This document is protected by copyright belonging to 4RF Communications Ltd and may not be
reproduced or republished in whole or part in any form without the prior written permission of 4RF
Communications Ltd.
Trademarks
The 4RF, Aprisa, Aprisa XE, SuperVisor and Surveyor names and logotypes are trademarks or
registered trademarks of 4RF Communications Ltd.
Windows is a registered trademark of Microsoft Corporation in the United States and other countries.
Java and all Java-related trademarks are trademarks or registered trademarks of Sun Microsystems,
Inc. in the United States and other countries. All other marks are the property of their respective
owners.
Although every precaution has been taken preparing this information, 4RF Communications Ltd
assumes no liability for errors and omissions, or any damages resulting from use of this information.
This document or the equipment may change, without notice, in the interests of improving the product.
RoHS and WEEE compliance
The Aprisa XE is fully compliant with the European Commission’s RoHS (Restriction of Certain
Hazardous Substances in Electrical and Electronic Equipment) and WEEE (Waste Electrical and
Electronic Equipment) environmental directives.
Restriction of hazardous substances (RoHS)
The RoHS Directive prohibits the sale in the European Union of electronic equipment containing these
hazardous substances: lead*, cadmium, mercury, hexavalent chromium, polybrominated biphenyls
(PBBs), and polybrominated diphenyl ethers (PBDEs).
4RF Communications has worked with its component suppliers to ensure compliance with the RoHS
Directive which came into effect on the 1
*The European Commission Technical Adaptation Committee (TAC) has exempted lead in solder for
high-reliability applications for which viable lead-free alternatives have not yet been identified. The
exemption covers communications network infrastructure equipment, which includes 4RF
Communications’ Aprisa XE microwave radios.
End-of-life recycling programme (WEEE)
The WEEE Directive concerns the recovery, reuse, and recycling of electronic and electrical
equipment. Under the Directive, used equipment must be marked, collected separately, and disposed
of properly.
st
July 2006.
4RF Communications has instigated a programme to manage the reuse, recycling, and recovery of
waste in an environmentally safe manner using processes that comply with the WEEE Directive (EU
Waste Electrical and Electronic Equipment 2002/96/EC).
4RF Communications invites questions from customers and partners on its environmental
programmes and compliance with the European Commission’s Directives (sales@4RF.com).
Compliance ETSI
The terminal is designed to comply with the European Telecommunications Standards Institute (ETSI)
specifications as follows:
Radio performance EN 302 217 Parts 1, 2.1, and 2.2
EMC EN 301 489 Parts 1 & 4
Environmental EN 300 019, Class 3.2
Safety EN 60950
A terminal operating in the following frequency bands / channel sizes has been tested
and is compliant to the ETSI radio specifications and suitably displays the CE logo.
Other bands are compliant to the same radio performance specifications as adapted by
4RF and therefore may be used in regions where compliance requirements demand
CE performance at other frequencies.
The terminal is designed to comply with the Federal Communications Commission (FCC)
specifications as follows:
Radio performance / EMC
(dependant on variant)
47CFR part 90 Private Land Mobile Radio Services
47CFR part 101 Fixed Microwave Services
47CFR part 15 Radio Frequency Devices
Safety EN 60950
Available in 1Q 2007
Frequency band Channel size Power input FCC ID
400 MHz 25 kHz 48 VDC
900 MHz 100 kHz 48 VDC
900 MHz 200 kHz 48 VDC Verified part
101
Informal declaration of conformity
Dansk
Deutsch
Dutch
English
Español
Σλληνας
Français
Italiano
Português
Suomalainen
Svensk
Undertegnede 4RF Communications Ltd erklærer herved, at følgende udstyr
Aprisa™ Radio overholder de væsentlige krav og øvrige relevante krav i
direktiv 1999/5/EF.
Hiermit erklärt 4RF Communications Ltd, dass sich dieses Aprisa™ Radio in
Übereinstimmung mit den grundlegenden Anforderungen und den anderen
relevanten Vorschriften der Richtlinie 1999/5/EG befindet. (BMWi)
Hierbij verklaart 4RF Communications Ltd dat het toestel Aprisa™ Radio in
overeenstemming is met de essentiële eisen en de andere relevante
bepalingen van richtlijn 1999/5/EG.
Hereby, 4RF Communications Ltd, declares that this Aprisa™ Radio equipment
is in compliance with the essential requirements and other relevant provisions
of Directive 1999/5/EC.
Por medio de la presente 4RF Communications Ltd declara que el Aprisa™
Radio cumple con los requisitos esenciales y cualesquiera otras disposiciones
aplicables o exigibles de la Directiva 1999/5/CE.
Par la présente 4RF Communications Ltd déclare que l'appareil Aprisa Radio
est conformé aux exigences essentielles et aux autres dispositions pertinentes
de la directive 1999/5/CE.
Con la presente 4RF Communications Ltd dichiara che questo Aprisa™ Radio
è conforme ai requisiti essenziali ed alle altre disposizioni pertinenti stabilite
dalla direttiva 1999/5/CE.
4RF Communications Ltd declara que este Aprisa™ Radio está conforme com
os requisitos essenciais e outras provisões da Directiva 1999/5/CE.
4RF Communications Ltd vakuuttaa täten että Aprisa™ Radio tyyppinen laite
on direktiivin 1999/5/EY oleellisten vaatimusten ja sitä koskevien direktiivin
muiden ehtojen mukainen.
Härmed intygar 4RF Communications Ltd att denna Aprisa™ Radio står I
överensstämmelse med de väsentliga egenskapskrav och övriga relevanta
bestämmelser som framgår av direktiv 1999/5/EG.
A formal Declaration of Conformity document is shipped with each Aprisa XE terminal.
Contents | v
Contents
1. Getting started ................................................................................................11
21. Acknowledgments and licensing ................................................................259
22. Commissioning Forms .................................................................................265
23. Index ..............................................................................................................267
1. Getting started
This section is an overview of the steps required to commission a link in the field.
Phase 1: Pre-installation
Getting started | 11
1. Confirm path planning. Page
2. Ensure that the site preparation is complete:
Power requirements
Tower requirements
Environmental considerations, for example, temperature control
Rack space
3. Confirm the interface card configuration.
Phase 2: Installing the terminals
1. Before installing the terminal into the rack, check that all the required
interface cards are fitted.
Position and mount the terminal in the rack. Page
2. Connect earthing to the terminal. Page
3. Confirm that the:
Page
19
22
29
24
Antenna is mounted and visually aligned.
Feeder cable is connected to the antenna.
Feeder connections are tightened to recommended level.
Tower earthing is complete.
4. Install lightning protection. Page
5. Connect the coaxial jumper cable between the lightning protection and the
terminal duplexer.
6. Connect the power supply to the terminal and apply power. Page
24
31
Phase 3: Establishing the link
Getting started | 12
1. If you don't know the terminal's IP address :
Connect the setup cable between the terminal's Setup port and the PC
using accessory kit adaptor.
Use HyperTerminal to confirm the IP settings for the terminal:
Local IP address
Local subnet mask
Remote terminal IP address
Reboot the terminal
2. Connect the Ethernet cable between the terminal's 4-port Ethernet switch
and the PC.
3. Confirm that the PC IP settings are correct for the 4-port Ethernet switch:
IP address
subnet mask
4. Confirm that Java is installed on the PC. Page
5. Start the web browser, and log into the terminal. Page
Page
Page
52
44
43
54
6. Set or confirm the RF characteristics:
TX and RX frequencies
Modulation type
TX output power
7. Compare the actual RSSI to the expected RSSI value (from your path
planning).
8. Fine-align the antennas. Page
9. Confirm that the terminal clock sources are set correctly. Page
10. Confirm that the TX and RX LEDs are green. Disregard the OK LED
status for now.
Page
61
167
63
Phase 4: Configuring the traffic
1. Confirm that the interface hardware and software slot configurations
match.
Getting started | 13
2. Confirm the interface card settings. Page
3. Open the Cross Connections application and configure the cross
connections:
Download the configuration.
Confirm or modify the traffic cross connections.
Save the configuration to the terminal.
Activate the configuration.
4. Save the configuration to disk and close the Cross Connections
application.
5. Connect the connection of interface cables.
6. Confirm or adjust the terminal clocking for network synchronization, if
required.
7. Test that the traffic is passing over the link as configured.
8. Confirm or configure the external alarm settings in SuperVisor. Page
9. Setup an external alarm connection cable, if required.
12. Complete the commissioning form (at the back of the manual) and file. Page
199
265
Introduction | 15
2. Introduction
About this manual
What it covers
This user manual describes how to install and configure Aprisa XE™ fixed point-to-point digital radio
links.
It specifically documents an Aprisa XE terminal running system software version 7.3.1.
It is recommended that you read the relevant sections of this manual before installing or operating the
terminal.
Who should read it
This manual has been written for professional field technicians and engineers who have an
appropriate level of education and experience.
Contact us
If you experience any difficulty installing or using Aprisa XE after reading this manual, please contact
Customer Support or your local 4RF representative.
Our area representative contact details are available from our website:
The latest version of the terminal software (see "Terminal upgrades” on page 176)
The Cross Connections application - required if you want to use the Cross Connections
application offline (see "
Java VM - Java plug-in needed to run the Supervisor software.
Web browsers - Mozilla Firefox and Internet Explorer are included for your convenience.
Adobe™ Acrobat® Reader® which you need to view the PDF files on the Aprisa CD.
Documentation
User manual — an electronic (PDF) version for you to view online or print.
Product collateral — application overviews, product description, case studies, and white
papers.
Installing Cross Connections application" on page 122).
Introduction | 16
Tools
Surveyor - a path propagation calculator developed by 4RF (see "Path planning" on page 19).
Accessory kit
The accessory kit contains the following items:
Setup cable (RJ-45) and adaptor
Mounting brackets and screws
Introduction | 17
Hardware kit
(includes Allen key for fascia
screws)
Alarm cable (RJ-45)
Ground cable
DC power cable
(for use with the -48 VDC and -24
VDC power supplies)
Introduction | 18
AC power cable
(for use with the 110 / 230 VAC
power supply)
Preparation | 19
3. Preparation
Path planning
Proper path planning is essential. When considering the components of your radio system, think
about:
antenna selection and siting
coaxial cable selection
link budget
You can also use Surveyor to help you with path feasibility planning.
Surveyor is a path propagation calculator developed by 4RF to assist path planners quickly and
efficiently verify the viability of point-to-point transmission links deploying the Aprisa™ microwave radio
systems.
The software program calculates the anticipated link performance for the transmission system
elements you have selected. However, it is not a substitute for in-depth path planning.
You will find Surveyor a valuable addition to your planning toolbox.
A copy of Surveyor is provided on the Aprisa CD supplied with this manual. You can download
updates from
www.4rf.com.
Antenna selection and siting
Selecting and siting antennas are important considerations in your system design.
There are three main types of directional antenna that are commonly used with the radios parabolic
grid, Yagi and corner reflector antennas.
The antenna that should be used for a particular situation is determined primarily by the frequency of
operation and the gain required to establish a reliable link.
Parabolic grid antennas
Factor Explanation
Frequency Often used in 1350-2700 MHz bands
Gain Varies with size (17 dBi to 30 dBi
typical)
Wind loading Can be significant
Tower aperture required Can be significant
Size Range from 0.6 m to 3 m diameter
Front to back ratio Good
Cost High
Yagi antennas
Preparation | 20
Factor Explanation
Frequency Often used in 330-960 MHz bands
Gain Varies with size (typically 11 dBi to 16
dBi)
Stackable gain increase 2 Yagi antennas (+ 2.8 dB)
4 Yagi antennas (+ 5.6 dB)
Wind loading Less than a parabolic grid antenna
Tower aperture required Unstacked: Less than a parabolic grid
antenna
Stacked: about the same as a
Size Range from 0.6 m to 3 m in length
Front to back ratio Low
Cost Low
parabolic grid antenna
It is possible to increase the gain of a Yagi antenna installation by placing two or more of them in a
stack. The relative position of the antennas is critical.
Example of stacked antennas
Corner reflector antennas
Factor Explanation
Frequency Often used in 330-960 MHz bands
Gain Typically 10 dBd
Wind loading Less than a parabolic grid antenna
Tower aperture required About the same as a parabolic grid
Size Range from 0.36 m to 0.75 m in length
Front to back ratio High (typically 30 dB)
Beamwidth Broad (up to 60°)
Cost Medium
Antenna siting
Preparation | 21
antenna
When siting antennas, consider the following points:
A site with a clear line of sight to the remote terminal is needed. Pay particular attention to trees,
buildings, and other obstructions close to the antenna site.
Example of a clear line-of-sight path
Any large flat areas that reflect RF energy along the link path, for instance, water, could cause
multi-path fading. If the link path crosses a feature that is likely to cause RF reflections, shield the
antenna from the reflected signals by positioning it on the far side of the roof of the equipment
shelter or other structure.
Example of a mid-path reflection path
The antenna site should be as far as possible from other potential sources of RF interference such
as electrical equipment, power lines and roads.
The antenna site should be as close as possible to the equipment shelter.
Note: Wide angle and zoom photographs taken at the proposed antenna location (looking down the
proposed path), can be useful when considering the best mounting positions.
Preparation | 22
Coaxial feeder cables
To ensure maximum performance, it is recommended that you use good quality low-loss coaxial cable
for all feeder runs. For installations requiring long antenna cable runs, use Andrew Heliax™ or
equivalent.
When using large diameter feeders, use a short flexible jumper cable between the feeder and the
terminal to reduce stress on the antenna port connector.
All coaxial cable has loss, that is, the RF energy traveling through it is attenuated. Generally speaking,
the larger the diameter of the cable, the less the loss. When selecting a coaxial cable consider the
following:
Factor Effect
Attenuation Short cables and larger diameter cables have less attenuation
Cost Smaller diameter cables are cheaper
Ease of installation Easier with smaller diameter cables or short cables
When running cables:
Run coaxial cable from the installation to the antenna, ensuring you leave enough extra cable at
each end to allow drip loops to be formed.
For 19-inch rack mount installations, cables may be run from the front of the rack directly onto the
antenna port. They may also be run through the back of the rack to the front.
Terminate and earth or ground the cables in accordance with the manufacturers' instructions.
Bond the outer conductor of the coaxial feeder cables to the base of the tower mast.
Link budget
All of the above factors (and many others not mentioned) combine in any proposed installation to
create a link budget. The link budget predicts how well the radio link will perform after it is installed.
Use the outputs of the link budget during commissioning testing to confirm the link has been installed
correctly, and that it will provide reliable service.
Preparation | 23
Site requirements
Power supply
Ensure that the correct power supply is available for powering the terminal.
The nominal input voltage for a terminal is 12, 24 or 48 volts DC or 115 / 230 volts AC rms.
The DC supply voltage is factory preset at time of order and cannot be adjusted in the field.
The terminal voltage is indicated on the chassis label by the DC input connector and on the
specification label fitted to the terminal.
Warning:
Before connecting power, ground the chassis using the safety earth terminal on the
front panel.
Equipment cooling
Mount the terminal so that air can flow through it. Do not obstruct the free flow of air around the
terminal. The two internal, speed-controlled fans fitted into the chassis provide sufficient cooling.
The fans are microprocessor-controlled to run at the minimum speed required to keep the terminal
below a preset temperature. They are constantly monitored and an alarm is raised under failure
conditions.
The environmental operating conditions are as follows:
Operating temperature -10°C to +50°C
Storage temperature -20°C to +70°C
Humidity Maximum 95% non-condensing
Altitude Up to 5000 metres
Preparation | 24
Earthing and lightning protection
Warning:
Lightning can easily damage electronic equipment.
To avoid this risk, install primary lightning protection devices on any interfaces that are
reticulated in the local cable network.
You should also install a coaxial surge suppressor on the antenna port of the duplexer
Earth the antenna tower, feeders and lightning protection devices in accordance with the appropriate
local and national standards. The diagram below shows the minimum requirements.
Use grounding kits as specified or supplied by the coaxial cable manufacturer to properly ground or
bond the cable outer.
About the terminal | 25
4. About the terminal
Introduction
The terminals operate in a number of frequency bands from 300 MHz up to 2.7 GHz carrying ethernet,
voice and data traffic over distances up to 100 kilometres.
They are designed to meet the demands of a wide range of low to medium capacity access and
backhaul applications.
The digital access terminal is a compact, powerful point-to-point linking solution with up to 64 Mbit/s of
radio link capacity, and customer-configurable interface options integrated within the radio platform.
About the terminal | 26
Modules
The terminal is modular in design, which helps reduce mean time to repair (MTTR). It is designed for
19-inch rack mounting and is only 2U high for standard configurations.
The five main modules housed inside the chassis are the transceiver, modem, motherboard, power
supply, and duplexer. Interface cards are fitted into the eight interface slots on the motherboard.
Modules are interconnected via several buses on the motherboard. A duplexer can be mounted inside
or outside the chassis.
The interrelationships between the components are shown below:
Front panel connections and indicators
All connections to the terminal are made on the front panel of the terminal.
No. Label Description
About the terminal | 27
1 AC or DC power input DC and AC power supplies are available (AC is shown)
2 Safety earth stud An M5 stud for connection to an external protection ground for
protection against electric shock in case of a fault.
3 Antenna connector N-type 50 female connector for connection of antenna feeder
cable.
4 Interface slots A to H Eight interface slots on the motherboard to fit interface cards.
5 ETHERNET Integrated four-port layer 2 switch.
6 SETUP RJ-45 serial connection to PC for initial configuration.
7 ALARM RJ-45 connector for two external alarm input and four external
alarm output connections.
8 LED indicators
OK Indicates normal operation and minor and major alarm
conditions.
RX Indicates status of receive path including normal operation and
alarms such as BER, RSSI and loss of synchronization.
TX Indicates status of transmit path including normal operation and
alarms such as forward / reverse power and temperature.
ON Blue LED indicates that there is power to the terminal.
9 RSSI RSSI test point suitable for 2 mm diameter multimeter test lead
pin.
About the terminal | 28
Interface card types
Each terminal has eight interface slots labeled A to H. Each slot can be fitted with any interface card
type. Typically, the terminal is delivered pre-configured with the requested interface cards.
The following interface card types are currently available:
Name Interface card type Function
QJET Quad E1/T1 interface card Four E1 / T1 interfaces (Framed or Unframed).
A single high speed serial data channel configured
as synchronous V.24, V.35, X.21, V.36 / RS 449,
or EIA/TIA 530.
Four asynchronous V.24/RS232 data channels.
Mounting and installing the terminal | 29
5. Mounting and installing the terminal
This section covers installing the hardware associated with the terminal. Before you begin a terminal
installation, read this section thoroughly.
Warning:
You must comply with the safety precautions in this manual or on the product
itself. 4RF does not assume any liability for failure to comply with these
precautions.
Required tools
No special tools are needed to install the terminal other than those required to physically mount the
terminal into the rack.
Installing the terminal
The terminal is designed for 19-inch rack mounting and is supplied with rack mounting brackets. The
rack brackets can be front, mid, or rear mounted (as shown below) to suit individual installation
requirements. Once the rack brackets are attached, carefully lift the terminal into position in the rack,
and fasten with screws and washers.
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