Table Of Contents
Cable Commands: show ch through show cr
show checkpoint
show cmts ipc-cable client base
show controller gigabitethernet
show controller integrated-cable
show controllers cable
show controllers cable jib
show controllers cable upstream spectrum
show controllers cable-modem
show controllers cable-modem bpkm
show controllers cable-modem classifiers
show controllers cable-modem cmcert
show controllers cable-modem crypto des
show controllers cable-modem filters
show controllers cable-modem lookup-table
show controllers cable-modem mac
show controllers cable-modem manuf-cert
show controllers cable-modem phs
show controllers cable-modem phy
show controllers cable-modem qos
show controllers cable-modem service-flows
show controllers cable-modem tuner
show controllers clock-reference
show controllers jacket
show controllers modular-cable
show controllers usb
show cpd
show cr10k-rp cable
show cr10k-rp controller
show cr10k-rp queue
show cr10k-rp slots
show crypto ca certificates
show crypto ca trustpoints
Cable Commands: show ch through show cr
Revised: August 12, 2013, OL-15510-17
New Commands
Command
|
Cisco IOS Software Release
|
show cr10k-rp cable
|
12.2(33)SCA
|
show cr10k-rp controller
|
12.2(33)SCA
|
show cr10k-rp queue
|
12.2(33)SCA
|
show cr10k-rp slots
|
12.2(33)SCA
|
show controller integrated-cable
|
12.2(33)SCC
|
show controller gigabitethernet
|
12.2(33)SCE
|
show cmts ipc-cable client base service
|
12.2(33)SCF
|
show controllers cable jib
|
12.2(33)SCF
|
Modified Commands
Command
|
Cisco IOS Software Release
|
show controllers cable
|
12.3(23)BC
|
show controllers modular-cable
|
12.3(23)BC5
|
show controllers jacket
|
12.2(33)SCB
|
show cr10k-rp controller
|
12.2(33)SCB
|
show cr10k-rp queue
|
12.2(33)SCB
|
show controllers modular-cable
|
12.3(23)BC6
|
show controllers cable
|
12.2(33)SCC
|
show controllers modular-cable
|
12.2(33)SCC
|
show controller integrated-cable
|
12.2(33)SCE
|
show controllers cable
|
12.2(33)SCE
|
show controllers modular-cable
|
12.2(33)SCE
|
show controllers cable
|
12.2(33)SCF
|
show cr10k-rp controller
|
12.2(33)SCF
|
show controllers cable
|
12.2(33)SCG
|
show controllers modular-cable
|
12.2(33)SCG
|
show controllers modular cable
|
12.2(33)SCH
|
Obsolete Commands
Command
|
Effective Cisco IOS Release
|
show controllers cable upstream spectrum
|
12.3(21)BC
|
show cr10k-rp
|
12.2(33)SCB
|
show cr10k-rp service-flow ds
|
12.2(33)SCB
|
show checkpoint
To display information about the Checkpoint Facility (CF) subsystem on a Cisco CMTS, use the show checkpoint command in privileged EXEC mode.
show checkpoint {clients [client-id] | entities | statistics}
Syntax Description
clients
|
Displays a list of current checkpoint clients.
|
client-id
|
(Optional) Particular client statistics.
|
entities
|
Displays a list of current checkpoint entities.
|
statistics
|
Displays the current status for checkpoint operations.
|
Command Modes
Privileged EXEC (#)
Command History
Release
|
Modification
|
12.2(11)BC3
|
This command was introduced to support High Availability (HA) redundancy operations.
|
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.
|
Usage Guidelines
The Checkpoint Facility (CF) subsystem manages the passing of messages from the Active to Standby interfaces. It also handles sequencing and throttling, as needed during redundancy operations. Checkpoint clients, such as line cards and other subsystems, register with the CF subsystem so that they can update the Protect card or standby processor with state changes as necessary.
The show checkpoint command displays information about the clients (other processes on the CMTS that are sending checkpoint messages), entities, and run-time status for checkpoint operations.
The show checkpoint clients client-id command displays information about the client with a particular client ID.
Examples
The following shows typical output for the show checkpoint clients command:
Router# show checkpoint clients
Check Point List of Clients
Client Name Client ID Msg Send Msg len Bundling
-----------------------------------------------------------
The following shows typical output for the show checkpoint clients command with the client-id parameter:
Router# show checkpoint clients 1
--------------------------------------------------------------------------------
Client Name Client Entity Bundle
--------------------------------------------------------------------------------
CHKPT Test client 1 -- On
Total API Messages Sent: 0
Total Transport Messages Sent: 0
Length of Sent Messages: 0
Total Blocked Messages Sent: 0
Length of Sent Blocked Messages: 0
Total Non-blocked Messages Sent: 0
Length of Sent Non-blocked Messages: 0
Total Messages Received: 0
Huge Buffers Requested: 0
Transport Sends w/Flow Off: 0
Client Unbundles to Process Memory: T
The following shows typical output for the show checkpoint entities command:
Router# show checkpoint entities
Check Point List of Entities
CHKPT on ACTIVE server.
--------------------------------------------------------------------------------
Entity Name Entity
ID
--------------------------------------------------------------------------------
UBR10k HA Entity Gro 4
Total API Messages Sent: 0
Total IPC Sent: 0
Total Message Len: 0
Total Bytes Allocated: 0
The following shows typical output for the show checkpoint statistics command:
Router# show checkpoint statistics
Number of chkpt messages currently in hold queue 0
CHKPT MAX MTU size = 1422
CHKPT Pending msg timer = 100 ms
Related Commands
Command
|
Description
|
hccp authentication
|
Changes the minimum time between frequency hops.
|
hccp check version
|
Exits bypass version mode, and returns to normal HCCP operation.
|
hccp ds-switch
|
Specifies the downstream upconverter module for a Working CMTS or Protect CMTS (deprecated command).
|
hccp protect
|
Allows you to configure a Cisco CMTS to be a Protect CMTS for a specified Working CMTS in a 1+1 redundancy environment.
|
hccp working
|
Allows you to designate a Cisco CMTS to be a Working CMTS in a 1+1 redundancy environment.
|
show hccp
|
Displays information for all cable interfaces on which one or more HCCP groups and authentication modes have been configured.
|
show hccp interface
|
Displays group information for a specific cable interface on which one or more groups and authentication modes have been configured.
|
show cmts ipc-cable client base
To display the interprocess communication (IPC) session status, the service information for all the slots and subslots on the line cards, and statistics for each session on the Cisco uBR10012 router, use the show cmts ipc-cable client base command in user EXEC or privileged EXEC mode.
show cmts ipc-cable client base {client | service | stats}
Syntax Description
client
|
Displays the IPC session status information.
|
service
|
Displays all the IPC services for the slots and subslots on the Cisco uBR10012 router.
|
stats
|
Displays the IPC layer statistics information for every session.
|
Command Default
No default behavior or values.
Command Modes
User EXEC (>) or
Privileged EXEC (#)
Command History
Release
|
Modification
|
12.2(33)SCB
|
This command was introduced.
|
12.2(33)SCF
|
The service keyword was added to this command.
|
Usage Guidelines
The show cmts ipc-cable client base client command displays the IPC session information for a group of messages that are exchanged between a route processor (RP) and a line card or between two line cards. This information includes the client ID, client name, IPC transport information, slot and subslot information, session state to identify whether the session is ready for message exchange, number of messages that are pending, and number of messages dropped.
The show cmts ipc-cable client base service command displays the IPC service information for all the slots and subslots on the Cisco uBR10012 router. This information includes IPC port information, such as type of service and port ID, retry and timeout information of the IPC messages, and watermark information in the request queue.
The show cmts ipc-cable client base stats command displays the IPC layer error statistics for every session and is used for internal debugging purposes. The error statistics information includes the client ID, client name, transport type, slot and subslot information, client buffer, IPC layer state, error counter information for the sent and received messages, and IPC In Service Software Upgrade (ISSU) register information.
Examples
The following is a sample output of the show cmts ipc-cable client base client command:
Router# show cmts ipc-cable client base client
Client Id: 0 Name: CLNT DOCSIS
Slot/Subslot Seat ISSU Sid Connection State Ready Transport Msg-Pending Msg-D
5/0 0x70000 17 RP-CLC Up Yes IPC 0 0
6/1 0x50000 65540 RP-CLC Up Yes IPC 0 0
8/0 0x60000 589827 RP-CLC Up Yes IPC 0 0
Client Id: 1 Name: CLNT HCCP
Slot/Subslot Seat ISSU Sid Connection State Ready Transport Msg-Pending Msg-D
5/0 0x70000 17 RP-CLC Up Yes IPC 0 0
6/1 0x50000 65540 RP-CLC Up Yes IPC 0 0
8/0 0x60000 589827 RP-CLC Up Yes IPC 0 0
Client Id: 2 Name: CLNT PKTCBL
Slot/Subslot Seat ISSU Sid Connection State Ready Transport Msg-Pending Msg-D
5/0 0x70000 17 RP-CLC Up Yes IPC 0 0
6/1 0x50000 65540 RP-CLC Up Yes IPC 0 0
8/0 0x60000 589827 RP-CLC Up Yes IPC 0 0
Client Id: 3 Name: CLNT PNEGO
Slot/Subslot Seat ISSU Sid Connection State Ready Transport Msg-Pending Msg-D
5/0 0x70000 17 RP-CLC Up Yes IPC 0 0
6/1 0x50000 65540 RP-CLC Up Yes IPC 0 0
8/0 0x60000 589827 RP-CLC Up Yes IPC 0 0
Client Id: 4 Name: CLNT PLATFORM
Slot/Subslot Seat ISSU Sid Connection State Ready Transport Msg-Pending Msg-D
5/0 0x70000 17 RP-CLC Up Yes IPC 0 0
6/1 0x50000 65540 RP-CLC Up Yes IPC 0 0
Table 156 describes the significant fields shown in the display.
Table 156 show cmts ipc-cable client base client Field Descriptions
Field
|
Description
|
Client Id
|
ISSU client ID.
|
Name
|
Client session name.
|
Slot/subslot
|
Slot and subslot.
|
Seat
|
IPC seat number for the session.
|
ISSU Sid
|
ISSU application client session service identifier.
|
Connection
|
Connection type.
|
State
|
Connection state that is established.
|
Ready
|
Readiness of the session.
|
Transport
|
Transport stream that is used.
|
Msg-Pending
|
Total number of messages waiting for acknowledgement.
|
Msd-Dropped
|
Total number of messages dropped.
|
ISSU MTU
|
IPC Maximum Transmission Unit (MTU) of the ISSU session.
|
The following is a sample output of the show cmts ipc-cable client base service command:
Router# show cmts ipc-cable client base service
CMTS IPC service 1/0: default
ipc_port_info = 0x69390F4 ipc_port_id = A0000
retry_max = 20 retry_period = 1 rpc_timeout = 120
context = 0x6939164 pid = 399 name = ReqXmt 1/0: default
in_transit = 0 reqQ size = 0 inband = False
reqQ watermark low = 200 med = 500 high = 1000
resume_send = True block_done = False
CMTS IPC service 3/0: default
ipc_port_info = 0x6939084 ipc_port_id = B0000
retry_max = 20 retry_period = 1 rpc_timeout = 120
context = 0x6937FE4 pid = 405 name = ReqXmt 3/0: default
in_transit = 0 reqQ size = 0 inband = False
reqQ watermark low = 200 med = 500 high = 1000
resume_send = True block_done = False
CMTS IPC service 5/0: default
ipc_port_info = 0x465C0C14 ipc_port_id = D000A
retry_max = 20 retry_period = 1 rpc_timeout = 120
context = 0x6937874 pid = 420 name = ReqXmt 5/0: default
in_transit = 0 reqQ size = 0 inband = False
reqQ watermark low = 200 med = 500 high = 1000
resume_send = True block_done = True
CMTS IPC service 5/0: inband
ipc_port_info = 0xE6C7F50 ipc_port_id = D000B
retry_max = 20 retry_period = 1 rpc_timeout = 20
context = 0x6937644 pid = 424 name = ReqXmt 5/0: inband
in_transit = 0 reqQ size = 0 inband = True
reqQ watermark low = 200 med = 500 high = 1000
resume_send = False block_done = False
CMTS IPC service 5/0: expedite
ipc_port_info = 0x34C3FA4 ipc_port_id = D000C
retry_max = 3 retry_period = 1 rpc_timeout = 5
context = 0x69380C4 pid = 353 name = ReqXmt 5/0: expedite
in_transit = 0 reqQ size = 0 inband = False
reqQ watermark low = 200 med = 500 high = 1000
resume_send = True block_done = False
CMTS IPC service 5/0: non critical
ipc_port_info = 0x4CFFBD34 ipc_port_id = D000D
retry_max = 3 retry_period = 10 rpc_timeout = 30
context = 0x6937954 pid = 419 name = ReqXmt 5/0: non critical
in_transit = 0 reqQ size = 0 inband = False
reqQ watermark low = 200 med = 500 high = 1000
resume_send = False block_done = False
CMTS IPC service 5/1: default
ipc_port_info = 0x6938134 ipc_port_id = C000A
retry_max = 20 retry_period = 1 rpc_timeout = 120
context = 0x69387C4 pid = 226 name = ReqXmt 5/1: default
in_transit = 0 reqQ size = 0 inband = False
reqQ watermark low = 200 med = 500 high = 1000
resume_send = True block_done = True
CMTS IPC service 5/1: inband
ipc_port_info = 0x34C1F4C ipc_port_id = C000B
retry_max = 20 retry_period = 1 rpc_timeout = 20
in_transit = 0 reqQ size = 0 inband = True
reqQ watermark low = 200 med = 500 high = 1000
resume_send = False block_done = False
CMTS IPC service 5/1: expedite
ipc_port_info = 0x2DFFF38 ipc_port_id = C000C
retry_max = 3 retry_period = 1 rpc_timeout = 5
context = 0x465B73D4 pid = 96 name = ReqXmt 5/1: expedite
in_transit = 0 reqQ size = 0 inband = False
reqQ watermark low = 200 med = 500 high = 1000
resume_send = True block_done = False
CMTS IPC service 5/1: non critical
ipc_port_info = 0x2E00100 ipc_port_id = C000D
retry_max = 3 retry_period = 10 rpc_timeout = 30
context = 0x465BE054 pid = 164 name = ReqXmt 5/1: non critical
in_transit = 0 reqQ size = 0 inband = False
reqQ watermark low = 200 med = 500 high = 1000
resume_send = False block_done = False
Table 157 describes the significant fields shown in the display.
Table 157 show cmts ipc-cable client base service Field Descriptions
Field
|
Description
|
CMTS IPC service 1/0: default
|
Slot and subslot. Describes the type of service—default, inband, expedite, or non-critical.
|
ipc_port_info
|
IPC port information.
|
ipc_port_id
|
IPC port ID.
|
retry_max
|
Maximum retries in Cisco IOS software IPC layer.
|
retry_period
|
Time period of the retry interval in the IOS IPC layer.
|
rpc_timeout
|
RPC timeout value.
|
context
|
Context value.
|
pid
|
Program identifier value.
|
name
|
Type of IPC service.
|
in_transit
|
Indicates total number of messages waiting for acknowledgement
|
inband
|
Inband service type.
|
reqQ size
|
Size of the request queue.
|
reqQ watermark
|
Threshold value of the queue.
|
resume_send
|
IPC message sent is resumed.
|
block_done
|
IPC message is blocked.
|
The following is a sample output of the show cmts ipc-cable client base stats command:
Router# show cmts ipc-cable client base stats
Client Id: 0 Name: CLNT DOCSIS
Slot/subslot: 5 /0 Transport Type = RP-CLC
SID mgmt Q drop-No CM : 0
SID mgmt Q drop-IF down: 0
IPC - no watch boolean : 0
Rcvd client no callback : 0
CR10K IPC Header transform error : 0
CR10K IPC ISSU send nego failed : 0
CR10K IPC ISSU not compatible : 0
CR10K IPC ISSU start nego failed : 0
CR10K IPC ISSU register failed : 0
Table 158 describes the significant fields shown in the display.
Table 158 show cmts ipc-cable client base stats Field Descriptions
Field
|
Description
|
Client Id
|
ISSU client ID.
|
Name
|
Client session name.
|
Slot/subslot
|
Slot and subslot.
|
Transport Type
|
Transport type.
|
Related Commands
Command
|
Description
|
show cable ipc-stats
|
Displays the statistics of all IPC messages on the Cisco CMTS router.
|
show controller gigabitethernet
To display information about the Gigabit Ethernet interface used by the Downstream External PHY Interface (DEPI), use the show controller gigabitethernet command in privileged EXEC mode.
show controller gigabitethernet slot/subslot/{bay | port}
Syntax Description
slot
|
The slot where a SIP or cable line card resides.
• Cisco uBR7246VXR router—The valid range is from 3 to 6.
• Cisco uBR7225VXR router—The valid range is from 1 to 2.
• Cisco uBR10012 router—The valid range for:
– Cable line card is from 5 to 8
– SIP is 1 and 3
|
subslot
|
The subslot where a SIP or cable line card resides.
• Cisco uBR10012 router—The valid value for:
– Cable line card in slot 5 to 8 is 0 or 1
– SPAs in a SIP in slot 1 or 3, prior to Cisco IOS Release 12.2(33)SCB is 0 or 1. For Cisco IOS Release 12.2(33)SCB and later, subslot is not specified.
|
bay
|
The bay in a SIP where a SPA is located. Valid values are 0 (upper bay) and 1 (lower bay).
|
port
|
Specifies the port number.
• Cisco uBR7246VXR router and Cisco uBR7225VXR router—The valid range is from 0 to 1.
• Cisco uBR10012 router—The valid value for:
– Slot 1 and 3 is 0
– Slot 5 to 8 is from 0 to 4
|
Command Default
None.
Command Modes
Privilege EXEC
Command History
Release
|
Modification
|
12.2(33)SCE
|
This command was introduced.
|
Examples
This is a sample output for the show controller gigabitethernet command:
Router# show controller gigabitethernet 6/1/0
DEPI INTERFACE : GigabitEthernet6/1/0
Table 159 describes the significant fields shown in the display.
Table 159 show controller gigabitethernet Field Descriptions
Field
|
Description
|
visible_bw
|
Configured bandwidth for bypass traffic
|
IB CHANNEL
|
Ironbus channel ID for bypass traffic
|
Port0 Status
|
Status of GigE port 0
|
Port1 Status
|
Status of GigE port 1
|
Related Commands
Command
|
Description
|
show controller ethernet
|
Displays the hardware status of the backplane ethernet (BPE) device.
|
show controller integrated-cable
To view information about the Cisco UBR-MC20X20V or Cisco uBR-MC88V line card statistics, use the show controller integrated-cable command in privileged EXEC mode.
show controller integrated-cable {slot/port | slot/subslot/port} [all | association | bpi-entry
bpi-index | brief | config | counters {rf-channel [rf-channel] | wb-channel [wb-channel]} |
errors | fpga_version | iofpga | mapping {rf-channel [rf-channel] | wb-channel
[wb-channel]} | registers | rf-channel [rf-channel] | status | wideband-channel [wb-channel] ]
Syntax Description
slot/port | slot/subslot/port
|
Identifies the cable interface on the Cisco uBR7225VXR, Cisco uBR7246VXR, or Cisco uBR10012 router.
• slot—Slot where the line card resides.
– Cisco uBR7225VXR router: The valid range is from 1 to 2.
– Cisco uBR7246VXR router: The valid range is from 3 to 6.
– Cisco uBR10012 router: The valid range is from 5 to 8.
• subslot—Subslot where the line card resides. Available slots are 0 or 1. This option is available on the Cisco uBR10012 router.
• port—Downstream port number on the line card.
– Cisco uBR10012 router: The valid range is from 0 to 4.
– Cisco uBR7246VXR and Cisco uBR7225VXR routers: The valid port value is 0 or 1.
|
all
|
(Optional) Displays the complete information about the line card statistics.
|
association
|
(Optional) Displays the controller association information.
|
bpi-entry
|
(Optional) Displays the controller Baseline Privacy Interface (BPI) information.
• bpi-index—BPI index number. The valid range is from 0 to 24575.
|
brief
|
(Optional) Displays brief information about the line card statistics.
|
config
|
(Optional) Displays statistics about the JIB hardware and downstream PHY configuration.
|
counters
|
(Optional) Displays information about the RF and wideband (WB) channel counters.
|
rf-channel
|
Displays the RF channel information.
|
rf-channel
|
(Optional) RF channel number. The valid range is from 0 to 3.
|
wb-channel
|
Displays the wideband channel information.
|
wb-channel
|
(Optional) Wideband channel number. The valid range is from 0 to 5.
|
errors
|
(Optional) Displays information about the error counters, such as DOCSIS processor error counters, BPI error counters, and queue manager error counters.
|
fpga_version
|
(Optional) Displays the FPGA version information.
|
iofpga
|
(Optional) Displays the IOFPGA information.
|
mapping
|
(Optional) Displays mapping statistics of the RF and WB channels.
|
registers
|
(Optional) Displays the list of JIB hardware downstream register values.
|
status
|
(Optional) Displays the JIB hardware and downstream PHY status.
|
wideband-channel
|
(Optional) Displays the controller wideband cable information.
|
Command Modes
Privileged EXEC (#)
Command History
Release
|
Modification
|
12.2(33)SCC
|
This command was introduced.
|
12.2(33)SCD
|
The command was modified. Added support for the Cisco uBR-MC88V line card on Cisco uBR7246VXR and Cisco uBR7225VXR universal broadband routers.
|
12.2(33)SCE
|
This command was modified. The following optional keywords were added:
• fgpa_version
• iofpga
• rf-channel
• wideband-channel
|
Usage Guidelines
This command allows the user to view the following line card statistics:
•
Controller association
•
JIB hardware downstream configuration
•
Channel counters
•
Errors
•
Mapping of WB and RF channels
•
JIB hardware downstream registers
•
JIB hardware downstream status
Note
The channel counters are not reset or cleared when a line card switch-over occurs.
The following example shows a typical display of the show controller integrated-cable command and the all keyword:
Router# show controllers integrated-Cable 6/0/0 all
Integrated Cable Controller 6/0/0:
----------------------------------
Channel 1 Annex = B Modulation = 256 QAM
Channel 2 Annex = B Modulation = 256 QAM
Channel 3 Annex = B Modulation = 256 QAM
Channel 4 Annex = B Modulation = 256 QAM
JIB3_DS BPI registers (base address 0xF8880000)
bpi_int_isr_0 [0x00000000] = 0x00000000
bpi_int_ier_0 [0x00000004] = 0x0000000F
glb_int_isr_0 [0x00000010] = 0x00000000
glb_int_ier_0 [0x00000014] = 0x000003FF
glb_int_isr_1 [0x00000020] = 0x00000000
glb_int_ier_1 [0x00000024] = 0x000003FF
bpi_int_fesr_0 [0x00000040] = 0x00000000
bpi_tst_tp_sel_reg [0x00000050] = 0x00000000
bpi_tst_tp_reg [0x00000054] = 0x00000000
bpi_cnt_good_packet_in_cnt [0x00000064] = 0x61308806
bpi_cnt_bad_packet_in_cnt [0x00000068] = 0x00006538
bpi_cnt_good_packet_out_cnt [0x0000006C] = 0x61308806
bpi_cnt_bad_packet_out_cnt [0x00000070] = 0x00006538
bpi_ecc_sbit_err_cnt [0x00000074] = 0x00000000
glb_sw_rev_id [0x00000078] = 0x00020002
glb_hw_rev_id [0x0000007C] = 0x00010008
frz_reg [0x00000080] = 0x00000000
frz_en [0x00000084] = 0x00000001
glb_dcm_status [0x00000088] = 0x00000007
glb_sw_rst [0x0000008C] = 0x00000000
JIB3_DS ERP registers (base address 0xF8881000)
erp_irq_src_reg [0x00000000] = 0x00000000
erp_irq_en_reg [0x00000004] = 0x80000FFF
erp_tp_sel_reg [0x00000050] = 0x00000000
erp_tp_reg [0x00000054] = 0x00000000
erp_cfg_reg [0x00000060] = 0x00000000
erp_err_record_reg [0x00000064] = 0x00000000
erp_err_addr_record_reg [0x00000068] = 0x00000000
erp_err_wd_record_reg [0x0000006C] = 0x00000000
erp_proc_err_addr_record_reg [0x00000090] = 0x00000000
JIB3_DS RX SPI registers (base address 0xF8882000)
rxspi_irq_src_reg [0x00000000] = 0x00000000
rxspi_irq_en_reg [0x00000004] = 0x000001FF
rxspi_ferr_src_reg [0x00000040] = 0x00000000
rxspi_testpoint_sel_reg [0x00000050] = 0x00000000
rxspi_testpoint_reg [0x00000054] = 0x00000000
rxspi_rst_cntl_reg [0x00000060] = 0x00000000
rxspi_cntl_status_reg [0x00000064] = 0x00000005
rxspi_cfg_cntl_reg [0x00000068] = 0x00000021
rxspi_afthres_reg [0x0000006C] = 0x01C00180
rxspi_cal_dur_reg [0x00000070] = 0x00030000
rxspi_non_drop_err_cnt_reg [0x00000088] = 0x00000000
rxspi_drop_byte_cnt_reg [0x0000008C] = 0x00000000
rxspi_rx_byte_cnt_reg[0] [0x000000B0] = 0xFFFFFFFF
rxspi_rx_byte_cnt_reg[1] [0x000000B4] = 0xFFFFFFFF
rxspi_rx_byte_cnt_reg[2] [0x000000B8] = 0x14B49467
rxspi_rx_pkt_cnt_reg[0] [0x000000C0] = 0x3FF2F36C
rxspi_rx_pkt_cnt_reg[1] [0x000000C4] = 0x20F3AFA9
rxspi_rx_pkt_cnt_reg[2] [0x000000C8] = 0x004A4A35
rxspi_fifo_pkt_drop_cnt_reg[0] [0x000000E0] = 0x00000000
rxspi_fifo_pkt_drop_cnt_reg[1] [0x000000E4] = 0x00000000
rxspi_fifo_pkt_drop_cnt_reg[2] [0x000000E8] = 0x00000000
rxspi_calendar_table_reg[0] [0x00000800] = 0x00000000
rxspi_calendar_table_reg[1] [0x00000804] = 0x00000001
rxspi_calendar_table_reg[2] [0x00000808] = 0x00000002
rxspi_calendar_table_reg[3] [0x0000080C] = 0x00000003
JIB3_DS TX SPI registers (base address 0xF8883000)
txspi_irq_src_reg [0x00000000] = 0x00000000
txspi_irq_en_reg [0x00000004] = 0x0000001F
txspi_ferr_src_reg [0x00000040] = 0x00000000
txspi_testpoint_sel_reg [0x00000050] = 0x00000000
txspi_testpoint_reg [0x00000054] = 0x00000000
txspi_rst_cntl_reg [0x00000060] = 0x00000000
txspi_cntl_status_reg [0x00000064] = 0x00000009
txspi_cfg_cntl_reg [0x00000068] = 0x00000001
txspi_afthres_reg [0x0000006C] = 0x01EC01E8
txspi_cal_dur_reg [0x00000070] = 0x00040000
txspi_train_cntl_reg [0x00000074] = 0x00000000
txspi_nonfatalerr_cnt_reg [0x00000080] = 0x00000000
txspi_eop_abort_pkt_cnt_reg[0] [0x00000090] = 0x00000000
txspi_eop_abort_pkt_cnt_reg[1] [0x00000094] = 0x00000000
txspi_eop_abort_pkt_cnt_reg[2] [0x00000098] = 0x00000000
txspi_eop_abort_pkt_cnt_reg[3] [0x0000009C] = 0x00000000
txspi_eop_abort_byte_cnt_reg[0] [0x000000A0] = 0x00000000
txspi_eop_abort_byte_cnt_reg[1] [0x000000A4] = 0x00000000
txspi_eop_abort_byte_cnt_reg[2] [0x000000A8] = 0x00000000
txspi_eop_abort_byte_cnt_reg[3] [0x000000AC] = 0x00000000
txspi_tx_byte_cnt_reg[0] [0x000000C0] = 0x00000000
txspi_tx_byte_cnt_reg[1] [0x000000C4] = 0x00000000
txspi_tx_byte_cnt_reg[2] [0x000000C8] = 0x00000000
txspi_tx_byte_cnt_reg[3] [0x000000CC] = 0x00000000
txspi_tx_pkt_cnt_reg[0] [0x00000100] = 0x00000000
txspi_tx_pkt_cnt_reg[1] [0x00000104] = 0x00000000
txspi_tx_pkt_cnt_reg[2] [0x00000108] = 0x00000000
txspi_tx_pkt_cnt_reg[3] [0x0000010C] = 0x00000000
txspi_calendar_table_reg[0] [0x00000800] = 0x00000000
txspi_calendar_table_reg[1] [0x00000804] = 0x00000001
txspi_calendar_table_reg[2] [0x00000808] = 0x00000002
txspi_calendar_table_reg[3] [0x0000080C] = 0x00000003
txspi_calendar_table_reg[4] [0x00000810] = 0x00000004
JIB3_DS DOC registers (base address 0xF8884000)
doc_int_err0 [0x00000000] = 0x00000000
doc_int_err0_ier [0x00000004] = 0xFFBFBFFD
doc_int_err1 [0x00000010] = 0x00000000
doc_int_err1_ier [0x00000014] = 0x003FFFF8
doc_int_fesr [0x00000040] = 0x00000000
doc_test_sel [0x00000050] = 0x00000000
doc_testpoint [0x00000054] = 0x00000000
doc_cfg_ctrl [0x00000060] = 0x031A0000
doc_err_cap_ctrl [0x00000064] = 0x001F0001
doc_err_cap_addr [0x00000068] = 0x00000000
doc_err_cap_data [0x0000006C] = 0x000080F7
doc_seg_num [0x00000070] = 0x00000001
doc_wb_chan_stats_sel [0x00000074] = 0x00000077
doc_wb_pkt_cnt [0x00000078] = 0x00000000
doc_wb_byte_cnt [0x0000007C] = 0x00000000
doc_wb_police_sel [0x00000080] = 0x00000000
doc_wb_police_data [0x00000084] = 0x00000000
doc_wb_police_intv [0x00000088] = 0x00000000
doc_nb_chan_stats_sel [0x0000008C] = 0x0000004C
doc_nb_pkt_cnt [0x00000090] = 0x00000000
doc_nb_byte_cnt [0x00000094] = 0x00000000
doc_nb_police_sel [0x00000098] = 0x00000000
doc_nb_police_data [0x0000009C] = 0x00000000
doc_nb_police_intv [0x000000A0] = 0x00000000
doc_int_doc_cnt [0x000000D4] = 0x00000000
doc_int_ecc_sbiterr_cnt [0x000000D8] = 0x00000000
doc_pkt_good_in_cnt [0x000000DC] = 0x6130ED6F
doc_pkt_good_out_cnt [0x000000E0] = 0x61308837
doc_pkt_err_in_cnt [0x000000E4] = 0x00000000
doc_pkt_err_out_cnt [0x000000E8] = 0x00006538
doc_pkt_drop_cnt [0x000000EC] = 0x00000000
doc_efc_all_cnt [0x000000F0] = 0x00000000
doc_efc_hi_cnt [0x000000F4] = 0x00000000
doc_efc_me_cnt [0x000000F8] = 0x00000000
doc_efc_lo_cnt [0x000000FC] = 0x00000000
doc_efc_ch_sel [0x00000100] = 0x00000000
doc_efc_debug_ctrl [0x00000104] = 0x00000000
doc_rldram_ext_ecc [0x00000114] = 0x00000000
doc_rldram_cfg [0x00000118] = 0x00101544
doc_rldram_ctrl [0x0000011C] = 0x00100389
doc_rldram_status [0x00000120] = 0x039D7403
doc_rldram_blk_clr [0x00000124] = 0x0B7FFFFF
doc_rldram_cal_match_win_h [0x00000128] = 0x00000000
doc_rldram_cal_match_win_l [0x0000012C] = 0x1FFFFFFF
doc_rldram_ecc_err_rec_addr [0x00000130] = 0x00000000
doc_magic_num_err_pkt_ctrl [0x00000150] = 0x00000000
doc_magic_num_err_pkt_addr [0x00000154] = 0x00000000
doc_magic_num_err_pkt_data [0x00000158] = 0x00000000
JIB3_DS RIF registers (base address 0xF8885000)
rif_int_err0 [0x00000000] = 0x00000000
rif_int_ier0 [0x00000004] = 0x00000007
rif_int_fesr0 [0x00000040] = 0x00000000
rif_tp_sel [0x00000050] = 0x00000000
rif_tp [0x00000054] = 0x00000000
rif_cfg_ctrl [0x00000060] = 0x00000000
rif_cnt_in_mpeg_cnt [0x00000064] = 0xFFFFFFFF
rif_cnt_out_good_mpeg_cnt [0x00000068] = 0xFFFFFFFF
rif_cnt_out_bad_mpeg_cnt [0x0000006C] = 0x00000000
rif_cnt_drop_mpeg_cnt [0x00000070] = 0x00000000
rif_1bit_ecc_err_stat [0x00000074] = 0x00000000
JIB3_DS RTN registers (base address 0xF8886000)
return_int_isr [0x00000000] = 0x00000000
return_int_ier [0x00000004] = 0x000001FF
return_int_fesr [0x00000040] = 0x00000000
return_tp_sel [0x00000050] = 0x00000000
return_tp [0x00000054] = 0x00000000
return_ctrl_reg [0x00000060] = 0x00000000
return_pif_loopback_chnl [0x00000064] = 0x00000000
return_sniffer_nonbonded_en [0x00000068] = 0x00000000
return_sniffer_bonded_en [0x0000006C] = 0x00000000
return_spi_chnl_sel [0x00000070] = 0x0000013A
return_err_drop_en [0x00000074] = 0x0000000F
return_snf_macda_cfg_addr [0x00000078] = 0x00000000
return_snf_macda_cfg_data_hi [0x0000007C] = 0x00000000
return_snf_macda_cfg_data_lo [0x00000080] = 0x00000000
return_in_pifrx_good_cnt [0x000000A0] = 0x00000000
return_in_pifrx_bad_cnt [0x000000A4] = 0x00000000
return_in_piflp_good_cnt [0x000000A8] = 0xFFFFFFFF
return_in_piflp_bad_cnt [0x000000AC] = 0x00000000
return_in_sniffer_good_cnt [0x000000B0] = 0x61308845
return_in_sniffer_bad_cnt [0x000000B4] = 0x00006538
return_in_spi_loop_good_cnt [0x000000B8] = 0x00000000
return_in_spi_loop_bad_cnt [0x000000BC] = 0x00000000
return_out_spi0_cnt [0x000000C0] = 0x00000000
return_out_spi1_cnt [0x000000C4] = 0x00000000
return_out_spi2_cnt [0x000000C8] = 0x00000000
return_out_spi3_cnt [0x000000CC] = 0x00000000
return_out_spi4_cnt [0x000000D0] = 0x00000000
return_pifrx_if_par_err_drop_cnt [0x000000D4] = 0x00000000
return_pifrx_if_len_err_drop_cnt [0x000000D8] = 0x00000000
return_piflp_if_err_drop_cnt [0x000000DC] = 0x00000000
return_piflp_if_chnl_drop_cnt [0x000000E0] = 0x00000000
return_snf_pb_err_drop_cnt [0x000000E4] = 0x00006538
return_snf_pkt_type_err_drop_cnt [0x000000E8] = 0x61308845
return_spilp_if_err_drop_cnt [0x000000EC] = 0x00000000
return_pifrx_traffic_mux_drop_cnt [0x000000F0] = 0x00000000
return_piflp_traffic_mux_drop_cnt [0x000000F4] = 0x00000000
return_snf_traffic_mux_drop_cnt [0x000000F8] = 0x00000000
return_spilp_traffic_mux_drop_cnt [0x000000FC] = 0x00000000
return_pifrx_fifo_overflow_drop_cnt [0x00000100] = 0x00000000
return_piflp_fifo_overflow_drop_cnt [0x00000104] = 0x00000000
return_snf_fifo_overflow_drop_cnt [0x00000108] = 0x00000000
return_spilp_fifo_overflow_drop_cnt [0x0000010C] = 0x00000000
return_pifrx_if_par_err_cnt [0x00000110] = 0x00000000
return_pifrx_if_len_err_cnt [0x00000114] = 0x00000000
return_pifrx_fifo_ecc_1berr_cnt [0x00000118] = 0x00000000
return_piflp_fifo_ecc_1berr_cnt [0x0000011C] = 0x00000000
return_snf_fifo_ecc_1berr_cnt [0x00000120] = 0x00000000
return_spilp_fifo_ecc_1berr_cnt [0x00000124] = 0x00000000
JIB3_DS DLM registers (base address 0xF8890000)
dlm_int_isr_0 [0x00000000] = 0x00000005
dlm_int_ier_0 [0x00000004] = 0x00000000
dlm_cnt_local_ts_reg [0x00000064] = 0x5B00EB07
dlm_cfg_tss_comp_reg [0x00000068] = 0x00000027
dlm_cfg_tss_ctrl_reg [0x0000006C] = 0x00000000
dlm_cfg_tss_cmd_reg [0x00000070] = 0x00000000
dlm_cnt_ts_load_cnt [0x000000BC] = 0x00000000
dlm_cnt_ts_chk_failed_cnt [0x000000C4] = 0x00000000
dlm_cnt_tss_perr_cnt [0x000000C8] = 0x00000000
dlm_cnt_load_ts_reg [0x000000D0] = 0x003F52EF
JIB3_DS SEQ registers (base address 0xF8892000)
seq_int_err0 [0x00000000] = 0x0000000F
seq_int_ier0 [0x00000004] = 0x000FFFFF
seq_int_err3 [0x00000030] = 0x00000000
seq_int_ier3 [0x00000034] = 0x00000001
seq_int_fatal_err [0x00000040] = 0x00000000
seq_tp_sel [0x00000050] = 0x00000000
seq_tp [0x00000054] = 0x00000000
seq_cfg_en [0x00000060] = 0x00000001
seq_cfg_sync_timer_sel [0x00000064] = 0x00000004
seq_cfg_sync_timer_data [0x00000068] = 0x00000000
seq_cfg_sync_sa_sel [0x0000006C] = 0x00000004
seq_cfg_sync_sa_data_lo [0x00000070] = 0x70CC0B91
seq_cfg_sync_sa_data_hi [0x00000074] = 0x00000000
seq_cfg_tkb_timer_sel [0x00000078] = 0x00000014
seq_cfg_tkb_timer_data [0x0000007C] = 0x00000000
seq_cfg_tkb_max [0x00000080] = 0x00000000
seq_hwdbg_dpv_proc_table_addr [0x00000090] = 0x00000000
seq_hwdbg_dpv_ptr_mod_table [0x00000094] = 0x00000000
seq_hwdbg_dpv_timestamp_table [0x00000098] = 0x00000000
seq_hwdbg_dpv_hcs_table [0x0000009C] = 0x00000000
seq_cnt_blkram_oecc_err_stat [0x000000A4] = 0x00000000
seq_cnt_tran_mpeg_stat [0x000000A8] = 0xFFFFFFFF
seq_cnt_tran_mpeg_sync_stat [0x000000AC] = 0x00000000
seq_cnt_tran_only_sync_stat [0x000000B0] = 0x00000000
seq_cnt_tran_dpv_stat [0x000000B8] = 0x00000000
JIB3_DS QM registers (base address 0xF8893000)
qm_int_isr0 [0x00000000] = 0x00000000
qm_int_ier0 [0x00000004] = 0x0000007F
qm_int_isr1 [0x00000010] = 0x00000000
qm_int_ier1 [0x00000014] = 0x000FFFFF
qm_int_fat_err_isr [0x00000040] = 0x00000000
qm_tst_tp_sel [0x00000050] = 0x00000000
qm_tst_tp [0x00000054] = 0x00000000
qm_cfg_chnl_rst_0 [0x00000060] = 0x00000000
qm_cfg_ctl [0x0000006C] = 0x00000011
qm_cfg_sqf_fac_addr [0x0000008C] = 0x00000014
qm_cfg_sqf_fac_data [0x00000090] = 0x00000000
qm_cfg_bond_chnl_map_addr [0x00000094] = 0x00000020
qm_cfg_bond_chnl_map_data_lo [0x00000098] = 0x00000000
qm_cfg_flt_thr_addr [0x000000A4] = 0x0000024F
qm_cfg_flt_thr_data [0x000000A8] = 0x00000000
qm_cfg_repl_addr [0x000000AC] = 0x0000002D
qm_cfg_repl_data_lo [0x000000B0] = 0x00000000
qm_hwdbg_buf_mag_addr [0x000000BC] = 0x00000000
qm_hwdbg_wptr_data_lo [0x000000C0] = 0x00000C60
qm_hwdbg_wptr_data_mi [0x000000C4] = 0x00016080
qm_hwdbg_wptr_data_hi [0x000000C8] = 0x000012A0
qm_hwdbg_rptr_data_lo [0x000000CC] = 0x00000C60
qm_hwdbg_rptr_data_mi [0x000000D0] = 0x00016080
qm_hwdbg_rptr_data_hi [0x000000D4] = 0x000012A0
qm_hwdbg_qulen_data_lo [0x000000D8] = 0x00000000
qm_hwdbg_qulen_data_mi [0x000000DC] = 0x00000000
qm_hwdbg_qulen_data_hi [0x000000E0] = 0x00000000
qm_hwdbg_contex_data [0x000000E4] = 0x00000000
qm_cfg_dir_stat_addr [0x000000E8] = 0x0000004E
qm_cnt_dir_pkt_stat [0x000000EC] = 0x00000000
qm_cnt_dir_byte_stat [0x000000F0] = 0x00000000
qm_cfg_qam_stat_addr [0x000000F4] = 0x0000004C
qm_cnt_qam_chnl_pkt_stat [0x000000F8] = 0x00000000
qm_cnt_qam_chnl_byte_stat [0x000000FC] = 0x00000000
qm_cnt_qam_chnl_sync_stat [0x00000100] = 0x00000000
qm_cnt_bpram_ovrflw_stat [0x00000108] = 0x00000000
qm_cnt_que_ovrflw_stat [0x0000010C] = 0x00000000
qm_cnt_good_bpi_pkt_stat [0x00000110] = 0x6130886C
qm_cnt_bad_bpi_pkt_stat [0x00000114] = 0x000000FF
qm_cnt_bpram_out_good_pkt_stat [0x0000011C] = 0xC38C8639
qm_cnt_bpram_out_dir_pkt_stat [0x00000120] = 0x213DFA0E
qm_cnt_bpram_out_bonded_pkt_stat [0x00000124] = 0x3486CDA6
qm_cnt_replicated_pkt_stat [0x00000128] = 0x8399F7DB
qm_cnt_bpram_bad_type_pkt_stat [0x00000134] = 0x00000000
qm_cnt_bpram_bad_eop_pkt_stat [0x00000138] = 0x00000000
qm_cnt_bpram_bad_dir_pkt_stat [0x0000013C] = 0x00000000
qm_cnt_bpram_bad_bonded_pkt_stat [0x00000140] = 0x00000000
qm_cnt_bpram_oecc_err_pkt_stat [0x00000144] = 0x00000000
qm_cnt_bpram_bad_pkt_stat [0x00000148] = 0x000000FF
qm_cnt_wr_good_pkt_stat [0x0000014C] = 0xC38C863A
qm_cnt_wr_bad_pkt_stat [0x00000150] = 0x00000000
qm_cnt_drop_bad_pkt_stat [0x00000154] = 0x000000FF
qm_cnt_drop_ovrflw_pkt_stat [0x00000158] = 0x00000000
qm_cnt_rd_pkt_stat [0x0000015C] = 0xC38C8664
qm_cnt_rd_mpeg_stat [0x00000160] = 0xFFFFFFFF
qm_cnt_rd_mpeg_sync_stat [0x00000164] = 0x06A0FC65
qm_cnt_rd_mpeg_only_sync_stat [0x00000168] = 0x0620376C
qm_cnt_tran_pkt_stat [0x00000170] = 0xC38C8664
qm_cnt_tran_oecc_err_pkt_stat [0x00000174] = 0x00000000
qm_cnt_tran_mpeg_stat [0x00000178] = 0xFFFFFFFF
qm_cnt_tran_mpeg_sync_stat [0x0000017C] = 0x06A0FC65
qm_cnt_tran_mpeg_only_sync_stat [0x00000180] = 0x0620376C
qm_cnt_tran_dpv_stat [0x00000188] = 0x00000000
qm_rldram_ext_ecc [0x00000198] = 0x00000000
qm_rldram_cfg [0x0000019C] = 0x00101544
qm_rldram_ctrl [0x000001A0] = 0x00100389
qm_rldram_status [0x000001A4] = 0x03DF7C03
qm_rldram_cal_match_win_h [0x000001A8] = 0x00000000
qm_rldram_cal_match_win_l [0x000001AC] = 0x7FFFFFFF
JIB3_DS PG registers (base address 0xF8898000)
pg_mod [0x00000050] = 0x00000000
pg_dhs [0x00000054] = 0x00000000
pg_ipg [0x0000005C] = 0x00000000
pg_num [0x00000058] = 0x00000000
pg_payload_length [0x00000060] = 0x00000000
pg_payload_value [0x00000064] = 0x00000000
pg_pkt_hdr_prog_0 [0x00000068] = 0x00000000
pg_pkt_hdr_prog_1 [0x0000006C] = 0x00000000
pg_pkt_hdr_1 [0x00000070] = 0x00000000
pg_pkt_hdr_2 [0x00000074] = 0x00000000
pg_pkt_hdr_3 [0x00000078] = 0x00000000
pg_pkt_hdr_4 [0x0000007C] = 0x00000000
pg_pkt_hdr_5 [0x00000080] = 0x00000000
pg_pkt_hdr_6 [0x00000084] = 0x00000000
JIB3_DS PMBIST registers (base address 0xF8899000)
pmbist_ena_addr [0x00000060] = 0x00000002
pmbist_din_addr [0x00000064] = 0x00000000
pmbist_dout_addr [0x0000006C] = 0x00008101
pmbist_trgt_select_addr [0x00000074] = 0x00000000
pmbist_ff_status [0x00000078] = 0x00000000
pmbist_num_wr_fr_pmbist [0x0000007C] = 0x00000000
pmbist_num_rd_fr_pmbist [0x00000080] = 0x00000000
pmbist_um_wr_2cmd_ff [0x00000084] = 0x00000000
pmbist_num_rd_2cmd_ff [0x00000088] = 0x00000000
pmbist_num_rd_rtn_pmbist [0x0000008C] = 0x00000000
pmbist_num_wr_2dram [0x00000090] = 0x00000000
pmbist_num_rd_2dram [0x00000094] = 0x00000000
pmbist_num_rd_fr_dram [0x00000098] = 0x00000000
DS PHY Configuration of Controller 0:
Base Frequency = 555000000Hz
Annex = B Modulation = 256QAM
Channel Status Interleave
------- ------ ----------
DS_PHY PLL set for Annex-B
DS PHY Device Information:
Remora registers (base address 0xF8900000)
------------------------------------------
Remora General Registers (0xF8900000):
--------------------------------------
revision [0x00000000] = 0x00000003
hw_fpga_rev_id [0x00000004] = 0x0000000A
erp_scratch_pad0 [0x00000008] = 0x00000000
erp_scratch_pad1 [0x0000000C] = 0x00000000
Remora Reset and DCM Lock Registers (0xF8900100):
-----------------------------------------------
reset_ctrl [0x00000100] = 0x00000000
dcm_lock [0x00000104] = 0x0000000F
Remora Configuration Registers (0xF8900200):
--------------------------------------------
port_cfg[0] [0x00000200] = 0x00155549
port_cfg[1] [0x00000204] = 0x00155548
port_cfg[2] [0x00000208] = 0x00155548
port_cfg[3] [0x0000020C] = 0x00155548
port_cfg[4] [0x00000210] = 0x00155548
core_config_status [0x00000214] = 0x00000020
port_rm2tififo_prog_flags[0] [0x00000218] = 0xBBA20C0D
port_rm2tififo_prog_flags[1] [0x0000021C] = 0xBBA20C0D
port_rm2tififo_prog_flags[2] [0x00000220] = 0xBBA20C0D
port_rm2tififo_prog_flags[3] [0x00000224] = 0xBBA20C0D
port_rm2tififo_prog_flags[4] [0x00000228] = 0xBBA20C0D
Remora DFT/Pattern Inject Registers (0xF8900300):
-------------------------------------------------
alt_sym_tst_mode [0x00000300] = 0x00005A69
alt_sym_tst_en_reg [0x00000304] = 0x00000000
qdr_mem_test_en_reg [0x00000308] = 0x00000000
qdr_mem_test_rd_wr_reg [0x0000030C] = 0x00000A12
ready_for_data_input [0x00000318] = 0x0000001F
Remora ECC Registers (0xF8900400):
----------------------------------
debug_cfg [0x00000400] = 0x00000000
sniff_frame_cnt [0x00000404] = 0x00000000
ecc_parity_conf_reg [0x00000408] = 0x00000003
ecc_uncorrect_data_log_reg [0x0000040C] = 0x00002814
ecc_uncorrect_log_reg [0x00000410] = 0x00000020
ecc_correctable_data_log_reg [0x00000414] = 0x00002C14
ecc_correctable_log_reg [0x00000418] = 0x00000028
qdr_ecc_corr_cnt_reg [0x0000041C] = 0x00000000
fatal_err_log [0x00000420] = 0x00000000
err_inj_reg [0x00000424] = 0x00000000
Remora QDR Registers (0xF8900500):
----------------------------------
qdr_phy_idelayctrl_rst_reg [0x00000500] = 0x00000000
qdr_phy_idelayctrl_rdy_err_reg [0x00000504] = 0x00000261
qdr_phy_cal_tap_dly_reg [0x00000508] = 0x00000ADB
qdr_phy_idelayctrl_ctrl_reg [0x0000050C] = 0x00000002
qdr_init_ctrl_reg [0x00000510] = 0x801FFFFF
Remora Interrupt Status Registers (0xF8900600):
-----------------------------------------------
glb_int_stat_reg [0x00000600] = 0x00000000
int_stat_gr_reg[0] [0x00000604] = 0x00000000
int_stat_gr_reg[1] [0x00000608] = 0x00000000
int_stat_gr_reg[2] [0x0000060C] = 0x00000000
int_stat_gr_reg[3] [0x00000610] = 0x00000000
int_stat_gr_reg[4] [0x00000614] = 0x00000000
misc_int_stat_reg [0x00000618] = 0x00000001
fatal_err_src_reg [0x0000061C] = 0x00000000
port_local_interrupt_enable[0] [0x00000620] = 0x0001FFFF
port_local_interrupt_enable[1] [0x00000624] = 0x0001FFFF
port_local_interrupt_enable[2] [0x00000628] = 0x0001FFFF
port_local_interrupt_enable[3] [0x0000062C] = 0x0001FFFF
port_local_interrupt_enable[4] [0x00000630] = 0x0001FFFF
misc_int_en_reg [0x00000634] = 0x00001FF8
fatal_err_en_reg [0x00000638] = 0x00000EFF
port_local_interrupt_override[0] [0x0000063C] = 0x00000000
port_local_interrupt_override[1] [0x00000640] = 0x00000000
port_local_interrupt_override[2] [0x00000644] = 0x00000000
port_local_interrupt_override[3] [0x00000648] = 0x00000000
port_local_interrupt_override[4] [0x0000064C] = 0x00000000
misc_int_override [0x00000650] = 0x00000000
fatal_err_override [0x00000654] = 0x00000000
Remora Counts Registers (0xF8900800):
-------------------------------------
illegal_ch_num_pkt_drop_count [0x00000800] = 0x00000000
fifo_full_mpeg_pkt_drop_count_hi [0x00000804] = 0x00000000
fifo_full_mpeg_pkt_drop_count_lo [0x00000808] = 0x00000000
channel_mpeg_pkt_count[0] [0x0000080C] = 0x00000EE7
channel_mpeg_pkt_count[1] [0x00000810] = 0x00000E8C
channel_mpeg_pkt_count[2] [0x00000814] = 0x00000839
channel_mpeg_pkt_count[3] [0x00000818] = 0x000009DF
channel_mpeg_pkt_count[4] [0x0000081C] = 0x00000000
channel_mpeg_pkt_count[5] [0x00000820] = 0x00000000
channel_mpeg_pkt_count[6] [0x00000824] = 0x00000000
channel_mpeg_pkt_count[7] [0x00000828] = 0x00000000
channel_mpeg_pkt_count[8] [0x0000082C] = 0x00000000
channel_mpeg_pkt_count[9] [0x00000830] = 0x00000000
channel_mpeg_pkt_count[10] [0x00000834] = 0x00000000
channel_mpeg_pkt_count[11] [0x00000838] = 0x00000000
channel_mpeg_pkt_count[12] [0x0000083C] = 0x00000000
channel_mpeg_pkt_count[13] [0x00000840] = 0x00000000
channel_mpeg_pkt_count[14] [0x00000844] = 0x00000000
channel_mpeg_pkt_count[15] [0x00000848] = 0x00000000
channel_mpeg_pkt_count[16] [0x0000084C] = 0x00000000
channel_mpeg_pkt_count[17] [0x00000850] = 0x00000000
channel_mpeg_pkt_count[18] [0x00000854] = 0x00000000
channel_mpeg_pkt_count[19] [0x00000858] = 0x00000000
port_re_timestamp_count[0] [0x0000085C] = 0x97979796
port_re_timestamp_count[1] [0x00000860] = 0x00000000
port_re_timestamp_count[2] [0x00000864] = 0x00000000
port_re_timestamp_count[3] [0x00000868] = 0x00000000
port_re_timestamp_count[4] [0x0000086C] = 0x00000000
port_rx_fifo_overflow_drop_count[0] [0x00000870] = 0x00000000
port_rx_fifo_overflow_drop_count[1] [0x00000874] = 0x00000000
port_rx_fifo_overflow_drop_count[2] [0x00000878] = 0x00000000
port_rx_fifo_overflow_drop_count[3] [0x0000087C] = 0x00000000
port_rx_fifo_overflow_drop_count[4] [0x00000880] = 0x00000000
channel_jib_if_pkt_count[0] [0x00000884] = 0x4AFC8612
channel_jib_if_pkt_count[1] [0x00000888] = 0x44C96772
channel_jib_if_pkt_count[2] [0x0000088C] = 0x42A048EA
channel_jib_if_pkt_count[3] [0x00000890] = 0x43E61FF6
channel_jib_if_pkt_count[4] [0x00000894] = 0x00000000
channel_jib_if_pkt_count[5] [0x00000898] = 0x00000000
channel_jib_if_pkt_count[6] [0x0000089C] = 0x00000000
channel_jib_if_pkt_count[7] [0x000008A0] = 0x00000000
channel_jib_if_pkt_count[8] [0x000008A4] = 0x00000000
channel_jib_if_pkt_count[9] [0x000008A8] = 0x00000000
channel_jib_if_pkt_count[10] [0x000008AC] = 0x00000000
channel_jib_if_pkt_count[11] [0x000008B0] = 0x00000000
channel_jib_if_pkt_count[12] [0x000008B4] = 0x00000000
channel_jib_if_pkt_count[13] [0x000008B8] = 0x00000000
channel_jib_if_pkt_count[14] [0x000008BC] = 0x00000000
channel_jib_if_pkt_count[15] [0x000008C0] = 0x00000000
channel_jib_if_pkt_count[16] [0x000008C4] = 0x00000000
channel_jib_if_pkt_count[17] [0x000008C8] = 0x00000000
channel_jib_if_pkt_count[18] [0x000008CC] = 0x00000000
channel_jib_if_pkt_count[19] [0x000008D0] = 0x00000000
Remora Timestamp Registers (0xF8900900):
----------------------------------------
local_1024_ts_ctrl [0x00000900] = 0x00000039
local_1024_current_ts [0x00000904] = 0xC354FFA0
local_1024_tcc_ts_latch [0x00000908] = 0x7291125F
doc_ts_offset_ch_0_1 [0x0000090C] = 0x04AF04AF
doc_ts_offset_ch_2_3 [0x00000910] = 0x04AF04AF
doc_ts_offset_ch_4_5 [0x00000914] = 0x04F704F7
doc_ts_offset_ch_6_7 [0x00000918] = 0x04F704F7
doc_ts_offset_ch_8_9 [0x0000091C] = 0x04F704F7
doc_ts_offset_ch_10_11 [0x00000920] = 0x04F704F7
doc_ts_offset_ch_12_13 [0x00000924] = 0x04F704F7
doc_ts_offset_ch_14_15 [0x00000928] = 0x04F704F7
doc_ts_offset_ch_16_17 [0x0000092C] = 0x04F704F7
doc_ts_offset_ch_18_19 [0x00000930] = 0x04F704F7
Remora PRATE/SRATE Registers (0xF8900A00):
------------------------------------------
port_prate_regs[0].prate_ctrl [0x00000A00] = 0x00000003
port_prate_regs[0].prate_m_prime_lo [0x00000A04] = 0x0005971E
port_prate_regs[0].prate_n_prime_lo [0x00000A08] = 0x08AA5B88
port_prate_regs[0].prate_m_prime_hi [0x00000A0C] = 0x00000000
port_prate_regs[1].prate_ctrl [0x00000A10] = 0x00000003
port_prate_regs[1].prate_m_prime_lo [0x00000A14] = 0x00000191
port_prate_regs[1].prate_n_prime_lo [0x00000A18] = 0x00037E78
port_prate_regs[1].prate_m_prime_hi [0x00000A1C] = 0x00000000
port_prate_regs[2].prate_ctrl [0x00000A20] = 0x00000003
port_prate_regs[2].prate_m_prime_lo [0x00000A24] = 0x00000191
port_prate_regs[2].prate_n_prime_lo [0x00000A28] = 0x00037E78
port_prate_regs[2].prate_m_prime_hi [0x00000A2C] = 0x00000000
port_prate_regs[3].prate_ctrl [0x00000A30] = 0x00000003
port_prate_regs[3].prate_m_prime_lo [0x00000A34] = 0x00000191
port_prate_regs[3].prate_n_prime_lo [0x00000A38] = 0x00037E78
port_prate_regs[3].prate_m_prime_hi [0x00000A3C] = 0x00000000
port_prate_regs[4].prate_ctrl [0x00000A40] = 0x00000003
port_prate_regs[4].prate_m_prime_lo [0x00000A44] = 0x00000191
port_prate_regs[4].prate_n_prime_lo [0x00000A48] = 0x00037E78
port_prate_regs[4].prate_m_prime_hi [0x00000A4C] = 0x00000000
port_srate_regs[0].srate_ctrl [0x00000A50] = 0x00000003
port_srate_regs[0].srate_mn [0x00000A54] = 0x004E0095
port_srate_regs[1].srate_ctrl [0x00000A58] = 0x00000003
port_srate_regs[1].srate_mn [0x00000A5C] = 0x0191032C
port_srate_regs[2].srate_ctrl [0x00000A60] = 0x00000003
port_srate_regs[2].srate_mn [0x00000A64] = 0x0191032C
port_srate_regs[3].srate_ctrl [0x00000A68] = 0x00000003
port_srate_regs[3].srate_mn [0x00000A6C] = 0x0191032C
port_srate_regs[4].srate_ctrl [0x00000A70] = 0x00000003
port_srate_regs[4].srate_mn [0x00000A74] = 0x0191032C
The following example shows a typical display of the show controller integrated-cable command and the association keyword:
Router# show controller integrated-Cable 7/1/0 association
WB Association Info for 7/1 No of WB 30
WB BG Bundle NB NB chan Reserved Total
channel ID num channel ID CIR CIR
Wideband-Cable7/1/0:0 1057 1 Cable7/1/0 121 0 21751500
Wideband-Cable7/1/3:0 1153 1 Cable7/1/3 133 0 12481000
The following example shows a typical display of the show controller integrated-cable command and the brief keyword:
Router# show controllers integrated-Cable 6/0/0 brief
Integrated Cable Controller 6/0/0:
----------------------------------
Channel 1 Annex = B Modulation = 256 QAM
Channel 2 Annex = B Modulation = 256 QAM
Channel 3 Annex = B Modulation = 256 QAM
Channel 4 Annex = B Modulation = 256 QAM
Jib3-DS Device Information:
---------------------------
Jib3-DS Version = 2.2.1.8
SW Rev ID = 0x00020002 HW Rev ID = 0x00010008
Total Non-bonded Channels..........= 20
Per-Controller Non-bonded Channels = 4
Total Bonded Channels..............= 32
Per-Controller Bonded Channels.....= 6
Number of PHS Rules...........= 12K (0x3000)
Number of BPI Table Entries...= 24K (0x6000)
Number of Service Flows.......= 64K (0x10000)
DS PHY Device Information:
The following example shows a typical display of the show controller integrated-cable command and the bpi-entry keyword:
Router# show controller integrated-cable 7/1/4 bpi-entry 3
BPI index:3 segment:0 key_no:3 said:2 key_seq:7 AES
Even 5A4B-68E8-5948-FD84-F5E2-1D28-311C-37D8
Iv 4E33-379E-6FCF-9A8E-01CB-AC95-5B4D-AE76
Odd A871-76EA-1D3E-02F8-5EDA-8A8E-1F15-52E6
Iv 6F62-765C-C9E7-DB8A-6FA5-91E8-BE41-3075
Example of the show controller integrated-cable Command that displays BPI key information stored on the Cisco UBR-MC20X20V line card from Cisco IOS Release 12.2(33)SCD onwards.
The following is a sample output of the show controller integrated-cable command with the bpi-entry keyword:
Router# show controller integrated-cable 6/0/0 bpi-entry 1
Even Key: Valid, Odd Key: Valid
Key Sequence Number: 1 Security Association: 0x2
Even Key: 1CE8-45A1-1903-E5 IV: 1513-236D-1FF7-046E
Odd Key: 10EC-6DB2-5441-EC IV: 07C7-1089-0E34-026B
The following example provides information about all controllers using the show controller integrated-cable command and the wideband keyword:
Router# show controller integrated-cable 7/1/4 wideband
channel ID Slot/Subslot BG
Wideband-Cable7/1/4:0 1185 7/1 Yes
Wideband-Cable7/1/4:1 1186 7/1 Yes
Wideband-Cable7/1/4:2 1187 7/1 Yes
Wideband-Cable7/1/4:3 1188 7/1 Yes
Wideband-Cable7/1/4:4 1189 7/1 Yes
Wideband-Cable7/1/4:5 1190 7/1 Yes
The following example provides information about all controllers using the show controller integrated-cable command and the config keyword:
Router# show controllers integrated-Cable 6/0/0 config
Integrated Cable Controller 6/0/0:
----------------------------------
Channel 1 Annex = B Modulation = 256 QAM
Channel 2 Annex = B Modulation = 256 QAM
Channel 3 Annex = B Modulation = 256 QAM
Channel 4 Annex = B Modulation = 256 QAM
Jib3-DS Device Information:
---------------------------
Jib3-DS Version = 2.2.1.8
SW Rev ID = 0x00020002 HW Rev ID = 0x00010008
Total Non-bonded Channels..........= 20
Per-Controller Non-bonded Channels = 4
Total Bonded Channels..............= 32
Per-Controller Bonded Channels.....= 6
Number of PHS Rules...........= 12K (0x3000)
Number of BPI Table Entries...= 24K (0x6000)
Number of Service Flows.......= 64K (0x10000)
Non-Bonded Channel Mask = 0x00000000
Bonded Channel Mask.....= 0x00000000
Sniff All Enable........= False
Configured Sniffer MAC Addresses:
Entry MAC Address Enabled
----- --------------- -------
Replication Entry Index Channel Mask
----------------------- ------------
Configured Bonding Groups:
--------------------------
Bonded Channel Channels in Bonding Group
-------------- -------------------------
Channel MAC Address Interval
------- -------------- --------
DS PHY Configuration of Controller 0:
Base Frequency = 555000000Hz
Annex = B Modulation = 256QAM
Channel Status Interleave
------- ------ ----------
DS_PHY PLL set for Annex-B
The following example provides information about all controllers using the show controller integrated-cable command and the counters keyword:
Router# show controller integrated-Cable card 7/1 counters rf-channel
Controller RF MPEG MPEG MPEG Sync MAP/UCD
Chan Packets bps Mbps Packets Packets
7/1/0 0 510617849 1411052 1.411052 45424209 894786143
7/1/0 1 511430476 1415614 1.415614 45424208 894786138
7/1/0 2 510750271 1412707 1.412707 45424208 894786121
7/1/0 3 512009268 1416818 1.416818 45424207 894786108
7/1/1 0 268915155 743427 0.74347 45424206 223046013
7/1/3 0 269847377 746886 0.746886 45424206 223769698
7/1/3 1 269850587 746936 0.746936 45424205 223769696
7/1/3 2 269851105 746886 0.746886 45424204 223769690
7/1/3 3 269868256 747036 0.747036 45424199 223769663
Router# show controllers integrated-Cable 6/0/0 counters wb-channel
Controller WB channel Tx packets Tx octets
6/0/0 0 881249714 466143984373
The following example provides information about all controllers using the show controller integrated-cable command and the errors keyword:
Router# show controllers integrated-Cable 6/0/0 errors
Non-Droppable Errors Channel 0 = 00 FIFO Pkt Drop Count Channel 0 = 00000000
Non-Droppable Errors Channel 1 = 00 FIFO Pkt Drop Count Channel 1 = 00000000
Non-Droppable Errors Channel 2 = 00 FIFO Pkt Drop Count Channel 2 = 00000000
Non-Droppable Errors Channel 3 = 00 Dropped Bytes = 00000000
DIP2 Errors = 00 Illegal Src Pattern Errs = 00
EOP Abort Pkts Channel 0 = 00000000 EOP Abort Bytes Channel 0 = 00000000
EOP Abort Pkts Channel 1 = 00000000 EOP Abort Bytes Channel 1 = 00000000
EOP Abort Pkts Channel 2 = 00000000 EOP Abort Bytes Channel 2 = 00000000
EOP Abort Pkts Channel 3 = 00000000 EOP Abort Bytes Channel 3 = 00000000
DOCSIS Processor Error Counters:
--------------------------------
EFC and Stats Errors = 00000000 DOCSIS Engine Errors = 00025934
PHS Errors = 00000000 Parser Errors = 00000000
Output Packet Errors = 00000000 Dropped Packets = 00000000
Input Packet Errors = 00000000 ECC Errors = 00000000
Bad Input Pkts = 22 Single-bit ECC Errors = 0
Queue Manager Error Counters:
-----------------------------
BPRAM Bad End of Packets..= 00000000 Bonded Map Errors............= 00000000
BPRAM Overflows...........= 00000000 BPRAM Bad Packet Type Errors = 00000000
Directed Map Error Counts = 00000000 BPRAM ECC Errors.............= 00000000
RLDRAM ECC Errors.........= 00000000 Queue Overflows..............= 00000000
Sequencer Error Counters:
-------------------------
BlkRAM ECC Errors = 00000000
Processor Bus Errored Address = 0x00000000
Return Interface Error Counters:
--------------------------------
Phys If Rx FIFO Oflow Drops = 00000000 Phys If LB FIFO Oflow Drops = 00000000
Sniffer FIFO Oflow Drops....= 00000000 Phys If Rx Parity Errors....= 00000000
Phys If Length Errors.......= 00000000 Phys If Rx FIFO ECC Errors..= 00000000
Phys If LB FIFO ECC Errors..= 00000000 Sniffer FIFO ECC Errors.....= 00000000
SPI LB FIFO ECC Errors......= 00000000
Jib3-DS (Coldplay) interrupt events
current total bursts Event name
21 25921 0 DOCSIS Processing Block: DSID Valid Error
Internal error packet buffer:
-----------------------------
Packet type......... = 0x00
Flags............... = 0x00
Packet Length....... = 33015 (0x80F7)
DOCSIS Header Length = 11
Stats Index......... = 0x0546
Flags2.............. = 0x01040000
Service Flow........ = 0x00000000
0x010500E1 0x4411C0FA 0x00895500 0x118072C7
0x6A001D70 0xCC0BE208 0x0045B800 0xCA000000
0x003F1121 0x42AC2200 0x63AC2200 0x82C004C0
0x0200B600 0x008000F1 0x318FF541 0x1BA16AE2
0xB303AF17 0x1652643F 0x4498F48E 0xE278F16B
0x167521EC 0x3CBF34DD 0xDCBEA10E 0x0B5AA70C
0xE6B9B77F 0x8E3590ED 0x4EC9388A 0x9B886A51
Internal magic number error packet buffer:
------------------------------------------
No magic number errored packet available
The following example provides information about all controllers using the show controller integrated-cable command and the fpga_version keyword:
Router# show controllers integrated-Cable 7/0/0 fpga_version
The following example provides information about all controllers using the show controller integrated-cable command and the iofpga keyword:
Router# show controllers integrated-Cable 7/0/0 iofpga
SPARROW PHY IOFPGA Registers - Address 0xF8800000:
0x08 DS RF Control 0x80000003
0x0C FFT Process Low 0x80007006
0x1C DCM Lock status 0x00077411
0x20 UPX SPI Control 0x00000000
0x24 UPX SPI Respond 0x00000703
0xB0 BCM 3140 SPI Start 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
0xC4 BCM 3140 SPI Done 0x00000000 0x00000000 0x00000000 0x00000000
0x00000000
0xD8 BCM3140 Reset 0x000003FF
0x100 FATAL Interrupt 0x00002000
0x104 FATAL Interrupt Enable 0x001FD8FF
0x108 HIGH Priority Interrupt 0x00000000
0x10C HIGH Priority Interrupt Enable 0x00000000
0x110 Low Priority Interrupt 0x00100000
0x114 Low Priority Interrupt Enable 0x03E03C00
0x118 CPU LB Data Parity Error 0x00000000
0x200 Fauna ERP Interrupt Status 0x00000000
0x204 Flora ERP Interrupt Status 0x00000000
0x208 Coldplay ERP Interrupt Status 0x00000000
0x20C Remora ERP Interrupt Status 0x00000000
0x210 VGA SPI RF Channel Selection 0x00000000
0x214 VGA SPI RW Gain 0x0000009E
0x218 VGA SPI Write Gain(raven) 0x00000000
0x220 VGA Enable 0x000FFFFF
0x300 Fauna Reset 0x00000003
0x304 Flora Reset 0x00000003
0x308 Coldplay Reset 0x00000003
0x30C Remora Reset 0x00000007
0x310 Upstream LED 0x00003C00
0x380 Downstream Density License LED 0x00000000
** Sparrow PHY I/O FPGA counters ****
Spurious FFT Interrupts: 0 Spurious FFT CHIP ID: 0 FFT RDY CLEAR Err: 0
UPX: SPI 0 Non-fatal 0 Boot OK 3
BCM3140: SPIA 0 SPIB 0 SPIC 0 SPID 0 SPIE 0
Non fatal US JIB Flora: 1 US JIB Fauna: 1
Non fatal DS JIB Coldplay: 1
US Port (BCM3140 channels):
The following example provides information about all controllers using the show controller integrated-cable command and the mapping keyword:
Router# show controllers integrated-Cable 6/0/0 mapping rf-channel
Ctrlr RF MC MC Rem. WB WB WB Rem.
channel BW % Ratio channel BW % Ratio
6/0/0 0 33 1 6/0/0:0 63 1
6/0/0 1 33 1 6/0/0:0 63 1
6/0/0 2 33 1 6/0/0:0 63 1
6/0/0 3 33 1 6/0/0:0 63 1
Router# show controllers integrated-Cable 6/0/0 mapping wb-channel
Load for five secs: 18%/1%; one minute: 11%; five minutes: 13%
Time source is NTP, *15:07:17.566 EDT Sun Mar 21 2010
Ctrlr WB RF BW % Remaining
The following example provides information about all controllers using the show controller
integrated-cable command and the registers keyword:
Router# show controllers integrated-Cable 6/0/0 registers
JIB3_DS BPI registers (base address 0xF8880000)
bpi_int_isr_0 [0x00000000] = 0x00000000
bpi_int_ier_0 [0x00000004] = 0x0000000F
glb_int_isr_0 [0x00000010] = 0x00000000
glb_int_ier_0 [0x00000014] = 0x000003FF
glb_int_isr_1 [0x00000020] = 0x00000000
glb_int_ier_1 [0x00000024] = 0x000003FF
bpi_int_fesr_0 [0x00000040] = 0x00000000
bpi_tst_tp_sel_reg [0x00000050] = 0x00000000
bpi_tst_tp_reg [0x00000054] = 0x00000000
bpi_cnt_good_packet_in_cnt [0x00000064] = 0x00045B37
bpi_cnt_bad_packet_in_cnt [0x00000068] = 0x0000000D
bpi_cnt_good_packet_out_cnt [0x0000006C] = 0x00045B37
bpi_cnt_bad_packet_out_cnt [0x00000070] = 0x0000000D
bpi_ecc_sbit_err_cnt [0x00000074] = 0x00000000
glb_sw_rev_id [0x00000078] = 0x00020002
glb_hw_rev_id [0x0000007C] = 0x00010008
frz_reg [0x00000080] = 0x00000000
frz_en [0x00000084] = 0x00000001
glb_dcm_status [0x00000088] = 0x00000007
glb_sw_rst [0x0000008C] = 0x00000000
JIB3_DS ERP registers (base address 0xF8881000)
erp_irq_src_reg [0x00000000] = 0x00000000
erp_irq_en_reg [0x00000004] = 0x80000FFF
erp_tp_sel_reg [0x00000050] = 0x00000000
erp_tp_reg [0x00000054] = 0x00000000
erp_cfg_reg [0x00000060] = 0x00000000
erp_err_record_reg [0x00000064] = 0x00000000
erp_err_addr_record_reg [0x00000068] = 0x00000000
erp_err_wd_record_reg [0x0000006C] = 0x00000000
erp_proc_err_addr_record_reg [0x00000090] = 0x00000000
JIB3_DS RX SPI registers (base address 0xF8882000)
rxspi_irq_src_reg [0x00000000] = 0x00000000
rxspi_irq_en_reg [0x00000004] = 0x000001FF
rxspi_ferr_src_reg [0x00000040] = 0x00000000
rxspi_testpoint_sel_reg [0x00000050] = 0x00000000
rxspi_testpoint_reg [0x00000054] = 0x00000000
rxspi_rst_cntl_reg [0x00000060] = 0x00000000
rxspi_cntl_status_reg [0x00000064] = 0x00000005
rxspi_cfg_cntl_reg [0x00000068] = 0x00000021
rxspi_afthres_reg [0x0000006C] = 0x01C00180
rxspi_cal_dur_reg [0x00000070] = 0x00030000
rxspi_non_drop_err_cnt_reg [0x00000088] = 0x00000000
rxspi_drop_byte_cnt_reg [0x0000008C] = 0x00000000
rxspi_rx_byte_cnt_reg[0] [0x000000B0] = 0x01A499EF
rxspi_rx_byte_cnt_reg[1] [0x000000B4] = 0x00CF4ED0
rxspi_rx_byte_cnt_reg[2] [0x000000B8] = 0x0001F030
rxspi_rx_pkt_cnt_reg[0] [0x000000C0] = 0x0001D242
rxspi_rx_pkt_cnt_reg[1] [0x000000C4] = 0x0002828C
rxspi_rx_pkt_cnt_reg[2] [0x000000C8] = 0x00000684
rxspi_fifo_pkt_drop_cnt_reg[0] [0x000000E0] = 0x00000000
rxspi_fifo_pkt_drop_cnt_reg[1] [0x000000E4] = 0x00000000
rxspi_fifo_pkt_drop_cnt_reg[2] [0x000000E8] = 0x00000000
rxspi_calendar_table_reg[0] [0x00000800] = 0x00000000
rxspi_calendar_table_reg[1] [0x00000804] = 0x00000001
rxspi_calendar_table_reg[2] [0x00000808] = 0x00000002
rxspi_calendar_table_reg[3] [0x0000080C] = 0x00000003
JIB3_DS TX SPI registers (base address 0xF8883000)
txspi_irq_src_reg [0x00000000] = 0x00000000
txspi_irq_en_reg [0x00000004] = 0x0000001F
txspi_ferr_src_reg [0x00000040] = 0x00000000
txspi_testpoint_sel_reg [0x00000050] = 0x00000000
txspi_testpoint_reg [0x00000054] = 0x00000000
txspi_rst_cntl_reg [0x00000060] = 0x00000000
txspi_cntl_status_reg [0x00000064] = 0x00000009
txspi_cfg_cntl_reg [0x00000068] = 0x00000001
txspi_afthres_reg [0x0000006C] = 0x01EC01E8
txspi_cal_dur_reg [0x00000070] = 0x00040000
txspi_train_cntl_reg [0x00000074] = 0x00000000
txspi_nonfatalerr_cnt_reg [0x00000080] = 0x00000000
txspi_eop_abort_pkt_cnt_reg[0] [0x00000090] = 0x00000000
txspi_eop_abort_pkt_cnt_reg[1] [0x00000094] = 0x00000000
txspi_eop_abort_pkt_cnt_reg[2] [0x00000098] = 0x00000000
txspi_eop_abort_pkt_cnt_reg[3] [0x0000009C] = 0x00000000
txspi_eop_abort_byte_cnt_reg[0] [0x000000A0] = 0x00000000
txspi_eop_abort_byte_cnt_reg[1] [0x000000A4] = 0x00000000
txspi_eop_abort_byte_cnt_reg[2] [0x000000A8] = 0x00000000
txspi_eop_abort_byte_cnt_reg[3] [0x000000AC] = 0x00000000
txspi_tx_byte_cnt_reg[0] [0x000000C0] = 0x00000000
txspi_tx_byte_cnt_reg[1] [0x000000C4] = 0x00000000
txspi_tx_byte_cnt_reg[2] [0x000000C8] = 0x00000000
txspi_tx_byte_cnt_reg[3] [0x000000CC] = 0x00000000
txspi_tx_pkt_cnt_reg[0] [0x00000100] = 0x00000000
txspi_tx_pkt_cnt_reg[1] [0x00000104] = 0x00000000
txspi_tx_pkt_cnt_reg[2] [0x00000108] = 0x00000000
txspi_tx_pkt_cnt_reg[3] [0x0000010C] = 0x00000000
txspi_calendar_table_reg[0] [0x00000800] = 0x00000000
txspi_calendar_table_reg[1] [0x00000804] = 0x00000001
txspi_calendar_table_reg[2] [0x00000808] = 0x00000002
txspi_calendar_table_reg[3] [0x0000080C] = 0x00000003
txspi_calendar_table_reg[4] [0x00000810] = 0x00000004
JIB3_DS DOC registers (base address 0xF8884000)
doc_int_err0 [0x00000000] = 0x00000000
doc_int_err0_ier [0x00000004] = 0xFFBFBFFD
doc_int_err1 [0x00000010] = 0x00000000
doc_int_err1_ier [0x00000014] = 0x003FFFF8
doc_int_fesr [0x00000040] = 0x00000000
doc_test_sel [0x00000050] = 0x00000000
doc_testpoint [0x00000054] = 0x00000000
doc_cfg_ctrl [0x00000060] = 0x031A0000
doc_err_cap_ctrl [0x00000064] = 0x001F0001
doc_err_cap_addr [0x00000068] = 0x00000020
doc_err_cap_data [0x0000006C] = 0x000080F7
doc_seg_num [0x00000070] = 0x00000001
doc_wb_chan_stats_sel [0x00000074] = 0x00000077
doc_wb_pkt_cnt [0x00000078] = 0x00000000
doc_wb_byte_cnt [0x0000007C] = 0x00000000
doc_wb_police_sel [0x00000080] = 0x00000001
doc_wb_police_data [0x00000084] = 0x00000000
doc_wb_police_intv [0x00000088] = 0x00000000
doc_nb_chan_stats_sel [0x0000008C] = 0x0000004C
doc_nb_pkt_cnt [0x00000090] = 0x00000000
doc_nb_byte_cnt [0x00000094] = 0x00000000
doc_nb_police_sel [0x00000098] = 0x00000001
doc_nb_police_data [0x0000009C] = 0x00000000
doc_nb_police_intv [0x000000A0] = 0x00000000
doc_int_doc_cnt [0x000000D4] = 0x00000000
doc_int_ecc_sbiterr_cnt [0x000000D8] = 0x00000000
doc_pkt_good_in_cnt [0x000000DC] = 0x00045B5C
doc_pkt_good_out_cnt [0x000000E0] = 0x00045B39
doc_pkt_err_in_cnt [0x000000E4] = 0x00000000
doc_pkt_err_out_cnt [0x000000E8] = 0x00000023
doc_pkt_drop_cnt [0x000000EC] = 0x00000000
doc_efc_all_cnt [0x000000F0] = 0x00000000
doc_efc_hi_cnt [0x000000F4] = 0x00000000
doc_efc_me_cnt [0x000000F8] = 0x00000000
doc_efc_lo_cnt [0x000000FC] = 0x00000000
doc_efc_ch_sel [0x00000100] = 0x00000000
doc_efc_debug_ctrl [0x00000104] = 0x00000000
doc_rldram_ext_ecc [0x00000114] = 0x00000000
doc_rldram_cfg [0x00000118] = 0x00101544
doc_rldram_ctrl [0x0000011C] = 0x00100389
doc_rldram_status [0x00000120] = 0x039D7403
doc_rldram_blk_clr [0x00000124] = 0x0B7FFFFF
doc_rldram_cal_match_win_h [0x00000128] = 0x00000000
doc_rldram_cal_match_win_l [0x0000012C] = 0x1FFFFFFF
doc_rldram_ecc_err_rec_addr [0x00000130] = 0x00000000
doc_magic_num_err_pkt_ctrl [0x00000150] = 0x00000000
doc_magic_num_err_pkt_addr [0x00000154] = 0x00000001
doc_magic_num_err_pkt_data [0x00000158] = 0x00000000
JIB3_DS RIF registers (base address 0xF8885000)
rif_int_err0 [0x00000000] = 0x00000000
rif_int_ier0 [0x00000004] = 0x00000007
rif_int_fesr0 [0x00000040] = 0x00000000
rif_tp_sel [0x00000050] = 0x00000000
rif_tp [0x00000054] = 0x00000000
rif_cfg_ctrl [0x00000060] = 0x00000000
rif_cnt_in_mpeg_cnt [0x00000064] = 0x000A6226
rif_cnt_out_good_mpeg_cnt [0x00000068] = 0x000A6226
rif_cnt_out_bad_mpeg_cnt [0x0000006C] = 0x00000000
rif_cnt_drop_mpeg_cnt [0x00000070] = 0x00000000
rif_1bit_ecc_err_stat [0x00000074] = 0x00000000
JIB3_DS RTN registers (base address 0xF8886000)
return_int_isr [0x00000000] = 0x00000000
return_int_ier [0x00000004] = 0x000001FF
return_int_fesr [0x00000040] = 0x00000000
return_tp_sel [0x00000050] = 0x00000000
return_tp [0x00000054] = 0x00000000
return_ctrl_reg [0x00000060] = 0x00000000
return_pif_loopback_chnl [0x00000064] = 0x00000000
return_sniffer_nonbonded_en [0x00000068] = 0x00000000
return_sniffer_bonded_en [0x0000006C] = 0x00000000
return_spi_chnl_sel [0x00000070] = 0x0000013A
return_err_drop_en [0x00000074] = 0x0000000F
return_snf_macda_cfg_addr [0x00000078] = 0x0000000F
return_snf_macda_cfg_data_hi [0x0000007C] = 0x00000000
return_snf_macda_cfg_data_lo [0x00000080] = 0x00000000
return_in_pifrx_good_cnt [0x000000A0] = 0x00000000
return_in_pifrx_bad_cnt [0x000000A4] = 0x00000000
return_in_piflp_good_cnt [0x000000A8] = 0x000A6224
return_in_piflp_bad_cnt [0x000000AC] = 0x00000000
return_in_sniffer_good_cnt [0x000000B0] = 0x00045B3A
return_in_sniffer_bad_cnt [0x000000B4] = 0x00000023
return_in_spi_loop_good_cnt [0x000000B8] = 0x00000000
return_in_spi_loop_bad_cnt [0x000000BC] = 0x00000000
return_out_spi0_cnt [0x000000C0] = 0x00000000
return_out_spi1_cnt [0x000000C4] = 0x00000000
return_out_spi2_cnt [0x000000C8] = 0x00000000
return_out_spi3_cnt [0x000000CC] = 0x00000000
return_out_spi4_cnt [0x000000D0] = 0x00000000
return_pifrx_if_par_err_drop_cnt [0x000000D4] = 0x00000000
return_pifrx_if_len_err_drop_cnt [0x000000D8] = 0x00000000
return_piflp_if_err_drop_cnt [0x000000DC] = 0x00000000
return_piflp_if_chnl_drop_cnt [0x000000E0] = 0x00000000
return_snf_pb_err_drop_cnt [0x000000E4] = 0x00000023
return_snf_pkt_type_err_drop_cnt [0x000000E8] = 0x00045B3A
return_spilp_if_err_drop_cnt [0x000000EC] = 0x00000000
return_pifrx_traffic_mux_drop_cnt [0x000000F0] = 0x00000000
return_piflp_traffic_mux_drop_cnt [0x000000F4] = 0x00000000
return_snf_traffic_mux_drop_cnt [0x000000F8] = 0x00000000
return_spilp_traffic_mux_drop_cnt [0x000000FC] = 0x00000000
return_pifrx_fifo_overflow_drop_cnt [0x00000100] = 0x00000000
return_piflp_fifo_overflow_drop_cnt [0x00000104] = 0x00000000
return_snf_fifo_overflow_drop_cnt [0x00000108] = 0x00000000
return_spilp_fifo_overflow_drop_cnt [0x0000010C] = 0x00000000
return_pifrx_if_par_err_cnt [0x00000110] = 0x00000000
return_pifrx_if_len_err_cnt [0x00000114] = 0x00000000
return_pifrx_fifo_ecc_1berr_cnt [0x00000118] = 0x00000000
return_piflp_fifo_ecc_1berr_cnt [0x0000011C] = 0x00000000
return_snf_fifo_ecc_1berr_cnt [0x00000120] = 0x00000000
return_spilp_fifo_ecc_1berr_cnt [0x00000124] = 0x00000000
JIB3_DS DLM registers (base address 0xF8890000)
dlm_int_isr_0 [0x00000000] = 0x00000004
dlm_int_ier_0 [0x00000004] = 0x00000000
dlm_cnt_local_ts_reg [0x00000064] = 0x8D7DF4CD
dlm_cfg_tss_comp_reg [0x00000068] = 0x00000027
dlm_cfg_tss_ctrl_reg [0x0000006C] = 0x00000000
dlm_cfg_tss_cmd_reg [0x00000070] = 0x00000000
dlm_cnt_ts_load_cnt [0x000000BC] = 0x00000000
dlm_cnt_ts_chk_failed_cnt [0x000000C4] = 0x00000000
dlm_cnt_tss_perr_cnt [0x000000C8] = 0x00000000
dlm_cnt_load_ts_reg [0x000000D0] = 0x003F52EF
JIB3_DS SEQ registers (base address 0xF8892000)
seq_int_err0 [0x00000000] = 0x0000000F
seq_int_ier0 [0x00000004] = 0x000FFFFF
seq_int_err3 [0x00000030] = 0x00000000
seq_int_ier3 [0x00000034] = 0x00000001
seq_int_fatal_err [0x00000040] = 0x00000000
seq_tp_sel [0x00000050] = 0x00000000
seq_tp [0x00000054] = 0x00000000
seq_cfg_en [0x00000060] = 0x00000001
seq_cfg_sync_timer_sel [0x00000064] = 0x00000014
seq_cfg_sync_timer_data [0x00000068] = 0x00000000
seq_cfg_sync_sa_sel [0x0000006C] = 0x00000014
seq_cfg_sync_sa_data_lo [0x00000070] = 0x00000000
seq_cfg_sync_sa_data_hi [0x00000074] = 0x00000000
seq_cfg_tkb_timer_sel [0x00000078] = 0x00000015
seq_cfg_tkb_timer_data [0x0000007C] = 0x00000000
seq_cfg_tkb_max [0x00000080] = 0x00000000
seq_hwdbg_dpv_proc_table_addr [0x00000090] = 0x00000001
seq_hwdbg_dpv_ptr_mod_table [0x00000094] = 0x00000000
seq_hwdbg_dpv_timestamp_table [0x00000098] = 0x00000000
seq_hwdbg_dpv_hcs_table [0x0000009C] = 0x00000000
seq_cnt_blkram_oecc_err_stat [0x000000A4] = 0x00000000
seq_cnt_tran_mpeg_stat [0x000000A8] = 0x000A6224
seq_cnt_tran_mpeg_sync_stat [0x000000AC] = 0x00000000
seq_cnt_tran_only_sync_stat [0x000000B0] = 0x00000000
seq_cnt_tran_dpv_stat [0x000000B8] = 0x00000000
JIB3_DS QM registers (base address 0xF8893000)
qm_int_isr0 [0x00000000] = 0x00000000
qm_int_ier0 [0x00000004] = 0x0000007F
qm_int_isr1 [0x00000010] = 0x00000000
qm_int_ier1 [0x00000014] = 0x000FFFFF
qm_int_fat_err_isr [0x00000040] = 0x00000000
qm_tst_tp_sel [0x00000050] = 0x00000000
qm_tst_tp [0x00000054] = 0x00000000
qm_cfg_chnl_rst_0 [0x00000060] = 0x00000000
qm_cfg_ctl [0x0000006C] = 0x00000011
qm_cfg_sqf_fac_addr [0x0000008C] = 0x00000015
qm_cfg_sqf_fac_data [0x00000090] = 0x00000000
qm_cfg_bond_chnl_map_addr [0x00000094] = 0x00000020
qm_cfg_bond_chnl_map_data_lo [0x00000098] = 0x00000000
qm_cfg_flt_thr_addr [0x000000A4] = 0x00000250
qm_cfg_flt_thr_data [0x000000A8] = 0x00000000
qm_cfg_repl_addr [0x000000AC] = 0x00000000
qm_cfg_repl_data_lo [0x000000B0] = 0x00000000
qm_hwdbg_buf_mag_addr [0x000000BC] = 0x00000001
qm_hwdbg_wptr_data_lo [0x000000C0] = 0x00014F60
qm_hwdbg_wptr_data_mi [0x000000C4] = 0x000033A0
qm_hwdbg_wptr_data_hi [0x000000C8] = 0x00000AA0
qm_hwdbg_rptr_data_lo [0x000000CC] = 0x00014F60
qm_hwdbg_rptr_data_mi [0x000000D0] = 0x000033A0
qm_hwdbg_rptr_data_hi [0x000000D4] = 0x00000AA0
qm_hwdbg_qulen_data_lo [0x000000D8] = 0x00000000
qm_hwdbg_qulen_data_mi [0x000000DC] = 0x000000E7
qm_hwdbg_qulen_data_hi [0x000000E0] = 0x00000000
qm_hwdbg_contex_data [0x000000E4] = 0x00000000
qm_cfg_dir_stat_addr [0x000000E8] = 0x0000004E
qm_cnt_dir_pkt_stat [0x000000EC] = 0x00000000
qm_cnt_dir_byte_stat [0x000000F0] = 0x00000000
qm_cfg_qam_stat_addr [0x000000F4] = 0x0000004C
qm_cnt_qam_chnl_pkt_stat [0x000000F8] = 0x00000000
qm_cnt_qam_chnl_byte_stat [0x000000FC] = 0x00000000
qm_cnt_qam_chnl_sync_stat [0x00000100] = 0x00000000
qm_cnt_bpram_ovrflw_stat [0x00000108] = 0x00000000
qm_cnt_que_ovrflw_stat [0x0000010C] = 0x00000000
qm_cnt_good_bpi_pkt_stat [0x00000110] = 0x00045B3C
qm_cnt_bad_bpi_pkt_stat [0x00000114] = 0x0000000D
qm_cnt_bpram_out_good_pkt_stat [0x0000011C] = 0x000BD95D
qm_cnt_bpram_out_dir_pkt_stat [0x00000120] = 0x00028918
qm_cnt_bpram_out_bonded_pkt_stat [0x00000124] = 0x00000029
qm_cnt_replicated_pkt_stat [0x00000128] = 0x000A0738
qm_cnt_bpram_bad_type_pkt_stat [0x00000134] = 0x00000000
qm_cnt_bpram_bad_eop_pkt_stat [0x00000138] = 0x00000000
qm_cnt_bpram_bad_dir_pkt_stat [0x0000013C] = 0x00000000
qm_cnt_bpram_bad_bonded_pkt_stat [0x00000140] = 0x00000000
qm_cnt_bpram_oecc_err_pkt_stat [0x00000144] = 0x00000000
qm_cnt_bpram_bad_pkt_stat [0x00000148] = 0x0000000D
qm_cnt_wr_good_pkt_stat [0x0000014C] = 0x000BD95D
qm_cnt_wr_bad_pkt_stat [0x00000150] = 0x00000000
qm_cnt_drop_bad_pkt_stat [0x00000154] = 0x0000000D
qm_cnt_drop_ovrflw_pkt_stat [0x00000158] = 0x00000000
qm_cnt_rd_pkt_stat [0x0000015C] = 0x000BD933
qm_cnt_rd_mpeg_stat [0x00000160] = 0x000A6226
qm_cnt_rd_mpeg_sync_stat [0x00000164] = 0x00008140
qm_cnt_rd_mpeg_only_sync_stat [0x00000168] = 0x00007E93
qm_cnt_tran_pkt_stat [0x00000170] = 0x000BD95E
qm_cnt_tran_oecc_err_pkt_stat [0x00000174] = 0x00000000
qm_cnt_tran_mpeg_stat [0x00000178] = 0x000A6226
qm_cnt_tran_mpeg_sync_stat [0x0000017C] = 0x00008140
qm_cnt_tran_mpeg_only_sync_stat [0x00000180] = 0x00007E93
qm_cnt_tran_dpv_stat [0x00000188] = 0x00000000
qm_rldram_ext_ecc [0x00000198] = 0x00000000
qm_rldram_cfg [0x0000019C] = 0x00101544
qm_rldram_ctrl [0x000001A0] = 0x00100389
qm_rldram_status [0x000001A4] = 0x03DF7C03
qm_rldram_cal_match_win_h [0x000001A8] = 0x00000000
qm_rldram_cal_match_win_l [0x000001AC] = 0x7FFFFFFF
JIB3_DS PG registers (base address 0xF8898000)
pg_mod [0x00000050] = 0x00000000
pg_dhs [0x00000054] = 0x00000000
pg_ipg [0x0000005C] = 0x00000000
pg_num [0x00000058] = 0x00000000
pg_payload_length [0x00000060] = 0x00000000
pg_payload_value [0x00000064] = 0x00000000
pg_pkt_hdr_prog_0 [0x00000068] = 0x00000000
pg_pkt_hdr_prog_1 [0x0000006C] = 0x00000000
pg_pkt_hdr_1 [0x00000070] = 0x00000000
pg_pkt_hdr_2 [0x00000074] = 0x00000000
pg_pkt_hdr_3 [0x00000078] = 0x00000000
pg_pkt_hdr_4 [0x0000007C] = 0x00000000
pg_pkt_hdr_5 [0x00000080] = 0x00000000
pg_pkt_hdr_6 [0x00000084] = 0x00000000
JIB3_DS PMBIST registers (base address 0xF8899000)
pmbist_ena_addr [0x00000060] = 0x00000002
pmbist_din_addr [0x00000064] = 0x00000000
pmbist_dout_addr [0x0000006C] = 0x00008101
pmbist_trgt_select_addr [0x00000074] = 0x00000000
pmbist_ff_status [0x00000078] = 0x00000000
pmbist_num_wr_fr_pmbist [0x0000007C] = 0x00000000
pmbist_num_rd_fr_pmbist [0x00000080] = 0x00000000
pmbist_um_wr_2cmd_ff [0x00000084] = 0x00000000
pmbist_num_rd_2cmd_ff [0x00000088] = 0x00000000
pmbist_num_rd_rtn_pmbist [0x0000008C] = 0x00000000
pmbist_num_wr_2dram [0x00000090] = 0x00000000
pmbist_num_rd_2dram [0x00000094] = 0x00000000
pmbist_num_rd_fr_dram [0x00000098] = 0x00000000
Remora registers (base address 0xF8900000)
------------------------------------------
Remora General Registers (0xF8900000):
--------------------------------------
revision [0x00000000] = 0x00000003
hw_fpga_rev_id [0x00000004] = 0x0000000A
erp_scratch_pad0 [0x00000008] = 0x00000000
erp_scratch_pad1 [0x0000000C] = 0x00000000
Remora Reset and DCM Lock Registers (0xF8900100):
-----------------------------------------------
reset_ctrl [0x00000100] = 0x00000000
dcm_lock [0x00000104] = 0x0000000F
Remora Configuration Registers (0xF8900200):
--------------------------------------------
port_cfg[0] [0x00000200] = 0x00155549
port_cfg[1] [0x00000204] = 0x00155548
port_cfg[2] [0x00000208] = 0x00155548
port_cfg[3] [0x0000020C] = 0x00155548
port_cfg[4] [0x00000210] = 0x00155548
core_config_status [0x00000214] = 0x00000020
port_rm2tififo_prog_flags[0] [0x00000218] = 0xBBA20C0D
port_rm2tififo_prog_flags[1] [0x0000021C] = 0xBBA20C0D
port_rm2tififo_prog_flags[2] [0x00000220] = 0xBBA20C0D
port_rm2tififo_prog_flags[3] [0x00000224] = 0xBBA20C0D
port_rm2tififo_prog_flags[4] [0x00000228] = 0xBBA20C0D
Remora DFT/Pattern Inject Registers (0xF8900300):
-------------------------------------------------
alt_sym_tst_mode [0x00000300] = 0x00005A69
alt_sym_tst_en_reg [0x00000304] = 0x00000000
qdr_mem_test_en_reg [0x00000308] = 0x00000000
qdr_mem_test_rd_wr_reg [0x0000030C] = 0x00000A12
ready_for_data_input [0x00000318] = 0x0000001F
Remora ECC Registers (0xF8900400):
----------------------------------
debug_cfg [0x00000400] = 0x00000000
sniff_frame_cnt [0x00000404] = 0x00000000
ecc_parity_conf_reg [0x00000408] = 0x00000003
ecc_uncorrect_data_log_reg [0x0000040C] = 0x00002814
ecc_uncorrect_log_reg [0x00000410] = 0x00000020
ecc_correctable_data_log_reg [0x00000414] = 0x00002C14
ecc_correctable_log_reg [0x00000418] = 0x00000028
qdr_ecc_corr_cnt_reg [0x0000041C] = 0x00000000
fatal_err_log [0x00000420] = 0x00000000
err_inj_reg [0x00000424] = 0x00000000
Remora QDR Registers (0xF8900500):
----------------------------------
qdr_phy_idelayctrl_rst_reg [0x00000500] = 0x00000000
qdr_phy_idelayctrl_rdy_err_reg [0x00000504] = 0x00000261
qdr_phy_cal_tap_dly_reg [0x00000508] = 0x00000ADB
qdr_phy_idelayctrl_ctrl_reg [0x0000050C] = 0x00000002
qdr_init_ctrl_reg [0x00000510] = 0x801FFFFF
Remora Interrupt Status Registers (0xF8900600):
-----------------------------------------------
glb_int_stat_reg [0x00000600] = 0x00000000
int_stat_gr_reg[0] [0x00000604] = 0x00000000
int_stat_gr_reg[1] [0x00000608] = 0x00000000
int_stat_gr_reg[2] [0x0000060C] = 0x00000000
int_stat_gr_reg[3] [0x00000610] = 0x00000000
int_stat_gr_reg[4] [0x00000614] = 0x00000000
misc_int_stat_reg [0x00000618] = 0x00000001
fatal_err_src_reg [0x0000061C] = 0x00000000
port_local_interrupt_enable[0] [0x00000620] = 0x0001FFFF
port_local_interrupt_enable[1] [0x00000624] = 0x0001FFFF
port_local_interrupt_enable[2] [0x00000628] = 0x0001FFFF
port_local_interrupt_enable[3] [0x0000062C] = 0x0001FFFF
port_local_interrupt_enable[4] [0x00000630] = 0x0001FFFF
misc_int_en_reg [0x00000634] = 0x00001FF8
fatal_err_en_reg [0x00000638] = 0x00000EFF
port_local_interrupt_override[0] [0x0000063C] = 0x00000000
port_local_interrupt_override[1] [0x00000640] = 0x00000000
port_local_interrupt_override[2] [0x00000644] = 0x00000000
port_local_interrupt_override[3] [0x00000648] = 0x00000000
port_local_interrupt_override[4] [0x0000064C] = 0x00000000
misc_int_override [0x00000650] = 0x00000000
fatal_err_override [0x00000654] = 0x00000000
Remora Counts Registers (0xF8900800):
-------------------------------------
illegal_ch_num_pkt_drop_count [0x00000800] = 0x00000000
fifo_full_mpeg_pkt_drop_count_hi [0x00000804] = 0x00000000
fifo_full_mpeg_pkt_drop_count_lo [0x00000808] = 0x00000000
channel_mpeg_pkt_count[0] [0x0000080C] = 0x00001118
channel_mpeg_pkt_count[1] [0x00000810] = 0x0000106B
channel_mpeg_pkt_count[2] [0x00000814] = 0x00000913
channel_mpeg_pkt_count[3] [0x00000818] = 0x00000A6D
channel_mpeg_pkt_count[4] [0x0000081C] = 0x00000000
channel_mpeg_pkt_count[5] [0x00000820] = 0x00000000
channel_mpeg_pkt_count[6] [0x00000824] = 0x00000000
channel_mpeg_pkt_count[7] [0x00000828] = 0x00000000
channel_mpeg_pkt_count[8] [0x0000082C] = 0x00000000
channel_mpeg_pkt_count[9] [0x00000830] = 0x00000000
channel_mpeg_pkt_count[10] [0x00000834] = 0x00000000
channel_mpeg_pkt_count[11] [0x00000838] = 0x00000000
channel_mpeg_pkt_count[12] [0x0000083C] = 0x00000000
channel_mpeg_pkt_count[13] [0x00000840] = 0x00000000
channel_mpeg_pkt_count[14] [0x00000844] = 0x00000000
channel_mpeg_pkt_count[15] [0x00000848] = 0x00000000
channel_mpeg_pkt_count[16] [0x0000084C] = 0x00000000
channel_mpeg_pkt_count[17] [0x00000850] = 0x00000000
channel_mpeg_pkt_count[18] [0x00000854] = 0x00000000
channel_mpeg_pkt_count[19] [0x00000858] = 0x00000000
port_re_timestamp_count[0] [0x0000085C] = 0xA6A5A6A6
port_re_timestamp_count[1] [0x00000860] = 0x00000000
port_re_timestamp_count[2] [0x00000864] = 0x00000000
port_re_timestamp_count[3] [0x00000868] = 0x00000000
port_re_timestamp_count[4] [0x0000086C] = 0x00000000
port_rx_fifo_overflow_drop_count[0] [0x00000870] = 0x00000000
port_rx_fifo_overflow_drop_count[1] [0x00000874] = 0x00000000
port_rx_fifo_overflow_drop_count[2] [0x00000878] = 0x00000000
port_rx_fifo_overflow_drop_count[3] [0x0000087C] = 0x00000000
port_rx_fifo_overflow_drop_count[4] [0x00000880] = 0x00000000
channel_jib_if_pkt_count[0] [0x00000884] = 0x00038EA2
channel_jib_if_pkt_count[1] [0x00000888] = 0x00031ADE
channel_jib_if_pkt_count[2] [0x0000088C] = 0x0001B869
channel_jib_if_pkt_count[3] [0x00000890] = 0x00020053
channel_jib_if_pkt_count[4] [0x00000894] = 0x00000000
channel_jib_if_pkt_count[5] [0x00000898] = 0x00000000
channel_jib_if_pkt_count[6] [0x0000089C] = 0x00000000
channel_jib_if_pkt_count[7] [0x000008A0] = 0x00000000
channel_jib_if_pkt_count[8] [0x000008A4] = 0x00000000
channel_jib_if_pkt_count[9] [0x000008A8] = 0x00000000
channel_jib_if_pkt_count[10] [0x000008AC] = 0x00000000
channel_jib_if_pkt_count[11] [0x000008B0] = 0x00000000
channel_jib_if_pkt_count[12] [0x000008B4] = 0x00000000
channel_jib_if_pkt_count[13] [0x000008B8] = 0x00000000
channel_jib_if_pkt_count[14] [0x000008BC] = 0x00000000
channel_jib_if_pkt_count[15] [0x000008C0] = 0x00000000
channel_jib_if_pkt_count[16] [0x000008C4] = 0x00000000
channel_jib_if_pkt_count[17] [0x000008C8] = 0x00000000
channel_jib_if_pkt_count[18] [0x000008CC] = 0x00000000
channel_jib_if_pkt_count[19] [0x000008D0] = 0x00000000
Remora Timestamp Registers (0xF8900900):
----------------------------------------
local_1024_ts_ctrl [0x00000900] = 0x00000039
local_1024_current_ts [0x00000904] = 0xF5D27575
local_1024_tcc_ts_latch [0x00000908] = 0x7291125F
doc_ts_offset_ch_0_1 [0x0000090C] = 0x04AF04AF
doc_ts_offset_ch_2_3 [0x00000910] = 0x04AF04AF
doc_ts_offset_ch_4_5 [0x00000914] = 0x04F704F7
doc_ts_offset_ch_6_7 [0x00000918] = 0x04F704F7
doc_ts_offset_ch_8_9 [0x0000091C] = 0x04F704F7
doc_ts_offset_ch_10_11 [0x00000920] = 0x04F704F7
doc_ts_offset_ch_12_13 [0x00000924] = 0x04F704F7
doc_ts_offset_ch_14_15 [0x00000928] = 0x04F704F7
doc_ts_offset_ch_16_17 [0x0000092C] = 0x04F704F7
doc_ts_offset_ch_18_19 [0x00000930] = 0x04F704F7
Remora PRATE/SRATE Registers (0xF8900A00):
------------------------------------------
port_prate_regs[0].prate_ctrl [0x00000A00] = 0x00000003
port_prate_regs[0].prate_m_prime_lo [0x00000A04] = 0x0005971E
port_prate_regs[0].prate_n_prime_lo [0x00000A08] = 0x08AA5B88
port_prate_regs[0].prate_m_prime_hi [0x00000A0C] = 0x00000000
port_prate_regs[1].prate_ctrl [0x00000A10] = 0x00000003
port_prate_regs[1].prate_m_prime_lo [0x00000A14] = 0x00000191
port_prate_regs[1].prate_n_prime_lo [0x00000A18] = 0x00037E78
port_prate_regs[1].prate_m_prime_hi [0x00000A1C] = 0x00000000
port_prate_regs[2].prate_ctrl [0x00000A20] = 0x00000003
port_prate_regs[2].prate_m_prime_lo [0x00000A24] = 0x00000191
port_prate_regs[2].prate_n_prime_lo [0x00000A28] = 0x00037E78
port_prate_regs[2].prate_m_prime_hi [0x00000A2C] = 0x00000000
port_prate_regs[3].prate_ctrl [0x00000A30] = 0x00000003
port_prate_regs[3].prate_m_prime_lo [0x00000A34] = 0x00000191
port_prate_regs[3].prate_n_prime_lo [0x00000A38] = 0x00037E78
port_prate_regs[3].prate_m_prime_hi [0x00000A3C] = 0x00000000
port_prate_regs[4].prate_ctrl [0x00000A40] = 0x00000003
port_prate_regs[4].prate_m_prime_lo [0x00000A44] = 0x00000191
port_prate_regs[4].prate_n_prime_lo [0x00000A48] = 0x00037E78
port_prate_regs[4].prate_m_prime_hi [0x00000A4C] = 0x00000000
port_srate_regs[0].srate_ctrl [0x00000A50] = 0x00000003
port_srate_regs[0].srate_mn [0x00000A54] = 0x004E0095
port_srate_regs[1].srate_ctrl [0x00000A58] = 0x00000003
port_srate_regs[1].srate_mn [0x00000A5C] = 0x0191032C
port_srate_regs[2].srate_ctrl [0x00000A60] = 0x00000003
port_srate_regs[2].srate_mn [0x00000A64] = 0x0191032C
port_srate_regs[3].srate_ctrl [0x00000A68] = 0x00000003
port_srate_regs[3].srate_mn [0x00000A6C] = 0x0191032C
port_srate_regs[4].srate_ctrl [0x00000A70] = 0x00000003
port_srate_regs[4].srate_mn [0x00000A74] = 0x0191032C
The following example provides information about all controllers using the show controller integrated-cable command and the status keyword:
Router# show controllers integrated-Cable 6/0/0 status
Load for five secs: 9%/0%; one minute: 11%; five minutes: 13%
Time source is NTP, *15:07:31.309 EDT Sun Mar 21 2010
DS PHY Device Information:
Table 160 describes the fields displayed in the show controller integrated-cable command output with various keywords (as described in preceding examples).
Table 160 show controller integrated-cable Field Descriptions
Field
|
Description
|
WB channel
|
Wideband channel number.
|
BG ID
|
Bonding group ID.
|
Bundle num
|
Bundle number.
|
NB channel
|
Narrowband channel number.
|
NB chan ID
|
Narrowband channel ID.
|
Reserved CIR
|
Reserved committed information rate (CIR) value.
|
Total CIR
|
Total committed information rate (CIR) value.
|
Controller Chan
|
Controller channel number.
|
RF Packets
|
RF packets.
|
MPEG bps
|
MPEG value in bps.
|
MPEG mbps
|
MPEG value in Mbps.
|
MPEG Packets
|
MPEG packets.
|
Sync Packets
|
Synchronization packets.
|
MAP/UCD
|
MAP/ UCD value
|
Tx Packets
|
Tx packets
|
Tx Octets
|
Tx octets
|
Offset
|
Memory offset
|
Register
|
Line card registers
|
Value
|
Register values.
|
BPI Index
|
Baseline Privacy Interface (BPI) index number.
|
Segment
|
Hardware segment being used by DOCSIS MAC.
|
Even Key
|
Current value of the Even Key in the BPI entry.
|
Odd Key
|
Current value of the Odd Key in the BPI entry.
|
Key Sequence Number
|
Key sequence number.
|
Security Association
|
Security association identifier.
|
Key Type
|
The type of key stored based on the encryption algorithm (Data Encryption Standard [DES] or Advanced Encryption Standard [AES]).
|
Related Commands
Command
|
Description
|
cable rf-bandwidth-percent
|
Enables static or dynamic bandwidth sharing for a modular cable (MC) interface.
|
cable upstream connector
|
Maps an upstream port to a physical port on the Cisco UBR-MC20X20V cable interface line card for use with a particular downstream.
|
show controller cable
|
Displays information about the interface controllers for a cable interface on the Cisco CMTS router.
|
show hw-module bay
|
Displays information about the wideband channels or RF channels on a Wideband SPA.
|
show interface cable
|
Displays the current configuration and status of a cable interface.
|
show controllers cable
To display information about the interface controllers on a cable interface on the Cisco CMTS router, use the show controllers cable command in user EXEC or privileged EXEC mode.
show controllers cable {slot/port| slot/subslot//port} [downstream | upstream [port] | [ipc]
[mem-stat] [memory] [proc-cpu]
Cisco IOS Release 12.2(33)SCE and later
show controllers cable {slot/cable-interface-index| slot/subslot//cable-interface-index}
[downstream | upstream [upstream-index] | [ipc] [mem-stat] [memory] [proc-cpu]
Syntax Description
slot
|
Slot where the line card resides.
• Cisco uBR7246VXR router—The valid range is from 3 to 6.
• Cisco uBR7225VXR router—The valid range is from 1 to 2.
• Cisco uBR7100 series router—The valid value is 1.
|
subslot
|
(Cisco uBR10012 only) Secondary subslot of the cable interface line card. The valid slots are 0 or 1.
|
port
|
Downstream port number.
• Cisco uBR7225VXR router and Cisco uBR7246VXR router—The valid value is 0 or 1.
• Cisco uBR10012 router—The valid range is from 0 to 4 (depending on the cable interface).
|
cable-interface-index
|
Downstream port of the Cisco uBR10-MC5X20 and Cisco uBR-MC28 line cards or MAC domain index of the Cisco uBR-MC20X20V and Cisco uBR-MC3GX60V line cards.
• Cisco uBR7225VXR and Cisco uBR7246VXR routers—The valid port value is 0 or 1.
• Cisco uBR10012 router—The valid range for the Cisco uBR-MC20X20V and Cisco uBR-MC5X20 line cards is from 0 to 4. The valid range for the Cisco uBR-MC3GX60V line card is from 0 to 14.
|
downstream
|
(Optional) Displays the downstream interface status.
|
upstream
|
(Optional) Displays the upstream interface status.
|
port
|
(Optional) Specifies the desired upstream port. Valid values start with 0 for the first upstream port on the cable interface line card.
|
upstream-index
|
(Optional) Specifies the desired index for the upstream port. Valid values for the Cisco uBR-MC20X20V and Cisco uBR-MC5X20 line cards range from 0 to 3.
|
ipc
|
(Optional) Displays the Inter-Process Communication (IPC) information between different line cards.
|
mem-stat
|
(Optional) Displays the output from the show memory statistics command that contains a summary of memory statistics for a Broadband Processing Engine (BPE) cable interface line card.
|
memory
|
(Optional) Displays the output from the show memory command that contains a summary of memory statistics, including the memory as it is allocated per process, for a BPE cable interface line card.
|
proc-cpu
|
(Optional) Displays the output from the show processes cpu command that contains the processor status for a BPE cable interface line card.
|
Command Modes
User EXEC, Privileged EXEC (#)
Command History
Release
|
Modification
|
11.3 NA
|
This command was introduced.
|
12.0(2)XC
|
This command was modified to show a number of additional fields.
|
12.1(5)EC1
|
Support was added for the Cisco uBR7100 series router, including information about the Cisco uBR7100 series integrated upconverter.
|
12.2(1)XF1
|
Support was added for the Cisco uBR10012 router.
|
12.0(16)SC2, 12.1(10)EC1, 12.2(4)BC1b
|
The algorithm for calculating the SNR value was enhanced for a more accurate value.
|
12.2(15)CX
|
Support was added for the Cisco uBR-MC28U/X cable interface line card, including the display of the number of packets dropped because they were for a Service Flow ID (SFID) of 0.
|
12.2(15)BC2b
|
The mem-stat, memory, and proc-cpu keywords were added to obtain processor information from the onboard processor on Broadband Processing Engine (BPE) cable interface line cards, such as the Cisco uBR-MC16U/X, Cisco uBR-MC28U/X, and Cisco uBR10-MC5X20S/U cards.
|
12.3(9a)BC
|
Added the optional tech-support keyword to optimize the collection of line card information without consuming the console session for a long period of time.
|
12.3(17a)BC
|
Added support for Dynamic Channel Change (DCC) for Load Balancing on the Cisco CMTS.
|
12.3(17a)BC2
|
Added support for the Cisco uBR10-MC5X20H interface line cards.
|
12.3(23)BC
|
The downstream keyword displays status and characteristics of modular cable interfaces associated with the Cisco uBR10-MC5X20 line card MAC domain host interface.
|
12.2(33)SCA
|
This command was integrated into Cisco IOS Release 12.2(33)SCA. Support for the Cisco uBR7225VXR router was added.
|
12.2(33)SCC
|
The command output was modified to show logical channels information when multiple logical channels are configured.
|
12.2(33)SCE
|
The command syntax was modified. The port parameter was changed to cable-interface-index to indicate the MAC domain index for the Cisco UBR-MC20X20V and Cisco uBR-MC3GX60V cable interface line cards. The upstream port parameter was changed to upstream-index.
|
Usage Guidelines
The mem-stat, memory, and proc-cpu keywords are used to obtain the relevant information from the onboard processor on BPE cable interface line cards, such as the Cisco uBR-MC16U/X, Cisco uBR-MC28U/X, and Cisco uBR10-MC5X20S/U/H cards. This allows you to obtain information that is specific to a line card, as opposed to having to run these commands on the entire router.
The logical-index is shown only when multiple logical channels are configured using the cable upstream max-logical-chans command.
Note
The mem-stat, memory, and proc-cpu options are not available for cable interface line cards that do not contain an onboard processor (for example, the Cisco uBR-MC16C card).
Dynamic Channel Change (DCC) Support for Load Balancing
The following commands and fields illustrate the show controllers command used with DCC:
Router# show controllers cable x/y upstream | i DCC
DCC: 0 REQs n2 RSPs 0 ACKs
Router# show controllers cx/y downstream| i DCC
DCC: n1 REQs 0 RSPs n3 ACKs
n4 Successful DCCs n5 DCC Failures
DCC end of transaction counts:
DCC unknown cause(e1) offline(e2) if down(e3) no cm(e4)
DCC no resource(e5) no retries(e6) reject(e7) unknown state (e8)
DCC rebuild err (e9) T15 timeout(e10) reinit MAC (e11) dcc succeeds(e12)
The fields in this example are as follows:
•
n1—The number of DCC REQ messages traversing an interface, nonzero on downstream.
•
n2—The number of DCC RSP messages traversing an interface, nonzero on upstream.
•
n3—The number of DCC ACK messages traversing an interface, nonzero on downstream.
•
n4—The number of successful DCC transactions, nonzero on downstream direction.
•
n5—The number of failed DCC transactions, nonzero only on downstream direction
The above counters are DOCSIS-specific DCC counters, which can also be collected via SNMP MIB.
The following summary illustrates classified DCC transaction end counts originated from the interface with the above show controllers command example:
•
e1—The number of DCC transactions ended with unknown causes.
•
e2—The number of DCC transactions ended due to modems going offline.
•
e3—The number of DCC transactions ended due to interface down.
•
e4—The number of DCC transactions ended due to a nonexistent cable modem.
•
e5—The number of DCC transactions ended due to insufficient resources on target.
•
e6—The number of DCC transactions ended due to exhausted DCC-REQ retries.
•
e7—The number of DCC transactions ended due to rejected DCC-REQ.
•
e8—The number of DCC transactions ended due to unknown DCC state.
•
e9—The number of DCC transactions ended due to failure to assign a cable modem on the target.
•
e10—The number of DCC transactions ended due to T15 time out.
•
e11—The number of DCC transactions ended due to CM MAC reinitialization.
•
e12—The number of DCC transactions ended successfully.
This command is subject to the restrictions and prerequisites described in the Configuring Load Balancing and Dynamic Channel Change (DCC) on the Cisco CMTS feature guide on Cisco.com.
Examples
The following abbreviated example illustrates the initial information for the tech-support keyword for the Cisco uBR10012 router on which Cisco IOS Release 12.3(9a)BC is installed:
Router# show controllers cable 8/1/0 tech-support
------------------ show version ------------------
Cisco Internetwork Operating System Software
IOS (tm) 7200 Software (UBR10KCLC-LC-M), Experimental Version 12.3(20040708:1441
55) [bguckel-geo_cable-l2 102]
Copyright (c) 1986-2004 by cisco Systems, Inc.
Compiled Mon 19-Oct-04 11:28 by bguckel
Image text-base: 0x60008EB8, data-base: 0x60CB0000
ROM: System Bootstrap, Version 12.2(20011031:221132) [maheshj-cr10k-rommon 15],
BOOTLDR: 7200 Software (UBR10KCLC-LC-M), Experimental Version 12.2(20011107:2331
03) [janez-v122_2_xf_throttle.Nov5A 101]
clc_8_1 uptime is 1 week, 9 hours, 54 minutes
System returned to ROM by power-on
System restarted at 08:59:44 UTC Wed Jul 21 2004
cisco uBR10K CLC (NPE-CLC) processor (revision A) with 196608K/65536K bytes of m
R7000 CPU at 262MHz, Implementation 39, Rev 2.1, 256KB L2 Cache
6 slot midplane, Version 1.0
The following is a sample output of the show controllers cable downstream command for downstream connection at slot 3 on a Cisco CMTS router:
Router# show controllers cable 3/0 downstream
Cable 3/0 Downstream is up
Frequency not set, Channel Width 6 MHz, 64-QAM, Symbol Rate 5.056941 Msps
FEC ITU-T J.83 Annex A, R/S Interleave I=12, J=17
Table 161 describes the fields shown in the show controllers cable downstream command display.
Table 161 show controllers cable downstream Field Descriptions
Field
|
Description
|
Cable
|
Slot and port number indicating the location of the Cisco cable interface line card.
|
Downstream is up
|
RF downstream interface is enabled.
|
Frequency
|
Transmission frequency of the RF downstream. (This information may not match the current transmission frequency, which is external on Cisco CMTS platforms that use an external upconverter.)
|
Channel Width
|
Width of the RF downstream channel.
|
QAM
|
Modulation scheme.
|
Symbol Rate
|
Transmission rate (in number of symbols per second).
|
FEC ITU-T
|
Motion Picture Experts Group (MPEG) framing standard.
|
Annex
|
Annex for the RF downstream channel.
|
R/S Interleave I/J
|
Reed Solomon framing based on ITU S.83-B.
|
For cable interfaces that include an integrated upconverter, the show controllers cable command includes the frequency and power settings for the integrated upconverter. The following example shows a typical output for the show controllers cable command that includes the information for the integrated upconverter:
Router# show controllers cable 1/0
Cable1/0 Upconverter is Enabled Output is Enabled
Model: 74-2094-01 Serial Number: 0WAV04480010 CLEI Code: CLEI#
HW Rev: PC2D0107 SW Rev: 007, NVRAM Rev: 006 ECI number 123456
Downstream Frequency 525.0000 MHz
IF Power 0.3 dBmv RF Power 51.0 dBmv
The following example is a sample output of the show controllers cable command with the cable interface index 0. on the Cisco UBR-MC3XG60V line card. The downstream channel ID and RFID are also displayed in the output:
Router# show controller cable 5/0/0
linestate: TRUE hccp_if_inited: FALSE hccphopready: TRUE
hccp_keepalive: FALSE hccp_critical: FALSE ha_critical: FALSE
drop_mac_msgs: FALSE current_active_segment: 0
US 1 first_time_up: FALSE US 2 first_time_up: TRUE
US 3 first_time_up: TRUE US 4 first_time_up: TRUE
JIB Base: 0x20000000, JIB Revision: 0x00000002, Release: 0x00000033
Cable5/0/0 JIB hardware status:
JIB Downstream port Enabled
JIB Upstream port 0 Enabled
JIB Upstream port 1 Disabled
JIB Upstream port 2 Disabled
JIB Upstream port 3 Disabled
JIB CURRENT ACTIVE BPI/PHS Segment: DS: 0 US: 0
S/W CURRENT ACTIVE BPI/PHS Segment: 0
H/W Spectrum Management Information:
Sextant FPGA Revision: 0x1B
FFT Transform Revision: 0x2
IRQ status 0x0, IRQ mask 0x1F
time_stamp_lsb 0x739D, time_stamp_msb 0xB8D3
FFT Engine State: 1, Busy Count: 0, Wrong State Count: 0
FFT Device Trigger Time Miss Count: 0
FFT Device Sample Overflow: 0, Transform Overflow: 0
FFT Device TSRM Parity: 0, TSRM/TSG Comparison Error: 0, TSG Reload: 1
Cable5/0/0 Upconverter is Disabled Output is Disabled
Model: 74-3153-05 Serial Number: 0WAV10250089
HW Rev: PC2D0109 SW Rev: 204, NVRAM Rev: 021 ECI number FFFFFF
Downstream Frequency 537.0000 MHz
idb 0x6565E520 MAC regs 0x20000000 SDRAM 0x28000000
mac ring entries 32 bandwidth ring entries 128 tx ring entries 128 MAP tx ri
MAC ring 0xC7A7E00 shadow 0x65745D08 head 8 count 1136840 full 0
Bandwidth ring 0xC7A7EC0 shadow 0x65745E08 head 61 count 189 full 0
PCI low priority ring 0xC7A8100 shadow 0x65746088 head 19 count 19 full 0
US CCF ring 0xC7A8340 shadow 0x65746308 head 0 count 0 full 0
FIB ring 0xC7A87C0 shadow 0x65746808 head 0 count 0 full 0
Force Drops IPC 0 Lo/Hi 0/0, 0/0
snfr_fibipc_dmastatus 0x0
Sniffer ring 0xC7A8580 shadow 0x65746588 head 0 count 0 full 0
High priority Tx ring 0xC7A7140 shadow 0x65744388 head 6 tail 8 count 2 full
Low priority Tx ring 0xC7A6D00 shadow 0x65743B08 head 0 tail 0 count 0 full
TIB Tx ring 0xC7A7580 shadow 0x65744C08 head 105 tail 105 count 0 full 0 stu
PCCF Tx ring 0xC7A79C0 shadow 0x65745488 head 0 tail 0 count 0 full 0 stuck
JIB SDRAM Correctable ECC Count: 0
SDRAM_CECC_INFO_REG_0: 0x0, SDRAM_CECC_INFO_REG_1: 0x0
JIB SSRAM Correctable ECC Count: 0
JIB Timestamp Mismatch Count: 0
JIB Timestamp Reload Count: 0
Timestamp is from TCC card
throttled 0 enabled 0 disabled 0
Rx: spurious 0 framing_err 0 hcs_err 0 no_buffer 0 short_pkt 0
no_enqueue 0 no_enp 0 miss_count 0 latency 0
invalid_sid 0 invalid_mac 0 bad_ext_hdr_pdu 0 concat 0 bad-concat 0
Tx: full 0 drop 0 stuck 0 latency 0
MTx: full 0 drop 0 stuck 0 latency 0
Slots 0 NoUWCollNoEngy 0 FECorHCS 0 HCS 0
Req 186 ReqColl 0 ReqNoise 0 ReqNoEnergy 2198449112
ReqData 0 ReqDataColl 0 ReqDataNoise 0 ReqDataNoEnergy 0
Rng 1136720 RngColl 0 RngNoise 0
FECBlks 1137342 UnCorFECBlks 0 CorFECBlks 0
MAP FIFO overflow 0, Rx FIFO overflow 0, No rx buf 0
DS FIFO overflow 0, US FIFO overflow 0, US stuck 0
Ranging Requests= 0x115852
Master Clock Timestamp = 0xB8D5DBCD
Bad bandwidth Requests= 0x0
Cable5/0/0 Downstream is up
Frequency 537.0000 MHz, Channel Width 6 MHz, 64-QAM, Symbol Rate 5.056941 M
FEC ITU-T J.83 Annex B, R/S Interleave I=32, J=4
Downstream channel ID: 255
Dynamic Services Stats (All Downstreams):
DSA: 0 REQs 0 RSPs 0 ACKs
0 Successful DSAs 0 DSA Failures
DSC: 0 REQs 0 RSPs 0 ACKs
0 Successful DSCs 0 DSC Failures
0 Successful DSDs 0 DSD Failures
DBC: 0 REQs 0 RSPs(Rcvd) 0 ACKs
0 Successful DBCs 0 DBC Failures 0 DBC Partial
0 DBC Protocol Violations
DCC: 0 REQs 0 RSPs 0 ACKs
0 Successful DCCs 0 DCC Failures
0 DCC Departs 0 DCC Arrives
DCC end of transaction counts:
DCC unknown cause(0) offline(0) if down(0) no cm(0)
DCC no resource(0) no retries(0) reject(0) unknown state (0)
DCC rebuild err (0) T15 timeout(0) wrong channel(0) reinit MAC (0)
0 invalid_event 0 tlv_error
0 disabled_event 0 invalid_state
0 invalid_chid 0 prim_chid
Local total modems 0, modems active 0, total DS flows 2
NB DS Mo1/1/0:0, STATE: UP
Frequency 55.0000 MHz 256-QAM, ANNEX B, R/S Interleave I=32, J=4
Bandwidth (Kbps): 13800, Load Percent: 0
Channel ID: 193, US MAP: 0x0001
Total modems: 2, modems active : 2, total DS flows: 3
NB DS Cable5/0/0, STATE: DOWN
Frequency 537.0000 MHz 64-QAM, ANNEX B, R/S Interleave I=32, J=4
Bandwidth (Kbps): 20800, Load Percent: 0
Channel ID: 255, US MAP: 0x000F
// Output displaying the DS_chan_id and RFID IDs//
DS_chan_id RFID Interface
--------------------------------------
--------------------------------------
----------------------------------------------
----------------------------------------------
The following is a sample output of the show controllers cable downstream command for a downstream on the Cisco uBR-MC28U cable interface line card or a cable interface line card with integrated upconverter:
Router# show controllers cable 6/0 downstream
Hardware is MC28U (F-connector) with Integrated Up-converter
Primary rommon version is: 11.4
Secondary rommon version is: 6553.5
Current rommon is Primary
Output queue: 0/1000/64/0 (size/max total/threshold/drops)
H/W Spectrum Management Information:
BCM3138 Chip State: 1 1 1 1, Serial Port State 1, Busy Count: 0 25 0 0
Spectrum Management IPC Statistics:
Pkts: 48413, Lock Errs: 0, MB not Empty: 0, No Buffs: 0
Pkts: 46097, Timeout: 1, Unexpected: 0, No Buffs: 0, Lock Errs: 0
Inuse band lower=0 upper=0 CNR=56
candidate band lower=0 upper=0 Mod=0
Inuse band lower=0 upper=0 CNR=52
candidate band lower=0 upper=0 Mod=0
Inuse band lower=0 upper=0 CNR=55
candidate band lower=0 upper=0 Mod=0
Inuse band lower=23000 upper=26200 CNR=55
candidate band lower=23000 upper=26200 Mod=0
Cable6/0 Upconverter is Enabled Output is Enabled
Model: 74-2094-05 Serial Number: 0WAV06530029 CLEI Code: FFFFFFFFFF
HW Rev: PC2D0108 SW Rev: 010, NVRAM Rev: 006 ECI number FFFFFF
Downstream Frequency 471.0000 MHz
The following is a sample output of the show controllers cable downstream command for the cable interface line card on slot 8, subslot 0, and port 0 on a Cisco CMTS router:
Router# show controllers cable 8/0/0 downstream
Cable8/0/0 Downstream is up
Frequency 453.0000 MHz, Channel Width 6 MHz, 64-QAM, Symbol Rate 5.056941 Msps
FEC ITU-T J.83 Annex B, R/S Interleave I=32, J=4
Downstream channel ID: 191
DSA: 0 REQs 0 RSPs 0 ACKs
0 Successful DSAs 0 DSA Failures
DSC: 0 REQs 0 RSPs 0 ACKs
0 Successful DSCs 0 DSC Failures
0 Successful DSDs 0 DSD Failures
DCC: 0 REQs 0 RSPs 0 ACKs
0 Successful DCCs 0 DCC Failures
DCC end of transaction counts:
DCC unknown cause(0) offline(0) if down(0) no cm(0)
DCC no resource(0) no retries(0) reject(0) unknown state (0)
DCC rebuild err (0) T15 timeout(0) wrong channel(0) reinit MAC (0)
Local total modems 800, modems active 800, total DS flows 801
NB DS Mo3/0/1:0, STATE: UP
Frequency 555.0000 MHz 64-QAM, ANNEX B, R/S Interleave I=32, J=4
Bandwidth (Kbps): 4315, Load Percent: 0
Channel ID: 48, US MAP: 0x0037
Total modems: 4, modems active : 4, total DS flows: 5
NB DS Mo3/0/1:1, STATE: UP
Frequency 561.0000 MHz 64-QAM, ANNEX B, R/S Interleave I=32, J=4
Bandwidth (Kbps): 4315, Load Percent: 0
Channel ID: 49, US MAP: 0x0037
Total modems: 2, modems active : 2, total DS flows: 3
NB DS Mo3/0/1:2, STATE: UP
Frequency 567.0000 MHz 64-QAM, ANNEX B, R/S Interleave I=32, J=4
Bandwidth (Kbps): 4315, Load Percent: 0
Channel ID: 50, US MAP: 0x0037
Total modems: 1, modems active : 1, total DS flows: 2
NB DS Mo3/0/1:3, STATE: UP
Frequency 573.0000 MHz 64-QAM, ANNEX B, R/S Interleave I=32, J=4
Bandwidth (Kbps): 13485, Load Percent: 0
Channel ID: 51, US MAP: 0x0037
Total modems: 3, modems active : 3, total DS flows: 4
The following example is a sample output of the show controllers cable downstream command for
the Cisco uBR-MC3GX60V line card sharing downstreams with the Cisco Wideband SPA, in
Cisco IOS Release 12.2(33)SCG:
Router# show controllers cable 8/0/0 downstream
Dynamic Services Stats (All Downstreams):
DSA: 0 REQs 0 RSPs 0 ACKs
0 Successful DSAs 0 DSA Failures
DSC: 0 REQs 0 RSPs 0 ACKs
0 Successful DSCs 0 DSC Failures
0 Successful DSDs 0 DSD Failures
DBC: 0 REQs 96 RSPs(Rcvd) 0 ACKs
0 Successful DBCs 0 DBC Failures 0 DBC Partial
96 DBC Protocol Violations
0 Total DBC Pending Q-Size
DCC: 0 REQs 0 RSPs 0 ACKs
0 Successful DCCs 0 DCC Failures
0 DCC Departs 0 DCC Arrives
DCC end of transaction counts:
DCC unknown cause(0) offline(0) if down(0) no cm(0)
DCC no resource(0) no retries(0) reject(0) unknown state (0)
DCC rebuild err (0) T15 timeout(0) wrong channel(0) reinit MAC (0)
0 invalid_event 4 tlv_error
0 disabled_event 598985 invalid_state
0 invalid_chid 0 prim_chid
Local total modems 0, modems active 0, total DS flows 3
NB DS Mo1/1/0:0, STATE: UP
Frequency 699.0000 MHz 256-QAM, ANNEX B, R/S Interleave I=32, J=4
Bandwidth (Kbps): 6000, Load Percent: 0
Channel ID: 5, US MAP: 0x000F
Total modems: 51, modems active : 37, total DS flows: 158
DS_chan_id RFID Interface
--------------------------------------
--------------------------------------
----------------------------------------------
----------------------------------------------
Table 162 describes the fields shown in the show controllers cable downstream command display.
Table 162 show controllers cable downstream Field Descriptions
Field
|
Description
|
Downstream Frequency
|
Center frequency (in MHz) for which the integrated upconverter is configured.
|
IF Power
|
Power level (in dBmV) of the signal that the integrated upconverter is receiving from the cable interface line card in the Cisco uBR7100 series router.
|
RF Power
|
Power level (in dBmV) of the RF output signal that the integrated upconverter is transmitting on the DS0 RF port.
|
Dynamic Services Stats
|
Dynamic downstream service statistics for a specific cable interface.
|
CM STATUS Stats
|
Cable modem status statistics for a specific cable interface.
|
DS_chan_id
|
Downstream channel ID for a specific cable interface.
|
RFID
|
RF ID associated to a specific cable interface.
|
MDDs
|
MAC Domain Descriptor (MDD).
|
Primary
|
Primary MDD.
|
Non-Primary
|
Non-primary MDD.
|
The following is sample output from the show controllers cable upstream command for a Cisco CMTS router with a cable interface line card located in slot 4, port 0:
Router# show controllers cable 4/0 upstream 2
Cable4/0 Upstream 2 is administratively down
Frequency 5.008 MHz, Channel Width 0.200 MHz, QPSK Symbol Rate 0.160 Msps
SNR measurement - 27.2340 dB
Nominal Input Power Level 5 dBmV, Tx Timing Offset 0
Ranging Backoff Start 16, Ranging Backoff End 16, Tx Backoff Start 16
Tx Backoff End 16, Modulation Profile Group 1
part_id=0x3137, rev_id=0x01, rev2_id=0xFF
nb_agc_thr=0x0000, nb_agc_nom=0x0000
Request Load Reg Size=0x0E
Minislot Size in number of Timebase Ticks is = 8
Minislot Size in Symbols =8
Minislot Size in Bytes = 2
DES Ctrl Reg#0 = C00C0C43, Reg#1 = 0
The following example shows a sample output of the show controllers cable upstream command for a cable interface line card with upstream-index 0:
Router# show controller cable 5/0/0 upstream 0
Cable5/0/0 Upstream 0 is up
Frequency 15.000 MHz, Channel Width 1.600 MHz, Symbol Rate 1.280 Msps
Modulations (QPSK) - Short QPSK, Long QPSK
Mapped to non-shared connector 0 and receiver 0 //Output displaying the connector and
receiver used by the upstream channel //
Spectrum Group is overridden
US phy MER(SNR)_estimate for good packets - 31.5968 dB
Nominal Input Power Level 0 dBmV, Tx Timing Offset 2000
Ranging Backoff Start 3, Ranging Backoff End 6
US timing offset adjustment type 2, value 505
Ranging Insertion Interval automatic (60 ms)
Tx Backoff Start 3, Tx Backoff End 5
Modulation Profile Group 21
part_id=0x0952, rev_id=0x00, rev2_id=0x00
nb_agc_thr=0x0000, nb_agc_nom=0x0000
Request Load Reg Size=0x0E
Minislot Size in number of Timebase Ticks is = 4
Minislot Size in Symbols = 32
Bandwidth Requests = 0xBC
The following example shows a typical output of the show controllers cable upstream command for a cable interface line card that includes onboard hardware-based spectrum management capabilities:
Router# show controllers cable 3/0 upstream 3
Cable6/0 Upstream 3 is up
Frequency 24.600 MHz, Channel Width 3.200 MHz, 64-QAM Symbol Rate 2.560 Msps
This upstream is mapped to physical port 3
Spectrum Group 14, Last Frequency Hop Data Error: NO(0)
MC28U CNR measurement - better than 50 db
Nominal Input Power Level 0 dBmV, Tx Timing Offset 2815
Ranging Backoff automatic (Start 0, End 3)
Ranging Insertion Interval automatic (60 ms)
Tx Backoff Start 0, Tx Backoff End 4
Modulation Profile Group 241
part_id=0x3138, rev_id=0x02, rev2_id=0x00
nb_agc_thr=0x0000, nb_agc_nom=0x0000
Request Load Reg Size=0x0E
Minislot Size in number of Timebase Ticks is = 2
Minislot Size in Symbols = 32
Bandwidth Requests = 0x23C800
Piggyback Requests = 0x489FB8
Minislots Requested= 0x4499EBE
Minislots Granted = 0x6C67B7
Minislot Size in Bytes = 24
Map Advance (Dynamic) : 2454 usecs
Multicast/Broadcast RateLimit Dropped Pkts : 0
The following example shows a typical output of the show controllers cable upstream command for the Cisco uBR10-MC5X20H cable interface line card that is configured with multiple logical channels:
Router# show controllers cable 7/1/0 upstream 0
Cable7/1/0 Upstream 0 is up
Frequency 30.000 MHz, Channel Width 1.600 MHz, Symbol Rate 1.280 Msps
Modulations - Short QPSK, Long QPSK
This upstream is mapped to physical port 0
Spectrum Group is overridden
US phy MER(SNR)_estimate for good packets - 30.2024 dB
Nominal Input Power Level 3 dBmV, Tx Timing Offset 1419
Ranging Backoff Start 0, Ranging Backoff End 1
US timing offset adjustment type 0, value 0
Ranging Insertion Interval automatic (60 ms)
Tx Backoff Start 3, Tx Backoff End 5
Modulation Profile Group 21
Concatenation is disabled
part_id=0x3140, rev_id=0x03, rev2_id=0x00
nb_agc_thr=0x0000, nb_agc_nom=0x0000
Request Load Reg Size=0x0E
Minislot Size in number of Timebase Ticks is = 4
Minislot Size in Symbols = 32
Bandwidth Requests = 0x25
Minislots Requested= 0x5B4
Minislot Size in Bytes = 8
Map Advance (Dynamic) : 2418 usecs
Remote Map Counts: (none)
Remote UCD Counts: (none)
PHY: us errors 0 us recoveries 0
MAC PHY TSS: tss error start 0 tss error end 0
MAC PHY Status: bcm3140 status 0 lookout status 0
MAP/UCD Replication Instructions:
Cable7/1/0 Upstream 8 is administratively down
Frequency 30.000 MHz, Channel Width 1.600 MHz, Symbol Rate 1.280 Msps
Modulations - Short QPSK, Long QPSK
This upstream is mapped to physical port 0
Spectrum Group is overridden
MER(SNR) - Unknown - no modems online.
Nominal Input Power Level 3 dBmV, Tx Timing Offset 0
Ranging Backoff Start 3, Ranging Backoff End 6
US timing offset adjustment type 0, value 0
Ranging Insertion Interval automatic (60 ms)
Tx Backoff Start 3, Tx Backoff End 5
Modulation Profile Group 21
Concatenation is disabled
part_id=0x3140, rev_id=0x03, rev2_id=0x00
nb_agc_thr=0x0000, nb_agc_nom=0x0000
Request Load Reg Size=0x0E
Minislot Size in number of Timebase Ticks is = 4
Minislot Size in Symbols = 32
Minislot Size in Bytes = 8
Map Advance (Dynamic) : 2280 usecs
Remote Map Counts: (none)
Remote UCD Counts: (none)
PHY: us errors 0 us recoveries 0
MAC PHY TSS: tss error start 0 tss error end 0
MAC PHY Status: bcm3140 status 0 lookout status 0
MAP/UCD Replication Instructions:
For Broadband Processing Engine (BPE) cards and other cable interfaces that include onboard upconverters, the show controllers cable command also displays the upconverter status and configuration information. The following excerpt from the show controllers cable command output shows the information that is displayed for the Cisco uBR10-MC5X20S cable interface line card:
Router# show controllers cable 5/1/4
Cable5/1/4 Upconverter is Enabled Output is Enabled
Model: 74-2094-04 Serial Number: 0WAV0649000L CLEI Code: FFFFFFFFFF
HW Rev: PC2D0108 SW Rev: 010, NVRAM Rev: 006 ECI number FFFFFF
Downstream Frequency 255.0000 MHz
The following example is a sample output of the show controllers cable upstream command for the
Cisco uBR-MC3GX60V line card sharing downstreams with the Cisco Wideband SPA, in
Cisco IOS Release 12.2(33)SCG:
Router# show controllers cable 8/0/0 upstream
Cable8/0/0 Upstream 0 is up
Frequency 15.000 MHz, Channel Width 0.800 MHz, Symbol Rate 0.640 Msps
Modulations (16-QAM) - Short 16-QAM, Long 16-QAM
Mapped to shared connector 0 and receiver 0
Spectrum Group is overridden
US phy MER(SNR)_estimate for good packets - 36.1280 dB
Nominal Input Power Level -4 dBmV, Tx Timing Offset 5734
Ranging Backoff Start 3, Ranging Backoff End 6
US timing offset adjustment type 0, value 0
Ranging Insertion Interval automatic (60 ms)
Tx Backoff Start 3, Tx Backoff End 5
Modulation Profile Group 21
part_id=0x3142, rev_id=0xB1, rev2_id=0x00
nb_agc_thr=0x0000, nb_agc_nom=0x0000
Request Load Reg Size=0x0E
Minislot Size in number of Timebase Ticks is = 8
Minislot Size in Symbols = 32
Bandwidth Requests = 0xC7957
Piggyback Requests = 0x19899
Invalid BW Requests= 0x4BF
Minislots Requested= 0xF2E365
Minislots Granted = 0xE240A
Minislot Size in Bytes = 16
Map Advance (Dynamic) : 3389 usecs
Map Count Internal = 1134448325
No MAP buffer= 0x0 No Remote MAP buffer= 0x0
Map Counts: Controller 1/1/0 = 1134446105
Controller 1/1/0:0 = 1150386
UCD ucd-succeeds(2) ucd-shut(0) init-state-err(0)
UCD init-tss-err(0) init-timeout(0) init-start-err(0)
UCD ucd-ccc-time(0) ucd-timeout(0) ucd-tss-err(0)
UCD ucd-state-err(0) ucd-process(0) ucd-retries(0)
PHY: us errors 0 us recoveries 0 (enp 0)
MAC PHY TSS: tss error start 0 tss error end 0
MAC PHY Status: bcm3140 status 0 lookout status 0
PHY: TSS late 0 discontinuous 0
PHY: TSS mis-match 0 not-aligned 0
PHY: TSS missed snapshots from phy 0
MAP/UCD Replication Instructions:
Controller 1/1/0 index = 361, bitmap = 0x0001
Cable8/0/0 Upstream 1 is up
Frequency 16.000 MHz, Channel Width 0.800 MHz, Symbol Rate 0.640 Msps
Modulations (16-QAM) - Short 16-QAM, Long 16-QAM
Mapped to shared connector 0 and receiver 1
Spectrum Group is overridden
US phy MER(SNR)_estimate for good packets - 36.1280 dB
Nominal Input Power Level -4 dBmV, Tx Timing Offset 2330
Ranging Backoff Start 3, Ranging Backoff End 6
US timing offset adjustment type 0, value 0
Ranging Insertion Interval automatic (60 ms)
Tx Backoff Start 3, Tx Backoff End 5
Modulation Profile Group 21
part_id=0x3142, rev_id=0xB1, rev2_id=0x00
nb_agc_thr=0x0000, nb_agc_nom=0x0000
Request Load Reg Size=0x0E
Minislot Size in number of Timebase Ticks is = 8
Minislot Size in Symbols = 32
Bandwidth Requests = 0xC0BFF
Piggyback Requests = 0x18BFB
Invalid BW Requests= 0x1B248
Minislots Requested= 0xE50E2A
Minislots Granted = 0xDA909
Minislot Size in Bytes = 16
Map Advance (Dynamic) : 3057 usecs
Map Count Internal = 1134268243
No MAP buffer= 0x0 No Remote MAP buffer= 0x0
Map Counts: Controller 1/1/0 = 1134266034
Controller 1/1/0:0 = 1150386
UCD ucd-succeeds(2) ucd-shut(0) init-state-err(0)
UCD init-tss-err(0) init-timeout(0) init-start-err(0)
UCD ucd-ccc-time(0) ucd-timeout(0) ucd-tss-err(0)
UCD ucd-state-err(0) ucd-process(0) ucd-retries(0)
PHY: us errors 0 us recoveries 0 (enp 0)
MAC PHY TSS: tss error start 0 tss error end 0
MAC PHY Status: bcm3140 status 0 lookout status 0
PHY: TSS late 0 discontinuous 0
PHY: TSS mis-match 0 not-aligned 0
PHY: TSS missed snapshots from phy 0
MAP/UCD Replication Instructions:
Controller 1/1/0 index = 362, bitmap = 0x0001
Table 163 describes the fields shown in the show controllers cable upstream command display.
Table 163 show controllers cable upstream Field Descriptions
Field
|
Description
|
Cable
|
Slot and port number indicating the location of the Cisco cable interface line card.
|
Upstream is up/administratively down
|
Administrative state of the upstream (whether it is shutdown or not).
|
Channel Width
|
Width of the RF upstream channel.
|
QPSK Symbol Rate
|
Modulation technique for upstream transmission.
|
Spectrum Group 4
|
Spectrum group associated with this slot and port.
|
Frequency
|
Transmission frequency of the RF upstream channel.
Note Cisco cable interface line cards always program the upstream center frequency in 16 KHz increments. This is the frequency displayed in the router configuration and the show controllers cable upstream command. For example, if you use the cable upstream frequency command to specify a center frequency of 27 MHz, the actual center frequency will be 27.008 MHz, which is the next highest 16 KHz boundary.
|
Modulations
|
Spectrum group associated with this slot and port.
|
SNR measurement
|
Estimate for the overall signal-to-noise ratio (SNR) for cable interfaces that do not include onboard hardware-based spectrum management. For most cable interface line cards, this value reflects the modulation error rate (MER) value for the upstream (as calculated according to the IEEE 802.14 PHY layer specifications). The MER is sometimes incorrectly referred to as the carrier-to-noise ratio (CNR), and the SNR value is generally lower than the CNR value.
Note In Cisco IOS Release 12.1(10)EC1 and Cisco IOS Release 12.2(4)BC1b, the algorithm for calculating the SNR estimate was refined for a more accurate value. Depending on the plant characteristics, the new SNR estimate could be up to 6 dB lower than the values shown in earlier software releases. This value is only an estimate—for the most accurate value, use a spectrum analyzer.
|
<card-name> CNR measurement
|
Estimate for the overall carrier-to-noise ratio (CNR) for the upstream on cable interfaces that include onboard hardware-based spectrum management. When the CNR measurement exceeds 40 dB, this line states "better than 40 dB." As a general rule, the CNR is greater than the SNR value.
Note This value is only an estimate—for the most accurate value, use a spectrum analyzer or use the show controllers cable upstream spectrum command. For individual cable modems, you can also use the show cable modem cnr command.
|
Nominal Input Power level
|
Desired power level coming into the receiver.
|
Tx Timing Offset
|
Largest ranging offset reported by CMs on the upstream.
|
Ranging Backoff Start/End
|
Ranging slots (expressed as an exponent of 2) to back off before resending the ranging bursts after an upstream collision. These values are configured using the cable upstream range-backoff start end command.
|
Ranging Backoff Automatic
|
Start and end ranging backoff exponents, which are set automatically, using the cable upstream range-backoff automatic command.
Note These counters are not accurately updated on the Cisco uBR10-MC5X20S cable interface line card, which should manually configure the ranging backoff instead.
|
US timing offset
|
Upstream timing offset adjustment type and value.
|
Ranging Insertion Interval
|
Ranging insertion interval.
|
US throttling
|
Status of the upstream throttling.
|
Tx Backoff Start
|
Starting exponential backoff value for data collisions.
|
Tx Backoff End
|
Ending exponential backoff value for data collisions.
|
Modulation Profile Group
|
Set of burst profiles defining an upstream range.
|
part_id=
|
Part number of the PHY chip. FFFF means the PHY chip is turned off.
|
rev_id=
|
PHY chip revision number.
|
rev2_id=
|
PHY chip subrevision number.
|
nb_agc_thr=
|
Threshold used to control gain.
|
nb_agc_nom=
|
Accelerate convergence of input power level.
|
Range Load Reg Size=
|
Size in symbols for range request bursts.
|
Request Load Reg Size=
|
Size in symbols for request bursts.
|
Minislot Size in number of Timebase Ticks is
|
Size in tick units of upstream minislot. A tick is 6.25 microseconds.
|
Minislot Size in Symbols
|
Size in symbols of the upstream minislot.
|
Bandwidth Requests
|
Number of successful bandwidth requests received in the contention minislots.
|
Piggyback Requests
|
Number of successful bandwidth requests piggybacked with regular data transmissions.
|
Invalid BW Requests
|
Number of invalid bandwidth (BW) requests. An example of an invalid bandwidth request is a modem using a nonexistent service identifier (SID) to request bandwidth.
|
Minislots Requested
|
Total number of minislots requested.
|
Minislots Granted
|
Total number of minislots granted.
|
Minislot Size in Bytes
|
Size of the minislot in bytes.
|
Map Advance (Dynamic)
|
Dynamic map advance time.
|
Map Count
|
Total number of map counts.
|
Remote Map Counts
|
Total number of remote map counts.
|
UCD Count
|
Number of Upstream Channel Descriptors (UCDs) sent for this upstream.
|
Remote UCD Counts
|
Number of remote UCDs sent for this upstream.
|
PHY
|
Physical layer information for the following:
• us errors—Number of upstream errors.
• us recoveries—Number of upstream recoveries.
|
MAC PHY TSS
|
Statistics on the integrity of sync status of timestamp snapshot values between MAC and PHY.
|
MAC PHY Status
|
MAC physical status for the following:
• bcm3140 status
• lookout status
|
MAP/UCD Replication Instructions
|
MAP/UCD replication instructions.
|
DES Ctrl Reg # =
|
Interval data encryption standard (DES) controller register dump.
|
Null Modem RateLimit Dropped Pkts
|
(Cisco uBR-MC16U/X, Cisco uBR-MC28U/X only) Number of packets that were dropped because they had a Service Flow ID (SFID) of 0, which occurs when the packets are dropped due to rate-limiting on their original service flow.
|
Additional Information for Broadband Processing Engine (BPE) Cable Interface Line Cards
|
JIB Version
|
Revision of the JIB circuitry, which is the custom processor onboard the BPE cards that handles the MAC-layer processing.
|
Upconverter is Enabled Output is Enabled
|
Status of the upconverter and the signal output. If this field shows that the output is disabled, use the no cable downstream rf-shutdown command to re-enable it.
|
Downstream Frequency
|
Configured frequency, in MHz, for the integrated upconverter (if present).
|
RF Power
|
Current RF power, in dBmV, as measured on the cable interface line card upconverter. The upconverter circuitry is accurate to a few tenths of a dBmV, but might vary +/- 1 dBmV depending on the transient noise that occurs when the power is measured.
|

Tip
In Cisco IOS Release 12.1(12)EC, Release 12.2(8)BC1, and later releases, you can add a timestamp to show commands using the exec prompt timestamp command in the line configuration mode.
Related Commands
Command
|
Description
|
cable downstream frequency
|
Configures the downstream center frequency on the integrated upconverter.
|
cable downstream rf-power
|
Configures the desired RF output power on the integrated upconverter.
|
cable spectrum-group (global configuration)
|
Creates spectrum groups, which contain one or more upstream frequencies.
|
cable upstream frequency
|
Specifies that the upstream should be set to either a specific center frequency or be set dynamically.
|
show controllers cable upstream spectrum
|
(Cisco uBR-MC16 line card only) Displays the noise levels for a particular CM or displays the background noise for an entire upstream .
|
show interface cable sid
|
Displays interface controller information for a specific cable access router card slot.
|
show controllers cable jib
To display the ASIC processor (JIB) register information on a cable interface on the Cisco CMTS router, use the show controllers cable jib command in user EXEC or privileged EXEC mode.
show controllers cable {slot/cable-interface-index | slot/subslot//cable-interface-index} jib
us-partial-reset
Syntax Description
slot
|
Slot where the line card resides.
• Cisco uBR7225VXR router—The valid value is 1 or 2.
• Cisco uBR7246VXR router—The valid range is from 3 to 6.
• Cisco uBR10012 router—The valid range is from 5 to 8.
|
subslot
|
(Cisco uBR10012 only) Secondary slot number of the cable interface line card. The valid subslots are 0 or 1.
|
cable-interface-index
|
Downstream port of the Cisco uBR10-MC5X20 and Cisco uBR-MC28 line cards, or MAC domain index of the Cisco UBR-MC20X20V and Cisco uBR-MC3GX60V line cards.
• Cisco uBR7225VXR and Cisco uBR7246VXR routers—The valid port value is 0 or 1.
• Cisco uBR10012 router—The valid range for the Cisco UBR-MC20X20V and Cisco uBR-MC5X20 line cards is from 0 to 4. The valid range for the Cisco uBR-MC3GX60V line card is from 0 to 14.
|
jib
|
Displays JIB register information.
|
us-partial-reset
|
Displays JIB3 upstream partial reset data.
|
Command Modes
User EXEC (>) or
Privileged EXEC (#)
Command History
Release
|
Modification
|
12.2(33)SCF
|
This command was introduced.
|
Usage Guidelines
The show controllers cable jib command displays the packet capture buffers retrieved during the partial reset. It displays all of the capture buffers associated with the last partial reset event and also other information useful for determining the Partial Reset state.
Examples
The following is a sample output of the show controllers cable jib command:
Router# show controllers cable 5/0/0 jib us-partial-reset
Jib3 Upstream Partial Reset Information
Jib3 Upstream Debug Partial Reset Data
PHY Side Partial Resets : 1
FrameP Partial Resets : 0
Partial Reset H/W Counts & Status
---------------------------------
PHY Side Partial Resets : 0x80300001
PHY Side Partial Status0 : 0x00000000
PHY Side Partial Status1 : 0x00000000
CCF Partial Resets : 0x8C000001
CCF Partial Status1 : 0x00000000
CCF Partial Status2 : 0x00000000
FrameP Partial Resets : 0x0C000000
FrameP Partial Status : 0x00000000
FragP Partial Resets : 0x0C000000
FragP Partial Status : 0x00000000
PktP Partial Resets : 0x0C000000
PktP Partial Status1 : 0x00000000
PktP Partial Status2 : 0x00000000
PktP Partial Status3 : 0x00000000
PktP Partial Status4 : 0x00000000
C2C Partial Resets : 0x8C000001
C2C Partial Status : 0x00000000
Partial Reset Packet Capture Buffers
------------------------------------
PHY Side Buf Ptr1 : 0x1F3DC35C
PHY Side Buf Ptr2 : 0x1F3E4390
FA1 Buf Ptr1 : 0x1F3EC3C4
FA1 Buf Ptr2 : 0x1F3F43F8
FA2 Buf Ptr1 : 0x1F3FC42C
FA2 Buf Ptr2 : 0x1F404460
FA3 Buf Ptr1 : 0x1F40C494
FA3 Buf Ptr2 : 0x1F4144C8
FA4 Buf Ptr1 : 0x1F41C4FC
FA4 Buf Ptr2 : 0x1F424530
PHY Side Capture FIFO Data (0xFEF entries, format: eop, data[31:0]):
0, 0xB 0, 0x0 0, 0x20163 0, 0x5440900
1, 0x6000000 0, 0x805000C 0, 0x0 0, 0xB
0, 0xFFF0001 0, 0x8000006 0, 0x1632F40 1, 0x20000
0, 0x50050006 0, 0x0 0, 0xB 0, 0xFFF0001
0, 0x4060002 1, 0x400002 0, 0x400F0004 0, 0x0
0, 0xB 0, 0xFFF0001 1, 0x0 0, 0x230F0009
0, 0x0 0, 0xB 0, 0x0 0, 0x20163
0, 0x1C20900 1, 0x6000000 0, 0x805000C 0, 0x0
0, 0xB 0, 0xFFF0001 0, 0x8000006 0, 0x16345C2
1, 0x20000 0, 0x50050006 0, 0x0 0, 0xB
0, 0xFFF0001 0, 0x4060002 1, 0x400002 0, 0x400F0004
0, 0x0 0, 0xB 0, 0xFFF0001 1, 0x0
0, 0x230F0009 0, 0x0 0, 0xB 0, 0x0
0, 0x20163 0, 0x8470900 1, 0x6000000 0, 0x805000C
0, 0x0 0, 0xB 0, 0xFFF0001 0, 0x8000006
0, 0x1637402 1, 0x20000 0, 0x50050006 0, 0x0
0, 0xB 0, 0xFFF0001 0, 0x4060002 1, 0x400002
0, 0x400F0004 0, 0x0 0, 0xB 0, 0xFFF0001
1, 0x0 0, 0x230F0009 0, 0x0 0, 0xB
0, 0x0 0, 0x20163 0, 0x6840900 1, 0x6000000
0, 0x805000C 0, 0x0 0, 0xB 0, 0xFFF0001
0, 0x8000006 0, 0x1639C03 1, 0x20000 0, 0x50050006
0, 0x0 0, 0xB 0, 0xFFF0001 0, 0x4060002
1, 0x400002 0, 0x400F0004 0, 0x0 0, 0xB
0, 0xFFF0001 1, 0x0 0, 0x230F0009 0, 0x0
0, 0xB 0, 0x0 0, 0x20163 0, 0xE850900
1, 0x6000000 0, 0x1C06002E 0, 0x0 0, 0x5
0, 0x10004 0, 0x1C 0, 0xA1D0005 0, 0xE4E8F7
0, 0x1E6BFB 0, 0x794000A 0, 0x830301 0, 0x4008001
0, 0x800F5C6 0, 0x3D30B06 0, 0x44080 0, 0xF8FFFFF
1, 0xFF2FFFF 0, 0x400F0004 0, 0x0 0, 0x5
0, 0x10004 1, 0x10000 0, 0x1C06002E 0, 0x0
0, 0x1 0, 0x10004 0, 0x1C 0, 0xA1D0005
0, 0xE4E8F6 0, 0x23BE85 0, 0x906000A 0, 0xA60301
0, 0x4000001 0, 0x100BDD7 0, 0xE90B06 0, 0x24300
0, 0x220000 1, 0x15A0000 0, 0x400F0004 0, 0x0
0, 0x1 0, 0x10004 1, 0x10000 0, 0x805000C
0, 0x0 0, 0xB 0, 0xFFF0001 0, 0x800001E
0, 0x1651CB2 1, 0x10000 0, 0x50050006 0, 0x0
0, 0xB 0, 0xFFF0001 0, 0x41E0001 1, 0xC310001
0, 0x400F0004 0, 0x0 0, 0xB 0, 0xFFF0001
1, 0x0 0, 0x230F0009 0, 0x0 0, 0xB
0, 0x0 0, 0x10165 0, 0xE560A00 1, 0xE000000
0, 0x805000C 0, 0x0 0, 0xB 0, 0xFFF0001
0, 0x800001E 0, 0x165229C 1, 0x10000 0, 0x50050006
0, 0x0 0, 0xB 0, 0xFFF0001 0, 0x41E0001
1, 0xC310001 0, 0x400F0004 0, 0x0 0, 0xB
0, 0xFFF0001 1, 0x0 0, 0x230F0009 0, 0x0
0, 0xB 0, 0x0 0, 0x10165 0, 0x4940A00
1, 0xE000000 0, 0x805000C 0, 0x0 0, 0xB
0, 0xFFF0001 0, 0x800001E 0, 0x1652647 1, 0x10000
0, 0x50050006 0, 0x0 0, 0xB 0, 0xFFF0001
0, 0x41E0001 1, 0xC310001 0, 0x400F0004 0, 0x0
0, 0xB 0, 0xFFF0001 1, 0x0 0, 0x230F0009
0, 0x0 0, 0xB 0, 0x0 0, 0x10165
0, 0x2560A00 1, 0xE000000 0, 0x805000C 0, 0x0
0, 0xB 0, 0xFFF0001 0, 0x800001E 0, 0x1653424
1, 0x10000 0, 0x50050006 0, 0x0 0, 0xB
0, 0xFFF0001 0, 0x41E0001 1, 0xC310001 0, 0x400F0004
0, 0x0 0, 0xB 0, 0xFFF0001 1, 0x0
0, 0x230F0009 0, 0x0 0, 0xB 0, 0x0
0, 0x10165 0, 0x1D70A00 1, 0xE000000 0, 0x805000C
0, 0x0 0, 0xB 0, 0xFFF0001 0, 0x800001E
0, 0x1656396 1, 0x10000 0, 0x50050006 0, 0x0
0, 0xB 0, 0xFFF0001 0, 0x41E0001 1, 0xC310001
0, 0x400F0004 0, 0x0 0, 0xB 0, 0xFFF0001
1, 0x0 0, 0x230F0009 0, 0x0 0, 0xB
0, 0x0 0, 0x10165 0, 0x1A0A00 1, 0xE000000
0, 0x805000C 0, 0x0 0, 0xB 0, 0xFFF0001
0, 0x800001E 0, 0x16591E8 1, 0x10000 0, 0x50050006
0, 0x0 0, 0xB 0, 0xFFF0001 0, 0x41E0001
1, 0xC310001 0, 0x400F0004 0, 0x0 0, 0xB
0, 0xFFF0001 1, 0x0 0, 0x230F0009 0, 0x0
0, 0xB 0, 0x0 0, 0x10165 0, 0xDC0A00
1, 0xE000000 0, 0x805000C 0, 0x0 0, 0xB
0, 0xFFF0001 0, 0x800001E 0, 0x165C292 1, 0x10000
0, 0x50050006 0, 0x0 0, 0xB 0, 0xFFF0001
0, 0x41E0001 1, 0xC310001 0, 0x400F0004 0, 0x0
0, 0xB 0, 0xFFF0001 1, 0x0 0, 0x230F0009
0, 0x0 0, 0xB 0, 0x0 0, 0x10165
0, 0xDDE0A00 1, 0xE000000 0, 0x805000C 0, 0x0
0, 0xB 0, 0xFFF0001 0, 0x800001E 0, 0x165EFA0
1, 0x10000 0, 0x50050006 0, 0x0 0, 0xB
0, 0xFFF0001 0, 0x41E0001 1, 0xC310001 0, 0x400F0004
0, 0x0 0, 0xB 0, 0xFFF0001 1, 0x0
0, 0x230F0009 0, 0x0 0, 0xB 0, 0x0
0, 0x10166 0, 0xD5F0A00 1, 0xE000000 0, 0x805000C
0, 0x0 0, 0xB 0, 0xFFF0001 0, 0x800001E
0, 0x1661F6C 1, 0x10000 0, 0x50050006 0, 0x0
0, 0xB 0, 0xFFF0001 0, 0x41E0001 1, 0xC310001
0, 0x400F0004 0, 0x0 0, 0xB 0, 0xFFF0001
1, 0x0 0, 0x230F0009 0, 0x0 0, 0xB
0, 0x0 0, 0x10166 0, 0xE2F0A00 1, 0xE000000
0, 0x805000C 0, 0x0 0, 0xB 0, 0xFFF0001
0, 0x800001E 0, 0x1665018 1, 0x10000 0, 0x50050006
0, 0x0 0, 0xB 0, 0xFFF0001 0, 0x41E0001
1, 0xC310001 0, 0x400F0004 0, 0x0 0, 0xB
0, 0xFFF0001 1, 0x0 0, 0x230F0009 0, 0x0
0, 0xB 0, 0x0 0, 0x10166 0, 0x9E40A00
1, 0xE000000 0, 0x805000C 0, 0x0 0, 0xB
0, 0xFFF0001 0, 0x800001E 0, 0x1667BAC 1, 0x10000
0, 0x50050006 0, 0x0 0, 0xB 0, 0xFFF0001
0, 0x41E0001 1, 0xC310001 0, 0x400F0004 0, 0x0
0, 0xB 0, 0xFFF0001 1, 0x0 0, 0x1C06002E
0, 0x0 0, 0x6 0, 0x30004 0, 0x1C
0, 0xA1D0005 0, 0xE4E8F7 0, 0x1E6BFC 0, 0x222000A
0, 0x870301 0, 0x4008003 0, 0x800CE55 0, 0x19A0B06
0, 0x244C0 0, 0xF1F0000 1, 0x570000 0, 0x400F0004
0, 0x0 0, 0x6 0, 0x30004 1, 0x10000
0, 0x230F0009 0, 0x0 0, 0xB 0, 0x0
0, 0x10166 0, 0x9650A00 1, 0xE000000 0, 0x805000C
0, 0x0 0, 0xB 0, 0xFFF0001 0, 0x800001E
0, 0x166AB3F 1, 0x10000 0, 0x50050006 0, 0x0
0, 0xB 0, 0xFFF0001 0, 0x41E0001 1, 0xC310001
0, 0x400F0004 0, 0x0 0, 0xB 0, 0xFFF0001
1, 0x0 0, 0x230F0009 0, 0x0 0, 0xB
0, 0x0 0, 0x10166 0, 0x8E60A00 1, 0xE000000
0, 0x805000C 0, 0x0 0, 0xB 0, 0xFFF0001
0, 0x800001E 0, 0x166DAB7 1, 0x10000 0, 0x50050006
0, 0x0 0, 0xB 0, 0xFFF0001 0, 0x41E0001
1, 0xC310001 0, 0x400F0004 0, 0x0 0, 0xB
0, 0xFFF0001 1, 0x0 0, 0x230F0009 0, 0x0
0, 0xB 0, 0x0 0, 0x10167 0, 0x9B00A00
1, 0xE000000 0, 0x805000C 0, 0x0 0, 0xB
0, 0xFFF0001 0, 0x800001E 0, 0x1670B84 1, 0x10000
0, 0x50050006 0, 0x0 0, 0xB 0, 0xFFF0001
0, 0x41E0001 1, 0xC310001 0, 0x400F0004 0, 0x0
0, 0xB 0, 0xFFF0001 1, 0x0 0, 0x230F0009
0, 0x0 0, 0xB 0, 0x0 0, 0x10167
0, 0x5680A00 1, 0xE000000 0, 0x805000C 0, 0x0
0, 0xB 0, 0xFFF0001 0, 0x800001E 0, 0x167375D
1, 0x10000 0, 0x50050006 0, 0x0 0, 0xB
0, 0xFFF0001 0, 0x41E0001 1, 0xC310001 0, 0x400F0004
0, 0x0 0, 0xB 0, 0xFFF0001 1, 0x0
0, 0x230F0009 0, 0x0 0, 0xB 0, 0x0
0, 0x10167 0, 0x4EC0A00 1, 0xE000000 0, 0x805000C
0, 0x0 0, 0xB 0, 0xFFF0001 0, 0x800001E
0, 0x16766D2 1, 0x10000 0, 0x50050006 0, 0x0
0, 0xB 0, 0xFFF0001 0, 0x41E0001 1, 0xC310001
0, 0x400F0004 0, 0x0 0, 0xB 0, 0xFFF0001
1, 0x0 0, 0x805000C 0, 0x0 0, 0xB
0, 0xFFF0001 0, 0x8000006 0, 0x16781A8 1, 0x20000
0, 0x50050006 0, 0x0 0, 0xB 0, 0xFFF0001
0, 0x4060002 1, 0x400002 0, 0x400F0004 0, 0x0
0, 0xB 0, 0xFFF0001 1, 0x0 0, 0x230F0009
0, 0x0 0, 0xB 0, 0x0 0, 0x20167
0, 0x42D0900 1, 0x6000000 0, 0x805000C 0, 0x0
0, 0xB 0, 0xFFF0001 0, 0x8000006 0, 0x1678A69
1, 0x20000 0, 0x50050006 0, 0x0 0, 0xB
0, 0xFFF0001 0, 0x4060002 1, 0x400002 0, 0x400F0004
0, 0x0 0, 0xB 0, 0xFFF0001 1, 0x0
0, 0x230F0009 0, 0x0 0, 0xB 0, 0x0
0, 0x20167 0, 0xCEE0900 1, 0x6000000 0, 0x230F0009
0, 0x0 0, 0xB 0, 0x0 0, 0x10167
0, 0x32D0A00 1, 0xE000000 0, 0x805000C 0, 0x0
0, 0xB 0, 0xFFF0001 0, 0x800001E 0, 0x16794F2
1, 0x10000 0, 0x50050006 0, 0x0 0, 0xB
0, 0xFFF0001 0, 0x41E0001 1, 0xC310001 0, 0x400F0004
0, 0x0 0, 0xB 0, 0xFFF0001 1, 0x0
0, 0x805000C 0, 0x0 0, 0xB 0, 0xFFF0001
0, 0x8000006 0, 0x1679969 1, 0x20000 0, 0x50050006
0, 0x0 0, 0xB 0, 0xFFF0001 0, 0x4060002
1, 0x400002 0, 0x400F0004 0, 0x0 0, 0xB
0, 0xFFF0001 1, 0x0 0, 0x230F0009 0, 0x0
0, 0xB 0, 0x0 0, 0x20167 0, 0xBEE0900
1, 0x6000000 0, 0x805000C 0, 0x0 0, 0xB
0, 0xFFF0001 0, 0x8000006 0, 0x167BDAA 1, 0x20000
0, 0x50050006 0, 0x0 0, 0xB 0, 0xFFF0001
0, 0x4060002 1, 0x400002 0, 0x400F0004 0, 0x0
0, 0xB 0, 0xFFF0001 1, 0x0 0, 0x230F0009
0, 0x0 0, 0xB 0, 0x0 0, 0x20167
0, 0x2F0900 1, 0x6000000 0, 0x230F0009 0, 0x0
0, 0xB 0, 0x0 0, 0x10167 0, 0x52F0A00
1, 0xE000000 0, 0x805000C 0, 0x0 0, 0xB
0, 0xFFF0001 0, 0x8000006 0, 0x167C7AB 1, 0x20000
0, 0x50050006 0, 0x0 0, 0xB 0, 0xFFF0001
0, 0x4060002 1, 0x400002 0, 0x400F0004 0, 0x0
0, 0xB 0, 0xFFF0001 1, 0x0 0, 0x230F0009
007095: SLOT 5/0: Apr 27 04:43:17.502 Eastern: %UBR10000-5-UNREGSIDTIMEOUT: CM
deleted unregistered Cable Modem 001e.6bfc.da8e0, 0x0 0, 0xB
0, 0xA300900 1, 0x6000000 0, 0x805000C 0, 0x0
0, 0xB 0, 0xFFF0001 0, 0x8000006 0, 0x167E6EC
1, 0x20000 0, 0x50050006 0, 0x0 0, 0xB
0, 0xFFF0001 0, 0x4060002 1, 0x400002 0, 0x400F0004
0, 0x0 0, 0xB 0, 0xFFF0001 1, 0x0
0, 0x10040048 0, 0x8003 0, 0xB 0, 0x20009
0, 0x1020042 0, 0x1006F2A 0, 0xFFFFFFF 0, 0xFFF001E
Table 161 describes the fields shown in the show controllers cable jib command display.
Table 164 show controllers cable jib Field Descriptions
Field
|
Description
|
TOTAL Partial Resets
|
Total number of partial resets.
|
PHY Side Partial Resets
|
Number of partial resets that occurred on the PHY side of the network.
|
CCF Partial Resets
|
Number of partial resets that occurred on the Continuous Concatenation and Fragmentation (CCF) processor.
|
FrameP Partial Resets
|
Number of partial resets that occurred on the Frame Processor (FrameP).
|
FragP Partial Resets
|
Number of partial resets that occurred on the Fragmentation Processor (FragP).
|
PktP Partial Resets
|
Number of partial resets that occurred on the Packet Processor (PktP).
|
C2C Partial Resets
|
Number of partial resets that occurred on the Chip to Chip (also called FL2FA—Flora to Fauna) (C2C) processor.
|
PHY Side
|
Partial reset status on the PHY side.
|
Fauna
|
Partial reset status on the Fauna.
|
PHY Side Partial Resets
|
Number of partial resets that occurred on the PHY side processor.
|
PHY Side Partial Status
|
Partial reset status on the PHY side.
|
CCF Partial Resets
|
Number of partial resets that occurred on the CCF processor.
|
CCF Partial Status
|
Partial reset status on the CCF processor.
|
FrameP Partial Resets
|
Number of partial resets that occurred on the Frame processor.
|
FrameP Partial Status
|
Partial reset status on the Frame processor.
|
FragP Partial Resets
|
Number of partial resets that occurred on the Fragmentation processor.
|
FragP Partial Status
|
Partial reset status on the Fragmentation processor.
|
PktP Partial Resets
|
Number of partial resets that occurred on the Packet processor.
|
PktP Partial Status
|
Partial reset status on the Packet processor.
|
C2C Partial Resets
|
Number of partial resets that occurred on the C2C processor.
|
C2C Partial Status
|
Partial reset status on the C2C processor.
|
PHY Side Buf Ptr
|
PHY partial reset packet capture buffer pointer.
|
PHY Side Buf Cnt
|
PHY partial reset packet capture buffer count.
|
FA1 Buf Ptr
|
Partial reset packet capture buffer 1 pointer on the Fauna processor.
|
FA1 Buf Cnt
|
Number of packet capture buffer 1 counts associated with the partial reset on the Fauna processor.
|
FA2 Buf Ptr
|
Partial reset packet capture buffer 2 pointer on the Fauna processor.
|
FA2 Buf Cnt
|
Number of packet capture buffer 2 counts associated with the partial reset on the Fauna processor.
|
FA3 Buf Ptr
|
Partial reset packet capture buffer 3 pointer on the Fauna processor.
|
FA3 Buf Cnt
|
Number of packet capture buffer 3 counts associated with the partial reset on the Fauna processor.
|
FA4 Buf Ptr
|
Partial reset packet capture buffer 4 pointer on the Fauna processor.
|
FA4 Buf Cnt
|
Number of packet capture buffer 4 counts associated with the partial reset on the Fauna processor.
|
Related Commands
Command
|
Description
|
show controllers cable
|
Displays information about the interface controllers on a cable interface on the Cisco CMTS router.
|
show controllers cable upstream spectrum
To display the noise levels for a particular CM or to display the background noise for an entire upstream on the Cisco uBR-MC16 line card, use the show controllers cable upstream spectrum command in user EXEC or privileged EXEC mode.
show controllers cable {slot/port | slot/subslot/port} upstream n spectrum [ ip-address |
mac-address ] start-freq end-freq res-freq
Syntax Description
slot/port
|
Identifies the cable interface and downstream port on the Cisco uBR7100 series and Cisco uBR7200 series routers.
On the Cisco uBR7100 series router, the only valid value is 1/0. On the Cisco uBR7200 series router, slot can range from 3 to 6, and port can be 0 or 1, depending on the cable interface.
|
slot/subslot/port
|
Identifies the cable interface on the Cisco uBR10012 router. The following are the valid values:
• slot = 5 to 8
• subslot = 0 or 1
• port = 0 to 4 (depending on the cable interface)
|
n
|
Port number for the desired upstream (0 to 5).
|
ip-address
|
(Optional) IP address, in dotted decimal notation, for a CM on the specified upstream.
|
mac-address
|
(Optional) MAC address, in dotted hexadecimal notation, for a CM on the specified upstream.
|
start-freq
|
Starting frequency for the frequency range that is being reported (5 to 42 MHz; can also be specified as 5000 to 42000 KHz or 5000000 to 42000000 Hz).
|
end-freq
|
Ending frequency for the frequency range that is being reported (5 to 42 MHz).
Note The ending frequency must be greater than the starting frequency and must be specified using the same units as the starting frequency (MHz, KHz, Hz).
|
res-freq
|
Resolution frequency to determine the number of data points for the report (12 to 37000 KHz).
Note The resolution frequency must be specified in the same units as the starting and ending frequency (MHz, KHz, Hz). To use a resolution value less than 1 MHz, you must specify the other parameters in either Hz or KHz.
|
Command Modes
User EXEC, Privileged EXEC
Command History
Release
|
Modification
|
12.1(7)CX1
|
This command was introduced for Cisco CMTS routers using the Cisco uBR-MC16S cable interface line card.
|
12.2(8)BC2
|
Support was added for the Cisco uBR10012 router and the Cisco uBR-LCP2-MC16S cable interface line card.
|
12.3(21)BC
|
This command is obsolete.
|
Usage Guidelines
Cisco IOS Release 12.3(9a)BC adds the tech-support keyword to the show controllers cable command. This change allows users with large numbers of online cable modems to collect the necessary line card information without consuming the console session for a long period of time.
Additional and related improvements are also available for the show cable tech-support command.
For all supported releases, the show controllers cable upstream spectrum command displays the power in dBmV for a given frequency range for the specified upstream. The frequency range can cover any portion of the DOCSIS upstream frequency range (5 to 42 MHz), and the frequency range can be divided into a resolution as small as 12 KHz.
If a CM is specified by its IP address or MAC address, the power information for that particular CM is given. If no IP or MAC address is given, the command displays the background noise for the entire upstream. All displays use historical averaging of data collected at the time the command is used; historical information is not saved.
Note
Cisco cable interface line cards always program the upstream's center frequency in 16-KHz increments, and this is the frequency displayed by the show controller cable upstream command. For example, if you use the cable upstream frequency command to specify a center frequency of 27 MHz (cable upstream x frequency 27000000), the actual center frequency will be 27.008 MHz, which is the next-highest 16-KHz boundary.
Tip
By default, the show controller cable upstream command displays its output to the router's console port. To display the command's output when logged in during a Telnet session over an Ethernet port, use the terminal monitor command before giving the show controller cable upstream command.
Examples
The following example shows the show controllers cable upstream command displaying the power information for a particular CM on upstream 5 of cable interface slot 3/0. The power information is displayed over the entire upstream (5-42 MHz), with a resolution of 5 MHz:
MAC Address IP Address I/F MAC Prim RxPwr Timing Num BPI
State Sid (db) Offset CPEs Enbld
00d0.ba77.7595 10.20.114.34 C3/0/U5 online 1 0.25 2740 1 yes
00d0.ba77.7621 10.20.114.17 C3/0/U5 online 2 0.25 2740 2 yes
00d0.ba77.7533 10.20.114.55 C3/0/U5 online 3 0.25 2740 1 yes
Router# show controllers cable 3/0 upstream 5 spectrum 10.20.114.34 5 42 5
02:16:49: Spectrum DATA(@0x4B060004) for u5: 4995-41991KHz(resolution 4992KHz, sid 1):
02:16:49: Freq(KHz) dBmV Chart
02:16:49: 4995 : -5 *************************
02:16:49: 9987 : -7 ************************
02:16:49: 14979: -24 ****************
02:16:49: 19971: -35 **********
02:16:49: 24963: -39 ********
02:16:49: 29955: -35 **********
02:16:49: 34947: -37 *********
Note
The output for each frequency range includes a time-stamp, the ending frequency for each range (in KHz), the historical average power level for that range (in dBmV), and a series of asterisks that provides a graphical representation of the noise floor level for the signal (a stronger signal is indicated by more asterisks).
The following example shows a partial display of the background noise data for upstream 4 of cable interface slot 6/0. The command covers the entire upstream spectrum (5-42 MHz) at the minimum resolution of 12 KHz.
Router# show controller cable 6/0 upstream 4 spectrum 5000 42000 12
02:15:54: Spectrum DATA(@0x4B060004) for u5: 4995-41991KHz(resolution 12KHz, sid 1):
02:15:54: Freq(KHz) dBmV Chart
02:15:54: 8271 : -46 *****
02:15:54: 8283 : -45 *****
02:15:54: 8307 : -48 ****
02:15:54: 8319 : -45 *****
02:15:54: 8331 : -41 *******
02:15:54: 8343 : -39 ********
02:15:54: 8355 : -39 ********
02:15:54: 8367 : -40 ********
02:15:54: 8379 : -43 ******
02:15:54: 8391 : -44 ******
02:15:54: 8403 : -33 ***********
02:15:54: 8415 : -32 ************
02:15:54: 8427 : -30 *************
02:15:54: 8439 : -27 **************
02:15:54: 8451 : -28 **************
02:15:54: 8463 : -36 **********
02:15:54: 8475 : -40 ********
02:15:54: 8487 : -37 *********
02:15:54: 8499 : -40 ********
02:15:54: 8511 : -39 ********
02:15:54: 8523 : -28 **************
02:15:54: 8535 : -29 *************
02:15:54: 8547 : -27 **************
02:15:54: 8559 : -29 *************
02:15:54: 8571 : -40 ********
02:15:54: 8583 : -36 **********
02:15:54: 8595 : -28 **************
02:15:54: 8607 : -30 *************
02:15:54: 11247: -40 ********
02:15:54: 11259: -44 ******
02:15:54: 11271: -44 ******
02:15:54: 11283: -46 *****
02:15:54: 11295: -46 *****
02:15:54: 11307: -42 *******
02:15:54: 11319: -46 *****
02:15:54: 11331: -48 ****
Tip
In Cisco IOS Release 12.1(12)EC, Release 12.2(8)BC1, and later releases, you can add a timestamp to show commands using the exec prompt timestamp command in line configuration mode.
Related Commands
Command
|
Description
|
cable modulation-profile
|
Creates a cable modulation profile.
|
cable upstream hop-priority
|
Determines the order of the corrective actions to be taken when ingress noise exceeds the allowable value for an upstream.
|
cable upstream modulation-profile
|
Configures an upstream for one modulation profile (static profile) or two modulation profiles (Dynamic Upstream Modulation).
|
show cable hop
|
Displays the current hop period and threshold for an upstream, along with other statistics.
|
show cable modem cnr
|
Displays information about the upstream carrier-to-noise ratio (CNR) for a particular cable modem.
|
show cable modulation-profile
|
Displays the cable modulation profiles that have been created.
|
show controllers cable
|
Displays detailed statistics for the cable interface.
|
show controllers cable-modem
To display high-level controller information for the router's cable interface, use the show controllers cable-modem command in privileged EXEC mode.
Cisco uBR904, uBR905, uBR924, uBR925 cable access routers, Cisco CVA122 Cable Voice Adapter
show controllers cable-modem number [all]
Syntax Description
number
|
Identifies the cable interface (always 0).
|
all
|
(Optional) Displays detailed, multi-page output, including chip-level settings, transmit and receive ring contents, and MAC-layer and PHY-layer registers and buffers.
|
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
11.3(4)NA
|
This command was introduced for the Cisco uBR904 cable access router.
|
12.0(4)XI1
|
Support was added for the Cisco uBR924 cable access router.
|
12.1(3)XL
|
Support was added for the Cisco uBR905 cable access router.
|
12.1(5)XU1
|
Support was added for the Cisco CVA122 Cable Voice Adapter.
|
12.2(2)XA
|
Support was added for the Cisco uBR925 cable access router.
|
Usage Guidelines
The show controllers cable-modem display begins with information from the first few registers of the Broadcom BCM3300 chip. Next is buffer information for the receive, receive MAC message, buffer descriptor, and packet descriptor rings. Then comes MIB statistics from the BCM3300 chip, DMA base registers to indicate where the rings start, global control and status information, and finally interrupts for the interrupt code.
When using this command, be sure to check the tx_count and the tx_head and tx_tail values for the buffer descriptor (TX BD) and packet descriptor (TX PD) rings. The tx_count should be greater than 0, and the tx_head and tx_tail values should not be equal. If these values do not change for several minutes, it could indicate that there are packets stuck on the ring. This condition is often caused by the CMTS not giving grants.
Examples
The following shows typical output for the show controllers cable-modem command:
Router# show controllers cable-modem 0
BCM3300 unit 0, idb 0x200EB4, ds 0x82D4748, regaddr = 0x800000, reset_mask 0x80
station address 0010.7b43.aa01 default station address 0010.7b43.aa01
MAC State is ranging_2_state, Prev States = 7
MAC mcfilter 01E02F00 data mcfilter 01000000
DS: BCM 3116 Receiver: Chip id = 2
US: BCM 3037 Transmitter: Chip id = 30B4
Rx: tuner_freq 699000000, symbol_rate 5055849, local_freq 11520000
snr_estimate 33406, ber_estimate 0, lock_threshold 26000
QAM in lock, FEC in lock, qam_mode QAM_64
Tx: tx_freq 20000000, power_level 0x3E, symbol_rate 1280000
DHCP: TFTP server = 4.0.0.32, TOD server = 4.0.0.188
Security server = 0.0.0.0, Timezone Offset = 0.0.4.32
RX data PDU ring with 32 entries at 0x201D40
rx_head = 0x201D78 (7), rx_p = 0x831BE04 (7)
00 pak=0x8326318 buf=0x225626 status=0x80 pak_size=0
01 pak=0x83241A0 buf=0x21DE5A status=0x80 pak_size=0
02 pak=0x83239C0 buf=0x21C22A status=0x80 pak_size=0
03 pak=0x8328C70 buf=0x22EA22 status=0x80 pak_size=0
04 pak=0x8325F28 buf=0x22480E status=0x80 pak_size=0
05 pak=0x8327CB0 buf=0x22B1C2 status=0x80 pak_size=0
06 pak=0x8323BB8 buf=0x21C936 status=0x80 pak_size=0
RX MAC message ring with 8 entries at 0x201E80
rx_head_mac = 0x201E88 (1), rx_p_mac = 0x831BE80 (1)
00 pak=0x8326120 buf=0x224F1A status=0x80 pak_size=0
01 pak=0x8324590 buf=0x21EC72 status=0x80 pak_size=0
02 pak=0x8323FA8 buf=0x21D74E status=0x80 pak_size=0
03 pak=0x8326EE8 buf=0x22806E status=0x80 pak_size=0
04 pak=0x8328E68 buf=0x22F12E status=0x80 pak_size=0
05 pak=0x8327AB8 buf=0x22AAB6 status=0x80 pak_size=0
06 pak=0x8328880 buf=0x22DC0A status=0x80 pak_size=0
07 pak=0x8326CF0 buf=0x227962 status=0xA0 pak_size=0
TX BD ring with 8 entries at 0x201FB8, tx_count = 0
tx_head = 0x201FD8 (4), head_txp = 0x831BF20 (4)
tx_tail = 0x201FD8 (4), tail_txp = 0x831BF20 (4)
00 pak=0x000000 buf=0x200000 status=0x00 pak_size=0
01 pak=0x000000 buf=0x200000 status=0x00 pak_size=0
02 pak=0x000000 buf=0x200000 status=0x00 pak_size=0
03 pak=0x000000 buf=0x200000 status=0x00 pak_size=0
04 pak=0x000000 buf=0x200000 status=0x00 pak_size=0
05 pak=0x000000 buf=0x200000 status=0x00 pak_size=0
06 pak=0x000000 buf=0x200000 status=0x00 pak_size=0
07 pak=0x000000 buf=0x200000 status=0x20 pak_size=0
TX PD ring with 8 entries at 0x202038, tx_count = 0
tx_head_pd = 0x202838 (4)
tx_tail_pd = 0x202838 (4)
00 status=0x00 bd_index=0x0000 len=0x0000 hdr_len=0x0000
01 status=0x00 bd_index=0x0001 len=0x0000 hdr_len=0x0000
02 status=0x00 bd_index=0x0002 len=0x0000 hdr_len=0x0000
03 status=0x00 bd_index=0x0003 len=0x0000 hdr_len=0x0000
04 status=0x00 bd_index=0x0004 len=0x0000 hdr_len=0x0000
05 status=0x00 bd_index=0x0005 len=0x0000 hdr_len=0x0000
06 status=0x00 bd_index=0x0006 len=0x0000 hdr_len=0x0000
07 status=0x20 bd_index=0x0007 len=0x0000 hdr_len=0x0000
DS fifo full = 0, Rerequests = 0
DS mac msg overruns = 0, DS data overruns = 0
Qualified maps = 348, Qualified syncs = 73
CRC fails = 0, HDR chk fails = 0
Data pdus = 0, Mac msgs = 423
ds_data_bd_base=0x001D40, ds_mac_bd_base=0x001E80
ds_data_dma_ctrl=0x98, ds_mac_dma_ctrl=0xD8
ds_dma_data_index=0x0007, ds_dma_msg_index=0x0000
us_bd_base=0x001FB8, us_pd_base=0x002038
us_dma_ctrl=0x80, us_dma_tx_start=0x00
Global control and status:
irq_pend=0x0008, irq_mask=0x00F7
The following shows an excerpt from the display for the all option:
Router# show controllers cable-modem 0 all
BCM MAC/PHY: Chip id = BCM3300 Revision A (1)
BCM3220 unit 0, idb 0x81068880, ds 0x8106B8A0, regaddr = 0x10100000, reset_mask 0x80
station address 0006.53b6.57bd default station address 0006.53b6.57bd
MAC mcfilter 01E02F00 data mcfilter 00000000
RX data PDU ring with 32 entries at 0x10030F00
rx_head = 0x10030F78 (15), rx_p = 0x8106B8F8 (15)
00 pak=0x810798C0 buf=0x10044F56 status=0x80 pak_size=0
01 pak=0x81079BB4 buf=0x1004575E status=0x80 pak_size=0
Rx: tuner_freq 645000000, symbol_rate 5056000, local_freq 11520000
snr_estimate 345(TenthdB), ber_estimate 0, lock_threshold 23000
QAM in lock, FEC in lock, qam_mode QAM_64 (Annex B)
Tx: tx_freq 27984000, symbol rate 16 (2560000 sym/sec)
power_level: 29.75 dBmV (current)
30 (gain in US AMP units)
5 (BCM3300 attenuation in .4 dB units)
IF AGC=0x2010 (8208) RF AGC=0x3753 (14163)
Combined AGC = 22371 (band = 1)
Estimated Downstream Power: 7.9 dBmV
Note
The show controllers cable-modem 0 all command displays extensive information about the current state of the modem and its MAC-layer and PHY-layer registers and buffers. You need to open a capture buffer on your terminal or Telnet software to log this information before you give this command.
Table 165 describes the significant fields shown by the show controllers cable-modem command. For more information, see the Broadcom documentation for the BCM3300 chip.
Table 165 show controllers cable-modem Field Descriptions
Field
|
Description
|
BCM3300 unit
|
Unit number of this BCM3300 chip.
|
idb
|
Interface description block number.
|
ds
|
Downstream channel.
|
regaddr
|
Indicates the start of the BCM3300 registers.
|
reset_mask
|
Indicates the bit to hit when resetting the chip.
|
station address
|
MAC address of this router's cable interface.
|
default station address
|
Default MAC address assigned by the factory for this router.
|
PLD VERSION
|
PLD version of the BCM3300 chip.
|
MAC State
|
Current MAC state of the router.
|
Prev States
|
Number of states that have previously existed since initialization.
|
MAC mcfilter
|
MAC control filter for MAC messages.
|
data mcfilter
|
MAC control filter for data.
|
DS
|
Downstream Broadcom receiver chip number and ID.
|
US
|
Upstream Broadcom transmitter chip number and ID.
|
Tuner: status
|
Current status of the tuner.
|
Rx: tuner_freq
|
Downstream frequency (in Hz) that the router searched for and found.
|
symbol_rate
|
Downstream frequency in symbols per second.
|
local_freq
|
Frequency on which the transmitter and the tuner communicate.
|
snr_estimate
|
Estimate of signal-to-noise ratio (SNR) in dB multiplied by 1000.
|
ber_estimate
|
Estimate of bit error rate (always 0).
|
lock_threshold
|
Minimum signal-to-noise ratio (SNR) that the router will accept as a valid lock.
|
qam_mode
|
The modulation scheme used in the downstream direction.
|
Tx: tx_freq
|
Upstream frequency sent to the router by the CMTS in the UCD message.
|
power_level
|
Transmit power level as set in the hardware, expressed as a hexadecimal value. The units are unique to the hardware used. Use the show controllers cable-modem mac state command to see the power level in dBmV.
|
symbol_rate
|
Upstream frequency in symbols per second.
|
TFTP server
|
IP address of the TFTP server at the CMTS.
|
TOD server
|
IP address of the time-of-day server at the CMTS.
|
Security server
|
IP address of the security server at the CMTS.
|
Timezone Offset
|
Correction received from the DHCP server to synchronize the router time clock with the CMTS.
|
Config filename
|
Name of the file stored on the cable company's TFTP server that contains operational parameters for the router.
|
buffer size
|
Size in bytes of the BCM3300 message buffers.
|
RX data PDU ring:
|
Indicates the memory location of the beginning of buffer information for the receive data ring.
|
rx_head
|
Indicates current head buffer descriptor.
|
rx_p
|
Indicates current head packet descriptor.
|
RX MAC message ring:
|
Indicates the memory location of the beginning of buffer information for the receive MAC message ring.
|
rx_head_mac
|
Indicates current head buffer descriptor.
|
rx_p_mac
|
Indicates current head packet descriptor.
|
TX BD ring:
|
Indicates the memory location of the beginning of buffer information for the transmit buffer descriptor ring.
|
tx_count
|
If tx_count is 0, or if tx_head and tx_tail are equal and there is no change for a period of time, it means there are packets stuck on the ring. This condition may be caused by the CMTS not giving grants.
|
tx_head
|
Indicates current head transmit packet descriptor.
|
head_txp
|
The next packet descriptor to get used, along with its index.When head_txp and tail_txp are the same, the transmit queue is empty.
|
tx_tail
|
Indicates current tail transmit packet descriptor.
|
tail_txp
|
The next packet descriptor to get sent, along with its index. When head_txp and tail_txp are the same, the transmit queue is empty.
|
TX PD ring:
|
Indicates the memory location of the beginning of buffer information for the transmit packet descriptor ring.
|
tx_head_pd
|
Indicates current head packet descriptor.
|
tx_tail_pd
|
Indicates current tail packet descriptor.
|
ehdr
|
Extended MCNS header.
|
MIB Statistics
|
DS fifo full
|
Number of times the downstream input first-in first-out (FIFO) buffer became full on the router.
|
rerequests
|
Number of times a bandwidth request generated by the router was not responded to by the CMTS.
|
DS mac msg overruns
|
Number of times the router's DMA controller had a downstream MAC message and there were no free MAC message buffer descriptors to accept the message.
|
DS data overruns
|
Number of times the router's DMA controller had downstream data and there were no free data PDU buffer descriptors to accept the data.
|
Qualified maps
|
Number of times a MAP message passed all filtering requirements and was received by the router.
|
Qualified syncs
|
Number of times a timestamp message was received by the router.
|
CRC fails
|
Number of times a MAC message failed a cyclic redundancy check (CRC).
|
HDR chk fails
|
Number of times a MAC header failed its 16-bit CRC check. The MAC header CRC is a 16-bit Header Check Sequence (HCS) field that ensures the integrity of the MAC header even in a collision environment.
|
Data pdus
|
Total number of data protocol data units (PDUs) of all types received by the router.
|
Mac msgs
|
Number of MAC messages received by the router.
|
Valid hdrs
|
Number of valid headers received by the router, including PDU headers, MAC headers, and headers only.
|
Global control and status:
|
Used to reset the BCM3300 chip.
|
interrupts:
|
Hexadecimal values of the pending IRQ interrupt and IRQ mask.
|

Tip
In Cisco IOS Release 12.2(8)T and later releases, you can add a timestamp to show commands using the exec prompt timestamp command in line configuration mode.
Related Commands
Command
|
Description
|
show controllers cable-modem bpkm
|
Displays information about the baseline privacy key management exchange between the router and the CMTS.
|
show controllers cable-modem crypto des
|
Displays information about the DES engine registers.
|
show controllers cable-modem filters
|
Displays the registers in the MAC hardware that are used for filtering received frames.
|
show controllers cable-modem lookup-table
|
Displays the mini-slot lookup table for the cable interface.
|
show controllers cable-modem mac
|
Displays detailed MAC-layer information for the cable interface.
|
show controllers cable-modem phy
|
Displays the contents of the registers used in the downstream physical hardware for the cable interface.
|
show controllers cable-modem tuner
|
Displays the settings for the upstream and downstream tuners used by the cable interface.
|
show controllers cable-modem bpkm
To display information about the Baseline Privacy Interface (BPI) or BPI Plus (BPI+) key management (BPKM) exchange between the router and the CMTS, use the show controllers cable-modem bpkm command in privileged EXEC mode.
Cisco uBR904, Cisco uBR905, Cisco uBR924, and Cisco uBR925 cable access routers, and Cisco CVA122 Cable Voice Adapter
show controllers cable-modem number bpkm
Syntax Description
number
|
Identifies the cable interface (always 0).
|
Defaults
No default behavior or values.
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
11.3(4)NA
|
This command was introduced for the Cisco uBR904 cable access router.
|
12.0(4)XI1
|
Support was added for the Cisco uBR924 cable access router.
|
12.1(3)XL
|
Support was added for the Cisco uBR905 cable access router.
|
12.1(5)XU1
|
Support was added for the Cisco CVA122 Cable Voice Adapter.
|
12.2(2)XA
|
Support was added for the Cisco uBR925 cable access router.
|
12.2(15)CZ
|
Support for DOCSIS 1.1 and BPI+ operation was added for the Cisco uBR905 and Cisco uBR925 cable access routers, and the Cisco CVA122 Cable Voice Adapter.
|
Usage Guidelines
Baseline privacy key management exchanges take place only when both the router and the CMTS are running code images that support Baseline Privacy Interface (BPI) or BPI Plus (BPI+) encryption, and the privacy class of service is enabled via the configuration file that is downloaded to the router. Baseline privacy code images for the router contain k1, k8, or k9 in the code image name.
Examples
The following shows typical output for the show controllers cable-modem bpkm command for DOCSIS 1.0 BPI operation when the CMTS does not have baseline privacy enabled:
Router#
show controllers cable-modem 0 bpkm
CM Baseline Privacy Key Management
configuration (in seconds):
authorization wait time: 10
reauthorization wait time: 10
authorization grace time: 600
authorization rej wait time: 60
kek state: STATE_B_AUTH_WAIT
tek state: No resources assigned
Table 0-166 describes the fields shown in the display.
Table 0-166 show controllers cable-modem bpkm Field Descriptions
Field
|
Description
|
authorization wait time
|
The number of seconds the router waits for a reply after sending the Authorization Request message to the CMTS.
|
reauthorization wait time
|
The number of seconds the router waits for a reply after it has sent an Authorization Request message to the CMTS in response to a reauthorization request or an Authorization Invalid message from the CMTS.
|
authorization grace time
|
The number of seconds before the current authorization is set to expire that the grace timer begins, signaling the router to begin the reauthorization process.
|
operational wait time
|
The number of seconds the Traffic Exchange Key (TEK) state machine waits for a reply from the CMTS after sending its initial Key Request for its SID's keying material.
|
rekey wait time
|
The number of seconds the TEK state machine waits for a replacement key for this Service ID (SID) after the TEK grace timer has expired and the request for a replacement key has been made.
|
tek grace time
|
The number of seconds before the current TEK is set to expire that the TEK grace timer begins, signaling the TEK state machine to request a replacement key.
|
authorization rej wait time
|
Number of seconds the router waits before sending another Authorization Request message to the CMTS after it has received an Authorization Reject message.
|
kek state
|
The current state of the key encryption key that the CMTS uses to encrypt the traffic encryption keys it sends to the router. See Table 0-168 for the possible values.
|
tek state
|
The current state of the traffic encryption key state machine for the specified SID. See Table 0-168 for the possible values.
|
The following shows typical output for the show controllers cable-modem bpkm command for DOCSIS 1.1 BPI+ operation when baseline privacy is enabled:
Router# show controllers cable-modem 0 bpkm
CM Baseline Privacy Key Management
Privacy Version: BPI+ (PLUS)
30819F30 0D06092A 864886F7 0D010101 05000381 8D003081 89028181 00E560B2
4F6777A1 731AF856 CE936615 BF513F15 44CE2D02 95167EAD 139FE25C C1E7D4E5
99B34020 D96608B2 A87C0AA1 C171B265 3E87FF7F F70FD3B1 AE96F0EE B2E75172
6B06F661 EA631817 0D317D6F 22FC733B F150E65F 44AE535A 5FB0532F 14519F3B
80A9D442 05D7B7EF 58A5993C 49BB5028 9A3A980A 36AEDC53 E762FA4D 63020301 01
keks: even 4184D17A0C0AEDA3 odd C07A8454DBAA7F1B
4E0A5108 A8451B24 BAC3A8CA D8DF459F 6D37448D
5D04EEDD 43129682 F7A474EA 4E9F888B 5EC18478
hmac downstream key even:
7B6595D6 75B435FB 2FA7204D 2F203CB1 FBA80950
E15FC10B 7F1BAFE8 6295315F E91FE97C F0DE3A73
configuration (in seconds):
authorization wait time: 5
reauthorization wait time: 30
authorization grace time: 60
authorization rej wait time: 60
kek state: STATE_C_AUTHORIZED
tek state: STATE_D_OPERATIONAL
keys: even 1730E9E1F0B1C4C, odd 23021AE604610E38
ivectors: even 16FB0175256819FD, odd B802057107302F8
Table 0-167 describes the fields shown in the display for BPI+ operation.
Table 0-167 show controllers cable-modem bpkm Field Descriptions (BPI+)
Field
|
Description
|
Privacy Version
|
Whether BPI or BPI+ is being run.
|
public key
|
The Diffie-Hellman public key that the router uses to establish a BPI+ session with the CMTS.
|
keks
|
The odd and even values for the key encryption key (KEK).
|
hmac upstream keys
|
The odd and even values for the hash message authentication code (HMAC) key used in upstream key requests.
|
hmac downstream keys
|
The odd and even values for the HMAC message authentication key used in downstream key replies, key rejects, and invalid TEK messages.
|
authorization wait time
|
The number of seconds the router waits for a reply after sending the Authorization Request message to the CMTS.
|
reauthorization wait time
|
The number of seconds the router waits for a reply after it has sent an Authorization Request message to the CMTS in response to a reauthorization request or an Authorization Invalid message from the CMTS.
|
authorization grace time
|
The number of seconds before the current authorization is set to expire that the grace timer begins, signaling the router to begin the reauthorization process.
|
operational wait time
|
The number of seconds the TEK state machine waits for a reply from the CMTS after sending its initial Key Request for its SID's keying material.
|
rekey wait time
|
The number of seconds the TEK state machine waits for a replacement key for this SID after the TEK grace timer has expired and the request for a replacement key has been made.
|
tek grace time
|
The number of seconds before the current TEK is set to expire that the TEK grace timer begins, signaling the TEK state machine to request a replacement key.
|
authorization rej wait time
|
Number of seconds the router waits before sending another Authorization Request message to the CMTS after it has received an Authorization Reject message.
|
sa map wait time
|
Number of seconds the router waits for a response after sending a Security Association (SA) map request before timing out and resending the request.
|
sa map retries
|
Number of times the router attempts an SA map request before it rejects the attempt to create a new downstream service flow.
|
kek state
|
The current state of the key encryption key that the CMTS uses to encrypt the traffic encryption keys it sends to the router. See Table 0-168 for the possible values.
|
tek state
|
The current state of the traffic encryption key state machine for the specified SID. See Table 0-168 for the possible values.
|
Table 0-168 describes the valid values for the kek state and tek state fields:
Table 0-168 State Values for KEK and TEK State Fields
State
|
Description
|
Key Encryption Key (KEK) States
|
STATE_A_START
|
The router is still completing the DOCSIS provisioning process. If this state persists, it indicates that BPI/BPI+ encryption was not enabled for the router in its DOCSIS configuration file.
|
STATE_B_AUTH_WAIT
|
DOCSIS provisioning has been completed, and the router has sent an authorization request to the CMTS and is waiting for a reply. If this state persists, it indicates that the CMTS has not enabled BPI/BPI+ operations.
|
STATE_C_AUTHORIZED
|
The router has received a valid authorized reply from the CMTS, completing the KEK exchange, and allowing the TEK exchange to begin.
|
STATE_D_REAUTH_WAIT
|
The router sent a reauthorization request and is waiting for the reply from the CMTS. A reauthorization request can be sent if the initial request is rejected, or when existing keys have expired and must be reacquired.
|
STATE_E_AUTH_REJ_WAIT
|
The router has received a nonpermanent authorization reject response from the CMTS and is waiting for the timeout period before sending another request.
|
STATE_F_SILENT
|
The router has received a permanent authorization reject response from the CMTS and has been placed in silent mode, in which it does not pass traffic but does accept SNMP management requests. (Valid only for BPI+ operations.)
|
Traffic Encryption Key (TEK) States
|
STATE_A_START
|
The router is still completing the DOCSIS provisioning process, or is still performing the KEK key exchange. If this state persists, it indicates that KEK authorization failed, or that BPI/BPI+ encryption was not enabled for the router in its DOCSIS configuration file.
|
STATE_B_OP_WAIT
|
The router has successfully completed the KEK key exchange, has sent a key request to the CMTS, and is waiting for a reply.
|
STATE_C_OP_REAUTH_WAIT
|
The router has sent a reauthorization request and is waiting for a reply, or the TEK key has been declared invalid. BPI/BPI+ encryption has not yet begun. If this state persists, it indicates that the TEK key exchange has failed.
|
STATE_D_OPERATIONAL
|
The router has completed the TEK key exchange, and BPI or BPI+ encryption is operational between the router and the CMTS.
|
STATE_E_REKEY_WAIT
|
The existing TEK keys have expired, and the router has requested a key update from the CMTS.
|
STATE_F_REKEY_REAUTH_WAIT
|
The router has requested a key update from the CMTS and is waiting for a reply. BPI/BPI+ encryption can continue using the existing keys until they expire.
|

Tip
In Cisco IOS Release 12.2(8)T and later releases, you can add a timestamp to show commands using the exec prompt timestamp command in line configuration mode.
Related Commands
show controllers cable-modem classifiers
To display the DOCSIS 1.1 classifiers currently in use on the router, use the show controllers cable-modem classifiers command in privileged EXEC mode.
Cisco uBR905 and uBR925 cable access routers, Cisco CVA122 Cable Voice Adapter
show controllers cable-modem number classifiers [classifier-id | summary]
Syntax Description
number
|
Identifies the cable interface (always 0).
|
classifier-id
|
(Optional) Displays information for a specific classifier. The valid range is 1 to 65535.
|
summary
|
(Optional) Displays a brief summary of all classifiers.
|
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
12.2(15)CZ
|
This command was introduced for the Cisco uBR905 and Cisco uBR925 cable access routers, and the Cisco CVA122 Cable Voice Adapter.
|
Usage Guidelines
This command displays the classifiers that are currently defined for both the upstream and downstream. The information shown corresponds to the Quality of Service classifier parameters that are listed in Appendix C of the DOCSIS 1.1 specification.
Examples
The following example shows typical output for both upstream and downstream classifiers on the show controllers cable-modem classifiers command:
Router# show controllers cable-modem 0 classifiers
Upstream Packet Classifiers parameters
Service Flow Reference: 1
Source Mask: 255.255.255.255
Destination Address: 0.0.0.0
Destination Mask: 255.255.255.255
Destination Port Start: 0
Destination Port End: 65535
Destination MAC address: 0:0:0:0:0:0:0:0:0:0:0:0
Source MAC address: 0:0:0:0:0:0
Downstream Packet Classifiers parameters
Service Flow Reference: 6
Source Mask: 255.255.255.255
Destination Address: 0.0.0.0
Destination Mask: 255.255.255.255
Destination Port Start: 0
Destination Port End: 65535
Source MAC address: 0:0:0:0:0:0
Downstream Packet Classifiers parameters
Service Flow Reference: 7
Source Mask: 255.255.255.255
Destination Address: 0.0.0.0
Destination Mask: 255.255.255.255
Destination MAC address: 0:0:0:0:0:0:0:0:0:0:0:0
Source MAC address: 0:0:0:0:0:0
Downstream Packet Classifiers parameters
Service Flow Reference: 8
Source Mask: 255.255.255.255
Destination Address: 0.0.0.0
Destination Mask: 255.255.255.255
Destination Port Start: 0
Destination Port End: 65535
Destination MAC address: 0:0:0:0:0:0:0:0:0:0:0:0
Source MAC address: 0:0:0:0:0:0
The following shows the typical display for the summary option:
Router# show controllers cable-modem 0 classifiers summary
SFID SF Classifier Classifier Rule State
The following shows the detailed information that is displayed for a specific classifier:
Router# show controllers cable-modem 0 classifiers 4
Upstream Packet Classifiers parameters
Service Flow Reference: 1
Source Mask: 255.255.255.255
Destination Address: 6.0.0.1
Destination Mask: 255.255.255.255
Destination Port Start: 0
Destination Port End: 65535
Destination MAC address: 0:0:0:0:0:0:0:0:0:0:0:0
Source MAC address: 0:0:0:0:0:0
Table 0-169 describes the fields shown in the display.
Table 0-169 show controllers cable-modem classifiers Field Descriptions
Field
|
Description
|
Classifier Reference, Classifier Ref
|
The reference ID to uniquely identify the classifier in the DOCSIS configuration file and MAC management messages.
|
Classfier ID
|
The ID used to uniquely identify the classifier in each service flow.
|
Service Flow Reference, SF Ref
|
The reference ID that uniquely identifies the service flow.
|
Service Flow ID, SFID
|
The ID that uniquely identifies the service flow.
|
Rule Priority
|
The priority assigned to the classifier, 0 to 255, with a higher value indicating a higher priority.
|
Activation State, State
|
Whether the classifier is activate (1) or inactive (0).
|
Dynsrv Change Action
|
The action taken for this classifier in dynamic service change messages:
• 0 = Add the classifier.
• 1 = Replace the classifier.
• 2 = Delete the classifier.
|
SID
|
The service ID (SID) associated with this classifier.
|
IP Classifiers
|
ToS
|
The matching Type of Service (Tos) low byte, high byte, and masking value.
|
Protocol
|
The matching IP protocol type, as given in RFC 1700. A value of 256 matches any IP protocol, and a value of 257 matches TCP and UDP traffic.
|
Source Address and Source Mask
|
The matching IP source address, where the source address is ANDed with the source mask to specify the valid range of source addresses.
|
Destination Address and Destination Mask
|
The matching IP destination address, where the destination address is ANDed with the destination mask to specify the valid range of destination addresses.
|
Source Port Start and Source Port End
|
The low end and high end matching source TCP/UDP port values.
|
Destination Port Start and Destination Port End
|
The low end and high end matching destination TCP/UDP port values.
|
LLC Classifiers
|
Destination MAC address
|
The six-byte matching MAC destination address and six-byte mask. The first six bytes (address) are ANDed with the last six bytes (mask) to specify the valid range of MAC destination addresses.
|
Source MAC address
|
The six-byte matching MAC source address.
|
Ether Type
|
The one-byte Ethernet protocol type and two-byte matching layer 3 protocol ID in the Ether frame. The first byte can have the following values, which control the meaning of the following two bytes:
• 0x00 = no matching Ethernet protocol is required.
• 0x01 = Ethertype DIX or SNAP frames that match the two-byte packet type.
• 0x02 = non-SNAP IEEE 802.2 encapsulation frames that match the eight-bit packet type.
• 0x03 = MAC Management Messages with a type field between the two bytes, except that RNG_RSP, REG_REQ, REG_RSP, and REG_ACK frames are always matched.
• 0x04 = matches all data PDU packets, regardless of the two-byte protocol ID.
|
Related Commands
Command
|
Description
|
show controllers cable-modem phs
|
Displays the currently defined parameters for Payload Header Suppression (PHS) for the router.
|
show controllers cable-modem reg-rsp
|
Displays the information contained in the registration response (REG-RSP) message that the CMTS sent the router.
|
show controllers cable-modem service-flows
|
Displays the parameters for each of the service flows defined on the router's upstream and downstream.
|
show controllers cable-modem cmcert
To display the router's public key X.509 certificate, use the show controllers cable-modem cmcert command in privileged EXEC mode.
Cisco uBR905 and Cisco uBR925 cable access routers, and Cisco CVA122 Cable Voice Adapter
show controllers cable-modem number cmcert
Syntax Description
number
|
Identifies the cable interface (always 0).
|
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
12.2(15)CZ
|
This command was introduced on the Cisco uBR905 and Cisco uBR925 cable access routers, and the Cisco CVA122 Cable Voice Adapter.
|
Usage Guidelines
This command displays the router's X.509 DOCSIS cable-modem certificate, which uniquely identifies the router during the BPI+ negotiation process. This command shows the individual X.509 components of the certificate, starting with the DOCSIS restricted X.501 Distinguished Name and ending with the 1024-bit public key.
Tip
This command displays the certificate that is burned into the router at the factory and is not normally changed. The show controllers cable-modem manuf-cert command displays the manufacturer's certificate that is incorporated into the Cisco IOS image that the router is currently running. Upgrading the Cisco IOS image could also update the manufacturer's certificate.
Examples
The following example shows the starting lines and ending lines of typical output for the show controllers cable-modem cmcert command:
Router# show controllers cable-modem 0 cmcert
INT(10): 62 E0 07 47 00 00 00 00 FA 62
OID(9):SHA Signature 1.2.840.113549.1.1.5
OID(3):Organization 2.5.4.10
1w3d: PRT(13):Cisco Systems
OID(3):Organization Unit 2.5.4.11
OID(3):Common Name 2.5.4.3
1w3d: PRT(49):Cisco Cable Modem Root Certificate Authority R
1w3d: C7 9A A8 5C BD F3 30 5A E5 B6 66 1F 1E 3A C9 2E
1w3d: 04 5D B5 57 3E 75 ED A3 0A AB B6 5D 73 87 E9 BE
1w3d: ED 1A 68 7B B3 08 DA 0F E9 AA 05 28 E2 61 1B 3D
Note
You must manually enter a return to redisplay the router prompt after the certificate has been displayed.
Related Commands
Command
|
Description
|
show controllers cable-modem manuf-cert
|
Displays the manufacturer's X.509 certificate for the router.
|
show controllers cable-modem crypto des
To display information about the Data Encryption Standard (DES) engine registers, use the show controllers cable-modem des command in privileged EXEC mode.
Cisco uBR904, uBR905, uBR924, uBR925 cable access routers, Cisco CVA122 Cable Voice Adapter
show controllers cable-modem number crypto des
Syntax Description
number
|
Identifies the cable interface (always 0).
|
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
11.3(4)NA
|
This command was introduced, as show controllers cable-modem des, for the Cisco uBR904 cable access router.
|
12.0(4)XI1
|
Support was added for the Cisco uBR924 cable access router.
|
12.1(3)XL
|
Support was added for the Cisco uBR905 cable access router.
|
12.1(5)XU1
|
Support was added for the Cisco CVA122 Cable Voice Adapter.
|
12.2(2)XA
|
Support was added for the Cisco uBR925 cable access router.
|
12.2(X)BC
|
This command was renamed to show controllers cable-modem crypto des.
|
Examples
The following shows typical output for the show controllers cable-modem crypto des command.
Router#
show controllers cable-modem 0 crypto des
sid_1=0x0000, sid_2=0x0000, sid_3=0x0000, sid_4=0x0000
ds_des_sid_enable=0x80, ds_des_ctrl=0x2E
ds_unencrypted_length=0x0C
pb_req_bytes_to_minislots=0x10
us_des_ctrl=0x00, us_des_sid_1= 0x1234
ds_unencrypted_length=0x0C
Table 0-170 describes the significant fields shown in the display. For more information, see the Broadcom documentation for the BCM3300 chip.
Table 0-170 show controllers cable-modem crypto des Field Descriptions
Field
|
Description
|
ds_des_key_table
|
Displays a table showing the downstream DES keys.
|
ds_des_cbc_iv_table
|
Displays a table showing the downstream DES Cipher Block Chaining (CBC) mode information.
|
ds_des_sid_table
|
Displays a table showing the SID values to be enabled for DES encryption.
|
ds_des_sid_enable
|
Identifies which SID entries in the SID table are enabled for encryption. In the above example, none of the entries are enabled for encryption.
|
ds_des_ctrl
|
Control register that identifies the operating mode of the downstream DES engine.
|
ds_des_sv
|
Displays the DES security version register; the range of the version field in the Baseline Privacy Interface (BPI) extended headers that will be accepted by the hardware. High byte is upper limit, low byte is lower limit. The router will accept versions 0 to 15.
|
ds_unencrypted_length
|
Specifies the number of bytes that will be unencrypted at the beginning of the MAC frame. 0x0C means the first 12 bytes are not encrypted, which is what the DOCSIS Baseline Privacy specification calls for.
|
us_des_key_table
|
Displays a table showing upstream DES keys.
|
us_des_cbc_iv_table
|
Displays a table of upstream DES CBC mode information.
|
us_des_ctrl
|
Control register that controls the operating mode of the upstream DES engine. The value 0x24 means that the upstream is configured to enable decryption and to use CBC mode.
|

Tip
In Cisco IOS Release 12.2(8)T and later releases, you can add a timestamp to show commands using the exec prompt timestamp command in line configuration mode.
Related Commands
show controllers cable-modem filters
To display the registers in the MAC hardware that are used for filtering received frames, use the show controllers cable-modem filters command in privileged EXEC mode.
Cisco uBR904, uBR905, uBR924, uBR925 cable access routers, Cisco CVA122 Cable Voice Adapter
show controllers cable-modem number filters
Syntax Description
number
|
Identifies the cable interface (always 0).
|
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
11.3(4)NA
|
This command was introduced for the Cisco uBR904 cable access router.
|
12.0(4)XI1
|
Support was added for the Cisco uBR924 cable access router.
|
12.1(3)XL
|
Support was added for the Cisco uBR905 cable access router.
|
12.1(5)XU1
|
Support was added for the Cisco CVA122 Cable Voice Adapter.
|
12.2(2)XA
|
Support was added for the Cisco uBR925 cable access router.
|
Usage Guidelines
Some of the filtering parameters are MAC hardware addresses, Service IDs (SIDs), and upstream channel IDs.
Examples
The following shows typical MAC and SID filter information displayed by the show controllers cable-modem filters command:
Router# show controllers cable-modem 0 filters
downstream mac message processing:
filter_1=0010.7b43.aa01, filter_2=0000.0000.0000
filter_3=0000.0000.0000, filter_4=0000.0000.0000
ds_mac_da_filter_ctrl=0x71, ds_mac_msg_sof=0x0000
sid_1=0x0000, sid_2=0x0000, sid_3=0x0000, sid_4=0x0000
ds_mac_filter_ctrl=0x00, us_channel_id=0x0000
ds_pid=0x0000, mac_msg_proto_ver=FF 00
downstream data processing:
filter_1 0010.7b43.aa01, filter_2 0000.0000.0000
filter_3 0000.0000.0000, filter_4 0000.0000.0000
ds_data_da_filter_ctrl=0x61, ds_pdu_sof=0xDEAD
us_ctrl_status=0x04, Minislots per request=0x01
map[0]=0 map[1]=0 map[2]=0 map[3]=0
bytes_per_minislot_exp=0x04
us_map_parser_minislot_adv=0x03, ticks_per_minislot=0x08, maint_xmit=0x0001
sid_1=0x0000, sid_2=0x0000, sid_3=0x0000, sid_4=0x0000
max_re_req=0x0010, rang_fifo=0x00
Table 0-171 describes the fields shown in the display. For more information, see the Broadcom documentation for the BCM3300 chip.
Table 0-171 show controllers cable-modem filters Field Descriptions
Field
|
Description
|
ds_mac_da_filters
|
MAC address of the cable interface and the MAC address of any Ethernet MAC it is bridging.
|
ds_mac_da_filter_ctrl
|
Downstream MAC filter control for data.
|
ds_mac_msg_sof
|
Downstream MAC message start of frame.
|
ds_mac_da_mc
|
Downstream MAC control filter for data.
|
map_parser_sids
|
Service IDs used for upstream bandwidth allocation.
|
ds_mac_filter_ctrl
|
Downstream MAC filter control for MAC messages.
|
us_channel_id
|
Upstream channel ID.
|
ds_pid
|
Downstream packet ID.
|
mac_msg_proto_ver
|
Version of the MAC management protocol in use.
|
reg_rang_req_sid
|
Service ID (SID) field of the ranging request message.
|
ds_data_da_filter_table
|
Downstream data processing filter table.
|
ds_data_da_filter_ctrl
|
Downstream data processing filter control.
|
ds_pdu_sof
|
Downstream PDU start of frame.
|
ds_data_da_mc
|
Downstream data processing MAC control.
|
us_ctrl_status
|
Upstream control status.
|
Minislots per request
|
Length of each registration request in mini-slots.
|
burst_maps
|
Maps the burst profiles saved in the BCM3037 registers to interval usage codes (IUCs).
|
bytes_per_minislot_exp
|
Number of bytes per expansion mini-slot.
|
ticks_per_minislot
|
Number of time ticks (6.25-microsecond intervals) in each upstream mini-slot.
|
maint_xmit
|
Number of initial maintenance transmit opportunities.
|
us_sid_table
|
Upstream service ID table.
|
max_re_req
|
Maximum number of registration re-requests allowed.
|
rang_fifo
|
Number of ranging requests that can be held in the first-in-first-out (FIFO) buffer.
|

Tip
In Cisco IOS Release 12.2(8)T and later releases, you can add a timestamp to show commands using the exec prompt timestamp command in line configuration mode.
Related Commands
show controllers cable-modem lookup-table
To display the mini-slot lookup table for the router's cable interface, use the show controllers cable-modem lookup-table command in privileged EXEC mode.
Cisco uBR904, uBR905, uBR924, uBR925 cable access routers, Cisco CVA122 Cable Voice Adapter
show controllers cable-modem number lookup-table
Syntax Description
number
|
Identifies the cable interface (always 0).
|
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
11.3(4)NA
|
This command was introduced for the Cisco uBR904 cable access router.
|
12.0(4)XI1
|
Support was added for the Cisco uBR924 cable access router.
|
12.1(3)XL
|
Support was added for the Cisco uBR905 cable access router.
|
12.1(5)XU1
|
Support was added for the Cisco CVA122 Cable Voice Adapter.
|
12.2(2)XA
|
Support was added for the Cisco uBR925 cable access router.
|
Usage Guidelines
This command displays the details of the lookup table. The driver uses this table to convert the size of the packets that the router wants to transmit into a bandwidth request to the CMTS in mini-slots. The contents of this table are affected by the upstream symbol rate that is negotiated between the CMTS and the cable access router.
Use this table to look up the packet size and determine how many mini-slots will be needed.
Examples
The following shows a typical mini-slot lookup table as displayed by the show controllers cable-modem lookup-table command:
Router#
show controllers cable-modem 0 lookup-table
Max Burst Size (minislots) = 0x6
Max Burst Length (bytes) = 0x4B
PHY Overhead Lookup Table:
000: 01 06 06 06 06 06 06 06 06 06 06 06 06 06 06 06
010: 06 06 06 06 06 06 06 06 06 06 06 06 06 06 06 06
020: 06 06 06 06 06 06 06 06 06 06 06 06 06 06 06 06
030: 06 06 06 06 06 06 06 06 06 06 06 06 06 06 06 06
040: 06 06 06 06 06 06 06 06 06 06 06 06 10 10 10 10
050: 10 10 10 10 10 10 10 10 10 10 10 10 10 10 10 10
060: 10 10 10 10 10 10 10 10 10 10 10 10 10 10 10 10
070: 10 10 10 10 10 10 10 10 10 10 10 10 10 10 10 10
080: 10 10 10 10 10 10 10 10 10 10 10 10 10 10 10 10
090: 10 10 10 10 10 10 10 10 10 10 10 10 10 10 10 10
0A0: 10 10 10 10 10 10 10 10 10 10 10 10 10 10 10 10
0B0: 10 10 10 10 10 10 10 10 10 10 10 10 10 10 10 10
0C0: 10 10 10 10 10 10 10 10 10 10 10 10 10 10 10 10
0D0: 10 10 10 10 10 10 10 10 10 10 10 10 10 1F 1F 1F
0E0: 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F
0F0: 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F
100: 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F
110: 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F
120: 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F
130: 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F
140: 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F
150: 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F
160: 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F
170: 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F
180: 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F
190: 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F
1A0: 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F 1F
1B0: 1F 1F 1F 1F 1F 1F 1F 1F 1F 2D 2D 2D 2D 2D 2D 2D
1C0: 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D
1D0: 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D
1E0: 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D
1F0: 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D
200: 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D
210: 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D
220: 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D
230: 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D
240: 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D
250: 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D
260: 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D
270: 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D
280: 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D 2D
290: 2D 2D 2D 2D 2D 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C
2A0: 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C
2B0: 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C
2C0: 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C
2D0: 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C
2E0: 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C
2F0: 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C
300: 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C
310: 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C
320: 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C
330: 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C
340: 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C
350: 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C
360: 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C 3C
370: 3C 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B
380: 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B
390: 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B
3A0: 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B
3B0: 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B
3C0: 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B
3D0: 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B
3E0: 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B
3F0: 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B
400: 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B
410: 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B
420: 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B
430: 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B
440: 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 4B 5A 5A 5A
450: 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A
460: 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A
470: 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A
480: 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A
490: 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A
4A0: 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A
4B0: 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A
4C0: 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A
4D0: 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A
4E0: 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A
4F0: 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A
500: 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A
510: 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A 5A
520: 5A 5A 5A 5A 5A 5A 5A 5A 5A 68 68 68 68 68 68 68
530: 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68
540: 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68
550: 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68
560: 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68
570: 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68
580: 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68
590: 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68
5A0: 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68
5B0: 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68
5C0: 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68
5D0: 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68
5E0: 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68
5F0: 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68 68
600: 68 68 68 68 68 77 77 77 77 77 77 77 77 77 77 77
610: 77 77 77 77 77 77 77 77 77 77 77 77 77 77 77 77
620: 77 77 77 77 77 77 77 77 77 77 77 77 77 77 77 77
630: 77 77 77 77 77 77 77 77 77 77 77 77 77 77 77 77
PHY Reverse Lookup Table:
00: 0000 0000 0000 0000 0000 0000 004B 0000
08: 0000 0000 0000 0000 0000 0000 0000 0000
10: 00DC 00DC 00DC 00DC 00DC 00DC 00DC 00DC
18: 00DC 00DC 00DC 00DC 00DC 00DC 00DC 01B8
20: 01B8 01B8 01B8 01B8 01B8 01B8 01B8 01B8
28: 01B8 01B8 01B8 01B8 01B8 0294 0294 0294
30: 0294 0294 0294 0294 0294 0294 0294 0294
38: 0294 0294 0294 0294 0370 0370 0370 0370
40: 0370 0370 0370 0370 0370 0370 0370 0370
48: 0370 0370 0370 044C 044C 044C 044C 044C
50: 044C 044C 044C 044C 044C 044C 044C 044C
58: 044C 044C 0528 0528 0528 0528 0528 0528
60: 0528 0528 0528 0528 0528 0528 0528 0528
68: 0604 0604 0604 0604 0604 0604 0604 0604
70: 0604 0604 0604 0604 0604 0604 0604 06E0
78: 06E0 06E0 06E0 06E0 06E0 06E0 06E0 06E0
80: 06E0 06E0 06E0 06E0 06E0 06E0 07BC 07BC
88: 07BC 07BC 07BC 07BC 07BC 07BC 07BC 07BC
90: 07BC 07BC 07BC 07BC 07BC 0898 0898 0898
98: 0898 0898 0898 0898 0898 0898 0898 0898
A0: 0898 0898 0898 0974 0974 0974 0974 0974
A8: 0974 0974 0974 0974 0974 0974 0974 0974
B0: 0974 0974 0A50 0A50 0A50 0A50 0A50 0A50
B8: 0A50 0A50 0A50 0A50 0A50 0A50 0A50 0A50
C0: 0A50 0B2C 0B2C 0B2C 0B2C 0B2C 0B2C 0B2C
C8: 0B2C 0B2C 0B2C 0B2C 0B2C 0B2C 0B2C 0B2C
D0: 0C08 0C08 0C08 0C08 0C08 0C08 0C08 0C08
D8: 0C08 0C08 0C08 0C08 0C08 0C08 0CE4 0CE4
E0: 0CE4 0CE4 0CE4 0CE4 0CE4 0CE4 0CE4 0CE4
E8: 0CE4 0CE4 0CE4 0CE4 0CE4 0DC0 0DC0 0DC0
F0: 0DC0 0DC0 0DC0 0DC0 0DC0 0DC0 0DC0 0DC0
F8: 0DC0 0DC0 0DC0 0DC0 0E9C 0E9C 0E9C 0E9C
Tip
In Cisco IOS Release 12.2(8)T and later releases, you can add a timestamp to show commands using the exec prompt timestamp command in line configuration mode.
Related Commands
show controllers cable-modem mac
To display detailed MAC-layer information for the router's cable interface, use the show controllers cable-modem mac command in privileged EXEC mode.
Cisco uBR904, uBR905, uBR924, uBR925 cable access routers, Cisco CVA122 Cable Voice Adapter
show controllers cable-modem number mac {errors | hardware | log | resets | state}
Syntax Description
number
|
Identifies the cable interface (always 0).
|
errors
|
Displays a log of the error events that are reported to SNMP. This keyword enables you to look at the error events without accessing a MIB.
|
hardware
|
Displays all MAC hardware registers.
|
log
|
Displays a history of MAC log messages, up to 1023 entries. This is the same output that is displayed when using the debug cable-modem mac log command.
|
resets
|
Extracts all of the reset causes out of the MAC log file and summarizes them in a mini report.
|
state
|
Displays a summary of the MAC state.
|
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
11.3(4)NA
|
This command was introduced for the Cisco uBR904 cable access router.
|
12.0(4)XI1
|
Support was added for the Cisco uBR924 cable access router.
|
12.1(3)XL
|
Support was added for the Cisco uBR905 cable access router.
|
12.1(5)XU1
|
Support was added for the Cisco CVA122 Cable Voice Adapter.
|
12.2(2)XA
|
Support was added for the Cisco uBR925 cable access router.
|
12.2(15)CZ
|
Support for DOCSIS 1.1 and BPI+ operation was added to the state option for the Cisco uBR905 and Cisco uBR925 cable access routers, and the Cisco CVA122 Cable Voice Adapter.
|
Usage Guidelines
MAC log messages are written to a circular log file even when debugging is not turned on. These messages include timestamps, events, and information pertinent to these events. Use the show controllers cable-modem mac log command to view MAC log messages.
If the router interface fails to come up or resets periodically, the MAC log will capture what happened. For example, if an address is not obtained from the DHCP server, an error is logged, initialization starts over, and the router scans for a downstream frequency.
The most useful keywords for troubleshooting a router are log, errors, and resets. See the following examples for typical outputs for these options.
Examples
The following shows a typical display of the MAC log file for a cable interface that has successfully registered with the CMTS:
Router# show controllers cable-modem 0 mac log
00:14:24: 864.124 CMAC_LOG_DRIVER_INIT_IDB_RESET 0x080B7430
00:14:24: 864.128 CMAC_LOG_LINK_DOWN
00:14:24: 864.132 CMAC_LOG_RESET_FROM_DRIVER
00:14:24: 864.134 CMAC_LOG_STATE_CHANGE wait_for_link_up_state
00:14:24: 864.138 CMAC_LOG_LINK_UP
00:14:24: 864.142 CMAC_LOG_STATE_CHANGE ds_channel_scanning_state
00:14:24: 864.270 CMAC_LOG_WILL_SEARCH_DS_FREQUENCY_BAND
81/453000000/855000000/6000000
00:14:24: 864.276 CMAC_LOG_WILL_SEARCH_DS_FREQUENCY_BAND
82/93000000/105000000/6000000
00:14:24: 864.280 CMAC_LOG_WILL_SEARCH_DS_FREQUENCY_BAND
83/111025000/117025000/6000000
00:14:24: 864.286 CMAC_LOG_WILL_SEARCH_DS_FREQUENCY_BAND
84/231012500/327012500/6000000
00:14:24: 864.290 CMAC_LOG_WILL_SEARCH_DS_FREQUENCY_BAND
85/333025000/333025000/6000000
00:14:24: 864.294 CMAC_LOG_WILL_SEARCH_DS_FREQUENCY_BAND
86/339012500/399012500/6000000
00:14:24: 864.300 CMAC_LOG_WILL_SEARCH_DS_FREQUENCY_BAND
87/405000000/447000000/6000000
00:14:24: 864.304 CMAC_LOG_WILL_SEARCH_DS_FREQUENCY_BAND
88/123012500/129012500/6000000
00:14:24: 864.310 CMAC_LOG_WILL_SEARCH_DS_FREQUENCY_BAND
89/135012500/135012500/6000000
00:14:24: 864.314 CMAC_LOG_WILL_SEARCH_DS_FREQUENCY_BAND
90/141000000/171000000/6000000
00:14:24: 864.320 CMAC_LOG_WILL_SEARCH_DS_FREQUENCY_BAND
91/219000000/225000000/6000000
00:14:24: 864.324 CMAC_LOG_WILL_SEARCH_DS_FREQUENCY_BAND
92/177000000/213000000/6000000
00:14:24: 864.330 CMAC_LOG_WILL_SEARCH_DS_FREQUENCY_BAND
93/55752700/67753300/6000300
00:14:24: 864.334 CMAC_LOG_WILL_SEARCH_DS_FREQUENCY_BAND
94/79753900/85754200/6000300
00:14:24: 864.340 CMAC_LOG_WILL_SEARCH_DS_FREQUENCY_BAND
95/175758700/211760500/6000300
00:14:24: 864.344 CMAC_LOG_WILL_SEARCH_DS_FREQUENCY_BAND
96/121756000/169758400/6000300
00:14:24: 864.348 CMAC_LOG_WILL_SEARCH_DS_FREQUENCY_BAND
97/217760800/397769800/6000300
00:14:24: 864.354 CMAC_LOG_WILL_SEARCH_DS_FREQUENCY_BAND
98/73753600/115755700/6000300
00:14:24: 864.358 CMAC_LOG_WILL_SEARCH_DS_FREQUENCY_BAND
99/403770100/997799800/6000300
00:14:24: 864.364 CMAC_LOG_WILL_SEARCH_SAVED_DS_FREQUENCY 213000000
00:14:25: 865.450 CMAC_LOG_UCD_MSG_RCVD 1
00:14:25: %LINK-3-UPDOWN: Interface cable-modem0, changed state to up
00:14:26: 866.200 CMAC_LOG_DS_64QAM_LOCK_ACQUIRED 213000000
00:14:26: 866.204 CMAC_LOG_DS_CHANNEL_SCAN_COMPLETED
00:14:26: 866.206 CMAC_LOG_STATE_CHANGE wait_ucd_state
00:14:26: %LINEPROTO-5-UPDOWN: Line protocol on Interface cable-modem0, changed state to
down
00:14:27: 867.456 CMAC_LOG_UCD_MSG_RCVD 1
00:14:29: 869.470 CMAC_LOG_UCD_MSG_RCVD 1
00:14:29: 869.472 CMAC_LOG_ALL_UCDS_FOUND
00:14:29: 869.476 CMAC_LOG_STATE_CHANGE wait_map_state
00:14:29: 869.480 CMAC_LOG_UCD_NEW_US_FREQUENCY 20000000
00:14:29: 869.484 CMAC_LOG_SLOT_SIZE_CHANGED 8
00:14:29: 869.564 CMAC_LOG_FOUND_US_CHANNEL 1
00:14:31: 871.484 CMAC_LOG_UCD_MSG_RCVD 1
00:14:31: 871.692 CMAC_LOG_MAP_MSG_RCVD
00:14:31: 871.694 CMAC_LOG_INITIAL_RANGING_MINISLOTS 40
00:14:31: 871.696 CMAC_LOG_STATE_CHANGE ranging_1_state
00:14:31: 871.700 CMAC_LOG_RANGING_OFFSET_SET_TO 9610
00:14:31: 871.704 CMAC_LOG_POWER_LEVEL_IS 32.0 dBmV (commanded)
00:14:31: 871.708 CMAC_LOG_STARTING_RANGING
00:14:31: 871.710 CMAC_LOG_RANGING_BACKOFF_SET 0
00:14:31: 871.714 CMAC_LOG_RNG_REQ_QUEUED 0
00:14:32: 872.208 CMAC_LOG_RNG_REQ_TRANSMITTED
00:14:32: 872.216 CMAC_LOG_RNG_RSP_MSG_RCVD
00:14:32: 872.218 CMAC_LOG_RNG_RSP_SID_ASSIGNED 16
00:14:32: 872.222 CMAC_LOG_ADJUST_RANGING_OFFSET 2853
00:14:32: 872.224 CMAC_LOG_RANGING_OFFSET_SET_TO 12463
00:14:32: 872.228 CMAC_LOG_ADJUST_TX_POWER 8
00:14:32: 872.230 CMAC_LOG_POWER_LEVEL_IS 34.0 dBmV (commanded)
00:14:32: 872.234 CMAC_LOG_STATE_CHANGE ranging_2_state
00:14:32: 872.238 CMAC_LOG_RNG_REQ_QUEUED 16
00:14:32: 872.848 CMAC_LOG_RNG_REQ_TRANSMITTED
00:14:32: 872.852 CMAC_LOG_RNG_RSP_MSG_RCVD
00:14:32: 872.856 CMAC_LOG_RANGING_SUCCESS
00:14:32: 872.874 CMAC_LOG_STATE_CHANGE dhcp_state
00:14:33: 873.386 CMAC_LOG_DHCP_ASSIGNED_IP_ADDRESS 188.188.1.62
00:14:33: 873.388 CMAC_LOG_DHCP_TFTP_SERVER_ADDRESS 4.0.0.32
00:14:33: 873.392 CMAC_LOG_DHCP_TOD_SERVER_ADDRESS 4.0.0.32
00:14:33: 873.396 CMAC_LOG_DHCP_SET_GATEWAY_ADDRESS
00:14:33: 873.398 CMAC_LOG_DHCP_TZ_OFFSET 60
00:14:33: 873.402 CMAC_LOG_DHCP_CONFIG_FILE_NAME platinum.cm
00:14:33: 873.406 CMAC_LOG_DHCP_ERROR_ACQUIRING_SEC_SVR_ADDR
00:14:33: 873.410 CMAC_LOG_DHCP_COMPLETE
00:14:33: 873.536 CMAC_LOG_STATE_CHANGE establish_tod_state
00:14:33: 873.546 CMAC_LOG_TOD_REQUEST_SENT
00:14:33: 873.572 CMAC_LOG_TOD_REPLY_RECEIVED 3140961992
00:14:33: 873.578 CMAC_LOG_TOD_COMPLETE
00:14:33: 873.582 CMAC_LOG_STATE_CHANGE
security_association_state
00:14:33: 873.584 CMAC_LOG_SECURITY_BYPASSED
00:14:33: 873.588 CMAC_LOG_STATE_CHANGE configuration_file_state
00:14:33: 873.592 CMAC_LOG_LOADING_CONFIG_FILE platinum.cm
00:14:34: %LINEPROTO-5-UPDOWN: Line protocol on Interface cable-modem0, changed state to
up
00:14:34: 874.728 CMAC_LOG_CONFIG_FILE_PROCESS_COMPLETE
00:14:34: 874.730 CMAC_LOG_STATE_CHANGE registration_state
00:14:34: 874.734 CMAC_LOG_REG_REQ_MSG_QUEUED
00:14:34: 874.744 CMAC_LOG_REG_REQ_TRANSMITTED
00:14:34: 874.754 CMAC_LOG_REG_RSP_MSG_RCVD
00:14:34: 874.756 CMAC_LOG_COS_ASSIGNED_SID 1/16
00:14:34: 874.760 CMAC_LOG_RNG_REQ_QUEUED 16
00:14:34: 874.768 CMAC_LOG_REGISTRATION_OK
:14:34: 874.770 CMAC_LOG_REG_RSP_ACK_MSG_QUEUED 0
00:14:34: 874.774 CMAC_LOG_STATE_CHANGE establish_privacy_state
00:14:34: 874.778 CMAC_LOG_PRIVACY_NOT_CONFIGURED
00:14:34: 874.780 CMAC_LOG_STATE_CHANGE maintenance_state
00:14:34: 874.784 CMAC_LOG_REG_RSP_ACK_MESSAGE_EVENT
00:14:34: 874.788 CMAC_LOG_REG_RSP_ACK_MSG_SENT
The following example gives the typical error messages that appear in the MAC log when the DHCP server cannot not be reached:
Router# show controllers cable-modem 0 mac log
00:14:32: 872.874 CMAC_LOG_STATE_CHANGE dhcp_state
00:14:33: 873.386 CMAC_LOG_RNG_REQ_TRANSMITTED
00:14:33: 873.388 CMAC_LOG_RNG_RSP_MSG_RCVD
00:14:33: 873.386 CMAC_LOG_RNG_REQ_TRANSMITTED
00:14:33: 873.392 CMAC_LOG_RNG_RSP_MSG_RCVD
00:14:33: 873.396 CMAC_LOG_WATCHDOG_TIMER
00:14:33: 873.398 CMAC_LOG_RESET_DHCP_WATCHDOG_EXPIRED
00:14:33: 873.402 CMAC_LOG_STATE_CHANGE reset_interface_state
00:14:33: 873.406 CMAC_LOG_DHCP_PROCESS_KILLED
In this situation, use the MAC error display also contains information indicating that the DHCP server could not be reached:
Router# show controllers cable-modem 0 mac errors
497989.804 D01.0 Discover sent no Offer received. No available DHCP Server.
498024.046 D01.0 Discover sent no Offer received. No available DHCP Server.
498058.284 D01.0 Discover sent no Offer received. No available DHCP Server.
The following is a typical display of the MAC error log information, which is the same information that is also available using SNMP:
Router# show controllers cable-modem 0 mac errors
74373.574 R02.0 No Ranging Response received. T3 time-out.
74374.660 R02.0 No Ranging Response received. T3 time-out.
74375.508 R02.0 No Ranging Response received. T3 time-out.
74375.748 R02.0 No Ranging Response received. T3 time-out.
74375.748 R03.0 Ranging Request Retries exhausted.
74376.112 R02.0 No Ranging Response received. T3 time-out.
74376.354 R02.0 No Ranging Response received. T3 time-out.
74376.778 R02.0 No Ranging Response received. T3 time-out.
74377.442 R02.0 No Ranging Response received. T3 time-out.
This output indicates that the router acquired a downstream lock, successfully read a UCD, and successfully read a MAP. However, it was unable to communicate with the CMTS after ranging through all upstream transmit power levels. The router will try to communicate with the CMTS 16 times, and if cannot receive a response from the CMTS, it will reset the cable interface to try to find a better downstream frequency.
The show controllers cable-modem 0 mac resets command shows only the entries in the MAC log that begin with the field
. These fields provide you with a summary of the most recent reasons why the cable interface was reset.
Reset messages and brief explanations are included in the following examples. However, the reset messages do not commonly occur.
The following example shows the errors that are logged when the configuration file downloaded from the TFTP server could not be read, typically because the file might not exist, or because the file might have incorrect permissions.
Router# show controllers cable-modem 0 mac resets
62526.114 CMAC_LOG_RESET_CONFIG_FILE_READ_FAILED
62564.368 CMAC_LOG_RESET_T4_EXPIRED
62677.178 CMAC_LOG_RESET_CONFIG_FILE_READ_FAILED
62717.462 CMAC_LOG_RESET_CONFIG_FILE_READ_FAILED
62757.746 CMAC_LOG_RESET_CONFIG_FILE_READ_FAILED
62796.000 CMAC_LOG_RESET_T4_EXPIRED
62908.808 CMAC_LOG_RESET_CONFIG_FILE_READ_FAILED
62949.092 CMAC_LOG_RESET_CONFIG_FILE_READ_FAILED
62989.380 CMAC_LOG_RESET_CONFIG_FILE_READ_FAILED
63029.662 CMAC_LOG_RESET_CONFIG_FILE_READ_FAILED
63069.944 CMAC_LOG_RESET_CONFIG_FILE_READ_FAILED
63110.228 CMAC_LOG_RESET_CONFIG_FILE_READ_FAILED
63148.484 CMAC_LOG_RESET_T4_EXPIRED
63261.296 CMAC_LOG_RESET_CONFIG_FILE_READ_FAILED
The following example shows that the DHCP server could not be reached, or that it took too long to respond.
Router# show controllers cable-modem 0 mac resets
497989.804 CMAC_LOG_RESET_DHCP_WATCHDOG_EXPIRED
498024.046 CMAC_LOG_RESET_DHCP_WATCHDOG_EXPIRED
498058.284 CMAC_LOG_RESET_DHCP_WATCHDOG_EXPIRED
The following example indicates that an event in the cable interface driver caused the interface to reset. This often occurs because a shutdown command was just issued on the interface.
Router# show controllers cable-modem 0 mac resets
527986.444 CMAC_LOG_RESET_FROM_DRIVER
528302.042 CMAC_LOG_RESET_FROM_DRIVER
528346.600 CMAC_LOG_RESET_FROM_DRIVER
528444.494 CMAC_LOG_RESET_FROM_DRIVER
Table 0-172 describes the status messages that can appear in the show controllers cable-modem mac resets command.
Table 0-172 show controllers cable-modem mac resets Field Descriptions
Message
|
Description
|
|
The format of the DOCSIS configuration file acquired from the TFTP server is not acceptable.
|
downstream des:
|
Synchronization with the CMTS has been lost (SYNC messages are not being received).
|
ds_des_key_table:
|
The maintenance ranging opportunities for this router are not being received from the CMTS.
|
key 0: even 0, odd 0
|
The DHCP server took too long to respond.
|
key 1: even 0, odd 0
|
The Time-of-Day (ToD) server took too long to respond.
|
key 2: even 0, odd 0
|
The baseline privacy exchange with the CMTS took too long.
|
key 3: even 0, odd 0
|
The router was unable to transmit a response to a UCC-REQ message.
|
ds_des_cbc_iv_table:
|
A "full security" exchange with the CMTS took too long.
|
iv 0: even 0, odd 0
|
The TFTP server took too long to respond.
|
iv 1: even 0, odd 0
|
All downstream frequencies to be searched have been searched.
Note This message indicates that downstream frequencies were found, but the router failed to acquire a downstream lock.
|
iv 2: even 0, odd 0
|
Initial ranging opportunities are not being received.
|
iv 3: even 0, odd 0
|
The CMTS failed too many times to respond to a RNG-REQ message.
Note After 16 T3 timeouts, the router will reset the cable interface.
|
ds_des_sid_table:
|
The CMTS commanded the router to abort the ranging process.
|
sid_1=0x0000, sid_2=0x0000, sid_3=0x0000, sid_4=0x0000
|
The router has run out of memory.
|
ds_des_sid_enable=0x80, ds_des_ctrl=0x2E
|
The router was unable to start an internal process necessary to complete ranging and registration.
|
ds_des_sv=0x0F00
|
The reading of the configuration file from the TFTP server failed.
Note The file might not exist, or it might have incorrect permissions.
|
ds_unencrypted_length=0x0C
|
The router failed authentication as indicated in a REG-RSP message from the CMTS.
|
upstream des:
|
The CMTS has failed the router's registration because a required or requested class of service is not available.
|
us_des_key_table:
|
The CMTS failed too many times to respond to a REG-REQ message.
|
key 0: even 0, odd 0
|
The router MAC layer failed to detect a change in the interface driver.
|
key 1: even 0, odd 0
|
The Network Access parameter is missing from the DOCSIS configuration file.
|
key 2: even 0, odd 0
|
The router was unable to set the Write Access Control for an SNMP parameter as specified by the DOCSIS configuration file.
|
key 3: even 0, odd 0
|
The DHCP server did not respond with all the required values. The required values are: IP address, network mask, TFTP server IP address, TOD server IP address, DOCSIS configuration file name, and time zone offset.
|
us_des_cbc_iv_table:
|
The router was unable to start the internal process used to manage the downstream tuner.
|
iv 0: even 0, odd 0
|
Downstream QAM/FEC lock has been lost too many times.
|
iv 1: even 0, odd 0
|
The router MAC-layer process was unable to communicate with the downstream tuner management process.
|
iv 2: even 0, odd 0
|
The downstream tuner process failed to report its continuing operation for a long period of time.
|
iv 3: even 0, odd 0
|
The router was unable to set an SNMP parameter as specified by the DOCSIS configuration file.
|
pb_req_bytes_to_minislots=0x10
|
The internal MIB object took too long to process the entries in the DOCSIS configuration file.
|
The following example is a typical display for the show controllers cable-modem 0 mac hardware command. The most interesting bit is the station address (hardware address). The MIB statistics reflect the MAC hardware counters for various events, but these counters are typically reset every few seconds, so their contents are not accurate in this display.
Router# show controllers cable-modem 0 mac hardware
BCM3300 unit 0, idb 0x200EB4, ds 0x82D4748, regaddr = 0x800000, reset_mask
station address 0010.7b43.aa01 default station address 0010.7b43.aa01
MAC mcfilter 01E02F00 data mcfilter 01000000
RX data PDU ring with 32 entries at 0x201D40
rx_head = 0x201D40 (0), rx_p = 0x82D4760 (0)
00 pak=0x82DF844 buf=0x227F1A status=0x80 pak_size=0
01 pak=0x82E0BF4 buf=0x22C56A status=0x80 pak_size=0
02 pak=0x82DF454 buf=0x22710A status=0x80 pak_size=0
03 pak=0x82DF64C buf=0x227812 status=0x80 pak_size=0
04 pak=0x82E0024 buf=0x229B3A status=0x80 pak_size=0
05 pak=0x82DBF2C buf=0x21B332 status=0x80 pak_size=0
06 pak=0x82DFE2C buf=0x229432 status=0x80 pak_size=0
07 pak=0x82E0FE4 buf=0x22D37A status=0x80 pak_size=0
08 pak=0x82DF064 buf=0x2262FA status=0x80 pak_size=0
09 pak=0x82DEC74 buf=0x2254EA status=0x80 pak_size=0
10 pak=0x82DEA7C buf=0x224DE2 status=0x80 pak_size=0
11 pak=0x82DE884 buf=0x2246DA status=0x80 pak_size=0
12 pak=0x82DE68C buf=0x223FD2 status=0x80 pak_size=0
13 pak=0x82DE494 buf=0x2238CA status=0x80 pak_size=0
14 pak=0x82DE29C buf=0x2231C2 status=0x80 pak_size=0
15 pak=0x82DE0A4 buf=0x222ABA status=0x80 pak_size=0
16 pak=0x82DDEAC buf=0x2223B2 status=0x80 pak_size=0
17 pak=0x82DDCB4 buf=0x221CAA status=0x80 pak_size=0
18 pak=0x82DDABC buf=0x2215A2 status=0x80 pak_size=0
19 pak=0x82DD8C4 buf=0x220E9A status=0x80 pak_size=0
20 pak=0x82DD6CC buf=0x220792 status=0x80 pak_size=0
21 pak=0x82DD4D4 buf=0x22008A status=0x80 pak_size=0
22 pak=0x82DD2DC buf=0x21F982 status=0x80 pak_size=0
23 pak=0x82DD0E4 buf=0x21F27A status=0x80 pak_size=0
24 pak=0x82DCEEC buf=0x21EB72 status=0x80 pak_size=0
25 pak=0x82DCCF4 buf=0x21E46A status=0x80 pak_size=0
26 pak=0x82DCAFC buf=0x21DD62 status=0x80 pak_size=0
27 pak=0x82DC904 buf=0x21D65A status=0x80 pak_size=0
28 pak=0x82DC70C buf=0x21CF52 status=0x80 pak_size=0
29 pak=0x82DC514 buf=0x21C84A status=0x80 pak_size=0
30 pak=0x82DC31C buf=0x21C142 status=0x80 pak_size=0
31 pak=0x82DC124 buf=0x21BA3A status=0xA0 pak_size=0
RX MAC message ring with 8 entries at 0x201E80
rx_head_mac = 0x201EB0 (6), rx_p_mac = 0x82D480C (6)
00 pak=0x82E0DEC buf=0x22CC72 status=0x80 pak_size=0
01 pak=0x82E021C buf=0x22A242 status=0x80 pak_size=0
02 pak=0x82E060C buf=0x22B052 status=0x80 pak_size=0
03 pak=0x82E11DC buf=0x22DA82 status=0x80 pak_size=0
04 pak=0x82DFC34 buf=0x228D2A status=0x80 pak_size=0
05 pak=0x82E09FC buf=0x22BE62 status=0x80 pak_size=0
06 pak=0x82DEE6C buf=0x225BF2 status=0x80 pak_size=0
07 pak=0x82DFA3C buf=0x228622 status=0xA0 pak_size=0
TX BD ring with 8 entries at 0x201FB8, tx_count = 0
tx_head = 0x201FB8 (0), head_txp = 0x82D4888 (0)
tx_tail = 0x201FB8 (0), tail_txp = 0x82D4888 (0)
00 pak=0x000000 buf=0x200000 status=0x00 pak_size=0
01 pak=0x000000 buf=0x200000 status=0x00 pak_size=0
02 pak=0x000000 buf=0x200000 status=0x00 pak_size=0
03 pak=0x000000 buf=0x200000 status=0x00 pak_size=0
04 pak=0x000000 buf=0x200000 status=0x00 pak_size=0
05 pak=0x000000 buf=0x200000 status=0x00 pak_size=0
06 pak=0x000000 buf=0x200000 status=0x00 pak_size=0
07 pak=0x000000 buf=0x200000 status=0x20 pak_size=0
TX PD ring with 8 entries at 0x202038, tx_count = 0
tx_head_pd = 0x202038 (0)
tx_tail_pd = 0x202038 (0)
00 status=0x00 bd_index=0x0000 len=0x0000 hdr_len=0x0000
01 status=0x00 bd_index=0x0001 len=0x0000 hdr_len=0x0000
02 status=0x00 bd_index=0x0002 len=0x0000 hdr_len=0x0000
03 status=0x00 bd_index=0x0003 len=0x0000 hdr_len=0x0000
04 status=0x00 bd_index=0x0004 len=0x0000 hdr_len=0x0000
05 status=0x00 bd_index=0x0005 len=0x0000 hdr_len=0x0000
06 status=0x00 bd_index=0x0006 len=0x0000 hdr_len=0x0000
07 status=0x20 bd_index=0x0007 len=0x0000 hdr_len=0x0000
DS fifo full = 0, Rerequests = 0
DS mac msg overruns = 0, DS data overruns = 0
Qualified maps = 0, Qualified syncs = 0
CRC fails = 0, HDR chk fails = 0
Data pdus = 0, Mac msgs = 0
ds_data_bd_base=0x001D40, ds_mac_bd_base=0x001E80
ds_data_dma_ctrl=0x98, ds_mac_dma_ctrl=0x98
ds_dma_data_index=0x0000, ds_dma_msg_index=0x0000
us_bd_base=0x001FB8, us_pd_base=0x002038
us_dma_ctrl=0x00, us_dma_tx_start=0x00
global control and status:
irq_pend=0x0018, irq_mask=0x00E7
loop_enable=0x00, minislot_divisor=0x00
K0_ctrl=0x06, K1_ctrl=0x07, acq_threshhold=0x01
err_threshhold=0x04, timeout_threshold=0xFF
nco_bias=0x4F7004F7, ranging_offset=0x00000000
ts_err=0x00, sync_valid=0x00, delta_F=0x00
dynamic_ctrl=0x09, static_ctr=0x9F, autonomous=0x01
irq_ack=0x00, spi_cmd=0x51, spi_addr=0x11
spi_data= FF/00/00/00/00/00/00
01 19 1D 00 00 00 00 00 00 00 00 00 00 00 00 00
00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00
00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00
00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00
01 19 1D 03 00 00 00 00 00 00 00 00 00 00 00 00
00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00
00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00
00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00
01 19 1D 04 00 00 00 00 00 00 00 00 00 00 00 00
00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00
00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00
00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00
00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00
00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00
00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00
00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00
Table 0-173 describes the MIB statistics shown in the display for this command.
Table 0-173 MIB Statistics Field Descriptions
Field
|
Description
|
DS fifo full
|
Number of times the downstream receive buffer on the router has become full.
|
Rerequests
|
Number of registration requests sent by the router to the CMTS.
|
DS mac msg overruns
|
Number of times the DMA controller has had a downstream MAC message and there were no free MAC message buffer descriptors to accept the message.
|
DS data overruns
|
Number of times the DMA controller has had downstream data and there were no free data PDU buffer descriptors to accept the data.
|
Qualified maps
|
Number of valid MAP messages received by the router.
|
Qualified syncs
|
Number of times the router has received synchronization with the downstream channel.
|
CRC fails
|
Number of cyclic redundancy checks (CRCs) generated by the far-end device that did not match the checksums calculated from the message portions of the packets received.
|
HDR check fails
|
Number of cyclic redundancy checks (CRCs) generated by the far-end device that did not match the checksums calculated from the MAC headers of the packets received. The MAC header CRC is a 16-bit Header Check Sequence (HCS) field that ensures the integrity of the MAC header even in a collision environment.
|
Data pdus
|
Total number of data PDUs (protocol data units) of all types received by the cable interface.
|
Mac msgs
|
Number of MAC messages received by the cable interface.
|
Valid hdrs
|
Number of valid MAC headers received by the cable interface.
|
Below the MIB statistics in the show controllers cable-modem 0 mac hardware display, the BCM3300 registers section shows the DMA locations of the indicated processing routines of the Broadcom 3220 MAC chip within the router.
The following is typical output from the show controllers cable-modem mac state command that summarizes the state of the cable MAC layer and provides a list of downstream search frequency bands and the order in which they are searched. The normal operational state of the interface is the us_des_ctrl=0x00, us_des_sid_1= 0x1234
. If the cable MAC layer is in the ds_unencrypted_length=0x0C
, the information shown in the display corresponds to the last time the interface was up.
Router# show controller cable-modem 0 mac state
MAC State: maintenance_state
Privacy Established: TRUE
Privacy Version: BPI+ (PLUS)
DOCSIS Operating Mode: DOCSIS 1.1
Snmp Operating Mode: Co-existence Mode
88 453000000 855000000 6000000
89 93000000 105000000 6000000
90 111250000 117250000 6000000
91 231012500 327012500 6000000
92 333015000 333015000 6000000
93 339012500 399012500 6000000
94 405000000 447000000 6000000
95 123015000 129015000 6000000
96 135012500 135012500 6000000
97 141000000 171000000 6000000
98 219000000 225000000 6000000
99 177000000 213000000 6000000
US Power Level: 34.0 (dBmV)
Preamble Pattern: CC CC CC CC CC CC CC CC CC CC CC CC CC CC 0D 0D
A9 17 D9 C3 52 2F B3 86 A4 5F 67 0D 48 BE CE 1A
91 7D 9C 35 22 FB 38 6A 45 F6 70 D4 8B EC E1 A9
17 D9 C3 52 2F B3 86 A4 5F 67 0D 48 BE CE 1A 91
F3 F3 F3 F3 F3 F3 F3 F3 F3 F3 F3 F3 F3 F3 F3 F3
F3 F3 F3 F3 F3 F3 F3 F3 F3 F3 F3 F3 33 F7 33 F7
88 84 04 4C C4 84 C0 0C 44 08 08 CC 8C 0C 80 48
88 40 44 CC 48 4C 00 C4 40 80 8C C8 C0 C8 04 88
Preamble Value Offset: 56
FEC Codeword Info Bytes: 16
FEC Codeword Info Bytes: 34
FEC Codeword Info Bytes: 34
Preamble Value Offset: 48
FEC Codeword Info Bytes: 75
SNMP MIB Object: 0000000000000000000000000000000000000000000000000000
Auth. Reject Wait Time: 60
Max Downstream Rate: 4000000
Max Upstream Rate: 2000000
Min Upstream Rate: 100000
Ranging Backoff Start: 0 (at initial ranging)
Ranging Backoff End: 4 (at initial ranging)
Data Backoff Start: 0 (at initial ranging)
Data Backoff End: 4 (at initial ranging)
TFTP Server IP Address: 223.255.254.254
Time Server IP Address: 188.188.1.5
Config File Name: muck/ebuell/tftp/cm_conf
Log Server IP Address: 0.0.0.0
Piggyback when Ccat On: Disabled
Max Sids: 4 Sids In Use: 1
SFid Sid State Type rxtx Parm State Idb
Table 0-174 describes the fields shown in the display.
Table 0-174 show controller cable-modem mac state Field Descriptions
Field
|
Description
|
MAC State
|
Current operational state of the MAC layer of the router.
|
Ranging SID
|
Service ID used for ranging requests.
|
Registered
|
Indicates whether or not the router is currently registered with the CMTS.
|
Privacy Established
|
Indicates whether or not keys for baseline privacy have been exchanged between the router and the CMTS, establishing privacy.
|
Privacy Version
|
Indicates whether the router is using BPI or BPI+ baseline privacy.
|
DOCSIS Operating Mode
|
Indicates the DOCSIS revision that the router has been provisioned for (DOCSIS 1.0 or DOCSIS 1.1).
|
Snmp Operating Mode
|
Indicates the current SNMP operating mode:
• Co-existence Mode—SNMPv3 co-existence model
• NmAccess Mode—SNMPv2 model
|
Mac Resets
|
Number of times the router reset or initialized this interface.
|
Sync lost
|
Number of times the router lost synchronization with the downstream channel.
|
Invalid Maps
|
Number of times the router received invalid MAP messages.
|
Invalid UCDs
|
Number of times the router received invalid upstream channel descriptor (UCD) messages.
|
Invalid Rng Rsp
|
Number of times the router received invalid ranging response messages.
|
Invalid Reg Rsp
|
Number of times the router received invalid registration response messages.
|
T1 Timeouts
|
Number of timeouts caused by the router not receiving a valid UCD from the CMTS within the specified time.
|
T2 Timeouts
|
Number of timeouts caused by the router not receiving a maintenance broadcast for ranging opportunities from the CMTS within a specified time.
|
T3 Timeouts
|
Number of timeouts caused by the router not receiving a response within a specified time from the CMTS to a RNG-REQ message during initial maintenance.
|
T4 Timeouts
|
Number of timeouts caused by the router not receiving a response within a specified time from the CMTS to a periodic maintenance request.
|
Range Aborts
|
Number of times the ranging process was aborted by the CMTS.
|
DS ID
|
Identifier of the downstream channel on which this MAC management message has been transmitted. This identifier is arbitrarily chosen by the CMTS and is only unique within the MAC-sublayer domain.
|
DS Frequency
|
Downstream frequency acquired by the router during its last initialization sequence.
|
DS Symbol Rate
|
Downstream frequency in symbols per second.
|
DS QAM Mode
|
Downstream modulation scheme being used by the router.
|
DS Search
|
Frequency bands scanned by the router when searching for a downstream channel. The router's default frequency bands correspond to the North American EIA CATV channel plan for 6 MHz channel slots between 90 MHz and 858 MHz.
|
US ID
|
Identifier of the upstream channel to which this MAC management message refers. This identifier is arbitrarily chosen by the CMTS and is only unique within the MAC-sublayer domain.
|
US Frequency
|
Transmission frequency used by the router in the upstream direction.
|
US Power Level
|
Transmit power level of the router in the upstream direction.
|
US Symbol Rate
|
Upstream frequency in symbols per second.
|
Ranging Offset
|
Delay correction (in increments of 6.25 microseconds/64) applied by the router to the CMTS upstream frame time derived at the router. Used to synchronize the upstream transmissions in the time division multiple access (TDMA) scheme, this value is roughly equal to the round-trip delay of the router from the CMTS.
|
Mini-Slot Size
|
Size T of the mini-slot for this upstream channel in units of the timebase tick of 6.25 microseconds. Allowable values are 2, 4, 8, 16, 32, 64, or 128.
|
Change Count
|
Incremented by 1 by the CMTS whenever any of the values of this channel descriptor change. If the value of this count in a subsequent upstream channel descriptor (UCD) remains the same, the router can quickly decide that the remaining fields have not changed, and may be able to disregard the remainder of the message.
|
Preamble Pattern
|
Byte pattern used for the preamble.
|
Burst Descriptor:
|
A compound type/length/value (TLV) encoding that defines, for each type of upstream usage interval, the physical-layer characteristics that are to be used during that interval. Each burst descriptor is given an identifying number.
|
Interval Usage Code
|
Each upstream transmit burst belongs to a class which is given a number called the interval usage code (IUC). Bandwidth MAP messages are used by IUC codes to allocate upstream time slots. The following types are currently defined:
1. Request: bandwidth request slot
2. Request/Data: bandwidth request or data slot
3. Initial Maintenance: initial link registration contention slot
4. Station Maintenance: link keep-alive slot
5. Short Data Grant: short data burst slot
6. Long Data Grant: long data burst slot
|
Modulation Type
|
Upstream modulation format. (1 = QPSK; 2 = 16-QAM)
|
Differential Encoding
|
Indicates whether or not differential encoding is used. (1 = yes; 2 = no)
|
Preamble Length
|
Length of the preamble in bits. This value must be an integral number of symbols—a multiple of 2 for QPSK; a multiple of 4 for 16-QAM.
|
FEC Error Correction
|
Length of the forward error correction in bytes. The range is 0 to 10 bytes; a value of 0 implies no forward error correction.
|
FEC Codeword Info Bytes
|
Number of information bytes in the FEC codeword.
|
Scrambler Seed
|
15-bit seed value loaded at the beginning of each burst after the register has been cleared. Not used if scrambler is off.
|
Maximum Burst Size
|
Maximum number of mini-slots that can be transmitted during this burst type. When the interval type is Short Data Grant, this value must be greater than 0. If this value is 0, the burst size is limited elsewhere.
|
Guard Time Size
|
Amount of time in symbols between the center of the last symbol of a burst and the center of the first symbol of the preamble of an immediately following burst in an upstream transmission from the router to the CMTS.
|
Last Codeword Length
|
Indicates whether or not the length of the last codeword is fixed or shortened. (1 = fixed; 2 = shortened)
|
Scrambler on/off
|
Indicates whether or not a scrambler is enabled in the upstream modulator. (1 = on; 2 = off)
|
Network Access
|
Indicates whether or not the router has access to the HFC network.
|
Concatenation
|
Indicates whether DOCSIS 1.1 concatenation is enabled or disabled.
|
Maximum CPEs
|
Maximum number of CPEs supported for this cable modem.
|
Vendor ID
|
Unique identifier specifying the CM manufacturer.
|
Auth. Wait Timeout
|
Number of seconds the router waits for a reply after sending the Authorization Request message to the CMTS.
|
Reauth. Wait Timeout
|
Number of seconds the router waits for a reply after it has sent an Authorization Request message to the CMTS in response to a reauthorization request or an Authorization Invalid message from the CMTS.
|
Auth. Grace Time
|
Number of seconds before the current authorization is set to expire that the grace timer begins, signaling the router to begin the reauthorization process.
|
Op. Wait Timeout
|
Number of seconds the TEK state machine waits for a reply from the CMTS after sending its initial Key Request for its SID's keying material.
|
Retry Wait Timeout
|
Number of seconds the TEK state machine waits for a replacement key for this SID after the TEK grace timer has expired and the request for a replacement key has been made.
|
TEK Grace Time
|
Number of seconds before the current TEK is set to expire that the TEK grace timer begins, signaling the TEK state machine to request a replacement key.
|
Auth. Reject Wait Time
|
Number of seconds the router waits before sending another Authorization Request message to the CMTS after it has received an Authorization Reject message.
|
Assigned SID
|
Service ID assigned by the CMTS for the corresponding service class.
|
Max Downstream Rate
|
Maximum downstream rate in bits per second that the CMTS is permitted to forward to CPE unicast MAC addresses learned or configured as mapping to this router. This rate does not include MAC packets addressed to broadcast or multicast MAC addresses.
|
Max Upstream Rate
|
Maximum upstream rate in bits per second that the router is permitted to forward to the RF network. This rate includes packet PDU data packets addressed to broadcast or multicast addresses.
|
Upstream Priority
|
Relative priority assigned to this service class for data transmission in the upstream channel. Higher numbers indicate higher priority.
|
Min Upstream Rate
|
Date rate in bits per second that will be guaranteed to this service class on the upstream channel.
|
Max Upstream Burst
|
Maximum transmit burst in bytes allowed for this service class on the upstream channel.
|
Privacy Enable
|
Indicates whether or not Baseline Privacy is enabled for this service class.
|
Ranging Backoff Start
|
Initial back-off window for initial ranging contention, expressed as a power of 2. Valid values are from 0 to 15.
|
Ranging Backoff End
|
Final back-off window for initial ranging contention, expressed as a power of 2. Valid values are from 0 to 15.
|
Data Backoff Start
|
Initial back-off window for contention data and requests, expressed as a power of 2. Valid values are from 0 to 15.
|
Data Backoff End
|
Final back-off window for contention data and requests, expressed as a power of 2. Valid values are from 0 to 15.
|
IP Address
|
IP address of the cable interface.
|
Net Mask
|
Subnet mask of the cable interface.
|
TFTP Server IP Address
|
IP address of the CMTS TFTP server.
|
Time Server IP Address
|
IP address of the CMTS Time-of-Day (TOD) server.
|
Config File Name
|
Name of the configuration file that is downloaded from the TFTP server to provide the router with operational parameters.
|
Time Zone Offset
|
Correction received from the DHCP server to synchronize the router time clock with the CMTS.
|
Log Server IP Address
|
Displays the IP address for a syslog server, if any has been defined.
|
Drop Ack Enabled
|
Indicates whether the TCP drop acknowledge feature is enabled or disabled.
|
Piggyback when Ccat On
|
Indicates whether the piggybacking of data onto request packets is enabled when concatenation is also enabled.
|
Mac Sid Status
|
Displays the service IDs currently in use.
|

Tip
In Cisco IOS Release 12.2(8)T and later releases, you can add a timestamp to show commands using the exec prompt timestamp command in line configuration mode.
Related Commands
show controllers cable-modem manuf-cert
To display the manufacturer's X.509 certificate for the router, use the show controllers cable-modem manuf-cert command in privileged EXEC mode.
Cisco uBR905 and Cisco uBR925 cable access routers, and Cisco CVA122 Cable Voice Adapter
show controllers cable-modem number manuf-cert
Syntax Description
number
|
Identifies the cable interface (always 0).
|
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
12.2(15)CZ
|
This command was introduced on the Cisco uBR905 and Cisco uBR925 cable access routers, and the Cisco CVA122 Cable Voice Adapter.
|
Usage Guidelines
This command displays the manufacturing certificate for Cisco Systems, which the Secure Software Download procedure uses to authenticate the software that the router downloads. This command shows the individual X.509 components of the certificate, starting with the DOCSIS restricted X.501 Distinguished Name and ending with the 1024-bit public key.
Tip
This command displays the certificate that is incorporated into the Cisco IOS image that the router is currently running. Upgrading the Cisco IOS image could also update the manufacturer's certificate. The show controllers cable-modem cmcert command displays the cable-modem certificate that is that is burned into the router at the factory and is not normally changed.
Examples
The following example shows the starting lines and ending lines of typical output for the show controllers cable-modem manuf-cert command:
Router# show controllers cable-modem 0 manuf-cert
Cisco Manufacturing Certificate:
INT(16): 0B F5 94 FD 7B 4E E0 79 90 83 5C A9 A4 BE A0 3E
OID(9):SHA Signature 1.2.840.113549.1.1.5
OID(3):Organization 2.5.4.10
1w3d: PRT(48):Data Over Cable Service Interface Specification
OID(3):Organization Unit 2.5.4.11
1w3d: PRT(12):Cable Modems
1w3d: E1 13 05 10 3C F1 F1 A0 CE 43 74 30 9C 59 F5 70
1w3d: 4B C2 71 8E 79 AC 19 3D AB 94 1E B0 BE BC 15 D8
1w3d: AD A4 79 F5 58 CA 04 25 62 A9 F8 3F E7 40 64 E2
1w3d: 65 B0 D0 53 65 FF F1 12 FF 1B CD DE 1D 47 A2 6E
Note
You must manually enter a return to redisplay the router prompt after the certificate has been displayed.
Related Commands
Command
|
Description
|
show controllers cable-modem cmcert
|
Displays the router's public key X.509 certificate.
|
show controllers cable-modem phs
To display the payload header suppression (PHS) configuration on the router's cable interface, use the show controllers cable-modem phs command in privileged EXEC mode.
Cisco uBR905, uBR925 cable access routers, Cisco CVA122 Cable Voice Adapter
show controllers cable-modem number phs [rule-index]
Syntax Description
number
|
Identifies the cable interface (always 0).
|
rule-index
|
(Optional) Displays information for a specific PHS rule index. The valid range is 1 to 255.
|
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
12.2(15)CZ
|
This command was introduced for the Cisco uBR905 and Cisco uBR924 cable access routers, and the Cisco CVA122 Cable Voice Adapter.
|
Usage Guidelines
This command displays the PHS parameters that are currently in use for both the upstream and downstream. The information shown corresponds to the PHS parameters that are listed in Appendix C of the DOCSIS 1.1 specification.
Examples
The following shows an excerpt from typical output from the show controllers cable-modem phs command:
Router#
show controllers cable-modem 0 phs
PHS Service Flow Reference: 1
PHS Dynsrv Change Action: 0
PHS Mask: 0x00 0x00 0x00 0x03 0xC0
PHS Service Flow Reference: 1
PHS Dynsrv Change Action: 0
PHS Mask: 0x00 0x00 0x00 0x03 0xC0
PHS Service Flow Reference: 1
PHS Dynsrv Change Action: 0
PHS Mask: 0x00 0x00 0x00 0x03 0xC0
Downstream PHS Parameters
PHS Service Flow Reference: 2
PHS Dynsrv Change Action: 0
PHS Fields: 0x08 0x00 0x45 0x00 0x00 0x56 0x00 0x00 0x00 0x00 0x3B
0x00 0x6D 0xA7 0x01 0x0A 0x28 0x03 0x00 0x00 0x00 0x00
Downstream PHS Parameters
PHS Service Flow Reference: 4
PHS Dynsrv Change Action: 0
PHS Fields: 0x08 0x00 0x45 0x00 0x00 0x56 0x00 0x00 0x00 0x00 0x3B
0x00 0x6D 0xA7 0x00 0x00 0x00 0x00 0x01 0x0A 0x28 0x42
The following shows a typical display for a specific PHS rule:
Router# show controllers cable-modem 0 phs 3
Downstream PHS Parameters
PHS Service Flow Reference: 6
PHS Service Flow ID: 1915
PHS Dynsrv Change Action: 0
PHS Fields: 0x08 0x00 0x45 0x00 0x00 0x56 0x00 0x00 0x00 0x00 0x3B
0x00 0x6D 0xA7 0x08 0x00 0x00 0x01 0x0C 0x00 0x00 0x01 0xAB 0xAB 0xAB 0xAB 0xAB 0xAB 0xAB
0xAB 0xAB 0xAB 0xAB 0xAB
PHS Mask: 0xF0 0x00 0x01 0xFF 0xAB
Table 0-175 describes the fields shown in the display.
Table 0-175 show controllers cable-modem phs Field Descriptions
Field
|
Description
|
PHS Classifier Refer
|
The reference ID for the classifier using this PHS rule.
|
PHS Classifier ID
|
The ID for the classifier using this PHS rule.
|
PHS Service Flow Reference
|
The reference ID for the service flow using this PHS rule.
|
PHS Service Flow ID
|
The ID for the service flow using this PHS rule.
|
PHS Dynsrv Change Action
|
The action taken in a dynamic service change request for this PHS rule:
• 0 = Add the PHS rule.
• 1 = Set the PHS rule.
• 2 = Delete the PHS rule.
• 3 = Delete all PHS rules.
|
PHS Fields
|
The bytes of the headers that must be suppressed and restored during PHS operation. For the upstream, this includes the PDU bytes starting with the first byte after the MAC header checksum. For the downstream, this includes the PDU bytes starting with the 13th byte after the MAC header checksum.
|
PHS Index
|
The index that references the suppressed byte string in the PHS Fields. The index is unique per service flow in the upstream direction and unique per the cable modem in the downstream direction.
|
PHS Mask
|
The mask used to interpret the bytes in the PHS Fields, where each bit indicates whether the corresponding byte in the PHS Fields should be suppressed (0 = do not suppress, 1 = suppress).
|
PHS Classifier Size
|
The total number of bytes in the header to be suppressed.
|
PHS Classifier Verification
|
Indicates whether the header bytes are to be verified before suppression (0 = verify, 1 = do not verify).
|

Tip
In Cisco IOS Release 12.2(8)T and later releases, you can add a timestamp to show commands using the exec prompt timestamp command in line configuration mode.
Related Commands
Command
|
Description
|
show controllers cable-modem
|
Displays high-level controller information about the cable interface.
|
show controllers cable-modem bpkm
|
Displays information about the baseline privacy key management exchange between the cable interface and the CMTS.
|
show controllers cable-modem crypto des
|
Displays information about the Data Encryption Standard (DES) engine registers.
|
show controllers cable-modem filters
|
.Displays the registers in the MAC hardware that are used for filtering received frames.
|
show controllers cable-modem mac
|
Displays detailed MAC-layer information for the cable interface.
|
show controllers cable-modem phy
|
Displays the contents of the registers used in the downstream physical hardware of the cable interface.
|
show controllers cable-modem tuner
|
Displays the settings for the upstream and downstream tuners used by the cable interface.
|
show controllers cable-modem phy
To display the contents of the registers used in the downstream physical hardware of the router's cable interface, use the show controllers cable-modem phy command in privileged EXEC mode.
Cisco uBR904, uBR905, uBR924, uBR925 cable access routers, Cisco CVA122 Cable Voice Adapter
show controllers cable-modem number phy {receive | transmit}
Syntax Description
number
|
Identifies the cable interface (always 0).
|
receive
|
Displays all receiver registers in the downstream physical hardware.
|
transmit
|
Displays all transmitter registers in the upstream physical hardware.
|
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
11.3(4)NA
|
This command was introduced for the Cisco uBR904 cable access router.
|
12.0(4)XI1
|
Support was added for the Cisco uBR924 cable access router.
|
12.1(3)XL
|
Support was added for the Cisco uBR905 cable access router.
|
12.1(5)XU1
|
Support was added for the Cisco CVA122 Cable Voice Adapter.
|
12.2(2)XA
|
Support was added for the Cisco uBR925 cable access router.
|
Usage Guidelines
To understand the output from this command, consult the Broadcom specifications for the BCM3116 and BCM3037 chips.
Examples
The following is typical output from the show controllers cable-modem phy command:
Router#
show controllers cable-modem 0 phy receive
BCM3116 Receiver Registers: Chip ID = C2C1
rstctl= frzctl=20 qamctl=1B lmsctl=0B tpctl=00 fmtctl=24
ffectl=3F irqsts=09 irqmask=00 stoscm=9E rstctr=00 frzctl2=46
dvctl=30 idepth=55 eqlctl=00 tstctl=02 berctl=00 clkset=00
FFC coefficient registers:
F0=0067FFBC F1=FF880080 F2=00C1FEFB F3=FF75019D
F4=00C5FD89 F5=FF6D0485 F6=FC95F690 F7=2D280000
DFE coefficient registers:
D00=0636031E D01=FBDD0314 D02=0077FD39 D03=001B00C6
D04=0024FF74 D05=0015007E D06=000CFFC4 D07=FFC0004B
D08=0044FFF6 D09=FFE00019 D10=00190005 D11=FFD3FFAD
D12=FFD3FFE0 D13=001A000A D14=FFF3FFED D15=0008FFFD
D16=FFFC0024 D17=0023FFDF D18=0029FFFF D19=000D001E
D20=00020017 D21=00250001 D22=0007FFF4 D23=FFF60014
ldsft=B0EE ldsnre=0098AF ldif=0D004E ldbbi=00000000
ldbbq=00000000 ldali=032E00 ldaii=E62AF2 ldbrfo=705A05
ldbri=F9CDC200 lddrfo=007E7D lddri=007EF0
FEC correctable error count: 0
FEC uncorrectable error count: 0
The following example shows typical output for the physical transmit registers:
Router# show controllers cable-modem 0 phy transmit
BCM3037 Transmitter Registers:
part_id = 3037 rev_id = 01
test_mode = 00 test_input = 00
test_misc = 2009 rst = 00
power = 0000 power_2 = 00
tx_oen_bdly = 14 tx_oen_edly = C8
prbs_cfg = 00C000 baud = 1A36E3
burst = 0000 if_freq = 200000
burst config 0 : prbs_init = FFFFFF rs = 343E
pream_len = 0018 offset = 0000
burst config 1 : prbs_init = FFFFFE rs = 033B
pream_len = 0000 offset = 0000
burst config 2 : prbs_init = FFFFFE rs = 033B
pream_len = 0000 offset = 0000
burst config 3 : prbs_init = FFFFFE rs = 033B
burst config 4 : prbs_init = FFFFFE rs = 033B
pream_len = 0000 offset = 0000
burst config 5 : prbs_init = FFFFFE rs = 033B
pream_len = 0000 offset = 0000
00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00
CC CC CC CC CC 0D 0D CC CC CC CC CC CC CC CC 0D
04 25 01 01 01 01 02 01 02 03 02 00 40 04 02 00
40 05 01 00 06 01 10 07 02 01 52 08 01 01 09 01
08 0A 01 01 0B 01 02 04 25 03 01 01 01 02 01 02
03 02 00 50 04 02 00 30 05 01 00 06 01 22 07 02
01 52 08 01 00 09 01 30 0A 01 01 0B 01 02 04 25
04 01 01 01 02 01 02 03 02 00 40 04 02 00 40 05
01 00 06 01 22 07 02 01 52 08 01 00 09 01 30 0A
Tip
In Cisco IOS Release 12.2(8)T and later releases, you can add a timestamp to show commands using the exec prompt timestamp command in line configuration mode.
Related Commands
show controllers cable-modem qos
To display detailed information about the Quality of Service (QoS) configuration for the router, use the show controllers cable-modem qos command in privileged EXEC mode.
Cisco uBR905, Cisco uBR924, and Cisco uBR925 cable access routers, and Cisco CVA122 Cable Voice Adapter
show controllers cable-modem number qos [details]
Syntax Description
number
|
Identifies the cable interface (always 0).
|
details
|
(Optional) Displays detailed information, including classifier information.
|
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
12.0(7)XR and 12.1(1)T
|
This command was introduced for the Cisco uBR924 cable access router.
|
12.1(3)XL
|
Support was added for the Cisco uBR905 cable access router.
|
12.1(5)XU1
|
Support was added for the Cisco CVA122 Cable Voice Adapter.
|
12.2(2)XA
|
Support was added for the Cisco uBR925 cable access router.
|
12.2(15)CZ
|
Support for DOCSIS 1.1 and BPI+ operation was added for the Cisco uBR905 and Cisco uBR925 cable access routers, and the Cisco CVA122 Cable Voice Adapter. The details option was also added.
|
Usage Guidelines
When the cable modem is operating in DOCSIS 1.0 or DOCSIS 1.0+ mode, this command displays the four possible stream queues, the Service ID (SID) associated with each queue (if the queue is currently in use), and whether the SID is the primary SID, a secondary (static) SID, or a dynamic (on demand) SID. The display also shows the packets and bytes that have been transmitted and received on each stream.
When the cable modem is operating in DOCSIS 1.1 mode, this command also displays the modem's capabilities and packet classifiers.
Examples
The following example shows typical output for a DOCSIS 1.0 or DOCSIS 1.0+ cable modem for the QoS statistics for each of the router's four queues:
Router# show controllers cable-modem 0 qos
Queue SID SID SFID TX TX RX RX
Type Pkts Bytes Pkts Bytes
0 2 Primary 0 11377 2721985 12320 983969
1 52 Dynamic 52 116 13608 105 14300
In Cisco IOS Release 12.2(15)CZ and later releases, the QoS statistics include information about the DOCSIS 1.1 operations, including the type of service flow and packet classifiers being used for each queue. The following is a typical default display:
Router# show controllers cable-modem 0 qos
Queue SID SF SF SFID TX TX RX RX
Type Name Pkts Bytes Pkts Bytes
0 565 Primary BE 675 200 34606 518 120321
1 1443 Dynamic UGS 1911 0 0 0 0
2 1444 Dynamic UGS_AD 1912 0 0 0 0
3 1445 Dynamic RTP 1913 0 0 0 0
Queue Concat Capabilities
The following shows a typical display with the details option:
Router# show controllers cable-modem 0 qos details
Queue SID SF SF SFID TX TX RX RX
Type Name Pkts Bytes Pkts Bytes
0 565 Primary BE 675 200 34606 529 123351
1 1443 Dynamic UGS 1911 0 0 0 0
2 1444 Dynamic UGS_AD 1912 0 0 0 0
3 1445 Dynamic RTP 1913 0 0 0 0
Queue Concat Capabilities
Class id SFID Pri valid Match SIDT
PHS: Active Index: 1 Size: 34 Suppressed Size: 13
SFID: 1912 Classifier Id: 2
Verify: TRUE Packets: 0 Bytes Suppressed: 0
PHS: Active Index: 1 Size: 34 Suppressed Size: 13
SFID: 1911 Classifier Id: 3
Verify: TRUE Packets: 0 Bytes Suppressed: 0
PHS: Active Index: 1 Size: 34 Suppressed Size: 13
SFID: 675 Classifier Id: 4
Verify: TRUE Packets: 0 Bytes Suppressed: 0
Downstream Payload Header Suppression
PHS: Active Index: 1 Size: 34 Suppressed Size: 14 (index = 1)
SFID: 676 Classifier Id: 8
Verify: TRUE Packets: 0 Bytes Suppressed: 0
PHS: Active Index: 2 Size: 34 Suppressed Size: 14 (index = 2)
SFID: 1914 Classifier Id: 7
Verify: TRUE Packets: 0 Bytes Suppressed: 0
PHS: Active Index: 3 Size: 34 Suppressed Size: 14 (index = 3)
SFID: 1915 Classifier Id: 6
Verify: TRUE Packets: 0 Bytes Suppressed: 0
Table 0-176 describes the significant fields shown in the display for a DOCSIS 1.0 or DOCSIS 1.0+ cable modem:
Table 0-176 show controllers cable-modem qos Field Descriptions
Field
|
Description
|
Queue
|
One of the four possible service flow queues that exist in the router.
|
SID
|
Service identifier, a 14-bit integer assigned by the CMTS to each active upstream service flow.
|
SID Type
|
The type of SID:
• Primary—The service flow used for best-effort data traffic and MAC maintenance messages.
• Secondary—Secondary static service flows that are created at power-on provisioning for voice calls when dynamic SIDs are not active.
• Dynamic—Secondary service flows that are created for on-demand voice calls when using dynamic SIDs.
|
SFID
|
Service flow identifier, a 32-bit integer assigned by the CMTS to each service flow on the router.
|
TX Pkts
|
Number of packets the router has transmitted on this service flow.
|
TX Bytes
|
Number of bytes the router has transmitted on this service flow.
|
RX Pkts
|
Number of packets the router has received on this service flow.
|
RX Bytes
|
Number of bytes the router has received on this service flow.
|
Queue/SF Type
|
Identifies the type of service flow being used for each queue.
|
In Cisco IOS Release 12.2(15)CZ and later releases, the QoS statistics include information about the DOCSIS 1.1 operations, including the type of service flow and packet classifiers being used for each queue:
Router# show controllers cable-modem 0 qos
Queue SID SID SFID TX TX RX RX Capabilities
Type Pkts Bytes Pkts Bytes cbr cc fr nbr
0 1 Primary 3 40 5740 2780 209346 F T T F
1 56 Dynamic 91 1782 160140 0 0 T T T T
2 58 Dynamic 93 690 61946 0 0 T T T T
Class id SFID Pri valid Match SIDT
Packet Classifier Details
Classifier id = 1 SFID = 91
UDP/TCP source range: 18416 to 18416
UDP/TCP dest range: 16740 to 16740
Classifier id = 2 SFID = 93
UDP/TCP source range: 16796 to 16796
UDP/TCP dest range: 19138 to 19138
Downstream Payload Header Suppression
Table 0-177 describes the fields shown in the display for a DOCSIS 1.1 cable modem.
Table 0-177 show controllers cable-modem qos Field Descriptions (DOCSIS 1.1)
Field
|
Description
|
Queue
|
One of the four possible service flow queues that exist in the router.
|
SID
|
Service Identifier, a 14-bit integer assigned by the CMTS to each active upstream service flow.
|
SID Type
|
The type of SID:
• Primary—The service flow used for best-effort data traffic and MAC maintenance messages.
• Secondary—Secondary static service flows that are created at power-on provisioning for voice calls when dynamic SIDs are not active.
• Dynamic—Secondary service flows that are created for on-demand voice calls when using dynamic SIDs.
|
SFID
|
Service Flow Identifier, a 32-bit integer assigned by the CMTS to each service flow on the router.
|
TX Pkts
|
Number of packets the router has transmitted on this service flow.
|
TX Bytes
|
Number of bytes the router has transmitted on this service flow.
|
RX Pkts
|
Number of packets the router has received on this service flow.
|
RX Bytes
|
Number of bytes the router has received on this service flow.
|
Capabilities
|
These four fields describe whether the following features are enabled.
|
cbr
|
Indicates whether committed bit rate traffic (CBR) is supported (T) or not (F). This could indicate either UGS or UGS-AD service flows.
|
cc
|
Indicates whether concatenation is supported (T) or not (F).
|
fr
|
Indicates whether DOCSIS fragmentation is supported (T) or not (F).
|
nbr
|
Indicates the Not Broadcast status, depending on whether the classifier supports broadcasts (F) or not (T).
|
Queue/SF Type
|
Identifies the type of service flow being used for each queue.
|
Packet Classifiers
|
Describes the classifiers defined on the router.
|
Class id
|
ID used to uniquely identify the classifier in each service flow.
|
SFID
|
ID that uniquely identifies the service flow.
|
Pri
|
Traffic Priority parameter that was assigned to this classifier. If no value was set, the priority defaults to 0 (lowest priority).
|
valid
|
A 13-bit bitmask showing which Type/Length/Value (TLV) fields were set on the classifier. The following shows the meaning of each bit, with the least significant bit on the far right. The bit is set to 1 if the corresponding TLV was set for the classifier:
• 0x0001—IP Type of Service Range and Mask
• 0x0002—IP Protocol
• 0x0004—IP Source Address
• 0x0008—IP Source Mask
• 0x0010—IP Destination Address
• 0x0020—IP Destination Mask
• 0x0040—TCP/UDP Source Port Start and TCP/UDP Source Port End
• 0x0080—TCP/UDP Destination Port Start and TCP/UDP Destination Port End
• 0x0100—Destination MAC Address
• 0x0200—Source MAC Address
• 0x0400—Ethertype/DSAP/MacType
• 0x0800—IEEE 802.1P User_Priority
• 0x1000—IEEE 802.1Q VLAN_ID
For example, a value of D6 translates to the bit-mask "1101 0110", which indicates that the following fields were set for the classifier: IP Protocol, IP Source Address, IP Destination Address, and the TCP/UDP Source and Destination Port values.
|
Match
|
Number of packets matching the classifier.
|
SIDT
|
Address for the classifier in the internal SID table (SIDT).
|
Packet Classifier Details
|
Describes each packet classifier in detail.
|
Classifier ID
|
ID used to uniquely identify the classifier in each service flow.
|
SFID
|
ID that uniquely identifies the service flow.
|
IP source
|
The matching IP source address.
|
IP dest
|
The matching IP destination address.
|
UDP/TCP source range
|
The low-end and high-end matching source TCP/UDP port values.
|
UDP/TCP dest range
|
The low-end and high-end matching destination TCP/UDP port values.
|
IP Protocol
|
The matching IP protocol type, as given in RFC 1700. A value of 256 matches any IP protocol, and a value of 257 matches TCP and UDP traffic.
|
PHS
|
Indicates whether Payload Header Suppression (PHS) is active or inactive.
|
Downstream Payload Header Suppression
|
Indicates that PHS is being used on the downstream.
|

Tip
In Cisco IOS Release 12.2(8)T and later releases, you can add a timestamp to show commands using the exec prompt timestamp command in line configuration mode.
Related Commands
show controllers cable-modem service-flows
To display the service flows that are configured on the router, use the show controllers cable-modem service-flows command in privileged EXEC mode.
Cisco uBR905, uBR925 cable access routers, Cisco CVA122 Cable Voice Adapter
show controllers cable-modem number service-flows [sfid | summary]
Syntax Description
number
|
Identifies the cable interface (always 0).
|
sfid
|
(Optional) Displays detailed information for a specific service flow, as identified by its service flow ID (SFID). The valid range for sfid is 1 to 2147483647.
|
summary
|
(Optional) Displays a summary report of all service flows.
|
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
12.2(15)CZ
|
This command was introduced for the Cisco uBR905 and Cisco uBR924 cable access routers, and the Cisco CVA122 Cable Voice Adapter.
|
Usage Guidelines
This command displays the Quality of Service (QoS) parameters that make up each of the service flows that are defined on the router for the upstream and downstream. The information shown corresponds to the QoS parameters that are listed in Appendix C of the DOCSIS 1.1 specification.
Examples
The following example shows typical output for the default form of the show controllers cable-modem service-flows command.
Router# show controllers cable-modem 0 service-flows
Upstream Flow Scheduler Parameters
QoS Max Sustained Traffic Rate: 0
QoS Max Traffic Burst: 1522
QoS Min Reserved Traffic Rate: 0
QoS Min Reserved Rate Pkt Size: 0
QoS Timeout For Active Param: 0
Qos Timeout For Admitted Param: 200
Max Concatenated Burst: 0
Request/Transmission Policy: 0x0
Nominal Polling Interval: 0
Unsolicited Grant Size: 0
Nominal Grant Interval: 0
Tolerated Grant Jitter: 0
IP TOS Overwrite: 0xFF 0x0
Downstream Flow Scheduler Parameters
QoS Max Sustained Traffic Rate: 0
QoS Max Traffic Burst: 1522
QoS Min Reserved Traffic Rate: 64000
QoS Min Reserved Rate Pkt Size: 0
QoS Timeout For Active Param: 0
Qos Timeout For Admitted Param: 200
Downstream Flow Scheduler Parameters
QoS Max Sustained Traffic Rate: 10000
QoS Max Traffic Burst: 1522
QoS Min Reserved Traffic Rate: 8000
QoS Min Reserved Rate Pkt Size: 0
QoS Timeout For Active Param: 0
Qos Timeout For Admitted Param: 200
Downstream Flow Scheduler Parameters
QoS Max Sustained Traffic Rate: 30000
QoS Max Traffic Burst: 1522
QoS Min Reserved Traffic Rate: 28000
QoS Min Reserved Rate Pkt Size: 0
QoS Timeout For Active Param: 0
Qos Timeout For Admitted Param: 200
The following example shows typical output for the summary option of the show controllers cable-modem service-flows command.
Router# show controllers cable-modem 0 service-flows summary
Sfid Sid Sf Sf Service Direction
13 6 Primary 2 - upstream
14 N/A Primary 1 - downstream
The following example shows typical output for the show controllers cable-modem service-flows command, when displaying information for individual service flows:
Router# show controllers cable-modem 0 service-flows 3
Upstream Flow Scheduler Parameters
QoS Max Sustained Traffic Rate: 0
QoS Max Traffic Burst: 1522
QoS Min Reserved Traffic Rate: 0
QoS Min Reserved Rate Pkt Size: 0
QoS Timeout For Active Param: 0
Qos Timeout For Admitted Param: 200
Max Concatenated Burst: 0
Request/Transmission Policy: 0x0
Nominal Polling Interval: 0
Unsolicited Grant Size: 0
Nominal Grant Interval: 0
Tolerated Grant Jitter: 0
IP TOS Overwrite: 0xFF 0x0
Router# show controllers cable-modem 0 service-flows 4
Downstream Flow Scheduler Parameters
QoS Max Sustained Traffic Rate: 0
QoS Max Traffic Burst: 1522
QoS Min Reserved Traffic Rate: 64000
QoS Min Reserved Rate Pkt Size: 0
QoS Timeout For Active Param: 0
Qos Timeout For Admitted Param: 200
Table 178 describes the significant fields shown by this command. The information shown corresponds to the QoS parameters that are listed in Appendix C of the DOCSIS 1.1 specification.
Table 178 show controllers cable-modem service-flows Field Descriptions
Field
|
Description
|
Flow Type, Sf type
|
Identifies whether the type of service-flow:
• Primary—The primary service-flow for the upstream or downstream.
• Static—A permanent secondary service-flow.
• Dynamic—A dynamically created secondary service-flow.
|
Flow Reference, Sf Ref
|
The service flow reference ID that is used to establish the Service Flow ID.
|
Service Flow ID, Sfid
|
The ID that unique identifies this service flow on the upstream or downstream.
|
Service ID, Sid
|
The service identifier (SID) that the CMTS assigns to the service flow.
|
QoS Set Type
|
The QoS parameter set type for the service flow. This is a three-bit value, where bit 0 is set for the Provisioned Set, bit 1 is set for the Admitted Set, and bit 2 is set for the Active Set. Multiple bits can be set to produce the following possible values:
• 0 = Set Active and Admitted Sets to null.
• 1 = Apply to Provisioned Set only.
• 2 = Perform admission control and apply to Admitted Set only.
• 3 = Perform admission control and apply to Provisioned and Admitted Sets.
• 4 = Check against Admitted set in separate Service Flow encoding, perform admission control if needed, activate this service flow, and apply to Active Set.
• 5 = Perform admission control, apply to Provisioned and Active Sets, and activate this service flow.
• 6 = Perform admission control, activate this service flow, and apply to Admitted and Active Sets.
• 7 = Perform admission control, activate this service flow, and apply to Provisioned, Admitted, and Active Sets.
|
QoS Traffic Priority
|
The priority assigned to the service flow (0 to 7, where 7 is the highest priority).
|
QoS Max Sustained Traffic Rate
|
The maximum traffic rate, in bits, for a token-bucket rate limit for packets.
|
QoS Max Traffic Burst
|
The maximum size of a single packet on this service flow.
|
QoS Min Reserved Traffic Rate
|
The minimum rate, in bits per second, for traffic on this service flow.
|
QoS Min Reserved Rate Pkt Size
|
The minimum packet size, in bytes, for which the minimum rate can be sustained on this service flow.
|
QoS Timeout For Active Param
|
The maximum time, in seconds, that resources on a service flow can remain unused before the CMTS sets the flow's Admitted and Active Sets to null. A value of 0 indicates no timeout period.
|
Qos Timeout For Admitted Param
|
The maximum time, in seconds, that Admitted resources on a service flow can remain without being activated. After this timeout period, the CMTS will release Admitted resources on a service flow and retain only the activated ones.
|
Max Concatenated Burst
|
The maximum burst size, in bytes, for concatenated traffic on the service flow. A value of 0 indicates no limit.
|
Scheduling Type
|
The type of service used on the upstream for grant requests:
• 1 = Undefined
• 2 = Best effort
• 3 = Non-real-time polling service (NRTPS)
• 4 = Real-time polling service (RTPS)
• 5 = Unsolicited grant service with activity detection (UGS-AD)
• 6 = Unsolicited grant service (UGS)
|
Request/Transmission Policy
|
The allowable means of grant request and transmission on the upstream. This value is a 9-bit mask where the bits have the following meanings when set to 1:
• Bit 0 = Do not use broadcast request opportunities.
• Bit 1 = Do not use priority request multicast request opportunities.
• Bit 2 = Do not use Request/Data grants for requests.
• Bit 3 = Do not use Request/Data grants for data.
• Bit 4 = Do not piggyback data on grant requests.
• Bit 5 = Do not use concatenation.
• Bit 6 = Do not use DOCSIS fragmentation.
• Bit 7 = Do not use payload header suppression (PHS).
• Bit 8 = UGS service flows must drop packets that do not fit.
See Table 179 for the possible values of each bit for each of the supported flow types.
|
Nominal Polling Interval
|
The interval, in microseconds, between successive unicast grant requests for the service flow on the upstream.
|
Tolerated Poll Jitter
|
The maximum amount of time, in microseconds, that a unicast request interval may be delayed from the typical polling schedule.
|
Unsolicited Grant Size
|
The size of unsolicited grants, in bytes.
|
Nominal Grant Interval
|
The interval, in microseconds, between successive data grant opportunities for the service flow on the upstream.
|
Tolerated Grant Jitter
|
The maximum amount of time, in microseconds, that transmission opportunities may be delayed from the typical polling schedule.
|
Grants Per Interval
|
The actual number of grants per Nominal Grant Interval for UGS service flows, and the maximum number of active grants per Nominal Grant Interval for UGS-AD service flows.
|
Max DS Latency
|
The maximum latency, in microseconds, between the reception of a packet by the CMTS on its network interface and the transmission of the packet on its downstream cable interface.
|
Table 179 Request/Transmission Policy Values
|
Drop if Not Fit In UGS Size
|
Do Not Use...
|
PHS
|
Frag
|
Concat
|
Piggyback Requests
|
Req/Data for Data
|
Req/Data for Requests
|
Priority Multicast Requests
|
Broadcast Requests
|
Bit 8
|
Bit 7
|
Bit 6
|
Bit 5
|
Bit 4
|
Bit 3
|
Bit 2
|
Bit 1
|
Bit 0
|
Best-Effort
|
X
|
X
|
X
|
X
|
X
|
X
|
X
|
X
|
X
|
Non-Real Time Polling
|
X
|
X
|
X
|
X
|
X
|
X
|
X
|
0 or 1
|
0 or 1
|
Real-Time Polling
|
X
|
X
|
X
|
X
|
0 or 1
|
0 or 1
|
0 or 1
|
0 or 1
|
0 or 1
|
Unsolicited Grant Service
|
X
|
X
|
X
|
X
|
1
|
1
|
1
|
1
|
1
|
Unsolicited Grant Service with Activity Detection
|
X
|
X
|
X
|
X
|
1
|
1
|
1
|
1
|
1
|
Tip
In Cisco IOS Release 12.2(8)T and later releases, you can add a timestamp to show commands using the exec prompt timestamp command in line configuration mode.
Related Commands
Command
|
Description
|
show controllers cable-modem
|
Displays high-level controller information about the cable interface.
|
show controllers cable-modem bpkm
|
Displays information about the baseline privacy key management exchange between the cable interface and the CMTS.
|
show controllers cable-modem crypto des
|
Displays information about the Data Encryption Standard (DES) engine registers.
|
show controllers cable-modem filters
|
.Displays the registers in the MAC hardware that are used for filtering received frames.
|
show controllers cable-modem mac
|
Displays detailed MAC-layer information for the cable interface.
|
show controllers cable-modem phy
|
Displays the contents of the registers used in the downstream physical hardware of the cable interface.
|
show controllers cable-modem tuner
|
Displays the settings for the upstream and downstream tuners used by the cable interface.
|
show controllers cable-modem tuner
To display the settings for the upstream and downstream tuners used by a router, use the show controllers cable-modem tuner command in privileged EXEC mode.
Cisco uBR904, uBR905, uBR924, uBR925 cable access routers, Cisco CVA122 Cable Voice Adapter
show controllers cable-modem number tuner
Syntax Description
number
|
Identifies the cable interface (always 0).
|
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
11.3(4)NA
|
This command was introduced for the Cisco uBR904 cable access router.
|
12.0(4)XI1
|
Support was added for the Cisco uBR924 cable access router.
|
12.1(3)XL
|
Support was added for the Cisco uBR905 cable access router.
|
12.1(5)XU1
|
Support was added for the Cisco CVA122 Cable Voice Adapter.
|
12.2(2)XA
|
Support was added for the Cisco uBR925 cable access router.
|
Examples
The following example shows typical tuner settings. Table 0-180 describes the output field possibilities and descriptions.
Router#
show controllers cable-modem 0 tuner
Rx: tuner_freq 507000000, symbol_rate 5360736, local_freq 11520000
snr_estimate 17488, ber_estimate 0, lock_threshold 26000
QAM not in lock, FEC not in lock, qam_mode QAM_64
Tx: tx_freq 20000000, power_level 0x3E, symbol_rate 1280000
Table 0-180 show controllers cable-modem tuner Field Descriptions
Field
|
Description
|
tuner_freq
|
Indicates the current downstream frequency.
|
symbol_rate
|
Indicates the downstream symbol rate in symbols per second.
|
local_freq
|
Frequency on which the transmitter and tuner communicate.
|
snr_estimate
|
Signal-to-noise ratio (SNR) estimate in dB multiplied by 1000.
|
ber_estimate
|
Bit error rate estimate (always 0).
|
lock_threshold
|
Minimum SNR that the router will accept as a valid lock.
|
QAM status
|
Indicates if QAM/FEC lock has been acquired and the modulation mode in use.
|
tx_freq
|
Upstream frequency sent to the router by the CMTS in the UCD message.
|
power_level
|
Transmit power level as set in the hardware, given as a hexadecimal value. The units are unique to the hardware used. Use the show controllers cable-modem mac state command to see the power level in dBmV.
|
symbol_rate
|
Indicates the upstream symbol rate in symbols per second that is negotiated between the CMTS and the cable access router.
|

Tip
In Cisco IOS Release 12.2(8)T and later releases, you can add a timestamp to show commands using the exec prompt timestamp command in line configuration mode.
Related Commands
show controllers clock-reference
To display hardware information, register values, and current counters for the TCC+ card or the Cisco cable clock card, use the show controllers clock-reference command in privileged EXEC mode.
show controllers clock-reference
Syntax Description
This command has no keywords or arguments.
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
12.1(1a)T1
|
This command was introduced.
|
12.1(2)EC1
|
This command was supported on the EC train.
|
12.2(2)XF
|
This command was supported for the TCC+ card on Cisco uBR10012 routers.
|
12.2(4)BC1
|
Support was added to the Release 12.2 BC train.
|
Usage Guidelines
To reset the counters that are displayed with the show controllers clock-reference command, use the cable clock clear-counters command.
Note
This command is not applicable on the SC train.
This command supports the Cisco CMTS clock feature set, which provides a synchronized clock for improved Voice-over-IP (VoIP) operations. The clock feature set requires one of the following configurations:
•
A Cisco uBR10012 router with one or two TCC+ cards that are connected to an external national clock source.
•
A Cisco uBR7246 VXR router using a Cisco uBR-MC16S, Cisco uBR-MC16E, Cisco uBR-MC28C, or Cisco uBR-MC28C-BNC cable interface line card. The router must also be equipped with a Cisco cable clock card and be running Cisco IOS 12.1(1a)T1, 12.1(2)EC1, or a later release. The Cisco cable clock card should be connected to an external national clock source.
Only these cable interface cards support the external clock card reference from a clock card to distribute that signal to CMs or set-top boxes (STBs) attached to the specific network segments. You can use other cable interface cards, such as the Cisco uBR-MC16C, with the clock card, but these other cable interfaces will not synchronize their downstream SYNC messages with the external clock source.
Each CM or STB must also support VoIP applications and the clock feature set. For example, the Cisco uBR924, running Cisco IOS Release 12.0(7)T or later, supports clock card feature automatically.
Examples
The following is sample output from the show controllers clock-reference command for a Cisco uBR7246 VXR router with a national clock card:
Router# show controllers clock-reference
National clock card with T1 controller
LIU Config Register 0:0x0
LIU Config Register 1:0x0
1 events reported in 266636 seconds
Primary active :1, LOS :0
Secondary active :0, LOS :1
Holdovers :0, HW faults :0
The following is sample output from the show controllers clock-reference command for a Cisco uBR10012 router with two TCC+ cards.
Note
Each TCC+ card—Active and Backup—has its own separate set of registers.
Router# show controllers clock-reference
Controllers for Card in Slot: 1
Interrupt Status Reg : 0x0
UCPC Bus Control Status Reg : 0x4035
Push Button Status Reg : 0x0
Line Card Presence Status Reg : 0x21
TSRG Control Reg : 0xB800
LC Power off Control Reg : 0x0
PEMA Voltage Monitor High Time Reg : 0x0
PEMA Voltage Monitor Total Time Reg : 0x0
PEMA Current Monitor High Time Reg : 0x0
PEMA Current Monitor Total Time Reg : 0x0
PEMB Voltage Monitor High Time Reg : 0x66
PEMB Voltage Monitor Total Time Reg : 0xCD
PEMB Current Monitor High Time Reg : 0x1C
PEMB Current Monitor Total Time Reg : 0x34
LIU0 Read Write Reg : 0x11
LIU1 Read Write Reg : 0x11
LCD Control Reg RS0 : 0x39
LCD Control Reg RS1 : 0x39
General Purpose Control Reg 0 : 0x2
General Purpose Control Reg 1 : 0x2
General Purpose Control Reg 2 : 0x40
LC Power off Status Reg : 0x0
Sec Clock Control Reg : 0x81
Sec Clock Status Reg : 0x1
Push Button Input Reg : 0x0
LC Presence Input Reg : 0x21
Compare Errors rcvd from 1/1: 0
Parity Errors rcvd from 1/1 : 0
Controllers for Card in Slot: 2
Interrupt Status Reg : 0x0
UCPC Bus Control Status Reg : 0x4053
Push Button Status Reg : 0x0
Line Card Presence Status Reg : 0x21
TSRG Control Reg : 0xB800
LC Power off Control Reg : 0x0
PEMA Voltage Monitor High Time Reg : 0x0
PEMA Voltage Monitor Total Time Reg : 0x0
PEMA Current Monitor High Time Reg : 0x0
PEMA Current Monitor Total Time Reg : 0x0
PEMB Voltage Monitor High Time Reg : 0x66
PEMB Voltage Monitor Total Time Reg : 0xCD
PEMB Current Monitor High Time Reg : 0x1C
PEMB Current Monitor Total Time Reg : 0x34
LIU0 Read Write Reg : 0x30
LIU1 Read Write Reg : 0x11
LCD Control Reg RS0 : 0x66
LCD Control Reg RS1 : 0x20
General Purpose Control Reg 0 : 0x0
General Purpose Control Reg 1 : 0x1
General Purpose Control Reg 2 : 0x43
LC Power off Status Reg : 0x0
Sec Clock Control Reg : 0x80
Sec Clock Status Reg : 0x1
Push Button Input Reg : 0x0
LC Presence Input Reg : 0x21
Compare Errors rcvd from 2/1: 0
Parity Errors rcvd from 2/1 : 0
PEM A Power = 0w, PEM B Power = 343w
Note
The show controllers clock-reference command might display compare errors on the Cisco uBR10012 router because there could be a slight delay at system startup before the TCC+ cards synchronize with each other. These initial compare errors can be ignored and cleared with the cable clock clear-counters command.
Most of the information shown by the show controllers clock-reference command is in the form of a hexadecimal bitfield that is not meaningful for normal operations, but the following fields can be useful in troubleshooting problems with the TCC+ and cable interface line cards:
•
UCPC Bus Control Status Reg—Displays the status of both TCC+ cards and whether the LCD Display Panel is present.
•
Line Card Presence Status Reg—Provides a software view of whether a cable interface line card is physically present in the Cisco uBR10012 chassis.
•
LC Presence Input Reg—Provides a hardware view of whether a cable interface line card is physically present in the Cisco uBR10012 chassis.
•
LC Power off Status Reg—Indicates whether a cable interface line card slot has been powered off using the cable power command.
Table 0-181 shows how to interpret these fields.
Table 0-181 show controllers clock-reference Field Descriptions
Field
|
Description
|
UCPC Bus Control Status Reg
|
Displays the status of both TCC+ cards and of the LCD Display Panel. Each TCC+ card displays this field from its own point of view, where "this card" refers to itself and "the other card" refers to the other TCC+ card slot.
• Bits 2-0 display the status of the other TCC+ card:
– 0x00=No card.
– 0x03=The other card is the backup card.
– 0x05=The other card is the active card.
• Bit 3 is set to 1 upon a state change for the other TCC+ card.
• Bits 6-4 display the status of this TCC+ card:
– 0x00=No card.
– 0x03=This card is the backup card.
– 0x05=This card is the active card.
– 0x06=This card has assumed the active card role, because the other card had been active but is now unresponsive.
• Bit 7 is set to 1 upon a state change for this TCC+ card.
• Bits 13-8 are unused.
• Bit 14 is set to 1 if the LCD Display Panel is present.
• Bit 15 is set to 1 if the presence of the LCD Display Panel has changed since the counters were last cleared.
|
The most common bit patterns for the UCPC Bus Control Status Reg field are:
• 0x4003—This TCC+ card is not present, the other card is the active card, and an LCD Display is present.
• 0x4030—This TCC+ card is the active card, the other card is not present, and an LCD Display is present.
• 0x4035—This TCC+ card is the backup card, the other card is the active card, and an LCD Display is present.
• 0x4053—This TCC+ card is the active card, the other card is the backup card, and an LCD Display is present.
• 0x4065—This TCC+ card has assumed the active card role, because the other card had been active but is now unresponsive. The LCD Display is present.
|
Line Card Presence Status Reg
|
The first eight bits indicate whether the line card is physically present, and the high eight bits indicate whether the card's physical state has changed since the counters were last cleared using the cable clock clear-counters command.
0x0001=slot 5/0 contains a cable interface card 0x0002=slot 5/1 contains a cable interface card 0x0004=slot 6/0 contains a cable interface card 0x0008=slot 6/1 contains a cable interface card 0x0010=slot 7/0 contains a cable interface card 0x0020=slot 7/1 contains a cable interface card 0x0040=slot 8/0 contains a cable interface card 0x0080=slot 8/1 contains a cable interface card
0x0100=slot 5/0 has changed physical state 0x0200=slot 5/1 has changed physical state 0x0400=slot 6/0 has changed physical state 0x0800=slot 6/1 has changed physical state 0x1000=slot 7/0 has changed physical state 0x2000=slot 7/1 has changed physical state 0x4000=slot 8/0 has changed physical state 0x8000=slot 8/1 has changed physical state
|
LC Presence Input Reg
|
The lower eight bits of this register indicate whether a cable interface line card is physically present in the chassis slot. The bit meanings are the same as the lower eight bits the Line Card Presence Status Reg.
The upper eight bits of this register are unused.
|
Note The Line Card Presence Status Reg displays the line card state as determined by the Cisco IOS software, while the LC Presence Input Reg displays the state as determined by the chassis hardware.
|
LC Power off Status Reg
|
0x01=slot 5/0 is powered off 0x02=slot 5/1 is powered off 0x04=slot 6/0 is powered off 0x08=slot 6/1 is powered off 0x10=slot 7/0 is powered off 0x20=slot 7/1 is powered off 0x40=slot 8/0 is powered off 0x80=slot 8/1 is powered off
|

Tip
In Cisco IOS Release 12.1(12)EC, Release 12.2(8)BC1, and later releases, you can add a timestamp to show commands using the exec prompt timestamp command in line configuration mode.
Related Commands
Command
|
Description
|
cable clock clear-counters
|
Clears the counters displayed with the show controllers clock-reference command.
|
cable power
|
On the Cisco uBR10012 routers, turns a cable interface line card on or off, which updates the LC Power off Status registers displayed with the show controllers clock-reference command.
|
show cable clock
|
Displays the status of the Cisco cable clock card and the TCC+ card.
|
show controllers jacket
To display Wideband SIP register values, use the show controllers jacket command in privileged EXEC mode.
show controllers jacket slot/subslot [all | cpld | processor | vanadium | spi_fpga]
Syntax Description
slot
|
The slot where the Wideband SIP resides. On the Cisco uBR10012 router, slots 1 and 3 can be used for the Wideband SIP.
|
subslot
|
The subslot where the Wideband SIP resides. On the Cisco uBR10012 router, subslot 0 is always specified.
|
all
|
(Optional) Displays values for all registers.
|
cpld
|
(Optional) Displays values for the CPLD registers.
|
processor
|
(Optional) Displays values for the processor registers.
|
vanadium
|
(Optional) Displays values for the Vanadium registers.
|
spi_fpga
|
(Optional) Displays values for the SPI FPGA registers.
|
Command Default
If you do not specify all or the keyword for a specific register, show controllers jacket displays values for all registers.
Command Modes
Privileged EXEC (#)
Command History
Release
|
Modification
|
12.3(21)BC
|
This command was introduced for the Cisco uBR10012 router.
|
12.2(33)SCA
|
This command was integrated into Cisco IOS Release 12.2(33)SCA.
|
Usage Guidelines
Use the show controllers jacket command to display Wideband SIP register values. Values for the following Wideband SIP components can be displayed:
•
CPLD—A Complex Programmable Logic Device (CPLD) that contains logic to control resets, the I/O bus, and SPA OIR.
•
Processor—The Wideband SIP on-board processor that is responsible for configuring the chips on the SIP, communication to the PRE module, and communication with the SPA.
•
Vanadium—A Cisco-designed ASIC that provides a link between the Wideband SIP and the PRE module.
•
SPI FPGA—A bus converter that supports up to eight channels on a POS-PHY Level 3 (PL3) interface and up to eight channels shared between the two System Packet Interface Level 4 Phase 2 (SPI 4.2) interfaces. The SPI FPGA also interfaces the on-board processor complex to the Wideband SIP bus.
Examples
The following examples display show controllers jacket command output for the cpld and processor keywords:
Router# show controllers jacket 1/0 cpld
[A4000004] Clock frequency:32
[A4000008] Reset status and control:1
[A400000C] Software reset reason:0
[A4000010] Datapath reset: 19
[A4000014] SPA 0 OIR register: FF
[A4000018] SPA 1 OIR register: FF
[A400001C] SPA OIR interrupt status: (would clear on read)
[A4000020] SPA OIR interrupt mask: FF
Router# show controllers jacket 1/0 processor
Related Commands
Command
|
Description
|
show controllers modular-cable
|
Displays Wideband SPA information.
|
show controllers modular-cable
To display information about the Cisco uBR-MC3GX60V cable line card and Wideband SPA, use the show controllers modular-cable command in privileged EXEC mode.
show controllers modular-cable slot/subslot/bay {brief | fpga_registers |
{all | sfp [port port_num] | ge_phy [port port_num]}}
Cisco IOS Releases 12.3(23)BC5, 12.2(33)SCB and later releases
show controllers modular-cable slot/bay/port | slot/subslot/controller {all | association |
bpi-entry bpi-index | brief | config | crashinfo | dsid-log search min max | dsid-ref-log dsid n
| errors | fpga_version | fpga_registers | ge_phy [port port_num] | iofpga | mapping
[rf-channel | wb-channel] | registers | rf-channel channel_number | sfp [port port_num] |
spa-log-all | stat-index-log search min max | status | wideband-channel channel_number}
Note
The options mentioned in the syntax above are indicative and may vary with the cable interface line card used in the Cisco uBR10012 universal broadband router.
Syntax Description
slot/subslot/bay or slot/bay/port
|
Wideband SPA slot, subslot, bay, and port.
• slot—Slot where the Wideband SIP resides. The valid values are 1 and 3.
• subslot—Subslot where the Wideband SIP resides. The valid value is 0.
• bay—Wideband SIP bay where the SPA resides. The valid range is from 0 to 3.
|
slot/subslot/controller
|
Modular-cable line card slot, subslot, and controller.
• slot—Modular-cable line card slot. The valid value range is from 5 to 8.
• subslot—Modular-cable line card subslot. The valid value is 0 or 1.
• controller—Modular-cable line card controller. The valid range is from 0 to 2.
|
port
|
Specifies the interface number on the SPA.
|
all
|
(Optional) Displays all information about the modular-cable controller.
|
association
|
Displays associations between the MAC domains and wideband interfaces.
|
bpi-entry bpi-index
|
Displays information about Baseline Privacy Interface (BPI).
• bpi-index—BPI index. The valid range is from 0 to 24575.
|
brief
|
(Optional) Displays a brief summary of the controller information.
|
config
|
Displays information about the configuration of the downstream field-programmable gate array (FPGA).
|
counters
|
Displays information about channel counters.
|
crashinfo
|
Displays crash information for the Wideband SPA.
|
dsid-log search min max
|
Searches for downstream IDs (DSID) in the Wideband SPA logs.
• min—Minimum search value. The valid range is from 1 to 65535.
• max—Maximum search value. The valid range is from 1 to 65535.
Note This keyword is used to collect data only when requested by Cisco TAC.
|
dsid-ref-log dsid n
|
Retrieves last statistical index and ref count for DSID.
• n—DSID search value. The valid range is from 1 to 65535.
Note This keyword is used to collect data only when requested by Cisco TAC.
|
errors
|
Displays errors.
|
fpga_registers
|
(Optional) Displays information on the Wideband SPA Field-Programmable Gate Array (FPGA) (Blaze) registers.
|
fpga_version
|
Displays the FPGA version of the cable interface line cards.
|
ge_phy
|
(Optional) Displays physical layer (PHY) information on the Gigabit Ethernet ports.
|
iofpga
|
Displays information about I/O FPGA.
|
mapping
|
Displays information about the mapping of the configured RF channel and wideband channels.
• rf-channel—RF channel counters.
• wb-channel—Wideband channel counters.
|
registers
|
Displays registers for the downstream FPGAs.
|
rf-channel channel-number
|
Displays information for the RF channel indicated by channel-number.
• channel-number—RF channel number. The valid values are from 0 to 23.
|
sfp
|
(Optional) Displays information about the small form-factor pluggable (SFP) modules.
|
stat-index-log search min max
|
Searches for downstream statistical indexes in SPA logs.
• min—Minimum search value. The valid range is from 1 to 65535.
• max—Maximum search value. The valid range is from 1 to 65535.
Note This keyword is used to collect data only when requested by Cisco TAC.
|
spa-log-all
|
Displays SPA debug logs.
Note This keyword is used to collect data only when requested by Cisco TAC.
|
port port_num
|
(Optional) When used with sfp or ge_phy keywords, the information displayed is for the specified Gigabit Ethernet port. If the port port_num argument is not used, the information displayed is for both Gigabit Ethernet ports.
|
status
|
Displays status of the downstream FPGAs.
|
wideband-channel channel-number
|
Displays information about the wideband channel indicated by channel-number.
• channel-number—Wideband channel number. The valid values are from 0 to 31.
|
Command Default
If you specify no keyword or argument, all categories of information for both Gigabit Ethernet ports are displayed.
Command Modes
Privileged EXEC (#)
Command History
Release
|
Modification
|
12.3(21)BC
|
This command was introduced for the Cisco uBR10012 router.
|
12.2(33)SCA
|
This command was integrated into Cisco IOS Release 12.2(33)SCA.
|
12.3(23)BC5
|
The command output was modified.
|
12.2(33)SCB
|
This command was integrated into Cisco IOS Release 12.2(33)SCB. This command was modified to change the addressing format for a modular cable interface from slot/subslot/bay to slot/bay/port.
|
12.3(23)BC6
|
The command output was modified to capture the SPA environment monitoring information.
|
12.2(33)SCC
|
The command output was modified to capture the toggle information.
|
12.2(33)SCE
|
This command was modified to include multiple keywords for the Cisco uBR-MC3GX60V cable line card.
|
12.2(33)SCG
|
This command was modified to include dsid-log, dsid-ref-log, stat-index-log, and spa-log-all keywords.
|
Usage Guidelines
If you specify all instead of sfp or ge_phy, information for the SFP module and PHY is displayed.
Note
This command will not provide crash dump information for the Cisco 10000 series SIP-600. Use the show diag 1/0 crashdump command to obtain this information for the Cisco 10000 Series SIP-600.
Examples
Example of the show controllers modular-cable Command that displays BPI key information stored on the Cisco uBR-MC3GX60V line card.
The following is a sample output of the show controller integrated-cable command with the bpi-entry keyword:
Router# show controllers modular-Cable card 8/1 bpi-entry 1
Even Key: Invalid, Odd Key: Invalid
Key Sequence Number: 0 Security Association: 0x0
Even Key: 0000-0000-0000-00 IV: 0000-0000-0000-0000
Odd Key: 0000-0000-0000-00 IV: 0000-0000-0000-0000
Table 160 describes the significant fields shown in the display.
Table 182 show controller modular-cable Field Descriptions
Field
|
Description
|
BPI Index
|
BPI index number.
|
Segment
|
Hardware segment used by the DOCSIS MAC address.
|
Even Key
|
Current value of the Even Key in the BPI entry.
|
Odd Key
|
Current value of the Odd Key in the BPI entry.
|
Key Sequence Number
|
Key sequence number.
|
Security Association
|
Security association identifier.
|
Key Type
|
Type of key stored based on the encryption algorithm (Data Encryption Standard [DES] or Advanced Encryption Standard [AES]).
|
The following is a sample output of the show controllers modular-cable command with fpga_registers, sfp, and ge_phy keywords. In some cases, only part of the output is shown.
Router# show controllers modular-cable 1/0/0 fpga_registers
REG blz_sw_rev_id offset 0x00000000 = 0x00000000
REG blz_hw_rev_id offset 0x00000004 = 0x04030422
REG rst_ctrl_reg_0 offset 0x00000008 = 0x00000000
REG led_ctrl_reg_0 offset 0x00000010 = 0x00000001
REG gp_config_reg_0 offset 0x00000030 = 0x80000000
REG test_reg offset 0x000000B0 = 0xDEADBEAF
REG adr_trap_reg offset 0x000000B4 = 0x00000040
REG spa_timeout_reg offset 0x000000B8 = 0x000003E8
REG spa_error_reg offset 0x000000BC = 0x0000000A
REG bm_int_stat_reg offset 0x00000100 = 0x00000000
REG sfp_all_int_stat_reg offset 0x00000104 = 0x00000000
REG spa_brd_int_stat_reg offset 0x00000108 = 0x00000203
REG spa_brd_int_en_reg offset 0x00000120 = 0x000000CC
REG spa_brd_int_ovrd_reg offset 0x00000130 = 0x00000000
REG sfp_int_stat_reg_0 offset 0x00000200 = 0x00000000
REG sfp_cfg_stat_reg_0 offset 0x00000204 = 0x00010007
REG sfp_int_stat_reg_1 offset 0x00000208 = 0x00000000
REG sfp_cfg_stat_reg_1 offset 0x0000020C = 0x00010007
REG blz_ctrl_stat_reg offset 0x00000300 = 0x0007FF01
REG dcm_status_reg offset 0x00000304 = 0x00000009
REG blz_sp_int_stat_reg_0 offset 0x00000310 = 0x00000008
Router# show controllers modular-cable 1/0/0 sfp port 1
SFP TX FAULT is not detected
SONET compliance: not specified
Gigabit Ethernet compliance: 1000BASE-SX
Fibre Channel link length: not specified
Fibre Channel transmitter technology: not specified
Fibre Channel transmission media: not specified
Fibre Channel speed: not specified
50 micron-multimode fiber supported length: 550 m
62.5 micron-multimode fiber supported length: 270 m
Upper bit rate limit: not specified
Lower bit rate limit: not specified
Date code (yy/mm/dd): 05/02/23
Vendor name: CISCO-AGILENT
Vendor Part Number (PN): QFBR-5766LP Vendor Rev:
Vendor SN (SN): AGS090855CE
Enhanced options implemented: none
Diagnostic monitoring implemented: none
0x00: 03 04 07 00 00 00 01 00 00 00 00 01 0D 00 00 00
0x10: 37 1B 00 00 43 49 53 43 4F 2D 41 47 49 4C 45 4E
0x20: 54 20 20 20 00 00 30 D3 51 46 42 52 2D 35 37 36
0x30: 36 4C 50 20 20 20 20 20 20 20 20 20 03 52 00 B5
0x40: 00 1A 00 00 41 47 53 30 39 30 38 35 35 43 45 20
0x50: 20 20 20 20 30 35 30 32 32 33 20 20 00 00 00 C4
0x60: 00 00 06 C9 F0 FA 7C 01 B3 C8 41 6B 39 04 FC 85
0x70: BB 20 9E 00 00 00 00 00 00 00 00 00 B4 94 52 CC
0x80: FF FF FF FF FF FF FF FF FF FF FF FF FF FF FF FF
0x90: FF FF FF FF FF FF FF FF FF FF FF FF FF FF FF FF
Router# show controllers modular-cable 1/0/0 ge_phy port 0
Gigabit PHY information for port 0:
link is up, auto-negotiation is complete
remote fault not detected, jabber not detected
Extended status register (reg 15) = 0xC000
1000BaseX full duplex capable 1000BaseX half duplex capable
phy specific status (reg 17) = 0xAC14
link is up (real-time), speed/duplex resolved
speed: 1000 Mbps, duplex: full
page not received, cable length is < 50m
MDI cross-over status: MDI, downshift status: no
energy detect status: sleep
transmit pause: disabled, receive pause: enabled
polarity: normal, jabber: no
phy specific extended status (reg 27) = 0xB487
Fiber/ copper auto selection disabled, fiber link
Serial interface auto-negotiation bypass enabled
Serial interface auto-negotiation bypass status:
Link came up because regular fiber autoneg completed
Interrupt polarity is active low
Auto-negotiation configuration and status:
Auto-negotiation is enabled and is completed
Speed/duplex is resolved to 1000 Mbps, full duplex
Advertised capabilities: 1000BaseX/HD 1000BaseX/FD Pause capable (Asymmetric)
Partner capabilities: 1000BaseX/FD
Note
The above command output was modified to capture the SPA sensor temperature readings and error packet information.
The error information contains details about the:
•
Timestamp of the capture.
•
Interrupt state when packet is captured, which indicates the error type.
•
Packet length.
•
Blaze header part of the packet.
The following is a sample output of the show controllers modular-cable command with NO error packets.
Router# show controllers modular-Cable 1/0/1 | b reading
WBCMTS DOCSIS SPA temperature sensor 0, reading: 25C/77F
WBCMTS DOCSIS SPA temperature sensor 1, reading: 25C/77F
Error Packets Captured on Blaze SPI Interface:
Timestamp IntStat Len BlazeHeader
Detail Packet Content: (first 80 bytes, hex format)
The following is a sample output of the show controllers modular-cable command with captured error packets.
Router# show controllers modular-Cable 1/0/0
Host 12V is enabled and is okay.
Power has been enabled to the SPA.
SPA reports power enabled and okay.
SPA reports it is okay and is NOT held in reset.
................... <<< text omitted
WBCMTS DOCSIS SPA temperature sensor 0, reading: 26C/78F
WBCMTS DOCSIS SPA temperature sensor 1, reading: 25C/77F
Error Packets Captured on Blaze SPI Interface:
Timestamp IntStat Len BlazeHeader
000:00:12:49.190 C0000808 1510 00 00 00 00 01 00 00 00 00 00 00 00 00 0F C2 00
000:00:13:04.948 C0000808 796 00 00 00 00 01 00 00 00 00 00 00 00 00 0F C2 00
000:00:13:09.468 C0000808 60 00 00 00 00 01 00 00 00 00 00 00 00 00 0F C2 00
000:00:13:14.320 C0000808 26 00 00 00 00 01 00 00 00 00 00 00 00 00 0F C2 00
000:00:13:18.088 C0000808 496 00 00 00 00 01 00 00 00 00 00 00 00 00 0F C2 00
Detail Packet Content: (first 80 bytes, hex format)
0x00: 00 00 00 00 01 00 00 00 00 00 00 00 00 0F C2 00
0x10: 00 1C 9C 24 01 E0 2F 00 00 01 00 00 00 00 00 00
0x20: 00 0A 00 00 03 04 FD 00 00 48 03 FC 00 00 00 00
0x30: 00 00 00 00 00 00 00 05 00 00 00 00 80 06 12 78
0x40: 00 00 00 00 00 00 00 00 00 00 00 05 00 00 00 00
0x00: 00 00 00 00 01 00 00 00 00 00 00 00 00 0F C2 00
0x10: 00 1C 9C 24 01 E0 2F 00 00 01 00 00 00 00 00 00
0x20: 00 0A 00 00 03 04 FD 00 00 48 03 FC 00 00 00 00
0x30: 00 00 00 00 00 00 00 05 00 00 00 00 80 06 12 78
0x40: 00 00 00 00 00 00 00 00 00 00 00 05 00 00 00 00
0x00: 00 00 00 00 01 00 00 00 00 00 00 00 00 0F C2 00
0x10: 00 1C 9C 24 01 E0 2F 00 00 01 00 00 00 00 00 00
0x20: 00 0A 00 00 03 04 FD 00 00 48 03 FC 00 00 00 00
0x30: 00 00 00 00 00 00 00 05 00 00 00 00
0x00: 00 00 00 00 01 00 00 00 00 00 00 00 00 0F C2 00
0x10: 00 1C 9C 24 01 E0 2F 00 00 01
0x00: 00 00 00 00 01 00 00 00 00 00 00 00 00 0F C2 00
0x10: 00 1C 9C 24 01 E0 2F 00 00 01 00 00 00 00 00 00
0x20: 00 0A 00 00 03 04 FD 00 00 48 03 FC 00 00 00 00
0x30: 00 00 00 00 00 00 00 05 00 00 00 00 80 06 12 78
0x40: 00 00 00 00 00 00 00 00 00 00 00 05 00 00 00 00
Note
The temperature sensor readings in the command output shown above is specific to the Cisco IOS Release 12.3(23)BC and will not appear in the Cisco IOS Release 12.2(33)SCB and later releases.
Beginning in Cisco IOS Release 12.3(23)BC6, the command output was modified to capture the SPA environment monitoring information. The environment monitoring information includes:
Temperature sensor information:
•
Sensor number
•
Current sensor reading
•
Low threshold
•
Warning threshold
•
Critical threshold
•
Shutdown threshold
Voltage sensor information:
•
Nominal value of the rail
•
Current voltage reading
•
Low shutdown threshold
•
Low warning threshold
•
High warning threshold
•
High shutdown threshold
The following is a sample output of the show controllers modular-cable command that displays the SPA environment monitoring information.
Router# show controllers modular-cable 1/0/0 | b SPA Env
SPA Environment Monitoring Information:
Temperature sensors for SPA-24XDS-SFP[1/0]:
Sensor Reading Low Warning Critical Shutdown
Voltage sensors for SPA-24XDS-SFP[1/0]:
Nominal Reading LowShut LowWarn HighWarn HighShut
3.300V 3.276V 3.069V 3.135V 3.465V 3.531V
2.500V 2.485V 2.325V 2.375V 2.625V 2.675V
1.200V 1.186V 1.116V 1.140V 1.260V 1.284V
1.800V 1.801V 1.674V 1.710V 1.890V 1.926V
Note
The SPAs are shut down automatically when the sensor readings go beyond the threshold shutdown value.
In Cisco IOS Release 12.2(33)SCC, when the primary link on the SPA toggles more than five times within 30 seconds, and the backup link is UP, the backup link is selected for traffic. The link switches back to the primary link during the next primary link transition after 30 seconds or when the backup link fails. The show controllers modular-cable command output was modified to capture the toggle information.
The following is a sample output of the show controllers modular-cable command that displays the toggle information.
Router# show controllers modular-cable 1/1/0
Host 12V is enabled and is okay.
Power has been enabled to the SPA.
SPA reports power enabled and okay.
SPA reports it is okay and is NOT held in reset.
Gigabit Ethernet Port Selected : Port 0
Receive Interface : Out of Reset
Receive Interface : Enabled
Transmit Interface : Out of Reset
Transmit Interface : Enabled
Primary Receive Clock : Enabled
Backup Receive Clock : Enabled
SFP [Port 0] : 1000BASE-SX Present
Tx Enabled , LOS Not Detected , TxFault Not Detected
Link Status [Port 0] : UP
Primary port Link Up Events : 2
Primary port Link Down Events : 0
Backup port Link Up Events : 2
Backup port Link Down Events : 0
Current Link Toggle Count : 0
Link Toggle Suppressed : TRUE
Link Toggle Suppress Events : 0
SFP [Port 1] : 1000BASE-SX Present
Tx Enabled , LOS Not Detected , TxFault Not Detected
Link Status [Port 1] : UP
Wideband Channel information
Channel RF bitmap Police Info: Bytes Interval
The following is a sample output for the rf-channel keyword:
Router# show controllers Modular-Cable 8/1/0 rf-channel
Ctrl Chan Frequency Mod Annex IP Address MAC Address DEPI Remote ID
0 0 453000000 256 B 10.31.136.100 0022.9084.4e3f 101231
0 1 459000000 256 B 10.31.136.100 0022.9084.4e3f 101232
0 2 465000000 256 B 10.31.136.100 0022.9084.4e3f 101233
0 3 471000000 256 B 10.31.136.100 0022.9084.4e3f 101234
0 4 477000000 256 B 10.31.136.100 0022.9084.4e3f 101241
0 5 483000000 256 B 10.31.136.100 0022.9084.4e3f 101242
0 6 489000000 256 B 10.31.136.100 0022.9084.4e3f 101243
0 7 495000000 256 B 10.31.136.100 0022.9084.4e3f 101244
0 8 0 64 B 0.0.0.0 0000.0000.0000 0
0 9 0 64 B 0.0.0.0 0000.0000.0000 0
0 10 0 64 B 0.0.0.0 0000.0000.0000 0
0 11 0 64 B 0.0.0.0 0000.0000.0000 0
0 12 0 64 B 0.0.0.0 0000.0000.0000 0
0 13 0 64 B 0.0.0.0 0000.0000.0000 0
0 14 0 64 B 0.0.0.0 0000.0000.0000 0
0 15 0 64 B 0.0.0.0 0000.0000.0000 0
0 16 0 64 B 0.0.0.0 0000.0000.0000 0
0 17 0 64 B 0.0.0.0 0000.0000.0000 0
0 18 0 64 B 0.0.0.0 0000.0000.0000 0
0 19 0 64 B 0.0.0.0 0000.0000.0000 0
0 20 0 64 B 0.0.0.0 0000.0000.0000 0
0 21 0 64 B 0.0.0.0 0000.0000.0000 0
0 22 0 64 B 0.0.0.0 0000.0000.0000 0
0 23 0 64 B 0.0.0.0 0000.0000.0000 0
Router# show controllers Modular-Cable 8/1/0 rf-channel 7
Ctrl Chan Frequency Mod Annex IP Address MAC Address DEPI Remote ID
0 7 495000000 256 B 10.31.136.100 0022.9084.4e3f 101244
The following is a sample output for the wideband-channel keyword:
Router# show controllers Modular-Cable 8/1/0 wideband-channel
Wideband-Cable8/1/0:0 1377 Yes
Wideband-Cable8/1/0:1 1378 Yes
Wideband-Cable8/1/0:2 1379 Yes
Wideband-Cable8/1/0:3 1380 Yes
Wideband-Cable8/1/0:4 1381 Yes
Wideband-Cable8/1/0:5 1382 Yes
Wideband-Cable8/1/0:6 1383 Yes
Wideband-Cable8/1/0:7 1384 Yes
Wideband-Cable8/1/0:8 1385 Yes
Wideband-Cable8/1/0:9 1386 Yes
Wideband-Cable8/1/0:10 1387 Yes
Wideband-Cable8/1/0:11 1388 Yes
Wideband-Cable8/1/0:12 1389 Yes
Wideband-Cable8/1/0:13 1390 Yes
Wideband-Cable8/1/0:14 1391 Yes
Wideband-Cable8/1/0:15 1392 Yes
Wideband-Cable8/1/0:16 1393 Yes
Wideband-Cable8/1/0:17 1394 Yes
Wideband-Cable8/1/0:18 1395 Yes
Wideband-Cable8/1/0:19 1396 Yes
Wideband-Cable8/1/0:20 1397 Yes
Wideband-Cable8/1/0:21 1398 Yes
Wideband-Cable8/1/0:22 1399 Yes
Wideband-Cable8/1/0:23 1400 Yes
Wideband-Cable8/1/0:24 1401 Yes
Wideband-Cable8/1/0:25 1402 Yes
Wideband-Cable8/1/0:26 1403 Yes
Wideband-Cable8/1/0:27 1404 Yes
Wideband-Cable8/1/0:28 1405 Yes
Wideband-Cable8/1/0:29 1406 Yes
Wideband-Cable8/1/0:30 1407 Yes
Wideband-Cable8/1/0:31 1408 Yes
Router# show controllers Modular-Cable 8/1/0 wideband-channel 0
Wideband-Cable8/1/0:0 1377 Yes
The following is a sample output of the show controllers modular-cable mapping command:
router# show controllers modular-cable mapping
Ctrlr RF MC MC Rem. WB WB WB Rem.
channel BW % Ratio channel BW % Ratio
The following is a sample output of the show controllers modular-cable registers command:
router# show controllers modular-Cable 5/1/0 registers
JIB3_DS BPI registers (base address 0xF8880000)
bpi_int_isr_0 [0x00000000] = 0x00000000
bpi_int_ier_0 [0x00000004] = 0x0000000F
glb_int_isr_0 [0x00000010] = 0x00000000
glb_int_ier_0 [0x00000014] = 0x00001EFF
glb_int_isr_1 [0x00000020] = 0x00000000
glb_int_ier_1 [0x00000024] = 0x00001EFF
col_chip_mode_reg [0x00000030] = 0x00000001
bpi_int_fesr_0 [0x00000040] = 0x00000000
bpi_tst_tp_sel_reg [0x00000050] = 0x00000000
bpi_tst_tp_reg [0x00000054] = 0x00000000
bpi_cnt_good_packet_in_cnt [0x00000064] = 0x00013418
bpi_cnt_bad_packet_in_cnt [0x00000068] = 0x00000000
bpi_cnt_good_packet_out_cnt [0x0000006C] = 0x00013418
bpi_cnt_bad_packet_out_cnt [0x00000070] = 0x00000000
bpi_ecc_sbit_err_cnt [0x00000074] = 0x00000000
glb_sw_rev_id [0x00000078] = 0x00020002
glb_hw_rev_id [0x0000007C] = 0x0001000D
frz_reg [0x00000080] = 0x00000000
frz_en [0x00000084] = 0x00000001
glb_dcm_status [0x00000088] = 0x00000007
glb_sw_rst [0x0000008C] = 0x00000000
The following is a sample output for the dsid-log keyword:
Router# show controllers modular-Cable 1/0/0 dsid-log search 1 1000
SPA 0 DSID Info Log Count 17
00y:000d:00h:03m:11.908 ds_stat_index=00022 dsid=0x001A8 seq_num_b4=0x00000
1st_seq_num=0x00000
slotIdx=10 5/0 sid=00009 WbIdx=000000 old_dsid=0x00000 MD=01 (5/0/1) IPC_Port=0x00010000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_UPDATE
00y:000d:00h:03m:11.972 ds_stat_index=00021 dsid=0x001A0 seq_num_b4=0x00000
1st_seq_num=0x00000
slotIdx=10 5/0 sid=00010 WbIdx=000000 old_dsid=0x00000 MD=01 (5/0/1) IPC_Port=0x00010000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_UPDATE
00y:000d:00h:03m:12.208 ds_stat_index=00024 dsid=0x001B8 seq_num_b4=0x00000
1st_seq_num=0x00000
slotIdx=10 5/0 sid=00011 WbIdx=000000 old_dsid=0x00000 MD=01 (5/0/1) IPC_Port=0x00010000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_UPDATE
00y:000d:00h:03m:12.632 ds_stat_index=00023 dsid=0x001B0 seq_num_b4=0x00000
1st_seq_num=0x00000
slotIdx=10 5/0 sid=00012 WbIdx=000000 old_dsid=0x00000 MD=01 (5/0/1) IPC_Port=0x00010000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_UPDATE
00y:000d:00h:27m:13.024 ds_stat_index=00021 dsid=0x00000 seq_num_b4=0x00000
1st_seq_num=0x00000
slotIdx=10 5/0 sid=00010 WbIdx=000000 old_dsid=0x001A0 MD=01 (5/0/1) IPC_Port=0x000C0000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_CLEAR_CLEANUP
00y:000d:00h:27m:13.090 ds_stat_index=00022 dsid=0x00000 seq_num_b4=0x00001
1st_seq_num=0x00001
slotIdx=10 5/0 sid=00009 WbIdx=000000 old_dsid=0x001A8 MD=01 (5/0/1) IPC_Port=0x000C0000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_CLEAR_CLEANUP
00y:000d:00h:27m:13.156 ds_stat_index=00023 dsid=0x00000 seq_num_b4=0x00001
1st_seq_num=0x00001
slotIdx=10 5/0 sid=00012 WbIdx=000000 old_dsid=0x001B0 MD=01 (5/0/1) IPC_Port=0x000C0000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_CLEAR_CLEANUP
00y:000d:00h:27m:13.220 ds_stat_index=00024 dsid=0x00000 seq_num_b4=0x00000
1st_seq_num=0x00000
slotIdx=10 5/0 sid=00011 WbIdx=000000 old_dsid=0x001B8 MD=01 (5/0/1) IPC_Port=0x000C0000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_CLEAR_CLEANUP
00y:000d:00h:29m:30.388 ds_stat_index=00025 dsid=0x001C0 seq_num_b4=0x00000
1st_seq_num=0x00000
slotIdx=10 5/0 sid=00013 WbIdx=000000 old_dsid=0x00000 MD=01 (5/0/1) IPC_Port=0x00010000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_UPDATE
00y:000d:00h:29m:32.544 ds_stat_index=00026 dsid=0x001C8 seq_num_b4=0x00000
1st_seq_num=0x00000
slotIdx=10 5/0 sid=00014 WbIdx=000000 old_dsid=0x00000 MD=01 (5/0/1) IPC_Port=0x00010000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_UPDATE
00y:000d:00h:29m:36.446 ds_stat_index=00028 dsid=0x001D8 seq_num_b4=0x00000
1st_seq_num=0x00000
slotIdx=10 5/0 sid=00016 WbIdx=000000 old_dsid=0x00000 MD=01 (5/0/1) IPC_Port=0x00010000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_UPDATE
00y:000d:00h:29m:36.970 ds_stat_index=00027 dsid=0x001D0 seq_num_b4=0x00000
1st_seq_num=0x00000
slotIdx=10 5/0 sid=00015 WbIdx=000000 old_dsid=0x00000 MD=01 (5/0/1) IPC_Port=0x00010000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_UPDATE
SPA 0 DSID Suspect Count 0
No entries in the DSID Suspect List Log for SPA 0
The following is a sample output with the stat-index-log keyword:
Router# show controllers modular-Cable 1/0/0 stat-index-log search 1 1000
SPA 0 DSID Info Log Count 17
00y:000d:00h:03m:11.908 ds_stat_index=00022 dsid=0x001A8 seq_num_b4=0x00000
1st_seq_num=0x00000
slotIdx=10 5/0 sid=00009 WbIdx=000000 old_dsid=0x00000 MD=01 (5/0/1) IPC_Port=0x00010000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_UPDATE
00y:000d:00h:03m:11.972 ds_stat_index=00021 dsid=0x001A0 seq_num_b4=0x00000
1st_seq_num=0x00000
slotIdx=10 5/0 sid=00010 WbIdx=000000 old_dsid=0x00000 MD=01 (5/0/1) IPC_Port=0x00010000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_UPDATE
00y:000d:00h:03m:12.208 ds_stat_index=00024 dsid=0x001B8 seq_num_b4=0x00000
1st_seq_num=0x00000
slotIdx=10 5/0 sid=00011 WbIdx=000000 old_dsid=0x00000 MD=01 (5/0/1) IPC_Port=0x00010000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_UPDATE
00y:000d:00h:03m:12.632 ds_stat_index=00023 dsid=0x001B0 seq_num_b4=0x00000
1st_seq_num=0x00000
slotIdx=10 5/0 sid=00012 WbIdx=000000 old_dsid=0x00000 MD=01 (5/0/1) IPC_Port=0x00010000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_UPDATE
00y:000d:00h:27m:13.024 ds_stat_index=00021 dsid=0x00000 seq_num_b4=0x00000
1st_seq_num=0x00000
slotIdx=10 5/0 sid=00010 WbIdx=000000 old_dsid=0x001A0 MD=01 (5/0/1) IPC_Port=0x000C0000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_CLEAR_CLEANUP
00y:000d:00h:27m:13.090 ds_stat_index=00022 dsid=0x00000 seq_num_b4=0x00001
1st_seq_num=0x00001
slotIdx=10 5/0 sid=00009 WbIdx=000000 old_dsid=0x001A8 MD=01 (5/0/1) IPC_Port=0x000C0000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_CLEAR_CLEANUP
00y:000d:00h:27m:13.156 ds_stat_index=00023 dsid=0x00000 seq_num_b4=0x00001
1st_seq_num=0x00001
slotIdx=10 5/0 sid=00012 WbIdx=000000 old_dsid=0x001B0 MD=01 (5/0/1) IPC_Port=0x000C0000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_CLEAR_CLEANUP
00y:000d:00h:27m:13.220 ds_stat_index=00024 dsid=0x00000 seq_num_b4=0x00000
1st_seq_num=0x00000
slotIdx=10 5/0 sid=00011 WbIdx=000000 old_dsid=0x001B8 MD=01 (5/0/1) IPC_Port=0x000C0000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_CLEAR_CLEANUP
00y:000d:00h:29m:30.388 ds_stat_index=00025 dsid=0x001C0 seq_num_b4=0x00000
1st_seq_num=0x00000
slotIdx=10 5/0 sid=00013 WbIdx=000000 old_dsid=0x00000 MD=01 (5/0/1) IPC_Port=0x00010000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_UPDATE
00y:000d:00h:29m:32.544 ds_stat_index=00026 dsid=0x001C8 seq_num_b4=0x00000
1st_seq_num=0x00000
slotIdx=10 5/0 sid=00014 WbIdx=000000 old_dsid=0x00000 MD=01 (5/0/1) IPC_Port=0x00010000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_UPDATE
00y:000d:00h:29m:36.446 ds_stat_index=00028 dsid=0x001D8 seq_num_b4=0x00000
1st_seq_num=0x00000
slotIdx=10 5/0 sid=00016 WbIdx=000000 old_dsid=0x00000 MD=01 (5/0/1) IPC_Port=0x00010000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_UPDATE
00y:000d:00h:29m:36.970 ds_stat_index=00027 dsid=0x001D0 seq_num_b4=0x00000
1st_seq_num=0x00000
slotIdx=10 5/0 sid=00015 WbIdx=000000 old_dsid=0x00000 MD=01 (5/0/1) IPC_Port=0x00010000
this_bay=0
GblIdx=000000 slot=0 bay=0 src_thread=DSID_UPDATE
SPA 0 DSID Suspect Count 0
No entries in the DSID Suspect List Log for SPA 0
The following is a sample output with the dsid-ref-log keyword:
Router# show controllers modular-Cable 1/0/0 dsid-ref-log dsid 0xf000
dsid = 61440(0xF000) last_stat_index = 64936 ref_count = 1
Related Commands
Command
|
Description
|
show controllers jacket
|
Displays Wideband SIP register values.
|
show controllers usb
To display the current state information for the USB interface and its controller, use the show controllers usb command in privileged EXEC mode.
Cisco uBR925 cable access router, Cisco CVA122 Cable Voice Adapter
show controllers usb number
Syntax Description
number
|
Identifies the USB interface (always 0).
|
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
12.1(5)XU1
|
This command was introduced for the Cisco CVA122 Cable Voice Adapter.
|
12.2(2)XA
|
Support was added for the Cisco uBR925 cable access router.
|
Examples
The following example shows sample output from the show controllers usb command:
Router# show controllers usb 0
PQUICC Ethernet unit 0 using SCC2, Microcode ver 3392
Current station address 0001.64f9.22fc, default address 0001.64f9.22fc
idb at 0x80B478EC, driver data structure at 0x80B4966C
SCC Registers:
General [GSMR]=0x0:0x1088003C, Protocol-specific [PSMR]=0x80A
Events [SCCE]=0x0000, Mask [SCCM]=0x001F, Status [SCCS]=0x0002
Transmit on Demand [TODR]=0x0, Data Sync [DSR]=0xD555
Interrupt Registers:
Config [CICR]=0x001B9F80, Pending [CIPR]=0x00000C00
Mask [CIMR]=0x60020010, In-srv [CISR]=0x00000000
Command register [CR]=0x640
Port A [PADIR]=0x00C0, [PAPAR]=0x0F0F
[PAODR]=0x00F3, [PADAT]=0x004F
Port B [PBDIR]=0x00F32F, [PBPAR]=0x0020D0
[PBODR]=0x008000, [PBDAT]=0x0053EF
Port C [PCDIR]=0x030C, [PCPAR]=0x0300
[PCSO]=0x00F0, [PCDAT]=0x050C, [PCINT]=0x0000
Port D [PDDIR]=0x001EF7, [PDPAR]=0x000000
[PDDAT]=0x000FBA
SI [SIMODE]=0x00001000, [SIGMR]=0x00, [SISTR]=0x00
[SICR]=0x00002628
BRGC [BRGC1]=0x00018008, [BRGC2]=0x000101FA
[BRGC3]=0x00000000, [BRGC4]=0x00000000
SCC GENERAL PARAMETER RAM (at 0x10783D00)
Rx BD Base [RBASE]=0x2800, Fn Code [RFCR]=0x18
Tx BD Base [TBASE]=0x2880, Fn Code [TFCR]=0x18
Max Rx Buff Len [MRBLR]=1520
Rx State [RSTATE]=0x0, BD Ptr [RBPTR]=0x2800
Tx State [TSTATE]=0x18000AE3, BD Ptr [TBPTR]=0x2890
SCC ETHERNET PARAMETER RAM (at 0x10783D30)
CRC Preset [C_PRES]=0xFFFFFFFF, Mask [C_MASK]=0xDEBB20E3
Errors:CRC [CRCEC]=0, Alignment [ALEC]=0, Discards [DISFC]=0
PAD Char [PADS]=0x0
Retry Limit [RET_LIM]=15, Count [RET_CNT]=15
Frame Lengths:[MAXFLR]=1518, [MINFLR]=64
Max DMA Lengths:[MAXD1]=1518, [MAXD2]=1518
Group Address Filter [GADDRn]=0420:0000:0420:0100
Indiv Address Filter [IADDRn]=0000:0000:0000:0000
Physical Address [PADDR1]=FFFFFC22.FFFFF964.0100
Last Address Set in Filter [TADDR]=FFFFCDCC.FFFFCC0C.0001
Persistence [P_Per]=0, Backoff Cnt [BOFF_CNT]=0
BD Pointers:
First Rx [RFBD]=0x0, First Tx [TFBD]=0x2890, Last Tx [TLBD]=0x2888
RX ring with 16 entries at 0x10782800, Buffer size 1524
Rxhead = 0x10782800 (0), Rxp = 0x80B49688 (0)
00 pak=0x80B4D9EC buf=0x10032A9C status=9000 pak_size=0
01 pak=0x80B4D728 buf=0x100323E0 status=9000 pak_size=0
02 pak=0x80B4D464 buf=0x10031D24 status=9000 pak_size=0
03 pak=0x80B4D1A0 buf=0x10031668 status=9000 pak_size=0
04 pak=0x80B4CEDC buf=0x10030FAC status=9000 pak_size=0
05 pak=0x80B4CC18 buf=0x100308F0 status=9000 pak_size=0
06 pak=0x80B4C954 buf=0x10030234 status=9000 pak_size=0
07 pak=0x80B4C690 buf=0x1002FB78 status=9000 pak_size=0
08 pak=0x80B4C3CC buf=0x1002F4BC status=9000 pak_size=0
09 pak=0x80B4C108 buf=0x1002EE00 status=9000 pak_size=0
10 pak=0x80B4BE44 buf=0x1002E744 status=9000 pak_size=0
11 pak=0x80B4BB80 buf=0x1002E088 status=9000 pak_size=0
12 pak=0x80B4B8BC buf=0x1002D9CC status=9000 pak_size=0
13 pak=0x80B4B5F8 buf=0x1002D310 status=9000 pak_size=0
14 pak=0x80B4B334 buf=0x1002CC54 status=9000 pak_size=0
15 pak=0x80B4B070 buf=0x1002C598 status=B000 pak_size=0
TX ring with 4 entries at 0x10782880, tx_count = 0
tx_head = 0x10782890 (2), head_txp = 0x80B496EC (2)
tx_tail = 0x10782890 (2), tail_txp = 0x80B496EC (2)
00 pak=0x0000000 buf=0x0000000 status=0000 pak_size=0
01 pak=0x0000000 buf=0x0000000 status=0000 pak_size=0
02 pak=0x0000000 buf=0x0000000 status=0000 pak_size=0
03 pak=0x0000000 buf=0x0000000 status=2000 pak_size=0
32 missed datagrams, 0 overruns
0 transmitter underruns, 0 excessive collisions
0 single collisions, 0 multiple collisions
0 dma memory errors, 0 CRC errors
0 alignment errors, 0 runts, 0 giants
PQUICC SCC specific errors:
32 buffer errors, 0 overflow errors
0 input aborts on late collisions
0 heartbeat failures, 0 cumulative deferred
Tip
In Cisco IOS Release 12.2(8)T and later releases, you can add a timestamp to show commands using the exec prompt timestamp command in line configuration mode.
Related Commands
Command
|
Description
|
interface usb
|
Enters interface configuration mode for the USB interface.
|
show interfaces usb
|
Displays configuration information about the USB interface.
|
show cpd
To display the CPD functionality state, use the show cpd command in privileged EXEC mode.
show cpd
Command Default
Information for the CPD 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:
Related Commands
Command
|
Description
|
cpd
|
Enables CPD.
|
show cr10k-rp cable
Note
This command is meant for engineering debugging, and not for general customer use.
To display packet processing information for a particular service ID (SID) on a cable interface, use the show cr10k-rp cable command in user EXEC or privileged EXEC mode.
show cr10k-rp cable slot/subslot/port sid {classifier | mac-rw-index | queue | service-flow {ds |
us}}
Syntax Description
cable slot/subslot/port
|
Identifies the cable interface on the Cisco uBR10012 router for which information should be displayed, where:
• slot—0 to 8
• subslot—0 or 1
• port—0 to 4 (depending on the cable interface)
|
sid
|
(Optional) Identifies the service ID (SID) for which information should be displayed.
|
classifier
|
Displays classifier information for the SID.
|
mac-rw-index
|
Displays the MAC rewrite index for the SID.
|
queue
|
Displays information about the output packet queues for the modem identified by the SID.
|
service-flow ds
|
Displays the information of the downstream service-flows for the modem identified by the SID.
|
service-flow us
|
Displays the information of the upstream service-flows for the modem identified by the SID.
|
Defaults
No default behavior or values.
Command Modes
User EXEC (>)
Privileged EXEC (#)
Command History
Release
|
Modification
|
12.2(15)BC1
|
This command was introduced for the Cisco uBR10012 router.
|
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.
|
Usage Guidelines
The show cr10k-rp cable command displays information that the PRE routing processor (RP) module has about a particular SID. This information includes configuration information about the SID, as well as internal status information that is useful only to Cisco engineers in troubleshooting problems.
Examples
The following example shows typical output for the show cr10k-rp cable command for a SID that identifies a cable modem:
Router# show cr10k-rp c6/1/0 2 classifier
Mac Rw Index: 5 CCB Index: 7
id=4, sfid=14 CFR Index 16396 RP sfindex 16396,
prio=10, 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=A0,E0
sport = 0,750, dport = 1024,10000 matches = 0
id=2, sfid=13 CFR Index 16395 RP sfindex 16395,
prio=9, 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=A0,E0
sport = 0,65535, dport = 0,65535 matches = 0
id=3, sfid=12 CFR Index 16394 RP sfindex 16394,
prio=8, sip=9.0.0.0, sip mask=255.255.0.0
dip=1.11.22.0, dip mask=255.255.255.0, prot=256, tos=0,FF
sport = 0,65535, dport = 0,65535 matches = 0
id=1, sfid=11 CFR Index 16393 RP sfindex 16393,
prio=7, sip=0.0.0.0, sip mask=0.0.0.0
dip=1.11.22.0, dip mask=255.255.255.0, prot=256, tos=0,FF
sport = 0,65535, dport = 0,65535 matches = 0
The following example shows typical output for the show cr10k-rp classifier command for a SID that identifies a customer premises equipment (CPE) device:
Router# show cr10k-rp c6/0/0 70 classifier
Mac Rw Index: 390 CCB Index: 97
id=7, sfid=205 CFR Index 16484 RP sfindex 16484,
prio=255, sip=0.0.0.0, sip mask=0.0.0.0
dip=15.0.0.1, dip mask=255.255.255.255, prot=257, tos=0,FF
sport = 0,65535, dport = 1001,1001 matches = 0
id=1, sfid=199 CFR Index 16478 RP sfindex 16478,
prio=25, sip=0.0.0.0, sip mask=0.0.0.0
dip=0.0.0.0, dip mask=0.0.0.0, prot=257, tos=0,FF
sport = 0,65535, dport = 1000,1000 matches = 0
id=5, sfid=203 CFR Index 16482 RP sfindex 16482,
prio=0, sip=0.0.0.0, sip mask=0.0.0.0
dip=15.0.0.1, 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
---------------------------------------------------------
Mac Rw Index: 387 CCB Index: 93
id=4, sfid=202 CFR Index 16481 RP sfindex 16481,
prio=255, sip=0.0.0.0, sip mask=0.0.0.0
dip=14.0.0.1, dip mask=255.255.255.255, prot=17, tos=0,FF
sport = 0,65535, dport = 0,65535 matches = 0
id=1, sfid=199 CFR Index 16478 RP sfindex 16478,
prio=25, sip=0.0.0.0, sip mask=0.0.0.0
dip=0.0.0.0, dip mask=0.0.0.0, prot=257, tos=0,FF
sport = 0,65535, dport = 1000,1000 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
---------------------------------------------------------
The following example shows typical output for the mac-rw-index option:
Router# show cr10k-rp c8/0/0 1 mac-rw-index
CPE Information for Interface Cable8/0/0 SID 1:
Link Table Slot: 17 Mac-rw-index: 17
Router# show cr10k-rp c8/0/0 2 mac-rw-index
CPE Information for Interface Cable8/0/0 SID 2:
Link Table Slot: 18 Mac-rw-index: 18
Tip
To display more information about the max-rw-index, use the show pxf cpu cef command to display information for a specific IP address. The output of this command shows the max-rw-index value in the "rw_index" field.
The following example shows typical output for the show cr10k-rp queue command:
Router# show cr10k-rp c6/1/0 1 queue
Queue Index: 293 QID 293 VCCI 6162 ClassID 5 Refcount 1
Priority: Lo Rates:(Act/Conf) CIR 0/0 MIR 6067/6067 EIR 1260/1260
Statsitics: Length 0 Pkts 1 Octets 52 TailDrops 0 BufferDrops 0
Queue Index: 294 QID 294 VCCI 6162 ClassID 6 Refcount 1
Priority: Lo Rates:(Act/Conf) CIR 0/0 MIR 0/1820 EIR 0/1260
Statsitics: Length 0 Pkts 0 Octets 0 TailDrops 0 BufferDrops 0
Queue Index: 295 QID 295 VCCI 6162 ClassID 7 Refcount 1
Priority: Lo Rates:(Act/Conf) CIR 0/0 MIR 0/2427 EIR 0/1260
Statsitics: Length 0 Pkts 0 Octets 0 TailDrops 0 BufferDrops 0
ubr-45#show cr10k-rp mod 1/2/0:0 queue
Queue Index: 131241, GlobalQID 71, CBLT ID 131241
MinRate(Kbps) 0, ExcessRatio 4, ShapeRate(bps) 0, QLimit 255
Service Flow(s): rp_sf_index 32881, lc_sfid 29, min_rate(bps) 0, max_rate(bps) 0
Queue Index: 2049, GlobalQID 70, CBLT ID 2049
MinRate(Kbps) 100, ExcessRatio 32, ShapeRate(bps) 0, QLimit 255
Service Flow(s): rp_sf_index 32880, lc_sfid 8, min_rate(bps) 100000, max_rate(bps) 0
The following example shows typical output for the show cr10k-rp service-flow command for both the downstream and upstream directions:
Router# show cr10k-rp c8/0/0 1 service-flow ds
RP DS SFID LC SFID Bytes Packets QID
Router# show cr10k-rp c8/0/0 1 service-flow us
Related Commands
Command
|
Description
|
show cr10k-rp queue
|
Displays information about the packet queues for a cable interface.
|
show cr10k-rp controller
Note
This command is meant only for engineering debugging, and not for general customer use.
To display packet processing information for a particular service ID (SID) on a cable interface, use the show cr10k-rp controller command in user EXEC or privileged EXEC mode.
Cisco IOS Releases 12.3(21)BC, 12.3(23)BC, and 12.2(33)SCA
show cr10k-rp controller modular-cable slot/subslot/port {lblt | pblt}
Cisco IOS Release 12.2(33)SCB
show cr10k-rp controller modular-cable slot/bay/port {lblt | pblt}
Cisco IOS Release 12.2(33)SCF
show cr10k-rp controller modular-cable slot/subslot/unit {acfe [cluster cluster-index] | lblt |
pblt}
Syntax Description
modular-cable slot/bay/port
|
Identifies the cable interface on the Cisco uBR10012 router for which information should be displayed, where:
• slot—0 to 8
• bay—0 or 1
• subslot—0 to 3
• port—0
• unit—0
|
acfe
|
Identifies the Logical Bandwidth Limiting Traffic (LBLT) associated with the RF Physical Logical Bandwidth Limiting Traffic (PBLT).
• cluster-index—Cluster index. The valid values range from 0 to 31.
|
lblt
|
Identifies the LBLT associated with the RF PBLT.
|
pblt
|
Identifies the PBLTs associated with the RF Channels.
|
Command Modes
User EXEC (>)
Privileged EXEC (#)
Command History
Release
|
Modification
|
12.2(15)BC1
|
This command was introduced for the Cisco uBR10012 router.
|
12.3BC
|
This command was integrated into Cisco IOS release 12.3BC. The modular-cable keyword was introduced.
|
12.2(33)SCA
|
This command was integrated into Cisco IOS release 12.2(33)SCA.
|
12.2(33)SCB
|
This command was modified. The addressing format for the modular-cable interface and wideband-cable interface changed from slot/subslot/bay to slot/bay/port.
|
12.2(33)SCF
|
This command was modified. The acfe keyword was added.
|
Usage Guidelines
The show cr10k-rp controller command displays information that the PRE route processor (RP) module has for a particular SID. This information includes configuration information about the SID, as well as internal status information that is useful only to Cisco engineers during troubleshooting.
Examples
The following examples show sample outputs for the show cr10k-rp controller command for a SID that identifies a cable modem:
Router# show cr10k-rp controller modular-cable 1/1/0 lblt
LBLTs on each RF Channel's PBLT
RFChnl WBChnl/LBLTGrp LBLTId Weight/Quantum
Router# show cr10k-rp controller modular-cable 1/1/0 pblt
RF Channel PBLTs on Modular-Cable 1/0/0
Channel PBLTIndex BW(Kbps) Flowbit(prd/ofst) Rsrc/FlowRsrc
The following example shows a sample output for the show cr10k-rp controller command with the acfe keyword:
Router# show cr10k-rp controller modular-cable 1/1/0 acfe
Modular-Cable 1/0/0 status:
========Cluster 0========
RF FlexBW WB GuarBW Quanta
The following example shows a sample output for the show cr10k-rp controller command with the acfe keyword for a particular cluster:
Router# show cr10k-rp controller modular-cable 1/1/0 acfe cluster 1
Modular-Cable 1/0/0 status:
========Cluster 1========
RF FlexBW WB GuarBW Quanta
Related Commands
Command
|
Description
|
show cr10k-rp queue
|
Displays information about the packet queues for a cable interface.
|
show cr10k-rp queue
Note
This command is meant for engineering debugging, and not for general customer use.
To display information about the packet queues for a cable interface, use the show cr10k-rp queue command in user EXEC or privileged EXEC mode.
Cisco IOS Releases 12.3(21)BC, 12.3(23)BC, and 12.2(33)SCA
show cr10k-rp {cable slot/subslot/port | modular-cable slot/subslot/port:channel |
wideband-cable slot/subslot/port:channel } queue {be | cir | llq}
Cisco IOS Release 12.2(33)SCB
show cr10k-rp {cable slot/subslot/port | modular-cable slot/bay/port:channel | wideband-cable
slot/bay/port:channel } queue
Syntax Description
cable slot/subslot/port
|
Identifies the cable interface on the Cisco uBR10012 router for which information should be displayed, where:
• slot—0 to 8
• subslot—0 or 1
• port—0 to 4
|
modular-cable slot/bay/port:channel
|
Identifies the cable interface on the Cisco uBR10012 router for which information should be displayed, where:
• slot—0 to 8
• bay—0 or 1
• port—0
• channel—0
Note Support for modular-cable keyword was introduced in Cisco IOS Release 12.3(23)BC.
|
wideband-cable slot/bay/port:channel
|
Identifies the wideband-cable interface on the Cisco uBR10012 router for which information should be displayed, where:
• slot—0 to 8
• bay—0 or 1
• port—0
• channel—0
Note Support for wideband-cable keyword was introduced in Cisco IOS Release 12.3(21)BC.
|
queue
|
Displays information about the packet queues for the SID.
Note Options for the keyword queue were removed from Cisco IOS Release 12.3(21)BC.
|
Defaults
No default behavior or values.
Command Modes
User EXEC (>)
Privileged EXEC (#)
Command History
Release
|
Modification
|
12.2(15)BC1
|
This command was introduced for the Cisco uBR10012 router.
|
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 addressing format for the modular-cable interface and wideband-cable interface changed from slot/subslot/bay to slot/bay/port from Cisco IOS Release 12.2(33)SCB.
|
Usage Guidelines
The show cr10k-rp queue command displays information about the queues on the Cisco uBR10012 router.
Examples
The following examples show typical displays for each form of the show cr10k-rp queue command:
Router# show cr10k-rp cable 7/0/0 queue
Docsis queues on the interface: 1
Total DOCSIS Queues Allocated: 19
Available/Maximal reservable rate(kbps): 26000/26000
HQF BLT Info (LBLT Group 125):
LBLT 173: wt/qntm 1/10000; PBLT 1325: BW 26000Kbps, flowbit prd/ofst 32/3, rsrc
Queue Index: 131345, GlobalQID 125, CBLT ID 131345
MinRate(Kbps) 0, ExcessRatio 4, ShapeRate(bps) 10000000, QLimit 255
Service Flow(s): rp_sf_index 32925, lc_sfid 7, min_rate(bps) 0, max_rate(bps) 10
Router# show cr10k-rp modular-cable1/0/0:0 queue
Docsis queues on the interface: 9
Total DOCSIS Queues Allocated: 19
Available/Maximal reservable rate(kbps): 18750/18750
HQF BLT Info (LBLT Group 36):
LBLT 37: wt/qntm 1/5520; PBLT 3: BW 36000Kbps, flowbit prd/ofst 512/0, rsrc/flr
Queue Index: 131346, GlobalQID 126, CBLT ID 131346
MinRate(Kbps) 0, ExcessRatio 4, ShapeRate(bps) 10000000, QLimit 255
Service Flow(s): rp_sf_index 32927, lc_sfid 8, min_rate(bps) 0, max_rate(bps) 10
Queue Index: 131349, GlobalQID 127, CBLT ID 131349
MinRate(Kbps) 0, ExcessRatio 32, ShapeRate(bps) 0, QLimit 255
Service Flow(s): rp_sf_index 32930, lc_sfid 10, min_rate(bps) 0, max_rate(bps) 0
Queue Index: 131350, GlobalQID 128, CBLT ID 131350
MinRate(Kbps) 0, ExcessRatio 4, ShapeRate(bps) 0, QLimit 255
Service Flow(s): rp_sf_index 32931, lc_sfid 13, min_rate(bps) 0, max_rate(bps) 0
Queue Index: 131351, GlobalQID 129, CBLT ID 131351
MinRate(Kbps) 0, ExcessRatio 32, ShapeRate(bps) 0, QLimit 255
Service Flow(s): rp_sf_index 32932, lc_sfid 12, min_rate(bps) 0, max_rate(bps) 0
Queue Index: 131352, GlobalQID 130, CBLT ID 131352
MinRate(Kbps) 0, ExcessRatio 4, ShapeRate(bps) 0, QLimit 255
Service Flow(s): rp_sf_index 32933, lc_sfid 14, min_rate(bps) 0, max_rate(bps) 0
Queue Index: 131359, GlobalQID 137, CBLT ID 131359
MinRate(Kbps) 0, ExcessRatio 32, ShapeRate(bps) 0, QLimit 255
Service Flow(s): rp_sf_index 32940, lc_sfid 16, min_rate(bps) 0, max_rate(bps) 0
Queue Index: 131360, GlobalQID 138, CBLT ID 131360
MinRate(Kbps) 0, ExcessRatio 4, ShapeRate(bps) 0, QLimit 255
Service Flow(s): rp_sf_index 32941, lc_sfid 28, min_rate(bps) 0, max_rate(bps) 0
Queue Index: 131361, GlobalQID 139, CBLT ID 131361
MinRate(Kbps) 0, ExcessRatio 32, ShapeRate(bps) 0, QLimit 255
Service Flow(s): rp_sf_index 32942, lc_sfid 22, min_rate(bps) 0, max_rate(bps) 0
Queue Index: 131362, GlobalQID 140, CBLT ID 131362
MinRate(Kbps) 0, ExcessRatio 4, ShapeRate(bps) 0, QLimit 255
Service Flow(s): rp_sf_index 32943, lc_sfid 29, min_rate(bps) 0, max_rate(bps) 0
Router# show cr10k-rp wideband-cable1/0/0:12 queue
Docsis queues on the interface: 7
Total DOCSIS Queues Allocated: 19
Available/Maximal reservable rate(kbps): 67503/67503
HQF BLT Info (LBLT Group 16):
LBLT 179: wt/qntm 1/4478; PBLT 3: BW 36000Kbps, flowbit prd/ofst 512/0, rsrc/fl
LBLT 180: wt/qntm 1/10000; PBLT 4: BW 37500Kbps, flowbit prd/ofst 512/4, rsrc/f
LBLT 181: wt/qntm 1/4473; PBLT 5: BW 35625Kbps, flowbit prd/ofst 512/8, rsrc/fl
Queue Index: 131347, GlobalQID 123, CBLT ID 131347
MinRate(Kbps) 0, ExcessRatio 4, ShapeRate(bps) 10000000, QLimit 255
Service Flow(s): rp_sf_index 32928, lc_sfid 8, min_rate(bps) 0, max_rate(bps) 10
Queue Index: 131353, GlobalQID 131, CBLT ID 131353
MinRate(Kbps) 0, ExcessRatio 32, ShapeRate(bps) 0, QLimit 255
Service Flow(s): rp_sf_index 32934, lc_sfid 18, min_rate(bps) 0, max_rate(bps) 0
Queue Index: 131354, GlobalQID 132, CBLT ID 131354
MinRate(Kbps) 0, ExcessRatio 4, ShapeRate(bps) 0, QLimit 255
Service Flow(s): rp_sf_index 32935, lc_sfid 23, min_rate(bps) 0, max_rate(bps) 0
Queue Index: 131355, GlobalQID 133, CBLT ID 131355
MinRate(Kbps) 0, ExcessRatio 32, ShapeRate(bps) 0, QLimit 255
Service Flow(s): rp_sf_index 32936, lc_sfid 20, min_rate(bps) 0, max_rate(bps) 0
Queue Index: 131356, GlobalQID 134, CBLT ID 131356
MinRate(Kbps) 0, ExcessRatio 4, ShapeRate(bps) 0, QLimit 255
Service Flow(s): rp_sf_index 32937, lc_sfid 24, min_rate(bps) 0, max_rate(bps) 0
Queue Index: 131357, GlobalQID 135, CBLT ID 131357
MinRate(Kbps) 0, ExcessRatio 32, ShapeRate(bps) 0, QLimit 255
Service Flow(s): rp_sf_index 32938, lc_sfid 26, min_rate(bps) 0, max_rate(bps) 0
Queue Index: 131358, GlobalQID 136, CBLT ID 131358
MinRate(Kbps) 0, ExcessRatio 4, ShapeRate(bps) 0, QLimit 255
Service Flow(s): rp_sf_index 32939, lc_sfid 27, min_rate(bps) 0, max_rate(bps) 0
Related Commands
Command
|
Description
|
show cr10k-rp
|
Displays packet processing information for a particular service ID (SID) on a cable interface.
|
show cr10k-rp slots
Note
This command is meant for engineering debugging, and not for general customer use.
To display slot information for a particular service ID (SID) on a cable interface, use the show cr10k-rp slots command in user EXEC or privileged EXEC mode.
show cr10k-rp slots
Syntax Description
This command has no keywords or arguments.
|
Defaults
No default behavior or values.
Command Modes
User EXEC (>)
Privileged EXEC (#)
Command History
Release
|
Modification
|
12.2(15)BC1
|
This command was introduced for the Cisco uBR10012 router.
|
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.
|
Usage Guidelines
The show cr10k-rp slots command displays information that the PRE remote processor (RP) module has about a particular SID. This information includes configuration information about the SID, as well as internal status information that is useful only to Cisco engineers in troubleshooting problems.
Examples
The following example shows typical output for the show cr10k-rp slots command for a SID that identifies a cable modem:
Router# show cr10k-rp slots
-----------------------------------------------------------
-----------------------------------------------------------
slot: 0 type: 00000001 bays: 0 analyzed: 1
slot: 1 type: 00000001 bays: 0 analyzed: 1
slot: 2 type: 00000415 bays: 4 analyzed: 1
slot: 3 type: 000005B0 bays: 0 analyzed: 1
slot: 4 type: 00000000 bays: 0 analyzed: 0
slot: 5 type: 000002AF bays: 0 analyzed: 1
slot: 6 type: 00000000 bays: 0 analyzed: 0
slot: 7 type: 00000000 bays: 0 analyzed: 0
slot: 8 type: 00000390 bays: 0 analyzed: 1
slot: 9 type: 00000390 bays: 0 analyzed: 1
slot: 10 type: 00000487 bays: 0 analyzed: 1
slot: 11 type: 00000000 bays: 0 analyzed: 0
slot: 12 type: 00000000 bays: 0 analyzed: 0
slot: 13 type: 00000000 bays: 0 analyzed: 0
slot: 14 type: 000003D5 bays: 0 analyzed: 1
slot: 15 type: 00000000 bays: 0 analyzed: 0
slot: 16 type: 00000000 bays: 0 analyzed: 0
slot: 17 type: 00000000 bays: 0 analyzed: 0
slot: 0 subslot: 0 index: 0 num_bays: 0
double wide: 0 type: FFFFFFFF util type: FFFFFFFF plugin: 7178D9A0 ironbus i0
slot: 0 subslot: 1 index: 1 num_bays: 0
double wide: 0 type: FFFFFFFF util type: FFFFFFFF plugin: 6494F000 ironbus i0
slot: 1 subslot: 0 index: 2 num_bays: 4
double wide: 1 type: 00000415 util type: FFFFFFFF plugin: 72CB529C ironbus i1
slot: 1 subslot: 0 index: 2 type: 000004AE
slot: 1 subslot: 256 index: 2 type: 000004AE
slot: 1 subslot: 512 index: 2 type: 00000000
slot: 1 subslot: 768 index: 2 type: 00000000
slot: 1 subslot: 1 index: 3 num_bays: 0
double wide: 0 type: 000005B0 util type: FFFFFFFF plugin: 22900974 ironbus i1
slot: 2 subslot: 0 index: 4 num_bays: 0
double wide: 0 type: FFFFFFFF util type: FFFFFFFF plugin: 6494F120 ironbus i0
slot: 2 subslot: 1 index: 5 num_bays: 0
double wide: 0 type: 000002AF util type: FFFFFFFF plugin: 26362104 ironbus i0
slot: 3 subslot: 0 index: 6 num_bays: 0
double wide: 0 type: FFFFFFFF util type: FFFFFFFF plugin: 6494F1E0 ironbus i0
slot: 3 subslot: 1 index: 7 num_bays: 0
double wide: 0 type: FFFFFFFF util type: FFFFFFFF plugin: 6494F240 ironbus i0
slot: 4 subslot: 0 index: 8 num_bays: 0
double wide: 0 type: 00000390 util type: FFFFFFFF plugin: 263621A4 ironbus i0
slot: 4 subslot: 1 index: 9 num_bays: 0
double wide: 0 type: 00000390 util type: FFFFFFFF plugin: 761EF050 ironbus i1
slot: 5 subslot: 0 index: 10 num_bays: 0
double wide: 0 type: 00000487 util type: FFFFFFFF plugin: 76200EFC ironbus i0
slot: 5 subslot: 1 index: 11 num_bays: 0
double wide: 0 type: FFFFFFFF util type: FFFFFFFF plugin: 6494F3C0 ironbus i0
slot: 6 subslot: 0 index: 12 num_bays: 0
double wide: 0 type: FFFFFFFF util type: FFFFFFFF plugin: 6494F420 ironbus i0
slot: 6 subslot: 1 index: 13 num_bays: 0
double wide: 0 type: FFFFFFFF util type: FFFFFFFF plugin: 6494F480 ironbus i0
slot: 7 subslot: 0 index: 14 num_bays: 0
double wide: 0 type: 000003D5 util type: FFFFFFFF plugin: 22900FA0 ironbus i0
slot: 7 subslot: 1 index: 15 num_bays: 0
double wide: 0 type: FFFFFFFF util type: FFFFFFFF plugin: 6494F540 ironbus i0
slot: 8 subslot: 0 index: 16 num_bays: 0
double wide: 0 type: FFFFFFFF util type: FFFFFFFF plugin: 6494F5A0 ironbus i0
slot: 8 subslot: 1 index: 17 num_bays: 0
double wide: 0 type: FFFFFFFF util type: FFFFFFFF plugin: 6494F600 ironbus i0
Related Commands
Command
|
Description
|
show cr10k-rp queue
|
Displays information about the packet queues for a cable interface.
|
show crypto ca certificates
To display all certificates (Root, Manufacturers, cable modem) that the CMTS has learned, use the show crypto ca certificates command in privileged EXEC mode.
show crypto ca certificates
Syntax Description
No default behaviors or values
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
12.3(9a)BC
|
This command was introduced.
|
Usage Guidelines
Note
You can use the unsupported command test cable generate in privileged EXEC mode to force the Cisco CMTS to register the root certificate.
For additional information about using the show crypto commands on the Cisco CMTS, refer to the "Configuring DOCSIS 1.1 on the Cisco CMTS" chapter of the Cisco CMTS Feature Guide:
Examples
The following example illustrates the use of the show crypto ca certificates command:
Router# show crypto ca certificates
Related Commands
Command
|
Description
|
show crypto ca trustpoints
|
Displays the Root certificate that the Cisco CMTS has learned after the first cable modem has registered with BPI+ encryption.
|
show crypto ca trustpoints
To display the Root certificate that the Cisco CMTS has learned after the first cable modem has registered with BPI+ encryption, use the show crypto ca trustpoints command in privileged EXEC mode.
show crypto ca trustpoints
Syntax Description
No default behaviors or values
Command Modes
Privileged EXEC
Command History
Release
|
Modification
|
12.3(9a)BC
|
This command was introduced.
|
Usage Guidelines
Note
The show crypto ca trustpoints command does not display the root certificate until after at least one cable modem has registered with the Cisco CMTS using BPI+ encryption. Alternatively, you can use the unsupported command test cable generate in privileged EXEC mode to force the Cisco CMTS to register the root certificate.
Tip
To display all certificates (Root, Manufacturers, CM) that the CMTS has learned, use the show crypto ca certificates command.
For additional information about using the show crypto commands on the Cisco CMTS, refer to the "Configuring DOCSIS 1.1 on the Cisco CMTS" chapter of the Cisco CMTS Feature Guide:
Examples
The following example illustrates the show crypto ca trustpoints command with Cisco IOS Release 12.3(9a)BC:
Router# show crypto ca trustpoints
Certificate Serial Number: D54BB68FE934324F6B8FD0E41A65D867
Key Usage: General Purpose
CN = DOCSIS Cable Modem Root Certificate Authority
O = Data Over Cable Service Interface Specifications
CN = "BPI Cable Modem Root Certificate Authority "
start date: 07:00:00 UTC Mar 27 2001
end date: 06:59:59 UTC Jan 1 2007
Related Commands
Command
|
Description
|
show crypto ca certificates
|
Displays all certificates (Root, Manufacturers, cable modem) that the Cisco CMTS has learned.
|