World
PARIS, FRANCE — June 19, 2026 : Spanish defense company Escribano Mechanical & Engineering (EM&E) has begun mass production of its new Alkon 122 Laser – A2L guidance kit, a semi-active laser guidance module designed to convert standard 122-mm rockets into precision-guided munitions. The system was officially presented during the Eurosatory 2026 defense exhibition in Paris. The Alkon 122 Laser – A2L was developed at the request of the Ukrainian Armed Forces to improve the accuracy of legacy multiple-launch rocket systems (MLRS) operating in environments heavily affected by electronic warfare (EW). The new kit is intended to enhance the combat effectiveness of existing Soviet-era rocket inventories while reducing dependence on entirely new missile systems. Developed to Counter Electronic Warfare Since 2023, EM&E has supplied Ukraine with more than 10,000 units of its earlier Alkon 122–A22 correction kit. That system uses a hybrid combination of Global Navigation Satellite System (GNSS) and Inertial Navigation System (INS) guidance to improve the accuracy of standard 9M22U and similar 122-mm rockets. According to the company, the A22 version can achieve a circular error probable (CEP) of approximately 15 meters under normal operating conditions. However, the growing use of Russian electronic warfare systems capable of jamming satellite navigation signals has reduced the effectiveness of GNSS-dependent guidance systems in some operational areas. To address this challenge, EM&E developed the Alkon 122 Laser – A2L, which incorporates a semi-active laser seeker during the terminal phase of flight. The company states that the laser-guided version can achieve a CEP of less than 3 meters, even when GNSS signals are being disrupted. Technical Features The modernization kit is designed to convert existing unguided rockets into precision-guided munitions without requiring modifications to launch platforms or significant changes to existing ammunition stocks. Key specifications of the Alkon 122 Laser – A2L include: Additional Weight: 5.5 kilograms added to the front section of the rocket. Length Increase: Less than 375 millimeters. Flight Control System: Four independently controlled nose canards that deploy immediately after launch. Laser Seeker: Operates at a wavelength of 1064 nanometers. Guidance Method: Uses GNSS/INS navigation during the cruise phase before transitioning to semi-active laser homing during the terminal attack phase. The four-canard configuration represents an upgrade over the previous satellite-guided version, which used two control surfaces. This design provides greater maneuverability and improved accuracy during the final approach to the target. Compatibility and Range The Alkon 122 Laser – A2L is compatible with standard 122-mm launch tubes, including the widely used BM-21 Grad multiple-launch rocket system and its modern derivatives. The kit can also be used with portable single-barrel launchers capable of firing 122-mm rockets. Depending on the type of rocket being upgraded, the system offers an effective range of 20 to 40 kilometers while maintaining compatibility with existing launch infrastructure. This allows operators to improve strike precision without replacing current launcher fleets. The guidance kit can be integrated with standard 20-kilometer rockets as well as extended-range 40-kilometer variants, enabling armed forces to modernize large stockpiles of existing ammunition at relatively low cost. Deliveries to Ukraine Underway EM&E confirmed that deliveries of the laser-guided modernization kits began during the first quarter of 2026. The company stated that at least 1,000 Alkon 122 Laser – A2L units have already been supplied to Ukraine. The deliveries form part of broader defense cooperation between Spain’s defense industry and Ukraine. By upgrading existing Soviet-designed rockets already available in Ukrainian inventories, the system provides a cost-effective method of improving precision-strike capabilities without relying entirely on newly manufactured guided munitions. Defense analysts note that such upgrade kits can significantly increase operational effectiveness while reducing ammunition expenditure, as fewer rockets may be required to engage a target successfully. Broader Product Portfolio on Display In addition to the Alkon guidance family, EM&E is showcasing several other defense technologies at Eurosatory 2026. Among them is the company’s new ODIN 6x6 Counter-Unmanned Aerial System (C-UAS) platform, designed to counter drone threats, along with its latest generation of remote weapon stations and electro-optical systems. Headquartered in Alcalá de Henares, Spain, EM&E specializes in guidance technologies, remote weapon stations, mortar systems, and defense electronics. The company’s Alkon series is designed to convert unguided rockets, artillery projectiles, and mortar rounds into precision-guided munitions, providing improved accuracy while utilizing existing ammunition stocks. The launch of the Alkon 122 Laser – A2L reflects ongoing efforts to modernize legacy weapon systems for current battlefield requirements, particularly in environments where electronic warfare poses a challenge to satellite-based navigation systems.
Read More → Posted on 2026-06-19 16:36:06
World
BRISBANE, Australia — June 19, 2026 : Australian aerospace company Hypersonix Launch Systems has reported a major milestone in its hypersonic technology program following the successful maiden flight of its DART AE (Additive Engineering) technology demonstrator, which exceeded Mach 5 and reached speeds of up to Mach 8 (approximately 9,800 km/h) during a flight conducted earlier this year. The flight took place on February 27, 2026, and successfully demonstrated sustained and maneuverable hypersonic flight, providing valuable operational data on propulsion, materials, guidance, and control systems under real-world conditions. According to Hypersonix co-founder and Chief Technology Officer Dr. Michael Smart, the vehicle completed its planned flight profile before splashing down in the Atlantic Ocean after traveling approximately 1,000 kilometers. Cassowary Vex Mission The mission was conducted from the Virginia Spaceport Authority’s Mid-Atlantic Regional Spaceport on Wallops Island, Virginia, in the United States. The 3.5-meter-long, 300-kilogram DART AE vehicle was launched aboard Rocket Lab’s Hypersonic Accelerator Suborbital Test Electron (HASTE) vehicle. Known as “Cassowary Vex” by the U.S. Defense Innovation Unit (DIU) and “That’s Not A Knife” by Rocket Lab, the mission marked the first deployment of a commercially built hypersonic test platform under the Pentagon’s Hypersonic High-Cadence Advanced Testing (HyCAT) program. After separation from the HASTE launch vehicle at an altitude of approximately 32 kilometers, the DART AE ignited its onboard propulsion system and continued autonomous hypersonic flight through its planned mission profile. “The mission allowed us to test propulsion, materials, and control systems in real hypersonic conditions,” Dr. Smart said. “At these speeds and temperatures, there is no substitute for flight data. What we learn from this mission will directly inform the next generation of reusable hypersonic aircraft.” Hydrogen-Powered SPARTAN Scramjet At the center of the DART AE platform is Hypersonix’s proprietary SPARTAN scramjet engine, a hydrogen-fueled air-breathing propulsion system designed for high-speed flight. Unlike many conventional scramjet designs that use hydrocarbon fuels such as kerosene, the SPARTAN engine operates on gaseous green hydrogen, producing zero carbon dioxide emissions during flight and generating only water vapor as a byproduct. The engine features a fixed-geometry design with no moving parts, reducing mechanical complexity while supporting high-speed operation in extreme thermal environments. 3D-Printed Aerospace Manufacturing A key aspect of the DART AE program is its use of additive manufacturing, with both the airframe and propulsion components produced using advanced 3D-printing techniques and high-temperature nickel-based superalloys. The manufacturing approach is intended to reduce production costs and development timelines while addressing one of the major challenges in hypersonic flight—creating hardware capable of surviving the intense heat and pressure generated at speeds above Mach 5. Early analysis of flight data has also indicated performance improvements from scaling up the SPARTAN engine beyond earlier ground-test configurations. Dr. Smart explained that larger engine dimensions improved hydrogen combustion efficiency, allowing the operational flight engine to deliver stronger performance than smaller prototype systems. “It takes a certain amount of time to burn hydrogen. If you make the engine bigger, it burns hydrogen more quickly in terms of the scale of the engine,” he said. Data Analysis and Future Development Engineers are expected to continue analyzing flight data throughout 2026 to better understand vehicle performance and refine future hypersonic systems. The DART AE platform serves as a technology testbed for validating advanced propulsion systems, thermal protection technologies, sensors, materials, and autonomous guidance systems intended for future operational aircraft. The data collected during the flight will support development of VISR (Velos Intelligence, Surveillance, and Reconnaissance), Hypersonix’s planned reusable hypersonic aircraft designed for intelligence, surveillance, reconnaissance, and other multi-mission applications. The company is also advancing work on the Delta Velos concept, which explores the use of hypersonic technologies for satellite launch missions. Company Growth and Strategic Significance Founded in 2019 and headquartered in Brisbane, Hypersonix has grown to employ more than 50 personnel and has become one of Australia’s leading companies focused on hypersonic flight technologies. The successful DART AE mission follows the company’s recent $46 million Series A funding round, supported by the Australian Government’s National Reconstruction Fund Corporation, the Queensland Investment Corporation, and international defense investors. Hypersonix Chief Executive Officer Matt Hill said the successful operation of the vehicle in a genuine hypersonic environment demonstrates Australia's ability to design, manufacture, and test advanced aerospace systems capable of operating in some of the most demanding flight conditions. The DART AE flight represents an important step in the development of affordable and repeatable hypersonic testing capabilities while strengthening collaboration between Australian and U.S. defense and aerospace organizations. The mission also highlights continuing advances in additive manufacturing and hydrogen-powered scramjet propulsion technologies that could support future commercial and defense aerospace programs.
Read More → Posted on 2026-06-19 16:24:43
Space & Technology
TORRANCE, California — June 19, 2026 : Divergent Technologies has unveiled the Monolith One, a large-scale industrial metal 3D printer designed for high-volume aerospace, defense, and automotive manufacturing. The company also announced plans to significantly expand its production footprint through a new manufacturing facility in Long Beach, California. The Monolith One represents a shift in additive manufacturing from traditional prototyping and limited production runs toward continuous, software-driven mass production of mission-critical hardware. The announcement comes as the U.S. defense sector seeks to strengthen domestic manufacturing capacity and improve supply chain resilience amid growing demand for missiles, drones, and other defense systems. Designed for High-Volume Production Unlike conventional metal 3D printers primarily used for prototyping or small-batch manufacturing, the Monolith One is engineered for continuous industrial-scale production. The system uses laser powder bed fusion (LPBF) technology, a process in which high-powered lasers selectively melt and fuse layers of metal powder to create complex components. The machine was developed internally by Divergent over a period of 28 months under the leadership of Chief Technology Officer Brian Erhartic. The printer is not available for commercial sale or licensing and serves exclusively as a core component of the company's Divergent Adaptive Production System (DAPS), which combines AI-driven design tools, additive manufacturing, robotics, and automated assembly. Standing more than eight meters (26 feet) tall and measuring approximately six meters wide, the Monolith One is among the largest industrial metal additive manufacturing systems developed in the United States. Key Specifications Laser Power: 24 kilowatts total through twelve 2-kilowatt lasers Build Volume: 700 × 700 × 835 mm Materials: Aluminum, titanium, steel, and nickel-based alloys Thermal Control: Active build-plate heating and cooling up to 200°C Gas Flow System: 1,700 cubic meters per hour to support extended operation Manufacturing Capability: Designed for continuous, high-throughput production of large and complex metal structures According to Divergent, the Monolith One delivers approximately double the production output of existing competing systems while maintaining part quality and process stability through advanced beam-shaping technology. Long Beach Manufacturing Expansion To support deployment of the new system, Divergent is establishing a 430,000-square-foot manufacturing facility in Long Beach, California. The company currently operates six Monolith One printers at its headquarters in Torrance. Over the next 24 months, Divergent plans to install 64 additional Monolith One systems at the Long Beach facility. Once fully operational, the combined manufacturing network is expected to increase annual production capacity by approximately eight times compared with current levels. The expansion is projected to create more than 1,000 direct jobs and significantly reduce manufacturing timelines for complex metal structures. Components that traditionally require months of casting, machining, and assembly could be produced within weeks or even days using the new production system. Expected Production Capacity At full operational capacity, Divergent expects the facility to produce: More than 30,000 missile airframes in the 500-pound class annually More than 60,000 warhead casings in the 100-pound class annually Hundreds of thousands of additional critical metal components each year Automotive structures, including subframes and suspension systems The facility will support both defense and commercial manufacturing programs. Supporting Defense Supply Chains The introduction of the Monolith One comes at a time when defense manufacturers are facing increasing pressure to expand production of missiles, munitions, and autonomous systems. Traditional manufacturing methods often require dedicated tooling, lengthy setup times, and complex supplier networks, which can slow production. Divergent's software-defined manufacturing approach allows production lines to switch between different products by updating digital design files rather than reconfiguring extensive tooling and manufacturing equipment. This flexibility can enable rapid production changes based on operational requirements. The company is already supplying components to major defense contractors. Divergent currently produces Tomahawk cruise missile midbody components under contract with RTX and is working with Lockheed Martin on structures for autonomous drone programs. Advancing Software-Defined Manufacturing By integrating computational design, large-scale additive manufacturing, robotics, and automated assembly within a single production ecosystem, Divergent aims to industrialize additive manufacturing for large-volume production. The company believes the Monolith One and its broader DAPS platform can help accelerate manufacturing of complex aerospace and defense components that are difficult, time-consuming, or costly to produce using conventional methods. With the addition of the Long Beach facility and deployment of dozens of new Monolith One systems, Divergent is positioning software-defined manufacturing as a key element of future U.S. industrial and defense production capabilities.
Read More → Posted on 2026-06-19 16:19:23
World
WASHINGTON, D.C. — June 19, 2026 : The U.S. Department of Defense has awarded Huntington Ingalls Industries (HII) Mission Technologies Corp. a $417.7 million cost-plus-fixed-fee, indefinite-delivery/indefinite-quantity (IDIQ) contract to provide maintenance, repair, and technical support services for elevator support units aboard U.S. Navy aircraft carriers and amphibious ships. The contract, designated N00024-26-D-4103, was issued by the Naval Sea Systems Command (NAVSEA) in Washington, D.C. The award was made through a competitive procurement process that received a single bid. Under the agreement, HII Mission Technologies, headquartered in McLean, Virginia, will perform work both within and outside the continental United States, including support for forward-deployed naval forces operating in overseas theaters. The five-year contract is scheduled to continue through June 2031. Contract Structure and Scope As an IDIQ contract, the agreement does not obligate funding at the time of award. Instead, the U.S. Navy will issue task orders over the life of the contract as maintenance and repair requirements arise. The cost-plus-fixed-fee structure allows the government to reimburse the contractor for allowable costs while providing a fixed fee for performance. This contracting approach is commonly used for naval maintenance programs where future repair requirements cannot be accurately predicted in advance. HII Mission Technologies will provide a broad range of services, including: Engineering and technical support Maintenance and repair services Operator and maintenance training System testing and evaluation Equipment overhaul and modernization Lifecycle sustainment support Cargo-handling equipment maintenance The work will focus on elevator support units and associated equipment installed aboard aircraft carriers and amphibious assault ships throughout the fleet. Importance of Elevator Systems Although often less visible than combat systems or propulsion equipment, shipboard elevators are essential to naval operations and fleet readiness. On aircraft carriers, elevator systems are divided into two primary categories: Weapons Elevators transport bombs, missiles, and other munitions from secure magazines deep inside the ship to flight deck preparation areas. Their performance directly affects how quickly aircraft can be armed and launched during operations. Aircraft Elevators move fighter aircraft, helicopters, and support aircraft between hangar bays and the flight deck. These systems support aircraft maintenance, staging, and flight operations while maximizing deck efficiency. On amphibious assault ships, elevators are used to move Marines, vehicles, cargo, supplies, aviation equipment, and personnel between multiple decks. Reliable operation of these systems is critical during expeditionary missions, Marine Corps deployments, logistics operations, and humanitarian assistance missions. Mechanical failures in elevator systems can disrupt the movement of personnel and equipment, reducing operational efficiency and affecting mission readiness. Supporting Fleet Readiness The contract comes as the U.S. Navy continues to maintain a high operational tempo across multiple regions, including the Indo-Pacific, Middle East, and Europe. Carrier Strike Groups and Amphibious Ready Groups are regularly deployed in support of security operations, deterrence missions, and allied commitments. Extended deployments and continuous operations place additional strain on complex mechanical systems aboard naval vessels. Timely maintenance, predictive servicing, and rapid repair capabilities help reduce downtime and prevent disruptions to operational schedules. The ability to conduct maintenance work in forward-deployed locations is expected to support fleet readiness by ensuring critical shipboard systems remain available during deployments. HII's Role in Naval Sustainment Huntington Ingalls Industries is the largest independent military shipbuilder in the United States. The company was established as an independent organization following its separation from Northrop Grumman in 2011. Through its Mission Technologies division, HII provides engineering, technical, maintenance, and operational support services to U.S. defense customers. The company has supported numerous Navy sustainment and modernization programs and has previously worked on shipboard elevator maintenance efforts. The new contract strengthens HII's role not only in building naval vessels but also in supporting their long-term operational readiness and lifecycle sustainment. Future task orders issued under the IDIQ contract will address specific maintenance and repair requirements as they emerge, allowing the Navy to respond efficiently to changing operational priorities while maintaining the availability of critical shipboard systems across the fleet.
Read More → Posted on 2026-06-19 16:08:03
World
WASHINGTON, D.C. — June 19, 2026 : The United States Department of State has approved a potential $1.5 billion Foreign Military Sale (FMS) to Austria for 12 UH-60M Black Hawk helicopters and a comprehensive package of associated equipment, training, sustainment, and logistics support. The proposed sale was formally notified to Congress on June 17, 2026, with Sikorsky, a Lockheed Martin company, serving as the principal contractor. The acquisition forms a key part of Austria’s Armed Forces 2032+ modernization program, which aims to strengthen military capabilities and replace aging aviation assets. The new helicopters will replace the Austrian Air Force’s Agusta-Bell AB212 fleet, which has been in service since 1980, while expanding the country's existing Black Hawk force. Austria currently operates S-70A Black Hawk helicopters, and the addition of the UH-60M variant will significantly enhance operational capabilities. Deliveries are scheduled to begin in 2028, while Austria’s first UH-60M entered its final U.S. Army outfitting and certification phase in May 2026 ahead of transfer. Advanced Aircraft and Mission Systems The UH-60M is the latest production version of the Black Hawk available through the U.S. Foreign Military Sales program. The aircraft is equipped with General Electric T700-GE-701D engines, upgraded wide-chord rotor blades, and a fully digital glass cockpit, providing improved performance, reliability, and operational efficiency. The approved package includes 12 helicopters, 26 engines, missile warning systems, infrared countermeasure systems, radar warning receivers, satellite communication radios, and EAGLE-M+429 systems. Additional equipment includes advanced navigation aids, Identification Friend or Foe (IFF) transponders, electro-optical and infrared sensors, ballistic protection, auxiliary fuel tanks, rescue hoists, fast-rope insertion systems, degraded visual environment technology, and LINK-16 tactical data link terminals. The agreement also covers training devices, spare parts, technical publications, maintenance equipment, contractor support, and long-term logistics services to ensure sustained operational readiness. Supporting Military and Civil Operations The new helicopters will support a broad range of missions, including troop transport, search-and-rescue operations, disaster response, medical evacuation, logistics support, and firefighting activities. Enhanced avionics, navigation systems, and self-protection equipment are expected to improve safety and effectiveness during operations in Austria’s mountainous terrain. Strengthening Defense Cooperation According to the Defense Security Cooperation Agency (DSCA), the sale supports U.S. foreign policy and national security objectives by improving the defense capabilities of a European partner nation. The widespread use of the Black Hawk platform among NATO members and partner countries will also enhance interoperability, simplifying joint training, maintenance, and coalition operations. The State Department stated that Austria is well positioned to integrate the helicopters into its armed forces. No offset agreements have been announced, and any related arrangements will be negotiated directly between Austria and the contractor. The approval reflects continued investment by European nations in modern rotary-wing capabilities and marks another step in Austria’s long-term military modernization efforts under the Armed Forces 2032+ program.
Read More → Posted on 2026-06-19 15:55:53
World
HAVANA, Cuba — June 19, 2026 : Cuba has completed construction of a major signals intelligence antenna array at its Bejucal facility near Havana, significantly enhancing its ability to monitor and locate radio transmissions across a large portion of the Western Hemisphere, according to a report released on June 18, 2026, by the Center for Strategic and International Studies (CSIS). Located approximately 145 kilometers (90 miles) from the Florida coast, the Bejucal site is now assessed as highly likely operational. The upgraded facility is capable of intercepting and geolocating communications across the southeastern United States, the Gulf of Mexico, the Caribbean, and portions of the Western Atlantic. The development comes as the United States increases its strategic focus on the Western Hemisphere and raises concerns about foreign intelligence activities operating from Cuban territory. Large Circular Antenna Array Completed Satellite imagery analyzed by CSIS researchers Matthew Funaiole, Brian Hart, Joseph Bermudez Jr., and Aidan Powers-Riggs shows that Bejucal has undergone a major transformation over the past two years. An older linear antenna grid has been replaced with a Circularly Disposed Antenna Array (CDAA), a specialized system designed to determine the direction and origin of radio signals. The newly completed array measures approximately 175 meters in diameter and consists of 32 antennas arranged in two concentric rings, including 19 antennas on the outer ring and 13 on the inner ring. According to CSIS, this is the largest and most capable Cuban CDAA installation documented to date. The new system also replaces a smaller circular array previously located nearby, making Bejucal the country's most significant active signals intelligence facility. How the System Works A CDAA functions by simultaneously receiving radio transmissions across multiple antennas and calculating the direction from which the signal originates. By combining data from different locations, operators can accurately triangulate the source of transmissions. The technology has roots in Cold War-era intelligence systems such as the U.S. military's Pusher and Wullenweber programs but remains relevant for modern intelligence gathering. CDAAs can be used to monitor military communications, electronic emissions, maritime traffic, and aircraft movements over distances that can range from 3,000 to 8,000 nautical miles depending on signal conditions. Due to its location near Havana, the Bejucal facility is well positioned to observe U.S. naval operations in the Caribbean, military aviation activity across the southeastern United States, and shipping traffic throughout the Gulf of Mexico. Suspected Links to Chinese Intelligence Operations The Bejucal complex occupies a historically significant military site. The surrounding area was previously used during the 1962 Cuban Missile Crisis, when Soviet nuclear weapons were stationed in Cuba. In recent years, the facility has frequently appeared in public reporting, congressional testimony, and official U.S. statements regarding foreign intelligence activities in Cuba. While CSIS notes that there is no declassified public evidence proving direct Chinese operation of the specific antenna array, U.S. officials have acknowledged that China operates at least three intelligence facilities in Cuba. Based on official statements, construction patterns, and previous assessments, CSIS researchers believe Bejucal is likely one of those locations. However, the exact operational arrangements and level of foreign involvement remain undisclosed. Construction Slows at El Salao Facility The CSIS report also examined a second suspected CDAA site located at El Salao, near Santiago de Cuba on the island's eastern coast. The location is strategically important because it lies only a short distance from the U.S. Naval Station at Guantanamo Bay. Construction activity at El Salao began in 2021, and early development included a central control building, utility infrastructure, and foundations for an inner ring of 16 planned antennas. However, updated satellite imagery from May 2026 indicates that work has slowed significantly. No antennas have been installed, and vegetation has begun reclaiming previously cleared construction areas, suggesting that activity has been largely inactive for an extended period. Despite the slowdown, analysts do not believe the project has been abandoned. Recent imagery shows that an access road has been repaved and redirected toward the center of the facility. Researchers note that a road crossing the center of an operational CDAA would interfere with its function, leaving the site's ultimate purpose uncertain. CSIS stated that El Salao could eventually be completed as a modified listening post or repurposed for another intelligence-related role. Potential Combined Coverage If the El Salao facility is completed in the future, it could operate alongside Bejucal to provide broader intelligence coverage across the Caribbean and Central America. Working together, the two sites could improve the ability to triangulate signals across a much larger area, including portions of the Western Atlantic, Central America, and the southeastern Caribbean. Multiple listening stations operating in coordination can increase the accuracy of signal location and tracking. U.S. Response and Strategic Implications The expansion of Cuba's intelligence infrastructure has already influenced U.S. policy. In a May 2026 executive order, the Trump administration imposed additional sanctions on Cuba and cited the country's hosting of "foreign adversary facilities" targeting sensitive U.S. national security information. The developments occur amid broader geopolitical competition and growing attention to intelligence activities in the Western Hemisphere. Cuba's proximity to the United States has long made the island strategically valuable for signals intelligence collection, and the completion of the Bejucal array reinforces its role in regional surveillance operations. CSIS emphasized that its findings are based on commercial satellite imagery and open-source analysis. While the imagery confirms the completion of the antenna array and ongoing developments at both locations, it does not provide direct evidence regarding day-to-day operations or specific operators of the facilities. The organization stated that it will continue monitoring the sites through its Hidden Reach initiative, which tracks strategic infrastructure and intelligence-related developments using publicly available imagery and analysis.
Read More → Posted on 2026-06-19 15:35:22
World
MINOT AIR FORCE BASE, North Dakota — June 19, 2026 : The U.S. Air Force has launched an expedited procurement process for additional Dronebuster Block 4 handheld counter-drone systems to enhance security at Minot Air Force Base, home to one of the nation's intercontinental ballistic missile (ICBM) forces. On June 18, 2026, the 5th Contracting Squadron at Minot Air Force Base issued a solicitation for DZYNE Technologies’ Dronebuster Block 4 systems to support the 91st Security Forces Group. Vendor quotations are due by June 26, 2026, with the requirement designated as an operational necessity. Protecting the Missile Field Minot Air Force Base hosts the 91st Missile Wing, which operates 150 Minuteman III intercontinental ballistic missiles deployed across approximately 8,500 square miles (22,000 square kilometers) of North Dakota. The 91st Security Forces Group is responsible for protecting the missile fields, launch facilities, and base infrastructure. The unit consists of approximately 900 personnel dedicated to force protection and nuclear security missions. Dronebuster Block 4 Capabilities Developed by DZYNE Technologies, the Dronebuster Block 4 is a handheld electronic warfare system designed to counter commercial drones. The system weighs approximately 5.85 pounds (2.65 kilograms) and can be operated by a single user without vehicles, generators, or fixed installations. Dronebuster disrupts radio frequency command-and-control links and interferes with Global Navigation Satellite System (GNSS) signals, including GPS, Galileo, GLONASS, and BeiDou, forcing drones to land or return to their operators. The Block 4 variant also includes Position, Navigation, and Timing (PNT) attack capabilities that can alter the flight path of autonomous drones and counter drone swarms at distances of up to 4 kilometers. The system provides more than 60 minutes of continuous jamming capability and is compatible with detection, tracking, and identification systems. Sole-Source Procurement Air Force contracting documents state that the Dronebuster is the only handheld electronic attack system currently authorized for use across the U.S. Department of Defense. As a result, the procurement specifies the Dronebuster by name through a single-source justification. The justification was certified by Staff Sgt. Marta E. Lange of the 5th Contracting Squadron and supported by Tech. Sgt. Elise M. Kelege of the 91st Mission Support Squadron. Competition will remain open among authorized distributors to ensure fair pricing. Expanding Counter-Drone Defenses The acquisition falls under Air Force Global Strike Command, which oversees the nation's nuclear bomber and missile forces, including the B-52, B-2, and Minuteman III fleets. The procurement reflects the growing emphasis on countering small unmanned aerial systems around critical military installations. The additional Dronebuster systems will support mobile security operations and expand counter-drone coverage across Minot's missile fields. No quantity or contract value was disclosed in the public solicitation.
Read More → Posted on 2026-06-19 14:50:35
India
New Delhi, — June 19, 2026 : The Ministry of Defence (MoD) has signed a ₹425 crore contract with Pune-based Bharat Forge Limited for the supply of 12 sets of 1.25 MW Marine Gas Turbine Generators (MGTGs) for the Indian Navy. The agreement was signed in New Delhi in the presence of Defence Secretary Rajesh Kumar Singh and has been awarded under the Buy (Indian) category of the Defence Acquisition Procedure (DAP) 2020, requiring a minimum of 60 percent indigenous content. Kalyani Strategic Systems Limited (KSSL), the defence arm of Bharat Forge, will serve as the production and integration partner for the programme. Power Generation for Naval Combatants The 1.25 MW Marine Gas Turbine Generators (MGTGs) are auxiliary systems designed to generate electrical power onboard naval vessels. Unlike propulsion gas turbines that drive warships, these generators provide electricity for critical ship systems, including combat networks, sensors, communications equipment, and weapons systems. According to reports, the first indigenous gas turbine-based generator sets are expected to be installed on the Indian Navy’s Kolkata-class destroyers as part of fleet modernization efforts. Building Indigenous Naval Capability The contract is expected to be executed over five years and aims to establish domestic capability for manufacturing, integration, testing, maintenance, repair, and overhaul (MRO) of strategic naval power-generation systems. As part of the programme, Bharat Forge will establish a dedicated marine gas turbine generator integration and testing facility in Pune. The initiative is also expected to strengthen local maintenance and life-cycle support capabilities, reducing dependence on foreign suppliers for sustainment of critical naval equipment. Expanding Marine Gas Turbine Infrastructure The contract marks Bharat Forge’s entry into the marine gas turbine generator segment. Earlier in May 2026, the company signed a Memorandum of Understanding (MoU) with the Andhra Pradesh government to establish a private-sector marine gas turbine repair, overhaul, and indigenous development facility in Visakhapatnam. The facility, located within the state's Defence Manufacturing Corridor, is expected to create around 750 direct and indirect jobs. The programme is also expected to support future indigenous development of higher-capacity naval power plants and marine gas turbine technologies for upcoming defence requirements.
Read More → Posted on 2026-06-19 14:42:36
World
PARIS, — June 19, 2026 : EuroTrophy unveiled new configurations of its Trophy hard-kill Active Protection System (APS) during the Eurosatory 2026 defense exhibition, introducing enhanced capabilities designed to address evolving battlefield threats, particularly unmanned aerial vehicles (UAVs) and loitering munitions. EuroTrophy, a joint venture between Rafael Advanced Defense Systems, General Dynamics European Land Systems (GDELS), and KNDS Deutschland, presented an upgraded system architecture that expands the role of active protection systems beyond traditional anti-tank defense and integrates them more closely with a vehicle’s overall defensive network. Two Radar Configurations for Different Threat Environments The company announced that Trophy will now be offered in two primary configurations, distinguished by their radar systems. The first configuration uses the combat-proven ELM-2133 WindGuard radar, operating in the S-band. WindGuard has been optimized for detecting, tracking, and intercepting conventional anti-armor threats such as anti-tank guided missiles (ATGMs), rocket-propelled grenades, and other anti-tank weapons. The second and newly introduced configuration features the StormGuard radar, which operates in the X-band. Developed by Israel Aerospace Industries (IAI), StormGuard uses slightly smaller antennas and provides improved detection and tracking performance against slow-moving, low-signature aerial targets, including quadcopter drones and loitering munitions. Both WindGuard and StormGuard radars are manufactured by IAI and can be integrated into the Trophy protection architecture depending on operational requirements. New Anti-Drone Configuration Demonstrated on Leopard 2 A-RC 3.0 EuroTrophy showcased its latest anti-drone configuration on the KNDS Leopard 2 A-RC 3.0 concept main battle tank. The vehicle's unmanned turret design allows greater flexibility for integrating additional defensive systems and external modules. The upgraded configuration incorporates dedicated interceptor drones as part of the Trophy defensive suite. The demonstrator vehicle featured two launcher blocks mounted at the rear of the turret, each containing four transport-launch canisters. Together, the launchers provide a total payload of eight interceptor drones. The Trophy fire control system automatically classifies incoming threats and selects the most suitable response. For traditional threats such as anti-tank missiles and rocket projectiles, the system employs its standard kinetic interceptors. Against aerial threats, including drones and loitering munitions, Trophy can launch onboard interceptor drones to engage and neutralize targets before they reach the vehicle. The system can also transmit precise targeting information to a remotely controlled weapon station (RCWS) equipped with a 30mm rapid-fire autocannon, enabling additional counter-UAV engagement options. According to EuroTrophy, the ability to distribute accurate target data across multiple onboard systems significantly expands the role of Trophy within a vehicle's defensive architecture and battle management network. Integration with NATO Armoured Platforms Trophy has become one of the most widely adopted active protection systems for Western armoured vehicles, particularly within the Leopard 2 family. The system is already integrated on German Leopard 2A7A1 tanks and Norwegian Leopard 2A8NO tanks. Norway's tanks were originally designated Leopard 2A7NO but were later reclassified as Leopard 2A8 following minor design updates and alignment with the broader Leopard 2A8 program. Future Leopard 2A8 production vehicles are expected to include Trophy as a baseline capability. The German Bundeswehr is reportedly preparing to finalize the acquisition of at least 75 additional Leopard 2A8 tanks this year as part of a wider European procurement effort involving the Netherlands, Lithuania, and the Czech Republic. Deliveries of these Leopard 2A8 variants are scheduled to begin in 2026. Earlier this year, EuroTrophy also secured contracts related to Leopard 2A8 programs in Lithuania, the Netherlands, the Czech Republic, and Croatia, supporting greater interoperability among NATO armoured forces. Adoption Beyond the Leopard 2 Fleet Outside the Leopard platform, the Trophy HV variant has been selected for the U.S. Army's M1A2 SEPv3 Abrams tanks, where it is fielded as wartime additional equipment. The system is also planned for integration on a portion of the British Army's Challenger 3 fleet. In Israel, Trophy continues to serve as standard equipment on Merkava main battle tanks and Namer armoured personnel carriers, where it has accumulated extensive operational experience. Focus on Emerging Battlefield Threats The new Trophy configurations reflect growing demand for protection systems capable of countering both conventional anti-tank weapons and increasingly prevalent aerial threats. By combining advanced radar options, interceptor drones, kinetic countermeasures, and integration with onboard weapon stations, EuroTrophy aims to provide armoured vehicles with a layered defensive capability suited to modern combat environments. The company stated that ongoing testing and integration efforts will continue to refine these capabilities as armed forces adapt to the increasing use of drones and loitering munitions on contemporary battlefields.
Read More → Posted on 2026-06-19 14:34:13
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BEIRUT, — June 19, 2026 : A memorandum of understanding signed between the United States and Iran aimed at reducing regional tensions has faced immediate challenges following expanded Israeli military operations in southern Lebanon and Iran's decision to suspend negotiations and close the Strait of Hormuz. The agreement, electronically signed on June 17 by US President Donald Trump and Iranian President Masoud Pezeshkian, was intended to support a 60-day ceasefire period and facilitate discussions on regional security and Iran’s nuclear program. Israeli Operations in Southern Lebanon Israeli forces intensified operations in southern Lebanon with airstrikes and a ground advance deeper into Lebanese territory. The Israeli military released an updated map showing an expanded operations zone extending up to 10 kilometers (6.2 miles) inside Lebanon. According to the Lebanese Health Ministry, airstrikes on at least 10 towns and villages in southern Lebanon resulted in 18 fatalities and 33 injuries. Areas targeted included the southern outskirts of Kfartebnit and the Ali al-Taher area. The Israeli military also confirmed the deaths of four soldiers, including a battalion commander, during the fighting. Hezbollah stated it used drones, rockets, and artillery to repel advancing Israeli forces over the past four days. Iran Suspends Negotiations The escalation in Lebanon disrupted the next phase of the US-Iran diplomatic process, which included a 60-day period of technical discussions on nuclear stockpiles, sanctions relief, and regional security. Iranian officials said Tehran would not implement commitments outlined in the memorandum until Israeli military operations, particularly in Lebanon, are halted. Planned negotiations in Switzerland were subsequently suspended. Iranian authorities confirmed their delegation would not attend the talks, while US Vice President JD Vance also canceled his planned visit. The White House cited logistical issues for the postponement, while Iranian state media linked Tehran’s decision directly to Israel’s ongoing operations. Prior to the cancellation, Vance stated that future economic relief for Iran would depend on compliance with the agreement. IRGC Closes Strait of Hormuz Iran’s Islamic Revolutionary Guard Corps (IRGC) announced the closure of the Strait of Hormuz to all maritime traffic, citing regional security concerns and Israeli military actions in Lebanon. The IRGC stated that the waterway would be closed to all vessels, including oil tankers and commercial ships. The move threatens to disrupt global energy shipments through one of the world's most important maritime routes. Maritime tracking companies had reported that major shipping operators had begun resuming movements through the strait following the signing of the US-Iran agreement. US Response US Central Command (CENTCOM) said American naval forces would remain in the region to monitor developments. The United States stated it had fulfilled early military-related commitments under the memorandum, including beginning the process of lifting its naval blockade on Iranian ports. Uncertainty Over Agreement The memorandum followed months of regional conflict and sought to reduce tensions, address sanctions issues, ensure freedom of navigation, and establish a framework for further nuclear discussions. As of June 19, the suspension of Switzerland talks and the closure of the Strait of Hormuz have created uncertainty over the next phase of US-Iran engagement, while international shipping and energy markets continue to monitor developments closely.
Read More → Posted on 2026-06-19 14:07:16
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PARIS, — June 19, 2026 : South Korean defense company Hanwha Aerospace and French defense technology firm Thales have signed a Memorandum of Understanding (MoU) to cooperate on the development of land-based long-range precision strike capabilities through the integration of Hanwha’s Chunmoo guided missile family with Thales’ X-Fire launcher platform. The agreement was officially signed on June 17, 2026, during the Eurosatory 2026 defense exhibition at Paris Nord Villepinte, one of the world's largest international defense and security events. Focus on Long-Range Precision Strike Capability Under the MoU, the two companies will work to integrate three of Hanwha Aerospace’s precision-guided munitions with the X-Fire launcher system. The cooperation is intended to provide armed forces with a modular and interoperable precision-strike solution capable of engaging targets across a wide range of distances. The missiles covered under the agreement include: Missile Type Classification Approximate Range CGR-080 239 mm Guided Rocket Up to 80 km CTM-MR Medium-Range Missile Approximately 160 km CTM-290 Tactical Ballistic Missile Up to 290 km The integration would allow operators to deploy short-, medium-, and long-range precision fires from a common launcher platform, increasing operational flexibility and simplifying logistics. Combining Missile and Launcher Technologies Hanwha’s K239 Chunmoo Multiple Rocket Launcher System (MLRS) has gained significant attention in international markets due to its ability to employ a broad range of guided rockets and missiles. The system has secured procurement contracts and partnerships with several European countries, including Poland, Estonia, and Norway. The CGR-080 guided rocket provides precision engagement capability at ranges of up to 80 kilometers. The CTM-MR extends the strike envelope to around 160 kilometers, while the CTM-290 tactical ballistic missile can engage targets at distances of up to 290 kilometers, providing deep-strike capability against high-value targets. The partnership aims to combine these missile systems with the X-Fire launcher, a highly mobile ground-based platform jointly developed by Thales and Soframe. Designed as a versatile launcher capable of firing various long-range munitions, X-Fire completed its first demonstration firings on May 20, 2026. Mounted on an 8x8 wheeled platform, the launcher is designed for rapid deployment, high mobility, and operational flexibility in modern battlefield environments. The system is intended to support both sovereign and allied munitions, providing flexibility for future operational requirements. Growing Demand for Deep-Strike Systems The cooperation comes as European countries continue to strengthen their long-range precision fire capabilities. Recent conflicts have highlighted the importance of systems capable of engaging command centers, logistics hubs, ammunition depots, and other critical targets far beyond the front line. By integrating Chunmoo missiles with a European launcher platform, Hanwha Aerospace and Thales aim to provide armed forces with a scalable solution capable of meeting evolving operational requirements while supporting interoperability among allied nations. Strategic Expansion in Europe For Hanwha Aerospace, the agreement represents another step in expanding its presence in the European defense market. The company has steadily increased cooperation with European defense industries through technology partnerships, industrial cooperation agreements, and artillery system exports. The integration of Chunmoo missiles with the X-Fire launcher is expected to strengthen links between South Korean and European defense industries while creating additional opportunities for future cooperation in precision-strike systems. European defense procurement programs increasingly emphasize local industrial participation and interoperability. The cooperation framework established under the MoU is intended to support these objectives while enhancing the availability of long-range precision-strike capabilities for potential customers. Next Steps The Memorandum of Understanding establishes a framework for technical cooperation and integration activities between the two companies. No production contracts, procurement agreements, or financial details have been disclosed. The planned integration will focus on ensuring compatibility between the Chunmoo missile family and the X-Fire launcher platform, creating a combined capability able to deliver precision strikes at ranges from 80 kilometers to 290 kilometers. As European nations continue investing in long-range fires and modern artillery capabilities, the Hanwha-Thales cooperation positions both companies to offer an interoperable precision-strike solution tailored to emerging operational requirements across the continent.
Read More → Posted on 2026-06-19 13:55:30
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Madrid, — June 19, 2026 : The Spanish Navy and European defense company Destinus conducted a live test launch of the Hornet Block 1 interceptor from the F-81 Santa María frigate on June 18, 2026, marking a step in evaluating modular air defense solutions for naval platforms. The trial involved a single interceptor launched from a containerised system installed on the deck of the Santa María, a frigate based on the Oliver Hazard Perry-class design. The objective was to assess whether interceptor systems can be rapidly integrated onto existing warships without major structural modifications or the installation of dedicated vertical launch systems. The containerised launcher uses standard shipping-container architecture, allowing naval vessels to carry additional interceptors through a flexible and comparatively low-cost deployment method. The concept is being explored as navies seek effective ways to counter the increasing use of drones, loitering munitions, and coordinated unmanned aerial threats in maritime environments. Developed by Destinus, the Hornet Block 1 is a canister-launched interceptor designed to engage subsonic aerial targets, including Group 3 UAVs and drone swarms. The system can operate in GNSS-denied environments and uses host-ship radar guidance during the initial phase of flight before transitioning to autonomous target engagement using electro-optical/infrared and radar seekers. According to company specifications, the interceptor has a range of more than 75 kilometers and carries a 1.5-kilogram payload. Its design aims to provide a dedicated counter-UAS capability while reducing reliance on more expensive air defense missiles for engaging smaller threats. The naval demonstration follows earlier development activities conducted in Spain, where Destinus worked with Shield AI to integrate the Hivemind autonomous software suite into the Hornet platform. Those tests demonstrated collaborative autonomous operations and adaptive responses against multiple unmanned targets. Destinus is also developing the Hornet Block 2, an enhanced variant intended for both air-defense missions and precision strikes against maritime and ground targets. The future system is expected to feature a range exceeding 150 kilometers, a 3-kilogram payload, and advanced AI-enabled swarm coordination capabilities. The Spanish Navy has not released details regarding the threat scenario, engagement parameters, or the outcome of the June 18 firing. However, the demonstration provided an opportunity to evaluate the operational suitability of containerised interceptor technology aboard frontline naval vessels. The test reflects growing interest in modular defense systems that can strengthen ship survivability and expand defensive capacity without extensive platform modifications, particularly as unmanned threats continue to evolve across the maritime domain.
Read More → Posted on 2026-06-19 13:41:35
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Washington, D.C., — June 19, 2026 : The U.S. Defense Advanced Research Projects Agency (DARPA) has launched a new initiative to develop computing systems capable of operating with extremely limited power, memory, and hardware resources in military environments. On June 18, 2026, DARPA's Multi X Office (MXO) released a Request for Information (RFI), DARPA-SN-26-97, seeking concepts for Low Resource Computing (LRC). The effort aims to enable software to run effectively on hardware that is normally considered too small, power-constrained, or unreliable for practical use. The initiative addresses a growing gap between commercial computing and military requirements. While commercial technology increasingly relies on large artificial intelligence (AI) models supported by data centers and cloud infrastructure, military systems often operate in remote or contested environments without reliable power, communications, or cloud access. Focus on Computing Under Resource Constraints DARPA's RFI highlights the evolution of computing efficiency by comparing the 1945 ENIAC computer, which weighed nearly 30 tons and consumed about 150 kilowatts of power, with modern low-power microchips that operate on fractions of a milliwatt while delivering significantly greater performance. The agency said it is not seeking incremental improvements in size, weight, and power (SWaP) requirements. Instead, it is looking for new approaches to computing under severe resource constraints. Physical Resource Challenges DARPA identified four key areas of interest: Ultra-low-power systems operating on nanowatts of power through environmental energy harvesting and without dependence on external power grids. Minimal-memory computing capable of performing complex tasks using only kilobytes or bytes of memory. Hardware resilience that enables reliable operation on noisy, degrading, or damaged hardware in combat conditions. Unconventional fabrication methods, including low-precision manufacturing, legacy techniques, mechanical systems, biological components, and computational origami-based circuit designs. Logical Resource Challenges The agency is also seeking solutions in four software-related areas: Zero-trust environments that continue functioning despite corrupted or manipulated data. Minimal system access approaches that perform complex tasks without requiring administrative control of hardware. Self-hosting architectures that allow systems to modify and reprogram themselves in the field. Simplified user interfaces designed for personnel operating under stress with minimal training requirements. Managed by DARPA's Multi X Office The program is managed by DARPA's Multi X Office (MXO), formerly the Microsystems Technology Office (MTO), which was renamed on May 20, 2026. The office now focuses on integrated capabilities spanning computer architecture, materials science, algorithms, human factors, and supply chain resilience. Daniel Ridge serves as the technical point of contact for the initiative. DARPA is inviting responses from universities, research organizations, companies, startups, and individual inventors. The RFI does not require participants to hold security clearances, allowing broader participation from non-traditional defense contractors and academic researchers. Responses are due by July 17, 2026. DARPA plans to hold an invitation-only workshop in Hanover, New Hampshire, in August 2026 to review promising concepts and help shape future research programs. The Low Resource Computing initiative is intended to support future military operations by developing computing systems that can function effectively in environments where power, communications, and infrastructure are limited or unavailable.
Read More → Posted on 2026-06-19 13:21:31
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LONDON/BRUSSELS, — June 19, 2026 : The United Kingdom has announced a £752 million military support package for Ukraine, providing 150,000 drones, more than 350 air defence missiles, and ground-based radar systems to strengthen Kyiv’s defence against ongoing Russian attacks. The package is funded through the UK's £2.26 billion Extraordinary Revenue Acceleration (ERA) loan, a G7-backed initiative financed by future proceeds generated from immobilised Russian sovereign assets. British officials said the assistance is intended to help Ukraine maintain its defensive capabilities while supporting its long-term security needs. Chancellor Rachel Reeves said the funding would deliver critical military equipment required by Ukraine and reaffirmed Britain's continued commitment to supporting Kyiv while maintaining pressure on Russia. Focus on Air Defence and Drone Production According to the UK Ministry of Defence, the aid package is designed to improve Ukraine’s protection against missile and drone attacks targeting civilian areas and critical infrastructure. A significant portion of the support will be directed toward drone procurement, with most of the 150,000 units consisting of Ukrainian-produced first-person-view (FPV) quadcopters. The government noted that supporting domestic production enables faster delivery of equipment while strengthening Ukraine’s defence-industrial base. The package will also provide Lightweight Multirole Missiles (LMM) and radar systems to enhance air defence coverage and detection capabilities. Announcement at NATO Meetings The assistance was formally announced by Defence Secretary Dan Jarvis during meetings in Brussels, where he attended the NATO Defence Ministers’ Meeting and the 35th Ukraine Defence Contact Group (UDCG) session. The group, which includes representatives from nearly 50 countries, continues to coordinate military support for Ukraine. During the visit, Jarvis met with Ukrainian President Volodymyr Zelenskyy and discussed ongoing military assistance and future cooperation efforts. He stated that strengthening NATO’s deterrence and defence capabilities remains a key priority alongside continued support for Ukraine. Expanded Cooperation With Allies Alongside Ukraine-related discussions, the United Kingdom, Germany, and Norway agreed to deepen cooperation on anti-submarine warfare operations in the High North and Atlantic regions. The three nations operate advanced maritime assets, including frigates and P-8 Poseidon maritime patrol aircraft, which play a key role in submarine detection and tracking missions. Jarvis also held discussions with defence counterparts from the United States, France, Germany, Norway, Estonia, Denmark, Finland, and Ukraine on regional security and defence cooperation. Measures Targeting Russia The Ministry of Defence said Britain continues to increase pressure on Moscow through sanctions and enforcement actions aimed at restricting Russian revenue streams. Recent measures include action against Russia’s so-called shadow fleet, a network of vessels used to transport oil outside international restrictions. British authorities recently seized the tanker Smyrtos while it transited the English Channel after determining it was operating without a recognised national registry. The vessel was reportedly carrying more than 100,000 tonnes of Russian crude oil. The operation followed broader G7 announcements by Prime Minister Keir Starmer, including £210 million in UK Export Finance support for Ukraine’s nuclear power sector and 70 additional sanctions targeting Russian military procurement networks, shadow fleet operations, and illicit financial activities. UK to Lead Multinational Force for Ukraine In a separate development, Britain will assume command of the Multinational Force for Ukraine Headquarters (MNF-U). Major General Tom Bateman will take command next month and be promoted to Lieutenant General. The headquarters will coordinate international military assistance and support long-term planning for the future development and modernisation of Ukraine’s Armed Forces. Bateman has previously led planning efforts related to the recovery and regeneration of Ukraine’s military in coordination with allied partners. The latest support package forms part of the UK government's broader defence strategy, which continues to prioritise NATO cooperation while sustaining military assistance to Ukraine amid the ongoing conflict.
Read More → Posted on 2026-06-19 13:05:34
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BRUSSELS, — June 18, 2026 : Germany has announced a $400 million military assistance package to strengthen Ukraine’s air defense capabilities, focusing on the procurement of interceptor missiles and ammunition for air defense systems. The announcement was made by German Defense Minister Boris Pistorius ahead of a NATO defense ministers’ meeting in Brussels. The funding package is intended to support Ukraine’s air defense network amid continued missile and drone attacks targeting critical infrastructure and civilian areas. Funding Divided Between PURL and JUMPSTART The assistance package will be split equally between two international procurement initiatives. Program Allocation Purpose Prioritized Ukraine Requirements List (PURL) $200 Million Procurement of urgently needed air defense ammunition JUMPSTART $200 Million Acquisition of PAC-3 interceptor missiles for Patriot systems Germany’s contribution through the PURL (Prioritized Ukraine Requirements List) mechanism marks its fourth participation in the program, which facilitates the purchase of U.S.-made weapons and ammunition not produced in Europe. The remaining $200 million will be provided through the JUMPSTART program under the U.S. Foreign Military Sales framework to procure PAC-3 guided interceptor missiles for Patriot air defense systems. PAC-3 interceptors are designed to engage ballistic missile threats and are considered one of the key components of Ukraine’s long-range air defense architecture. Germany also called on other members of the Ukraine Defense Contact Group to contribute to ongoing PAC-3 procurement efforts. Support Follows G7 Air Defense Commitments The funding announcement follows a recent agreement by G7 leaders in Évian, France, to increase deliveries of air defense equipment to Ukraine and explore options for expanding licensed defense production within the country. The new package is aimed at helping Ukraine replenish interceptor stocks and maintain the operational readiness of its air defense systems. Germany and Ukraine Advance Freyja Missile Shield Project Alongside the immediate procurement measures, Germany and Ukraine are expanding long-term defense cooperation. On the sidelines of the Ramstein-format meeting, German Defense Minister Boris Pistorius and Ukrainian Defense Minister Mykhailo Fedorov signed an agreement establishing a framework for the joint development of a European anti-ballistic missile defense system known as Freyja. The proposed system will combine German radar and command-and-control technologies with the Ukrainian-developed FP-7.x interceptor missile. The project is intended to create a European missile defense solution while enhancing cooperation between the defense industries of both countries. Seven German defense companies, including Hensoldt, have expressed interest in participating in the project. Germany Funds NOMADS Air Defense Systems for Ukraine In a separate development, Germany has financed the acquisition of NOMADS (National Manoeuvre Air Defence System) systems for the Ukrainian Armed Forces. According to the German Aid to Ukraine (GAU) monitoring project, eight NOMADS systems have already been delivered to Ukraine. Developed by Kongsberg Defence & Aerospace, the NOMADS system entered full-scale serial production in June 2024 and is mounted on an ACSV tracked armored vehicle chassis. The short-range air defense system is designed to protect maneuver units and logistics facilities from low-altitude aerial threats, including: Cruise missiles Unmanned aerial vehicles (UAVs) Low-flying aircraft Helicopters NOMADS is equipped with an X-band radar and can employ either IRIS-T or AIM-9X Sidewinder missiles, providing a mobile and autonomous layer of air defense. Continued Air Defense Assistance Germany has been among Ukraine’s largest providers of air defense support and has previously delivered Patriot systems and other air defense equipment. The latest $400 million package, combined with support for the Freyja project and NOMADS systems, forms part of broader international efforts to strengthen Ukraine’s layered air defense network and improve protection against missile and drone threats.
Read More → Posted on 2026-06-18 18:02:13
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MOSCOW, — June 18, 2026 Ukraine carried out its largest drone attack on Moscow since the beginning of Russia’s full-scale invasion, targeting key energy infrastructure in and around the Russian capital. Russian authorities reported that hundreds of unmanned aerial vehicles (UAVs) were launched during the overnight operation, with several reaching their intended targets despite extensive air defense activity. According to Moscow Mayor Sergei Sobyanin, Russian air defense systems intercepted 194 drones approaching the capital. The Russian Defense Ministry stated that a total of 555 Ukrainian drones were shot down across 17 regions of the country. Russian officials also reported that nearly 1,000 drones and four Ukrainian cruise missiles had been intercepted nationwide over a 24-hour period. Kapotnya Oil Refinery Hit One of the primary targets of the operation was the Moscow Oil Refinery, also known as Gazprom Neft’s Kapotnya facility, located in southeastern Moscow approximately 15 kilometers from the Kremlin. The refinery is one of the largest fuel suppliers to the Moscow region and plays an important role in meeting the capital’s fuel demand. Several drones reportedly penetrated Moscow’s air defenses and struck the facility, causing fires, heavy smoke, and explosions. Images and videos circulating online showed thick black smoke rising from the refinery complex. Residents in nearby districts reported a strong smell of burning fuel, while some areas experienced what witnesses described as “oil rain,” with small black droplets and residue falling from the sky. Residents told media outlets that the fallout left dark spots on clothing and vehicles. Moscow authorities denied reports of oil rain. However, the city’s official communication channels advised residents in affected areas to keep windows closed and recommended that families with children, elderly individuals, and people suffering from respiratory conditions temporarily leave the area. Questions Over Cause of Storage Tank Damage Footage from the refinery appeared to show a large explosion involving an oil storage tank. According to analysis highlighted by Ukrainian commentator Denis Kazansky, the damage may not have resulted from a direct drone strike. Video footage reportedly showed the trajectory of a Russian surface-to-air missile heading toward the tank during an interception attempt. Some observers suggested that the storage tank may have been accidentally struck by Russian air defense fire while engaging incoming drones. No official confirmation of this assessment has been provided. Second Strike on Refinery This Week The attack marked the second reported strike on the Kapotnya refinery within days, following an earlier attack around June 16. The repeated targeting of the facility reflects Ukraine’s ongoing focus on Russian energy infrastructure, which Kyiv views as supporting military logistics and fuel supplies. In addition to the refinery strike, Russian authorities reported damage to other infrastructure and facilities in several regions. An oil depot in the Rostov region was also hit, where officials confirmed one fatality. FP-2 Drones Used in the Operation The operation was carried out using FP-2 one-way attack drones developed by the Ukrainian defense technology company Firepoint. The company recently presented upgraded versions of its FP-1 and FP-2 drone systems at the Eurosatory 2026 defense exhibition in Paris. The latest FP-2 configuration incorporates a new monoplane wing design with an integrated fuel tank. According to Firepoint, the upgraded drone can carry a 200-kilogram warhead and has an operational range of approximately 370 kilometers and up to 700 km when carrying a 105-kg payload. Firepoint representatives stated that their drone systems account for a significant share of Ukrainian long-range strikes against targets inside Russia. The company has focused on increasing production capacity and improving operational performance based on battlefield experience. Morok Kamikaze Drones Also Reportedly Participated Reports indicate that Ukrainian Morok kamikaze drones also participated in the large-scale attack on Moscow. The Morok is a long-range one-way attack drone designed to strike targets deep inside enemy territory. According to available data, the drone can carry a 30-kilogram warhead and has a reported operational range of up to 800 kilometers. The system is capable of flying at speeds of approximately 300 kilometers per hour, allowing it to engage targets far from the battlefield. The reported use of Morok drones, together with FP-2 attack drones, demonstrates Ukraine's growing inventory of domestically developed long-range strike systems designed to target infrastructure, logistics networks, and military facilities deep inside Russia. Reports of Bars Guided Missile Use Russian military-linked sources also claimed that the attack involved the Ukrainian Bars guided missile in addition to drones. According to available information, the missile has an estimated range of 700–800 kilometers, a wingspan of approximately two meters, and can carry a warhead weighing between 50 and 100 kilograms. No independent confirmation has been provided regarding the number of Bars missiles used during the operation. Airport Disruptions and Civilian Impact The scale of the attack led to significant disruption across the Moscow region. Operations were temporarily suspended at all four of Moscow’s major passenger airports, affecting hundreds of flights. Russian airlines, including state carrier Aeroflot, reported widespread delays and cancellations. Authorities stated that nearly 300 flights were disrupted as a result of the security measures. Debris from intercepted drones damaged residential buildings in parts of southern Moscow and nearby communities, including Zhukovsky. According to Moscow Region Governor Andrei Vorobyov, at least 17 people were injured, including two children. Authorities also imposed temporary restrictions on several roads near the refinery, including sections of the Moscow Ring Road, while heightened security measures resulted in the temporary closure of Red Square. Zelensky Links Attack to Previous Russian Strike Ukrainian President Volodymyr Zelensky linked the operation to a recent Russian attack on Kyiv that damaged the historic Pechersk Lavra monastery. Speaking after the strike, Zelensky said Ukraine was responding to Russian attacks on Ukrainian cities and infrastructure. He stated that Ukraine did not seek the war but would continue responding to actions taken by Russian forces. Continued Expansion of Long-Range Drone Operations The attack highlights the increasing role of long-range unmanned systems in the conflict. Both Russia and Ukraine have expanded their use of drones to strike targets far from the front lines, including energy facilities, military installations, logistics hubs, and industrial sites. The June 18 operation represents one of the most extensive Ukrainian strikes against Moscow and surrounding infrastructure since the start of the war, demonstrating Kyiv’s ability to conduct large-scale long-range attacks despite Russia’s extensive air defense network. Russian authorities continue to assess the damage, while cleanup and repair operations remain underway at affected sites.
Read More → Posted on 2026-06-18 17:42:22
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WASHINGTON, — June 18, 2026 : The U.S. Department of Energy’s National Nuclear Security Administration (NNSA) has completed and delivered the first production unit of the Mark (Mk) 4B reentry body for the W76 nuclear warhead, achieving the milestone nearly three months ahead of the planned schedule. The accomplishment marks an important step in the ongoing modernization and sustainment of the United States’ sea-based nuclear deterrent, which forms one of the three pillars of the nation’s nuclear triad alongside land-based intercontinental ballistic missiles and strategic bombers. The Mk4B reentry body, developed through a partnership between the NNSA and the U.S. Navy, is designed to protect the W76 warhead as it reenters Earth’s atmosphere at extremely high speeds following launch from a submarine-launched ballistic missile (SLBM). The reentry body must withstand intense heat, pressure, and friction while ensuring the warhead reaches its intended target reliably. Key Component of the U.S. Sea-Based Deterrent The W76 warhead series represents the largest portion of the United States’ active strategic nuclear stockpile. The warheads are deployed aboard UGM-133 Trident II (D5) submarine-launched ballistic missiles, which are carried by the U.S. Navy’s Ohio-class ballistic missile submarines and will eventually transition to the next-generation Columbia-class submarines. Together, the W76 warhead and Trident II missile system form the backbone of the U.S. sea-based nuclear deterrent. The survivability of ballistic missile submarines provides the United States with a credible second-strike capability, a key element of strategic deterrence. The Mk4B upgrade is intended to improve the reliability and long-term sustainability of the previous Mk4A reentry body design while ensuring continued operational effectiveness in evolving security environments. Built on Previous Modernization Efforts The new reentry body follows earlier modernization work conducted under the W76-1 Life Extension Program, which upgraded the original W76-0 warhead and was completed in 2019. The Mk4B program continues efforts to extend the service life and reliability of the W76 system as it remains a central component of U.S. strategic forces. The W76 warhead is estimated to have a yield of approximately 100 kilotons and can be deployed as part of the multiple independently targetable reentry vehicle (MIRV) configuration carried by Trident II missiles. Each Ohio-class submarine is capable of carrying up to 24 Trident II missiles, although operational deployments may vary under arms control agreements and military requirements. Enterprise-Wide Collaboration Accelerated Production According to NNSA, the accelerated completion of the first production unit resulted from coordinated efforts across the U.S. Nuclear Security Enterprise. The Pantex Plant in Texas, which assembled the final Mk4B unit, leveraged previous readiness assessments and production experience to streamline manufacturing activities. The Kansas City National Security Campus accelerated production and delivery of critical non-nuclear components required for the program. Meanwhile, Sandia National Laboratories and Los Alamos National Laboratory expedited qualification testing, technical evaluations, and certification activities necessary to support the accelerated production schedule. “NNSA is making good on our commitment to accelerate production for the nation’s nuclear deterrent and delivering the first W76/Mk4B to the Navy ahead of schedule,” said Brandon Williams, Administrator of the NNSA. Williams noted that enhancing the reliability of the W76 reentry body will help maintain the credibility of the nation’s nuclear deterrent and support long-term national security requirements. Jason Armstrong, Manager of the Pantex Field Office, said the early completion demonstrates the enterprise’s ability to accelerate mission delivery while meeting safety, security, and quality standards. Future Sea-Based Nuclear Programs The successful delivery of the first Mk4B production unit is expected to support broader modernization efforts planned for the U.S. nuclear arsenal over the coming decade. Among the next major sea-based deterrence programs are the W88 Alteration 376 Program, the development of the W93 warhead, and the W80-5 warhead intended for the future nuclear-armed Sea-Launched Cruise Missile-Nuclear (SLCM-N) program. NNSA expects first production units for these systems to be delivered during the early to mid-2030s. The agency also noted that personnel and expertise from the recently completed W88 Alteration 370 modernization effort are helping support the acceleration of upcoming programs. The W88 Alt 370 program reached its final production unit in late 2025. Supporting the Transition to the Columbia-Class Fleet The Mk4B milestone comes as the U.S. Navy prepares to transition from the Ohio-class ballistic missile submarine fleet to the new Columbia-class SSBNs, which are scheduled to begin entering service in the coming years and will gradually replace Ohio-class boats through the 2040s. By modernizing key components such as the W76 reentry body, the United States aims to ensure that its sea-based nuclear deterrent remains reliable, effective, and sustainable throughout the transition period and into the decades ahead. The completion of the first Mk4B production unit represents another step in maintaining the operational readiness of existing strategic systems while supporting future modernization requirements across the nation’s nuclear deterrence enterprise.
Read More → Posted on 2026-06-18 17:35:14
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PARIS, — June 18, 2026 : Rheinmetall and General Atomics Electromagnetic Systems (GA-EMS) have signed a Memorandum of Understanding (MoU) at the Eurosatory 2026 defense exhibition in Paris to explore cooperative large-scale production of the Vektrex 155 mm precision-guided munition, a maneuvering artillery projectile designed to enhance long-range strike capabilities for allied armed forces. The transatlantic agreement establishes a framework for collaboration between the two companies as governments increasingly seek to modernize artillery forces, expand long-range precision-fire capabilities, and replenish munitions stockpiles depleted by ongoing military commitments and heightened security requirements. Focus on Long-Range Precision Fires The Vektrex munition has been developed to provide precision strike capability in highly contested environments, including areas where GPS signals may be degraded, disrupted, or denied. The projectile utilizes a glide-based aerodynamic design with deployable wings that significantly extends its operational range compared to conventional artillery ammunition. According to the companies, Vektrex can achieve engagement distances of approximately 120 kilometers, depending on the artillery system and propellant configuration used. This represents a range increase of two to three times over traditional 155 mm artillery projectiles. The munition is designed for compatibility with existing 39-caliber and 52-caliber 155 mm artillery systems already in service with NATO and partner nations. This interoperability enables military operators to field the capability without requiring new launchers, specialized propellants, or major changes to logistics and support infrastructure. By extending the reach of current artillery platforms, Vektrex is intended to provide a lower-cost standoff strike option compared to tactical missile systems while maintaining precision engagement capabilities at extended ranges. Industrial Cooperation and Production Expansion The MoU was signed by Scott Forney, President of GA-EMS, and Roman Köhne, Chief Executive Officer of Rheinmetall’s Weapon and Ammunition Division. Under the agreement, the companies will evaluate opportunities for distributed co-production across allied defense industries. The initiative combines General Atomics’ expertise in precision-strike munition design, guidance technologies, and scalable manufacturing with Rheinmetall’s extensive experience in munitions production and its NATO-compliant manufacturing infrastructure. The partnership is intended to strengthen industrial capacity for advanced artillery ammunition while improving supply-chain resilience and accelerating production timelines. The companies also aim to support greater industrial participation among allied nations through multinational manufacturing networks. Addressing Growing Demand Demand for long-range precision fires has increased significantly in recent years as armed forces seek to improve battlefield survivability and engage targets from greater stand-off distances. At the same time, governments have prioritized expanding defense industrial capacity to ensure sustained production of critical munitions during prolonged operations. “Operational demand continues to outpace traditional guided-munition manufacturing output,” said Scott Forney. “This collaboration helps allied industry expand long-range strike capability while leveraging artillery systems already deployed across coalition forces.” Roman Köhne highlighted the importance of scalable and resilient production networks for modern defense requirements. “European and allied armed forces require long-range strike capabilities that integrate rapidly, scale efficiently, and remain sustainable through resilient multinational industrial networks,” Köhne said. “This MoU enables both companies to align advanced artillery technologies with established manufacturing infrastructure to support evolving operational requirements.” Supporting Artillery Modernization The agreement aligns with broader efforts among NATO members and partner countries to modernize land-force capabilities while maximizing the effectiveness of existing weapon systems. Rather than requiring entirely new artillery platforms, Vektrex is designed to enhance the performance of fielded systems through increased range and precision. GA-EMS noted that the munition is produced using manufacturing processes aligned with U.S. military specifications and NATO standards, while Rheinmetall’s established production facilities provide the capability for large-scale series manufacturing in Europe. The companies stated that combining General Atomics’ guidance and aerodynamic technologies with Rheinmetall’s manufacturing footprint could provide a scalable pathway for modernizing artillery forces while ensuring sustained munition availability for extended operations. Eurosatory 2026 Announcement The announcement was made during Eurosatory 2026, one of the world's largest international defense and security exhibitions, held in Paris from June 15 to 19. The event brings together defense manufacturers, military organizations, and government representatives from around the world to showcase new technologies and explore industrial partnerships. The Rheinmetall-GA-EMS agreement reflects ongoing transatlantic cooperation in the defense sector and highlights increasing efforts to expand precision-guided munition production capacity to meet current and future operational requirements across NATO and allied forces.
Read More → Posted on 2026-06-18 17:14:54
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WASHINGTON, — June 18, 2026 : The U.S. Navy has awarded General Dynamics Mission Systems (GDMS) a $116.6 million contract modification to continue the production of sonar assembly kits and associated equipment for the MK 54 lightweight torpedo, the Navy’s primary anti-submarine warfare (ASW) weapon. The contract, announced on June 17, exercises options under an existing agreement and will support production of sonar assemblies, test equipment, and instrumentation subsystems through April 2029. Funding for the effort is being provided through Navy weapons procurement accounts across multiple fiscal years. Work under the contract will be carried out at several facilities across the United States. The majority of production, approximately 62 percent, will take place in Canonsburg, Pennsylvania, while additional manufacturing and support activities will be conducted in Salt Lake City, Utah; Andover, Massachusetts; Bloomington, Indiana; Manassas, Virginia; and Port Orchard, Washington. Supporting the Navy’s Primary Anti-Submarine Weapon The MK 54 lightweight torpedo serves as the U.S. Navy’s standard lightweight torpedo and is deployed from a range of platforms, including surface combatants, helicopters, and maritime patrol aircraft such as the P-8A Poseidon. It is designed to engage submarines operating in both deep-water and shallow-water environments. The latest contract focuses on the sonar section of the MK 54 Mod 1 variant, which is responsible for detecting, classifying, and tracking underwater targets. The sonar system plays a critical role in distinguishing submarine contacts from ocean background noise, clutter, and countermeasures such as decoys. The Mod 1 upgrade incorporates a higher-resolution sonar array and an advanced processor group that improves target detection and tracking performance. The upgraded processing architecture utilizes Advanced Processor Build (APB) software, sharing computing algorithms with the Navy’s larger MK 48 heavyweight torpedo, which is launched from submarines. According to Navy program information, these enhancements are intended to improve performance against quieter and more sophisticated submarine threats operating in increasingly complex underwater environments. Evolution of the MK 54 Mod 1 Program Development of the MK 54 Mod 1 began in 2007 as part of a long-term modernization effort aimed at maintaining the torpedo’s effectiveness against evolving undersea threats. The program was structured into multiple increments. Increment 1 introduced Advanced Processor Build 5 software along with hardware upgrades designed to improve target detection, classification, and tracking capabilities. The Navy achieved initial operational capability (IOC) for the Mod 1 configuration in 2023, and full-rate production began in April 2023. The earlier MK 54 Mod 0 variant entered service in 2004 and remained in production until 2020. Operational assessments conducted by the Pentagon’s Director of Operational Test and Evaluation (DOT&E) concluded that the MK 54 Mod 1 Increment 1 is operationally effective. Earlier evaluations also identified reliability and availability factors that continue to be addressed through ongoing refinements and modernization efforts. Strategic Importance in an Evolving Undersea Environment The contract comes as the U.S. Navy continues to invest in anti-submarine warfare capabilities amid changes in the global undersea security environment. Recent assessments by the U.S. Office of Naval Intelligence (ONI) indicate that China currently operates approximately 60 submarines, with projections suggesting the fleet could expand to around 70 submarines by 2027 and approximately 80 vessels by 2035. Naval intelligence officials have also highlighted a gradual transition within the People’s Liberation Army Navy (PLAN) toward a larger number of quieter, nuclear-powered submarines. By 2035, analysts project that as many as half of China’s submarine fleet could be nuclear-powered. Rear Adm. Michael Brookes, commander of the Office of Naval Intelligence, has previously stated that China's expanding undersea force could present a credible challenge to U.S. maritime operations in the Indo-Pacific region over the coming decades. In response, the Navy continues to prioritize investments in undersea surveillance systems, submarine readiness, and advanced anti-submarine weapons such as the MK 54. Widely Used by Allied Navies The MK 54 torpedo is also used by numerous U.S. allies and partners, making it an important element of NATO and allied anti-submarine warfare operations. Several countries have acquired the weapon directly or invested in conversion programs to upgrade existing torpedo inventories. Australia has procured additional MK 54 torpedoes through previous acquisition programs, while Canada has pursued conversion kits and conducted testing aboard vessels such as HMCS Regina. India has also integrated the MK 54 into its anti-submarine warfare inventory for use aboard P-8I maritime patrol aircraft and MH-60R Seahawk helicopters. Other operators include Norway, New Zealand, and several NATO member nations through Foreign Military Sales (FMS) programs. The widespread adoption of the MK 54 supports interoperability between allied forces and enables partner navies to operate common anti-submarine warfare systems alongside U.S. forces. Continued Modernization Effort The latest contract modification ensures the continued supply of updated sonar components and associated equipment for the U.S. Navy and allied operators. By sustaining production of the Mod 1 sonar assemblies, the Navy aims to maintain the effectiveness of a proven weapon system while incrementally improving its ability to counter increasingly capable submarine threats. With production scheduled to continue through 2029, the contract represents part of the Navy’s broader strategy of modernizing existing anti-submarine warfare capabilities while leveraging advancements in sonar technology, signal processing, and open-architecture software to meet future operational requirements.
Read More → Posted on 2026-06-18 16:32:38
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WASHINGTON, — June 18, 2026 : The U.S. Naval Research Laboratory (NRL) has successfully demonstrated a dual-use directed-energy laser system capable of wirelessly transmitting power over long distances while rapidly transitioning to counter unmanned aerial threats without interrupting ongoing operations. The field test represents a significant advancement in expeditionary energy and defense technologies, demonstrating that a single directed-energy platform can perform both remote power delivery and counter-unmanned aerial systems (C-UAS) missions. The capability could help military forces support remote operations while reducing reliance on traditional fuel-based logistics. The demonstration was sponsored by the Office of the Under Secretary of Defense for Acquisition and Sustainment (OUSD(A&S)) and funded through the Operational Energy Capability Improvement Fund (OECIF). The effort brought together the U.S. Naval Research Laboratory, Boeing, and the U.S. Army’s DEVCOM Ground Vehicle Systems Center (GVSC), with additional participation from personnel across the Navy, Marine Corps, and Army. Field Demonstration and System Configuration During the evaluation, researchers deployed a trailer-mounted laser system across an airfield to demonstrate both wireless power transmission and counter-drone operations. The operational setup included: Power Source: Standard military vehicle-based power generation. Transmission System: A currently fielded U.S. Marine Corps directed-energy laser system. Receiving System: High-efficiency solar receivers positioned at a remote site representing a forward operating base. The system successfully transmitted power from a military vehicle to the remote receivers located miles away. The demonstration showed how future military installations could receive electricity without relying solely on diesel generators or vulnerable fuel supply routes. Once power transmission was established, the team redirected the same laser beam to engage a simulated aerial drone threat. After successfully completing the counter-UAS engagement, the system returned to wireless power transmission without being taken offline. “This was not just a laboratory exercise; we were building the pieces for what this capability could actually look like on the battlefield,” said Alex Grede, Ph.D., an electrical engineer at NRL. “We demonstrated that the same laser used to beam power remotely can immediately transition to counter a drone threat, giving Marines and soldiers greater flexibility without changing their operational footprint.” Building on Previous Power-Beaming Research The demonstration builds upon years of research into wireless energy transfer technologies. NRL scientists previously contributed to the Defense Advanced Research Projects Agency (DARPA) Persistent Optical Wireless Energy Relay (POWER) program, which successfully transmitted more than 800 watts of power over 8.6 kilometers (5.3 miles) at White Sands Missile Range, New Mexico. However, unlike earlier demonstrations that focused on achieving maximum distance and power-transfer records under controlled conditions, the latest trial prioritized operational performance in realistic environments. Researchers intentionally conducted testing during high winds, snowfall, and atmospheric interference approaching whiteout conditions to evaluate how the system would perform under conditions likely to be encountered during military operations. “We wanted to prove this could work where warfighters actually operate, not just in ideal conditions,” said Justin Lorentzen, a research physicist at NRL. “Testing in wind, snow, and real atmospheric interference gives us the data we need to improve the system and move it toward a true operational capability.” Reducing Battlefield Logistics Risks The project was designed with expeditionary military operations in mind, particularly for units operating in remote and contested environments. Forward-deployed forces often depend on fuel-powered generators that require continuous resupply. These fuel convoys can be vulnerable to attack, increasing operational risks and logistical demands. Wireless power transmission offers a potential alternative by enabling remote facilities, sensors, vehicles, and future military systems to receive electricity from distant power sources without the need for frequent fuel deliveries. The ability to combine energy delivery and air-defense functions into a single platform could further reduce the equipment and personnel required to sustain forward operations. Grede noted that the Army is currently among the services most likely to field the technology first because of its potential value in distributed and expeditionary operations. “We can take the expertise we’ve built at NRL and help accelerate capability development across the joint force,” he said. Field Repair and Operational Simplicity In addition to validating the system’s power-transfer and defensive capabilities, researchers also assessed its maintainability during field deployment. During the demonstration, engineers successfully repaired a critical system component on-site without requiring a dedicated workshop or specialized maintenance equipment. The repair validated the platform’s ability to remain operational in expeditionary environments where technical support resources may be limited. “You can’t have a system that takes months to repair or months to train someone to use,” said Lt. Cmdr. Brian Di Salvo, Military Deputy for NRL’s Radar Division. “This system showed both repairability and simplicity of operation, qualities that matter when you’re talking about real deployment with young operators in the field.” Next Phase of Development The dual-use laser system remains a proof-of-concept prototype, and NRL has not announced a timeline for procurement or operational deployment. The next phase of testing will involve active-duty Marines, Soldiers, and Sailors, who will evaluate the system in realistic operating scenarios and provide direct user feedback. The goal is to ensure future versions of the technology meet operational requirements and can be effectively employed by military personnel in the field. The demonstration also supports NRL’s broader directed-energy research portfolio, which includes previous wireless power transmission experiments such as the Space Wireless Energy Laser Link (SWELL) conducted aboard the International Space Station. Strategic Significance The successful demonstration highlights the potential of directed-energy technologies to address two critical military requirements simultaneously: delivering power to remote locations and defending forces against emerging drone threats. By enabling a single laser system to transmit energy across long distances while retaining the ability to immediately engage hostile unmanned aircraft, the technology could help improve logistics resilience, reduce dependence on fuel convoys, and enhance operational flexibility for U.S. military forces operating in contested environments. The mid-June 2026 demonstration marks another step toward the development of future expeditionary energy systems designed to support more resilient, self-sustaining, and adaptable military operations.
Read More → Posted on 2026-06-18 16:24:32Search
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