PUBLIC SAFETY & 2-WAY RADIO DISTRIBUTED ANTENNA SYSTEMS



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PUBLIC SAFETY & 2-WAY RADIO DISTRIBUTED ANTENNA SYSTEMS FOR POLICE, FIRE, EMERGENCY SERVICES, HOMELAND SECURITY, MAINTENANCE, MILITARY AND MASS-TRANSIT OPERATIONS WHEN COMMUNICATIONS COUNT... COUNT ON FIBER-SPAN!

Contents About Fiber-Span 3 Overview 4 Applications 6 Product Descriptions 8 Product Deployment Guide 11 Product Listing 12 Cover Photo: Fiber-Span equipment solutions partner for a VHF Distributed Antenna System (DAS) designed to establish seamless in-building coverage of the U.S. Capitol Complex. 2 3434 Rt. 22W, Suite 140 Branchburg, New Jersey 08876 (908) 253.9080 www.fiber-span.com techinfo@fiber-span.com

About Fiber-Span Fiber-Span Inc. is a premier provider of advanced RF On Fiber technologies and solutions for fiber optic based transmission of radio-frequency wireless signals for multi-service Distributed Antenna Systems, otherwise known as DAS. The company started over twenty years ago designing and developing the most advanced, ultra-wide dynamic range fiber optic convertors which are at the heart of a high-performance Distributed Antenna System. As experts in the use of fiber optics in wireless networks, the company s engineering staff has been called upon to design and create the most critical communications infrastructure in the U.S., Europe, Asia and the Middle East. Fiber-Span s patented RF On Fiber Optic technology assures clear, clean and distortion-free transmission and distribution of critical communication information: wireless voice, data and video. Fiber-Span s products have been used worldwide for over two decades, improving critical communications in systems for government, transit, commercial enterprises, educational and sports facilities, as well as the military. Over the years Fiber-Span has delivered groundbreaking technologies and deployments. In 2013 Fiber-Span designed and delivered the critial elements for the largest in-building DAS network in the world in Washington, DC, and was called upon to guide the optimization of this behemoth network. Prior to that, Fiber-Span delivered the largest deployment of distributed antenna technology to the US Defense Department. Add to that hundreds more conventional, but no less important installations of systems to improve human communications and safety. And the story has just begun. The demand for wireless coverage is fundamental and growing inexorably. Even as you read this, Fiber-Span is developing the next-generation technology that will revolutionize the industry and give users what they really need: trouble free, clear, crisp, ubiquitous communications, for home, work and safety. Call us today. More information about Fiber-Span products is available from the contact info listed below. 3 3434 Rt. 22W, Suite 140 Branchburg, New Jersey 08876 (908) 253.9080

Overview System Description The generic system block diagram below illustrates the typical connectivity between the various building blocks. Note that there is a coaxial (cable) connection between HRU (Fiber-Span s BDA), BSU and the FTU. Headend Equipment DAS Headend Repeater Unit (HRU) Remote Repeater Unit #1 (RRU) Repeater Off-air configuration Direct-feed Configuration Base Station Interface Unit (BSU) Fiber Transceiver Unit (FTU) SM Fiber Cable Remote Repeater Unit #n (RRU) DAS Fiber-Fed DAS Distribution Configuration The goal of the DAS is to faithfully deliver a donor signal received either off-air via antenna, or via direct feed from a donor Base/Repeater Station, to the radio users in the DAS target coverage area. A similar requirement also holds true in the uplink direction. For simple systems, off-air signal pickup is typically less costly than a direct feed, but is also subject to any donor signal quality variation due to interference, and fading. For more complex systems, this cost scenario is quickly reversed, and in extreme RF signal environments, a direct feed may be mandated. In other cases, the use of channelized Headend Repeater Units (HRU) may be required to help maintain the desired off-air RF signal quality in the presence of a cluttered frequency spectrum. The FTU accepts the downlink RF signal and converts it to light for delivery via singlemode fiber to one or more RRUs selected according to the DAS coverage requirements. The antenna network itself is designed to provide the required received signal level throughout the target coverage area. In the uplink direction, the RF signal received from portable radios within the DAS coverage area are amplified by the RRU and converted to light. These optical signals are received in turn by the FTU at the Headend, converting them back to RF for amplification by the HRU (and/or conditioning by the BSU), and ultimate delivery to the donor signal source. 4 3434 Rt. 22W, Suite 140 Branchburg, New Jersey 08876 (908) 253.9080

System Architecture & Product Family CRRU DL UL FTU CRRU RRU DL DL HRU UL BSU UL BTS GPS RRU DL IHU UL FTU RRU RRU HRU - Headend Repeater Unit IHU - Integrated Headend Repeater Unit BSU - Base Station Interface Unit FTU - Fiber Transceiver Unit RRU - Remote Repeater Unit CRRU - Compact Remote Repeater Unit BTS - Base Transceiver System GPS - Global Positioning System 5 3434 Rt. 22W, Suite 140 Branchburg, New Jersey 08876 (908) 253.9080

Applications The diagram below depicts a simplified distribution network within a building and between buildings in a campus environment. For the sake of simplicity, the signal flow in the below-illustrated system will focus primarily on the Headend-to-Remote (downlink) signal direction. Off-Air Donor Signal Pickup Antenna Secondary Headend Primary Headend connected to in-building DAS as well as via fiber to Secondary Headends Remote Repeater (RRU), fiber-fed from Secondary Headend and coax-cable connected to in-building DAS Generic Campus-wide Fiber-fed Coverage Extension System A shown above, the donor signal is received at the roof-top by an off-air pickup antenna. This signal is fed to the Primary Headend for redistribution - locally (within the same building), as well as to all other (Secondary) Headends via optical fiber links. Each Secondary Headend feeds all Remote Repeater Units (RRU) associated with the same building. Several RRUs are installed in each building, and the output of each of these is connected to the respective in-building DAS. See also the System Architecture & Product Family block diagram. HEADEND CONSIDERATIONS In general, two options exist at the Headend (also known as the donor location). The owner, or Agency having jurisdiction, often provides a base station for direct connection to the DAS. As in cellular networks, this provides additional capacity and avoids potential interference and overloading of an outdoor macro network. The direct feed also requires a Base Station Interface Unit (BSU). The BSU directly handles the high RF output power of the Base Radio and splits and combines the signals in both directions for interfacing with the Fiber Transceiver Unit (FTU). In cases where the Base Station also provides local radio coverage via a macro antenna, then a RF tap is required to extract a small amount of signal to drive the FTU. 6 3434 Rt. 22W, Suite 140 Branchburg, New Jersey 08876 (908) 253.9080

In an off-air scenario, the Headend Repeater Unit (HRU) provides the additional functions for an outdoor antenna port, low-noise receiver, and high-power transmitter. This donor antenna is pointed at a remote Base station transmitter/receiver. The HRU provides the proper filtering to maintain signal integrity - both uplink and downlink. Current Public Agency requirements demand the highest level of filtering to assure the integrity of their First Responder radio communications - a task perfectly suited to Fiber-Span s Headend Channelized BDA. This unit uses advanced Digital Signal Processing to distortion free filtering of individual radio channels rather than wide filtering which simultaneously passes multiple radio channels. Wide filtering, or broadband filters, can pass intermodulation spurs and other interference. A Channelized DSP filter will eliminate all out-of-band interference and mitigate intermodulation distortion which can otherwise hamper radio communications. The above Headend equipment is then interfaced with the FTU. The FTU converts the radio frequency signal to an optical signal in both directions, uplink (from handset to base station) and downlink (from basestation to handset). Pictured on the product page is our core FTU, a 1U subrack which is capable of connection to four Remote Repeater Units (RRU). Depending on the size of the system, other larger-scale RRUs are available that provide WDM, CWDM and DWDM capabilities, as well as add/drop optical multiplexers and monitoring and switching for redundant configurations. Systems can be configured to operate uplink/ downlink on separate fibers, split RF bands onto their own fibers, split agencies onto their own fibers or all signals, uplink and downlink onto a single fiber strand. The configuration will be determined by the fiber available and the owners preferences. The FTU is where other signals. Such as Ethernet backbones, are optically added and dropped. Fiber-Span can even ride on existing lit fiber that supports other signals (Ethernet, video, data, DWDM, CWDM) so as to best utilize available resources. REMOTE UNIT CONSIDERATIONS The fiber infrastructure then connects to the RRU, or in many cases multiple RRUs in remote locations. Intermediary optical drops can be configured depending on the layout of the facility or campus. If the system is large enough, Secondary Headends (as shown in the illustration) may be required to manage the signal flow and optimize system performance. At the end of the fiber link the RRU converts the optical signal to RF, and internal filters and splitter/combiner, switch (as required) network manages it to the RF signal conditioning stages. Additional filters, low-noise amplifiers and power amplifiers boost the signal for clean transmission via the distributed antenna system. The DAS itself may consist of an array of discrete antennas, used where the target coverage area is wide, such as buildings, rooms, and arenas; or radiating cables - often used for coverage of long thin areas such as tunnels or walkways, or judicious combinations of the two. In every case, Fiber-Span can engineer a coverage extension solution for any space your clients or users may have. We have done so for others over twenty years. Call us. 7 3434 Rt. 22W, Suite 140 Branchburg, New Jersey 08876 (908) 253.9080

Products System Building Blocks The essential building blocks of a fiber-based Public Safety Distributed Antenna System are described below. BSU: Base Station Interface Unit Downlink RF signals levels from the HRU or Basestation typically exceed the maximum input level for Fiber Transceiver Units (FTUs). The primary function of the downlink path of the BSU is to condition, or attenuate and split, RF signals prior to the RF-to-optical conversion by the FTU. The BSU also conditions RF signals from the FTU in the uplink path to the HRU or Basestation. Downlink RF signals are split from one common port to multiple ports that interface with one or more FTUs. Uplink RF signals are combined from multiple ports to one common port that interface with the HRU or Basestation. HRU: Headend Repeater Unit Fiber-Span s equivalent to the BDA. The HRU is the interface to the donor antenna and is located at the Headend of any in-building off-air coverage solution. The HRU amplifies RF frequencies in both the downlink and uplink paths with duplexers that allow both downlink and uplink frequency bands to co-exist on a single DAS. FTU: Fiber Transceiver Unit The FTU converts downlink RF signals to light and uplink optical signals back to RF. The FTU feeds one or more Remote Repeater Units (RRU) via single mode fiber-optic cable. The FTU interfaces with an HRU or a Basestation through the BSU. RRU: Remote Repeater Unit The RRU is equipped with an internal optical transceiver that converts the downlink optical signals to RF and the uplink RF signals to light. The downlink RF signals then pass through a power amplifier and are combined with the uplink RF signals using a duplexer. The downlink and uplink are available on the DAS RF port on the bottom of the unit. The uplink RF signals are fed into the fiber-optic transceiver inside the unit where they are converted to light. The downlink optical signals are fed optically into the RRU via the Optical In port. The uplink optical signals are sent from the Optical Out port. IHU: Integrated Headend Repeater Unit Unique in the industry, the IHU incorporates all the essential ingredients of an HRU (BDA) and FTU in a single enclosure. This includes combining/splitting sub-system, fiber optic transceivers, as well as separate coaxial RF ports for local DAS connections, making it arguably the most cost-effective off-air Headend solution available. CRRU: Compact Remote Repeater Unit As the name suggests, the CRRU is a small form-factor fiber-fed Remote Repeater Unit designed for lower RF power (and lower cost) applications. Equipped with an internal optical transceiver, operational concepts are similar to those of its bigger brother, the RRU. However, in the interest of saving space, no internal duplexer is included exccept for higher frequency bands. 8 3434 Rt. 22W, Suite 140 Branchburg, New Jersey 08876 (908) 253.9080

Products Base Station Interface Unit - BSU Multi-port unit provides very flexible connectivity options for interfacing with Basestation/repeater, HRU, and FTU. Built-in adjustable attenuators. Rear panel shown. Headend - FTU Fiber Transceiver Unit converts RF to light and back. Can feed up to four (4) RRUs. Front panel displays Alarm Transmitter and Receiver Alarm Status. Rear panel (lower image) provides all external connections. FS2000 Advanced FTU The Advanced FTU provides extreme flexibility via modular construction. Plug-in modules provide all functions including FTU cards, and even redundant power supplies. Fiber-Span NMS compatibility ensures end-to-end network visibility. Remote Repeater Unit - RRU The fiber-fed Remote Repeater Unit connects to the FTU via singlemode fiber link. The broadband RF output port of this unit connects to the network of antennas collectively known as the DAS. The RRU is optionally available in a NEMA4 or 4X housing. 9 3434 Rt. 22W, Suite 140 Branchburg, New Jersey 08876 (908) 253.9080

Products Headend Channelized BDA This DSP-based channelized repeater ensures robust system operation in hostile RF environments while offering extreme configuration flexibility. A built-in web interface is provided for easy configuration, operation, and troubleshooting. Quad GPS-Over-Fiber Transmitter Unit Supports up to four (4) GPS signal paths in conjunction with companion Quad Receiver Unit (not shown). Active GPS antenna support. NEMA 4X housing for outdoor installation. Integrated Headend Repeater Unit - IHU This Headend Repeater combines the fiber interface functions of the FTU with the off-air gain and output power of the HRU - all in one package. Up to four (4) RRUs may be connected. Discrete RF (Tx/Rx) ports are also available for local coaxial DAS connections. Compact Remote Repeater Unit - CRRU Small form-factor unit designed for lower RF power applications. Built-in fiber transceiver. External duplexer required for lower frequency bands. NMS Gateway The NMS Gateway provides an easy-to-use interface between the Fiber-Span USB equipment interconnection Bus and the Internet or a Ethernet Private LAN. It is required for remote access to system Alarm Monitoring and Control functions. 10 3434 Rt. 22W, Suite 140 Branchburg, New Jersey 08876 (908) 253.9080

RF Source OFF-AIR BASE STATION GPS Time Source Clean Spectrum Congested Spectrum Product Deployment Guide Headend Remote Active Interface Passive Interface Application Transceivers Remote Repeaters FS31HG Series Headend Repeater Unit (HRU) FS31RC Series Compact Remote Repeater Unit (CRRU) FS6000 Series Channelized BDA (CBDA) FS31B Series Base Station Unit (BSU) Small-Scale System FS31F Series Fiber Transceiver Unit (FTU) FS31R Series Remote Repeater Unit (RRU) FS31XG Series Integrated Headend (IHU) Non-Duplexed Duplexed FS31D Series Base Station Duplex Unit (BSD) Large-Scale System FS2000 Series Enhanced Fiber Transceiver Unit (EFTU) FS3RG Series Remote Repeater Unit (RRU) FS3000 Series Fiber- Fed GPS Link Large-Scale System FS9000 Series Network Management Software (NMS) Small-Scale System DASView 1000 Network Management Software (NMS) DAS DAS DAS 11 3434 Rt. 22W, Suite 140 Branchburg, New Jersey 08876 (908) 253.9080

Products REMOTE LOCATION REPEATERS AND SUBSYSTEMS MODEL NO. TYPE BANDWIDTH COMMENTS Remote Repeater Unit (RRU) FS31RG-VHF Remote Fiber Optic Repeater 150-174 MHz 1 Watt Version, -20dBm spurious limit FS31RG-UHF Remote Fiber Optic Repeater 380-512 MHz 5 Watt Version, -20dBm spurious limit FS31RG-70 Remote Fiber Optic Repeater 763-805 MHz 5 Watt Version, -20dBm spurious limit FS31RG-85 Remote Fiber Optic Repeater 806-869 MHz 5 Watt Version, -20dBm spurious limit FS31RG-90 Remote Fiber Optic Repeater 896-941 MHz 5 Watt Version, -20dBm spurious limit Remote Repeater Unit (RRU) - TETRA Series FS31RG-TETRA Remote Fiber Optic Repeater 380-470 MHz 4 Watt Version, -36dBm spurious limit Dual-Band Remote Repeater Unit (RRU) FS32RG-8590 Dual Band Remote Fiber Optic Repeater 806-941 MHz 5 Watt Version, -20dBm spurious limit FS32RG-4085 Dual Band Remote Fiber Optic Repeater 380-430 MHz & 806-869 MHz 5 Watt Version, -20dBm spurious limit FS32RG-7080 Dual Band Remote Fiber Optic Repeater 758-805 MHz & 806-869 MHz 5 Watt Version, -20dBm spurious limit Compact Remote Repeater Unit (CRRU) FS32RC-1544 FS31RC-85 FS32RC-8590 VHF/UHF Compact Rem. Fiber Optic Repeater 800MHz Compact Rem. Fiber Optic Repeater 800/900MHz Compact Rem. Fiber Optic Repeater 144-174 MHz +20dBm Version, -20dBm spurious limit 806-869 MHz +20dBm Version, -20dBm spurious limit 806-941 MHz +20dBm Version, -20dBm spurious limit HEADEND LOCATION SUBSYSTEMS MODEL NO. TYPE BANDWIDTH COMMENTS Base Station Interface Units (BSU) FS31BS Base Station Interface Unit 100-1000 MHz Interface between Base Station and Fiber Transceivers FS31BD Base Station Duplexed Interface Unit 100-1000 MHz Interface between Duplexed Base Station or BDA equipment and Fiber Transceivers Headend Fiber Transceiver Units (FTU) FS31FS Fiber Optic Transceiver Units 100-2200 MHz Short Range Lasers, 1-4 miles, 4 dbo, 4 ports FS31FM Fiber Optic Transceiver Units 100-2200 MHz Advanced Headend Fiber Transceiver Units (FTU) FS2000-PS2 3U Mainframe Chassis for Plug-Ins 100-2200 MHz FS2131TXRX Optical Transceiver 3U Plug-In 100-1000 MHz Medium Range Lasers, 4-8 miles, 10 dbo, 4 ports FTU configuration point-to-point or point-tomultipoint Interface between Duplexed Base Station or BDA equipment and Fiber Transceivers *For IP65 or NEMA 4X Stainless steel style wallmount enclosure option pricing, contact Fiber-Span. 12 3434 Rt. 22W, Suite 140 Branchburg, New Jersey 08876 (908) 253.9080

Products OFF-AIR HEADEND LOCATION REPEATERS MODEL NO. TYPE BANDWIDTH COMMENTS Headend Repeater Unit (HRU) FS31HG-VHF BDA, VHF Services 151-175 MHz 70 db Gain BDA Medium Power Version FS31HG-UHF BDA, UHF Services 380-512 MHz 70 db Gain BDA Medium Power Version FS31HG-85 BDA, 800 MHz 806-941 MHz 80 db Gain BDA Medium Power Version Headend Repeater Unit (HRU) - TETRA Series FS31HG-TETRA BDA, TETRA Services 380-470 MHz 70 db Gain BDA Medium Power Version Integrated Headend Repeater Unit (IHU) FS31XG-VHF Integrated Headend Repeater Unit 151 175 MHz FS31XG-UHF Integrated Headend Repeater Unit 380 512 MHz FS31XG-70 Integrated Headend Repeater Unit 763 805 MHz FS31XG-85 Integrated Headend Repeater Unit 806 869 MHz FS31XG-90 Integrated Headend Repeater Unit 896 941 MHz Channelized Bi-Directional Amplifier (BDA) FS61C-VHF Channelized Bi-Directional Amplifier 151-175 MHz FS61C-UHF Channelized Bi-Directional Amplifier 450-512 MHz FS61C-70 Channelized Bi-Directional Amplifier 763-805 MHz FS61C-85 Channelized Bi-Directional Amplifier 806-869 MHz High Gain, Medium Power BDA with integrated Optical interface High Gain, Medium Power BDA with integrated Optical interface High Gain, Medium Power BDA with integrated Optical interface High Gain, Medium Power BDA with integrated Optical interface High Gain, Medium Power BDA with integrated Optical interface VHF 16 Channel Selective BDA Narrow Band Signal Booster UHF 16 Channel Selective BDA Narrow Band Signal Booster 700 MHz 16 Channel Selective BDA Narrow Band Signal Booster 800 MHz 16 Channel Selective BDA Narrow Band Signal Booster *For IP65 or NEMA 4X Stainless steel style wallmount enclosure option pricing, contact Fiber-Span. HEADEND SUPPORT SYSTEMS MODEL NO. TYPE BANDWIDTH COMMENTS FS9000-NMS-E NMS, Monitor & Control Full Monitor & Control, Ethernet-Over-Fiber based system FS-285GW NMS Gateway for Internet or Private LAN Provides Ethernet to USB Network interface for communication with Fiber-Span networked equipment. FS3000 - GPS GPS over Fiber 1565.42 1585.42 MHz Fiber Optic GPS Transmission System FS3000GL1 GPS over Fiber, Quad Port 1565.42 1585.42 MHz Advanced (NMS compatible) Fiber Optic Transmission System Contact Fiber-Span for further information and pricing. 13 3434 Rt. 22W, Suite 140 Branchburg, New Jersey 08876 (908) 253.9080

Spanning more than 60 tunnels, over a distance greater than 160 kilometers in its railway system, the Taiwan Railroad Authority uses Fiber-Span s Fiber Optic Repeater system for critical public safety communications. Stay in Touch 3434 Route 22 West Branchburg, NJ 08876 USA Ph. 908 253 9080 Fax. 908 253 9086 email: techinfo@fiber-span.com www.fiber-span.com WHEN COMMUNICATIONS COUNT... COUNT ON FIBER-SPAN! 20150128_v1.4