the multicast echo, packet intercept, or source-verify features for one or all cable interfaces, use the show pxf cable command in user EXEC or privileged EXEC mode.
show pxf cable {feature-table [cx/y/z] | maptable cx/y/z [sid] |
multicast-echo ds-group | multicast-echo mcast-addr | source-verify [ip address]}
Syntax Description
feature-table [cx/y/z]
|
Displays the multicast echo and packet intercept status on the PXF processor. If given without any options, displays the status for all cable interfaces and subinterfaces. If given with an optional cable interface, displays the status for that particular interface.
|
maptable cx/y/z [sid]
|
Displays memory and service ID (SID) information for a particular cable interface. If the optional sid parameter is specified, displays information for that particular SID.
|
multicast-echo ds-group
|
Displays the cable interfaces that are associated with each downstream group, where each downstream group is a unique DOCSIS MAC domain. (Interfaces that are bundled together are considered one MAC domain.)
|
multicast-echo mcast-addr
|
Displays the service flow ID (SFID) information for all multicast addresses that hash to the same index as the specified multicast IP address.
|
source-verify [ip-address]
|
Displays the interface and SFID mapping tables that are maintained by the source-verify feature. If the optional ip-address parameter is specified, displays information only for that particular IP address.
|
Defaults
No default behavior or values.
Command Modes
User EXEC (>)
Privileged EXEC (#)
Command History
Release
|
Modification
|
12.2(11)CY, 12.2(11)BC2
|
This command was introduced as show hardware pxf cable for the Cisco uBR10012 router.
|
12.2(15)BC2
|
This command was renamed from show hardware pxf cable to show pxf cable.
|
12.3BC
|
This command was integrated into Cisco IOS release 12.3BC.
|
12.2(33)SCA
|
This command was integrated into Cisco IOS release 12.2(33)SCA.
|
12.2(33)SCB
|
The command was modified and verbose option was removed.
|
Usage Guidelines
The show pxf cable command displays information about whether multicast echo and packet intercept are enabled on the cable interfaces. It can also be used to display the service flow ID (SFID) used for each multicast address that is being processed by the router.
Note
The source-verify option is not supported on the PRE-2 module. Instead, use the show pxf cpu cef verbose command to display the primary SID information on the PRE-2 module.
Examples
The following example shows a typical display for the show pxf cable feature-table command for all cable interfaces:
Router# show pxf cable feature-table
Interface SWInterface VCCI McastEcho Intercept DSGroup InterceptGroup
Cable5/0/0 Cable5/0/0 3 On On 0 0
Cable5/0/0.1 Cable5/0/0 9 On On 0 0
Cable5/0/1 Cable5/0/1 4 On Off 255 -
Cable6/0/0 Cable6/0/0 5 On Off 255 -
Cable6/0/1 Cable6/0/1 6 On Off 255 -
Cable7/0/0 Cable7/0/0 7 On Off 1 -
Cable7/0/1 Cable7/0/1 8 On Off 2 -
The following example shows a typical display for the show pxf cable feature-table option for a particular cable interface:
Router# show pxf cable feature-table c5/0/0
Interface SWInterface VCCI McastEcho Intercept DSGroup InterceptGroup
Cable5/0/0 Cable5/0/0 3 On On 0 0
Cable5/0/0.1 Cable5/0/0 9 On On 0 0
The following example shows a typical display for the show pxf cable feature-table option when a cable interface has a bundle interface configured without a corresponding master interface:
Router# show pxf cable feature-table
Interface SWInterface VCCI McastEcho Intercept DSGrp InterceptGrp
Cable5/0/0 <No Cable Bundle Master Configured>
Cable5/0/1 Cable5/0/1 4 On Off 11 -
Cable5/1/0 <No Cable Bundle Master Configured>
Cable5/1/1 Cable5/1/1 6 On Off 15 -
Cable6/0/0 Cable6/0/0 7 On Off 0 -
Cable6/0/1 Cable6/0/1 8 On Off 1 -
Cable6/1/0 Cable6/1/0 9 On Off 6 -
Cable6/1/1 Cable6/1/1 10 On Off 7 -
Cable7/0/0 Cable7/0/0 11 On Off 8 -
Cable7/0/1 Cable7/0/1 12 On Off 9 -
Cable7/1/0 Cable7/1/0 13 On Off 4 -
Cable7/1/1 Cable7/1/1 14 On Off 5 -
Cable8/0/0 Cable8/0/0 15 On Off 255 -
Cable8/0/1 Cable8/0/1 16 On Off 3 -
Cable8/1/0 Cable8/1/0 17 On Off 12 -
Cable8/1/1 Cable8/1/1 18 On Off 13 -
Table 0-188 describes the fields shown by both forms of the show pxf cable feature-table command:
Table 0-188 show pxf cable feature-table Field Descriptions
Field
|
Description
|
Interface
|
Identifies the cable interface or subinterface.
|
SWInterface
|
Identifies the master cable interface for bundled interfaces.
|
McastEcho
|
Displays whether multicast echo is enabled (On) or disabled (Off).
|
VCCI
|
Displays the Virtually Cool Common Index (VCCI) for this cable interface or subinterface. The VCCI is an index that uniquely identifies every interface or subinterface on the PXF processor, and that quickly maps that interface to the appropriate set of services and features.
|
Intercept
|
Displays whether packet intercept, as per the Communications Assistance of Law Enforcement Act (CALEA), is enabled (On) or disabled (Off).
|
DSGroup
|
Displays the downstream group (unique MAC domain) that is associated with this interface or subinterface. Interfaces that are bundled together are considered one MAC domain.
Note A downstream group number of 255 indicates that the CMTS has not assigned the interface to a MAC domain, typically because the interface is shutdown.
|
InterceptGroup
|
Displays the intercept packet group assigned to this cable interface.
|
The following example shows a typical display for the show pxf cable maptable command for a particular cable interface:
Router# show pxf cable maptable c5/1/0
SID VCCI FIB Index SrcVfy Pri SID CM IP Address
Table 0-189 describes the fields shown by the show pxf cable maptable command:
Table 0-189 show pxf cable maptable Field Descriptions
Field
|
Description
|
SID
|
Identifies the service ID (SID).
|
VCCI
|
Displays the Virtually Cool Common Index (VCCI) for this cable interface or subinterface. The VCCI is an index that uniquely identifies every interface or subinterface on the PXF processor, and that quickly maps that interface to the appropriate set of services and features.
|
FIB Index
|
Identifies the forwarding information base (FIB) being used.
|
SrcVfy
|
Identifies whether the source-verify feature (enabled with the cable source-verify command) is On or Off for this SID and interface.
|
Pri SID
|
Identifies the primary SID associated with this SID, in case this SID is a secondary or dynamic SID.
|
CM IP Address
|
Displays the IP address for the CM that is associated with this SID.
|
The following example shows a typical display for the show pxf cable multicast-echo ds-group command, listing each downstream multicast group and its associated cable interface:
Router# show pxf cable multicast-echo ds-group
The following example shows a typical display for the show pxf cable multicast-echo command for a particular multicast address:
Router# show pxf cable multicast-echo 230.1.1.1
Src I/f SFID DS Jib Header Packets Bytes
230.1.1.1 Cable7/0/1 16385 0x0000 0000 1000 0001 1000 321 2160
Table 0-190 describes the fields shown by the show pxf cable multicast-echo command:
Table 0-190 show pxf cable multicast-echo Field Descriptions
Field
|
Description
|
Src
|
Multicast address being displayed.
|
I/F
|
Cable interface being used for this multicast address.
|
SFID
|
Displays the service flow ID (SFID) for this particular multicast address.
|
DS Jib Header
|
Shows the bitmask used for this multicast address on the PRE's MAC-layer processor. The bitmask consists of ten hexadecimal bytes in the following format (reading left to right, from most significant to least significant bit):
• Bytes 9:8 = Specifies the key index for the downstream.
• Bytes 7:6 = Identifies the rule number used for packet header suppression (if enabled)
• Byte 5 = Bitmask that defines the type of packet transmitted:
– Bit 4 = 1 if padding CRC for data packets, 0 if not padding the CRC
– Bit 3 = 1 if inserting an extended header (EH) for PHS processing
– Bit 2 = 1 if inserting an extended header (EH) for BPI+ processing
– Bits 1:0 = Specifies the packet type: 00 = Data packet 01 = MAC management message for transmitted packets 10 = Internal MAP message on upstream 11 = Special packet
• Byte 4 = Bitmask that identifies the type of map control and key sequence for the packet:
– Bits 6:4 = Destination upstream for the MAP message
– Bits 3:0 = BPI Key Sequence number
• Bytes 3:2 = Index to obtain the downstream modem statistics.
• Byte 1 = Specifies the assumed minimum size of a packet data unit. Multiply this byte by 4 to get the actual minimum size in bytes.
• Byte 0 = Specifies the DOCSIS header size, with a maximum value of 0xE0 (248 decimal).
|
Packets
|
Number of packets sent to this address.
|
Bytes
|
Number of bytes sent to this address.
|
The following example shows a typical display for the show pxf cable source-verify command:
Router# show pxf cable source-verify
IP Address Interface Fib Index Mac-Domain SID
50.1.1.3 Cable5/0/0 0 0 1
50.1.1.29 Cable5/0/0 0 0 2
50.1.1.32 Cable5/0/0 0 0 2
50.1.2.6 Cable8/0/0 0 6 1
50.1.2.19 Cable8/0/0 0 6 1
Table 0-191 describes the fields shown by the show pxf cable source-verify command:
Table 0-191 show pxf cable source-verify Field Descriptions
Field
|
Description
|
IP Address
|
Identifies the IP addresses that have been verified by the source-verify feature.
|
Interface
|
Identifies the cable interface or subinterface used for this IP address.
|
FIB Index
|
Identifies the forwarding information base (FIB) being used.
|
Mac-Domain
|
Identifies the MAC DOCSIS downstream domain for this IP address.
|
SID
|
Identifies the service ID (SID).
|
Related Commands
Command
|
Description
|
cable source-verify
|
Enables verification of IP addresses for CMs and CPE devices on the upstream.
|
clear pxf
|
Clears the direct memory access (DMA) and error checking and correcting (ECC) error counters on the PXF processor.
|
debug pxf
|
Enables debugging of the PXF subsystems on the active PRE1 module on the Cisco uBR10012 router.
|
show pxf cable interface
|
Displays display DOCSIS-related information about a particular service ID (SID) on a particular cable interface.
|
show pxf cpu
|
Displays the display different statistics about the operation of the CPU processor during PXF processing.
|
show pxf microcode
|
Displays identifying information for the microcode being used on the processor.
|
show pxf xcm
|
Displays the current state of error checking and correcting (ECC) for the External Column Memory (XCM) on the PXF processor.
|
show pxf cable controller
To display information about radio frequency (RF) channel Versatile Traffic Management System (VTMS) links and link queues, use the show pxf cable controller command in privileged EXEC mode.
show pxf cable controller modular-cable slot/subslot/unit rf-channel channel [link queues]
Syntax Description
modular-cable
|
Specifies the modular cable interface.
|
slot/subslot/unit
|
Identifies a cable interface on the Cisco uBR10012 router. The following are valid values:
• slot—1 or 3
• subslot—0 or 1
• unit—0
|
rf-channel
|
Specifies the RF channel physical port on the Wideband SPA field-programmable gate array (FPGA).
|
channel
|
Specifies the number of the RF channel. The range is 0 to 23.
|
link queues
|
(Optional) Displays the link queue information for the specified RF channel.
|
Command Modes
Privileged EXEC (#)
Command History
Release
|
Modification
|
12.3(23)BC1
|
This command was introduced.
|
12.2(33)SCB
|
This command was integrated into Cisco IOS Release 12.2(33)SCB.
|
Usage Guidelines
The show pxf cable controller command displays information about VTMS link queues only on the Cisco uBR10012 universal broadband router.
Examples
The following example using the show pxf cable controller command, omitting the link queues option, displays only VTMS-related output:
Router# show pxf cable controller modular-cable 1/0/0 rf-channel 3
link next_send: 0x00000000 channel number: 0
temporary bgbw: 0x00000000 reserved bgbw: 0x00000000
col.6 link bandwidth mult: 55778 shift: 18
col.7 link bandwidth mult: 55778 shift: 18
link aggregate cir: 0x00000000 aggregate eir: 0x00000000
bw reclaimed/trunc eir: 0/0 link cir_max: 0xFFFF
link cir_sum: 70 link eir_sum: 2
link bw_sum: 0 act. link q num: 0
The following example using the show pxf cable controller command including the link queues option, displays VTMS-related output as well as link queue-related output:
Router# show pxf cable controller modular-cable 1/0/0 rf-channel 3 link-queues
link next_send: 0x00000000 channel number: 0
temporary bgbw: 0x00000000 reserved bgbw: 0x00000000
col.6 link bandwidth mult: 55778 shift: 18
col.7 link bandwidth mult: 55778 shift: 18
link aggregate cir: 0x00000000 aggregate eir: 0x00000000
bw reclaimed/trunc eir: 0/0 link cir_max: 0xFFFF
link cir_sum: 70 link eir_sum: 2
link bw_sum: 0 act. link q num: 0
QID CIR(act/conf) EIR MIR WB Chan. Status
420 13107/13107 1/1 65535/65535 0 Inactive
423 32768/32768 1/1 65535/65535 2 Inactive
Table 192 show pxf cable controller Link Queue Field Descriptions
Field
|
Description
|
QID
|
Displays the identification number of the link queue.
|
CIR (act/conf)
|
Displays the information for the committed information rate (CIR) of link queues on this RF channel.
• The first number, act, indicates the parameter that a link queue is actually using.
• The second number, conf, indicates the parameter that is configured for a link queue.
|
EIR
|
Displays the information for the excess information rate (EIR) of link queues on this RF channel.
• The first number in the output indicates the parameter that a link queue is actually using.
• The second number in the output indicates the parameter that is configured for a link queue.
|
MIR
|
Displays the information for the maximum information rate (MIR) of link queues on this RF channel.
• The first number in the output indicates the parameter that a link queue is actually using.
• The second number in the output indicates the parameter that is configured for a link queue.
|
WB Chan
|
The number of the wideband cable channel.
|
Status
|
Displays the state of the link queue.
|
See Table 192 for descriptions of link queue fields.
Related Commands
Command
|
Description
|
debug cr10k-rp dbs-queue
|
Displays debug information for dynamic bandwidth sharing (DBS) on the Cicso uBR10012 universal broadband router.
|
show pxf cpu queue
|
Displays parallel express forwarding (PXF) queueing and link queue statistics.
|
show pxf cable feature
To display multicast echo, packet intercept, or source-verify features for one or all cable interfaces, to include information for virtual interface bundles, use the show pxf cable feature command in privileged EXEC mode.
show pxf cable feature
Syntax Description
This command has no additional arguments or keywords.
Command Default
Display output without page breaks and remove passwords and other security information.
Command Modes
User EXEC, Privileged EXEC
Command History
Release
|
Modification
|
12.3(21)BC
|
This command was introduced to support Multicast with Virtual Interface Bundling on the Cisco CMTS.
|
Usage Guidelines
Refer to the following document on Cisco.com for additional information about cable interface bundling and virtual interface bundling on the Cisco CMTS:
•
Cable Interface Bundling and Virtual Interface Bundling on the Cisco CMTS
Examples
The following example illustrates Multicast Echo and virtual interface bundling information on the Cisco uBR10012 router.
Router# show pxf cable feature
Interface SWInterface VCCI McastEcho Intercept SrcVfy DHCP DSGrp InterceptGrp
Cable5/0/0 Bundle1 36 On Off On On 0
Cable5/0/1 Cable5/0/1 15 On Off Off Off 11
Cable5/1/0 Bundle1 36 On Off On On 0
Cable5/1/1 Cable5/1/1 17 On Off Off Off 9
Cable6/0/0 Bundle1 36 On Off On On 0
Cable6/0/1 Cable6/0/1 19 On Off Off Off 12
Cable6/1/0 Cable6/1/0 20 On Off Off Off 7
Cable6/1/1 Cable6/1/1 21 On Off Off Off 8
Cable7/0/0 Cable7/0/0 22 On Off Off Off 255
Cable7/0/0 Cable7/0/0.1 42 On Off Off Off 255
Cable7/0/1 Bundle200 38 On Off Off Off 3
Related Commands
Command
|
Description
|
cable bundle
|
Configures a cable interface to belong to an interface bundle or virtual interface bundle.
|
show arp
|
Displays the entries in the router's ARP table.
|
show cable bundle forwarding-table
|
Displays the MAC forwarding table for the specified bundle, showing the MAC addresses of each cable modem in a bundle and the physical cable interface that it is currently using.
|
show cable modem
|
Displays the cable modems that are online both before and after cable interface bundling has been configured.
|
show running-config interface cable
|
Displays the configuration for the specified cable interface.
|
show pxf cable interface
To display information about a particular service ID (SID) on a particular cable interface, use the show pxf cable command in user EXEC or privileged EXEC mode.
show pxf cable interface cable x/y/z sid {classifiers | mac-rewrite | queue | service-flow ds |
service-flow us}
Syntax Description
cable x/y/z
|
Identifies the cable interface for which information should be displayed.
|
sid
|
Identifies the service ID (SID) for which information should be displayed. The valid range is 1 to 8191.
|
classifiers
|
Displays the packet classifiers used for this SID.
|
mac-rewrite
|
Displays the CPE MAC information for this SID.
|
queue
|
Displays the status of the queues being used by this SID.
|
service-flow ds
|
Displays the service flow IDs (SFID) associated with the given SID on the downstream for the given cable interface.
|
service-flow us
|
Displays the SFIDs associated with the given SID on the upstream for the given cable interface.
|
Command Default
No default behavior or values.
Command Modes
User EXEC, Privileged EXEC
Command History
Release
|
Modification
|
12.2(11)BC2
|
This command was introduced as show hardware pxf cable for the Cisco uBR10012 router.
|
12.2(15)BC2
|
This command was renamed from show hardware pxf cable interface to show pxf cable interface.
|
Usage Guidelines
The show pxf cable interface command displays the DOCSIS-related information for a particular service ID (SID) on a particular cable interface.
Examples
The following example shows a typical display for SID 1 on cable interface c8/0/0 for the show pxf cable interface classifiers command:
Router# show pxf cable interface c8/0/0 1 classifiers
Mac Rw Index: 18 CCB Index: 47
id=1, sfid=91 CFR Index 16461 RP sfindex 16461,
prio=7, sip=0.0.0.0, sip mask=0.0.0.0
dip=0.0.0.0, dip mask=0.0.0.0, prot=17, tos=0,FF
sport = 0,65535, dport = 0,65535 matches = 0
id=2, sfid=92 CFR Index 16462 RP sfindex 16462,
prio=6, sip=0.0.0.0, sip mask=0.0.0.0
dip=1.11.22.2, dip mask=255.255.255.255, prot=256, tos=0,FF
sport = 0,65535, dport = 0,65535 matches = 0
id=0, sfid=0 CFR Index 0 RP sfindex 0,
prio=0, sip=0.0.0.0, sip mask=0.0.0.0
dip=0.0.0.0, dip mask=0.0.0.0, prot=0, tos=2,1
sport = 1000,500, dport = 1000,500 matches = 0
id=0, sfid=0 CFR Index 0 RP sfindex 0,
prio=0, sip=0.0.0.0, sip mask=0.0.0.0
dip=0.0.0.0, dip mask=0.0.0.0, prot=0, tos=2,1
sport = 1000,500, dport = 1000,500 matches = 0
---------------------------------------------------------
Note
For a description of the fields that are displayed by this command, see section C.2.1., Packet Classification Encodings, in Appendix C of the DOCSIS 1.1 specification (Data-Over-Cable Service Interface Specifications Radio Frequency Interface Specification, SP-RFIv1.1-I08-020301).
The following example shows a typical display for SID 1 on cable interface c8/0/0 for the show pxf cable interface mac-rewrite command:
Router# show pxf cable interface c8/0/0 1 mac-rewrite
CPE Information for Interface Cable8/0/0 SID 1:
Link Table Slot: 18 Mac-rw-index: 18
The following example shows a typical display for SID 1 on cable interface c8/0/0 for the show pxf cable interface queue command:
Router# show pxf cable interface c8/0/0 1 queue
Queue Index: 281 QID 281 VCCI 6161 ClassID 9 Refcount 1
Priority: Lo Rates:(Act/Conf) CIR 0/0 MIR 0/16383 EIR 0/431
Statistics: Length 0 Pkts 0 Octets 0 TailDrops 0 BufferDrops 0
Queue Index: 282 QID 282 VCCI 6161 ClassID 10 Refcount 1
Priority: Lo Rates:(Act/Conf) CIR 0/0 MIR 0/16383 EIR 0/431
Statistics: Length 0 Pkts 0 Octets 0 TailDrops 0 BufferDrops 0
Queue Index: 283 QID 283 VCCI 6161 ClassID 11 Refcount 1
Priority: Lo Rates:(Act/Conf) CIR 0/0 MIR 0/16383 EIR 0/431
Statistics: Length 0 Pkts 0 Octets 0 TailDrops 0 BufferDrops 0
Queue Index: 284 QID 284 VCCI 6161 ClassID 12 Refcount 1
Priority: Lo Rates:(Act/Conf) CIR 0/0 MIR 0/16383 EIR 0/431
Statistics: Length 0 Pkts 0 Octets 0 TailDrops 0 BufferDrops 0
Queue Index: 285 QID 285 VCCI 6161 ClassID 13 Refcount 1
Priority: Lo Rates:(Act/Conf) CIR 0/0 MIR 0/16383 EIR 0/431
Statistics: Length 0 Pkts 0 Octets 0 TailDrops 0 BufferDrops 0
The following example shows a typical display for SID 1 on cable interface c8/0/0 for the show pxf cable interface service-flow ds command:
Router# show pxf cable interface c8/0/0 1 service-flow ds
RP SFID LC SFID Bytes Packets QID
The following example shows a typical display for SID 1 on cable interface c8/0/0 for the show pxf cable interface service-flow us command:
Router# show pxf cable interface c8/0/0 1 service-flow us
Related Commands
Command
|
Description
|
clear pxf
|
Clears the direct memory access (DMA) and error checking and correcting (ECC) error counters on the PXF processor.
|
debug pxf
|
Enables debugging of the PXF subsystems on the active PRE1 module on the Cisco uBR10012 router.
|
show pxf cable
|
Displays information about the multicast echo and packet intercept features for one or all cable interfaces.
|
show pxf cpu
|
Displays the display different statistics about the operation of the CPU processor during PXF processing.
|
show pxf microcode
|
Displays identifying information for the microcode being used on the processor.
|
show pxf xcm
|
Displays the current state of error checking and correcting (ECC) for the External Column Memory (XCM) on the PXF processor.
|
show pxf cable multicast
To display information about multicast routes (mroute) in the PXF processor for a specified group, use the show pxf cable multicast command in privileged EXEC mode.
show pxf cable multicast [multicast-group]
Syntax Description
multicast-group
|
(Optional) Displays the name of the multicast group.
|
Command Default
No default behavior or values.
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
12.2(33)SCB
|
The command was introduced.
|
Usage Guidelines
The show pxf cable multicast command displays information about whether routes are enabled on the cable interfaces.
Examples
The following example shows a typical display for the show pxf cable multicast command for all cable interfaces:
Router# show pxf cable multicast multicast-group
MDB Flags: L - Local, F - Register flag, T - SPT-bit set, J - Join SPT
Z - Multicast Tunnel, N- No FastSwitching
OIF Flags: P - Prune Flag, A - Assert Flag
PXF multicast switching for vrf default is enabled.
Mdb at index= 3 hash= 0xE9F7:
next_mdb_idx: 0, fib_root: 0x0001, source_addr: 0.0.0.0, group_addr: 230.1.1.1
uses: 0, bytes: 0, vcci_in: 0, oif: 0x000002
rpf_failed: 0, drop_others: 0
rp_bit_mask:0x00, flags: [0xA0]
Ref Count=0, MDB Flags=0x0082, MDB FastFlags=0x10
Related Commands
Command
|
Description
|
show pxf cable interface
|
Displays display DOCSIS-related information about a particular service ID (SID) on a particular cable interface.
|
show pxf cpu
|
Displays the display different statistics about the operation of the CPU processor during PXF processing.
|
show pxf cpu
To display the display different statistics about the operation of the CPU on the Performance Routing Engine (PRE1) module during Parallel eXpress Forwarding (PXF) processing, use the show pxf cpu command in user EXEC or privileged EXEC mode.
show pxf cpu {access-lists {qos | security} | buffers |
cef [mem | verbose | vrf ip-address mask] | context | mroute [ipaddress1] [ipaddress2] |
queue [interface] | schedule [interface | summary] | statistics [diversion [detail] | drop
[interface] | ip | mlp] | subblocks [interface]}
Syntax Description
access-lists {qos | security}
|
Displays information for either quality of service (QoS) access lists (ACLs) or security access lists.
Note The PRE module automatically compiles all access lists into the turbo ACL format, so that they can be efficiently processed by the PXF processors. The only exception are very simple access lists that would require more processing time to be compiled than to be executed.
|
buffers
|
Displays information about buffer usage on the processor.
|
cef [mem | verbose | vrf ip-address mask]
|
Displays information about the memory usage and routing tables in the PXF processors for Cisco Express Forwarding (CEF) operation. Optionally displays detailed information about memory usage and about a particular entry in the virtual private network (VPN) routing/forwarding (VRF) tables.
|
context
|
Displays performance statistics on the processing of contexts on the processors. (A context is a unit of packet processing time on the PXF processor.)
Note The show pxf cpu context command displays more useful information on the PXF processor's performance than the show processor cpu command that is used on other platforms.
|
mroute [ipaddress1] [ipaddress2]
|
Displays multicast static route (mroute) information for all groups, for one particular group, or for a range of groups.
Displays information about IP multicast routes in the PXF processor for a specified IP prefix. For a more user-friendly display of the same information, use the show ip mroute command.
|
queue [interface]
|
Displays queue drop counters for all interfaces, or optionally for one selected interface. This can be useful in determining if traffic is being properly distributed among the correct interfaces.
|
schedule [interface | summary]
|
Displays the timing wheel dequeue schedule counters for all interfaces, or optionally for one interface, or optionally a summary of all interfaces.
|
statistics [diversion [detail] | drop [interface] | ip | mlp]
|
Displays statistics for the packets that the PXF has processed. The default is to display all packet statistics, or you can optionally specify one of the following keywords to display a particular type of statistics:
• diversion—(Optional) Displays packets that the PXF diverted to the main route processor for special handling. Use the detail keyword to break down the statistics by the particular reason for the diversion.
• drop [interface]—(Optional) Displays dropped packets and bytes. You can also optionally display the dropped packets for a particular interface.
• ip—(Optional) Displays statistics for the processing of IP and ICMP packets.
• mlp—(Optional) Displays statistics for multilink point-to-point protocol (MLPPP) packets.
|
subblocks [interface]
|
Displays subblocks information for all interfaces, or optionally for one interface.
|
Command Default
No default behavior or values
Command Modes
User EXEC, Privileged EXEC
Command History
Release
|
Modification
|
12.2(1)XF1
|
This command was introduced as show hardware pxf cpu for the Cisco uBR10012 router.
|
12.2(11)BC2
|
The MAC domain was added to the display of the show pxf cpu subblocks command for a particular cable interface.
|
12.2(15)BC2
|
This command was renamed from show hardware pxf cpu to show pxf cpu. In addition, the cef option was enhanced to display CEF tag adjacency information. The verbose option was also added to the cef option to display more detailed information about the Forwarding Information Base (FIB) tables being maintained by the CEF subsystem.
|
12.3(X)BC
|
The detail option and additional counters were added to the show pxf cpu statistics diversion command.
|
Examples
See the following sections for typical displays for the different forms of the show pxf cpu command.
Access-Lists
The following example shows a typical display for the access-list qos option, which displays information about the processing of quality-of-service (QoS) access-lists:
Router# show pxf cpu access qos
ACL State Tables Entries Config Fragment Redundant Memory
101 Operational 1 9 1 0 0 1Kb
First level lookup tables:
Block Use Rows Columns Memory used
0 TOS/Protocol 1/128 0/32 16384
1 IP Source (MS) 1/128 0/32 16384
2 IP Source (LS) 1/128 0/32 16384
3 IP Dest (MS) 1/128 0/32 16384
4 IP Dest (LS) 1/128 0/32 16384
5 TCP/UDP Src Port 1/128 0/32 16384
6 TCP/UDP Dest Port 1/128 0/32 16384
7 TCP Flags/Fragment 1/128 0/32 16384
Banknum Heapsize Freesize %Free
The following example shows a typical display for the access-list security option:
Router# show pxf cpu access security
PXF Security ACL statistics:
ACL State Tables Entries Config Fragment Redundant Memory
104 Operational 5 536 514 46 29 818Kb
105 Operational 1 4 6 0 3 7Kb
190 Operational 1 27 26 0 0 8Kb
cit01 Operational 1 26 24 12 11 9Kb
First level lookup tables:
Block Use Rows Columns Memory used
0 TOS/Protocol 18/128 5/32 16384
1 IP Source (MS) 27/128 5/32 16384
2 IP Source (LS) 36/128 5/32 16384
3 IP Dest (MS) 29/128 5/32 16384
4 IP Dest (LS) 37/128 5/32 16384
5 TCP/UDP Src Port 12/128 5/32 16384
6 TCP/UDP Dest Port 10/128 5/32 16384
7 TCP Flags/Fragment 13/128 5/32 16384
Banknum Heapsize Freesize %Free
Table 0-193 describes the fields shown in the show pxf cpu access-list command:
Table 0-193 Field Descriptions for the show pxf cpu access-list Command
Field
|
Description
|
ACL
|
Identifies the access list (ACL) in use, by either name or number.
|
State
|
Displays the current state of the access list:
• Copying—The ACL is in the process of being created or compiled.
• Operational—ACL is active and filtering packets.
• Out of acl private mem—ACL has run out of the private memory that was allocated exclusively to it.
• Out of shared mem—ACL has run out of the memory that it shares with other ACLs.
• Unknown Failure—ACL has failed because of an uncategorized reason.
• Unneeded—ACL was allocated but is not currently in use.
|
Tables
|
Displays the number of tables that the ACL is currently using.
|
Entries
|
Displays the number of table entry slots for the fields or values that the ACL is currently using to match packets.
|
Config
|
Displays the number of simple or extended entries for this ACL.
|
Fragment
|
Displays the number of entries that were configured with the fragments keyword.
|
Redundant
|
Displays the number of duplicate entries for this ACL.
|
Memory
|
Displays the total amount of memory, rounded up to the nearest kilobyte, that the ACL is currently using.
|
First level lookup tables
|
Describes the blocks of memory that store the IP fields that are used to match packets for access list processing.
|
Block
|
Identifies the block of memory used for this particular lookup table.
|
Use
|
Describes the IP packet field that is being matched.
|
Rows
|
Describes the number of table rows currently in use and the total number of rows.
|
Columns
|
Describes the number of table columns currently in use and the total number of columns.
|
Memory used
|
Describes the total amount of memory, in bytes, currently being used by the memory block.
|
Banknum
|
Identifies the block of memory used for this particular lookup table.
|
Heapsize
|
Identifies the total amount of memory, in bytes, allocated for this block of memory.
|
Freesize
|
Identifies the amount of memory, in bytes, that is currently available for use by this block of memory.
|
%Free
|
Identifies the percentage of memory that is free and available for use for this block of memory.
|
Buffers
The following example shows a typical display for the buffers option:
Router# show pxf cpu buffers
pool size # buffer available allocate failures
---------------------------------------------------------
Table 0-194 describes the fields shown in the show pxf cpu buffers command:
Table 0-194 Field Descriptions for the show pxf cpu buffers Command
Field
|
Description
|
pool
|
Identifies the buffer pool.
|
size
|
Displays the size, in bytes, of each buffer in this particular pool.
|
# buffer
|
Displays the total number of buffers in this particular pool.
|
available
|
Displays the number of buffers that are currently available.
|
allocate failures
|
Displays the number of attempts to allocate a buffer that have failed since the last reset.
|
CEF
The following example shows a typical display for the cef option:
Shadow 10-9-5-8 Toaster Mtrie:
97 leaves, 3104 leaf bytes, 40 nodes, 41056 node bytes
refcounts: 10293 leaf, 10144 node
Prefix/Length Refcount Parent
1.10.0.0/16 1665 0.0.0.0/0
1.10.0.2/32 4 1.10.0.0/16
1.10.0.3/32 4 1.10.0.0/16
1.10.37.22/32 4 1.10.0.0/16
1.10.45.16/32 4 1.10.0.0/16
1.10.85.0/24 259 1.10.0.0/16
1.10.85.0/32 4 1.10.85.0/24
1.11.37.0/24 4 1.11.0.0/16
127.0.0.0/8 1601 0.0.0.0/0
127.0.0.0/32 4 127.0.0.0/8
144.205.188.0/24 259 0.0.0.0/0
144.205.188.0/32 4 144.205.188.0/24
144.205.188.1/32 4 144.205.188.0/24
144.205.188.2/32 4 144.205.188.0/24
144.205.188.255/32 4 144.205.188.0/24
164.120.151.128/25 131 0.0.0.0/0
164.120.151.128/32 4 164.120.151.128/25
164.120.151.129/32 4 164.120.151.128/25
166.135.216.255/32 4 166.135.216.128/25
221.222.140.0/22 772 0.0.0.0/0
221.222.140.0/32 4 221.222.140.0/22
221.222.141.1/32 4 221.222.140.0/22
221.222.143.255/32 4 221.222.140.0/22
223.255.254.0/24 4 0.0.0.0/0
========================================
26 routes with less specific overlapping parent route
FP CEF/MFIB/TFIB XCM Type usage:
Type Name Col Total Alloc Size Start End BitMap0 BitMap1 Error
0 Root 1 1000 1000 4096 50003100 503EB100 713AC814 61DFB48C 0
1 Node 1 2048 2009 2048 53000000 53400000 713AC8C0 61DFB538 0
2 Node 1 32768 2013 128 50864000 50C64000 713AC9F0 61DFB668 0
3 Node 1 4096 1021 1024 53864000 53C64000 713ADA20 61DFC698 0
4 Leaf 1 524288 8107 8 51064000 51464000 713ADC50 61DFC8C8 0
5 Adj 1 524288 3046 8 51820000 51C20000 713BDC80 61E0C8F8 0
6 Mac 5 524288 2040 8 58400000 58800000 713D12C4 61E1FF3C 0
7 Load 1 110376 4052 76 52000000 527FFFE0 713CDCB0 61E1C928 0
8 Mdb 1 65536 1 4 53440000 53480000 61E66AAC 714168CC 0
9 Midb 1 262144 1 4 51C20000 51D20000 61E68ADC 714188FC 0
10 TagI 1 51200 1008 68 53480000 537D2000 714012EC 61E4FF64 0
11 TagR 1 102400 2010 4 50800000 50864000 61E51894 71412C18 0
Note
If the value in the Alloc column is equal to the number in the Total column, then the PXF has run out of its allocated memory for that level and the CEF entries for that particular level have been exhausted.
Table 0-195 describes the fields shown in the show pxf cpu cef command:
Table 0-195 Field Descriptions for the show pxf cpu cef Command
Field
|
Description
|
Shadow 10-9-5-8 Toaster Mtrie
|
Header for the memory used by the CEF switching tables, which use the optimized multiway tree (Mtrie) data structure format.
|
leaves
|
Number of leaves in the CEF Mtrie table.
|
leaf bytes
|
Number of bytes used by the leaves in the Mtrie table.
|
nodes
|
Number of nodes in the Mtrie table.
|
node bytes
|
Number of bytes used by the nodes in the Mtrie table.
|
invalidations
|
Number of times an existing entry in the adjacency table was invalidated because of updated information.
|
prefix updates
|
Number of updates made to the adjacency table.
|
refcounts
|
Number of references (leaves and nodes) to an adjacency that are currently stored in the adjacency table. There is one reference for each corresponding entry in the CEF table, plus a few others for maintenance and system purposes.
|
Prefix/Length
|
IP prefix and length (IP network or host number, with subnet) that is in the CEF adjacency table.
|
Refcount
|
Number of times this prefix is referenced in the adjacency table.
|
Parent
|
Parent of this prefix's leaf or node entry in the adjacency table.
|
FP CEF/MFIB/TFIB XCM Type usage—The following fields display the memory usage of the shadow forwarding information base (FIB).
|
Type
|
Level number of this particular memory block.
|
Name
|
Identifier for this particular memory block.
|
Total
|
Total number of nodes available on each level and changes to other data structures.
|
Alloc
|
Number of nodes currently allocated.
|
Start, End
|
Starting and ending addresses for the memory block.
|
Error
|
Number of errors discovered in the memory block.
|
Context
The following example shows a typical display for the context option, which displays performance statistics for the PXF processors over the past 1-minute, 5-minute, and 60-minute periods:
Router# show pxf cpu context
FP context statistics count rate
--------------------- ---------- ----------
feed_back 2002946946 645161
new_work 3992307360 1293715
FP average context/sec 1min 5min 60min
--------------------- ---------- ---------- ----------
feed_back 679377 707217 191844 cps
new_work 1358758 1414842 391367 cps
null 587560 520274 2171829 cps
--------------------- ---------- ---------- ----------
Total 2625695 2642333 2755040 cps
FP context utilization 1min 5min 60min
--------------------- ---------- ---------- ----------
Theoretical 65 % 67 % 18 %
Note
The show pxf cpu context command displays more useful information on the processor's performance than the show processor cpu command that is used on other platforms.
This display shows statistics that are based on three counters on the PXF processors:
•
feed_back—Incremented each time the processor requires another processor cycle to process a packet. Each PXF processor contains 8 columns that perform different packet header processing tasks, such as ACL processing or QoS processing. A typical IP packet passes through all 8 columns only once, but some types of packets can require more than one pass through these columns, and each additional pass through the PXF processor is referred to as feedback. This counter represents the amount of traffic that cannot be processed in an optimal manner.
•
new_work—Incremented for new packets that come into the PXF pipeline. This counter represents a snapshot of the amount of incoming traffic being processed by the processor.
•
null—Incremented for every context during which the PXF pipe is not processing traffic. This counter represents the processor's potential to handle additional traffic. As the processor becomes more busy, the value for null decreases until it becomes 0, at which point the processor has reached its maximum usage.
Table 0-196 describes the fields shown in the show pxf cpu context command:
Table 0-196 Field Descriptions for the show pxf cpu context Command
Field
|
Description
|
FP context statistics
|
feed_back
|
Displays the current value for the feed_back counter and the rate that the counter is increasing per second (the difference between the current value and the previous value divided by the time period between the two).
|
new_work
|
Displays the current value for the new_work counter and the rate that the counter is increasing per second (the difference between the current value and the previous value divided by the time period between the two).
|
null
|
Displays the current value for the null counter and the rate that the counter is increasing per second (the difference between the current value and the previous value divided by the time period between the two).
|
FP average context/sec
|
feed_back
|
Displays the rate, in terms of the number of contexts per second (cps) for the feed_back counter for the last 1-minute, 5-minute, and 60-minute time periods.
|
new_work
|
Displays the rate, in terms of the number of contexts per second (cps) for the new_work counter for the last 1-minute, 5-minute, and 60-minute time periods.
|
null
|
Displays the rate, in terms of the number of contexts per second (cps) for the null counter for the last 1-minute, 5-minute, and 60-minute time periods.
|
FP context utilization
|
Actual
|
Displays the actual percentage of processor usage per second, compared to the theoretical maximum, for the last 1-minute, 5-minute, and 60-minute time periods. The value for Actual = (new_work+feed_back)*100/(new_work+feed_back+null).
|
Theoretical
|
Displays the percentage of processor usage compared to the ideal theoretical capacities for the last 1-minute, 5-minute, and 60-minute time periods. The value for Theoretical = (new_work+feed_back)*100/3125000. (The theoretical maximum for the PXF processors is 3,125,000 contexts per second.)
|
Maximum
|
Displays the actual maximum percentage of processor usage that has occurred for the last 1-minute, 5-minute, and 60-minute time periods. The value for Actual = (new_work+feed_back+null)*100/3125000.
|
Mroute
The following example shows a typical display for the mroute option:
Router# show pxf cpu mroute
Shadow G/SG[5624]: s: 0.0.0.0 g: 224.0.1.40 uses: 0 bytes 0 flags: [D ] LNJ
Interface vcci offset rw_index mac_header
Shadow G/SG[3195]: s: 0.0.0.0 g: 234.5.6.7 uses: 0 bytes 0 flags: [5 ] NJ
Interface vcci offset rw_index mac_header
Out: Cable5/1/0 5 0x00002C 1B 00000026800001005E05060700010
Out: Cable6/1/1 9 0x000028 1A 00000026800001005E05060700010
Out: Cable6/0/0 6 0x000024 19 00000026800001005E05060700010
Out: Cable5/0/0 3 0x000020 18 00000026800001005E05060700010
Out: Cable7/0/0 A 0x00001C 17 00000026800001005E05060700010
Out: Cable7/1/1 C 0x000018 16 00000026800001005E05060700010
Out: Cable7/1/0 B 0x000014 15 00000026800001005E05060700010
Out: Cable6/1/0 8 0x000010 14 00000026800001005E05060700010
Out: Cable6/0/1 7 0x00000C 13 00000026800001005E05060700010
Out: Cable5/0/1 4 0x000008 12 00000026800001005E05060700010
Table 0-197 describes the fields shown in the show pxf cpu mroute command:
Table 0-197 Field Descriptions for the show pxf cpu mroute Command
Field
|
Description
|
Interface
|
Cable interface or subinterface.
|
vcci
|
Virtually Cool Common Index (VCCI) for this cable interface or subinterface. The VCCI is an index that uniquely identifies every interface or subinterface on the PXF processor, and that quickly maps that interface to the appropriate set of services and features.
|
rw index
|
Index used to read and write into the multicast table for this entry.
|
mac_header
|
MAC header that is used when rewriting the packet for output.
|
Queue
The following example shows a typical display for the queue option, which displays the chassis-wide counters for the PXF pipeline counters that show drops on the output side of the processor:
Router# show pxf cpu queue
FP queue statistics for RP
wq_avg_qlen 0 wq_flags_pd_offset 1B48001
wq_buffer_drop 0 wq_limit_drop 0
wq_invalid_enq_wqb_drop 0 wq_invalid_deq_wqb_drop 0
wq_rnd_pkt_drop 0 wq_rnd_byte_drop 0
Packet xmit 804833 Byte xmit 487438911
Queue number 15 Shared High priority
wq_avg_qlen 0 wq_flags_pd_offset 1BC8001
wq_buffer_drop 0 wq_limit_drop 0
wq_invalid_enq_wqb_drop 0 wq_invalid_deq_wqb_drop 0
wq_rnd_pkt_drop 0 wq_rnd_byte_drop 0
Packet xmit 69647 Byte xmit 41230926
The following example shows a typical display for the queue option for a particular cable interface:
Router# show pxf cpu queue c6/0/0
FP queue statistics for Cable5/0/0
FP queue statistics for Cable6/0/0
wq_avg_qlen 0 wq_flags_pd_offset 18A0001
wq_buffer_drop 0 wq_limit_drop 0
wq_invalid_enq_wqb_drop 0 wq_invalid_deq_wqb_drop 0
wq_rnd_pkt_drop 0 wq_rnd_byte_drop 0
Packet xmit 56414 Byte xmit 14322357
Queue number 15 Shared High priority
wq_avg_qlen 0 wq_flags_pd_offset 18A8001
wq_buffer_drop 0 wq_limit_drop 0
wq_invalid_enq_wqb_drop 0 wq_invalid_deq_wqb_drop 0
wq_rnd_pkt_drop 0 wq_rnd_byte_drop 0
Packet xmit 0 Byte xmit 0
Schedule
The following example shows a typical display for the schedule summary option:
Router# show pxf cpu schedule summary
FP average dequeue schedule rate in pps
Interface Level 1 Level 2 maximum 1min 5min 60min
-------------------- ---------- ---------- -------- -------- -------- -----
Total 32 / 32 1 / 1 3125000 0 % 0 % 0 %
The following example shows a typical display for the schedule option for a particular interface:
Router# show pxf cpu schedule c5/0/0
FP average dequeue schedule rate in pps
Interface Level 1 Level 2 maximum 1min 5min 60min
-------------------- ---------- ---------- -------- -------- -------- -----
Cable5/0/0 1 / 32 1 / 1 97656 0 % 0 % 0 %
Table 0-198 describes the fields shown in the show pxf cpu schedule command:
Table 0-198 Field Descriptions for the show pxf cpu schedule Command
Field
|
Description
|
Interface
|
Identifies the cable interface or subinterface.
|
Level 1
|
Displays the number of occupied level 1 (port) wheel slots and the total number of wheel slots for this interface or subinterface.
|
Level 2
|
Displays the number of occupied level 2 (channel) wheel slots and the total number of wheel slots for this interface or subinterface.
|
maximum
|
Displays the maximum number of packet dequeues per second.
|
1 min
|
Displays the dequeue rate for the last 1-minute period.
|
5 min
|
Displays the dequeue rate for the last 5-minute period.
|
60 min
|
Displays the dequeue rate for the last 60-minute period.
|
Statistics
The following example shows a typical display for the statistics diversion option, which shows chassis-wide statistics for PXF diversions, which occur whenever the PXF processor sends a packet to the main route processor for special processing (such as errored packets, address resolution protocol (ARP) packets, point-to-point protocol (PPP) control packets, an unsupported Layer 2 packet header, and so forth).
Router# show pxf cpu statistics diversion
Interface specific To RP punt statistics
GigabitEthernet1/0/0 1000 packets 113946 bytes RP Rx
GigabitEthernet1/0/0 1000 packets 113946 bytes Proc Enq
Cable5/1/0 0 packets 0 bytes RP Rx
Cable5/1/0 0 packets 0 bytes Proc Enq
Cable5/1/1 0 packets 0 bytes RP Rx
Cable5/1/1 0 packets 0 bytes Proc Enq
Cable6/0/0 32 packets 4509 bytes RP Rx
Cable6/0/0 31 packets 3914 bytes Proc Enq
Cable6/0/1 3 packets 1234 bytes RP Rx
Cable6/0/1 3 packets 1222 bytes Proc Enq
Cable6/0/2 0 packets 0 bytes RP Rx
Cable6/0/2 0 packets 0 bytes Proc Enq
Cable6/0/3 0 packets 0 bytes RP Rx
Cable6/0/3 0 packets 0 bytes Proc Enq
Cable6/0/4 0 packets 0 bytes RP Rx
Cable6/0/4 0 packets 0 bytes Proc Enq
Cable7/0/0 0 packets 0 bytes RP Rx
Cable7/0/0 0 packets 0 bytes Proc Enq
Cable8/0/0 0 packets 0 bytes RP Rx
Cable8/0/0 0 packets 0 bytes Proc Enq
Cable8/0/1 0 packets 0 bytes RP Rx
Cable8/0/1 0 packets 0 bytes Proc Enq
Note
As shown in this display, the majority of dropped packets should typically be either local (sent to the router for routing), encap (encapsulated for another protocol), or multicast (IP multicast traffic). Also, the "Interface specific To RP punt statistics" counters appear only in Cisco IOS Release 12.3(X)BC and later releases.
The following example shows a typical display for the statistics drop option, which shows chassis-wide PXF drop statistics:
Router# show pxf cpu statistics drop
icmp_unrch_interval 294 31164
inval_ib_resource[00] 0 0
The following example shows a typical display for the statistics drop option for a particular cable interface, which shows the input-side drop statistics for that particular interface:
Router# show pxf cpu statistics drop c7/1/0
FP drop statistics for Cable7/1/0
atm_fp_rx_cell_size_err 0 0
The following example shows a typical display for the statistics ip option, which displays chassis-wide PXF forwarding statistics for IP, multicast, fragmented, and ICMP packets:
ROuter# show pxf cpu statistics ip
FP ip multicast statistics
Note
The noroute counter increases whenever the router drops a packet because its destination IP address is 0.0.0.0. This counter also increases whenever the Cisco Express Forwarding (CEF) adjacency tables drop a packet because it has a null, discard, or drop adjacency.
Subblocks
The following example shows a typical display for the subblocks option for all interfaces:
Router# show pxf cpu subblocks
Interface Status ICB WQB_ID Fwding Encap VCCI map VCCI
POS1/0/0 initiali 6000 6146 disable 5 81800000 E
GigabitEthernet3/0/0 reset E000 6148 disable 1 81800004 1
GigabitEthernet4/0/0 up 12000 6150 PXF 1 81800008 2
Cable5/0/0 down 14000 4096 disable 59 81805400 3
Cable5/0/1 down 14100 4097 disable 59 81805C00 4
Cable5/1/0 up 16000 4098 PXF 59 81806400 5
Cable6/0/0 up 18000 4099 PXF 59 81806C00 6
Cable6/0/1 up 18100 4100 PXF 59 81807400 7
Cable6/1/0 up 1A000 4101 PXF 59 81807C00 8
Cable6/1/1 up 1A100 4102 PXF 59 81808400 9
Cable7/0/0 up 1C000 4103 PXF 59 81808C00 A
Cable7/1/0 up 1E000 4104 PXF 59 81809400 B
Cable7/1/1 up 1E100 4105 PXF 59 81809C00 C
Cable7/1/1.1 up 1E100 4105 PXF 59 8180A400 D
The following example shows a typical display for the subblocks option for a particular cable interface:
Router# show pxf cpu subblocks c7/1/1
ICB = 1E100, WQB_ID = 4105, interface PXF, enabled
IOS encapsulation type 59 MCNS
Min mtu: 18 Max mtu: 1538
VCCI maptable location = 81809C00
icmp ipaddress 0.0.0.0 timestamp 0
Table 0-199 describes the fields shown in the display for the show pxf cpu subblocks command.
Table 0-199 show pxf cpu subblocks Field Descriptions
Field
|
Description
|
Interface
|
Identifies the interface or subinterface.
|
Status
|
Displays the status of the interface:
• Administ—The interface has been shut down and is in the administrative down state.
• Deleted—The subinterface has been removed from the router's configuration.
• Down—The interface is down because of a cable or other connectivity problem.
• Initiali—The interface is in the process of initializing.
• Reset—The interface is currently being reset.
• Up—The interface is up and passing traffic.
|
ICB
|
Displays the Interface Control Block (ICB) that is mapped to this interface.
|
MAC Domain
|
Displays the DOCSIS-layer domain for this interface or subinterface.
|
WQB_ID
|
Displays the Work Queue Block (WQB) identifier for this interface.
|
Fwding
|
Displays whether traffic is being forwarded (PXF) or not (disable).
|
Encap
|
Identifies the type of encapsulation being used on the interface. The most common types of encapsulation are:
0 = None 1 = Ethernet ARPA 2 = Ethernet SAP 3 = 802.2 SNAP 5 = Serial, raw HDLC 8 = Serial, LAPB 9 = Serial, X.25 20 = Frame Relay 21 = SMDS 22 = MAC level packets 27 = LLC 2 28 = Serial, SDLC (primary) 30 = Async SLIP encapsulation 33 = ATM interface 35 = Frame Relay with IETF encapsulation 42 = Dialer encapsulation 46 = Loopback interface 51 = ISDN Q.921 59 = DOCSIS (previously known as MCNS) 61 = Transparent Mode 62 = TDM clear channel 64 = PPP over Frame Relay 65 = IEEE 802.1Q 67 = LAPB terminal adapter 68 = DOCSIS Cable Modem
|
VCCI map
|
Displays the memory address for the Virtually Cool Common Index (VCCI) map table for this particular VCCI. The VCCI is an index that uniquely identifies every interface or subinterface on the PXF processor and that quickly maps that interface to the appropriate set of services and features.
|
VCCI
|
Identifies the VCCI (in hexadecimal) that is assigned to the interface or subinterface.
|
Related Commands
Command
|
Description
|
clear pxf
|
Clears the direct memory access (DMA) and error checking and correcting (ECC) error counters on the PXF processor.
|
debug pxf
|
Enables debugging of the PXF subsystems on the active PRE1 module on the Cisco uBR10012 router.
|
show pxf cable
|
Displays information about the multicast echo and packet intercept features for one or all cable interfaces.
|
show pxf cable interface
|
Displays information about a particular service ID (SID) on a particular cable interface.
|
show pxf dma
|
Displays information for the current state of the PXF DMA buffers, error counters, and registers.
|
show pxf microcode
|
Displays identifying information for the microcode being used on the processor.
|
show pxf xcm
|
Displays the current state of ECC for the External Column Memory (XCM) on the PXF processor.
|
show ip mroute
|
Displays the contents of the IP multicast routing table.
|
show pxf cpu drl-trusted-sites
To display the configured Divert-Rate-Limit (DRL) trusted sites, use the show pxf cpu drl-trusted-sites command in privileged EXEC mode.
show pxf cpu drl-trusted-sites
Syntax Description
This command has no keywords or arguments.
|
Command Default
No default behavior or values
Command Modes
Privileged EXEC (#)
Command History
Release
|
Modification
|
12.2(33)SCB
|
This command was introduced.
|
Usage Guidelines
Use this command to display the configured DRL trusted sites.
Examples
The following example shows sample output for the show pxf cpu drl-trusted-sites command:
Router# show pxf cpu drl-trusted-sites
Divert-Rate-Limit Trusted-Site list
IP-addr IP-addr mask ToS ToS mask VRF
50.0.0.0 255.255.255.0 0x18 0xF8 global internet
50.0.1.0 255.255.0.0 0x01 0xFF all
60.0.1.0 255.255.255.0 0x18 0xF8 blue
Table 200 describes the significant fields shown in the display.
Table 200 show pxf cpu drl-trusted-sites Field Descriptions
Field
|
Description
|
IP-addr
|
The IP address of the host or CM.
|
IP-addr mask
|
The IP address mask of the host or CM.
|
ToS
|
Type of Service value to be matched by the filter.
|
ToS Mask
|
Type of Service mask to be matched by the filter.
|
VRF
|
Name of the virtual interface that has been configured for DRL trusted sites.
|
Related Commands
Command
|
Description
|
show pxf cpu statistics drl cable-wan-ip
|
This command displays the parallel express forwarding (PXF) DRL cable/wan-ip statistics table.
|
show pxf cpu statistics drl wan-non-ip
|
This command displays the PXF DRL wan-non-ip statistics.
|
show pxf cpu queue
To display parallel express forwarding (PXF) queueing and link queue statistics, use the show pxf cpu queue command in privileged EXEC mode.
show pxf cpu queue [interface | QID | summary]
Cisco uBR10012 Universal Broadband Router
show pxf cpu queue [interface | QID]
Syntax Description
interface
|
(Optional) The interface for which you want to display PXF queueing statistics. This displays PXF queueing statistics for the main interface and all subinterfaces and permanent virtual circuits (PVCs). It also displays packets intentionally dropped due to queue lengths.
|
QID
|
(Optional) The queue identifier.
|
summary
|
(Optional) Displays queue scaling information such as:
• Number of queues and recycled queues.
• Number of available queue IDs (QIDs).
• Number of packet buffers, recycled packet buffers, and free packet buffers.
|
Command Modes
Privileged EXEC (#)
Command History
Release
|
Modification
|
12.2S
|
This command was introduced.
|
12.2(28)SB
|
This command was integrated into Cisco IOS Release 12.2(28)SB.
|
12.3(7)XI1
|
This command was integrated into Cisco IOS Release 12.3(7)XI1.
|
12.3(23)BC1
|
The "Link Queues" output field for dynamic bandwidth sharing-enabled modular cable and wideband cable interfaces was added on the Cisco uBR10012 universal broadband router.
|
12.2(33)SB
|
This command was modified for virtual access interfaces (VAIs) and the output was modified for the summary option, and implemented on the Cisco 10000 series router for the PRE3 and PRE4.
|
12.2(33)SCB
|
The output of this command has been updated or re-arranged (compared to the VTMS version) for DOCSIS Weighted Fair Queuing (WFQ) Scheduler feature and implemented on the Cisco uBR10012 router.
|
Usage Guidelines
When neither the interface or QID is specified, the command displays queuing statistics for the route processors (RPs).
Cisco 10000 Series Router
The Cisco 10000 series router high-speed interfaces work efficiently to spread traffic flows equally over the queues. However, using single traffic streams in a laboratory environment might result in less-than-expected performance. To ensure accurate test results, test the throughput of the Gigabit Ethernet, OC-48 POS, or ATM uplink with multiple source or destination addresses. To determine if traffic is being properly distributed, use the show pxf cpu queue command.
In Cisco IOS Release 12.2(33)SB and later releases, the router no longer allows you to specify a virtual access interface (VAI) as viX.Y in the show pxf cpu queue command. Instead, you must spell out the VAI as virtual-access.
For example, the router accepts the following command:
Router# show pxf cpu queue virtual-access2.1
In releases prior to Cisco IOS Release 12.2(33)SB, the router accepts the abbreviated form of the VAI. For example, the router accepts the following command:
Router# show pxf cpu queue vi2.1
In Cisco IOS Release 12.2(33)SB and later releases, the output from the show pxf cpu queue interface summary command displays only the physical interface and the number of logical links. The output does not display the number of priority queues, class queues, and so on. This modification applies to the PRE3 and PRE4.
Cisco uBR10012 Universal Broadband Router
If dynamic bandwidth sharing (DBS) is enabled, the link queue information that is displayed refers to the specific type of interface that is configured—modular cable or wideband cable. The summary keyword option is not supported for the Cisco uBR10012 universal broadbandrRouter for wideband cable or modular cable interfaces. The ATM interface output is not available for this router.
See Table 201 for descriptions of the interface keyword fields.
Table 201 show pxf cpu queue Interface Option Field Descriptions
Field
|
Description
|
<0-131071>
|
QID (queue identifier)
|
ATM
|
Asynchronous transfer mode interface
Note The ATM interface output is not available for the Cicso uBR10012 universal broadband router.
|
BVI
|
Bridge-group virtual interface
|
Bundle
|
Cable virtual bundle interface
|
CTunnel
|
CTunnel interface
|
Cable
|
Cable modem termination service (CMTS) interface
|
DTI
|
Digital trunk interface
|
Dialer
|
Dialer interface
|
Ethernet
|
IEEE 802.3
|
FastEthernet
|
FastEthernet IEEE 802.3
|
GigabitEthernet
|
GigabitEthernet IEEE 802.3z
|
Group-Async
|
Async group interface
|
Loopback
|
Loopback interface
|
MFR
|
Multilink frame relay bundle interface
|
Modular-Cable
|
Modular cable interface
|
Multilink
|
Multilink group interface
|
Null
|
Null interface
|
Port-channel
|
Ethernet channel of interfaces
|
RP
|
Forwarding path (FP) to route processing (RP) queues
|
Tunnel
|
Tunnel interface
|
Vif
|
Pragmatic general multicast (PGM) host interface
|
Virtual-Template
|
Virtual template interface
|
Virtual-TokenRing
|
Virtual token ring
|
WB-SPA
|
line card to line card (LC-LC) queues
|
Wideband-Cable
|
Wideband CMTS interface
|
Examples
The following example shows PXF queueing statistics for an ATM interface when a QID is not specified. The sample output includes the dropped and dequeued packets for the VCs, and for classes associated with sessions that inherit queues from VCs.
Router# show pxf cpu queue atm 5/0/2
VCCI 2517: ATM non-aggregated VC 1/229, VCD 1, Handle 1, Rate 500 kbps
VCCI/ClassID ClassName QID Length/Max Res Dequeues Drops
0 2517/0 class-default 269 0/4096 11 3 0
0 2517/31 pak-priority 268 0/32 11 4 0
Queues Owned but Unused by VC (inheritable by sessions)
ClassID ClassName QID Length/Max Res Dequeues Drops
0 class-default 275 0/32 11 100 0
31 pak-priority 268 0/32 11 4 0
VCCI 2517: ATM non-aggregated VC 1/233, VCD 4, Handle 4, Rate 50 kbps
VCCI/ClassID ClassName QID Length/Max Res Dequeues Drops
0 2517/0 class-default 269 0/4096 11 3 0
0 2517/31 pak-priority 268 0/32 11 4 0
Queues Owned but Unused by VC (inheritable by sessions)
ClassID ClassName QID Length/Max Res Dequeues Drops
0 class-default 274 0/32 11 0 0
31 pak-priority 268 0/32 11 4 0
VCCI 2520: ATM non-aggregated VC 1/232, VCD 3, Handle 3, Rate 500 kbps
VCCI/ClassID ClassName QID Length/Max Res Dequeues Drops
0 2520/0 class-default 273 0/32 11 0 0
0 2520/31 pak-priority 268 0/32 11 4 0
VCCI 2519: ATM non-aggregated VC 1/231, VCD 2, Handle 2, Rate 500 kbps
VCCI/ClassID ClassName QID Length/Max Res Dequeues Drops
0 2519/0 class-default 272 0/32 11 0 0
0 2519/31 pak-priority 268 0/32 11 4 0
The following example displays PXF queuing statistics for QID 267:
Router# show pxf cpu queue 267
CIR (in-use/configured) : 0/65535
EIR (in-use/configured) : 0/0
MIR (in-use/configured) : 0/65535
Maximum Utilization configured : no
Flowbit (period/offset) : 32768/32768
Packet Descriptor Base : 0x00000100
Length/Average/Alloc : 0/0/32
Enqueues (packets/octets) : 293352/9280610
Dequeues (packets/octets) : 293352/9280610
Drops (tail/random/max_threshold) : 0/0/0
Drops (no_pkt_handle/buffer_low) : 0/0
WRED (weight/avg_smaller) : 0/0
WRED (next qid/drop factor) : 0/0
WRED (min_threshold/max_threshold/scale/slope):
Cisco uBR10012 Universal Broadband Router
The following examples show link queue information for specific wideband cable and modular cable interfaces when dynamic bandwidth sharing is enabled.
Modular Cable Interface
Router(config)# interface modular-cable 1/0/0:1
Router(config-if)# cable dynamic-bw-sharing
Router# show pxf cpu queue modular-cable 1/0/0:1
QID CIR(act/conf) EIR MIR RF Chan. Status
420 19661/19661 1/1 65535/65535 0 Inactive
Wideband Cable Interface
Router(config)# interface wideband-cable 1/0/0:0
Router(config-if)# cable dynamic-bw-sharing
Router# show pxf cpu queue wideband-cable 1/0/0:0
QID CIR(act/conf) EIR MIR RF Chan. Status
419 32768/32768 1/1 65535/65535 0 Inactive
566 19661/19661 1/1 65535/65535 1 Inactive
The following example shows service flow queue information for modular cable interfaces.
Router# show pxf cpu queue modular-cable 1/2/0:0
QID Len/Max Dequeues TailDrops MinRt Wt/Quantum ShapeRt FlowId
131147 0/255 190 0 0 1/240 0 58
131148 0/255 33820 0 0 1/10000 0 32824
Cable Service Flow Queues:
QID Len/Max Dequeues TailDrops MinRt Wt/Quantum ShapeRt FlowId
131241 0/255 0 0 0 1/240 0 32881
QID Len/Max Dequeues TailDrops MinRt Wt/Quantum ShapeRt FlowId
2049 254/255 131018 485751 99 1/1920 0 32880
QID Len/Max Dequeues TailDrops
Related Commands
Command
|
Description
|
cable dynamic-bw-sharing
|
Enables DBS on a specific modular cable or wideband cable interface.
|
show pxf cable controller
|
Displays information about the RF channel Versatile Traffic Management System (VTMS) links and link queues.
|
show pxf cpu statistics queue
|
Displays PXF CPU queueing counters for all interfaces.
|
show pxf cpu queue wb-spa
To send queue and service flow information to and from the uBR10-MC 5x20 line cards, use the show pxf cpu queue wb-spa command in privileged EXEC mode.
show pxf cpu queue wb-spa
Syntax Description
This command has no arguments or keywords.
Command Default
No default behavior or values.
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
12.3(23)BC
|
This command was introduced for the uBR10012 router.
|
Usage Guidelines
A virtual time management system (VTMS) link and two queues are set up for each Wideband SPA allowing MAC Management Messages (MMM) to be sent from the uBR10-MC 5x20 line card to the Wideband SPA, which in turn sends the messages to the appropriate RF channels.
In addition to this, another VTMS link and two queues are set up for each uBR10-MC 5x20 line card so that the SIP can send statistics IPC messages and cable monitor packets to the uBR10-MC 5x20 line card. The queue and service flow information for these data paths can be displayed by using the show pxf cpu queue wb-spa command.
The output of this command shows the two RP service flows for each SPA, including the RP service flow index and the associated queue ID. Refer to the show pxf cpu queue qid command for more information.
Examples
The following is a sample output of the command for Wideband SPA port 1, slot 1 and bay 0:
Router# show pxf cpu queue wb-spa
MAP/UCD Service Flow Index: 32926
Ironbus Channel: 0x8000 Queue ID: 266 Queue Flags: 0x2
LP-MMM Service Flow Index: 32768
Ironbus Channel: 0x8000 Queue ID: 264 Queue Flags: 0x0
Statistics Service Flow Index: 32887
Ironbus Channel: 0x500 Queue ID: 504 Queue Flags: 0x0
Cable Monitor Service Flow Index: 129
Ironbus Channel: 0x500 Queue ID: 505 Queue Flags: 0x0
Statistics Service Flow Index: 32893
Ironbus Channel: 0x500 Queue ID: 516 Queue Flags: 0x0
Cable Monitor Service Flow Index: 135
Ironbus Channel: 0x500 Queue ID: 517 Queue Flags: 0x0
Related Commands
Command
|
Description
|
show pxf cpu queue qid
|
Displays parallel express forwarding queue statistics.
|
show pxf cpu statistics
To display Parallel eXpress Forwarding (PXF) CPU statistics, use the show pxf cpu statistics command in privileged EXEC mode.
show pxf cpu statistics [atom | backwalk | clear | diversion | drop [interface | vcci] | ip | ipv6 |
l2tp | mlp | qos [interface] | queue | rx [vcci] | security]
Cisco 10000 Series Router
show pxf cpu statistics diversion [ pxf [interface {interface | vcci}] | top number]
Cisco uBR10012 Universal Broadband Router
show pxf cpu statistics [arp-filter | backwalk | clear | diversion | drl [ cable-wan-ip | wan-non-ip
] | drop [interface | vcci] | interface | ip | ip-session [interface | vcci] | mlp | qos [interface] |
queue | rx [vcci] | security]
Syntax Description
atom
|
(Optional) Displays Any Transport over MPLS (AToM) statistics.
|
backwalk
|
(Optional) Displays backwalk requests statistics.
|
clear
|
(Optional) Clears PXF CPU statistics.
|
diversion
|
(Optional) Displays packets that the PXF diverted to the Route Processor (RP) for special handling.
|
drop [interface] [vcci]
|
(Optional) Displays packets dropped by the PXF for a particular interface or Virtual Circuit Connection Identifier (VCCI).
|
ip
|
(Optional) Displays IP statistics.
|
ipv6
|
(Optional) Displays IPv6 statistics.
|
l2tp
|
(Optional) Displays packet statistics for an L2TP Access Concentrator (LAC) (Optional) and L2TP Network Server (LNS).
|
mlp
|
(Optional) Displays multilink PPP (MLP) statistics.
|
pxf
|
(Optional) Displays packets that the PXF diverted to the Route Processor (RP). Available on the Cisco 10000 series router only.
|
pxf interface interface
|
(Optional) Displays per-interface PXF statistical information for the divert cause policer on a particular interface. Available on the Cisco 10000 series router only.
|
pxf interface vcci
|
(Optional) Displays per-VCCI PXF statistical information for the divert cause policer on a particular Virtual Circuit Connection Identifier (VCCI). Available on the Cisco 10000 series router only.
|
qos [interface]
|
(Optional) Displays match statistics for a service policy on an interface.
|
queue
|
(Optional) Displays queueing counters for all interfaces.
|
rx [vcci]
|
(Optional) Displays receive statistics for a VCCI.
|
security
|
(Optional) Displays ACL matching statistics.
|
top number
|
(Optional) Displays PXF statistical information for the number of top punters you specify. Available on the Cisco 10000 series router only. Valid values are from 1 to 100.
|
arp-filter
|
(Optional) Displays the ARP filter statistics.
|
drl
|
(Optional) Displays the divert rate limit.
|
cable-wan-ip
|
(Optional) Displays cable / wan-ip statistics for dropped packets.
|
wan-non-ip
|
(Optional) Displays DRL wan-non-ip statistics for dropped packets.
|
Command Modes
Privileged EXEC (#)
Command History
Release
|
Modification
|
12.3(7)XI1
|
This command was integrated into Cisco IOS Release 12.3(7)XI1.
|
12.2(28)SB
|
This command was introduced on the Cisco 10000 series router and integrated into Cisco IOS Release 12.2(28)SB.
|
12.2(31)SB2
|
This command was integrated into Cisco IOS Release 12.2(31)SB2.
|
12.2(33)SB
|
This command was enhanced to display per-interface or per-VCCI PXF statistical information for the divert cause policer on a particular interface or VCCI, to display the top punters on an interface, and to display the provisioned burst size for any divert causes. These enhancements were implemented on the Cisco 10000 series router for the PRE2, PRE3, and PRE4.
|
12.2(33)SCB
|
This command was integrated into Cisco IOS Release 12.2(33)SCB on the Cisco uBR7246VXR and Cisco uBR10012 universal broadband routers. Support for the Cisco uBR7225VXR router was added. The arp-filter, drl, cable-wan-ip, and wan-non-ip keywords were added .
|
Usage Guidelines
Cisco 10000 Series Router Usage Guidelines
•
The show pxf cpu statistics diversion command displays statistical information about diverted packets. Divert causes with the string "ipv6..." display as "v6..." in the output of all show pxf cpu statistics diversion commands
•
The output from the show pxf cpu statistics diversion pxf command was enhanced in Cisco IOS Release 12.2(33)SB to display the provisioned burst size for any divert causes.
•
The show pxf cpu statistics diversion pxf interface interface command displays statistical information about the divert cause policer on a specific interface. The output of this command is similar to the output displayed at the aggregated level. This command enables you to see the traffic types being punted from an inbound interface, subinterface, and session.
•
The show pxf cpu statistics diversion pxf interface vcci command displays statistical information about the divert cause policer on a specific VCCI. The output of this command is similar to the output displayed at the aggregated level. This command enables you to see the traffic types being punted from an inbound interface, subinterface, and session.
•
The show pxf cpu statistics diversion top number command displays the interfaces, subinterfaces, and sessions with the highest number of punter packets.
Examples
The following example shows PXF queueing counters information. These are aggregate counters for all interfaces. The Total column is the total for all columns.
Note
If you are troubleshooting link utilization issues, the deq_vtp_req, deq_flow_off, and deq_ocq_off counters may indicate what is causing the versatile time management scheduler (VTMS) to slow down.
If you are troubleshooting overall PXF throughput issues, look at the High Next Time, Low Next Time, High Wheel Slot, and Low Wheel Slot counters.
Router# show pxf cpu statistics queue
Column 6 Enqueue/Dequeue Counters by Rows:
dbg Counters 0 1 2 3 4 5 6 7
Total
============= ========== ========== ========== ========== ========== ========== ========== ==========
==========
enq_pkt 0x0000FD9B 0x0000FC77 0x0000FE4A 0x0000FF81 0x0000FC53 0x0000FD2E 0x0000FF19 0x0000FDDE
0x0007EE55
tail_drop_pkt 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
deq_pkt 0x0000FD47 0x0000FEF2 0x0000FCB3 0x0000FF65 0x0000FCE7 0x0000FC45 0x0000FEE7 0x0000FDF1
0x0007EE55
deq_vtp_req 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
deq_flow_off 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
deq_ocq_off 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
enqdeq_conflict 0x0000003A 0x00000043 0x0000004A 0x00000039 0x0000003A 0x0000004F 0x00000036 0x00000031
0x000001F0
bndl_pkt 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
frag_pkt 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
dbg_frag_drop 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
dbg_bndl_sem 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
context_inhibit 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
bfifo_enq_fail 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
dbg1 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
dbg2 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
dbg3 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
dbg4 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
dbg5 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
dbg6 0x0000 0x0000 0x0000 0x0000 0x0000 0x0000 0x0000 0x0000
0x0000
dbg7 0x00 0x00 0x00 0x00 0x00 0x00 0x00 0x00 0x00
Column 7 Rescheduling State Counters by Rows:
dbg Counters 0 1 2 3 4 5 6 7
Total
============= ========== ========== ========== ========== ========== ========== ========== ==========
==========
High Next Time 0x524E1100 0x524E1140 0x524E1140 0x524E1180 0x524E11C0 0x524E11C0 0x524E1200 0x524E1240 -
Low Next Time 0x524E1100 0x524E1140 0x524E1140 0x524E1180 0x524E11C0 0x524E1200 0x524E1200 0x524E1240 -
High Wheel Slot 0x00000844 0x00000845 0x00000846 0x00000846 0x00000847 0x00000848 0x00000848 0x00000849 -
Low Wheel Slot 0x00000844 0x00000845 0x00000846 0x00000846 0x00000847 0x00000848 0x00000848 0x00000849 -
DEQ_WHEEL 0x0001F5D0 0x0001F4BD 0x0001F56B 0x0001F6BF 0x0001F396 0x0001F3E8 0x0001F6BF 0x0001F4A7
0x000FA99B
DQ-lock Fails 0x0000039F 0x000003FD 0x000003B2 0x000003E1 0x000003CB 0x000003E2 0x000003FD 0x000003CD
0x00001EA6
TW ENQ Fails 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
Q_SCHED 0x0000FACD 0x0000FC6B 0x0000FA38 0x0000FCE4 0x0000FA66 0x0000F994 0x0000FC62 0x0000FB8B
0x0007DA3B
FAST_SCHED 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
Q_DEACT 0x0000FB03 0x0000F852 0x0000FB33 0x0000F9DB 0x0000F930 0x0000FA54 0x0000FA5D 0x0000F91C
0x0007CF60
Q_ACTIVATE 0x0000F9B6 0x0000F8D4 0x0000FA6C 0x0000FBA9 0x0000F87E 0x0000F95B 0x0000FB0A 0x0000F9DE
0x0007CF60
Q_CHANGE 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
DEBUG1 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
DEBUG2 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
DEBUG3 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
DEBUG4 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
DEBUG5 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
Table 202 describes the significant fields shown in the display.
Table 202 show pxf cpu statistics queue Field Descriptions
Field
|
Description
|
Column 6 Enqueue/Dequeue Counters by Rows:
|
enq_pkt
|
Packets the PXF enqueued.
|
tail_drop_pkt
|
Packets the PXF tails dropped.
|
deq_pkt
|
Packets the PXF dequeued.
|
deq_vtp_req
|
Number of times a dequeue was inhibited due to the virtual traffic policer.
|
deq_flow_off
|
Numbers of times a dequeue was inhibited due to a flowoff from the line card.
|
deq_ocq_off
|
Number of times a dequeue was inhibited due to link level flow control.
|
enqdeq_conflict
|
Shows a dequeue failed due to an enqueue to the same queue in progress.
|
bndl_pkt
|
Count of packets that were fragmented.
|
frag_pkt
|
Count of fragments sent.
|
dbg_frag_drop
|
Count of invalid multilink PPP (MLP) fragment handles.
|
dbg_bndl_sem
|
Count of semaphone collision (used for MLP).
|
context_inhibit
|
Number of times multilink transmit fragment processing was inhibited due to a lack of DMA resources.
|
bfifo_enq_fail
|
Count of bundle FIFO (BFIFO) enqueue failures.
|
Column 7 Rescheduling State Counters by Rows:
|
High Next Time
|
Current next send time for the high priority wheel.
|
Low Next Time
|
Current next send time for the low priority wheel.
|
High Wheel Slot
|
Current high priority slot number.
|
Low Wheel Slot
|
Current low priority slot number.
|
DEQ_WHEEL
|
Count of successful dequeues from the timing wheel.
|
DQ-lock Fails
|
Count of timing wheel dequeue failures (both queue empty and race conditions).
|
TW ENG Fails
|
Timing wheel enqueue failures.
|
Q_SCHED
|
Count of queues scheduled/rescheduled onto the timing wheel.
|
FAST_SCHED
|
Count of queues fast scheduled/rescheduled onto the timing wheel.
|
Q_DEACT
|
Count of queue deactivations.
|
Q_ACTIVATE
|
Count of queue activations (activate state).
|
Q_CHANGE
|
Count of queue changes; for example, Route Processor (RP) inspired rates changes.
|
The following example displays PXF L2TP packet statistics.
Note
For L2TP Access Concentrator (LAC) operation, all statistics are applicable. For L2TP Network Server (LNS) operation, only the PPP Control Packets, PPP Data Packets, and PPP Station Packets statistics are meaningful.
Router# show pxf cpu statistics l2tp
LAC Switching Global Debug Statistics:
PPP Control Packets 51647
L2TP Classification Global Debug Statistics:
LAC or Multihop Packets 151341
PPP Control Packets 51650
PPP Station Packets 151341
The following example displays match statistics for the police_test policy on an ATM interface. The Classmap Index differentiates classes within a policy while the Match Number differentiates match statements within a class.
Router# show pxf cpu statistics qos atm 6/0/0.81801
Classmap Match Pkts Bytes
Index Number Matched Matched
------------ ----------- ------------ ----------
police_test (Output) service-policy :
Cisco 10000 Series Router
The following example displays the top 10 packet types diverted to the RP. The output displays the top punters by interface and by Layer 2 packet flow.
Router# show pxf cpu statistics diversion top 10
Top 10 punters by interface are:
Rate (pps) Packets (diverted/dropped) vcci Interface
1 10/0 2606 Virtual-Access2.1
Last diverted packet type is none.
Top 10 punters by Layer 2 flow are:
Rate (pps) Packets (diverted/dropped) Interface Layer 2 info
1 15/0 ATM2/0/3 vpi 128/vci 4096/vcci 2591
Last diverted packet type is oam_f4.
1 15/0 ATM2/0/3 vpi 128/vci 4096/vcci 2593
Last diverted packet type is oam_f4.
Cisco uBR10012 Universal Broadband Router
The following example displays packets dropped by Divert-Rate-Limit (DRL) recorded in the regular PXF drop statistics.
Router# show pxf cpu statistics drop c5/0/0
FP drop statistics for Cable5/0/0
divert_rate_limit 441 28224
The following example displays the global divert and drop counts for the ARP-filter:
Router# show pxf cpu statistics arp-filter
ARP-filter global PXF statistics
code total diverted dropped
The following example displays information related to dropped packets for Cable and WAN-IP packets:
Router# show pxf cpu statistics drl cable-wan-ip
Divert-Rate-Limit Cable/WAN-IP statistics
736 11.12.13.10 VRF: global divert_code: fib_rp_dest
190 11.12.13.10 VRF: global divert_code: fib_limited_broadcast
3796 Interface: Cable5/0/0 SID: 2
The following example displays information related to drop counters for WAN-non-IP packets:
Router# show pxf cpu statistics drl wan-non-ip
Divert-Rate-Limit WAN-non-IP statistics
Related Commands
Command
|
Description
|
platform c10k divert- policer
|
Configures the rate and burst size of the divert-policer.
|
show pxf statistics
|
Displays a summary of statistics in the PXF.
|
show pxf dma
To display information for the current state of the direct memory access (DMA) buffers, error counters, and registers on the Parallel eXpress Forwarding (PXF) processor, use the show pxf dma command in user EXEC or privileged EXEC mode.
show pxf dma [buffers | counters | registers]
Syntax Description
buffers
|
(Optional) Displays information about the DMA buffers.
|
counters
|
(Optional) Displays packet and error counters for the DMA engine.
|
registers
|
(Optional) Displays information about the DMA registers.
|
Command Default
If given without any options, displays all information.
Command Modes
User EXEC, Privileged EXEC
Command History
Release
|
Modification
|
12.2(1)XF1
|
This command was introduced as show hardware pxf dma for the Cisco uBR10012 router.
|
12.2(15)BC2
|
This command was renamed from show hardware pxf dma to show pxf dma.
|
Usage Guidelines
The show pxf dma command displays technical information about the current state of the DMA engine onboard the PXF processor. The buffers and registers options display information that is useful primarily to Cisco TAC engineers that are troubleshooting problems. The counters option displays a set of packet and error counters that can help diagnose and resolve problems with memory on the PXF processor.
Examples
The following example shows a typical display for the dma buffers option:
Router# show pxf dma buffers
PXF To-RP DMA Ring Descriptors & Buffers:
Descriptor Buffer Buffer Descriptor
Address Address Length(b) Flags
0 0x0B2A6CC0 0x08AA80C0 512 0x0002
1 0x0B2A6CD0 0x08AA8340 512 0x0002
2 0x0B2A6CE0 0x08AA8D40 512 0x0002
3 0x0B2A6CF0 0x08AA8AC0 512 0x0002
4 0x0B2A6D00 0x08AA8FC0 512 0x0002
5 0x0B2A6D10 0x08AA9240 512 0x0002
6 0x0B2A6D20 0x08AA9740 512 0x0002
7 0x0B2A6D30 0x08AA94C0 512 0x0002
8 0x0B2A6D40 0x08AA99C0 512 0x0002
9 0x0B2A6D50 0x08AA9C40 512 0x0002
10 0x0B2A6D60 0x08AA9EC0 512 0x0002
11 0x0B2A6D70 0x08AAA140 512 0x0002
12 0x0B2A6D80 0x08AAA640 512 0x0002
13 0x0B2A6D90 0x08AAA3C0 512 0x0002
14 0x0B2A6DA0 0x08AAA8C0 512 0x0002
15 0x0B2A6DB0 0x08AAAB40 512 0x0002
16 0x0B2A6DC0 0x08AAB040 512 0x0002
17 0x0B2A6DD0 0x08AAADC0 512 0x0002
18 0x0B2A6DE0 0x08AAB2C0 512 0x0002
19 0x0B2A6DF0 0x08AAB540 512 0x0002
20 0x0B2A6E00 0x08AAB7C0 512 0x0002
21 0x0B2A6E10 0x08AABA40 512 0x0002
22 0x0B2A6E20 0x08AABF40 512 0x0002
23 0x0B2A6E30 0x08AABCC0 512 0x0002
24 0x0B2A6E40 0x08AA6CC0 512 0x0002
25 0x0B2A6E50 0x08AA6F40 512 0x0002
26 0x0B2A6E60 0x08AA71C0 512 0x0002
27 0x0B2A6E70 0x08AA7440 512 0x0002
28 0x0B2A6E80 0x08AA7940 512 0x0002
29 0x0B2A6E90 0x08AA76C0 512 0x0002
30 0x0B2A6EA0 0x08AA7E40 512 0x0002
31 0x0B2A6EB0 0x08AA7BC0 512 0x0003
PXF From-RP DMA Ring Descriptors & Buffers:
Descriptor Buffer Buffer Descriptor Context
Address Address Length(b) Flags Bit
0 0x0B2A6F00 0x00000000 0 0x0000 Not set
1 0x0B2A6F10 0x00000000 0 0x0000 Not set
2 0x0B2A6F20 0x00000000 0 0x0000 Not set
3 0x0B2A6F30 0x00000000 0 0x0000 Not set
4 0x0B2A6F40 0x00000000 0 0x0000 Not set
5 0x0B2A6F50 0x00000000 0 0x0000 Not set
6 0x0B2A6F60 0x00000000 0 0x0000 Not set
7 0x0B2A6F70 0x00000000 0 0x0000 Not set
8 0x0B2A6F80 0x00000000 0 0x0000 Not set
9 0x0B2A6F90 0x00000000 0 0x0000 Not set
10 0x0B2A6FA0 0x00000000 0 0x0000 Not set
11 0x0B2A6FB0 0x00000000 0 0x0000 Not set
12 0x0B2A6FC0 0x00000000 0 0x0000 Not set
13 0x0B2A6FD0 0x00000000 0 0x0000 Not set
14 0x0B2A6FE0 0x00000000 0 0x0000 Not set
15 0x0B2A6FF0 0x00000000 0 0x0001 Not set
Table 0-203 describes the fields shown in the show pxf dma buffers command:
Table 0-203 Field Descriptions for the show pxf dma buffers Command
Field
|
Description
|
Descriptor Address
|
Memory address pointing to the descriptor for this buffer.
|
Buffer Address
|
Address of this buffer in memory.
|
Buffer Length
|
Length, in bytes, of this particular buffer.
|
Descriptor Flags
|
Internal flags identifying this buffer's use and status.
|
Context Bit
|
State of the context bit, which is set when the buffer is currently in use by a context (the basic unit of packet processing).
|
The following example shows a typical display for the dma counters option:
Router# show pxf dma counters
Packets: 874165, Cumulative Bytes: 531976708
Output Drops: 0, No EOP: 0, No Buffers: 0, No OWN Clear 57
Packets: 1254593, Cumulative Bytes: 275832396
Output Drops: 0, Own Errors 46
GP Registers Address: 0x3C000000
Pool Address: 0x703EADB0, Buffer Pool Group: 4
Ring Address: 0x0B2A6CC0, Shadow Address: 0x7046B2D0, Ring Size: 32
Descriptor Head: 10, Starved: 0
Ring Address: 0x0B2A6F00, Shadow Address: 0x626AB0D0, Ring Size: 16
Descriptor Head: 1, Descriptor Tail: 1, From RP count 0
High Priority Queue: 0x6226A920, Low Priority Queue: 0x6226A930
PXF DMA FTC Parity Error: 0
PXF DMA FTC Long Context Error: 0
PFX DMA FTC Short Context Error: 0
PXF DMA FTC Overflow Error: 0
PXF DMA FTC Protocol Error: 0
PXF DMA FTC Bad Address Error: 0
PXF DMA FTC Bad Address Pair Error: 0
PXF DMA FTC Invalid Command Error: 0
PXF DMA FTC Queue Full Error: 0
PXF DMA FTC Queue Threshold Exceeded Error: 0
PXF DMA Full OCQ Wait Error: 0
PXF DMA Toaster Status Wait Error: 0
PXF DMA TTQ Context Wait Error: 0
PXF DMA TBB Length Error: 0
PXF DMA OQC Cmd Completion Status Queue Full Error: 0
PXF DMA OQC Invalid Queue Number Error: 0
PXF DMA OQC Invalid Length Error: 0
PXF DMA PCI Parity Master Error: 0
PXF DMA PCI Parity Dev Error: 0
PXF DMA PCI System Error: 0
PXF DMA PCI Target Abort: 0
PXF DMA PCI Master Abort: 0
PXF DMA PCI Retry Timeout: 0
PXF DMA Single Bit SDRAM Error: 0
PXF DMA Multi-bit SDRAM Error: 0
PXF DMA Non-fatal SDRAM Error Counter Full Error: 0
PXF DMA SDRAM Request Error: 0
PXF DMA Toaster Stall Error: 0
PXF DMA New Work TTQ Full Error: 0
PXF DMA FBTTQ Full Error: 0
PXF DMA New Work TTQ FSM Error: 0
PXF DMA Search SOP Error: 0
PXF DMA Debug Compare Match Event: 0
PXF DMA FBB Line Card Error: 0
1/0: len 0, msop 0, crc 0, ovr 0
1/1: len 0, msop 0, crc 0, ovr 0
2/0: len 0, msop 0, crc 0, ovr 0
2/1: len 0, msop 0, crc 0, ovr 0
3/0: len 0, msop 0, crc 0, ovr 0
3/1: len 0, msop 0, crc 0, ovr 0
4/0: len 0, msop 0, crc 0, ovr 0
4/1: len 0, msop 0, crc 0, ovr 0
5/0: len 0, msop 0, crc 0, ovr 0
5/1: len 0, msop 0, crc 0, ovr 0
6/0: len 0, msop 0, crc 0, ovr 0
6/1: len 0, msop 0, crc 0, ovr 0
7/0: len 0, msop 0, crc 0, ovr 0
7/1: len 0, msop 0, crc 0, ovr 0
8/0: len 0, msop 0, crc 0, ovr 0
8/1: len 0, msop 0, crc 0, ovr 0
PXF DMA FBB Flow Bit Error: 0
PXF DMA New Work Queue Low Error: 0
PXF DMA New Work Queue High Error: 0
PXF DMA NWTTQ Word Valid Error: 0
PXF DMA FBTTQ Word Valid Error: 0
PXF DMA NWTTQ Context Valid Error: 0
PXF DMA FBTTQ Context Valid Error: 0
PXF DMA NWTTQ Context Used Error: 0
PXF DMA PMAC Write Server Error: 0
PXF DMA PMAC Read Server Error: 0
The following example shows a typical display for the dma registers option:
Router# show pxf dma registers
Vendor and Device ID: 0x00001137
Command and Status: 0x02A00147
Revision ID and Class Code: 0x00000000
Cache Latency and Header BIST: 0x00003010
BAR0: 0x9C000000, BAR1: 0x00000000, BAR2: 0x00000000
BAR3: 0x00000000, BAR4: 0x00000000, BAR5: 0x00000000
CIS Pointer Register: 0x00000000
Subsystem Vendor ID and Subsystem ID: 0x00000000
Expansion ROM Base Address: 0x00000000
Interrupt Grant Latency Register: 0x00000000
PXF DMA General Purpose Registers:
Soft Reset: 0x000000FF, Line Card Reset: 0x00000000
PXF DMA Part Number: 0x08034101, PXF DMA Version 0x00000003
Event1: 0x00000000, Halt Mask1: 0x6500FE00, Fault Mask1: 0x6400B400
Event2: 0x00000008, Halt Mask2: 0x0000003F, Fault Mask2: 0x0000000C
Event3: 0x00000000, Halt Mask3: 0x0000FFFF, Fault Mask3: 0x0000C1CF
Address: 0x000000CE, Out: 0x00001E11, Compare: 0x00000000
Control1: 0xE0404060, Control2: 0x44444040, Control3: 0x00000040
Length Error: 0x00000000, Multi-SOP Error: 0x00000000
CRC Error: 0x00000000, IPM Overrun Error: 0x00000000
Control: 0xFF000022, Pad1: 0xAAAAAAAA, Pad2: 0x00000000
Control: 0x000002D0, Priority: 0x00007C40, Status: 0x00000000
Control: 0x00272400, Status: 0x00000000
ECC Override: 0x00000000, Error Address 0x00000000
Window: 0x00000007, Timing: 0x000061A8
Descriptor Ring Base Address: 0x0B2A6CC0, Buffer Size: 0x00000200
Descriptor Status: 0x00E00008, DMA Control: 0x00103E04
Descriptor Word0: 0x08AA9740, Descriptor Word1 0x02000002
Descriptor Ring Base Address: 0x0B2A6F00
Descriptor Status: 0x00D0000C, DMA Control: 0x01007E04
Descriptor Word0: 0x00000000, Descriptor Word1: 0x00000000
FBB Rx Iron Bus Engine Debug Resource 04: 0x00000000
FBB Rx Iron Bus Engine Debug Resource 06: 0x00000000
FBB Rx Iron Bus Engine Debug Resource 07: 0x00000000
FBB Rx Iron Bus Engine Debug Resource 11: 0x00000000
FBB Rx Iron Bus Engine Debug Resource 12: 0x00000000
FBB Rx Iron Bus Engine Debug Resource 13: 0x00000000
FBB Rx Iron Bus Engine Debug Resource 14: 0x00000000
FBB Rx Iron Bus Engine Debug Resource 15: 0x00000000
OQC Output Command Queue 03 Debug Data: 0x00001040, qN_entry_cnt[5:0]: 0
OQC Output Command Queue 05 Debug Data: 0x00001040, qN_entry_cnt[5:0]: 0
OQC Output Command Queue 06 Debug Data: 0x00001040, qN_entry_cnt[5:0]: 0
OQC Output Command Queue 10 Debug Data: 0x00001040, qN_entry_cnt[5:0]: 0
OQC Output Command Queue 11 Debug Data: 0x00001040, qN_entry_cnt[5:0]: 0
OQC Output Command Queue 12 Debug Data: 0x00001040, qN_entry_cnt[5:0]: 0
OQC Output Command Queue 13 Debug Data: 0x00001040, qN_entry_cnt[5:0]: 0
OQC Output Command Queue 14 Debug Data: 0x00001040, qN_entry_cnt[5:0]: 0
FTC FTQ State Debug Data: 0x00000D1A
Control: 0x00000001, Spy: 0x00000000
Reset: 0x0000C1CF, Ready: 0x00003E34
Status: 0xFFFFFFFF, Statistics1: 0xFFFFFFFF
Statistics2: 0xFFFFFFFF, Statistics3: 0xFFFFFFFF
Status: 0xFFFFFFFF, Statistics1: 0xFFFFFFFF
Statistics2: 0xFFFFFFFF, Statistics3: 0xFFFFFFFF
Status: 0xFFFFFFFF, Statistics1: 0xFFFFFFFF
Statistics2: 0xFFFFFFFF, Statistics3: 0xFFFFFFFF
Status: 0xFFFFFFFF, Statistics1: 0xFFFFFFFF
Statistics2: 0xFFFFFFFF, Statistics3: 0xFFFFFFFF
Status: 0x00000DC0, Statistics1: 0x00000000
Statistics2: 0x00000000, Statistics3: 0x00000000
Status: 0x00000DC0, Statistics1: 0x00000000
Statistics2: 0x00000000, Statistics3: 0x00000000
Status: 0xFFFFFFFF, Statistics1: 0xFFFFFFFF
Statistics2: 0xFFFFFFFF, Statistics3: 0xFFFFFFFF
Status: 0xFFFFFFFF, Statistics1: 0xFFFFFFFF
Statistics2: 0xFFFFFFFF, Statistics3: 0xFFFFFFFF
Status: 0xFFFFFFFF, Statistics1: 0xFFFFFFFF
Statistics2: 0xFFFFFFFF, Statistics3: 0xFFFFFFFF
Status: 0x00000DC0, Statistics1: 0x00000000
Statistics2: 0x00000000, Statistics3: 0x00000000
Status: 0x00000DC0, Statistics1: 0x00000000
Statistics2: 0x00000000, Statistics3: 0x00000000
Status: 0x00000DC0, Statistics1: 0x00000000
Statistics2: 0x00000000, Statistics3: 0x00000000
Status: 0x00000DC0, Statistics1: 0x00000000
Statistics2: 0x00000000, Statistics3: 0x00000000
Status: 0x00000DC0, Statistics1: 0x00000000
Statistics2: 0x00000000, Statistics3: 0x00000000
Status: 0xFFFFFFFF, Statistics1: 0xFFFFFFFF
Statistics2: 0xFFFFFFFF, Statistics3: 0xFFFFFFFF
Status: 0xFFFFFFFF, Statistics1: 0xFFFFFFFF
Statistics2: 0xFFFFFFFF, Statistics3: 0xFFFFFFFF
Related Commands
Command
|
Description
|
clear pxf
|
Clears the direct memory access (DMA) and error checking and correcting (ECC) error counters on the PXF processor.
|
debug pxf
|
Enables debugging of the PXF subsystems on the active PRE1 module on the Cisco uBR10012 router.
|
show pxf cable
|
Displays information about the multicast echo and packet intercept features for one or all cable interfaces.
|
show pxf cable interface
|
Displays information about a particular service ID (SID) on a particular cable interface.
|
show pxf cpu
|
Displays the display different statistics about the operation of the CPU processor during PXF processing.
|
show pxf microcode
|
Displays identifying information for the microcode being used on the processor.
|
show pxf xcm
|
Displays the current state of ECC for the External Column Memory (XCM) on the PXF processor.
|
show pxf microcode
To display identifying information for the microcode being used on the Parallel eXpress Forwarding (PXF) processor, use the show pxf microcode command in user EXEC or privileged EXEC mode.
show pxf microcode
Syntax Description
This command has no keywords or arguments.
Command Default
No default behavior or values
Command Modes
User EXEC, Privileged EXEC
Command History
Release
|
Modification
|
12.2(4)XF1
|
This command was introduced as show hardware pxf microcode for the Cisco uBR10012 router.
|
12.2(15)BC2
|
This command was renamed from show hardware pxf microcode to show pxf microcode.
|
Usage Guidelines
The PXF processors onboard the Performance Routing Engine (PRE1) module automatically load their microcode at the same time that the Cisco IOS image is loaded into the PRE1 module. A fault situation can cause one or both of the PXF processors to reload the microcode as needed. You can use the show pxf microcode command to display the version of microcode currently loaded, as well as the number of times the microcode has been loaded since the Cisco IOS software was loaded at system bootup.
Examples
The following example shows a typical display for the show pxf microcode command:
Router# show pxf microcode
PXF complex: 2 Toasters 8 Columns total
Toaster processor tmc0 is running.
Toaster processor tmc1 is running.
Loaded microcode: system:pxf/u10k-1-ucode.2.3.1
Release Software created Wed 04-Sep-02 10:04
Signature: c99db74b91f8fae0a15e62e152c3f49f
Microcode load attempted 1 time(s), latest 3d17h ago
tmc0 FG_PC=1 BG_PC=5 WDog=1024 MinPhase=31
tmc1 FG_PC=1 BG_PC=5 WDog=1024 MinPhase=31
Cobalt Registers: 9 registers specified
00000064 0000000F 00000001
00000090 FFFF0000 FF000000
00000090 000003C0 00000000
00000090 00000003 00000002
00000094 FFFFFFFF AAAAAAAA
000000A0 000001C0 00000040
000000B0 00000200 00000200
000000B0 00000100 00000000
000000B0 0000003F 00000010
Table 0-204 describes the fields shown in the show pxf microcode command:
Table 0-204 Field Descriptions for the show pxf microcode Command
Field
|
Description
|
PXF complex
|
Describes the number of PXF (Toaster) processors, their associate memory columns, and their current status.
|
Loaded microcode
|
Describes the source and filename for the microcode that is currently loaded on the PXF processor.
|
Version
|
Identifies the major and minor version numbers for the current release of microcode.
|
Release Software created
|
Identifies the time and date the current microcode was compiled.
|
Microcode load attempted
|
Identifies the number of times the PXF processor has loaded the microcode since the Cisco IOS image was loaded at system bootup. Also shows the time (in days and hours) since the last successful load of the microcode.
|
DISABLE_BOOTSTRAP
|
Displays the current state of operation for the PXF processor. During normal operation, this line shows "DISABLE_BOOTSTRAP_CLEAR".
|
tmc0, tmc1
|
Identifies the current program counters and configuration for the two PXF processors.
|
Cobalt registers
|
Provides a hexadecimal dump of the current contents of the register for the Cobalt support chip, which manages the interface between the PXF processors and the backplane, and which also manages the memory for the packet buffers.
|
Related Commands
Command
|
Description
|
clear pxf
|
Clears the direct memory access (DMA) and error checking and correcting (ECC) error counters on the PXF processor.
|
debug pxf
|
Enables debugging of the PXF subsystems on the active PRE1 module on the Cisco uBR10012 router.
|
microcode
|
Reloads the microcode software images on one or all line cards that support downloadable microcode.
|
microcode reload
|
Reloads the microcode software images on one or all line cards that support downloadable microcode.
|
show pxf cable
|
Displays information about the multicast echo and packet intercept features for one or all cable interfaces.
|
show pxf cable interface
|
Displays information about a particular service ID (SID) on a particular cable interface.
|
show pxf cpu
|
Displays the display different statistics about the operation of the CPU processor during PXF processing.
|
show pxf dma
|
Displays information for the current state of the PXF DMA buffers, error counters, and registers.
|
show pxf xcm
|
Displays the current state of ECC for the External Column Memory (XCM) on the PXF processor.
|
show pxf xcm
To display the current state of error checking and correcting (ECC) for the External Column Memory (XCM) on the Parallel eXpress Forwarding (PXF) processor, use the show pxf xcm command in user EXEC or privileged EXEC mode.
show pxf xcm
Syntax Description
This command has no keywords or arguments.
Command Default
No default behavior or values
Command Modes
User EXEC, Privileged EXEC
Command History
Release
|
Modification
|
12.2(4)XF1
|
This command was introduced as show hardware pxf xcm to support the Performance Routing Engine (PRE1) module on the Cisco uBR10012 router.
|
12.2(15)BC2
|
This command was renamed from show hardware pxf xcm to show pxf xcm.
|
Usage Guidelines
The show pxf xcm command displays the register contents and error counters for the ECC function on the processor's XCM memory columns. Each PXF processor contains four memory columns, and ECC is enabled by default for each column.
Note
The show pxf xcm command is supported only on the PRE1 and later processors for the Cisco uBR10012 router. This command is not supported on the PRE module.
Examples
The following example shows a typical display for the show pxf xcm command for a PRE1 module:
Proc ID: 0x00000002 = TMC
ASIC Revision: 0x00000002 = T2-ECC
XCM0 type:SDRAM, size = 67108864
ECC is enabled for column 0
XCM Control Register: 0x00000001
XCM Exception Type Register: 0x00000000
Number of ECC single bit errors: 0
Number of ECC single bit errors: 0
XCM1 type:SDRAM, size = 67108864
ECC is enabled for column 1
XCM Control Register: 0x00000001
XCM Exception Type Register: 0x00000000
Number of ECC single bit errors: 0
Number of ECC single bit errors: 0
XCM2 type:SDRAM, size = 67108864
ECC is enabled for column 2
XCM Control Register: 0x00000001
XCM Exception Type Register: 0x00000000
Number of ECC single bit errors: 0
Number of ECC single bit errors: 0
XCM3 type:SDRAM, size = 67108864
ECC is enabled for column 3
XCM Control Register: 0x00000001
XCM Exception Type Register: 0x00000000
Number of ECC single bit errors: 0
Number of ECC single bit errors: 0
Proc ID: 0x00000002 = TMC
ASIC Revision: 0x00000002 = T2-ECC
XCM0 type:SDRAM, size = 67108864
ECC is enabled for column 0
XCM Control Register: 0x00000001
XCM Exception Type Register: 0x00000000
Number of ECC single bit errors: 0
Number of ECC single bit errors: 0
XCM1 type:SDRAM, size = 67108864
ECC is enabled for column 1
XCM Control Register: 0x00000001
XCM Exception Type Register: 0x00000000
Number of ECC single bit errors: 0
Number of ECC single bit errors: 0
XCM2 type:SDRAM, size = 67108864
ECC is enabled for column 2
XCM Control Register: 0x00000001
XCM Exception Type Register: 0x00000000
Number of ECC single bit errors: 0
Number of ECC single bit errors: 0
XCM3 type:SDRAM, size = 67108864
ECC is enabled for column 3
XCM Control Register: 0x00000001
XCM Exception Type Register: 0x00000000
Number of ECC single bit errors: 0
Number of ECC single bit errors: 0
Table 0-205 describes the fields displayed by the show pxf xcm command.
Table 0-205 show pxf xcm Field Descriptions
Field
|
Description
|
The following fields appear for each PXF processor
|
Toaster 0, Toaster 1
|
Identifies the PXF processor.
|
Number of Columns
|
Identifies the number of memory columns on the PXF processor. Each PXF processor contains 4 columns of memory.
|
Proc ID:
|
Identifies the type of processor (TMC=Toaster Memory Column).
|
ASIC Revision
|
Identifies the internal version number of the PXF processor.
|
The following fields appear for each XCM memory column
|
XCM type
|
Identifies the type and size, in bytes, of memory used in this particular column.
|
ECC is enabled for column
|
Identifies whether ECC checking is enabled or disabled for this memory column.
|
XCM Control Register and Exception Type Register
|
Identifies the contents of these two registers for the memory column.
|
Number of ECC single bit errors
|
Identifies the number of single-bit errors that have been detected in the A and B banks of memory
|
The following example shows the error message that is displayed when this command is used on a PRE1 module:
ECC is not supported for this revision
Related Commands
Command
|
Description
|
clear pxf
|
Clears the direct memory access (DMA) and error checking and correcting (ECC) error counters on the PXF processor.
|
debug pxf
|
Enables debugging of the PXF subsystems on the active PRE1 module on the Cisco uBR10012 router.
|
show pxf cable
|
Displays information about the multicast echo and packet intercept features for one or all cable interfaces.
|
show pxf cable interface
|
Displays information about a particular service ID (SID) on a particular cable interface.
|
show pxf cpu
|
Displays the display different statistics about the operation of the CPU processor during PXF processing.
|
show pxf microcode
|
Displays identifying information for the microcode being used on the processor.
|
show pxf dma
|
Displays the current state of ECC for the External Column Memory (XCM) on the PXF processor.
|
show redundancy (ubr10012)
To display the current redundancy status, use the show redundancy command in user EXEC or privileged EXEC mode.
show redundancy [clients | counters | history | states]
Syntax Description
clients
|
(Optional) Displays the Redundancy Facility (RF) client list.
|
counters
|
(Optional) Displays RF operational counters.
|
history
|
(Optional) Summarizes RF history.
|
states
|
(Optional) Displays RF states for active and standby modules.
|
Defaults
No default behavior or values
Command Modes
User EXEC, Privileged EXEC
Command History
Release
|
Modification
|
12.2(4)XF1
|
This command was introduced for the Cisco uBR10012 router.
|
12.2(11)BC3
|
The clients, counters, history, and states option were added, and the default display was enhanced to show the version of Cisco IOS software that is running on the standby PRE module.
|
12.2(15)BC2
|
The default display includes additional information about the history of switchovers, as well as a stack trace from the secondary PRE module's ROMMON for when it last crashed, if ever.
|
12.2(33)SCA
|
This command was integrated into Cisco IOS Release 12.2(33)SCA.
|
Usage Guidelines
The show redundancy command shows whether the PRE A slot or PRE B slot contains the active (primary) Performance Routing Engine (PRE1) module, the status of the standby (secondary) PRE1 module, and the values for the standby PRE1 module's boot variables and configuration register. In Cisco IOS Release 12.2(13)BC1 and later releases, it also shows the version of Cisco IOS software that is running on the standby PRE module.
Note
The show redundancy command always shows the correct location of the active PRE1 module. The other PRE slot will always be marked as Secondary, even if a standby PRE1 module is not installed.
Examples
This section contains examples of typical displays for each of the options that are available for the show redundancy command.
Default Displays
The following example shows a typical display from the show redundancy command in Cisco IOS Release 12.2(15)BC2 and later releases:
PRE B (This PRE) : Primary
Uptime since this PRE switched to active : 5 minutes
Total system uptime from reload : 37 minutes
Switchovers this system has experienced : 5
Secondary failures since this PRE active : 0
The secondary PRE has been up for : 1 minute
The reason for last switchover: ACTIVE RP CRASHED
Secondary PRE information....
Secondary has 524288K bytes of memory.
Secondary BOOT variable = slot0:ubr10k-k8p6-mz.122-11.CY,12;
Secondary CONFIG_FILE variable = bootflash:030227.config
Secondary BOOTLDR variable =
Secondary Configuration register is 0x0
Cisco Internetwork Operating System Software
IOS (tm) 10000 Software (UBR10K-K8P6-M), Experimental Version 12.2(15)BC2
Copyright (c) 1986-2004 by cisco Systems, Inc.
Compiled Mon 01-Mar-04 12:01 by anxrana
Cisco Internetwork Operating System Software
IOS (tm) 10000 Software (UBR10K-K8P6-M), Released Version 12.2(15)BC2
Copyright (c) 1986-2004 by cisco Systems, Inc.
Compiled Mon 01-Mar-04 12:01 by anxrana
Redundant RP last failure info as reported by Standby:
bus error at PC 0x605C8B24, address 0xFF012345
10000 Software (UBR10K-K8P6-M), Experimental Version 12.3(20040211:230003)
[narana-geo_cable 123]
Compiled Mon 01-Mar-04 12:01 by anxrana
Image text-base: 0x60008CB8, data-base: 0x61F80000
Stack trace from system failure:
FP: 0x7234C8C8, RA: 0x605C8B24
FP: 0x7234CA30, RA: 0x604940F4
FP: 0x7234CA90, RA: 0x60151FF0
FP: 0x7234CAB0, RA: 0x604A5554
FP: 0x7234CB40, RA: 0x6051F638
FP: 0x7234CB58, RA: 0x6051F61C
The following example shows a typical display from the show redundancy command in Cisco IOS Release 12.2(15)BC1 and earlier releases. The active PRE1 module is in PRE slot A, and the standby PRE1 module is in PRE slot B:
PRE A (This PRE) : Primary
Redundancy state is REDUNDANCY_PEERSECONDARY_INITED
Secondary PRE information....
Secondary has 524288K bytes of memory.
Secondary BOOT variable = bootflash:ubr10k-k8p6-mz
Secondary CONFIG_FILE variable =
Secondary BOOTLDR variable = bootflash:c10k-eboot-mz
Secondary Configuration register is 0x2102
Cisco Internetwork Operating System Software
IOS (tm) 10000 Software (UBR10K-K8P6-M), Released Version 12.2(11)BC3
Copyright (c) 1986-2003 by cisco Systems, Inc.
Compiled Mon 03-Mar-03 11:28 by texbnt
The following example shows the same display but after a switchover has occurred. The show redundancy command now shows that the active (primary) PRE has changed slots (in this case, moving from slot A to slot B):
PRE B (This PRE) : Primary
Redundancy state is REDUNDANCY_PEERSECONDARY_INITED
Secondary PRE information....
Secondary BOOT variable = bootflash:ubr10k-k8p6-mz
Secondary CONFIG_FILE variable =
Secondary BOOTLDR variable = bootflash:c10k-eboot-mz
Secondary Configuration register is 0x2
Cisco Internetwork Operating System Software
IOS (tm) 10000 Software (UBR10K-K8P6-M), Released Version 12.2(13)BC2
Copyright (c) 1986-2003 by cisco Systems, Inc.
Compiled 26 08-Feb-03 11:28 by texbnt
The following example shows a typical display when the standby PRE1 module is not installed or is not operational. The standby (secondary) PRE1 module is shown as not up, and its boot variables and configuration register are not shown.
PRE A (This PRE) : Primary
Redundancy state is REDUNDANCY_PEERSECONDARY_NONOPERATIONAL
Secondary PRE information....
Clients Display
The following example shows a typical display for the show redundancy clients command:
Router# show redundancy clients
clientID = 0 clientSeq = 0 RF_INTERNAL_MSG
clientID = 25 clientSeq = 130 CHKPT RF
clientID = 5 clientSeq = 170 RFS client
clientID = 50 clientSeq = 530 Slot RF
clientID = 65000 clientSeq = 65000 RF_LAST_CLIENT
Counters Display
The following example shows a typical display for the show redundancy counters command:
Router# show redundancy counters
tx msg length invalid = 0
client not rxing msgs = 0
rx peer msg routing errors = 0
tx buffers unavailable = 0
buffer release errors = 0
duplicate client registers = 0
failed to register client = 0
History Display
The following example shows a typical display for the show redundancy history command:
Router# show redundancy history
00:00:00 client added: RF_INTERNAL_MSG(0) seq=0
00:00:00 client added: RF_LAST_CLIENT(65000) seq=65000
00:00:00 client added: CHKPT RF(25) seq=130
00:00:01 client added: Slot RF(50) seq=530
00:00:15 client added: RFS client(5) seq=170
00:00:16 *my state = INITIALIZATION(2) *peer state = DISABLED(1)
00:00:16 RF_PROG_INITIALIZATION(100) RF_INTERNAL_MSG(0) op=0 rc=11
00:00:16 RF_PROG_INITIALIZATION(100) CHKPT RF(25) op=0 rc=11
00:00:16 RF_PROG_INITIALIZATION(100) RFS client(5) op=0 rc=11
00:00:16 RF_PROG_INITIALIZATION(100) Slot RF(50) op=0 rc=11
00:00:16 RF_PROG_INITIALIZATION(100) RF_LAST_CLIENT(65000) op=0 rc=11
00:00:16 *my state = NEGOTIATION(3) peer state = DISABLED(1)
00:00:16 RF_EVENT_GO_ACTIVE(512) op=0 rc=0
00:00:16 *my state = ACTIVE-FAST(9) peer state = DISABLED(1)
00:00:16 RF_STATUS_MAINTENANCE_ENABLE(403) CHKPT RF(25) op=0 rc=0
00:00:16 RF_STATUS_MAINTENANCE_ENABLE(403) RFS client(5) op=0 rc=0
00:00:16 RF_STATUS_MAINTENANCE_ENABLE(403) Slot RF(50) op=0 rc=0
00:00:16 RF_PROG_ACTIVE_FAST(200) RF_INTERNAL_MSG(0) op=0 rc=11
00:00:16 RF_PROG_ACTIVE_FAST(200) CHKPT RF(25) op=0 rc=11
00:00:16 RF_PROG_ACTIVE_FAST(200) RFS client(5) op=0 rc=11
00:00:16 RF_PROG_ACTIVE_FAST(200) Slot RF(50) op=0 rc=11
00:00:16 RF_PROG_ACTIVE_FAST(200) RF_LAST_CLIENT(65000) op=0 rc=11
00:00:16 *my state = ACTIVE-DRAIN(10) peer state = DISABLED(1)
00:00:16 RF_PROG_ACTIVE_DRAIN(201) RF_INTERNAL_MSG(0) op=0 rc=11
00:00:16 RF_PROG_ACTIVE_DRAIN(201) CHKPT RF(25) op=0 rc=11
00:00:16 RF_PROG_ACTIVE_DRAIN(201) RFS client(5) op=0 rc=11
00:00:16 RF_PROG_ACTIVE_DRAIN(201) Slot RF(50) op=0 rc=11
States Display
The following example shows a typical display for the show redundancy states command:
Router# show redundancy states
peer state = 8 -STANDBY HOT
Redundancy Mode = Hot Standby Redundancy
Maintenance Mode = Disabled
client_notification_TMR = 30000 milliseconds
Related Commands
Command
|
Description
|
associate
|
Associates two line cards for Automatic Protection Switching (APS) redundancy protection.
|
clear redundancy
|
Clears the counters and history information that are used by the Redundancy Facility (RF) subsystem.
|
mode (redundancy)
|
Configures the redundancy mode of operation.
|
redundancy
|
Enters redundancy configuration mode.
|
redundancy force-failover main-cpu
|
Forces a manual switchover between the active and standby PRE1 modules.
|
redundancy force-switchover
|
Forces the standby PRE to assume the role of the active PRE.
|
show redundancy config-sync
|
Displays failure information generated during a bulk synchronization from the active PRE to the standby PRE.
|
show redundancy platform
|
Displays active and standby PRE and software information.
|
show redundancy config-sync
To display failure information generated during a bulk synchronization from the active Performance Routing Engine (PRE) to the standby PRE, use the show redundancy config-sync command in user EXEC or privileged EXEC modes.
show redundancy config-sync {failures {bem | mcl | prc} | ignored failures mcl