High Power Microwaves

Similar documents
RDT&E BUDGET ITEM JUSTIFICATION SHEET (R-2 Exhibit) February 2002

Non-Lethal Directed Energy Radio Frequency (RF) / High Power Microwave (HPM)

Air Force Research Laboratory

CHAPTER 6 EMI EMC MEASUREMENTS AND STANDARDS FOR TRACKED VEHICLES (MIL APPLICATION)

Non-lethal Electromagnetic Stand-off Weapon

Directed Energy Weapons in Modern Battlefield

UNCLASSIFIED. FY 2016 Base FY 2016 OCO

Leveraging Digital RF Memory Electronic Jammers for Modern Deceptive Electronic Attack Systems

UNCLASSIFIED. UNCLASSIFIED R-1 Line Item #13 Page 1 of 11

Explosive Ordnance Disposal/ Low-Intensity Conflict. Improvised Explosive Device Defeat

DEFENSE NUCLEAR AGENCY. Submission of proposals

Use optocouplers for safe and reliable electrical systems

GaN is Finally Here for Commercial RF Applications!

System Design and Assessment Notes Note 43. RF DEW Scenarios and Threat Analysis

Advanced Technologies Group programs aim to improve security

Real-Time Spectrum Monitoring System Provides Superior Detection And Location Of Suspicious RF Traffic

II. PHASE I: TECHNOLOGY DEVELOPMENT Phase I has five tasks that are to be carried out in parallel.

Electronic Warfare Training in the Pacific Northwest

1. CONTRACTING OFFICE ADDRESS AND POINTS OF CONTACT (POC)

Overview of EMC Regulations and Testing. Prof. Tzong-Lin Wu Department of Electrical Engineering National Taiwan University

ELECTROMAGNETIC SPECTRUM ELECTROMAGNETIC SPECTRUM

CHAPTER 1 INTRODUCTION. Pulsed power is a technology to compress the duration of time to generate peak instantaneous

Experimental Observation of RF Radiation Generated by an Explosively Driven Voltage Generator

A controlled arc-flash, produced in a flashtube. Even though the energy level used is fairly low (85 joules), the low-impedance, low-inductance

APPENDIX H PRICE WORKSHEETS, REVISED 12/26/15 1. BATTERIES, MODULAR FLOODED LEAD-ACID 2. BATTERIES, MODULAR VALVE REGULATED LEAD ACID

Lecture 1 INTRODUCTION. Dr. Aamer Iqbal Bhatti. Radar Signal Processing 1. Dr. Aamer Iqbal Bhatti

Electronic Warfare (EW) Principles and Overview p. 1 Electronic Warfare Taxonomy p. 6 Electronic Warfare Definitions and Areas p.

More specifically, I would like to talk about Gallium Nitride and related wide bandgap compound semiconductors.

Application Note #38B Automotive 600V/m Radar Pulse Test Solution

Taking Aim at an Enemy's Chips

NEWSLETTER # 3 6 June 2011

White paper on SP25 millimeter wave radar

INTRODUCTION Plasma is the fourth state of matter Plasmas are conductive assemblies of charged and neutral particles and fields that exhibit collectiv

Lecture Outlines Chapter 25. Physics, 3 rd Edition James S. Walker

Lesson 17: Science and Technology in the Acquisition Process

High Energy Density Physics in the NNSA

High Rep-Rate KrF Laser Development and Intense Pulse Interaction Experiments for IFE*

Photonic Power. Application Overview

TERAPOD. Terahertz based Ultra High Bandwidth Wireless Access Networks

PLEASE JOIN US! Abstracts & Outlines Due: 2 April 2018

Introduc)on to Directed Energy

DoD / OGA NLW Advanced Planning Brief to Industry (APBI)

GUIDED WEAPONS RADAR TESTING

- A Weapon of Electrical Mass Destruction. by Carlo Kopp Department of Computer Science Monash University, Australia (C) 1996 Carlo Kopp

Essentia Electromagnetic Monitor Model: EM2

Understanding Design, Installation, and Testing Methods That Promote Substation IED Resiliency for High-Altitude Electromagnetic Pulse Events

IEEE Electromagnetic Compatibility Standards (Active & Archive) Collection: VuSpec

Satellite Testing. Prepared by. A.Kaviyarasu Assistant Professor Department of Aerospace Engineering Madras Institute Of Technology Chromepet, Chennai

Unclassified Distribution A: Unlimited Public Release

Radiation Effects on DC-DC Converters

RADAR CHAPTER 3 RADAR

Fraunhofer Institute for High frequency physics and radar techniques FHR. Unsere Kernkompetenzen

High power RF capabilities at Loughborough University

Low Cost Conformal Transmit/Receive SATCOM Antenna for Military Patrol Aircraft

Networked Targeting Technology

PARCA (Pixel-Addressable Reconfigurable Conformal Antenna)

Welcome to AntennaSelect Volume 33 August Micronetixx has moved into a larger facility

Microwave and optical systems Introduction p. 1 Characteristics of waves p. 1 The electromagnetic spectrum p. 3 History and uses of microwaves and

Advanced Weapons Effects Test Capability (AWETC)

In the name of God, the most merciful Electromagnetic Radiation Measurement

As delivered power levels approach 200W, sometimes before then, heatsinking issues become a royal pain. PWM is a way to ease this pain.

Overview of ICRF Experiments on Alcator C-Mod*

Electroluminescent Lighting Applications

Paper Session I-A - Neutral Particle Beam Overview

Chapter 2 Threat FM 20-3

Health Issues. Introduction. Ionizing vs. Non-Ionizing Radiation. Health Issues 18.1

Weapon Design. We ve Done a Lot but We Can t Say Much. by Carson Mark, Raymond E. Hunter, and Jacob J. Wechsler

Phantom Dome - Advanced Drone Detection and jamming system

exploding bridgewire system The EBW System was designed and developed by

5G ANTENNA TEST AND MEASUREMENT SYSTEMS OVERVIEW

Microwave Remote Sensing

STRATEGIC DEFENSE INITIATIVE ORGANIZATION (SDIO) SMALL BUSINESS INNOVATION RESEARCH PROGRAM Submitting Proposals

Enable Highly-Stable Plasma Operations at High Pressures with the Right RPS Solution

Computer Networks Lecture -4- Transmission Media. Dr. Methaq Talib

Radar / 4G Compatibility Challenges

National Science Foundation Center for Lasers and Plasmas for Advanced Manufacturing. Mool C. Gupta Applied Research Center Old Dominion University

RF & microwave signal conditioning and electromagnetic spectrum management solutions, from components to complete subsystems.

VIP-300U TRANSPORTABLE RF JAMMER

Lightning Induced Transient Susceptibility A Primer

87415A microwave system amplifier A microwave. system amplifier A microwave system amplifier A microwave.

ARRAY SOLUTIONS 2611 N Beltline Road Suite 109 Sunnyvale, TX USA. (214) office (214) fax

EMC and New Technologies in Automotive Systems

BTM Series Pulsed RF Power Amplifier Modules. Application Note

Using A Virtual BAF in EW Testing

AIRSAM: A Tool for Assessing Airborne Infrared Countermeasures

WHITE PAPER HOW TO SELECT A CONTINUOUS LEVEL SENSOR BINVENTORY. Jenny Christensen Todd Peterson. BinMaster

Test and Evaluation/ Science and Technology (T&E/S&T) Program

AUTOMOTIVE ELECTROMAGNETIC COMPATIBILITY (EMC)

Lens & Mirror Making Best lenses and mirrors are both made by grinding the surface Start with a mirror or lens blank For mirrors only surface needs

WEAPONEERING THE FUTURE: DIRECT ENERGY WEAPONS EFFECTIVENESS NOW AND TOMMOROW

DARPA developing Very Low Frequency (VLF) systems to provide GPS like position and timing technologies

Inertial Navigation/Calibration/Precise Time and Frequency Capabilities Larry M. Galloway and James F. Barnaba Newark Air Force Station, Ohio

Blast effects and protective structures: an interdisciplinary course for military engineers

A Franklin Array Antenna for Wireless Charging Applications

Solution of EMI Problems from Operation of Variable-Frequency Drives

High Power Electromagnetic Weapons: A Brief Tutorial

AP7301 ELECTROMAGNETIC INTERFERENCE AND COMPATIBILITY L T P C COURSE OBJECTIVES:

THE NATIONAL IGNITION FACILITY: STATUS AND PLANS FOR LASER FUSION AND HIGH-ENERGY-DENSITY EXPERIMENTAL STUDIES


HESP-E-AO-PS Laboratory Diode Driver (For use with Kigre AO-1010 and AO-610 lasers)

Transcription:

FACT SHEET UNITED STATES AIR FORCE Air Force Research Laboratory, Office of Public Affairs, 3550 Aberdeen Avenue S.E., Kirtland AFB, NM 87117 5776 (505) 846 1911; Fax (505) 846 0423 INTERNET: http://www.de.afrl.af.mil/pa/factsheets/ High Power Microwaves High Energy Microwave Laboratory F 16 in Anechoic Chamber Department of Defense research on high power microwave technologies and their weapons potential is centered at Kirtland Air Force Base, New Mexico, within the High Power Microwave Division of the Air Force Research Laboratory s Directed Energy Directorate. Division scientists are exploring equipment and methodologies for generating high power microwave energy and accurately propagating that energy to a target. Included are efforts to assess the effects of those high power microwaves on various targets. Work is also ongoing on the feasibility and utility of placing compact high power microwave systems aboard various Air Force platforms. The general public is familiar with the technology as it applies to household microwave ovens that use this form of energy to penetrate and cook food. Whereas a typical microwave oven generates less than 1,500 watts of power, the Division is working with equipment that can generate millions of watts of power. When microwaves encounter modern microelectronics based systems, the results can be disastrous to the electronics causing systems to burn out and fail or function improperly. This heavy reliance on electronic components in today s weaponry makes high power microwave weapons attractive.

A short burst of high power microwave energy can be lethal to electronics while having no affect on humans operating the equipment. The low collateral damage aspect of the technology makes highpower microwave weapons useful in a wide variety of missions where avoiding civilian casualties is a major concern. High Power Microwaves have a potential in command and control warfare, in suppressing enemy air defenses, and against tactical aircraft or unmanned aerial vehicles. Efforts within this division include a variety of technology areas: Source and Antenna Development: Research and development on narrow and wide band high power microwave sources produced devices that are among the world s most powerful microwave pulse emitters, and Impulse Radiating Antenna technology demonstrated the focusing of ultra wide band radiation into a conical beam with a beam width of approximately a single degree. Also, Hydrogen Switch technology demonstrated its effectiveness in a recent advanced concept technology demonstration. Beam Development: Solid state switch technology offers an ultra wide band beam, but with the ability to make an antenna conform to the skin of a system. With the promise of high efficiency, the technology also provides the ability to steer the beam and phase the radiation into an extremely narrow beam. In the narrow beam high power microwave area there are several technologies under development including a Magnetic Insulated Line Oscillator. This offers the promise of compatibility with explosive pulse generators that can convert tremendous energies into microwaves. Vulnerability Efforts: The Division maintains anechoic chambers one large enough to house a fighter aircraft and is conducting evaluations on the effects of high power microwaves on U.S. systems in an effort to develop protections against microwave threats. High Power Microwave Modeling and Simulation Efforts: Models and simulations are being developed to investigate the effectiveness of high power microwave technology also synonymously referred to as radio frequency technology to assess the effectiveness of such systems in disabling targets. This is essential to determine the utility of high power microwave technology for military applications. One way these assessments are performed is with a computer code called RF ProTEC (Radio Frequency Propagation, Transmission, and Effects Code) that models and simulates the high power microwave system antenna emission pattern, the propagation of radio frequency radiation to and into a target, and the effect on the target. The code may be used to assess the lethality associated with a specified set of scenario parameters or, alternatively, to determine those problem parameters that will optimize lethality. Ultimately the Division hopes to determine which of the many stages of a complex high power microwave system to target process are most influential in determining target lethality. Active Denial Technology: Related to high power microwaves is this millimeter wave technology that penetrates less than 1/64 th of an inch into an individual s skin to stimulate the person s pain sensors into feeling severe pain without physical damage. The technology is proving extremely effective as a non lethal means of turning away an aggressor.

Vehicle Stopper Program: The High Power Microwave Division is supporting the United States Department of Justice in researching the potential for radio frequency devices to stop vehicles in a non lethal manner. Experiments are underway to establish how modern auto mobile electronics respond to radio frequency radiation and evaluate any susceptibility to selected waveforms. Such a device capability would be useful in military and civilian appli cations as an alternative to the high speed chases commonly employed to stop suspect vehicles. This capability could also be used to provide entry control or establish a point defense while not injuring suspects or bystanders. High Power Microwave Facilities: The High Energy Microwave Laboratory consists of 25,484 square feet of laboratory and administration space for the test of high power microwave technologies. High Power Systems Facility Shiva Star Fast Capacitor Bank The 34,261 square foot High Power Systems Facility conducts research into the military applications of high energy pulsed power systems. The facility houses Shiva Star, the Air Force s largest pulsed power system. Shiva Star will store nearly 10 million joules of energy (equal to 5 pounds of TNT). It produces a pulse of 120,000 volts and 10 million amps in one millionth of a second to produce a power flow equivalent to a terawatt. Shiva Star has evolved from a 1 mega joule system in 1975, a 2 mega joule system in 1979, to its final form as a 10 mega joule system in 1982. Shiva Star has been used over the years for many different types of experiments such as pulse compression to increase energy in the pulse, plasma liner implosion for production of x rays, solid liner implosions to compress matter to high density and pressure, compact toroids for generating high energy plasmas, and simulation of explosive pulsed power generators. In addition, the facility is used for diagnostics of high energy pulsed power systems by using magnetic probe arrays, laser interferometry, time and space resolved optical spectroscopy, x ray grazing incidence, photodiode array spectroscopy, x ray pinhole photography, and fast optical photography.

The High Energy Research and Technology Facility is a premier Air Force Research Laboratory capability for research, development and transition of advanced weapons technologies. This $9 million, 26,827 square foot, facility provides a unique capability for the development of highpower microwaves, high energy advanced pulsed power (including explosive devices), and veryhigh energy plasmas. It also provides a research environment for exploring a variety of related technologies. The facility's remote location in the Manzano Mountains on Kirtland Air Force Base is coupled with a unique construction, which is designed to withstand blasts and intense radiation from a variety of sources, including high energy microwaves and x rays. The result is a cost effective and timely capability for transitioning critical technologies to the point where they can be applied to weapons systems. Located in a canyon in the Manzano Mountains in the southeast portion of Kirtland, the High Energy Research and Technology Facility has a four story high bay laboratory, 80 feet by 150 feet, with concrete roof and walls four feet thick for blast and radiation shielding. The high bay includes two bridge cranes, cable trays, a 12 foot deep pit for intense radiation source experiments, and access tunnels to an explosive firing area near the high bay. Up to 1,000 pounds of high explosives can be safely detonated in this area to produce hundreds of mega joules of electrical energy needed for advanced experiments. The facility also contains offices and smaller laboratories where advanced weapons technology experiments and demonstrations can be conducted safely and securely. The Facility was designed to scale high power microwave and high energy plasma concepts that were pursued for many years in the Laboratory's basic research and exploratory development efforts. It was difficult to advance these concepts with the limited facilities available before this facility was completed. With this facility, technologies can be advanced to a weapons level. Also, advanced weapons environments can be created, allowing scientists to assess the potential threat of these weapons to United States military systems.

Although the Laboratory's high power microwave technology is considerably advanced the High Energy Research and Technology Facility is essential in conducting many of the critical experiments still needed to assess the feasibility of the technology for operational systems. Compact, high energy pulsed power is an enabling technology for many advanced weapon concepts and effects simulation devices. The High Energy Research and Technology Facility is designed to play a major role in the Air Force Research Laboratory's development of next generation, highenergy pulsed power devices. Research and development includes the generation and conditioning of large amounts of electrical energy needed for advanced weapon technologies. AFRL (Current as of September 2002)