This command specifies the Python script for the specified RADIUS packet type in the specified direction.
Multiple radius command configurations are allowed in the same Python policy.
The no form of this command reverts to the default.
All
This command enables the debug router RADIUS context.
All
This command creates the context to configure RADIUS authentication on the VPRN.
Implement redundancy by configuring multiple server addresses for each VPRN.
The no form of this command removes the RADIUS configuration.
All
This command enables dynamic radius based management of transit aa-subs for the transit-ip-policy. This is mutually exclusive to other types management of transit subs for a given transit-ip-policy.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures RADIUS for Lawful Intercept.
All
This command enables debugging for RADIUS connections.
The no form of the command disables the debug output.
All
This command creates the context to configure RADIUS authentication on the router.
Implement redundancy by configuring multiple server addresses for each router.
The no form of this command removes the RADIUS configuration.
All
Commands in this context configure RADIUS accounting subscriber profile parameters.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the RADIUS accounting policy.
The no form of this command reverts to the default value.
no radius-accounting-policy
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command specifies a subscriber RADIUS based accounting policy.
The no form of this command removes the policy name from the configuration.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the RADIUS accounting policy to use for each MDA in this ISA group.
The no form of this command removes the accounting policy from the configuration.
7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command specifies an existing subscriber RADIUS based accounting policy to use for AA. RADIUS Accounting policies are configured in the config>app-assure>radius-accounting-policy context.
no radius-accounting-policy
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command specifies an existing subscriber RADIUS-based accounting policy to use for AA. RADIUS accounting policies are configured in the config>app-assure>radius-accounting-policy context.
no radius-accounting-policy
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command specifies an existing RADIUS accounting policy to use to collect accounting statistics on this subscriber profile by RADIUS. This command is used independently of the collect-stats command.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command specifies the RADIUS accounting policy to use for each MDA in this ISA group.
The no form of the command removes the policy ID from the configuration.
no radius-accounting-policy
Source IP addresses that are assigned to BB-ISA cards.
Parameters related to RADIUS server itself.
List of RADIUS attributes that are included in accounting messages.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
Commands in this context configure RADIUS accounting server attributes under a given session authentication policy.
This command creates the context for defining RADIUS accounting server attributes under a given session authentication policy.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command specifies the RADIUS attribute filter of command debug router radius.
address | <ipv4-address> | <ipv6-address> | <ipv6-prefix/prefix-length> | |
ipv4-address | a.b.c.d | |
ipv6-address | x:x:x:x:x:x:x:x (eight 16-bit pieces) | |
ipv6-prefix | x:x:x:x:x:x:x:x (eight 16-bit pieces) | |
x:x:x:x:x:x:d.d.d.d | ||
x - [0 to FFFF]H | ||
d - [0 to 255]D | ||
ipv6-prefix-length [0 to 128] | ||
hex | [0x0 to 0xFFFFFFFF (up to 506 hex nibbles)] | |
integer | [0 to 4294967295] | |
string | ascii-string (up to 253 characters) |
All
This command configures the RADIUS authentication policy with which the GTP connection is authenticated.
The no form of this command removes the authentication policy. Only new session setups are affected.
no radius-auth-policy
7750 SR, 7750 SR-e, 7750 SR-s, VSR
Commands in this context configure parameters related to RADIUS authentication performed for the BRG.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command specifies the policy to be used for the IKEv2 remote-access tunnels terminated on the IPsec GW. The radius-authentication-policy is defined under config>ipsec context.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command specifies the RADIUS authentication policy associated with this IPsec gateway.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
Commands in this context define RADIUS authentication server attributes under a given session authentication policy.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the system-wide UDP port number that RADIUS is listening on for CoA and Disconnect messages.
The no form of this command reverts to the default.
radius-coa-port 3799
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command references the RADIUS policy to be used for 802.1x authentication. An 802.1x RADIUS policy must be configured (config>system>security>dot1x) before it can be associated to a port. If the RADIUS policy-id does not exist, an error is returned. Only one 802.1x RADIUS policy can be associated with a port at a time.
The no form of this command removes the RADIUS policy association.
no radius-plcy
All
This command creates the context to configure RADIUS server parameters for 802.1x network access control on the router.
![]() | Note: The RADIUS server configured under the config>system>security>dot1x>radius-plcy context authenticates clients who get access to the data plane of the router as opposed to the RADIUS server configured under the config>system>radius context which authenticates CLI login users who get access to the management plane of the router. |
The no form of this command removes the RADIUS server configuration for 802.1x.
All
This command context to configure RADIUS proxy parameters.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command specifies the RADIUS-proxy server to allow subscribers created via data-triggered authentication to create an entry. This RADIUS proxy cache entry allows efficient handling of UE mobility.
router-name | Base |
service-id | 1 to 2147483647 |
7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command enables BRG processing on the specified RADIUS proxy server. Whenever an Access-Accept message is received with the attribute Alc-BRG-Id present, this will trigger the creation of a BRG. The BRG will use the brg-profile specified in the Access-Accept message or fall back to this BRG profile. When the specified radius-proxy-server has a cache enabled, no cache entries will be created for a transaction identified as BRG. A RADIUS proxy server can only be listed in one BRG profile.
This command can be executed multiple times.
The no form of this command removes BRG processing for the specified radius-proxy server.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures a RADIUS script policy.
The no form of this command removes the script policy from the configuration.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
Commands in this context configure the RADIUS server under router or VPRN service.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command references an existing radius-server-policy (available under the config>aaa context) for use in subscriber management authentication and accounting.
When configured in an authentication-policy, following CLI commands are ignored in the policy to avoid conflicts:
When configured in a radius-accounting-policy, following CLI commands are ignored in the policy to avoid conflicts:
The no form of this command removes the radius-server-policy reference from the configuration.
no radius-server-policy
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command creates a radius-server-policy.
A RADIUS server policy can be used in
The no form of this command removes the policy name from the configuration.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command references an existing radius-server-policy (available under the config>aaa context) for use in subscriber management authentication and accounting.
When configured in an authentication-policy, following CLI commands are ignored in the policy to avoid conflicts:
When configured in a radius-accounting-policy, following CLI commands are ignored in the policy to avoid conflicts:
The no form of this command removes the radius-server-policy reference from the configuration
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command references an existing radius-server-policy (available under the config>aaa context). The server (or servers) referenced by the policy is used as the targets for the access-request message.
The no form of this command removes the policy name from the route-downloader configuration.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command is used if the BRG needs to be authenticated to the controller/PCMP by the vRGW. This is required if the BRG does not perform RADIUS authentication via the proxy server. The vRGW will originate a valid Access Request using the BRG ID as the username.
The no form of this command removes the radius-server-policy from the configuration. Setup of an unauthenticated BRG will now fail.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command references an existing radius-server-policy (available under the config>aaa context) for use in subscriber management authentication and accounting.
When configured in an authentication-policy, following CLI commands are ignored in the policy to avoid conflicts:
When configured in a radius-accounting-policy, following CLI commands are ignored in the policy to avoid conflicts:
The no form of this command removes the radius-server-policy reference from the configuration.
no radius-server-policy
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command allows the vRGW to authenticate on the BRG's behalf. This is required if the BRG does not perform authentication itself using the radius proxy. The vRGW originates a valid Access Request using the BRG ID as a username.
The no form of this command removes the RADIUS server policy from the configuration. Setting up of an unauthenticated BRG will now fail.
no radius-server-policy
This command configures the RADIUS policy with IPv4/IPv6 in base routing and VPRN. The current RADIUS policy can be found under the configure>aaa>radius-server-policy context.
The RADIUS servers for the policy are configured under configure>router>radius-server or configure>service>vprn>radius-server context.
The RADIUS policy is assigned under dot1x using the radius-server-policy command. When the RADIUS policy is configured, both authorization and accounting are performed via the same server.
The no form of this command allows authorization and accounting via different servers.
no radius-server-policy
The policy is configured under configure>aaa>radius-server-policy. When the policy name is configured, both authorization and accounting are done via this server.
The policy is configured under configure>aaa>radius-server-policy. The policy name authorization is used if the user needs a different server for authorization.
The policy is configured under configure>aaa>radius-server-policy. The policy name accounting is used if the user needs a different server for accounting.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command specifies how to interpret the session-timeout coming from a RADIUS VSA in an Access-Accept or CoA message.
The value of this command can only be changed on wlan-gw group interfaces.
The no form of this command to resets the default behavior.
radius-session-timeout absolute (backward compatible on wlan-gw group interfaces)
7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command includes the RADIUS user name AVP in the Diameter Gy messages.
The no form of this command returns the command to the default setting.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command enables the inclusion of the RAI AVP as signaled in the incoming GTP setup message.
The no form of this command disables the inclusion of the AVP.
7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures a range of encapsulation values.
Dot1Q | start-tag-end-tag |
start-tag | 0 to 4094 |
end-tag | 0 to 4094 |
QinQ | qtag1.start-qtag2-qtag1.end-qtag2-start-qtag1.*-end-qtag1.* |
qtag1 | 1 to 4094 |
start-qtag1 | 1 to 4094 |
en-qtag1 | 1 to 4094 |
start-qtag2 | 0 to 4094 |
end-qtag2 | 0 to 4094 |
All
This command specifies a range of VC IDs for manually configured spoke SDPs to be synchronized with the multi-chassis peer and a synchronization tag to be used while synchronizing each range with the multi-chassis peer. The range command and the configuration of a synchronization tag on the parent sdp command are mutually exclusive.
To synchronize a single spoke SDP, the start-vc-id should be the same as the end-vc-id. If the configured end-vc-id is lower than the start-vc-id, the range command fails.
The synchronization tag can be changed by entering the same command with a different synchronization tag. Changing the synchronization tag removes all states relating to the previous synchronization tag for the SDP and a new synchronization tag state is created.
Multiple range commands can be configured, however, overlapping ranges for the same SDP (sdp-id) are not permitted.
The synchronization of PIM snooping is only supported for manually configured spoke SDPs but is not supported for spoke SDPs configured within an endpoint. See PIM Snooping for IPv4 Synchronization for service support.
The synchronization of the PIM snooping state is not supported on any of the following when used with the configured sdp-id:
Non-existent spoke SDPs may be specified. If these spoke SDPs are created at a later time, then all states on the spoke SDPs are synchronized according to the synchronization tag and the synchronization protocols enabled. The sync-tag can be changed by entering the same command with a different sync-tag value. If the synchronization tag is changed, then all states for the previous sync-tag are removed for the SDP configured in the command and the state is then built for the new synchronization tag.
All
This command configures a Layer 2 MC-Ring path-b or path-excl VLAN range.
By default, all customer VLANs participating in an L2 MC-Ring are on path-a. For load balancing purposes, a range of customer VLANs can be configured to use path-b which is set up in the opposite direction than path-a.The range of VLANs that are not participating in L2 MC-Ring are configured using the path-excl command.
All
This command configures a range of VLANs on an access port that are to be managed by an existing management VPLS.
This command is only valid when the VPLS in which it is entered was created as a management VPLS, and when the SAP in which it was entered was created on an Ethernet port with encapsulation type of dot1q or qinq, or on a SONET/SDH port with encapsulation type of bcp-dot1q.
To modify the range of VLANs, first the new range should be entered and afterwards the old range removed.
The no form of this command removes the VLAN range from this configuration.
All
This command creates a VLAN range or enters the context of the specified VLAN ranges for configuration applicable to that range of VLANs.
7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command specifies an ISID or a Range of ISIDs in a B-VPLS. One range is allowed per entry.
no range
All
This command identifies a set of ISIDs for I-VPLS services that are external to SPBM. These ISIDs are advertised as supported locally on this node unless an altered by an isid-policy. This allows communication from I-VPLS services external to SPBM through this node. The SAP may be a regular SAP or MC-LAG SAP. The spoke-SDP may be an active/standby spoke. When used with MC-LAG or active/stand-by PWs the conditional static-mac must be configured. ISIDs declared this way become part of the ISID multicast and consume MFIBs. Multiple SPBM static-isid ranges are allowed under a SAP/spoke-SDP.
The static-isids are associated with a remote B-MAC that must be declared as a static-mac for unicast traffic. ISIDs are advertised as if they were attached to the local B-MAC. Only remote I-VPLS ISIDs need to be defined. In the MFIB, the group MACs are then associated with the active SAP or spoke-SDP. An ISID policy may be defined to suppress the advertisement of an ISID if the ISID is primary used for unicast services. The following rules govern the usage of multiple ISID statements:
The no form of this command removes all the previous statements under one interface
no isid value | from value to higher-value - removes a specific ISID value or range. Must match a previously used positive statement: for example if the command “isid 316 to 400” was used using “no isid 316 to 350” will not work but “no isid 316 to 400 will be successful.
All
This command defines the range of ids for dynamic policers that are created using a Gx interface.
The no form of this command disables creation of dynamic policers using a Gx interface, resulting in a Gx rule instantiation failure, which is the default.
no range
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the rapid timer value to be used for protection switching coordination (PSC) packets for MPLS-TP linear protection (RFC 6378).
rapid-psc-timer 10
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures the value of the Rapid Retransmission Interval. It is used in the re-transmission mechanism to handle unacknowledged message_id objects and is based on an exponential back-off timer.
Re-transmission interval of a RSVP message with the same message_id = 2 * rapid-retransmit-time interval of time.
The node stops re-transmission of unacknowledged RSVP messages:
The Rapid Retransmission Interval must be smaller than the regular refresh interval configured in config>router>gmpls>refresh-time.
The no form of this command resets the configuration to the default value.
rapid-retransmit-time 5
7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command defines the value of the Rapid Retransmission Interval. It is used in the re-transmission mechanism to handle unacknowledged message_id objects and is based on an exponential back-off timer.
Re-transmission interval of a RSVP message with the same message_id = 2 * rapid-retransmit-time interval of time.
The node stops re-transmission of unacknowledged RSVP messages:
The Rapid Retransmission Interval must be smaller than the regular refresh interval configured in config>router>rsvp>refresh-time.
The no form of this command reverts to the default value.
rapid-retransmit-time 5
All
This command configures the value of the Rapid Retry Limit. This is used in the retransmission mechanism based on an exponential backoff timer in order to handle unacknowledged message_id objects. The RSVP message with the same message_id is retransmitted every 2 * rapid-retransmit-time interval of time. The node will stop retransmission of unacknowledged RSVP messages whenever the updated backoff interval exceeds the value of the regular refresh interval, or the number of retransmissions reaches the value of the rapid-retry-limit parameter, whichever comes first.
The no form of this command resets the configuration to the default value.
rapid-retry-limit 3
7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command is used to define the value of the Rapid Retry Limit. This is used in the retransmission mechanism based on an exponential backoff timer in order to handle unacknowledged message_id objects. The RSVP message with the same message_id is retransmitted every 2 * rapid-retransmit-time interval of time. The node will stop retransmission of unacknowledged RSVP messages whenever the updated backoff interval exceeds the value of the regular refresh interval or the number of retransmissions reaches the value of the rapid-retry-limit parameter, whichever comes first.
The no form of this command reverts to the default value.
rapid-retry-limit 3
All
This command enables and disables BGP rapid update for specified address families.
If rapid update is enabled for a set of address families, and a route belonging to a family in that set is received by the router and chosen for propagation to certain BGP peers, the remaining time on the MRAI timer of these peers is ignored and the route is transmitted immediately, along with all other pending routes for these peers (including routes of address families not specified in the rapid-update command).
The rapid-update command overrides the peer-level min-route-advertisement (config>router>bgp min-route-advertisement, config>router>bgp>group min-route-advertisement, config>router>bgp>group>neighbor min-route-advertisement) time and applies the minimum setting (0 seconds) to routes belonging to specified address families; routes of other address families continue to be advertised according to the session-level MRAI setting.
The no form of this command disables rapid update for all address families.
no rapid-update
All
This command disables the delay (Minimum Route Advertisement) on sending BGP withdrawals. Normal route withdrawals may be delayed up to the minimum route advertisement to allow for efficient packing of BGP updates.
The no form of this command removes this command from the configuration and returns withdrawal processing to the normal behavior.
no rapid-withdrawal
All
This command disables the delay (Minimum Route Advertisement) on sending BGP withdrawals. Normal route withdrawals may be delayed up to the minimum route advertisement to allow for efficient packing of BGP updates.
The no form of this command removes this command from the configuration and returns withdrawal processing to the normal behavior.
no rapid-withdrawal
All
This command configures the default Radio Access Type (RAT) signaled during GTP setup. RAT is the underlying physical connection method for a radio-based communication network. This can be overridden by RADIUS.
The no form of this command reverts to the default value.
rat-type wlan
7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command enables the inclusion of the Radio Access Type in AAA protocols as signaled in the incoming GTP setup message.
The no form of this command disables the inclusion of the attribute.
7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command includes the RAT type.
The no form of this command reverts to the default.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures the rate (PIR) override for the WRR group.
The no form of this command removes the rate from the configuration.
7750 SR-7/12/12e
This command defines the administrative Peak Information Rate (PIR) and the administrative Committed Information Rate (CIR) parameters for the queue. The PIR defines the maximum rate that the queue can transmit packets out an egress interface (for SAP egress queues). Defining a PIR does not necessarily guarantee that the queue can transmit at the intended rate. The actual rate sustained by the queue can be limited by oversubscription factors or available egress bandwidth.
The CIR defines the rate at which the system prioritizes the queue over other queues competing for the same bandwidth. In-profile then out-of-profile packets are preferentially queued by the system at egress and at subsequent next hop nodes where the packet can traverse. To be properly handled throughout the network, the packets must be marked accordingly for profiling at each hop.
The CIR can be used by the queue’s parent command’s cir-level and cir-weight parameters to define the amount of bandwidth considered to be committed for the child queue during bandwidth allocation by the parent scheduler.
The rate command can be executed at any time, altering the PIR and CIR rates for all queues created through the association of the SAP egress QoS policy with the queue-id.
The no form of this command returns all queues created with the queue-id by association with the QoS policy to the default PIR and CIR parameters (max, 0).
The actual PIR rate is dependent on the queues adaptation-rule parameters and the actual hardware where the queue is provisioned.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command defines the administrative Peak Information Rate (PIR) and the administrative Committed Information Rate (CIR) parameters for the queue. The PIR defines the maximum rate that the queue can transmit packets through the switch fabric (for SAP ingress queues). Defining a PIR does not necessarily guarantee that the queue can transmit at the intended rate. The actual rate sustained by the queue can be limited by oversubscription factors or available egress bandwidth.
The CIR defines the rate at which the system prioritizes the queue over other queues competing for the same bandwidth. For SAP ingress, the CIR also defines the rate that packets are considered in-profile by the system. In-profile then out-of-profile packets are preferentially queued by the system at egress and at subsequent next hop nodes where the packet can traverse. To be properly handled throughout the network, the packets must be marked accordingly for profiling at each hop.
The CIR can be used by the queue’s parent command’s cir-level and cir-weight parameters to define the amount of bandwidth considered to be committed for the child queue during bandwidth allocation by the parent scheduler.
The rate command can be executed at any time, altering the PIR and CIR rates for all queues created through the association of the SAP ingress or SAP egress QoS policy with the queue-id.
The no form of this command returns all queues created with the queue-id by association with the QoS policy to the default PIR and CIR parameters (max, 0).
Fractional values are not allowed and must be given as a positive integer.
The actual PIR rate is dependent on the queues adaptation-rule parameters and the actual hardware where the queue is provisioned.
Fractional values are not allowed and must be given as a positive integer.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command is used to configure the policer’s metering and optional profiling rates. The metering rate is used by the system to configure the policer’s PIR leaky bucket’s decrement rate while the profiling rate configures the policer’s CIR leaky bucket’s decrement rate. The decrement function empties the bucket while packets applied to the bucket attempt to fill it based on each packets size. If the bucket fills faster than how much is decremented per packet, the bucket’s depth eventually reaches it's exceed (CIR) or violate (PIR) threshold. The cbs, mbs, and high-prio-only commands are used to configure the policer’s PIR and CIR thresholds.
If a packet arrives at the policer while the bucket’s depth is less than the threshold associated with the packet, the packet is considered to be conforming to the bucket’s rate. If the bucket depth is equal to or greater than the threshold, the packet is considered to be in the exception state. For the CIR bucket, the exception state is exceeding the CIR rate while the PIR bucket's exception state is violating the PIR bucket rate. If the packet is violating the PIR, the packet is marked red and is discarded. If the packet is not red, it may be green or yellow based on the conforming or exceeding state from the CIR bucket.
When a packet is red neither the PIR or CIR bucket depths are incremented by the packets size. When the packet is yellow the PIR bucket is incremented by the packet size, but the CIR bucket is not. When the packet is green, both the PIR and CIR buckets are incremented by the packet size. This ensures that conforming packets impact the bucket depth while exceeding or violating packets do not.
The policer’s adaptation-rule command settings are used by the system to convert the specified rates into hardware timers and decrement values for the policer’s buckets.
By default, the policer’s metering rate is max and the profiling rate is 0 kb/s (all packets out-of-profile).
The rate settings defined for the policer in the QoS policy may be overridden on an sla-profile or SAP where the policy is applied.
The no form of this command restores the default metering and profiling rate to a policer.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command defines the enforced aggregate rate for all queues associated with the agg-rate context. A rate must be specified for the agg-rate context to be considered to be active on the context’s object (SAP, subscriber, Vport, and so on).
The no form of this command removes an explicit rate value from the aggregate rate therefore returning it to its default value.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
All
This command overrides specific attributes of the specified queue’s Peak Information Rate (PIR) and the Committed Information Rate (CIR) parameters.
The PIR defines the maximum rate that the queue can transmit packets out an egress interface (for SAP egress queues). Defining a PIR does not necessarily guarantee that the queue can transmit at the intended rate. The actual rate sustained by the queue can be limited by oversubscription factors or available egress bandwidth.
The CIR defines the rate at which the system prioritizes the queue over other queues competing for the same bandwidth. In-profile, then out-of-profile, packets are preferentially queued by the system at egress and at subsequent next hop nodes where the packet can traverse. To be properly handled throughout the network, the packets must be marked accordingly for profiling at each hop.
The CIR can be used by the queue’s parent commands cir-level and cir-weight parameters to define the amount of bandwidth considered to be committed for the child queue during bandwidth allocation by the parent scheduler.
The rate command can be executed at any time, altering the PIR and CIR rates for all queues created through the association of the SAP egress QoS policy with the queue-id.
The no form of this command returns all queues created with the queue-id by association with the QoS policy to the default PIR and CIR parameters (max, 0).
rate max cir 0
Fractional values are not allowed and must be given as a positive integer.
The actual PIR rate is dependent on the queue’s adaptation-rule parameters and the actual hardware where the queue is provisioned.
Fractional values are not allowed and must be given as a positive integer.
All
This command overrides specific attributes of the specified scheduler rate. The rate command defines the maximum bandwidth that the scheduler can offer its policers, child queues or schedulers. The maximum rate is limited to the amount of bandwidth the scheduler can receive from its parent scheduler. If the scheduler has no parent, the maximum rate is assumed to be the amount available to the scheduler. When a parent is associated with the scheduler, the CIR parameter provides the amount of bandwidth to be considered during the parent scheduler’s ‘within CIR’ distribution phase.
The actual operating rate of the scheduler is limited by bandwidth constraints other than its maximum rate. The scheduler’s parent scheduler may not have the available bandwidth to meet the scheduler’s needs or the bandwidth available to the parent scheduler could be allocated to other child schedulers or child queues on the parent based on higher priority. The children of the scheduler may not need the maximum rate available to the scheduler due to insufficient offered load or limits to their own maximum rates.
When a scheduler is defined without specifying a rate, the default rate is max. If the scheduler is a root scheduler (no parent defined), the default maximum rate must be changed to an explicit value. Without this explicit value, the scheduler assumes that an infinite amount of bandwidth is available and allow all child queues and schedulers to operate at their maximum rates.
The no form of this command returns the scheduler's PIR and CIR parameters to the value configured in the applied scheduler policy.
rate max cir sum
To calculate the actual PIR rate, the rate described by the queue’s rate is multiplied by the pir-rate.
The SAP ingress context for PIR is independent of the defined forwarding class (fc) for the queue. The default pir and definable range is identical for each class. The PIR in effect for a queue defines the maximum rate at which the queue is allowed to forward packets in a given second, thus shaping the queue’s output.
The PIR parameter for SAP ingress queues do not have a negate (no) function. To return the queue’s PIR rate to the default value, that value must be specified as the PIR value.
To calculate the actual CIR rate, the rate described by the rate pir pir-rate is multiplied by the cir-rate. If the cir is set to max, then the CIR rate is set to infinity.
The context for CIR is dependent on the defined forwarding class (fc) for the queue. The default CIR and definable range is different for each class. The CIR in effect for a policer or queue defines both its profile (in or out) marking level as well as the relative importance compared to other queues for scheduling purposes during congestion periods.
All
This command specifies at which rate the policer drains packets. The cir value is only supported on dual-bucket-bandwidth policers. If rate max is configured, no actual rate limitations are applied.
The no form of this command reverts to the default.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command defines the enforced aggregate rate for all queues associated with the agg-rate context. A rate must be specified for the agg-rate context to be considered to be active on the context’s object (SAP, subscriber, Vport, and so on).
The no form of this command reverts to the default.
This command configures the policer’s metering and optional profiling rates. The metering rate is used by the system to configure the policer’s PIR leaky bucket’s decrement rate while the profiling rate configures the policer’s CIR leaky bucket’s decrement rate. The decrement function empties the bucket while packets applied to the bucket attempt to fill it based on its packet size. If the bucket fills faster than how much is decremented per packet, the bucket’s depth eventually reaches it's exceeded (CIR) or violate (PIR) threshold. The cbs, mbs, and high-prio-only commands are used to configure the policer’s PIR and CIR thresholds.
If a packet arrives at the policer while the bucket’s depth is less than the threshold associated with the packet, the packet is considered to be conforming to the bucket’s rate. If the bucket depth is equal to or greater than the threshold, the packet is considered to be in the exception state. For the CIR bucket, the exception state is exceeding the CIR rate while the PIR bucket's exception state is violating the PIR bucket rate. If the packet is violating the PIR, the packet is marked red and will be discarded. If the packet is not red, it may be green or yellow based on the conforming or exceeding state from the CIR bucket.
When a packet is red neither the PIR nor the CIR bucket depths are incremented by the packets size. When the packet is yellow the PIR bucket is incremented by the packet size, but the CIR bucket is not. When the packet is green, both the PIR and CIR buckets are incremented by the packet size. This ensures that conforming packets impact the bucket depth while exceeding or violating packets do not.
The policer’s adaptation-rule command settings are used by the system to convert the specified rates into hardware timers and decrement values for the policer’s buckets.
By default, the policer’s metering rate is max and the profiling rate is 0 kb/s (all packets out-of-profile).
The rate settings defined for the policer in the QoS policy may be overridden on an sla-profile or SAP where the policy is applied.
The no form of this command reverts to the default metering and profiling rate of a policer.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, 7950 XRS, VSR
This command defines the enforced aggregate rate for all queues associated with the agg-rate context. A rate must be specified for the agg-rate context to be considered to be active on the context’s object.
The no form of this command removes an explicit rate value from the aggregate rate returning it to its default value.
All
This command defines the enforced aggregate rate for all queues associated with the agg-rate context. A rate must be specified for the agg-rate context to be considered to be active on the context’s object.
The no form of this command removes an explicit rate value from the aggregate rate returning it to its default value.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
All
This command specifies the administrative Peak Information Rate (PIR) and the administrative Committed Information Rate (CIR) parameters for the queue. The PIR defines the maximum rate that the queue can transmit packets out an egress interface (for SAP egress queues). Defining a PIR does not necessarily guarantee that the queue can transmit at the intended rate. The actual rate sustained by the queue can be limited by oversubscription factors or available egress bandwidth.
The CIR defines the rate at which the system prioritizes the queue over other queues competing for the same bandwidth. In-profile then out-of-profile packets are preferentially queued by the system at egress and at subsequent next hop nodes where the packet can traverse. To be properly handled throughout the network, the packets must be marked accordingly for profiling at each hop.
The CIR can be used by the queue’s parent commands cir-level and cir-weight parameters to define the amount of bandwidth considered to be committed for the child queue during bandwidth allocation by the parent scheduler.
The rate command can be executed at any time, altering the PIR and CIR rates for all queues created through the association of the SAP egress QoS policy with the queue-id.
This command is ignored for egress HSQ queue group queues which are attached to an HS WRR group within an associated HS attachment policy. In this case, the configuration of the rate is performed under the hs-wrr-group within the egress queue group template.
The no form of this command returns all queues created with the queue-id by association with the QoS policy to the default PIR and CIR parameters (max, 0).
rate max cir 0 - The max default specifies the amount of bandwidth in kilobits per second (thousand bits per second). The max value is mutually exclusive to the pir-rate value.
The actual PIR rate is dependent on the queue’s adaptation-rule parameters and the actual hardware where the queue is provisioned.
All
This command can be used to override specific attributes of the specified scheduler rate. The rate command defines the maximum bandwidth that the scheduler can offer its child queues or schedulers. The maximum rate is limited to the amount of bandwidth the scheduler can receive from its parent scheduler. If the scheduler has no parent, the maximum rate is assumed to be the amount available to the scheduler. When a parent is associated with the scheduler, the CIR parameter provides the amount of bandwidth to be considered during the parent scheduler's 'within CIR' distribution phase.
The actual operating rate of the scheduler is limited by bandwidth constraints other than its maximum rate. The scheduler's parent scheduler may not have the available bandwidth to meet the scheduler's needs or the bandwidth available to the parent scheduler could be allocated to other child schedulers or child queues on the parent based on higher priority. The children of the scheduler may not need the maximum rate available to the scheduler due to insufficient offered load or limits to their own maximum rates.
When a scheduler is defined without specifying a rate, the default rate is max. If the scheduler is a root scheduler (no parent defined), the default maximum rate must be changed to an explicit value. Without this explicit value, the scheduler will assume that an infinite amount of bandwidth is available and allow all child policers, queues, and schedulers to operate at their maximum rates.
The no form of this command returns the scheduler's PIR and CIR parameters to the value configured in the applied scheduler policy.
All
This command specifies the rate allowed for the HS secondary shaper's aggregate rate and per-class rates.
The no form of this command reverts to the default.
rate max
7750 SR-7/12/12e
This command defines the enforced aggregate rate for all queues associated with the agg-rate context. A rate must be specified for the agg-rate context to be considered to be active on the context’s object (SAP, subscriber, Vport, and so on).
The no form of this command removes an explicit rate value from the aggregate rate returning it to its default value.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
7450 ESS, 7750 SR-7/12/12e, 7750 SR-a, 7750 SR-e, 7950 XRS
All
This command within the SAP ingress and egress policer-overrides contexts is used to override the sap-ingress and sap-egress QoS policy configured rate parameters for the specified policer-id.
The no rate command is used to restore the policy defined metering and profiling rate to a policer.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, 7950 XRS
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, 7950 XRS, VSR
7450 ESS, 7750 SR-7/12/12e, 7750 SR-e, 7950 XRS
This command overrides the scheduling rate applied to the HS WRR group in kb/s. A rate can be specified in kb/s or the keyword max can be used to remove the bandwidth limitation on the HS WRR group. The override rate type must match the corresponding rate type within the applied QoS policy.
The no form of this command removes the rate override value from the configuration.
7750 SR-7/12/12e
This command can be used to override specific attributes of the specified queue’s Peak Information Rate (PIR) and the Committed Information Rate (CIR) parameters.
The PIR defines the maximum rate that the queue can transmit packets out an egress interface (for SAP egress queues). Defining a PIR does not necessarily guarantee that the queue can transmit at the intended rate. The actual rate sustained by the queue can be limited by oversubscription factors or available egress bandwidth.
The CIR defines the rate at which the system prioritizes the queue over other queues competing for the same bandwidth. In-profile and then out-of-profile packets are preferentially queued by the system at egress and at subsequent next hop nodes where the packet can traverse. To be properly handled throughout the network, the packets must be marked accordingly for profiling at each hop.
The CIR can be used by the queue’s parent commands cir-level and cir-weight parameters to define the amount of bandwidth considered to be committed for the child queue during bandwidth allocation by the parent scheduler.
The rate command can be executed at any time, altering the PIR and CIR rates for all queues created through the association of the SAP egress QoS policy with the queue-id.
This command is ignored for egress HSQ queue group queues which are attached to an HS WRR group within an associated HS attachment policy. In this case, the configuration of the rate is performed under the hs-wrr-group within the SAP egress QoS policy.
The no form of this command returns all queues created with the queue-id by association with the QoS policy to the default PIR and CIR parameters (max, 0).
rate max cir 0
Fractional values are not allowed and must be given as a positive integer.
The actual PIR rate is dependent on the queue’s adaptation-rule parameters and the actual hardware where the queue is provisioned.
Fractional values are not allowed and must be given as a positive integer. The sum keyword specifies that the CIR be used as the summed CIR values of the children schedulers, policers, or queues.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
7450 ESS, 7750 SR-7/12/12e, 7750 SR-a, 7750 SR-e, 7950 XRS
All
This command can be used to override specific attributes of the specified scheduler rate. The rate command defines the maximum bandwidth that the scheduler can offer its child policers, queues or schedulers. The maximum rate is limited to the amount of bandwidth the scheduler can receive from its parent scheduler. If the scheduler has no parent, the maximum rate is assumed to be the amount available to the scheduler. When a parent is associated with the scheduler, the CIR parameter provides the amount of bandwidth to be considered during the parent scheduler’s ‘within CIR’ distribution phase.
The actual operating rate of the scheduler is limited by bandwidth constraints other than its maximum rate. The scheduler’s parent scheduler may not have the available bandwidth to meet the scheduler’s needs or the bandwidth available to the parent scheduler could be allocated to other child schedulers or child policers or queues on the parent based on higher priority. The children of the scheduler may not need the maximum rate available to the scheduler due to insufficient offered load or limits to their own maximum rates.
When a scheduler is defined without specifying a rate, the default rate is max. If the scheduler is a root scheduler (no parent defined), the default maximum rate must be changed to an explicit value. Without this explicit value, the scheduler will assume that an infinite amount of bandwidth is available and allow all child policers, queues, and schedulers to operate at their maximum rates.
The no form of this command returns the scheduler’s PIR and CIR parameters to the values configured in the applied scheduler policy.
If the cir parameter is set to max, then the CIR rate is set to infinity but bounded by the PIR rate.
The sum keyword specifies that the CIR will be used as the summed CIR values of the children schedulers, policers, or queues.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
7450 ESS, 7750 SR-7/12/12e, 7750 SR-a, 7750 SR-e, 7950 XRS
All
This command defines the enforced aggregate rate for all queues associated with the agg-rate context. A rate must be specified for the agg-rate context to be considered active on the context’s object (SAP, subscriber, Vport, and so on.).
The no form of this command removes an explicit rate value from the aggregate rate returning it to its default value.
All
This command within the SAP ingress and egress policer-overrides contexts is used to override the sap-ingress and sap-egress QoS policy configured rate parameters for the specified policer-id.
The no form of this command removes the rate override so that the rate configured for the policer in the applied SAP egress QoS policy is used.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, 7950 XRS, VSR
This command overrides the scheduling rate applied to the HS WRR group in kb/s. Alternatively, the keyword max can be specified which removes the bandwidth limitation on the HS WRR group. The override rate type must match the corresponding rate type within the applied QoS policy.
The no form of this command removes the rate override value from the configuration.
7750 SR-7/12/12e
This command within the SAP ingress and egress policer-overrides contexts is used to override the sap-ingress and sap-egress QoS policy configured rate parameters for the specified policer-id.
The no form of the command removes the rate override so that the rate configured for the policer in the applied SAP egress QoS policy is used.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, 7950 XRS, VSR
This command overrides the scheduling rate applied to the HS WRR group in Kb/s. Alternatively, the keyword max can be specified which removes the bandwidth limitation on the HS WRR group. The override rate type must match the corresponding rate type within the applied QoS policy.
The no form of this command removes the rate override value from the configuration.
7750 SR-7/12/12e
This command can be used to override specific attributes of the specified scheduler rate. The rate command defines the maximum bandwidth that the scheduler can offer its child queues or schedulers. The maximum rate is limited to the amount of bandwidth the scheduler can receive from its parent scheduler. If the scheduler has no parent, the maximum rate is assumed to be the amount available to the scheduler. When a parent is associated with the scheduler, the CIR parameter provides the amount of bandwidth to be considered during the parent scheduler’s ‘within CIR’ distribution phase.
The actual operating rate of the scheduler is limited by bandwidth constraints other than its maximum rate. The scheduler’s parent scheduler may not have the available bandwidth to meet the scheduler’s needs or the bandwidth available to the parent scheduler could be allocated to other child schedulers or child queues on the parent based on higher priority. The children of the scheduler may not need the maximum rate available to the scheduler due to insufficient offered load or limits to their own maximum rates.
When a scheduler is defined without specifying a rate, the default rate is max. If the scheduler is a root scheduler (no parent defined), the default maximum rate must be changed to an explicit value. Without this explicit value, the scheduler will assume that an infinite amount of bandwidth is available and allow all child queues and schedulers to operate at their maximum rates.
The no form of this command returns the scheduler's PIR and CIR parameters to the value configured in the applied scheduler policy.
If the cir is set to max, then the CIR rate is set to infinity but is restricted by the PIR rate.
The sum keyword specifies that the CIR be used as the summed CIR values of the children schedulers, policers, or queues.
For egress>sched-override>scheduler and ingress>sched-override>scheduler:
All
This command defines the enforced aggregate rate for all queues associated with the agg-rate context. A rate must be specified for the agg-rate context to be considered to be active on the context’s object.
The no form of this command removes an explicit rate value from the aggregate rate returning it to its default value.
All
This command within the SAP ingress and egress policer-overrides contexts is used to override the sap-ingress and sap-egress QoS policy configured rate parameters for the specified policer-id.
The no form of this command restores the policy defined metering and profiling rate to a policer.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, 7950 XRS, VSR
This command overrides the scheduling rate applied to the HS WRR group in Kb/s. Alternatively, the keyword max can be specified which removes the bandwidth limitation on the HS WRR group. The override rate type must match the corresponding rate type within the applied QoS policy.
The no form of this command removes the rate override value from the configuration.
7750 SR-7/12/12e
This command can be used to override specific attributes of the specified queue’s Peak Information Rate (PIR) and the Committed Information Rate (CIR) parameters. The PIR defines the maximum rate that the queue can transmit packets out an egress interface (for SAP egress queues). Defining a PIR does not necessarily guarantee that the queue can transmit at the intended rate. The actual rate sustained by the queue can be limited by oversubscription factors or available egress bandwidth.
The CIR defines the rate at which the system prioritizes the queue over other queues competing for the same bandwidth. In-profile packets are preferentially queued by the system at egress and at subsequent next hop nodes where the packet can traverse. To be properly handled throughout the network, the packets must be marked accordingly for profiling at each hop.
The CIR can be used by the queue’s parent commands cir-level and cir-weight parameters to define the amount of bandwidth considered to be committed for the child queue during bandwidth allocation by the parent scheduler.
The rate command can be executed at any time, altering the PIR and CIR rates for all queues created through the association of the SAP egress QoS policy with the queue-id.
This command is ignored for egress HSQ queue group queues which are attached to an HS WRR group within an associated HS attachment policy. In this case, the configuration of the rate is performed under the hs-wrr-group within the SAP egress QoS policy.
The no form of this command returns all queues created with the queue-id by association with the QoS policy to the default PIR and CIR parameters (max, 0).
rate max cir 0
Fractional values are not allowed and must be given as a positive integer.
The actual PIR rate is dependent on the queue’s adaptation-rule parameters and the actual hardware where the queue is provisioned.
Fractional values are not allowed and must be given as a positive integer.
All
This command can be used to override specific attributes of the specified scheduler rate. The rate command defines the maximum bandwidth that the scheduler can offer its child queues or schedulers. The maximum rate is limited to the amount of bandwidth the scheduler can receive from its parent scheduler. If the scheduler has no parent, the maximum rate is assumed to be the amount available to the scheduler. When a parent is associated with the scheduler, the CIR parameter provides the amount of bandwidth to be considered during the parent scheduler’s ‘within CIR’ distribution phase.
The actual operating rate of the scheduler is limited by bandwidth constraints other than its maximum rate. The scheduler’s parent scheduler may not have the available bandwidth to meet the scheduler’s needs or the bandwidth available to the parent scheduler could be allocated to other child schedulers or child policers and queues on the parent based on higher priority. The children of the scheduler may not need the maximum rate available to the scheduler due to insufficient offered load or limits to their own maximum rates.
When a scheduler is defined without specifying a rate, the default rate is max. If the scheduler is a root scheduler (no parent defined), the default maximum rate must be changed to an explicit value. Without this explicit value, the scheduler will assume that an infinite amount of bandwidth is available and allow all child queues and schedulers to operate at their maximum rates.
The no form of this command returns the scheduler's PIR and CIR parameters to the value configured in the applied scheduler policy.
If the cir is set to max, then the CIR rate is set to infinity, but is limited by the pir-rate.
If the cir is set to sum, then the CIR rate is set to the summed CIR values of the children schedulers, policers, or queues.
All
This command configures the sampling rate of packets for the cflowd export of application assurance volume statistics.
The no form of this command reverts to the default value.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures the administrative PIR and CIR for bandwidth policers and flow setup rate limits for flow policers. The actual rate sustained by the flow can be limited by other policers that may be applied to that flow’s traffic. This command does not apply to flow-count-limit policers.
The cir option is applicable only to dual-bucket bandwidth policers. It is recommended to configure flow setup rate subscriber-level policer for AA subscribers to ensure fair usage of flow resources between AA subscribers.
The no form of this command resets the values to defaults.
rate max cir 0
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures the sampling rate for the recorded http host, a sampling rate of 10 will sample one out of 10 http-host.
The following configuration records http-host entries ending with “.com” as a result of the expression filter configuration. It will not record any other HTTP host values since the default-filter-action set to no-record. The http-host entries analyzed by the recorder in the first place are http-host-app-filter-candidates.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command is used to define the maximum bandwidth an instance of the arbiter can receive from its parent tier 1 arbiter or the root arbiter. The arbiter instance enforces this limit by calculating the bandwidth each of its child policers should receive relative to their offered loads, parenting parameters, and individual rate limits, and using that derived rate as a child PIR decrement rate override. The override will not exceed the child policer’s administrative rate limit and the aggregate of all the child PIR decrement rates will not exceed the specified arbiter rate limit.
The arbiter’s policy defined rate value may be overridden at the SAP or sub-profile where the policer-control-policy is applied. Specifying an override prevents the arbiter from being removed from the policer control policy until the override is removed.
The no form of this command is used to remove a rate limit from the arbiter at the policer control policy level. The policy level rate limit for the arbiter will return to the default value of max. The no rate command has no effect on instances of the arbiter where a rate limit override has been defined.
rate max
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, 7950 XRS, VSR
This command is used to configure the policer’s metering and optional profiling rates. The metering rate is used by the system to configure the policer’s PIR leaky bucket’s decrement rate while the profiling rate configures the policer’s CIR leaky bucket’s decrement rate. The decrement function empties the bucket while packets applied to the bucket attempt to fill it based on each packet’s size. If the bucket fills faster than how much is decremented per packet, the bucket’s depth eventually reaches its exceed (CIR) or violate (PIR) threshold. The cbs, mbs, and high-prio-only commands are used to configure the policer’s PIR and CIR thresholds.
If a packet arrives at the policer while the bucket’s depth is less than the threshold associated with the packet, the packet is considered to be conforming to the bucket’s rate. If the bucket depth is equal to or greater than the threshold, the packet is considered to be in the exception state. For the CIR bucket, the exception state is exceeding the CIR rate while the PIR bucket's exception state is violating the PIR bucket rate. If the packet is violating the PIR, the packet is marked red and will be discarded. If the packet is not red, it may be green or yellow, based on the conforming or exceeding state from the CIR bucket.
When a packet is red, neither the PIR nor CIR bucket depths are incremented by the packets size. When the packet is yellow, the PIR bucket is incremented by the packet size, but the CIR bucket is not. When the packet is green, both the PIR and CIR buckets are incremented by the packet size. This ensures that conforming packets impact the bucket depth while exceeding or violating packets do not.
The policer’s adaptation-rule command settings are used by the system to convert the specified rates into hardware timers and decrement values for the policer’s buckets.
By default, the policer’s metering rate is max and the profiling rate is 0 kb/s (all packets out-of-profile).
The rate settings defined for the policer in the QoS policy may be overridden on an sla-profile or SAP where the policy is applied.
The no form of this command is used to restore the default metering and profiling rate to a policer.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, 7950 XRS, VSR
This command defines the administrative Peak Information Rate (PIR), the administrative Committed Information Rate (CIR), and the administrative Fair Information Rate (FIR) parameters for the queue.
The PIR defines the maximum rate that the queue can transmit packets through the switch fabric (for SAP ingress queues). Defining a PIR does not necessarily guarantee that the queue can transmit at the intended rate. The actual rate sustained by the queue can be limited by oversubscription factors or available egress bandwidth.
The CIR defines the rate at which the system prioritizes the queue over other queues competing for the same bandwidth. For SAP ingress, the CIR also defines the rate that packets are considered in-profile by the system, unless cir-non-profiling is configured. In-profile, then out-of-profile, packets are preferentially queued by the system at egress and at subsequent next-hop nodes where the packet can traverse. To be properly handled throughout the network, the packets must be marked accordingly for profiling at each hop.
The CIR can be used by the queue’s parent commands cir-level and cir-weight parameters to define the amount of bandwidth considered to be committed for the child queue during bandwidth allocation by the parent scheduler.
The FIR defines an additional rate at which the system prioritizes the queue over other queues competing for the same bandwidth above that used by the CIR.
The rate command can be executed at any time, altering the PIR, CIR, and FIR for all queues created through the association of the SAP ingress QoS policy with the queue-id.
The no form of this command returns all queues created with the queue-id by association with the QoS policy to the default PIR and CIR parameters (max, 0, 0).
rate max cir 0 fir 0
Fractional values are not allowed and the value must be given as a positive integer.
The actual PIR is dependent on the queue’s adaptation-rule parameters and the actual hardware where the queue is provisioned.
Fractional values are not allowed and the value must be given as a positive integer. The actual CIR used is dependent on the queue’s adaptation-rule parameters and the actual hardware where the queue is provisioned.
Fractional values are not allowed and the value must be given as a positive integer. The actual FIR used is dependent on the queue’s adaptation-rule parameters and the actual hardware where the queue is provisioned.
FIR is only supported on FP4 hardware and is ignored when the related policy is applied to FP2- or FP3-based hardware.
All
This command defines the administrative Peak Information Rate (PIR) and the administrative Committed Information Rate (CIR) parameters for the queue. The PIR defines the maximum rate that the queue can transmit packets out an egress interface (for SAP egress queues). Defining a PIR does not necessarily guarantee that the queue can transmit at the intended rate. The actual rate sustained by the queue can be limited by oversubscription factors or available egress bandwidth.
The CIR defines the rate at which the system prioritizes the queue over other queues competing for the same bandwidth. In-profile packets are preferentially queued by the system at egress and at subsequent next hop nodes where the packet can traverse. To be properly handled as in- or out-of-profile throughout the network, the packets must be marked accordingly for profiling at each hop.
The CIR can be used by the queue’s parent commands cir-level and cir-weight parameters to define the amount of bandwidth considered to be committed for the child queue during bandwidth allocation by the parent scheduler.
The rate command can be executed at any time, altering the PIR and CIR rates for all queues created through the association of the SAP egress QoS policy with the queue-id.
When configured on an egress HSQ queue group queue, the cir keyword is ignored.
This command is ignored for egress HSQ queue group queues which are attached to an HS WRR group within an associated HS attachment policy. In this case, the configuration of the rate is performed under the hs-wrr-group within the SAP egress QoS policy.
The no form of this command returns all queues created with the queue-id by association with the QoS policy to the default PIR and CIR parameters (max, 0).
rate max cir 0
Fractional values are not allowed and must be given as a positive integer.
The actual PIR rate is dependent on the queue’s adaptation-rule parameters and the actual hardware where the queue is provisioned.
Fractional values are not allowed and must be given as a positive integer.
All
This command specifies the scheduling rate applied to the HS WRR group as a percentage of the port rate, which includes both the egress-rate and HS scheduler policy max-rate, if configured.
The no form of the command reverts to the default.
rate 100
7750 SR-7/12/12e
This command specifies the scheduling rate applied to the HS WRR group in kb/s. Alternatively, the keyword max can be specified, which removes the bandwidth limitation on the HS WRR group. The rate and percent-rate commands are mutually exclusive.
The no form of the command reverts to the default value.
rate max
7750 SR-7/12/12e
This command specifies the scheduling rate applied to the HS WRR group in kb/s. Alternatively, the keyword max can be specified, which removes the bandwidth limitation on the HS WRR group. The rate and percent-rate commands are mutually exclusive.
The no form of the command reverts to the rate max.
rate max
7750 SR-7/12/12e
This command defines the administrative Peak Information Rate (PIR), the administrative Committed Information Rate (CIR), and the administrative Fair Information Rate (FIR) parameters for the queue.
The PIR defines the percentage that the queue can transmit packets through the switch fabric (for ingress queues) or out of an egress port (for egress queues). Defining a PIR does not necessarily guarantee that the queue can transmit at the intended rate. The actual rate sustained by the queue can be limited by oversubscription factors or available bandwidth.
The CIR defines the percentage at which the system prioritizes the queue over other queues competing for the same bandwidth.
The CIR can be used by the queue’s port-parent commands cir-level and cir-weight parameters to define the amount of bandwidth considered to be committed for the child queue during bandwidth allocation by the parent port scheduler.
The FIR defines an additional percentage at which the system prioritizes the queue over other queues competing for the same bandwidth above that used by the CIR percentage.
The rate command can be executed at any time, altering the PIR, CIR, and FIR for all queues created through the association of the network queue policy with the queue-id.
When configured on an egress HSQ queue group queue, the cir keyword is ignored.
This command is ignored for egress HSQ queue group queues which are attached to an HS WRR group within an associated HS attachment policy. In this case, the configuration of the rate is performed under the hs-wrr-group within the network queue policy.
The no form of the command returns all queues created with the queue-id by association with the network queue policy to the default PIR, CIR, and FIR parameters.
rate 100 cir 0 fir 0
The actual PIR used is dependent on the queue’s adaptation-rule parameters and the actual hardware where the queue is provisioned.
All
This command is used to configure the policer’s metering and optional profiling rates. The metering rate is used by the system to configure the policer’s PIR leaky bucket’s decrement rate while the profiling rate configures the policer’s CIR leaky bucket’s decrement rate. The decrement function empties the bucket while packets applied to the bucket attempt to fill it based on each packet’s size. If the bucket fills faster than how much is decremented per packet, the bucket’s depth eventually reaches its exceed (CIR) or violate (PIR) threshold. The cbs, mbs, and high-prio-only commands are used to configure the policer’s PIR and CIR thresholds.
If a packet arrives at the policer while the bucket’s depth is less than the threshold associated with the packet, the packet is considered to be conforming to the bucket’s rate. If the bucket depth is equal to or greater than the threshold, the packet is considered to be in the exception state. For the CIR bucket, the exception state is exceeding the CIR rate while the PIR bucket's exception state is violating the PIR bucket rate. If the packet is violating the PIR, the packet is marked red and will be discarded. If the packet is not red, it may be green or yellow, based on the conforming or exceeding state from the CIR bucket.
When a packet is red, neither the PIR nor CIR bucket depths are incremented by the packets size. When the packet is yellow, the PIR bucket is incremented by the packet size, but the CIR bucket is not. When the packet is green, both the PIR and CIR buckets are incremented by the packet size. This ensures that conforming packets impact the bucket depth while exceeding or violating packets do not.
The policer’s adaptation-rule command settings are used by the system to convert the specified rates into hardware timers and decrement values for the policer’s buckets.
By default, the policer’s metering rate is max and the profiling rate is 0 kb/s (all packets out-of-profile).
The no form of this command is used to restore the default metering and profiling rate to a policer.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, 7950 XRS, VSR
This command defines the administrative Peak Information Rate (PIR), the administrative Committed Information Rate (CIR), and the administrative Fair Information Rate (FIR) parameters for the queue. The PIR defines the maximum rate that the queue can transmit packets through the switch fabric (for SAP ingress queues). Defining a PIR does not necessarily guarantee that the queue can transmit at the intended rate. The actual rate sustained by the queue can be limited by oversubscription factors or available egress bandwidth.
The CIR defines the rate at which the system prioritizes the queue over other queues competing for the same bandwidth. For SAP ingress, the CIR also defines the rate that packets are considered in-profile by the system, unless cir-non-profiling is configured. In-profile, then out-of-profile, packets are preferentially queued by the system at egress and at subsequent next hop nodes where the packet can traverse. To be properly handled throughout the network, the packets must be marked accordingly for profiling at each hop.
The CIR can be used by the queue’s parent commands cir-level and cir-weight parameters to define the amount of bandwidth considered to be committed for the child queue during bandwidth allocation by the parent scheduler.
The FIR defines an additional rate at which the system prioritizes the queue over other queues competing for the same bandwidth above that used by the CIR.
The rate command can be executed at any time, altering the PIR, CIR, and FIR for all queues created through the association of the ingress queue group template with the queue-id.
The no form of this command returns all queues created with the queue-id by association with the QoS policy to the default PIR, CIR, and FIR parameters (max, 0, 0).
rate max cir 0 fir 0
The actual PIR is dependent on the queue’s adaptation-rule parameters and the actual hardware where the queue is provisioned.
Fractional values are not allowed and the value must be given as a positive integer. The actual FIR used is dependent on the queue’s adaptation-rule parameters and the actual hardware where the queue is provisioned.
FIR is only supported on FP4 hardware and is ignored when the related policy is applied to FP2- or FP3-based hardware.
All
This command defines the administrative PIR and the administrative CIR parameters for the queue. The PIR defines the maximum rate that the queue can transmit packets out an egress port. Defining a PIR does not necessarily guarantee that the queue can transmit at the intended rate. The actual rate sustained by the queue can be limited by oversubscription factors or available egress bandwidth.
The CIR defines the rate at which the system prioritizes the queue over other queues competing for the same bandwidth. In-profile packets are preferentially queued by the system at egress and at subsequent next hop nodes where the packet can traverse. To be properly handled as in- or out-of-profile throughout the network, the packets must be marked accordingly for profiling at each hop.
The CIR can be used by the queue’s parent commands cir-level and cir-weight parameters to define the amount of bandwidth considered to be committed for the child queue during bandwidth allocation by the parent scheduler.
The rate command can be executed at any time, altering the PIR and CIR for all queues created through the association of the egress queue group template with the queue-id.
When configured on an egress HSQ queue group queue, the cir keyword is ignored.
This command is ignored for egress HSQ queue group queues which are attached to an HS WRR group within an associated HS attachment policy. In this case, the configuration of the rate is performed under the hs-wrr-group within the SAP egress QoS policy.
The no form of this command returns all queues created with the queue-id by association with the QoS policy to the default PIR and CIR parameters (max, 0).
rate max cir 0
Fractional values are not allowed and must be given as a positive integer.
The actual PIR rate is dependent on the queue’s adaptation-rule parameters and the actual hardware where the queue is provisioned.
Fractional values are not allowed and must be given as a positive integer.
All
The rate command defines the maximum bandwidth that the scheduler can offer its child queues or schedulers. The maximum rate is limited to the amount of bandwidth the scheduler can receive from its parent scheduler. If the scheduler has no parent, the maximum rate is assumed to be the amount available to the scheduler. When a parent is associated with the scheduler, the CIR parameter provides the amount of bandwidth to be considered during the parent scheduler’s within-CIR distribution phase.
The actual operating rate of the scheduler is limited by bandwidth constraints other than its maximum rate. The scheduler’s parent scheduler may not have the available bandwidth to meet the scheduler’s needs or the bandwidth available to the parent scheduler could be allocated to other child schedulers or child queues on the parent based on higher priority. The children of the scheduler may not need the maximum rate available to the scheduler due to insufficient offered load or limits to their own maximum rates.
When a scheduler is defined without specifying a rate, the default rate is max. If the scheduler is a root scheduler (no parent defined), the default maximum rate must be changed to an explicit value. Without this explicit value, the scheduler will assume that an infinite amount of bandwidth is available and allow all child queues and schedulers to operate at their maximum rates.
The no form of this command returns the scheduler's PIR and CIR parameters to the value configured in the applied scheduler policy.
All
This command specifies the total bandwidth and the within-CIR bandwidth allocated to a weighted scheduler group.
The no form of this command returns the rate to its default value of max.
All
This command defines the administrative PIR, the administrative CIR, and the administrative FIR parameters for the queue.
The PIR defines the percentage that the queue can transmit packets through the switch fabric (for ingress queues). Defining a PIR does not necessarily guarantee that the queue can transmit at the intended rate. The actual rate sustained by the queue can be limited by over-subscription factors or available bandwidth.
The CIR defines the percentage at which the system prioritizes the queue over other queues competing for the same bandwidth.
The rate command can be executed at any time, altering the PIR, CIR, and FIR for the queue created with the queue-id.
All
This command specifies the rate (N) at which traffic is sampled and sent for flow analysis. A packet is sampled every N packets; for example, when sample-rate is configured as 1, then all packets are sent to the cache. When sample-rate is configured as 100, then every 100th packet is sent to the cache.
The no form of this command resets the sample rate to the default value.
rate 1000
This command defines the enforced aggregate rate for all queues associated with the agg-rate context. A rate must be specified for the agg-rate context to be considered to be active on the context’s object.
The no form of the command reverts to the default.
All
This command overrides specific attributes of the specified scheduler rate.
The rate command defines the maximum bandwidth that the scheduler can offer its child policers, queues or schedulers. The maximum rate is limited to the amount of bandwidth the scheduler can receive from its parent scheduler. If the scheduler has no parent, the maximum rate is assumed to be the amount available to the scheduler. When a parent is associated with the scheduler, the CIR parameter provides the scheduler’s amount of bandwidth to be considered during the parent schedulers ‘within CIR’ distribution phase.
The actual operating rate of the scheduler is limited by bandwidth constraints other than its maximum rate. The scheduler’s parent scheduler may not have the available bandwidth to meet the scheduler’s needs or the bandwidth available to the parent scheduler could be allocated to other child schedulers or child policers or queues on the parent based on higher priority. The children of the scheduler may not need the maximum rate available to the scheduler due to insufficient offered load or limits to their own maximum rates.
When a scheduler is defined without specifying a rate, the default rate is max. If the scheduler is a root scheduler (no parent defined), the default maximum rate must be changed to an explicit value. Without this explicit value, the scheduler will assume that an infinite amount of bandwidth is available and allow all child queues and schedulers to operate at their maximum rates.
The no form of this command returns the scheduler’s to the PIR and CIR parameters to the value configured in the applied scheduler policy.
If the cir-rate is set to max, then the CIR rate is set to infinity. The sum keyword specifies that the CIR be used as the summed CIR values of the children schedulers, policers or queues.
All
This command specifies the maximum bandwidth that will be made available to the queue in kilobits per second (kb/s).
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures the rate and burst tolerance for the policer in either a packet rate or a bit rate.
The actual hardware may not be able to perfectly rate limit to the exact configured parameters. In this case, the configured parameters will be adapted to the closest supported rate. The actual (operational) parameters can be seen in CLI, for example, show service id 33 sap 1/1/3:33 dist-cpu-protection detail.
If the kilobits-per-second parameter value is configured as max, then the policer is effectively disabled (always conforming).
If the size parameter value is configured as 0, then all packets are considered as nonconforming.
rate packets max within 1 initial-delay 0
All
This command configures the rate and burst tolerance for the policer in either a packet rate or a bit rate.
The actual hardware may not be able to perfectly rate limit to the exact configured parameters. In this case, the configured parameters will be adapted to the closest supported rate. The actual (operational) parameters can be seen in CLI, for example, show service id 33 sap 1/1/3:33 dist-cpu-protection detail.
If the kilobits-per-second parameter value is configured as max, then the policer is effectively disabled (always conforming).
If the size parameter is configured as 0, then all packets are considered as nonconforming.
rate packets max within 1 initial-delay 0
All
This command configures a rate adjustment for the scheduler. The rate-adjustment command should be used when the rate returned by the DSLAM is calculated with different encapsulation than the 7450 ESS or 7750 SR. The node will adjust the rate by the percent specified as:
DSLAM_RATE*adjust-rate/100 — rate-reduction.
The no form of this command reverts to the default.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command overrides the default minimum time that must elapse before a policer or queue’s offered rate may be recalculated. A minimum time between offered rate calculations is enforced to both prevent inaccurate estimation of the offered rate and excessive input to the virtual scheduler process.
In order to smooth out rapidly fluctuating offered rates, the system averages the measured offered rate with a window of previously measured offered traffic statistics and knowledge of the time between the samples.
The window size is defined by the “rate calculation minimum interval” with offered traffic statistics being read at most four times within the window. Any previous measured offered statistics within the window are used in the averaging function. Note that if there are large numbers of samples required, for example when a large number of queues are running HQoS, then it may be that a time greater than the “rate calculation minimum interval” passes before another sample of the offered statistics can be taken for a queue. In this case, in order to calculate an offered rate, HQoS will always use two samples, the current and the previous. In this case, using a smaller rate-calc-min-int will have no effect on the responsiveness of HQoS to queue rate changes.
The system separates policers and queues into fast and slow categories and maintains a separate “rate calculation minimum interval” for each type. The default for each type are as follows:
Slow Queue: 1.0 seconds
Fast Queue: 0.25 seconds
The actual minimum rate calculation interval may be increased or decreased by using the fast-queue and/or slow-queue keywords (which are also applicable for policers managed by HQoS) followed by a percent value which is applied to the default interval. The default slow-queue threshold rate is 1 Mb/s. Once a policer or queue is categorized as slow, its rate must rise to 1.5 Mb/s before being categorized as a fast policer or queue. The categorization threshold may be modified by using the slow-queue-threshold command.
The no form of this command restores the default fast queue and slow queue minimum rate calculation interval.
no rate-calc-min-int
All
This command is applicable to LAC and LNS. It provides the last mile link rate in the downstream direction that is needed for proper shaping and calculating the interleaving delay.
The rate information in the last mile will be taken from the following sources in the order of priority:
no rate-down
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s
This command configures the maximum rate limit at which syslog messages are sent. Once the rate limit is exceeded, NAT flow logs will be buffered. Overload condition is characterized by exhaustion of this buffer space. This condition can occur due to imposed rate limit or the software speed limit. Once the buffer space is exhausted, new flow creation will be denied, and the teardown of the existing flows will be delayed until the buffer space becomes available.
The no form of the command removes the maximum rate limit from the configuration.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
Packets that match the filter entry match criteria, but do not match the conditional match criteria value, are implicitly forwarded with no further match in the following filter entries.
For pattern match:
All
This command sets the rate limit for the traffic matching both the filter entry match criteria and the packet-length-value defined in the rate-limit action statement.
Packets matching the filter entry match criteria and not matching the packet-length-value defined in the rate-limit action statement are implicitly forwarded with no further match in subsequent filter entries.
Rate limit packets matching both the filter entry match criteria and the ttl-value are defined in the action rate-limit statement.
Packets matching the filter entry match criteria and not matching the ttl-value defined in the rate-limit action statement are implicitly forwarded with no further match in the following filter entries.
All
Packets that match the filter entry match criteria, but do not match the conditional match criteria value, are implicitly forwarded with no further match in the following filter entries.
For pattern match:
All
This command configures rate modify scheduler parameters.
The no form of this command removes the scheduler name from the configuration.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the rate monitor level.
The no form of this command removes the value from the configuration.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command indirectly configures the rate used by Access-Network-Location (ANL) policers. Because ANL total bandwidth is dynamically measured and estimated by AA, this command allows the operator to configure the ratio of that measured bandwidth to be used by the ANL policer as the policer rate.
The no form of this command resets the values to defaults.
no rate-percentage
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command indirectly configures the rate used by Access-Network-Location (ANL) policers. Because ANL stage2 total bandwidth is dynamically measured and estimated by AA, this command allows the operator to configure the ratio of that measured bandwidth to be used by the ANL stage2 policer as the policer rate.
The no form of this command reverts to the default.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command defines a constant rate reduction to the rate specified by the DSLAM. The rate-reduction command should be used if the node should adjust the rate to a value that is offset (for example by a fixed multicast dedicated bandwidth) compared to the total available on the DSLAM.
When set, the rate is:
DSLAM_RATE*adjust-rate/100 — rate-reduction
The no form of this command removes the value from the configuration.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the rate thresholds that are required before decreasing or increasing the preferred link’s weight with the specified change percentage.
The low threshold value must be lower than the high threshold value.
The no form of this command reverts to the default.
rate-thresholds high 90 low 80
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures the rating group applicable for this category.
The no form of this command reverts to the default.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures raw (unaggregated) flow data to be sent in Version 5.
The no form of this command removes this type of aggregation from the collector configuration.
All
If the directory is empty, the rd command is used to remove it. The force option executes the command without prompting the user to confirm the action.
If the directory contains files and/or subdirectories, the rf parameter must be used to remove the directory.
Example:
local-url | [cflash-id/][file-path] up to 200 characters, including cflash-id directory length up to 99 each |
remote-url | [{ftp:// | tftp://}login:pswd@remote-locn/][file-path] |
up to 247 characters | |
directory length up to 99 characters each | |
remote-locn | [hostname | ipv4-address | [ipv6-address]] |
ipv4-address | a.b.c.d |
ipv6-address | x:x:x:x:x:x:x:x[-interface] |
x:x:x:x:x:x:d.d.d.d[-interface] | |
x - [0 to FFFF]H | |
d - [0 to 255]D | |
interface - up to 32 characters, for link local addresses 255 | |
cflash-id | cf1:, cf1-A:, cf1-B:, cf2:, cf2-A:, cf2-B:, cf3:, cf3-A:, cf3-B: |
All
This command configures how RDI alarms (line, path, section) are generated on physical circuits of an APS ports. The command configuration changes are supported only for switching-mode set to uni_1plus1. The configuration can be changed only when no working and protecting circuit has been added. Options:
rdi-alarms circuit
This command configures the maximum time that the RDNSS address may be used for name resolution.
The no form of this command returns the command to the default setting.
rdnss-lifetime 3600
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the maximum time that the RDNSS address may be used for name resolution.
The no form of this command reverts to the default.
rdnss-lifetime 3600
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command specifies the maximum time that the RDNSS address may be used for name resolution by the client. The RDNSS Lifetime must be no more than twice MaxRtrAdvLifetime with a maximum of 3600 seconds.
rdnss-lifetime infinite
All
This command specifies the maximum time that the RDNSS address may be used for name resolution by the client.
rdnss-lifetime infinite
All
This command configures the period after which re-authentication is performed. This value is only relevant if re-authentication is enabled.
The no form of this command returns the value to the default.
re-auth-period 3600
All
This command enables authentication process at every DHCP address lease renewal s only if RADIUS did not reply any special attributes (for example, authentication only, no authorization).
The no form of this command reverts to the default value.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command enables/disables periodic 802.1x re-authentication.
When re-authentication is enabled, the router re-authenticates clients on the port every re-auth-period.
The no form of this command returns the value to the default.
no re-authentication
All
This command enables host to reconnect and override existing session.
If disabled and a subscriber abruptly terminates a PPP sessions without sending a PADT to the BNG, the BNG denies any reconnect attempts until the stale PPP session has expired. With this, enabled re-establish-session eliminates the waiting period by allowing immediate PPP reconnection attempts.
The no form of this command reverts to the default.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the reachable time for advertisements.
The no form of this command returns the command to the default setting.
reachable-time 0
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures how long this router should be considered reachable by other nodes on the link after receiving a reachability confirmation.
The configured value is placed in the reachable time field in router advertisement messages sent from this interface.
The no form of this command reverts to the default.
reachable-time 0
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
All
This command configures how long this router should be considered reachable by other nodes on the link after receiving a reachability confirmation.
no reachable-time
All
This command configures how long this router should be considered reachable by other nodes on the link after receiving a reachability confirmation.
This command configures the neighbor reachability detection timer.
The no form of this command reverts to the default value.
reachable-time 30
All
This command configures the neighbor reachability detection timer.
The no form of this command reverts to the default value.
no reachable-time
All
This command configures the number of consecutive failures, without previous successes, that must occur transmitting at the reactivation-interval (recovering phase) level before changing to the standard interval and subsequently waiting for the first success.
The no form of this command reverts to the default value.
reactivation-failure-threshold 4
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures the packet transmit interval used when the IP interface is operationally down because of a ping template failure and the previous ICMP echo request successfully received a response, recovering phase.
The no form of this command reverts to the default value.
reactivation-interval 1
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures the count, when reached, that causes the transition of the IP interface from operationally down to operationally up because of a ping template failure. This is used in the recovering phase.
The no form of this command reverts to the default value.
reactivation-threshold 3
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures the time that the function waits before declaring the packet as lost. This is the timer used to time out the reactivation-interval transmitted packets. The reactivation-timeout value can be equal to or lower than the reactivation-interval value but not higher.
The no form of this command reverts to the default value.
reactivation-timeout 1
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command specifies how encrypted configuration secrets are interpreted, and which encryption types are accepted, when secrets are input into the system or read from a configuration file (for example at system bootup time).
The no form of this command reverts to the default value.
read-algorithm all-hash
All
This command sets the filter entry action to reassemble.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures the maximum number of seconds to wait to receive all fragments of a particular IPsec or GRE packet for reassembly.
The no form of this commands removes the wait time from the configuration.
no reassembly
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures IP packet reassembly for IPsec and GRE tunnels supported by an MS-ISA. The reassembly command at the tunnel-group level configures IP packet reassembly for all IPsec and GRE tunnels associated with the tunnel-group. The reassembly command at the GRE tunnel level configures IP packet reassembly for that one specific GRE tunnel, overriding the tunnel-group configuration.
The no form of this command disables IP packet reassembly.
no reassembly (tunnel-group level)
reassembly (gre-tunnel level)
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command enables reassembly of fragmented frames for DS-Lite. Reassembly is enabled in the upstream direction per AFTR address.
The no form of the command disables the reassembly.
This command associates a reassembly-group consisting of multiple ISAs with the routing context in which the application requiring reassembly service resides.
no reassembly-group
All
This command is applicable only to LNS. It determines the time during which the LNS keeps fragments of the same packet in the buffer before it discards them. The assumption is that if the fragments do not arrive within certain time, the chance is that they were lost somewhere in the network. In this case the partial packet cannot be reassembled and all fragments that has arrived up to this point and are stored in the buffer IS discarded to free up the buffer. Otherwise, a condition arises in which partial packets are held in the buffer until the buffer is exhausted.
The configuration under the tunnel hierarchy overrides the configuration under the group hierarchy.
The no form of this command reverts to the default.
reassembly-timeout 1000
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s
This command configures the value of the MLPPP bundle ingress per class reassembly timer for this profile.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures the value of the MLFR bundle ingress per-class reassembly timer for the profile.
reassembly-timeout 25 — class 0
reassembly-timeout 25 — class 1
reassembly-timeout 100 — class 2
reassembly-timeout 1000 — class 3
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures the lease rebind timer (T2) via LUDB.
The T2 time is the time at which the client contacts any available addressing authority to extend the lifetimes of DHCPv6 leases. T2 is a time duration relative to the current time expressed in units of seconds.
The IP addressing authority controls the time at which the client contacts the addressing authority to extend the lifetimes on assigned addresses/prefixes through the T1 and T2 parameters assigned to an IA. At time T1 for an IA, the client initiates a Renew/Reply message exchange to extend the lifetimes on any addresses in the IA. The client includes an IA option with all addresses/prefixes currently assigned to the IA in its Renew message. Recommended values for T1 and T2 are .5 and .8 times the shortest preferred lifetime of the addresses/prefixes in the IA that the addressing authority is willing to extend, respectively.
The configured rebind timer should always be longer than or equal to the renew timer.
The T1 and T2 are carried in the IPv6 address option that is within the IA.
The no form of this command reverts to the default.
rebind-timer min 48
days days | 0 to 14 |
hrs hours | 0 to 23 |
min minutes | 0 to 59 |
sec seconds | 0 to 9 |
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command reboots the router or one CPM and can also be used to force an upgrade of the system boot ROMs.
If no options are specified, the user is prompted to confirm the reboot operation. Answering yes (y) will result in both CPMs and all IOMs rebooting.
If the card firmware is upgraded, a chassis cardUpgraded (event 2032) log event is generated. The corresponding SNMP trap for this log event is tmnxEqCardFirmwareUpgraded.
During any firmware upgrade, automatic or manual, it is imperative that during the upgrade procedure:
Any of the above conditions may render cards inoperable requiring a return of the card for resolution.
The time required to upgrade the firmware on the cards in the chassis depends on the number of cards to be upgraded. The progress of a firmware upgrade can be monitored at the console.
All
The command initiates an administrative reboot of the specified Ethernet-satellite chassis.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command enables the reception and processing of eth-bn messages and the retrieval and processing of the current bandwidth field for inclusion in dynamic egress rate adjustments.
The received rate is an Layer 2 rate, and is expected to be in Mb/s. If this rate is a link rate (including preamble, start frame delimiter, and inter-frame gap), this would require the use of network egress queue groups (configured in the configure qos queue-group-templates egress queue-group "qg1" queue 1 packet-byte-offset add 20). The packet-byte-offset is not supported for default network queues.
no receive
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures the type(s) of RIP updates that will be accepted and processed.
If both or version-2 is specified, the RIP instance listens for and accepts packets sent to the broadcast and multicast (224.0.0.9) addresses.
If version-1 is specified, the router only listens for and accepts packets sent to the broadcast address.
This control can be issued at the global, group or interface level. The default behavior accepts and processes both RIPv1 and RIPv2 messages.
The no form of this command resets the type of messages accepted to both.
no receive
All
This command enables the receive nodal context. Entries defined under this context are used to authenticate TCP segments that are being received by the router.
All
This command configures the TCP option number accepted in TCP packets received.
The no form of this command reverts to the default value.
receive 254
All
This command configures the types of RIP updates that will be accepted and processed.
If both or version-2 is specified, the RIP instance listens for and accepts packets sent to the broadcast and multicast (224.0.0.9) addresses.
If version-1 is specified, the router only listens for and accept packets sent to the broadcast address.
This control can be issued at the global, group or interface level. The default behavior is to accept and process both RIPv1 and RIPv2 messages.
The no form of the command reverts to the default value.
receive both – in the config>router>rip context
receive version-1 – in the config>router>ripng context
All
This command specifies the receive timer used for micro-BFD session over the associated LAG links.
The no form of this command removes the receive timer from the configuration.
receive-interval 100
All
This command specifies the receive timer used for BFD packets. If the template is used for a BFD session on an MPLS-TP LSP, then this timer is used for CC packets.
The no form of this command reverts to the default value.
receive-interval 100
All
This command limits the number of Multicast Source Discovery Protocol (MSDP) messages that are read from the TCP session. It is possible that an MSDP/ RP router may receive a large number of MSDP protocol message packets in a particular source active message.
After the number of MSDP packets (including source active messages) defined in the threshold have been processed, the rate of all other MSDP packets is rate limited by no longer accepting messages from the TCP session until the time (seconds) has elapsed.
The no form of this command reverts this active-source limit to default operation.
no receive-msdp-msg-rate
All
This command limits the number of Multicast Source Discovery Protocol (MSDP) messages that are read from the TCP session. It is possible that an MSDP/ RP router may receive a large number of MSDP protocol message packets in a particular source active message.
After the number of MSDP packets (including source active messages) defined in the threshold have been processed, the rate of all other MSDP packets is rate limited by no longer accepting messages from the TCP session until the time (seconds) has elapsed.
The no form of this command sets no limit on the number of MSDP and source active limit messages that will be accepted.
no receive-msdp-msg-rate
All
This command configures the L2TP receive window size.
receive-window-size 64
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command creates an sFlow receiver context or enters existing sFlow receiver context for the sFlow agent.
The no form of this command deletes an existing sFlow receiver context.
7750 SR, 7750 SR-s, 7950 XRS
The reclassify-using-qos command is used to specify a sap-egress QoS policy that will be used to reclassify the forwarding class and profile of egress routed packets on the VPLS or I-VPLS service. When routed packets associated with the IP interface egress a VPLS SAP, the reclassification rules within the sap-egress QoS policy applied to the SAP are always ignored (even when reclassify-using-qos is not defined).
Any queues or policers defined within the specified QoS policy are ignored and are not created on the VPLS egress SAPs. Instead, the routed packets continue to use the forwarding class mappings, queues and policers from the sap-egress QoS policy applied to the egress VPLS SAP.
While the specified sap-egress policy ID is applied to an IP interface it cannot be deleted from the system.
The no form of this command removes the sap-egress QoS policy used for reclassification from the egress IP interface. When removed, IP routed packets will not be reclassified on the egress SAPs of the VPLS service attached to the IP interface.
All
This command specifies a SAP egress QoS policy that is used to reclassify the forwarding class and profile of egress routed packets on the VPLS service. When routed packets associated with the IP interface egress a VPLS SAP, the reclassification rules within the sap-egress QoS policy applied to the SAP are always ignored (even when reclassify-using-qos is not defined).
Any queues or policers defined within the specified QoS policy are ignored and are not created on the VPLS egress SAPs. Instead, the routed packets continue to use the forwarding class mappings, queues and policers from the SAP egress QoS policy applied to the egress VPLS SAP.
While the specified SAP egress policy ID is applied to an IP interface it cannot be deleted from the system.
The no form of this command removes the SAP egress QoS policy used for reclassification from the egress IP interface. When removed, IP routed packets is not reclassified on the egress SAPs of the VPLS service attached to the IP interface.
All
This command configures the number of seconds that the Ethernet tunnel client of L2TPv3 waits before attempting to re-establish a new session after a session setup fails or a session closes.
The no form of this command returns reconnect-timeout to an infinite timeout value, meaning that reconnection is not attempted by the local client.
no reconnect-timeout (infinite timeout)
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the number of seconds that the Ethernet tunnel client of L2TPv3 waits before attempting to re-establish a new session after a session setup fails or a session closes.
The no form of this command returns reconnect-timeout to an infinite timeout value, meaning that reconnection is not attempted by the local client.
no reconnect-timeout (infinite timeout)
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the number of seconds that the Ethernet tunnel client of L2TPv3 waits before attempting to re-establish a new session after a session setup fails or a session closes.
The no form of this command returns reconnect-timeout to an infinite timeout value, meaning that reconnection is not attempted by the local client.
no reconnect-timeout (infinite timeout)
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command enables recording of all the hops that an LSP path traverses. Enabling record increases the size of the PATH and RESV refresh messages for the LSP since this information is carried end-to-end along the path of the LSP. The increase in control traffic per LSP may impact scalability.
The config>router>mpls>lsp>primary-p2mp-instance>record command is not supported on the 7450 ESS.
The no form of this command disables the recording of all the hops for the given LSP. There are no restrictions as to when the no command can be used. The no form of this command also disables the record-label command.
record
All
This command configures traffic recording options.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures which http-host are selected for the http-host-recorder. It is either any http-host values going through the AA ISA or the http-host corresponding to flows not matching a string based app-filter.
For the feature to work it is required to configure at least one app-filter to catch the HTTP protocol signature.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
![]() | Note: |
If the change required modifies the record from network to service or from service to network, then the old record name must be removed using the no form of this command.
![]() | Note: Collecting excessive statistics can adversely affect the CPU utilization and take up large amounts of storage space. |
The no form of this command removes the record type from the policy.
no record
All
This command enables recording of all the labels at each node that an LSP path traverses. Enabling the record-label command will also enable the record command if it is not already enabled.
The no form of this command disables the recording of the hops that an LSP path traverses.
record-label
All
This option provides the ability to determine which statistics are recorded. The TWAMP-Light PDU can report on both delay and loss using a single packet. The operator may choose which statistics they would like to report. Only delay recording is on by default. All other metrics are ignored. In order to change what is being recorded and reported, the TWAMP-Light session must be shutdown. This is required because the single packet approach means the base statistics are shared between the various datasets. Issuing a no shutdown command clears previous all non-volatile memory for the session and allocate new memory blocks. All the parameters under this context are mutually exclusive.
The no version of the command restores the default “delay” only.
record-stats delay
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures L2TP LAC state recovery event debugging.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures L2TP LAC state recovery failed event debugging.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the sub-set of sessions that this system attempts to synchronize in the Session State Synchronization phase as described in RFC 4951, Fail Over Extensions for Layer 2 Tunneling Protocol (L2TP).
The no form of this command reverts to the default.
recovery-max-session-lifetime 2
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command sets the recovery method to be used for newly created tunnels.
The no form of this command reverts to the default.
recovery-method mcs on config>router>l2tp>failover and config>service>vprn>l2tp>failover
recovery-method default on config>router>l2tp>group>failover
recovery-method default on config>router>l2tp>group>tunnel>failover
recovery-method default on config>service>vprn>l2tp>group>failover
recovery-method default on config>service>vprn>l2tp>group>tunnel>failover
![]() | Note: While failover is enabled, the tunnels and sessions proper are always kept synchronized between the redundant pair, regardless of the recovery method for the sequence numbers when a failover really occurs. |
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command sets the recovery time to be negotiated via RFC 4951. It represents the extra time this L2TP peer (LAC or LNS) needs to recover all its tunnels.
The no form of this command reverts to the default.
recovery-time 0 on config>router>l2tp>failover and config>service>vprn>l2tp>failover
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This timer provides the legacy protocols PPP, MLPPP and HDLC time to establish after the Ethernet fault condition has cleared. The legacy protocol is afforded this amount of time to establish the connection before a fault is declared on the legacy side and propagated to the Ethernet segment. This timer is started as a result of a clearing Ethernet failure. Faults that may exist on the legacy side will not be detected until the expiration of this timer. Until the legacy side connection is established or the timer expires the traffic arriving on the Ethernet SAP from a peer will be discarded. The default value is unlikely to be a representative of all operator requirements and must be evaluated on a case by case basis.
All
This command enables or disables debugging for PIM messages sent to the standby CPM.
All
This command enables debugging for PIM redundancy messages to the standby CPM.
The no form of this command disables debugging for PIM redundancy messages to the standby CPM.
All
This command configures the threshold for the red alarm on the over-subscription allowed.
Users can selectively enable amber or red alarm thresholds. But if both are enabled (non-zero), the amber alarm threshold cannot be more than the red alarm threshold.
The no form of this command reverts to the default value.
no red-alarm-threshold
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures the threshold for the red alarm on the over-subscription allowed.
Users can selectively enable amber or red alarm thresholds. But if both are enabled (non-zero) then the red alarm threshold must be greater than the amber alarm threshold.
The no form of this command reverts to the default value.
no amber-alarm-threshold
All
This command sets the maximum acceptable differential delay for individual links within a multilink bundle. The differential delay is calculated as the round-trip differential delay for MLPPP bundles, and as uni-directional differential delay for IMA bundles.
The no form of this command restores the red-differential-delay defaults.
7450 ESS, 7750 SR-7/12/12e
This command enables context to configure list of redundant source prefixes for preferred source selection.
All
This command configures the redelegation timer for PCE-initiated LSPs.
The no form of the command sets this value to the default.
redelegation-timer 90
All
This command configures the http-redirect policy to redirect HTTPS sessions to the configured redirect-url.
The no form of this command removes the redirect-https.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command, creates a configuration context for the specified redirect policy.
The no form of the command removes the redirect policy from the filter configuration only if the policy is not referenced in a filter and the filter is not in use (applied to a service or network interface).
All
This command adds the destination (specified by its IP address) of a redirect-policy (specified by its name) to the binding. An error is thrown if either the destination does not exist for the specified redirect-policy or if the redirect-policy does not exist.
The no form of the command removes from the binding from all the destinations of the specified redirect-policy, or only the specified destination.
ipv4-address: | a.b.c.d. |
ipv6-address: | x:x:x:x:x:x:x:x (eight 16-bit pieces) |
x:x:x:x:x:x:d.d.d.d | |
x: [0 to FFFF]H | |
d: [0 to 255]D |
All
This command creates a redirect-policy binding (specified by its name) in case it does not exist and, enters the context associated with it. When a redirect-policy binding is created, no destination is associated to this binding by default and the binding operator is set to AND.
The no form of this command deletes the redirect-policy binding and all the associated configuration information.
All
This command configures the http redirect URL which is the URL (page) that the user is redirected to when an HTTP redirect takes effect.
The operator can select the URL arguments to include in the redirect-url using either a specific template-id or by configuring the redirect-url using any of the supported macro substitution keywords. Only ESM and ESM-MAC sub types support $MAC, $SAP, $CID, and $RID macro substitution.
The no form of this command removes the redirect-url field from the configuration.
$CATID | The category ID. |
$CATNAME | The category name of the URL. |
$URL | The Request-URI in the HTTP GET Request received. |
$SUB | A string that represents the subscriber ID. |
$IP | A string that represents the IP address of the subscriber host. |
$RTRID | A string that represents the router ID. |
$URLPRM | The HTTP URL parameter associated with the subscriber. |
$MAC | A string that represents the MAC address of the subscriber host. |
$SAP | A string that represents a SAP ID. |
$CID | A string that represents the circuit-id or interface-id of the subscriber host (hexadecimal format). |
$RID | A string that represents the remote-id of the subscriber host (hexadecimal format). |
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures the DNS resolution to be resolved via VPRN. If configured, all packet URL resolution is done through a DNS server that is reachable in a VPRN. This includes packets in the global routing table.
redirect-vprn
All
This command enables system to accept HTTP redirection response, along with the max level of redirection. The virtual router may send a new request to another server if the requested resources are not available (temporarily available to another server).
no redirection
All
This command will apply multicast redirection action to the subscriber. The redirection action along with the redirected interface (and possibly service id) is defined in the referenced policy-name. IGMP messages is redirected to an alternate interface if that alternate interface has IGMP enabled. The alternate interface does not have to have any multicast groups registered via IGMP. Currently all IGMP messages are redirected and there is no ability to selectively redirect IGMP messages based on match conditions (multicast-group address, source IP address, and so on). Multicast redirection is supported between VPRN services and also between interfaces within the Global Routing Context. Multicast Redirection is not supported between the VPRN services and the Global Routing Table (GRT).
IGMP state is maintained per subscriber host and per redirected interface. Traffic is however forwarded only on the redirected interface.
The no form of this command reverts to the default value.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command applies multicast redirection action to the subscriber. The redirection action along with the redirected interface (and possibly service id) is defined in the referenced policy-name. MLD messages is redirected to an alternate interface if that alternate interface has MLD enabled. The alternate interface does not have to have any multicast groups registered via MLD. Currently all MLD messages are redirected and there is no ability to selectively redirect MLD messages based on match conditions (multicast-group address, source IP address, and so on). Multicast redirection is supported between VPRN services and also between interfaces within the Global Routing Context. Multicast Redirection is not supported between the VPRN services and the Global Routing Table (GRT).
MLD state is maintained per subscriber host and per redirected interface. Traffic is however forwarded only on the redirected interface.
The no form of this command removes the policy name from the configuration.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the rate for Internet Control Message Protocol (ICMP) redirect messages issued on the router interface.
When routes are not optimal on this router and another router on the same subnetwork has a better route, the router can issue an ICMP redirect to alert the sending node that a better route is available.
The redirects command enables the generation of ICMP redirects on the router interface. The rate at which ICMP redirects is issued can be controlled with the optional number and seconds parameters by indicating the maximum number of redirect messages that can be issued on the interface for a given time interval.
The no form of this command disables the generation of ICMP redirects on the router interface.
redirects 100 10
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
All
This command configures the ICMPv4 redirect messages that are generated when routes are not optimal on the router and the node needs to be alerted that another router on the same subnetwork has a better route available.
When disabled, ICMPv4 redirects are not generated.
The no form of this command disables generation of redirect messages.
redirects number 100 seconds 10
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command enables and configures the rate for ICMP redirect messages issued on the router interface.
When routes are not optimal on this router, and another router on the same subnetwork has a better route, the router can issue an ICMP redirect to alert the sending node that a better route is available.
The redirects command enables the generation of ICMP redirects on the router interface. The rate at which ICMP redirects are issued can be controlled with the optional number and time parameters by indicating the maximum number of redirect messages that can be issued on the interface for a given time interval.
By default, generation of ICMP redirect messages is enabled at a maximum rate of 100 per 10 second time interval.
The no form of this command disables the generation of ICMP redirects on the router interface.
redirects 100 10 — Maximum of 100 redirect messages in 10 seconds.
All
This command configures the rate for ICMPv6 redirect messages. When configured, ICMPv6 redirects are generated when routes are not optimal on the router and another router on the same subnetwork has a better route to alert that node that a better route is available.
The no form of this command disables ICMPv6 redirects.
redirects 100 10 (when IPv6 is enabled on the interface)
All
This command sets the internal OSPF hold down timer for external routes being redistributed into OSPF.
Shorting this delay can speed up the advertisement of external routes into OSPF but can result in additional OSPF messages if that source route is not yet stable.
The no form of this command resets the timer value back to the default value.
![]() | Note: The timer granularity is 10 ms if the value is less than 500 ms, and 100 ms if the value is greater than or equal to 500 ms. Timer values are rounded down to the nearest granularity, for example a configured value of 550 ms is internally rounded down to 500 ms. |
redistribute-delay 1000
All
This command enables the redistribution of external routes into the Not So Stubby Area (NSSA) or an NSSA area border router (ABR) that is exporting the routes into non-NSSA areas.
NSSA or Not So Stubby Areas are similar to stub areas in that no external routes are imported into the area from other OSPF areas. The major difference between a stub area and an NSSA is that the NSSA has the capability to flood external routes that it learns (providing it is an ASBR) throughout its area and via an ABR to the entire OSPF domain.
The no form of this command disables the default behavior to automatically redistribute external routes into the NSSA area from the NSSA ABR.
redistribute-external — External routes are redistributed into the NSSA.
All
This command enables the redistribution of external routes into the Not So Stubby Area (NSSA) or an NSSA area border router (ABR) that is exporting the routes into non-NSSA areas.
NSSA or Not So Stubby Areas are similar to stub areas in that no external routes are imported into the area from other OSPF or OSPF3 areas. The major difference between a stub area and an NSSA is that the NSSA has the capability to flood external routes that it learns (providing it is an ASBR) throughout its area and via an Area Border Router to the entire OSPF or OSPF3 domain.
The no form of this command disables the default behavior to automatically redistribute external routes into the NSSA area from the NSSA ABR.
redistribute-external
All
This command reapplies the changes to the candidate that were removed using a previous undo. All undo or redo history is lost when the operator exits edit-cfg mode.
A redo command is blocked if another user has made changes in the same CLI branches that would be impacted during the redo.
This command configures the maximum number of higher CLI context levels to display in the CLI prompt for the current CLI session. This command is useful when configuring features that are several node levels deep, causing the CLI prompt to become too long. By default, the CLI prompt displays the system name and the complete context in the CLI.
The number of nodes specified indicates the number of higher-level contexts that can be displayed in the prompt. For example, if reduced prompt is set to 2, the two highest contexts from the present working context are displayed by name with the hidden (reduced) contexts compressed into a ellipsis (“…”).
The setting is not saved in the configuration. It must be reset for each CLI session or stored in an exec script file.
The no form of the command reverts to the default.
no reduced-prompt
All
This command allows the user to perform redundancy operations.
Associated commands include the following in the admin>redundancy context:
All
Commands in this context allow the user to perform redundancy operations.
All
Commands in this context configure WLAN-GW redundancy-related parameters.
7750 SR, 7750 SR-e, 7750 SR-s, VSR
Commands in this context configure redundancy parameters.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures intra-chassis redundancy mode for the NAT group.
redundancy active-standby
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
Commands in this context configure NAT pool redundancy parameters.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
Commands in this context configure the ETH-CFM redundancy parameters.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures a redundant interface used for dual homing.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures a redundant interface.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the primary and secondary multicast plane capacities used when the full complement of possible switch fabrics in the system are up. The rates are defined as a percentage of the total multicast plane capacity which is configured using the total-capacity command.
The no form of this command reverts to the default values.
redundant-mcast-capacity 87.50 secondary 87.50
7450 ESS, 7750 SR-7/12/12e, 7750 SR-s, 7950 XRS, VSR
This command configures the interface as a member of a redundant pair for multicast traffic.
The no form of the command removes the configuration.
All
This command enables the use of significant-change so only those aa-specific records which have changed in the last accounting interval are written.
The no form of this command disables the use of significant-change so all aa-specific records are written whether or not they have changed within the last accounting interval.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
The synchronous equipment timing subsystem can lock to different timing reference inputs, those specified in the ref1, ref2, bits, synce, and ptp command configuration. This command organizes the priority order of the timing references.
If a reference source is disabled, then the clock from the next reference source as defined by ref-order is used. If all reference sources are disabled, then clocking is derived from a local oscillator.
If a sync-if-timing reference is linked to a source port that is operationally down, the port is no longer qualified as a valid reference.
For 7450 ESS and 7750 SR systems with two CPM modules, the system distinguishes between the BITS inputs on the active and standby CPMs. The active CPM will use its BITS input port providing that port is qualified. If the local port is not qualified, then the active CPM will use the BITS input port from the standby CPM as the next priority reference. For example, the normal ref-order of bits ref1 ref2 will actually be bits (active CPM), followed by bits (standby CPM), followed by ref1, followed by ref2.
For 7950 XRS systems with two CPMs and two CCMs, the system distinguishes between the BITS inputs on the CCMs associated with the active and standby CPMs. The active CPM will use the BITS input port on the associated CCM, provided that the port is qualified. If the local port is not qualified, then the active CPM will use the BITS input port from the CCM associated with the standby CPM as the next priority reference. For example, the normal ref-order of bits ref1 ref2 will actually be bits (active CCM), followed by bits (standby CCM), followed by ref1, followed by ref2.
The no form of the command resets the reference order to the default values.
The SyncE/1588 port of the CPM or CCM can be used as a frequency input reference. It shares internal resources with the BITS input ports and so only one can be used at a time. The BITS port shall have priority, if BITS input is enabled, then the SyncE port cannot be enabled.
Similar to the BITS input ports, when the synce reference is enabled and in the ref-order, the system distinguishes between the synce inputs on the active and standby CPM/CCMs. The active CPM/CCM uses its synce input port if that port is qualified. If the local port is not qualified, the active CPM uses the synce input port from the standby CPM/CCM as the next priority reference. For example, the ref-order of synce ref1 ref2 will actually be synce (active CPM/CCM), followed by synce (standby CPM/CCM), followed by ref1, followed by ref2.
bits synce ref1 ref2 ptp (7750 SR-7/12/12e with CPM-5, 7950 XRS-20/20e, SR-7s/14s, and 7450 ESS-7/12)
bits ref1 ref2 ptp (7750 SR-a4/8, SR-1e/2e/3e, SR-1, SR-1s/2s)
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command creates a policer context to configure reference policer counters for significant change only reporting. The custom record is only generated when the change in the sum of all queue and policer reference counters equals or exceeds the configured (non-zero) significant change value.
The no form of this command deletes all policer reference counters.
no ref-policer
All
This command configures a reference queue.
The no form of this command reverts to the default value.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command creates a queue context to configure reference queue counters for significant change only reporting. The custom record is only generated when the change in the sum of all queue and policer reference counters equals or exceeds the configured (non-zero) significant change value.
The no form of this command deletes all queue reference counters.
no ref-queue
All
Commands in this context configure parameters for the first timing reference.
The restrictions on the location for the source port or source bits for ref1 and ref2 are listed in Ref1 and Ref2 Timing References.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
Commands in this context configure parameters for the second timing reference. There are restrictions on the source-port and source-bits locations for ref2 based on the platform. The restrictions on the location for the source-port or source-bits for ref1 and ref2 are listed in Revertive, non-Revertive Timing Reference Switching Operation.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures the reference bandwidth that provides the basis of bandwidth relative costing.
In order to calculate the lowest cost to reach a specific destination, each configured level on each interface must have a cost. If the reference bandwidth is defined, then the cost is calculated using the following formula:
cost = reference – bandwidth ÷ bandwidth
If the reference bandwidth is configured as 10 Gigabits (10,000,000,000), a 100 M/bps interface has a default metric of 100. In order for metrics in excess of 63 to be configured, wide metrics must be deployed. (See wide-metrics-only in the config>router>isis context.)
If the reference bandwidth is not configured, all interfaces have a default metric of 10.
The no form of this command reverts to the default value.
no reference-bandwidth — No reference bandwidth is defined. All interfaces have a metric of 10.
All
This command configures the reference bandwidth in kilobits per second (kb/s) that provides the reference for the default costing of interfaces based on their underlying link speed.
The default interface cost is calculated as follows:
cost = reference–bandwidth ÷ bandwidth
The default reference-bandwidth is 100,000,000 kb/s or 100 Gb/s, so the default auto-cost metrics for various link speeds are as follows:
![]() | Note: The default reference-bandwidth value must be manually configured to a higher value if interface speeds are greater than 100 Gb/s, and metrics based on link speed are used. When the default reference-bandwidth value is used, a metric of 1 is set on all interface speeds ≥ 100 Gb/s. For example, 100 GE, 100 GE LAG, 400 GE, and 400 GE LAG interfaces will all have a metric of 1. |
If the reference bandwidth is configured as 10 Gb (reference-bandwidth 10000000000), a 100 Mb/s interface has a default metric of 100.
When a very large reference bandwidth value is configured, a metric calculation may result in a value higher than the supported protocol cost value. If this occurs, OSPF automatically reverts to the maximum configurable cost metric.
The reference-bandwidth command assigns a default cost to the interface based on the interface speed. To override this default cost on a particular interface, use the metric metric command configured in the config>router>ospf>area>if ip-int-name context.
The no form of this command reverts the reference bandwidth to the default value.
reference-bandwidth 100000000
All
This command configures the reference bandwidth that provides the basis of bandwidth relative costing.
To calculate the lowest cost to reach a specific destination, each configured level on each interface must have a cost. If the reference bandwidth is defined, then the cost is calculated using the following formula:
cost = reference-bandwidth ÷ bandwidth
If the reference bandwidth is configured as 10 Gb (reference-bandwidth 10000000000), a 100 Mb/s interface has a default metric of 100. To configure metrics in excess of 63, wide metrics must be deployed (see wide-metrics-only in the config>router>isis context).
When a large reference-bandwidth value is configured, a metric calculation may result in a value higher than the supported protocol cost value. If this occurs, IS-IS automatically reverts to the maximum configurable cost metric.
If the reference bandwidth is not configured, then all interfaces have a default metric of 10.
The no form of this command reverts to the default value.
no reference-bandwidth
All
This command configures the reference bandwidth in kilobits per second (kb/s) that provides the reference for the default costing of interfaces based on their underlying link speed.
The default interface cost is calculated as follows:
cost = reference-bandwidth ÷ bandwidth
The default reference-bandwidth is 100,000,000 kb/s or 100 Gb/s, the default auto-cost metrics for various link speeds are as follows:
![]() | Note: The default reference-bandwidth must be manually configured to a higher value if interface speeds are greater than 100 Gb/s, and metrics based on link speed are used. When the default reference-bandwidth is used, a metric of 1 is set on all interface speeds ≥ 100 Gb/s. For example, 100 GE, 100 GE LAG, 400 GE, and 400 GE LAG interfaces will all have a metric of 1. |
If the reference bandwidth is configured as 10 Gb (reference-bandwidth 10000000000), a 100 Mb/s interface has a default metric of 100.
When a very large reference bandwidth value is configured, a metric calculation may result in a value higher than the supported protocol cost value. If this occurs, OSPF automatically reverts to the maximum configurable cost metric.
The reference-bandwidth command assigns a default cost to the interface based on the interface speed. To override this default cost on a particular interface, use the metric metric command configured in the config>router>ospf>area>interface ip-int-name context.
The no form of this command reverts to the default value.
reference-bandwidth 100000000
All
This command enables copying the padding in each MPLS-DM query to the response.
When padding is included in the DM frame the option exists to reflect the padding back in the direction of the source or remove the padding. The removal of the pad-tlv is good practice when using unidirectional tunnels such as RSVP.
This command uses the mandatory TLV type 0, instructing the responder to include the pad TLV from the response. The no form of this command uses the optional TVL type 128, instructing the responder to remove the pad TLV from the response.
The no form of this command disables copying the padding in each MPLS-DM query to the response.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures a TWAMP Light session reflector parameters and to enable TWAMP Light functionality with the no shutdown command. The udp-port keyword and value must be specified with the create keyword. An error message is generated if the specific UDP port is unavailable.
Note that in the Two-Way Active Measurement Protocol Light (TWAMP Light) section for a complete description. This parameter is required and specifies the destination udp-port that the session reflector uses to listen for TWAMP Light packets. The session controller launching the TWAMP Light packets must be configured with the same destination UDP port as part of the TWAMP Light test. The IES service uses the destination UDP port that is configured under the router context. Only one UDP port can be configured per unique context.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command specifies the seamless BFD reflector.
The no form of this command removes the context.
All
This command enables the use of the RSVP overhead refresh reduction capabilities on this RSVP interface.
When this option is enabled, a node will enable support for three capabilities. It will accept bundles RSVP messages from its peer over this interface, it will attempt to perform reliable RSVP message delivery to its peer, and will use summary refresh messages to refresh path and resv states. The reliable message delivery must be explicitly enabled by the user after refresh reduction is enabled. The other two capabilities are enabled immediately.
A bundle message is intended to reduce overall message handling load. A bundle message consists of a bundle header followed by one or more bundle sub-messages. A sub-message can be any regular RSVP message except another bundle message. A node will only process received bundled RSVP messages but will not generate them.
When reliable message delivery is supported by both the node and its peer over the RSVP interface, an RSVP message is sent with a message_id object. A message_id object can be added to any RSVP message when sent individually or as a sub-message of a bundled message.
if the sender sets the ack_desired flag in the message_id object, the receiver acknowledges the receipt of the RSVP message by piggy-backing a message_ack object to the next RSVP message it sends to its peer. Alternatively, an ACK message can also be used to send the message_ack object. In both cases, one or many message_ack objects could be included in the same message.
The router supports the sending of separate ACK messages only but is capable of processing received message_ack objects piggy-backed to hop-by-hop RSVP messages, such as path and resv.
The router sets the ack_desired flag only in non-refresh RSVP messages and in refresh messages which contain new state information.
A retransmission mechanism based on an exponential backoff timer is supported in order to handle unacknowledged message_id objects. The RSVP message with the same message_id is retransmitted every 2 * rapid-retransmit-time interval of time. The rapid-retransmit-time is referred to as the rapid retransmission interval as it must be smaller than the regular refresh interval configured in the config>router>rsvp>refresh-time context. There is also a maximum number of retransmissions of an unacknowledged RSVP message rapid-retry-limit. The node will stop retransmission of unacknowledged RSVP messages whenever the updated backoff interval exceeds the value of the regular refresh interval or the number of retransmissions reaches the value of the rapid-retry-limit parameter, whichever comes first. These two parameters are configurable globally on a system in the config>router>rsvp context.
Refresh summary consists of sending a summary refresh message containing a message_id list object. The fields of this object are populated each with the value of the message_identifier field in the message_id object of a previously sent individual path or resv message. The summary refresh message is sent every refresh regular interval as configured by the user using the refresh-time command in the config>router>rsvp context. The receiver checks each message_id object against the saved path and resv states. If a match is found, the state is updated as if a regular path or resv refresh message was received from the peer. If a specific message_identifier field does not match, then the node sends a message_id_nack object to the originator of the message.
The above capabilities are referred to collectively as “refresh overhead reduction extensions”. When the refresh-reduction is enabled on an RSVP interface, the node indicates this to its peer by setting a “refresh-reduction-capable” bit in the flags field of the common RSVP header. If both peers of an RSVP interface set this bit, all the above three capabilities can be used. Furthermore, the node monitors the settings of this bit in received RSVP messages from the peer on the interface. As soon as this bit is cleared, the router stops sending summary refresh messages. If a peer did not set the “refresh-reduction-capable” bit, a node does not attempt to send summary refresh messages.
However, if the peer did not set the “refresh-reduction-capable” bit, a node, with refresh reduction enabled and reliable message delivery enabled, will still attempt to perform reliable message delivery with this peer. If the peer does not support the message_id object, it returns an error message “unknown object class”. In this case, the node retransmits the RSVP message without the message_id object and reverts to using this method for future messages destined to this peer. The RSVP Overhead Refresh Reduction is supported with both RSVP P2P LSP path and the S2L path of an RSVP P2MP LSP instance over the same RSVP instance.
The no form of this command reverts to the default value.
no refresh-reduction
All
This command enables the refresh reduction capabilities over all bypass tunnels originating on this PLR node or terminating on this Merge Point (MP) node.
By default, this is disabled. Since a bypass tunnel may merge with the primary LSP path in a node downstream of the next-hop, there is no direct interface between the PLR and the MP node and it is possible the latter will not accept summary refresh messages received over the bypass.
When disabled, the node as a PLR or MP will not set the “Refresh-Reduction-Capable” bit on RSVP messages pertaining to LSP paths tunneled over the bypass. It will also not send Message-ID in RSVP messages. This effectively disables summary refresh.
refresh-reduction-over-bypass disable
All
This command configures the interval (in s), between the successive Path and Resv refresh messages. RSVP declares the session down after it misses a consecutive number of refresh messages equal to the configured keep-multiplier number.
The no form of this command resets the command to the default value.
refresh-time 30
7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
The refresh-time controls the interval (in s), between the successive Path and Resv refresh messages. RSVP declares the session down after it misses keep-multiplier number consecutive refresh messages.
The no form of this command reverts to the default value.
refresh-time 30
All
This command is used to configure the refresh-time and hold-time intervals that are used for liveness detection of the RPKI-Router session. The refresh-time defaults to 300 seconds and is reset whenever a Reset Query PDU or Serial Query PDU is sent to the cache server. When the timer expires, a new Serial Query PDU is sent with the last known serial number.
The hold-time specifies the length of time in seconds that the session is to be considered UP without any indication that the cache server is alive and reachable. The timer defaults to 600 seconds and must be at least 2x the refresh-time (otherwise the CLI command is not accepted). Reception of any PDU from the cache server resets the hold timer. When the hold-time expires, the session is considered to be DOWN and the stale timer is started.
no refresh-time
All
This command configures the refresh timer for control channel status signaling packets. By default, no refresh packets are sent.
no refresh-timer
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
7450 ESS, 7750 SR-7/12/12e, 7750 SR-a, 7750 SR-e, 7950 XRS
All
This command configures the refresh timer for control channel status signaling packets. By default, no refresh packets are sent.
no refresh-timer
All
This command configures the refresh timer for control channel status signaling packets. By default, no refresh packets are sent.
no refresh-timer
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
All
This command configures the refresh timer for control channel status signaling packets. By default, no refresh packets are sent.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command enables debugging for PIM register mechanism.
The no form of this command disables debugging for PIM register mechanism.
All
This command enables debugging of the registrant state machine.
The no form of this command disables debugging of the registrant state machine.
All
This command configures the time before re-initializing LLDP on a port.
The no form of this command reverts to the default value.
no reinit-delay
All
This command forces an LCP Protocol Reject when receiving an IPv6CP Configure Request message whenIPv6 is not configured.
By default, an IPv6CP Configure Request message is silently ignored when IPv6 is not configured.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command forces an LCP Protocol Reject when receiving an IPv6CP Configure Request message while IPv6 is not configured or when receiving an IPv4CP Configure Request message and no local IPv4 address is assigned.
By default, an IPv4CP/IPv6CP Configure Request message is silently ignored when IPv4/IPv6 is not configured.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the percentage value of change, positive or negative, compared to the previously reported measurement. If this percentage value is reached in either direction, the new value is conveyed to the routing engine for further handling and stored as the delay measurement last reported. If the percentage value is not configured, this threshold is disabled.
The no form of this command reverts to the default value.
relative 0
A value of 0 (zero) indicates no relative thresholding is performed when considering report to the routing engine.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
Commands in this context configure DHCPv6 relay parameters for this interface.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command enables the relaying of plain BOOTP packets.
The no form of this command disables the relaying of plain BOOTP packets.
All
This command enables the relaying of plain BOOTP packets.
The no form of this command disables the relaying of plain BOOTP packets.
no relay-plain-bootp
All
This command enables the DHCPv4 relay proxy function on the interface. The command has no effect when no dhcp servers are configured (DHCPv4 relay not configured). By default, unicast DHCPv4 release messages are forwarded transparently.
A relay proxy enhances the relay such that it also relays unicast client DHCPv4 REQUEST messages (lease renewals).
The optional release-update-src-ip parameter updates the source IP address of a DHCP RELEASE message with the address used for relayed DHCPv4 messages.
The optional siaddr-override ip-address parameter enables DHCP server IP address hiding towards the client. This parameter requires that lease-populate is enabled on the interface. The DHCP server ip address is required for the address hiding function and is stored in the lease state record. The client interacts with the relay proxy as if it is the DHCP server. In all DHCP messages to the client, the value of following header fields and DHCP options containing the DHCP server IP address is replaced with the configured <ip-address>:
DHCP OFFER selection during initial binding is done in the relay-proxy. Only the first DHCP OFFER message is forwarded to the client. Subsequent DHCP OFFER messages from different servers are silently dropped.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
All
This command enters relay unsolicited configuration attributes context. With this configuration, the configured attributes returned from source (such as a RADIUS server) will be returned to IKEv2 remote-access tunnel client regardless if the client has requested it in the CFG_REQUEST payload.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command enables the inclusion of the release reason attributes.
The no form of the command excludes release reason attributes.
no release-reason
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures the time to wait to clean up the PFCP association after administratively disabling it and requesting a shutdown to the BNG CPF. If the BNG CPF does not gracefully remove the PFCP association before the timer expires, the full association and all related sessions are forcefully removed.
The no form of this command reverts to the default.
release-timeout 3600
![]() | Note: The PFCP protocol encoding does not allow the full range of configured values. The system automatically rounds up the configured value to the nearest value allowed by the protocol. For more information about the protocol encoding, see 3GPP TS 29.244 8.2.78.1. |
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command enables reliable delivery of RSVP messages over the RSVP interface. When refresh-reduction is enabled on an interface and reliable-delivery is disabled, the router will send a message_id and not set ACK desired in the RSVP messages over the interface. The router does not expect an ACK and but will accept it if received. The node will also accept message ID and reply with an ACK when requested. In this case, if the neighbor set the “refresh-reduction-capable” bit in the flags field of the common RSVP header, the node will enter summary refresh for a specific message_id it sent regardless if it received an ACK or not to this message from the neighbor.
Finally, when ‘reliable-delivery’ option is enabled on any interface, RSVP message pacing is disabled on all RSVP interfaces of the system, for example, the user cannot enable the msg-pacing option in the config>router>rsvp context, and error message is returned in CLI. Conversely, when the msg-pacing option is enabled, the user cannot enable the reliable delivery option on any interface on this system. An error message is also generated in CLI after such an attempt.
The no form of this command reverts to the default value.
no reliable-delivery
All
This command reloads imported certificate or key file or both at the same time. This command is typically used to update certificate or key file without shutting down ipsec-tunnel/ipsec-gw/cert-profile/ca-profile. Note that type cert and type key is deprecated in a future release. Use type cert-key-pair instead. Instead of type cert use type key instead.
If the new file does not exists or somehow invalid (bad format, does not contain right extension, and so on), then this command will abort.
In the case of type cert-key-pair, if the new file does not exist or is invalid or cert and key do not match, then this command aborts with an error message.
All
This command configures the IP address that should be used within the Remote Router-ID AVP.
The no form of this command removes the configured IP address.
no rem-router-id
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures remark action on flows matching this AQP entry.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command enables and configures the remarking of the DiffServ Code Points of packets matching the criteria of the IPv4/IPv6 filter policy entry, in conjunction with a PBR action. Packets are remarked regardless of QoS-based in-profile or out-of-profile classification. QoS-based DSCP remarking is overridden. If the status of the PBR target is tracked and it is down, the extended action will not be executed; otherwise, the extended action will be performed.
All
This command remarks both customer traffic and egress network IP interface traffic; VPRN customer traffic is not remarked. The remarking is based on the forwarding class to DSCP and LSP EXP bit mapping defined under the egress node of the network QoS policy.
Normally, packets that ingress on network ports have either the DSCP or, for MPLS packets, LSP EXP bit set by an upstream router. The packets are placed in the appropriate forwarding class based on the DSCP-to-forwarding class mapping or the LSP EXP-to-forwarding class mapping. The DSCP or LSP EXP bits of such packets are not altered as the packets egress this router, unless remarking is enabled.
Remarking can be required if this router is connected to a different DiffServ domain where the DSCP-to-forwarding class mapping is different.
Normally, no remarking is necessary when all router devices are in the same DiffServ domain.
The network QoS policy supports an egress flag that forces remarking of packets that were received on trusted IES and network IP interfaces. This provides the capability of remarking without regard to the ingress state of the IP interface on which a packet was received. The effect of the egress network remark trusted state on each type of ingress IP interface and trust state is listed in Table 113.
The remark trusted state has no effect on packets received on an ingress VPRN IP interface.
Ingress IP Interface Type and Trust State | Egress Network IP Interface Trust Remark Disabled (Default) | Egress Network IP Interface Trust Remark Enabled |
IES Non-Trusted (Default) | Egress Remarked | Egress Remarked |
IES Trusted | Egress Not Remarked | Egress Remarked |
VPRN Non-Trusted | Egress Remarked | Egress Remarked |
VPRN Trusted (Default) | Egress Not Remarked | Egress Not Remarked |
Network Non-Trusted | Egress Remarked | Egress Remarked |
Network Trusted (Default) | Egress Not Remarked | Egress Remarked |
The no form of this command resets the configuration to the default behavior.
no remarking — Remarking disabled in the Network QoS policy.
All
Commands in this context configure remote TS-list parameters. The TS-list is the traffic selector of the local system, such as TSi, when the system acts as an IKEv2 responder.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command enables matching only on the tunnel that uses the specified source IP address.
The no form of this command disables matching on a tunnel’s source IP address.
no remote-address
ipv4-address | a.b.c.d |
ipv6-address | x:x:x:x:x:x:x:x (eight 16-bit pieces) |
x:x:x:x:x:x:d.d.d.d | |
x: [0 to FFFF]H | |
d: [0 to 255]D |
7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command specifies the aging time for remotely learned MAC addresses in the forwarding database (FDB) for the Virtual Private LAN Service (VPLS) instance.
In a VPLS service, MAC addresses are associated with a Service Access Point (SAP) or with a Service Distribution Point (SDP). MACs associated with a SAP are classified as local MACs, and MACs associated with an SDP are remote MACs.
Like in a Layer 2 switch, learned MACs can be aged out if no packets are sourced from the MAC address for a period of time (the aging time). In each VPLS service instance, there are independent aging timers for local learned MAC and remote learned MAC entries in the FDB. The remote-age timer specifies the aging time for remote learned MAC addresses. To reduce the amount of signaling required between switches configure this timer larger than the local-age timer.
The no form of this command returns the remote aging timer to the default value.
remote-age 900
All
This command configures the remote attachment circuit.
The no form of this command disables the context.
no remote-attachment-circuit
All
This command defines the Emulated Circuit Identifiers (ECID) to be used for the remote (destination) end of the circuit emulation service.
7450 ESS, 7750 SR-7/12/12e, 7750 SR-a, 7750 SR-e
This command configures the remote IPsec tunnel endpoint address.
VSR
This command specifies the remote ID to match for a host lookup. When the LUDB is accessed using a DHCPv4 server, the SAP-ID is matched against DHCP option 82.
![]() | Note: This command is used only when remote-id is configured as one of the match-list parameters. |
The no form of this command removes the remote ID from the configuration.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command specifies a remote-id for PPPoE hosts. A remote-id received in PPPoE tags has precedence over the LUDB specified remote ID.
The no form of this command reverts to the default.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command enables the sending of remote ID option in the DHCPv6 relay packet.
The client DHCP Unique Identifier (DUID) is used as the remote ID.
The no form of this command disables the sending of remote ID option in the DHCPv6 relay packet.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
All
This command specifies what information goes into the remote-id sub-option in the DHCP relay packet.
If disabled, the remote-id sub-option of the DHCP packet is left empty. When the command is configured without any parameters, it equals to the remote-id mac option.
The no form of this command reverts to the default.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
All
This command enables the generation of the Broad Band Forum Agent-Remote-Id VSA in RADIUS request messages.
The no form of this command disables the generation of the Broad Band Forum Agent-Remote-Id VSA.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command enables the generation of the Broad Band Forum Agent-Remote-Id Vendor Specific AVP in Diameter NASREQ AAR messages.
The no form of this command reverts to the default.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command enable PPP debug for the specified remote-id.
Multiple remote-id filters can be specified in the same debug command.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the identifier assigned to the data-bearer at the LMP peer node. For a GMPLS UNI, this is the UNI-N node.
no remote-id
7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures the identifier assigned to the TE Link at the LMP peer node. For a GMPLS UNI, this is the UNI-N node.
no remote-id
7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command enables the sending of remote ID option. The client DHCP Unique Identifier (DUID) is used as the remote ID.
The no form of the command disables the sending of remote ID option relay packet.
no remote-id
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
When enabled, the router sends the MAC address of the remote end (typically the DHCP client) in the remote-id suboption of the DHCP packet. This command identifies the host at the other end of the circuit. If disabled, the remote-id suboption of the DHCP packet will be left empty.
The no form of this command returns the system to the default.
no remote-id
All
This command configures the primary destination IPv4 or IPv6 address to use for an IP tunnel. This configuration applies to the outer IP header of the encapsulated packets. The source address, remote-ip address and backup-remote-ip address of a tunnel must all belong to the same address family (IPv4 or IPv6). When the remote-ip address contains an IPv6 address it must be a global unicast address.
no remote-ip
All
This command sets the primary destination IPv4 address of GRE encapsulated packets associated with a particular GRE tunnel. If this address is reachable in the delivery service (there is a route) then this is the destination IPv4 address of GRE encapsulated packets sent by the delivery service.
The no form of this command deletes the destination address from the GRE tunnel configuration.
All
This command configures the remote (from the tunnel) IP prefix/mask for the policy parameter entry.
Only one entry is necessary to describe a potential flow. The local-ip and remote-ip commands can be defined only once. The system will evaluate the local IP as the source IP when traffic is examined in the direction of VPN to the tunnel and as the destination IP when traffic flows from the tunnel to the VPN. The remote IP will be evaluated as the source IP when traffic flows from the tunnel to the VPN when traffic flows from the VPN to the tunnel.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
VSR
This command configures the far-end IP address for an IP/GRE tunnel used by a control-channel loopback interface. The address refers to the “to” address of the outer IP header in the encapsulation.
no remote-ip
7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command specifies the IPv4 or IPv6 address of the BFD destination.
The no form of this command removes this address from the configuration.
no remote-ip-address
ipv4-address: | a.b.c.d |
ipv6-address: | x:x:x:x:x:x:x:x (eight 16-bit pieces) |
x:x:x:x:x:x:d.d.d.d | |
x:-[0 to FFFF]H | |
d: [0 to 255]D |
All
This command configures the first IPv4 address that is assigned to a first member ISA on the remote node. The remaining member ISAs on the remote node are assigned the consecutive IP addresses starting from the first IP address. These IP addresses are used to communicate between the ISAs on redundant nodes for the purpose of flow synchronization. Traffic from the first local IP address (member ISA), is sent to the first IP address from the remote IP range.
The no form of this command removes the ip-address from the configuration.
no remote-ip-range-start
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command enables the use of the Remote LFA algorithm in the LFA SPF calculation for this ISIS instance.
The no form of this command disables the use of the Remote LFA algorithm in the LFA SPF calculation for this ISIS instance.
no remote-lfa
All
This command enables the use of the Remote LFA algorithm in the LFA SPF calculation in this OSPF or OSPF3 instance.
The no form of this command disables the use of the Remote LFA algorithm in the LFA SPF calculation in this OSPF or OSPF3 instance.
no remote-lfa
All
When enabled, the channel responds to requests for remote loopbacks.
no remote-loop-respond — The port will not respond.
7450 ESS, 7750 SR-7/12/12e, 7750 SR-a, 7750 SR-e
This command defines the destination IEEE MAC address to be used to reach the remote end of the circuit emulation service.
remote-mac 00:00:00:00:00:00
7450 ESS, 7750 SR-7/12/12e, 7750 SR-a, 7750 SR-e
Commands in this context configure remote management features.
All
This command configures the management interface to debug the remote-management managers.
The no form of this command removes the configuration.
All
This command configures the maximum number of rollback checkpoint files when the rollback-location is remote (for example, ftp).
no remote-max-checkpoints
All
This command configures the remote MEP ID. Optionally, the operator may configure a unicast MAC address associated with the remote MEP. This unicast value replaces the default Layer 2 class 1 multicast address that is typically associated with ETH-CC packets.
![]() | Note: This command is not supported with sub second CCM intervals. The unicast-da parameter may only be configured when a single remote MEP exists in the association. |
The no form of this command removes the peer information.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command specifies the remote MEP ID as an alternative to the static dest-mac ieee-address. When the remote-mepid option is configured as an alternative to the dest-mac, the domain and association information of the source mep within the session is used to check for a locally-stored unicast MAC address for the peer. The local MEP must be administratively enabled. Peer MEP MAC addresses are learned and maintained by the ETH-CC protocol.
The no form of this command removes this session parameter.
All
This command configures a string to be compared to the host name used by the tunnel peer during the authentication phase of tunnel establishment.
no remote-name
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command enables remote proxy ARP on the interface.
Remote proxy ARP is similar to proxy ARP. It allows the router to answer an ARP request on an interface for a subnet that is not provisioned on that interface. This allows the router to forward to the other subnet on behalf of the requester. To distinguish remote proxy ARP from local proxy ARP, local proxy ARP performs a similar function but only when the requested IP is on the receiving interface.
The no form of this command reverts to the default.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
All
This command enables remote proxy ARP on the interface.
Remote proxy ARP is similar to proxy ARP. It allows the router to answer an ARP request on an interface for a subnet that is not provisioned on that interface. This allows the router to forward to the other subnet on behalf of the requester. To distinguish remote proxy ARP from local proxy ARP, local proxy ARP performs a similar function but only when the requested IP address is on the receiving interface.
The no form of this command disables remote proxy ARP on the interface.
no remote-proxy-arp
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command enables remote proxy ARP on the interface.
no remote-proxy-arp
All
Commands in this context configure AAA remote servers on the VPRN.
All
This command is used on a destination router in a remote mirroring solution. The mirroring (packet copy) is performed on the source router and sent via an SDP to the destination router. Remote mirroring requires remote source configuration on the destination router.
Remote mirroring allows a destination router to terminate SDPs from multiple remote source routers. This allows consolidation of packet sniffers or analyzers at a single or small set of points in a network (for example, a sniffer or analyze farm, or lawful interception gateway).
A remote-source entry must be configured on the destination router for each source router from which mirrored traffic is being sent via SDPs.
A mirror destination service that is configured for a destination router must not be configured as for a source router.
The emote source configuration is not applicable when routable LI encapsulation is being used on the mirror source router. The remote source configuration is only used when a source router is sending mirrored traffic to a destination router via SDPs.
Two types of remote-source entries can be configured:
Certain remote source types are applicable with certain SDP types. For descriptions of the command usage in the mirror-dest context, see the far-end and spoke-sdp commands.
The no form of this command removes all remote-source entries.
All
This command specifies the remote v6 prefix for the security-policy entry.
ipv6-address/prefix: ipv6-address | x:x:x:x:x:x:x:x (eight 16-bit pieces) |
| x:x:x:x:x:x:d.d.d.d |
| x [0 to FFFF]H |
d [0 to 255]D | |
host bits must be 0 | |
:: not allowed | |
prefix-length [1 to 28] |
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
VSR
This command creates or edits a remote-ve-name. A single remote-ve-name can be created per BGP VPWS instance if the service is single-homed or uses a single pseudowire to connect to a pair of dual-homed systems. When the service requires active/standby pseudowires to be created to remote dual-homed systems then two remote-ve-names must be configured.
This context defines the remote PE to which a pseudowire will be signaled.
remote-ve-name commands can be added even if bgp-vpws is not shutdown.
The no form of this command removes the configured remote-ve-name from the bgp vpws node. It can be used when the BGP VPWS status is either shutdown or “no shutdown”.
All
This command removes the oldest subscriber host when the host limit is reached.
The no form of this command maintains the oldest subscriber host when the host limit is reached.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command allows private AS numbers to be removed from the AS path before advertising them to BGP peers.
The OS software recognizes the set of AS numbers that are defined by IANA as private. These are AS numbers in the range 64512 through 65535, inclusive.
The no form of this command used at the global level reverts to default value.
Private AS numbers are included in the AS path attribute.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
When this command is configured private AS numbers are removed or replaced when they are found inside the AS path of BGP routes advertised to peers within the scope of the command.
The set of AS numbers that are defined by IANA as private are in the range of 64512 to 65534, and 4200000000 to 4294967294, inclusive. In SR OS, this command also removes ASN 65535 and ASN 4294967295, which are reserved values.
The no form of this command (at the BGP instance level) implements the default behavior, private AS numbers are allowed without restriction or modification in routes advertised to peers.
no remove-private
All
When this command is configured private AS numbers are removed or replaced when they are found inside the AS path of BGP routes advertised to peers within the scope of the command.
The set of AS numbers that are defined by IANA as private are in the range of 64512 to 65534, and 4200000000 to 4294967294, inclusive. In SR OS, this command also removes ASN 65535 and ASN 4294967295, which are reserved values.
The no form of this command (at the BGP instance level) implements the default behavior, private AS numbers are allowed without restriction or modification in routes advertised to peers.
no remove-private
All
This command renews an imported certificate (specified by the cert cert-filename) with a Certificate Authority (CA) using the EST protocol specified by the est-profile name, with an imported private key specified the key parameter. The key can be either the key of the certificate to be renewed or a new key.
The authentication between system and EST server is specified by the est-profile.
The hash-alg hash-alorithm parameter is used to generate the CSR (Certificate Signing Request) in the EST request message.
All
This command configures the lease renew time (T1) via LUDB.
The T1 is the time at which the client contacts the addressing authority to extend the lifetimes of the DHCPv6 leases (addresses or prefixes). T1 is a time duration relative to the current time expressed in units of seconds.
The IP addressing authority controls the time at which the client contacts the addressing authority to extend the lifetimes on assigned addresses through the T1 and T2 parameters assigned to an IA. At time T1 for an IA, the client initiates a Renew/Reply message exchange to extend the lifetimes on any addresses in the IA. The client includes an IA option with all addresses currently assigned to the IA in its Renew message. Recommended values for T1 and T2 are .5 and .8 times the shortest preferred lifetime of the addresses in the IA that the addressing authority is willing to extend, respectively.
The configured renew timer should always be smaller than or equal to the rebind timer.
The T1 and T2 are carried in the IPv6 address option that is within the IA.
The no form of this command reverts to the default.
renew-timer min 30
days days | 0 to 7 |
hrs hours | 0 to 23 |
min minutes | 0 to 59 |
sec seconds | 0 to 59 |
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the default renew timer.
The no form of this command reverts to the default.
renew-timer min 30
days: | 0 to 7 |
hours: | 0 to 23 |
minutes: | 0 to 59 |
seconds | 0 to 59 |
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command controls the periodic interval at which sets of MAC notification messages are sent. At each expiration of the renotify timer, a new burst of notification messages is sent, specifically <count> frames at <interval> deci-seconds.
no renotify
All
This command renumbers existing MRP policy entries to properly sequence policy entries. This may be required in some cases since the implementation exits when the first match is found and executes the actions according to the accompanying action command. This requires that entries be sequenced correctly from most to least explicit.
All
This command renumbers existing QoS policy criteria entries to properly sequence policy entries.
This can be required in some cases since the router exits when the first match is found and executes the actions in accordance with the accompanying action command. This requires that entries be sequenced correctly from most to least explicit.
All
This command renumbers existing QoS policy criteria entries to properly sequence policy entries.
This can be required in some cases since the router exits when the first match is found and executes the actions in accordance with the accompanying action command. This requires that entries be sequenced correctly from most to least explicit.
All
This command renumbers existing MAC, IPv4/IPv6, IP exception filter, or IPv6 exception filter entries to properly sequence filter entries.
This may be required in some cases since the OS exits when the first match is found and executes the actions according to the accompanying action command. This requires that entries be sequenced correctly from most to least explicit.
All
VSR
This command renumbers existing management access filter entries for an IP(v4), IPv6, or MAC filter to re-sequence filter entries.
The exits on the first match found and executes the actions in accordance with the accompanying action command. This may require some entries to be re-numbered differently from most to least explicit.
All
This command renumbers existing IP(IPv4), IPv6, or MAC filter entries to re-sequence filter entries.
This may be required in some cases since the OS exits when the first match is found and execute the actions according to the accompanying action command. This requires that entries be sequenced correctly from most to least explicit.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command renumbers profile entries to re-sequence the entries.
Since the OS exits when the first match is found and executes the actions according to accompanying action command, re-numbering is useful to rearrange the entries from most explicit to least explicit.
All
This command allows the operator to renumber the existing entry ID to a new entry ID. When performing the renumbering action, the two entry IDs must be different. The existing (from) entry-id must exist. The new (to) entry-id must not exist.
Renumbering is not saved in the configuration because it is a performing action.
All
This command configures the time, in milliseconds, by which the audio packets are reordered in the ad stream.
Configuring this parameter depends on what is configured on the A Server and the GOP sizes of the network stream. Typically, this configuration should match the A Server configuration.
The no form of the command removes the time value from the configuration.
no reorder-audio
7450 ESS, 7750 SR-7/12/12e, 7750 SR-14s
This command checks a compact flash device for errors and repairs any errors found.
All
The number of times a characters can be repeated consecutively.
The no form of this command resets to default.
no repeated-characters
All
This command displays the specified line (a single line only) and allows it to be changed.
line, offset, first, edit-point, last | ||
line | absolute line number | |
offset | relative line number to current edit point. Prefixed with '+' or '-' | |
first | keyword - first line | |
edit-point | keyword - current edit point | |
last | keyword - last line that is not 'exit' |
This command replaces CDN Result-Code 4, 5 and 6 on LNS with the Result Code 2. This is needed for interoperability with some implementation of LAC which only takes action based on CDN Result-Code 2 while ignoring CDN Result-Code 4, 5 and 6.
no replace-result-code
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
Specifies the size of the replay protection window.
This command must be configured to force packet discard when it has detected a packet that is not within the replay-window-size.
When replay protection is enabled, the sequence of the ID number of the received packets are checked. If the packet arrives out of sequence and the difference between the packet numbers exceeds the replay window size, the packet is counted by the receiving port and then discarded. For example, if the replay protection window size is set to five and a packet assigned the ID of 1006 arrives on the receiving link immediately after the packet assigned the ID of 1000, the packet that is assigned the ID of 1006 is counted and discarded because it falls outside the parameters of the replay window size.
Replay protection is especially useful for fighting man-in-the-middle attacks. A packet that is replayed by a man-in-the-middle attacker on the Ethernet link will arrive on the receiving link out of sequence, so replay protection helps ensure the replayed packet is dropped instead of forwarded through the network.
Replay protection should not be enabled in cases where packets are expected to arrive out of order.
no replay-protection
All
This command specifies the size of the anti-replay window. The anti-replay window protocol further secures IPsec against an entity that can inject a recorded message in a message stream from a source to a destination computer on the Internet.
no replay-window
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
VSR
This command specifies the size of the replay protection window.
This command must be configured to enable replay protection. When replay protection is enabled, the sequence of the ID number of received packets are checked. If the packet arrives out of sequence and the difference between the packet numbers exceeds the replay protection window size, the packet is dropped by the receiving port. For example, if the replay protection window size is set to five and a packet assigned the ID of 1006 arrives on the receiving link immediately after the packet assigned the ID of 1000, the packet that is assigned the ID of 1006 is dropped because it falls outside the parameters of the replay protection window.
Replay protection is especially useful for fighting man-in-the-middle attacks. A packet that is replayed by a man-in-the-middle attacker on the Ethernet link will arrive on the receiving link out of sequence, so replay protection helps ensure the replayed packet is dropped instead of forwarded through the network.
Replay protection should not be enabled in cases where packets are expected to arrive out of order.
When the number-of-packets variable is set to 0, all packets that arrive out-of-order are dropped.
The no form of this command reverts to the default value.
replay-window-size 0
All
This command creates a P2MP SR tree replication segment entry for the P2MP LSP.
The no form of this command deletes the replication segment entry.
All
This command configures the replication SID or a SID list for the next hop of the P2MP SR tree replication segment.
When a SID list is configured, the replication SID is at the bottom of the stack and the unicast node or the adjacency SID is at the top of the stack. The SID at the top of the stack must be configured first in the list and the replication SID at the bottom of the list must be configured last in the list.
The no form of this command removes the replication SID.
All
This command configures the minimum duration of the flow that needs to be met before it is synchronized to the standby node. This way, flow synchronization and statefulness in a multi-chassis environment are limited only to long-lived flows.
The no form of this command reverts to the default values.
replication-threshold 20
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command enables replying to PPPoE Active Discovery Terminate (PADT) packets. Some of the PPPoE clients expect reply on PADT message before the context of the session is cleared up. To support such client, a command enabling reply to PADT is provided.
The no form of this command reverts to the default.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command enables logging of DS-3 and E-3 alarms for a DS-3/E-3 port or channel.
The no form of this command disables logging of the specified alarms.
7450 ESS, 7750 SR-7/12/12e, 7750 SR-a, 7750 SR-e
This command specifies when and if to generate alarms and alarm clear notifications for this port.
All
This command enables logging of SONET (SDH) line and section alarms for a SONET-SDH port. Only line and section alarms can be configured in the SONET/SDH context, for path alarms see the sonet-sdh>path context.
The no form of this command disables logging of the specified alarms.
This command is supported on TDM satellites.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command enables logging of SONET (SDH) path alarms for a SONET-SDH port. Only path alarms can be configured in the channel context.
The no form of this command disables logging of the specified alarms.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command enables logging of DS-1/DS-3 or E-1/E-3 alarms for DS-1/DS-3 or E-1/E-3 ports or channels.
The no form of this command disables logging of the specified alarms.
7450 ESS, 7750 SR-7/12/12e, 7750 SR-a, 7750 SR-e
This command indicates the type of CEM SAP alarm.
The no form of this command removes the parameter from the configuration.
On: stray, malformed, pktloss and overrun
Off: rpktloss, rfault, rrdi
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
7450 ESS, 7750 SR-7/12/12e, 7750 SR-a, 7750 SR-e
This command configures the type of alarm to monitor and raise through SNMP. The severity of alarms increases from TNC, to QoS, and then to POA. For example, if QoS alarms are configured, the analyzer only raises alarms and events related to QoS. The analyzer may raise alarms for POA events if they occur, but alarms for TNC are not sent.
no report-alarm
7450 ESS, 7750 SR-7/12/12e, 7750 SR-14s
This command configures the alarms that will be reported for the coherent module.
modflt mod netrx nettx hosttx
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command enables OTU alarms. Specify specific alarms to add to the list of reported alarms.
The no form of this command disables OTU alarm reporting.
loc, los, lof, lom, otu-ber-sf, otu-bdi, fec-sf
Alarm | Description |
loc | Loss of clock. |
lof | Loss of OTU framing. |
lom | Loss of Multi-frame. |
los | Loss of signal transitions on the data. |
otu-ais | OTU Alarm Indication Signal (all 1s, overwrites all OTU overhead, even framing bytes). |
otu-ber-sf | SM Signal Fail (based on BPI8). |
otu-ber-sd | SM Signal Degrade (based on BPI8). |
otu-bdi | SM Backward defect indication. |
otu-tim | SM Trace Id Mismatch. |
otu-iae | SM Incoming Alignment Error. |
otu-biae | SM Backward Incoming Alignment Error. |
fec-sf | Signal Fail (based on FEC corrected bits). |
fec-sd | Signal Degrade (based on FEC corrected bits). |
fec-fail | FEC Mode mismatch (EFEC-GFEC) or High Uncorrectable rate (>10E-2). |
fec-uncorr | One or More Uncorrectable FEC errors. |
odu-ais | ODU Alarm Indication Signal. |
odu-oci | ODU Open connection Indication. |
odu-lck | ODU Locked. |
odu-bdi | PM Backward Defect indication. |
odu-tim | PM Trace Id Mismatch. |
opu-plm | OPU PSI Payload Type Mismatch. |
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command enables triggered CCR-u messages based on IP address allocation or de-allocation for the subscriber host.
If the requests for both IP address families (IPv4 and IPv6) arrive at approximately the same time, a single CCR-i is sent containing the IP addresses from both address families, IPv4 and IPv6 (NA, PD, or SLAAC). When the requests for IP addresses are not nearly simultaneous, the CCR-i contains only the IP address that was allocated first (the one that triggered the session creation). The request for the second IP address family, depending on configuration, triggers an additional CCR-u that will carry the IP address allocation update to the PCRF along with the UE_IP_ADDRESS_ALLOCATE (18) event. The CCR-u content mirrors the content of the CCR-i with the exception of already allocated IP address(es).
When this command is disabled, IP address-triggered CCR-u messages are not sent.
The no form of this command disables the command.
report-ip-address-event
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command enables local route reporting to the BMP monitoring station.
The no form of this command disables the local route reporting.
All
This command enables the inclusion of LSP path constraints in the PCE report messages sent from the PCC to a PCE.
In order for the PCE to know about the original constraints for an LSP which is delegated, but for which there is no prior state in its LSP database, such as if no PCReq message was sent for the same PLSP-ID, the following proprietary behavior is observed:
The no form of the command disables the above behavior in case of interoperability issues with third-party PCE implementations.
report-path-constraints
All
This command configures the source for Tx and Rx connect speeds in AVP 38 (Rx Connect Speed) and AVP 24 (Tx Connect Speed) of an L2TP session established on a LAC.
The no form of this command reverts to the default.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the source IPv4 address used when generating IGMP reports. According the IGMPv3 standard, a zero source address is allowed in sending IGMP reports. However, for interoperability with some multicast routers, the source IP address of IGMP group reports can be configured using this command.
report-src-ip 0.0.0.0
All
This command configures the source IPv6 address used when generating MLD reports. A zero source address is allowed in sending MLD reports. However, for interoperability with some multicast routers, the source IP address of MLD reports can be configured using this command.
report-src-ip 0:0:0:0:0:0:0:0
All
This command enables reporting the WLAN location or cellular location of the UE in the signaling interface (S2a or Gn) between the WLAN GW and the mobile gateway (PGW or GGSN).
The no form of this command disables location reporting.
no report-wlan-location
7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command enables reporting of the used interim credit for each rating group when a new Diameter Gy session is successfully established with the Online Charging Server (OCS). When enabled, the used interim credit report includes:
The no form of this command disables interim credit reporting. Only credit assigned via the new established Diameter Gy session is reported.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the X2 and X3 keep-alive timeout.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
Commands in this context configure access operations that are sent to the TACACS+ server during authorization.
All
This command configures a RADIUS script policy to modify Access-Request.
The no form of this command removes the policy-name from the configuration.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the RADIUS script policy used to change the RADIUS attributes of the outgoing Access-Request messages.
The no form of this command removes the policy name from the configuration.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the control channel status request mechanism. When it is configured, control channel status request procedures are used. These augment the procedures for control channel status messaging from RFC 6478. This command cannot be used with a non-zero refresh-timer value.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
7450 ESS, 7750 SR-7/12/12e, 7750 SR-a, 7750 SR-e, 7950 XRS
All
This command configures the control channel status request mechanism. When it is configured, control channel status request procedures are used. These augment the procedures for control channel status messaging from RFC 6478, Pseudowire Status for Static Pseudowires. This command cannot be used with a non-zero refresh-timer value.
All
This command configures the control channel status request mechanism. When it is configured, control channel status request procedures are used. These augment the procedures for control channel status messaging from RFC 6478. This command is mutually exclusive with a non-zero refresh-timer value.
All
This command configures the control channel status request mechanism. When it is configured, control channel status request procedures are used. These augment the procedures for control channel status messaging from RFC 6478. This command is mutually exclusive with a non-zero refresh-timer value.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
All
This command configures the control channel status request mechanism. When it is configured, control channel status request procedures are used. These augment the procedures for control channel status messaging from RFC 6478. This command is mutually exclusive with a non-zero refresh-timer value.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command enables debugging for RIP requests.
All
This command enables debugging for RIP requests.
All
Force the minimum number of different character classes required.
The no form of this command resets to default.
required lowercase 0 uppercase 0 numeric 0 special-character 0
All
The location and filename of the rescue configuration is configurable to be local (on compact flash) or remote. The suffix .rc will be automatically appended to the filename when a rescue configuration file is saved. Trivial FTP (TFTP) is not supported for remote locations.
no rescue location
local-url | remote-url | |
local-url | [cflash-id/][file-path] up to 200 characters, including cflash-id directory length of up to 99 characters each |
remote-url | [{ftp://}login:pswd@ remote-locn/][file-path] up to 255 characters, directory length of up to 99 characters each |
remote-locn | [hostname | ipv4-address | ipv6-address] |
ipv4-address | a.b.c.d |
ipv6-address | x:x:x:x:x:x:x:x[-interface] |
x:x:x:x:x:x:d.d.d.d[-interface] | |
x - [0 to FFFF]H | |
d - [0 to 255]D | |
interface - 32 chars max, for link local addresses | |
cflash-id | cf1:, cf1-A:, cf1-B:, cf2:, cf2-A:, cf2-B:, cf3:, cf3-A:, cf3-B: |
rescue filename | suffixed with .rc during the rescue file creation |
All
This command configures the number of sessions per block that are reserved for prioritized sessions.
no reserved
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures the number of sessions per block that will be reserved for prioritized sessions.
no reserved
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures the number of ports per block that will be reserved for prioritized sessions.
no reserved
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
Commands in this context configure a block of labels from the dynamic range to be locally assigned for specific applications, such as Segment Routing adjacency SIDs. The reserved label block is not advertised by the IGP.
The no form of this command removes a reserved label block.
All
This command specifies the reserved label block for use in all label-FIB entries programmed using the RIB-API gRPC service. The named reserved label block must already have been configured under config>router>mpls>mpls-labels.
The no form of this command removes the assignment of the reserved label block, causing all existing label-FIB entry programming, using the RIB-API gRPC service, to become invalid and unusable.
no reserved-label-block
All
This command specifies the reserved label block to use for all MPLS forwarding policies. The named reserved label block must already have been configured under config>router>mpls-labels.
The no form of the command removes the assignment of the reserved label block.
All
This command associates a reserved label block with segment routing policies. The name must already exist. Reserved label blocks are configured under the config>router>mpls-labels hierarchy.
A locally-targeted segment routing policy (statically configured or BGP signaled) cannot be activated if its binding SID (BSID) is not an available label between the start-label and end-label of the referenced reserved label block.
The no form of this command removes any association of segment routing policies with a reserved label block.
no reserved-label-block
All
This command configures the reserved label block name for the P2MP SR tree. Before configuring for the P2MP SR tree, the reserved label block name must be configured on the root node of the P2MP policy in the config>router>mpls-labels context.
The no form of this command removes the reserved label block name for the P2MP SR tree.
no reserved-lbl-block
All
This command configures the behavior of the card when a fatal memory parity error is detected on a Q-chip of the card. If reset-on-recoverable-error is enabled, the card is reset, regardless of the setting of the fail-on-error parameter.
The no form of this command specifies that the recovery action is taken instead of resetting the card.
no reset-on-recoverable-error
7450 ESS, 7750 SR-7/12/12e
This command configures the behavior of the MDA when a fatal memory parity error is detected on a Q-chip of the MDA. If reset-on-recoverable-error is enabled, the MDA is reset, regardless of the setting of the fail-on-error parameter.
The no form of this command specifies that the recovery action is taken instead of resetting the MDA.
no reset-on-recoverable-error
7750 SR-s, 7950 XRS
This command configures the behavior of the XIOM when a fatal memory parity error is detected on a Q-chip of the XIOM. If reset-on-recoverable-error is enabled, the XIOM is reset, regardless of the setting of the fail-on-error parameter.
The no form of this command specifies that the recovery action is taken instead of resetting the XIOM.
no reset-on-recoverable-error
7750 SR-s
This command allows an authorized administrator to reset the exclusive policy editing lock. This will reset the lock flag and end the policy editing session in progress, discarding any policy edits.
All
This command enables debugging for reset query RPKI packets.
The no form of this command disables debugging for reset query RPKI packets.
All
This command enables the system to drop a TCP packet and generate a TCP reset, when a TCP packet without the SYN flag set is received by the NAT inside for an unknown flow.
The no form of this command disables sending the reset, but the packet is still dropped.
no reset-unknown-tcp
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command introduces the ad-hoc resignaling of all SR-TE LSPs at the receipt of one or more IGP link down events in TE-DB. Once the re-optimization is triggered, the behavior is exactly the same as the timer based resignal or the delay option of the manual based resignal. MPLS forces the expiry of the resignal timer and asks TE-DB to re-evaluate the active paths of all SR-TE LSPs. The re-evaluation consists of updating the total IGP or TE metric of the current path, checking the validity of the hops and labels, and computing a new CSPF for each SR-TE LSP. MPLS programs the new path only if the total metric of the new computed path is different than the updated metric of the current path, or if one or more hops or labels of the current path are invalid. Otherwise, the current path is considered to be one of the most optimal ECMP paths and is not updated in data path.
All
This command enables the resignaling of all RSVP-TE LSPs at the receipt of the IS-IS overload bit in the TE-DB.
Once the re-optimization is triggered, the behavior is the same as the timer-based resignal or the delay option of the manual-based resignal. MPLS forces the expiry of the resignal timer and requests the TE-DB to compute a new CSPF for each RSVP-TE LSP active path.
This re-optimization effectively causes the immediate move of transit RSVP-TE LSP paths away from the IS-IS node in overload.
By default, MPLS re-optimizes, using the MBB procedure, the transit paths away from the node in an IS-IS overload state only at the time a manual or timer-based resignal is performed for the LSP paths. MPLS does not act immediately on the receipt of the IS-IS overload bit.
![]() | Note: This command and the retry-on-overload command are mutually exclusive. |
The no form of this command results in the MPLS not acting immediately to the request of the IS-IS overload bit.
no resignal-on-overload
All
This command specifies the value for the LSP resignal timer. The resignal timer is the time, in minutes, the software waits before attempting to resignal the LSPs.
When the resignal timer expires, if the new computed path for an LSP has a better metric than the current recorded hop list, an attempt is made to resignal that LSP using the make-before-break mechanism. If the attempt to resignal an LSP fails, the LSP continues to use the existing path and a resignal will be attempted the next time the timer expires.
The no form of this command disables timer-based LSP resignaling.
no resignal-timer
All
This command specifies the value for the SR-TE LSP resignal timer when the path computation method is set to the local CSPF or the PCE.
The resignal timer is the time, in minutes, MPLS waits before attempting to re-optimize all paths of all SR-TE LSPs. The re-optimization is performed by the local CSPF or the PCE, depending on the value of the parameter path-computation-method.
When local CSPF is used and the resignal timer expires, MPLS provides the current path of the SR-TE LSP and TE-DB updates the total IGP or TE metric of the current path and checks the validity of the hops and labels. CSPF then computes a new path for each SR-TE LSP. MPLS programs the new path only if the total metric of the new computed path is different than the updated metric of the current path, or if one or more hops or labels of the current path are invalid. Otherwise, the current path is considered to be one of the most optimal ECMP paths and is not updated in data path.
The no form of this command disables timer-based LSP resignaling.
no resignal-timer
All
This command configures the resolution mode in the automatic binding of a BGP-EVPN or BGP-IPVPN MPLS service to tunnels to MP-BGP peers.
resolution disabled
All
This command determines the resolution mode for the associated static route to a tunnel next hop.
resolution any
All
This command configures the resolution mode in the resolution of BGP label routes using tunnels to BGP peers.
All
This command configures the resolution mode in the resolution of BGP prefixes using tunnels to BGP peers.
All
This command configures resolution mode in the resolution of the IP prefix or SR tunnel family using IGP shortcuts.
All
This command configures resolution mode in the resolution of the IP prefix or SR tunnel family using IGP shortcuts.
All
This command configures resolution mode in the resolution of the IPv6 prefix using IGP shortcuts.
All
This command configures the resolution method for tunnel selection.
resolution any
Commands in this context configure the subset of tunnel types that can be used in the resolution of BGP-EVPN or BGP-IPVPN routes within the automatic binding of BGP-EVPN or BGP-IPVPN MPLS service to tunnels to MP-BGP peers.
The following tunnel types are supported in a BGP-EVPN or BGP-IPVPN MPLS context: BGP, LDP, RIB-API, RSVP, SR-ISIS, SR-OSPF, SR-policy, SR-TE, UDP, and MPLS forwarding policy.
The user must set resolution to filter to activate the list of tunnel-types configured under resolution-filter.
![]() | Note: UDP tunnels are created through import policies with action create-udp-tunnel. |
All
This command creates the context to configure the tunnel next-hop resolution options.
If one or more tunnel filter criteria are specified, the static route nexthop is resolved to an available tunnel from one of those LSP types. The tunnel type is selected based on the TTM preference.
All
Commands in this context set resolution filter types.
All
This command configures the subset of tunnel types that can be used to resolve BGP unlabeled routes.
All
Commands in this context configure the subset of tunnel types which can be used in the resolution of the IP prefix or SR tunnel family using IGP shortcuts.
All
Commands in this context configure the subset of tunnel types that can be used in the resolution of the IP prefix or SR tunnel family using IGP shortcuts.
All
This command configures the frequency at which a resolve message is sent. The resolve message is an ARP-request or NS message flooded to all the non-EVPN endpoints in the service irrespective of the current status of the unknown-arp-request-flood-evpn or unknown-ns-flood-evpn commands.
resolve 5
All
By default, MLDP resolves the FEC using the unicast RTM. When this command is set to mcast-rtm, MLDP will resolve the FEC using the multicast route table. The multicast route table does not include any IGP shortcuts, unlike the unicast RTM. MLDP cannot resolve a FEC using an IGP shortcut, so if IGP shortcuts are used for unicast, enable multicast MLDP lookups.
If this command is set to mcast-rtm:
resolve-root-using ucast-rtm
All
This command has an affect only in BGP route-table-import policies and applies only to BGP IPv4 and IPv6 routes created by importing static routes with indirect next-hops. When such a route matches a policy entry with this action, the BGP next-hop is the resolved next-hop of the static route.
The no form of this command reverts to the default behavior, which copies the indirect next-hop of the static route into the BGP next-hop without resolving it further.
no resolve-static
All
This command specifies HTTP URL of the OCSP responder for the CA, this URL will only be used if there is no OCSP responder defined in the AIA extension of the certificate to be verified.
no responder-url
All
This command specifies a imported certificate that is used to verify the CMP response message if they are protected by signature. If this command is not configured, then CA’s certificate will be used.
no response-signing-cert
All
This command specifies a imported certificate that is used to verify the CMP response message if they are protected by signature. If this command is not configured, then CA’s certificate will be used.
no response-signing-cert
This command configures backoff timer parameters that determine how often and how long the system will attempt to restart a PPPoE client after a failure. When a client first fails, the system immediately tries to re-establish connectivity. If this attempt is also unsuccessful, the system initiates a backoff timer and waits until it expires before attempting to restart the client again, to avoid flooding the BNG. The initial duration of the backoff timer is configured with the initial-time parameter. With each subsequent failure, the backoff timer is doubled until the configured max-time is reached.
The no form of this command reverts to the default.
restart-backoff initial-time 30 max-time 600
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command sets the value of the restart-time that is advertised in the router’s graceful-restart capability. If this command is not configured, the default is 300.
no restart-time
All
This command sets the value of the restart-time that is advertised in the router’s graceful-restart capability. If this command is not configured, the default is 300.
no restart time
All
This command specifies that the initial profiles must be restored after a DHCP host has disconnected. The behavior that system will restore the initial-sla-profile, initial-sub-profile, or initial-app-profile when hosts disconnects instead of removing them.
The no form of this command specifies that the initial profiles will not be restored after a DHCP host has disconnected.
restore-disconnected
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command specifies the behavior that system will restore the initial-sla-profile, initial-sub-profile, or initial-app-profile when hosts disconnects instead of removing them.
The no form of this command reverts to the default.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command indicates how the agent will handle relearn requests for protected MAC addresses, either manually added using the mac-protect command or automatically added using the auto-learn-mac-protect command. While enabled all packets entering the configured SAP, spoke SDP, mesh SDP, or any SAP that is part of the configured split horizon group (SHG) is verified not to contain a protected source MAC address. If the packet is found to contain such an address, the action taken depends on the parameter specified on the restrict-protected-src command, namely:
When the restrict-protected-src is enabled on an SHG the action only applies to the associated SAPs (no action is taken by default for spoke SDPs in the SHG) and is displayed in the SAP show output as the oper state unless it is overridden by the configuration of restrict-protected-src on the SAP itself. To enable this function for spoke SDPs within a SHG, the restrict-protected-src must be enabled explicitly under the spoke SDP. If required, restrict-protected-src can also be enabled explicitly under specific SAPs within the SHG.
When this command is applied or removed, with either the alarm-only or discard-frame parameters, the MAC addresses are cleared from the related object.
The use of restrict-protected-src discard-frame is mutually exclusive with the configuration of manually protected MAC addresses within a given VPLS.
The alarm-only parameter is not supported on the 7750 SR-a, 7750 SR-1e/2e/3e, 7950 XRS, 7750 SR-1,or 7750 SR-1s/2s/7s/14s platforms.
The no form of the command reverts to the default.
no restrict-protected-src
All
This command indicates how the agent handles relearn requests for protected MAC addresses, either manually added using the mac-protect command or automatically added using the auto-learn-mac-protect command. While enabled, all packets entering the configured SAP, spoke SDP, mesh SDP, or any SAP that is part of the configured split horizon group (SHG) is verified not to contain a protected source MAC address. If the packet is found to contain such an address, the action taken depends on the parameter specified on the restrict-protected-src command, namely:
When the restrict-protected-src is enabled on an SHG, the action only applies to the associated SAPs (no action is taken by default for spoke-SDPs in the SHG) and is displayed in the SAP show output as the oper state unless it is overridden by the configuration of restrict-protected-src on the SAP itself. To enable this function for spoke SDPs within a SHG, the restrict-protected-src must be enabled explicitly under the spoke SDP. If required, restrict-protected-src can also be enabled explicitly under specific SAPs within the SHG.
When this command is applied or removed, with the discard-frame parameter, the MAC addresses are cleared from the related object.
The use of restrict-protected-src discard-frame is mutually exclusive with the configuration of manually protected MAC addresses within a specified VPLS.
no restrict-protected-src
All
This command enables protected SRS MAC restrictions.
All
This command indicates how the system will forward packets destined for an unprotected MAC address, either manually added using the mac-protect command or automatically added using the auto-learn-mac-protect command. While enabled all packets entering the configured SAP or SAPs within a split horizon group (but not spoke or mesh-SDPs) will be verified to contain a protected destination MAC address. If the packet is found to contain a non-protected destination MAC, it will be discarded. Detecting a non-protected destination MAC on the SAP will not cause the SAP to be placed in the operationally down state. No alarms are generated.
If the destination MAC address is unknown, even if the packet is entering a restricted SAP, with restrict-unprotected-dst enabled, it will be flooded.
no restrict-unprotected-dst
All
This command prevents users from navigating above their home directories for file access (either by means of CLI sessions with the file command, '>' redirection, or by means of FTP). A user is not allowed to navigate to a directory higher in the directory tree on the home directory device. The user is allowed to create and access subdirectories below their home directory.
When enabled, this command prevents a user from being able to execute an admin save command for the configuration if they do not have access to the directory where the configuration file is saved. The same behavior applies for the bof save command and the li save command.
If a home-directory is not configured or the home directory is not available, then the user has no file access.
The no form of this command allows the user access to navigate to directories above their home directory.
no restricted-to-home
All
This command is used to specify the location where the system writes the output of an event script’s execution.
The no form of the command removes the file location from the configuration. Scripts will not execute if there is no result location defined.
no results
file-url_YYYYMMDD-hhmmss.uuuuuu.out
where:
YYYYMMDD — date
hhmmss — hours, minutes, and seconds
uuuuuu — microseconds (padded to 6 characters with leading zeros)
All
This command enables and disables debugging for GMPLS Resv events.
7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command enables debugging for GMPLS Resv packets.
The no form of the command disables debugging for GMPLS Resv packets.
7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command debugs RSVP reservation events.
The no form of the command disables the debugging.
All
This command enables debugging for RSVP resv packets.
The no form of the command disables the debugging.
All
This command defines the percentage or specifies the sum of the pool buffers that are used as a guideline for CBS calculations for access and network ingress and egress queues. Two actions are accomplished by this command:
It is important to note that this command does not actually set aside buffers within the buffer pool for CBS reservation. The CBS value per queue only determines the point at which enqueuing packets are subject to a RED slope. Oversubscription of CBS could result in a queue operating within its CBS size and still not able to enqueue a packet due to unavailable buffers. The resv-cbs parameter can be changed at any time.
If the total pool size is 10 Mb and the resv-cbs set to 5, the ‘reserved size’ is 500 kb.
The no form of this command clears all the adaptive configurations. There cannot be any adaptive sizing enabled for default resv-cbs.
resv-cbs 30
All
This command defines the amount of buffers within the WRED mega-pool that will be set aside for WRED queues operating within their configured CBS thresholds. Note that the min percentage and max percentage parameters must be set to the same value. The forwarding plane protects against WRED queue buffer starvation by setting aside a portion of the buffers within the WRED mega-pool. The WRED queue CBS threshold defines when a WRED queue requests buffers from reserved portion of the WRED mega-pool and when it starts requesting buffers from the shared portion of the mega-pool. With proper oversubscription provisioning, this prevents a seldom active queue from being denied a buffer from the mega-pool when the shared portion of the mega-pool is congested.
The WRED mega-slope reserve CBS size is controlled in the same manner as the overall sizing of the WRED mega-pool. A min and max parameter is provided to scope the range that the reserved portion based on percentages of the WRED mega-pool current size.
The no form of this command immediately restores the default min and max percentage values for sizing the WRED mega-pool CBS reserve.
resv-cbs min 25.00 max 25.00
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command defines the percentage or specifies the sum of the pool buffers that are used as a guideline for CBS calculations for access and network ingress and egress queues. Two actions are accomplished by this command:
It is important to note that this command does not actually set aside buffers within the buffer pool for CBS reservation. The CBS value per queue only determines the point at which enqueuing packets are subject to a RED slope. Oversubscription of CBS could result in a queue operating within its CBS size and still not able to enqueue a packet due to unavailable buffers. The resv-cbs parameter can be changed at any time.
If the total pool size is 10 Mb and the resv-cbs set to 5, the ‘reserved size’ is 500 kb.
The no form of this command clears all the adaptive configurations. There cannot be any adaptive sizing enabled for default resv-cbs.
resv-cbs 30
All
This command defines the percentage or specifies the sum of the pool buffers that are used as a guideline for CBS calculations for access and network ingress and egress queues. Two actions are accomplished by this command.
This command does not actually set aside buffers within the buffer pool for CBS reservation. The CBS value per queue only determines the point at which enqueuing packets are subject to a RED slope. Oversubscription of CBS could result in a queue operating within its CBS size and still not able to enqueue a packet due to unavailable buffers. The resv-cbs parameter can be changed at any time.
If the total pool size is 10 MB and the resv-cbs set to 5, the ‘reserved size’ is 500 KB.
The no form of this command restores the default value of 30.
resv-cbs default
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command provides a mechanism to reserve an explicit amount of egress bandwidth, in Mb/s, for RET for all the ISAs within a video group. If the amount of egress bandwidth is less than the reserved amount, FCC requests are discarded and only RET requests processed. The bandwidth is dynamically adjusted per ISA within the video group if an ISA becomes operational/non-operational within the group.
resv-ret 0
7450 ESS, 7750 SR-7/12/12e, 7750 SR-14s
This command enables debugging for GMPLS ResvErr packets.
The no form of the command disables debugging for GMPLS ResvErr packets.
7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command debugs ResvErr packets.
The no form of the command disables the debugging.
All
This command enables debugging for GMPLS ResvTear packets.
The no form of the command disables debugging for GMPLS ResvTear packets.
7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command debugs ResvTear packets.
The no form of the command disables the debugging.
All
This command sets the watermark to trigger the SNMP trap if the RET bandwidth or session exceeds the configured percentage. The bandwidth is the available egress bandwidth of the ISA. The SNMP trap is cleared when the consumption is lowered by 10%. For example, if the system resource of the bandwidth available is 10 Gb/s and the watermark is configured to be 90%, the SNMP trap is raised as the bandwidth exceeds 9 Gb/s (90% of 10 Gb/s). The SNMP trap is cleared when the bandwidth drops below 8.1 Gb/s (10% of 9 Gb/s = 0.9 Gb/s, and 9 Gb/s - 0.9 Gb/s = 8.1 Gb/s). The default value of the watermark is set at 90% of the system resources for both bandwidth and session.
ret 90
7450 ESS, 7750 SR-7/12/12e, 7750 SR-14s
By default, the video ISA will wait for 5 minutes before closing the RTCP session from the subscriber. The RTCP session can be adjusted from 5 second to 5 minutes. The timeout is applicable to both RET and FCC RTCP sessions.
The no form of the command reverts to the default.
ret-session-timeout 300
7450 ESS, 7750 SR-7/12/12e, 7750 SR-14s
This command indicates the service ID of the retailer VPRN service to which this session belongs. If the value of this object is non-zero, the session belongs to a retailer VPRN.
The no form of this command removes the service ID from the configuration.
service-id: | 1 to 2147483647 |
service-name: | up to 64 characters |
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command specifies the service id of the retailer IES/VPRN service to which the static IPv6 host belongs. A corresponding retailer subscriber interface must exist in the specified service.
The no form of this command reverts to the default.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the retailer service.
7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command specifies the interval between resubmitted LMP messages.
retransmission-interval 500
7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures the minimum time between LSP PDU retransmissions on a point-to-point interface. This command is valid only for interfaces on control B-VPLS.
The no form of this command reverts to the default value.
retransmit-interval 5
All
This command configures the minimum time between LSP PDU retransmissions on a point-to-point interface.
The no form of this command reverts to the default value.
retransmit-interval 100
All
This command configures the minimum time between LSP PDU retransmissions on a point-to-point interface.
The no form of this command reverts to the default value.
retransmit-interval 5
1 to 65535.
All
This command specifies the length of time, in seconds, that OSPF will wait before retransmitting an unacknowledged link state advertisement (LSA) to an OSPF neighbor.
The value should be longer than the expected round trip delay between any two routers on the attached network. Once the retransmit interval expires and no acknowledgment is received, the LSA is retransmitted.
The no form of this command reverts to the default interval.
retransmit-interval 5
All
This command configures the minimum time between LSP PDU retransmissions on a point-to-point interface.
The no form of this command reverts to the default value.
retransmit-interval 5
All
This command specifies the length of time, in seconds, that OSPF will wait before retransmitting an unacknowledged link state advertisement (LSA) to an OSPF neighbor.
The value should be longer than the expected round trip delay between any two routers on the attached network. After the retransmit-interval expires and no acknowledgment has been received, the LSA will be retransmitted.
The no form of this command reverts to the default interval.
retransmit-interval 5
All
This command configures the value to be placed in the retransmit timer field in router advertisements sent from this interface.
The no form of this command reverts to the default.
retransmit-time 0
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
All
This command configures the number of times the same Heartbeat Request message is sent before the PFCP path to the peer is considered down.
The no form of this command reverts to the default value.
retries 4
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the number of times a message is retried before the message is considered lost. This retry number is also known as N1.
The no form of this command reverts to the default value.
retries 3
This value should be identical on both the BNG UPF and CPF. For information about the BNG CUPS CPF configuration, refer to the CMG BNG CUPS Control Plane Function Guide and the 7750 SR MG and CMG CLI Reference Guide.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the number of TCP keepalive probes sent by the router that must be unacknowledged before the connection is closed.
The no form of this command reverts to the default value.
retries 4
All
This command configures the number of missed TCP keepalive probes before the TCP connection is closed and attempts are made to reach other destinations within the same destination group.
The no form of this command reverts to the default value.
retries 4
All
This command configures the number of times the router attempts to contact the RADIUS server for authentication.
![]() | Note: The retry count includes the first attempt. |
The no form of this command reverts to the default value.
retry 3 (the initial attempt as well as two retried attempts)
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the number of times the router attempts to contact the RADIUS accounting server if a response to the initial message is not received.
The no form of this command reverts to the default value.
retry 3
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures the number of times the router attempts to contact the RADIUS server for authentication or accounting, if not successful the first time.
The no form of this command reverts to the default value.
retry 3
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the number of times the router attempts to contact the RADIUS server, if not successful the first time.
The no form of this command reverts to the default.
retry 3
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
Specifies the timer after which the MAC in hold-down state is automatically flushed and the mac-duplication process starts again. This value is expected to be equal to two times or more than that of window.
If no retry is configured, this implies that, when mac-duplication is detected, MAC updates for that MAC will be held down till the user intervenes or a network event (that flushes the MAC) occurs.
retry 9
All
This command configures the number of times the router attempts to contact the RADIUS server for authentication if there are problems communicating with the server.
The no form of this command reverts to the default value.
retry 3
All
This command specifies the number of retries on transport protocol level.
When the virtual router does not receive any data from a server (e.g., FTP or HTTP server) after the configured timeout seconds, the router may repeat the request to the server. The number of retries specifies the maximum number of repeated requests.
The no form of this command disables the retry.
no retry
All
This command configures the number of times the router attempts to contact the RADIUS server for authentication, if not successful the first time.
The no form of the command reverts to the default value.
retry 3
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures the number of times the router attempts to contact the RADIUS server for authentication if there are problems communicating with the server.
The no form of this command reverts to the default value.
retry 3
All
This command configures the number of retries for the SR OS in its attempt to reach the current LDAP server before attempting the next server.
The no form of this command reverts to the default value.
retry 3
All
This command configures the number of retransmissions.
The no form of this command reverts to the default.
retry-count 1 — For trigger-type ip-conflict, host-limit-exceeded and mobility
retry-count 10 — For trigger-type inactivity and MAC learning
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the number of retransmissions in periodic connectivity verification.
The no form of this command reverts to the default.
retry-count 1
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This optional command specifies the number of attempts software should make to reestablish the spoke SDP after it has failed. After each successful attempt, the counter is reset to zero.
When the specified number is reached, no more attempts are made and the spoke-sdp is put into the shutdown state.
Use the no shutdown command to bring up the path after the retry limit is exceeded.
The no form of this command reverts the parameter to the default value.
retry-count 30
All
In the path discovery phase of the LDP tree trace feature, this command configures the number of retransmissions of an LSP trace message to discover the path of an LDP FEC when no response is received within the timeout parameter.
In the path-probing phase of the LDP tree trace, this command configures the number of retransmissions of an LSP ping message to probe the path of an LDP FEC when no response is received within the timeout parameter.
The no form of this command resets the retry count to its default value.
no retry-count
All
This optional command specifies the number of attempts software should make to re-establish the spoke SDP after it has failed. After each successful attempt, the counter is reset to zero.
When the specified number is reached, no more attempts are made and the spoke SDP is put into the shutdown state.
Use the no shutdown command to bring up the path after the retry limit is exceeded.
The no form of this command reverts the parameter to the default value.
no retry-count
All
This command specifies the number of OAM loopback attempts that must fail after the periodic attempt before the endpoint will transition to AIS-LOC state.
The retry values are configured on a system wide basis and are affective on the next period cycle of any ATM VC SAP using periodic-loopback, if changed. The timeout for receiving a loopback response from the remote peer and declaring the loopback failed is 1 second and is not configurable.
no retry-down
7450 ESS, 7750 SR-7/12/12e, 7750 SR-a, 7750 SR-e, 7950 XRS
This command sets the duration, in minutes, of the retry interval. The retry interval is the interval meant for the system to retry sending an Access Request message after the previous one was unanswered (not with an access reject but rather just a RADIUS failure or ICMP port unreachable). This timer is actually an exponential backoff timer that starts at min and is capped at max minutes.
The no form of this command reverts to the default values.
retry-interval min 10 max 20
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the time interval between two consecutive retransmissions
The no form of this command reverts to the default.
retry-interval 2000
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command specifies the interval, in seconds, that the system waits before retrying the configured url-entry list when schedule-type is next-update-based and none of the URLs return a qualified CRL.
The no form of this command causes the system to retry immediately without waiting.
retry-interval 3600
All
This command specifies the value of the MLFR bundle N_RETRY counter.
The counter specifies the number of times a retransmission onto a bundle link will be attempted before an error is declared and the appropriate action taken.
retry-limit 2
7450 ESS, 7750 SR-7/12/12e
This command specifies how many times LMP resends a message before restarting the process.
no retry-limit
7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This optional command specifies the number of attempts software should make to re-establish the GMPLS LSP after it has failed. After each successful attempt, the counter is reset to zero.
When the specified number is reached, no more attempts are made and the GMPLS LSP path is put into the shutdown state.
Use the config router gmpls lsp lsp-name no shutdown command to bring up the path after the retry limit is exceeded.
retry-limit 0 (no limit, retries forever)
7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This optional command specifies the number of attempts software should make to re-establish the LSP after it has failed LSP. After each successful attempt, the counter is reset to zero.
When the specified number is reached, no more attempts are made and the LSP path is put into the shutdown state.
Use the config router mpls lsp lsp-name no shutdown command to bring up the path after the retry-limit is exceeded.
For P2MP LSP that are created based on the LSP template, all S2Ls must attempt to retry-limit before the client application is informed of failure.
The no form of this command reverts to the default value.
retry-limit 0 (no limit, retries forever)
All
This command allows for the global configuration of the handling in the ingress LER of the LSP paths which transit an LSR that advertised the IS-IS overload bit.
By default, MPLS re-optimizes using make-before-break (MBB) the transit paths away from the node in an IS-IS overload state only at the time a manual or timer-based re-signal is performed for the LSP paths. MPLS will not act immediately on the receipt of the IS-IS overload bit.
When this command is enabled, MPLS in the ingress LER immediately tears down and re-signals all LSP paths away from a transit LSR node which advertised the IS-IS overload bit.
LSP paths that terminate on the node that advertised the IS-IS overload bit are not acted on whether this command is enabled or disabled.
The no form of this command returns to the default behavior.
All
This command configures the minimum wait time before re-enabling port after loop detection.
no retry-timeout
All
This indicates the time in seconds to wait before a SAP that has been disabled after exceeding the maximum relearn rate is re-enabled.
It is recommended that the retry-timeout value is larger or equal to 5s * cumulative factor of the highest priority port so that the sequential order of port blocking will not be disturbed by re-initializing lower priority ports.
A zero value indicates that the SAP will not be automatically re-enabled after being disabled. If, after the SAP is re-enabled it is disabled again, the retry timeout is increased with the provisioned retry timeout in order to avoid thrashing. For example, when retry-timeout is set to 15, it increments (15,30,45,60...).
The no form of this command reverts to the default value.
retry-timeout 10 (when mac-move is enabled)
All
This command specifies a retry-timer for the spoke SDP. This is a configurable exponential back-off timer that determines the interval between retries to reestablish a spoke SDP if it fails and a label withdraw message is received with the status code “AII unreachable”.
The no form of this command reverts the timer to its default value.
retry-timer 30
All
This command configures the time (in s), for LSP re-establishment attempts after it has failed. The retry time is jittered to +/- 25% of its nominal value.
The no form of this command resets the parameter to the default value.
retry-timer 30
7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures the time (in s), for LSP re-establishment attempts after it has failed. The retry time is jittered to +/- 25% of its nominal value.
For P2MP LSP created based on LSP template, all S2Ls must attempt to retry-limit before client application is informed of failure.
The no form of this command reverts to the default value.
retry-timer 30
All
This command configures a retry-timer for the spoke-SDP. This is a configurable exponential back-off timer that determines the interval between retries to re-establish a spoke-SDP if it fails and a label withdraw message is received with the status code “AII unreachable”.
The no form of this command reverts the timer to its default value.
no retry-timer
All
This command specifies the number of consecutive OAM loopback attempts that must succeed after the periodic attempt before the endpoint will transition the state to up.
no retry-up
7450 ESS, 7750 SR-7/12/12e, 7750 SR-a, 7750 SR-e, 7950 XRS
This command configures the Seamless Bidirectional Forwarding Detection (S-BFD) session to echo mode and adds an additional MPLS label, referring to an MPLS-labeled reply path for the S-BFD packet, to the bottom of the label stack for the S-BFD packet.
The command applies to the initiator of the S-BFD sessions. The return path label may be a binding SID for an SR policy or other MPLS path configured on the reflector router. Instead of being routed through the IGP path, the S-BFD packet returns to the initiator through this MPLS return path.
The no form of this command disables the controlled return path label and echo mode for S-BFD. S-BFD returns to asynchronous mode and the initiator node does not push a return path label. Any S-BFD packets for this LSP or path that the reflector receives are sent back using a routed return path.
no return-path-label
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures the reuse parameter for the route damping profile.
When the Figure of Merit (FoM) value falls below the reuse threshold, the route is once again considered valid and can be reused or included in route advertisements.
The no form of this command removes the reuse parameter from the damping profile.
no reuse
All
This command enables the system to reuse the external IP address assigned to a subscriber when the requested well-known port or external IP mapping is not available.
The no form of this command causes a request for a well-known port to be allocated exactly as requested but on a different external IP address from the one that the subscriber is already using. This occurs if the requested well-known port is already allocated to another subscriber which is sharing the same external IP address. The existing external IP address is initially allocated to the subscriber by the virtue of initial traffic flow.
no reuse-ext-ip
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command enables the reverse path of an MPLS-TP reverse path to be created or edited.
The reverse path must be created after the forward path.
The no form of this command removes the reverse path. The reverse path must be removed before the forward path.
no reverse-path
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command initiates a configuration rollback revert operation that will return the configuration state of the node to a previously saved checkpoint. The rollback revert minimizes impacts to running services. There are no impacts in areas of configuration that did not change since the checkpoint. Configuration parameters that changed (or items on which changed configuration have dependencies) are first removed (revert to default) and the previous values are then restored (can be briefly service impacting in changed areas).
All
This command allows the clock to revert to a higher priority reference if the current reference goes offline or becomes unstable. When the failed reference becomes operational, it is eligible for selection. When the mode is non-revertive, a failed clock source is not selected again.
no revert
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command sets the threshold for the minimum number of operational links to return the associated link group to its normal operating state and remove the associated offsets to the IS-IS metrics. If the number of operational links is equal to or greater than the configured revert-members threshold, the configured offsets are removed.
The no form of this command reverts the threshold back to the default, which is equal to the oper-members threshold value.
no revert-members oper-members
All
This command sets the threshold for the minimum number of operational links to return the associated link group to its normal operating state and remove the associated offsets to the IS-IS metrics. If the number of operational links is equal to or greater than the configured revert-member threshold then the configured offsets are removed.
The no form of this command reverts the threshold back to the default which is equal to the oper-member threshold value.
no revert-members oper-members
All
This command configures the revert-time timer to determine how long to wait before switching back to the working circuit after that circuit has been restored into service.
A change in the minutes value takes effect upon the next initiation of the wait to restore (WTR) timer. It does not modify the length of a WTR timer that has already been started. The WTR timer of a non-revertive switch can be assumed to be infinite.
The no form of this command restores the default (non-revertive mode).
The default is to not revert back unless the protect circuit fails or there is an operator intervention.
7450 ESS, 7750 SR-7/12/12e, 7750 SR-a, 7750 SR-e
This command configure how long to wait before switching back to the primary path after it has been restored to Ethernet tunnel.
The no form of this command disables the revert behavior, effectively setting the revert time to zero.
no revert-time
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures the time to wait before reverting back to the primary spoke SDP defined on this service endpoint, after having failed over to a backup spoke SDP.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
7450 ESS, 7750 SR-7/12/12e, 7750 SR-a, 7750 SR-e, 7950 XRS
All
This command configures the time to wait before reverting to primary spoke-SDP.
In a regular endpoint the revert-time setting affects just the pseudowire defined as primary (precedence 0). For a failure of the primary pseudowire followed by restoration the revert-timer is started. After it expires the primary pseudowire takes the active role in the endpoint. This behavior does not apply for the case when both pseudowires are defined as secondary. For example, if the active secondary pseudowire fails and is restored it will stay in standby until a configuration change or a force command occurs.
All
This command configures the time to wait before reverting to the primary spoke SDP. This command has an effect only when used in conjunction with an endpoint which contains a SDP of type ‘primary’. It is ignored and has no effect in all other cases. The revert-timer is the delay in seconds the system waits before it switches the path of the mirror service from an active secondary SDP in the endpoint into the endpoint primary SDP after the latter comes back up.
The no form of this command resets the timer to the default value of 0. This means that the mirror-service path is switched back to the endpoint primary sdp immediately after it comes back up.
All
This command configures the delay period the SDP must wait before it reverts to a higher priority LSP type when one becomes available.
The no form of the command resets the timer to the default value of 0. This means the SDP reverts immediately to a higher priority LSP type when one becomes available.
no revert-time
All
This command configures the revert time for an Eth-Ring. It ranges from 60 seconds to 720 second by 1 second intervals.
The no form of this command means non-revertive mode and revert time is essentially 0, and the revert timers are not set.
revert-time 300
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures the time (in s), for LSP reversion attempts after it has failed.
The no form of the command resets the timer to the default value.
revert-timer 0
7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures a revert timer on an LSP. The timer starts when the LSP primary path recovers from a failure. The LSP reverts from a secondary path to the primary path when the timer expires, or when the secondary path fails.
The no form of this command cancels any currently outstanding revert timer. If the LSP is up when a no revert-timer is issued, the LSP will revert to the primary path. Otherwise the LSP reverts when the primary path is restored.
no revert-timer
All
This command configures the revert timer in an MPLS forwarding policy.
When the primary direct or indirect next hop is restored and is added back into the routing table, CPM waits for an amount of time equal to the user-programmed revert timer before activating it and updating the data path. However, if the backup direct or indirect next hop fails while the timer is running, CPM activates it and updates the data path immediately.
A value of 0 disables the revert timer; meaning the policy reverts immediately.
The no form of this command removes the revert timer from the MPLS forwarding policy.
revert-timer 0
All
This command configures the revert timer for SR Policy candidate paths.
The revert timer is started when the primary path (for example, the best preference programmed candidate path) recovers (for example, after the number of S-BFD sessions that are up is ≥ threshold and the hold-down-timer has expired) and switches back when the timer expires.
The no form of this command removes the revert timer from the SR policy.
no revert-timer
All
This command configured revertive behavior for MPLS-TP linear protection. The protect-tp-path MEP must be in the shutdown state for of the MPLS-TP LSPs referencing this protection template in order to change the revertive parameter.
revertive
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures whether to allow a revertive activity state after a designated active state recovers from an ineligibility event. The revertive function allows a router in an N:M domain to automatically take over as the active router in the domain, when it becomes eligible to do so.
The no form of this command reverts to the default value.
no revertive
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures the timer value (in seconds) after which to revert to the primary UMH after traffic is restored. This value must account for the traffic flapping from the primary UMH. If there is traffic flapping, the timer resets and starts over.
The no form of the command means that there is no revertive behavior.
no revertive-timer
All
This command specifies the revocation method system used to check the revocation status of certificate issued by the CA, the default value is crl, which will use CRL. But if it is crl-optional, then it means when the user disables the ca-profile, then the system will try to load the configured CRL (specified by the crl-file command). However, if the system fails to load it for following reasons, then the system still brings the ca-profile oper-up, but leaves the CRL as non-exist.
If the system needs to use the CRL of a specific ca-profile to check the revocation status of an end-entity cert, and the CRL is non-existent due to the above reasons, then the system will treat it as being unable to get an answer from CRL and fall back to the next status-verify method or default-result.
If the system needs to check the revocation of a CA cert in cert chain, and if the CRL is non-existent due to the above reasons, then the system will skip checking the revocation status of the CA cert. For example, if CA1 is issued by CA2, if CA2’s revocation-check is crl-optional and the CA2’s CRL is non-existent, then the system will not check CA1 cert’s revocation status and consider it as “good”.
![]() | Note: Users must shutdown the ca-profile to change the revocation-check configuration. |
revocation-check crl
All
This command selects the RIB-API tunnel type.
This command enables tunnels programmed using the RibApi gRPC service to be used in resolving the next hops of routes imported into the EVPN service.
The no form of this command disables tunnels programmed using the RibApi gRPC service from being used in resolving the next hops.
no rib-api
All
Commands in this context configure parameters related to the RIB-API gRPC service.
All
This command enables tunnels programmed using the RibApi gRPC service for use in resolving the indirect next hops of statically-configured IPv4 and IPv6 routes.
All
This command enables debugging for RIB-API protocol entities.
All
Commands in this context control the RibAPI gRPC service.
All
This command enables tunnels programmed using the RibApi gRPC service for use in resolving the next hops of label-IPv4 or label-IPv6 routes.
All
This command permits the use of GetVersion RPC provided by the RibApi service.
The no form of this command reverts to the default value.
rib-api-getversion permit
All
This command permits the use of Modify RPC provided by the RibApi service.
The no form of this command reverts to the default value.
rib-api-modify permit
All
Commands in this context configure RIB management parameters.
All
Commands in this context configure RIB management parameters.
All
This command enabled RIB prioritization for the IS-IS protocol and specifies the prefix list or IS-IS tag value that will be used to select the specific routes that should be processed through the IS-IS route calculation process at a higher priority.
The no form of this command disables RIB prioritization.
no rib-priority
All
This command enables RIB prioritization for the OSPF/OSPFv3 protocol. When enabled at the OSPF interface level, all routes learned through the associated OSPF interface will be processed through the OSPF route calculation process at a higher priority.
The no form of rib-priority command disables RIB prioritization at the associated level.
no rib-priority
All
This command enabled RIB prioritization for the OSPF protocol and specifies the prefix list that will be used to select the specific routes that should be processed through the OSPF route calculation process at a higher priority.
The no form of rib-priority command disables RIB prioritization at the associated level.
no rib-priority
All
This command enabled RIB prioritization for the IS-IS protocol and specifies the prefix list or IS-IS tag value that will be used to select the specific routes that should be processed through the IS-IS route calculation process at a higher priority.
The no rib-priority form of command disables RIB prioritization.
no rib-priority high
All
This command enabled RIB prioritization for the OSPF protocol and specifies the prefix list that will be used to select the specific routes that should be processed through the OSPF route calculation process at a higher priority.
The no form of this command disables RIB prioritization at the associated level.
no rib-priority high
All
This command enables RIB prioritization for the OSPF/OSPFv3 protocol. When enabled at the OSPF interface level, all routes learned through the associated OSPF interface will be processed through the OSPF route calculation process at a higher priority.
The no form of rib-priority command disables RIB prioritization at the associated level.
no rib-priority
All
This command configures a multi-chassis ring.
The no form of this command removes the sync-tag from the configuration.
All
This command specifies the unique name of a multi-chassis ring access node.
All
This command configures a multi-chassis ring-node for this SAP.
The no form of this command removes the name from the configuration.
All
This command enables the RIP protocol on the given VPRN IP interface.
The no form of this command disables the RIP protocol from the given VPRN IP interface.
no rip
All
This command creates the context to configure the RIP protocol instance.
When a RIP instance is created, the protocol is enabled by default. To start or suspend execution of the RIP protocol without affecting the configuration, use the [no] shutdown command.
The no form of the command deletes the RIP protocol instance removing all associated configuration parameters.
no rip
All
This command configures the RIP policy name. This policy is applied to a subscriber IPv4 host to enable the BNG to learn RIP routes from the host. RIP routes are never sent to the hosts.
The no form of this command removes the RIP policy name from the configuration.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command creates a RIP policy. This policy is applied to a subscriber IPv4 host to enable the BNG to learn RIP routes from the host. RIP routes are never sent to the hosts.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command specifies the name of the RIP policy up to 32 characters.
The no form of this command removes the policy name from the static-host configuration.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command creates the context to configure the RIPng protocol instance.
When a RIPng instance is created, the protocol is enabled by default. To start or suspend execution of the RIP protocol without affecting the configuration, use the [no] shutdown command.
The no form of this command deletes the RIP protocol instance removing all associated configuration parameters.
no ripng
All
This command creates the context to configure generic RMON alarms and events.
Generic RMON alarms can be created on any SNMP object-ID that is valid for RMON monitoring (for example, an integer-based datatype).
The configuration of an event controls the generation and notification of threshold crossing events configured with the alarm command.
All
This command configures the charging characteristics for roaming UE.
The no form of this command removes the bit value from the configuration.
no roaming
7750 SR, 7750 SR-e, 7750 SR-s, VSR
If the send-queries command is enabled, this parameter allows tuning for the expected packet loss on a SAP or SDP. The robust-count variable allows tuning for the expected packet loss on a subnet and is comparable to a retry count. If this SAP or SDP is expected to be 'lossy', this parameter may be increased. IGMP snooping on this SAP or SDP is robust to (robust-count-1) packet losses.
If send-queries is not enabled, this parameter will be ignored.
robust-count 2
All
This command configures the IGMP robustness variable. If the send-queries command is enabled, this parameter allows tuning for the expected packet loss on a SAP or SDP. The robust-count variable allows tuning for the expected packet loss on a subnet and is comparable to a retry count. If an MSAP or SDP is expected to be “lossy”, this parameter may be increased. IGMP snooping on an MSAP or SDP is robust to (robust-count-1) packet losses.
If send-queries is not enabled, this parameter is ignored.
The no form of this command reverts to the default.
robust-count 2
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the robust count. The robust-count variable allows tuning for the expected packet loss on a subnet. If a subnet anticipates losses, the robust-count variable can be increased.
robust-count 2
All
This command configures the robust count. The robust-count variable allows tuning for the expected packet loss on a subnet. If a subnet anticipates losses, the robust-count variable can be increased.
robust-count 2
All
This command configures the robust count. The robust-count variable allows tuning for the expected packet loss on a subnet. If a subnet anticipates losses, the robust-count variable can be increased.
robust-count 2
All
If the send-queries command is enabled, this parameter allows tuning for the expected packet loss. The robust-count variable allows tuning for the expected packet loss on a subnet and is comparable to a retry count.
If send-queries is not enabled, this parameter will be ignored.
robust-count 2
All
This command configures the role that the associated port is to take on.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
Configure parameters of the classic CLI configuration rollback functionality. Configuration rollback provides the ability to undo configuration and revert back to previous router configuration states.
All
Commands in this context configure rollback operations.
All
The location and name of the rollback checkpoint files is configurable to be local (on compact flash) or remote. The file-url must not contain a suffix (just a path/directory + filename). The suffixes for rollback checkpoint files are “.rb”, ".rb.1", ..., ".rb.9" and are automatically appended to rollback checkpoint files.
no rollback-location
local-url | remote-url | |
local-url | [cflash-id/][file-path] up to 200 characters, including cflash-id directory length of up to 99 characters each |
remote-url | [{ftp://}login:pswd@ remote-locn/][file-path] up to 255 characters, directory length of up to 99 characters each |
remote-locn | [hostname | ipv4-address | ipv6-address] |
ipv4-address | a.b.c.d |
ipv6-address | x:x:x:x:x:x:x:x[-interface] |
x:x:x:x:x:x:d.d.d.d[-interface] | |
x - [0 to FFFF]H | |
d - [0 to 255]D | |
interface - up to 32 characters each, for link local addresses | |
cflash-id | cf1:, cf1-A:, cf1-B:, cf2:, cf2-A:, cf2-B:, cf3:, cf3-A:, cf3-B: |
All
This command copies the entire set of rollback checkpoint files from the active CPM CF to the standby CPM CF.
All
The operator can enable automatic synchronization of rollback checkpoint files between the active CPM and standby CPM. When this automatic synchronization is enabled, a rollback save will cause the new checkpoint file to be saved on both the active and standby CPMs. The suffixes of the old checkpoint files on both active and standby CPMs are incremented. Note that automatic sync only causes the one new checkpoint file to be copied to both CFs (the other 9 checkpoints are not automatically copied from active to standby but that can be done manually with admin red rollback-sync).
Automatic synchronization of rollback checkpoint files across CPMs is only performed if the rollback-location is configured as a local file-url (for example, "cf3:/rollback-files/rollback). Synchronization is not done if the rollback-location is remote.
The config red sync {boot-env | config} and admin red sync {boot-env | config} do not apply to rollback checkpoint files. These commands do not manually or automatically sync rollback checkpoint files. The dedicated rollback-sync commands must be used to sync rollback checkpoint files.
no rollback-sync
All
This command configures how often an event or accounting log is rolled over or partitioned into a new file.
An event or accounting log is actually composed of multiple, individual files. The system creates a new file for the log based on the rollover time, expressed in minutes.
The retention option, expressed in hours, allows you to modify the default time to keep the file in the system. The retention time is based on the rollover time of the file.
If logs are needed to be retained for more than 16 days, use a CRON job to move the logs to a different location, either on a local drive or a remote server. For more information, contact Nokia support.
When multiple rollover commands for a file-id are entered, the last command overwrites the previous command.
The no form of this command reverts to the default values.
rollover 1440 retention 12
All
The root node contains the policer control policies configuration parameters for the root arbiter. Within the node, the parent policer’s maximum rate limit can be set, the strict priority level, and fair threshold portions may be defined per priority level.
The root node always exists and does not need to be created.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, 7950 XRS, VSR
This command configures the IP address of the P2MP SR tree root node of the P2MP policy. The root tree ID and the root address uniquely identify the P2MP policy on the root node.
The no form of this command removes the root address entry.
All
This command configures the replication segment with the IP address of the root node of the P2MP SR tree replication segment.
The no form of this command removes the root node address.
All
This command configures the node to operate as both root and leaf of the I-PMSI in a specified VPLS/B-VPLS instance.
By default, a node will behave as a leaf-only node. When the node is leaf only for the I-PMSI of type P2MP RSVP LSP, no PMSI Tunnel Attribute is included in BGP-AD route update messages and therefore no RSVP P2MP LSP is signaled but the node can join RSVP P2MP LSP rooted at other PE nodes participating in this VPLS/B-VPLS service. The user must still configure a LSP template even if the node is a leaf only.
For the I-PMSI of type mLDP, the leaf-only node will join I-PMSI rooted at other nodes it discovered but will not include a PMSI Tunnel Attribute in BGP-AD route update messages. This way a leaf-only node will forward packets to other nodes in the VPLS/B-VPLS using the point-to-point spoke-SDPs.
The no version of this command re-instates the default value.
All
This command specifies whether this port is allowed to become an STP root port. It corresponds to the restrictedRole parameter in 802.1Q. If set, it can cause lack of spanning tree connectivity.
no root-guard
All
This command specifies whether this port is allowed to become an STP root port. It corresponds to the restrictedRole parameter in 802.1Q. If set, it can cause lack of spanning tree connectivity.
no root-guard
All
Commands in this context configure root tier parameters. Within the root-tier context, root pools can be sized using the allocation-weight command or a slope policy can be associated with a root pool.
The no form of the command restores the default allocation-weight value and default slope policy to the specified root pool. Root pool 1 has a different default weight than root pools 2 through 16. The no root-pool command fails for root pools 2 through 16 if the root pool is currently the parent of a mid-tier pool.
7750 SR-7/12/12e
Commands in this context configure root pool parameters. Within the root-tier context, root pools can be sized using the allocation-weight command or a slope policy can be associated with a root pool.
7750 SR-7/12/12e
This command configures the P2MP SR tree ID on the root node of the P2MP policy. The root tree ID and the root address uniquely identify the P2MP policy on the root node.
The no form of this command removes the root tree ID entry.
All
This command configures the root-tree ID for the replication segment of the P2MP SR tree.
The no form of this command removes the root-tree ID.
All
This command specifies whether initially inactive multicast records use the IOM default secondary multicast path or not. When enabled, the system redistributes newly populated inactive records among all available IOM multicast paths and multicast switch fabric planes. When disabled, the system continues to set all initially inactive multicast records to use the IOM default secondary multicast path.
The no form of this command reverts to the default.
7450 ESS, 7750 SR-7/12/12e, 7750 SR-s, 7950 XRS, VSR
This command configures the index of the static route within the Diameter peer used to reach remote realms that are not directly connected to the origin realm, or to override the route preference (peer preference) of the directly-connected realms.
The no form of this command removes the route index information from the configuration.
This command configures a route admin tag policy.
Up to 2,000 policies can be configured per system.
The no form of this command removes the route admin tag policy.
All
Commands in this context configure the route advertisement options.
The no form of this command deletes the context.
no route-advertisement
7450 ESS, 7750 SR, 7750 SR-s, 7950 XRS, VSR
This command configures the Route Distinguisher (RD) field that is signaled in NLRI in EVPN routes.
The no form of this command reverts to the default.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures the Route Distinguisher (RD) component that will be signaled in the MP-BGP NLRI for L2VPN and EVPN families. This value will be used for BGP-AD, BGP VPLS and BGP multi-homing NLRI if these features are configured.
If this command is not configured, the RD is automatically built using the BGP-AD VPLS ID. The following rules apply:
Values and format (6 bytes, other 2 bytes of type will be automatically generated)
Alternatively, the auto-rd option allows the system to automatically generate an RD based on the bgp-auto-rd-range command configured at the service level. For BGP-EVPN enabled VPLS and Epipe services, the route-distinguisher value can also be auto-derived from the evi value (config>service>vpls>bgp-evpn>evi or config>service>epipe>bgp-evpn>evi) if this command is not configured. See the config>service>system>bgp-evpn>eth-seg>service-carving>manual evi command description for more information.
All
This command configures the Route Distinguisher (RD) component that will be signaled in the MP-BGP NLRI for EVPN corresponding to the base EVPN instance (Ethernet Segment routes). If the route-distinguisher component is not configured, the system will use system:ip-address as the default route-distinguisher
no route-distinguisher
All
This command specifies an identifier attached to a route, which enables the user to identify the VPN to which the route belongs. Each routing instance must have a unique (within the carrier’s domain) route distinguisher (RD) associated with it.
Alternatively, the auto-rd option allows the system to automatically generate an RD based on the bgp-auto-rd-range command configured at the service level.
The no form of this command removes the RD configuration.
no route-distinguisher
7450 ESS, 7750 SR, 7750 SR-s, 7950 XRS, VSR
All
Commands in this context configure a route-downloader instance. The route-downloader is a process that uses radius access-request messages to a particular server. The server returns either an access-accept or access-deny message. Access-accept messages also contain the prefixes (in the form of static blackhole routes in various formats). Only a single route-downloader object can be created.
The no form of this command removes the name from the configuration. The object must be shutdown prior to deletion. No prefix is needed to delete an existing route-download object.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command assigns managed-route to a given subscriber-host. As a consequence, a static route pointing subscriber-host ip address as a next hop will be installed in FIB. Up to 16 managed routes per subscriber-host can be configured.
The no form of this command removes the respective route. Per default, there are no managed-routes configured.
Syntax:
ip-prefix/length: | ip-prefix | a.b.c.d |
ip-prefix-length | 0 to 32 |
ipv6-prefix | x:x:x:x:x:x:x:x (eight 16-bit pieces) |
x:x:x:x:x:x:d.d.d.d | |
x: [0 to FFFF]H | |
d: [0 to 255]D | |
ipv6-prefix-length | 0 to 128 |
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command is used to specify a route existence expression to control evaluation of the policy entry. If the route existence expression evaluates to ‘true’ the matching and action commands of the policy entry are applied as normal. If the route existence expression evaluates to ‘false’ the entire policy entry is skipped and processing continues with the next entry; however, conditional expressions are only parsed when the route policy is used as a BGP export policy or VRF export policy.
no route-exists
If neither the all nor the none keyword are used the match logic is ‘any’ – that is, the route expression evaluates as ‘true’ if any exact match entry in the referenced prefix-list has an active route in the route table associated with the policy.
all – the route expression evaluates as ‘true’ only if all the exact match entries in the referenced prefix-list have an active route in the route table associated with the policy.
none – the route expression evaluates as ‘true’ only if none of the exact match entries in the referenced prefix-list have an active route in the route table associated with the policy.
All
This command limits the number of source routes (inside routes) that are installed on the outside in dnat-only case. In case that the number of actual routes is larger than the number of configured routes, the excess of the routes will not be installed in the routing table and a log will be raised.
The source IP addresses on the inside must be known in advance in a dnat-only instance. This is required so that the corresponding routes can be installed in the routing table and thus the downstream traffic is properly routed towards the MS-ISAs where the original translation was performed (and state is kept).
In the dnat-only case, it is mandatory that the inside (private side) and the outside (public side) are in separated VPRNs.
route-limit 32768
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command specifies if BMP sends pre-policy route monitoring messages, post-policy route monitoring messages, both types of messages, or none.
The no form of this command disables sending of route-monitoring messages.
All
This command configures the next hop of the EVPN routes.
route-next-hop system-ipv4
7450 ESS, 7750 SR, 7750 SR-s, 7950 XRS, VSR
All
This command modifies the next hop to the configured IP address value, for the following routes:
The no form of the command changes the originating IP address back to the system-ip.
no route-next-hop
All
This command creates the context to configure route next-hop policies.
All
This command specifies the primary and secondary routing preference for traffic generated for SNMP notifications and syslog messages. If the remote destination is not reachable through the routing context specified by primary route preference then the secondary routing preference will be attempted.
The no form of this command reverts to the default values.
no route-preference
All
This command specifies the routing preference to reach the AAA server. If the configured option is to use both in-band and out-of-band routes, the out-of-band routes in the management routing instance are used to reach the server before the in-band routes in the Base routing instance.
The no form of this command reverts to the default value.
route-preference both
All
This command specifies the routing preference to reach the PCE server. If the configured option is to use both in-band and out-of-band routes, the out-of-band routes in the management routing instance are used to reach the server before the in-band routes in the Base routing instance.
The no form of this command reverts to the default value.
route-preference both
All
The time delay that must pass before notifying specific CPM applications after the recovery or change of a route during normal operation.
The no form of this command disables the time-delay configuration.
no route-recovery-wait
All
This command enables debugging for BGP route-refresh.
The no form of this command disables debugging.
All
This command configures route table debugging.
ipv4-prefix | a.b.c.d (host bits must be 0) | |
ipv4-prefix-length | 0 to 32 | |
ipv6-prefix | x:x:x:x:x:x:x:x (eight 16-bit pieces) | |
x:x:x:x:x:x:d.d.d.d | ||
x: | [0 to FFFF]H | |
d: | [0 to 255]D | |
ipv6-prefix-length | 0 to 128 |
ipv4-prefix | a.b.c.d (host bits must be 0) |
ipv4-prefix-length | 0 to 32 |
All
This command specifies the name of a route policy to control the importation of active routes from the IP route table into one of the BGP RIBs.
If the route-table-import command is not configured, or if the command refers to an empty policy, all non-BGP routes from the IP route table are imported into the applicable RIB.
If the route-table-import command is configured, then routes dropped or rejected by the configured policy are not installed in the associated RIB. Rejected routes cannot be advertised to BGP peers associated with the RIB, but they can still be used to resolve BGP next-hops of routes in that RIB. If the active route for a prefix is rejected by the route-table-import policy, then the best BGP route for that prefix in the BGP RIB can be advertised to peers as though it is used.
Aggregate routes are always imported into each RIB, independent of the route-table-import policy.
Route modifications specified in the actions of a route-table-import policy are ignored and have no effect on the imported routes.
no route-table-import
All
This command specifies the name of a policy to control the importation of active routes from the IP route table into one of the BGP RIBs.
If the route-table-import command is not configured, or if the command refers to an empty policy, all non-BGP routes from the IP route table are imported into the applicable RIB.
If the route-table-import command is configured, then routes dropped or rejected by the configured policy are not installed in the associated RIB. Rejected routes cannot be advertised to BGP peers associated with the RIB, but they can still be used to resolve BGP next-hops of routes in that RIB. If the active route for a prefix is rejected by the route-table-import policy, then the best BGP route for that prefix in the BGP RIB can be advertised to peers as though it is used.
Aggregate routes are always imported into each RIB, independent of the route-table-import policy.
Route modifications specified in the actions of a route-table-import policy are ignored and have no effect on the imported routes.
no route-table-import
All
This command configures route target attributes to be signaled in EVPN routes used for service chaining.
The no form of this command removes the parameters from the configuration.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures the route target (RT) component that will be signaled in the related MP- BGP attribute to be used for BGP auto-discovery, BGP VPLS, BGP multi-homing and EVPN if these features are configured in this VPLS service, or for BGP multi-homing, BGP-VPWS and EVPN in case of Epipe services.
If this command is not used in VPLS services, the RT is built automatically using the VPLS ID. The extended community can have the same two formats as the VPLS ID, a two-octet AS-specific extended community, IPv4 specific extended community. For BGP EVPN enabled VPLS and Epipe services, the route target can also be auto-derived from the evi value (config>service>vpls>bgp-evpn>evi or config>service>epipe>bgp-evpn>evi) if this command is not configured.
All
This command specifies the route target(s) to be accepted from or advertised to peers. If the route-target-list is a non-null list, only routes with one or more of the given route targets are accepted from or advertised to peers.
The route-target-list is assigned at the global level and applies to all peers connected to the system.
This command is only applicable if the router is a route-reflector server.
The no form of this command with a specified route target community removes the specified community from the route-target-list. The no form of this command entered without a route target community removes all communities from the list.
no route-target-list
All
This command creates a context to configure a route unknown priority control event that monitors the existence of a specific active IP route prefix within the routing table.
The route-unknown command configures a priority control event that defines a link between the VRRP priority control policy and the Route Table Manager (RTM). The RTM registers the specified route prefix as monitored by the policy. If any change (add, delete, new next hop) occurs relative to the prefix, the policy is notified and takes correct action according to the priority event definition. If the route prefix exists and is active in the routing table according to the conditions defined, the event is in the cleared state. If the route prefix is removed, becomes inactive or fails to meet the event criteria, the event is in the set state.
The command creates a route-unknown node identified by prefix/mask-length and containing event control commands.
Multiple unique (different prefix/mask-length) route-unknown event nodes can be configured within the priority-event node up to the maximum limit of 32 events.
The route-unknown command can reference any valid IP address mask-length pair. The IP address and associated mask length define a unique IP router prefix. The dynamic monitoring of the route prefix results in one of the event operational states listed in Table 115.
route-unknown Operational State | Description |
Set – non-existent | The route does not exist in the route table |
Set – inactive | The route exists in the route table but is not being used |
Set – wrong next hop | The route exists in the route table but does not meet the next-hop requirements |
Set – wrong protocol | The route exists in the route table but does not meet the protocol requirements |
Set – less specific found | The route exists in the route table but does is not an exact match and does not meet any less-specific requirements |
Set – default best match | The route exists in the route table as the default route but the default route is not allowed for route matching |
Cleared – less specific found | A less specific route exists in the route table and meets all criteria including the less-specific requirements |
Cleared – found | The route exists in the route table manager and meets all criteria |
An existing route prefix in the RTM must be active (used by the IP forwarding engine) to clear the event operational state. It may be less specific (the defined prefix may be contained in a larger prefix according to Classless Inter-Domain Routing (CIDR) techniques) if the event has the less-specific statement defined. The less specific route that incorporates the router prefix may be the default route (0.0.0.0) if the less-specific allow-default statement is defined. The matching prefix may be required to have a specific next hop IP address if defined by the event next-hop command. Finally, the source of the RTM prefix may be required to be one of the dynamic routing protocols or be statically defined if defined by the event protocol command. If an RTM prefix is not found that matches all the above criteria (if defined in the event control commands), the event is considered to be set. If a matching prefix is found in the RTM, the event is considered to be cleared.
When an event transitions from clear to set, the set is processed immediately and must be reflected in the associated virtual router instances in-use priority value. As the event transitions from clear to set, a hold-set timer is loaded with the value configured by the events hold-set command. This timer prevents the event from clearing until it expires, damping the effect of event flapping. If the event clears and becomes set again before the hold-set timer expires, the timer is reset to the hold-set value, extending the time before another clear can take effect.
The no form of the command is used to remove the specific prefix/mask-length monitoring event. The event can be removed at anytime. When the event is removed, the in-use priority of all associated virtual router instances must be reevaluated. The events hold-set timer has no effect on the removal procedure.
no route-unknown — No route unknown priority control events are defined for the priority control event policy.
ip-prefix/mask: | ip-prefix | a.b.c.d (host bits must be 0) |
mask | 0 to 32 |
ipv6-address/prefix-length: | ipv6-address x:x:x:x:x:x:x:x (eight 16-bit pieces) | ||
x:x:x:x:x:x:d.d.d.d | |||
x: | [0..FFFF]H | ||
prefix-length | 0 to 128 |
All
This command specifies the number of times the router attempts to contact the RADIUS server for authentication, if not successful the first time.
The no form of this command reverts to the default value.
router-name | vprn-svc-id | |
router-name | Base, management Default - Base |
vprn-svc-id | 1 to 2147483647 |
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command specifies the number of times the router attempts to contact the RADIUS server for authentication, if not successful the first time.
The no form of this command reverts to the default value.
no router
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command specifies the virtual router instance applicable for the set of configured RADIUS servers. This value cannot be changed once a RADIUS server is configured for this policy. When the value is zero, both base and management router instances are matched.
The no form of this command reverts to the default.
router-name: | Base, management |
service-id: | 1 to 2147483647 |
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the IPv4or IPv6 address and routing context on which the Diameter proxy is listening for the client connections and is applicable to Diameter proxy only.
This command is applicable only to legacy implementations of Diameter base in the SR OS.
The no form of this command reverts to the default.
ipv4-address: | a.b.c.d |
ipv6-address: | x:x:x:x:x:x:x:x (eight 16-bit pieces) |
x:x:x:x:x:x:d.d.d.d | |
x - [0 to FFFF]H | |
d - [0 to 255]D |
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command references the routing-instance from which diameter peering connection is initiated.
The no form of this command reverts to the default.
router “Base”
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command enables matching only on tunnels that are terminated in the specified routing instance.
The no form of this command disables matching on a routing instance.
no router
7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command specifies the virtual router instance applicable for the set of configured RADIUS servers. This value cannot be changed once a RADIUS server is configured for this policy.
The no form of this command reverts to the default.
service-name | Service name, up to 64 characters. | |
router-instance: | router-name, service-id | |
router-name: | Base, management | |
service-id: | 1 to 2147483647 |
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command specifies the routing instance that wlan-gw gateway endpoint resides in.
The no form of this command removes the value from the wlan-gw configuration.
router
7750 SR, 7750 SR-e, 7750 SR-s, VSR
Commands in this context configure router parameters including interfaces, route policies and protocols. This command is also used to create CPM router instances.
For CPM router instances, this command enters or creates a user-created CPM router instance. A CPM router instance is a not a VPRN router instance. VPRN router instances are configured under configure service vprn. CPM router instances are the only type of non-VPRN router instances that can be created by a user, and they have a user-defined name. CPM router instances only use CPM/CCM ethernet ports as interfaces.
router-instance : router name | ||
router-name | Base | management | cpm-vr-name | |
cpm-vr-name | [32 characters maximum] |
All
This command configures the service and L2TPv3 group to which this L2TPv3 session should be associated. The associated services are used to provide transport for the L2TPv3 tunnel. The service can be specified with either the service-name or router ID. The group name specifies the L2TPv3 group parameters that should be associated with the session.
The no form of this command deletes the router configuration.
router-instance: router-name or vprn-svc-id | ||
router-name | “Base” | |
vprn-svc-id | 1 to 2147483647 |
All
Commands in this context enable debugging of various protocols and areas of a router-instance.
router-instance : router-name | ||
router-name | Base | management | cpm-vr-name | |
cpm-vr-name | [32 characters maximum] |
All
This command specifies the routing instance that the transport protocol uses.
router Base
This variant of this command is only supported in 'classic' configuration-mode (configure system management-interface configuration-mode classic). The router service vprn-service-name variant can be used in all configuration modes.
router-name: | Base, management router-name is an alias for input only. The router-name gets replaced with an id automatically by SR OS in the configuration). |
vprn-svc-id: | 1 to 2147483647 |
All
This command defines the router instance in which all remote managers are reachable.
If this command is also configured for a specific manager in the config>system> management-interface>remote-management>manager context, that configuration takes precedence.
The no form of this command configures management as the router (default).
router management
All
This command defines the router instance in which this manager is reachable.
This command takes precedence over the same command configured in the global context (config>system>management-interface>remote-management).
The no form of this command causes the router to be inherited from the global context (config>system>management-interface>remote-management).
management
All
This command configures routing instance through which ISAs communicate between redundant nodes and synchronize their flow state.
The no form of this command removes the router instance from the configuration.
no router
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command specifies the number of times the router attempts to contact the RADIUS server for authentication, if not successful the first time.
The no form of the command reverts to the default value.
no router
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command specifies the routing instance into which to inject the mirrored packets. The packets are forwarded in the routing instance based on the configurable destination IP address in the inserted IP header. If a mirror-dest is configured to inject into a VPRN service, then that VPRN service cannot be deleted. A mirror-dest with layer-3-encap is set to operationally down if the configured destination IP address is not reachable via an interface in the routing instance or service configured for the mirror-dest. No changes are allowed to the router configuration once a gateway is configured. A service must already exist before it is specified as a router-instance. VPRN and IES services share the same number space for the service-id, but IES services cannot be specified as the router-instance for routable LI encap.
Forwarding of routable encapsulated LI packets out an R-VPLS interface is not supported. A mirror-dest configured with routable encapsulation can be bound to a routing instance that also has an R-VPLS bound to it but the operator must ensure that the destination of the LI packets is not reachable via any R-VPLS interfaces. Any routable encapsulated LI packets that arrive at the egress of an R-VPLS interface are discarded. Parallel use of routable LI encapsulation and R-VPLS in the same routing instance is supported as long as the mirrored packets do not egress out the R-VPLS interface.
router Base
router-name | “Base”, name |
service-id | 1 to 2147483647 |
All
This command specifies the routing instance into which to inject the mirrored packets. The packets will be forwarded in the routing instance based on the configurable destination IP address in the inserted IP header. This parameter can be overridden by RADIUS.
If a mirror destination is configured to inject into a VPRN service, that VPRN service cannot be deleted. A mirror destination with Layer 3 encapsulation will be set to operationally down if the configured destination IP address is not reachable via an interface in the routing instance or service configured for the mirror destination. A service must exist before it is specified as a router instance. VPRN and IES services share the same number space for the service ID; however, IES services cannot be specified as the router instance for routable LI encapsulation.
router “Base”
router-instance | router-name | vprn-svc-id | |
router-name | “Base” | |
vprn-svc-id | 1 to 2147483647 |
All
This command configures the router instance that the X-interfaces must use for communication.
The no form of this command reverts to the default.
router-name | Base |
vprn-svc-id | 1 to 2147483647 |
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command numerically references the source context from which the TWAMP Light packet is launched. The router-instance router-instance configuration, under the same context as the router command, is the preferred method for referencing. This method references the launch context by name, and not number, or alias that converts service-name to a number.
The no form of this command restores the default value.
router-name: | Base |
vprn-svc-id: | 1 to 2147483647 |
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command identifies an interface for which ingress sampled data flows should be sent to the associated collector.
The no form of this command removes the specified interface from the interface-list filter.
All
This command allows the flow data from only specific router instances to be sent to the associated collector.
Multiple router instances can be configured by issuing the command multiple times with the different router-instances.
The no form of this command removes the specified router-instance restriction, which means flows from that router-instance will no longer be exported. If all router-instances are removed, then flows from all router instances are sent to the associated collector.
no router
All
This command configures the flow data sent to the associated collector to be sent within the specified router context. If this parameter is not specified, flow data is exported using the management routing context.
router management
All
This command enhances VRF support in redirect policies. When a router instance is specified, the configured destination tests are run in the specified router instance, and the PBR action is executed in the specified router instance. If no destination is active or if the hardware does not support PBR action “next-hop router”, action forward will be executed (i.e. routing will be performed in the context of the incoming interface routing instance).
The no form of the command preserves backward-compatibility. Tests always run in the “Base” routing instance context, and the PBR action executes in the routing context of the ingress interface that the filter using this redirect policy is deployed on.
no router
All
This command specifies the log event matches for the router.
The no form of this command removes the log event matches.
All
This command configures a router name or service ID to be used as a management access filter match criterion.
The no form the command removes the router name or service ID from the match criteria.
router-name — Specifies a router name or CPM router instance, up to 32 characters to be used in the match criteria.
Values | “Base” | “management” | “vpls-management” |
Default | Base |
vprn-svc-id — Specifies a CPM router instance to be used in the match criteria.
All
This command specifies a router name or a service-id to be used in the match criteria.
no router
router-name — Specifies a router name up to 32 characters to be used in the match criteria.
service-id — Specifies an existing service ID to be used in the match criteria.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures the router instance to be used to connect to the associate BMP monitoring station.
The no form of this command removes the parameters from the configuration.
All
This command configures router advertisement properties. By default, it is disabled for all IPv6 enabled interfaces.
The no form of this command disables all IPv6 interface. However, the no interface interface-name command disables a specific interface.
no router-advertisement
All
This command configures router advertisement properties. By default, it is disabled for all IPv6 enabled interfaces.
The no form of this command disables all IPv6 interface. However, the no interface interface-name command disables a specific interface.
disabled
All
This command applies an RA policy to the host.
The no form of this command removes the policy from the configuration.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command creates a router advertisement policy or enters the context to configure a router advertisement policy. The keyword create is mandatory when creating a router advertisement policy the first time.
The no form of this command deletes the specified router advertisement policy.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command enables IPv6 router advertisements for this interface.
The no form of this command disables the router advertisements.
router-advertisements
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command sets the router ID for a specific VPRN context.
When configuring the router ID in the base instance of OSPF it overrides the router ID configured in the config>router context. The default value for the base instance is inherited from the configuration in the config>router context. If the router ID in the config>router context is not configured, the following applies:
If neither the router ID nor system interface are defined, the router ID from the base router context is inherited.
This is a required command when configuring multiple instances and the instance being configured is not the base instance.
When configuring a new router ID, the instance is not automatically restarted with the new router ID. The next time the instance is initialized, the new router ID is used.
To force the new router ID to be used, issue the shutdown and no shutdown commands for the instance, or reboot the entire router.
It is possible to configure an SR OS to operate with an IPv6 only BOF and no IPv4 system interface address. When configured in this manner, the operator must explicitly define IPv4 router IDs for protocols such as OSPF and BGP as there is no mechanism to derive the router ID from an IPv6 system interface address.
The no form of this command removes the router ID definition from the given VPRN context.
no router-id
All
This command sets the router ID for a specific VPRN context.
If neither the router ID nor system interface are defined, the router ID from the base router context is inherited.
The no form of this command removes the router ID definition from the given VPRN context.
no router-id
All
Commands in this context configure the link members of SRLG groups for a specific router in the network. The user must also use this command to enter the local interface SRLG membership into the user SRLG database. Use by CSPF of all interface SRLG membership information of a specific router ID may be temporarily disabled by shutting down the node. If this occurs, CSPF assumes these interfaces have no SRLG membership association.
The no form of this command will delete all interface entries under the router ID.
All
This command configures the router ID for the router instance.
The router ID is used by both OSPF and BGP routing protocols in this instance of the routing table manager. IS-IS uses the router ID value as its system ID.
When configuring a new router ID, protocols are not automatically restarted with the new router ID. The next time a protocol is initialized, the new router ID is used. This can result in an interim period of time when different protocols use different router IDs.
It is possible to configure SR OS to operate with an IPv6 only BOF and no IPv4 system interface address. When configured in this manner, the operator must explicitly define IPv4 router IDs for protocols such as OSPF and BGP as there is no mechanism to derive the router ID from an IPv6 system interface address.
To force the new router ID to be used, issue the shutdown and no shutdown commands for each protocol that uses the router ID, or restart the entire router.
The system uses the system interface address which is also the loopback address. If a system interface address is not configured, use the last 32 bits of the chassis MAC address.
The no form of this command removes the configured value and the last 32 bits of the chassis MAC address are used.
no router-id
All
This command specifies the router ID to be used with this BGP instance.
Changing the BGP router ID on an active BGP instance causes the BGP instance to restart with the new router ID.
It is possible to configure an SR OS to operate with an IPv6 only BOF and no IPv4 system interface address. When configured in this manner, the operator must explicitly define IPv4 router IDs for protocols such as OSPF and BGP as there is no mechanism to derive the router ID from an IPv6 system interface address.
When no router-id is configured for BGP, the system interface IP address is used.
no router-id
All
This command configures the router ID.
The no form of this command deletes the router ID.
All
This command configures the router ID for the OSPF instance. This command configures the router ID for the OSPF instance.
When configuring the router ID in the base instance of OSPF it overrides the router ID configured in the config>router context.
The default value for the base instance is inherited from the configuration in the config>router context. If the router ID in the config>router context is not configured, the following applies:
This is a required command when configuring multiple instances and the instance being configured is not the base instance.
When configuring a new router ID, the instance is not automatically restarted with the new router ID. The next time the instance is initialized, the new router ID is used.
To force the new router ID to be used, issue the shutdown and no shutdown commands for the instance, or reboot the entire router.
It is possible to configure an SR OS to operate with an IPv6 only BOF and no IPv4 system interface address. When configured in this manner, the operator must explicitly define IPv4 router IDs for protocols such as OSPF and BGP as there is no mechanism to derive the router ID from an IPv6 system interface address.
The no form of this command to reverts to the default value.
All
This command references the source context from which the TWAMP Light packet is launched by name. The router-instance router-instance configuration is the preferred method for referencing and references the launch context by name, not number or alias that converts service-name to a number.
The no form of this command restores the default value.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures the router instance for the destination group.
The no form of this command reverts to the default value.
router-instance management
All
This command specifies the router lifetime.
The no form of this command returns the command to the default setting.
router-lifetime 4500
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command configures the value to be placed in the router lifetime field of router advertisements sent from this interface. A value of zero indicates this router should not be used by hosts as a default router.
The no form of this command reverts to the default.
router-lifetime 4500
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command sets the router lifetime.
router life-time 1800
All
Commands in this context configure parameters used for router-solicit based authentication.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command enables auto-reply router solicitation.
The no form of this command disables auto-reply router solicitation.
router-solicitation
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command specifies the AS number for the HLE service. It is used to derive the route target (RT) and route distinguisher (RD) for the HLE EVPN service only when the RADIUS server does not return a specific route target or route distinguisher.
The derived RT is in the “target:<configured-router-target-as-number>:<returned Alc-Bridge-Id>” format.
The derived RD is in the “<configured-router-target-as-number>:<returned Alc-Bridge-Id>” format.
The no form of this command removes the AS number from the configuration.
7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command controls whether the system floods router unsolicited Neighbor Advertisements to EVPN. The NA messages impacted by this command are NA messages with the following flags: S=0 and R=1.
The no form of the command will only flood to local SAPs/binds but not to EVPN destinations. This is only recommended in networks where CEs are routers directly connected to the PEs. Networks using aggregation switches between the host/routers and the PEs should flood unsolicited NA messages in EVPN to ensure that the remote caches are updated and BGP does not miss the advertisement of these entries.
router-unsolicited-na-flood-evpn
All
This command enables match on existence of Routing Type Extension Header type 0 in the IPv6 filter policy.
The no form of this command ignores Routing Type Extension Header type 0 presence/absence in a packet when evaluating match criteria of a given filter policy entry.
no routing-type0
All
This command enables access to the context to configure the rendezvous point (RP) of a PIM protocol instance.
A Nokia PIM router acting as an RP must respond to a PIM register message specifying an SSM multicast group address by sending stop register message(s) to the first hop router. It does not build an (S, G) shortest path tree toward the first hop router. An SSM multicast group address can be either from the SSM default range of 232/8 or from a multicast group address range that was explicitly configured for SSM.
rp enabled when PIM is enabled.
All
Commands in this context configure rendezvous point (RP) parameters. The address of the root of the group’s shared multicast distribution tree is known as its RP. Packets received from a source upstream and join messages from downstream routers rendezvous at this router.
If this command is not enabled, then the router can never become the RP.
All
Commands in this context configure the candidate rendezvous point (RP) parameters.
enabled when PIM is enabled
All
Commands in this context configure the Candidate RP parameters.
Routers use a set of available rendezvous points distributed in Bootstrap messages to get the proper group-to-RP mapping. A set of routers within a domain are also configured as candidate RPs (C-RPs); typically, these will be the same routers that are configured as candidate BSRs.
Every multicast group has a shared tree through which receivers learn about new multicast sources and new receivers learn about all multicast sources. The rendezvous point (RP) is the root of this shared tree.
rp-candidate shutdown
All
This command configures a peer in the anycast RP-set. The address identifies the address used by the other node as the RP candidate address for the same multicast group address range as configured on this node.
This is a manual procedure. Caution should be taken to produce a consistent configuration of an RP-set for a given multicast group address range. The priority should be identical on each node and be a higher value than any other configured RP candidate that is not a member of this RP-set.
Although there is no set maximum of addresses that can be configured in an RP-set, up to 15 multicast addresses is recommended.
The no form of this command removes an entry from the list.
All
This command configures an IPv6 peer in the anycast rp-set. The address identifies the address used by the other node as the RP candidacy address for the same multicast group address range as configured on this node.
This is a manual procedure. Caution should be taken to produce a consistent configuration of an RP- set for a given multicast group address range. The priority should be identical on each node and be a higher value than any other configured RP candidate that is not a member of this rp-set.
Although there is no set maximum of addresses that can be configured in an rp-set, up to 15 multicast addresses is recommended.
The no form of this command removes an entry from the list.
ipv6-address | : x:x:x:x:x:x:x:x (eight 16-bit pieces) |
x:x:x:x:x:x:d.d.d.d | |
x [0 to FFFF]H | |
d [0 to 255]D |
All
This command configures an IP peer in the anycast RP-set. The address identifies the address used by the other node as the RP candidate address for the same multicast group address range as configured on this node.
This is a manual procedure. Caution should be taken to produce a consistent configuration of an RP-set for a given multicast group address range. The priority should be identical on each node and be a higher value than any other configured RP candidate that is not a member of this RP-set.
Although there is no set maximum number of addresses that can be configured in an RP-set, up to 15 IP addresses is recommended.
The no form of this command removes an entry from the list.
All
This command configures a peer in the anycast RP-set. The address identifies the address used by the other node as the RP candidate address for the same multicast group address range as configured on this node.
This is a manual procedure. Caution should be taken to produce a consistent configuration of an RP-set for a given multicast group address range. The priority should be identical on each node and be a higher value than any other configured RP candidate that is not a member of this RP-set.
Although there is no set maximum number of addresses that can be configured in an RP-set, up to 15 IP addresses is recommended.
The no form of this command removes the IPv6 address from the anycast RP set.
All
This command opens a configuration context for configuring user privileges related to RPCs.
All
This command enables context for VRF extranet mapping for C-instance receivers in this receiver MVPN instance to multicast streams in P-instance core MVPN instances.
All
This command configures the sequence of route tables used to find a Reverse Path Forwarding (RPF) interface for a particular multicast route.
By default, only the unicast route table is looked up to calculate RPF interface towards the source/rendezvous point. However, the operator can specify the following:
The no form of this command reverts to the default.
rpf-table rtable-u
All
This command configures the sequence of route tables used to find a Reverse Path Forwarding (RPF) interface for a particular multicast route.
By default, only the unicast route table is looked up to calculate RPF interface towards the source/rendezvous point. However, the operator can specify the following:
rpf-table rtable-u
All
This command configures the sequence of route tables used to find a Reverse Path Forwarding (RPF) interface for a particular multicast route.
By default, only the unicast route table is looked up to calculate RPF interface towards the source or rendezvous point. However, the operator can specify one of the following:
The no form of this command reverts to the default value.
rpf-table rtable-u
All
This command configures the sequence of route tables used to find a Reverse Path Forwarding (RPF) interface for a specific multicast route.
By default, only the unicast route table is looked up to calculate the RPF interface toward the source/rendezvous point. However, the operator can specify to use the following:
rpf6-table rtable6-u
All
This command configures the sequence of route tables used to find a Reverse Path Forwarding (RPF) interface for a particular multicast route.
By default, only the unicast route table is looked up to calculate RPF interface towards the source/rendezvous point. However, the operator can specify the following:
The no form of this command reverts to the default value.
rpf6-table rtable6-u
All
This command enables debugging for PIM RPF vector.
The no form of this command disables debugging for PIM RPF vector.
All
This command enables RPF Vector processing for Inter-AS Rosen MVPN Option-B and Option-C. The rpfv must be enabled on every node for Inter-AS Option B/C MVPN support.
If rpfv is configured, MLDP inter-AS resolution cannot be used. These two features are mutually exclusive.
The no form of this command reverts to the default.
no rpfv
The no version of this command disables RPF Vector processing. If RPF vector is received in a PIM join message, the vector will be removed before local processing of PIM message starts.
All
This command configures a session with an RPKI local cache server by using the RPKI-Router protocol. It is over these sessions that the router learns dynamic VRP entries expressing valid origin AS and prefix associations. SR OS supports the RPKI-Router protocol over TCP/IPv4 or TCP/IPv6 transport. The router can set up an RPKI-Router session using the base routing table (in-band) or the management router (out-of-band). Configure the command in the config>router management instance to configure a session using the management port.
no rpki-session
All
This command enables and configures debugging for RPKI session.
The no form of this command disables debugging for RPKI session.
ipv4-address: | a.b.c.d | |
ipv6-address | x:x:x:x:x:x:x:x | [-interface] |
x:x:x:x:x:x:d.d.d.d | [-interface] | |
x: | [0 to FFFF]H | |
d: | [0 to 255]D | |
interface | up to 32 characters, mandatory for link local addresses |
All
This command configures the G.8032 path as a ring protection link end. The ring should be declared as either a RPL owner or RPL neighbor for this command to be allowed. Only path a or path b can be declared an RPL-end.
The no form of this command sets the rpl-end to default no rpl-end.
no rpl-end
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures the G.8032 ring protection link type as owner or neighbor. The no form of the command means this node is not connected to an RPL link. When RPL owner or neighbor is specified either the a or b path must be configured with the rpl-end command. An owner is responsible for operation of the rpl link. Configuring the RPL as neighbor is optional (can be left as no rpl-node) but if the command is used the nbr is mandatory.
On a sub-ring without virtual channel it is mandatory to configure sub-ring non-virtual-link on all nodes on the sub-ring to propagate the R-APS messages around the sub-ring.
The no form of this command removes the RPL link.
no rpl-node
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command enables and disables debugging for GMPLS Refresh Reduction events.
7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command debugs refresh reduction events.
The no form of the command disables the debugging.
All
This command enables BGP to perform a lookup of IGP routes in the route table to resolve the BGP next-hop of label-IPv4 and label-IPv6 routes. This is useful for a Route Reflector (RR) that does not participate in tunnel signaling protocols such as LDP and RSVP and therefore, does not have tunnels to resolve the BGP next-hops of label-unicast routes.
Configure the disable-route-table-install command before you configure the rr-use-route-table command because forwarding would otherwise be incorrect for cases where label routes are resolved this way.
no rr-use-route-table
All
This command is used for breakout connectors when all connector ports must use the same rs-fec-mode setting.
In all other cases, the rs-fec-mode is set using the configure port ethernet rs-fec-mode command for each individual connector port.
See "Forward Error Correction" in the Interface Configuration Guide for more information about rs-fec-mode settings.
no rs-fec-mode
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command enables RS-FEC on the Ethernet port. RS-FEC Clause 91 is required for QSFP28, CFP4, 100GBase-SR4, 100GBase-ER4 lite, and CWDM4 for the QSFP28 package optics for short-reach optics.
See "Forward Error Correction" in the Interface Configuration Guide for more information about rs-fec-mode settings.
no rs-fec-mode
All
This command allows the user to enter the context to configure RSA public keys.
All
This command creates an RSA public key and associates it with the username. Multiple public keys can be associated with the user. The key ID is used to identify these keys for the user.
All
This command specifies the signature scheme for RSA key.
rsa-signature pkcs1
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command selects the RSVP-TE tunnel type.
The rsvp value instructs BGP to search for the best metric RSVP LSP to the address of the BGP next hop. This address can correspond to the system interface or to another loopback interface used by the BGP instance on the remote node. The LSP metric is provided by MPLS in the tunnel table. In the case of multiple RSVP LSPs with the same lowest metric, BGP selects the LSP with the lowest tunnel-id.
The no form of this command removes the RSVP-TE tunnel type.
no rsvp
All
This command creates the context to configure the parameters of an RSVP P2MP LSP used for forwarding Broadcast, Unicast unknown and Multicast (BUM) packets of a VPLS or B-VPLS instance.
All
The no form of this command removes the rsvp context including all the statements in the context.
no rsvp
All
Commands in this context configure RSVP protocol parameters. RSVP is not enabled by default and must be explicitly enabled (no shutdown).
RSVP is used to set up LSPs. RSVP should be enabled on all router interfaces that participate in signaled LSPs.
The no form of this command deletes this RSVP protocol instance and removes all configuration parameters for this RSVP instance. To suspend the execution and maintain the existing configuration, use the shutdown command. RSVP must be shutdown before the RSVP instance can be deleted. If RSVP is not shutdown, the no rsvp command does nothing except issue a warning message on the console indicating that RSVP is still administratively enabled.
no shutdown
All
This command enables and configures debugging for RSVP.
All
This command enables the use of P2MP RSVP as the inclusive or selective provider tunnel.
The no form of this command removes the RSVP context including all the statements in the context.
no rsvp
All
Commands in this context configure an RSVP LSP and its attributes to be tested.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command selects RSVP tunneling for next-hop resolution and specifies RSVP tunnels in a tunnel table to IPv4 destinations. This option allows BGP to use the best metric RSVP LSP to the address of the BGP next-hop. This address can correspond to the system interface or to another loopback interface of the remote BGP router. In the case of multiple RSVP LSPs with the same lowest metric, BGP selects the LSP with the lowest tunnel ID.
All
This command selects the RSVP-TE tunnel type in the resolution of the IP prefix or SR tunnel family using IGP shortcuts.
All
This command selects the RSVP-TE tunnel type in the resolution of the IP prefix or SR tunnel family using IGP shortcuts.
All
Commands in this context configure the RSVP auto LSP and its attributes for testing.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command specifies the RSVP reservation style, shared explicit (se) or fixed filter (ff). A reservation style is a set of control options that specify a number of supported parameters. The style information is part of the LSP configuration.
rsvp-resv-style se
All
This command debugs the OSPFv2 RSVP shortcut.
All
This command enables LSP Self Ping on all RSVP-TE LSPs, unless an individual LSP is explicitly disabled under the lsp>lsp-self-ping command or in the LSP template.
The no form of this command reverts to the default value.
rsvp-te disable
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures the tunnel table preference for RSVP-TE LSP tunnel type away from its default value.
The tunnel table preference applies to the next-hop resolution of BGP routes of the following families: EVPN, IPv4, IPv6, VPN-IPv4, VPN-IPv6, label-IPv4, and label-IPv6 in the tunnel table.
This feature does not apply to a VPRN, VPLS, or VLL service with explicit binding to an SDP that enabled the mixed-lsp-mode option. The tunnel preference in such an SDP is fixed and is controlled by the service manager. The configuration of the tunnel table preference parameter does not modify the behavior of such an SDP and the services that bind to it.
It is recommended to not set two or more tunnel types to the same preference value. In such a situation, the tunnel table prefers the tunnel type which was first introduced in SR OS implementation historically.
The no form of this command reverts to the default.
rsvp-te 7
All
This command enables the use of RSVP-TE sourced tunnel entries in the TTM to resolve the associated static route next-hop.
The rsvp-te value instructs the code to search for the set of lowest metric RSVP-TE LSPs to the address of the indirect next-hop. The LSP metric is provided by MPLS in the tunnel table. The static route treats a set of RSVP-TE LSPs with the same lowest metric as an ECMP set. The user has the option of configuring a list of RSVP-TE LSP names to be used exclusively instead of searching in the tunnel table. In that case, all LSPs must have the same LSP metric in order for the static route to use them as an ECMP set. Otherwise, only the LSPs with the lowest common metric value will be selected.
A P2P auto-lsp that is instantiated via an LSP template can be selected in TTM when resolution is set to any. However, Nokia does not recommend configuring an auto-lsp name explicitly under the rsvp-te node as the auto-generated name can change if the node reboots, which will blackhole the traffic of the static route.
no rsvp-te
All
This command configures the retransmission buffer for channels within the bundle or channel range.
The no form of the command returns the parameter to the default value.
300
7450 ESS, 7750 SR-7/12/12e, 7750 SR-14s
This command enables debugging the RET client.
7450 ESS, 7750 SR-7/12/12e, 7750 SR-14s
This command assigns the IP address for the retransmission client on the video interface within the service. The RET client IP address is the originating address used for communication with upstream RET servers. If no RET client address is assigned, the RT client is operationally down as the RET client configuration is incomplete.
For a VPLS service, the RET client address cannot be the same as an existing address for the video interface, but it must be an address within a video interface subnet. For IES and VPRN, the RET client address can be the same as an existing address for the video interface or an address within a video interface subnet.
7450 ESS, 7750 SR-7/12/12e, 7750 SR-14s
This command describes the format to be used by Retransmission (RT) server to send retransmission packets. The RET server interface allows the payload type within the retransmission packets to be configured.
rt-payload-type 99 — Indicates that the frames will be sent in the RFC 4588, RTP Retransmission Payload Format, format.
7450 ESS, 7750 SR-7/12/12e, 7750 SR-14s
This command sets the rate of nominal bandwidth at which retransmission packets are sent to the retransmission client for requests directed to the IP address.
The no form of the command returns the parameter to the default value.
rt-rate 5
7450 ESS, 7750 SR-7/12/12e, 7750 SR-14s
This command enables and configures the upstream retransmission server configuration parameters.
The no form of the command removes the upstream retransmission server configuration and implies the configuration is inherited from a higher context or from the default policy.
no rt-server – The upstream retransmission server settings are inherited.
7450 ESS, 7750 SR-7/12/12e, 7750 SR-14s
This command enables debugging for the RET server.
7450 ESS, 7750 SR-7/12/12e, 7750 SR-14s
This command enables debugging for Multicast Source Discovery Protocol (MSDP) route table manager (RTM).
The no form of the command disables MSDP RTM debugging.
All
This command enables debugging for PIM RTM.
The no form of this command disables debugging for PIM RTM.
All
This command logs RTM changes in the debug log.
The no form of this command disables debugging.
All
This command enables debugging for IS-IS route table manager (RTM).
The no form of the command disables debugging.
All
This command enables debugging for OSPF RTM.
All
This command configures the amount of time, in milliseconds, that the system waits before declaring an L2TP tunnel down when the remote endpoint IP address cannot be resolved to an active IP route in the local routing table.
The default behavior is for the L2TP tunnel to not be declared down based on the remote endpoint IP address reachability.
The no form of this command returns the rtm-debounce-time to a value of 0.
no rtm-debounce-time
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command specifies whether an RTP header is used when packets are transmitted to the packet service network (PSN) by the CEM SAP. This mode must be enabled for differential-timed DS1/E1s. It can optionally be enabled for other DS1/E1s for interoperability purposes.
no rtp-header
7450 ESS, 7750 SR-7/12/12e, 7750 SR-a, 7750 SR-e
This command specifies whether an RTP header is used when packets are transmitted to the packet service network (PSN) by the CEM SAP.
7450 ESS, 7750 SR-7/12/12e, 7750 SR-a, 7750 SR-e
This command configures the cflowd RTP performance export.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures the maximum number of LSAs OSPF can learn from another router, in order to protect the system from a router that accidentally advertises a large number of LSAs. When the number of advertised LSAs reaches the configured percentage of this limit, an SNMP trap is sent. If the limit is exceeded, OSPF goes into overload.
The overload-timeout option allows the administrator to control how long OSPF is in overload as a result of the advertised LSA limit being reached. At the end of this duration of time the system automatically attempts to restart OSPF. One possible value for the overload-timeout is forever, which means OSPF is never restarted automatically and this corresponds to the default behavior when the overload-timeout option is not configured.
The no form of this command removes the rtr-adv-lsa-limit.
rtr-adv-lsa-limit forever
All
This command configures the maximum number of LSAs OSPF can learn from another router, in order to protect the system from a router that accidentally advertises a large number of LSAs. When the number of advertised LSAs reaches the configured percentage of this limit, an SNMP trap is sent. If the limit is exceeded, OSPF goes into overload.
The overload-timeout option allows the administrator to control how long OSPF is in overload as a result of the advertised LSA limit being reached. At the end of this duration of time, the system automatically exits overload. One possible value for the overload-timeout is forever, which means OSPF is never exiting overload.
The no form of this command removes the rtr-adv-lsa-limit.
no rtr-adv-lsa-limit
All
This command enabled access to LUDB for SLAAC hosts under the capture SAP. The name of this ludb must match the name of ludb configured under the configure>service>vprn/ies>sub-if>group-if>ipv6>router-solicit hierarchy.
The no form of this command reverts to the default.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, VSR
This command enables RTSP ALG.
The no form of the command disables RTSP ALG.
no rtsp
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures the roundtrip delay threshold used by the DEM gateway algorithm to determine ANL congestion or subscriber congestion for NLB-DEM.
rtt-threshold 173
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures the roundtrip delay threshold for each RAT type to be used for a congestion detection algorithm (if applicable).
The no form of this command reverts to the default value.
rtt-threshold-rat 173
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures the ANL roundtrip delay threshold tolerance used by the DEM gateway algorithm to determine ANL-level or subscriber-level congestion.
rtt-threshold-tolerance 50
The ratio is calculated as follows, measured across a one-minute period:
rtt-threshold-tolerance = #(RTTs > rtt-threshold)/ (Total #RTTs)
If the rtt-threshold-tolerance ratio is exceeded, the ANL is declared congested.
7450 ESS, 7750 SR, 7750 SR-e, 7750 SR-s, VSR
This command configures a MAP rule prefix.
VSR
This command, supported by static and BGP-EVPN VXLAN binds, determines the type of traffic that the Non Designated Forwarder (NDF) PE discards in an EVPN multi-homed Ethernet Segment. It is only relevant when the VXLAN instance is associated to a network-interconnect-vxlan ES. The option BM is the default option and discards BM on reception (unicast, known and known is allowed). The option BUM discards any BUM frame on reception. Option none allows any BUM traffic on reception.
rx-discard-on-ndf bm
All
This command enables the reception and processing of the ITU-T Y.1731 ETH-ED PDU on the MEP.
The no form of this command disables the reception of the ITU-T Y.1731 ETH-ED PDU on the MEP.
rx-eth-ed
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command enables the reception and processing of the ITU-T Y.1731 ETH-ED PDU on the MEP.
The no form of this command disables the reception of the ITU-T Y.1731 ETH-ED PDU on the MEP.
rx-eth-ed
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command enables the reception and processing of the ITU-T Y.1731 ETH-ED PDU on the MEP.
The no form of this command disables the reception of the ITU-T Y.1731 ETH-ED PDU on the MEP.
rx-eth-ed
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command enables the reception and processing of the ITU-T Y.1731 ETH-ED PDU on the MEP.
The no form of this command disables the reception of the ITU-T Y.1731 ETH-ED PDU on the MEP.
rx-eth-ed
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command enables the reception and processing of the ITU-T Y.1731 ETH-ED PDU on the MEP.
The no form of this command disables the reception of the ITU-T Y.1731 ETH-ED PDU on the MEP.
rx-eth-ed
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command enables the reception and processing of the ITU-T Y.1731 ETH-ED PDU on the MEP.
The no form of this command disables the reception of the ITU-T Y.1731 ETH-ED PDU on the MEP.
rx-eth-ed
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command enables the reception and processing of the Nokia ETH-CFM Grace PDU on the MEP.
The Nokia Grace function is a vendor-specific PDU that informs MEP peers that the local node may be entering a period of expected defect.
The no form of this command disables the reception of the Nokia ETH-CFM Grace PDU on the MEP.
rx-eth-vsm-grace
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command enables the reception and processing of the Nokia ETH-CFM Grace PDU on the MEP.
The Nokia Grace function is a vendor-specific PDU that informs MEP peers that the local node may be entering a period of expected defect.
The no form of this command disables the reception of the Nokia ETH-CFM Grace PDU on the MEP.
rx-eth-vsm-grace
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command enables the reception and processing of the Nokia ETH-CFM Grace PDU on the MEP.
The Nokia Grace function is a vendor-specific PDU that informs MEP peers that the local node may be entering a period of expected defect.
The no form of this command disables the reception of the Nokia ETH-CFM Grace PDU on the MEP.
rx-eth-vsm-grace
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command enables the reception and processing of the Nokia ETH-CFM Grace PDU on the MEP.
The Nokia Grace function is a vendor-specific PDU that informs MEP peers that the local node may be entering a period of expected defect.
The no form of this command disables the reception of the Nokia ETH-CFM Grace PDU on the MEP.
rx-eth-vsm-grace
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command enables the reception and processing of the Nokia ETH-CFM Grace PDU on the MEP.
The Nokia Grace function is a vendor-specific PDU that informs MEP peers that the local node may be entering a period of expected defect.
The no form of this command disables the reception of the Nokia ETH-CFM Grace PDU on the MEP.
rx-eth-vsm-grace
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command enables the reception and processing of the Nokia ETH-CFM Grace PDU on the MEP.
The Nokia Grace function is a vendor-specific PDU that informs MEP peers that the local node may be entering a period of expected defect.
The no form of this command disables the reception of the Nokia ETH-CFM Grace PDU on the MEP.
rx-eth-vsm-grace
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures the reaction to an RX LOS.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
This command configures the average input power LOS threshold.
-23.00
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS
When the rx-must-be-encrypted option is enabled, all traffic that is not MACsec-secured that is received on the port is dropped.
When the rx-must-be-encrypted option is disabled, all arriving traffic, whether MACsec secured or not, will be accepted.
![]() | Note: This command is only available on the NULL port level and does not have per-VLAN granularity. |
The no form of this command disables the rx-must-be encrypted option.
rx-must-be-encrypted
All
This command sets the pace for update messages to and from the eth-cfm subsystem to the QoS subsystem. The most recent update messages are held by the ETH-CFM subsystem, but the most recent update is held until the expiration of the pacing timer.
7450 ESS, 7750 SR, 7750 SR-a, 7750 SR-e, 7750 SR-s, 7950 XRS