Vietnam Signs $250 Million Deal With Israel’s Rafael to Locally Produce Spike Firefly Loitering Munitions

World

HANOI / TEL AVIV : Vietnam has taken a significant step toward modernizing its infantry capabilities and expanding its domestic defense manufacturing base after reportedly concluding a major agreement with Israel’s Rafael Advanced Defense Systems for the acquisition and licensed production of the Maoz loitering munition system, internationally marketed as the Spike Firefly. According to information first reported by Intelligence Online, the agreement is valued at approximately USD 250 million and includes provisions for full local manufacturing in Vietnam. The deal reflects a broader shift in Hanoi’s procurement policy, prioritizing technology transfer and sovereign production over conventional off-the-shelf imports. Local Manufacturing and Industrial Framework At the core of the agreement is the establishment of a dedicated production line within Vietnam, operated by a designated domestic defense enterprise under license from Rafael. The arrangement reportedly includes the transfer of manufacturing documentation, system integration procedures, quality control processes, and maintenance know-how required to sustain long-term domestic production. Vietnamese sources indicate that the objective is not limited to final assembly but extends to progressively increasing local content, including airframe components, launch canisters, and selected electronic subsystems. This approach aligns with the Ministry of National Defense’s long-standing policy of strengthening the national defense-industrial base and reducing dependence on single external suppliers. System Overview The system acquired by Vietnam is known within the Israel Defense Forces as Maoz, while Rafael markets it globally as the Spike Firefly or L-Spike 1x. It is a man-portable loitering munition designed for use at the small-unit level, bridging the gap between reconnaissance drones and direct-fire precision weapons. The Firefly employs a coaxial rotor configuration, enabling vertical takeoff and landing as well as stable hovering. This design allows the system to operate effectively in confined environments such as urban terrain, forests, and complex topography where line-of-sight weapons are limited. The munition is launched from a compact canister and controlled via a handheld operator console. Real-time electro-optical imagery is transmitted back to the operator throughout the mission, allowing continuous situational awareness and positive target identification. Operational Characteristics Technical data associated with the Vietnam program indicates an operational range of up to approximately five kilometers, depending on terrain, altitude, and mission profile. Endurance is sufficient to allow extended loitering over a target area before engagement. A defining feature of the system is its man-in-the-loop control architecture. The operator retains full authority over target engagement and can abort an attack seconds before impact, redirecting the munition back into a loitering pattern if conditions change or if non-combatants are detected. The warhead is optimized for use against personnel and lightly protected targets, consistent with close-combat infantry operations. Combat Employment Background The Maoz system has been used operationally by Israeli ground forces, including during recent combat operations in Gaza. Israeli infantry units employed the loitering munition for close-range reconnaissance, room-to-room threat detection, and precision engagement of fortified positions in dense urban environments, reducing exposure of troops to direct fire. Rafael states that the broader Spike family of guided weapons is in service with more than 40 armed forces worldwide. Within this portfolio, the Firefly occupies a specialized role as a single-use reconnaissance-strike asset intended for squad- and platoon-level employment rather than long-range anti-armor missions. Strategic Implications For Vietnam, the agreement provides access to a modern precision capability tailored to contemporary land warfare while simultaneously advancing domestic manufacturing capacity. The focus on licensed production and technology transfer reflects Hanoi’s efforts to diversify defense partnerships and enhance self-reliance amid evolving regional security dynamics. The deal also underscores the expanding defense relationship between Vietnam and Israel, which in recent years has included cooperation in areas such as air defense, sensors, avionics, and small arms. While neither government has released detailed timelines for production start or initial operational deployment, the program is expected to contribute to the gradual modernization of Vietnam’s infantry formations over the coming years. If implemented as outlined, the Maoz/Spike Firefly program would represent one of Vietnam’s most advanced examples of localized production of a modern precision-guided munition, combining foreign technology with domestic industrial participation.

U.S. Army 1st Cavalry Division Conducts Mounted Maneuvers in Estonia During NATO Winter Camp

World

TAPA, Estonia : U.S. Army cavalry units assigned to the U.S. Army’s 1st Cavalry Division conducted mounted maneuver operations at Estonia’s Tapa Training Area on January 31, 2026, as part of NATO’s annual Winter Camp exercise, according to official military statements. The activity took place at the Tapa Training Area, one of the Baltic region’s primary multinational training facilities. Soldiers from the 6th Squadron, 9th Cavalry Regiment participated in vehicle-based tactical maneuvers designed to support Winter Camp, a recurring NATO exercise focused on interoperability and operational readiness in cold-weather environments. The January 31 operation was conducted under winter conditions typical of northern Europe, including snow-covered ground, sub-freezing temperatures, and limited daylight. These conditions were used to replicate the environmental challenges NATO forces would face during real-world operations in the region. Role as Opposing Forces For this iteration of Winter Camp, the U.S. cavalry squadron was assigned the role of opposing force (OPFOR). In this capacity, the unit acted as a simulated adversary for allied formations from France and the United Kingdom also participating in the exercise. According to the U.S. Army, the OPFOR mission required the cavalry unit to conduct mounted reconnaissance-style movements, rapid repositioning, and tactical engagements intended to test allied responses. French and British forces were tasked with detecting, tracking, and responding to these maneuvers while maintaining coordination across national command structures. Interoperability and Command Coordination A central objective of Winter Camp is improving interoperability among NATO members. During the exercise, allied units practiced integrated command and control procedures, shared communications systems, and synchronized maneuver planning. The interaction between U.S., French, and British forces was structured to ensure compatibility at the tactical level, particularly in fast-moving, vehicle-centric operations. Military officials noted that the exercise placed emphasis on standardized NATO procedures, including reporting formats, engagement protocols, and battlefield coordination, all conducted under the constraints imposed by cold-weather operations. Cold-Weather Operations Focus Winter Camp is specifically designed to enhance NATO’s ability to operate in severe winter climates. The mounted maneuvers conducted at Tapa included movement over frozen and uneven terrain, vehicle recovery drills, and sustainment planning under cold conditions. The U.S. Army stated that these activities were intended to confirm that personnel, vehicles, and support systems remain effective during winter operations in the Baltic region. Particular attention was given to vehicle mobility, maintenance requirements, and crew endurance in low temperatures. U.S. Command Structure in Europe U.S. participation in the exercise was conducted under the authority of V Corps, which maintains a forward headquarters in Europe. V Corps is responsible for providing command and control for U.S. Army forces operating across the continent and supporting NATO missions. Officials indicated that the involvement of V Corps in Winter Camp reflects ongoing U.S. efforts to maintain readiness and support allied forces through regular multinational training events. Estonia’s Role in NATO Training Estonia continues to serve as a key location for NATO training and readiness activities. The Tapa Training Area, located roughly 80 kilometers east of the capital, Tallinn, regularly hosts rotational forces from multiple NATO member states. The facility is used to train multinational battle groups and is positioned to support exercises focused on collective defense and rapid reinforcement. Its frequent use underscores Estonia’s role in facilitating allied training near NATO’s eastern border. Military officials stated that exercises such as Winter Camp are intended to ensure that NATO forces can integrate effectively, operate under challenging environmental conditions, and maintain consistent readiness across all seasons.

French Navy Begins EO/IR Sensor Trials on Mistral-Class Amphibious Ships

World

TOULON : The French Navy has initiated a formal evaluation program to integrate advanced electro-optical and infrared (EO/IR) surveillance systems aboard its Mistral-class Landing Helicopter Docks (LHDs), aiming to strengthen detection, identification, and self-defense capabilities of its amphibious fleet. The trials are underway at the Toulon naval base and involve parallel testing of two different sensor systems installed on separate ships of the class. Visual confirmation from the port and statements from naval authorities indicate that the lead ship Mistral (L9013) has been equipped with the CAT EYE H20 optronic system developed by French manufacturer Lerity, while Dixmude (L9015) is operating a TrakkaCam system supplied by TRAKKA Systems. The side-by-side evaluation is intended to support a future selection of a standardized solution for broader naval use. Program Scope and Objectives The French Navy describes the installations as part of an experimental program designed to assess EO/IR sensor performance in maritime conditions. The evaluation focuses on surface and low-altitude air surveillance, long-range visual identification, and continuous operation in day, night, and reduced-visibility environments. In addition to the Mistral-class LHDs, the data collected during the trials is expected to inform a possible future upgrade of Floréal-class surveillance frigates. These vessels are routinely deployed for overseas presence missions, maritime security patrols, and exclusive economic zone (EEZ) monitoring, where passive electro-optical detection is considered increasingly important. A significant element of the program is the adaptation of systems originally designed for fixed or land-based use to shipboard operations. In the case of the CAT EYE H20, the French Navy is supporting Lerity in modifying a sensor already in widespread service at coastal surveillance posts (sémaphores). This represents the first shipborne deployment of the CAT EYE system and requires enhanced stabilization, maritime environmental protection, and integration with naval command systems to account for vessel motion and sea conditions. CAT EYE H20 on Mistral The CAT EYE H20 is a new-generation optronic surveillance system unveiled publicly at Euronaval 2024 and later presented at MADEX 2025 in South Korea. The system is designed to provide persistent long-range observation in both daylight and low-light conditions. From an elevated shipboard position, the CAT EYE H20 is assessed to offer effective surveillance ranges of up to approximately 40 kilometers during daytime and around 20 kilometers at night, depending on atmospheric conditions. The sensor suite integrates visible-spectrum cameras and thermal imagers, supported by synchronized active illumination to ensure continuous 24-hour coverage. A key feature under evaluation is range-gating technology, which improves performance in maritime environments affected by fog, rain, haze, or sea spray. By limiting backscatter from active illumination, the system enhances target contrast and clarity in degraded visibility. The system architecture is designed to support embedded artificial intelligence functions, including automated detection, tracking, and classification of multiple contacts simultaneously. These functions are intended to reduce operator workload and improve reaction times during complex surveillance tasks. TrakkaCam System on Dixmude The EO/IR system installed aboard Dixmude is assessed by analysts to be the TrakkaCam TC-375M, TRAKKA Systems’ naval-specific variant, although the French Navy has not formally confirmed the model designation. The system integrates multispectral sensors, including high-definition visible and infrared cameras, within a single line-replaceable unit (LRU). The TrakkaCam is designed for sustained operation in harsh maritime environments and has been environmentally tested for resistance to saltwater corrosion, vibration, shock, and electromagnetic interference. These characteristics are critical for reliable performance on large surface combatants and amphibious vessels. The system is optimized for a broad mission set, including search and rescue operations, counter-piracy patrols, exclusive economic zone surveillance, and interdiction of illicit trafficking. Such missions align closely with the operational roles routinely assigned to Mistral-class LHDs during overseas deployments. Operational Context and Fleet Developments The introduction of advanced EO/IR sensors reflects changing operational requirements for large naval platforms. Amphibious ships increasingly operate in environments where small, low-signature surface contacts and low-altitude aerial systems present detection challenges for conventional radar, particularly in cluttered littoral waters. EO/IR systems provide a passive means of surveillance, allowing ships to detect and identify contacts without emitting electromagnetic signals. This capability supports operations conducted under emissions control (EMCON) conditions and reduces the risk of early detection by adversaries equipped with electronic surveillance systems. High-resolution optical and thermal imagery also enables long-range visual identification, supporting command decisions in congested maritime areas where civilian and military traffic may be intermingled. The current trials build on earlier French Navy initiatives to strengthen fleet-wide electro-optical capabilities. Previous operational requirements led to the installation of Safran Paseo XLR systems on FREMM frigates and Horizon-class air-defense destroyers, reflecting lessons learned from recent maritime security operations. By extending similar evaluation efforts to amphibious assault ships, the French Navy is applying the same sensor enhancement approach to its projection and support vessels, alongside frontline combatants.

Over 500 Aerial Weapons, Including Four Zircon Hypersonic Missiles, Launched in Overnight Russian Strike on Ukraine

World

KYIV : Russian forces carried out one of the largest and most technologically complex aerial attacks of the year against Ukraine overnight, launching a coordinated strike involving hypersonic missiles, ballistic missiles, cruise missiles, and hundreds of unmanned aerial vehicles. The assault, which continued for more than 12 hours, focused primarily on energy and heating infrastructure in major Ukrainian cities amid extreme winter conditions. Ukraine’s Air Force confirmed that the attack marked one of the first large-scale uses of Russia’s advanced 3M22 Zircon hypersonic missiles against ground targets in a single operation, reflecting a continued expansion of the weapons mix used in strikes on civilian infrastructure. Scope and Composition of the Attack According to the Air Force Command of the Armed Forces of Ukraine, radio-technical surveillance units detected a total of 521 aerial attack assets launched from multiple directions. Launch areas included the Caspian Sea, Russia’s Bryansk and Kursk regions, and temporarily occupied Crimea. The attack package consisted of hypersonic, ballistic, and cruise missiles combined with mass drone launches. Ukrainian officials reported the use of Zircon and Onyx-class hypersonic anti-ship missiles launched from Crimea, Iskander-M ballistic missiles, S-300 missiles used in a ground-attack role, Kh-22 and Kh-32 supersonic cruise missiles fired from Tu-22M3 strategic bombers, and long-range Kh-101 and Iskander-K cruise missiles. The missile strikes were supported by a large wave of attack drones, primarily Shahed-131 and Shahed-136 types, along with Gerbera and Italmas unmanned systems. Military analysts in Kyiv assessed that the combination of ballistic trajectories, high-speed hypersonic weapons, and drone swarms was intended to saturate Ukrainian air defenses and increase the likelihood of strikes reaching critical infrastructure targets. Air Defense Operations Despite the scale and complexity of the assault, Ukrainian air defense forces reported a high interception rate. Preliminary figures released by the Air Force indicate that approximately 450 aerial targets were either destroyed or suppressed during the attack. Intercepted targets included dozens of missiles—among them all detected Zircon hypersonic missiles and a significant portion of ballistic and cruise missiles—as well as more than four hundred unmanned aerial vehicles. Ukrainian officials attributed the performance of air defenses to layered systems combining domestically operated assets with Western-supplied platforms, including Patriot missile batteries. President Volodymyr Zelensky said the attack relied heavily on ballistic missiles and drones, noting that it coincided with the coldest days of winter and was directed at civilian life-support systems rather than military installations. Energy and Heating Infrastructure Damage Ukrainian authorities stated that the primary targets were combined heat and power plants (CHPs) and thermal power plants (TPPs) supplying district heating to large urban areas. Minister of Energy Denys Shmyhal said facilities in Kyiv, Kharkiv, and Dnipro were struck while operating in winter mode, solely to provide heat and electricity to residential districts. Temperatures across parts of the country fell to as low as minus 25 degrees Celsius, increasing the risk of system failures and damage to water and heating networks. In Kyiv, Mayor Vitali Klitschko reported damage to key energy hubs that left approximately 1,170 high-rise residential buildings without central heating. Emergency utility crews began controlled drainage of heating systems in affected districts to prevent pipes from freezing and bursting, while mobile heating points were prepared for residents. Impact on Residential Areas and Civilian Casualties The strikes caused localized damage in several urban districts. In Kyiv, falling debris and direct impacts sparked fires in high-rise apartment buildings in the Darnytskyi and Shevchenkivskyi districts. A kindergarten in the Dniprovskyi district sustained fire damage, though officials said no children were present at the time. Across the country, authorities reported between nine and twelve civilians injured as a result of missile impacts, drone strikes, and falling debris. No fatalities were immediately confirmed, though assessments were ongoing as emergency services continued to clear rubble and inspect damaged structures. Military and Strategic Context Ukrainian defense officials noted that the use of the Zircon hypersonic cruise missile, originally developed for naval warfare, against land targets highlights a further adaptation of Russian strike tactics. While the missile’s speed poses challenges for air defense systems, Ukrainian forces have increasingly demonstrated the ability to track and intercept such weapons using modern radar integration and advanced interceptors, including the U.S.-supplied Patriot missile system. The timing of the attack drew particular attention in Kyiv, as it occurred on the eve of planned diplomatic engagements involving Ukraine and international partners. Ukrainian officials accused Moscow of using large-scale strikes on civilian infrastructure as leverage, rather than signaling readiness for de-escalation. As of Tuesday afternoon, power engineers and emergency services remained engaged in restoration efforts, while the Ukrainian military continued to assess the full operational and material impact of the overnight assault.

Raytheon Completes Interceptor Test for U.S. Army’s Next Generation Short Range Interceptor Program

World

TUCSON, Arizona : Raytheon, an RTX business, has completed a key ballistic test of its candidate interceptor for the U.S. Army’s Next Generation Short Range Interceptor (NGSRI) program, marking another step in the Army’s effort to replace the aging FIM-92 Stinger missile and modernize short-range air defense capabilities. The company confirmed that the test validated the interceptor’s ability to detect and track unmanned aerial system (UAS) targets and to launch successfully from a man-portable configuration. The trial was conducted using Raytheon’s internal funding, with the objective of reducing technical risk, maturing the design, and collecting performance data ahead of upcoming Army-funded flight demonstrations. Program Background and Army Requirement The NGSRI program is the U.S. Army’s primary initiative to develop a next-generation man-portable air defense interceptor capable of countering a broad range of aerial threats. These include small and low-cost drones, larger unmanned systems, helicopters, fixed-wing aircraft, and cruise missiles operating in increasingly complex environments. The Army intends NGSRI to replace the FIM-92 Stinger, which entered service in the early 1980s and has undergone multiple upgrades but faces growing limitations against modern threats. Operational experience in recent conflicts has highlighted the need for greater range, improved speed, enhanced seekers, and better performance against low-signature and maneuvering targets. Ballistic Test Objectives and Results According to Raytheon, the ballistic test focused on validating core interceptor functions rather than a full end-to-end engagement. Key objectives included confirming launch performance from a shoulder-fired system, verifying initial flight stability, and demonstrating target tracking against representative drone threats. Data gathered during the test will be used to refine guidance, propulsion, and system integration elements before the start of government-sponsored flight testing. Raytheon stated that early company-funded trials are intended to accelerate the program timeline by identifying issues prior to formal Army evaluations. Tom Laliberty, president of Land and Air Defense Systems at Raytheon, said the company’s approach is designed to align closely with Army requirements while maintaining affordability and scalability. He noted that repeated testing and data collection are central to meeting schedule milestones. Propulsion Development and Industry Collaboration A major technical feature of Raytheon’s NGSRI candidate is its advanced propulsion system. In 2025, Raytheon collaborated with Northrop Grumman on the development and testing of advanced solid rocket motors using “Highly Loaded Grain” propellant technology. This approach increases the proportion of energetic material within the motor, enabling longer burn times and higher total impulse compared to conventional solid rocket motors of similar size. Raytheon has stated that this allows the interceptor to achieve higher speeds and extended engagement ranges, addressing a key limitation of legacy man-portable air defense systems. The propulsion tests conducted to date were intended to validate manufacturing repeatability, structural integrity, and performance consistency under operationally relevant conditions. System Architecture and Integration Raytheon has emphasized a modular system architecture for its NGSRI design. The interceptor and associated components are intended to be adaptable across multiple launch platforms, supporting both dismounted infantry use and integration with vehicle-mounted air defense systems. The company has indicated that its design can be integrated with the Army’s Maneuver Short-Range Air Defense (M-SHORAD) system, including the M-SHORAD configuration mounted on the Stryker platform. Modularity is also intended to simplify future upgrades to seekers, guidance electronics, and counter-countermeasure capabilities as threats evolve. Manufacturing and Production Considerations Raytheon stated that it is leveraging automated manufacturing processes developed across its missile production lines to support the NGSRI effort. These processes are designed to improve quality control, reduce unit costs, and enable rapid production scaling if the Army moves forward with procurement. The company argues that this manufacturing approach is particularly important for short-range air defense systems, which may be required in large quantities due to the proliferation of low-cost aerial threats. Program Outlook The U.S. Army is expected to continue competitive evaluations of NGSRI candidates through a series of government-funded flight tests and system demonstrations. Raytheon stated that data from the latest ballistic test supports continued progress toward meeting Army performance requirements and schedule objectives. The service aims to field an initial operational capability for NGSRI later in the decade, providing maneuver forces with a modernized, man-portable air defense capability designed for current and emerging threat environments.

India Successfully Flight-Tests Solid Fuel Ducted Ramjet Propulsion for Long Air-to-Air Missiles

India

Chandipur, Odisha : India recorded a major advancement in indigenous missile propulsion capabilities on Tuesday with the successful flight demonstration of Solid Fuel Ducted Ramjet (SFDR) technology. The test was conducted by the Defence Research and Development Organisation (DRDO) at approximately 10:45 a.m. from the Integrated Test Range (ITR), located off the Odisha coast. According to official data released by DRDO, the demonstration met all planned mission objectives and validated critical subsystems required for the development of long-range air-to-air missiles. With this achievement, India joins a limited group of countries possessing operationally relevant SFDR technology, a key enabler for next-generation Beyond Visual Range Air-to-Air Missiles (BVRAAMs), including the Astra Mk-III programme. Flight Test Profile and System Performance The SFDR system was subjected to a carefully sequenced flight profile designed to replicate air-launch conditions. The missile was initially accelerated by a ground-based solid booster to the required supersonic speed. After achieving the designated Mach number, the nozzle-less booster separated, allowing the SFDR motor to ignite and sustain propulsion during the cruise phase. DRDO confirmed that all major subsystems performed as designed. These included the nozzle-less booster, the solid fuel ducted ramjet motor, and the fuel flow controller, which regulates the combustion process by precisely metering fuel into the ramjet combustor. The ability to maintain stable combustion at high supersonic speeds was a central objective of the test and was successfully demonstrated. Instrumentation and Data Validation System performance was verified through comprehensive flight data captured by a network of tracking instruments deployed along the Bay of Bengal coastline. Telemetry stations, radar systems, and electro-optical sensors monitored the missile throughout its flight, providing real-time data on speed, trajectory, combustion stability, and subsystem behaviour. Officials stated that the collected data closely matched pre-flight predictions derived from extensive computational modelling and ground testing. The results confirmed sustained thrust generation by the SFDR engine and stable aerodynamic performance across the planned flight envelope. Scientific and Institutional Oversight Senior scientists from multiple DRDO laboratories were present at the launch site and monitored the test in real time. These included teams from the Defence Research and Development Laboratory (DRDL), High Energy Materials Research Laboratory (HEMRL), Research Centre Imarat (RCI), and the Integrated Test Range (ITR). Each laboratory contributed to different aspects of the system, ranging from propulsion and energetic materials to guidance integration and flight testing. Relevance to Astra Mk-III Programme The successful SFDR demonstration is directly linked to the development of the Astra Mk-III, also referred to as Gandiva, a future long-range air-to-air missile intended for deployment on Indian Air Force fighter platforms. Unlike conventional solid rocket motors, SFDR propulsion systems use atmospheric oxygen for combustion, eliminating the need to carry an onboard oxidiser. This approach reduces overall propellant mass and allows the missile to sustain thrust over a longer duration. As a result, the missile can maintain high supersonic speeds deeper into its engagement range, improving end-game energy and increasing the effective no-escape zone against manoeuvring aerial targets. Strategic and Programmatic Significance Defence analysts note that mastery of SFDR technology is essential for achieving extended engagement ranges without compromising missile agility or payload. The successful test indicates that India has reached a level of technological maturity sufficient for integrating SFDR propulsion into operational missile configurations. The demonstration also supports broader goals of self-reliance in critical defence technologies, reducing dependence on foreign propulsion systems for advanced missile programmes. Official Statements Following the test, Defence Minister Rajnath Singh congratulated DRDO and associated industry and scientific teams, acknowledging the achievement as an important step in strengthening indigenous defence capabilities. Secretary, Department of Defence R&D and Chairman DRDO, Samir V. Kamat, also commended the teams involved, stating that the successful validation of the fuel flow controller and sustained ramjet operation confirmed the effectiveness of extensive simulations and ground trials conducted during the development phase. Programme Status DRDO officials indicated that this test marks the culmination of a series of developmental trials for the SFDR booster system. With the propulsion technology now demonstrated under flight conditions, the programme is expected to progress towards integration with the complete Astra Mk-III missile system and subsequent evaluation trials. The February 3 demonstration represents a critical step in India’s ongoing efforts to field long-range, high-performance air-to-air missiles using fully indigenous technologies.

India to Conduct Third Flight Test of LR-AShM Hypersonic Glide Vehicle, Land-Attack Variant in Development

India

New Delhi : India’s Defence Research and Development Organisation (DRDO) is preparing to conduct the third developmental flight trial of the Long-Range Anti-Ship Missile (LR-AShM), a hypersonic glide vehicle (HGV) designed to provide long-range precision strike capability against maritime targets. The upcoming test follows the system’s first public appearance during the Republic Day parade on January 26, 2026, where the missile was formally unveiled. According to officials familiar with the program, the third trial will focus on validating advanced terminal-phase maneuvers and assessing the performance of the missile’s indigenously developed X-band synthetic-aperture radar (SAR) seeker at sustained hypersonic speeds. These evaluations are intended to confirm the seeker’s ability to discriminate and track moving naval targets in complex electromagnetic environments. System Design and Performance The LR-AShM is a two-stage hypersonic glide vehicle powered by a solid-fuel booster that accelerates the weapon to hypersonic velocity before releasing the maneuvering glide body. The missile is designed to reach peak speeds of around Mach 10, with an average glide speed near Mach 5. Current configurations are intended to achieve operational ranges in excess of 1,500 kilometers, with extended-range variants planned to reach up to 3,500 kilometers. Mid-course guidance is provided through an inertial navigation system (INS) supported by multiple global navigation satellite systems (GNSS), while terminal guidance relies on an active radio-frequency seeker optimized for hypersonic flight. The missile follows a quasi-ballistic trajectory with atmospheric glide phases, allowing it to maneuver laterally and vertically to reduce predictability. Launch Platforms and Deployment Path Initial deployment phases are focused on land- and sea-based launch options. The land-launched version is configured for mobile 12×12 transporter-erector-launchers (TELs), enhancing survivability and operational flexibility. A naval variant compatible with vertical launch systems (VLS) is also under development to support surface combatants. An air-launched variant is planned for a later phase, once the surface-launched versions complete developmental and user trials. This version is expected to be integrated with the Su-30MKI fleet, enabling long-range stand-off hypersonic strike capability from aerial platforms. Land-Attack Variant Under Development In parallel with the anti-ship configuration, DRDO has confirmed work on a land-attack variant of the LR-AShM. This version is intended to engage high-value fixed targets deep inside hostile territory and is currently at an earlier stage of development. Once matured, it is expected to be aligned with the proposed Integrated Rocket Force (IRF), contributing to a conventional hypersonic deterrence role. Program Outlook Officials indicate that successful completion of the third developmental trial would mark a key milestone for the LR-AShM program, clearing the way for additional validation flights and user-oriented trials. The system is expected to move toward limited series production following satisfactory performance across these stages, subject to further operational assessments.

White House Unveils $12 Billion Plan to Secure Critical Mineral Supplies

World

WASHINGTON : The United States government has formally launched Project Vault, a $12 billion federal initiative aimed at building a strategic national stockpile of critical minerals, marking one of the most significant interventions yet to secure supply chains essential to advanced manufacturing, energy transition technologies, and national defense. Announced by the White House, the program is designed to reduce long-standing U.S. dependence on Chinese-controlled supply chains for materials that underpin semiconductors, electric vehicles, aerospace systems, and modern weapons platforms. Officials described the effort as a structural shift in how Washington manages economic security risks tied to raw materials. Program Structure and Financing Project Vault is organized as a public-private partnership anchored by federal financing and corporate participation. The core of the funding comes from a $10 billion loan facility provided by the US Export-Import Bank, reflecting a broader policy shift toward using government financial institutions to support domestic supply resilience rather than solely export promotion. An additional $1.67 billion has been committed by private-sector partners, bringing total initial funding to approximately $12 billion. Federal officials said the blended financing model is intended to spread risk while accelerating procurement timelines in global markets that are increasingly volatile. The funds will be used to purchase, process, and store a range of minerals officially designated as “critical” by the U.S. government. These include rare earth elements used in precision guidance systems and electronics, lithium and cobalt required for battery production, and nickel used in high-strength alloys and energy storage technologies. Scope of Materials and Industrial Uses According to officials briefed on the initiative, Project Vault will focus on minerals with both high strategic value and concentrated global supply chains. Rare earth elements, while mined in several countries, are overwhelmingly processed in China, creating vulnerabilities for downstream industries. Lithium, cobalt, and nickel are similarly exposed to geopolitical risk due to supply concentration and limited refining capacity outside a small group of countries. These materials are essential inputs for semiconductor fabrication, electric vehicle battery cells, aircraft engines, satellite systems, and a wide range of defense technologies. Defense planners have repeatedly warned that supply disruptions could delay weapons production or increase costs during periods of crisis. Corporate Participation More than a dozen major U.S. corporations have signed on as participants in Project Vault, signaling broad industry support for a government-led approach to mineral security. Among the companies involved is General Motors, which is seeking long-term access to battery materials as it expands electric vehicle production. Boeing has joined the initiative to stabilize supplies of specialized alloys used in both commercial aircraft and military platforms. Google is participating to protect supply chains for consumer electronics hardware and large-scale data center infrastructure. Officials said the corporate partners will not only benefit from access to stockpiled materials but will also provide demand forecasts and technical expertise to help prioritize procurement decisions. Strategic Objectives The primary goal of Project Vault is to reduce exposure to foreign supply disruptions, particularly those linked to China’s dominant role in mineral processing. U.S. policymakers have grown increasingly concerned about the potential use of export controls or informal trade restrictions as geopolitical leverage. By establishing a centrally managed stockpile, the government aims to provide a buffer against sudden supply shocks, including trade disputes, regional conflicts, or market manipulation. The program is also intended to support the development of domestic and allied-country processing capacity by offering a guaranteed buyer for refined materials. Defense officials emphasized that the initiative is closely aligned with military readiness planning, ensuring that production of sensitive systems is not constrained by external political or economic pressure. Implementation and Oversight Under the Project Vault framework, the federal government will act as the principal purchaser and custodian of the stockpile, coordinating closely with private-sector partners to determine which materials are most urgently needed and in what quantities. Procurement decisions will be guided by industrial demand, defense requirements, and risk assessments conducted across multiple agencies. The involvement of the US Export-Import Bank highlights an expanded role for federal financial institutions in strategic competition, particularly in commodity markets traditionally dominated by state-backed actors abroad. Industry analysts cautioned that while the $12 billion commitment represents a substantial investment, the effectiveness of the program will depend on how quickly new mining, refining, and processing capacity can be developed in the United States and allied countries. Bringing such facilities online typically requires years of permitting, construction, and workforce development. The White House said Project Vault is part of a broader effort to strengthen U.S. economic competitiveness and technological leadership over the next decade. Officials indicated that additional policy measures, including regulatory reforms and international partnerships, are being considered to complement the stockpiling effort. Details regarding storage locations, governance mechanisms, and the full list of participating companies are expected to be released in the coming weeks as implementation moves forward.

India Shortlists Three Consortiums for AMCA Fighter Programme, RFP Expected Within Months

India

NEW DELHI : India has moved the Advanced Medium Combat Aircraft (AMCA) programme into its next phase after the Ministry of Defence shortlisted three industrial consortiums for further participation in the country’s fifth-generation stealth fighter project. The development was confirmed by Rajesh Kumar Singh, Secretary, Department of Defence, who said the shortlist followed a detailed pre-qualification process that began with seven competing aerospace and defence consortiums. The three selected bidders will receive the formal Request for Proposal (RFP) within the next two to three months. The AMCA programme received approval from the Cabinet Committee on Security (CCS) in March 2024, with an allocation of about ₹15,000 crore for prototype development. The project is being implemented through a Special Purpose Vehicle (SPV) model that brings together the Ministry of Defence, the Defence Research and Development Organisation (DRDO) and its Aeronautical Development Agency (ADA), along with an Indian production partner from the public or private sector. Officials indicated that the original pool of bidders included established domestic aerospace manufacturers such as Hindustan Aeronautics Limited (HAL), Larsen & Toubro (L&T), Tata Advanced Systems, and Adani Defence. The government has not yet disclosed the identities of the three shortlisted consortiums. Once the RFP is issued, the selected development partner will be responsible for building five AMCA Mark-1 prototypes. The first prototype rollout is currently planned for the 2028–2029 timeframe. The aircraft is designed as a 25-tonne, twin-engine stealth platform with internal weapons bays, advanced avionics, sensor fusion, and reduced radar cross-section features. The Mark-1 variant will be powered by the GE F414 engine, while a higher-thrust indigenous engine is planned for the Mark-2 version, which remains under development discussions. According to defence officials, the transition to the industrial development phase marks a key milestone for the programme. The Indian Air Force (IAF) plans to induct the AMCA in the mid-2030s as part of its long-term force modernisation roadmap, alongside existing fourth- and fifth-generation combat aircraft.

India Plans Layered APS for Zorawar Light Tank in High-Altitude Role

India

NEW DELHI : India’s forthcoming light tank Zorawar is set to incorporate a multi-layered Active Protection System (APS) as part of a broader effort to enhance survivability in high-altitude combat environments. The approach reflects a doctrinal shift away from passive armour toward active interception and electronic counter-measures against contemporary threats such as anti-tank guided missiles (ATGMs), loitering munitions, and armed drones. Officials familiar with the programme say the APS architecture is being pursued in two phases, combining an off-the-shelf combat-proven solution for early induction with an indigenous system under development for later production lots. Initial Induction with Trophy APS The first batch of 59 Zorawar tanks planned for induction into the Indian Army will be equipped with the Trophy Active Protection System. Trophy is a hard-kill APS developed by Rafael Advanced Defense Systems and has been operationally deployed on multiple armoured platforms. The system employs a radar-based detection suite that continuously scans the vehicle’s surroundings to identify incoming threats. Once a hostile projectile is classified, Trophy launches a kinetic countermeasure to intercept and neutralise the threat at a safe stand-off distance. The configuration provides near-spherical coverage, including protection against top-attack munitions, a vulnerability highlighted in recent armoured warfare. By integrating Trophy from the outset, the Army aims to ensure that the first operational Zorawar units enter service with established protection against RPGs, ATGMs, and selected loitering munitions, without waiting for indigenous solutions to mature. Indigenous APS Development for Follow-On Batches In parallel, India is developing a domestic APS intended for subsequent Zorawar production runs. The programme is being led by the Defence Research and Development Organisation and involves several specialised laboratories. The Laser Science and Technology Centre is responsible for sensor development and laser-based counter-measures, while the Terminal Ballistics Research Laboratory focuses on interception physics and warhead effectiveness. Platform integration, including interfaces with the fire-control system and onboard electronics, is being handled by the Combat Vehicles Research and Development Establishment. Officials indicate that the indigenous APS will be a hybrid system, combining soft-kill and hard-kill elements. Soft-kill measures are designed to disrupt or deceive missile guidance through electronic warfare, while hard-kill components physically intercept incoming threats. This dual-layer approach is intended to counter drone swarms and loitering-munition attacks, assessed as increasingly relevant in mountainous terrain. Design Role and Operational Context Zorawar is a 25-tonne-class light tank designed specifically for high-altitude operations in regions such as Ladakh and the eastern Himalayan sector. The platform addresses the mobility and deployment limitations faced by heavier main battle tanks (MBTs) in steep, oxygen-depleted environments. The tank emphasises a high power-to-weight ratio, a reduced logistical footprint, and the ability to operate across narrow roads, bridges, and soft ground. It is also amphibious, enabling limited water-crossing operations without extensive engineering support. Armament and Systems Integration Zorawar is armed with a 105 mm rifled main gun, capable of firing gun-launched ATGMs for extended engagement ranges. The platform supports integration with unmanned systems, including tethered drones for over-the-horizon surveillance, and incorporates digital fire-control systems and decision-support tools to assist crew members in target acquisition and engagement. Trials and Induction Timeline User evaluation trials for Zorawar are expected to begin in 2026, following the completion of development and initial system integration. The trials will assess mobility, firepower, protection, and endurance under high-altitude conditions. If the trials proceed as planned, limited induction of the Trophy-equipped batch is expected to follow, with later production lots incorporating the indigenous APS once development and validation are complete. The phased induction strategy is intended to balance near-term operational readiness with long-term self-reliance in critical protection technologies. With the integration of active protection systems, the Zorawar programme aims to ensure that a lighter armoured platform maintains survivability standards comparable to heavier tanks while remaining optimised for India’s mountainous theatres of operation.

General Dynamics Completes Initial Sea Trials of MEDUSA Underwater Mining Drone

World

Washington / Groton : General Dynamics is moving forward with the development of MEDUSA, an expendable unmanned underwater vehicle (UUV) designed to provide U.S. Navy submarines with a long-range offensive mine warfare capability. The system, formally known as the Mining Expendable Delivery Unmanned Submarine Asset, is intended to be deployed directly from submarines and to support future distributed and autonomous naval operations. The company confirmed earlier this month that a MEDUSA prototype has successfully completed a series of test trials off the coast of Massachusetts. According to a General Dynamics press release, the testing focused on validating core performance parameters, including propulsion, navigation, deployment safety, and autonomous behaviors required for underwater mining missions. The firm did not release detailed performance metrics or imagery from the trials. Program Background and Navy Requirements General Dynamics was awarded a contract in 2024 to design and produce MEDUSA prototypes after the U.S. Navy issued a requirement for a system capable of conducting long-range offensive mining operations. The Navy’s interest reflects a renewed emphasis on naval mine warfare as part of undersea and seabed operations, particularly in contested maritime environments. Contract documentation associated with the program indicates that the selected contractor is expected to deliver four MEDUSA prototypes to the Navy. The system is designed as expendable, meaning it is not intended to be recovered after completing its mission, a feature that allows for simplified design and reduced operational risk to crewed platforms. According to the company, MEDUSA can be safely deployed from a submarine and is being engineered to meet Navy standards for launch compatibility, underwater endurance, and autonomous mission execution. General Dynamics has also stated that the platform has been designed with growth potential, allowing it to host additional payloads or mission systems beyond its initial mining role. Strategic Context and Operational Role The Navy’s interest in offensive mining capabilities comes as the People’s Liberation Army Navy (PLAN) continues to expand in size and capability, particularly in the Indo-Pacific region. The PLAN currently fields a larger number of surface combatants than the U.S. Navy, prompting U.S. planners to place increased emphasis on asymmetric and undersea capabilities. Offensive mining is viewed as a means of shaping the maritime battlespace by restricting adversary movement, protecting chokepoints, and complicating naval operations in the early stages of a conflict. These considerations are especially relevant in scenarios involving Taiwan and surrounding sea lanes, where undersea systems could play a significant role. The MEDUSA effort builds on earlier Navy initiatives aimed at deploying autonomous platforms for mining missions. More than a decade ago, a joint emergent operational need led to the development of an underwater mining concept that later informed programs such as Orca, the extra-large unmanned underwater vehicle designed by Boeing. Related Mine Warfare Systems Alongside MEDUSA, General Dynamics has continued work on other undersea weapons, including the Hammerhead mine. Hammerhead is a moored, encapsulated torpedo mine designed primarily for use against submarines. The system encapsulates a torpedo within a seabed- or mooring-based housing, enabling it to engage targets detected within a defined area. The company highlighted Hammerhead during recent discussions of its undersea portfolio, although no new program details were disclosed at the Surface Navy Association’s 38th annual symposium. General Dynamics did not provide specific comments on MEDUSA during the event. Integration with Submarine Operations The U.S. Navy has taken several steps in recent years to expand the use of unmanned underwater vehicles from its submarine fleet. In 2025, American nuclear-powered attack submarines deployed and recovered unmanned underwater vehicles from their launch tubes for the first time. The initial deployment was conducted from USS Delaware (SSN 791), marking a milestone in the integration of autonomous systems with crewed submarines. Navy officials described the deployment as the beginning of a broader effort to incorporate robotic and autonomous capabilities across the submarine force worldwide. These efforts are intended to support missions ranging from intelligence collection and surveillance to mine warfare and undersea payload delivery. Future Developments Submarines are expected to remain a central element of U.S. naval planning in a potential conflict with China. In parallel with unmanned systems such as MEDUSA, the Navy is preparing to introduce new weapons delivery technologies. According to fiscal year 2026 budget documentation, the service plans to field the Revolver Multi-Payload program aboard nuclear-powered attack submarines. The system is designed to allow submarines to salvo at least a dozen torpedoes in rapid succession, with future development expected to support the launch of unmanned assets. Within this broader modernization effort, MEDUSA represents a focused attempt to restore and modernize offensive mining capabilities using autonomous, submarine-launched platforms. While technical details remain limited, recent testing suggests the program is progressing toward its initial prototype delivery milestones.

Russia Redeploys Tu-95 Bombers to Western Bases, Signaling Readiness for Expanded Aerial Operations in Ukraine

World

KYIV : Intelligence assessments from multiple monitoring and security sources indicate that Russia has carried out a notable redeployment of its strategic aviation fleet, a move widely interpreted as preparation for a renewed large-scale aerial operation against Ukraine. Strategic Bomber Movements Confirmed According to tracking data reviewed by Ukrainian and Western intelligence services, the Russian Aerospace Forces have transferred several Tu-95MS “Bear” long-range strategic bombers from Ukrainka Air Base in Russia’s Amur region to two western facilities: Olenya Air Base and Engels-2 Air Base. Both bases are long-established hubs for Russia’s strategic bomber operations and have been used repeatedly during previous missile campaigns against Ukraine. The Tu-95MS aircraft are capable of launching Kh-101 and Kh-555 air-launched cruise missiles, allowing strikes to be conducted without entering Ukrainian airspace. The forward redeployment significantly shortens flight routes to launch corridors over the Caspian Sea and northern Russia, increasing operational flexibility and sortie rates. Shift From Dispersal to Strike Posture Ukrainka Air Base, located deep in Russia’s Far East, has been used in recent months as a dispersal location to reduce vulnerability to Ukrainian long-range drone attacks. Analysts note that the return of bombers to western bases suggests a transition from a defensive dispersal posture back to active strike readiness. Intelligence officials assess that the relocation aligns with earlier warnings of a coordinated air operation expected in early February, potentially involving simultaneous launches of cruise missiles and unmanned aerial vehicles. Reconnaissance and Weapons Stockpiling The bomber movements follow a period of intensified Russian aerial reconnaissance activity. Surveillance flights and electronic intelligence operations were recorded over Kyiv and multiple western regions of Ukraine in the days preceding the redeployment, according to defense sources. At the same time, logistical monitoring indicates an accumulation of cruise missiles and Shahed-type one-way attack drones at forward storage sites. The combination of long-range bombers, ground-launched missiles, and drones points to a layered attack concept designed to stretch Ukrainian air defense systems through successive waves rather than a single concentrated strike. Diplomatic Context and Timing The military preparations are taking place ahead of planned diplomatic discussions in Abu Dhabi, where energy-related confidence-building measures, including a possible pause in attacks on infrastructure, have been under discussion. Officials familiar with the intelligence picture caution that the current operational activity suggests no observable reduction in Russian strike planning despite those talks. Weather and Infrastructure Vulnerability Ukraine is currently experiencing sustained sub-zero temperatures across much of the country. Energy specialists warn that any successful strikes on electricity generation, transmission, or district heating facilities during this period could have outsized consequences, including prolonged outages and damage to systems that are difficult to repair in freezing conditions. Ukrainian Defensive Measures Ukrainian authorities have placed air defense units on heightened alert following confirmation of the bomber redeployments. Radar coverage, missile defense batteries, and mobile fire groups have been reinforced around major cities and critical infrastructure sites, according to military officials. While no official confirmation of an imminent strike has been issued, defense analysts emphasize that the combination of strategic aviation movements, reconnaissance activity, and weapons stockpiling represents one of the clearest indicators in recent weeks of preparations for a renewed long-range aerial campaign.

Peru Finalizes Plan to Buy F-16V Block 70 Jets After April 2026 Elections

World

LIMA : Peru is moving toward a major overhaul of its air combat capabilities as the government finalizes plans to acquire 24 F-16V Block 70 fighter aircraft from the United States, according to defense and government sources familiar with the process. The program, valued at an estimated $7 billion, would represent the largest defense procurement in the country’s modern history and the most extensive modernization of the Peruvian Air Force in roughly four decades. The agreement is expected to be formally signed after Peru’s general elections in April 2026, a timing intended to ensure political continuity and budgetary approval across administrations. Once concluded, the deal would replace aging combat aircraft that have been in service since the Cold War era and significantly alter the balance of air power along South America’s Pacific coast. Procurement Background and Decision Process Peru’s fighter replacement program has been under evaluation for several years, driven by the declining availability and rising maintenance costs of its current fleet, which includes Russian-built MiG-29s and French Mirage 2000s. These aircraft have faced increasing operational limitations due to spare-parts constraints, avionics obsolescence, and airframe fatigue. During much of the tender process, Sweden’s Saab Gripen E/F was widely viewed as the leading contender. The Swedish proposal emphasized lower acquisition and lifecycle costs, flexible basing requirements, and technology transfer arrangements designed to support local maintenance and training. However, officials involved in the evaluation say the Peruvian government ultimately prioritized long-term sustainment, financing, and external security partnerships. These considerations led Lima to select the U.S.-built F-16V Block 70 despite its higher upfront cost. Strategic and Political Context The decision aligns closely with Peru’s deepening defense relationship with the United States following Washington’s designation of Peru as a Major Non-NATO Ally on January 14, 2026. The status provides access to a range of defense cooperation mechanisms, including eligibility for Foreign Military Financing, priority consideration for excess defense articles, and expanded participation in joint training and operational activities. Peruvian officials view these mechanisms as essential to managing the financial and logistical demands of a large-scale fighter acquisition. U.S. financing tools are expected to spread payments over an extended period, reducing near-term pressure on the national budget while ensuring long-term supply chain support. Aircraft Configuration and Capabilities The F-16V Block 70/72 is the latest production variant of the F-16 platform and incorporates significant upgrades over earlier models. Key features expected in Peru’s configuration include: AN/APG-83 AESA radar, offering improved detection range, target tracking, and resistance to electronic interference. Advanced mission computers and cockpit systems, compatible with precision-guided munitions and secure data-link networks. Extended airframe life, rated at approximately 12,000 flight hours. Interoperability with U.S. and regional forces, particularly in multinational exercises and counter-narcotics operations. The aircraft are expected to be delivered as new-build units, not refurbished airframes. Regional Implications The acquisition would bring Peru’s air combat capabilities closer to those of neighboring Chile, which operates a substantial fleet of F-16s within the Chilean Air Force. Defense analysts note that the move does not significantly alter regional force balances but restores capability parity and enhances interoperability among U.S.-aligned air forces in the region. Brazil, which operates the Gripen E through a separate program, remains on a different technological and logistical path, reflecting varied national defense strategies across South America. Impact on Competing Bidders For Saab, the outcome represents a setback in its efforts to expand Gripen sales beyond Brazil in South America. The company’s proposal focused on cost efficiency, industrial cooperation, and reduced dependence on U.S. export controls. While these factors were considered, they were outweighed by the broader security, financing, and logistics framework offered by Washington. Timeline and Implementation Pending post-election approval, contract signing is anticipated in mid-2026. Production slots and training schedules would follow, with initial pilot and ground-crew instruction likely conducted in the United States. Delivery of the first aircraft is projected for 2029, with full operational capability expected several years later. Once the F-16Vs enter service, Peru plans to progressively retire its remaining MiG-29 and Mirage 2000 aircraft, consolidating its fighter force around a single modern platform supported by long-term logistics and training agreements. If completed as planned, the program will mark a structural shift in Peru’s defense posture, anchoring the country more firmly within U.S.-led security frameworks while providing the Peruvian Air Force with a standardized, modern combat fleet for the coming decades.

NASA Selects Stratolaunch And SpaceWorks For Mach 5+ Flight Research Studies

Space & Technology

WASHINGTON : NASA has selected two U.S. commercial aerospace companies to carry out detailed studies on how existing privately developed vehicles could be adapted to support sustained hypersonic flight research, marking a further step in the agency’s effort to move critical technologies from laboratories into operational flight environments. The agency announced that it has awarded contracts to Stratolaunch and SpaceWorks Enterprises under its Hypersonic Technology Project, which is managed within NASA’s Advanced Air Vehicles Program. The work is intended to address a long-standing challenge in hypersonics: the limited availability of affordable, reusable flight platforms capable of reaching speeds above Mach 5. NASA officials said the studies are designed to close the gap between ground-based testing, such as wind tunnels and computational modeling, and full-scale experimental flight programs that are costly and infrequent. Hypersonic flight is generally defined as travel at speeds of Mach 5 or greater, equivalent to roughly 3,800 miles per hour at altitude. Focus On Air-Breathing Hypersonic Systems Historically, hypersonic speeds have been achieved primarily by rockets and missile systems, which carry both fuel and oxidizer onboard. While effective for short-duration missions, those systems are not well suited to reusable aircraft concepts. NASA’s current research emphasis is on air-breathing hypersonic propulsion, including advanced ramjet and scramjet configurations that draw oxygen from the atmosphere rather than relying on onboard oxidizers. According to NASA, air-breathing designs could enable longer flight durations, lower vehicle mass, and repeated operations from conventional runways. These characteristics are seen as essential for future scientific, defense-related, and potential commercial applications. “With these awards, NASA will collaborate with the commercial hypersonics industry to identify new ways to evaluate technologies through flight tests while addressing the challenges of reusable, routine, air-breathing hypersonic flight,” said Dr. Nateri Madavan, director of NASA’s Advanced Air Vehicles Program. Details Of The Awarded Studies The contracts, awarded in August, fund six-month feasibility studies rather than immediate flight testing. Each company is tasked with examining how its existing vehicle designs could be modified to host NASA research payloads, sensors, and experimental hardware, as well as how those platforms could be integrated into NASA’s broader test and evaluation framework. Stratolaunch received approximately $1.2 million to study the potential use of its Talon-A vehicle as a hypersonic testbed. Talon-A is a reusable, autonomous vehicle designed to be air-launched from the company’s Roc carrier aircraft, currently the world’s largest airplane by wingspan. After release at high altitude, Talon-A is intended to accelerate to hypersonic speeds, conduct its test mission, and then glide back for a conventional runway landing. NASA officials have highlighted the vehicle’s reusability and runway recovery as key advantages for frequent data collection. SpaceWorks Enterprises was awarded roughly $500,000 to evaluate modifications to its X-60 platform. The X-60 was originally developed as an aerial target and experimental vehicle capable of carrying instrumentation for high-speed flight research. Under the NASA study, SpaceWorks will assess how the platform could be adapted to support repeated hypersonic test flights and generate high-rate aerodynamic, thermal, and structural data. Data Collection And Research Objectives NASA said the studies will examine a wide range of technical and operational factors, including achievable flight envelopes, payload capacity, thermal protection requirements, flight safety considerations, and overall cost per mission. The agency is particularly interested in gathering data that can be difficult or impossible to obtain in wind tunnels, such as real-world boundary layer behavior, high-temperature material performance, and integrated propulsion–airframe interactions at hypersonic speeds. The information collected during these studies will be used to inform future decisions on flight test campaigns and infrastructure investments. NASA emphasized that the work does not commit the agency to a specific vehicle or vendor but is intended to expand the range of viable options for hypersonic experimentation. Role Within NASA’s Long-Term Strategy The results are also expected to support planning for NASA’s proposed Making Advancements in Commercial Hypersonics (MACH) initiative. The MACH concept envisions a structured framework for routine hypersonic flight testing using commercial platforms, standardized payload interfaces, and predictable scheduling. By relying on commercially developed vehicles, NASA aims to reduce the need to design and build unique experimental aircraft, often referred to as X-planes, for each new research effort. NASA officials said such an approach could significantly lower costs and increase testing frequency, enabling faster technology maturation. It would also align with broader federal policy goals that encourage public-private partnerships in advanced aerospace development. While commercial hypersonic passenger travel remains a long-term prospect, NASA noted that the immediate focus of the program is research and technology validation. Applications include improved thermal protection systems, more efficient propulsion concepts, advanced guidance and control, and materials capable of withstanding repeated exposure to extreme temperatures and stresses. The agency said it will review the findings from both studies later this year before determining next steps, which could include follow-on contracts or flight demonstration opportunities.

Lockheed Martin Delivers First Next-Generation Sentinel A4 Radar to U.S. Army Under LRIP Lot 2 Contract

World

SYRACUSE, N.Y. : The U.S. Army has taken a significant step in its Air And Missile Defense Modernization Program with the delivery of the first Next-Generation Sentinel A4 Radar from Low-Rate Initial Production (LRIP) Lot 2, according to an announcement by Lockheed Martin. The delivery coincides with the completion of Phase I Of Initial Operational Test And Evaluation (IOT&E), advancing the program toward broader operational use and a future Full-Rate Production decision. Program Milestone And Production Status The Sentinel A4, formally designated AN/MPQ-64A4, is intended to replace the legacy Sentinel A3 Radar currently in service with the U.S. Army. The newly delivered unit is the first of 19 Radars procured under the LRIP Lot 2 Contract. These systems are being produced to support continued Operational Testing, Training, and Early Fielding as the Army transitions its Short-Range Air Defense Sensor Fleet. Completion of IOT&E Phase I indicates that the radar has met initial Performance and Integration Benchmarks required to proceed with further testing. Additional phases of Operational Evaluation are planned to validate Reliability, Suitability, and Effectiveness under a broader range of operational conditions. Technical Characteristics Of The Sentinel A4 The Sentinel A4 represents a comprehensive redesign of the Sentinel Radar Family. Unlike the mechanically scanned architecture of earlier variants, the A4 employs an Active Electronically Scanned Array (AESA) using Gallium Nitride (GaN) Technology. This design supports Faster Beam Steering, Improved Target Discrimination, and Higher Power Efficiency. According to program data released by Lockheed Martin, the Sentinel A4 provides approximately a 175 Percent Increase In Detection Range and a 225 Percent Improvement In Sensitivity compared with the Sentinel A3. These enhancements allow earlier detection and continuous tracking of a wide range of Aerial Threats, including Unmanned Aircraft Systems, Cruise Missiles, and both Rotary- And Fixed-Wing Aircraft. The radar is also designed to operate in Dense Electromagnetic Environments and under Electronic Attack. The system provides Full 360-Degree Coverage and is capable of Simultaneous Air Surveillance And Counter-Fire Missions. In addition to air targets, the radar can detect and track Rockets, Artillery, and Mortars, calculate Points Of Origin, and support Counter-Battery and Force Protection Operations. Integration And Networked Operations During IOT&E Phase I, the Sentinel A4 was integrated with the Forward Area Air Defense Command And Control (FAAD C2) System. This integration is central to the Army’s approach to Networked Air And Missile Defense, enabling the radar to share Real-Time Sensor Data across multiple Command-And-Control Nodes and Weapon Systems. The Open-Architecture Design of the Sentinel A4 allows it to interface with Existing And Future Army Networks. This supports a Sensor-To-Shooter Construct in which Detection, Tracking, and Engagement Functions are distributed across a Connected Force rather than tied to a single platform. Role In Future Air And Missile Defense The Sentinel A4 is planned as a key sensor supporting the Army’s Indirect Fire Protection Capability (IFPC). In this role, it is intended to provide Persistent Surveillance and Targeting Data for the defense of Maneuver Forces and Fixed Sites, including Command Posts, Logistics Hubs, and Critical Infrastructure. By combining Air Surveillance and Counter-Fire Functions in a single system, the radar is expected to reduce the number of sensors required in a defended area while improving overall Situational Awareness. Its enhanced performance is aligned with the Army’s requirements to address the growing availability of Low-Cost Drones, Cruise Missiles, and Precision Indirect-Fire Systems. Next Steps And Fielding Outlook Lockheed Martin stated that deliveries of the remaining 18 LRIP Lot 2 Radars will continue in line with the Army’s Testing And Fielding Schedule. These systems will be used to support additional Operational Tests, refine Employment Concepts, and train Air Defense Units. Data gathered during the remaining IOT&E Phases will inform the Army’s decision on Full-Rate Production. If approved, full-rate production would lead to the gradual replacement of the Sentinel A3 Inventory with the Sentinel A4 across Army air defense units, completing a major element of the service’s Short-Range Air Defense Modernization Effort.

DRDO Says AMCA Mk-2 Engine Could Be Ready by 2035–36 If CCS Clears Project This Year

India

NEW DELHI : India’s long-running effort to achieve self-reliance in high-thrust military jet engines has entered a more clearly defined phase, with the head of the Defence Research and Development Organisation (DRDO) outlining a tentative but detailed timeline for the powerplant intended for the Advanced Medium Combat Aircraft (AMCA) Mark-2. Speaking to news agency ANI, Samir V. Kamat said that the indigenous engine programme could reach the integration stage by 2035–2036, provided it receives formal approval from the Cabinet Committee on Security (CCS) during the current year. According to Dr. Kamat, the projected timeline reflects both the complexity of modern jet engine development and lessons learned from earlier programmes. He stated that if the CCS clears the proposal this year, development trials of the engine would begin well before the mid-2030s, with formal acceptance trials planned to start around 2035. Integration with the aircraft platform would follow once those trials are completed. The engine under discussion is a 110 kilonewton-class high-thrust turbofan designed to power the AMCA Mark-2, the more advanced variant of India’s fifth-generation fighter aircraft programme. The AMCA programme itself is being pursued in phased form to manage technological risk and avoid delays to induction into service. The first phase, AMCA Mark-1, will rely on imported powerplants. These aircraft are planned to be powered by the GE F414-INS6 engine, produced by General Electric. The F414 engine, generating approximately 98 kN of thrust, is already in service on several modern fighter platforms worldwide. Its selection is intended to allow flight testing and induction of the AMCA to proceed without waiting for the indigenous engine to mature. Current timelines place the rollout of the first AMCA prototype in the 2028–2029 period. The AMCA Mark-2, however, is designed around the higher-thrust indigenous engine. The additional power is considered essential for meeting the aircraft’s full performance requirements, including sustained supersonic flight without afterburner, commonly referred to as supercruise. Achieving this capability also depends on advances in high-temperature materials, cooling technologies, and digital engine control systems. Development of the new engine is being planned as a co-development programme, rather than a purely domestic effort. DRDO’s Gas Turbine Research Establishment (GTRE) has been in negotiations with Safran for a joint development arrangement. Discussions have focused on shared design responsibilities, manufacturing processes, and testing infrastructure, while ensuring that India retains intellectual property rights over the final engine. Officials familiar with the talks say the proposed agreement differs from earlier arrangements in that it aims for full transfer of technology (ToT). This would allow Indian agencies and industry partners to manufacture, modify, and potentially export the engine in the future, subject to government approvals. Such control is viewed as critical for the long-term sustainment of the AMCA fleet and for future derivative aircraft programmes. The emphasis on collaboration reflects experience from the Kaveri engine programme, initiated in the 1980s, which achieved partial technical success but did not meet the thrust and reliability requirements for frontline fighter aircraft. DRDO leadership has acknowledged that while Kaveri helped build a domestic knowledge base, modern engine development has advanced significantly in areas such as single-crystal turbine blades, high-temperature superalloys, and thermal barrier coatings. The urgency behind securing CCS approval is closely tied to programme sequencing. While AMCA Mark-1 received government sanction in March 2024, delays in starting the Mark-2 engine programme could widen the capability gap between the two variants, complicating production planning and force-structure decisions for the Indian Air Force. If the engine programme proceeds as outlined, India would eventually join a small group of nations with the capability to design, test, and manufacture high-performance military jet engines across the full lifecycle. For policymakers, the project is viewed not only as a requirement for the AMCA but also as a foundational capability for future combat aircraft, unmanned platforms, and advanced aerospace systems. At present, the proposed timeline remains contingent on formal approval and sustained funding. DRDO officials have indicated that once sanctioned, the programme will progress along parallel tracks of design, materials development, component testing, and full-engine trials, with increasing participation from Indian industry partners as the project advances.

Norway Signs $922 Million Contract with Hanwha Aerospace for Chunmoo Rocket Launchers

World

OSLO / SEOUL : South Korea’s Hanwha Aerospace has confirmed the signing of a major defense procurement contract with the Norwegian Defence Material Agency to supply the Chunmoo Multiple Rocket Launcher System to the Norwegian Armed Forces. The company announced on February 2, 2026, that the agreement is valued at approximately $922 million and forms part of Norway’s broader long-range fires acquisition program, which carries an overall budget of about $2 billion. Under the contract, Hanwha Aerospace will deliver 16 Chunmoo launch vehicles, a package of precision-guided rocket and missile munitions, and a comprehensive Integrated Logistics Support (ILS) package covering sustainment, training, spare parts, and technical assistance. The contract was formally signed on January 30, 2026, in Oslo. The signing ceremony was attended by senior defense and government officials from both countries. The agreement was signed by Jae-il Son, President and Chief Executive Officer of Hanwha Aerospace, and Gro Jære, Director General of the Norwegian Defence Material Agency. Long-Term Cooperation as a Selection Factor Norway’s selection of the Chunmoo system follows nearly a decade of operational and industrial cooperation between Hanwha Aerospace and the Norwegian Army. In 2017, Norway placed an order with Hanwha for 52 K9 VIDAR self-propelled howitzers and 14 K10 ammunition resupply vehicles. All systems were delivered on schedule and have since been integrated into Norwegian service. Norwegian defense officials have repeatedly referenced the performance, availability rates, and sustainment arrangements of the K9 fleet as key technical benchmarks during the Chunmoo evaluation process. The existing logistics infrastructure and operational familiarity with Hanwha systems were cited as factors reducing integration risk for the new rocket artillery capability. Configuration for Arctic Operations For Norwegian requirements, the Chunmoo launcher has been configured for Arctic and sub-Arctic operating conditions, including sustained operations in low temperatures, snow-covered terrain, and limited daylight environments. According to Hanwha Aerospace, system adaptations include cold-weather vehicle subsystems, environmental hardening, and operational testing aligned with Norwegian climatic standards. The launcher is also designed to integrate with Norway’s existing command, control, communications, and fire-control architecture, enabling interoperability with current joint and allied systems. This includes compatibility with NATO operational procedures and data exchange standards. System Capabilities and Role The Chunmoo is a modular multiple rocket launcher system capable of firing different classes of guided and unguided munitions from a single platform. Its modular pod design allows rapid reconfiguration to support a range of mission profiles, including long-range precision strikes against fixed and time-sensitive targets. Norwegian defense planning documents have emphasized the need for mobile, survivable long-range fires to support deterrence, territorial defense, and allied reinforcement operations in Northern Europe. The Chunmoo system is intended to complement existing artillery and missile capabilities while enhancing range, accuracy, and responsiveness. Expanding International User Base With Norway joining the program, the Chunmoo operational user base now includes South Korea, Poland, Estonia, and several customers in the Middle East. Hanwha Aerospace has stated that the growing number of operators is expected to facilitate common logistics approaches, shared training concepts, and improved interoperability, particularly among NATO member states and partners. Industrial Cooperation and Local Participation Hanwha Aerospace confirmed that the program includes plans to expand industrial cooperation with Norwegian companies. Expected areas of collaboration include local industrial participation, potential joint development initiatives, and testing and evaluation activities conducted in Norway as the system is introduced into operational service. In a company statement, Son said Norway’s selection of the Chunmoo reflects the confidence established through previous cooperation on the K9 program and emphasized Hanwha Aerospace’s intention to support Norway’s long-term defense needs through sustained partnership and technical support. Regional Context The agreement comes amid accelerated defense investment across the Nordic region, where governments are prioritizing long-range fires, air and missile defense, and ground maneuver capabilities in response to evolving regional security requirements. Norway’s Chunmoo acquisition represents a significant step in modernizing land-based strike capabilities while strengthening interoperability with allied forces operating in Northern Europe.

Iran Labels EU Armed Forces “Terrorist Organizations” After IRGC Blacklisting

World

Tehran / Brussels : Iran has formally designated the armed forces of European Union member states as “terrorist organizations,” escalating tensions with Europe after the EU classified Iran’s Islamic Revolutionary Guard Corps (IRGC) as a terrorist group. The move was reported by Reuters and follows a landmark decision by the European Union aimed at increasing pressure on Iran’s security establishment. On Thursday, January 29, the European Union announced that it had placed the Islamic Revolutionary Guard Corps (IRGC) on its terrorist list, aligning the group with organizations such as al-Qaeda, the Islamic State, and Hamas. The designation represents one of the most far-reaching steps taken by the EU against Iran’s leadership since the founding of the Islamic Republic in 1979. EU Sanctions and Rationale Alongside the designation, the EU imposed new sanctions on 15 Iranian officials and six organizations accused of involvement in suppressing nationwide protests and committing human rights violations. The measures include asset freezes and travel bans within EU member states. EU officials said the decision followed evidence linking the IRGC to what they described as the most violent crackdown on public demonstrations in Iran since 1979. European diplomats stated that the sanctions framework is intended to target individuals and institutions directly involved in repression, rather than the Iranian population at large. Tehran’s Response and Legal Measures Iranian officials reacted sharply. Speaking in parliament, Speaker Mohammad Bagher Ghalibaf said the EU’s move had prompted reciprocal legal action under Iranian law. He cited Article 7 of legislation designed to counter foreign terrorist designations of the IRGC, stating that the armed forces of European countries would now be treated as terrorist groups by Iran. Ghalibaf accused European governments of acting against their own interests and of aligning themselves with U.S. policy toward Iran. He also said that Iran’s parliamentary commission on national security would consider the expulsion of military attachés from EU countries and would coordinate future steps with the Ministry of Foreign Affairs. Following his remarks, lawmakers in the chamber chanted slogans condemning the United States and Europe, underscoring domestic political support for a confrontational response. IRGC Statement and Diplomatic Impact On Sunday, the IRGC issued an official statement warning that the EU’s decision would complicate “the path toward constructive engagement and cooperation” and reinforce what it described as confrontational approaches. The statement did not outline specific retaliatory actions but emphasized that the designation would have long-term consequences for relations between Iran and European states. Diplomatic contacts between Tehran and several European capitals have already been limited in recent years due to disputes over Iran’s nuclear program, regional activities, and its human rights record. Analysts say the latest exchange of designations further reduces the scope for diplomatic engagement. Role and Structure of the IRGC Established in 1979 after the Islamic Revolution, the IRGC is an elite military and political force tasked with safeguarding Iran’s Islamic system and revolutionary ideology. It operates independently of the regular armed forces and reports directly to Iran’s Supreme Leader, giving it broad authority across security, political, and economic spheres. The organization is structured into Ground Forces, Aerospace Forces, and Naval Forces, and includes the Basij, a mass paramilitary organization used for internal security and mobilization. A key external arm is the Quds Force, responsible for operations beyond Iran’s borders and for supporting allied groups across the Middle East. Regional and Economic Influence The IRGC plays a central role in Iran’s regional policy, providing support to allied actors including Hezbollah in Lebanon, Shiite militias in Iraq, forces aligned with Bashar al-Assad in Syria, and the Houthis in Yemen. These activities have been cited by Western governments as contributing to regional instability and proxy conflicts. Beyond its military functions, the IRGC wields significant economic influence. Companies linked to the organization operate across sectors such as energy, construction, transportation, telecommunications, and defense, giving it substantial leverage within Iran’s economy. The mutual designations mark a new phase in relations between Iran and the European Union, with both sides hardening their positions. While EU officials frame their actions as a response to human rights concerns and security risks, Iranian leaders describe the measures as politically motivated and hostile. The developments leave limited room for de-escalation in the near term as diplomatic and military channels between Tehran and European capitals face increasing strain.

Greek–UK Consortium Proposes Domestically Built Unmanned Surface Vessels for Hellenic Navy and Coast Guard

World

ATHENS : Greek and British defense companies have jointly presented a proposal for the domestic construction of a new family of unmanned surface vessels (USVs) intended for service with the Hellenic Navy and the Hellenic Coast Guard, according to information released by SAS Technology. The presentation was delivered by SAS Technology, also known as Spirit Aeronautical Systems S.A. and part of the Spirit World Group, in cooperation with Sigmund Naval & Marine Ltd and Concept Marine Group. The briefing was addressed to the Hellenic Navy General Staff and the Hellenic Coast Guard under the Ministry of Maritime Affairs and Insular Policy. An international European and United States–based Class-A manufacturer of weapons, electro-optical and communications systems is also participating in the program. Proposal for Domestic Construction According to the companies, the proposal centers on the construction in Greece of next-generation USVs that are already in operational use with European end users. The vessels are described as being adapted to the specific operational requirements of Greek waters, including the Aegean Sea and the wider Eastern Mediterranean. The program foresees domestic manufacturing, technology transfer, and the establishment of dedicated production infrastructure in Greece. SAS Technology stated that the initiative includes plans for a composite materials facility for air and maritime platforms and a dedicated shipyard capable of producing large unmanned vessels exceeding 10 meters in length. Regional and Operational Context The companies presented the initiative as a response to evolving security developments in the Eastern Mediterranean. Particular reference was made to parallel unmanned surface vessel programs in neighboring countries, including Turkey, which publicly displayed fully armed attack unmanned surface vessels of up to 75 feet during IDEF 2025. The proposal follows recent modernization steps by Greece, including the induction of the frigate HS Kimon. The USVs are positioned as complementary systems intended to expand surveillance coverage, persistence, and operational reach, while reducing reliance on crewed platforms for selected mission sets. Platform Characteristics The proposed USV family includes platforms constructed from advanced composite materials, ranging from approximately 7 meters to more than 30 meters in length. Vessels exceeding 20 meters are designed with the capacity to transport between six and ten personnel when configured for such missions. The platforms are intended to operate in sea states corresponding to Douglas Scale 5 and 6. Primary emphasis is placed on the 60-foot, 75-foot and 87-foot classes. Depending on configuration, maximum speeds are stated to range from approximately 30 knots to more than 70 knots. Each vessel is designed around a modular architecture. Standard and optional payloads include electro-optical and infrared sensors, radar systems for surveillance and reconnaissance, secure communications, satellite connectivity, and integrated command-and-control systems. These systems allow for fully autonomous, semi-autonomous, or remote operation. The modular design also allows for the integration of weapon systems where operational requirements permit. Intended Missions and Areas of Operation The companies outlined several operational roles aligned with current Greek maritime security requirements. In the Aegean Sea, the USVs are intended to support continuous maritime surveillance, rapid response to asymmetric threats, and persistent monitoring of island approaches. For operations south of Crete and in the Libyan Sea, the platforms are designed to provide extended-range presence and wide-area surveillance at significant distances from main operating bases. In addition to defense missions, the vessels are described as suitable for maritime security, search and rescue operations, and counter-illegal activity tasks, in accordance with established rules of engagement. Industrial Roles and Technology Integration Under the proposed division of responsibilities, Sigmund Naval & Marine would provide core vessel design, drawing on experience in naval architecture, high-performance craft, mega-yachts, and racing vessels. Concept Marine Group would contribute construction guidance and expertise in high-specification composite vessel manufacturing, with an emphasis on hydrodynamic efficiency, stability, and low-signature characteristics. Weapons, sensor, and communications systems would be supplied by the participating EU/US Class-A manufacturer, with configurations tailored to the requirements of the Hellenic Navy and Hellenic Coast Guard. SAS Technology would integrate its proprietary automation, navigation, control, communications, and swarm-management technologies, transferring experience from unmanned aerial systems to the maritime domain. Additional systems referenced include SEASting, Sea Rescue, SARISA-based weaponized configurations, and ISR-oriented mission packages adapted for Greek operational environments. Operational and shipbuilding support is planned through cooperation with Spirit World Shipping and Spirit Management Services, providing experience from commercial and open-sea maritime operations. Statements from the Companies SAS Technology Chief Executive Michalis Spiridakos said the program is intended to complement recent naval acquisitions by providing autonomous surface platforms built domestically and adapted to Greek requirements.Sigmund Naval & Marine Chief Executive Peter Symonds stated that the collaboration aims to support the development of sovereign unmanned surface vessels aligned with Greece’s maritime security needs.Concept Marine Group Chief Executive Kevin Viles said the partnership combines design, systems integration, and manufacturing expertise, with a focus on establishing local industrial capability in Greece. The proposal is currently at the presentation stage, with no contract awards announced. Further evaluation by the Hellenic Navy and Hellenic Coast Guard is expected to determine potential next steps.

Switzerland Awards $17.5 Million Contract for Black Hornet 4 Nano-Drones for Piranha 8x8 Fleet

World

Bern / Zurich : Teledyne FLIR Defense has secured a $17.5 million contract from armasuisse to supply Black Hornet 4 Personal Reconnaissance Systems to the Swiss Armed Forces, marking the first operational vehicle integration of the latest Black Hornet variant. The contract supports Switzerland’s Piranha 8x8 armored engineering vehicle program, where the nano-drone will serve as an airborne, dismountable intelligence, surveillance, and reconnaissance (ISR) sensor. The platform is intended to enhance situational awareness for vehicle crews and dismounted troops during engineering, reconnaissance, and protection tasks. Vehicle Integration and Digital Connectivity Under the agreement, Black Hornet 4 systems are being integrated directly into the Piranha vehicle’s digital architecture, allowing live video feeds, target data, geographic coordinates, and situational awareness information to be distributed across onboard crew displays. The integration is carried out using harmonized military standards through the vehicle’s Integrated Combat Solution provided by Kongsberg Defence & Aerospace. The configuration enables operators to connect the Black Hornet control tablet to the vehicle system for both mobile and dismounted operations. Crews can hand-launch the drone from the vehicle while maintaining real-time data sharing with other onboard systems. The drone can also receive waypoints generated by the vehicle, produce target points for the remote weapon station, and remain fully detachable, allowing troops to dismount and reattach to the vehicle network during flight without interrupting operations. Operational Capabilities of Black Hornet 4 Weighing approximately 70 grams, the Black Hornet 4 is designed for close-range, covert reconnaissance. It provides both day and night imaging through a 12-megapixel electro-optical camera and an integrated thermal imager. The system offers an endurance of more than 30 minutes and an operational range exceeding three kilometers. The nano-UAS is engineered to operate in contested and congested environments, supporting missions that require low visual and acoustic signatures. Its small size and portability allow individual soldiers to carry and deploy the system while maintaining continuous connectivity with vehicle and command networks. Program Timeline and Deliveries Vehicle-integrated Black Hornet 4 systems were initially delivered to Switzerland in 2025, with remaining deliveries scheduled for 2026. The integration represents the first time the Black Hornet 4 has been fielded as part of an armored vehicle program, expanding its use beyond dismounted infantry operations. Broader Market Context According to Teledyne FLIR Defense, the Swiss program demonstrates growing demand for integrated unmanned aerial systems on armored platforms, particularly compact “drone-in-a-box” solutions designed specifically for vehicle use. Alongside Black Hornet, the company has developed vehicle-oriented systems such as Black Recon and SkyCarrier to address similar operational requirements. Teledyne FLIR Defense has delivered more than 35,000 Black Hornet drones to military and security forces in over 45 countries. The Black Hornet system is designed and manufactured in Norway, reflecting a long-standing European industrial base for the platform. With the Swiss Armed Forces adopting the Black Hornet 4 as part of the Piranha 8x8 program, the nano-drone is set to play a defined role in vehicle-centric reconnaissance and situational awareness operations within a fully networked combat environment.

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Greek–UK Consortium Proposes Domestically Built Unmanned Surface Vessels for Hellenic Navy and Coast Guard

Switzerland Awards $17.5 Million Contract for Black Hornet 4 Nano-Drones for Piranha 8x8 Fleet

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