Communications, Radar Electronic Warfare - Us... !!HOT!!
Military operations are executed in an information environment increasingly complicated by the electromagnetic spectrum. The electromagnetic spectrum portion of the information environment is referred to as the electromagnetic environment (EME). The recognized need for military forces to have unimpeded access to and use of the electromagnetic environment creates vulnerabilities and opportunities for electronic warfare in support of military operations.
Communications, Radar Electronic Warfare - us...
NATO has a different and arguably more encompassing and comprehensive approach to EW. A military committee conceptual document from 2007 (MCM_0142 Nov 2007 Military Committee Transformation Concept for Future NATO Electronic Warfare) recognised the EME as an operational maneuver space and warfighting environment/domain. In NATO, EW is considered to be warfare in the EME. NATO has adopted simplified language which parallels those used in other warfighting environments like maritime, land, and air/space. For example, an electronic attack (EA) is offensive use of EM energy, electronic defense (ED), and electronic surveillance (ES). The use of the traditional NATO EW terms, electronic countermeasures (ECM), electronic protective measures (EPM), and electronic support measures (ESM) has been retained as they contribute to and support electronic attack (EA), electronic defense (ED) and electronic surveillance (ES). Besides EW, other EM operations include intelligence, surveillance, target acquisition and reconnaissance (ISTAR), and signals intelligence (SIGINT). Subsequently, NATO has issued EW policy and doctrine and is addressing the other NATO defense lines of development.
Primary EW activities have been developed over time to exploit the opportunities and vulnerabilities that are inherent in the physics of EM energy. Activities used in EW include electro-optical, infrared and radio frequency countermeasures; EM compatibility and deception; radio jamming, radar jamming and deception and electronic counter-countermeasures (or anti-jamming); electronic masking, probing, reconnaissance, and intelligence; electronic security; EW reprogramming; emission control; spectrum management; and wartime reserve modes.
Electronic attack (EA), also known as electronic countermeasures (ECM), involves the offensive use of electromagnetic energy weapons, directed energy weapons, or anti-radiation weapons to attack personnel, facilities, or equipment with the intent of degrading, neutralizing, or destroying enemy combat capability including human life. In the case of electromagnetic energy, this action is most commonly referred to as "jamming" and can be performed on communications systems or radar systems. In the case of anti-radiation weapons, this often includes missiles or bombs that can home in on a specific signal (radio or radar) and follow that path directly to impact, thus destroying the system broadcasting.
Electronic warfare self-protection (EWSP) is a suite of countermeasure systems fitted primarily to aircraft for the purpose of protecting the host from weapons fire and can include, among others: directional infrared countermeasures (DIRCM, flare systems and other forms of infrared countermeasures for protection against infrared missiles; chaff (protection against radar-guided missiles); and DRFM decoy systems (protection against radar-targeted anti-aircraft weapons).
An electronic warfare tactics range (EWTR) is a practice range that provides training for personnel operating in electronic warfare. There are two examples of such ranges in Europe: one at RAF Spadeadam in the northwest county of Cumbria, England, and the Multinational Aircrew Electronic Warfare Tactics Facility Polygone range on the border between Germany and France. EWTRs are equipped with ground-based equipment to simulate electronic warfare threats that aircrew might encounter on missions. Other EW training and tactics ranges are available for ground and naval forces as well.
In November 2021, Israel Aerospace Industries announced a new electronic warfare system named Scorpius that can disrupt radar and communications from ships, UAVs, and missiles simultaneously and at varying distances.
Signals intelligence (SIGINT), a discipline overlapping with ES, is the related process of analyzing and identifying intercepted transmissions from sources such as radio communication, mobile phones, radar, or microwave communication. SIGINT is broken into two categories: electronic intelligence (ELINT) and communications intelligence (COMINT). Analysis parameters measured in signals of these categories can include frequency, bandwidth, modulation, and polarization.
As time progressed and battlefield communication and radar technology improved, so did electronic warfare. Electronic warfare played a major role in many military operations during the Vietnam War. Aircraft on bombing runs and air-to-air missions often relied on EW to survive the battle, although many were defeated by Vietnamese ECCM.
As another example, in 2007, an Israeli attack on a suspected Syrian nuclear site during Operation Outside the Box (or Operation Orchard) used electronic warfare systems to disrupt Syrian air defenses while Israeli jets crossed much of Syria, bombed their targets, and returned to Israel undeterred. The target of the flight of 10 F-15 aircraft was a suspected nuclear reactor under construction near the Euphrates River modeled after a North Korean reactor and supposedly financed with Iranian assistance. Some reports say Israeli EW systems deactivated all of Syria's air defense systems for the entire period of the raid, infiltrating the country, bombing their target and escaping.
In December 2010, the Russian army received their first land-based Army operated multifunctional electronic warfare system known as Borisoglebsk 2 developed by Sozvezdie. Development of the system started in 2004 and evaluation testing successfully completed in December 2010. The Borisoglebsk-2 brings four different types of jamming stations into a single system with a single control console, helping the operator make battlefield decisions within seconds. The Borisoglebsk-2 system is mounted on nine MT-LB armored vehicles and is intended to suppress mobile satellite communications and satellite-based navigation signals. This EW system is developed to conduct electronic reconnaissance and suppression of radio-frequency sources. Newspaper, Svenska Dagbladet, said its initial usage caused concern within NATO. A Russian blog described Borisoglebsk-2 thus:
During the first two days of the 2022 Russian invasion of Ukraine, Russian EW disrupted Ukraine's air defense radars and communications, severely disrupting Ukrainian ground-based air defense systems. Russian jamming was so effective in fact that it interfered with their own communications, so efforts were scaled back. This led to Ukrainian SAMs regaining much of their effectiveness, and they began inflicting significant losses on Russian aircraft by the start of March. Rapid Russian advances at the start of the war prevented EW troops from properly supporting them, but they had deployed extensive jamming infrastructure by late March and April. EW complexes were set up in the Donbas in concentrations of up to 10 complexes per 13 mi (21 km) of frontage. Electronic suppression of GPS and radio signals caused heavy losses of Ukrainian UAVs, depriving them of intelligence and precise artillery fire spotting. Small quadcopters had an average life expectancy of around three flights, and larger fixed-wing UAVs like the Bayraktar TB2 had a life expectancy of about six flights. By summer 2022, only some one-third of Ukrainian UAV missions could be said to have been successful, and EW had contributed to Ukraine losing 90% of the thousands of drones it had at the beginning of the invasion.
The EMC2 program, however, seeks to move beyond InTop by developing and demonstrating system prototypes that integrate the RF functionality of EW, radar, communications, and information operations into a common set of open-systems antennas, electronics, and software.
Prototypes should be able to provide several simultaneous and independent RF and microwave beams that can work together to perform EW, radar, communications, and wireless information exchange. Researchers want to integrate these new prototypes with InTop or other RF combat systems.
The contractors will build prototypes that integrate RF functionality EW, radar, voice, and data communications into a common set of multi-function apertures, electronics, software, and firmware in a modular architecture that is scalable across platforms and open at the RF, electronics, software, firmware levels, Navy officials say.
The jury also convicted a Waltham, Massachusetts corporation, owned by one of the defendants, which procured the equipment from U.S. suppliers and then exported the goods to China, through Hong Kong. The exported equipment is used in electronic warfare, military radar, fire control, military guidance and control equipment, and satellite communications, including global positioning systems.
The defendants also illegally exported Commerce controlled electronics components to China that could be used in military applications in electronic warfare, military radar, satellite communications systems and space applications. These items could make a direct and significant contribution to weapons systems and war-fighting capabilities of U.S. adversaries, and cannot be exported to China without an export license from the U.S. Department of Commerce.
Along with the electronic attack suite, the Growler also features the APG-79 Active Electronically Scanned Array (AESA) radar. EA-18G Growler, an Airborne Electronic Attack aircraft integrates the latest electronic attack technology, including the ALQ-218 receiver, ALQ-99 jamming pods, communication countermeasures, and satellite communications. The AN/ALQ-249, the Next Generation Jamming Pod, is in final development and will be the successor for the long serving ALQ-99 pods. 041b061a72