This document contains confidential information, which is proprietary to DragonWave. No part of its
contents can be used, copied, disclosed, or conveyed to any party in any manner whatsoever without
prior written permission from DragonWave Inc.
• Volume 1 – Contains an overview of the product, basic configuration, installation and
alignment procedures that are sufficient to set up a link and have it passing traffic
• Volume 2 – includes more detailed information about the alignment process and step-bystep configuration details for the advanced configuration features listed in Volume 1
• Volume 3 – contains a complete list of the frequency tables associated with the radio
bands supported by the Horizon Compact
DragonWave’s Horizon Compact is a next-generation, high capacity, native Ethernet, microwave system
offering improved economics and simplified operations. Featuring zero-footprint, the radio and the modem
are integrated into one, single, compact, out-door-unit. Increased capacity (800Mbps); simplified
installation and operation; and improved troubleshooting mean lower lifecycle costs. This highly
integrated, carrier grade solution for Ethernet backhaul uses licensed or unlicensed spectrum.
Build your own network, easily and cost effectively. Connect fixed and mobile services to your network
fast. Extend the reach of your network for Ethernet services and add on the additional capacity as you
need it. Or, bring new Ethernet services to your high -capacity customers easily and cost effectively while
optimizing your investment in legacy technology and facilities.
High Capacity Native Ethernet Wireless Gigabit Ethernet
Designed as an Ethernet platform from the ground up, the DragonWave Horizon Compact meets the
critical needs demanded by carrier class customers delivering a wireless GigE/100bT connection of up to
800 Mbps full duplex over licensed or unlicensed frequency allocations. With a native Ethernet design
and ultra-low latency, the Horizon Compact is optimized for next generation services.
Fixed and Scalable Bandwidth Operations
The Horizon Compact is a flexible bandwidth radio platform designed specifically for customers with rapid
scalability requirements. The DragonWave Horizon Compact scales from 10 to 400 Mbps via a simple
software configuration. For higher bandwidth needs, two radios can be polarization multiplexed on a
single antenna using a Dual Polarity Radio Mount (DPRM) to provide up to 800 Mbps of capacity in a
single link.
Zero-Footprint Option
The Horizon Compact is a single, outdoor , compact, weatherproof unit requiring no indoor space and is
available with optical and electrical GigE interface options.
Enhanced Network Management
Horizon Compact fully supports remote management via in-band or out -of-band management , using
SNMP (v3, V2c or V1), CLI and Web GUI. Security is a critical feature with SSH, SSL, and Radius.
Improved Reach
Horizon Compact enables bandwidth extensions over extended distances by providing up to 98 dB
system gain in its standard power configuration , or up to 108dB in a high power configuration, both of
which can support antennas sized up to six feet. This feature combination enables link lengths beyond 50
km/30 mi. In addition, DragonWave’s dynamic modulation allows a link to be engineered to the highest
availability, while maximizing throughput in good weather conditions.
Network Protection
Using DragonWave’s Rapid Link Shutdown (RLS), Horizon Compact supports mesh and ring
configurations with ~50 ms switching time, enabling 99.999% available carrier class services.
6 -38 GHz Frequency Support High power variants
800 Mbps full duplex capacity 100ms Adaptive Modulation
Transparent Gigabit Ethernet solution 100ms Ring/Mesh Switching
Integrated RF Loopback “Zero-footprint”, hardened outdoor unit
2.1 Applications
2.1.1 WiMax
DragonWave offers a high-capacity, carrier-grade, integrated solution for Ethernet backhaul using
interference-free licensed spectrum. Horizon Compact enables rapid network expansion with remote
scalability from 10 Mbps to 800 Mbps. With Horizon Compact the radio and modem are integrated into a
single all-outdoor element attached directly to the antenna, allowing simple integration and eliminating
any impact on the WiMAX base station footprint. Management integration into the base station EMS
provides a single point of control for operations personal.
2.1.2 3G Cellular Backhaul / Ethernet Evolution
Meet the growing demand for increased capacity and data transport resulting from 3G cellular
deployments. Horizon Compact provides Cost-effective, low capacity TDM services for base stations
today. The DragonWave portfolio of products offers software controlled upgradeability to high-capacity
native Ethernet and TDM services with ultra-low latency to enable 3G evolution with the minimum of
network churn.
2.1.3 Leased Line Replacement
For many businesses, the only option for last mile access is the ILEC, provided on an aging copper
infrastructure with long MTTR. Horizon Compact can replace leased services and eliminate recurring and
expensive telecom Costs while at the same time improving service availability and enabling future growth
and options for services with a scalable Ethernet network.
2.1.4 Last Mile Fibre Extension
The greatest demand for broadband ser vices is within the core metro markets. Horizon Compact provides
a superior complementary networking solution to rapidly extend high speed IP services from locations
already attached to the service provider’s network. The DragonWave portfolio of products is ideal for
network hardening, disaster recovery and applications that require legacy TDM services and carriergrade, high capacity native Ethernet systems.
Horizon Compact is an integrated Ethernet modem and microwave radio transceiver, housed in a rugged
weatherproof housing. It is provided with two weatherproof connectors, Port 1 and Port 2. Port 1, copper
10/100/1000 Base-t, or optional optical interface, carries data and optional in-band management traffic.
Port 2, copper 10/100/1000 Base-t, carries optional out-of-band management traffic only. When Port 2 is
not in use, a weatherproo f protective cap is used to seal the port.
A BNC style connector, with protective cap, is provided for obtaining field strength readings during the
antenna alignment process. The output voltage is linear, giving 1 mV per dB values e.g. -30 mV = -30 dB.
It is also used for providing a radio muting signal in system redundancy applications.
A high power variant is available, which requires a sun shield to meet temperature specifications.
RED Power ON, FPGA not ready.
Slow RED Blink RF Transmitter OFF. Modem LOS
Steady GREEN/slow ORANGE blink RF Transmitter ON. Modem LOS.
Steady GREEN RF Transmitter ON. Modem OK.
Ethernet LED
Copper Mode
OFF No link detected on either Ethernet port.
Slow Red Blink Link detected on Out-of-band port (Port 2).
Steady Green Link detected on Data port (Port 1).
Fast Green Blink Link detected on both Out -of-band and Data ports.
OFF Transmit is disabled.
Steady Red Transmit is enabled and no link is detected on either Ethernet port.
Slow Red Blink Transmit is enabled and Link is detected on Out of band port (Port 2).
Steady Green Transmit is enabled and a link is detected on Data port (Port 1).
Fast Green Blink Transmit is enabled and link is detected on both Out of band and data ports.
Alarm LED
Steady Green No Alarms
Slow Red Blink Alarm ON
3.1 Cabling
Both copper and optical interface cabling is supported.
3.1.1 Copper Interface
Two, weatherproof, RJ-45 Ethernet connectors provide data and management connections to the unit
over CAT5E cabling. Ethernet cables must be wired for a straight through connection (see Section 4.0).
One connector (GigE – Port 1) is for data traffic and optional in-band management. Power (-36 to -60 V
DC) is provided by an optional mains power adaptor and supplied to the Horizon Compact using Power
on Ethernet (PonE) techniques , which incorporates both power and network transient suppression (See
Section 8.1). CAT5E cable length is restricted to 90 metres.
The second connector (Port 2) is solely for an optional out-of-band management connection, using an
overlay network. If Port 2 is not being used (e.g. in -band management being used), ensure that the
vacant connector is sealed by fitting a weatherproof cap.
3.1.2 Optical Interface
A weatherproof, military specification, multi-pin, connector is provided for Port 2, which includes the power
feed. Port 1 has a weatherproof optical fibre connector. Single mode and multimode fibre options are
available. As with the copper variant, Port 1 supports data traffic and optional in-band management and
Port 2 is for optional out-of-band management only.
In the optical variant, power (-36 to -60 V DC) is fed to Port 2 via a short ‘Y’ adapter cable, which also
includes a weatherproof, in-line, RJ-45 connector for connecting to the optional out-of-band management
overlay network. The power feed wires (see Table 3-2 for recommended gauge ) are spliced into the
adapter cable using weatherproof tap connectors. The power feed and Port 2 Ethernet cables (maximum
length 100 m) are fed through a Transtector surge arrestor unit designed to protect power and network
circuits from transients.
As an alternative, an existing AirPair ODU composite power and Ethernet cable assembly, which is
compatible with the Horizon Port 2 connector, may be used, provided that the RJ-45 connector (grey
CAT5) at the Transtector end is re-terminated to A T & T GigE standards. The same Transtector type
used in an AirPair ODU installation may also be used.
Table 3-2 Port 2 Power Cable Wire Gauge
These values are true for all radio variants and based on a minimum voltage of 35 V DC at the Horizon.
Distance from Power Supply to Horizon Unit 50 m 100 m 200 m 300 m
Minimum wire gauge required (AWG) 20 16 14 12
Note that the power wires in the AirPair ODU modem composite cable are 16 AWG, which supports the
maximum length (100 m) when out-of-band management is employed using the combined CAT5 cable.
7
3.2 Lightning Protection
The Horizon Compact is protected from cable transients and power surges caused by lightning, or other
sources, by means of internal surge arrestor components and external housing grounding points (See
Section 8.0). For the copper interface variant, protection of the connected network is provided by a
proprietary DragonWave PonE power integrator/surge suppressor unit, into which the Ethernet cables are
plugged. The power integrator/surge suppressor is located outside the network equipment enclosure,
close to the network switch/router connection point.
The optical variant requires the power feed and the Port 2 management connection (if used) to be
connected via a Transtector surge suppressor to protect power and network circuits.
3.3 Dual Polarity Radio Mount (DPRM)
The DPRM system allows two Horizon Compact units to be assembled to a single antenna. The antenna
used is no different to that used for a single unit. One Horizon Compact unit is mounted for horizontal
polarity and the other for vertical polarity. Both units can transmit and receive simultaneously. This allows
a link to carry up to 800 Mbps of Ethernet traffic. Although both units can operate on the same frequency
channels, with 30 dB isolation, it is recommended that different frequency channels be used for each unit.
For redundancy purposes, the PSRM allows two Horizon units to be mounted to a single antenna. Both
units must be or iented for the same polarity and only one unit can transmit/receive at any one time. The
PSRM looks similar to the DPRM shown in Figure 3-3, but has internal components that only allow one
unit to transmit/receive at a time.
Note that redundant systems do not have to use the PSRM. Each may be separately mounted to their
own antennas if desired. See Section 11.13 for more details.
The benefits of the PS RM are that only one antenna is required, reducing tower real estate requirements,
reducing weight and minimizing wind loading.
Disadvantages include a 4 dB loss in signal when operating on the primary systems at each end of the
link and an 8.5 dB loss in signal when a secondary radio is activated (one end running on Primary and
other end operating on secondary).
Various installation kits are available. Use the following key to build the desired kit part number:
Table 4- 1 lists all the current ordering configurations , for various parts of the world
Table 4-1 Parts Required
Part Number Kit Description
A -INK-HCN-AC-NA -R1 Horizon Compact, No connectors, AC Install Kit
A -INK-HCN-AD-NA -R1 Horizon Compact, No Connectors Half AC, Half DC Install Kit
A -INK-HCC-AC-NA -R1 Horizon Compact, Copper Connectors AC Install Kit , 4 Glands and 8 Connectors
A -INK-HCC-AD-NA -R1 Horizon Compact, Copper Connectors Half AC, Half DC Install Kit , 4 Glands and 8
A -INK-HCI-AC-NA -R1 Horizon Compact, Inband MGMT Copper Connectors AC Install Kit , 2 Glands and 4
A -INK-HCI-AD-NA -R1 Horizon Compact, Inband MGMT Copper Connectors Half AC, Half DC Install Kit , 2
A -INK-HCN-AC-EU-R1 Horizon Compact, No Connectors AC Install Kit
A -INK-HCN-AD-EU-R1 Horizon Compact, No Connectors Half AC, Half DC Install Kit
A -INK-HCC-AC-EU-R1 Horizon Compact, Copper Connectors AC Install Kit , 4 Glands and 8 Connectors
A -INK-HCC-AD-EU-R1 Horizon Compact, Copper Connectors Half AC, Half DC Install Kit , 4 Glands and 8
A -INK-HCI-AC-EU-R1 Horizon Compact, Inband MGMT Copper Connectors AC Install Kit, 2 Glands and 4
A -INK-HCI-AD-EU-R1 Horizon Compact, Inband MGMT Copper Connectors Half AC, Half DC Install Kit , 2
A -INK-HCN-DC-GL-R1 Horizon Compact, No Connectors DC Install Kit
A -INK-HCC-DC-GL-R1 Horizon Compact, Copper Connectors DC Install Kit , 4 Glands and 8 Connectors
A -INK-HCI-DC-GL-R1 Horizon Compact, Inband MGMT, Copper Connectors DC Install Kit, 2 Glands and 4
CODE DESCRIPTION
INK Installation Kit
R1 Horizon Compact Release 1
CONNECTOR OPTIONS
HCN No Connectors or Cables
HCC Copper Connectors, Out -of-Band Mgmt
HCI Copper Connectors, In-band Mgmt
HCM
HCF Optical Fibre Interface
POWER OPTIONS
AC Alternating Current
DC Direct Current
AD ½AC ½DC
A hoisting lug is shipped with each Horizon Compact (two per link). Th is can be bolted onto the horizon
with the supplied bolt, using any of the available threaded holes, and used for attaching a line for hoisting
or carrying the unit into position on a tower or pole. Figure 4-2 shows how the lug is attached.
4.2 Ethernet Cabling from Horizon to Ethernet Switch
For the copper interface, data cabling from the Horizon unit to the Ethernet switch consists of outdoor
rated, shielded, Cat5E cables equivalent to Belden 7919A. The shielded cables require shielded RJ-45
connectors. Use of standard indoor unshielded RJ-45 connectors may result in poorly constructed
cables, intermittent connections and data loss.
If Port 2 is not being used, ensure that a protective weatherproof cap is fitted to the port receptacle.
The cables terminate in a Horizon Power on Ethernet (PonE) unit located outside of the building entry
point.
Note: Straight through Ethernet cables must be used between the PonE adapter and the Horizon.
The use of a cross -over type will result in damage to the Horizon Compact unit.
The PonE unit contains surge arrestors and must be grounded according to local or regional Electrical
Codes. Ethernet cables are connected between the PonE unit and the Ethernet switch or router.
Power for the PonE unit is supplied by 2-wire 16 AWG electrical wiring, carrying 48 vDC (-48 v or +48v)
with a maximum current draw of 2 amperes.
for PonE 6 AWG
Grounding Cable
cable IN from LAN
With surge Arrestors
Belden 7919A,
or equivalent
Figure 4-3 PonE and RJ -45 Connections for Horizon
Weatherproof RJ-45 connector shells are used for connecting the CAT5E cable, leading from the poweron- Ethernet power supply and network connections, to the Horizon Compact. Cables and connectors may
be purchased from DragonWave or may be constructed or supplied by the customer.
Two different styles of connector have been used in production. For Horizon serial numbers ending in
“999” or less, an RJ45 “snap in” type in-line housing is used. For serial numbers ending in “1000” or
higher a “push fit” style is used. Both styles are no t compatible and do not mate with the respective
female connector on the horizon chassis.
4.3.1 “Snap fit” style
The connector shell must be assembled in a specific manner for it to correctly connect to the Horizon
Compact unit. The CAT5E cable is terminated as a straight through connection with a shielded RJ-45
connector. This RJ-45 connector has to be assembled into the weatherproof connector shell oriented as
shown in Figure 4-4.
(male)
gasket into
barrel
Figure 4-4 RJ-45 Cable connector “Snap fit” Style
keyway relative to the
Using a cross-over connection
will damage the Horizon
Compact. Only use straight
through cable connections.
This connector relies on a gland nut to hold the assembly firmly together. The CAT5E cable is threaded
through all the components of the connector housing (see Figure 4-5) before the cable is terminated as a
straight through connection with a shielded RJ-45 connector. Once terminated, the RJ-45 connector
slides back into the connec tor housing which accepts the tab on the RJ-45 connector. Screw the ferrule
into the connector housing as far as it will go, ensuring that the ‘O’ ring creates a tight seal with the
connector housing. Slide the compression seal into the ferrule, noting that the keyways have to mate with
channels in the ferrule. While ensuring that the RJ-45 connector is firmly seated in the connector housing,
tighten up the gland nut to secure the complete connector assembly.
Compression Seal
Ferrule with ‘O’ ring seal
Securing ring
back into
housing
Connector housing
connector
into housing
nut to secure assembly
Figure 4-5 RJ-45 Cable connector “Push fit” Style
Using a cross-over connection
will damage the Horizon
Compact. Only use straight
through cable connections.
Before an active management session can be started on the Horizon Compact, power needs to be
provided to the unit. Read this section completely before applying power to the Horizon Compact.
5.1 Copper Interface
The Horizon Compact with copper interface receives its power over the Ethernet connection to Port 1
using a DragonWave proprietary technique. To integrat e the power onto the Ethernet cable requires the
use of the DragonWave Power on Ethernet (PonE) adapter. The DragonWave PonE adapter also
includes transient and surge suppression components to protect the power supply and network from
lightning induced surges and transients.
Note: The Horizon PonE implementation is proprietary and does not follow IEEE standards.
CAUTION
Only use a straight-through Ethernet cable to connect the Horizon to the PonE/surge unit.
Do not use a cross-over Ethernet cable otherwise damage to the Horizon will result.
PonE/Surge Unit
12
Figure 5-1 Connecting Power to the Horizon Compact – copper interface
CAUTION Connect the Horizon Compact unit to the PonE adapter correctly BEFORE turning on
power.
1. Connect Port 1 of the Horizon Compact to the correct socket on the PonE adapter using a
straight through Ethernet cable (see caution above).
2. Connect the Ethernet port on the PC to the network input socket on the PonE/surge unit, using a
straight through Ethernet cable.
Ensure that you have connected the PC and Horizon to the correct RJ-45 sockets on the PonE/surge unit
(see diagram above).
3. Once the PC and Horizon Compact are connected to the PonE/surge unit, you may connect
power to the PonE/surge unit. This will supply power to the Horizon Compact unit.
CAUTION Do not connect a PC or other network device (e.g. network switch) to the right hand RJ45 sockets on the PonE adapter. -48 V DC is present on these connectors which may destroy the
connected device. Connect only a Horizon Compact unit to the right hand RJ-45 connectors.
In the copper interface version, power is fed to the Horizon using PonE techniques via the Ethernet
connection to Port 1. In the optical version, this is not possible, so power is fed via the connection to Port
2. Port 2 on the optical interface variant is equipped with a weatherproof MIL style multi-pin connector,
which incorporates an Ethernet connection and a power feed (NOT PonE) connection. Connection to Port
2 is achieved using a short ‘Y’ adaptor cable, having an RJ-45 connector on one leg, and power tails on
the other. The Ethernet connection to Port 2 provides for optional out-of-band management and the
power tails allow a power feed to be spliced into circuit. Note that the Ethernet connection and power feed
to Port 2 must be fed via a Transtector unit to protect the network and power systems from transients.
As an alternative, an existing AirPair ODU composite power and Ethernet cable assembly, which is
compatible with the Horizon Port 2 connector, may be used, provided that the RJ-45 connector (grey
CAT5) at the Transtector end is terminated as shown in Figure 5-3. The same Transtector type used in an
AirPair ODU install ation may also be used.
Figure 5-2 Connecting Power to the Horizon Compact – optical interface