Cisco Security Appliance Command Reference, Version 8.0
queue-limit -- rtp-conformance

Table Of Contents

queue-limit through rtp-conformance Commands

queue-limit (priority-queue)

queue-limit (tcp-map)

quit

radius-common-pw

radius-reject-message

radius-with-expiry (removed)

rate-limit

reactivation-mode

record-entry

redirect-fqdn

redistribute (EIGRP)

redistribute (OSPF)

redistribute (RIP)

redundant-interface

regex

reload

remote-access threshold session-threshold-exceeded

rename

rename (class-map)

renewal-reminder

replication http

request-command deny

request-data-size

request-queue

request-timeout

reserve-port-protect

reserved-bits

reset

retries

retry-interval

reval-period

revert webvpn all

revert webvpn customization

revert webvpn plug-in protocol

revert webvpn translation-table

revert webvpn url-list

revert webvpn webcontent

revocation-check

rewrite

re-xauth

rip send version

rip receive version

rip authentication mode

rip authentication key

rip receive version

rip send version

rmdir

route

route-map

router-id

router eigrp

router ospf

router rip

rtp-conformance


queue-limit through rtp-conformance Commands


queue-limit (priority-queue)

To specify the depth of the priority queues, use the queue-limit command in priority-queue mode. To remove this specification, use the no form of this command.

queue-limit number-of-packets

no queue-limit number-of-packets

Syntax Description

number-of-packets

Specifies the maximum number of low-latency or normal priority packets that can be queued (that is, buffered) before the interface begins dropping packets. See the Usage Notes section for the range of possible values.


Defaults

The default queue limit is 1024 packets.

Command Modes

The following table shows the modes in which you can enter the command:

Command Mode
Firewall Mode
Security Context
Routed
Transparent
Single
Multiple
Context
System

Priority-queue


Command History

Release
Modification

7.0(1)

This command was introduced.


Usage Guidelines

The security appliance allows two classes of traffic: low-latency queuing (LLQ) for higher priority, latency sensitive traffic (such as voice and video) and best-effort, the default, for all other traffic. The security appliance recognizes priority traffic and enforces appropriate Quality of Service (QoS) policies. You can configure the size and depth of the priority queue to fine-tune the traffic flow.

You must use the priority-queue command to create the priority queue for an interface before priority queuing takes effect. You can apply one priority-queue command to any interface that can be defined by the nameif command.

The priority-queue command enters priority-queue mode, as shown by the prompt. In priority-queue mode, you can configure the maximum number of packets allowed in the transmit queue at any given time (tx-ring-limit command) and the number of packets of either type (priority or best -effort) allowed to be buffered before dropping packets (queue-limit command).


Note You must configure the priority-queue command in order to enable priority queueing for the interface.


The tx-ring-limit and the queue-limit that you specify affect both the higher priority low-latency queue and the best-effort queue. The tx-ring-limit is the number of either type of packets allowed into the driver before the driver pushes back to the queues sitting in front of the interface to let them buffer packets until the congestion clears. In general, you can adjust these two parameters to optimize the flow of low-latency traffic.

Because queues are not of infinite size, they can fill and overflow. When a queue is full, any additional packets cannot get into the queue and are dropped. This is tail drop. To avoid having the queue fill up, you can use the queue-limit command to increase the queue buffer size.


Note The upper limit of the range of values for the queue-limit and tx-ring-limit commands is determined dynamically at run time. To view this limit, enter help or ? on the command line. The key determinant is the memory needed to support the queues and the memory available on the device. The queues must not exceed the available memory. The theoretical maximum number of packets is 2147483647.


On ASA Model 5505 (only), configuring priority-queue on one interface overwrites the same configuration on all other interfaces. That is, only the last applied configuration is present on all interfaces. Further, if the priority-queue configuration is removed from one interface, it is removed from all interfaces.

To work around this issue, configure the priority-queue command on only one interface. If different interfaces need different settings for the queue-limit and/or tx-ring-limit commands, use the largest of all queue-limits and smallest of all tx-ring-limits on any one interface (CSCsi13132).

Examples

The following example configures a priority queue for the interface named test, specifying a queue limit of 30,000 packets and a transmit queue limit of 256 packets.

hostname(config)# priority-queue test
hostname(priority-queue)# queue-limit 30000
hostname(priority-queue)# tx-ring-limit 256

Related Commands

Command
Description

clear configure priority-queue

Removes the current priority queue configuration on the named interface.

priority-queue

Configures priority queuing on an interface.

show priority-queue statistics

Shows the priority-queue statistics for the named interface.

show running-config [all] priority-queue

Shows the current priority queue configuration. If you specify the all keyword, this command displays all the current priority queue, queue-limit, and tx-ring-limit configuration values.

tx-ring-limit

Sets the maximum number of packets that can be queued at any given time in the Ethernet transmit driver.


queue-limit (tcp-map)

To configure the maximum number of out-of-order packets that can be buffered and put in order for a TCP connection, use the queue-limit command in tcp-map configuration mode. To set the value back to the default, use the no form of this command. This command is part of the TCP normalization policy enabled using the set connection advanced-options command.

queue-limit pkt_num [timeout seconds]

no queue-limit

Syntax Description

pkt_num

Specifies the maximum number of out-of-order packets that can be buffered and put in order for a TCP connection, between 1 and 250. The default is 0, which means this setting is disabled and the default system queue limit is used depending on the type of traffic. See the "Usage Guidelines" section for more information.

timeout seconds

(Optional) Sets the maximum amount of time that out-of-order packets can remain in the buffer, between 1 and 20 seconds. The default is 4 seconds. If packets are not put in order and passed on within the timeout period, then they are dropped. You cannot change the timeout for any traffic if the pkt_num argument is set to 0; you need to set the limit to be 1 or above for the timeout keyword to take effect.


Defaults

The default setting is 0, which means this command is disabled.

The default timeout is 4 seconds.

Command Modes

The following table shows the modes in which you can enter the command:

Command Mode
Firewall Mode
Security Context
Routed
Transparent
Single
Multiple
Context
System

Tcp-map configuration


Command History

Release
Modification

7.0(1)

This command was introduced.

7.2(4)/8.0(4)

The timeout keyword was added.


Usage Guidelines

To enable TCP normalization, use the Modular Policy Framework:

1. tcp-map—Identifies the TCP normalization actions.

a. queue-limit—In tcp-map configuration mode, you can enter the queue-limit command and many others.

2. class-map—Identify the traffic on which you want to perform TCP normalization.

3. policy-map—Identify the actions associated with each class map.

a. class—Identify the class map on which you want to perform actions.

b. set connection advanced-options—Identify the tcp-map you created.

4. service-policy—Assigns the policy map to an interface or globally.

If you do not enable TCP normalization, or if the queue-limit command is set to the default of 0, which means it is disabled, then the default system queue limit is used depending on the type of traffic:

Connections for application inspection (the inspect command), IPS (the ips command), and TCP check-retransmission (the TCP map check-retransmission command) have a queue limit of 3 packets. If the security appliance receives a TCP packet with a different window size, then the queue limit is dynamically changed to match the advertized setting.

For other TCP connections, out-of-order packets are passed through untouched.

If you set the queue-limit command to be 1 or above, then the number of out-of-order packets allowed for all TCP traffic matches this setting. For application inspection, IPS, and TCP check-retransmission traffic, any advertized settings are ignored. For other TCP traffic, out-of-order packets are now buffered and put in order instead of passed through untouched.

Examples

The following example sets the queue limit to 8 packets and the buffer timeout to 6 seconds for all Telnet connections:

hostname(config)# tcp-map tmap
hostname(config-tcp-map)# queue-limit 8 timeout 6
hostname(config)# class-map cmap
hostname(config-cmap)# match port tcp eq telnet
hostname(config)# policy-map pmap
hostname(config-pmap)# class cmap
hostname(config-pmap)# set connection advanced-options tmap
hostname(config)# service-policy pmap global
hostname(config)#

Related Commands

Command
Description

class-map

Identifies traffic for a service policy.

policy-map

dentifies actions to apply to traffic in a service policy.

set connection advanced-options

Enables TCP normalization.

service-policy

Applies a service policy to interface(s).

show running-config tcp-map

Shows the TCP map configuration.

tcp-map

Creates a TCP map and allows access to tcp-map configuration mode.


quit

To exit the current configuration mode, or to logout from privileged or user EXEC modes, use the quit command.

quit

Syntax Description

This command has no arguments or keywords.

Defaults

No default behavior or values.

Command Modes

The following table shows the modes in which you can enter the command:

Command Mode
Firewall Mode
Security Context
Routed
Transparent
Single
Multiple
Context
System

User EXEC


Command History

Release
Modification

Preexisting

This command was preexisting.


Usage Guidelines

You can also use the key sequence Ctrl Z to exit global configuration (and higher) modes. This key sequence does not work with privileged or user EXEC modes.

When you enter the quit command in privileged or user EXEC modes, you log out from the security appliance. Use the disable command to return to user EXEC mode from privileged EXEC mode.

Examples

The following example shows how to use the quit command to exit global configuration mode, and then logout from the session:

hostname(config)# quit
hostname# quit

Logoff

The following example shows how to use the quit command to exit global configuration mode, and then use the disable command to exit privileged EXEC mode:

hostname(config)# quit
hostname# disable
hostname>

Related Commands

Command
Description

exit

Exits a configuration mode or logs out from privileged or user EXEC modes.


radius-common-pw

To specify a common password to be used for all users who are accessing this RADIUS authorization server through this security appliance, use the radius-common-pw command in AAA-server host mode. To remove this specification, use the no form of this command:

radius-common-pw string

no radius-common-pw

Syntax Description

string

A case-sensitive, alphanumeric keyword of up to 127 characters to be used as a common password for all authorization transactions with this RADIUS server.


Defaults

No default behaviors or values.

Command Modes

The following table shows the modes in which you can enter the command:

Command Mode
Firewall Mode
Security Context
Routed
Transparent
Single
Multiple
Context
System

AAA-server host


Command History

Release
Modification

7.0(1)

Introduced in this release.


Usage Guidelines

This command is valid only for RADIUS authorization servers.

The RADIUS authorization server requires a password and username for each connecting user. The security appliance provides the username automatically. You enter the password here. The RADIUS server administrator must configure the RADIUS server to associate this password with each user authorizing to the server via this security appliance. Be sure to provide this information to your RADIUS server administrator.

If you do not specify a common user password, each user's password is his or her own username. For example, a user with the username "jsmith" would enter "jsmith". If you are using usernames for the common user passwords, as a security precaution do not use this RADIUS server for authorization anywhere else on your network.

13-125


Note This field is essentially a space-filler. The RADIUS server expects and requires it, but does not use it. Users do not need to know it.


Examples

The following example configures a RADIUS AAA server group named "svrgrp1" on host "1.2.3.4", sets the timeout interval to 9 seconds, sets the retry interval to 7 seconds, and configures the RADIUS commnon password as "allauthpw".

hostname(config)# aaa-server svrgrp1 protocol radius
hostname(config-aaa-server-group)# aaa-server svrgrp1 host 1.2.3.4
hostname(config-aaa-server-host)# timeout 9
hostname(config-aaa-server-host)# retry 7
hostname(config-aaa-server-host)# radius-common-pw allauthpw
hostname(config-aaa-server-host)# exit
hostname(config)# 

Related Commands

Command
Description

aaa-server host

Enter AAA server host configuration mode so you can configure AAA server parameters that are host-specific.

clear configure aaa-server

Remove all AAA command statements from the configuration.

show running-config aaa-server

Displays AAA server statistics for all AAA servers, for a particular server group, for a particular server within a particular group, or for a particular protocol


radius-reject-message

To enable the display of a RADIUS reject message on the login screen when authentication is rejected, use the radius-eject-message command from tunnel-group webvpn attributes configuration mode. To remove the command from the configuration, use the no form of the command:

radius-reject-message

no radius-reject-message

Defaults

The default is disabled.

Command Modes

The following table shows the modes in which you can enter the command:

Command Mode
Firewall Mode
Security Context
Routed
Transparent
Single
Multiple
Context
System

Tunnel-group webvpn configuration


Command History

Release
Modification

8.0(2)

This command was introduced.


Usage Guidelines

Enable this command if you want to display to remote users a RADIUS message about an authentication failure.

Examples

The following example enables the display of a RADIUS rejection message for the connection profile named engineering:

hostname(config)# tunnel-group engineering webvpn-attributes
hostname(config-tunnel-webvpn)# radius-reject-message

radius-with-expiry (removed)

To have the security appliance use MS-CHAPv2 to negotiate a password update with the user during authentication, use the radius-with-expiry command in tunnel-group ipsec-attributes configuration mode. The security appliance ignores this command if RADIUS authentication has not been configured. To return to the default value, use the no form of this command.

radius-with-expiry

no radius-with-expiry

Syntax Description

This command has no arguments or keywords.

Defaults

The default setting for this command is disabled.

Command Modes

The following table shows the modes in which you can enter the command:

Command Mode
Firewall Mode
Security Context
Routed
Transparent
Single
Multiple
Context
System

Tunnel-group ipsec-attributes configuration


Command History

Release
Modification

7.0(1)

This command was introduced.

7.1(1)

This command was deprecated. The password-management command replaces it. The no form of the radius-with-expiry command is no longer supported.

8.0(2)

This command was deprecated.


Usage Guidelines

You can apply this attribute only to IPSec remote-access tunnel-group type.

Examples

The following example entered in config-ipsec configuration mode, configures Radius with Expiry for the remote-access tunnel group named remotegrp:

hostname(config)# tunnel-group remotegrp type ipsec_ra
hostname(config)# tunnel-group remotegrp ipsec-attributes
hostname(config-tunnel-ipsec)# radius-with-expiry

Related Commands

Command
Description

clear configure tunnel-group

Clears all configured tunnel groups.

password-management

Enables password management. This command, in the tunnel-group general-attributes configuration mode, replaces the radius-with-expiry command.

show running-config tunnel-group

Shows the indicated certificate map entry.

tunnel-group ipsec-attributes

Configures the tunnel-group ipsec-attributes for this group.


rate-limit

When using the Modular Policy Framework, limit the rate of messages for packets that match a match command or class map by using the rate-limit command in match or class configuration mode. This rate limit action is available in an inspection policy map (the policy-map type inspect command) for application traffic; however, not all applications allow this action. To disable this action, use the no form of this command.

rate-limit messages_per_second

no rate-limit messages_per_second

Syntax Description

messages_per_second

Limits the messages per second.


Defaults

No default behaviors or values.

Command Modes

The following table shows the modes in which you can enter the command:

Command Mode
Firewall Mode
Security Context
Routed
Transparent
Single
Multiple
Context
System

Match and class configuration


Command History

Release
Modification

7.2(1)

This command was introduced.


Usage Guidelines

An inspection policy map consists of one or more match and class commands. The exact commands available for an inspection policy map depends on the application. After you enter the match or class command to identify application traffic (the class command refers to an existing class-map type inspect command that in turn includes match commands), you can enter the rate-limit command to limit the rate of messages.

When you enable application inspection using the inspect command in a Layer 3/4 policy map (the policy-map command), you can enable the inspection policy map that contains this action, for example, enter the inspect dns dns_policy_map command where dns_policy_map is the name of the inspection policy map.

Examples

The following example limits the invite requests to 100 messages per second:

hostname(config-cmap)# policy-map type inspect sip sip-map1
hostname(config-pmap-c)# match request-method invite
hostname(config-pmap-c)# rate-limit 100

Related Commands

Commands
Description

class

Identifies a class map name in the policy map.

class-map type inspect

Creates an inspection class map to match traffic specific to an application.

policy-map

Creates a Layer 3/4 policy map.

policy-map type inspect

Defines special actions for application inspection.

show running-config policy-map

Display all current policy map configurations.


reactivation-mode

To specify the method by which failed servers in a group are reactivated, use the reactivation-mode command in aaa-server protocol mode. To remove this specification, use the no form of this command:

reactivation-mode {depletion [deadtime minutes] | timed}

no reactivation-mode [depletion [deadtime minutes] | timed]

Syntax Description

deadtime minutes

(Optional) Specifies the amount of time in minutes, between 0 and 1440, that elapses between the disabling of the last server in the group and the subsequent re-enabling of all servers. The default is 10 minutes.

depletion

Reactivates failed servers only after all of the servers in the group are inactive.

timed

Reactivates failed servers after 30 seconds of down time.


Defaults

The default reactivation mode is depletion, and the default deadtime value is 10.

Command Modes

The following table shows the modes in which you can enter the command:

Command Mode
Firewall Mode
Security Context
Routed
Transparent
Single
Multiple
Context
System

Aaa-server protcocol configuration


Command History

Release
Modification

7.0(1)

This command was introduced.


Usage Guidelines

Each server group has an attribute that specifies the reactivation policy for its servers.

In depletion mode, when a server is deactivated, it remains inactive until all other servers in the group are inactive. When and if this occurs, all servers in the group are reactivated. This approach minimizes the occurrence of connection delays due to failed servers. When depletion mode is in use, you can also specify the deadtime parameter. The deadtime parameter specifies the amount of time (in minutes) that will elapse between the disabling of the last server in the group and the subsequent re-enabling of all servers. This parameter is meaningful only when the server group is being used in conjunction with the local fallback feature.

In timed mode, failed servers are reactivated after 30 seconds of down time. This is useful when customers use the first server in a server list as the primary server and prefer that it is online whenever possible. This policy breaks down in the case of UDP servers. Since a connection to a UDP server will not fail, even if the server is not present, UDP servers are put back on line blindly. This could lead to slowed connection times or connection failures if a server list contains multiple servers that are not reachable.

Accounting server groups that have simultaneous accounting enabled are forced to use the timed mode. This implies that all servers in a given list are equivalent.

Examples

The following example configures aTACACS+ AAA server named "srvgrp1" to use the depletion reactivation mode, with a deadtime of 15 minutes:

hostname(config)# aaa-server svrgrp1 protocol tacacs+
hostname(config-aaa-sersver-group)# reactivation-mode depletion deadtime 15
hostname(config-aaa-server)# exit
hostname(config)# 

The following example configures aTACACS+ AAA server named "srvgrp1" to use timed reactivation mode:

hostname(config)# aaa-server svrgrp2 protocol tacacs+
hostname(config-aaa-server)# reactivation-mode timed
hostname(config-aaa-server)#

Related Commands

accounting-mode

Indicates whether accounting messages are sent to a single server or sent to all servers in the group.

aaa-server protocol

Enters AAA server group configuration mode so you can configure AAA server parameters that are group-specific and common to all hosts in the group.

max-failed-attempts

Specifies the number of failures that will be tolerated for any given server in the server group before that server is deactivated.

clear configure aaa-server

Removes all AAA server configuration.

show running-config aaa-server

Displays AAA server statistics for all AAA servers, for a particular server group, for a particular server within a particular group, or for a particular protocol


record-entry

To specify the trustpoints to be used for the creation of the CTL file, use the record-entry command in ctl-file configuration mode. To remove a record entry from a CTL, use the no form of this command.

record-entry [ capf | cucm | cucm-tftp | tftp ] trustpoint trustpoint address ip_address [domain-name domain_name]

no record-entry [ capf | cucm | cucm-tftp | tftp ] trustpoint trust_point address ip_address [domain-name domain_name]

Syntax Description 

capf

Specifies the role of this trustpoint to be CAPF. Only one CAPF trustpoint can be configured.

cucm

Specifies the role of this trustpoint to be CCM. Multiple CCM trustpoints can be configured.

cucm-tftp

Specifies the role of this trustpoint to be CCM+TFTP. Multiple CCM+TFTP trustpoints can be configured.

domain-name domain_name

(Optional) Specifies the domain name of the trustpoint used to create the DNS field for the trustpoint. This is appended to the Common Name field of the Subject DN to create the DNS Name. The domain name should be configured when the FQDN is not configured for the trustpoint.

address ip_address

Specifies the IP address of the trustpoint.

tftp

Specifies the role of this trustpoint to be TFTP. Multiple TFTP trustpoints can be configured.

trustpoint trust_point

Sets the name of the trustpoint installed.


Defaults

No default behavior or values.

Command Modes

The following table shows the modes in which you can enter the command:

Command Mode
Firewall Mode
Security Context
Routed
Transparent
Single
Multiple
Context
System

CTL-file configuration


Command History 

Release
Modification

8.0(4)

The command was introduced.


Usage Guidelines

Only one domain-name can be specified. If the CTL file does not exist, manually export this certificate from CUCM to the security appliance.

Use this command only when you have not configured a CTL file for the Phone Proxy. Do not use this command when you have already configured a CTL file.

The IP address you specify in the ip_address argument must be the global address or address as seen by the IP phones because it will be the IP address used for the CTL record for the trustpoint.

Add additional record-entry configurations for each entity that is required in the CTL file.

Examples

The following example shows the use of the record-entry command to specify the trustpoints to be used for the creation of the CTL file:

hostname(config-ctl-file)# record-entry cucm-tftp trustpoint cucm1 address 192.168.1.2 

Related Commands 

Command
Description

ctl-file (global)

Specifies the CTL file to create for Phone Proxy configuration or the CTL file to parse from Flash memory.

ctl-file (phone-proxy)

Specifies the CTL file to use for Phone Proxy configuration.

phone-proxy

Configures the Phone Proxy instance.


redirect-fqdn

To enable or disable redirection using a fully-qualified domain name in vpn load-balancing mode, use the redirect-fqdn enable command in global configuration mode.

redirect-fqdn {enable | disable}

no redirect-fqdn {enable | disable}


Note To use VPN load balancing, you must have an ASA Model 5510 with a Plus license or an ASA Model 5520 or higher. VPN load balancing also requires an active 3DES/AES license. The security appliance checks for the existence of this crypto license before enabling load balancing. If it does not detect an active 3DES or AES license, the security appliance prevents the enabling of load balancing and also prevents internal configuration of 3DES by the load balancing system unless the license permits this usage.


Syntax Description

disable

Disables redirection with fully-qualified domain names.

enable

Enables redirection with fully-qualified domain names.


Defaults

This behavior is disabled by default.

Command Modes

The following table shows the modes in which you can enter the command:

Command Mode
Firewall Mode
Security Context
Routed
Transparent
Single
Multiple
Context
System

Vpn load-balancing mode


Command History

Release
Modification

8.0(2)

This command was introduced.


Usage Guidelines

By default, the ASA sends only IP addresses in load-balancing redirection to a client. If certificates are in use that are based on DNS names, the certificates will be invalid when redirected to a secondary device.

As a VPN cluster master, this security appliance can send a fully qualified domain name (FQDN), using reverse DNS lookup, of a cluster device (another security appliance in the cluster), instead of its outside IP address, when redirecting VPN client connections to that cluster device.

All of the outside and inside network interfaces on the load-balancing devices in a cluster must be on the same IP network.

To do WebVPN load Balancing using FQDNs rather than IP addresses, you must do the following configuration steps:


Step 1 Enable the use of FQDNs for Load Balancing with the redirect-fqdn enable command.

Step 2 Add an entry for each of your ASA outside interfaces into your DNS server, if such entries are not already present. Each ASA outside IP address should have a DNS entry associated with it for lookups. These DNS entries must also be enabled for Reverse Lookup.

Step 3 Enable DNS lookups on your ASA with the command - "dns domain-lookup inside" (or whichever interface has a route to your DNS server).

Step 4 Define your DNS server IP address on the ASA; for example: dns name-server 10.2.3.4 (IP address of your DNS server)


Examples

The following is an example of the redirect-fqdn command that disables redirection:

hostname(config)# vpn load-balancing
hostname(config-load-balancing)# redirect-fqdn disable
hostname(config-load-balancing)#

The following is an example of a VPN load-balancing command sequence that includes an interface command that enables redirection for a fully-qualified domain name, specifies the public interface of the cluster as "test" and the private interface of the cluster as "foo":

hostname(config)# interface GigabitEthernet 0/1
hostname(config-if)# ip address 209.165.202.159 255.255.255.0
hostname(config)# nameif test
hostname(config)# interface GigabitEthernet 0/2
hostname(config-if)# ip address 209.165.201.30 255.255.255.0
hostname(config)# nameif foo
hostname(config)# vpn load-balancing
hostname(config-load-balancing)# nat 192.168.10.10
hostname(config-load-balancing)# priority 9
hostname(config-load-balancing)# interface lbpublic test
hostname(config-load-balancing)# interface lbprivate foo
hostname(config-load-balancing)# cluster ip address 209.165.202.224
hostname(config-load-balancing)# cluster key 123456789
hostname(config-load-balancing)# cluster encryption
hostname(config-load-balancing)# cluster port 9023
hostname(config-load-balancing)# redirect-fqdn enable
hostname(config-load-balancing)# participate

Related Commands

Command
Description

clear configure vpn load-balancing

Removes the load-balancing runtime configuration and disables load balancing.

show running-config vpn load-balancing

Displays the the current VPN load-balancing virtual cluster configuration.

show vpn load-balancing

Displays VPN load-balancing runtime statistics.

vpn load-balancing

Enters vpn load-balancing mode.


redistribute (EIGRP)

To redistribute routes from one routing domain into the EIGRP routing process, use the redistribute command in router configuration mode. To remove the redistribution, use the no form of this command.

redistribute {{ospf pid [match {internal | external [1 | 2] | nssa-external [1 | 2]}]} | rip | static | connected} [metric bandwidth delay reliability load mtu] [route-map map_name]

no redistribute {{ospf pid [match {internal | external [1 | 2] | nssa-external [1 | 2]}]} | rip | static | connected} [metric bandwidth delay reliability load mtu] [route-map map_name]

Syntax Description

bandwidth

EIGRP bandwidth metric in Kilobits per second. Valid values are from 1 to 4294967295.

connected

Specifies redistributing a network connected to an interface into the EIGRP routing process.

delay

EIGRP delay metric, in 10 microsecond units. Valid values are from 0 to 4294967295.

external type

Specifies the OSPF metric routes that are external to a specified autonomous system; valid values are 1 or 2.

internal type

Specifies OSPF metric routes that are internal to a specified autonomous system.

load

EIGRP effective bandwidth (loading) metric. Valid values are from 1 to 255, where 255 indicates 100% loaded.

match

(Optional) Specifies the conditions for redistributing routes from OSPF into EIGRP.

metric

(Optional) Specifies the values for the EIGRP metrics of routes redistributed into the EIGRP routing process.

mtu

The MTU of the path. Valid values are from 1 to 65535.

nssa-external type

Specifies the OSPF metric type for routes that are external to an NSSA; valid values are 1 or 2.

ospf pid

Used to redistribute an OSPF routing process into the EIGRP routing process. The pid specifies the internally used identification parameter for an OSPF routing process; valid values are from 1 to 65535.

reliability

EIGRP reliability metric. Valid values are from 0 to 255, where 255 indicates 100% reliability.

rip

Specifies redistributing a network from the RIP routing process into the EIGRP routing process.

route-map map_name

(Optional) Name of the route map used to filter the imported routes from the source routing protocol to the EIGRP routing process. If not specified, all routes are redistributed.

static

Used to redistribute a static route into the EIGRP routing process.


Defaults

The following are the command defaults:

match: Internal, external 1, external 2

Command Modes

The following table shows the modes in which you can enter the command:

Command Mode
Firewall Mode
Security Context
Routed
Transparent
Single
Multiple
Context
System

Router configuration