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SmartOptics. EMC Distance Extension Support. July 31, 2015

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EMC Distance Extension Support

SmartOptics

July 31, 2015

This Letter of Support (LOS) is a vehicle by which EMC® can offer support for a specific vendor solution. A Letter of Support details support for configurations tested at that particular point-in-time and does not imply future updates of the solution.

EMC reserves the right to make any future updates to the solution. For instance, updates could be made if future enhancements discovered through testing further fortifies the existing solution and benefits the customer. It is recommended that the customer and distance vendor periodically check for updates to the Letter of Support Navigator at https://elabnavigator.emc.com/eln/extendedSupport.

Successful completion of an EMC Engineering-approved test plan with accepted results is required. The Letter of Support for distance extension solutions is defined by the following:

Agreement ... 2

Configuration diagram ... 2

Supported configurations ... 3

Important: The information provided in this document is for reference purposes only and does not represent any EMC commitment or change existing policies or agreements. This document can change at any time, without notice. Contact your EMC Representative for details on how this information may apply to your specific environment.

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Agreement

The following conditions exist:

• Any distance extension configuration that is beyond the specified scope of the EMC Letter of Support or the EMC Support Matrix requires an EMC Request for Price Quote (RPQ) submission by the EMC Sales team to EMC Engineering.

• The configuration displayed in the “Supported Configuration” section is supported using only the specified recommendations, revisions, and requirements as listed further.

Configuration diagram

The following diagram shows the preferred distance extension topology configuration.

Figure acronyms

DUT: Device Under Test / MUX Types / SFPs

DIST: Distance Extension device /chassis with client-modules

E_port: Connection port between two Fibre Channel switches; also known as “expansion port”

FC Switch: Fibre Channel Switch

F_port: A port in a fabric where an N_port (port used for point-to-point topology) may attach.

Primary: Working /Primary full-duplex single-mode-fiber cable carrying Production Traffic

Secondary: Protection/Secondary full-duplex single-mode-fiber cable for high availability failover

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Although not always possible, it is highly recommended that the customer build out a highly available environment with redundancy (minimum of two Fibre Channel switches, local and remote location, a minimum of two E_ports/ISLs per area, and a redundant 1+1 WAN/dark fiber path).

The following configurations are only supported for unprotected WAN configurations (i.e., 1+1).

Supported configurations

This section contains information on supported configurations.

Supported distance extension devices

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Distance Application

Type SmartOptics SFP Transceivers FC Link Speed (Point-to-point) Topology with Minimum FOS Brocade Switches SmartOptics Mux Types CWDM (Passive) 8G-ZR-Cxx-BR1 8 Gb FC-SW v7.1.1 T-3008 or T-3009 DWDM (Passive) 8G-ER-Dxxx-BR1 8 Gb FC-SW v7.1.1 T-3809, T-3808, T-3832 DWDM (Semi-Passive) 8G-ER-Dxxx-BR1 8 Gb FC-SW v7.1.1 M401, M-1601 DWDM (Active 850nm

to DWDM Conversion with Passive MUX)

8G-ER-Dxxx-BR1 8 Gb FC-SW v7.1.1 T-1608 or T-3808 / T-3809 or T-1608 or T-3832 with M-401 or M-1601 DWDM (Semi-Passive) 16G-ER-Dxxx-BR1 16 Gb FC-SW V7.3.0b M-1601 DWDM (Passive) 16G-ER-Dxxx-BR1 16 Gb FC-SW V7.3.0b T-3832 NOTE: All Fiber Optic Cables used in this configuration should be single-mode (9-micron) cables / dark fiber.

SmartOptics SFP Transceiver - Small Form Factor Pluggable optics to be used in listed Brocade switches. • Mux Types - Optical Multiplexer, Passive (no power), Active (Power needed with Monitoring).

Active- WDM Products (also known as Transponders or Muxponders) that are AC or DC powered device with GUI management. For a solution to be called “Active” it usually has an OEO conversion (Optical to Electrical to Optical) to generate a clean signal that can be amplified cleanly as well. Active products are also commonly used to do media

conversion. In our cases that is mostly to convert from 850/1310nm coming from the switch to CWDM or DWDM wavelengths. It has SFP+ or XFP interfaces to house a SmartOptics 850nm/1310nm transceiver to accept the corresponding client

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SmartOptics has coined this phrase. The M-Series are unique in that they provide the integrated Passive Mux/Demux, but they also provide integrated line conditioning features, amplifiers and optical monitoring to be able to send the Ethernet or FC signal up to 200Km and allow customer to monitor light levels etc. We do all this without an OEO conversion, so though the M-Series is powered it is technically not “Active”. The M-Series follows the same approach as Passive in that the SmartOptics DWDM transceivers reside in the switch.

Brocade Native 850 / 1310nm - Optics used in Brocade Switches are supported for client-connections to “Active” “Distance Application Type” configurations. Please refer to the “Supported Distance Extension Device” table.

SmartOptics SFP :: 8G-ER-Dxxx-BR1

The “Distance Extension SFPs” are known as the following ( where “xxx” denotes to a specific 3-digit identifier with a specific wavelength representation in nanometers) :

8G-ER-Dxxx-BR1 : 180 (1563.05nm), 190 (1562.23nm), 200 (1561.42nm), 210 (1560.61nm) , 220 (1559.79nm), 230 (1558.98nm), 240 (1558.17nm), 250 (1557.36nm), 260 (1556.55nm), 270 (1555.75nm), 280 (1554.94nm), 290 (1554.13nm), 300 (1553.33nm), 310 (1552.52nm), 320 (1551.72nm), 330 (1550.92nm), 340 (1550.12nm), 350 (1549.32nm), 360 (1548.51nm), 370 (1547.72nm), 380 (1546.92nm), 390 (1546.12nm), 400 (1545.32nm), 410 (1544.53nm), 420 (1543.73nm), 430 (1542.94nm), 440 (1542.14nm), 450 (1541.35nm), 460 (1540.56nm), 470 (1539.77nm), 480 (1538.98nm), 490 (1538.19nm), 500 (1537.40nm), 510 (1536.61nm), 520 (1535.82nm), 530 (1535.04nm), 540 (1534.25nm), 550 (1533.47nm), 560 (1532.68nm), 570 (1531.90nm), 580 (1531.12nm), 590 (1530.33nm), 600 (1529.55nm), 610 (1528.77nm)

8G-ER-Dxxx-BR1 : This optic / sfp-type is rated for 40Km (under extreme optimum fiber optic medium conditions excluding active MUX + AMP)

T-1608 + M-1601: Active Optical Multiplexer/De-multiplexer device with amplifier/amplification • T-3832-LB: Passive Optical Multiplexer/De-multiplexer with no amplifier/amplification SmartOptics SFP :: 8G-ZR-Cxx-BR1

The “Distance Extension SFPs” are known as the following ( where “xx” denotes to a specific 2-digit identifier with a specific wavelength representation in nanometers) :

8G-ZR-Cxx-BR1 :

47 (1470nm), 49 (1490nm), 51 (1510nm), 53 (1530nm), 55 (1550nm), 57 (1570nm), 59 (1590nm), 61 (1610nm)

8G-ZR-Cxx-BR1 : This optic / sfp-type is rated for 70Km (under extreme optimum fiber optic medium conditions excluding active MUX + AMP)

T-3008: Passive Optical Multiplexer/De-multiplexer device • T-3009: Passive Optical Multiplexer/De-multiplexer device

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SmartOptics SFP :: 16G-ER-Dxxx-BR1

The “Distance Extension SFPs” are known as the following ( where “xxx” denotes to a specific 3-digit identifier with a specific wavelength representation in nanometers) :

16G-ER-Dxxx-BR1 : 180 (1563.05nm), 190 (1562.23nm), 200 (1561.42nm), 210 (1560.61nm) , 220 (1559.79nm), 230 (1558.98nm), 240 (1558.17nm), 250 (1557.36nm), 260 (1556.55nm), 270 (1555.75nm), 280 (1554.94nm), 290 (1554.13nm), 300 (1553.33nm), 310 (1552.52nm), 320 (1551.72nm), 330 (1550.92nm), 340 (1550.12nm), 350 (1549.32nm), 360 (1548.51nm), 370 (1547.72nm), 380 (1546.92nm), 390 (1546.12nm), 400 (1545.32nm), 410 (1544.53nm), 420 (1543.73nm), 430 (1542.94nm), 440 (1542.14nm), 450 (1541.35nm), 460 (1540.56nm), 470 (1539.77nm), 480 (1538.98nm), 490 (1538.19nm), 500 (1537.40nm), 510 (1536.61nm), 520 (1535.82nm), 530 (1535.04nm), 540 (1534.25nm), 550 (1533.47nm), 560 (1532.68nm), 570 (1531.90nm), 580 (1531.12nm), 590 (1530.33nm), 600 (1529.55nm), 610 (1528.77nm)

16G-ER-Dxxx-BR1: This optic / sfp-type is rated for 40Km (under extreme optimum fiber optic medium conditions excluding active MUX + AMP)

T-1608 + M-1601: Active Optical Multiplexer/De-multiplexer device with amplifier/amplification)

T-3832-LB:Passive Optical Multiplexer/De-multiplexer with no amplifier/amplification

Distance Extension SFPs, MUX, AMP/ Dark Fiber distance recommendations

For every single Fibre Channel E_port / ISL, two SFPs are used at the local and remote Fibre Channnel switch. It is mandatory that the SFPs on both local and remote switch – associated to the same E_port / ISL is identical in wavelength (i.e., same sfp-part-number and nano-meter spectrum/nm on both ends).

The specified SmartOptics SFPs and MUX-Types devices listed in the “Supported Distance Device Table” do not participate in extending bb-credits for Fibre Channel flow control. The bb-credits used for Fibre Channel flow control will be sourced from the Fibre Channel Switch E_ports attached utilizing SmartOptics SFPs/MUX (MUX + AMP) devices. Verify that the physical distance and latency experienced at the customer site does not exceed the credit amounts/capabilities of the Fibre Channel Switch resources. Fibre Channel Switch BB-credit provisioning of the E_port may be required depending upon the distance between sites.

Fibre Channel link speeds are to be hard-set across all Fibre Channel Switched E_ports using SmartOptics SFPs/MUX (MUX + AMP) devices associated in the distance extension configuration.

Consult with the EMC, SmartOptics, or Fibre Channel switch vendor product or administration documents for assistance and further configuration guidance.

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WAN protection mode support

Although not preferred, an unprotected environment can pass Fibre Channel traffic. (Refer to the configuration diagram, which shows a single-full-duplex-WAN primary path with no secondary protection path between the distance extension devices). EMC will support an unprotected Distance Protocol solution transmitting and receiving replicated (mission-critical and non-mission-critical) data if the customer understands the implications and risks. (There would be no fault to EMC if related issues were to occur.). Refer to the “Support Notes” in the following Supported Fibre Channel Switches section for further details.

Supported Fibre Channel switches

Fibre Channel Switch Type SmartOptics SFP

Transceivers Fibre Channel Link Speed (Point-to-point) Topology Brocade 8510, DCX, and DCX-4S 8G-ZR-Cxx-BR1 8 Gb FC-SW

Brocade 8510, 6510, FC8-32E, FC8-48E, 6505, 6520, DCX, 5300,

5100, 300, FX8-24, 7800, and DCX-4S 8G-ER-Dxxx-BR1 8 Gb FC-SW Support Notes:

EMC offers OEM equivalents to these 8 Gb-capable switch models under the EMC Connectrix product line

Minimum Brocade Fabric OS required is v7.1.1

SmartOptics “8G-ER-Dxxx-BR1”-SFPs are supported for use within 8 Gb-capable Brocade 8510, 6510, FC8-32E, FC8-48E, 6505, 6520, DCX, 5300, 5100, 300, FX8-24, 7800, and DCX-4S switches for E_port connectivity only in homogeneous FC Switched Fabric configurations.

• SmartOptics “8G-ZR-Cxx-BR1”-SFPs are supported for use within Brocade 8510, DCX, and DCX-4S switches for E_port connectivity only in homogeneous FC Switched Fabric configurations.

• Brocade 8510, 8514, 6510, FC8-32E, FC8-48E, 6505, 6520, DCX, 5300, 5100, 300, FX8-24, 7800, and DCX-4S provisioned for 8Gb Fibre Channel E_ports are not supported for WAN protected configuration (i.e., 1+1)

The SFPs and/or XFPs used by the Fibre Channel switches must be supported by EMC and/or Fibre Channel Switch vendors.

All Fibre Channel E_port link speeds are to be hard-set in unison with the “active” or “passive” distance extension SmartOptics MUX- client-port.

It is recommended to check for periodic updates in the “Support Notes”. Fibre Channel Switch Type SmartOptics SFP

Transceivers Fibre Channel Link Speed (Point-to-point) Topology Brocade 8510, 6510, 6505, 6520,

DCX, and DCX-4S 16G-ER-Dxxx-BR1 16 Gb FC-SW

Support notes:

• EMC offers OEM equivalents to these 16 Gb-capable switch models under the EMC Connectrix product line • Minimum Brocade Fabric OS required is v7.3.0b

• SmartOptics “16G-ER-Dxxx-BR1”-SFPs are supported for use within 16 Gb-capable Brocade 8510, 6510, 6520, 6505, 6520, DCX, and DCX-4DS, switches for E_port connectivity only in homogeneous FC Switched Fabric configurations.

• Brocade 8510, 6510, 6520, 6505, 6520, DCX and DCX-4S, switches provisioned for 8Gb Fibre Channel E_ports are not supported for WAN protected configuration (i.e., 1+1)

• The SFPs and/or XFPs used by the Fibre Channel switches must be supported by EMC and/or Fibre Channel Switch vendors. • All Fibre Channel E_port link speeds are to be hard-set in unison with the “active” or “passive” distance extension SmartOptics

MUX- client-port.

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Supported distance protocol solutions

Topology-Protocol Supported Distance Protocol

Fibre Channel Switched Fabric (FC-SW) ONLY EMC :: SRDF/S, SRDF/A, SRDF/DM EMC :: RecoverPoint

EMC :: Block/IO Support Notes:

Check with the EMC Support Matrix for the latest supported EMC Storage arrays and microcode.

Check with the EMC Support Matrix for the latest supported EMC Connectrix firmware versions.

It is recommended to check for periodic updates in the “Support Notes”.

Copyright © 2015 EMC Corporation. All Rights Reserved.

EMC believes the information in this publication is accurate as of its publication date. The information is subject to change without notice.

THE INFORMATION IN THIS PUBLICATION IS PROVIDED "AS IS." EMC CORPORATION MAKES NO REPRESENTATIONS OR WARRANTIES OF ANY KIND WITH RESPECT TO THE INFORMATION IN THIS PUBLICATION, AND SPECIFICALLY DISCLAIMS IMPLIED WARRANTIES OF MERCHANTABILITY OR FITNESS FOR A PARTICULAR PURPOSE. Use, copying, and distribution of any EMC software described in this publication requires an applicable software license.

EMC 2, EMC, and the EMC logo are registered trademarks or trademarks of EMC Corporation in the

United State and other countries. All other trademarks used herein are the property of their respective owners.

References

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