> Subscriber Configuration Mode Commands
> The Subscriber Configuration Mode is used to create local subscribers as well as to set default subscriber options for the current context.
> aaa
> This command configures AAA functionality at the subscriber level.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] aaa { accounting interim { interval-timeout interval_timeout | normal | suppress } | group aaa_group_name | secondary-group aaa_secondary_group_name }
> default aaa { accounting interim [ interval-timeout ] | group | secondary-group }
> no aaa { accounting interim [ interval-timeout ] | group [ aaa_group_name ] | secondary-group }
> default
> Configures the default setting for the specified parameter.

> • | accounting: Enables AAA accounting for subscribers.

> • | group: Uses the default AAA group—the one specified at the context level or in the default subscriber profile.

> • | secondary-group: Removes the secondary AAA group from the subscriber configuration.

> no

> • | accounting: Disables AAA accounting for subscribers.

> • | group: Uses the default AAA group—the one specified at the context level or in the default subscriber profile.

> • | secondary-group: Removes the secondary AAA group from the subscriber configuration.

> accounting interim { interval-timeout interval_timeout | normal | suppress }
> Specifies when system should send an interim accounting record to the server.

> • | interval-timeout: Specifies the time interval, in seconds, at which to send an interim accounting record.

> interval_timeout must be an integer from 50 through 40000000.

> • | normal: If RADIUS accounting is enabled, send this Acct-Status-Type message when normally required by operation.

> • | suppress: If RADIUS accounting is enabled, suppress the sending of Acct-Status-Type message.

> group aaa_group_name
> Specifies the AAA server group for the subscriber for authentication and/or accounting.
> aaa_group_name must be an alpha and/or numeric string of 1 through to 63 characters in length.
> secondary-group aaa_secondary_group_name
> Specifies the secondary AAA server group for the subscriber.
> aaa_secondary_group_name must be an alpha and/or numeric string of 1 through 63 characters in length.
> Usage
> Use this command to configure AAA functionality at the subscriber level.
> Instead of having a single list of servers per context, this feature configures multiple server groups within a context and applies individual server group for subscribers in that context. Each server group consists of a list of AAA servers for each AAA function (accounting, authentication, charging, etc.).
> The AAA secondary server group supports the No-ACK RADIUS Targets feature in conjunction with PDSN/HA for secondary accounting (with different RADIUS accounting group configuration) to the RADIUS servers without expecting the acknowledgement from the server, in addition to standard RADIUS accounting. This secondary accounting will be an exact copy of all the standard RADIUS accounting message (RADIUS Start / Interim / Stop) sent to the standard AAA RADIUS server.
> If the same AAA group is configured with both the aaa group aaa_group_name and the aaa secondary-group aaa_group_name commands, then this configuration will have no effect and secondary accounting will not happen.
> The AAA secondary server group configuration takes effect only when used with subscriber accounting-mode set to radius-diameter. The RADIUS accounting triggers for both standard RADIUS accounting and secondary accounting will be taken from the AAA group configured with the aaa group aaa_group_name command. On the fly change of this configuration is not supported. Any change to the configuration will have effect only for new calls.
> Example
> The following command applies the AAA server group star1 to subscribers:
> aaa group star1
> access-link ip-fragmentation
> Configures IP fragmentation processing over the Access-link (\, GTP etc).
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> access-link ip-fragmentation { normal | df-ignore | df-fragment-and-icmp-notify }
> df-ignore
> Default: Enabled
> Ignore the DF bit setting. Fragment and forward the packet over the access link.
> df-fragment-and-icmp-notify
> Default: Disabled
> Partially ignore the DF bit. Fragment and forward the packet, but also return an ICMP error message to the source of the packet. The number of ICMP errors sent like this is rate-limited to 1 ICMP error packet per second per session.
> normal
> Default: Disabled
> Normal processing. Drop the packet and send an ICMP unreachable message to the source of packet. This is the default behavior.
> Usage
> If the IP packet to be forwarded is larger than the access-link MTU and if the DF (Don't Fragment) bit is set for the packet, then the fragmentation behavior configured by this command is applied. Use this command to fragment packets even if they are larger than the access-link MTU.
> Example
> Set fragmentation so that the DF bit is ignored and the packet is forwarded anyway by entering the following command:
> access-link ip-fragmentation df-ignore
> accounting-mode
> This command sets the accounting mode for the current local subscriber configuration.
> Product
> PDSN, HA, ASN GW, S-GW
> Privilege
> Administrator
> Syntax
> accounting-mode { flow-based | gtpp [ radius-diameter ] | none | radius-diameter [ gtpp ] | rf-style }
> default accounting-mode
> default
> Sets the type of accounting to be performed for the current local subscriber to the default setting.
> Default: radius-diameter
> flow-based
> Diameter flow-based accounting is enabled for the current local subscriber.
> gtpp [ radius-diameter ]
> GTPP CDR RADIUS accounting is enabled for the current local subscriber. The radius-diameter keyword is available if both GTPP RADIUS and RADIUS-Diameter accounting are to be used.
> none
> Accounting is disabled for the current local subscriber and no charging records will be generated.
> radius-diameter [ gtpp ]
> RADIUS-Diameter accounting is enabled for the current local subscriber. The gtpp keyword is available if both GTPP RADIUS and RADIUS-Diameter accounting are to be used.
> rf-style
> Diameter Rf interface accounting is enabled for the current local subscriber.
> Usage
> This command specifies which protocol, if any, will be used to provide accounting for PDP contexts accessing the APN profile.
> Use this command to enable or disable RADIUS/Diameter accounting for any subscribers that use the current local subscriber configuration.
> If the gtpp option is used, then GTPP RADIUS is used as configured in the Context Configuration mode or the AAA Server Group Configuration mode and GTPP charging records will be enabled.
> If the radius-diameter option is used, either the RADIUS or the Diameter protocol is used as configured in the Context Configuration mode or the AAA Server Group Configuration mode.
> RADIUS accounting can also be enabled and disabled at the context level with the aaa accounting command in the Context Configuration Mode. If RADIUS accounting is enabled at the context level, the accounting-mode command can be used to disable RADIUS accounting for individual local subscriber configurations.
> If the accounting mode is set to rf-style, then BM will generate accounting records corresponding to AIMS RF.
> Example
> To disable accounting for the current subscriber, enter the following command:
> accounting-mode none
> active-charging bandwidth-policy
> This command configures the bandwidth policy to be used for the subscriber.
> Product
> ACS
> Privilege
> Security Administrator, Administrator
> Syntax
> active-charging bandwidth-policy bandwidth_policy_name
> { default | no } active-charging bandwidth-policy
> default
> Specifies that the default bandwidth policy configured in the rulebase be used for this subscriber.
> no
> Disables bandwidth control for this subscriber.
> bandwidth_policy_name
> Specifies name of the bandwidth policy.
> bandwidth_policy_name must be an alpha and/or numeric string of 1 through 63 characters in length.
> Usage
> Use this command to configure bandwidth policy to be used for subscribers.
> Example
> The following command configures a bandwidth policy named standard for the subscriber:
> active-charging bandwidth-policy standard
> active-charging link-monitor tcp
> This command enables the TCP link monitoring feature on the Mobile Video Gateway. This command can be configured in either APN Configuration Mode or Subscriber Configuration Mode.
> Product
> MVG
> Privilege
> Security Administrator, Administrator
> Syntax
> [ default | no ] active-charging link-monitor tcp [ log [ rtt [ histogram | time-series ] [ bitrate [ histogram | time-series ] ] | bitrate [ histogram | time-series ] [ rtt [ histogram | time-series ] ] ] ][ -noconfirm ]
> default
> Sets TCP link monitoring to its default value, which is the same as [ no ].
> no
> Deletes the TCP link monitoring settings and disables TCP link monitoring if previously configured.
> active-charging link-monitor tcp
> Enables the TCP link monitoring feature on the Mobile Video Gateway. Note that TCP link monitoring is not enabled by default. Also note that when this command is configured without the log option, TCP link monitoring is enabled without logging, and the output from TCP link monitoring is only used by the dynamic translating feature.
> log [ rtt [ histogram | time-series ] [ bitrate [ histogram | time-series ] ] | bitrate [ histogram | time-series ] [ rtt [ histogram | time-series ] ] ]
> This option enables statistical logging for TCP link monitoring.
> The rtt option can be used to enable either histogram or time-series logging for RTT.
> Similarly, the bitrate option can be used to enable either histogram or time-series logging for bit rate.
> When rtt and bitrate options are used without additional options, histogram and time-series logging are enabled for RTT and/or bit rate respectively.
> -noconfirm
> Specifies that the command must execute without prompting for confirmation.
> Usage
> Use this command to enable TCP link monitoring on the Mobile Video Gateway.
> Examples
> The following command enables TCP link monitoring with statistical logging, with histogram and time-series logging enabled for both RTT and bit rate:
> active-charging link-monitor tcp log
> The following command enables TCP link monitoring with statistical logging, with histogram and time-series logging enabled for RTT:
> active-charging link-monitor tcp log rtt
> The following command enables TCP link monitoring with statistical logging, with histogram logging enabled for RTT:
> active-charging link-monitor tcp log rtt histogram
> The following command enables TCP link monitoring with statistical logging, with histogram logging enabled for RTT and time-series logging enabled for bit rate:
> active-charging link-monitor tcp log rtt histogram bitrate time-series
> active-charging rulebase
> This command specifies the rulebase to be used for this subscriber.
> Product
> ACS
> Privilege
> Security Administrator, Administrator
> Syntax
> active-charging rulebase rulebase_name
> no active-charging rulebase
> no
> Removes the previously configures rulebase for the subscriber.
> rulebase_name
> Specifies name of the ACS rulebase.
> rulebase_name must be the name of an ACS rulebase, and must be an alpha and/or numeric string of 1 through 63 characters in length.
> Usage
> This command specifies the name of the rulebase for specific subscriber (reals).
> If the specified rulebase does not exist in the Active Charging service, the call will be rejected.
> Example
> The following command configures the ACS rulebase named rule1 for the subscriber:
> active-charging rulebase rule1
> always-on
> Once the idle timeout limit is reached, keep the current subscriber session connected as long as the subscriber is reachable.
> Caution: When always-on is enabled, the subscriber must have an idle time-out period configured (default is 0, no time-out). Failure to configure an idle time-out results in a subscriber session that is indefinite in length.
> Two timers and a counter are associated with this feature. Refer to the timeout command in this chapter and the ppp echo-retransmit-timeout msec and ppp echo-max-retransmissions num_retries commands.
> Default: Disabled.
> Product
> PDSN, ASN GW
> Privilege
> Security Administrator, Administrator
> Syntax
> always-on
> no always-on
> no
> Disables always-on. The user is disconnected after the idle time expires.
> Usage
> If this parameter is enabled for a subscriber, when the idle time-out limit is reached the subscribers IP/PPP session remains connected as long as the subscriber is reachable. This is true even if the airlink between the mobile device and the RN (Radio Node) is moved from active to dormant (inactive) status. When the idle timeout limit is reached, the PDSN determines availability using LCP keepalive messages. A response to these messages indicates that the “always-on” status should be maintained. Failure to respond to a predetermined number of LCP keepalive messages causes the PDSN to tear-down (disconnect) the subscriber session.
> Example
> Enable always on for the current subscriber by entering the following command:
> always-on
> asn-header-compression-rohc
> This command negotiates ROHC support for subscriber calls with AAA and WiMax. This configuration indicates the type of header compression supported and enabled on the ASN.
> Product
> ASN-GW
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no | default ] asn-header-compression rohc
> no
> Removes/disables the configured identifiers for ROHC in ASN-GW service.
> default
> The default is disabled.
> Usage
> NAS uses this configuration to indicate and pack ROHC support the subscriber TLV in the WiMax-capability attribute in the Access Request. The ROHC header compression is applied only when the ROHC is supported on the ASNGW and ROHC support is indicated by the AAA.
> asn nspid
> This command specifies the network service provider (NSP) associated with a WIMAX subscriber in an ASN-GW service. When configured, the NSP ID is sent in the Access-Request and Accounting messages.
> Product
> ASN-GW
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] asn nspid nsp_id
> no
> Removes/disables the configured identifiers for this network service provider in ASN-GW service.
> asn nspid nsp_id
> Specifies the network service provider for this subscriber. This enables the MS to discover all accessible NSPs, and to indicate the NSP selection during connectivity to the ASN.
> Usage
> Use this command to specify the NSP associated with a subscriber in an ASN-GW service.
> nsp_id is three bytes in HEX format. For example: FF-EE-01
> Example
> The following command specifies the NSP for a subscriber in an ASN service:
> asn nspid 0F-01-FE
> asn-pdfid
> This command configures the identifiers for packet data flow, service data flow, and service profile in an ASN-GW service.
> Product
> ASN-GW
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] asn-pdfid pdf_id asn-service-profile-id svc_profile_id asn-sdfid sdf_id
> no
> Removes/disables the configured identifiers for this subscriber in ASN-GW service.
> asn-pdfid pdf_id
> Specifies the an unique ASN Packet Data Flow identifier for this subscriber.
> pdf_id must be an integer between 1 and 65535.
> asn-service-profile-id svc_profile_id
> Specifies an unique ASN Service Profile Identifier for this subscriber.
> svc_profile_id is a preconfigured Service Profile Identifier configured in the Context Configuration Mode.
> asn-sdfid sdf_id
> Specifies the an unique ASN Service Data Flow identifier for this subscriber.
> sdf_id must be an integer between 1 and 65535.
> Usage
> Use this command to configure subscriber profile for QoS parameters in an ASN-GW service.
> A maximum of 4 QoS profiles can be configured for a subscriber.
> Example
> The following command configures the QoS profile for a subscriber as PDF id 1, Service Profile id 3, and Service Data Flow id 2:
> asn-pdfid 1 asn-service-profile-id 3 asn-sdfid 2
> asn-policy
> This command configures the identifiers for packet data flow, service data flow, and service profile in an ASN GW service.
> Product
> ASN GW
> Privilege
> Security Administrator, Administrator
> Syntax
> asn-policy [classifiers downlink { strict | loose} | idle-mode { allow | disallow } | notification-idle-mode {allow | disallow} | notification-handoff { allow | disallow }auth-only {allow | disallow } | ms-requested-classifiers {allow | dissalow}]
> [ default ] asn-policy classifiers downlinkidle-mode
> no
> Removes/disables the configured policy for this subscriber in ASN GW service.
> default
> Sets the ASN policy to default for this subscriber.
> For downlink traffic classifier default policy is “loos” and for idle mode policy the default action is to allow idle mode operation in an ASN GW service.
> idle-mode
> Sets the idle mode policy for this subscriber in an ASN GW service. If enabled, Interim-Update is sent with the BSID and WiMAX-Idle_Mode Transition as Idle. If disabled, the Interim can be sent when the call is in the idle mode based on the interim timer. At this point, the last known BSID is reported to the RADIUS server.
> notification-idle-mode
> Default: allow
> Use to enable or diable Idle-Mode-Notification capabilities. When you enable this command, when the call moves from active to idle, or idle to active, Accounting Interim is sent.
> notification-handoff
> Default: allow
> If enabled, the Interim-Update is sent with the BSID and SN-Handoff-Indicator as Active Handoff.
> allow
> Default: enabled
> Enables the policy for this subscriber to allow idle mode operation in an ASN GW service.
> disallow
> Default: disabled
> Enable the policy for this subscriber to disallow idle mode operation in an ASN GW service.
> classifiers downlink
> Sets the classifier policy for all service flows coming from HA to FA for this subscriber’s matching classifier.
> strict
> Default: disabled
> This option discards all the service flows coming from HA to FA and any other packets not matching to any of the classifiers set for this subscriber.
> loose
> Default: enabled
> This option allows all the service flows coming from HA to FA and any other packet does not matching to any of the classifiers set for this subscriber and sent to the BS/MS over downlink flow
> auth-only
> Specifies whether the call is Auth only or not.
> allow
> Enables the policy for this subscriber to allow auth-only in an ASN GW service.
> disallow
> Default
> Disables the policy for this subscriber to allow auth-only in an ASN GW service.
> ms-requested classifiers
> Default: allow
> By default ASNGW allows dymaic addition of classifiers by the MS during MS-initiated service flow creation or modification.
> Usage
> Use this command to configure subscriber policy to allow/disallow the idle mode operation or the downlink traffic flow for a subscriber in an ASN GW service.
> For authentication configuration, the ASNGW supports the Initial Network Entry (INE) for Ethernet CS calls. The base station supports Ethernet CS traffic to the network. The INE procedure includes the Authentication of the service flows and IP-Address allocation through DHCP. Authentication is based on the Extensible Authentication Protocol (EAP).
> This command allows MS to transition to idle mode with an ASN GW.
> Example
> The following command configures the policy to allow the idle mode for an MS with an ASN GW:
> default asn-policy idle-mode
> authorized-flow-profile-id
> When a profile ID is requested by the Mobile Node (MN), this command sets the value that is authorized by the AGW.
> Product
> PDSN, ASN GW
> Privilege
> Security Administrator, Administrator
> Syntax
> authorized-flow-profile-id profile_id direction { bidirectional | forward | reverse }
> no authorized-flow-profile-id profile_id
> no
> Remove the existing profile ID setting specified by profile_id. profile_id must be an integer from 0 through 65535.
> profile_id
> The profile ID number that is authorized for the current subscriber. profile_id must be an integer from 0 through 65535.
> direction { bidirectional | forward | reverse }
> This specifies in which data direction the profile ID should be applied.

> • | bidirectional: This profile ID pertains to both the forward and reverse directions.

> • | forward: This profile ID pertains to data going to the MN.

> • | reverse: This profile ID pertains to data coming from the MN.

> Usage
> Use this command to set the profile ID that the AGW will authorize for a subscriber.
> Example
> Set the profile ID for both directions to 3 for the current subscriber by entering the following command:
> authorized-flow-profile-id 3 direction bidirectional
> content-filtering category
> This command enables/disables the specified preconfigured Category Policy Identifier for policy based Content Filtering support to the subscriber.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> content-filtering category policy-id cf_policy_id
> no content-filtering category policy-id
> no
> Disables the configured category policy ID for content filtering support to the subscriber. This is the default setting.
> category policy-id cf_policy_id
> This command applies the content filtering category policy ID, configured in ACS Configuration Mode, to this subscriber.
> cf_policy_id must be a category policy ID, and must be an integer from 1 through 4,294,967,295.
> If the specified category policy ID is not configured in the ACS Configuration Mode, all packets will be passed regardless of the categories determined for such packets.
> Important: Category Policy ID configured through this mode overrides the Category Policy ID configured using the content-filtering category policy-id command in the ACS Rulebase Configuration Mode.
> Usage
> Use this command to enter the Content Filtering Policy Configuration Mode and to enable or disable the Content Filtering Category Policy ID for a subscriber.
> Important: If Content Filtering Category Policy ID is not specified here the similar command in the ACS Rulebase Configuration Mode determines the policy.
> Up to 64 different policy identifier can be defined in a Content Filtering support service.
> Example
> The following command enters the Content filtering Policy Configuration Mode and enables the Category Policy ID 101 for Content Filtering support:
> content-filtering category policy-id 101
> credit-control-group
> This command configures the credit-control group for this subscriber.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> credit-control-group cc_group_name
> no credit-control-group
> no
> Removes the credit-control group from the subscriber configuration, if configured.
> cc_group_name
> Specifies name of the credit-control group.
> cc_group_name must be an alpha and/or numeric string of 1 through 63 characters in length.
> Usage
> Use this command to configure the credit-control group for the subscriber.
> Example
> The following command configures the credit-control group named test12 for the subscriber:
> credit-control-group test12
> credit-control-service
> This command configures the credit-control service for this subscriber.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] credit-control-service cc_service_name
> no
> Disables the credit-control service, if configured.
> cc_service_name
> Specifies name of the credit-control service.
> cc_service_name must be an alpha and/or numeric string of 1 through 63 characters in length.
> Usage
> Use this command to configure the credit-control service for subscribers.
> Example
> The following command configures the credit-control service named test12 for the subscriber:
> credit-control-service test12
> cscf core-service
> CSCF/A-BG core service that maps to the current domain.
> Product
> SCM (CSCF, A-BG)
> Privilege
> Security Administrator, Administrator
> Syntax
> cscf core-service name name
> no cscf core-service
> cscf core-service name name
> Specifies the name of the CSCF/A-BG core service.
> name must be from 1 to 63 alpha and/or numeric characters.
> no cscf core-service
> Removes the CSCF/A-BG core service from the domain.
> Usage
> Use this command to map a CSCF/A-BG core service to the current domain.
> Example
> The following command creates a CSCF core service named cs1:
> cscf core-service name cs1
> The following command removes the CSCF core service from this domain:
> no cscf core-service
> cscf county-name
> Assigns a Last Routing Option (LRO) profile county name to the subscriber for finding the correct Public Safety Answering Point (PSAP) during emergency calls.
> Product
> SCM (S-CSCF)
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] cscf county-name name
> cscf county-name name
> Specifies the LRO profile county name of the subscriber.
> name must be an existing LRO profile county name and be from 1 to 127 alpha and/or numeric characters.
> no
> Removes the LRO profile county name from the subscriber.
> Usage
> Use this command to assign an LRO profile county name to the subscriber.
> Example
> The following command assigns county name norfolk to the subscriber:
> cscf county-name norfolk
> The following command removes county name norfolk from the subscriber:
> no cscf county-name norfolk
> cscf nat-applicable
> Indicates if NAT (Network Address Translation) processing is required for this domain.
> Product
> SCM (CSCF/A-SBC)
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] cscf nat-applicable
> no
> Disables NAT processing for this domain.
> Usage
> Use this command to indicate whether NAT processing is required for this domain.
> Example
> The following command indicates NAT processing is required for this domain:
> cscf nat-applicable
> The following command disables NAT processing for this domain:
> no cscf nat-applicable
> cscf private-user-id
> Assigns a private user identity to the subscriber.
> Product
> SCM (P-CSCF, S-CSCF, SIP Proxy)
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] cscf private-user-id user_id
> no
> Removed the private user identity of the subscriber.
> cscf private-user-id user_id
> Specifies the private user identity of the subscriber.
> user_id must be from 1 to 127 alpha and/or numeric characters.
> Usage
> Use this command to assign a private user identity to the subscriber.
> Example
> The following command assigns a private user identity named user007 to the subscriber:
> cscf private-user-id user007
> The following command removes private user identity named user007 from the subscriber:
> no cscf private-user-id user007
> cscf session-template
> Assigns a CSCF session template to the subscriber profile.
> Product
> SCM (P-CSCF, S-CSCF, SIP Proxy)
> Privilege
> Security Administrator, Administrator
> Syntax
> cscf session-template name name
> no cscf session-template
> cscf session-template name name
> Specifies the name of the CSCF session template.
> name must be an existing CSCF session template name and be from 1 to 79 alpha and/or numeric characters.
> no cscf session-template
> Removes the assignment of a session template to the subscriber profile.
> Usage
> Use this command to bind a CSCF session template to a subscriber profile.
> Example
> The following command assigns a CSCF session template named template4 to the subscriber profile:
> cscf session-template name template4
> The following command removes the assignment of a session template to the subscriber profile:
> no cscf session-template
> data-tunneling ignore df-bit
> This command controls the handling of the DF (Don't Fragment) bit present in the user IPv4/IPv6 packet for GRE, IP-in-IP tunneling used for the MIP data path. If this feature is enabled, and fragmentation is required for the tunneled user IPv4/IPv6 packet, then the DF bit is ignored and the packet is fragmented. Also the DF bit is not copied to the outer header. Default is enabled.
> Product
> PDSN, HA, FA, ASN GW
> Privilege
> Security Administrator, Administrator
> Syntax
> data-tunneling ignore df-bit
> no data-tunneling ignore df-bit
> no
> Disable this option. The DF bit in the tunneled IP packet header is not ignored during tunneling.
> Usage
> Use this command to configure a user so that during Mobile IP tunneling the DF bit is not ignored and packets are not fragmented.
> Example
> To disable fragmentation of a subscribers packets over a MIP tunnel even when the DF bit is present, enter the following command:
> no data-tunneling ignore df-bit
> dcca origin host
> This command is obsolete. Refer to the dcca origin endpoint command.
> dcca origin endpoint
> This command is obsolete. To configure the Diameter Credit Control Origin Endpoint, in the Credit Control Configuration Mode, use the diameter origin endpoint command.
> dcca peer-select
> Specifies the Diameter credit control primary and secondary peer for credit control.
> Product
> ACS
> Privilege
> Security Administrator, Administrator
> Syntax
> dcca peer-select peer host_name [ realm realm_name ] [ secondary-peer host_name [ realm realm_name ] ]
> no dcca peer-select
> no
> Removes the previously configured Diameter credit control peer selection.
> peer host_name
> A unique name that you specify for the peer.
> peer_name must be an alpha and/or numeric string of from 1 through 127 characters. peer_name allows punctuation marks.
> secondary-peer host_name
> Specifies a back-up host that is used for fail-over processing. When the route-table does not find an AVAILABLE route the secondary host performs a fail-over processing.
> realm realm_name
> The realm_name must be an alpha and/or numeric string of 1 through 127 characters in length. The realm may typically be a company or service name. realm_name allows punctuation characters.
> Usage
> Use this command to select a Diameter credit control peer and realm.
> Warning: This configuration completely overrides all instances of diameter peer-select that have been configured with in the Credit Control Configuration Mode for an Active Charging service.
> Example
> The following command selects a Diameter credit control peer named test and a realm of companyx:
> dcca peer-select peer test realm companyx
> default
> Restores the default value for the option specified for the current subscriber.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> default { access-link ip-fragmentation | accounting-mode | data-tunneling ignore df-bit | idle-timeout-activity dormant-downlink-data | inter-pdsn-handoff | ip { alloc-method | allowed-dscp | header-compression | hide-service-address | multicast discard | qos-dscp | source-validation } | loadbalanace-tunnel-peers | long-duration-action | mobile-ip { home-agent | mn-aaa-removal-indication | mn-ha-hash-algorithm | reverse-tunnel | security-level | send { dns-address | terminal-verification } } | permission | ppp { always-on-vse-packet | data-compression { mode | protocols } | keepalive | min-compression-size | mtu } | radius accounting interim interval-timeout | timeout { absolute | idle } }
> access-link ip-fragmentation
> Sets the method for fragmenting packets over the MN access link to its default of normal. Drop the packet and send ICMP unreachable to the source of packet.
> accounting-mode
> Enables Radius accounting for the current local subscriber configuration.
> data-tunneling ignore df-bit
> Sets this option to the default behavior, which is to send an ICMP unreachable - need to frag message back to the sender and drop the packet, in the case that fragmentation is required but the DF bit is set.
> idle-timeout-activity dormant-downlink-data
> Sets this option to the default behavior. When downlink data packets are transmitted to the Mobile node and the session is in dormant mode the session idle timer is reset.
> inter-pdsn-handoff
> During a handoff from one PDSN to another, if the Mobile requests an IP address of 0.0.0.0 or a mismatched IP address the PDSN will not disconnect the session immediately. The PDSN tries to assign the proposed address of the session in the IPCP configuration NAK.
> ip { | allowed-dscp | dhcp-relay | header-compression | hide-service-address | multicast discard | qos-dscp | source-validation | user-datagram-tos copy }
> allowed-dscp: resets the allowed DSCP parameters to the system defaults: class none, max-class be.
> hide-service-address: specifies the default setting for hide the ip-address of the service from the subscriber. Default is Disabled
> dhcp-relay: Configured with the DHCP server address during MS authentication. The AAA server sends the address of the DHCP server in the Access-Accept message. The DHCP relay uses this address to relay the DHCP messages from the MS to the DHCP server.
> multicast discard: configures the default multicast settings which is to discard PDUs
> qos-dscp: sets the quality of service setting to the system default.
> source-validation: Specifies the default IP source validation. Default is Enabled.
> user-datagram-tos copy: Disable copying of the IP TOS octet value to all tunnel encapsulation IP headers.
> loadbalance-tunnel-peers
> Sets the tunnel load balancing algorithm to the system default.
> long-duration-action
> Sets the action that is taken when the long duration timer expires to the default: detection.
> mobile-ip { home-agent | mn-aaa-removal-indication | mn-ha-hash-algorithm | reverse-tunnel | security-level | send { dns-address | terminal-verification } }
> allow-aaa-address-assignment: Disables the FA from accepting a home address assigned by an AAA server.
> home-agent:Sets home agent IP address to its default of 0.0.0.0.
> match-aaa-assigned-address: Disables the FA validating the home address in the RRQ against the one assigned by AAA server.
> mn-aaa-removal-indication:Sets this parameter to its default of disabled.
> mn-ha-hash-algorithm: Sets the encryption algorithm to the default of hmac-md5.
> reverse-tunnel:Sets this parameter to its default of enabled.
> security-level:Sets this parameter to its default of none.
> send dns-address: Disables the HA from sending the DNS address NVSE in the RRP.
> send terminal-verification: Disables the FA from sending the terminal verification NVSE in the RRQ.
> permission
> Restores the subscriber’s service usage defaults.
> ppp { always-on-vse-packet | data-compression { mode | protocols } | ip-header-compression negotiation | keepalive | min-compression-size | mtu }
> Sets the point-to-point protocol option defaults.
> always-on-vse-packet: Re-enables the PDSN to send special 3GPP2 VSE PPP packets to the Mobile Node with a max inactivity timer value for always on sessions. This configuration is applicable only for PDSNsessions.
> data-compression { mode | protocols }: restores the default value for either the data compression mode or compression protocols as follows:

> • | mode stateless

> • | all protocols enabled

> ip-header-compression negotiation: sets the IP header compressions negotiation to the system default: force.
> keepalive: sets the subscriber’s PPP keep alive option to the system default: 30 seconds.
> min-compression-size: restores the PPP minimum packet size for compression: 128 octets.
> mtu: sets the maximum message transfer unit packet size to the system default: 1500 octets.
> radius accounting interim interval-timeout
> Disables the RADIUS accounting interim interval for the current subscriber.
> timeout [ absolute | idle | long-duration ]
> When a keyword is entered, this command resets the specified timeout to the system default: 0. When no keyword is specified, all timeouts are reset to the system defaults: 0.
> Usage
> Reset subscriber data to the system defaults. This is useful in setting the subscriber back to the basic values to possibly aid in trouble shooting or tuning a subscriber’s access and options.
> Example
> default ip qos-dscp
> default permission
> default data-compression mode
> dns
> Configures the domain name servers for the current subscriber.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] dns { primary | secondary } ip_address
> no
> Indicates the IP address is to be removed as either a primary or secondary domain name server.
> primary | secondary
> primary: Indicates the primary domain name server for the subscriber is to be updated.
> secondary: Indicates the secondary domain name server for the subscriber is to be updated.
> ip_address
> Specifies the IP address of the domain name server.
> Usage
> Set the subscriber DNS server lists as not all users will have the same set of servers.
> Example
> dns primary 1.2.3.4
> no dns primary 1.2.3.4
> dns secondary 1.2.5.6
> no dns secondary 1.2.5.6
> eap
> This command specifies the lifetime for a master session key (MSK) for extensible authentication protocol (EAP) authentication.
> Product
> ASN GW
> Privilege
> Security Administrator, Administrator
> Syntax
> [ default ] eap msk-lifetime dur
> default
> Sets the lifetime duration to default value of 3600 seconds for master session key.
> msk-lifetime dur
> Specifies the lifetime duration on Master session key (MSK) in seconds for a WiMAX subscriber EAP authentication.
> dur is the lifetime value in seconds and must be an integer from 60 through 65535.
> Usage
> This command is used to set the lifetime for MSK in EAP authentication for WiMAX subscriber.
> Example
> The following command sets the lifetime for MSK key to 4800 seconds for a WiMAX subscriber through EAP authentication:
> eap msk-lifetime 4800
> encrypted password
> Designates use of password encryption.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> encrypted password password
> password
> password is the encrypted password and must be an alpha and/or numeric string of from 1 to 63 characters.
> Usage
> This command is normally used only inside configuration files.
> Example
> The following command sets an encrypted password of qsdf12d4:
> encrypted password qsdf12d4
> end
> Exits the current configuration mode and returns to the Exec mode.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> end
> Usage
> Use this command to return to the Exec mode.
> exit
> Exits the current mode and returns to the parent configuration mode.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> exit
> Usage
> Use this command to return to the parent configuration mode.
> external-inline-server
> This is a restricted command.
> firewall policy
> Important: This command is only available in StarOS 8.0. In StarOS 8.1 and later releases, this configuration is available in the ACS Rulebase Configuration Mode.
> This command enables/disables Stateful Firewall support for the subscriber.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> firewall policy firewall-required
> { default | no } firewall policy
> no
> Disables Stateful Firewall support for this subscriber.
> default
> Configures the default setting for Stateful Firewall support.
> Default: Disabled
> firewall-required
> Enables Stateful Firewall support for this subscriber.
> Usage
> Use this command to enable or disable Stateful Firewall support for this subscriber.
> Important: Unless Stateful Firewall support for this subscriber is enabled using this command, firewall processing for this subscriber is disabled.
> Important: If firewall is enabled, and the rulebase has no firewall configuration, Stateful Firewall will cause all packets to be discarded.
> Example
> The following command enables Stateful Firewall support for this subscriber:
> firewall policy firewall-required
> The following command disables Stateful Firewall support for this subscriber:
> no firewall policy
> fw-and-nat policy
> Important: This command is customer-specific and is only available in StarOS 8.1. This command must be used to configure the Policy-based Firewall-and-NAT feature.
> This command configures the Firewall-and-NAT policy for the subscriber.
> Product
> FW, NAT
> Privilege
> Security Administrator, Administrator
> Syntax
> fw-and-nat policy fw_nat_policy
> { default | no } fw-and-nat policy
> default
> Specifies that the default Firewall-and-NAT policy configured in the rulebase be used for the subscriber.
> no
> Disables Firewall and NAT processing for the subscriber.
> fw_nat_policy
> Specifies the Firewall-and-NAT policy for the subscriber.
> fw_nat_policy must be an alpha and/or numeric string of 1 through 63 characters in length. Note that this policy will override the default Firewall-and-NAT policy configured in the ACS rulebase.
> Usage
> Use this command to configure the Firewall-and-NAT policy for subscribers. Note that the policy configured in the subscriber mode will override the default policy configured in the ACS rulebase. If a policy is not configured in the subscriber mode, the default policy configured in the ACS rulebase will be applied.
> Example
> The following command configures a Firewall-and-NAT policy named standard for the subscriber:
> fw-and-nat policy standard
> idle-timeout-activity
> Defines whether downlink (towards Mobile Node) data packets transmitted when the session is dormant is treated as activity for the idle-timer (inactivity timer).
> By default, downlink data transmitted over a dormant session restarts the idle-timer for that session (it is treated as activity for the session).
> Product
> PDSN
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] idle-timeout-activity dormant-downlink-data
> no
> Dormant mode downlink data is not treated as activity for the session idle-timer. The session idle timer is not reset.
> Usage
> Use this command to disable or re-enable restarting the session idle timer when downlink data packets are transmitted to the Mobile Node when the session is in dormant mode.
> Example
> Use the following command to disable restarting the session idle timer when downlink data packets are transmitted to the Mobile Node when the session is in dormant mode:
> idle-timeout-activity dormant-downlink-data
> Use the following command to re-enable restarting the session idle timer when downlink data packets are transmitted to the Mobile Node when the session is in dormant mode:
> no idle-timeout-activity dormant-downlink-data
> ims application-manager
> Specifies the application manager for the subscriber.
> Product
> PDSN
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] ims application-manager { domain-name domain-name | ipv4-address ipv4-address }
> no
> Disables the IMS application manager for this subscriber.
> domain-name domain-name
> Specifies the domain name of the application manager.
> domain-name must be from 1 to 63 alpha and/or numeric characters.
> ipv4-address ipv4-address
> Specifies the IPv4/IPv6 address of the application manager.
> Usage
> The ims application manager address is returned by HA to MN in DHCP Ack when it receives the DHCP inform from an AIMS subscriber.
> Example
> ims application-manager domain-name domain23 ims application-manager ipv4-address 192.168.23.1
> ims-auth-service
> This command enables IMS authorization support for subscriber. The specified IMSA service will be used for performing IMS authorization and flow-based charging procedures.
> Product
> PDSN, GGSN
> Privilege
> Security Administrator, Administrator
> Syntax
> [ default | no ] ims-auth-service auth_svc_name
> default
> Configures default setting.
> Default: Disabled or as specified at the context or network access service level or in subscriber template.
> no
> Removes the specified IMS authorization service from the subscriber configuration.
> auth_svc_name
> Specifies name of the IMS authorization service.
> auth_svc_name must be from 1 to 63 alpha and/or numeric characters preconfigured within the same context of this subscriber.
> Usage
> This feature provides the IMS authorization service configuration for Gx interface in IMS service node.
> Example
> Following command applies a previously configured IMS authorization service named ims_interface1 to a subscriber within the specific context.
> ims-auth-service ims_interface1
> inter-pdsn-handoff
> Configure the system to enforce the MN’s use of its assigned IP address during IPCP negotiations resulting from inter-PDSN handoffs.
> Product
> PDSN
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] inter-pdsn-handoff require ip-address
> no
> Disables the rejecting of sessions when the MN uses a non-allocated IP address during IPCP re-negotiations.
> Usage
> This command is used to configure the system to reject sessions that are re-negotiating IPCP after an inter-PDSN handoff if the IP address they propose does not match the one initially provided by the PDSN. The session would be rejected even if the proposed address was 0.0.0.0.
> If this parameter is disabled, the PDSN will attempt to re-assign the IP address initially provided.
> Example
> To set the PDSN to not allow a mismatched IP address during a PDSN to PDSN handoff of a MIP call, use the following command:
> inter-pdsn-handoff require ip-address
> To set the PDSN so that it will not disconnect the session immediately, if the Mobile requests an IP address of 0.0.0.0 or a mismatched IP address after inter-pdsn handoff, use the following command:
> no inter-pdsn-handoff require ip-address
> ip access-group
> Configures IP access group for the current subscriber.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] ip access-group group_name [ in | out ]
> no
> Indicates the access group specified is to be cleared from the subscribers configuration.
> group_name
> Specifies the name of the IPv4/IPv6 access group. acl_group_name is a configured ACL group and must be an alpha and/or numeric string of 1 to 79 characters.
> in | out
> Default: both (in and out)
> Specifies the access-group as either inbound or outbound by the keywords in and out, respectively. If neither of these key words is specified, the command associates the group_name access group with the current subscriber for both inbound and outbound access.
> Usage
> Set the subscriber access group to manage the access control for subscribers as a logical group.
> Example
> The following command associates the sampleGroup access group with the current subscriber for both inbound and outbound access:
> ip access-group sampleGroup
> The following removes the outbound access group flag for sampleGroup:
> no ip access-group sampleGroup out
> ip address
> Configures a static IP address for use by the subscriber.
> Product
> PDSN, GGSN, HA, ASN GW
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] ip address ip_address netmask
> no
> Removes a previously configured IP address assignment.
> ip_address
> The IP address assigned to the subscriber.
> netmask
> The subnet mask that corresponds to the assigned IP address.
> Usage
> Use this command to assign a static IP address to the subscriber. This address will be used each time the subscriber establishes data sessions.
> Example
> The following command configures a static IP address of 192.168.1.15 with a subnet mask of 255.255.255.0 to the subscriber:
> ip address 192.168.1.15 255.255.255.0
> ip address pool
> Configures IP address pool properties for the subscriber.
> Product
> PDSN, GGSN, HA, ASN GW
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] ip address pool name pool_name
> no
> Removes a previously configured static address.
> name pool_name
> Specifies the IP address pool or IP address pool group from which the subscribers IP address is assigned.
> pool_name must be the name of an existing IP pool or IP pool group and from 1 to 31 alpha and/or numeric characters.
> Usage
> Use this command to specify the name of an IP address pool configured on the system from which IP addresses are to be dynamically assigned to sessions from this subscriber.
> This command can be issued multiple times to specify multiple address pools for the subscriber. If multiple pools are specified, addresses are assigned for subscriber sessions from the pools based on the order in which the pools were configured.
> If an address can not be provided from the first-specified pool for whatever reason, the system attempts to assign an address from the second-specified pool, and so on. This operation is independent of the priorities configured for the pools. For example, if pool1 was specified for the subscriber first, and pool2 second, the system always attempts to assign addresses from pool1. If an address can not be assigned from pool1 (i.e. all addresses are in use), the system then attempts to assign an address from pool2.
> Example
> The following command configures the subscriber to receive IP addresses from an IP address pool named public1:
> ip address pool name public1
> ip address secondary-pool
> Configures secondary IP address pool properties for the subscriber to provide multiple IP host configuration behind one WiMAX CPE.
> Product
> ASN GW
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] ip address secondary-pool name aux_pool_name
> no
> Removes a previously configured auxiliary pool named aux_pool_name for multiple host support in ASN GW service.
> name aux_pool_name
> Specifies the secondary/auxiliary IP address pool or IP address pool group from which the IP address is assigned to host behind a WiMAX CPE having primary IP address.
> pool_name must be the name of an existing IP pool or IP pool group and from 1 to 31 alpha and/or numeric characters.
> Usage
> Use this command to specify the name of an IP address pool configured on the system from which IP addresses are to be dynamically assigned to host behind a WiMAX CPE for multiple host session support.
> This command designates the IP address to secondary hosts from locally configured secondary IP address pool. To enable multiple host support behind a WiMAX CPE and configure maximum number of supported hosts use secondary-ip-host command in ASN Gateway Service Configuration mode.
> Example
> The following command configures the subscriber to receive IP addresses from a secondary IP address pool named auxiliary1 for secondary hosts behind the WiMAX CPE:
> ip address secondary-pool name auxiliary
> ip allowed-dscp
> This command sets the Quality of Service (QoS) Differentiated Services (DiffServ) marking that a subscriber session is allowed. This is disabled by default.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> ip allowed-dscp class class max-class maxclass [ rt-marking marking ]
> no ip allowed-dscp class
> no ip allowed-dscp class
> Resets the parameters to the defaults: class none, max-class be. This indicates that all packets are let through without any dscp checking
> class class
> This parameter specifies the Differentiated Services Codepoint (DSCP) class that the subscriber session may mark its packets with. If the subscriber sessions packets request a code point class higher than the code point class specified, the PDSN service re-marks the packets with the QOS-DSCP value specified by the ip qos-dscp command.
> Default: none
> class must be one of the following;
> a: packets with AF DSCPs are allowed
> e: packets with EF DSCP are allowed
> o: packets for experimental or local use are allowed
> ae: packets with AF and EF DSCPs are allowed
> ao: packets with AF DSCPs or packets for experimental or local use are allowed
> eo: packets with EF DSCPs or packets for experimental or local use are allowed
> aeo: packets with AF or EF DSCPs or packets for experimental or local use are allowed
> none: only the be and sc1 through sc7 code points are allowed
> max-class maxclass
> This parameter specifies the maximum code point that a subscriber session may mark its packets with. The subscriber sessions packets must be marked with a code point equal to or less than the code point specified. If the subscriber sessions packets request a code point higher than the code point specified, the PDSN service re-marks the packets with the QOS-DSCP value specified by the lower of the max-class and the ip qos-dscp command.
> The list below lists the code points from lowest to highest precedence. For example, if the maxclass is set to af22, that becomes the maximum code point that the subscriber session may mark it’s packets with and only be, af13, af12, af11,af23, and af22 are allowed. If a subscriber session marks its packets with anything after af22 in this list, the PDSN service re-marks the packets with the QOS-DSCP value specified by the lower of the maxclass and the ip qos-dscp command.
> If class is set to none only the be and sc1 through sc7 codepoints are allowed. For example; if class is set to none and you set max-class to sc1, only the sc1 and be codepoints are allowed.
> Default: be
> maxclass must be one of the following;
> be: best effort forwarding
> af13: assured Forwarding 13
> af12: assured Forwarding 12
> af11: assured Forwarding 11
> af23: assured Forwarding 23
> af22: assured Forwarding 22
> af21: assured Forwarding 21
> af31: assured Forwarding 31
> af32: assured Forwarding 32
> af33: assured Forwarding 33
> af41: assured Forwarding 41
> af42: assured Forwarding 42
> af43: assured Forwarding 43
> ef: expedited forwarding
> sc1: selector class 1
> sc2: selector class 2
> sc3: selector class 3
> sc4: selector class 4
> sc5: selector class 5
> sc6: selector class 6
> sc7: selector class 7
> rt-marking marking
> This parameter is used for Mobile IP (MIP) reverse tunnels. When a MIP sessions packets do not have a DSCP marking, the Foreign Agent (FA) marks the packets with the value specified by rt-marking marking.
> If the MIP sessions packets have a DSCP marking, the marking is subjected to the conformance rules for the values of class and max-class, then the final DSCP marking is copied from the inner IP header to the outer IP header.
> Default: be
> marking must be one of the following;
> be: best effort forwarding
> af11: assured Forwarding 11
> af12: assured Forwarding 12
> af13: assured Forwarding 13
> af21: assured Forwarding 21
> af22: assured Forwarding 22
> af23: assured Forwarding 23
> af31: assured Forwarding 31
> af32: assured Forwarding 32
> af33: assured Forwarding 33
> af41: assured Forwarding 41
> af42: assured Forwarding 42
> af43: assured Forwarding 43
> ef: expedited forwarding
> sc1: selector class 1
> sc2: selector class 2
> sc3: selector class 3
> sc4: selector class 4
> sc5: selector class 5
> sc6: selector class 6
> sc7: selector class 7
> Usage
> Use this command to configure Quality of Service (QoS) for a subscriber session to allow a Differentiated Services (DiffServ) Code Point (DSCP) marker in the header of each IP packet that prompts network routers to apply differentiated grades of service to various packet streams.
> This command uses class and type of marker (rt-marking for reverse tunnels) for configuration with max-class maximum code point that a subscriber session may mark its packets with.
> Example
> The following command will allow o packets for experimental or local use with best effort forwarding be:
> ip allowed-dscp class o max-class be
> ip context-name
> Configures context to assign the subscriber to upon authentication. The context assigned to is considered the destination context which provides the configuration options for the services the subscriber is allowed to access.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] ip context-name name
> no
> Removes the current assigned context from the subscriber’s data.
> name
> Specifies the name of the context to assign the subscriber to once authenticated. name must be from 1 to 79 alpha and/or numeric characters.
> Usage
> Set the subscriber IP context to a common context when all subscribers from one or more contexts will use the same egress context.
> Example
> ip context-name sampleName
> no ip context-name sampleName
> ip header-compression
> Configures the IP packet header compression options for the current subscriber. Although this command configures IP header compression algorithms, the IPCP negotiations determine when the header compression algorithm is applied.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> ip header-compression { rohc [ any [ mode { optimistic | reliable | unidirectional } ] | cid-mode { { large | small } [ marked-flows-only | max-cid | max-hdr value | mrru value ] } | marked flows-only | max-hdr value | mrru value | downlink | uplink ] | vj } +
> [ default | no ] ip header-compression
> default
> Restores this command’s default setting to the Van Jacobsen (VJ) header compression algorithm.
> no
> Disables all IP header compression.
> rohc [ any [ mode { optimistic | reliable | unidirectional } ] | cid-mode { { large | small } [ marked-flows-only | max-cid | max-hdr value | mrru value ] } } | marked flows-only | max-hdr value | mrru value | downlink | uplink ]
> Specifies that the Robust Header Compression (ROHC) algorithms is used for data.
> Important: ROHC is only supported for use with the PDSN.
> any: Apply ROHC header compression in both the uplink and downlink directions.
> mode { optimistic | reliable | unidirectional }:

> • | optimistic: Sets the ROHC mode to Bidirectional Optimistic mode (O-mode). In this mode packets are sent in both directions. A feedback channel is used to send error recovery requests and (optionally) acknowledgments of significant context updates from decompressor to compressor. Periodic refreshes are not used in the Bidirectional Optimistic mode.

> • | reliable: Sets the ROHC mode to Bidirectional Reliable mode (R-mode). This mode applies an intensive usage of a feedback channel and a strict logic at both the compressor and the decompressor that prevents loss of context synchronization between the compressor and the decompressor. Feedback is sent to acknowledge all context updates, including updates of the sequence number field.

> • | unidirectional: Sets the ROHC mode to Unidirectional mode (U-mode). With this mode packets are sent in one direction only, from the compressor to the decompressor. This mode therefore makes ROHC usable over links where a return path from the decompressor to the compressor is unavailable or undesirable.

> cid-mode { { large | small } [ marked-flows-only | dm | max-hdr value | mrru value ] }: Specifies the ROHC packet type to be used.

> • | large | small [ marked-flows-only | max-cid | max-hdr value | mrru value ]: Defines the ROHC packet type as large or small and optionally sets the following parameters for the packet type selected:

> • | marked-flows-only: Specifies that ROHC is to be applied only to marked flows.

> • | max-cid integer: Default: 0 The highest context ID number to be used by the compressor. integer must be an integer from 0 through 15 when small packet size is selected and must be an integer from 0 through 31 when large packet size is selected.

> • | max-hdr value: Specifies the maximum header size to use. Default: 168. value must be an Integer from 0 through 65535.

> • | mrru value: Specifies the maximum reconstructed reception unit to use. Default: 65535. value must be an Integer from 0 through 65535.

> marked-flows-only: Specifies that ROHC is to be applied only to marked flows.
> max-hdr value: Specifies the maximum header size to use. Default: 168. value must be an Integer from 0 through 65535.
> mrru value: Specifies the maximum reconstructed reception unit to use. Default: 65535. value must be an Integer from 0 through 65535.
> downlink: Apply the ROHC algorithm only in the downlink direction.
> uplink: Apply the ROHC algorithm only in the uplink direction.
> Important: When ROHC is enabled for downlink or uplink only the operational mode is Unidirectional.
> vj
> Specifies that the VJ algorithm is used for header compression.
> +
> Either one or both of the keywords may be entered in a single command.
> If both vj and rohc are specified, vj must be specified first.
> Important: If both VJ and ROHC header compression are specified, the optimum header compression algorithm for the type of data being transferred is used for data in the downlink direction.
> Usage
> Header compression can be used to provide a higher level of security in IP traffic enhance bandwidth usage and lower bit errors.
> By default the header compression algorithm is set to vj.
> Example
> The following command disables all IP packet header compression:
> no ip header-compression
> The following command sets IP header compression to default vj algorithm:
> default ip header-compression
> The following command also sets the IP header compression to the vj algorithm:
> ip header-compression vj
> The following command enables the Internet Protocol Control Protocol (IPCP) to determine which protocol is the optimum algorithm for data in the downlink direction and use either VJ or ROHC as needed:
> ip header-compression vj rohc
> The following command enables ROHC for the downlink direction only:
> ip header-compression rohc downlink
> The following command enables ROHC in any direction using Bidirectional Optimistic mode:
> ip header-compression rohc any mode Optimistic
> ip hide-service-address
> Hide the IP address of the service from the subscriber.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] ip hide-service-address
> no
> Disable this commands function. This is the default behavior.
> Usage
> Use this command to prevent subscribers from using traceroute to discover the network addresses that are in the public domain and configured on services. This prevent users from pinging such addresses.
> ip local-address
> Configures the local-side IP address of the subscriber's point-to-point connection.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> ip local-address ip_address
> no ip local-address
> no
> Removes a previously configured IP local-address.
> ip_address
> Specifies an IP address configured in a destination context on the system through which a packet data network can be accessed.
> Usage
> This parameter specifies the IP address on the system that the MS uses as the remote-end of the PPP connection. If no local address is configured, the system uses an "unnumbered" scheme for local-side addresses.
> Example
> The following command configures a local address of 192.168.1.23 for the MS:
> local-address 192.168.1.23
> ip multicast discard
> Configures the IP multicast discard packet behavior.
> Product
> GGSN
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] ip multicast discard
> no
> Removes a previously configured IP multicast discard.
> Usage
> This command specifies if IP multicast discard is enabled or disabled.
> ip qos-dscp
> Configures quality of service options for the current subscriber using the differentiated services code point method. This is disabled by default.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> ip qos-dscp option
> no ip qos-dscp
> no
> Sets the quality of service option to its default value.
> option
> Default: be
> Specifies the subscriber’s per hop quality of service setting as one of:

> • | af11 (assured Forwarding 11)

> • | af12 (assured Forwarding 12)

> • | af13 (assured Forwarding 13)

> • | af21 (assured Forwarding 21)

> • | af22 (assured Forwarding 22)

> • | af23 (assured Forwarding 23)

> • | af31 (assured Forwarding 31)

> • | af32 (assured Forwarding 32)

> • | af33 (assured Forwarding 33)

> • | af41 (assured Forwarding 41)

> • | af42 (assured Forwarding 42)

> • | af43 (assured Forwarding 43)

> • | be (best effort forwarding)

> • | ef (expedited forwarding)

> Usage
> Set the quality of service for a subscriber based upon the service level agreements.
> Example
> ip qos-dscp ef
> no ip qos-dscp
> ip route
> Configures the static route to use to reach the subscriber’s network.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] ip route ip_address ip_mask [ gateway_address ]
> no
> Removes the configured route information from the subscriber data.
> ip_address
> Specifies the target IP address for which the route information applies.
> ip_mask
> Specifies the networking mask for the route.
> 1 bits in the ip_mask indicate that bit position in the ip_address must also have a value of 1.
> 0 bits in the ip_mask indicate that bit position in the ip_address does not need to match, i.e., the bit can be either a 0 or a 1.
> For example, if the IP address and mask were specified as 172.168.10.0 and 255.255.255.224, respectively, the network mask will be 172.168.0.0 (obtained by logically ANDing the IP address with the IP mask).
> gateway_address
> Default: assigned remote IP address will be used as the gateway address.
> Specifies the IP address of the next hop gateway for the route.
> Usage
> The static routes are also known as framed IP routes for subscribers. Static routes are typically applicable for subscribers connecting via other networks or when the mobile device acts as a gateway to a network on the far side of the device.
> For example, if the mobile device is assigned IP address 1.2.3.4 and it acts as a gateway for the network 10.2.3.0 (with a network mask of 255.255.255.0) a static route would be configured with the ip_address being 10.2.3.0, ip_mask being 255.255.255.0, and gateway_address being 1.2.3.4.
> Example
> no ip route 1.2.3.4 1.2.0.0
> no ip route 1.2.3.4 1.2.0.0 1.2.255.254
> ip source-validation
> Enables/disables packet source validation for the current subscriber. Source validation requires the source address of received packets to match the IP address assigned to the subscriber (either statically or dynamically) during the session.
> If an incorrect source address is received from the mobile node, the system attempts to renegotiate the PPP session. The parameters for IPsource validation can be set by the ip source-violation command.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] ip source-validation
> no
> Disables source validation.
> Usage
> Source validation is useful if packet spoofing is suspected or for verifying packet routing and labeling within the network.
> Example
> The following command enables IP source validation:
> ip source-validation
> The following command disables IP source validation:
> no ip source-validation
> ip user-datagram-tos copy
> This CLI controls copying of IP TOS octet value from IPv4/IPv6 datagrams to the IP header in tunnel encapsulation. This is disabled by default.
> Product
> PDSN, HA
> Privilege
> Security Administrator, Administrator
> Syntax
> ip user-datagram-tos copy [ access-link-tunnel | both | data-tunnel ]
> no ip user-datagram-tos copy
> no
> Disable copying of the IP TOS octet value to all tunnel encapsulation IP headers.
> access-link-tunnel
> Copy the IP TOS octet value to the tunnel encapsulation IP header on the access side (RP) tunnel.
> both
> Use both access-link-tunnel and data-tunnel.
> data-tunnel
> Copy the IP TOS octet value to the tunnel encapsulation IP header on the MIP data tunnel or L3 tunnel (IP-in-IP, GRE).
> Usage
> Use this command to enable the copying of the IP TOS octet value to the tunnel encapsulation IP header.
> This functionality will enable PCF to detect special TOS marking in the outer IP header of A11 packets and to identify certain packets as QChat control messages. The BSC/PCF must give higher priority to QChat control messages.
> Example
> Enable copying of the IP TOS octet value to the tunnel encapsulation IP header for the access side tunnel by entering the following command;
> ip user-datagram-tos copy access-link-tunnel
> Disable copying of the IP TOS octet value to all tunnel encapsulation IP headers by entering the following command;
> no ip user-datagram-tos copy
> ip vlan
> Configures subscriber-to-Virtual LAN (VLAN) associations.
> Product
> PDSN, HA
> Privilege
> Security Administrator, Administrator
> Syntax
> ip vlan vlan-id
> [ default | no ] ip vlan
> default
> Resets the vlan ID to the default setting.
> no
> Disables the vlan ID for the subscriber.
> vlan-id
> Is the vlan ID that is associated with the IP address for that session. vlan-id is an integer between 1 and 4094.
> Usage
> This command configures the subscriber vlan ID which is used with the assigned address for the subscriber session to receive packets. If the IP pool from which the address is assigned is configured with a vlan ID, then this subscriber configured vlan ID overrides it.
> Subscriber traffic can be routed to specific VLANs based on the configuration of their user profile. Using this functionality provides a mechanism for routing all traffic from a subscriber over the specified VLAN. All packets destined for the subscriber must also be sent using only IP addresses valid on the VLAN or they will be dropped.
> Example
> Set the vlan ID to the default setting by entering the following command:
> default ip vlan
> ipv6 access-group
> Configures the IPv6 access group for a subscriber.
> Product
> PDSN, GGSN, ASN GW
> Privilege
> Security Administrator, Administrator
> Syntax
> ipv6 access-group name [ in | out ]
> in
> Defines the access group as inbound.
> out
> Defines the access group as outbound.
> Usage
> Used to create an access group for a subscriber.
> Example
> The following command provides an example of an IPv6 access group with the name list_1:
> ipv6 access-group list_1
> ipv6 address
> Configures a static IP address for use by the subscriber.
> Product
> PDSN, GGSN, ASN GW
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] ipv6 address { prefix address | prefix-pool name }
> no
> Deletes a previously configured ipv6 address.
> prefix
> Specifies a static IPv6 address.
> prefix-pool
> Specifies an IPv6 prefix pool name.
> Usage
> Use this command to assign a static IPv6 address to the subscriber. This address will be used each time the subscriber establishes data sessions.
> Example
> The following command configures a static IP address of 1:1:1:1:1:1:1:1 with a length of 24 to the subscriber:
> ipv6 address 1:1:1:1:1:1:1:1/24
> ipv6 dns
> Configures the IPv6 Domain Name Service (DNS) servers.
> Product
> PDSN, GGSN, ASN GW
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] ipv6 dns { primary | secondary } { ipv6_dns_address }
> no
> Deletes a previously configured DNS server.
> primary
> Configures the primary DNS server for the subscriber.
> secondary
> Configures the secondary DNS server for the subscriber. Only one secondary DNS server can be configured.
> ipv6_dns_address
> Configures the IP address of the DNS server.
> Usage
> DNS servers are configured on a per subscriber basis. This allows each subscriber to use specific servers.
> Example
> The following command provides an example of setting the primary IPv6 DNS server:
> ipv6 dns primary 1:1:1:1:1:1:1:1
> ipv6 dns-proxy
> Configures the domain name server proxy for the current subscriber.
> Product
> PDSN, GGSN, ASN GW
> Privilege
> Security Administrator, Administrator
> Syntax
> [ default | no ] ipv6 dns-proxy
> default
> Disables the IPv6 DNs proxy functionality for a subscriber.
> no
> Removes the pre-enabled functionality of IPv6 DNS proxy for subscriber.
> dns-proxy
> Enables IPv6 DNS proxy functionality for a subscriber. If the functionality enabled, PDSN will act as a proxy DNS server.
> Default: disabled.
> Usage
> Used to enable/disable IPv6 DNS proxy for the subscriber. When enabled, the PDSN acts as a proxy DNS server for DNS IPv6 queries coming from the mobile station to the PDSN’s local PPP link address.
> Example
> The following command provides an example of disabling an IPv6 DNS proxy for the subscriber:
> no ipv6 dns-proxy
> ipv6 egress-address-filtering
> Configures the egress address filtering for the subscriber.
> Product
> PDSN, GGSN, ASN GW
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] ipv6 egress-address-filtering
> no
> Disables IPv6 egress address filtering.
> ipv6 egress-address-filtering
> Enables IPv6 egress address filtering.
> Usage
> Used to filter packets that arrive from the internet to a particular site.
> Example
> The following command provides an example disabling egress address filtering:
> no ipv6 egress-address-filtering
> ipv6 initial-router-advt
> Creates an IPv6 initial router advertisement interval for the subscriber.
> Product
> PDSN, GGSN, ASN GW
> Privilege
> Security Administrator, Administrator
> Syntax
> ipv6 initial-router-advt { interval value | num-advts value }
> default ipv6 initial-router-advt { interval | num-advts }
> default
> Resets interval or num-advts to their default setting.
> interval value
> Default: 3000ms
> The time interval the initial IPv6 router advertisement is sent to the mobile node in milliseconds.
> value is an integer between 100 and 16000 milliseconds.
> num-advts value
> Default: 3
> The number of initial IPv6 router advertisements sent to the mobile node.
> value is an integer between 1 to 16.
> Usage
> This command is used to set the advertisement interval and the number of advertisements. Using a smaller advertisement interval increases the likelihood of router being discovered more quickly when it first becomes available.
> Example
> The following command specifies the initial ipv6 router interval to be 2000ms:
> ipv6 initial-router-advt interval 2000
> ipv6 interface-id
> Provides an IPv6 interface ID for the subscriber.
> Product
> PDSN, GGSN, ASN GW
> Privilege
> Security Administrator, Administrator
> Syntax
> ipv6 interface-id ifid
> [ default | no ] ipv6 interface-id
> default
> No interface id set for IPv6CP negotiation to subscriber.
> no
> Deletes a previously configured ipv6 interface id.
> interface-id ifid
> It is a interface ID assigned to the Mobile during IPv6CP negotiation.
> ifid is a 64 bit unsigned integer.
> Usage
> Used to provide a IPv6 ifid for the subscriber when using 6to4 routing.
> Example
> The following command provides an example of assigning an IPv6 interface ID of 00-00-00-05-47-00-37-44 to the subscriber:
> ipv6 interface-id 00-00-00-05-47-00-37-44
> ipv6 minimum-link-mtu
> Configures the IPv6 minimum-link-MTU value.
> Product
> PDSN, GGSN, ASN GW
> Privilege
> .Security Administrator, Administrator
> Syntax
> ipv6 minimum-link-mtu value
> default ipv6 minimum-link-mtu
> default
> Resets minimum lint MTU to their default setting.
> Default : 1280
> value
> Default: 1280
> value is an integer between 100 and 2000 MTUs.
> Usage
> Used to override the IPv6 minimum link MTU values recommended by the standard.
> Example
> The following command provides an example of assigning an IPv6 minimum link MTU to 1580 to the subscriber:
> ipv6 minimum-link-mtu 1580
> ipv6 secondary-address
> Configures additional IPv6 4-bit prefixes to the subscriber session.
> Product
> PDSN, GGSN, ASN GW
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] ipv6 secondary-address { prefix ipv6_address_prefix | prefix-pool pool_name }
> no
> Deletes a previously configured ipv6 secondary address.
> ipv6_address_prefix
> The IPv6 secondary address and must be specified using colon notation.
> pool_name
> The name given to the secondary address prefix pool (a string size from 1 to 31 characters).
> Usage
> An IPv6 prefix pool name may be configured for a dynamic prefix, while the prefix is static. This command may be executed multiple times to configure multiple prefixes.
> Example
> The following command provides an example of assigning an IPv6 secondary address prefix-pool name of eastcoast to the subscriber:
> ipv6 secondary-address prefix-pool eastcoast
> l2tp send accounting-correlation-info
> This command enables the L2TP LAC to send accounting correlation information (Correlation-Id, NAS-IP-Address and NAS-ID) in L2TP control message (ICRQ) during session setup to LNS.
> Product
> PDSN, LNS, LAC
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no | default ] l2tp send accounting-correlation-info
> no
> Disbales the command and sets the setting to default mode for this subscriber.
> default
> Sets the setting to default mode of disbale.
> Usage
> Use this command to enable the L2TP LAC to send accounting correlation information (Correlation-Id, NAS-IP-Address and NAS-ID) in L2TP control message (ICRQ) during session setup to LNS for this subscriber. LNS can be configured to include this information in ACS billing records, so that billing servers can easily correlate accounting records from PDSN/LAC and LNS.
> By default, this mode is disbled.
> Example
> Following command disbales the inclusion of accounting correlation informaiton in control messages during session setup to LNS for a subsciber:
> default l2tp send accounting-correlation-info
> l3-to-l2-tunnel address-policy
> Configure the subscriber address allocation/validation policy, when subscriber L3 (IPV4) sessions are tunneled using an L2 tunneling protocol (e.g. L2TP).
> Product
> HA, GGSN
> Privilege
> Security Administrator, Administrator
> Syntax
> l3-to-l2-tunnel address-policy { alloc-only | alloc-validate | no-alloc-validate }
> default l3-to-l2-tunnel address-policy
> default
> Restores the default value for l3-tol2-tunnel address-policy.
> alloc-only
> Only allocate an address in the case of dynamic address assignment. Do not validate static addresses.
> alloc-validate
> Locally allocate and validate subscriber addresses.
> no-alloc-validate
> Do not allocate or validate subscriber addresses locally in the system for the current subscribers sessions. Pass the address between the remote tunnel terminator and the Mobile Node. This is the default behavior.
> Usage
> Use this command to configure the L3 to L2 tunnel address policy for MIP HA sessions tunneled from the system using L2TP tunnels or for GGSN IP Context sessions tunneled using L2TP to a remote LNS. Also refer to the resource keyword of the context configuration mode ip pool command.
> Example
> To set the L3 to L2 tunnel address policy so that the current subscriber must have IP addresses allocated and validated locally on the system, enter the following command:
> l3-to-l2-tunnel address-policy alloc-validate
> loadbalance-tunnel-peers
> Configures the load balancing of traffic bound for L2TP tunnels configured on the system for the selected subscriber.
> Product
> L2TP
> Privilege
> Security Administrator, Administrator
> Syntax
> loadbalance-tunnel-peers { balanced | prioritized | random }
> balanced
> Enables the equal use of all configured tunnel peers (LNSs) for the selected subscriber.
> prioritized
> Enables the use of all configured tunnel peers (LNSs) for the selected subscriber based on the preference number assigned to the peer address.
> random
> Default: Enabled
> Enables the random use of all configured tunnel peers (LNSs) for the selected subscriber.
> Usage
> Use to manage traffic loads on LAC ports and their respective L2TP Network Servers.
> Example
> Use the following command to randomly use all configured tunnel peers (LNSs):
> loadbalance-tunnel peers random
> long-duration-action
> This command specifies what action is taken when the long duration timer expires.
> Product
> All
> Privilege
> Administrator
> Syntax
> long-duration-action { detection | disconnection [ dormant-only ] [ suppress-notification ] }
> detection
> Default: Enabled
> Detects long duration sessions and sends SNMP TRAP and CORBA notification. This is the default behavior.
> Use this command to detect a session exceeding the limit set by the long duration timer.
> disconnection [ dormant-only ] [ suppress-notification ]
> Default: Disabled
> Detects a long duration session and disconnects the session after sending SNMP TRAP and CORBA notification.
> suppress-notifiaction: Suppress the SNMP TRAP and CORBA notification after detecting and disconnecting a long duration session. Default: Disabled
> dormant only: Disconnects the dormant sessions after long duration timer and inactivity time with idle time-out duration expires. If the long duration timeout is fired and the call is not dormant, the call is disconnected when the call later moves to dormancy.
> Important: For HA calls, the inactivity-time is considered as gauge for dormancy.
> It sends the SNMP TRAP and CORBA notification after disconnecting a long duration session. Default: Disabled
> Usage
> Use this command to determine what action is taken when a session exceeds the limit set by the long duration timer.
> Example
> Use the following command to enable disconnecting sessions that exceed the long duration timer:
> long-duration-action disconnection
> Use the following command to disconnect the session that exceed the long duration timer without sending SNMP TRAP and CORBA notification:
> long-duration-action disconnection suppress-notification
> Use the following command to disconnect the session that is in dormant and exceed the long duration timer and send SNMP TRAP and CORBA notification:
> long-duration-action disconnection dormant-only
> Note that in case of HA calls, the inactivity-time is considered as gauge for dormancy.
> max-pdn-connections
> Specifies the maximum number of eHRPD PDNs supported per session.
> Product
> HSGW
> Privilege
> Security Administrator, Administrator
> Syntax
> max-pdn-connections <eHRPD_PDNs>
> default max-pdn-connections
> default
> Resets the maximum number of eHRPD PDNs supported per session to 3.
> eHRPD_PDNs
> eHRPD_PDNs must be an integer from 1 to 14.
> Usage
> This command is used to specify the maximum number of eHRPD PDNs supported per session.
> Example
> The following command specifies a maximum of 5 eHRPD PDNs per session:
> max-pdn-connections 5
> mediation-device
> Enables the use of a mediation device for PDG-TTG subscriber and specifies the system context to use for communicating with the device.
> Product
> GGSN, P-GW
> Privilege
> Security Administrator, Administrator
> Syntax
> mediation-device context-name <context-name> [ no interims ]
> [ no | default ] mediation-device
> no
> Deletes the mediation-device configuration.
> default
> Changes the mediation device to no context-name configured and restores the mediation device’s default properties.
> context-name context-name
> Default: The subscriber’s destination context.
> Configures the mediation VPN context for the subscriber.
> context-name can be from 1 to 79 alpha and/or numeric characters and is case sensitive.
> If not specified, the mediation context is same as the destination context of the subscriber.
> no-interims
> Disables sending of interims to the mediation device.
> Default: Disabled
> Usage
> This command is used to enable mediation device support for PDG-TTG subscriber. Mediation devices can be either deep-packet inspection servers or transaction control servers.
> Keywords to this command can be used in combination to each other, depending on configuration requirements.
> Example
> The following command enables mediation device support for the subscriber and uses the protocol configuration located in an system context called ggsn1:
> mediation-device context-name ggsn1
> mobile-ip
> Enables/disables the subscriber for mobile IP services and access.
> Product
> HA, FA
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] mobile-ip { allow-aaa-address-assignment | dns-address source-priority { aaa | home-agent } | gratuitous-arp aggressive | home-agent ip_address [alternate] | match-aaa-assigned-address | mn-aaa-removal-indication | mn-ha-hash-algorithm { hmac-md5 | md5 | rfc2002-md5 } | mn-ha-shared-key key | mn-ha-spi spi_num | reverse-tunnel | security-level { ipsec | none } | send { accounting-correlation-info | dns-address | imsi | terminal-verification } }
> no
> Disables the mobile IP option specified.
> allow-aaa-address-assignment
> Default: Disabled.
> Enables the FA to accept a home address assigned by an AAA server. This should only be configured on the FA side.
> dns-address source-priority { aaa | home-agent }
> Sets the priority behavior on the FA to use either the DNS IP address information from the HA or the AAA server to include in the the RRP to the MN.
> When the no keyword is used in conjunction with the dns-address keyword, information received from both the home-agent and the AAA server is sent if available.
> DNS IP address information from the HA comes from the DNS NVSE in the RRP.
> DNS IP address information from the AAA server is in the access accept message.
> home-agent: If the DNS address is received from the home-agent only that information is sent to the MN. Otherwise the DNS address received from the AAA server is sent.
> aaa: If the DNS address is received from the AAA server only that information is sent to MN. Otherwise the DNS address received from the home-agent issent.
> gratuitous-arp aggressive
> Default: Disabled.
> When enabled, this mode will cause the HA to send out gratuitous ARP messages for all Mobile IP (MIP) registration renewals and handoffs.
> To disable this mode, use the no form of this command.
> Important: This mode will only work for IP addresses that have been assigned from a static IP address pool.
> home-agent ip_address [alternate]
> Specifies the IP address of the mobile IP user’s home agent. ip_address must be a an IPv4/IPv6 address.
> alternate - Specifies the secondary, or alternate, Home Agent to use when Proxy Mobile IP HA Failover is enabled.
> match-aaa-assigned-address
> Default: Disabled.
> Enables the FA to validate the home address in the RRQ against the one assigned by AAA server. This should only be configured on the FA side.
> mn-aaa-removal-indication
> Default: Disabled.
> When enabled, the MN-FA challenge and MN-AAA Authentication extensions are removed when relaying a Registration Request (RRQ) to the Home Agent (HA)
> mn-ha-hash-algorithm { hmac-md5 | md5 | rfc2002-md5 }
> Speechifies the encryption algorithm to use.
> Default: hmac-md5
> hmac-md5: Use HMAC-MD5 hash algorithm, as defined in RFC-2002bis. This is the default algorithm.
> md5: Use the MD-5 hash algorithm.
> rfc2002-md5: Use the MD-5 hash algorithm variant as defined in RFC-2002.
> mn-ha-shared-key key
> This is the used to verify the MN-HA Authentication for a local subscriber in the current context. A string or a Hexadecimal number beginning with "0x" up to 127 bytes
> mn-ha-spi spi_num
> Specifies the SPI number. spi_num must be an integer from 256 through 4294967295.
> reverse-tunnel
> Default: enabled.
> Enables the mobile IP user’s for reverse IP tunnels. The no keyword is used to disable this option.
> security-level { ipsec | none }
> Default: none
> The security-level option configures the security level needed for the subscriber's traffic.
> ipsec: both MIP control and data traffic are secured with IPSEC
> none: none of the traffic is secured
> Important: This keyword corresponds to the 3GPP2-Security-Level RADIUS attribute. This attribute indicates the type of security that the home network mandates on the visited network.
> Important: For this attribute, integer value: 3 : Enables IPSec for tunnels and registration messages 4 : Disables IPSec
> send { accounting-correlation-info | dns-address | imsi | terminal-verification }
> accounting-correlation-info: Configures whether the FA sends the correlation info to the NVSE in the RRQ. Default is disabled.
> dns-address: Enables the HA to send the DNS address NVSE in the RRP. Default is disabled. This should only be enabled on the HA side.
> imsi: Configures sending the IMSI NVSE in the RRQ. Default is sending IMSI in custom-1 format.
> terminal-verification: Enables the FA to send the terminal verification NVSE in the RRQ. Default is disabled. This should only be enabled on the FA side.
> Important: send dns-address is a proprietary feature developed for a specific purpose and requires the MN to be able to renegotiate IPCP for DNS addresses and reregister MIP if necessary. Since this feature needs the MN to support certain PPP/MIP behavior, and not all MNs may support that particular behavior, send dns-address should be enabled only after careful consideration.
> Usage
> Use as subscriber service contracts change.
> Example
> mobile-ip home-agent 1.2.3.4
> no mobile-ip reverse-tunnel
> mobile-ip ha
> Accommodates two MIP HA options in subscriber mode.
> Product
> PDSN, HA, ASN GW
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] mobile-ip ha { assignment-table name | ignore-unknown-ha-addr-error }
> no
> Disables the mobile IP HA option specified.
> assignment-table name
> The name of an existing MIP HA Assignment table.
> name must be a string of alphanumeric characters from 1 through 63 characters in length.
> ignore-unknown-ha-addr-error
> Default is disabled.
> Enables or disables the HA to accept or reject the RRQ from a particular subscriber.
> Usage
> Use this command to assign a MIP HA Assignment table to the current subscriber.
> Use this command to disable or enable the HA to accept or reject the RRQ from a particular subscriber when the HA address in the incoming MIP RRQ is not the same as the HA service address. The feature is off by default which causes the RRQ to be rejected with the error code UNKNOWN_HOME_AGENT.
> Example
> The following command assigns the MIP HA Assignment table named Atable1 to the current subscriber:
> mobile-ip ha assignment-table Atable1
> The following command sets ignore-unknown-ha-addr-error to its default disabled state:
> no mobile-ip ha ignore-unknown-ha-addr-error
> mobile-ip reg-lifetime-override
> This command overrides the mobile IP registration lifetime from HA with value configured for subscriber.
> Product
> PDSN, HA, ASN-GW
> Privilege
> Security Administrator, Administrator
> Syntax
> mobile-ip reg-lifetime-override [ dur | infinite ]
> [ default | no ] mobile-ip reg-lifetime-override
> dur
> Default: 100 secs.
> This the configurable value in seconds.
> dur must be an integer from 1 through 65534.
> infinite
> Sets the mobile IP registration lifetime override value to infinite for a particular subscriber.
> default
> Sets the value of mobile IP registration lifetime override option to 100 seconds.
> no
> Disables the mobile IP registration lifetime override option specified.
> Usage
> Use this command to configure MIP registration-lifetime per realm/domain. This value overrides the default lifetime configured under HA service.
> Example
> The following command overrides the mobile IP registration lifetime value from HA service and assigns the MIP registration lifetime to 100 seconds for the current subscriber:
> default mobile-ip reg-lifetime-override
> mobile-ip send accounting-correlation-info
> Enables the sending call correlation information NVSE’s to the HA in MIP RRQ.
> Product
> PDSN, HA, ACS
> Privilege
> Security Administrator, Administrator
> Syntax
> [ default | no ] mobile-ip send accounting-correlation-info
> default
> Disables the support for sending call correlation information NCSE’s to the HA in MIP RRQ.
> This is the default mode.
> no
> Removes the configured support for sending call correlation information.
> Usage
> Use this command to support PDSN-Correlation-ID VSE and send the call correlation information.
> Example
> The following command enables sending call correlation information NVSE’s to the HA in MIP RRQ
> mobile-ip send accounting-correlation-info
> mobile-ipv6
> Configures Mobile IPv6 related parameters for a subscriber.
> Product
> PDSN
> Privilege
> Security Administrator, Administrator
> Syntax
> [ default | no ] mobile-ipv6 { home-address ipv6_address | home-agent ipv6_address | home-link-prefix ipv6_address | tunnel mtu value }
> default
> Disables the support for sending call correlation information NCSE’s to the HA in MIP RRQ.
> This is the default mode.
> no
> Removes the configured support for sending call correlation information.
> home-address ipv6_address
> Specifies the home address for the subscriber. ipv6_address must be a an IPv6 address in colon notation.
> home-agent ipv6_address
> Specifies the IPv6 address of the mobile IP user’s home agent. ipv6_address must be a an IPv6 address in colon notation.
> home-link-prefix ipv6_address
> Specifies the IPv6 address of the mobile IP user’s home link. ipv6_address must be a an IPv6 address in colon notation.
> tunnel mtu value
> Configures the tunnel MTU for the IPv6 tunnel between the HA and the mobile node. value must be an integer between 1024 and 2000. The default is 1500.
> Usage
> This command sets the mobile-ipv6 parameters for a subscriber. Use this command to set the home-address, home-agent, and home-link prefix
> Example
> Use the following command to set the tunnel value to 1800:
> mobile-ipv6 tunnel mtu 1800
> nai-construction-domain
> After authentication, the domain name set by this command replaces the NAI constructed domain for subscriber.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> nai-construction-domain domain_name
> no nai-construction-domain
> domain_name
> Defines the domain name to use to replace the NAI constructed domain name. This must be a string of 1 to 79 characters.
> no
> Deletes the defined domain name.
> Usage
> Define or delete a domain name to use to replace the NAI constructed domain name after authentication.
> Example
> To set the domain name to private1 use the following command:
> nai-construction-domain private1
> To delete the previously configured domain name, use the following command:
> no nai-construction-domain
> nbns
> Configures and Enables use of NetBios Name Service for the subscriber.
> Product
> GGSN
> Privilege
> Security Administrator, Administrator
> Syntax
> nbns { primary IPv4-address | secondary IPv4-address }
> no nbns { primary [ IPv4-address ] | secondary [ IPv4-address ] }
> primary
> Designates primary NBNS server. Must be followed with IPv4 address in dotted-decimal notation.
> secondary
> Designates secondary/failover NBNS server. Must be followed with IPv4 address in dotted-decimal notation.
> IPv4-address
> Specifies the IPv4 address used for this service.
> no
> Removes/disables use of a previously configured NetBios Name Service.
> Usage
> This command specifies NBNS parameters. The NBNS option is present for both pdp type IP and pdp type PPP for GGSN.
> The system can be configured to use of NetBios Name Service for the APN.
> Example
> The following command configures the subscriber’s NetBios Name Service to primary IP 192.168.1.15:
> nbns primary 192.168.1.15
> nexthop-forwarding-address
> Configures the next hop forwarding address for the subscriber.
> Product
> PDSN, GGSN, ASN GW
> Privilege
> Security Administrator, Administrator
> Syntax
> nexthop-forwarding-address ip_address
> no nexthop-forwarding-address
> ip_address
> Configures the IP address of the nexthop forwarding address.
> no
> Disables this function. This is the default setting.
> Usage
> Use this command to configure the next hop forwarding address for the subscriber.
> Example
> The following command configures the next hop forwarding address to 1.1.1.1using IPv4:
> nexthop-forwarding-address 1.1.1.1
> npu qos
> Configures an NPU QoS priority queue for packets from the subscriber.
> Product
> PDSN, GGSN, ASN GW
> Privilege
> Security Administrator, Administrator
> Syntax
> npu qos traffic priority { best-effort | bronze | derive-from-packet-dscp | gold | silver }
> best-effort
> Assigns the best-effort queue priority. This is the lowest priority.
> bronze
> Assigns the bronze queue priority. This is the third-highest priority.
> derive-from-packet-dscp
> Default: Enabled
> Specifies that the priority is to be determined from the DS field in the packet's TOS octet.
> gold
> Assigns the gold queue priority. This is the highest priority.
> silver
> Assigns the silver queue priority. This is the second-highest priority.
> Usage
> This command is used in conjunction with the Network Processing Unit (NPU) Quality of Service (QoS) functionality.
> The system can be configured to determine the priority of a subscriber packet either based on the configuration of thesubscriber, or from the differentiated service (DS) field in the packet's TOS octet (representing the differentiated service code point (DSCP) value).
> Refer to the System Administration and Configuration Guide for additional information on NPU QoS functionality.
> Important: This functionality is not supported for use with the PDSN at this time.
> Example
> The following command configures the subscriber’s priority queue to be gold:
> npu qos traffic priority gold
> nw-reachability-server
> Bind the name of a configured network reachability server to the current subscriber and enable network reachability detection.
> Product
> HA
> Privilege
> Security Administrator, Administrator
> Syntax
> nw-reachability server server_name
> no nw-reachability server
> server_name
> The name of a network reachability server that has been defined in the current context. This is a string of from 1 through 16 characters.
> no nw-reachability server
> Delete the name of the network reachability server from the current subscribers configuration and disable network reachability failure detection for the current subscriber.
> Usage
> Use this command to define the network reachability server for the current subscriber and enable network reachability failure detection for the current subscriber. If a network reachability server is defined in an IP pool, that setting takes precedence over this command.
> Important: Refer to the HA configuration mode command policy nw-reachability-fail to configure the action that should be taken when network reachability fails.
> Important: Refer to the context configuration mode command nw-reachability server to configure network reachability servers.
> Important: Refer to the nw-reachability server server_name keyword of the ip pool command in the context configuration mode chapter to bind the network reachability server to an IP pool.
> Example
> To bind a network reachability server named InternetDevice to the current subscriber, enter the following command:
> nw-reachability server InternetDevice
> outbound
> Configures the subscriber host password for use in authentication of PPP sessions.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> outbound [ encrypted ] password pwd
> no outbound password
> [ encrypted ] password pwd
> Specifies the password to use for point-to-point protocol session host authentication. The encrypted keyword indicates the password specified uses encryption.
> The password specified as pwd must be from 1 to 63 alpha and/or numeric characters without encryption and must be from 1 to 127 alpha and/or numeric characters when encryption has been indicated.
> The encrypted keyword is intended only for use by the chassis while saving configuration scripts. The system displays the encrypted keyword in the configuration file as a flag that the variable following the password keyword is the encrypted version of the plain text password. Only the encrypted password is saved as part of the configuration file.
> no outbound password
> Used to clear the outbound password configuration from the subscriber data.
> Usage
> Set the outbound (egress) password for increased security.
> Example
> outbound password secretPwd
> outbound encrypted password scrambledPwd
> no outbound password
> overload-disconnect
> Sets the threshold parameter for overload disconnect.
> Product
> ASN GW, HA,PDIF, PDSN,PHS GWPDG/TTG
> Privilege
> Security Administrator, Administrator
> Syntax
> overload-disconnect [ threshold { inactivity-time inactivity_time_threshold | connect-time connect_time_threshold } ]
> [ default | no ] overload-disconnect [ threshold { inactivity-time | threshhold connect-time } ]
> threshold inactivity-time inactivity_time_threshold
> Sets the inactivity time threshold in seconds. This value must be from 0 to 4294967295. The default value of zero disables this feature. If inactivity-time for the subscriber’s session is greater than inactivity_time_threshold, the session becomes a candidate for disconnection.
> threshold connect-time connect_time_threshold
> Sets the connection time threshold in seconds. This value must be from 0 to 4294967295. A value of zero disables this feature. If connect-time for the subscriber’s session is greater than connect_time_threshold, the session becomes a candidate for disconnection.
> default
> This command enables the default condition for this subscriber.
> no
> Disables the overload disconnect feature for this subscriber. This is the default condition for PDIF.
> Usage
> Set a subscriber’s overload disconnect threshold in seconds, based on either inactivity or connection time. When this threshold is exceeded during a session, the subscriber’s session becomes a candidate for disconnection. To set overload-disconnect policies for the entire chassis, see congestion-control overload-disconnect in Global Configuration Mode Commands.
> Example
> overload-disconnect threshold inactivity-time inactivity_time_threshold
> default overload disconnect threshold connect-time
> no overload-disconnect threshold connect-time
> no overload disconnect
> password
> Configures the subscribers password for the current context.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> [ encrypted ] password pwd
> no password
> encrypted
> Indicates the password provided is encrypted.
> The encrypted keyword is intended only for use by the chassis while saving configuration scripts. The system displays the encrypted keyword in the configuration file as a flag that the variable following the password keyword is the encrypted version of the plain text password. Only the encrypted password is saved as part of the configuration file.
> pwd
> Specifies the users password for authentication. pwd must be from 1 to 63 alpha and/or numeric characters or from 1 to 127 characters if the encrypted keyword was specified. A “null” password is allowed and is entered as consecutive quotes (""). See Example(s) for correct syntax.
> Important: Subscribers configured with a null password will be authenticated using PAP and CHAP (MD5) only. Subscribers configured without a password (no password) will only be able to access services if the service is configured to allow no authentication.
> no
> Used to clear the subscriber password configuration from the subscriber data.
> Important: Subscribers with no password will only be able to access services if the service is configured to allow no authentication.
> Usage
> Password management is critical to system security and all precautions should be taken to ensure passwords are not shared or to easily deciphered.
> Example
> password secretPwd
> password ““
> no password
> pdif mobile-ip
> Configures PDIF subscriber call setup parameters.
> Product
> PDIF
> Privilege
> Security Administrator, Administrator
> Syntax
> [ default | no ] pdif mobile-ip { release-tia | required | simple-ip-fallback }
> [ default | no ]
> Disables the option specified.
> release-tia
> Specifies that after subscriber call setup is complete, the tunnel inner address (TIA) is released. If SImple IP is enabled, the TIA becomes the principal communications tunnel and the restriction that it is only to be used to set up a Mobile-IP call is lifted. This parameter is disabled by default.
> required
> Specifies that Mobile IP is required for this subscriber whenever a call is set up. This parameter is disabled by default.
> simple-ip-fallback
> Specifies that Simple IP should be used when Mobile IP could not be established. This parameter is disabled by default.
> Usage
> Use this command to configure specific behavior for the PDIF subscriber during call setup.
> Example
> The following command enables the system to fall back to Simple IP when Mobile IP fails for this subscriber during call setup:
> pdif mobile-ip simple-ip-fallback
> permission
> Enables/disables the ability to access wireless data services for the current subscriber.
> Product
> PDSN, HA
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] permission { ha-mobile-ip | pdsn-mobile-ip | pdsn-simple-ip }
> no
> Disables the usage of the specified service.
> ha-mobile-ip | pdsn-mobile-ip | pdsn-simple-ip
> ha-mobile-ip: enable/disable the home agent support for mobile IP service.
> pdsn-mobile-ip: enable/disable the packet data and foreign agent support for mobile IP service.
> pdsn-simple-ip: enable/disable the packet data support for simple IP service.
> Usage
> This is necessary per the services the subscriber is allowed to access in the current context.
> Example
> permission pdsn-mobile-ip
> no permission ha-mobile-ip
> policy ipv6 tunnel
> Tunnel MTU for IPv6 Tunnel between HA and Mobile Node.
> Product
> PDSN, HA
> Privilege
> Security Administrator, Administrator
> Syntax
> policy ipv6 tunnel mtu exceed { fragment | notify-sender }
> mtu exceed { fragment | notify-sender }
> fragment:Adjust Tunnel MTU and Fragment Packets
> notfiy-sender:Send a ICMPv6 Packet Too Big the original sender
> Usage
> Use this command to configure Tunnel MTU for IPv6 Tunnel between HA and Mobile Node.
> Example
> policy ipv6 tunnel mtu exceed fragment
> policy-group
> This command assigns/removes a flow-based traffic policy group to a subscriber.
> Product
> PDSN, HA, ASN GW
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] policy-group policy_group_name direction { in | out }
> no
> Removes assigned policy group from a subscriber configuration.
> policy_group_name
> Specifies the traffic policy group name for a subscriber session flow pre-configured within a destination context .
> policy_group_name consist of from 1 to 15 alpha and/or numeric characters in length and is case sensitive.
> direction { in | out }
> Specifies the direction of flow in which the traffic policies need to be applied.

> • | in: specifies the incoming traffic

> • | out: specifies the outgoing traffic

> Usage
> Use this command to assign traffic policy group to a subscriber for traffic policing.
> Example
> policy-group traffic_policy_group1 direction in
> ppp
> Configures the point-to-point protocol options for the current subscriber.
> Product
> PDSN, GGSN
> Privilege
> Security Administrator, Administrator
> Syntax
> ppp { accept-peer-ipv6-ifid | always-on-vse-packet | data-compression { mode { normal | stateless } | protocols { protocols [ protocols ] } | ip-header-compression negotiation { detect | force | vj compress-slot-id { both | none | receive | transmit } } | ipv4 { disable | enable | passive } | ipv6 { disable | enable | passive } | keepalive seconds | min-compression-size min_octets | mtu max_octets | remote-renegotiation disconnect { always | nai-prefix-msid-mismatch } }
> default ppp { accept-peer-ipv6-ifid | always-on-vse-packet | data-compression { mode | protocols } | ip-header-compression negotiation [ vj compress-slot-id ] | ipv4 | ipv6 | keepalive | min-compression-size | mtu | remote-renegotiation disconnect }
> no ppp { accept-peer-ipv6-ifid | always-on-vse-packet | data-compression protocols | ipv4 | ipv6 | keepalive | mtu | remote-renegotiation disconnect }
> default
> Restores the default value for the option specified.
> no
> Resets the option specified to its default.
> always-on-vse-packet
> Default: Enabled
> If the always-on feature is enabled for a session, this keyword enables the PDSN to send special 3GPP2 VSE PPP packets to the Mobile Node with a max inactivity timer value. This configuration is applicable only for PDSNsessions.
> accept-ipv6-peer-ifield
> Default: None
> This is used to configure a 6to4 tunnel. It controls the behavior of IPv6CP negotiation for Interface ID.
> If enabled, PDSN will accept a valid interface-id proposed by the peer.
> data-compression { mode { normal | stateless } | protocols { protocols [ protocols ] }
> Default: all protocols enabled.
> Specifies the subscribers mode of data compression or the compression protocol to use.
> mode: sets the mode of compression where modes must be one of:

> • | normal (packets are compressed using the packet history for automatic adjustment for best compression)

> • | stateless (each packet compressed individually)

> protocols protocols: sets the compression protocol where protocols must be one of:

> • | deflate (DEFLATE algorithm)

> • | mppc (Microsoft PPP algorithm)

> • | stac (STAC algorithm)

> ip-header-compression negotiation { detect | force | vj compress-slot-id { both | none | receive | transmit } }
> Default: force
> PPP IP compression Van Jacobson (VJ) negotiation scheme. This command is applicable only if IP header compression is enabled for the subscriber.
> detect: The local side does not include the VJ Compression option in its IPCP configuration request unless the peer sends an IPCP NAK including a VJ compression option. If the peer requests the VJ compression option in its IPCP request the local side will ACK/NAK.
> force: The IP header compression negotiation in IPCP happens normally. The local side requests the VJ compression option in its IPCP configure request. If the peer side requests VJ compression in its IPCP request, the local side will ACK/NAK the option.
> vj compress-slot-id [ both | none | receive | transmit ]: This keyword configures the direction in which VJ slotid compression should be negotiated.

> • | both - If the client proposes VJ slotid compression, accept it and propose slotid compression for downlink and uplink.

> • | none - If the client proposes VJ slotid compression, NAK the offer,do not propose slotid compression for downlink.

> • | receive - (Default) If the client proposes VJ slotid compression in the uplink direction accept the configuration.

> • | transmit - Propose VJ slotid compression for uplink.

> ipv4 { disable | enable | passive }
> Default: enable
> Controls IPCP negotiation during PPP negotiation.
> disable: The PDSN does not negotiate IPCP with the mobile.
> enable: The PDSN negotiates IPCP with the mobile.
> passive: The PDSN initiates IPCP only when the mobile sends an IPCP request.
> ipv6 { disable | enable | passive }
> Default: enable
> Controls IPv6CP negotiation during PPP negotiation.
> disable: The PDSN does not negotiate IPCP with the mobile.
> enable: The PDSN negotiates IPCP with the mobile.
> passive: The PDSN initiates IPCP only when the mobile sends an IPCP request.
> keepalive seconds
> Default: 30
> Specifies the frequency of sending the Link Control Protocol keep alive messages. seconds must be either 0 or in the range from 5 to 14400.
> The special value 0 disables the keep alive messages entirely.
> min-compression-size min_octets
> Default: 128
> Specifies the smallest packet to which compression may be applied. min_octets must be a value in the range from 0 to 2000.
> mtu max_octets
> Default: 1500
> Specifies the maximum size in octets the message transfer unit packets can reach. max_octets must be a value in the range from 100 to 2000.
> remote-renegotiation disconnect { always | nai-prefix-msid-mismatch }
> Default: Disabled
> Terminates the already established PPP sessions if they are renegotiated by the remote side by sending LCP Conf-req/nak/ack. The following termination conditions are available:

> • | always: The session is automatically disconnected.

> • | nai-prefix-msid-mismatch: The session is disconnected only if the MSID of the session does not match NAI-Prefix (prefix before “@” for the NAI). The configuration of the renegotiated (new) NAI is used for the matching process.

> Usage
> Adjust packet sizes and compression to improve bandwidth utilization. Each network may have unique characteristics such that determining the best packet size and compression options may require system monitoring over an extended period of time.
> Example
> ppp data-compression protocols mode stateless
> ppp mtu 500
> no ppp data-compression protocols
> no ppp keepalive
> prepaid 3gpp2
> Enables 3GPP2 compliant prepaid billing support for a subscriber to be configured by 3GPP2 attributes sent from a RADIUS server. If not enabled, prepaid attributes received from the RADIUS server are ignored.
> Product
> HA, PDSN
> Privilege
> Security Administrator, Administrator
> Syntax
> prepaid 3gpp2 { accounting [ no-final-access-request ] | duration-quota final-duration-algorithm { current-time | last-airlink-activity-time | last-user-layer3-activity-time } | preference { duration | volume } }
> default prepaid 3gpp2 { duration-quota final-duration-algorithm | preference }
> no prepaid 3gpp2 accounting
> default prepaid 3gpp2 { duration-quota final-duration-algorithm | preference }
> Sets the 3GPP2 Pre-paid settings to the default values.
> duration-quota final-duration-algorithm: Reset the end of billing duration quota algorithm to the default of current-time.
> preference: Reset the preference to duration, If both duration and volume attributes are present.
> no prepaid 3gpp2 accounting
> Disables 3GPP2 prepaid accounting. All 3GPP2 Prepaid attributes received from a RADIUS server are ignored.
> accounting [ no-final-access-request ]
> Default: Disabled
> Enabled 3GPP2 prepaid accounting behavior.
> Sets the low-watermark for remaining byte credits. percentage is a percentage of the subscriber sessions total credits. When the low-watermark is reached a new RADIUS access-request is sent to the RADIUS server to retrieve more credits. percentage must be an integer from 1 to 99.
> no-final-access-request: Stops sending final online access-request on termination of 3GPP2 prepaid sessions. By default, this option is disabled.
> duration-quota final-duration-algorithm { current-time | last-airlink-activity-time | last-user-layer3-activity-time }
> Define what behavior specifies the end of the billing duration for duration-based quota usage accounting. The default behavior is the duration quota algorithm set to current-time.
> Default: current-time
> current-time: Selects the duration quota as the difference between the session termination timestamp and the session setup timestamp.
> last-airlink-activity-time: Selects the duration quota as the difference between the last-user-activity timestamp (G17) and the session setup timestamp.
> last-user-layer3-activity-time: Selects the duration quota as the difference between the timestamp of the last layer-3 packet sent to or received from the user and the session setup timestamp.
> preference { duration | volume }
> If both duration and volume RADIUS attributes are present this keyword specifies which attribute has precedence.
> Default: duration
> duration: The duration attribute takes precedence.
> volume: The volume attribute takes precedence
> Usage
> Use this command to enable prepaid support for a default user or for the default user of a domain alias.
> Example
> The following command enables 3GPP2 prepaid support for the default user:
> prepaid 3gpp2 accounting
> prepaid custom
> Enables custom prepaid billing support for a subscriber to be configured by attributes sent from a RADIUS server. If not enabled, prepaid attributes received from the RADIUS server are ignored. The keywords are to set prepaid values that are used if the corresponding RADIUS attribute is not present. If the RADIUS attribute is present it takes precedence over these values.
> Product
> HA, PDSN
> Privilege
> Security Administrator, Administrator
> Syntax
> prepaid custom { accounting | byte-count compressed | low-watermark percent percentage | renewal interval seconds } | preference { duration | volume }
> default prepaid custom { byte-count | low-watermark }
> no prepaid custom { accounting | byte-count compressed | low-watermark | renewal }
> default prepaid custom { byte-count | low-watermark }
> Resets custom prepaid settings to the default values.
> byte-count: Reset to the default of basing the prepaid byte credits on the flow of uncompressed traffic.
> low-watermark: Disable sending an access request to retrieve more credits when a low watermark is reached.
> no prepaid custom { accounting | byte-count compressed | low-watermark | renewal}
> byte-count compressed: The prepaid byte credits are based on the flow of uncompressed traffic. This is the default.
> low-watermark: Disables the low watermark feature. An access-request isn’t sent to the RADIUS server until the credits granted for the subscriber session are depleted.
> renewal: Disables time-based renewals for prepaid accounting.
> accounting
> Default: Disabled
> Enabled custom prepaid accounting behavior.
> byte-count compressed
> Default: uncompressed.
> When compression is used, the prepaid byte credits are based on the flow of compressed traffic. The default is to base the prepaid byte credits on the flow of uncompressed traffic.
> low-watermark percent percentage
> Default: Disabled.
> Sets the low-watermark for remaining byte credits. percentage is a percentage of the subscriber sessions total credits. When the low-watermark is reached a new RADIUS access-request is sent to the RADIUS server to retrieve more credits. percentage must be an integer from 1 to 99.
> renewal interval seconds
> Default:
> The time in seconds to wait before sending a new RADIUS access-request to the RADIUS server to retrieve more credits. seconds must be an integer from 60 through 65535.
> preference { duration | volume }
> If both duration and volume RADIUS attributes are present this keyword specifies which attribute has precedence.
> Default: duration
> duration: The duration attribute takes precedence.
> volume: The volume attribute takes precedence
> Usage
> Use this command to enable prepaid support for a default user or for the default user of a domain alias.
> Example
> The following command enables custom prepaid support for the default user:
> prepaid custom accounting
> prepaid unclassify
> This command provides customer specific functionality.
> prepaid voice-push
> This command provides customer specific functionality.
> prepaid wimax
> Enables WiMAX prepaid accounting for this subscriber. This feature is disabled by default.
> Product
> ASN GW
> Privilege
> Administrator
> Syntax
> [ no ] prepaid wimax accounting
> no
> Disables WiMAX prepaid accounting for this subscriber.
> Usage
> Use this command to enable WiMAX prepaid accounting for this subscriber.
> proxy-dns intercept list-name
> Identifies a proxy DNS intercept rules list for the selected subscriber.
> Product
> HA
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] proxy-dns intercept list-name name
> no
> Remove the intercept list from the subscribers profile.
> proxy-dns intercept list-name name
> Specifies a name of a proxy DNS intercept list used for the selected subscriber.
> name is the name of the intercept list and must be a string from 1 to 63 characters in length.
> Usage
> Use this command to identify a proxy DNS rules list for the selected subscriber. For a more detailed explanation of the HA Proxy DNS Intercept feature, see the proxy-dns intercept-list command in the Context Configuration Mode Commands chapter.
> proxy-mip
> Configures support for Proxy Mobile IP for the subscriber.
> Product
> PDSN, GGSN, ASN GW, PDIF
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] proxy-mip required
> no
> Disables support for Proxy Mobile IP.
> required
> Enables support for Proxy Mobile IP.
> Usage
> When enabled through the session license and feature use key, the system supports Proxy Mobile IP to provide a mobility solution for subscribers with mobile nodes (MNs) capable of supporting only Simple IP.
> For subscriber sessions using Proxy Mobile IP, R-P and PPP sessions get established as they would for a Simple IP session. However, the AGW/FA performs Mobile IP operations with an HA (identified by information stored in the subscriber’s profile) on behalf of the MN while the MN performs only Simple IP processes.
> Example
> The following command enables proxy mobile IP for the current subscriber:
> proxy-mip required
> qos rate-limit
> Configure the action on subscriber traffic flow that violates or exceeds the peak/committed data rate under traffic policing functionality. When configured, the PDG/TTG performs traffic policing for the subscriber session. If the GGSN changes the QoS via an Update PDP Context Request, the PDG/TTG uses the new QoS values for traffic policing.
> Product
> PDG/TTG
> Privilege
> Security Administrator, Administrator
> Syntax
> qos rate-limit { downlink | uplink } [ qci qci_val ] [ burst-size { bytes | auto-readjust [ duration dur ] } ] [ exceed-action { drop | lower-ip-precedence | transmit } [ violate-action { drop | lower-ip-precedence | shape [ transmit-when-buffer-full ] | transmit } ] ] | [ violate-action { drop | lower-ip-precedence | shape [ transmit-when-buffer-full ] | transmit } [ exceed-action { drop | lower-ip-precedence | transmit } ] ] +no qos rate-limit direction { downlink | uplink } [ qci qci_val ]
> no
> Disables the QoS data rate limit configuration for the subscriber.
> downlink
> Apply the specified limits and actions to the downlink (to the data coming from the GGSN over the Gn’ interface).
> uplink
> Apply the specified limits and actions to the uplink (to the data coming from the UE over the IPSec tunnel).
> Important: If this keyword is omitted, the same values are used for all classes.
> qci qci_val
> qci_val is the QCI for which the negotiate limit is being set, it ranges from 1 to 9. If no qci-val is configured, it will be taken as undefined-qci (same as undefined-qos class).
> burst-size { bytes | auto-readjust [ duration dur ] }
> Default: See Usage section for this command
> The burst size allowed, in bytes for peak data rate and committed data rate.
> bytes must be an integer from 1 through 6000000.
> Important: It is recommended that the minimum value of this parameter be configured to the greater of the following two values: 1) 3 times greater than packet MTU for the subscriber connection, OR 2) 3 seconds worth of token accumulation within the “bucket” for the configured peak-data-rate. In addition, if the committed-data-rate parameter is specified, the burst-size is applied to both the committed and peak rates.
> auto-readjust [ duration dur ] keyword provides the option to calcualte the Burst size dynamically while configuring rate-limit. Whenever this keyword is enabled to calculate burst size GGSN QoS negotiated rate to be enforced for this calculation.
> Every time there is a change in the rates (due to update QoS), the burst sizes will be updated accordingly.
> This keyword also provides two different burst sizes. One burst size for peak rate and another for committed rate.
> By default this keyword is disabled.
> duration dur describes the duration of burst in seconds. If duration is not specified this keyword will use 1 second as default value. dur must be an integer between 1 through 30.
> exceed-action { drop | lower-ip-precedence | transmit }
> Default: See Usage section for this command
> The action to take on the packets that exceed the committed-data-rate but do not violate the peak-data-rate. The following actions are supported:

> • | drop: Drop the packet.

> • | lower-ip-precedence: Transmit the packet after lowering the ip-precedence.

> • | transmit: Transmit the packet.

> violate-action { drop | lower-ip-precedence | transmit }
> Default: See Usage section for this command
> The action to take on the packets that exceed both the committed-data-rate and the peak-data-rate. The following actions are supported:

> • | drop: Drop the packet.

> • | lower-ip-precedence: Transmit the packet after lowering the IP precedence.

> • | transmit: Transmit the packet after lowerting the IP precedence.

> shape [transmit-when-buffer-full]: Enables the traffic shaping and provides the buffering of user packets when subscriber traffic violates the allowed peak/committed data rate. The [transmit-when-buffer-full] keyword allows the packet to be transimitted when buffer memory is full.
> transmit: Transmit the packet
> Usage
> This command configures the APN’s quality of service (QoS) data rate shaping through traffic policing. This command enables the actions on subscriber flow exceeding or violating peak/committed data rate allowed. The shaping function also provides an enhanced function to buffer the exceeded user packets in a buffer memory and sends them to the subscriber when subscriber traffic goes below the committed or peak data rate limit.
> Important: The user packet buffer function in traffic shaping is not applicable for real-time traffic.
> Important: If the exceed/violate action is set to “lower-ip-precedence”, this command may override the configuration of the ip qos-dscp command in the GGSN service configuration mode for packets from the GGSN to the PDG/TTG. In addition, the GGSN service ip qos-dscp command configuration can override the APN setting for packets from the GGSN to the Internet. Therefore, it is recommended that command not be used in conjunction with this action.
> The command can be entered multiple times to specify different combinations of direction and class. If this command is not configured at all, the GGSN does not perform traffic policing or QoS negotiation with the PDG/TTG (i.e., it accepts all of the PDG/TTG-provided values for the PDP context.
> Important: This command should be used in conjunction with the max-contexts command to limit the maximum possible bandwidth consumption by the APN.
> Additional information on the QoS traffic shaping and policing functionality is located in the System Administration Guide.
> Default values:
> The following table displays the default values for each of the traffic classes:

> Class: Conversational
> Downlink Traffic: Disabled Peak Data Rate (in bps): 16000000 Committed Data Rate(in bps): 16000000 Exceed Action: lower-ip-precedence Violate Action: drop | Uplink Traffic: Disabled Peak Data Rate(in bps): 8640000 Committed Data Rate(in bps): 8640000 Exceed Action: lower-ip-precedence Violate Action: drop
> Class: Streaming
> Downlink Traffic: Disabled Peak Data Rate(in bps): 16000000 Committed Data Rate(in bps): 16000000 Exceed Action: lower-ip-precedence Violate Action: drop | Uplink Traffic: Disabled Peak Data Rate(in bps): 8640000 Committed Data Rate(in bps): 8640000 Exceed Action: lower-ip-precedence Violate Action: drop
> Class: Interactive, Traffic Handling Priority: 1
> Downlink Traffic: Disabled Peak Data Rate(in bps): 16000000 Committed Data Rate(in bps): n/a Exceed Action: n/a Violate Action: drop | Uplink Traffic: Disabled Peak Data Rate(in bps): 8640000 Committed Data Rate(in bps): n/a Exceed Action: n/a Violate Action: drop
> Class: Interactive, Traffic Handling Priority: 2
> Downlink Traffic: Disabled Peak Data Rate(in bps): 16000000 Committed Data Rate(in bps): n/a Exceed Action: n/a Violate Action: drop | Uplink Traffic: Disabled Peak Data Rate(in bps): 8640000 Committed Data Rate(in bps): n/a Exceed Action: n/a Violate Action: drop
> Class: Interactive, Traffic Handling Priority: 3
> Downlink Traffic: Disabled Peak Data Rate(in bps): 16000000 Committed Data Rate(in bps): n/a Exceed Action: n/a Violate Action: drop | Uplink Traffic: Disabled Peak Data Rate(in bps): 8640000 Committed Data Rate(in bps): n/a Exceed Action: n/a Violate Action: drop
> Class: Background
> Downlink Traffic: Disabled Peak Data Rate(in bps): 16000000 Committed Data Rate(in bps): n/a Exceed Action: n/a Violate Action: drop | Uplink Traffic: Disabled Peak Data Rate(in bps): 8640000 Committed Data Rate(in bps): n/a Exceed Action: n/a Violate Action: drop

> ‌
> Usage
> This command configures the APN’s quality of service (QoS) data rate shaping through traffic policing/shaping. This command enables the actions on subscriber flow exceeding or violating peak/committed data rate allowed. The shaping function also provides an enhanced function to buffer the exceeded user packets in a buffer memory and sends them to the subscriber when subscriber traffic goes below the committed or peak data rate limit.
> Important: The user packet buffer function in traffic shaping is not applicable for real-time traffic.
> Important: If the exceed/violate action is set to “lower-ip-precedence”, this command may override the configuration of the ip qos-dscp command in the GGSN service configuration mode for packets from the GGSN to the SGSN. In addition, the GGSN service ip qos-dscp command configuration can override the APN setting for packets from the GGSN to the Internet. Therefore, it is recommended that command not be used in conjunction with this action.
> The command can be entered multiple times to specify different combinations of direction and class. If this command is not configured at all, the GGSN does not perform traffic policing or QoS negotiation with the SGSN (i.e. it accepts all of the SGSN-provided values for the PDP context.
> Important: This command should be used in conjunction with the max-contexts command to limit the maximum possible bandwidth consumption by the APN.
> To calculate the burst size dynamically a new optional keyword auto-readjust [ duration dur ] is provided with burst-size keyword. By default the burst size is fixed if defined in bytes with this command. In other words irrespective of the rate being enforced, burst-size fixed as given in the burst-size bytes parameter.
> For the need of variable burst size depending on the rate being enforced this new keyword auto-readjust [ duration dur ] is provided. Use of this keyword enables the calculation of burst size as per token bucket algorithm calculation as T=B/R, where T is the time interval, B is the burst size and R is the Rate being enforced.
> It also provides different burst size for Peak and Committed data rate-limiting.
> If auto-readjust keyword is not used a fixed burst size must be defined which will be applicable for peak data rate and committed data rate irrespective of rate being enforced.
> If auto-readjust keyword is provided without specifying the duration a default duration of 1 second will be taken for burst size calculation.
> Example
> The following command lowers the IP precedence when the committed-data-rate and the peak-data-rate are violated in uplink direction:
> qos rate-limit direction uplink violate-action lower-ip-precedence
> The following command buffers the excess user packets when the subscriber traffic violates the configured peak or committed data-rate bps in uplink direction. Once the peak/committed data rate for that subscriber goes below the configured limit it transmit them. It also transmits them if buffer memory is full:
> qos rate-limit direction uplink violate-action shape transmit-when-buffer-full
> qos traffic-police
> Enables and configures traffic policing through the bandwidth limits and action for the subscriber traffic if it exceeds/violates the peak or committed data rate. Uplink and downlink limits are configured separately.
> Product
> PDSN, HA, GGSN, ASN GW
> Privilege
> Security Administrator, Administrator
> Syntax
> qos traffic-police direction { downlink | uplink } [ burst-size bytes ] [ committed-data-rate bps ] [ exceed-action { drop | lower-ip-precedence | transmit } ] [ peak-data-rate bps ] [ violate-action { drop | lower-ip-precedence | transmit } ]
> no qos traffic-police direction { downlink | uplink }
> downlink
> Apply the specified limits and actions to the downlink (data to the subscriber).
> uplink
> Apply the specified limits and actions to the uplink (data from the subscriber).
> burst-size bytes
> Default: 3000
> The peak burst size allowed, in bytes.
> bytes must be an integer from 0 through 4294967295.
> Important: It is recommended that this parameter be configured to at least the greater of the following two values: 1) 3 times greater than packet MTU for the subscriber connection, OR 2) 3 seconds worth of token accumulation within the “bucket” for the configured peak-data-rate.
> committed-data-rate bps
> Default: 144000
> The committed data rate (guaranteed-data-rate) in bps (bits per second).
> bps must be an integer from 0 through 4294967295).
> exceed-action { drop | lower-ip-precedence | transmit }
> Default: lower-ip-precedence
> The action to take on the packets that exceed the committed-data-rate but do not violate the peak-data-rate. The following actions are supported:
> drop: Drop the packet
> lower-ip-precedence: Transmit the packet after lowering the ip-precedence
> transmit: Transmit the packet
> peak-data-rate bps
> Default: 256000
> Specifies the peak data-rate for the subscriber, in bps (bits per second).
> bps must be an integer from 0 through 4294967295).
> violate-action { drop | lower-ip-precedence | transmit }
> Default: drop
> The action to take on the packets that exceed both the committed-data-rate and the peak-data-rate. The following actions are supported:
> drop: Drop the packet
> lower-ip-precedence: Transmit the packet after lowering the IP precedence
> transmit: Transmit the packet
> no
> Disable traffic policing for the specified direction for the current subscriber.
> Usage
> Use this command to limit the bandwidth a subscriber uses in the uplink and downlink directions.
> Important: If the exceed/violate action is set to “lower-ip-precedence”, the TOS value for the outer packet becomes “best effort” for packets that exceed/violate the traffic limits regardless of what the ip user-datagram-tos copy command is configured to. In addition, the “lower-ip-precedence” option may also override the configuration of the ip qos-dscp command. Therefore, it is recommended that command not be used when specifying this option.
> Details on the QoS traffic policing functionality is located in the System Administration Guide.
> Example
> The following command sets an uplink peak data rate of 128000 bps and lowers the IP precedence when the committed-data-rate and the peak-data-rate are exceeded:
> qos traffic-police direction uplink peak-data-rate 128000 violate-action lower-ip-precedence
> The following command sets a downlink peak data rate of 256000 bps and drops packets when the committed-data-rate and the peak-data-rate are exceeded:
> qos traffic-police direction downlink peak-data-rate 256000 violate-action drop
> qos traffic-shape
> Enables and configures traffic shaping functionality to provide the traffic shaping by means of buffering the data packets during congestion or when subscriber exceeds the configured peak or committed data rate limit. It buffers the data packets instead of discarding instantaneous burst and deliver it to subscriber when traffic flow is below the peak or committed data rate. Uplink and downlink traffic shaping are configured separately.
> Important: This feature is NOT supported for real-time traffic.
> Product
> PDSN, HA, GGSN, ASN GW
> Privilege
> Security Administrator, Administrator
> Syntax
> qos traffic-shape direction { downlink | uplink } [ burst-size bytes ] [ committed-data-rate bps ] [ exceed-action { drop | lower-ip-precedence | transmit } ] [ peak-data-rate bps ] [ violate-action { drop | lower-ip-precedence | buffer [ transmit-when-buffer-full ] | transmit } ] +
> no qos traffic-shape direction { downlink | uplink }
> downlink
> Apply the specified limits and actions to the downlink (data to the subscriber).
> uplink
> Apply the specified limits and actions to the uplink (data from the subscriber).
> burst-size bytes
> Default: 3000
> The peak burst size allowed, in bytes.
> bytes must be an integer from 0 through 4294967295.
> Important: It is recommended that this parameter be configured to at least the greater of the following two values: 1) 3 times greater than packet MTU for the subscriber connection, OR 2) 3 seconds worth of token accumulation within the “bucket” for the configured peak-data-rate.
> committed-data-rate bps
> Default: 144000
> The committed data rate (guaranteed-data-rate) in bps (bits per second).
> bps must be an integer from 0 through 4294967295).
> exceed-action { drop | lower-ip-precedence | transmit }
> Default: lower-ip-precedence
> The action to take on the packets that exceed the committed-data-rate but do not violate the peak-data-rate. The following actions are supported:
> drop: Drop the packet
> lower-ip-precedence: Transmit the packet after lowering the ip-precedence
> transmit: Transmit the packet
> peak-data-rate bps
> Default: 256000
> Specifies the peak data-rate for the subscriber, in bps (bits per second).
> bps must be an integer from 0 through 4294967295).
> violate-action { drop | lower-ip-precedence | buffer [transmit-when-buffer-full] | transmit }
> Default: See Usage section for this command
> The action to take on the packets that exceed both the committed-data-rate and the peak-data-rate. The following actions are supported:
> drop: Drop the packet
> lower-ip-precedence: Transmit the packet after lowering the IP precedence
> buffer [transmit-when-buffer-full]: Enables the traffic shaping and provides the buffering of user packets when subscriber traffic violates the allowed peak/committed data rate. The [transmit-when-buffer-full] keyword allows the packet to be transimitted when buffer memory is full.
> transmit: Transmit the packet
> +
> More than one of the above keywords can be entered within a single command.
> no
> Disable traffic policing for the specified direction for the current subscriber.
> Usage
> Use this command to provide the traffic shaping function to a subscriber in the uplink and downlink directions. This feature is providing a traffic flow control different to QoS traffic policing. When a subscriber violates or exceeds the peak data rate instead of dropping the packets, as in QoS traffic policing, this feature provides the buffering facility of subscriber data packets and it sends the buffered data when the traffic flow is low or not in congestion state.
> Important: If the exceed/violate action is set to “lower-ip-precedence”, the TOS value for the outer packet becomes “best effort” for packets that exceed/violate the traffic limits regardless of what the ip user-datagram-tos copy command is configured to. In addition, the “lower-ip-precedence” option may also override the configuration of the ip qos-dscp command. Therefore, it is recommended that command not be used when specifying this option.
> Details on the QoS traffic policing functionality is located in the System Administration Guide.
> Example
> The following command sets an uplink peak data rate of 128000 bps and lowers the IP precedence when the committed-data-rate and the peak-data-rate are exceeded:
> qos traffic-shape direction uplink peak-data-rate 128000 violate-action lower-ip-precedence
> The following command buffers the excess user packets when the subscriber traffic violates the configured peak-data-rate 256000 bps in downlink direction. Once the peak/committed data rate for that subscriber goes below the configured limit it transmit them. It also transmits them if buffer memory is full:
> qos traffic-shape direction downlink peak-data-rate 256000 violate-action buffer transmit-when-buffer-full
> radius accounting
> Sets the RADIUS accounting parameters for the subscriber or domain. This command takes precedence over the similar context configuration command. This command is disabled by default.
> Product
> All
> Privilege
> Administrator
> Syntax
> radius accounting { interim { interval-timeout timeout | normal | suppress } | ip remote-address list-id list_id | mode { session-based | access-flow-based { none | auxillary-flows | all-flows | main-a10-only } } | start { normal | suppress } | stop { normal | suppress } }
> no radius accounting { ip remote-address list-id list_id | interim [ interval-timeout ] }
> interim { interval-timeout timeout | normal | suppress }
> interval-timeout timeout: Indicates the time (in seconds) between updates to session counters (log file on RADIUS or AAA event log) during the session. timeout must be an integer from 50 to 40000000.
> Caution: Interim interval settings received from the RADIUS server take precedence over this setting on the system. While the low limit of this setting on the system is a minimum of 50 seconds, the low limit setting on the RADIUS server can be as little as 1 second. To avoid increasing network traffic unnecessarily and potentially reducing network and system performance, do not set this parameter to a value less than 50 on the RADIUS server.
> normal: If RADIUS accounting is enabled, send this Acct-Status-Type message when required by normal operation
> suppress: If RADIUS accounting is enabled, suppress the sending of this Acct-Status-Type message.
> ip remote-address list-id list_id
> Specifies the identification number of the IP address list to use for the subscriber for remote address-based accounting.
> list_id: Specifies the RADIUS accounting remote IP address list identifier for remote-address accounting for the subscriber. list_id must be an integer from 1 through 65535.
> This command is used as part of the Remote Address-based accounting feature and associates the subscriber with a list of remote addresses. Remote address accounting data is collected each time the subscriber communicates with any of the addresses specified in the list.
> Remote address lists are configured using the list keyword in the radius accounting ip remote-address command in the Context Configuration mode.
> mode { session-based | access-flow-based { none | auxillary-flows | all-flows | main-a10-only } }
> Default: session-based
> Specifies if the radius accounting mode is either session-based or access-flow-based.
> session-based: configures session-based RADIUS accounting behavior for the subscriber - which means a single radius accounting message generated for the subscriber session not separate accounting messages for individual A10 connections or flows.
> access-flow-based: configures access-flow-based RADIUS accounting behavior for the subscriber. This offers flexibility by generating separate accounting messages for flows and A10 sessions.

> • | all-flows: Generates separate RADIUS accounting messages per access flow. Separate accounting messages are not generated for data path connections. (For example, separate messages are not sent for the main A10 or auxilliary connections.).

> • | auxillary-flows: Generates RADIUS accounting records for the main data path connection and for access-flows for all auxiliary data connections. (For example, separate RADIUS accounting messages are generated for the main A10 session and for access-flows within auxiliary A10 connections. The main A10 session accounting does not include octets or other accounting information from the auxiliary flows.)

> • | main-a10-only: Configures access-flow-based single accounting messages (for example only single start/interim/stop) are generated for the main A-10 flows only.

> • | none: Separate RADIUS accounting messages are generated for all data path connections (for example, PDSN main or auxiliary A10 connections) but not for individual access-flows. This is essentially A10 connection-based accounting.

> start { normal | suppress }
> normal: If RADIUS accounting is enabled, send this Acct-Status-Type message when required by normal operation
> suppress: If RADIUS accounting is enabled, suppress the sending of this Acct-Status-Type message.
> stop { normal | suppress }
> normal: If RADIUS accounting is enabled, send this Acct-Status-Type message when required by normal operation
> suppress: If RADIUS accounting is enabled, suppress the sending of this Acct-Status-Type message.
> no
> ip remote-address list-id list_id: Deletes the entry for the specified list_id.
> interim [ interval-timeout ]: Disables the interim interval setting.
> Usage
> Use this command to allow a per-domain setting for the RADIUS accounting.
> Example
> Set the accounting interim interval to one minute (60 seconds) for all sessions that use the current subscriber configuration:
> radius accounting interim interval-timeout 60
> Do not send RADIUS interim accounting messages:
> radius accounting interim suppress
> Sets the accounting message start normal for main A-10 flows only.
> radius accounting mode main-a10-only start normal
> radius group
> It applies a RADIUS server group at the subscriber level for AAA functionality.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> radius group group_name
> { default | no } radius group
> group_name
> Specifies the name of the server group that is used for authentication and/or accounting for the specific subscriber.
> group_name must be an alpha and/or numeric string of 1 through 63 characters in length. It must be the same as configured earlier within the same context of subscriber.
> default
> Sets / Restores default RADIUS server group specified at the context level or default subscriber profile.
> no
> Disables the applied RADIUS group for specific subscriber.
> Usage
> This feature provides the RADIUS configurables under radius group node. Instead of having a single list of servers per context, this feature configures multiple server groups within a context and applies individual RADIUS server group for subscriber in that context. Each server group consists of a list of AAA servers.
> In case no RADIUS group is applied for the said subscriber or default subscriber profile, then the default server group available at context level is applicable for accounting and authentication of specific subscriber.
> Example
> Following command applies a previously configured RADIUS server group named star1 to a subscriber within the specific context:
> radius group star1
> Following command disables the applied RADIUS server group for the specific subscriber.
> no radius group
> radius returned-framed-ip-address
> Sets the policy whether or not to reject a call when the RADIUS server supplies 255.255.255.255 as the framed IP address and the MS does not supply an address.
> Product
> GGSN
> Privilege
> Security Administrator, Administrator
> Syntax
> radius returned-framed-ip-address 255.255.255.255-policy { accept-call-when-ms-ip-not-supplied | reject-call-when-ms-ip-not-supplied }
> default radius returned-framed-ip-address 255.255.255.255-policy
> accept-call-when-ms-ip-not-supplied
> Accept calls when the RADIUS server does not supply a framed IP address and the MS does not supply and address.
> reject-call-when-ms-ip-not-supplied
> Reject calls when the RADIUS server does not supply a framed IP address and the MS does not supply and address.
> default
> Set the policy to its default of rejecting calls when the RADIUS server does not supply a framed IP address and the MS does not supply and address.
> Usage
> Use this command to set the behavior for the current subscriber when the RADIUS server supplies 255.255.255.255 as the framed IP address and the MS does not supply an address.
> Example
> Use the following command to set the subscriber profile to reject calls when the RADIUS server does not supply a framed IP address and the MS does not supply and address:
> radius returned-framed-ip-address 255.255.255.255-policy reject-call-when-ms-ip-not-supplied
> rohc-profile-name
> Identifies the RoHC profile configuration to be applied to bearer sessions belonging to this subscriber.
> Product
> HSGW,PDSN
> Privilege
> Administrator
> Syntax
> rohc-profile-name name
> name
> Specifies the name of the RoHC profile this subscriber will use to apply header compression and decompression parameters to bearer session data. name must be an existing RoHC profile and be from 1 to 63 alpha and/or numeric characters.
> Usage
> Use this command to specify a RoHC configuration profile to be applied to bearer sessions belonging to this subscriber. RoHC profiles are configured through the Global Configuration Mode using the rohc-profile command.
> Example
> The following command specifies that the RoHC profile named rohc-cfg1 is to be applied to all bearer sessions belonging to this subscriber:
> rohc-profile-name rohc-cfg1
> secondary ip pool
> This command specifies a secondary IP pool to be used as backup pool for NAT.
> Important: This command is license dependent, requiring the 600-00-7871 NAT Bypass license. Please contact your local sales representative for more information.
> Product
> NAT
> Privilege
> Security Administrator, Administrator
> Syntax
> secondary ip pool pool_name
> no secondary ip pool
> no
> Removes the previous secondary IP pool configuration.
> pool_name
> Specifies the secondary IP pool name.
> pool_name must be an alpha and/or numeric string of 1 through 31 characters in length.
> Usage
> Use this command to configure a secondary IP pool for NAT subscribers, which is not overwritten by the RADIUS supplied list. The secondary pool configured will be appended to the RADIUS supplied IP pool list / subscriber template provided IP pool list whichever is applicable during call setup.
> Example
> The following command configures a secondary IP pool named test123:
> secondary ip pool test123
> simultaneous
> Enables/disables the simultaneous use of both Mobile and Simple IP services.
> Product
> PDSN, FA, HA, ASN-GW
> Privilege
> Security Administrator, Administrator
> Syntax
> [ no ] simultaneous simple-and-mobile-ip
> no
> Disables the simultaneous use.
> Usage
> Subscribers with mobile devices supporting mobile and simple IP services concurrently require this option to be set.
> Example
> no simultaneous simple-and-mobile-ip
> simultaneous simple-and-mobile-ip
> timeout
> Configures the subscriber session timeouts.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> timeout { absolute | idle } seconds
> no timeout [ absolute | idle ]
> absolute
> Default: 0
> The absolute maximum time a session may exist in any state (active or dormant).
> idle
> Default: 0
> The maximum duration of the session, in seconds, before the system automatically terminates the session due to inactivity.
> seconds
> Specifies the maximum amount of time, in seconds, before the specified timeout action is activated. seconds must be a value in the range from 0 through 4294967295.
> The special value 0 disables the timeout specified.
> no
> Indicates the timeout specified is to be returned to its default behavior. If no specific timeout is specified then all are set to their default behavior.
> Usage
> Reduce the idle timeout to free session resources faster for use by new requests.
> Example
> timeout absolute 1800
> no timeout
> timeout long-duration
> Configures the long duration timeout and optionally the inactivity duration of HA subscriber session.
> Product
> All
> Privilege
> Security Administrator, Administrator
> Syntax
> timeout long-duration ldt_timeout [ inactivity-time inact_timeout ]
> [ no | default ]timeout long-duration
> no
> Indicates the timeout specified is to be returned to its default behavior. If no specific
> timeout is specified then all are set to their default behavior.
> long-duration ldt_timeout
> Default: 0
> Designates the maximum duration of the session, in seconds, before the system automatically reports/terminates the session.
> ldt_timeout must be a value in the range from 0 through 4294967295.
> The special value 0 disables the timer.
> inactivity-time inact_timeout
> Specifies the maximum amount of time, in seconds, before the specified session is
> marked as dormant.
> inact_timeout must be a value in the range from 0 through 4294967295.
> The special value 0 disables the inactivity time specified.
> Usage
> Use this command to set the long duration timeout period and inactivity timer for subscriber sessions. Reduce the idle timeout to free session resources faster for use by new requests.
> Refer to the long-duration-action detection and long-duration-action disconnection section for more information.
> Example
> Following command sets the long duration timeout duration to 300 seconds and inactivity timer for subscriber session to 45 seconds:
> timeout long-duration 300 inactivity-time 45
> tpo policy
> Specifies the Traffic Performance Optimization policy for subscriber(s).
> Product
> TPO
> Privilege
> Security Administrator, Administrator
> Syntax
> tpo policy tpo_policy_name
> { default | no } tpo policy
> default
> Configures the default setting.
> Default: Use the default TPO policy configured in the rulebase.
> no
> Deletes TPO policy from the subscriber configuration.
> tpo_policy_name
> Specifies name of the TPO policy, and must be an alpha and/or string of 1 through 63 characters in length.
> Usage
> Use this command to specify the TPO policy for the subscriber template.
> Example
> The following command specifies to use the TPO policy named tpo_policy_110:
> tpo policy tpo_policy_110
> tunnel address-policy
> This command specifies the policy for address allocation and validation for all tunneled calls (IP-IP, IP-GRE) except L2TP calls. This means that GGSN IP address validation could be disabled for specified incoming calls.
> For GGSN systems, this command can also be specified in the APN Configuration mode (tunnel address-policy) which would mean the system defers to the old l3-to-l2-tunnel address policy command for calls coming through L2TP tunnels.
> Product
> PDSN, GGSN
> Privilege
> Security Administrator, Administrator
> Syntax
> tunnel address-policy { alloc-only | alloc-validate | no-alloc-validate }
> default tunnel address-policy
> alloc-only
> IP addresses are allocated locally and no validation is done.
> alloc-validate
> Default.
> The VPN Manager allocates and validates all incoming IP addresses from a static pool of IP addresses.
> no-alloc-validate
> No IP address assignment or validation is done for calls coming in via L3 tunnels. Incoming static IP addresses are passed. This allows for the greatest flexibility.
> default
> Resets the tunnel address-policy to alloc-validate.
> Usage
> This command supports scalable solutions for Corporate APN deployment as many corporations handle their own IP address assignment. In some cases this is done to relieve the customer or the mobile operators from the necessity of reconfiguring the range of IP addresses for the IP pools at the GGSN.
> Example
> Use the following command to reset the IP address validation policy to validate against a static pool of address:
> default tunnel address-policy
> Use the following command to disable all IP address validation for calls coming through tunnels:
> tunnel address-policy no-alloc-validate
> tunnel gre
> Configures Generic Routing Encapsulation (GRE) tunnel parameters for the current subscriber.
> Product
> PDSN, GGSN, ASN-GW
> Privilege
> Security Administrator, Administrator
> Syntax
> tunnel gre peer-address peer_address local-address local_addr
> no tunnel gre peer-address peer_address
> peer-address peer_address
> Specifies the IP address of the external gateway terminating the GRE tunnel.
> local-address local_addr
> Specifies the IP address of the interface in the destination context originating the GRE tunnel.
> no
> Disables GRE tunneling for the current subscriber.
> Usage
> Subscriber IP payloads are encapsulated with IP/GRE headers and tunneled by the AGW to an external gateway.
> Example
> The following command configures the system to encapsulate subscriber traffic using GRE and tunnel it from a local address of 192.168.1.100 to a gateway with an IP address of 192.168.1.225:
> tunnel gre peer-address 192.168.1.225 local-address 192.168.1.100
> tunnel ipip
> Configures IP-in-IP tunnelling parameters for the current subscriber.
> Product
> PDSN, GGSN
> Privilege
> Security Administrator, Administrator
> Syntax
> tunnel ipip peer-address peer_address local-address local_addr ]
> no tunnel ipip
> peer-address peer_address
> Specifies the IP address of the external gateway terminating the IP-in-IP tunnel.
> local-address local_addr
> Specifies the IP address of the interface in the destination context originating the IP-in-IP tunnel.
> no
> Disables IP-in-IP tunneling for the current subscriber.
> Usage
> Subscriber IP payloads are encapsulated with IP-in-IP headers and tunneled by the GGSN or PDSN to an external gateway.
> Example
> The following command configures the system to encapsulate subscriber traffic using IP-in-IP and tunnel it from a local address of 192.168.1.100 to a gateway with an IP address of 192.168.1.225:
> tunnel ipip peer-address 192.168.1.225
> local-address 192.168.1.100
> tunnel ipsec
> This command configures sessions for the current subscriber to use an IPSEC tunnel based on the IP pool corresponding to the subscribers assigned ip address.
> Product
> PDSN, GGSN
> Privilege
> Security Administrator, Administrator
> Syntax
> tunnel ipsec use-policy-matching-ip-pooler-address
> no tunnel ipsec [ use-policy-matching-ip-pooler-address ]
> no
> Disables the use of the IPSEC policy that matches the IP pool that the assigned IP address relates to.
> Usage
> Use this command to set the current subscribers sessions to use an IPSEC policy that is assigned to the IP pool that the subscribers assigned IP address relates to.
> Example
> The following command enables the use of the policy that matches the IP pool address:
> tunnel ipsec use-policy-matching-ip-pooler-address
> tunnel l2tp
> Configures the L2TP tunnel for the subscriber.
> Product
> L2TP
> Privilege
> Security Administrator, Administrator
> Syntax
> tunnel l2tp [ peer-address ip address [ [ encrypted ] [secret secret] ] [ preference number] [ tunnel-context context ] [ local-address ip_address ] [ crypto-map map_name { [ encrypted ] isakmp-secret secret } ] ]
> no tunnel l2tp [ peer-address ip_address ]
> peer-address ip_address
> A peer L2TP Network Server (LNS) associated with this LAC (L2TP Access Concentrator). ip_address must be an IP address in IPv4/IPv6 format.
> [ encrypted ] secret secret
> The shared key (secret) between the L2TP Network Server (LNS) associated with this LAC (L2TP Access Concentrator). secret must be between 1 and 63 alpha and/or numeric characters and is case sensitive.
> encrypted: The encrypted shared key between the L2TP Network Server (LNS) associated with this LAC (L2TP Access Concentrator). secret must be between 1 and 128 alpha and/or numeric characters and is case sensitive.
> The encrypted keyword is intended only for use by the system while saving configuration scripts. The system displays the encrypted keyword in the configuration file as a flag that the variable following the secret keyword is the encrypted version of the plain text secret. Only the encrypted secret is saved as part of the configuration file.
> preference number
> Default: 1
> The order in which a group of tunnels configured for this subscriber will be tried. number must be an integer between 1 and 65535.
> tunnel-context context
> The name of the context containing ports through which this subscriber’s data traffic is to be communicated between this LAC and the LNS. context must be between 1 and 79 alpha and/or numeric characters.
> local-address ip_address
> A LAC service bind address which is given as a hint used to select a particular LAC service. ip_address must be an IP address in IPv4/IPv6 format.
> crypto-map map_name { [encrypted] isakmp-secret secret }
> map_name is the name of a crypto map that has been configured in the current context. map_name must be a string from 1 to 127 alphanumeric characters.
> isakmp-secret secret: The pre-shared key for IKE. secret must be a string from 1 to 127 alphanumeric characters.
> encrypted isakmp-secret secret: The pre-shared key for IKE. Encryption must be used when sending the key. secret must be a string from 1 to 127 alphanumeric characters.
> no
> Disables tunneling for the current subscriber. When peer-address is included, the tunneling for that specific L2TP Network Server (LNS) is disabled but tunneling to other configured LNSs is still enabled.
> Usage
> Use this command to configure specific L2TP tunneling parameters for the current subscriber.
> Example
> To specify L2tp tunneling to the LNS peer at the IP address 198.162.10.100 with a shared secret of bigco and preference of 1, enter the following command:
> tunnel l2tp peer-address 198.162.10.100 secret bigco preference 1

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