Because there are so many asynchronous interfaces on the access server, configuring them as a group will save you time.
Table 3-8 Configuring the Asynchronous Group Interface
Step
|
Command
|
Purpose
|
1
|
|
Enter enable mode.
Enter the password.
You have entered enable mode when the prompt changes to 5200#.
|
2
|
Enter configuration commands, one per line. End with CNTL/Z.
|
Enter global configuration mode. You have entered global configuration mode when the prompt changes to 5200(config)#.
|
3
|
5200(config)# interface group-async 1
|
Place all asynchronous interfaces in a single group, so that you configure the same parameters quickly on all interfaces at one time.
|
4
|
5200(config-if)# ip unnumbered ethernet 0
|
To conserve IP addresses, configure the asynchronous interfaces as unnumbered and assign the IP address of the Ethernet interface to them.
|
5
|
5200(config-if)# encapsulation ppp
|
Enable PPP to run on the set of interfaces in the group.
|
6
|
5200(config-if)# async mode interactive
|
Configure interactive mode on the asynchronous interface.
|
7
|
5200(config-if)# ppp authentication chap pap
|
Enable CHAP and PAP authentication on the interface.
|
8
|
5200(config-if)# peer default ip address pool default
|
Support dial-in PC clients. At the global level, define the pool of addresses.
|
9
|
5200(config-if)# group-range 1 48
Building configuration...
|
Define the group range of the interface. The number you use with the group-range command depends on the number of asynchronous interfaces you have on your access server. That is, if your access server has 48 asynchronous interfaces, you can specify group-range 1 48. If 60, specify group-range 1 60.
|
10
|
%SYS-5-CONFIG_I: Configured from console by console
|
Return to privileged EXEC mode.
This message is normal and does not indicate an error.
|
Verify
To verify your group interface configuration, use the following command.
- Enter the show interface async command:
5200#
show interface async 1
Async1 is up, line protocol is up
modem(slot/port)=1/0, csm_state(0x00000204)=CSM_IC4_CONNECTED, bchan_num=18
modem_status(0x0002): VDEV_STATUS_ACTIVE_CALL.
Interface is unnumbered. Using address of FastEthernet0 (15.0.0.60)
MTU 1500 bytes, BW 115 Kbit, DLY 100000 usec, rely 255/255, load 1/255
Encapsulation PPP, loopback not set, keepalive not set
DTR is pulsed for 5 seconds on reset
Last input 00:00:00, output 00:00:00, output hang never
Last clearing of "show interface" counters never
Output queue 0/5, 0 drops; input queue 1/5, 0 drops
5 minute input rate 37000 bits/sec, 87 packets/sec
5 minute output rate 0 bits/sec, 0 packets/sec
31063 packets input, 1459806 bytes, 0 no buffer
Received 0 broadcasts, 0 runts, 0 giants, 0 throttles
0 input errors, 0 CRC, 0 frame, 0 overrun, 0 ignored, 0 abort
33 packets output, 1998 bytes, 0 underruns
0 output errors, 0 collisions, 0 interface resets
0 output buffer failures, 0 output buffers swapped out
Tips
Check for errors and the local and remote addresses.
- Enter the show async status maps command:
5200#
show async status maps
Async protocol statistics:
Rcvd: 27887 packets, 1294133 bytes
0 format errors, 0 checksum errors, 0 overrun, 0 no buffer
Sent: 2141 packets, 117673 bytes, 0 dropped
Int Local Remote Qd InPack OutPac Inerr Drops MTU
* 1 15.0.0.60 50.2.8.1 0 542 35 0 0 1500
* 2 15.0.0.60 50.3.8.1 0 544 35 0 0 1500
* 3 15.0.0.60 100.2.1.1 0 542 35 0 0 1500
* 4 15.0.0.60 50.1.1.1 0 544 35 0 0 1500
* 5 15.0.0.60 99.2.7.1 0 542 34 0 0 1500
* 6 15.0.0.60 99.1.4.1 0 543 34 0 0 1500
* 7 15.0.0.60 100.2.3.1 0 451 34 0 0 1500
* 8 15.0.0.60 100.2.5.1 0 451 34 0 0 1500
* 9 15.0.0.60 100.2.6.1 0 452 34 0 0 1500
* 10 15.0.0.60 100.2.8.1 0 452 34 0 0 1500
* 11 15.0.0.60 30.2.6.1 0 449 34 0 0 1500
* 12 15.0.0.60 30.3.5.1 0 450 34 0 0 1500
* 13 15.0.0.60 30.2.4.1 0 450 34 0 0 1500
* 14 15.0.0.60 30.2.8.1 0 450 34 0 0 1500
15 15.0.0.60 None 0 0 0 0 0 1500
* 16 15.0.0.60 50.3.5.1 0 355 27 0 0 1500
- For other async debugging commands, enter the debug ppp negotiation and debug ppp authentication commands.
Aug 28 15:40:40.963: ppp: sending CONFREQ, type = 2 (CI_ASYNCMAP), value = 0xA0000
Aug 28 15:40:40.967: ppp: sending CONFREQ, type = 3 (CI_AUTHTYPE), value = 0xC023
Aug 28 15:40:40.967: ppp: sending CONFREQ, type = 5 (CI_MAGICNUMBER), value = 0xC9BAE6A0
Aug 28 15:40:41.091: PPP Async1: state = REQsent fsm_rconfack(0xC021): rcvd id 3
Aug 28 15:40:41.095: ppp: config ACK received, type = 2 (CI_ASYNCMAP), value = 0xA0000
Aug 28 15:40:41.099: ppp: config ACK received, type = 3 (CI_AUTHTYPE), value = 0xC023
Aug 28 15:40:41.099: ppp: config ACK received, type = 5 (CI_MAGICNUMBER), value = 0xC9BAE6A0
Aug 28 15:40:41.103: ppp: config ACK received, type = 7 (CI_PCOMPRESSION)
Aug 28 15:40:41.103: ppp: config ACK received, type = 8 (CI_ACCOMPRESSION)
Aug 28 15:40:42.271: PPP Async1: received config for type = 2 (ASYNCMAP) value = 0xA0000 acked
Aug 28 15:40:42.275: PPP Async1: received config for type = 5 (MAGICNUMBER) value = 0xA0149 acked
Aug 28 15:40:42.275: PPP Async1: received config for type = 7 (PCOMPRESSION) acked
Aug 28 15:40:42.279: PPP Async1: received config for type = 8 (ACCOMPRESSION) acked
Aug 28 15:40:42.283: PPP Async1: received config for type = 13 (CALLBACK) rejected
Aug 28 15:40:42.391: PPP Async1: received config for type = 2 (ASYNCMAP) value = 0xA0000 acked
Aug 28 15:40:42.395: PPP Async1: received config for type = 5 (MAGICNUMBER) value = 0xA0149 acked
Aug 28 15:40:42.399: PPP Async1: received config for type = 7 (PCOMPRESSION) acked
Aug 28 15:40:42.399: PPP Async1: received config for type = 8 (ACCOMPRESSION) acked
Aug 28 15:40:42.515: PPP Async1: PAP receive authenticate request poolme
Aug 28 15:40:42.523: PPP Async1: PAP authenticating peer poolme
Aug 28 15:40:42.575: PPP Async1: Remote passed PAP authentication sending Auth-Ack.
Aug 28 15:40:42.911: ipcp: sending CONFREQ, type = 2 (CI_COMPRESSTYPE), slots = 15, csid = 0
Aug 28 15:40:42.915: ipcp: sending CONFREQ, type = 3 (CI_ADDRESS), Address = 170.9.186.68
Aug 28 15:40:43.039: PPP Async1: state = REQsent fsm_rconfack(0x8021): rcvd id 1
Aug 28 15:40:43.039: ipcp: config ACK received, type = 2 (CI_COMPRESSTYPE), slots = 15, csid = 0
Aug 28 15:40:43.043: ipcp: config ACK received, type = 3 (CI_ADDRESS), Address = 170.9.186.68
Aug 28 15:40:43.983: %LINEPROTO-5-UPDOWN: Line protocol on Interface Async1, changed state to up
Aug 28 15:40:45.035: ipcp: sending CONFREQ, type = 2 (CI_COMPRESSTYPE), slots = 15, csid = 0
Aug 28 15:40:45.039: ipcp: sending CONFREQ, type = 3 (CI_ADDRESS), Address = 170.9.186.68
Aug 28 15:40:45.363: PPP Async1: state = REQsent fsm_rconfack(0x8021): rcvd id 2
Aug 28 15:40:45.367: ipcp: config ACK received, type = 2 (CI_COMPRESSTYPE), slots = 15, csid = 0
Aug 28 15:40:45.371: ipcp: config ACK received, type = 3 (CI_ADDRESS), Address = 170.9.186.68
Aug 28 15:40:45.691: ppp Async1: ipcp_reqci: rcvd COMPRESSTYPE (ACK)
Aug 28 15:40:45.691: ppp Async1: Negotiate IP address: her address 0.0.0.0
Aug 28 15:40:45.695: AAA/AUTHOR/IPCP: Async1: start: her address 0.0.0.0, we want 170.9.186.75
Aug 28 15:40:45.699: AAA/AUTHOR/IPCP: Async1: done: her address 0.0.0.0, we want 170.9.186.75
Aug 28 15:40:45.699: AAA/AUTHOR/IPCP: Async1: authorization succeeded (NAK with address 170.9.186.75) (NAK)
Aug 28 15:40:45.703: ppp Async1: Negotiate Primary DNS address: her address 0.0.0.0 (NAK with address 170.9.10.70) (NAK)
Aug 28 15:40:45.707: ppp Async1: Negotiate Primary NBNS address: her address 0.0.0.0 (NAK with address 170.9.186.40) (NAK)
Aug 28 15:40:45.711: ppp Async1: Negotiate Secondary DNS address: her address 0.0.0.0
Aug 28 15:40:45.715: ppp Async1: Secondary DNS address unknown (REJ)
Aug 28 15:40:45.719: ppp Async1: Negotiate Secondary NBNS address: her address 0.0.0.0
Aug 28 15:40:45.719: ppp Async1: Secondary NBNS address unknown (REJ)
Aug 28 15:40:45.723: ppp: ipcp_reqci: returning CONFREJ.
Aug 28 15:40:45.827: ppp Async1: ipcp_reqci: rcvd COMPRESSTYPE (ACK)
Aug 28 15:40:45.831: ppp Async1: Negotiate IP address: her address 0.0.0.0
Aug 28 15:40:45.835: AAA/AUTHOR/IPCP: Async1: start: her address 0.0.0.0, we want 170.9.186.75
Aug 28 15:40:45.835: AAA/AUTHOR/IPCP: Async1: done: her address 0.0.0.0, we want 170.9.186.75
Aug 28 15:40:45.839: AAA/AUTHOR/IPCP: Async1: authorization succeeded (NAK with address 170.9.186.75) (NAK)
Aug 28 15:40:45.843: ppp Async1: Negotiate Primary DNS address: her address 0.0.0.0 (NAK with address 170.9.10.70) (NAK)
Aug 28 15:40:45.847: ppp Async1: Negotiate Primary NBNS address: her address 0.0.0.0 (NAK with address 170.9.186.40) (NAK)
Aug 28 15:40:45.851: ppp: ipcp_reqci: returning CONFNAK.
Aug 28 15:40:45.963: ppp Async1: ipcp_reqci: rcvd COMPRESSTYPE (ACK)
Aug 28 15:40:45.967: ppp Async1: Negotiate IP address: her address 170.9.186.75
Aug 28 15:40:45.971: AAA/AUTHOR/IPCP: Async1: start: her address 170.9.186.75, we want 170.9.186.75
Aug 28 15:40:45.975: AAA/AUTHOR/IPCP: Async1: done: her address 170.9.186.75, we want 170.9.186.75
Aug 28 15:40:45.975: AAA/AUTHOR/IPCP: Async1: authorization succeeded (ACK)
Aug 28 15:40:45.979: ppp Async1: Negotiate Primary DNS address: her address 170.9.10.70 (ACK)
Aug 28 15:40:45.983: ppp Async1: Negotiate Primary NBNS address: her address 170.9.186.40 (ACK)
Aug 28 15:40:45.987: ppp: ipcp_reqci: returning CONFACK.
Aug 28 15:40:45.995: Async1: install route to 170.9.186.75
Configuring the Modems
Configure the modems to allow users to dial in to your network by using the modem commands in Table 3-9.
Table 3-9 Configuring the Modems
Step
|
Command
|
Purpose
|
1
|
|
Enter enable mode.
Enter the password.
You have entered enable mode when the prompt changes to 5200#.
|
2
|
Enter configuration commands, one per line. End with CNTL/Z.
|
Enter global configuration mode. You have entered global configuration mode when the prompt changes to 5200(config)#.
|
3
|
5200(config)# modem country mica country name
[or]
5200(config)# modem country microcom_hdms country name
|
Specify the country to set the modem parameters (including country code and encoding) for MICA modems. The default is usa if the access server is configured with T1 interfaces and e1-default if the access server has E1 interfaces.
Specify the country to set the modem parameters (including encoding) for Microcom modems. The default is usa. Note that the access server will reset the Microcom modems for the command to take effect.
For list of country codes, see "Country Code Tables" later in this section.
|
4
|
5200(config-if)# line 1 48
|
Enter the number of modem lines to configure. If you have 48 modems, enter line 1 48. If 60, enter line 1 60.
|
5
|
5200(config-line)# transport input all
|
Allow all protocols to be used when connecting to the line.
|
6
|
5200(config-line)# autoselect ppp
|
Enable remote IP users running a PPP application to dial in, bypass the EXEC facility, and connect directly to the network.
|
7
|
5200(config-line)# modem inout
|
Enable incoming and outgoing calls.
|
8
|
%SYS-5-CONFIG_I: Configured from console by console
|
Return to privileged EXEC mode.
This message is normal and does not indicate an error.
|
Configuring
Country Code Tables
The following table lists the current Microcom modem codes.
.
Table 3-10 Microcom Modem Codes
Country
|
Code
|
Country
|
Code
|
Argentina
|
argentina
|
italy
|
italy
|
Australia
|
australia
|
Japan
|
japan
|
Austria
|
austria
|
Korea
|
korea
|
Belgium
|
belgium
|
Malaysia
|
malaysia
|
Brazil
|
brazil
|
Mexico
|
mexico
|
Canada
|
canada
|
Netherlands
|
netherlands
|
Chile
|
chile
|
New Zealand
|
new-zealand
|
China
|
china
|
Norway
|
norway
|
Columbia
|
columbia
|
Peru
|
peru
|
Czech/Slovak Republic
|
czech-republic
|
Philippines
|
philippines
|
Denmark
|
Denmark
|
Poland
|
poland
|
Finland
|
Finland
|
Portugal
|
portugal
|
France
|
France
|
Saudi Arabia
|
saudi-arabia
|
Germany
|
Germany
|
Singapore
|
singapore
|
Greece
|
Greece
|
South Africa
|
south-africa
|
Hong Kong
|
hong-kong
|
Spain
|
spain
|
Hungary
|
hungary
|
Sweden
|
sweden
|
India
|
india
|
Switzerland
|
switzerland
|
indonesia
|
indonesia
|
Taiwan
|
taiwan
|
Ireland
|
ireland
|
Thailand
|
thailand
|
Israel
|
israel
|
United Kingdom
|
united-kingdom
|
USA
|
usa
|
|
|
The following table lists the current MICA modem codes.
.
Table 3-11 MICA Modem Codes
Country
|
Code
|
Country
|
Code
|
Australia
|
australia
|
Netherlands
|
netherlands
|
Austria
|
austria
|
New Zealand
|
new-zealand
|
Belgium
|
belgium
|
Norway
|
norway
|
China
|
china
|
Poland
|
poland
|
Cyprus
|
cyprus
|
Portugal
|
portugal
|
Czech/Slovak Republic
|
czech-republic
|
Russia
|
russia
|
Denmark
|
denmark
|
Singapore
|
singapore
|
Default E1 (A Law)
|
e1-default
|
South Africa
|
south-africa
|
Finland
|
finland
|
Spain
|
spain
|
France
|
france
|
Sweden
|
sweden
|
Germany
|
germany
|
Switzerland
|
switzerland
|
Hong Kong
|
hong-kong
|
Default T1 (u Law)
|
t1-default
|
India
|
india
|
Taiwan
|
taiwan
|
Ireland
|
ireland
|
Thailand
|
thailand
|
Israel
|
israel
|
Turkey
|
turkey
|
Italy
|
italy
|
United Kingdom
|
united-kingdom
|
Japan
|
japan
|
USA
|
usa
|
Malaysia
|
malaysia
|
|
|
Resetting to Default Values for Country Codes
To reset to default settings for country codes, enter the following commands in global configuration mode:
- no modem country micaResets to default MICA setting.
- no modem country microcom-hdmsResets to default Microcom setting.
Verify
To verify your modem configuration, use the following commands.
- Enter the show line command to display a summary for all the lines.
Tty Typ Tx/Rx A Modem Roty AccO AccI Uses Noise Overruns
* 0 CTY - - - - - 0 0 0/0
I 1 TTY 115200/115200 - inout - - - 0 0 0/0
I 2 TTY 115200/115200 - inout - - - 0 0 0/0
3 TTY 115200/115200 - inout - - - 0 0 0/0
4 TTY 115200/115200 - inout - - - 0 0 0/0
5 TTY 115200/115200 - inout - - - 0 0 0/0
6 TTY 115200/115200 - inout - - - 0 0 0/0
7 TTY 115200/115200 - inout - - - 0 0 0/0
8 TTY 115200/115200 - inout - - - 0 0 0/0
9 TTY 115200/115200 - inout - - - 0 0 0/0
10 TTY 115200/115200 - inout - - - 0 0 0/0
- Enter the show line # command to display a summary for a single line.
Tty Typ Tx/Rx A Modem Roty AccO AccI Uses Noise Overruns
I 1 TTY 115200/115200 - inout - - - 0 0 0/0
Line 1, Location: "", Type: ""
Length: 24 lines, Width: 80 columns
Baud rate (TX/RX) is 115200/115200, no parity, 1 stopbits, 8 databits
Capabilities: Hardware Flowcontrol In, Hardware Flowcontrol Out
Modem Callout, Modem RI is CD, Line usable as async interface
Special Chars: Escape Hold Stop Start Disconnect Activation
Timeouts: Idle EXEC Idle Session Modem Answer Session Dispatch
00:10:00 never none not set
Idle Session Disconnect Warning
Session limit is not set.
Time since activation: never
History is enabled, history size is 10.
DNS resolution in show commands is enabled
Full user help is disabled
Allowed transports are pad telnet rlogin. Preferred is telnet.
No output characters are padded
No special data dispatching characters
modem(slot/port)=1/0, csm_state(0x00000100)=CSM_IDLE_STATE, bchan_num=-1
modem_status(0x0000): VDEV_STATUS_UNLOCKED
Modem hardware state: CTS noDSR DTR RTS
Tips
If you are having trouble, check the following:
- If you are having problems with making or receiving calls, make sure you turned on the protocols for connecting to the lines (Step 3 in Table 3-9) and configured for incoming and outgoing calls (Step 6 in Table 3-9).
- If the calls are not coming up at all, turn on the debug modem, debug modem csm, and debug isdn q931 commands to check for problems. When you finish viewing the messages, turn off the messages by entering the no debug modem command.
The following is the sample output for a MICA modem for an outgoing ISDN voice call:
Trying 1.17.30.12, 2004 ... Open
TTY4: asserting DTRatdt1000
Mica Modem(2/3): Rcvd Dial String(1000)
CSM_PROC_IDLE: CSM_EVENT_MODEM_OFFHOOK at slot 2, port 3
CSM_PROC_OC3_COLLECT_ALL_DIGIT: CSM_EVENT_GET_ALL_DIGITS at slot 2, port 3
CSM_PROC_OC3_COLLECT_ALL_DIGIT: called party num: (1000) at slot 2, port 3
ISDN Se0:23: TX - SETUP pd = 8 callref = 0x0001
Bearer Capability i = 0x8090A2
Channel ID i = 0xE1808397
Called Party Number i = 0xA1, '1000'
ISDN Se0:23: RX <- CALL_PROC pd = 8 callref = 0x8001
EVENT_FROM_ISDN::dchan_idb=0x60DD2D74, call_id=0xA001, ces=0x1
bchan=0x16, event=0x3, cause=0x0
EVENT_FROM_ISDN:(A001): DEV_CALL_PROC at slot 2 and port 3
CSM_PROC_OC4_DIALING: CSM_EVENT_ISDN_BCHAN_ASSIGNED at slot 2, port 3
Mica Modem(2/3): Configure(0x1)
Mica Modem(2/3): Configure(0x0)
Mica Modem(2/3): Configure(0x6)
Mica Modem(2/3): Call Setup
ISDN Se0:23: RX <- ALERTING pd = 8 callref = 0x8001
Mica Modem(2/3): State Transition to Call Setup
ISDN Se0:23: RX <- CONNECT pd = 8 callref = 0x8001
EVENT_FROM_ISDN::dchan_idb=0x60DD2D74, call_id=0xA001, ces=0x1
bchan=0x16, event=0x4, cause=0x0
EVENT_FROM_ISDN:(A001): DEV_CONNECTED at slot 2 and port 3
CSM_PROC_OC5_WAIT_FOR_CARRIER: CSM_EVENT_ISDN_CONNECTED at slot 2, port 3
Mica Modem(2/3): Link Initiate
ISDN Se0:23: TX - CONNECT_ACK pd = 8 callref = 0x0001
Mica Modem(2/3): State Transition to Connect
Mica Modem(2/3): State Transition to Link
Mica Modem(2/3): State Transition to Trainup
CONNECT 16800 /V.42/V.42bis
Mica Modem(2/3): State Transition to EC Negotiating
Mica Modem(2/3): State Transition to Steady State
This is the sample output for an incoming ISDN voice call on a MICA modem:
ISDN Se0:23: RX <- SETUP pd = 8 callref = 0x0065
Bearer Capability i = 0x8090A2
Channel ID i = 0xE1808381
Called Party Number i = 0xA1, '1000'
ISDN Se0:23: Incoming call id = 0x3
EVENT_FROM_ISDN::dchan_idb=0x60DD2D74, call_id=0x3, ces=0x1
bchan=0x0, event=0x1, cause=0x0
VDEV_ALLOCATE: slot 2 and port 2 is allocated.
EVENT_FROM_ISDN:(0003): DEV_INCALL at slot 2 and port 2
CSM_PROC_IDLE: CSM_EVENT_ISDN_CALL at slot 2, port 2
Mica Modem(2/2): Configure(0x0)
Mica Modem(2/2): Configure(0x0)
Mica Modem(2/2): Configure(0x6)
Mica Modem(2/2): Call Setup
ISDN Se0:23: TX - CALL_PROC pd = 8 callref = 0x8065
ISDN Se0:23: TX - ALERTING pd = 8 callref = 0x8065
Mica Modem(2/2): State Transition to Call Setup
Mica Modem(2/2): Went offhook
CSM_PROC_IC1_RING: CSM_EVENT_MODEM_OFFHOOK at slot 2, port 2
ISDN Se0:23: TX - CONNECT pd = 8 callref = 0x8065
ISDN Se0:23: RX <- CONNECT_ACK pd = 8 callref = 0x0065
EVENT_FROM_ISDN::dchan_idb=0x60DD2D74, call_id=0x3, ces=0x1
bchan=0x0, event=0x4, cause=0x0
- Enter the debug modem ? command for list of additional modem debugging commands:
maintenance Modem maintenance activity
mica MICA Async driver debugging
oob Modem out of band activity
Configuring Modem Pooling
Use modem pooling to define, select, and use separate pools of modems within a single access server and enable different dial-in services for different customers. The primary application is to allocate specific modems based on called party numbers and a predetermined number of modem ports, based on Dialed Number Information Service (DNIS).
There is no restriction on the number of modem pools that you can configure. A pool can contain a minimum of one modem and a maximum equal to all the modems in the system. If you do not configure any modem pools, all the modems are placed into a single pool.
This section briefly shows how to set up a minimum configuration.
Note To support modem pooling over channelized T1 lines, you need to configure the lines as
described in the following table. If you are using R2 signaling over channelized E1, you do not need
any special configuration options because DNIS information is always collected.
Table 3-12 Configuring Modem Pooling
Step
|
Command
|
Purpose
|
1
|
|
Enter enable mode.
Enter the password.
You have entered enable mode when the prompt changes to 5200#.
|
2
|
Enter configuration commands, one per line. End
|
Enter global configuration mode. You have entered global configuration mode when the prompt changes to 5200(config)#.
|
3
|
5200(config)# controller [t1 | e1] [0 | 1 ]
|
Enter controller configuration mode to configure your controller port. The controller ports are labeled 0 and 1 on the T1/PRI and E1/PRI cards.
|
4
|
5200(config-controller)# cas-group 1 timeslots [1-24 | 1-31] <type>
|
Configure all channels for E&M, FXS, and SAS analog signaling. For T1, enter 1-24 and for E1, enter 1-31.
Signaling types include e&m-fgb, e&m-fgd, e&m-immediate-start, fxs-ground-start, fxs-loop-start, sas-ground-start, and sas-loop-start.
Note: To set up e&m-fgb to support modem pooling, see Step 8 in this table.
You must use the same type of signaling that your central office uses.
For E1 using the Anadigicom converter, use cas e&m-fgb signaling.
|
5
|
5200(config-controller)# cas-group 1 timeslots 1-24 e&m-fgb mf dnis
5200(config-controller)# cas-group 1 timeslots 1-24 e&m-fgb dtmf dnis
|
Configures e&m-fgb signaling to support modem pooling and the digital number identification service (DNIS) over channelized T1 lines.
You must specify the tone type: mf or dtmf.
By configuring DNIS as part of the cas-group command, the system collects DNIS digits for incoming calls, which are then redirected to specific modem pools. You must be running MICA modems in the system and have at least 10% of your total modems in the default modem pool. Free modems are needed in the default pool to detect the incoming called number or DNIS before handing the call off to the appropriate modem pool. Therefore, a second modem is needed to handle each incoming call.
Note: Make sure your switch provides inband address information for incoming analog calls before you enable this feature.
|
6
|
5200(config-controller)# controller t1 1
5200(config-controller)# cas-group 2 timeslots 1-24 e&m-fgb mf dnis
5200(config-controller)# cas-group 2 timeslots 1-24 e&m-fgb dtmf dnis
|
Repeats Steps 3 to 6 to configure the second controller. In this example, note that the controller number is 1, instead of 0. And the cas-group is 2, instead of 1.
|
7
|
5200(config)# modem-pool name
|
Enter the name of the modem to configure for pooling.
|
8
|
5200(config-modem-pool)# pool-range number-number
|
Defines the range of the modems in the pool. A dash is required between the two numbers.
|
9
|
5200(config-modem-pool)# called number phone # max-conn number
|
Specifies the DNIS to be used for this modem pool. The DNIS string can have an integer x to indicate a don't care digit for that position.
The max-conn option specifies the maximum number of connections allowed for this DNIS. If you do not specify a max-conn value, the default (total number of modems in the pool) is used.
The max-conn values can range from 1 to the total number of modems in the pool.
|
10
|
5200(config-modem-pool)# Ctrl-Z 5200#
|
Return to enable mode.
|
Verify
To verify your modem pooling configuration:
- Enter the show modem-pool command to view information for all modem pools. To view information for a specific modem pool, enter the show modem-pool name command.
modem-pool: System-def-Mpool
modems in pool: 119 active conn: 0
modems in pool: 1 active conn: 0
called_party_number: 1000
0 max-conn exceeded, 0 no free modems in pool
Tips
If you are having trouble, check out the following:
- You have not configured the same called party number for multiple pools.
- You have not placed modems in multiple pools.
Configuring 6-Port Modem Modules
Take the following steps to configure the 6-port modem modules:
Step 1 Configure the asynchronous group interface. See the earlier section "Configuring the Asynchronous Group Interface."
Step 2 Configure the modems. See the earlier section "Configuring the Modems."
Step 3 Configure the controller. See Table 3-13 for details.
Step 4 Configure the serial interfaces. See Table 3-14 for details.
Note For a description of AT commands and registers for the 6-port modem modules, see the
AT Command Set and Register Summary for MICA Six-Port Modules publication on CCO. See the
section "Where to Go Next" for
details on accessing CCO.
Table 3-13 describes how to configure the controller.
Table 3-13 Configuring the Controller
Step
|
Command
|
Purpose
|
1
|
5200 (config)# isdn switch-type primary-5ess
|
Enter your telco switch type. The following switch types are available: primary-4ess, primary-5ess, primary-dms100, primary-net5, primary-ntt, and primary-ts014.
|
2
|
5200(config)# controller t1 0 [or] 5200(config)# controller e1 0
|
Enter controller configuration mode to configure your controller port. The controller ports are labeled 0 and 1 on the dual T1/PRI and dual E1/PRI cards and the controller ports are labeled 0, 1, 2, 3 on the quad T1/PRI and quad E1/PRI cards.
|
3
|
5200(config-controller)# framing esf
|
Enter your telco framing type. The following framing types are available: esf, sf, crc4, and nocrc4.
|
4
|
5200(config-controller)# linecode b8zs
|
Enter your telco line code type. The following line code types are available: ami, b8zs, and hdb3.
|
5
|
5200(config-controller)# clock source line primary
|
Enter the clock source for the line. Configure one line as the primary or most stable clock source line. Configure the other line as the secondary clock source line.
|
6
|
5200(config-controller)# pri-group timeslots 1-24 [or] 5200(config-controller)# pri-group timeslots 1-31
|
Configure all channels for ISDN. For T1, enter pri-group timeslots 1-24. For E1, enter pri-group timeslots 1-31.
|
7
|
5200(config-controller)# controller t1 1 [or] 5200(config)# controller e1 0
5200(config-controller)# framing esf
5200(config-controller)# linecode b8zs
5200(config-controller)# clock source line secondary
5200(config-controller)# pri-group timeslots 1-24 [or] 5200(config-controller)# pri-group timeslots 1-31
|
Repeats Steps 2 to 6 to configure subsequent controllers. Note that the controller number is 1, 2, or 3, instead of 0. And the clock source is secondary, instead of primary.
|
Table 3-14 describes how to configure the serial intefaces.
Table 3-14 Configuring the Serial Interfaces
Step
|
Command
|
Purpose
|
1
|
5200(config-controller)# interface serial 0:23
|
Enter serial interface configuration mode. After you have configured the controller, a corresponding D-channel serial interface is created instantly. Serial interface 0:23 is the D-channel for controller 0. You must configure each serial interface to receive incoming and send outgoing modem signaling.
|
2
|
5200(config-if)# isdn incoming-voice modem
|
Configure all incoming voice calls to go to the modems.
|
3
|
5200(config-if)# end 5200#
%SYS-5-CONFIG_I: Configured from console by console <Return> 5200#
|
Return to privileged EXEC mode.
When this message appears, press Return to get the 5200# prompt.
|
4
|
5200# copy running-config startup-config Building configuration... [OK] < Return> 5200#
|
Save the configuration changes to NVRAM.
|
Verify
To verify that the new modems are working properly, enter the following command:
You should receive a set of messages similar to the following:
May 5 18:05:12.476: MODEM_REPORT:dchan_idb=0x27EC48, call_id=0x2E64,
ces=0x1 bchan=0x15, event=0x1, cause=0x0
May 5 18:05:12.476: CSM_MODEM_ALLOCATE: slot 1 and port 0 is allocated.
May 5 18:05:12.480: MODEM_REPORT(2E64): DEV_INCALL at slot 1 and port 0
May 5 18:05:12.484: CSM: Fast Ringing On at modem slot 1, port 0
May 5 18:05:12.484: CSM_PROC_IDLE: CSM_EVENT_ISDN_CALL at slot 1, port 0
May 5 18:05:12.756: %LINK-3-UPDOWN: Interface Async48, changed state to up
May 5 18:05:13.284: CSM_PROC_IC1_RING: CSM_EVENT_MODEM_OFFHOOK at slot 1, port 0
May 5 18:05:13.288: CSM: Fast Ringing Off at modem slot 1, port 0
May 5 18:05:13.292: MODEM_REPORT:dchan_idb=0x27EC48, call_id=0x2E64,
ces=0x1 bchan=0x15, event=0x4, cause=0x0
May 5 18:05:13.296: MODEM_REPORT(2E64): DEV_CONNECTED at slot 1 and port 0
May 5 18:05:13.296: CSM_PROC_IC2_WAIT_FOR_CARRIER: CSM_EVENT_ISDN_CONNECTED at slot 1, port 0
May 5 18:05:15.076: %LINEPROTO-5-UPDOWN: Line protocol on Interface Async48, changed state to up
To turn off the messages, enter the command:
If you do not turn off the messages, they will continue to display.
Configuring Dual T1/PRI and E1/PRI Feature Cards
This section describes how to use the Cisco IOS software command line interface (CLI) to configure basic access server functionality. Basic access server functionality includes LAN and WAN configuration (including ISDN PRI and channelized T1 and E1). Follow the procedures in this section to configure the access server after installing a new T1/PRI or E1/PRI feature card.
This section does not describe every configuration possibleonly a small portion of the most commonly used configuration procedures. For more advanced configuration topics, refer to the Cisco IOS configuration guide and command reference publications. These publications are available on the Documentation CD-ROM that came with your access server, on CCO (see the section "Where to Go Next" for details), or you can order printed copies separately.
For information about features supported by the Cisco IOS release installed on your access server, see the release notes that shipped with your chassis.
Prerequisites to Configuring Dual T1/PRI and E1/PRI Feature Cards
Before you begin, make sure you have completed the following tasks:
- Connect a console to the access server and turn on the server. If you need instructions to connect a terminal console to the access server, refer to the access server hardware installation guide.
- Write down the IP address of your Ethernet (LAN) interface.
- Write down the set of available IP addresses to be assigned to dial-in IP clients.
- Make sure your access server is connected to the Ethernet network and the T1 PRI line. For more information about connecting cables, refer to the quick reference guide and the Cisco AS5200 Universal Access Server Hardware Installation Guide, which shipped with your access server.
- Write down the ISDN switch type, framing type, and line code of your T1 PRI or E1 PRI line. Obtain this information from your telephone company service provider.
Note If you do not type anything for 10 minutes while you are configuring your system, the session
times out and is disconnected. If it times out, the message "Press RETURN to get started"
appears. This is not an error. If this message appears, press Return and the 5200> prompt
appears again.
Configuring Dual T1/PRI and E1/PRI Feature Cards
Configuring the feature cards is a three-step process:
Step 1 Configure the access server for ISDN PRI lines. See the section "Configuring ISDN PRI."
Step 2 Configure the access server for channelized T1 or E1 lines. See the section "Configuring Channelized T1or E1."
Step 3 Configure the D channels for modem signaling. See the section "Configuring the D Channels for Modem Signaling."
Configuring R2 Signaling
R2 signaling is an international signaling standard that is common to channelized E1 networks. You can configure a channelized E1 interface to support different types of R2 signaling, which is used in older analog telephone networks. Note that this feature is available for MICA modems.
Table 3-15 Configure R2 Signaling
Step
|
Command
|
Purpose
|
1
|
|
Enter enable mode.
Enter the password.
You have entered enable mode when the prompt changes to 5200#.
|
2
|
Enter configuration commands, one per line. End with CNTL/Z.
|
Enter global configuration mode. You have entered global configuration mode when the prompt changes to 5200(config)#.
|
3
|
5200(config)# controller e1 [0 | 1 ]
|
Enter controller configuration mode to configure your E1 controller port. The E1 controller ports are labeled 0 and 1 on the E1/PRI cards.
|
4
|
5200(config-controller)# framing crc4
5200(config-controller)# framing no-crc4
|
Configures framing to E1 with CRC1.
Configures framing to E1 only.
|
5
|
5200(config-controller)# linecode ami
5200 (config-controller)# linecode hdb3
|
Configures line code to AMI2 encoding.
Configures line code to HDB3 encoding.
|
6
|
5200(config-controller)# clock source internal
[or] 5200(config-controller)# clock source line primary
[or] 5200(config-controller)# clock source line secondary
|
Configures the clock source to the internal clock.
Configures the clock source to the primary recovered clock.
Configures the clock source to the secondary recovered clock.
|
7
|
5200(config-controller)# cas-group 1 timeslots 1-30 type r2-analog r2-compelled ani
|
Configures the timeslots that belong to each E1 circuit for R2 signaling. Sets R2 signaling to R2 ITU Q411, the tone signal to R2 Compelled Register Signaling, and the ANI addr info provisioned option.
R2 line signaling options include r2-analog, r2-digital, and r2-pulse.
Tone signaling options include dtmf (default), r2-compelled, r2-non-compelled, and r2-semi-compelled.
You can also set ani (ANI addr info provisioned) for any of the above options.
|
8
|
5200(config-controller-cas)# cas-custom 1
|
Enter the channel number to customize.
|
9
|
5200(config-ctrl-cas)# country country name use-default
|
Use defaults for the specified country. Note: To view the parameters for the country (if the country defaults are the same as ITU defaults), enter write term.
The default setting for all countries is ITU.
See "Country Codes for R2 Signaling" later in this section for a list of supported countries.
|
10
|
5200(config-ctrl-cas)# answer-signal group-b 6
5200(config-ctrl-cas)# default answer-signal group-b 6
5200(config-ctrl-cas)# no answer-signal group-b 6
controller E1 0 clock source line primary cas-group 0 timeslots 1-15,17-31 type r2-analog r2-compelled cas-custom 0 country singapore use-defaults category 2 <--- default category for singapore answer-signal group-b 6 <--- default bxfree for singapore
5200(config-ctrl-cas)# exit
|
Sets the cas custom command answer-signal to group-b to 6.
Cas custom commands include caller-digits, category, country, unused-abcd, invert-abcd, metering, ka, kd, dnis-digits, answer-signal, and nc-congestion.
Sets answer-signal group-b to the default ITU value.
Resets answer-signal group-b 6 to the default value.
Note: The parameters you do not set are automatically set to the ITU default by the Cisco AS5200.
After you configure a country with default settings, the Cisco AS5200 displays a write term, similar to the one displayed here.
Exits the cas-custom mode.
|
11
|
%SYS-5-CONFIG_I: Configured from console by console
|
Return to enable mode.
This message is normal and does not indicate an error.
|
CRC = Cyclic Redundancy Check.
AMI = Alternate Mark Inversion.
|
Country Codes for R2 Signaling
The following table lists the country codes supported for R2 signaling.
.
Table 3-16 Country Codes for R2 Signaling
Country
|
Code
|
Argentina
|
argentina
|
Australia
|
australia
|
Brazil
|
brazil
|
China
|
china
|
Columbia
|
columbia
|
Costa Rica
|
costarica
|
East Europe
|
easteurope
|
Ecuador ITU
|
ecuador-itu
|
Ecuador LME
|
ecuador-lme
|
Greece
|
greece
|
Guatemala
|
guatemala
|
Hong Kong (China variant)
|
hongkong-china
|
Indonesia
|
indonesia
|
Israel
|
israel
|
ITU (default)
|
itu
|
Korea
|
korea
|
Malaysia
|
malaysia
|
New Zealand
|
newzealand
|
Paraguay
|
paraguay
|
Peru
|
peru
|
Philippines
|
philippines
|
Saudi Arabia
|
saudiarabia
|
Singapore
|
singapore
|
South Africa Panafte
|
southafrica-panaftel l
|
Telmex
|
telmex
|
Telnor
|
telnor
|
Thailand
|
thailand
|
Uruguay
|
uruguay
|
Venezuela
|
venezuela
|
Vietnam
|
vietnam
|
Verify
To verify your R2 signaling configuration:
- Enter the show controller e1 command to view the status for all controllers, or enter the show controller e1 # to view the status for a particular controller. Make sure the status indicates the controller is up (line 2 in the following example) and no alarms (line 4 in the following example) or errors (lines 9 and 10 in the following example) have been reported.
5200#
show controller e1 0
Applique type is Channelized E1 - balanced
Version info of Slot 0: HW: 2, Firmware: 4, PLD Rev: 2
Manufacture Cookie is not programmed.
Framing is CRC4, Line Code is HDB3, Clock Source is Line Primary.
Data in current interval (785 seconds elapsed):
0 Line Code Violations, 0 Path Code Violations
0 Slip Secs, 0 Fr Loss Secs, 0 Line Err Secs, 0 Degraded Mins
0 Errored Secs, 0 Bursty Err Secs, 0 Severely Err Secs, 0 Unavail Secs
Total Data (last 13 15 minute intervals):
0 Line Code Violations, 0 Path Code Violations,
0 Slip Secs, 12 Fr Loss Secs, 0 Line Err Secs, 0 Degraded Mins,
0 Errored Secs, 0 Bursty Err Secs, 0 Severely Err Secs, 12 Unavail Secs
- Enter the show modem csm [slot/modem-port] command to view status for a specific modem:
MODEM_INFO: slot 1, port 0, unit 0, tone r2-compelled, modem_mask=0x0000, modem_port_offset=0
tty_hwidb=0x60E63E4C, modem_tty=0x60C16F04, oobp_info=0x00000000, modem_pool=0x60BC60CC
modem_status(0x0002): VDEV_STATUS_ACTIVE_CALL.
csm_state(0x0205)=CSM_IC5_CONNECTED, csm_event_proc=0x600CFF70, current call thru CAS line
invalid_event_count=0, wdt_timeout_count=0
wdt_timestamp_started is not activated
wait_for_dialing:False, wait_for_bchan:False
pri_chnl=TDM_PRI_STREAM(s0, u3, c7), modem_chnl=TDM_MODEM_STREAM(s1, c0)
dchan_idb_start_index=0, dchan_idb_index=0, call_id=0x0239, bchan_num=6
csm_event=CSM_EVENT_DSX0_CONNECTED, cause=0x0000
ring_no_answer=0, ic_failure=0, ic_complete=3
dial_failure=0, oc_failure=0, oc_complete=0
oc_busy=0, oc_no_dial_tone=0, oc_dial_timeout=0
remote_link_disc=2, stat_busyout=2, stat_modem_reset=0
call_duration_started=00:04:56, call_duration_ended=00:00:00, total_call_duration=00:01:43
The calling party phone number =
The called party phone number = 9993003
total_free_rbs_timeslot = 0, total_busy_rbs_timeslot = 0, total_dynamic_busy_rbs_timeslot = 0, total_static_busy_rbs_timeslot = 0, min_free_modem_threshold = 0
Tips
If you are having trouble, enable the modem management Call Switching Module (CSM) debug mode using the following command.
- Enter the debug modem csm command.
This is the output of debug modem csm for an incoming call:
5200#
debug modem csm 1/0
*May 15 04:05:46.675: VDEV_ALLOCATE: slot 2 and port 39 is allocated.
*May 15 04:05:46.675: CSM_RX_CAS_EVENT_FROM_NEAT:(04BF): EVENT_CALL_DIAL_IN at slot 2 and port 39
*May 15 04:05:46.675: CSM_PROC_IDLE: CSM_EVENT_DSX0_CALL at slot 2, port 39
*May 15 04:05:46.675: Mica Modem(2/39): Configure(0x0)
*May 15 04:05:46.675: Mica Modem(2/39): Configure(0x3)
*May 15 04:05:46.675: Mica Modem(2/39): Configure(0x6)
*May 15 04:05:46.675: Mica Modem(2/39): Call Setup
*May 15 04:05:46.891: Mica Modem(2/39): State Transition to Call Setup
*May 15 04:05:46.891: Mica Modem(2/39): Went offhook
*May 15 04:05:46.891: CSM_PROC_IC1_RING: CSM_EVENT_MODEM_OFFHOOK at slot 2, port 39
When the E1 controller comes up, the following messages appear:
%CONTROLLER-3-UPDOWN: Controller E1 0, changed state to up
It also shows these messages for individual timeslots:
%DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 1 is up
%DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 2 is up
%DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 3 is up
%DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 4 is up
%DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 5 is up
%DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 6 is up
%DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 7 is up
%DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 8 is up
Configuring the V.110 Terminal Adapter
Enter the commands from Table 3-17 to configure the access server V.110 terminal adapter.
Table 3-17 Configuring the V.110 Terminal Adapter
Step
|
Command
|
Purpose
|
1
|
|
Enter the number of TA lines to configure. If you have 48 modems, enter line 1 48. If 60, enter line 1 60. There are 12 modems on each V.110 TA card.
|
2
|
5200(config-line)# modem autoconfigure type cisco_v110
|
Configure the access server modems automatically. A string of TA configuration commands is sent to the TA each time a TA is reset.
|
3
|
5200(config-line)# speed 9600
|
Set the transmit and receive speeds. The maximum speed is 19,600.
|
4
|
5200(config-line)# transport input all
|
Allow all protocols to be used when connecting the line.
|
5
|
5200(config-line)# autoselect ppp
|
Enable remote IP users running a PPP application to dial in, bypass the EXEC facility, and connect directly to the network.
|
6
|
5200(config-line)# modem inout
|
Enable both incoming and outgoing calls.
|
7
|
5200(config-line)# flowcontrol hardware
|
Enable hardware flow control.
|
8
|
|
Exit to global configuration mode.
|
Verify
To verify that you followed all the steps while configuring your AS5200, use the following procedure. This procedure requires that you have already configured your Ethernet port with an IP address.
- Reverse telnet to the terminal adapter port on the router you are configuring. In the following example, the terminal adapter port is 2001. If you configured your terminal adapter port correctly, the version will display on the screen.
Trying 172.22.16.124, 2001 ... Open
To disconnect, you must first press Ctrl ^ and the X key at the same time before entering the disconnect command.
Closing connection to 172.22.16.124 [confirm]
Tips
If you are having trouble, check the configuration of the modem by using the following commands.
- If you do not see version numbers of the terminal adapter after entering the ati2 command, use the sh run (show running configuration) command to compare the configuration with the information in Table 3-17.
Building configuration...
- Sometimes a modem could busy out. If this is the case, use the sh mod (show modem) command to identify the busy out modem (indicated by a lowercase b flag left of the modem), then use the conf (configure) command to clear the flag. See the following examples.
Inc calls Out calls Busied Failed No Succ
Mdm Usage Succ Fail Succ Fail Out Dial Answer Pct.
Configuring from terminal, memory, or network [terminal]? terminal
Enter configuration commands, one per line. End with CNTL/Z.
5200(config-line)#no modem busyout
Inc calls Out calls Busied Failed No Succ
Mdm Usage Succ Fail Succ Fail Out Dial Answer Pct.
Configuring IPX Networks
Use the commands in Table 3-18 to configure the IPX networks for dial-in remote IPX users.
Table 3-18 Configuring IPX Networks
Step
|
Command
|
Purpose
|
1
|
5200(config)# ipx routing
5200(config-if)# interface loopback 0
5200(config-if)# ipx network FEFEFE
5200(config-if)# exit
5200(config)# interface ethernet 0
5200(config-if)# ipx network 123ABCD encapsulation SAP
5200(config-if)# exit
5200(config)# interface group-Async 1
5200(config-if)# group-range 1 48
for E1 PRI 5200(config-if)# group-range 1 60
Building configuration... 5200(config-if)# ipx ppp-client Loopback 0
5200(config-if)# exit
5200(config)#
|
Enable IPX clients to access network resources by dialing through the access server over ISDN.
|
2
|
5200(config)# interface dialer 1
5200(config)# ipx ppp-client Loopback 0
|
Create a dialer interface. This is the parent interface for all of the ISDN interfaces (this was set using the dialer rotary-group 1 command in the IP configuration).
|
3
|
5200(config)# dialer map ipx FEFEFE.0000.0c00.1234 name jordan
5200(config)## dialer map ipx FEFEFE.0000.0c00.4567 name rodman
5200(config)# dialer map ipx FEFEFE.0000.0c00.89AB name kemp
|
Create a dialer map for the single IPX network address that contains all the dial-in users (for example, FEFEFE). The map for each IPX address differs and is activated by each dial-in user's login sessions.
For IP configurations, dialer mapping is automatically constructed when the access server receives a user's name and address. However, when you use the IPX configuration, you must statically configure each user name's IPX address.
|
4
|
5200(config)# dialer-list 1 protocol ipx permit
|
Enable IPX packets to reset the idle timer.
|
5
|
5200# copy running-config startup-config
|
This completes the configuration for IPX. Save the running configuration to the startup configuration.
The access server will startup with your configuration at the next power up.
|
Verify
To verify the IPX routing is enabled, use the following command.
- Enter the show ipx interface serial command:
5200(config)#
show ipx interface serial 1:23
Serial1:23 is up, line protocol is up
IPX address is 2A.00e0.1e6b.2f6e [up]
Delay of this IPX network, in ticks is 6 throughput 0 link delay 0
IPXWAN processing not enabled on this interface.
IPX SAP update interval is 1 minute(s)
IPX type 20 propagation packet forwarding is disabled
Incoming access list is not set
Outgoing access list is not set
IPX helper access list is not set
SAP GNS processing enabled, delay 0 ms, output filter list is not set
SAP Input filter list is not set
SAP Output filter list is not set
SAP Router filter list is not set
Input filter list is not set
Output filter list is not set
Router filter list is not set
Netbios Input host access list is not set
Netbios Input bytes access list is not set
Netbios Output host access list is not set
Netbios Output bytes access list is not set
Updates each 60 seconds, aging multiples RIP: 3 SAP: 3
SAP interpacket delay is 55 ms, maximum size is 480 bytes
RIP interpacket delay is 55 ms, maximum size is 432 bytes
Watchdog spoofing is disabled, SPX spoofing is disabled, idle time 60
IPX accounting is disabled
IPX fast switching is configured (disabled)
RIP packets received 0, RIP packets sent 1
SAP packets received 0, SAP packets sent 0
Tips
Check for compression errors, events, NLSP activity, IPX activity, and so on by using the debug ipx command.
- Enter the debug ipx ? command to see a list of IPX debug options available:
5200(config)#
debug ipx ?
compression IPX compression
ipxwan Novell IPXWAN events
nasi NASI server functionality
redistribution IPX route redistribution
routing IPX RIP routing information
sap IPX Service Advertisement information
spoof IPX and SPX Spoofing activity
spx Sequenced Packet Exchange Protocol
- Enter the debug command to view the debug information for one above listed options.
Configuring AppleTalk
Configure AppleTalk to enable Macintosh clients to access network resources by dialing through the access server over ISDN. Use the commands in Table 3-19 to configure AppleTalk.
Table 3-19 Configuring AppleTalk
Step
|
Command
|
Purpose
|
1
|
Enter configuration commands, one per line. End with CNTL/Z.
5200(config)# appletalk routing
5200(config)# appletalk virtual-net 2 ATCP Zone
|
Enable AppleTalk routing and set the AppleTalk zone ATCP on network 2 (your network number and zones may differ).
All users that dial in to the system will belong to the AppleTalk network 2 in the AppleTalk zone ATCP Zone. All the dial-in users will look as though they are on a single network. Links will not have their own network numbers. This applies to configurations using PPP instead of ARAP encapsulation.
|
2
|
5200(config)# appletalk cable-range 1-1 1.120
5200(config-if)# appletalk zone Ethernet
|
Sets the AppleTalk cable range and the AppleTalk zone on the Ethernet.
|
3
|
5200# copy running-config startup-config
|
Completes configuration for AppleTalk operation. Save the running configuration to the startup configuration.
|
Verify
To verify the AppleTalk interface is up and running, use the following command.
- Enter the show appletalk interface serial command:
5200#
show appletalk interface serial 1:23
Serial1:23 is up, line protocol is up
AppleTalk address is 10.1, Valid
AppleTalk zone is "dolzone"
AppleTalk discarded 37 packets due to output errors
AppleTalk address gleaning is not supported by hardware
AppleTalk route cache is disabled, Dial on Demand specified
Tips
If you are having trouble, you can troubleshoot the AppleTalk protocol by using its debug commands to view information for the errors, events, and packets and check the Gateway name, NAS name, and if the virtual access interface is up.
- Use the debug ppp negotiation command.
PPP protocol negotiation debugging is on
%LINK-3-UPDOWN: Interface Async1, changed state to up
PPP Async1: treating connection as a dedicated line
ppp: sending CONFREQ, type = 2 (CI_ASYNCMAP), value = 0xA0000
ppp: sending CONFREQ, type = 3 (CI_AUTHTYPE), value = 0xC223/5
ppp: sending CONFREQ, type = 5 (CI_MAGICNUMBER), value = 0xAB1BAB3
PPP Async1: state = REQsent fsm_rconfack(0xC021): rcvd id 7
ppp: config ACK received, type = 2 (CI_ASYNCMAP), value = 0xA0000
ppp: config ACK received, type = 3 (CI_AUTHTYPE), value = 0xC223
ppp: config ACK received, type = 5 (CI_MAGICNUMBER), value = 0xAB1BAB3
ppp: config ACK received, type = 7 (CI_PCOMPRESSION)
ppp: config ACK received, type = 8 (CI_ACCOMPRESSION)
PPP Async1: received config for type = 1 (MRU) value = 1500 acked
PPP Async1: received config for type = 2 (ASYNCMAP) value = 0x0 acked
PPP Async1: received config for type = 5 (MAGICNUMBER) value = 0x565CFA6A acked
PPP Async1: received config for type = 7 (PCOMPRESSION) acked
PPP Async1: received config for type = 8 (ACCOMPRESSION) acked
ipcp: sending CONFREQ, type = 2 (CI_COMPRESSTYPE), slots = 15, csid = 0
ipcp: sending CONFREQ, type = 3 (CI_ADDRESS), Address = 171.60.199.193
atcp: sending CONFREQ, type = 6 (CI_AT_SERVERINFO), values = 119132, 6
atcp: sending CONFREQ, type = 7 (CI_AT_ZONEINFO), values = 1191B3, 9
atcp: sending CONFREQ, type = 8 (CI_AT_DEFAULT_ROUTER), values = 5, C7
ppp Async1: ipcp_reqci: rcvd COMPRESSTYPE (ACK)
ppp Async1: Negotiate IP address: her address 0.0.0.0 (NAK with address 171.60.199.245) (NAK)
ppp: ipcp_reqci: returning CONFNAK.
ppp Async1: Negotiate AT address
atcp Async1: NAKing with our address (NAK)
ppp Async1: Negotiate AT routing protocol (rejected) (REJ)
ppp Async1: Negotiate AT broadcast suppression (rejected) (REJ)
ppp: atcp_reqci: returning CONFREJ.
PPP Async1: state = REQsent fsm_rconfack(0x8021): rcvd id 15
ipcp: config ACK received, type = 2 (CI_COMPRESSTYPE), slots = 15, csid = 0
ipcp: config ACK received, type = 3 (CI_ADDRESS), Address = 171.60.199.193
PPP Async1: state = REQsent fsm_rconfnck(0x8029): rcvd id 15
ATcp: config NAK received, type = 1 (CI_AT_ADDRESS), values = 0, 0
ppp: Async1 ATCP NAK for address
atcp: sending CONFREQ, type = 1 (CI_AT_ADDRESS), values = 5, C7
atcp: sending CONFREQ, type = 6 (CI_AT_SERVERINFO), values = 119132, 6
atcp: sending CONFREQ, type = 7 (CI_AT_ZONEINFO), values = 1191B3, 9
atcp: sending CONFREQ, type = 8 (CI_AT_DEFAULT_ROUTER), values = 5, C7
ppp Async1: ipcp_reqci: rcvd COMPRESSTYPE (ACK)
ppp Async1: Negotiate IP address: her address 171.60.199.245 (ACK)
ppp: ipcp_reqci: returning CONFACK.
Async1: install route to 171.60.199.245
ppp Async1: Negotiate AT address
atcp Async1: NAKing with our address (NAK)
ppp: atcp_reqci: returning CONFNAK.
PPP Async1: state = REQsent fsm_rconfack(0x8029): rcvd id 16
atcp: config ACK received, type = 1 (CI_AT_ADDRESS), values = 5, C7
atcp: config ACK received, type = 6 (CI_AT_SERVERINFO), values = 119132, 6
atcp: config ACK received, type = 7 (CI_AT_ZONEINFO), values = 1191B3, 9
atcp: config ACK received, type = 8 (CI_AT_DEFAULT_ROUTER), values = 5, C7
%LINEPROTO-5-UPDOWN: Line protocol on Interface Async1, changed state to up
ppp Async1: Negotiate AT address (ACK)
ppp: atcp_reqci: returning CONFACK.
- Use the show interface async 1 command.
Async1 is up, line protocol is up
Interface is unnumbered. Using address of Ethernet0 (171.60.199.193)
MTU 1500 bytes, BW 38 Kbit, DLY 100000 usec, rely 255/255, load 1/255
Encapsulation PPP, loopback not set, keepalive not set
DTR is pulsed for 5 seconds on reset
Last input 00:00:01, output 00:00:08, output hang never
Last clearing of "show interface" counters 07:17:22
Input queue: 1/75/0 (size/max/drops); Total output drops: 0
Queueing strategy: weighted fair
Output queue: 0/64/0 (size/threshold/drops)
Conversations 0/9 (active/max active)
Reserved Conversations 0/0 (allocated/max allocated)
5 minute input rate 0 bits/sec, 0 packets/sec
5 minute output rate 0 bits/sec, 0 packets/sec
753 packets input, 22232 bytes, 0 no buffer
Received 0 broadcasts, 0 runts, 0 giants, 0 throttles
0 input errors, 0 CRC, 0 frame, 0 overrun, 0 ignored, 0 abort
638 packets output, 37821 bytes, 0 underruns
0 output errors, 0 collisions, 3 interface resets
0 output buffer failures, 0 output buffers swapped out
- Use the show apple interface async 1 command.
5200#
show apple int async 1
Async1 is up, line protocol is up
AppleTalk port is in client-mode
AppleTalk discarded 3 packets due to input errors
AppleTalk address gleaning is not supported by hardware
AppleTalk route cache is disabled, port down
- You can also set the access server to display events messages for the AppleTalk interface by using the debug appletalk events command. When done troubleshooting, enter the no debug appletalk events to turn off the messages.
5200#
debug appletalk events
AppleTalk Events debugging is on
*Aug 15:56:06.907: AT: RTMP GC complete (0 PDBs freed, 0 PDBs waiting)
*Aug 15:17:56:06.927: AT: Connected GC complete (0 PDBs freed, 0 PDBs waiting)
Configuring MMP
MMP support on a group of access servers requires that each access server be configured to support the following:
- Stack Group Bidding Protocol (SGBP)
- Virtual templates used for cloning interface configurations to support MMP
- Multilink PPP
Use the commands in Table 3-20 to configure MMP.
Table 3-20 Configuring MMP
Step
|
Command
|
Purpose
|
1
|
|
Enter enable mode.
Enter the password.
You have entered enable mode when the prompt changes to 5200#.
|
2
|
Enter configuration commands, one per line. End with CNTL/Z.
|
Enter global configuration mode. You have entered global configuration mode when the prompt changes to 5200(config)#.
|
3
|
5200(config)# sgbp group stackq
|
Create a stack group and assign this access server to it.
|
4
|
5200(config)# sgbp member systemc 172.16.189.254
|
Specify the host name and IP address of the peer member of the stack group.
|
5
|
5200(config)# multilink virtual-template number
|
Define a virtual template for the stack group.
|
6
|
5200(config)# ip local pool default ip-address
|
Specify an IP address pool by using any pooling mechanismfor example, IP local pooling or DHCP pooling.
|
7
|
5200(config)# interface virtual-template number
|
Create a virtual template1 interface, and enter interface configuration mode.
|
8
|
5200(config-if)# ip unnumbered ethernet 0
|
If dialers are not configured on the physical interfaces, identify the virtual template interface type and number on the LAN.
|
9
|
5200(config-if)# encapsulation ppp
|
Enable PPP encapsulation on the virtual template interface.
|
10
|
5200(config-if)# ppp multilink
|
Enable Multilink PPP on the virtual template interface.
|
11
|
5200(config-if)# ppp authentication chap
|
Enable PPP authentication on the virtual template interface.
|
12
|
%SYS-5-CONFIG_I: Configured from console by console
|
Return to privileged EXEC mode.
This message is normal and does not indicate an error.
|
A virtual template is a serial interface configuration with no hardware association.
|
Verify
To verify the MMP configuration on each server, use the following command.
- Enter the show sgbp command.
Group Name: test Ref: 0x4780B252
Seed bid: default, 50, default seed bid setting
Member Name: 5200-3 State: active Id: 9
Group Name: test Ref: 0x4780B54D
Seed bid: default, 50, default seed bid setting
Member Name: 5200-7 State: active Id: 1
Note the following:
- Check to make sure State is active. State set to idle indicates there is a misconfiguration on either side.
- Check to make sure the username and password are configured for the SGBP group; otherwise the servers will not be able to talk to each other.
Tips
If you are having trouble, use the following commands.
- Enter the debug sgbp ? command to view a list of available debugging commands.
hellos SGBP connection hellos
queries SGBP mastership queries
- Enter the debug sgbp errors command to view error messages. When done troubleshooting, enter the no debug sgbp errors to turn off the messages.
*Mar 4 11:55:24.105 EST: %SGBP-1-MISSCONF: Possible misconfigured member 5200-6 using 172.22.21.11
*Mar 4 11:55:41.185 EST: %SGBP-7-NORESP: Fail to response to 5200-3 group test, may not have password
Error messages are displayed if one server 5200-6 shows an SGBP group configured but the group is not configured for another server in the group. Error messages are also displayed if the password is not configured for the SGBP group.
- Enter the debug sgbp events command to view event messages. When done troubleshooting, enter the no debug sgbp events to turn off the messages.
*Mar 4 12:26:46.441 EST: %SGBP-7-CLOSE: Closing pipe for member 5200-3
*Mar 4 12:26:46.445 EST: %SGBP-5-LEAVING: Member 5200-3 leaving grouptest
The above event message indicates that the SGBP pipe went down and 5200-3 is no longer part of the 5200-7 SGBP group. You can check 5200-3 for the reasons why the SGBP pipe went down. Possibly, the SGBP member entry for 5200-7 was removed or there is no communication between 5200-7 and 5200-3.
Creating Authentication Accounts
You can create authentication accounts for other routers in an MMP stack. If your stack name is STACK1, you need to create a user account called STACK1 on each router with the same password.
username STACK1 password cisco
sgbp member <other router name> <other router IP address>
Configuring VPDN
Virtual private dial-up networking (VPDN) enables users to configure secure networks that take advantage of Internet service providers (ISPs) that tunnel the company's remote access traffic through the ISP cloud.
Remote offices or mobile users can connect to their home network using local third-party dial-up services. The dial-up service provider agrees to forward the company's traffic from the ISP Point-of-Presence (POP) to a company-run home gateway. Network configuration and security remains in the control of the client. The dial-up service provider provides a virtual pipe between the company's sites. Use the commands in Table 3-21 to configure VPDN.
Note The MMP feature uses VPDN to connect multiple PPP sessions for which individual dial-in
calls have arrived on different stack group members. VPDN provides speed and reliability for the
setup and shutdown of Multilink PPP.
Table 3-21 Configuring VPDN
Step
|
Command
|
Purpose
|
1
|
|
Enter enable mode.
Enter the password.
You have entered enable mode when the prompt changes to 5200#.
|
2
|
Enter configuration commands, one per line. End with CNTL/Z.
|
Enter global configuration mode. You have entered global configuration mode when the prompt changes to 5200(config)#.
|
3
|
5200(config)# vpdn enable
|
Enable virtual private dial-up networking.
|
4
|
5200(config)# vpdn outgoing domain1.com nas1 ip 172.21.9.18
5200(config)# vpdn outgoing domain2.com nas2 ip 173.22.10.19
|
Specify the name and IP address of the remote host and the name to use when authenticating a tunnel for forwarding traffic to the remote host on a virtual private dial-up network. In this example, two remote hosts are specified.
|
5
|
%SYS-5-CONFIG_I: Configured from console by console
|
Return to privileged EXEC mode.
This message is normal and does not indicate an error.
|
Verify
To verify your VPDN configuration, use the following command.
- Enter the show vpdn command to make sure the tunnels are active (see line 2 in the following example).
NAS Name Gateway Name NAS CLID Gateway CLID State
test-mmp test-mmp 272 272 open
192.168.1.99 192.168.1.119
Name NAS Name Interface MID State
rw56 test-mmp Vi238 1 open
rw55 test-mmp Vi240 3 open
rw54 test-mmp Vi242 4 open
rw57 test-mmp Vi246 7 open
rw57 test-mmp Vi248 8 open
rw54 test-mmp Vi245 13 open
rw55 test-mmp Vi244 14 open
rw16 test-mmp Vi249 97 open
rw16 test-mmp Vi251 98 open
rw56 test-mmp Vi250 100 open
Tips
If you are having trouble, you can troubleshoot the VPDN protocol by using its debug commands to view information for the errors, events, and packets and check the Gateway name, NAS name, and if the virtual access interface is up.
- Enter debug vpdn ? to view a list of available debug commands:
error VPDN Protocol errors
l2f-errors L2F protocol errors
l2f-events L2F protocol events
l2f-packets L2F protocol packets
- Enter debug commands to view error information. Do not forget to turn off the debug messages by entering the no debug vpdn command when you are done troubleshooting.
This is sample output for the debug vpdn event command:
VPN events debugging is on
*May 15 17:55:49.367: %LINK-3-UPDOWN: Interface Virtual-Access239, changed
*May 15 17:55:49.547: Virtual-Access249 VPN reset
*May 15 17:55:49.547: %LINK-3-UPDOWN: Interface Virtual-Access249, changed
This is sample output for the debug vpdn l2f-events command:
5200#
debug vpdn l2f-events
L2F protocol events debugging is on
*May 15 17:56:46.259: L2F_OPEN received
*May 15 17:56:46.263: L2F Got a MID management packet
*May 15 17:56:46.339: %LINK-3-UPDOWN: Interface Virtual-Access239, changed
This is sample output for the debug vpdn l2f-errors command:
5200#
debug vpdn l2f-errors
L2F protocol errors debugging is on
*May 15 17:57:57.827: %LINK-3-UPDOWN: Interface Virtual-Access251, changed
Creating Authentication Accounts
You can create authentication accounts for other routers between the NAS and the HGW for VRDN.
On the NAS an example is:
username NAS password cisco
username HGW password cisco
vpdn outgoing cisco.com NAS ip X.X.X.X
On the HGW, an example is:
username NAS password cisco
username HGW password cisco
vpdn incoming NAS HGW virtual-template 1
Saving Configuration Changes
To avoid losing the access server configuration, save it to NVRAM. Use the commands in Table 3-22 to save your configuration changes.
Table 3-22 Saving Configuration Changes
Step
|
Command
|
Purpose
|
1
|
|
Enter enable mode.
Enter the password.
You have entered enable mode when the prompt changes to 5200#.
|
2
|
5200# copy running-config startup-config
|
Save the configuration changes to NVRAM so that they are not lost during resets, power cycles, or power outages.
|
3
|
%SYS-5-CONFIG_I: Configured from console 5200#
|
Return to privileged EXEC mode.
This message is normal and does not indicate an error.
|
Comprehensive Configuration Example
The following shows a typical T1 configuration:
5200#
show running-config
Building configuration...
service udp-small-servers
service tcp-small-servers
aaa authentication login default local
aaa authentication arap default local
aaa authentication ppp default local
enable secret 5 $1$ltBE$Slq0BUs/5mwqw6B4DOapg/
username jim password 7 02150C5A110702
isdn switch-type primary-5ess
clock source line primary
clock source line secondary
ip address 172.16.254.254 255.255.255.0
ip address
172.16.253.254 255.255.255.0
isdn incoming-voice modem
ppp authentication chap pap
peer default ip address pool default
ppp authentication chap pap
ip local pool default 172.16.254.1 172.16.254.48
dialer-list 1 protocol ip permit
modem autoconfigure type microcom_hdms
This concludes the basic access server configuration.
Where to Go Next
At this point you can proceed to:
- The chapter "Access Service Security" to configure security on the access server.
- The Cisco IOS software configuration guide and command reference publications for more advanced configuration topics. These publications are available on the documentation CD-ROM that came with your access server, on the World Wide Web from Cisco's home page (http://www.cisco.com), or you can order printed copies.
- The System Error Messages and Debug Command Reference publications for troubleshooting information.
Posted: Sat Jan 18 23:44:19 PST 2003
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