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Table of Contents
- About This Guide
-
- Objectives
- Audience
- Supported Routing Platforms
- Using the Indexes
- Using the Examples in This Manual
- Documentation Conventions
-
- List of Technical Publications
- Documentation Feedback
- Requesting
Technical Support
- Network Interfaces, Class of
Service, and Chassis
-
- Channelized Intelligent Queuing Interfaces
-
- Overview
- System Requirements
- Terms and Acronyms
- Configuring Channelized IQ Interfaces
-
- Configuring a Clear Channel on a Channelized IQ Interface
- Configuring Single-Level Channels on a Channelized IQ Interface
- Configuring Multilevel Channels on a Channelized IQ Interface
- Channelized IQ Interface Configuration Examples
-
- Example: Clear Channel Configuration for a Channelized OC12
IQ Interface
- Verifying Your Work
- Example: Complex Configuration for a Channelized OC12 IQ Interface
- Verifying Your Work
-
- Channelized
OC12
- SONET
OC3
- T3
- Channelized
T3
- Channelized
OC1
- Channelized
T1
- T1
- DS0
- Example: Converting a Channelized OC12 IQ PIC to a Channelized
STM4 IQ Interface
- Verifying Your Work
- Example: Channelized OC3 IQ Interface Configuration
- Verifying Your Work
-
- Channelized
OC3
- Channelized
OC1
- T3
- Channelized
T3
- T1
- Channelized
T1
- NxDS0
- Clear
Channel SONET OC3
- Example: Channelized DS3 IQ Interface Configuration
- Verifying Your Work
- Example: Channelized T1 IQ Interface Configuration
- Verifying Your Work
- Example: Channelized STM1 IQ Interface Configuration
- Verifying Your Work
- Example: Channelized E1 IQ Interface Configuration
- Verifying Your Work
- Configuring Class of Service for Channelized IQ Interfaces
-
- Configuring a Class-of-Service Scheduler Map
- Associating the Scheduler with a DLCI on a Channelized IQ Interface
- Class of Service for Channelized IQ Interfaces Example
-
- Example: DLCI Class of Service on a Channelized IQ Interface
Configuration
- Verifying Your Work
- For More Information
- Revision History
- Class of Service Using IPv6 DiffServ
-
- Overview
- System Requirements
- Terms and Acronyms
- Configuring CoS with IPv6 DiffServ
-
- Configuring a Firewall Filter for an MF Classifier on Customer
Interfaces
- Applying the Firewall Filter to Customer Interfaces
- Assigning Forwarding Classes to Output Queues
- Configuring Rewrite Rules
- Applying Rewrite Rules to an Interface
- Configuring BA Classifiers
- Applying a BA Classifier to an Interface
- Configuring RED Drop Profiles
- Configuring Schedulers
- Configuring Scheduler Maps
- Applying a Scheduler Map to an Interface
- Class of Service with IPv6 DiffServ Example
-
- Example: CoS with IPv6 DiffServ Configuration
- Verifying Your Work
- For More Information
- Revision History
- Routing Matrix
-
- Overview
- System Requirements
- Terms and Acronyms
- Configuring a Routing Matrix
-
- Adjusting the Configuration to Accommodate Increased FPC Numbers
- Configuring Groups to Support Routing Matrix Components
- Configuring Protocols and Other Features
- Option: Configuring Chassis-Specific Statements
- Routing Matrix Configuration Example
-
- Example: Routing Matrix Configuration
-
- TX Matrix
Platform—SCC
- Verifying Your Work
-
- Displaying
the Software Version
- Displaying Interfaces
- Displaying Routes
- Displaying Alarms and System Uptime
- Displaying Chassis Hardware and Status
- Other
Miscellaneous Commands
- Routing Matrix Hardware and Software Considerations
-
- Identifying Routing Matrix Components
- Viewing the Routing Matrix as a Single Routing Platform
- Connecting to a Routing Matrix
- Committing Configurations on a Routing Matrix
- Upgrading the Software for a Routing Matrix
- Managing System Processes in the Routing Matrix
- Rebooting and Halting Routing Matrix Components
- Enabling and Disabling Specific Routing Matrix Hardware Components
- Managing Files on Routing Engines in a Routing Matrix
- For More Information
- Revision History
- Source Class Usage
-
- Overview
- System Requirements
- Terms and Acronyms
- Configuring SCU
-
- Configuring Route Filters and Source Classes in a Routing Policy
- Applying the Policy to the Forwarding Table
- Enabling Accounting on Inbound and Outbound Interfaces
- SCU Configuration Example
-
- Example: SCU Configuration
- Verifying Your Work
- Configuring SCU with Layer 3 VPNs
-
- Configuring Input SCU on the vt Interface of the Egress PE
Router
- Mapping the SCU-Enabled vt Interface to the VRF Instance
- Configuring SCU on the Output Interface
- SCU with Layer 3 VPNs Configuration Example
-
- Example: SCU in a Layer 3 VPN Configuration
- Verifying Your Work
- Configuring Accounting Profiles with SCU
-
- Configuring Standard SCU
- Associating an Accounting Profile with SCU Classes
- Verifying Your Work
- For More Information
- Revision History
- MPLS Applications
-
- GMPLS
-
- Overview
- System Requirements
- Terms and Acronyms
- GMPLS Phase 2 Implementation
-
- GMPLS Operation
- Configuring GMPLS
-
- Configuring Link Management Protocol Traffic Engineering Links
- Configuring Link Management Protocol Peers
- Configuring Peer Interfaces in OSPF and RSVP
- Establishing GMPLS LSP Path Information
- Defining GMPLS Label-Switched Paths
- Discovering Local Identifiers and Configuring Remote Identifiers
- Option: Tearing Down GMPLS LSPs Gracefully
- Option: Allowing Nonpacket GMPLS LSPs to Establish a Path Through
JUNOS-Based Routers
- Option: Selecting the Peer Model or the Overlay Model for GMPLS
- Option: GMPLS Graceful Restart
- Option: Configuring an LMP Control Channel
- Option: Configuring GMPLS Support for Unnumbered Links
- GMPLS Configuration Examples
-
- Example: GMPLS Configuration
- Verifying Your Work
-
- Router A Status
- Router
C Status
- Example: LMP Control Channel Configuration
- Verifying Your Work
-
- Router 1 Status
- Router
4 Status
- For More Information
- Revision History
- Connecting IPv6 Islands with IPv4 MPLS
-
- Overview
- System Requirements
- Terms and Acronyms
- Configuring an IPv4 MPLS Tunnel to Carry IPv6 Traffic
-
- Configuring IPv6 on the Customer and Core-Facing Interfaces
- Configuring MPLS and RSVP from PE Router to PE Router to Create
a Tunnel
- Enabling IPv6 Tunneling in MPLS
- Configuring Multiprotocol BGP to Carry IPv6 Traffic
- IPv6 Traffic on an IPv4 MPLS Tunnel Example
-
- Example: Connecting IPv6 Islands over an MPLS Tunnel Configuration
- Verifying Your Work
-
- Router CE1
Status
- Router
PE1 Status
- Router
PE2 Status
- Router
CE2 Status
- For More Information
- Revision History
- Multiple Instances for Label Distribution Protocol
-
- Overview
- System Requirements
- Terms and Acronyms
- Configuring Multiple-Instance LDP
-
- Configuring a Master LDP Instance
- Configuring a VRF-Based LDP Instance
- Multiple-Instance LDP Configuration Example
-
- Example: Multiple-Instance LDP Configuration
- Verifying Your Work
-
- Router CE3
Status
- Router
PE3 Status
- Router
CE1 Status
- Router
PE1 Status
- Router
PE2 Status
- Router
CE2 Status
- Router
PE4 Status
- Router
CE4 Status
- For More Information
- Revision History
- MPLS LSP Link Protection and Node-Link Protection
-
- Overview
-
- Link Protection
- Node-Link Protection
- System Requirements
- Terms and Acronyms
- Configuring MPLS LSP Link Protection or Node-Link Protection
-
- Configuring Link Protection or Node-Link Protection on the
LSP
- Configuring Link Protection on the RSVP Interfaces Traversed
by the LSP
- Option: Configuring Multiple Bypass LSPs, Manual Bypass LSPs,
and Link Protection Priority
- Option: Adding Class of Service to a Link-Protected
LSP or a Bypass LSP
- Option: Using Enhanced Operational Mode Commands and System
Log Messages
- MPLS LSP Link Protection or Node-Link Protection Configuration
Examples
-
- Example: MPLS LSP Link Protection Configuration
- Verifying Your Work
-
- Case 1: Normal
Operation
- Case 2: When the Link from Router 1 to Router 3 Is Disabled
- Case 3: When the Link from Router 3 to Router 2 Is Disabled
- Example: Node-Link Protection Configuration
- Verifying Your Work
- For More Information
- Revision History
- RSVP LSP Tunnels
-
- Overview
- System Requirements
- Terms and Acronyms
- RSVP LSP Tunneling Operation
- Configuring an RSVP LSP Tunnel
-
- Configuring Link Management Protocol Traffic Engineering Links
- Configuring Link Management Protocol Peers
- Configuring Peer Interfaces in OSPF and RSVP
- Establishing FA-LSP Path Information
- Defining Label-Switched Paths for the FA-LSP
- Creating End-to-End LSPs to Traverse the FA-LSP
- Option: Tearing Down RSVP LSPs Gracefully
- RSVP LSP Tunnel Configuration Example
-
- Example: RSVP LSP Tunnel Configuration
- Verifying Your Work
-
- Router
0
- Router 1
- For More Information
- Revision History
- Simplified Interinstance Route Sharing
-
- Overview
- System Requirements
- Terms and Acronyms
- Simplified Interinstance Configuration
- Instance Export Using an IGP Export Policy
- Configuring Overlapping VPNs
- Example: Overlapping VPNs Configuration
- Verifying Your Work
-
- Router PE1 Status
- Configuring Nonforwarding Instances
-
- Example: Nonforwarding Instances Configuration
- Verifying Your Work
-
- Router PE2
Status
- Router
CE3 Status
- For More Information
- Revision History
- Routing Protocols
-
- Logical Systems
-
- Overview
- System Requirements
- Terms and Acronyms
- Configuring Logical Systems
-
- Configuring Logical System Administrators (Master Administrator)
- Configuring Interfaces (Master Administrator)
- Assigning Logical Interfaces to the Logical System (Master
or Logical System Administrator)
- Configuring Protocols, Routing, and Policy Statements for the
Logical System (Master or Logical System Administrator)
- Configuring Other Logical System Statements
- Logical System Configuration Example
-
- Example: Logical System Configuration
- Verifying Your Work
-
- Router CE1
Status
- Router
CE2 Status
- Router
CE3 Status
- Router
PE1 Status: Main Router
- Router
PE1 Status: LS1
- Router PE1 Status: LS2
- Router
P0 Status: Main Router
- Router
P0 Status: LS1
- Router
P0 Status: LS2
- Router
PE2 Status: Main Router
- Router
PE2 Status: LS1
- Router PE2 Status: LS2
- Router
CE5 Status
- Router
CE6 Status
- Router
CE7 Status
- Logical System Administrator Verification
Output
- Verifying
Routing Instance Connectivity
- For More Information
- Revision History
- OSPF Version 3 for IPv6
-
- Overview
- System Requirements
- Terms and Acronyms
- Configuring OSPFv3 for IPv6
-
- Configuring OSPFv3 as the Routing Protocol
- Configuring Interfaces in OSPFv3 Areas
- OSPFv3 for IPv6 Configuration Example
-
- Configuring Virtual Links for OSPFv3
- Example: OSPFv3 for IPv6 Configuration
- Verifying Your Work
-
- Router 0 Status
- Router
1 Status
- Router
2 Status
- Router
3 Status
- Router
4 Status
- Router
5 Status
- For More Information
- Revision History
- Multitopology Routing
-
- Overview
- System Requirements
- Terms and Acronyms
- Configuring Multitopology Routing
-
- Configuring Topologies
- Configuring Filter-Based Forwarding
- Configuring BGP for Multitopology Routing
- Configuring an Interior Gateway Protocol
-
- Option: Configuring OSPF for Multitopology Routing
- Option: Configuring Static Routes
for Multitopology Routing
- Option: Configuring Route Resolution Policy
- Multitopology Routing Configuration Example
-
- Example: Multitopology Routing Configuration
- Verifying Your Work
- For More Information
- Revision History
- Services Interfaces
-
- Flow Monitoring
-
- Overview
-
- Passive Flow Monitoring
- Active Flow Monitoring
- System Requirements
-
- Passive Flow Monitoring
- Active Flow Monitoring
- Active Flow Monitoring
- Terms and Acronyms
- Configuring Passive Flow Monitoring
-
- Monitoring Traffic with a VRF Instance and a Monitoring Group
-
- Specifying
a Firewall Filter to Select Traffic to Monitor
- Configuring Input Interfaces, Monitoring Services Interfaces, and Export Interfaces
- Establishing a VRF Instance for the Monitored Traffic
- Configuring a Monitoring Group to Send Traffic to the Flow
Server
- Configuring Policy Options
- Option: Stripping MPLS Labels on ATM, Ethernet-Based, and SONET/SDH Interfaces
- Copying and Redirecting Traffic with Port Mirroring and Filter-Based
Forwarding
-
- Specifying
Port Mirroring Input and Output
- Creating
a Firewall Filter to Split the Port-Mirrored Traffic into Different Instances
- Applying the Firewall Filter to a Tunnel PIC Interface
- Using Filter-Based Forwarding to Export Monitored Traffic to Multiple Destinations
- Configuring a Routing Table Group to Add Interface Routes into the Forwarding Instance
- Option: Using an ES PIC to Send Traffic to a Packet Analyzer
- Option: Applying a Firewall Filter to an Output Interface
- Using a Flow Collector Interface to Process and Export Multiple
Flow Records
- Using a Dynamic Flow Capture Interface to Monitor Traffic On
Demand
-
- Configuring
the Capture Group
- Configuring
the Content Destination
- Configuring the Control Source
- Configuring the Dynamic Flow Capture Interface
- Option:
Configuring Thresholds
- Option:
Configuring System Logging
- Option: Monitoring Dynamic Flow Capture by Using SNMP
- Hardware and Software Considerations
- Passive Flow Monitoring Configuration Examples
-
- Example: Passive Flow Monitoring Configuration
- Verifying Your Work
- Example: Flow Collector Interface Configuration
- Verifying Your Work
- Example: Dynamic Flow Capture Configuration
-
- Router 1
- Verifying Your Work
-
- Router 1
- Configuring Active Flow Monitoring
-
- Defining a Firewall Filter to Select Traffic for Active Flow
Monitoring
- Configuring the Interfaces That Will Be Actively Monitored
- Enabling the Monitoring Services, Adaptive Services, or Multiservices
Interfaces and the Export Interface
- Collecting Flow Records
-
- Collecting
Flow Records with a Sampling Group
- Collecting Flow Records with an Accounting Group
- Replicating Routing Engine-Based
Sampling to Multiple Flow Servers
- Collecting Flow Records with a Template
- Routing Engine-Based Sampling
to Multiple Flow Servers
- Replicating Version 9 Flow Aggregation
to Multiple Flow Servers
- Option: Configuring an Aggregate Export Timer
- Option: Configuring Port Mirroring
- Option: Configuring Port Mirroring with Filter-Based Forwarding
and a Monitoring Group
- Option: Sending Traffic to Multiple Export Interfaces by Using
Next-Hop Groups
- Option: Using the Flow-Tap Application to Send Packets to a
Mediation Device
-
- Flow-Tap Architecture
- Configuring
the Flow-Tap Interface
- Configuring Flow-Tap Security Properties
- Flow-Tap
Application Restrictions
- Example: Flow-Tap Configuration
- Active Flow Monitoring Configuration Examples
-
- Example: Sampling Configuration
- Verifying Your Work
- Example: Sampling and Discard Accounting Configuration
- Verifying Your Work
- Example: Multiple Port Mirroring with Next-Hop Groups Configuration
- Flow Monitoring Output Formats
-
- Version 5 Formats and Fields
- Version 8 Formats and Fields
- Version 9 Formats and Fields
- For More Information
- Revision History
- IPSec
-
- Overview
-
- IPSec-Enabled PICs
- Authentication Algorithms
- Encryption Algorithms
- IPSec Protocols
- Security Associations
- IPSec Modes
- Digital Certificates
- Service Sets
- System Requirements
- Terms and Acronyms
- Configuring IPSec
-
- Considering General IPSec Issues
- Configuring Security Associations
-
- Configuring
Manual SAs
- Configuring IKE Dynamic SAs
- Using a Filter to Select Traffic to Be Secured
- Applying the Filter or Service Set to the Interface Receiving
Traffic to Be Secured
- Option: Using Digital Certificates
-
- Configuring
a CA Profile
- Configuring a Certificate Revocation List
- Requesting a CA Digital Certificate
- Generating
a Private/Public Key Pair
- Generating
and Enrolling a Local Digital Certificate
- Applying
the Local Digital Certificate to an IPSec Configuration
- Configuring Automatic Reenrollment
of Digital Certificates
- Monitoring and Clearing Digital Certificates
- Option: Using Filter-Based Forwarding to Select Traffic to
Be Secured
- Option: Using IPSec with a Layer 3 VPN
- Option: Securing BGP Sessions with Transport Mode
- Option: Securing OSPFv3 Networks with Transport Mode
- Option: Securing OSPFv2 Networks with Transport Mode
- Option: Monitoring IPSec by Using SNMP
- Option: Configuring IPSec Dynamic Endpoints
-
- Dynamic Endpoint
Tunnel Architecture
-
- Authentication
Process
- Dynamic
Implicit Rules
- Reverse
Route Insertion
- Configuring an IKE Access Profile
- Configuring the Service Set
- Configuring
the Interface Identifier
- Option: Configuring Multiple Routed Tunnels in a Single Next-Hop
Service Set
- IPSec Configuration Examples
-
- Example: ES PIC Manual SA Configuration
- Verifying Your Work
-
- Router 1
- Router
2
- Router
3
- Router
4
- Example: AS PIC Manual SA Configuration
- Verifying Your Work
-
- Router 1
- Router
2
- Router
3
- Example: ES PIC IKE Dynamic SA Configuration
- Verifying Your Work
-
- Router 1
- Router
2
- Router
3
- Router
4
- Example: AS PIC IKE Dynamic SA Configuration
- Verifying Your Work
-
- Router 1
- Router
2
- Router
3
- Router
4
- Example: IKE Dynamic SA Between an AS PIC and an ES PIC Configuration
- Verifying Your Work
-
- Router 1
- Router
2
- Router
3
- Router
4
- Example: AS PIC IKE Dynamic SA with Digital Certificates Configuration
- Verifying Your Work
-
- Router 1
- Router 2
- Router 3
- Router 4
- Example: Dynamic Endpoint Tunneling Configuration
- Verifying Your Work
- For More Information
- Revision History
- VPNs
-
- Layer 2 Circuits
-
- Overview
- System Requirements
- Terms and Acronyms
- Configuring Layer 2 Circuits
-
- Configuring an Interface Encapsulation on CE-Facing Interfaces
-
- Configuring
CCC Encapsulation on CE-Facing Ethernet Interfaces
- Configuring CCC Encapsulation on CE-Facing SONET/SDH Interfaces
- Configuring a CCC Encapsulation and a Layer 2 Circuit Mode on CE-Facing ATM2 IQ Interfaces
- Configuring the MPLS Family on Core Interfaces
- Configuring Layer 2 Circuits
- Configuring LDP and an IGP to Transport Layer 2 Circuits
- Option: Applying Traffic Engineering to a Layer 2 Circuit
- Option: Mapping Layer 2 Protocol Control Information into a
Layer 2 Circuit
- Option: Configuring APS for Layer 2 Circuits
- Option: Configuring Layer 2 Circuit Trunk Mode on ATM2 IQ Interfaces
- Option: Reserving LSP Bandwidth for a Layer 2 Circuit
- Option: Selecting an MTU for a Layer 2 Circuit
- Option: Configuring Local Interface Switching for a Layer 2
Circuit
- Option: Configuring Layer 2 Circuits Simultaneously over RSVP
and LDP LSPs
- Layer 2 Circuit Configuration Examples
-
- Example: Ethernet-Based Layer 2 Circuit Configuration
- Verifying Your Work
-
- Router PE1
Status
- Router
P0 Status
- Router
PE2 Status
- Example: SONET/SDH-Based Layer 2 Circuit Configuration
- Verifying Your Work
- Example: ATM2 IQ-Based Layer 2 Circuit Configuration
- Verifying Your Work
- Example: Layer 2 Circuit Traffic Engineering over Multiple
LSPs Configuration
- Verifying Your Work
- Example: APS for a Layer 2 Circuit Configuration
- Verifying Your Work
- For More Information
- Revision History
- Multicast over Layer 3 VPNs
-
- Overview
-
- Multiprotocol BGP-Based Multicast VPNs: Next-Generation
- Dual PIM Multicast VPNs: Draft Rosen
- System Requirements for Multiprotocol BGP-Based Multicast VPNs:
Next-Generation
- System Requirements for Dual PIM Multicast VPNs: Draft Rosen
- Terms and Acronyms
- Configuring Multiprotocol BGP-Based Multicast VPNs: Next-Generation
-
- Creating a Unique Logical Loopback Interface for the Routing
Instance
- Configuring Interfaces for Layer 3 VPNs
- Configuring BGP, MPLS, RSVP, and an IGP on the PE and Core
Routers
- Creating a Routing Instance for Multiprotocol BGP-Based Multicast
VPN
- Option: Configuring Sender and Receiver Sites
- Option: Specifying Route Targets
- Configuring Provider Tunnels
- Enabling Multicast VPN in BGP
- Configuring Traffic Engineering Point-to-Multipoint LSPs in
Provider Tunnels
- Configuring the Master PIM Instance on the PE Router
- Configuring the Router’s IPv4 Bootstrap Router Priority
- Multiprotocol BGP Multicast VPNs Example
-
- Verifying Your Work
-
- show mvpn c-multicast
- show mvpn instance
- show
mvpn neighbor
- Step-by-Step Multicast VPN Configuration Example
- Dual PIM Draft Rosen Multicast VPN Operation
- Configuring Draft-Rosen Multicast VPNs
-
- Configuring BGP, MPLS, RSVP, and an IGP on the PE and Core
Routers
- Creating a Unique Logical Loopback Interface for the Routing
Instance
- Configuring the Master PIM Instance on the PE Router
- Configuring PIM and the VPN Group Address in a Routing Instance
- Option: Configuring PIM Sparse Mode Graceful Restart for a
Layer 3 VPN
- Option: Configuring Multicast Distribution Trees for Data
- Option: Configuring MSDP Within a Layer 3 VPN
- Draft-Rosen Multicast VPNs Examples
-
- Example: Basic IPv4 Multicast over a Layer 3 VPN Configuration
- Verifying Your Work
-
- RP Information
- PIM
Information Prior to Multicast Transmission
- Successful PIM Join Verification
- Example: IPv4 Multicast with Interprovider VPNs Configuration
- Verifying Your Work
-
- Router CE0
Status
- Router
PE0 Status
- Router
P0 Status
- Router
P1 Status
- Router
PE1 Status
- Router
CE1 Status
- For More Information
- Revision History
- Translational Cross-Connect and Layer 2.5 VPNs
-
- Overview
- System Requirements
- Terms and Acronyms
- Configuring TCC Interface Switching
-
- Defining the Encapsulation for Layer 2 TCC Switching
-
- Configuring
Ethernet Encapsulation with Remote and Proxy ARP Addresses
- Configuring Extended VLAN Encapsulation with
Remote and Proxy ARP Addresses
- Option:
Configuring Static ARP on the Ethernet Neighbor Instead
of Proxy ARP
- Defining the Connection for Layer 2 TCC Switching
- Configuring MPLS
- TCC Configuration Examples
-
- Example: PPP to ATM TCC Configuration
- Verifying Your Work
- Example: Frame Relay to Fast Ethernet TCC Configuration
- Verifying Your Work
- Configuring Layer 2.5 VPNs
-
- Configuring the Encapsulation on Interfaces Participating in
the Layer 2.5 VPN
- Configuring the Layer 2.5 VPN
- Option: Configuring ISO or MPLS Traffic on T-series and M320
Routers
- Layer 2.5 VPN Configuration Example
-
- Example: Layer 2.5 VPN Configuration
- Verifying Your Work
-
- Router PE1
Status
- Router
PE2 Status
- Router
P Status
- For More Information
- Revision History
- Virtual Private LAN Service
-
- Overview
- System Requirements
- Terms and Acronyms
- Configuring VPLS
-
- Required Configurations for VPLS
-
- Configuring Routing Protocols on the PE and Core Routers
- Configuring
VPLS Encapsulation on CE-Facing Interfaces
- Configuring a Signaling Protocol
for VPLS
-
- Configuring LDP Signaling for VPLS
- Configuring a VPLS Instance with BGP Signaling
- Configuring Interworking between
BGP Signaling and LDP Signaling in VPLS Instances
- Configuring Multihoming on a VPLS Border
Router
- VPLS Options for BGP Signaling
-
- Option: Selecting
an LSP for the VPLS Routing Instance to Traverse
- Option: Configuring VPLS Multihoming
with BGP Signaling
- Option: Configuring VPLS Traffic Flooding over a Point-to-Multipoint
LSP
- Option: Configuring Automatic
Site Selection
- VPLS Options for BGP and LDP Signaling
-
- Option: Configuring
VPLS to Use LSI Interfaces
- Option:
Configuring Tunnel Services on MX-series Routers
- Optional:
Configuring Integrated Routing and Bridging in a VPLS Instance (MX-series
Routers Only)
- Optional: Configuring VLAN IDs
in a VPLS Instance (MX-series Routers Only)
- Option: Applying VPLS Policers and Filters
- Option: Enabling VPLS Class of Service
- Option:
Enabling VPLS Graceful Restart
- Option:
Clearing MAC Addresses and Modifying the VPLS Table Timeout Interval
- Option: Configuring VPLS Interinstance Bridging and Routing
- Option: Selecting Interfaces to Process VPLS Traffic
- Option: Limiting the Number of MAC Addresses Learned on an
Interface
- Option: Optimizing VPLS Traffic Flows
- Option:
Aggregated Interfaces for VPLS
- Option:
Configuring VPLS Graceful Routing Engine Switchover
- Option: Configuring VPLS Nonstop
Active Routing
-
- Enabling Nonstop Active Routing
- Synchronizing the Routing Engine Configuration
- Verifying VPLS Nonstop Active Routing Operation
- Tracing VPLS Nonstop Active Routing Synchronization
Events
- Example: Configuring Nonstop Active Routing
- Option: Configuring
the Spanning Tree Protocol and VPLS on MX-series Routers
- Filtering Layer 2 Packets in a VPLS Instance
(MX-series Routers Only)
- VPLS Configuration Examples
-
- Example: VPLS Configuration (BGP Signaling)
- Verifying Your Work
- Example: VPLS Configuration (BGP and LDP Interworking)
- Verifying Your Work
- Example: Configuring Inter-AS VPLS with MAC Processing at the
ASBR
- For More Information
- Revision History
- Index
-
- Index
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