PARCA (Pixel-Addressable Reconfigurable Conformal Antenna)

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PARCA (Pixel-Addressable Reconfigurable Conformal Antenna) Packing more antenna capability into less footprint Syntonics LLC 9160 Red Branch Road Columbia, MD 21045-2002 Contact: Bruce G. Montgomery Phone: (410) 884-0500 x201 Fax: (410) 884-0536 Bruce.Montgomery@SyntonicsCorp.com http://www.syntonicscorp.com Command: NAVAIR / NAWCWD Topic: N06-040, Ultra-Wide band Antenna (UWBA) for Electronic Attack Aircraft PROBLEM STATEMENT Current airborne tactical jamming systems must select jamming transmitters and antennas to cover the expected enemy system frequency ranges prior to a mission. Once airborne, they are unable to adapt to changes in an enemy environment. Advances in transmitter technology now allow multi-octave coverage from a single high-power amplifier. However the physics of conventional antennas have limited the frequency range and require specific antennas for specific missions. The Naval Air Warfare Center Weapons Division (NAWCWD) is developing ultra wideband (UWB) antenna technologies to address this limitation and to extend the performance of the next-generation jammer for the Airborne Electronic Attack (AEA) system on the EA- 18G aircraft. The objective UWB antenna system will dynamically adjust its operating frequency, beam width (i.e., gain), and polarization while transmitting 2 kw power levels from a platform that can maneuver with the agility of a first-line fighter. WHO CAN BENEFIT? The Navy is designing the next-generation jammer for the Airborne Electronic Attack (AEA) mission and the new EA-18G Growler aircraft. Initial operational capability is planned for 2015. The next-generation jammer program is managed by the Naval Surface Warfare Center, Crane Division (Tom Dalheim) and the program of record for the nextgeneration jammer is the EA-18G, managed by NAVAIR PMA-265 at Patuxent River Naval Air Station. Syntonics anticipates the Navy s (classified) requirements for the nextgeneration jammer will require more capability and agility in the amplifiers and antennas.

Reconfigurable antenna technology for the AEA mission is also directly applicable to satcom-on-the-move (SOTM) communications from airborne and ground vehicles. The ability to electronically steer the antenna beam and vary its operating frequency allows different satellites to be tracked from ground vehicles moving on rough roads and aircraft maneuvering in flight. Most military aircraft and many military vehicles can use this rapidly reconfigurable, low profile SOTM capability. BASELINE TECHNOLOGY Conventional antennas ridge waveguide horns for high frequencies and dipoles for low frequencies are currently employed to meet the various mission scenarios. Current antennas cannot reconfigure, so many different antennas are necessary and antennas must be changed for different missions. Multiple antenna designs require additional support, inventory, and maintenance in standard operations. TECHNOLOGY DESCRIPTION Microstrip transmission line technology is well known for low-loss transmission of radio frequency (RF) signals. PARCA uses movable pixels that rise above a contiguous ground plane to form reconfigurable transmission lines and antenna elements. By careful construction of these composite elements, millimeter-scale pixels with a uniform size and dimension can rapidly create a reconfigurable antenna. Changing frequency, antenna pattern, beam direction, or gain is simply a matter of sending commands to the PARCA array. Pixel-Addressable Reconfigurable Conformal Antenna (PARCA) The PARCA concept uses pixel-by-pixel physical reconfiguration of a radiating structure to provide antenna capabilities such as beam steering, beam shaping, operation at multiple frequencies and polarizations, and connections for multiple radios using a single reconfigurable antenna structure. www.syntonicscorp.com Page 2 of 6

Small conductive pixels in a grid pattern are actuated on/off. In their off state, the pixels are part of the ground plane. In their on state, adjoining conductive pixels over the ground plane paint arbitrary feed structures and patch array geometries. Reconfiguration occurs rapidly and high RF power levels can be handled. Antenna elements and transmission lines are configured, reconfigured, tuned and steered as needed under microprocessor control during an operational mission. The antenna system will be significantly more versatile than the existing antennas while packaging 50 percent more communications capacity into the same footprint. For example, a system operating up to 18 GHz would use pixels with a diameter of ~ 1.65- mm. In a configuration with approximately 100,000 pixels making a square with sides of 0.5-m (20.5-in), the PARCA panel would be approximately 20-mm (0.8-in) thick with an estimated weight of 5.4 kg (12 lbs). This antenna would provide approximately +40 dbi gain at 18 GHz or +15 dbi gain at 1 GHz. Features, Advantages, and Benefits of Syntonics PARCA Antenna Technology Feature Advantages Benefits to Navy Reconfigurable frequency UWB frequency capability with continuous coverage Electrically steerable antenna array Multi-mission capability Frequency band can be changed mid-mission One antenna system can cover all operational scenarios Steering is faster than mechanical methods. Adaptable to new mission profiles and identified capabilities. Enhances mission effectiveness by providing versatility Simplified design & configuration, reduced parts Increased performance envelope for antenna operations Improved life cycle costs and cost effective upgrades www.syntonicscorp.com Page 3 of 6

The key benefit of the PARCA antenna system is that it can replace the many fixedcapability antennas that are currently used and changed between different missions with one or two arrays. Other EW or communications systems could employ a similar upgrade strategy while specification on new systems is also a consideration. CURRENT STATE OF DEVELOPMENT Experimental microstrip transmission lines and patch antennas implemented with pixelated elements have been built and measured. Transmission line experimental results are in good agreement with analytical results, with good performance over the 500 MHz to 18 GHz range. Experimental pixelated patch antennas show performance equal to conventional patches plus a wide range of tuning options that enable fine adjustment of operational frequency and matching impedance. These results are also in good agreement with analytical results, inspiring confidence in the success of the Phase II prototype antenna panels. Upper and lower conductive layers separated by dielectric Reconfigurable patch elements made up of numerous pixels Reconfigurable micro-strip transmission line feeding the patch array Matrix of movable pixels can be reconfigured for different frequencies and beam directions TECHNOLOGY AVAILABILITY The ALQ-99 is rapidly nearing the end of its serviceable life. PARCA antenna technology can be available in time for the Airborne Electronic Attack (AEA) mission and the new EA- 18G Growler aircraft in 2015. Syntonics is actively seeking a partner with strong credentials in airborne jamming pods and/or satellite communications terminals. We are also actively seeking funding to develop a lightweight, multi-band SOTM antenna system. TRL 3 4 5 6 7 Required Tests, Demos, and next steps Demonstrate electromagnetic performance; demonstrate pixels Demonstrate Phase II PARCA prototype antenna Demonstrate full-scale prototype antenna Demonstrate full-scale preproduction antenna Flight demonstration of preproduction antenna integrated with next-generation jammer Target date Estimated Funding required 2008 (Already funded) NAWCWD 2009 (Already funded) NAWCWD 2011 Consult Syntonics 2012 Consult Syntonics 2013 Consult Syntonics Organizations to be involved PMA-265, AEA Prime, PMA-290 PMA-265, AEA Prime, PMA-290 PMA-265, AEA Prime, PMA-290, Boeing www.syntonicscorp.com Page 4 of 6

8 9 Conduct Qualification Testing of production antenna Operate production antennas on next-generation jammer 2014 Consult Syntonics AEA Prime, Boeing 2015 REFERENCES These NAWCWD personnel are monitoring this PARCA jamming antenna project: Mr. Paul Sailer NAWCWD, Pt. Mugu Code 45P100E 805.989.3443 Paul.Sailer@navy.mil Mr., Robert Dezellem NAWCWD, Pt. Mugu Code 41130EE 805.989.3728 Robert.Dezellem@navy.mil Dr. Marvin Ryken NAWCWD, Pt. Mugu Code 45P100E 805.989.4045 Marvin.Ryken@navy.mil Mr. Michael Seltzer NAWCWD, China Lake Code 498400D 760.939.1074 Michael.Seltzer@navy.mil These NAVAIR personnel are sponsoring a related PARCA satcom antenna project: Mr. Leon E. Smith, P.E. NAVAIR, Pax River Code AIR-4.5.3 301.342.9162 Leon.E.Smith@navy.mil Mr. Henry A. Burger, P.E. NAVAIR, Pax River Code AIR-4.5.5 301.342.9167 Henry.Burger@navy.mil Dennis DeCarlo NAVAIR, Pax River Code AIR-4.5.5 301.342.9152 Dennis.DeCarlo@navy.mil The ElectroScience Laboratory of The Ohio State University (ESL/OSU) is teamed with Syntonics for this project. ESL s Compact Range for measuring antennas and scatterers from 300 MHz to 100 GHz is world-renowned. PARCA development is being led at ESL/OSU by Dr. Eric K. Walton, 614.292.5051, Walton.1@osu.edu. ABOUT THE COMPANY Syntonics designs, develops, and manufactures specialty military RF communications equipment and accessories, notably RF-over-fiber products and innovative antennas. The company was founded in 1999 as the first technology transfer spin-off from the Applied Physics Laboratory of The Johns Hopkins University (JHU) and is owned by its employees and JHU. Syntonics Quality Management System, registered under ISO9001-2000 since 2002, ensures quality products on time, every time. Syntonics has transitioned the following products into military applications and now generate more than 50% of its annual revenue from transitioned products. We are looking for interested acquisition programs for our FORAX RF-over-fiber communications systems and Handheld Tactical Antenna (HTA) products, while we would like to talk to interested parties for our FSS and UUV antenna systems. www.syntonicscorp.com Page 5 of 6

Syntonics FORAX RF-over-fiber communication systems connect tactical radios to distant antennas using a lightweight secure fiber optic cable. FORAX systems are used in the field and in military command centers around the world. Syntonics Handheld Tactical Antennas are lightweight, rugged, low observables, and silent in use. They provide long-range communications for handheld and manpack radios. Current models include SINCGARS, VHF, UHF, broadband LOS, and UHF TACSAT. Syntonics patented frequency selective surface (FSS) multi-band antenna system packs more communications capability into less footprint for satcom-on-the-move (SOTM) and shipboard satellite terminals. Multiple independent, lightweight antennas are packaged within a single radome. Each antenna operates in its designated frequency band while tracking different satellites. Successful testing of prototype FSS antennas in early 2006 substantiates this technology is at TRL 6. A dual-mode antenna system for Unmanned Underwater Vehicles, in development by Syntonics for the Navy, supports both satcom and line-of-sight communications. www.syntonicscorp.com Page 6 of 6