HARRIS CS700 OpenSky 700 MHz CellStation User Manual Part 90

Harris Corporation OpenSky 700 MHz CellStation Part 90

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CS700 User Manual HTML Version

Manual

Rhein Tech Laboratories, Inc. Client: M/A COM, Inc.

360 Herndon Parkway Model: OpenSky 700 MHz Cell Site

Suite 1400 Standards: FCC Part 90/IC RSS-119

Herndon, VA 20170 FCC/IC ID: BV8CS700/3670A-CS700

http://www.rheintech.com Report Number: 2005189

52 of 81

Appendix M: Manual

Please refer to the following pages for the installation manual.

Installation Manual

MM-009290-001

Apr-06

700 MHz

Cell Site Base Station

Model MACS-MC700

TABLE OF CONTENTS

SkyCharger Backup Battery System ........................................... MM20963

Antenna Systems........................................................................ LBI-38983

Site Grounding & Lightning Protection Guidelines.... AE/LZT 123 4618/1

MM-009290-001

MANUAL REVISION HISTORY

REVISION DATE REASON FOR CHANGE

— April 2006 Preliminary manual.

M/A-COM Technical Publications would particularly appreciate feedback on any errors found in this document

and suggestions on how the document could be improved. Submit your comments and suggestions to:

Wireless Systems Business Unit

M/A-COM, Inc. or fax your comments to: (434) 455-6851

Technical Publications

221 Jefferson Ridge Parkway or e-mail us at: techpubs@tycoelectronics.com

Lynchburg, VA 24501

NOTICE!

This manual covers M/A-COM, Inc. products manufactured and sold by M/A-COM, Inc.

This device made under license under one or more of the following US patents: 4,590,473; 4,636,791; 5,148,482;

5,185,796; 5,271,017; 5,377,229.

The voice coding technology embodied in this product is protected by intellectual property rights including patent rights,

copyrights, and trade secrets of Digital Voice Systems, Inc. The user of this technology is explicitly prohibited fro

attempting to decompile, reverse engineer, or disassemble the Object Code, or in any way convert the Object Code into

human-readable form.

CREDITS

OpenSky is a trademark of M/A-COM Inc.

BAND-IT is a registered trademark of BAND-IT IDEX, Inc.

All other brand and product names are registered trademarks, trademarks, or service marks of their respective holders.

NOTICE!

Repairs to this equipment should be made only by an authorized service technician or facility designated by the supplier.

Any repairs, alterations or substitutions of recommended parts made by the user to this equipment not approved by the

manufacturer could void the user's authority to operate the equipment in addition to the manufacturer's warranty.

This manual is published by M/A-COM, Inc. , without any warranty. Improvements and changes to this manual necessitated by typographical errors,

inaccuracies of current information, or improvements to programs and/or equipment, may be made by M/A-COM, Inc. , at any time and without notice.

Such changes will be incorporated into new editions of this manual. No part of this manual may be reproduced or transmitted in any form or by any means,

electronic or mechanical, including photocopying and recording, for any purpose, without the express written permission of M/A-COM, Inc.

MM-009290-001

TABLE OF CONTENTS

Page

1. SAFETY AND REGULATORY INFORMATION ........................................................................................... 5

1.1 SAFETY SYMBOL CONVENTIONS............................................................................................................ 5

1.2 MAXIMUM PERMISSIBLE EXPOSURE LIMITS....................................................................................... 6

1.3 DETERMINING MPE RADIUS ..................................................................................................................... 6

1.4 SAFETY TRAINING INFORMATION.......................................................................................................... 6

1.5 IMPORTANT SAFETY INFORMATION...................................................................................................... 7

2. SPECIFICATIONS............................................................................................................................................... 9

2.1 GENERAL ....................................................................................................................................................... 9

2.2 700 MHZ TRANSCEIVER.............................................................................................................................. 9

2.2.1 General............................................................................................................................................... 9

2.2.2 Transmitter....................................................................................................................................... 10

2.2.3 Receiver ........................................................................................................................................... 10

2.2.4 Regulatory........................................................................................................................................ 10

2.3 SITE-TO-SITE (BACKHAUL) COMMUNICATIONS ............................................................................... 11

2.3.1 T1/FT1 Frame-Relay Router Option MACS-NDF1Y ..................................................................... 11

2.3.2 56 Kbps DDS Modem Router Option MACS-NDF1Z.................................................................... 11

3. INTRODUCTION............................................................................................................................................... 12

3.1 ABOUT THIS MANUAL.............................................................................................................................. 12

3.2 GENERAL INFORMATION ........................................................................................................................ 13

3.3 EQUIPMENT MODEL AND PART NUMBERS......................................................................................... 16

4. RECOMMENDED TOOLS, TEST EQUIPMENT AND SOFTWARE ........................................................ 17

5. SITE PREPARATION........................................................................................................................................ 20

5.1 BEFORE BEGINNING THE INSTALLATION........................................................................................... 20

5.2 POLE-MOUNT INSTALLATIONS.............................................................................................................. 20

5.3 ELECTRICAL POWER................................................................................................................................. 20

5.3.1 AC Power......................................................................................................................................... 20

5.3.2 Generator Power .............................................................................................................................. 21

5.3.3 DC Power......................................................................................................................................... 21

5.3.4 If the SkyCharger Battery Backup Power System is Not Used........................................................ 22

5.4 GROUNDING THE EQUIPMENT............................................................................................................... 22

5.5 ANTENNA SYSTEM.................................................................................................................................... 22

5.5.1 Antenna Mounting ........................................................................................................................... 23

5.5.2 RF Coaxial Cables............................................................................................................................ 23

5.6 SITE-TO-SITE (BACKHAUL) COMMUNICATION LINKS..................................................................... 25

5.7 UNPACKING THE BASE STATION EQUIPMENT .................................................................................. 25

6. MECHANICAL INSTALLATION ................................................................................................................... 27

6.1 MOUNTING THE CELL SITE BASE STATION........................................................................................ 27

6.1.1 Attaching the Mounting Brackets to a Wooden Pole....................................................................... 27

6.1.2 Attaching the Mounting Brackets to a Metal Pole ........................................................................... 29

6.1.3 Attaching the Heat Sink Assembly to the Mounting Brackets......................................................... 30

6.1.4 Attaching the Heat Sink Assembly to a Flat Surface....................................................................... 32

MM-009290-001

TABLE OF CONTENTS

Page

6.1.5 Attaching the Cabinet to the Heat Sink Assembly ........................................................................... 34

6.1.6 Install the Solar Shield Over the Cabinet .........................................................................................34

6.2 MOUNTING THE SKYCHARGER CABINET............................................................................................35

7. ELECTRICAL INSTALLATION .....................................................................................................................36

7.1 PROTECTIVE GROUND CONNECTIONS................................................................................................. 36

7.2 POWER CONNECTIONS .............................................................................................................................36

7.3 ANTENNA CABLE CONNECTIONS..........................................................................................................37

7.3.1 Simplex Antennas............................................................................................................................. 37

7.3.2 Duplex Antenna................................................................................................................................37

8. POWER-UP PROCEDURE ...............................................................................................................................39

9. CONFIGURATION ............................................................................................................................................42

9.1 GENERAL INFORMATION......................................................................................................................... 42

9.2 CELL SITE ALARMS ...................................................................................................................................42

9.2.1 AC/DC Power Source Alarms..........................................................................................................42

9.2.2 HPA Alarms .....................................................................................................................................43

9.2.3 Cabinet Door Alarm ......................................................................................................................... 43

FIGURES

Page

Figure 3-1: Cell Site Base Station — Mounted on a 12-Inch Diameter Wooden Pole (Cabling Not Shown) ..............13

Figure 3-2: Cell Site Base Station — Bottom View (Cabling Not Shown)...................................................................14

Figure 3-3: Cell Site Base Station — System Block Diagram.......................................................................................15

Figure 6-1: Attaching the Mounting Brackets to a 12-Inch Wooden Pole ....................................................................28

Figure 6-2: Attaching the Heat Sink Assembly to the Mounting Brackets (Top View; Wooden Pole Installation

Shown) ...............................................................................................................................................32

TABLES

Page

Table 3-1: 700 MHz Cell Site Base Station Equipment Model and Part Numbers (Major Assemblies and Options

Only)...................................................................................................................................................16

Table 4-1: Recommended Tools....................................................................................................................................17

Table 4-2: Recommended Test Equipment and Programming Software.......................................................................19

Table 4-3: Personal Computer Minimum Requirements (PC Used for Local Configuration and Testing)...................19

Table 5-1: Minimum-Bend Radius for Andrew HELIAX® 50-Ohm Foam Dielectric Coax Cable..............................24

Table 6-1: Contents of Pole-Mount Installation Kit MACS-NMA6D for 12-Inch Diameter Wooden Poles ...............29

Table 6-2: Contents of Pole-Mount Installation Kit MACS-NMA6E for 12-Inch Diameter Metal Poles ....................30

Table 6-3: Contents of Heat Sink and Solar Shield Pole-Mount Kit MACS-NCK1G..................................................31

Table 8-1: LED Status Indicators at Customer Interface Box’s Front Panel.................................................................41

(Continued)

MM-009290-001

1. SAFETY AND REGULATORY INFORMATION

1.1 SAFETY SYMBOL CONVENTIONS

The following conventions are used throughout this manual set to alert the user to general safety

precautions that must be observed during all phases of installation, operation, service, and repair of this

product. Failure to comply with these precautions or with specific warnings elsewhere in this manual set

violates safety standards of design, manufacture, and intended use of the product. M/A-COM, Inc.

assumes no liability for the customer's failure to comply with these standards.

The WARNING symbol calls attention to a procedure, practice, or the like, which,

if not correctly performed or adhered to, could result in personal injury. Do not

proceed beyond a WARNING symbol until the conditions identified are fully

understood or met.

The electrical hazard symbol indicates there is an electrical shock hazard present!

CAUTION

The CAUTION symbol calls attention to an operating procedure, practice, or the like,

which, if not performed correctly or adhered to, could result in damage to the

equipment or severely degrade equipment performance.

The NOTE symbol calls attention to supplemental information, which may improve

system performance or clarify a process or procedure.

The ESD symbol calls attention to procedures, practices, or the like, which could

expose equipment to the effects of Electro-Static Discharge. Proper precautions must be

taken to prevent ESD when handling circuit modules.

MM-009290-001

1.2 MAXIMUM PERMISSIBLE EXPOSURE LIMITS

DO NOT TRANSMIT with this base station and its antenna when persons are within the MAXIMUM

PERMISSIBLE EXPOSURE (MPE) radius of the radio frequency (RF) antenna. The MPE radius is the

minimum distance from the antenna axis that ALL persons should maintain in order to avoid RF exposure

higher than the allowable MPE level set by the FCC.

FAILURE TO OBSERVE THESE LIMITS MAY ALLOW ALL PERSONS

WITHIN THE MPE RADIUS TO EXPERIENCE RF RADIATION

ABSORPTION, WHICH EXCEEDS THE FCC MAXIMUM PERMISSIBLE

EXPOSURE (MPE) LIMIT. IT IS THE RESPONSIBILITY OF THE BASE

STATION OPERATOR TO ENSURE THAT THE MAXIMUM PERMISSIBLE

EXPOSURE LIMITS ARE OBSERVED AT ALL TIMES DURING BASE

STATION TRANSMISSION. THE BASE STATION OPERATOR MUST

ENSURE NO BYSTANDERS ARE WITHIN THE MPE RADIUS LIMITS

WHEN THE STATION IS TRANSMITTING.

1.3 DETERMINING MPE RADIUS

THE MAXIMUM PERMISSIBLE EXPOSURE RADIUS is unique for each site and is determined

during site licensing time based on the complete installation environment (i.e. co-location, antenna type,

transmit power level, etc.). Determination of the MPE radius is the responsibility of the installation

licensee. Calculation of the MPE radius is required as part of the site licensing procedure with the FCC.

1.4 SAFETY TRAINING INFORMATION

THIS BASE STATION GENERATES RADIO FREQUENCY (RF) ELECTRO-

MAGNETIC ENERGY WHEN IT IS TRANSMITTING. THIS BASE STATION

IS DESIGNED FOR AND CLASSIFIED AS “OCCUPATIONAL USE ONLY,”

MEANING IT MUST BE USED ONLY IN THE COURSE OF EMPLOYMENT

BY INDIVIDUALS AWARE OF THE HAZARDS AND THE WAYS TO

MINIMIZE SUCH HAZARDS. THIS BASE STATION IS NOT INTENDED

FOR USE BY THE “GENERAL POPULATION” IN AN UNCONTROLLED

ENVIRONMENT. IT IS THE RESPONSIBILITY OF THE BASE STATION

OPERATOR TO ENSURE THE MAXIMUM PERMISSIBLE EXPOSURE

LIMITS ARE OBSERVED AT ALL TIMES DURING STATION

TRANSMISSIONS. THE BASE STATION OPERATOR IS TO ENSURE THAT

NO BYSTANDERS COME WITHIN THE RADIUS OF THE MAXIMUM

PERMISSIBLE EXPOSURE LIMITS.

When licensed by the FCC, this base station complies with the FCC RF exposure limits when persons are

beyond the MPE radius of the antenna. In addition, the M/A-COM base station’s installation complies

with the following Standards and Guidelines with regard to RF energy and electromagnetic energy levels

and evaluation of such levels for exposure to humans:

• FCC OET Bulletin 65 Edition 97-01 Supplement C, Evaluating Compliance with FCC

Guidelines for Human Exposure to Radio Frequency Electromagnetic Fields.

MM-009290-001

• American National Standards Institute (C95.1 – 1992), IEEE Standard for Safety Levels

with Respect to Human Exposure to Radio Frequency Electromagnetic Fields, 3 kHz to 300

GHz.

• American National Standards Institute (C95.3 – 1992), IEEE Recommended Practice for

the Measurement of Potentially Hazardous Electromagnetic Fields – RF and Microwave.

CAUTION

TO ENSURE HUMAN EXPOSURE TO RF ELECTROMAGNETIC ENERGY IS

WITHIN THE FCC ALLOWABLE LIMITS FOR OCCUPATIONAL USE, DO NOT

OPERATE THE BASE STATION IN A MANNER THAT WOULD CREATE AN

MPE RADIUS IN EXCESS OF THAT ALLOWED BY THE FCC.

CAUTION

Changes or modifications not expressly approved by M/A-COM Inc. could void the

user’s authority to operate the equipment.

1.5 IMPORTANT SAFETY INFORMATION

The following general safety precautions must be observed during all phases of operation, service, and

repair of this product. Failure to comply with these precautions or with specific warnings elsewhere in

this manual violates safety standards of design, manufacture, and intended use of the product.

M/A-COM® Inc. assumes no liability for the customer's failure to comply with these standards.

SAVE THIS MANUAL — It contains important safety, installation, and operating instructions.

1. BEFORE USING THIS EQUIPMENT, please follow and adhere to all warnings, safety and

operating instructions located on the product and in this manual.

2. GROUNDING AND POWER CONNECTION — To reduce risk of electrical shock and to

minimize exposure to radio frequency (RF) energy, connect the equipment to a properly grounded

power source and site ground point as described in this manual.

3. MAXIMUM PERMISSIBLE RF EXPOSURE LIMITS —This equipment generates and uses RF

energy. Any changes or modifications to this equipment not expressly approved by M/A-COM may

cause harmful interference and could void the user’s authority to operate the equipment.

4. ELECTROSTATIC DISCHARGE SENSITIVE COMPONENTS — This equipment contains

electronic components that may be damaged by electrostatic discharge. Proper precaution must be

taken when handling circuit modules. As a minimum, grounded wrist straps should be used at all

times when handling circuit modules.

5. Care should be taken so objects do not fall onto or liquids do not spill into the interior of the

equipment.

6. DO NOT connect auxiliary equipment not recommended or sold by M/A-COM. To do so may result

in the risk of fire, electric shock or injury to persons.

7. DO NOT attempt to operate this product in an explosive atmosphere unless it has been specifically

certified for such operation.

MM-009290-001

8. To reduce risk of electric shock, isolate the unit and disconnect electrical power before attempting

any maintenance or interior cleaning.

9. Use only fuses of the correct type, voltage rating and current rating as specified in the parts list.

Failure to do so can result in fire hazard.

MM-009290-001

2. SPECIFICATIONS

2.1 GENERAL

Dimensions, Less Mounting Bracket: 21.5 x 18 x 22 inches (546 x 457 x 559 millimeters)

(Height x Width x Depth)

Weight, Less Mounting Bracket

Packed for Shipment: < 100 pounds (45 kilograms)

Unpacked: < 90 pounds (40 kilograms)

Operating Temperature Range: -22 to +122° Fahrenheit (-30 to +50° Celsius)

Storage Temperature Range: -40 to +158° Fahrenheit (-40 to +70° Celsius)

Humidity: 95% maximum relative humidity @ 122° F (50° C)

Altitude:

Operating: 15,000 feet (4572 meters) maximum

Non-Operating: 30,000 feet (9144 meters) maximum

DC Supply Voltage

Nominal Operating Input Voltage: 27 Vdc (negative ground system)

Acceptable Input Voltage Range: 21 to 27.75 Vdc (for full specifications)

Maximum Input Ripple Voltage: 200 millivolts peak-to-peak at 7 amps

DC Supply Current:

700 MHz Base Station Only: 6.75 amps maximum at 27 Vdc

700 MHz Base Station & T1/FT1 Router: 7.0 amps maximum at 27 Vdc

AC Supply/Charger Volts/Amps: (See SkyCharger documentation)

2.2 700 MHZ TRANSCEIVER

2.2.1 General

Frequency Ranges

Transmit (Narrowband Channels Only): 764 to 767 MHz and 773 to 776 MHz

Receive (Narrowband Channels Only): 794 to 797 MHz and 803 to 806 MHz

RF Channel Bandwidth: 25 kHz

RF Channel Available Step Size: 6.25 kHz

RF Transmit-to-Receive Frequency Offset: 30 MHz (typical)

MM-009290-001

Modulation Type: 4-Level GFSK1 (9600 sym./sec. for 19.2 kbps/channel)

Data Communications Mode: Full-Duplex

Voice Communications Mode: Half-Duplex (per voice path)

Reference Oscillator Stability: 0.1 ppm

Antenna Ports’ Impedances: 50 ohms

Digital Data Transmission/Reception

Aggregate Forward Channel Rate: 19.2 kbps

Aggregate Reverse Channel Rate: 2 x 9.6 kbps (2 time slots)

Voice/Data DSP2 Compression Technique: Advanced Multi-Band Excitation (AMBE™)

Compressed Voice Relative Data Rate: 2400 bps

2.2.2 Transmitter

Output Power at Tx Antenna Port

With Duplex Antenna Option: 3 to 25 watts (35 to 44 dBm)

With Simplex Antenna Option: 3 to 31.5 watts (35 to 45 dBm)

Duty Cycle Rating: Continuous (100%) at 25 watts

FM Hum and Noise: > 37 dB per TIA-603 test method

Adjacent Channel Power Ratio (ACPR): Per FCC Part 90.543

2.2.3 Receiver

Sensitivity: -111 dBm minimum for 1% Block Error Rate

Intermodulation Rejection: > 85 dB per TIA-603 test method

Adjacent Channel Rejection: > 80 dB per TIA-603 test method

Spurious Response Rejection: > 90 dB per TIA-603 test method

Conducted Spurious Emission: No spurious emissions from antenna output ports

exceeding -57 dBm (FCC Part 15)

2.2.4 Regulatory

FCC Type Acceptance ID Number: BV8CS700

Applicable FCC Rules: Part 90 and Part 15

1 Gaussian Frequency-Shift Keying (GFSK) is a modulation format that employs Gaussian filters for spectral efficiency,

and carrier frequency-shift modulation techniques.

2 Digital Signal Processing/Processor (DSP)

MM-009290-001

Industry Canada Certification Number: 3670A-CS700

2.3 SITE-TO-SITE (BACKHAUL) COMMUNICATIONS

2.3.1 T1/FT1 Frame-Relay Router Option MACS-NDF1Y

Protocol Utilized: RFC 1490 encapsulation (multi-protocol over frame

relay)

LMI Type: LMI, ANSI (Annex D), CCITT (Annex A) and static

Data Throughput Rate: 64 kbps to approximately 1.5 Mbps

BSC-to-Router Communication Link

Local Area Network (LAN) Interface: 10/100-Base-T Ethernet (10/100 Mbps)

LAN Port Connections: RJ-45 modular jacks provided on internal side of

Customer Interface Board; surge-protected interface

T1 Line Connection Port: RJ-45 modular jack provided on external side of

Customer Interface Board; surge-protected interface

Applicable FCC Rules: Part 68

Industry Canada Certification Number: CS03

2.3.2 56 Kbps DDS Modem Router Option MACS-NDF1Z

Protocol: Synchronous Digital Data Service (DDS)

Data Throughput Rate: 56 kbps maximum

BSC-to-Router Communication Link

Local Area Network (LAN) Interface: 10/100-Base-T Ethernet (10/100 Mbps)

LAN Port Connections: RJ-45 modular jacks provided on internal side of

Customer Interface Board; surge-protected interface

Telco Line Connection Port: RJ-45 modular jack provided on external side of

Customer Interface Board; surge-protected interface

Dial Backup (DBU) Port: RJ-45 modular jack provided on external side of

Customer Interface Board; surge-protected interface

Applicable FCC Rules: Part 68

MM-009290-001

3. INTRODUCTION

3.1 ABOUT THIS MANUAL

This manual contains installation instructions, configuration and test procedures for the OpenSky®

700 MHz Cell Site base station equipment. It is intended for use by M/A-COM and/or M/A-COM-

contracted personnel responsible for supervising or conducting the equipment installation process. Before

attempting to install or test this equipment, familiarity with the contents of this manual is recommended.

This manual is divided into the following sections:

1. SAFETY AND REGULATORY INFORMATION — This section includes safety information

which must be observed at all times!

2. SPECIFICATIONS — This section includes general specifications for the equipment.

3. INTRODUCTION — This section introduces the reader to the contents of this manual, provides a

brief overview of the equipment, and includes a list of related documentation. It also includes lists of

recommended tools and test equipment.

4. SITE PREPARATION — This section includes general antenna system installation information and

general facility requirements such as AC/DC electrical power requirements. It also includes

instructions for unpacking the base station equipment upon receipt.

5. MECHANICAL INSTALLATION — This section includes cabinet mechanical installation

instructions. Instructions for pole-mount, tower-mount, and in-building installations is included.

6. ELECTRICAL INSTALLATION — This section includes electrical installation instructions such

as antenna connections, AC/DC electrical power connections, and backhaul link connections.

7. POWER-UP PROCEDURE — The recommended power-up procedure is included in this section.

8. CONFIGURATION — This section provides instructions for setting-up the equipment for

operations on an OpenSky radio network.

MM-009290-001

3.2 GENERAL INFORMATION

M/A-COM’s OpenSky® 700 MHz Cell Site base station is a stand-alone fully-digital trunked base station

for 700 MHz OpenSky trunked radio networks. Housed in a compact and easy-to-install weather-resistant

cabinet, it can be pole mounted, tower mounted or wall mounted. The Cell Site base station requires a co-

located continuous-duty 24-volt DC power source, a 700 MHz antenna system, and site-to-site backhaul

communication equipment to link it to the high-power SkyMASTR base station/tower site.

OpenSky employs Time-Division Multiple-Access (TDMA) digital modulation technology. TDMA

allows multiple users to share a single RF channel. Each channel can support simultaneous digital voice

and data communications, in either a 2-slot or 4-slot format.

The Cell Site base station operates in the OpenSky Trunking Protocol (OTP) mode on a single 25 kHz

wide 700 MHz RF channel. A key advantage of OTP mode is its internet protocol (IP) based

communication capability. The station has a RF transmit output power range that is configurable between

15 and 37 watts (35 to 45.7 dBm), with a 25-watt continuous-duty rating.

The Cell Site base station complements the wide area coverage of a high-power SkyMASTR base

station/tower site by providing a cost-effective RF coverage solution for problem areas. It provides

consistent RF coverage to low-traffic areas that require only a single (2-slot or 4-slot TDMA) channel for

voice and data communications. Cell Site base stations are typically employed in areas that are problem

coverage areas for the respective high-power tower site(s). In other words, those areas hard-to-reach from

an RF standpoint via the high-power tower site(s) due to difficult terrain or other geographic or man-

made RF obstructions. In essence, a Cell Site base station is an extension of a high-power tower site’s

network of OpenSky base stations. A Cell Site base station can typically be deployed for one-tenth the

cost of a tower site with an equipment shelter.

OpenSky system software up to release 4 utilizes 2-slot TDMA technology.

OpenSky system software release 5 and later utilizes 4-slot TDMA technology.

Figure 3-1: Cell Site Base Station — Mounted on a 12-Inch Diameter Wooden Pole (Cabling Not Shown)

Customer Interface Box

Access Door

Solar Shield

Feed-Thru Ports of

Customer Interface Box

Lock for Door

Wooden Pole

(cutaway view)

Anti-Sway Straps

and ¾-Inch Hardware

(2 places each)

Heat Sink Assembly fo

Transmitter’s HPA

MM-009290-001

Figure 3-2: Cell Site Base Station — Bottom View (Cabling Not Shown)

Each Cell Site base station in an OpenSky trunked radio network is assigned to a SkyMASTR base

station/tower site within the trunked radio network. The Cell Site base station gains network connectivity

via a site-to-site backhaul communication link between itself and the main station/tower site. This is

accomplished using IP-based protocols over either a T1/Fractional T1 (FT1) frame-relay landline link, or

a 56 kbps Digital Data Service (DDS) landline modem link.

T1/FT1 frame-relay and DDS modem landline links are implemented via a router installed inside the base

station cabinet. For a T1/FT1 site-to-site communication link, the router is equipped with a T1/FT1

frame-relay option. For a DDS site-to-site communication link, the router is equipped with a DDS modem

option.

In an OpenSky trunked radio network, each SkyMASTR base station/tower site is assigned a block of

Class C internet protocol (IP) addresses. From these addresses, one address is used for the site-to-site

backhaul communication link.

Site-specific configuration parameters such as site ID, channel ID and site IP address, MDIS IP address,

VNIC IP address, etc. are typically loaded into the Cell Site’s Base Station Controller (BSC) before the

equipment ships from the factory. The BSC is a part of the station’s Digital Controller/Transceiver (DCX)

which is located inside the Cell Site base station cabinet.

Door of Customer

Interface Box

Solar Shield

Feed-Thru Ports of

Customer Interface Box

(3 total)

Auxiliary Antenna

Port/Connector B

Wooden Pole

(cutaway view)

Anti-Sway Straps and

¾-Inch Hardware

(2 places each)

Auxiliary Antenna

Port/Connector A

Receive Antenna Port/Connector Transmit Antenna Port/Connecto

Mounting Brackets

(2 places)

Bottom of Base Station

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Figure 3-3: Cell Site Base Station — System Block Diagram

24 Volts Out

Customer

Interface/ Power

Distribution

LIghtning

Suppression

27.2 Volts Out

High Power Amplifier

Base Station Transceiver

Base Station Controller

24V Volts In

Low Pass Filter

TX Antenna

RX In

TX Out

RX In

RF Out

RS-485

IIQ Q Vref

TX RX

Router

27.2 Volts In

OpenSky 700 MHz Cell Site System Block Diagram

Network

EIA232

RF In

RF Out

Controller

Board RF Board

Terminal1 COM 1

12 Volts In

Lightning

Suppression

Phone Line

12 Volts in

12 Volts Out

Ethernet/

SLIP

Converter

Ethernet

SLIP

Ethernet

Tower Top

Amplifier Bias

Feed/Lightening

Protection

RCV Antenna

Duplexer

Combined

TX/RX

Antenna

Alternate configuration

for duplex operation

Lightning

Suppression

Lightning

Suppression

MM-009290-001

3.3 EQUIPMENT MODEL AND PART NUMBERS

Model and part numbers for this equipment and the related options are listed in the follow table:

Table 3-1: 700 MHz Cell Site Base Station Equipment Model and Part Numbers

(Major Assemblies and Options Only)

ASSEMBLY DESCRIPTION MODEL/PART

NUMBER

OpenSky 700 MHz Cell Site Base Station; Includes: MACS-MC700

• 700 MHz DCX; Includes: IA-008104-001

• Base Station Controller (BSC) Board Assembly

(Does not include enclosure) BG01049

• BSC Enclosure (Does not include board assembly) FM-008100

• 700 MHz Base Station Transceiver (BSX) Board Assembly

(Does not include enclosure) 1000011224

• BSX Enclosure (Does not include board assembly) FM-008102

• 700 MHz 40-Watt HPA & Controller; Includes: 1000022909-0001

• 700 MHz 40-Watt HPA 1000022937-0001

• HPA Digital Controller CB-008852

• Customer Interface Board 1000023295-0001

Kit, Heat Sink & Solar Shield Pole-Mount MACS-NCK1G

Option, Wooden Pole-Mount Kit MACS-NMA6D

Option, Metal Pole-Mount Kit MACS-NMA6E

Option, 700 MHz Simplex Antenna MACS-NDU1W

Option, 700 MHz Duplex Antenna MACS-NDU1X

Option, T1/FT1 Router MACS-NDF1Y

Option, 56 kbps DDS Modem Router with DSU and DBU Connectivity MACS NDF1Z

Option, SkyCharger Battery Backup System MACBOS0003

MM-009290-001

4. RECOMMENDED TOOLS, TEST EQUIPMENT AND

SOFTWARE

Lists of recommended tools, test equipment, and programming software are included in the tables in this

section. Other test equipment may be substituted providing it is equivalent in accuracy and performance

to the listed test equipment.

Table 4-1: Recommended Tools

DESCRIPTION USE/COMMENTS

½-Inch Drive Racket Used with below listed socket

½-Inch Drive, 1-¼-Inch Socket Needed only for wooded pole installations.

1-¼-Inch Wrench Needed only for wooded pole installations.

3/8-Inch Drive Racket Used with below listed socket

3/8-Inch Drive, 1/2-Inch Socket For securing ground to bus bar

12-Inch Nylon Wire Ties General cable/wire securing.

Assorted Hand Tools As needed for cabinet installation

Tape Measure, 25-Foot For making general distance measurements.

2 or 4-Foot Bubble Level

and/or

Electronic Laser Level

For marking reference lines on mounting surfaces and

verifying mounted components are level.

Drill with ½-inch Chuck For drilling holes in pole, etc.

Heavy-Duty (Industrial-Type)

Drill with 1-inch Chuck Needed for wooden pole installations. Used for drilling

7/8-inch holes in the pole.

7/8-Inch Drill Bit Needed for wooden pole installations. Used for drilling

7/8-inch holes in the pole.

Set of Standard Drill Bits For drilling holes in pole, etc.

Set of Masonry Drill Bits Needed if the base station is mounted to a concrete or

cinder block wall.

Center Punch Used to punch hole centers prior to drilling holes.

Ground Cable (6 AWG green) For grounding equipment cabinets

Crimp-On 1-hole lugs For attaching cabinet ground cables to grounded surface

Crimp-On 2-hole lugs For attaching cabinet ground cables to grounded surface

Crimpers For crimping lugs to ground wire and power leads

Crowbar For opening shipping crates

Equipment Cart with 1,200

pound minimum lift capacity For moving equipment cabinets

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Table 4-1: Recommended Tools

DESCRIPTION USE/COMMENTS

Heat Gun For shrink tubing with control cable connector

Knife or Shears For cutting strapping around cabinet packaging

Labeling System Recommended Type: P-Touch Labeling System, Model

PT-330

Denatured Alcohol For cleaning heat transfer surfaces prior to applying heat

transfer compound.

Heat Transfer Compound Used between base station cabinet and Heat Sink

Assembly.

Soft-Jaw Connector Pliers For tightening and loosening N-type connectors.

Recommended Type: M/A-COM Part Number 529-10 or

Tessco Part Number 83040

Soldering Gun For soldering leads of control cable connector

T1 Crimper Recommended Type: AMP Hand Tool Part Number

2-231652-0

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Table 4-2: Recommended Test Equipment and Programming Software

DESCRIPTION MODEL/PART NUMBER USE

RF Communication Test

Set (Service Monitor) Agilent ESG-D with option UND

(or equivalent) with cables RF signal source for test and

alignment.

RF Power Meter Agilent 437 with 8481H power sensor Used for measuring RF power

levels.

50-Ohm RF Load(s) Bird 8135 Test and alignment.

True-RMS Digital

Multimeter (DMM) Fluke 87-Series Test and alignment.

OpenSky

Portable Radios M/A-COM P801 or P7200 Series

(Use customer’s radios if available)3 Test and alignment.

Personal Computer (PC) (laptop-type recommended; see Table

4-3 for minimum requirements) Test and alignment.

Table 4-3: Personal Computer Minimum Requirements (PC Used for Local Configuration and Testing)

PARAMETER WINDOWS® NT 4.0

(Service Pack 4) WINDOWS 2000 WINDOWS XP

Processor Speed: Pentium II 90 MHz Pentium II 133 MHz Pentium II 233 MHz

RAM: 128 Megabytes 128 Megabytes 128 Megabytes

Hard Drive Free Space: 160 Megabytes 160 Megabytes 160 Megabytes

Other Drives: CD-ROM CD-ROM CD-ROM

Ports: 1 Serial or Ethernet 1 Serial or Ethernet 1 Serial or Ethernet

Microsoft Internet Explorer: Version 5.01

or higher Version 5.01

or higher

Network: LAN LAN LAN

3 If the system supports digital encryption, radios capable of the same digital voice mode are required. For example, if

128-bit AES encryption is utilized in the system, radios capable of 128-bit AES encryption are required for complete testing.

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5. SITE PREPARATION

5.1 BEFORE BEGINNING THE INSTALLATION

Before beginning an installation, collect information from the Site Deployment Order (SDO)

specific to the site access such as:

• Permission to access the site.

• Important contact names and telephone numbers.

• Location of and directions to the site.

• Keys and/or lock combinations to access the site and equipment shelter (if any), or points of

contact to obtain them.

• Site entry alarm system pass-codes and/or disable keys.

• Information about work practices needed to work safely at the site.

Other important information that may or may not be included on the SDO includes:

• Type of mounting—metal pole, wooden pole, tower base, exterior wall, etc.

• Drawing or description of each site showing how the equipment is to be installed.

• Applicable inspections completed (pole installation, electrical, local build code, etc.)

CAUTION

Keep the working environment clean!

Control dust, dirt, and shavings for safety, and to protect the equipment.

Be sure to follow installation procedures carefully!

5.2 POLE-MOUNT INSTALLATIONS

Contact a local utility company and arrange for installation of the required pole type. Refer to the Site

Deployment Order (SDO) and other applicable site installation information as necessary. Typically, a

60- or 70-foot tall 12-inch diameter pole is employed, with at least 10 feet of the pole buried in the

ground.

5.3 ELECTRICAL POWER

5.3.1 AC Power

A Cell Site base station site equipped with a SkyCharger battery backup system requires 100-amp AC

electrical service:

• Contact the local electrical utility company and arrange for installation of 100-amp electrical

service at the site (to the pole/pad/wall/etc.) Either over-head or under-ground service may be

used; however, under-ground service is recommended for improved safety. If over-head service is

used, it can be either 100 or 200-amp rated to the base of the power meter. However, if under-

ground service is used, it must be 200-amp rated (minimum) to the base of the power meter.

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• The installed power meter must be rated at 200 amps minimum. For pole-mount installations, the

meter is normally installed 90 degrees from the Cell Site base station cabinet, and 90 degrees

from the SkyCharger battery backup system cabinet. When facing the pole with the Cell Site

cabinet on the left and the SkyCharger cabinet on the right, the power meter is located on the far

side of the pole. Power meter egress conduit type, size and related wiring should meet all local

building codes.

• An AC circuit breaker box must be installed. Typically, a 6-breaker load center box is used. For

pole-mount installations, the breaker box is normally installed on the pole 180 degrees from the

power meter. In other words, when facing the pole with the Cell Site cabinet on the left and the

SkyCharger cabinet on the right, the circuit breaker box is located on the near side of the pole. All

breaker box egress conduit and related wiring should meet all local building codes. Typically,

¾-inch GRS-type conduit is employed.

• A 20-amp Ground Fault Interrupt (GFI) duplex AC receptacle box should be installed just under

or beside the AC circuit breaker box. This receptacle is for auxiliary use by installation and

service personnel. It should be connected to an independent breaker located in the AC circuit

breaker box. This breaker should remain in the OFF position when installation/service personnel

are not using it. Box installation, conduit and wiring servicing this box should meet all local

building codes. Typically, ¾-inch GRS-type conduit is employed.

All AC circuit breakers for site equipment must remain OFF during equipment

installation. The circuit breaker for the auxiliary duplex AC receptacle (if any) can

remain on as needed by installation and service personnel.

AC power installation methods must conform to all applicable local installation

regulations and/or local building codes, including but not limited to the utilization

of the proper AC receptacle and circuit breaker combination.

If the SkyCharger battery backup system is not used, refer to the sections 5.3.3 and 5.3.4 for additional

information.

5.3.2 Generator Power

Some systems require emergency generators with automatic switchover systems. The generators must be

connected to the external site grounding system and should be located in an outdoor location. There

should only be one neutral/ground bond at the site per NEC code. Automatic switchover systems must be

disabled during installation.

5.3.3 DC Power

The Cell Site base station requires a 27-volt (nominal) DC power source. This source must have a

continuous-duty current rating of at least 10 amps, with a ripple of less than 200 mV peak-to-peak at

7 amps, or 250 mV peak-to-peak at 10 amps. Refer to the specifications section on page 9 for additional

information.

Typically, the SkyCharger battery backup system is employed to supply DC power to the Cell Site base

station, both during normal operating periods and on a temporary backup basis when the site loses AC

power. Battery hold-up time may be specified in the equipment contract and/or on the SDO. Refer to the

SkyCharger installation manual (MM20963) included with this manual set.

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Like AC power installations methods, a DC power installation methods must

conform to all applicable local installation regulations and/or local building codes.

5.3.4 If the SkyCharger Battery Backup Power System is Not Used

Some systems require battery backup power connected to the supply system in case of an AC power

failure. Preferably, the battery bank should be in a room separate from the radio equipment. If located in

the same room as the radio equipment, the battery bank should be at a point furthest from the equipment

room entrance/door. In either case, it should have a separate fume extraction system or it should be

located directly below the air extraction system for the site.

If the SkyCharger battery backup system is not employed, consult the site’s SDO and/or the respective

vendor’s DC power supply system installation instructions for additional information or special

instructions that may apply. In any case, as previously stated, the DC supply system powering the Cell

Site cabinet must have a 10-amp (minimum) continuous-duty current rating. Battery hold-up time may be

specified in the equipment contract and/or on the SDO.

NEVER locate batteries near the air intake(s) of an air conditioning or air

circulation system!

Always minimize the risk of contact between lead-acid batteries and aluminum

alloys!

5.4 GROUNDING THE EQUIPMENT

Ensure all equipment and facilities meet the requirements for grounding and lightning protection. Site

Grounding and Lightning Protection Guidelines manual AE/LZT 123 4618/1 provides proper grounding

procedures. These guidelines must be observed in order to protect the equipment and service personnel

from lightning and other sources of electrical surges. See section 7.1 in this manual for additional

information.

Proper grounding also ensures the MPE radius of the radio frequency (RF) antenna is maintained. The

MPE radius is the minimum distance from the antenna axis that ALL persons should maintain in order to

avoid RF exposure higher than the allowable MPE level set by the FCC. Refer to section 1 which begins

on page 5 for additional information.

5.5 ANTENNA SYSTEM

This section is an overview of the antenna system installation. It includes general antenna installation

guidelines and installation information for the respective antenna RF coaxial cables.

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Antenna systems are generally installed by crews specially-trained and equipped for working on antenna

towers and/or pole-type installations. As a result, this manual assumes skilled personnel of this type will

be working on the towers/poles, and installing the antennas and antenna cables. However, it may be

necessary for the system installer to provide information and directions to the crew, and to verify proper

installation.

5.5.1 Antenna Mounting

5.5.1.1 Simplex Antennas

If the installation utilizes simplex antennas (i.e., separate transmit and receive antennas), the Cell Site

base station must be equipped with M/A-COM option MACS-NDU1W. With simplex antennas, antenna

installation/mounting locations must provide least 25 dB of isolation between the TX and RX antennas.

This is necessary to avoid interference in the receiver caused by the transmitter. An isolation of greater

than 25 dB is easily obtained by mounting the transmit antenna at least ten (10) feet above the receive

antenna.

5.5.1.2 Duplex Antenna

If the installation utilizes a duplex antenna system (i.e., one antenna for both transmit and receive), the

Cell Site base station must be equipped with M/A-COM option MACS-NDU1X. In installations of this

type, the respective antenna is normally mounted at the top of the pole.

5.5.2 RF Coaxial Cables

When installing antenna RF coaxial cables, refer to the applicable antenna assembly drawing(s) shown in

Antenna Systems manual LBI-38983, which is included with this set of manuals.

5.5.2.1 Cable Length

The length of the main coaxial cable for each antenna should be a continuous run with no connectors or

splices. Smaller diameter, more flexible coaxial cable is typically used at cabinet end of the main coaxial

cable to facilitate cable connection and disconnection, formation of drip loops, etc.

5.5.2.2 Cable Minimum-Bend Radius

Always adhere to the cable manufacturer’s minimum-bend radius specification. For Andrew cable, the

values are listed in the following table. For another cable brand, consult the respective manufacture’s

recommendations.

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Table 5-1: Minimum-Bend Radius for Andrew HELIAX® 50-Ohm Foam Dielectric Coax Cable

CABLE SIZE TYPE ANDREW PART NUMBER MINIMUM-BEND RADIUS

1/4-inch Super-flexible FSJ1-50A 1 inch (25 mm)

3/8-inch Super-flexible FSJ2-50 1 inch (25 mm)

1/2-inch Super-flexible FSJ4-50B 1.25 inches (32 mm)

1/2-inch Hard-line LDF4-50A 5.0 inches (125 mm)

7/8-inch Hard-line LDF5-50A 10 inches (250 mm)

1-1/4-inch Hard-line LDF6-50 15 inches (380 mm)

1-5/8-inch Hard-line LDF7-50A 20 inches (510 mm)

5.5.2.3 Hoisting Grips

Hoisting grips provide the means to attach a lifting mechanism to the coaxial cable without damaging it.

Typically, each hoisting grip is capable of safely lifting 200 feet of cable without causing cable damage.

Therefore, one hoisting grip is required for every 200-foot cable section. Grips may be left attached to the

cable after the cable installation is completed.

Some situations may require more hoisting grips, such as:

• An installation on a tower which is on top of another structure; or,

• Any installation where the lengths of cable that must be lifted is greater than the height of the

tower/pole.

In these situations, additional hoisting grips should be ordered and used as needed.

CAUTION

Never attach lifting ropes or hoisting grips to an RF connector on the end of a coax cable.

5.5.2.4 Hangers and Adapters

Coaxial cables on the tower/pole should be secured at 3-foot intervals (maximum distance). Securing

7/8-inch and 1-5/8-inch diameter coaxial cables is accomplished by using either hangers or hanger-

adapter combinations. The hangers secure the cables to the tower/pole structure by using pre-punched

holes or attachment adapters.

• For wooden poles, shelf-thread lag bolts should be used.

• When a tower structure is pre-punched with 3/4-inch holes, snap-in hangers should be used.

• When a tower structure is pre-punched with 3/8-inch holes, each hanger should be secured with a

3/8-inch bolt.

• For towers without pre-punched holes, hangers and adapters are available for either angle tower

members or round tower members.

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Adapters for each antenna system are selected when ordering the system. If antenna coaxial cable must be

attached to a structure that is not compatible with any of the previously described hangers or adapters,

additional materials or other special considerations may be required.

To secure 1/4-inch or 1/2-inch vertical or horizontal coaxial cables of any size, the use of heavy-duty

nylon cable ties is recommended.

5.5.2.5 Weatherproofing Connectors

A kit of weatherproof tape is normally provided to protect coaxial connectors from the outside elements.

Follow all cable manufacturer weatherproofing guidelines.

5.5.2.6 RF Entry Point (Wall Feed-Thrus)

If the Cell Site base station cabinet is located inside an equipment room, the room’s RF entry point (wall

feed-thrus) should be installed and the respective bulkhead grounded in accordance with the procedures

presented in Site Grounding and Lightning Protection Guidelines manual AE/LZT 123 4618/1 (manual

include with this manual set).

5.5.2.7 Grounding Transmission Lines and Surge Protection Devices (SPDs)

All RF transmission lines and surge protection devices (SPDs) should be grounded in accordance with

procedures presented in Site Grounding and Lightning Protection Guidelines manual AE/LZT 123

4618/1. AE/LZT 123 4618/1 is include with this set of installation manuals.

5.6 SITE-TO-SITE (BACKHAUL) COMMUNICATION LINKS

If the Cell Site base station will employ a landline backhaul communications link (i.e., the router with the

T1/FT1 frame relay option or the router with the 56 kbps DDS modem option) for the site-to-site

backhaul communication link, suitable lines should be in-place before beginning site installation.

Typically, lines are ordered from and supplied by the local telephone company. Interfaces will be agreed

demarcation points to which the customer/installer will make connections.

• For pole-mount installations, the Telco connection box is normally mounted on the same side of

the pole as the Cell Site cabinet. Some installations use a NEMA (Type 12, 13, 4) box such as

Hammond Manufacturing’s EJ12126.

• For other type installations, the Telco connection box can be mounted at any nearby approved

mounting surface such as the exterior wall of an equipment building.

5.7 UNPACKING THE BASE STATION EQUIPMENT

Cell Site base station equipment is generally packed in mini-pallets approximately 36 inches deep by 32

inches wide. These pallets can generally be moved with a medium-duty hand-truck. A crowbar and

hammer will be useful for opening the crates. Wrenches will be needed to unbolt the cabinets from the

pallets.

Carefully examine each carton upon receipt. If any packaging damage is detected, note the damage on the

Bill of Lading.

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Before unpacking a pallet or crate, move it as close as possible to the installation location.

Carefully unpack the equipment and examine each item for damage. If any, contact the carrier

immediately and have their representative verify the damage. Failure to report shipping damage

immediately may cause forfeiture of any claim against the carrier.

When unpacking the equipment, check the contents against the packing list. Contact your M/A-COM

representative and the carrier if any discrepancies are noted.

After unpacking, carefully open each cabinet and inspect its contents to ensure the enclosed equipment

has not been damaged during delivery. If damage has occurred, note details of the damage and, if

necessary, contact the carrier immediately and have their representative verify the damage. Contact your

M/A-COM representative if the damage is such that installation cannot proceed.

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6. MECHANICAL INSTALLATION

This section includes mechanical installation procedures for the 700 MHz Cell Site base station and the

related equipment. Because of the wide variety of installation conditions and configurations, many

installations will require unique mechanical installation planning processes which must be accomplished

on a site-by-site basis. For example, installers typically encounter several different types of mechanical

installation scenarios such as wooden pole or metal pole mounting, optional cabinets that must be

installed on the same pole as the Cell Site base station, if the battery cabinet is installed on the same side

of the pole or the opposite side of the pole, etc.

The Site Deployment Order (SDO) should include an accurate site layout map, information to designate

equipment locations, and other necessary installation information.

Unless otherwise stated, all installation procedures presented in this section should be

performed in the order presented.

6.1 MOUNTING THE CELL SITE BASE STATION

Mounting the Cell Site base station typically involves attaching its mounting brackets to the mounting

surface (i.e., wooden pole, metal pole, tower base), attaching the base station’s Heat Sink Assembly to the

mounting brackets, lifting the base station cabinet and bolting it to the Heat Sink Assembly, and attaching

the cabinet’s solar shield. However, if the base station is mounted to a flat surface, no bracket is required

since the Heat Sink Assembly is simply bolted directly to the mounting surface.

Cell Site base station installations typically employ 60 or 70-foot-tall 12-inch-diameter wooden or metal

poles, with at least 10 feet of the pole buried into the ground. Two pole-mount installation kits are

available—one for wooden poles and one for metal poles. Each kit contains two (2) mounting brackets

and hardware for attaching the brackets to the pole. See Table 6-1 and Table 6-2 for kit contents.

6.1.1 Attaching the Mounting Brackets to a Wooden Pole

The following procedure is recommended for wooden pole installations. It is assumed the pole is already

planted, and that it is vertically level to within 2 degrees:

1. Consult the SDO for the required height above ground specification, and any other mounting-related

instructions/requirements. Most installations require the bottom of the base station cabinet at a

distance of at least eight (8) feet from the surface of the ground.

2. On the base station cabinet-side of the pole, mark a drill-point location for the lower mounting

bracket’s bolt hole. The bottom of the cabinet will be at approximately this same level above ground.

However, the bottom edge of the Heat Sink Assembly will be approximately 3.5 inches lower than

this point after it is attached to the brackets. See Figure 6-1.

3. Using a bubble or a laser-type level for an accurate vertical reference line, mark a drill-point location

for the upper mounting bracket’s bolt hole exactly 16-¾ inches above the mark for the lower

bracket’s bolt hole. This mark must be directly above the mark for the lower bracket’s bolt hole. As

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illustrated in Figure 6-1, the two end holes in one of the brackets may be used as a measuring tool, as

these holes are exactly 16-¾ inches apart.

4. Using a centering-type gauge/tool, a level-equipped drill, and a 7/8-inch (0.875-inch) drill bit, drill

two 7/8-inch holes at the marked locations. These holes must pass through the pole’s diameter-line

(within approximately 5 degrees) and they must be perpendicular to the length of the pole (also within

approximately 5 degrees).

5. Attach the two (2) mounting brackets to the pole using the ¾-inch hardware included in Pole-Mount

Installation Kit MACS-NMA6D (for wooden poles). See Figure 6-1 and refer to Table 6-1 for kit

contents. Do not torque this hardware until after the Heat Sink Assembly has been attached to

the brackets (as described in a later section).

6. Advance to section 6.1.3, Attaching the Heat Sink Assembly to the Mounting Brackets (on page 30).

Measuring & Marking Hole Locations

and Using a Bracket to Mark Drilled 7/8-Inch

Location of Upper Bolt Hole Diameter Bolt Holes Mounted Brackets

Figure 6-1: Attaching the Mounting Brackets to a 12-Inch Wooden Pole

¾-Inch Mounting Hardware

(2 places at upper and lower

mounting brackets)

For required height above ground,

refer to the SDO (or equivalent

document). Bottom of Heat Sink

Assembly will be approximately

3.5 inches below this level.

Ground Level

16.75

Inches

Upper Drill-Point Location

Lowe

Drill-

Point

Location

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Table 6-1: Contents of Pole-Mount Installation Kit MACS-NMA6D for 12-Inch Diameter Wooden Poles

PART NUMBER QTY.

PER KIT DESCRIPTION NOTES

1000023950 2 Bracket, Mounting Used to mount Heat Sink Assembly

to a wooden or metal pole.

TBD 2

Bolt, Hex-Head: ¾-Inch

Stainless-Steel, 14 inches

long)

Used to attach brackets to a

wooden pole.

TBD 4

Washer, Flat: ¾-Inch

Stainless-Steel Used with above bolts.

TBD 4

Washer, Split-Lock: ¾-Inch

Stainless-Steel Used with above bolts.

TBD 2 Anti-Sway Straps

Used to prevent side-to-side

movement during strong winds, etc.

6.1.2 Attaching the Mounting Brackets to a Metal Pole

The following procedure is recommended for metal pole installations. It is assumed the pole is already

planted and it is vertically level to within 2 degrees:

1. Consult the SDO for the required height above ground specification, and any other mounting-related

instructions/requirements. Most installations require the bottom of the base station cabinet at a

distance of at least eight (8) feet from the surface of the ground.

2. On the base station cabinet-side of the pole, mark a location for the lower mounting bracket’s bolt

hole. The bottom of the cabinet will be at approximately this same level above ground. However, the

bottom edge of the Heat Sink Assembly will be approximately 3.5 inches lower than this point after it

is attached to the brackets.

3. Using a bubble or a laser-type level for an accurate vertical reference line, mark a location for the

upper mounting bracket exactly 16-¾ inches above the mark for the lower bracket. As illustrated in

Figure 6-1, the two end holes in one of the brackets may be used as a measuring tool, as these holes

are exactly 16-¾ inches apart.

4. Using the two (2) stainless-steel straps included in Pole-Mount Installation Kit MACS-NMA6E (for

metal poles), attach the two brackets to the pole. Refer to Table 6-2 for kit contents. Tighten the straps

in accordance with the installations instructions included with the straps.

5. Add the anti-sway straps to the brackets in accordance with the included installation instructions.

6. Advance to section 6.1.3, Attaching the Heat Sink Assembly to the Mounting Brackets (on page 30).

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Table 6-2: Contents of Pole-Mount Installation Kit MACS-NMA6E for 12-Inch Diameter Metal Poles

PART NUMBER QTY.

PER KIT DESCRIPTION NOTES

1000023950 2 Bracket, Mounting Used to mount Heat Sink Assembly

to a wooden or metal pole.

TBD 2 Straps, Stainless-Steel

Used to mount bracket to metal

pole.

TBD 2 Anti-Sway Straps

Used to prevent side-to-side

movement during strong winds, etc.

6.1.3 Attaching the Heat Sink Assembly to the Mounting Brackets

For pole-mount installations, Heat Sink Assembly MA-007498 must be attached to the mounting brackets

before the Cell Site base station cabinet is attached to it. This assembly is a part of Heat Sink & Solar

Shield Pole-Mount Kit MACS-NCK1G. Contents of this kit are listed in Table 6-3 on page 31. The Heat

Sink Assembly is mounted to the pole via Mounting Brackets 1000023950 and 3/8-inch stainless-steel

hardware. The following procedure is recommended:

If mounting the base station to a flat surface, mounting brackets are not required. In this

case, advance to section 6.1.4 on page 32 for installation information.

1. Loosely attach the Heat Sink Assembly to the two mounting brackets using the 1-3/8-inch long

(1.375-inch) 3/8-inch hex-head bolts, nuts, and washers included in the respective installation kit.

Start all hardware bolts before tightening any one bolt/washers/nut combination. See Figure 6-2.

2. Torque all of this 3/8-inch hardware to (TBD) pound-inches.

3. For wooden pole-mount installations, torque the ¾-inch bolts securing the two mounting brackets to

the pole to (TBD) pound-inches.

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Table 6-3: Contents of Heat Sink and Solar Shield Pole-Mount Kit MACS-NCK1G

PART NUMBER QTY.

PER KIT DESCRIPTION NOTES

MA-007498 1 Heat Sink Assembly The finned aluminum assembly

external of the base station cabinet.

HT-008474 1 Thermal Gasket Used between the Heat Sink

Assembly and the back of the

station cabinet.

TBD 4

Bolts, Hex-Head: 3/8-Inch

Stainless-Steel, 1-3/8-inches

long

Used for securing Heat Sink

Assembly to the mounting brackets.

TBD 4

Nuts, Hex: 3/8-Inch Stainless-

Steel Used with above bolts.

92240A622 6 Bolts, Hex-Head: 3/8-Inch

Stainless-Steel, 3/4 inches

long

Used for securing base station

cabinet to Heat Sink Assembly.

92141A031 TBD Washers, Flat: 3/8-Inch

Stainless-Steel Used with above bolts.

92146A031 TBD

Washers, Split-Lock: 3/8-Inch

Stainless-Steel Used with above bolts.

FM-008077 1 Shield, Solar Shields base station cabinet from

the sun to help maintain

temperature inside the cabinet.

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NOTE: Base Station Cabinet and Solar Shield

are shown for reference only.

Torque this 3/8-inch hardware to (TBD) pound-inches.

Figure 6-2: Attaching the Heat Sink Assembly to the Mounting Brackets

(Top View; Wooden Pole Installation Shown)

6.1.4 Attaching the Heat Sink Assembly to a Flat Surface

Instead of pole or tower base mounting, the Cell Site base station may be mounted directly to a flat

surface such as the interior or exterior wall of an equipment shelter. This is accomplished by attaching its

Heat Sink Assembly directly to the flat surface. Six (6) 3/8-inch bolts are used to secure the Heat Sink

Assembly to the surface (not supplied). The following procedure is recommended:

1. Consult the SDO for the required height above ground specification, and any other mounting-related

instructions/requirements. Most installations require the bottom of the base station cabinet at a

distance of at least eight (8) feet from the surface of the ground.

Customer Interface

Box Access Door

Solar Shield

Heat Sink Assembly for

Transmitter’s HPA

Wooden Pole

(cutaway view)

Anti-Sway Straps

(2 places)

3/8-Inch Mounting Hardware

(4 places at brackets’ ends)

Mounting Brackets

(2 places)

Top of Base Station Cabinet

Lifting Handle (Under

top of Solar Shield)

1/2-Inch Mounting

Hardware (2 places

for upper and lowe

brackets)

3/8-Inch Hex-Head Bolt

3/8-Inch Flat Washer

Heat Sink Assembly’s Mounting Stud

3/8-Inch Flat Washe

End of Mounting Bracket

3/8-Inch Lock Washe

3/8-Inch Hex Nut

Fins of Heat Sink Assembly

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2. Obtain 3/8-inch hardware appropriate for the mounting surface. For example, if mounting to a

concrete wall, expandable concrete anchors with appropriate 3/8-inch bolts and washers are normally

used. Use of stainless-steel bolts and washers is recommended. For a flat surface that is less than

approximately ¾-inch thick, the 3/8-inch stainless-steel hardware in Pole-Mount Installation Kit

MACS-NMA6D (includes 1-3/8-inch long stainless-steel bolts) may be used if the opposite side of

the mounting surface is accessible. In this case, the two brackets in the kit are not be used and they

can be returned to stock or discarded.

CAUTION

A steel mounting surface must be grounded by ground wires/cables that are separate

from the wires/cables used to ground the base station cabinet.

Verify the mounting surface has no embedded electrical wires, water pipes, etc., or

other items on the opposite side such as fuel tanks, batteries, or equipment

cabinets. If so, adjust the location of the mounting surface as required so any

drilled holes and/or mounting bolts do not interfere with or penetrate items of this

type.

3. Using a bubble or a laser-type level for an accurate vertical reference line, mark a vertical centerline

for the Heat Sink Assembly.

4. From this centerline, mark two (2) parallel lines exactly 8-3/8 inches (8.375 inches) from the

centerline. One line exactly 8-3/8 inches to the left of the centerline and one line exactly 8-3/8 inches

to the right of the centerline.

5. On the two (2) parallel lines, mark drill-points for the two bottom bolt holes. The bottom edge of the

Heat Sink Assembly will be approximately 3.5 inches lower than these points after it is attached to

the mounting surface. However, the bottom of the base station cabinet will be at approximately the

same level (height above ground) as these two bolt holes.

6. On the two parallel lines, mark drill-points for the two center bolt holes exactly 8-3/8 inches

(8.375 inches) above the bottom holes.

7. On the two parallel lines, mark drill-points for the two top bolt holes exactly 8-3/8 inches

(8.375 inches) above the center holes.

8. To verify the locations of the marked drill-points, position the Heat Sink Assembly over the points.

Adjust marks if they are incorrect.

9. Center-punch these six (6) drill-points and then drill pilot holes at the six drill-point locations. An

1/8-inch pilot hole is recommended.

10. Re-drill the six pilot holes to the required diameter according to utilized mounting hardware. Hole

diameter is typically 3/8-inch, unless anchor or toggle-type hardware is used which will typically

require larger holes.

11. Position the Heat Sink Assembly over the bolt holes and install the mounting hardware as required. A

flat washer must be used between the head of the each bolt and each mounting hole in the Heat Sink

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Assembly, and between each mounting hole in the Heat Sink Assembly and the mounting surface. If

the mounting surface is not nearly completely flat, additional flat washers should be used as required

to prevent bending of the Heat Sink Assembly when the bolts are torqued.

12. Torque the six (6) bolts as required per utilized hardware. Torque the two (2) center bolts (left and

right sides) first, then torque the four (4) corner bolts. Do not exceed (TBD) pound/inches.

Exceeding this torque spec could cause the Heat Sink Assembly to immediately crack, or crack later

during temperature cycles.

6.1.5 Attaching the Cabinet to the Heat Sink Assembly

After the Heat Sink Assembly is attached to its mounting surface, the Cell Site base station cabinet must

be attached to it per the following procedure:

1. Using a lint-free cloth dipped in denatured alcohol, clean the machined heat transfer surface at the

back of the base station cabinet and the corresponding surface on the Heat Sink Assembly. The

machined surface at the back of the cabinet is the portion of the station’s RF High-Power Amplifier

(HPA) heat sink and casting that is visible on the outside of the cabinet. This surface transfers heat to

the Heat Sink Assembly via a special thermal interface material applied later.

2. After cleaning, allow several minutes for the alcohol to evaporate.

Observe and follow all recommended safety procedures, warnings, etc. listed by

the alcohol’s manufacturer and/or respective Material Safety Data Sheet (MSDS).

3. At the back of the base station cabinet, apply Thermal Interface Material HT-008474 (included with

installation kit) to the HPA’s machined heat transfer surface. This material has an adhesive side to

adhere to the machined surface, and a foil side which contacts the Heat Sink Assembly when the two

are joined together in the next step. Visually center the material parallel to the machined surface, then

lay it flat against the surface and use a gentle top-to-bottom sweeping motion to smoothly adhere the

material to the surface.

4. Using the cabinet’s lifting handle, carefully lift the cabinet and hang it on the Heat Sink Assembly by

the two (2) hooks at the top rear corners of the cabinet.

5. Slightly reposition the cabinet left or right as necessary to align the six (6) holes in the its rear panel

to the six corresponding threaded holes in the Heat Sink Assembly.

6. Start 3/8-inch mounting hardware in all six locations. Use a lock washer and a flat washer on each

bolt, with the lock washer adjacent to bolt head and the flat washer adjacent to rear panel hole. Do not

tighten any one bolt until all hardware has been started.

7. Torque all of the 3/8-inch mounting bolts to (TBD) pound-inches.

6.1.6 Install the Solar Shield Over the Cabinet

If not already, Solar Shield FM-008077 must be installed over the base station cabinet by attaching it to

the Heat Sink Assembly. This shield improves heat dissipation characteristics of the cabinet during

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daylight hours compared to an unshielded cabinet, and it helps to reduce build-up of foreign material on

the top of the cabinet. The Solar Shield is a part of Heat Sink & Solar Shield Pole Mount Kit option

MACS-NCK1G. Attach the shield to the cabinet in accordance with this procedure:

1. Position the Solar Shield directly above the Cell Site base station cabinet’s lifting handle so the

shield’s vent slots (on the top of the shield) are up/sky-facing, and its back with the tracked edges are

directly above the two vertical grooves in top-front edge of the Heat Sink Assembly.

2. Slide the Solar Shield’s tracked edges down through the respective vertical grooves in the Heat Sink

Assembly until the shield is all the down on the assembly.

6.2 MOUNTING THE SKYCHARGER CABINET

Mounting the SkyCharger cabinet includes attaching mounting brackets to the mounting surface (i.e.,

wooden pole, metal pole, flat surface), lifting the cabinet and attaching it to the brackets. For complete

installation details, refer to the SkyCharger installation manual (MM20963) included with this manual set.

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7. ELECTRICAL INSTALLATION

7.1 PROTECTIVE GROUND CONNECTIONS

All Cell Site base station related equipment must be grounded in accordance with the instructions

presented in the Site Grounding and Lightning Protection Guidelines Manual AE/LZT 123 4618/1

(included with this installation manual set). This includes all metal (electrically conductive) items

mounted to or in the near vicinity of the pole/mounting surface.

Pole-mount installations must employ at least two ¾-inch diameter 8- to 10-foot long copper-clad ground

rods near the base of the pole. These rods are driven into the ground to at or below grade-level, and the

top of one rod is considered the site’s common ground point. Bentonite can be used to improve the rod

grounding performance. Refer to the Site Grounding and Lightning Protection Guidelines Manual for

additional information.

To ground the site’s antenna(s), a single conductor of 2 AWG solid copper wire (minimum) or of

28 strands of 14 AWG copper wire (minimum) must be run up the pole to the base of the antenna(s). This

conductor must be installed inside PVC type conduit secured to the opposite side of the pole from other

conductors as much as possible to minimize the risk of flashover during a lightning strike. Make

connections to the antenna(s) in accordance with the instructions provided by the antenna’s manufacturer.

Primary ground conductors must be exothermically welded (e.g., using Cadweld® process or equivalent)

at the top of each ground rod. High-compression type connectors should not be used at the ground rods.

Ground the Cell Site base station, SkyCharger battery charger system, and other equipment using separate

ground conductors to the common ground point. These conductors must also be installed inside PVC type

conduit that is secured to the pole. Refer to the Site Grounding and Lightning Protection Guidelines

Manual for additional information.

The Cell Site base station cabinet has a stainless-steel 3/8-inch ground stud located at the bottom of the

cabinet, near the bottom of the Customer Interface Box. Secure a ground conductor to this ¾-inch-long

stud using a 3/8-inch 16-threads-per-inch (UNC) stainless-steel nut, a stainless-steel 3/8-inch flat washer

and a 3/8-inch lock washer.

For grounding instructions on the SkyCharger battery backup system, refer to the SkyCharger installation

manual (MM20963) included with this manual set.

7.2 POWER CONNECTIONS

CAUTION

To prevent damage to equipment, ensure power is not accidentally applied at this time.

Make sure all equipment circuit breakers are OFF. DO NOT apply power at this time!

Temporarily label all applicable circuit breakers accordingly to avoid accidental

turn-on!

Refer to the SkyCharger’s installation manual (MM20963) included with this manual set for general

instructions on making AC and DC power connections. DC power connections to the Cell Site base

station are accomplished at the +24-volt terminal block in the Customer Interface Box. The DC power

wires from the SkyCharger’s cabinet to the Cell Site cabinet must be routed inside conduit.

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7.3 ANTENNA CABLE CONNECTIONS

Antenna cable connections are made at the N-type RF connectors located on the bottom of the Cell Site

base station cabinet. For simplex antennas, two cable connections are required. For duplex antenna, only

one cable connection is required.

7.3.1 Simplex Antennas

If the site employs simplex antennas (separate transmit and receive antennas), follow this procedure to

make RF antenna cable connections to the base station. It is assumed both antennas and associated

antenna feedlines (i.e., coaxial cables) are already secured to the pole/tower, and they have been tested for

proper performance:

1. Determine which cable is the receive antenna cable and which cable is the transmit antenna cable.

Mark each cable accordingly. If the site has a Tower-Top Amplifier (TTA), the receive antenna cable

connects to it.

2. Verify the antenna system is properly grounded.

3. Cut each cable to the required length, leaving length for a 180-degree 8- to-10-inch diameter drip-

loop at the bottom of the cabinet. For best results when cutting the cable, use an Andrew EASIAX®

coaxial cable cutting tool (or equivalent). This tool will cut the cable properly for easy connector

attachment.

4. Install N-type male RF connectors onto each coaxial cable.

5. At the bottom of the cabinet, connect the receive antenna cable to the receive antenna port and

connect the transmit antenna cable to the transmit antenna port. Refer to Figure 3-2.

6. Using soft-jaw pliers, tighten both RF connectors securely.

7. Tie and stow the cables as necessary to prevent cable movement in strong winds.

7.3.2 Duplex Antenna

If the site employs a duplex antenna, follow this procedure to make the RF antenna cable connection to

the base station. It is assumed the antenna and the associated antenna feedline (i.e., coaxial cable) are

already secured to the pole/tower, and both have been tested for proper performance:

1. Verify the antenna system is properly grounded.

2. Cut the antenna cable to the required length, leaving length for a 180-degree 8- to-10-inch diameter

drip-loop at the bottom of the cabinet. For best results when cutting the cable, use an Andrew

EASIAX® coaxial cable cutting tool (or equivalent). This tool will cut the cable properly for easy

connector attachment.

3. Install N-type male RF connectors onto each coaxial cable.

4. Connect the antenna cable to the duplex antenna port at the bottom of the cabinet.

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5. Using soft-jaw pliers, tighten the RF connector securely.

6. Tie and stow the cable as necessary to prevent cable movement in strong winds.

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8. POWER-UP PROCEDURE

The following power-up procedure is recommended:

1. In the site’s main AC circuit breaker box, verify the AC circuit breaker for the SkyCharger

battery backup system is OFF and verify the respective DC load (output) circuit breaker is

OFF.

If the SkyCharger system is not employed at the site, verify the corresponding AC circuit

breaker for the site’s 24-volt DC power source/battery charger is OFF and verify the respective

DC load (output) circuit breaker is OFF.

2. Verify all mechanical and electrical installations are complete.

3. Verify all equipment is properly grounded.

4. Open the access door of the Cell Site base station’s Customer Interface Box and set both the

main DC circuit breaker (labeled BREAKER) and the DCX power switch (labeled DCX

POWER) to their OFF positions, if not already.

5. If the SkyCharger battery backup system is employed, perform all SkyCharger system AC power-up

and DC voltage checks in accordance with the instructions provided in the SkyCharger’s installation

manual (publication number MM20963). After completing these checks, leave its AC circuit breaker

and the DC load (output) circuit breaker that powers the Cell Site base station cabinet both ON .

If the SkyCharger system is not employed, perform site battery charger AC power-up and DC voltage

checks in accordance with the instructions provided with the vendor equipment. After completing

these checks, leave its AC circuit breaker and the DC load (output) circuit breaker that powers the

Cell Site base station cabinet both ON.

6. In the Cell Site base station’s Customer Interface Box, verify the DC supply voltage at the main

DC input terminal block is between 24.0 and 28.5 Vdc. (+ with respect to ground). The nominal

DC voltage level is 27.5 Vdc. Also verify correct polarity! Do not proceed until the DC voltage

and polarity are verified!

The TVS protection diodes on the Customer Interface Board’s DC input begin to conduct

at approximately 31.1 Vdc (+ with respect to ground). Therefore, exceeding this

approximate DC supply power input voltage potential will cause the main DC circuit

breaker to trip off if it is on. Reversed polarity connections (at any DC voltage) will also

cause the breaker to trip off.

7. In the Customer Interface Box, turn on the main DC circuit breaker (labeled BREAKER) while

observing the HPA’s power indicator (labeled POWER ON in the HPA section). The HPA in the

cabinet is “hot-wired” (i.e., its power is not switched on and off by the main DC power switch).

Therefore, this indicator will light when the HPA is powered-up, even when the DCX power switch is

off.

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8. In the Customer Interface Box, turn on the DCX power switch (labeled DCX POWER) while

observing the DCX’s power indicator (labeled POWER ON in the DCX section). This indicator will

light when the DCX is powered up.

9. In the Customer Interface Box, verify the DC supply voltage at the main DC input terminal block

remains 24.0 and 28.5 Vdc. (+ with respect to ground). The nominal DC voltage level is 27.5 Vdc. If

the DC supply voltage is not with this range, refer the battery backup system’s installation manual for

troubleshooting information.

10. Continue with the configuration procedures presented in the next section.

Several Light-Emitting Diode (LED) status indicators are located at the front panel of the Customer

Interface Box. Indicator operation is summarized in the following table:

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Table 8-1: LED Status Indicators at Customer Interface Box’s Front Panel

FRONT PANEL

DESIGNATION INDICATOR

COLOR INDICATOR OPERATION

DCX Section:

POWER ON Green This indicator lights to indicate the DCX is powered-up. The DCX

consists of the BSC and BSX assemblies.

SELF TEST Red This indicator blinks to indicate the DCX’s BSC is in a self test

mode. The BSC executes a self test just after it is powered-up or

reset.

RX DATA Green This indicator blinks to indicate the DCX’s BSC is receiving data

from the Ethernet or SLIP interface.

TX DATA Green This indicator blinks to indicate the DCX’s BSC is transmitting data

to the Ethernet or SLIP interface.

HPA Section:

POWER ON Green

This indicator lights to indicate DC operating power (24 volts

nominal) is applied to the Cell Site base station and the station’s

HPA is powered-up. Since the HPA is “hot-wired,” it remains

powered-up even when the DCX power switch on the front panel is

in the OFF position.

TX ON Red This indicator lights when the HPA is transmitting RF power to the

700 MHz antenna system.

RF DISABLED Amber This indicator lights to indicate the HPA transceiver has been

disabled. This is accomplished by placing the RF

ENABLE/DISABLE rocker switch in the RF DISABLE position.

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9. CONFIGURATION

9.1 GENERAL INFORMATION

Cell Site base station configuration is performed during final equipment tests at the factory in accordance

with the customer’s order. Most configurations are programmed into the BSC section of the Cell Site’s

DCX. These factory configurations include but are not limited to:

• Site ID number

• Site color

• Area color

• Channel ID number

• Wide Area Network (WAN) IP addresses

• RF operating frequencies (transmit and receive)

• Service Provider Network Identifier (SPNI) number

• Wide Area Service Identifiers (WASI) number

• Site adjacency data

Optional configurations programmed into the optional equipment include:

• Router parameters (if so equipped)

The Cell Site base station requires very little configuration in the field. Once the mechanical and electrical

installations are completed, the equipment is powered-up, and the site-to-site backhaul communication

link is established, configuration must be performed at the network level.

Each Cell Site base station in an OpenSky trunked radio network is assigned to a SkyMASTR base

station/tower site within the trunked radio network. The Cell Site base station gains network connectivity

via a site-to-site backhaul communication link between itself and the main station/tower site. This is

accomplished using IP-based protocols over either a T1/Fractional T1 (FT1) frame-relay landline link, or

a 56 kbps Digital Data Service (DDS) landline modem link. Therefore, the site-to-site backhaul

communication link must be operational before configuration can be performed.

9.2 CELL SITE ALARMS

9.2.1 AC/DC Power Source Alarms

The SkyCharger battery backup system is configured at the factory to generate alarms based upon any

one of the following conditions:

• Loss of AC input power

• Door open (or low battery voltage)

• Charger rectifier failure

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Alarm logic states are transferred from the SkyCharger cabinet to the Cell Site cabinet via the modular

cable that interconnects between terminal block TB3 in the SkyCharger cabinet and the ALARM modular

jack at the front panel of the Cell Site cabinet Customer Interface Box. Inside the Cell Site cabinet, these

alarm logic states are then passed to the BSC in the DCX for processing.

For remote alarm monitoring purposes, after processing by the BSC, the alarm states are transferred over

the IP-based network to the radio system’s Network Switching Center (NSC)4 and Centralized Network

Manager (CNM)5.

9.2.2 HPA Alarms

Cell Site base station HPA-related alarms are preset at the factory and require no configuration. These

alarms include:

• Loss of “heartbeat”

• Loss of Automatic Level Control (ALC)

• Low DC input voltage condition

• Over current condition (of HPA DC input power)

• Over temperature condition

Like the power source alarms, these alarms are processed by the BSC and then transferred over the

IP-based network to the radio system’s NSC and CNM for remote monitoring purposes.

9.2.3 Cabinet Door Alarm

The Cell Site base station’s cabinet door alarm disables the HPA from transmitting when the Customer

Interface Box’s door is open, activating the alarm. No field configuration is necessary.

4 The NSC was formerly referred to as the Regional Operation Center (ROC).

5 The CNM was formerly referred to as the Network Operations Center (NOC).

M/A-COM Wireless Systems

221 Jefferson Ridge Parkway

Lynchburg, Virginia 24501

(Outside USA, 434-385-2400) Toll Free 800-528-7711

HARRIS CS700 OpenSky 700 MHz CellStation User Manual Part 90

Harris Corporation OpenSky 700 MHz CellStation Part 90

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