9363 metro cell indoor v2 1900mhz850mhz

9363 METRO CELL INDOOR V2 1900/850MHZ W-CDMA SMALL CELL PRODUCT DESCRIPTION

Document Number: BCR/FBSR/INF/034059 Document Issue: 01.10 / EN Document Status: Standard Date of Issue: 26th October 2012

PRODUCT DESCRIPTION DOCUMENT 9363 METRO CELL INDOOR V2 1900/850MHZ OCTOBER 2012

Document Number: BCR/FBSR/INF/034059 | Document Issue: 01.10 / EN | Document Status: Standard

Alcatel-Lucent – Proprietary

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Copyright © 2012 by Alcatel-Lucent. All Rights Reserved.

About Alcatel-Lucent (Euronext Paris and NYSE: ALU)

The long-trusted partner of service providers, enterprises and governments around the world, Alcatel-Lucent is a leading innovator in the field of networking and communications technology, products and services. The company is home to Bell Labs, one of the world's foremost research centers, responsible for breakthroughs that have shaped the networking and communications industry. Alcatel-Lucent was named one of MIT Technology Review's 2012 Top 50 list of the "World's Most Innovative Companies" for breakthroughs such as lightRadio™, which cuts power consumption and operating costs on wireless networks while delivering lightning fast Internet access. Through such innovations, Alcatel-Lucent is making communications more sustainable, more affordable and more accessible as we pursue our mission - Realizing the Potential of a Connected World. With operations in more than 130 countries and one of the most experienced global services organizations in the industry, Alcatel-Lucent is a local partner with global reach. The Company achieved revenues of Euro 15.3 billion in 2011 and is incorporated in France and headquartered in Paris.

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The information contained in this document is subject to change without notice. At the time of publication, it reflects the latest information on Alcatel-Lucent’s offer, however, our policy of continuing development may result in improvement or change to the specifications described.

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PUBLICATION HISTORY

Release

Date Contact Status Comments

01.01 1st December 2010 Carl de Reynal Draft Document creation

01.02 1st January 2011 Carl de Reynal Preliminary Document update

01.03 1st February 2011 Carl de Reynal Standard Document update for DR3

01.04 15th February 2012 Mathieu Frénois Standard Document update for DR4

01.05 23rd March 2012 Mathieu Frénois Standard Document update

01.06 27th April 2012 Mathieu Frénois Standard Document update

01.07 18th May 2012 Mathieu Frénois Standard Document update – 6dBi antenna removed

01.08 14th September 2012 Xavier Charaix Standard Document update – Sensitivity

01.09 25th September 2012 Xavier Charaix Standard Document update – Power Supply

01.10 26th October 2012 Xavier Charaix Standard Document update – Sensitivity – Unit Items





TABLE OF CONTENTS

1 INTRODUCTION .................................................................................................. 6

1.1 OVERVIEW .............................................................................................................. 6 1.2 SCOPE OF THIS DOCUMENT ......................................................................................... 6

2 METRO CELL INDOOR ......................................................................................... 7

2.1 METRO CELL OVERVIEW ............................................................................................. 7 2.2 SMALL CELL SOLUTION ARCHITECTURE ........................................................................... 7 2.3 BENEFITS ............................................................................................................... 8 2.4 ALCATEL-LUCENT 9363 METRO CELL INDOOR ................................................................. 8

3 PRODUCT OVERVIEW .......................................................................................... 9

3.1 PRODUCT CHARACTERISTICS ..................................................................................... 10 3.1.1 Deployment scenario ................................................................................... 10 3.1.2 Enclosure ................................................................................................... 10 3.1.3 Connectors and Interfaces ........................................................................... 12 3.1.4 Power Supply .............................................................................................. 13 3.1.5 Frequency band .......................................................................................... 14 3.1.6 Antenna ..................................................................................................... 15 3.1.7 Transmission Power .................................................................................... 15 3.1.8 Radio Parameters ........................................................................................ 15 3.1.9 Reliability.................................................................................................... 15 3.1.10 Security ...................................................................................................... 16 3.1.11 Status Indicators ......................................................................................... 16 3.1.12 Environmental and Regulatory Specifications ................................................ 16

3.2 PRODUCT CONFIGURATION AND VARIANTS ....................... ERROR! BOOKMARK NOT DEFINED. 3.2.1 Metro Cell Indoor - common parts ................................................................ 18 3.2.2 Metro Cell Indoor - variable parts and ancillaries ........................................... 18

4 APPENDICES .....................................................................................................19

4.1 APPENDIX A: RELATED READING ................................................................................ 19 4.2 APPENDIX B: ACRONYMS .......................................................................................... 20





LIST OF FIGURES

Figure 1: 9360 Small Cell solution high level system architecture ....................................................... 7 Figure 2: Front and rear view of the Metro Cell Indoor (generic enclosure) ...................................... 10 Figure 3: Metro Cell Indoor with optional cosmetic cover ................................................................ 11 Figure 4: Product label of the Metro Cell Indoor ............................................................................. 12 Figure 5: Antenna connectors of the Metro Cell Indoor: .................................................................. 13 Figure 6: Metro Cell Indoor power AC/DC adaptor .......................................................................... 14 Figure 7: Antenna of the Metro Cell Indoor .................................................................................... 15

LIST OF TABLES

Table 1: Performances of the Metro Cell Indoor for each release ....................................................... 9 Table 2: Metro Cell Indoor Dimensions .......................................................................................... 11 Table 3: Ethernet interface ........................................................................................................... 13 Table 4: Frequency bands............................................................................................................. 14 Table 5: Radio parameters ........................................................................................................... 15 Table 6: 3GPP compliance ............................................................................................................ 16 Table 7: Operating - storage temperature range and humidity range............................................... 17





1 INTRODUCTION

1.1 Overview

This document provides a description of Alcatel-Lucent 9363 Metro Cell Indoor V2 1900/850 MHz W-CDMA (Metro Cell Indoor in the rest of the document) as part of the 9360 Small Cell solution. The Product Description provides the characteristics of the Metro Cell Indoor access point, key benefits and operational capabilities. The Metro Cell Indoor will be introduced first with releases BCR 2.4.1 and BCR 3.0.

Alcatel-Lucent reserves the right to change the technical specifications without notice until General Availability of the product.

1.2 Scope of this Document

The Product Description mentions the Metro Cell Indoor functions but cannot be considered as a detailed feature list or a Plan of Record (PoR). This information is provided in dedicated documents on a per software release basis (e.g. Feature Planning Guide for Small Cell solution, please refer to [1], [2], [3] and [4] in 4.1 Appendix A: Related Reading).

For more general information concerning 9360 Small Cell Solution, refer to [5].

The OAM solution for the Metro Cell Indoor is described in a dedicated document [6] Small Cell Management System.

Many of the terms used in this document refer to definitions of the 3GPP standards. Whenever an Alcatel-Lucent specific term is used, it is explicitly elaborated.

The Metro Cell Indoor Product Description is updated regularly under change control.

Information in this document is subject to change without notice and does not represent a commitment on the part of the vendor or its representatives. No part of this document may be reproduced or transmitted in any form or by any means, electronic or mechanical, including photocopying, without the written permission of Alcatel-Lucent.





2 METRO CELL INDOOR

2.1 Metro Cell Overview

A Metro Cell is a public wireless access node using licensed spectrum with substantially lower coverage and serving a smaller number of users than macrocells. The Metro Cell will most of the time be owned and deployed by mobile operators to provide a transparent capacity layer as a complement to the macrocell “umbrella” coverage layer.

Small Cell Access Points, 9366 Small Cell Gateway and Small Cell Management System are included in the 9360 Small Cell solution to allow a highly scalable interconnection to the existing UMTS network over the existing standardized 3GPP interfaces. The Metro Cell offers legacy support for Circuit Switched Voice and UMTS Packet Data with standard 3G handsets.

2.2 Small Cell Solution architecture

The high level system architecture for small cells as defined by 3GPP is depicted in the diagram in Figure 1.

Figure 1: 9360 Small Cell solution high level system architecture





The Small Cell solution uses 3GPP interfaces to connect to the existing mobile core network nodes while offering 3GPP compliant air interface. The backhaul connection from the Access Point is IP and an IPsec Tunnel is used to guarantee a secure link. Furthermore, an Iu’ interface is supported between the Access Point and the 9366 Small Cells Gateway (which includes the 9365 BSR Gateway) from BCR 3.0.

The architecture integrates seamlessly into the operator's existing 3GPP network, including the 3G MSC, SGSN and therefore existing Applications, Portals, Services through standard Iu-CS and Iu-PS interfaces. For more information on the Architecture of the solution please refer to [7].

2.3 Benefits

Additional to coverage, one of the key added values of the Metro Cell is to offload the macro network. As part of the Small Cell solution, some offloading techniques are available, like internet traffic breakout at the Small Cell unit or at the gateway.

The Metro Cells can be deployed in areas formally covered by microcells or picocells, but can also be used in many more cases, instead of macrocells, since they are very easy to install and are less subject to regulatory constraints with their very low emission power. As a result, 10 to 100 Metro Cells may be deployed in place of one macrocell. Metro Cells are ideal for high user density places where additional capacity is required or even in areas where cell phone coverage is needed on short notice.

Metro Cells are more than extending coverage and capacity. It also enables the creation of new and innovative applications. With Alcatel-Lucent 9363 Metro Cell Indoor, the mobile service provider can leverage unique network capabilities, such as location, Quality of Service (QoS) and trusted security for application development.

2.4 Alcatel-Lucent 9363 Metro Cell Indoor

With a fully compliant 3GPP implementation, the Metro Cell Indoor allows the end user to use the wide range of available 3G devices, applications with higher data rates and, depending on the operator strategy, at lower call costs.

The Metro Cell uses a flat IP architecture, collapsing the traditional 3G Node B and RNC functions into one. From BCR 3.0, it supports up to 32 users. Traffic is backhauled through the standard IP network.

The Metro Cell Indoor supports 250mW (24dBm) transmit power for an extended coverage area.

It uses the same end-to-end Small Cell solution as the 9361 Home Cell, 9362 Enterprise Cell and the 9364 Metro Cell Outdoor. Alcatel-Lucent Small Cell solution is flexible in meeting the mobile service provider’s need; it can be deployed to support one or combination of small cells from Alcatel-Lucent Small Cells portfolio.





3 PRODUCT OVERVIEW

The Alcatel-Lucent 9363 Metro Cell Indoor is located Indoor at public sites. The Metro Cell Indoor has several unique capabilities:

It supports up to 16 HSPA users simultaneously. From BCR 3.0, the maximum number of users can be increased per step of 8 users to 32 users through licensing key to be purchased additionally

It has a maximum transmit power of 250 mW at antenna connector, enabling bigger cell coverage

It uses an Ethernet connection for backhaul

It can support optionally a 2nd Ethernet port to allow a connection to an external device (e.g. a personal computer)

The power can be supplied in 2 different ways. With an external power adaptor or with PoE+, following IEEE 802.3at Power over Ethernet standard

It supports Rx space diversity, improving the signal quality and accommodating more users

Two external antennas with N-type Male connector have to be connected

Assisted GPS capability for localisation of the unit (optional)

An anti tamper alarm (optional)

The table below summarizes Metro Cell Indoor key performances for release BCR 2.4.1 and release BCR 3.0:

Performances

Release

BCR 2.4.1

BCR 3.0

Transmit power 250 mW 250 mW

Number of users Up to 16 users simultaneously Up to 32 users simultaneously

HSPA speed (bearer) Downlink: up to 14,4 Mbps

Uplink: up to 2 Mbps

Downlink: up to 21 Mbps

Uplink: up to 5.7 Mbps

Table 1: Performances of the Metro Cell Indoor for each release





3.1 Product Characteristics

3.1.1 Deployment scenario

The Metro Cell Indoor is designed to be used indoors and can be mounted in a false ceiling or against a wall in a vertical or horizontal position.

3.1.2 Enclosure

The Metro Cell Indoor is housed in an Alcatel-Lucent generic metallic case, with two antenna connectors at the top for external antennas. A cosmetic cover may be optionally ordered to conceal the unit when it is wall-mounted.

Figure 2: Front and rear view of the Metro Cell Indoor (generic enclosure)





Figure 3: Metro Cell Indoor with optional cosmetic cover

3.1.2.1 Physical caracteristics

The physical characteristics of the Metro Cell Indoor are (without antennas and Ethernet cable “holder”):

Dimension (Height x Width x Depth)

241 x 241 x 53 mm

9.48 x 9.48 x 2.08 in

Weight 2.0 kg

Table 2: Metro Cell Indoor Dimensions

3.1.2.2 External Marking

Front: product label with

Model name

Part number

Serial number

MAC address

Power input characteristics

FCC Approval Marking

Environmental Marking (WEEE)

UL mark





Figure 4: Product label of the Metro Cell Indoor

3.1.3 Connectors and Interfaces

At the bottom of the unit:

1 Ethernet connector for backhaul connection: 10/100Base-T RJ45 connector. If PoE+ is used to supply the power, this connector is to be connected to a PoE+ capable router or a PoE+ injector while the DC power connector is not used

1 optional Ethernet connector for connectivity to an external device

Power Supply: 48V DC. When the AC/DC power adaptor is used with the jack connector to supply the power, neither PoE+ capable router nor PoE+ injector shall be used

A ground connector

5 LEDs for debugging purposes hidden behind a removable cover

A reset button for debugging purposes hidden behind a removable cover

1 optional SMA connector for external GPS antenna

At the top of the unit:

2 N-type Female antenna connectors for Rx diversity





Figure 5: Antenna connectors of the Metro Cell Indoor:

The Ethernet mode is automatically negotiated:

Parameters Value

Ethernet cabling MDI/MDI-X auto detection

Half / Full Duplex configuration Automatic or configured

Ethernet 10 / 100 configuration Automatic

Interface media Twisted pair (0.4 to 0.6 gauge)

Connector RJ-45

Maximum range 100m on 0.5mm (IEEE802.3 clause 14.1)

Standard compliance IEEE802.3

Table 3: Ethernet interface

3.1.4 Power Supply

3.1.4.1 Power supply over PoE+

Power can be supplied by a PoE+ capable router or a PoE+ injector. PoE+ capable router and PoE+ injector are not part of the standard delivery.





3.1.4.2 Power supply with AC/DC power adaptor

An AC 110-220V / DC 48V power adaptor can be used. Power injector is not used.

Figure 6: Metro Cell Indoor power AC/DC adaptor

3.1.4.3 Power and energy consumption

The power consumption of the Metro Cell Indoor when powered on 48V PoE+ or external 48V DC power adaptor is maximum 25W (transmit power at 250mW) and typically 22W.

3.1.5 Frequency band

Frequency band for both UMTS operation and network listening functions are listed in the table below:

Operating band for UMTS operation

Frequency band

Common name

UL frequencies DL frequencies

II 1900 PCS 1850 – 1910 MHz 1930 – 1990 MHz

V 850 CLR 824 – 849 MHz 869 – 894 MHz

Operating band for network listening

Frequency band

Common name

- DL frequencies

II 1900 PCS - 1930 – 1990 MHz

3G and 2G Network Listening

V 850 CLR - 869 – 894 MHz

3G and 2G Network Listening

Table 4: Frequency bands

3G Network Listening

The 3G Network Listening feature allows the Metro Cell Indoor to act as a UE and receive transmission from neighboring base stations. The feature also allows the Metro Cell Indoor to automatically identify, measure and record its neighbor UMTS cells, eliminating the need for operator provisioned neighbor cell lists. This information is used by the Metro Cell Indoor to automatically select its primary scrambling code and power levels to transmit and to create and update a list of UMTS neighbor cells. This neighbor cell list is used by the Metro Cell Indoor, when in base station mode, for identification of the target cell for UMTS handover and for rebroadcasting of the system information messages, in support of reselection by the UE.





2G Network Listening

The Metro Cell Indoor supports a GSM receiver chain and can therefore receive the signal transmitted by the 2G Macro network. The Metro Cell Indoor can search for and sync to a macro base station, and then decode the BCCH channel. It can then retrieve the relevant information to build and maintain 2G neighbor lists and target cells for IRAT handover and later, when in base station mode, to broadcast to the UE for cell reselection. Measurements and information are provided by the network listening feature to the auto-configuration and self-optimization functions.

3.1.6 Antenna

The Metro Cell Indoor has antennas with N-type Male connector. The pairs of antennas provide Tx/Rx and listening and enable Rx diversity capability on the Metro Cell Indoor.

Figure 7: Antenna of the Metro Cell Indoor

3.1.7 Transmission Power

The Metro Cell Indoor transmission power measured at the antenna port is:

Maximum: 250mW (24dBm)

Step 1dB, Step accuracy 0.5dB

Control range: 42dB

The Access Point output power is controlled to optimise the coverage while avoiding the interference.

3.1.8 Radio Parameters

The Metro Cell Indoor is designed according to the following parameters in 3GPP TS 25.104 specifications.

Parameter Typical Value 3GPP Value

Sensitivity - 112 dBm - 107 dBm (or less)

QPSK EVM 6% 17.5% (or less)

QAM EVM 6% 12.5% (or less)

ACLR 5MHz 45 dB 45 dB (or greater)

ACLR 10MHz 56 dB 50 dB (or greater)

Table 5: Radio parameters

3.1.9 Reliability

The MTBF (Mean Time Between Failures) is calculated based on Telcordia SR-332 Issue 2, September 2006.

The MTBF of the Metro Cell Indoor (excluding the power supply) at 25°C is 585K hours.

The MTBF of the DC 48V power supply alone is 550K hours.





3.1.10 Security

A secure memory is used to authenticate and store sensitive data in the Access Point (shared secret for authentication). From BCR 3.0, the Metro Cell Indoor can also support digital certificate instead of this mechanism. However, once the authentication method is configured in the product (either shared secret or digital certificate) then there is no way to change it anymore.

The product uses security screw to prevent from vandalism and can be fitted optionally with an anti tamper alarm

Power switch off lead to the deactivation of the Metro Cell Indoor unit and reactivation require an action at the SCMS.

3.1.11 Status Indicators

Five LEDs and a reset button are hidden behind a removable cover for debugging purposes. The LEDs provide status for Power, backhaul connectivity, 2nd Ethernet port status, GPS status and 3G cell status.

Additional LEDs for Ethernet connectivity status are available at Ethernet Port.

3.1.12 Environmental and Regulatory Specifications

Note: all the specifications mentioned in this part are targeted and not passed yet

The table below summarizes the compliance of the 9363 Metro Cell Indoor regarding 3GPP standards:

3GPP release Compliant norms

Release 6 3GPP TS 45.005

Release 9 3GPP TS 25.101, 3GPP TS 25.104

3GPP TS 25.141

Table 6: 3GPP compliance

The Metro Cell Indoor is compliant with the general regulatory requirements and certifications for the operation in the US (UL, FCC) and in Canada (RSS). The unit is compliant with RoHS and WEEE as well as the standards listed in the following paragraphs: Environment operating conditions, Safety/Health, Environment and EMC.

This unit meets the FCC requirements for the US as defined in 47CFR24.238 (FCC part 24) for 1900MHz systems and in 47CFR22.917 (FCC part 22) for 800MHz systems. The Metro Cell Indoor is compliant with RSS-132, RSS-133 and RSS-GEN for the Canadian market and also with the requirements in the paragraphs below.

Environment operating conditions:

ETS 300 019-1-3 class 3.1E (Temperature-controlled locations, exceptional operating conditions - temperature range: -5°C to +45°C)

Ingress Protection Rating of the Metro Cell Indoor enclosure conforms to IP31 (according to IEC 60529)





Parameter Value

Operating temperature range -5°C to +45°C

Storage temperature range -40°C to +70°C

Relative humidity Up to 93%

Table 7: Operating - storage temperature range and humidity range

Safety/Health

Safety standard: UL 60950-1

Health standard: OET (Office of Engineering & Technology) Bulletin 65 and RSS-102 (for Canada only)

Environment

Compliant with directive 2002/95/EC RoHS6, administrative measure on the control of pollution caused by electronic information products.

Directive 2002/96/EC, Waste Electrical and Electronic Equipment (WEEE)

EMC (Electromagnetic Compatibility)

The Metro Cell Indoor is compliant with the following standards:

FCC part 15

FCC part 22

FCC part 24

3GPP TS 25.113 release 10

Electrostatic discharge immunity

IEC 61000-4-2

± 2kV and ± 4kV (contact discharge)

± 2kV, ± 4kV and ± 8kV (air discharge)

Radiated field immunity

IEC 61000-4-3

Signal from 80 MHz to 2700 MHz with 1KHz AM modulation depth 80%, level: 3V/m

Surge and Electrical Fast Transient

The Metro Cell Indoor tolerates Electrical Fast Transients IEC 61000-4-4 level 2 and Surges IEC 61000-4-5 level 2.

Note: this document doesn’t take into account GR-1089-CORE specified by some customers





3.2 Metro Cell Indoor V2 Items

3.2.1 Metro Cell Indoor - common parts

The content of standard configuration will be as follow:

The Metro Cell Indoor access point with the removable cover (hiding interfaces)

A 48V AC-DC power adaptor with 1.5m AC cord (power supply to power outlet) plus 1.2m on the DC side (power supply to Metro Cell)

The user Guide including installation instruction

Ceiling mounting kit and wall mounting kit

Ethernet cable of 3m

3.2.2 Metro Cell Indoor - variable parts and ancillaries

Beside the standard configuration of the product, there are ancillaries:

Antennas

o +2dBi omnidirectional

o +2dBi ceiling

o +4dBi omnidirectional

o +4dBi ceiling

A PoE+ power injector

Two jumpers of two meters

A cosmetic cover





4 APPENDICES

4.1 Appendix A: Related Reading

For further information, please refer to:

[1] UMT/SYS/INF/023452: Base Station Router Femto. Feature Planning Guide BCR 2.1

[2] UMT/SYS/INF/025597: Base Station Router Femto. Feature Planning Guide BCR 2.2

[3] BCR/SYS/INF/030989: Alcatel-Lucent 9360 Small Cell solution BCR 2.4 release. Feature Planning Guide

[4] BCR/SYS/INF/035520: Alcatel-Lucent 9360 Small Cell solution BCR 3.0 release. Feature Planning Guide

[5] BCR/SYS/INF/026827: 9360 Small Cells Solution - Solution Description

[6] UMT/OAM/INF/022831: Small Cell Management Solution - Customer Product Overview

[7] BCR/IRC/APP/025735: Alcatel-Lucent 9360 Small Cell Network Reference Architecture





4.2 Appendix B: Acronyms

A - I

AC Alternating Current

ACLR Adjacent Channel Leakage power Ratio

3G 3rd Generation

3GPP 3rd Generation Partnership Project

BCCH

BCR

Broadcast Control Channel

Base Station Router Cluster Release

BSG BSR Signalling Gateway

BSR Base Station Router

CE European Community

CS Circuit Switched

DC Direct Current

DCS Digital Cellular System

DL Downlink

ETSI European Telecommunications Standards Institute

EVM Error Vector Magnitude

GSM Global System for Mobile Communications

HSDPA High Speed Downlink Packet Access

HSUPA High Speed Uplink Packet Access

IEEE Institute of Electrical and Electronics Engineers

IMT International Mobile Telecommunications

IP Internet Protocol

I - Z

IPsec Internet Protocol Security

IPxx Ingress Protection

IRAT Inter-Radio Access Technology

LED Light-Emitting Diode

MDI Medium Dependent Interface

MHz Megahertz

MSC Mobile Switching Centre

MTBF Mean Time Between Failures

OAM Operations, Administration and Maintenance

PoE Power over Ethernet

PS Packet Switched

QAM Quadrature Amplitude Modulation

QoS Quality of Service

QPSK Quadrature Phase Shift Keying

RNC Radio Network Controller

RoHS Restriction of Hazardous Substances Directive

Rx Reception

SCMS Small Cells Management System

SGSN Serving GPRS Support Node

Tx Transmission

UE User Equipment

UL Uplink

UMTS Universal Mobile Telecommunications System

W-CDMA Wideband Code Division Multiple Access

WEEE Waste Electrical and Electronic Equipment Directive

9363 metro cell indoor v2 1900mhz850mhz

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