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Contents
About This Guide...................................................................... 5
Chapter 1: VDSL Applications Overview ............................... 9
xDSL Subscriber Access Support ......................................................................... 10
Modular Chassis Deployment ................................................................................ 16
Chapter 2: Configuring VDSL2 Applications ...................... 19
Step 1. Configuring the Network Uplink(s) for VDSL2 Services .......................... 20
Overview: Configuring the Network Uplink(s) ................................................. 20
Configuring the Ethernet Uplink Port............................................................... 21
Configuring an Ethernet Interface ................................................................... 26
Configuring a Link Aggregation Interface ........................................................ 33
Creating the Service VLAN(s) ......................................................................... 47
Additional multicast addressing considerations .............................................. 50
Adding the Uplink Interface(s) to VLAN Memberships .................................... 64
Step 2. Creating VDSL2-Related Profiles............................................................... 68
Overview of VDSL2-Related Profiles .............................................................. 68
Creating the Quality of Service for VDSL2 Traffic Management ..................... 71
Creating Data and Video Service Profiles ..................................................... 105
Creating Voice Service Profiles .................................................................... 155
Step 3. Configure Subscriber Services................................................................ 177
Configuring Data Services ............................................................................ 177
Configuring IP Video Services ...................................................................... 189
Configuring Voice Services ........................................................................... 201
Configuring T1/E1 PWE3 Services ............................................................... 213
xDSL Port Power Save ................................................................................. 213

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Chapter 3: Reference Information ...................................... 215
System Support Capacities .................................................................................. 216
xDSL Support Capacities ...................................................................................... 221
E-Series LED Behavior .......................................................................................... 223
E-Series Line Card Additional Status Descriptions ............................................ 225

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About This Guide
This Calix E7, E3-48, E5-48 and E5-48C Ethernet service access platforms leverage VDSL2
and ADSL2+ technology, along with an Ethernet switching fabric, to perform L2
aggregation / switching and layer-3-aware service delivery.
The Calix topics in this guide describe how to configure VDSL2-based services for the
following platforms:
E7-2 in stand-alone and modular chassis configurations
E5-48, E5-48C and E3-48C in stand-alone configurations
Note: Calix E7-20 products do not support VDSL2-based cards or services.
Throughout this guide, E-Series is used to refer to the specific product of E7-2 that supports
VDSL2 cards and the E3-48C, E5-48 and E5-48C products that supports the equivalent of
the VDSL2 line cards.
For specific procedures on provisioning Ethernet elements, such as VLANs, Ethernet ports
and interfaces on the E5-48, E5-48C and E3-48C, refer to the Calix E3-48/E5-48/E5-48C
User Guide.
Intended Audience
This document is intended for use by network planning engineers, CO technicians, and craft
and support personnel responsible for network equipment turn-up, service configuration,
and maintenance. The procedures in this guide are of a technical nature and should only be
performed by qualified personnel. Familiarity with standard telecom and datacom
terminology and practices, as well as standards-based Ethernet technologies and conventions,
is recommended.
Related Documentation
You can access Calix product documentation from the Calix Resource Center online at
www.calix.com (https://www.calix.com/portal/site/resourcecenter/).

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The Calix E7 documentation set includes:
Engineering and Planning
Calix Ethernet Access Networks Engineering & Planning Guide
This document provides high-level engineering and planning information for
building secure, reliable, resilient, and scalable Layer 2 switched Ethernet
access networks using Calix products to deliver data, voice, and video services.
It describes all aspects of Ethernet access network design—from physical
topologies to network bandwidth requirements in the context of Calix
products, describing an access network where the traffic terminates at the edge
router.
Calix E7 Engineering and Planning Guide
This document provides engineering and planning information for the Calix
E7 Ethernet Service Access Platform (ESAP) and Calix E3-48C Ethernet
Service Access Node (ESAN). It describes the features and capabilities of each
system, and provides engineering guidelines to assist engineers and network
planners effectively deploy the E7 and E3-48C.
Installation
Calix E7-2 Installation Guide
Calix E7-20 Installation Guide
Calix E3-48C Installation Guide
Calix E5-48/E5-48C Installation Guide
These documents provide a general installation practice for the Calix Ethernet
service access platform, including guidance for planning, power installation,
cabling, and maintenance.
User Guide
Calix E7 User Guide
Calix E3-48C, E5-48/E5-48C R2.3 User Guide
These guides are intended for initial turnup and also show you how to set up
management access, system attributes, administrative tasks, and configure
transport and aggregation applications.

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Software Upgrade
Calix E7/E5-48/E3-48C System Upgrade Guide
This document describes how to perform software/firmware upgrades as well
as database backup and restore operations.
Calix E7 GPON ONT Upgrade Guide
For E7 GPON systems, this document describes how to perform upgrades for
compatible P-Series, GigaCenter, and T-Series GPON ONTs.
Application Provisioning
Calix E7 GPON Applications Guide
Calix E7-2/E5-48/E3-48C xDSL Applications Guide
Calix E7 Active Ethernet Applications Guide
These application guides show you how to provision subscriber services using
specific technologies, assuming that the system is already installed and turned
up.
Maintenance and Troubleshooting
Calix E7 Maintenance and Troubleshooting Guide
This guide includes procedures for monitoring E7 network operation, general
troubleshooting, and replacing or installing equipment.
Command Line Interface
Calix E3-48C, E5-48/E5-48C CLI Reference
This document provides a comprehensive command reference for the E-series
Command-Line Interface (CLI) and describes how to perform key system
management and operational functions from the CLI. The embedded
command-
line interface (CLI) for system management access can be used over
local or remote TCP/IP connections and local console connections.

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Related Documentation
P-Series/T-Series ONT Software Matrix for E7 GPON
Calix P-Series ONT Model/Feature Matrix
Calix 800G GigaCenter Embedded Web Interface (EWI) User's Guide
Calix T1 Pseudowire Applications Guide
Calix C7 VoIP Services Guide
Calix Application Note: Using the ONT VoIP Configuration File
Completing Residential Gateway and SIP Configuration File Intake Forms
Calix P-Series VoIP Configuration File - Template
Calix 836GE RSG Wi-Fi Best Practices Guide
Calix GPON RF Overlay Deployment Guidelines
Calix Application Note: GPON Interface Adaptor
Calix E7 Pluggable Transceiver Module Support
CAB-12-023 - Pairing Bidirectional SFPs (to Support Single-Fiber Ethernet Links)

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Chapter 1
VDSL Applications Overview
This chapter describes VDSL2 applications and the Calix E-Series VDSL2 solution.
Topics Covered
This chapter covers the following topics:
An overview of the E-Series xDSL support
Description of modular chassis deployment with VDSL-based cards

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xDSL Subscriber Access Support
The Calix E-Series Ethernet service platform leverages VDSL2 and ADSL2+ technology,
along with an Ethernet switching fabric, to perform L2 aggregation / switching and layer-3aware service delivery. Up to two dedicated 10 Gigabit and four 2.5 or 1 Gigabit Ethernet
uplinks can be leveraged to provide high capacity service delivery on a per-chassis basis.
E7-2 VDSL2-48 Overlay Line Card
Interfaces:
48x DSL Overlay ports with corresponding 600- or 900-Ohm integrated splitters
Four 1GE / 2.5GE SFP MSA sockets, and two 1GE / 10GE SFP+ MSA sockets
Features:
The VDSL2-48 also supports pair bonding in both ADSL2+ and VDSL2 modes.
One VDSL2-48 line card can be installed in an E7-2 chassis.
Integrated splitters provide a means to extract analog voice form the service loop and
terminate it on an existing DLC or analog POTS port on a switch line bay. One E7-2
VDSL2-48 line card can be plugged into a Calix E7-2 shelf to create a compact, high
density DSL overlay node, with Ethernet aggregation and transport, ideal for copper
based delivery of IP services leveraging existing POTS infrastructure, across the access
network.
Rev 13 and above of the VDSL2-48 card supports 600/900 Ω impedance, compatible
with all E7 releases. There is no need to select between 600 and 900 Ω impedance and
the splitter design accommodates either impedance without configuration.
POTS interfaces of the VDSL2-48 line card have the following characteristics:
Impedance of 600 Ω + 2.16 μf, supporting ETSI based loop plants
Impedance of 900 Ω + 2.16 μf, supporting ANSI based loop plants
Loop current of up to 25mA (during normal operation), and 18mA (during battery
backup)
E7-2 VDSL2-48 r2 Overlay Line Card
This card is backward compatible with the original E7-2 VDSL2-48 Overlay line card.
E7-2 VDSL2-48C Combo Line Card
Interfaces:
48x Combo DSL and POTS ports, two 1GE / 2.5GE SFP MSA sockets
Two 1GE/10GE SFP+ MSA sockets

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The E7-2 VDSL2-48C line card can be plugged into one or both of the two universal slots
within a Calix E7-2 shelf to create a compact, very high density DSL node of 96 ports in a
1RU high chassis, for DSL and VOIP access. Pair bonding is supported in both ADSL2+
and VDSL2 modes.
E7-2 VDSL2-48C r2 Combo Line Card
This card is backward compatible with the original E7-2 VDSL2-48C Combo Line Card.
E7-2 VDSL2-48D Data-Only Line Card
Interfaces
48 ports VDSL2/ADSL2+ Fallback data-only
2 SFP sockets at 1GE/2.5GE rates
2 SFP+ sockets at 1GE/10GE rates
The Calix E7-2 VDSL2-48D card can be plugged into one or both of the two universal slots
within a Calix E7-2 shelf to create a compact, high-density DSL node, with Ethernet
aggregation and transport, ideal for copper based delivery of IP services across the access
network. The line card supports pair bonding in both ADSL2+ and VDSL2 modes.
The Calix E7-2 VDSL2-48D Data-Only line card is ideally suited to meet new deployment
requirements for the “All-Digital loop” as well as traditional Class 5 TDM Voice Switch
consolidation applications. The All-Digital Loop provides high speed data services to all
subscribers with the VoIP POTS functionality provided as an integrated component of the
home residential gateway or as a separate IAD device attached to the modem. VoIP traffic is
packetized in the home and then forwarded across the Calix network to the SIP enabled
Softswitch. This application completely removes the POTS functionality from the service
loop as the VoIP traffic is forwarded as a prioritized data packet. Using the E7-2 VDSL248D Data-Only line card Service Providers may continue to provide triple play services with
the voice element being classified as “digital voice” as compared to “Life-line POTS”.
In this application, the TDM Class 5 POTS and Splitters are external to the E7 solution. The
E7-2 VDSL2-48D Data-Only solution does not include splitter functionality. POTS services
in this application are provided by the Class 5 switch and the splitter function is external to
the E7 solution. In this application, high speed digital traffic is routed across the E7 while
POTS signaling is forwarded across the installed TDM network.
E7-2 VDSL2-48D r2 Data-Only Line Card
This card is backward compatible with the original E7-2 VDSL2-48D r2 Data-Only line card.

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The Calix E7-2 VDSL2-48 card combines forty-eight VDSL2/ADSL2+ subscriber ports and
corresponding integrated splitters, with four Gigabit Ethernet SFPs and two 10GE SFP+
ports, to provide high speed copper services with integrated Ethernet transport. Integrated
splitters provide a means to extract analog voice on a service loop and terminate it on an
existing DLC or analog POTS port on a switch line bay. One E7-2 VDSL2-48 line card can
be plugged into a Calix E7-2 shelf to create a compact, very high density DSL node, with
Ethernet aggregation and transport, ideal for copper based delivery of IP services across the
access network. The E7-2 VDSL2-48 supports a full set of subscriber services and network
topology protocols.
Interface Capacity
The Calix E7-2 VDSL2-48C line card combines VDSL2 / ADSL2+ fallback subscriber ports
and corresponding 900Ω integrated splitters, with GE SFPs and 10GE SFP+ ports, to
provide high speed copper services with integrated Ethernet transport.
DSL Ports
per card
Cards(s) per
E7-2 Shelf
DSL Ports
per E7-2
Integrated
VF Splitters
1GE/2.5GE
SFP Ports
10GE/1GE
SFP+ Ports
Integrated splitters provide a means to extract analog voice form the service loop and
terminate it on an existing DLC or analog POTS port on a switch line bay. One E7-2
VDSL2-48 line card can be plugged into a Calix E7-2 shelf to create a compact, high density
DSL overlay node, with Ethernet aggregation and transport, ideal for copper based delivery
of IP services leveraging existing POTS infrastructure, across the access network. The E7-2
VDSL2-48 supports a full set of subscriber services and network topology protocols.

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Broadband Overlay
The E7-2 can be used when traditional POTS already exists and is passed through the remote
location, originating from the access equipment located in the CO or an existing remote
DLC. The DSL overlay is passed through an integrated splitter / combiner, allowing the
delivery of voice, video, and data to a customer across a common, twisted pair cable. The
Calix E7’s GE uplinks may be aggregated on a C7 with GE-2p / FE-4p or GE-4s line cards
or on an Ethernet switch or router.
Overlay POTS Services with VDSL2-48
All 48-subscriber ports on the VDSL2-48 line card provide broadband DSL access and
access to overlay lifeline POTS service. Analog POTS is carried over the service loop using
standard Voice Frequency carriers (300 to 3400 Hertz). A line card integrated voice splitter
separates the voice from the data service for each subscriber signal, extracting the POTS
service, as an analog signal, back out of the line through the POTS overlay connector ports.
The analog POTS service can then be handled via a collocated Digital Loop Carrier (DLC),
or sent off to a TDM switch analog front end line bay.
POTS interfaces of the VDSL2-48 line card have the following characteristics:
Impedance of 900 Ω + 2.16 μf
Loop current of up to 25mA (during normal operation), and 18mA (during battery backup)
E3-48C Node
48x Combo DSL and POTS ports, two 1GE / 2.5GE SFP MSA sockets, and two
1GE/10GE SFP+ MSA sockets
The Calix E3-48C is a compact, hardened, high capacity sealed ESAN designed for
outside plant applications.
The E3-48C may be AC, DC, or Line powered.
E5-48 Overlay Node
Fixed 1RU form factor
48 x VDSL2/ADSL2+ Fallback
Integrated POTS splitter per port

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4 x 1G ports for uplink/downlink
Identical to E7-2 with a VDSL2-48 card, with the following exceptions:
Modular chassis is not supported
LAG supports only two ports in a group, either ports 1&2 or ports 3&4. LAG
group may NOT include ports across the pair boundary. For example, a LAG
with ports 1&3, or 2&3 are not supported.
E5-48C Combo Node
Fixed 1RU form factor
48 x VDSL2/ADSL2+ Fallback ports
48 x POTS ports
4 x 1G ports for uplink/downlink
Identical to E7-2 with a VDSL2-48C card, with the following exceptions:
Modular chassis is not supported
LAG supports only two ports in a group, either ports 1 and 2 or ports 3 and 4.
LAG group may NOT include ports across the pair boundary. For example, a
LAG with ports 1 and 3, or 2 and 3 are not supported.
Multiple modes of DSL deployment
All xDSL ports on the VDSL2 line cards can be configured independently, for any of the
xDSL modes of operation. The length and gauge of the copper pair loop determines the
DSL mode(s) that can be supported for each port, and the train rate, and the derived service
rate that the service provider is able to deliver to the subscriber. During the "handshake"
process, the xDSL ports and the CPE agree to determine the DSL mode automatically. The
E-Series trains the port at the DSL mode that provides the highest line performance possible,
in the following order of priority:
1. VDSL2 PTM
2. ADSL2+ PTM
3. ADSL2+ ATM
4. ADSL2 PTM
5. ADSL2 ATM
6. ADSL ATM
xDSL can operate using either of two transmission convergence layers (PTM-TC, ATM-TC)
and in one of several modes, listed above.

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Packet mode utilizes PTM encapsulation (Ethernet services) for xDSL port operation. All
traffic on the port shares a single path and requires that all Basic Packet Functions (BPF)
be performed in order to support varied services (VLAN) on the port. This is possible
when using any of VDSL2, ADSL2+ or ADSL2 physical layers. PTM mode is not
possible with ADSL1 physical layers (for example, G.dmt).
ATM mode utilizes ATM encapsulation for xDSL port operation. In this case, the E-
Series performs a SAR function to interwork packets to/from cells. ATM mode can be
used with all xDSL physical layers, except VDSL2.
Fallback mode is where the E-Series automatically determines that it cannot train up in
VDSL2 mode, and then uses ADSL2+ instead. If the port can use PTM-TC, then it does
use it. If the xTU-R does not support PTM-TC, the E-Series uses ATM-TC and
performs the SAR function. Note that the E-Series currently supports up to six PVCs per
xDSL port for ADSL operation.
Legacy mode (this mode is only supported on the C7 and E5-series Calix products, and
NOT supported on the E-Series) is distinctly different than the other modes in that ATM
VC are connected directly to individual ATM VC on the DSL line, just as with a
traditional ADSL card. As such, QoS is provided by the ATM VC, rather than on a perpriority, per VLAN port basis. Traditional CAC functions are performed to ensure that
the aggregate capacity of the ATM VC feeding the port do not exceed the ports capacity.
The exception being handling of multiple UBR VC on egress, wherein some rate shaping
and priority queuing are required.
Bonding
The VDSL card supports bonding wherein a single “bonded” port can be created from
multiple physical ports. Bonded ports are treated the same as individual ports. Therefore, all
aspects of Basic Packet Functions (BPF) that are applicable to individual ports are also
applicable to Bonded ports.
Vectoring
E-Series supports unit level vectoring on all VDSL2 equipment. Vectoring eliminates cross
talk between VDSL2 lines and thus recovers bandwidth that would otherwise be “lost” due
to crosstalk. Vectoring also ensures a uniform level of performance from pair to pair in a
vectored binder group. The E-Series vectoring complies with the ITU G993.5 standard.

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Modular Chassis Deployment
The E7-2 MC platform operates as a ‘node’ such that it is managed as a complete entity;
adding and deleting service, updating within a node concept, operationally managing troubles
and diagnosis as a node. Configuration and installation of ‘stacked’ units to the node is
automatically handled with ease of visual indicators to ensure cables are connected properly.
See the following for related information:
"Turning Up a Modular Chassis System" in the Calix E7 User Guide for information on
initially configuring several E7s into a modular chassis
Calix Method of Procedure (MOP): Migrating Standalone E7 Systems to an E7 Modular Chassis for
instructions on how to migrate multiple standalone E7 systems into a unified E7 modular
chassis
Calix E7 Maintenance and Troubleshooting Guide for instructions on how to add, replace, or
delete components in a modular chassis system.
Considerations for VDSL2-based cards in a modular chassis
The VDSL2-48C / VDSL2-48 line cards are supported components of the modular
chassis architecture and platform deployment model.
Modular chassis with VDSL2 cards support SFP ports at 2.5GE data rates for inter-
chassis stacking ring connectivity.
The VDSL2-48C card shares a common EXA Powered architecture and feature set
common to all E7 cards and can be mixed interchangeably with other E7 cards to
provide an application specific solution.
Single-card Modular Chassis Controller (MCC) is supported when deploying a multi-shelf
E7-2 with VDSL2-48 Overlay cards.

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In the diagram above, VDSL2-48C line cards in the MCC and MCE shelves lose a forward
facing SFP+ socket to the chassis’ backplane. This is not the case with the VDSL2-48
Overlay line card, since it requires no backplane communication to a second card in the E7-2
same chassis. Both the RT and CO nodes are fully and only equipped with E7-2 VDSL2-48C
line cards, while they could also use transport cards (for example 10GE-4) in the MCC to
aggregate multiple ERPS rings or take advantage of longer range XFP optics. Both nodes
support protected 10GE ERPS Transport and / or RSTP or Link Aggregation network
protocols from the MCC shelf. See "Turning Up a Modular Chassis system" in the Calix E7
User Guide for configuration guidelines and detailed instructions for configuring a modular
chassis system.

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Chapter 2
Configuring VDSL2 Applications
This chapter describes how to setup VDSL2 applications, including configuring the E-Series
system, creating profiles, and then adding subscriber services.
Note: For procedures on initial turnup and network configuration specific procedures, see
the Calix E7 User Guide or the Calix E3-48/E5-48/E5-48C User Guide. See the E7 Maintenance
and Troubleshooting Guide for a procedure on VDSL2 Single Ended Line Test (SELT) that is is
a DSL pre-provisioning test tool used to assess the line capability prior to installing a modem
at the customer premise.
Topics Covered
This chapter covers the following topics:
1. Configure network uplinks for VDSL2 services
2. Creating system profiles that support VDSL2 applications
3. Configure subscriber services

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Step 1. Configuring the Network Uplink(s) for
VDSL2 Services
This section describes how to configure the network uplinks for provisioned VDSL2
services.
Topics Covered
This section covers the following topics in bold that are part of the overall VDSL2 services
configuration process:
1. Configure network uplinks for VDSL2 services
Configuring Ethernet port interfaces
Configuring Ethernet ports
Creating service VLANs
Adding interfaces to VLAN memberships
2. Creating system profiles that support VDSL2 applications
3. Configure subscriber services
Overview: Configuring the Network Uplink(s)
This chapter describes how to configure the network uplink(s) for E-Series VDSL2 services.
If the network contains a number of E-Series nodes, such as in a 10GE transport ring, the
network uplink(s) may reside in a different shelf from the VDSL2 ports and may include
multiple uplinks per service. Network uplink(s) are typically located in a shelf closest to the
core or headend.
Note: For information on configuring system-level objects, such as NTP servers and SNMP
traps, see the Calix E7 User Guide or the Calix E3-48/E5-48/E5-48C User Guide.
Configuration process
The network uplink configuration process follows:
1. Configure the 10GE or GE uplink port for service.
Set the Admin status for enable.
2. Configure the Ethernet interface on the uplink port.
Set the interface role to Trunk.
Enable RSTP for link protection as required.

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3. Create the service VLAN(s).
Create one VLAN per subscriber for the 1:1 provisioning model.
Create one VLAN per service for the N:1 provisioning model.
For video service, enable IGMP Snooping.
4. Add the Ethernet uplink interface to the service VLAN memberships.
Configuring the Ethernet Uplink Port
The topic describes how to configure an E-Series Ethernet port for an uplink.
E-Series Ethernet ports and the associated Ethernet interfaces always exist and can only be
modified. LAG interfaces and their association with Ethernet ports can be created, deleted,
and modified. See Configuring an Ethernet or LAG Interface (on page 33).
The physical characteristics of the underlying ports include:
Speed
Duplex setting
Interface type
ETH-Port names:
g(port number) = Gigabit Ethernet Ports (GE)
x(port number) = 10Gigabit Ethernet Ports (10GE)
Configuration guidelines
An Ethernet port is always a member of exactly one interface, even when it is being used
in a standalone manner.
An Ethernet port can be either assigned to the Ethernet interface associated with the
port, or assigned to an existing LAG interface. (Before you can assign a port to a LAG
interface, you must disable the port's default associated interface.)
The interface provisioning (for example, VLAN membership) applies to the port when
the interface is assigned to the port.
Keep the LACP role set to the default value of active, unless there is a very clear need.
Specifically, the topology where at least one side of the LAG is cross-card will not
operate when either side of the LAG is set to LACP role = passive.
When a port interface is added to an ERPS ring, the port attribute of Duplex defaults to
full and the Flow Control setting defaults to none. If the port interface is removed from
the ERPS domain, these attributes can again be modified.
Destination lookup failure (DLF) based rate limiting should never be used on aggregation
network elements as this naturally happens when the access network goes through a
topology change. The use of this feature at the access node is also not advised as the rate
limiter indiscriminately applies to all services including business services.

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The E7-2 supports 2.5 Gbps pluggable module interfaces in the SFP ports of the 10GE-
4, GPON-4, VDSL2-48C, and VDSL2-48 cards.
The 2.5GE interfaces support equivalent functions and networking protocols as the GE
and 10GE interfaces.
Auto-negotiation is supported over twisted pair 1000BASE-T links and some fiber
1000BASE-X links. It is not supported over 2.5G or 10G links.
When connecting to devices that do not support auto-negotiation, provision the E7 port
manually for the speed, duplex, and flow control options that are compatible with the
options supported by the other side.
Forced Speed Settings Supported
10M 100M 1G 2.5G 10G
Copper modules in SFP/CSFP ports
Direct-Attach cables in SFP/CSFP ports
Direct-Attach cables in SFP+ port
Copper modules in SFP+ ports
1G fiber modules in SFP or SFP+ ports
2.5G fiber modules in SFP ports
10G fiber modules in SFP+ ports
The following rules apply for stand-alone E7 shelves and Modular Chassis Controller
(MCC) shelves:
SFP and SFP+ Network ports; support protection protocols; ERPS, LAG, RSTP:
Transport ports; ERPS or RSTP protection
Trunk/Edge ports; RSTP and/or LAG protection, towards the edge
switch/router or subtended device
SFP sockets:
1GE or 2.5GE data rate modes
At 2.5GE data rate mode, supported port roles are
Stacking/Edge/Trunk/Access
At 1G data rate mode; supported port roles are Edge/Trunk/Access
SFP+ sockets:
1GE or 10GE data rate modes
At 10G data rate mode; supported port roles are Stacking/Edge/Trunk/Access
At 1G data rate mode; supported port roles are Edge/Trunk/Access
Support for subscriber DSL drops; supported port roles are Access
The following rules apply for Modular Chassis Expansion (MCE) shelves:
SFP and SFP+ Access ports; no support for protection protocols
Aggregation; unprotected pt-to-pt links to subtended devices from SFP and
SFP+ sockets

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SFP sockets
1GE or 2.5GE data rate modes
At 2.5GE data rate mode; supported port roles are Stacking/Access (unprotected
pt-to-pt)
At 1GE data rate mode; supported port roles are Access (unprotected pt-to-pt)
SFP+ sockets
1GE or 10GE data rate modes
At 10GE data rate mode; supported port roles are Stacking/Access (unprotected
pt-to-pt)
At 1GE data rate mode; supported port roles are Access (unprotected pt-to-pt)
Before starting
Before starting the configuration process, check that the following conditions are met:
The class map and class rules are configured.
The policy map and policies are configured.
The Ethernet or LAG interface is configured.
The Ethernet port grade-of-service (GoS) profile is created.
The class-of-service (CoS) profile is created.
Parameters
You can provision the following parameters for E-Series GE or 10GE Ethernet ports:
Parameter Description Valid Options
Admin State Service state of port.
While troubleshooting a port that has Admin State = "enabled-noalarms," either use the CLI command "show alarm include
suppressed," or from the web browser interface temporarily set the
Admin State to "enabled," and then refresh the alarm panel
manually or wait for default refresh rate to see the suppressed
enabled
disabled ‡
enabled-no-alarms
Interface Name of interface to select whether to leave the default connection
to the port's logical (associated) Ethernet interface, or assign the
port to a link aggregation group (LAG) interface.
Note: Before you can assign a port to a LAG interface, you must
disable the port's default associated interface. When a port is
assigned to a LAG, the LAG interface provisioning (for example,
VLAN membership) applies to the port.
EthIntf
LagIntf
GOS Profile Name of Grade-of-Service (GoS) profile to use that has been
previously defined. The GoS profile specifies the operation
thresholds for the Ethernet port.
Any established Ethernet GoS
profile
COS Config Nam e of class-of-service (CoS) profile to use that has been
previously defined. The class-of-service profile specifies the
Any established Ethernet port
CoS profile

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Parameter Description Valid Options
Broadcast Max Rate Select whether to disable this parameter (off), or enter a value to
specify the maximum rate for broadcast traffic (packets/second).
This is an ingress rate limiter.
off, 0-16383999
Use "k" and "m" to multiply the
Unknown Mcast Max
Rate
Select whether to disable this parameter (off), or enter a value to
limit the rate for unknown multicast traffic (packets/seconds). Use
"k" and "m" to multiply rate.
off ‡
Enter Value = 0–16,383,999
DLF Max Rate Select whether to disable this parameter (off), or enter a value for
the maximum ingress rate for unknown unicast or destination
lookup failure (DLF) traffic (packets/seconds). Use "k" and "m" to
multiply rate. DLF applies to unicast packets where the bridges
lookup the destination MAC address in their learning tables and
cannot find it (a lookup miss) thus floods the packet to the
broadcast domain until the packet hits a bridge that knows
(learned) the destination MAC address or the packet is received by
off ‡
Enter Value = 0–16,383,999
LACP Priority Priority value to use for determining which port to activate in a
LAG. The lower value takes priority.
For example, in a cross-card protect i on LAG, set the ports on the
active card to a common LACP priorit y value, and then set the
LAG ports on the standby card to another common priority value.
The priority value on the active card ports must be lower than the
value set for the ports on the standby card.
0-65535
32768 ‡
LACP Timeout The length of timeout for LACP.
Note: Avoid the use of LACP long timeouts, unless there is a very
short ‡
long
Duplex Duplex mode for the port.
Half-duplex uses Carrier Sense Multiple Access (CSMA) to
detect collisions and recover from them.
Full-duplex transmits and receives at the same time. Note:
Use this setting for ERPS ring ports.
Auto:
If the link is auto-negotiated, the duplex attribute is negotiated
with the link partner.
If the link speed is forced to a set value, full duplex is the
half, full, auto‡ (auto-negotiate
duplex value with the link
partner)
Flow control Applies back pressure to a transmitter that is outrunni ng the
receiver's capacity to process incoming data.
tx-pause sends pause packets to the partner link, when
needed.
rx-pause honors the partner link's pause packets and stops
transmitting, when asked.
tx-rx sends pause packets and honors the partner link's pause
packets.
none does not send pause packets and does not honor the
partner link's pause packets. Note: Use this setting for ERPS
ring ports.
Auto:
If the link is auto-negotiated, the pause attribute is negotiated
with the partner link.
If the link speed is forced to a set value, tx-rx is the default.
rx-tx, rx-pause, tx-pause, auto‡,
none

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Parameter Description Valid Options
LLDP Mode Link Layer Discovery Prot ocol (LLDP) mode for the port. LLDP
defines a set of information to be transmitted and received
periodically on an Ethernet interface to and from connected
devices. This information can be leveraged by the management
interfaces to build a “network” topology view and identify all
connected access nodes.
Note: LLDP is enabled by default for all GE Access interfaces
configured as Edge or Trunk.
disabled, tx-only ‡
Ethernet Speed
(Mb/s)
Data rate of port (bits/s).
Auto setting:
If the link supports auto-negotiation, the link partners auto-
negotiate the speed while advertising the duplex and flow
control parameters specified.
If the link does NOT support auto-negotiation, the setting is for
the fastest rate that the module can support.
Module-rate is for SFP+ ports, which supports both 10GE and 1GE
modules. The bit rate of the installed module is forced as the port
speed. No auto-negotiation takes place with this setting. Module
rate is not supported for XFP ports.
Fixed speed setting forces the speed to the value specified. (Note:
See the configuration guidelines above for the forced speed setting
supported for various ports.)
auto‡, module-rate (native
speed of pluggable module),
10mbps, 100mbps, 1gbps,
2.5gbps, 10gbps
To configure an E-Series GE port for service
1. On the Navigation Tree, double-click an E-Series line card, and then click a GE or 10GE
port.
Alternatively, you can access an E-Series Ethernet port using the following methods:
Click the triangle-arrow to the left of the service card in the Navigation tree, and then
click the specific Ethernet port from the tree.
On the Navigation Tree, click E-Series, and then click System > Ethernet Ports
and click a listed Ethernet port, or click in the row between the columns to edit the
row. You can select multiple ports to edit using the Control+click and Shift+click
keys. Click Apply when the parameter settings are complete.
2. Reference the table above to configure the parameters.
3. From the menu, click Apply.
For CLI:
set eth-port <port ID> [speed|duplex|flow-ctrl|interface|eth-gos|cos-queuecfg|bcast-max-rate|unk-mcast-max-rate|dlf-max-rate|lacp-priority|lacptimeout|admin-state]
Bulk Modifying Ethernet Ports
Modifying Ethernet ports in selected groups results in rapid configuration changes across a
node.

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To create a range of Ethernet ports
1. On the Navigation Tree, select the node, and then click Ethernet Ports.
2. In the work area, select the Ethernet ports to modify using Shift+click or Ctrl+click.
To select a row from the table, click on the portion of the row in between the columns
that has no text, as indicated by the red rectangles below.
3. In the edit row at the top of the work area, select the parameter to modify, and select the
new value.
4. Click Enter to identify each row with a modified value as having a pending change,
indicated by an orange arrow.
5. In the Toolbar, click Apply to commit the changes.
For CLI:
set eth-port <port ID> [speed|duplex|flow-ctrl|interface|eth-gos|cos-queuecfg|bcast-max-rate|unk-mcast-max-rate|dlf-max-rate|lacp-priority|lacptimeout|admin-state]
Configuring an Ethernet Interface
This topic describes how to configure an Ethernet port's associated interface. E-Series
Ethernet interfaces are logical objects that represent the service-related attributes of an
Ethernet port.
Ethernet ports and the associated Ethernet interfaces always exist and can only be modified.
LAG interfaces and their association with Ethernet ports can be created, deleted, and
modified.
See Configuring a Link Aggregation Interface (on page 33) for information.
Interface names
Eth interfaces (Non-LAG related interfaces) share the same name as the E-Series Ethernet
Ports (card 1/Eth port g1, for example 1/g1)
g(port number) = GE(port number)
x(port number) = 10GE(port number)

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Interface roles
Each GE and 10GE interface in the system has one of the following configuration-role
types:
Trunk: A port connecting to other equipment belonging to the service provider or to
another service domain with consistent VLAN tagging levels. These ports may also be
referred to as Network ports or Provider ports in industry standards. These ports support
outer VLAN tag plus MAC switching.
Examples of trunk ports are 10G ERPS transport ports and GE uplinks. Trunk ports can be
configured for link aggregation, RSTP, or ERPS. To properly process ingress double tags, the
GE network interface (uplink) must be configured as a Trunk role.
Edge: A port facing customer equipment or facing reduced functionality devices, alternative
administrative domains, or managed CPE. Generally, this E-Series Ethernet port interface is
where all classification is first performed on ingress traffic (if customer facing). The E-Series
Ethernet interface is also expected to add, replace, or remove one or more VLAN tags on
edge traffic. RSTP and LAG networking protocols are supported.
Examples of an edge port would include GE ports to managed CPE, a GE/10GE port to
external equipment which may use different tagging levels, or GPON ports.
Access: A port facing untrusted customer equipment or other devices serving subscribers.
Generally, this port interface is where individual subscriber services are defined and enforced
(bandwidth limits, security, multicast profiles). Networking protocols are not supported.
Examples of an access port would be point-to-point connections to subscribers or other
devices serving subscribers.
VLAN support
By default, every Ethernet port with a trunk or edge interface on the unit is a member of
VLAN 1, the Native VLAN. The Native VLAN is available to pass any untagged traffic. You
can provision an Ethernet port interface to use a different existing VLAN as the Native
VLAN.
To forward untagged traffic on Ethernet ports with an access interface, an add-tag action
must be applied to untagged frames, assigning the traffic to a designated VLAN.
Tagged traffic that does not match any of the tagging criteria is dropped.
For modular chassis nodes, any VLAN created on the system is automatically mapped to the
Stacking Ports. The remaining port interfaces in the system must be a VLAN member for
traffic to pass on the VLAN through the interface.

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Interface role configuration guidelines
Trunk Edge Access
E7-20 GE-24
X
ONT Ethernet Port
X
Tag Actions
X X
X X
*Edge ports only support RSTP and LAG networking protocols, NOT ERPS.
Facility and equipment protection using RSTP
Individual Ethernet port interfaces with either a Trunk or Edge role can participate in Rapid
Spanning Tree Protocol (RSTP).
Facility protection can be configured by using two ports on the same E7 card.
Equipment protection can be configured by using one port on two cards in the same E7
shelf. That is, one port on each E7 card.
For Modular Chassis systems, RSTP is only supported on MCC shelf interfaces.
For E7-20 systems, RSTP is only supported on SCP cards.
Note: Node protection can be configured by using two E7-2 nodes on an ERPS ring. See
Configuring RSTP Settings for the RSTP parameters to apply to the nodes.
To view the E-Series Ethernet port interfaces that are actively participating in RSTP, click E-
Series on the Navigation Tree, and then click the RSTP > Interfaces tabs.
Configuration guidelines
Follow these guidelines when configuring an Ethernet port interface or LAG interface:
An Ethernet interface always exists, cannot be deleted, can be modified, and is associated
with a specific companion Ethernet port (GE or 10GE).
A LAG interface can be created, deleted, and modified.
A port is always a member of exactly one interface, even when it is being used in a
standalone manner.

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You can configure only one of the following attributes on a given VLAN on a given
interface:
Trunk interfaces:
VLAN member
Native VLAN
Edge interfaces:
VLAN member
Tag-action
Native VLAN
Access interfaces:
VLAN member
Tag-action
Trunk and Edge interfaces are always associated with at least one VLAN, through the
native VLAN attribute (VLAN 1, by default). Access interfaces do not support a Native
VLAN, however, tag actions can be used to assign untagged traffic to a VLAN ID.
All network connections (ERPS, RSTP, LAG, DHCP servers, multicast routers, IGMP-
enabled video servers, network-facing routers) are made on Trunk or Edge interfaces,
only.
Interfaces can be associated with additional VLANs through memberships or tag-actions.
If an Ethernet uplink Edge interface with tag actions (for double-tagged traffic) is on the
same card as Ethernet downlink Edge interfaces (that are members of the outer VLAN),
ingress double-tagged traffic from the downlink ports will not flow upstream, resulting in
a service interruption. As a workaround, for this application, ensure that one of the
following configurations are used:
The Ethernet uplink Edge port is on a different card than downlink Edge ports.
Ethernet downlink ports are configured with the Trunk interface role.
Note: For this application, if active/standby LAG is used for the uplink, you must
ensure that Ethernet downlink ports are configured with the Trunk role.
When a VLAN has DHCP snooping and Option 82 relay enabled, an Ethernet interface
can be directly added to the VLAN membership, but using a tag action to associate an
Ethernet interface to such a VLAN is not supported.
BPDU Guard and RSTP cannot be enabled on an interface, simultaneously.
For Policy maps:
For Trunk interfaces, any policy map assignment is allowed.
For Edge and Access interfaces, if a policy map contains a two-tag classification, the
edge or access link must have a tag-action that adds the outer tag being matched by
the class rule.

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For an RSTP network, Calix recommends setting the following parameters as shown:
The VLAN IGMP Mode = snoop-suppress or proxy
The IGMP profile Router Learning Mode = static-dynamic
The IGMP profile Router Solicit On Topology Change = Y (enabled)
The interface NOT be designated as a static router port through the VLAN
membership.
The Interface Quality Audit (IQA) function periodically checks the number of File Check
Sequence (FCS) errors received as a percentage of total frames received on an interface.
An interface that exceeds the provisioned thresholds can be set to generate an alarm,
switch traffic to an alternate path, or force the interface to an OOS state where operator
intervention is required to bring the interface to an operational state by manually
disabling the interface, and then re-enabling the interface.
Before starting
Before starting the configuration process, check that the following conditions are met:
The policy map that you want to associate to the E-Series Ethernet port interface is
already created.
Parameters
You can provision the following parameters for Ethernet interfaces:
Name*
Name of LAG interface or associated Ethernet port (card/Ethernet port).
(Note: This is a case-sensitive string.)
String 31 characters
Role* Role of E-Series Ethernet port interface.
trunk and edge are supported on E7-2 standalone, E7 modular
chassis controller, and E7-20 SCP cards.
access is supported on E7-2 standalone, E7 modular chassis
controller, E7 modular chassis expansion cards, and E7-20
linecards.
See the rules and restrictions for each role in the above paragraphs.
trunk
edge
access
E7-2, E7 Modular Chassis
Controller, and E7-20 SCP
cards:
10G = trunk ‡
1G = edge ‡
E7-20 and E7 Modular
Chassis Expansion:
10G = access ‡
1G = access ‡
Admin State Service state of E-Series port interface. Select whether the interface is
in service.
Note: Before you can assign a port to a LAG interface, you must disable
the port's default associated interface. When a port is assigned to a
LAG, the LAG interface provisioning (for example, VLAN membership)
Descriptive name for the interface.