Electromagnetic Spectrum Superiority Strategy
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The Erosion of Strategic Stability and the Future of Arms Control in Europe
Études de l’Ifri Proliferation Papers 60 THE EROSION OF STRATEGIC STABILITY AND THE FUTURE OF ARMS COntrOL IN EUROPE Corentin BRUSTLEIN November 2018 Security Studies Center The Institut français des relations internationales (Ifri) is a research center and a forum for debate on major international political and economic issues. Headed by Thierry de Montbrial since its founding in 1979, Ifri is a non- governmental, non-profit organization. As an independent think tank, Ifri sets its own research agenda, publishing its findings regularly for a global audience. Taking an interdisciplinary approach, Ifri brings together political and economic decision-makers, researchers and internationally renowned experts to animate its debate and research activities. The opinions expressed in this text are the responsibility of the author alone. ISBN: 978-2-36567-932-9 © All rights reserved, Ifri, 2018 How to quote this document: Corentin Brustlein, “The Erosion of Strategic Stability and the Future of Arms Control in Europe”, Proliferation Papers, No. 60, November 2018. Ifri 27 rue de la Procession 75740 Paris Cedex 15 – FRANCE Tel.: +33 (0)1 40 61 60 00 – Fax: +33 (0)1 40 61 60 60 Email: [email protected] Website: Ifri.org Author Dr. Corentin Brustlein is the Director of the Security Studies Center at the French Institute of International Relations. His work focuses on nuclear and conventional deterrence, arms control, military balances, and U.S. and French defense policies. Before assuming his current position, he had been a research fellow at Ifri since 2008 and the head of Ifri’s Deterrence and Proliferation Program since 2010. -
Future EW Capabilities
CRITICAL UNCLASSIFIED INFORMATION Future EW Capabilities COL Daniel Holland, ACM-EW Director [email protected] 706-791-8476 CRITICAL17 UNCLASSIFIEDAug 2021 INFORMATION Future Army EW Capabilities AISR Target identification, geo-location, and advanced non-kinetic effects delivery for the MDO fight. HELIOS (MDSS) Altitude 60k’ EW Planning and Management Tool LOS 500 kms (nadir 18 kms) HADES (MDSS) Altitude 40k+’ UAV LOS 400 kms Spectrum Analyzer MFEW Air Large MFEW Air Small Altitude 15k-25k’ Altitude 2500-8000’ LOS 250-300 kms LOS 100-150 kms C2 Counter Fire XX Radar SAM SRBM MEMSS C2 TT Radar Tech Effects CP TA Radar C2 AISR – Aerial ISR DEA – Defensive Electromagnetic Attack GSR- Ground Surveillance Radar TA Radar ERCA – Extended Range Cannon Artillery FLOT – Forward Line of Troops IFPC – Indirect Fire Protection Capability GMLS-ER – Guided Multiple Launch Rocket System Extended Rng UGS HADES – High Accuracy Detection & Exploitation System HELIOS – High altitude Extended range Long endurance Intel Observation System LOS – Line of Sight MDSS – Multi-Domain Sensor System MEMSS - Modular Electromagnetic Spectrum System TLS EAB MFEW – Multifunction Electromagnetic Warfare Ground to Air TLS BCT M-SHORAD – Mobile Short Range Air Defense Close fight TLS – Terrestrial Layer System 30km 70km 150km TT – Target Tracking 500km FLOT THREAT TA – Target Acquisition PrSM Ver 14.6 – 30 Jul 21 155mm ERCA GMLS-ER UGS – Unmanned Ground System AREA UNCLASSIFIED Electronic Warfare Planning and Management Tool (EWPMT) Electromagnetic Warfare/Spectrum -
Military Guide to Terrorism in the Twenty-First Century
US Army TRADOC TRADOC G2 Handbook No. 1 AA MilitaryMilitary GuideGuide toto TerrorismTerrorism in the Twenty-First Century US Army Training and Doctrine Command TRADOC G2 TRADOC Intelligence Support Activity - Threats Fort Leavenworth, Kansas 15 August 2007 DISTRIBUTION RESTRICTION: Approved for Public Release; Distribution Unlimited. 1 Summary of Change U.S. Army TRADOC G2 Handbook No. 1 (Version 5.0) A Military Guide to Terrorism in the Twenty-First Century Specifically, this handbook dated 15 August 2007 • Provides an information update since the DCSINT Handbook No. 1, A Military Guide to Terrorism in the Twenty-First Century, publication dated 10 August 2006 (Version 4.0). • References the U.S. Department of State, Office of the Coordinator for Counterterrorism, Country Reports on Terrorism 2006 dated April 2007. • References the National Counterterrorism Center (NCTC), Reports on Terrorist Incidents - 2006, dated 30 April 2007. • Deletes Appendix A, Terrorist Threat to Combatant Commands. By country assessments are available in U.S. Department of State, Office of the Coordinator for Counterterrorism, Country Reports on Terrorism 2006 dated April 2007. • Deletes Appendix C, Terrorist Operations and Tactics. These topics are covered in chapter 4 of the 2007 handbook. Emerging patterns and trends are addressed in chapter 5 of the 2007 handbook. • Deletes Appendix F, Weapons of Mass Destruction. See TRADOC G2 Handbook No.1.04. • Refers to updated 2007 Supplemental TRADOC G2 Handbook No.1.01, Terror Operations: Case Studies in Terror, dated 25 July 2007. • Refers to Supplemental DCSINT Handbook No. 1.02, Critical Infrastructure Threats and Terrorism, dated 10 August 2006. • Refers to Supplemental DCSINT Handbook No. -
Electromagnetic Side Channels of an FPGA Implementation of AES
Electromagnetic Side Channels of an FPGA Implementation of AES Vincent Carlier, Herv´e Chabanne, Emmanuelle Dottax and Herv´e Pelletier SAGEM SA Abstract. We show how to attack an FPGA implementation of AES where all bytes are processed in parallel using differential electromag- netic analysis. We first focus on exploiting local side channels to isolate the behaviour of our targeted byte. Then, generalizing the Square at- tack, we describe a new way of retrieving information, mixing algebraic properties and physical observations. Keywords: side channel attacks, DEMA, FPGA, AES hardware im- plementation, Square attack. 1 Introduction Side channel attacks first appear in [Koc96] where timing attacks are de- scribed. This kind of attack tends to retrieve information from the secret items stored inside a device by observing its behaviour during a crypto- graphical computation. In a timing attack, the adversary measures the time taken to perform the computations and deduces additionnal information about the cryptosystems. Similarly, power analysis attacks are introduced in [KJJ99] where the attacker wants to discover the secrets by analysing the power consumption. Smart cards are targets of choice as their power is sup- plied externally. Usually we distinguish Simple Power Analysis (SPA), that tries to gain information directly from the power consumption, and Differ- ential Power Analysis (DPA) where a large number of traces are acquired and statistically processed. Another side channel is the one that exploits the Electromagnetic (EM) emanations. Indeed, these emanations are correlated with the current flowing through the device. EM leakage in a PC environ- ment where eavesdroppers reconstruct video screens has been known for a 1 long time [vE85], see also [McN] for more references. -
Meeting the Anti-Access and Area-Denial Challenge
Meeting the Anti-Access and Area-Denial Challenge Andrew Krepinevich, Barry Watts & Robert Work 1730 Rhode Island Avenue, NW, Suite 912 Washington, DC 20036 Meeting the Anti-Access and Area-Denial Challenge by Andrew Krepinevich Barry Watts Robert Work Center for Strategic and Budgetary Assessments 2003 ABOUT THE CENTER FOR STRATEGIC AND BUDGETARY ASSESSMENTS The Center for Strategic and Budgetary Assessments is an independent public policy research institute established to promote innovative thinking about defense planning and investment strategies for the 21st century. CSBA’s analytic-based research makes clear the inextricable link between defense strategies and budgets in fostering a more effective and efficient defense, and the need to transform the US military in light of the emerging military revolution. CSBA is directed by Dr. Andrew F. Krepinevich and funded by foundation, corporate and individual grants and contributions, and government contracts. 1730 Rhode Island Ave., NW Suite 912 Washington, DC 20036 (202) 331-7990 http://www.csbaonline.org CONTENTS EXECUTIVE SUMMARY .......................................................................................................... I I. NEW CHALLENGES TO POWER PROJECTION.................................................................. 1 II. PROSPECTIVE US AIR FORCE FAILURE POINTS........................................................... 11 III. THE DEPARTMENT OF THE NAVY AND ASSURED ACCESS: A CRITICAL RISK ASSESSMENT .29 IV. THE ARMY AND THE OBJECTIVE FORCE ..................................................................... 69 V. CONCLUSIONS AND RECOMMENDATIONS .................................................................... 93 EXECUTIVE SUMMARY During the Cold War, the United States defense posture called for substantial forces to be located overseas as part of a military strategy that emphasized deterrence and forward defense. Large combat formations were based in Europe and Asia. Additional forces—both land-based and maritime—were rotated periodically back to the rear area in the United States. -
Conductive Concrete’ Shields Electronics from EMP Attack
‘Conductive concrete’ shields electronics from EMP attack November 14, 2016 Credit: Craig Chandler/University Communication/University of Nebraska-Lincoln An attack via a burst of electromagnetic energy could cripple vital electronic systems, threatening national security and critical infrastructure, such as power grids and data centers. The technology is ready for commercialization, and the University of Nebraska-Lincoln has signed an agreement to license this shielding technology to American Business Continuity Group LLC, a developer of disaster-resistant structures. Electromagnetic energy is everywhere. It travels in waves and spans a wide spectrum, from sunlight, radio waves and microwaves to X- rays and gamma rays. But a burst of electromagnetic waves caused by a high-altitude nuclear explosion or an EMP device could induce electric current and voltage surges that cause widespread electronic failures. "EMP is very lethal to electronic equipment," said Tuan, professor of civil engineering. "We found a key ingredient that dissipates wave energy. This technology oöers a lot of advantages so the construction industry is very interested." EMP-shielding concrete stemmed from Tuan and Nguyen's partnership to study concrete that conducts electricity. They ñrst developed their patented conductive concrete to melt snow and ice from surfaces, such as roadways and bridges. They also recognized and conñrmed it has another important property – the ability to block electromagnetic energy. Their technology works by both absorbing and reòecting electromagnetic waves. The team replaced some standard concrete aggregates with their key ingredient – magnetite, a mineral with magnetic properties that absorbs microwaves like a sponge. Their patented recipe includes carbon and metal components for better absorption as well as reòection. -
Ground Electronic Warfare: Background and Issues for Congress
Ground Electronic Warfare: Background and Issues for Congress September 17, 2019 Congressional Research Service https://crsreports.congress.gov R45919 SUMMARY R45919 Ground Electronic Warfare: Background and September 17, 2019 Issues for Congress John R. Hoehn Ground electronic warfare (EW) is a group of programs directed by the Army and Marine Corp Analyst in Military which are designed to effect ground forces use of the electromagnetic spectrum. The U.S. Capabilities and Programs military has several ground EW programs that are used for different missions. These programs can broadly be categorized into counter-improvised explosive device (C-IED) systems, counter- unmanned aerial systems (C-UAS), and communications and radar jammers. Over the past several years, senior leaders in the Army and Marine Corps have testified about the need to improve EW capabilities. Role of EW in Ground Operations EW is a component of modern warfare, particularly in response to threats posed by potential adversaries such as Russia and China. EW refers to operations that use the electromagnetic spectrum (i.e., the “airwaves”) to detect, listen to, jam, and deceive (or “spoof”) enemy radars, radio communication systems, data links, and other electronic systems. EW also refers to operations that defend against enemy attempts to do the same. Ground EW programs have gained importance in an era of “great power competition.” Countries like Russia and China have developed so-called anti-access/area denial (A2/AD) systems, some of which are designed to prevent U.S. military access to radio and satellite communications, and to deny the use of radars for artillery and air defense operations. -
Defense Primer: Electronic Warfare
Updated October 29, 2020 Defense Primer: Electronic Warfare Electronic warfare (EW), as defined by the Department of Electronic protection involves actions to protect access Defense (DOD), are military activities that use to the spectrum for friendly military assets. electromagnetic energy to control the electromagnetic Electronic attack uses electromagnetic energy to spectrum (“the spectrum”) and attack an enemy. The degrade or deny an enemy’s use of the spectrum. spectrum is a range of frequencies for electromagnetic EW support identifies and catalogues emissions of energy. EW supports command and control (C2) by friendly or enemy forces to either protect U.S. forces or allowing military commanders’ access to the spectrum to develop a plan to deny an enemy’s access to the communicate with forces, while preventing potential spectrum. adversaries from accessing the spectrum to develop an These subsets of EW often mutually support each other in operational picture and communicate with their forces. operations. EW support uses equipment to assess both Some have argued that EW is a component of anti- friendly and adversary electronic emissions. This access/area denial (A2/AD) campaigns. information can then be used to develop a protection plan to maintain access to the spectrum or an attack plan to deny Role of EW in Military Operations adversaries vital access. Radar jamming (electronic attack) Since the introduction of two-way radios, militaries have can serve a protection function for friendly forces to become dependent on the spectrum. This reliance has penetrate defended airspace, and it prevents an adversary expanded over the past century to include nearly every from having a complete operating picture. -
Analysis of EM Emanations from Cache Side-Channel Attacks on Iot Devices
Analysis of EM Emanations from Cache Side-Channel Attacks on IoT Devices Moumita Dey School of Electrical and Computer Engineering, Georgia Institute of Technology, Atlanta, USA [email protected] Abstract— As the days go by, the number of IoT devices are growing exponentially and because of their low computing capabilities, they are being targeted to perform bigger attacks that are compromising their security. With cache side channel attacks increasing on devices working on different platforms, it is important to take precautions beforehand to detect when a cache side channel attack is performed on an IoT device. In this paper, the FLUSH+RELOAD attack, a popular cache side channel attack, is first implemented and the proof of concept is demonstrated on GnuPG RSA and bitcnts benchmark of MiBench suite. The effects it has are then seen through EM emanations of the device under different conditions. There was distinctive activity observed due to FLUSH+RELOAD attack, which can be identified by profiling the applications to be monitored. INTRODUCTION Fig. 1. IoT devices demand trend [1] The Internet of Things (IoT) is the next frontier in technology, and there’s already several companies trying to capitalize it. Its a network of products that are connected to the Internet, thus they have their own IP address and can GitHub, Netflix, Shopify, SoundCloud, Spotify, Twitter, and connect to each other to automate simple tasks. As prices a number of other major websites. This piece of malicious of semiconductor fall and connectivity technology develops, code took advantage of devices running out-of-date versions more machines are going online. -
Protecting US Security by Minimizing the Role of Nuclear Weapons
Blechman and Rumbaugh Protecting US Security by Minimizing the Role of Nuclear Weapons: A NEW US NUCLEAR POLICY Barry Blechman and Russell Rumbaugh MAY 2015 STIMSON | 1 Protecting US Security by Minimizing the Role of Nuclear Weapons: a New US Nuclear Policy This paper was prepared in September 2014 and commissioned by the Center for Strategic and International Studies (CSIS). It will be published in “Project Atom: A Competitive Strategies Approach to Defining U.S. Nuclear Strategy and Posture for 2025- 2050” (Washington, DC: CSIS, 2015.) 2 | APRIL 2015 CONTENTS Introduction . 5 US Conventional Military Dominance . 5 The Limited Role of Nuclear Weapons . 8 Minimizing the Roles of Nuclear Weapons in US Policies and Those of Other Nations . 12 Contingencies . 19 Conclusion . 23 “After seventy years of indulging fantasies of what nuclear weapons can do, it is high time to acknowledge that they do very little and adapt US nuclear policy, strategy, and forces to those facts.” Blechman and Rumbaugh INTRODUCTION Nuclear weapons remain the most potent destructive force known to humanity . Yet, US nuclear policies and doctrines remain encumbered by Cold War beliefs in the potential utility of nuclear weapons, even though the United States enjoys a dominant geopolitical position in the world, un- derpinned by a conventional military superiority greater than any ever known before . These false hopes that nuclear weapons can play a range of political and military roles in US security policy cause the United States to mistakenly pursue a nuclear strategy that is costly — not only in material terms, but also in geopolitical terms . In the worst case scenarios, this strategy could be catastroph- ic in terms of human lives and the nation’s future . -
Ground Combat Overmatch Through Control of the Atmospheric
Romanian soldier fires rocket propelled grenade at range near Bemowo Piskie Training Area, Poland, January 24, 2018, as part of multinational battle group comprised of U.S., UK, Croatian, and Romanian soldiers supporting NATO’s Enhanced Forward Presence (U.S. Army/Andrew McNeil) he U.S. military is seeking dis- Ground Combat ruptive innovations to sustain T its technological advantage despite rapid advances by potential adversaries. The need is particularly Overmatch Through acute in ground combat, where most U.S. casualties are sustained and where game-changing technical innovations Control of the have been less common than in other military mission areas. The Search for Tactical Atmospheric Littoral Overmatch In addition to increasing technologi- By George M. Dougherty cal pressure, recent coalition combat experiences and defense studies suggest that the future battlefield will be more complex than in the past. Combat in built-up areas including megacities will become commonplace. As concluded Colonel George M. Dougherty, USAF, is the Individual Mobilization Augmentee to the Deputy Assistant Secretary of the Air Force for Science, Technology, and Engineering, Office of the Assistant Secretary of by a recent report, “Urban operations the Air Force for Acquisition and Logistics, in Washington, DC. in the 21st century are not just another 64 Features / Control of the Atmospheric Littoral JFQ 94, 3rd Quarter 2019 type of operation; they will become this tion of robotics and autonomy to forces can move, concentrate, and century’s signature form of warfare.”1 the land domain has focused largely disperse without hindrance, much The pivotal battles in Iraq and Syria on unmanned ground vehicles. -
The Physics of Space
THIS MATERIAL IS BEING PROVIDED PRE-RELEASE SOLELY FOR THE USE OF GEN. JAMES DICKINSON, AND IS NOT APPROVED FOR RELEASE TO ANY OTHER PERSON OR ORGANIZATION WITHOUT THE EXPRESS PERMISSION OF THE AEROSPACE CORPORATION. DR. REBECCA REESMAN Dr. Rebecca Reesman is a project engineer in The Aerospace Corporation’s Defense Systems Group, where she supports the headquarters’ Air Force Studies, Analyses, and Assessment directorate, which provides analyses to major budgetary and policy decisionmaking. Before joining Aerospace in 2017, she was an American Institute of Physics Congressional Fellow, handling space, cybersecurity, and other technical issues for a member of Congress. Prior to the fellowship, she was a research scientist at the Center for Naval Analysis, providing technical and analytical support to the Department of Defense, with a focus on developing and executing wargames. Reesman received her Ph.D. in physics from The Ohio State University and a bachelor’s degree from Carnegie Mellon University. JAMES R. WILSON James R. Wilson is a member of the Astrodynamics Department at The Aerospace Corporation, where he specializes in orbit analysis, constellation design, space operations planning, and utilization of highly elliptical orbits. Wilson supports several government customers, including civil and defense agencies in areas of space protection, mission performance assessment, and concept design development. Prior to joining Aerospace in 2014, Wilson received his bachelor’s and master’s degrees in mechanical and aerospace engineering from Utah State University. ABOUT THE CENTER FOR SPACE POLICY AND STRATEGY The Center for Space Policy and Strategy is dedicated to shaping the future by providing nonpartisan research and strategic analysis to decisionmakers.