Table Of Contents
call progress tone country
callback forced-wait
callback nodsr-wait
called-number
call-type
call-type cas
cas-custom
cas-group (E1 controller)
cas-group (t1 controller)
channel-group
chat-script
clear controller
clear cot summary
clear counters (async)
clear counters line
clear dialer
clear dialer dnis
clear dialer sessions
clear entry
clear interface
clear interface virtual-access
clear ip route download
clear line
clear modem
clear modem counters
clear modempool-counters
clear resource-pool
clear rlm group link
clear snapshot quiet-time
clear vpdn history failure
clear vpdn tunnel
clock source line
connect
controller
copy modem
cpp authentication
cpp callback accept
call progress tone country
To specify the country code for retrieving the call progress tone parameters from the call progress tone database, use the call progress tone country command in configuration mode. Use the no version of this command to cancel the previous setting and to generate the call progress tones according to modem settings.
call progress tone country country-name
no call progress tone country country-name
Syntax Description
country-name
|
Selects default call progress tones (ring and cadence settings) for the specified country. Valid entries are: argentina, australia, austria, belgium, brazil, canada, china, colombia, cyprus, czech-republic, denmark, finland, france, germany, greece, hongkong, hungary, iceland, india, indonesia, ireland, israel, italy, japan, korea, luxembourg, malaysia, mexico, netherlands, peru, philippines, poland, portugal, russia, singapore, slovakia, slovenia, south-africa, spain, sweden, switzerland, taiwan, thailand, turkey, unitedkingdom, usa, and venezuela.
|
Defaults
Modem default settings. (The country-name keyword northamerica was the default in Cisco IOS Release versions earlier than release 12.0(3)XG; usa is the default country keyword for Cisco IOS Release 12.0(3)XG and later releases.)
Command Modes
Configuration mode
Command History
Release
|
Modification
|
12.0(3)XG
|
This command was introduced.
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12.0(4)XI
|
This command was enhanced with additional and different country keywords.
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Usage Guidelines
Use the call progress tone configuration to specify the country for call progress tone generation. While in many cases the country is chosen automatically based on the modem setting, automatic selection won't work for all users because many modems do not support all countries and many users choose the "us" or "default-t1" or "default-e1" setting on their modem.
This command affects the tones generated at the local interface and does not affect any information passed to the remote end of a connection or any tones generated at the remote end of a connection.
For dial platforms (AS5200, AS5300, and AS5800), call progress tones are used only for the resource pool management application. Resource pool management assumes that the call progress tone selection is global. Select only one call progress tone set for the whole box, and it will globally override country settings on all ports.
Examples
The following example shows the call progress tone set for Japan tone parameters:
call progress tone country japan
Related Commands
Command
|
Description
|
show call progress
|
Displays the contents of the internal CP tone database for a specific country.
|
callback forced-wait
To force the Cisco IOS software to wait before initiating a callback to a requesting client, use the callback forced-wait command in global configuration mode. Use the no form of this command to disable the forced waiting period.
callback forced-wait
no callback forced-wait
Syntax Description
This command has no arguments or keywords.
Defaults
The forced waiting period is not set.
Command Modes
Global configuration
Command History
Release
|
Modification
|
11.1
|
This command was introduced.
|
Usage Guidelines
Use this command when the router is calling back a modem that initiated a call, then dropped the connection, but requires a rest period before subsequent input is accepted.
Examples
The following example sets a waiting period during which a callback chat script is delayed from being sent on an outgoing target line:
Related Commands
Command
|
Description
|
arap callback
|
Enables an ARA client to request a callback from an ARA client.
|
chat-script
|
Places calls over a modem and logs in to remote systems.
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debug callback
|
Displays callback events when the router is using a modem and a chat script to call back on a terminal line.
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ppp callback (DDR)
|
Enables a dialer interface that is not a DTR interface to function either as a callback client that requests callback or as a callback server that accepts callback requests.
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server (RLM)
|
Enables the Cisco IOS software to call back clients that request a callback from the EXEC level.
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virtual-profile aaa
|
Enables virtual profiles by AAA configuration.
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callback nodsr-wait
To set the time period for which an asynchronous callback waits to see the DSR signal go low after the router signals a hang-up request on the incoming call, use the callback nodsr-wait command in line configuration mode. To negate or change the line setting, use the no form of this command.
callback nodsr-wait milliseconds
no callback nodsr-wait
Syntax Description
milliseconds
|
The timeout value in a range from 5000 to 30,000 milliseconds (ms). Default is 5000 ms.
|
Defaults
5000 ms
Command Modes
Line configuration
Command History
Release
|
Modification
|
11.2(6.1)P
|
This command was introduced.
|
Usage Guidelines
Use the callback nodsr-wait command when the dial-out modem takes longer than 5000 ms to drop a carrier after the router signals a hang-up on the incoming call.
Increase the duration of the callback if the debug callback command displays the following failed callback attempt message:
callback process fail - timeout with DSR up
Examples
The following example sets the callback duration to 10 seconds for lines 1/0 to 1/107:
callback nodsr-wait 10000
Related Commands
Command
|
Description
|
callback forced-wait
|
Sets a waiting period when DSR signals decrease after a callback, before the router attempts another callback.
|
debug callback
|
Displays callback events when the router is using a modem and a chat script to call back on a terminal line.
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called-number
To assign a called party number to a pool of modems, use the called-number command in modem pool configuration mode. Use the no form of this command to remove a number from a modem pool.
called-number number [max-conn number]
no called-number number [max-conn number]
Syntax Description
number
|
Called number for a modem pool.
|
max-conn number
|
(Optional) Maximum number of simultaneous connections allowed for the called party number.
|
Defaults
Disabled
Command Modes
Modem pool configuration
Command History
Release
|
Modification
|
11.2P
|
This command was introduced.
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Usage Guidelines
A called party number is a telephone number that is used to reach a remote destination. For example, a mobile laptop dials a called party number to reach an ISP's POP. Some ISPs set up several called party numbers to enable remote clients to dial in, but to the end user, it appears and functions as one unified service.
Cisco's implementation of a called party number is based on the dialed number identification service (DNIS). You can configure multiple DNIS numbers in a single modem pool. However, the same DNIS number cannot be used in multiple modem pools. Each modem pool must be assigned different DNIS numbers.
Use the max-conn option to provide overflow protection, which specifies a maximum number of simultaneous connections that a called party number can consume. For example, if you create one modem pool to serve two or more services or customers, this option guarantees how many modems each service or customer can have access to at any given time.
The Cisco IOS software also includes a feature that simplifies the called number configuration. By using an x variable as the last digit in a called telephone number (for example, issuing the called-number 408555121x command), clients dialing different called numbers such as 4085551214 or 4085551215 will automatically be sent to the same modem pool. The x variable is a floating place holder for digits 1 through 9.
Note
Modem pools using MICA technologies or Microcom modems support incoming analog calls over ISDN PRI. However, only MICA modems support modem pooling for CT1 and CE1 configurations with channel associated signalling.
Examples
In the following example, the modem pool called v90service is virtually partitioned between two customers using different DNIS numbers. The pool-range command assigns modems 1 to 110 to the shared modem pool. The called-number 5551212 max-conn 55 command assigns the DNIS number 5551212 to the v90service modem pool. The total number of simultaneous connections is limited to 55. The called-number 4441212 max-conn 55 command assigns the DNIS number 4441212, which is for a different customer, to the same v90service modem pool. The total number of simultaneous connections is also set to 55.
called-number 5551212 max-conn 55
called-number 4441212 max-conn 55
The following configuration rejects the pool-range 30 command because modem TTY line 30 is already a member of the modem pool v90service, which was configured in the previous example. Each modem in the access server is automatically assigned to a unique TTY line. TTY line numbers are assigned according to your shelf, slot, or port hardware configuration.
Related Commands
Command
|
Description
|
clear modempool-counters
|
Clears active or running counters associated with one or more modem pools.
|
modem-pool
|
Creates a new modem pool or specifies an existing modem pool, which allows you to physically or virtually partition your access server for dial-in and dial-out access.
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pool-member
|
Assigns a range of modems to a modem pool.
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show modem-pool
|
Displays the configuration and connection status for one or more modem pools.
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call-type
To reject particular types of calls, use the call-type command in call discriminator profile configuration mode, use the no form of this command to disable this feature.
call-type {all | digital | speech | v110 | v120}
no call-type {all | digital | speech | v110 | v120}
Syntax Description
all
|
Rejects all calls.
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digital
|
Rejects digital calls.
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speech
|
Rejects speech calls.
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v110
|
Rejects V.110 calls.
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v120
|
Rejects V.120 calls.
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Defaults
All calls are accepted by the network access server.
Command Modes
Call discriminator profile configuration
Command History
Release
|
Modification
|
12.0(4)XI
|
This command was introduced.
|
Usage Guidelines
Use the call-type call discriminator command to reject particular types of calls. Call type "all" is mutually exclusive for all other call types. If call type "all" is set in the discriminator, no other call types are allowed. Also, once a DNIS is associated with a call type in a discriminator, it cannot be used in any other discriminator.
Examples
The following example shows the call discriminator being configured to reject speech calls for the call discriminator profile named userd3:
resource-pool profile discriminator userd3
call-type cas
To statically set the call-type override for incoming channel-associated signalling (CAS) calls, use the call-type cas command in DNIS group configuration mode. Use the no form of this command to disable this service.
call-type cas {digital | speech}
no call-type cas {digital | speech}
Syntax Description
digital
|
Override call type to digital. The incoming call with the DNIS in the called group is treated as a digital call type.
|
speech
|
Override call-type to speech. The incoming call with the DNIS in the called group is treated as a speech call type.
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Defaults
No default behavior or values.
Command Modes
DNIS group configuration
Command History
Release
|
Modification
|
12.0(4)XI
|
This command was introduced.
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Usage Guidelines
Use the call-type cas DNIS group configuration command to set the call-type override. From the resource pooling call-type perspective, use CT1 (CAS) to support either analog calls (speech) or digital calls (switched 56K).
Switched 56K calls are digital calls that connect to HDLC framers. Unlike ISDN, it is impossible to communicate the call type in CT1. Therefore, switched 56K services in CT1 can be differentiated by the DNIS numbers. This command identifies that the call arriving with the DNIS in the DNIS group is assigned to the call type specified in the command.
Examples
The following example shows the DNIS group configuration mode being accessed to use the call-type cas command to set the call type override for CAS to speech:
dialer dnis group modem-group1
cas-custom
To customize E1 R2 signalling parameters for a particular E1 channel group on a channelized E1 line, use the cas-custom command in controller configuration mode. Use the no form of this command to disable the signalling customization.
cas-custom channel
no cas-custom channel
Syntax Description
channel
|
Specifies a single channel group number, which can be from 0 to 30. This channel group number must match the channel number specified in the cas-group command.
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Defaults
No customized signalling parameters are set. If you do not specify a country name using the country name command, which is described in Table 4, ITU is the selected default signal.
Command Modes
Controller configuration
Command History
Release
|
Modification
|
11.2P
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This command was introduced.
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12.0(1)T
|
This command was introduced for the Cisco 3600 series routers.
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Usage Guidelines
The customization parameters set by the cas-custom channel command are applied to the same channel group number used in the cas-group channel timeslots range type signal command. These channel group numbers must match. Otherwise, the customized features specified by the cas-custom command will not be applied to the cas-group command's configuration. The signalling customization will not take effect. See Example 1.
However, you will not need to configure or set more than one channel group number per E1 line in most cases. Though rarely used, it is possible to split a single E1 (time slots 1 to 31) into two groups (for example, 1 to 15 on group 1 and time slots 17 to 31 in group 2).
Cisco strongly recommends that you use the optional use-defaults keyword when specifying a particular country type; see the country name command in Table 4. This additional keyword ensures that all the local country settings are correctly enabled. For example, issue the country greece use-defaults command. If the use-defaults option is not specified, generic ITU will be the default setting for all countries. See Example 2.
You can configure the system to deviate from a country's default settings as defined by Cisco. To do this, choose from the following list of commands described in Table 4: ani-digits min number max number, answer-signal {group-a | group-b} number, caller-digits number, category number, dnis-digits min number max number, invert-abcd, ka number, kd number, metering, nc-congestion, and unused-abcd value. To return a country back to its country specific default settings, issue the country name use-defaults command. To return a country back to the ITU standard, issue the default country name use-defaults command. See Example 3 and Example 4.
Note
Only integrated MICA technologies modems support E1 R2 signalling on Cisco 5000 series access servers and Cisco 3600 series routers.
Table 4 shows a list of command options in cas-custom mode, which is used to customize R2 signalling settings.
Table 4 Available Commands in cas-custom Mode
CAS Custom Command
|
Purpose
|
ani-digits min number max number
|
Expected number of ANI digits. The minimum number of collected digits is set by min number. Replace number with a value between 0 and 64. The maximum number of collected digits is set by max number. Replace number with a value between 3 and 64. The default is 0 digits, which is the ITU default.
|
answer-signal {group-a | group-b} number
|
Answer signal to be used. You can specify the group A signal or the group B signal. The signal number can be 1 to 15. Default is group-b 6, which is the ITU default.
|
caller-digits number
|
Specifies the number of digits the access server needs to collect before it requests ANI or CallerID information. The digits can be from 1 to 10. Default is 1, which is the ITU default.
|
category number
|
Specifies the type of incoming call, which is mapped to a group signal number. Signal numbers from 1 to 15 are available. Default is 1, which is the ITU default.
|
country name
|
Specifies local country settings to use with R2 signalling. Replace the name variable with one of the following supported country names. Cisco strongly recommends that you include the use-defaults option, which enables the default settings for a specific country. Default country setting is ITU.
• argentina [use-defaults]
• australia [use-defaults]
• brazil [use-defaults]
• china [use-defaults]
• columbia [use-defaults]
• costarica [use-defaults]
• easteurope [use-defaults]
The easteurope option supports Croatia, Russia, and the Slovak Republic.
• ecuador-itu [use-defaults]
• ecuador-lme [use-defaults]
• greece [use-defaults]
• guatemala [use-defaults]
• hongkong-china [use-defaults]
The Hong Kong options uses the China variant.
|
| |
• indonesia [use-defaults]
• israel [use-defaults]
• itu
ITU is the signalling default. ITU provides support for the following list of countries: Denmark, Finland, Germany, Russia (ITU variant), Hong Kong (ITU variant), and South Africa (ITU variant).
The expression "ITU variant" means that there are multiple R2 signalling types deployed in the specified country, but Cisco supports the ITU variant.
• korea [use-defaults]
• malaysia [use-defaults]
• newzealand [use-defaults]
|
| |
• paraguay [use-defaults]
• peru [use-defaults]
• philippines [use-defaults]
• saudiarabia [use-defaults]
• singapore [use-defaults]
• southafrica-panaftel [use-defaults]
The South Africa option uses the Panaftel variant.
• telmex [use-defaults]
• telnor [use-defaults]
The telemex and telnor options are used in Mexico.
• thailand [use-defaults]
• uruguay [use-defaults]
• venezuela [use-defaults]
• vietnam [use-defaults]
|
default
|
Sets a command to its default setting.
|
dnis-digits min number max number
|
Expected number of DNIS digits. The minimum number of collected digits is set by min number. Replace number with a value between 3 and 64. The maximum number of collected digits is set by max number. Replace number with a value between 3 and 64. The default is 0 digits, which is the ITU default.
|
exit
|
Takes you out of cas custom mode.
|
invert-abcd
|
Inverts the ABCD bits before tx and after rx. This feature is disabled by default, which is the ITU default.
|
ka number
|
Specifies the KA signal code. You can choose 1 to 15. Default is 0, which is the ITU default.
|
kd number
|
Specifies the KD signal code. You can choose 1 to 15. Default is 0, which is the ITU default.
|
metering
|
Specifies sending a metering pulse when the access server is making an outgoing call. Metering is turned off by default, which is the ITU default.
|
nc-congestion
|
Specifies the noncompelled congestion signal. This signal is sent to the central office when the access server is congested and cannot accept the call. The default is B4, which is the ITU default.
|
no
|
Negates a command or sets its defaults.
|
request-category
|
Specifies a range of 1 to 64, but using this command you either turn on the request-category or turn it off by eliminating the line in your configuration.
|
unused-abcd value
|
Specifies unused ABCD bit values, which can have a 0 or 1 bit value. This feature is disabled by default, which is the ITU default.
|
Examples
Example 1
The following example displays the available signalling parameters after you enter cas-custom mode. Notice that the same channel group 1 is specified in the cas-group command and the cas-custom command.
Enter configuration commands, one per line. End with CNTL/Z
cas-group 1 timeslots 1-31 type r2-digital r2-compelled
ani-digits Expected number of ANI digits
answer-signal Answer signal to be used
caller-digits Digits to be collected before requesting CallerID
default Set a command to its defaults
dnis-digits Expected number of DNIS digits
exit Exit from cas custom mode
invert-abcd invert the ABCD bits before tx and after rx
metering R2 network is sending metering signal
nc-congestion Non Compelled Congestion signal
no Negate a command or set its defaults
unused-abcd Unused ABCD bit values
Example 2
You can localize your R2 configuration for a specific country. Do not forget to include the use-defaults option as described in Table 4. For example, use the country argentina use-defaults command for a R2 scenario in Argentina.
hongkong-china Hong Kong (China variant)
laos LAOS Network (Thailand Variant)
southafrica-panaftel South Africa Panaftel
use-defaults Use Country defaults
country argentina use-defaults
Example 3
The following example customizes the signalling for channel group 1. The configuration collects three digits before it requests ANI information for analog calls received on a Cisco AS5800 in Argentina.
country argentina use-defaults
Example 4
Because cas-custom mode gives you the flexibility to customize R2 parameters, the margin for user error increases. Therefore, the Cisco IOS software enables you to return a country back to its default R2 settings using the use-defaults option. The following example begins by bringing up Argentina's default settings, changing a few customization parameters, then returning the Argentina R2 setting back to its original state.
country argentina use-defaults
country argentina use-defaults
Related Commands
Command
|
Description
|
cas-group (E1 controller )
|
Configures channel associated signalling on an E1 controller.
|
cas-group (E1 controller)
To configure channel-associated signalling (CAS) on an E1 controller, use the cas-group command in controller configuration mode. Use the no form of this command to disable CAS for one or more time slots.
cas-group channel timeslots range type signal
no cas-group channel timeslots range type signal
Syntax Description
channel
|
Specifies a single channel group number. Replace the channel variable with a number between 0 and 30.
|
timeslots range
|
Specifies a time slot range, which can be from 1 to 31. You can specify a time slot range (for example, 1-29), individual time slots separated by commas (for example 1, 3, 5), or a combination of the two (for example 1-14, 15, 17-31). The 16th time slot is reserved for out-of-band signalling.
|
type signal
|
Specifies the type of channel associated signalling. Configure the signal type that your central office uses.
For a Cisco 5800 series access servers, replace the signal variable with one of the following signal types:
• e&m-fgb [dtmf [dnis] | mf [dnis]]—Specifies ear and mouth channel signalling with feature group B support, which includes the wink start protocol. The optional signal tones are DTMF and MF with the option of provisioning DNIS.
• e&m-fgd—Specifies ear and mouth channel signalling with feature group D support, which includes the wink start protocol.
• e&m-immediate-start—Specifies ear and mouth channel signalling with immediate start support.
• fxs-ground-start—Specifies Foreign Exchange Station ground start signalling support.
• fxs-loop-start—Specifies Foreign Exchange Station loopstart signalling support.
• p7—Specifies the P7 switch type.
• sas-ground-start—Specifies Special Access Station ground start signalling support.
• sas-loop-start—Specifies Special Access Station loopstart signalling support.
|
| |
• r2-analog [dtmf | r2-compelled [ani] | r2-non-compelled [ani] | r2-semi-compelled [ani]]
• r2-digital [dtmf | r2-compelled [ani] | r2-non-compelled [ani] | r2-semi-compelled [ani]]
• r2-pulse [dtmf | r2-compelled [ani] | r2-non-compelled [ani] | r2-semi-compelled [ani]]
For the Cisco 3600 series access servers, replace the signal variable with one of the following signal types:
• r2-analog {r2-compelled [ani] | r2-non-compelled [ani] | r2-semi-compelled [ani]}
• r2-digital {r2-compelled [ani] | r2-non-compelled [ani] | r2-semi-compelled [ani]}
• r2-pulse {r2-compelled [ani] | r2-non-compelled [ani] | r2-semi-compelled [ani]}
|
| |
The following descriptions are provided for the previous R2 syntax bullets:
r2-analog—Specifies R2 ITU Q411 analog line signalling, which reflects the on/off switching of a tone in frequency-division multiplexing circuits (before TDM circuits were created). The tone is used for line signalling.
r2-digital—Specifies R2 ITU Q421 digital line signalling, which is the most common signalling configuration. The A and B bits are used for line signalling.
r2-pulse—Specifies R2 ITU supplement 7 pulse line signalling, which is a transmitted pulse that indicates a change in the line state.
dtmf—Specifies the DTMF tone signalling (Cisco 5800 series access server only).
r2-compelled [ani]—Specifies R2 compelled register signalling. You can also specify provisioning the ANI address option.
r2-non-compelled [ani]—Specifies R2 noncompelled register signalling.
r2-semi-compelled [ani]—Specifies R2 semicompelled register signalling.
|
Defaults
No CAS is configured on the controller. All R2 signalling types have DNIS turned on by default.
Command Modes
Controller configuration
Command History
Release
|
Modification
|
11.2P
|
This command was introduced.
|
12.0(1)T
|
This command was introduced for the Cisco 3600 series router.
|
Usage Guidelines
Use this command to configure support for incoming and outgoing call signals (such as on-hook and off-hook) on each E1 controller.
If you specify the time slot range 1-31, the system software automatically uses the 16th time slot to transmit the channel associated signalling.
The signalling you configure on the access server must match the signalling used by the central office. For example if the central office switch is forwarding R2 analog signalling to a Cisco AS5800, then the access server's E1 controller must also be configured for R2 analog signalling (r2-analog).
All R2 signalling options have DNIS support turned on by default. If you enable the ani option, the collection of DNIS information is still performed. Specifying the ani option does not disable DNIS. DNIS is the number being called. ANI is the caller's number. For example, if you are configuring router A to call router B, then the DNIS number is router B, the ANI number is router A. ANI is very similar to Caller ID.
To customize the R2 signalling parameters, refer to the cas-custom controller configuration command. When you enable the cas-group command, the cas-custom command is automatically setup to be polled for configuration information. However, unless you enable or turn on specific features with the cas-custom command, the cas-custom feature has an empty set of signalling parameters.
Note
Only integrated MICA modems support E1 R2 signalling on Cisco access servers.
DNIS is automatically collected for modem pools and R2 tone signalling. You do not need to specify the collection of DNIS information with the cas-group command. However, if you are using non-R2 tone signalling, the system must be manually configured to collect DNIS information. For non-R2 cas signalling, DNIS collection is done only for E&M-fgb.
Examples
In most cases, you will configure the same channel-associated signalling on each E1 controller. The following examples configure signalling and customized parameters on controller E1 2 using the cas-group and cas-custom controller configuration commands.
The following example configures the E1 controller on a Cisco 5800 series access server.
To configure a Cisco 3600 series access server, replace the command:
controller e1 2/1/0
with the command:
controller e1 2
Note
The actual channel associated signalling is configured on the 16th time slot, which is the reason why this time slot does not come up in the following output.
Enter configuration commands, one per line. End with CNTL/Z.
cas-group 1 timeslots 1-31 type r2-digital r2-compelled ani
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 1 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 2 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 3 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 4 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 5 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 6 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 7 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 8 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 9 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 10 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 11 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 12 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 13 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 14 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 15 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 17 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 18 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 19 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 20 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 21 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 22 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 23 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 24 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 25 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 26 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 27 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 28 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 29 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 30 is up
%DSX0-5-RBSLINEUP: RBS of controller 0 timeslot 31 is up
The following example shows all the supported E1 signalling types on a Cisco AS5800:
cas-group 1 timeslots 1-31 type ?
e&m-fgb E & M Type II FGB
e&m-fgd E & M Type II FGD
e&m-immediate-start E & M Immediate Start
fxs-ground-start FXS Ground Start
fxs-loop-start FXS Loop Start
r2-pulse R2 ITU Supplement 7
sas-ground-start SAS Ground Start
sas-loop-start SAS Loop Start
cas-group 1 timeslots 1-31 type r2-analog ?
r2-compelled R2 Compelled Register signaling
r2-non-compelled R2 Non Compelled Register signaling
r2-semi-compelled R2 Semi Compelled Register signaling
R2 signalling parameters can be customized with the cas-custom controller configuration command:
caller-digits Digits to be collected before requesting CallerID
default Set a command to its defaults
exit Exit from cas custom mode
invert-abcd invert the ABCD bits before tx and after rx
metering R2 network is sending metering signal
nc-congestion Non Compelled Congestion signal
no Negate a command or set its defaults
cas-group (t1 controller)
To configure channelized T1 time slots with robbed-bit signalling, and R1 channel-associated signalling, use the cas-group command in controller configuration mode. Use the no form of this command to disable signalling for one or more time slots.
Cisco AS5200, Cisco AS5300 and Cisco AS5800 series access servers
cas-group channel timeslots range type signal
no cas-group channel timeslots range type signal
R1 channel-associated signalling
cas-group channel timeslots range type r1-modified {ani-dnis | dnis}
no cas-group channel timeslots range type r1-modified {ani-dnis | dnis}
Syntax Description
channel
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Specifies a single channel group number. Replace the channel variable with a number between 0 and 30.
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timeslots range
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Specifies a time slot range, which can be from 1 to 24 for T1, and from 1 to 31 for E1. You can specify a time slot range (for example, 1-31), individual time slots separated by commas (for example 1, 3, 5), or a combination of the two (for example 1-7, 8, 17-31). The 16th time slot is reserved for out-of-band signalling.
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type signal
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Specifies a type of robbed-bit signalling. Replace the signal variable with one of the following signal types. The keywords service, data, and voice are used for switched 56K configuration. These keywords are described at the end of this syntax description table.
• e&m-fgb [dtmf [dnis] | [service {data | voice}]] | [service {data | voice}] | [mf [dnis] | [service {data | voice}]]—Specifies ear and mouth channel signalling with feature group B support, which includes the wink start protocol. Use the options dtmf [dnis] to configure DTMF tone signalling with optional DNIS provisioning. Use the options mf [dnis] to configure MF tone signalling with optional DNIS provisioning. Use the options service {data | voice} for switched 56K configurations. (See the end of this syntax description table for more information about these switched 56K keywords.)
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• e&m-fgd [service {data | voice}]—Specifies ear and mouth channel signalling with feature group D support, which includes the wink start protocol. Use the options service {data | voice} for switched 56K configurations. (See the end of this syntax description table for more information.)
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• e&m-immediate-start [service {data | voice}]—Specifies ear and mouth channel signalling with immediate start support. Use the options service {data | voice} for switched 56K configurations. (See the end of this syntax description table for more information.)e&m-immediate-start [service {data | voice}]—Specifies ear and mouth channel signalling with immediate start support. Use the options service {data | voice} for switched 56K configurations. (See the end of this syntax description table for more information.)
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• fxs-ground-start [service {data | voice}]—Specifies Foreign Exchange Station ground start signalling support. Use the options [service {data | voice} for switched 56K configurations. (See the end of this syntax description table for more information.)
• fxs-loop-start [service {data | voice}]— Specifies Foreign Exchange Station loopstart signalling support. Use the options service {data | voice} for switched 56K configurations. (See the end of this syntax description table for more information.)
• r1-modified ani-dnis—Indicates R1 signalling will collect ani and dnis information.
• r1-modified dnis—Indicates R1 signalling will collect only dnis information.
• sas-ground-start [service {data | voice}]—Specifies Special Access Station ground start signalling support. Use the options service {data | voice} for switched 56K configurations. (See the end of this syntax description table for more information.)
• sas-loop-start [service {data | voice}]—Specifies Special Access Station loopstart signalling support. Use the options service {data | voice} for switched 56K configurations.
• service—(Optional) Specifies the type of services provided for scenarios involving switched 56K connections. Do not include this option in the cas-group command statement if you are not using the access server to provide switched 56K connections.
• data—Enables switched 56K digital data services on the specified range of time slots. The data is directly read from the time slot or channel. Time slots configured with this option will not accept analog modem calls.
• voice—Enables analog modem services on the specified range of time slots. The call is forwarded to the modems for demodulation. Time slots configured with this option will not accept switched 56K digital calls.
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Defaults
For ISDN PRI, the cas-group command is disabled.
If the channelized T1 is not configured as a PRI, the default value for line signalling is e&m-fgb and the default value for tone signalling is DTMF.
The R1 signalling default value is ani-dnis.
Command Modes
Controller configuration
Command History
Release
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Modification
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11.2
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This command was introduced.
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11.3T
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The following signalling options were added:
• service
• data
• voice
The R1 keyword was added.
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Usage Guidelines
Use the cas-group command to configure T1 controllers with different types of robbed-bit signalling, such as on-hook and off-hook for E&M feature group B (e&m-fgb).
If you want to collect DNIS information on a T1 controller, you must manually configure it on the access server. DNIS collection is performed only for E&M-fgb. To collect DTMF DNIS for E&M-fgb under a controller T1 configuration, enter the cas-group 0 timeslots 1-24 type e&m-fgb dtmf dnis command. To collect MF DNIS for E&M-fgb, enter the cas-group 0 timeslots 1-24 type e&m-fgb mf dnis command.
Examples
The following example configures all 24 channels with ear and mouth robbed-bit signalling with feature group B support:
cas-group 1 timeslots 1-24 type e&m-fgb
%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
%DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 9 is up
%DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 10 is up
%DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 11 is up
%DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 12 is up
%DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 13 is up
%DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 14 is up
%DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 15 is up
%DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 16 is up
%DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 17 is up
%DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 18 is up
%DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 19 is up
%DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 20 is up