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Table of Contents
- play_arrow Configuring Dynamic VLANs for Subscriber Access Networks
- play_arrow Dynamic VLAN Overview
- Subscriber Management VLAN Architecture Overview
- Dynamic 802.1Q VLAN Overview
- Static Subscriber Interfaces and VLAN Overview
- Pseudowire Termination: Explicit Notifications for Pseudowire Down Status
- Configuring an Access Pseudowire That Terminates into VRF on the Service Node
- Configuring an Access Pseudowire That Terminates into a VPLS Routing Instance
- play_arrow Configuring Dynamic Profiles and Interfaces Used to Create Dynamic VLANs
- Configuring a Dynamic Profile Used to Create Single-Tag VLANs
- Configuring an Interface to Use the Dynamic Profile Configured to Create Single-Tag VLANs
- Configuring a Dynamic Profile Used to Create Stacked VLANs
- Configuring an Interface to Use the Dynamic Profile Configured to Create Stacked VLANs
- Configuring Interfaces to Support Both Single and Stacked VLANs
- Overriding the Dynamic Profile Used for an Individual VLAN
- Configuring a VLAN Dynamic Profile That Associates VLANs with Separate Routing Instances
- Automatically Removing VLANs with No Subscribers
- Verifying and Managing Dynamic VLAN Configuration
- play_arrow Configuring Subscriber Authentication for Dynamic VLANs
- Configuring an Authentication Password for VLAN or Stacked VLAN Ranges
- Configuring Dynamic Authentication for VLAN Interfaces
- Subscriber Packet Type Authentication Triggers for Dynamic VLANs
- Configuring Subscriber Packet Types to Trigger VLAN Authentication
- Configuring VLAN Interface Username Information for AAA Authentication
- Using DHCP Option 82 Suboptions in Authentication Usernames for Autosense VLANs
- Using DHCP Option 18 and Option 37 in Authentication Usernames for DHCPv6 Autosense VLANs
- play_arrow Configuring VLANs for Households or Individual Subscribers Using ACI-Based Dynamic VLANs
- Agent Circuit Identifier-Based Dynamic VLANs Overview
- Configuring Dynamic VLANs Based on Agent Circuit Identifier Information
- Defining ACI Interface Sets
- Configuring Dynamic Underlying VLAN Interfaces to Use Agent Circuit Identifier Information
- Configuring Static Underlying VLAN Interfaces to Use Agent Circuit Identifier Information
- Configuring Dynamic VLAN Subscriber Interfaces Based on Agent Circuit Identifier Information
- Verifying and Managing Agent Circuit Identifier-Based Dynamic VLAN Configuration
- Clearing Agent Circuit Identifier Interface Sets
- play_arrow Configuring VLANs for Households or Individual Subscribers Using Access-Line-Identifier Dynamic VLANs
- Access-Line-Identifier-Based Dynamic VLANs Overview
- Configuring Dynamic VLANs Based on Access-Line Identifiers
- Defining Access-Line-Identifier Interface Sets
- Configuring Dynamic Underlying VLAN Interfaces to Use Access-Line Identifiers
- Configuring Static Underlying VLAN Interfaces to Use Access-Line Identifiers
- Configuring Dynamic VLAN Subscriber Interfaces Based on Access-Line Identifiers
- Verifying and Managing Configurations for Dynamic VLANs Based on Access-Line Identifiers
- Clearing Access-Line-Identifier Interface Sets
- play_arrow High Availability for Service VLANs
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- play_arrow Configuring DHCP Subscriber Interfaces
- play_arrow VLAN and Demux Subscriber Interfaces Overview
- play_arrow Configuring Sets of Demux Interfaces to Provide Services to a Group of Subscribers
- play_arrow Configuring Dynamic Demux Interfaces That are Created by DHCP
- play_arrow Configuring DHCP Subscriber Interfaces over Aggregated Ethernet
- Static and Dynamic VLAN Subscriber Interfaces over Aggregated Ethernet Overview
- Static or Dynamic Demux Subscriber Interfaces over Aggregated Ethernet Overview
- Configuring a Static or Dynamic VLAN Subscriber Interface over Aggregated Ethernet
- Configuring a Static or Dynamic IP Demux Subscriber Interface over Aggregated Ethernet
- Configuring a Static or Dynamic VLAN Demux Subscriber Interface over Aggregated Ethernet
- Example: Configuring a Static Subscriber Interface on a VLAN Interface over Aggregated Ethernet
- Example: Configuring a Static Subscriber Interface on an IP Demux Interface over Aggregated Ethernet
- Example: Configuring IPv4 Static VLAN Demux Interfaces over an Aggregated Ethernet Underlying Interface with DHCP Local Server
- Example: Configuring IPv4 Dynamic VLAN Demux Interfaces over an Aggregated Ethernet Underlying Interface with DHCP Local Server
- Example: Configuring IPv6 Dynamic VLAN Demux Interfaces over an Aggregated Ethernet Underlying Interface with DHCP Local Server
- Example: Configuring IPv4 Dynamic Stacked VLAN Demux Interfaces over an Aggregated Ethernet Underlying Interface with DHCP Local Server
- play_arrow Using Dynamic Profiles to Apply Services to DHCP Subscriber Interfaces
- play_arrow Configuring DHCP IP Demux and PPPoE Demux Interfaces Over the Same VLAN
- play_arrow Providing Security for DHCP Interfaces Using MAC Address Validation
- play_arrow RADIUS-Sourced Weights for Targeted Distribution
- play_arrow Verifying Configuration and Status of Dynamic Subscribers
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- play_arrow Configuring PPPoE Subscriber Interfaces
- play_arrow Configuring Dynamic PPPoE Subscriber Interfaces
- Subscriber Interfaces and PPPoE Overview
- Dynamic PPPoE Subscriber Interfaces over Static Underlying Interfaces Overview
- Configuring Dynamic PPPoE Subscriber Interfaces
- Configuring a PPPoE Dynamic Profile
- Configuring an Underlying Interface for Dynamic PPPoE Subscriber Interfaces
- Configuring the PPPoE Family for an Underlying Interface
- Ignoring DSL Forum VSAs from Directly Connected Devices
- Example: Configuring a Dynamic PPPoE Subscriber Interface on a Static Gigabit Ethernet VLAN Interface
- play_arrow Configuring PPPoE Subscriber Interfaces over Aggregated Ethernet Examples
- Example: Configuring a Static PPPoE Subscriber Interface on a Static Underlying VLAN Demux Interface over Aggregated Ethernet
- Example: Configuring a Dynamic PPPoE Subscriber Interface on a Static Underlying VLAN Demux Interface over Aggregated Ethernet
- Example: Configuring a Dynamic PPPoE Subscriber Interface on a Dynamic Underlying VLAN Demux Interface over Aggregated Ethernet
- play_arrow Configuring PPPoE Session Limits
- play_arrow Configuring PPPoE Subscriber Session Lockout
- play_arrow Configuring MTU and MRU for PPP Subscribers
- play_arrow Configuring PPPoE Service Name Tables
- Understanding PPPoE Service Name Tables
- Evaluation Order for Matching Client Information in PPPoE Service Name Tables
- Benefits of Configuring PPPoE Service Name Tables
- Creating a Service Name Table
- Configuring PPPoE Service Name Tables
- Assigning a Service Name Table to a PPPoE Underlying Interface
- Configuring the Action Taken When the Client Request Includes an Empty Service Name Tag
- Configuring the Action Taken for the Any Service
- Assigning a Service to a Service Name Table and Configuring the Action Taken When the Client Request Includes a Non-zero Service Name Tag
- Assigning an ACI/ARI Pair to a Service Name and Configuring the Action Taken When the Client Request Includes ACI/ARI Information
- Assigning a Dynamic Profile and Routing Instance to a Service Name or ACI/ARI Pair for Dynamic PPPoE Interface Creation
- Limiting the Number of Active PPPoE Sessions Established with a Specified Service Name
- Reserving a Static PPPoE Interface for Exclusive Use by a PPPoE Client
- Example: Configuring a PPPoE Service Name Table
- Example: Configuring a PPPoE Service Name Table for Dynamic Subscriber Interface Creation
- Troubleshooting PPPoE Service Name Tables
- play_arrow Changing the Behavior of PPPoE Control Packets
- play_arrow Monitoring and Managing Dynamic PPPoE for Subscriber Access
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- play_arrow Configuring MLPPP for Subscriber Access
- play_arrow MLPPP Support for LNS and PPPoE Subscribers Overview
- MLPPP Overview
- MLPPP Support for LNS and PPPoE Subscribers Overview
- Supported Features for MLPPP LNS and PPPoE Subscribers on the MX Series
- Mixed Mode Support for MLPPP and PPP Subscribers Overview
- Understanding DVLAN (Single/Dual tag) for Subscriber Services Scaling (Junos Evolved for ACX7100-48L Devices)
- play_arrow Configuring MLPPP Link Fragmentation and Interleaving
- play_arrow Configuring Inline Service Interfaces for LNS and PPPoE Subscribers
- play_arrow Configuring L2TP Access Client for MLPPP Subscribers
- play_arrow Configuring Static MLPPP Subscribers for MX Series
- play_arrow Configuring Dynamic MLPPP Subscribers for MX Series
- play_arrow Configuring Dynamic PPP Subscriber Services
- Dynamic PPP Subscriber Services for Static MLPPP Interfaces Overview
- Hardware Requirements for PPP Subscriber Services on Non-Ethernet Interfaces
- Configuring PPP Subscriber Services for MLPPP Bundles
- Enabling PPP Subscriber Services for Static Non-Ethernet Interfaces
- Attaching Dynamic Profiles to MLPPP Bundles
- Example: Minimum MLPPP Dynamic Profile
- Example: Configuring CoS on Static LSQ MLPPP Bundle Interfaces
- play_arrow Monitoring and Managing MLPPP for Subscriber Access
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- play_arrow Troubleshooting
- play_arrow Contacting Juniper Networks Technical Support
- play_arrow Knowledge Base
-
- play_arrow Configuration Statements and Operational Commands
list Table of Contents
Configuring ATM Virtual Path Shaping on ATM MICs with SFP
date_range
06-Dec-23
Starting in Junos OS Release 14.2, on MX Series routers with Modular Port Concentrator (MPC) interfaces and an ATM Modular Interface Card (MIC) with small form-factor pluggable transceiver (SFP) installed, you can configure class-of-service (CoS) hierarchical shaping and schedule for the traffic carried on an ATM virtual path (VP).
After you configure the ATM physical interface and logical interface
units, you must configure an interface set that consists of the ATM
logical interface units. You then define one or more CoS traffic control
profiles that includes the ATM service category (atm-service) and the peak cell rate (peak-rate), sustained cell rate
(sustained-rate), and maximum burst size (max-burst-size) parameters. Finally, you apply the specified traffic control profile
to the output traffic at the interface set and at its member ATM logical
interface units.
To configure ATM VP shaping for traffic on an ATM MIC with SFP:
The following example configures ATM VP shaping on interface
at-1/0/4 with VPI 40. The example defines an ATM interface set
named atm-vp-ifset with two member ATM logical interfaces, at-1/0/4.50
and at-1/0/4.51, both of which use VPI 40. Traffic control profiles
atm-vp-tcp1, atm-vp-tcp2, and atm-vp-tcp3 are each defined with the atm-service, peak-rate, sustained-rate, and max-burst size cell parameters. Finally, the output-traffic-control-profile statement applies traffic control
profile atm-vp-tcp1 to the output traffic at interface at-1/0/4.50,
atm-vp-tcp2 to the output traffic at interface at-1/0/4.51, and atm-vp-tcp3
to the output traffic at the atm-vp-ifset interface set.
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[edit] # Configure ATM Physical Interface user@host# set interfaces at-1/0/4 hierarchical-scheduler user@host# set interfaces at-1/0/4 atm-options vpi 40 # # Configure ATM Logical Units user@host# set interfaces at-1/0/4 unit 50 encapsulation pppoe-over-ether-over-atm-llc user@host# set interfaces at-1/0/4 unit 50 vci 40.50 user@host# set interfaces at-1/0/4 unit 50 family pppoe duplicate-protection user@host# set interfaces at-1/0/4 unit 51 encapsulation pppoe-over-ether-over-atm-llc user@host# set interfaces at-1/0/4 unit 51 vci 40.51 user@host# set interfaces at-1/0/4 unit 51 family pppoe duplicate-protection # # Configure ATM Interface Set user@host# set interfaces interface-set atm-vp-ifset interface at-1/0/4 unit 50 user@host# set interfaces interface-set atm-vp-ifset interface at-1/0/4 unit 51 # # Configure Traffic Shaping and Scheduling Profiles user@host# set class-of-service traffic-control-profiles atm-vp-tcp1 atm-service nrtvbr user@host# set class-of-service traffic-control-profiles atm-vp-tcp1 set peak-rate 3k user@host# set class-of-service traffic-control-profiles atm-vp-tcp1 set sustained-rate 200 user@host# set class-of-service traffic-control-profiles atm-vp-tcp1 set max-burst-size 1000 user@host# set class-of-service traffic-control-profiles atm-vp-tcp2 atm-service nrtvbr user@host# set class-of-service traffic-control-profiles atm-vp-tcp2 set peak-rate 200 user@host# set class-of-service traffic-control-profiles atm-vp-tcp2 set sustained-rate 100 user@host# set class-of-service traffic-control-profiles atm-vp-tcp2 set max-burst-size 150 user@host# set class-of-service traffic-control-profiles atm-vp-tcp3 atm-service nrtvbr user@host# set class-of-service traffic-control-profiles atm-vp-tcp3 set peak-rate 5k user@host# set class-of-service traffic-control-profiles atm-vp-tcp3 set sustained-rate 1k user@host# set class-of-service traffic-control-profiles atm-vp-tcp3 set max-burst-size 2000 # # Apply Traffic Shaping and Scheduling Profiles user@host# set class-of-service interfaces interface-set atm-vp-ifset output-traffic-control-profile atm-vp-tcp3 user@host# set class-of-service interfaces at-1/0/4 unit 50 output-traffic-control-profile atm-vp-tcp1 user@host# set class-of-service interfaces at-1/0/4 unit 51 output-traffic-control-profile atm-vp-tcp2
Change History Table
Feature support is determined by the platform and release you are using. Use Feature Explorer to determine if a feature is supported on your platform.
Release
Description
14.2
Starting in Junos
OS Release 14.2, on MX Series routers with Modular Port Concentrator
(MPC) interfaces and an ATM Modular Interface Card (MIC) with small
form-factor pluggable transceiver (SFP) installed, you can configure
class-of-service (CoS) hierarchical shaping and schedule for the traffic
carried on an ATM virtual path (VP).
