Iran Rejects Rejects 15-Point US Plan, Sets Five Conditions to End Conflict

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TEHRAN, — March 25, 2026 : Iran has formally rejected a United States proposal aimed at ending the ongoing conflict, stating that any ceasefire will occur strictly on Tehran’s terms and timeline, according to a senior official speaking to state-affiliated Press TV. The rejection follows the delivery of a reported 15-point US ceasefire framework to Iran through Pakistani intermediaries as part of broader mediation efforts involving regional actors, including Egypt and Gulf Arab states. Despite these efforts, Iranian officials have emphasized that no direct negotiations have taken place with Washington. Foreign Ministry spokesman Esmaeil Baghaei stated earlier this week that there had been no contact between the two sides during the past 24 days of hostilities, while Iran’s Khatam al-Anbiya Central Headquarters dismissed reports of talks as unfounded. According to diplomatic reports cited by international media outlets, the US proposal included demands for Iran to dismantle key nuclear facilities, halt uranium enrichment, transfer its stockpile of highly enriched uranium to the International Atomic Energy Agency (IAEA), suspend its ballistic missile program, and end support for regional allied groups. The proposal also called for ensuring free navigation through the Strait of Hormuz. In return, Washington reportedly offered the lifting of nuclear-related sanctions and support for Iran’s civilian nuclear program. Iranian officials described the proposal as excessive and unacceptable, asserting that the United States cannot dictate the terms of ending the conflict. Tehran instead outlined five conditions it says must be met before hostilities can cease. These conditions include a full halt to aggression and targeted assassinations, concrete guarantees that similar conflicts will not be imposed on Iran in the future, and defined war reparations. Tehran also called for a comprehensive end to the conflict across all fronts, including those involving allied groups in the region, and demanded international recognition and guarantees of its sovereignty over the Strait of Hormuz. The Strait of Hormuz remains a central issue in the conflict. The strategic waterway is a key global energy corridor through which approximately one-fifth of the world’s oil supply passes. Iran has imposed restrictions on maritime traffic in the area since the conflict began in late February 2026, following US and Israeli strikes on Iranian nuclear and missile facilities. The disruption has raised concerns over global energy supplies. The US administration under President Donald Trump has urged Iran to reopen the strait and warned of potential further military action if disruptions continue. However, Iranian officials have maintained their position, linking any resolution of the issue to broader conditions related to sovereignty and security guarantees. Tehran has reiterated that military operations and its current regional posture will continue until its stated conditions are met. The demand for war reparations and recognition of control over the Strait of Hormuz is expected to present significant diplomatic challenges, as US and allied officials have previously indicated such terms would not be acceptable. While mediation efforts remain ongoing, no formal agreement has been reached, and the situation continues to evolve amid active military operations and competing diplomatic positions.

Royal Navy’s Second Type 31 Frigate HMS Active Completes Float-Off at Babcock Rosyth Shipyard

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ROSYTH, Scotland — March 25, 2026 : The Royal Navy’s Type 31 frigate programme has reached another significant construction milestone with the successful float-off of HMS Active, the second vessel in the Inspiration Class, at Babcock International’s Rosyth shipyard. The operation, conducted on March 21, marks the first time the 5,700-tonne warship has entered the water and transitions it into the next phase of build, outfitting, and testing. The float-off was carried out with support from engineers representing Defence Equipment & Support (DE&S) and the Royal Navy, using a controlled and low-risk method tailored for large naval platforms. HMS Active was transported from its build position using a self-propelled modular transporter before being aligned over the semi-submersible barge Malin Augustea. The barge was then submerged, allowing the vessel to float free. This operation represents a procedural advancement for the Rosyth facility. Unlike the float-off of the lead ship HMS Venturer, which required towing into the Firth of Forth, HMS Active was floated off directly within the shipyard’s non-tidal basin. Prior dredging operations ensured sufficient depth for the manoeuvre, eliminating the need for open-water transfer and reducing both time and cost. Following the float-off, HMS Active has been positioned alongside the basin wall and is expected to move into dry dock—recently vacated by HMS Venturer—for continued outfitting. The next stages will include systems integration, harbour trials, commissioning, and eventual sea trials before entry into operational service. Design, Capabilities, and Technical Characteristics HMS Active is based on the Arrowhead 140 design, derived from the Danish Iver Huitfeldt-class hull. The vessel measures 138.7 metres in length, with a beam of 19.8 metres and a full-load displacement of approximately 5,700 tonnes. Propulsion is provided by a combined diesel and diesel (CODAD) configuration using four Rolls-Royce/MTU 20V 8000 M71 engines, enabling speeds exceeding 28 knots and a range of around 7,500 nautical miles. The frigate is designed to operate with a core crew of approximately 105–110 personnel, with accommodation capacity for up to 160, including mission specialists. Its mission profile includes interception operations, intelligence gathering, defence engagement, maritime security, and humanitarian assistance. In terms of armament, the Type 31 frigates are equipped with a Bofors 57mm Mk3 main gun and two Bofors 40mm Mk4 secondary guns, supported by the Sea Ceptor air-defence missile system. The design also incorporates a large flight deck and modular mission bays capable of deploying boats, unmanned systems, and containerised payloads. Future upgrades or later vessels in the class are expected to integrate a 32-cell Mk 41 vertical launch system. Programme Structure and Fleet Integration The Type 31 programme, awarded to Babcock International in November 2019, encompasses the construction of five Inspiration Class general-purpose frigates at Rosyth. The planned vessels include HMS Venturer, HMS Active, HMS Formidable, HMS Bulldog, and HMS Campbeltown. These ships are intended to replace the Royal Navy’s aging Type 23 general-purpose frigates and will serve as flexible, globally deployable platforms within the surface fleet. All five vessels are scheduled to enter service by the early 2030s. HMS Venturer, the lead ship, completed its float-off in 2025 and is currently undergoing outfitting. The float-off of HMS Active follows a series of recent milestones at Rosyth. In late February 2026, the vessel was formally rolled out from the purpose-built Venturer Building Assembly Hall during an evening ceremony. On the same day, steel cutting commenced for HMS Bulldog, the fourth ship in the class, marking continued production momentum. Official Statements Steve Ranyard, Type 31 Team Leader at DE&S, stated that the float-off represents “another landmark moment” for the programme and reflects the coordinated effort across the Rosyth workforce and wider UK supply chain in delivering a versatile frigate capability. Commodore Stephen Roberts, the Royal Navy’s Type 31 Programme Senior Responsible Owner, said HMS Active will contribute to national security and NATO operations, emphasizing the importance of maintaining modern naval platforms in an evolving security environment. Industrial Impact and Economic Contribution Beyond its operational role, the Type 31 programme contributes significantly to the UK’s defence industrial base. It currently supports approximately 2,500 skilled jobs, including 1,250 positions at the Rosyth shipyard and a further 1,250 across the national supply chain. The programme aligns with broader government objectives to stimulate economic growth through defence investment, while maintaining sovereign shipbuilding capabilities and supporting long-term workforce development within the maritime sector. With HMS Active now afloat and progressing through the next stages of construction, the Type 31 programme continues to advance toward delivering a new generation of general-purpose frigates for the Royal Navy.

South Korea Rolls Out First Mass Production of KF-21 Boramae Fighter Jet, Targets 120 Aircraft by 2032

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SACHEON, South Korea — March 25, 2026 : South Korea has formally initiated mass production of the KF-21 Boramae fighter jet, marking a transition from development to full-scale manufacturing for its first domestically developed advanced combat aircraft. The rollout of the first production unit took place at the headquarters of Korea Aerospace Industries (KAI) in Sacheon, signaling the program’s entry into the operational phase after more than a decade of development. The KF-21 program, launched in 2015 under the Korea Fighter eXperimental (KF-X) initiative, has progressed from initial design to serial production in approximately ten years and six months. Development involved six prototypes that collectively completed over 1,600 flight tests across a 42-month campaign, concluding in January 2026, two months ahead of schedule without reported incidents. System development is scheduled for completion in the first half of 2026, with initial operational capability expected shortly thereafter. Domestic Production and Strategic Objectives South Korean President Lee Jae-myung, speaking at the rollout ceremony, stated that mass production of the KF-21 represents a key milestone in strengthening national defense autonomy and advancing the country’s defense industrial base. The government has positioned the program as part of a broader objective to elevate South Korea into the top tier of global defense exporters. The KF-21 Boramae is designed as a 4.5-generation multirole fighter incorporating low-observable design features. It is intended to replace aging fleets of F-4 Phantom II and F-5 Tiger II currently operated by the Republic of Korea Air Force. South Korea plans to procure a total of 120 aircraft by 2032, with the first batch of 40 Block I units scheduled for delivery beginning in the second half of 2026. Technical Characteristics and Performance The KF-21 is a twin-engine supersonic fighter powered by two General Electric F414-GE-400K engines. It has a maximum speed of approximately Mach 1.81, a combat radius of around 1,000 kilometers, and a maximum payload capacity of 7.7 tonnes. The aircraft measures 16.9 meters in length with an 11.2-meter wingspan and a maximum takeoff weight of 25,600 kilograms. The platform integrates several domestically developed systems, including an active electronically scanned array (AESA) radar, infrared search and track (IRST), and an electronic warfare suite. It is designed for network-centric operations and supports both air-to-air and air-to-ground missions in its initial Block I configuration. Future Block II variants are planned to incorporate enhanced stealth features and internal weapons carriage. Unit costs are estimated at approximately $83 million for Block I aircraft and $112 million for Block II configurations, positioning the KF-21 within the mid-tier fighter segment. South Korean officials have indicated that the aircraft is intended to serve as a cost-effective alternative to the F-35 Lightning II, particularly for countries with restricted access to fifth-generation platforms. Transition Toward Defense Self-Reliance The KF-21 program reflects South Korea’s long-term effort to reduce reliance on foreign military equipment, particularly U.S.-supplied systems that have formed the backbone of its air power for decades. By developing and producing a domestically controlled fighter platform, Seoul aims to secure greater operational independence while expanding its defense export portfolio. The rollout also establishes full-rate production capability at KAI’s Sacheon facility, enabling sustained manufacturing and delivery schedules aligned with military requirements. Export Prospects and Indonesian Agreement South Korea is concurrently advancing export efforts for the KF-21, with Indonesia expected to become the launch international customer. Indonesia has been a co-development partner in the program since its inception in 2015. A preliminary agreement is expected to be finalized during the state visit of Indonesian President Prabowo Subianto to South Korea from March 31 to April 2, 2026. The deal is expected to cover an initial batch of 16 aircraft, equivalent to one operational squadron for the Indonesian Air Force (TNI-AU). A binding contract is anticipated in the first half of 2026 following final price negotiations. Positioning in the Global Fighter Market Beyond Southeast Asia, South Korea is positioning the KF-21 for potential sales in the Middle East, where several countries are seeking to modernize aging fleets of fourth-generation aircraft such as the F-15 and F-16. Access to advanced fifth-generation fighters like the F-35 remains limited due to export controls and geopolitical considerations, creating an opportunity for alternative platforms. South Korean officials have indicated that the KF-21’s combination of performance, cost structure, and potential for technology transfer and local assembly could appeal to countries seeking to diversify procurement sources and reduce reliance on traditional suppliers. Program Outlook With mass production now underway, the KF-21 program enters a phase focused on operational deployment and export realization. Deliveries to the Republic of Korea Air Force are scheduled to begin later in 2026, while international agreements are expected to define the aircraft’s position in the global defense market over the coming years.

Arabelle Solutions Selected to Supply Propulsion Turbines for France’s Next-Generation Carrier France Libre

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PARIS — March 25, 2026 : Arabelle Solutions, a subsidiary of the EDF Group, has been selected by Naval Group to design and manufacture the propulsion turbines for France’s next-generation nuclear-powered aircraft carrier, France Libre. The vessel will replace the current flagship Charles de Gaulle and is scheduled to enter service with the French Navy in 2038. The contract forms a central component of the Porte-Avions de Nouvelle Génération (PANG) programme and secures a fully domestic industrial supply chain for the carrier’s high-power nuclear propulsion system, reinforcing France’s long-standing policy of strategic autonomy in defence manufacturing. Industrial Scope and Contract Details Under the agreement, Arabelle Solutions will deliver critical elements of the ship’s propulsion architecture. The scope includes the design, manufacturing, and delivery of four steam turbines along with their associated speed control systems, as well as four high-speed moisture separator reheaters (MSRs). These systems are essential for converting nuclear-generated steam into mechanical energy to drive the carrier’s propulsion shafts. All equipment is scheduled for delivery by 2030, aligning with the broader programme timeline that targets sea trials beginning in 2036. Manufacturing activities will be carried out at the company’s established industrial facilities in Belfort and La Courneuve. The selection of Arabelle Solutions consolidates French industrial capabilities in nuclear propulsion. The turbine technology, historically associated with Alstom and later General Electric’s steam power division, returned to French ownership following EDF’s acquisition of Arabelle assets in 2024. The company currently supports steam turbine and generator systems used in approximately one-third of the world’s nuclear power plants. Catherine Cornand, Chief Executive Officer of Arabelle Solutions, stated that the programme reflects continuity in the company’s role in supporting the French Navy, following its earlier contribution to the propulsion system of Charles de Gaulle. Programme Structure and Industrial Participation The France Libre programme is managed by MO Porte-Avions, a joint venture between Naval Group and Chantiers de l’Atlantique. The project also involves TechnicAtome, which is responsible for the design and integration of the nuclear reactors. The programme is expected to involve approximately 800 suppliers and support up to 14,000 jobs across France. More than 90 percent of procurement is planned to be sourced domestically, further strengthening national industrial capacity in naval and nuclear engineering sectors. The total estimated cost of the aircraft carrier is approximately €10 billion. Design and Technical Specifications The France Libre represents a significant increase in size and capability compared to its predecessor. The carrier will measure approximately 310 metres in length, with a beam of 90 metres, and will displace around 80,000 tonnes at full load—nearly double the displacement of the 42,000-ton Charles de Gaulle. Propulsion will be provided by two TechnicAtome K22 pressurised water reactors, each generating approximately 220 megawatts of thermal power. The reactors will support three shaft lines, enabling a maximum speed of approximately 27 knots while providing extended endurance and operational range. The ship is designed for a service life of 40 to 50 years and will incorporate modern digital systems for ship management, combat operations, and maintenance. Aviation Systems and Air Wing The flight deck, covering approximately 17,200 square metres, will be equipped with three Electromagnetic Aircraft Launch Systems (EMALS) and three Advanced Arresting Gear (AAG) systems. These technologies are being procured from the United States through a Foreign Military Sales (FMS) arrangement and will enable the launch and recovery of a broader range of aircraft, including heavier and future platforms. The carrier is designed to operate an air wing of approximately 30 combat aircraft. Initial operations will feature the Dassault Rafale M in its F5 configuration, with a planned transition to the Next Generation Fighter (NGF) being developed under the Future Combat Air System (FCAS) programme. In addition to fighter aircraft, the air wing will include up to three Northrop Grumman E-2D Advanced Hawkeye airborne early warning aircraft, up to six NH90 Caïman helicopters, and provisions for unmanned aerial vehicles, including future unmanned combat aerial systems. The ship will also incorporate two side elevators with a lifting capacity of 40 tonnes each and munitions storage designed to sustain high-intensity operations for more than seven days. Daily sortie generation is projected to reach approximately 60 sorties under high-tempo operational conditions. The total complement, including the air wing, is expected to be around 2,000 personnel. Construction Timeline Construction of the hull is scheduled to begin at the Chantiers de l’Atlantique shipyard in Saint-Nazaire between 2031 and 2032. Following initial assembly, the vessel will be transferred to the naval base in Toulon around 2035 for final outfitting and nuclear fuel loading. Sea trials are planned for 2036, leading to formal commissioning into service in 2038. Strategic Context The naming of the carrier as France Libre, announced by President Emmanuel Macron on March 18, 2026, departs from the traditional French practice of naming aircraft carriers after historical figures and instead references the Free France movement of the Second World War. The programme ensures continuity in France’s capability to operate a nuclear-powered aircraft carrier, maintaining its position as the only European country with such a capability. It also supports the long-term operational readiness of the French Navy’s carrier strike group and aligns with broader national initiatives in nuclear energy and defence, including the ongoing development of EPR2 nuclear reactors. The selection of Arabelle Solutions ensures that critical propulsion technologies remain under national control while sustaining expertise in naval nuclear propulsion for future generations of French naval platforms.

Shield AI, Destinus Complete Rapid Hivemind Integration on Hornet UAS in Spain Trials

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SEGOVIA, Spain — March 24, 2026 : Aerospace firms Shield AI and Destinus have completed a two-month autonomy integration campaign on the Destinus Hornet unmanned aerial system (UAS), successfully validating the deployment of Shield AI’s Hivemind software on the interceptor platform during live flight tests conducted in Segovia. The campaign focused on integrating Hivemind—a modular, platform-agnostic autonomy software—with the Hornet’s flight control and mission systems. According to both companies, the effort was completed within a compressed timeline while maintaining operational continuity, demonstrating the feasibility of rapidly fielding advanced autonomy on existing aerial platforms. Flight Testing Validates Real-Time Autonomous Adaptation During the flight trials, the Hornet platform demonstrated real-time autonomous decision-making capabilities enabled by Hivemind. A key test objective involved dynamically adjusting flight paths to avoid geofenced areas that were actively modified while the aircraft was airborne. The system executed these changes independently, without requiring manual reprogramming or intervention from ground control. This capability highlights the software’s ability to adapt to evolving operational constraints during missions, a requirement in complex and contested environments. Company officials stated that the tests confirmed that autonomy can be integrated without interrupting mission execution, supporting the need for flexible and responsive systems in modern operational scenarios. “Operational requirements are evolving quickly, and autonomy must be integrated at the same pace,” said Christian Gutierrez, Vice President of Hivemind Solutions at Shield AI. “Our collaboration with Destinus shows that Hivemind can be deployed rapidly on new platforms to support emerging operational needs.” Hornet Platform Used as Baseline for Integration The Destinus Hornet served as the baseline platform for the initial phase of integration, allowing both companies to reduce technical risk before expanding the autonomy stack to additional systems. Developed by Netherlands-headquartered Destinus, the Hornet is a multi-role, electrically powered autonomous interceptor designed primarily for counter-unmanned aerial system (C-UAS) and strike missions. Operational specifications of the Hornet Block 2 variant include a range exceeding 70 kilometers and a payload capacity of up to 3 kilograms. The system is designed with foldable wings and is launched via a booster from a sealed canister, enabling deployment from mobile ground vehicles, fixed installations, or naval platforms. The platform is engineered to intercept loitering munitions, intelligence, surveillance, and reconnaissance (ISR) drones, as well as helicopters. In addition to its primary interceptor role, the Hornet can be configured for reconnaissance, data relay, and security operations through modular payloads. Destinus offers the system in multiple configurations, including variants designated Hunter, Stalker, and Plotter. The platform is intended to function as a kinetic element within a layered air defense architecture designed to protect critical infrastructure and high-value assets. Hivemind Software Enables Autonomous and Coordinated Operations Shield AI’s Hivemind autonomy software is designed to operate across different platforms without requiring extensive customization. Unlike traditional autopilot systems that rely on pre-programmed waypoints, Hivemind uses artificial intelligence to perceive its environment, process data, and make decisions during flight. The system supports coordinated operations among multiple uncrewed platforms, enabling what the companies describe as a “reconnaissance-to-strike loop.” It operates within defined command frameworks, maintaining human oversight while enhancing decision-making speed and system responsiveness. “Speed of fielding matters in today’s threat environment,” said Tim Moser, Chief Technology Officer at Destinus. “The modular architecture of Hivemind allowed straightforward integration with our flight control and mission systems. Because Destinus platforms share a common technical architecture, the capabilities validated during this campaign can be extended across additional systems in our portfolio.” Strategic Partnership and Future Development Phases The Segovia trials mark the first phase of a broader strategic partnership between Shield AI and Destinus, originally announced on November 19, 2025. The collaboration aims to integrate Hivemind across multiple Destinus platforms, including the Ruta and Hornet UAS, alongside Shield AI’s V-BAT system. The partnership combines U.S.-developed autonomy software with European manufacturing capabilities, with the stated objective of strengthening defense resilience across Europe and supporting allied operational requirements, including those related to Ukraine. Future phases of testing will expand the autonomy envelope across additional platforms and mission sets. Planned developments include advanced real-time mission planning, terrain-aware flight profiles for low-altitude operations, and coordinated multi-platform behaviors to enable distributed fleet operations. The companies indicated that the shared architecture across Destinus systems will allow capabilities validated during the Hornet campaign to be scaled across its broader portfolio without significant redesign. Industry Context Destinus operates as a European defense and aerospace manufacturer focused on autonomous strike and air defense systems, emphasizing vertical integration and industrial-scale production. Shield AI, founded in 2015, develops artificial intelligence-based systems for defense applications, including its Hivemind software suite and unmanned platforms such as V-BAT and X-BAT. The successful integration campaign reflects ongoing efforts within the defense sector to accelerate the deployment of autonomy-enabled systems capable of operating in dynamic and contested environments while maintaining structured human oversight.

China Unveils ‘Atlas’ Drone Swarm System Controlling 96 Attack Drones with Fully Autonomous Strike Capability

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BEIJING, — March 25, 2026 : Chinese state media has released the first full-process demonstration of the domestically developed “Atlas” drone swarm operations system, providing a detailed view of how coordinated unmanned formations are being integrated into a single, software-driven combat architecture. The demonstration, aired on March 25 through outlets including CCTV’s military channel and the Global Times, presented a complete operational sequence linking target identification, launcher activation, drone deployment, and precision strike execution. The system—described in some reports as a “steel swarm”—highlights China’s focus on algorithm-enabled warfare, where centralized software systems manage large numbers of autonomous platforms with minimal human intervention. Integrated System Architecture The Atlas system is structured as a modular, scalable complex designed for coordinated swarm deployment. Footage from the demonstration indicates links to the China Electronics Technology Group Corporation (CETC), whose branding appeared on the launch platform. The system consists of three primary components. The Swarm-2 ground combat vehicle serves as the launch platform, equipped with a detachable launcher capable of carrying and deploying up to 48 fixed-wing drones, identified in reports as ATLUSS-A140 barrage munitions. This vehicle was first publicly displayed at Airshow China 2024 in Zhuhai. A centralized command vehicle forms the operational core of the system, enabling a single operator to supervise and manage up to 96 drones simultaneously. Rather than controlling individual units, the operator assigns mission parameters, while onboard algorithms handle execution, including navigation, coordination, and engagement decisions. Supporting these elements is a transport and loading vehicle, which carries additional combat-ready launchers and enables rapid reloading and redeployment of the system in field conditions. Demonstration of the Operational Sequence The March 2026 test focused on presenting a complete “kill chain” within a unified system. In the demonstration scenario, three visually similar targets were placed within the strike area, requiring the swarm to autonomously identify and engage the designated objective. The sequence began with launcher activation and drone deployment. UAVs were launched at fixed three-second intervals to ensure safe separation and stable flight paths. Following deployment, the swarm conducted autonomous reconnaissance using onboard electro-optical sensors, distinguishing the intended command vehicle from decoys without direct human input. Once the target was identified, the drones established a mid-air target lock and executed a coordinated precision strike. Throughout the process, the swarm maintained real-time communication, sharing data and adjusting formation spacing to account for environmental factors such as airflow disturbances. The system also demonstrated resilience, with algorithms enabling surviving drones to reorganize and continue the mission if some units were lost. This approach reflects a compressed operational cycle, shifting from the traditional “detected → reported → coordinated → struck” sequence to a streamlined “detected → algorithm → struck” model. Autonomous Coordination and Control Chinese reports describe the swarm-control system as providing each drone with a “smart brain,” enabling distributed decision-making within a centrally guided framework. The drones are capable of real-time data exchange, cooperative targeting, and collision avoidance, allowing nearly 100 high-speed units to operate in dense formations. The Atlas system reduces the human role to mission-level supervision. The operator defines objectives and constraints, while algorithms manage task allocation, route planning, target discrimination, and engagement. This structure is intended to address the limitations of human operators in managing large numbers of simultaneous platforms. Payload Flexibility and Layered Deployment The ATLUSS-A140 drones are designed as multi-role platforms capable of carrying a range of payloads, including electro-optical reconnaissance systems, electronic warfare modules, communications relay equipment, and kinetic strike munitions. This flexibility allows the Atlas system to adapt to different mission profiles. The demonstration highlighted a layered deployment concept. In a typical configuration, reconnaissance drones are launched first to gather intelligence and establish situational awareness. These may be followed by electronic warfare units tasked with suppressing or disrupting enemy radar and communication systems. Strike drones are then deployed to engage identified targets. The order, composition, and timing of these deployments can be adjusted dynamically depending on operational requirements, enabling the system to perform reconnaissance, suppression, or direct attack missions using the same platform. Saturation and Penetration Capabilities Analysts cited in Chinese media emphasize the system’s potential for saturation attacks against air defense networks. By deploying large numbers of drones in coordinated waves from multiple directions, the Atlas system is designed to exceed the tracking and interception capacity of conventional air defense systems. In addition to saturation tactics, the drones’ ability to loiter over target areas provides persistent surveillance and engagement flexibility. Unlike ballistic or cruise missiles, which follow fixed trajectories, the swarm can adapt to changing conditions, track mobile targets, and delay engagement until optimal conditions are achieved. The drones are also designed for low-altitude, low-speed flight with relatively small radar cross-sections, which may reduce detectability and enable operations deeper within contested environments. Role of Artificial Intelligence and System Development Chinese military analysts, including commentary cited by Global Times, attribute the system’s capabilities to advances in artificial intelligence and large-model algorithms. These technologies enable autonomous target recognition, distributed task execution, and adaptive behavior in complex and dynamic environments. The Atlas system is presented as a flexible combat architecture rather than a single-purpose weapon, integrating multiple drone types and roles within a unified command framework. The emphasis on software-driven coordination reflects broader trends in unmanned systems development observed in recent Chinese demonstrations, including larger-scale swarm control tests earlier in 2026. The March 25 demonstration focused on validating the integrated operational process rather than introducing new hardware components. The system remains under development and testing, and no official timeline for operational deployment has been disclosed.

U.S.-Israeli Airstrikes Hit Iran’s Critical Electro-Optical and Missile Research Facilities in Isfahan

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ISFAHAN, — March 24, 2026 : On March 23, 2026 night coordinated airstrikes by U.S. and Israeli forces have caused extensive damage to a cluster of Iranian defense-industrial and research facilities in Isfahan, targeting critical nodes involved in the country’s electro-optical systems and precision-guided munitions development. The strikes focused on the Isfahan Optics Industries complex, Optics Sairan, and the Malek Ashtar University of Technology—three interconnected entities forming part of Iran’s Ministry of Defense and Armed Forces Logistics supply and research network. Initial assessments indicate significant structural and operational damage across these sites, which collectively support the development, production, and integration of optical and electro-optical components used in missiles, drones, and surveillance systems. Targeted Defense Infrastructure The Isfahan Optics Industries facility, located near Kaveh Boulevard, is a major production center operated under Iran Electronics Industries (IEI), the state-owned defense electronics organization. The plant manufactures a wide range of advanced optical and electro-optic systems for military applications, including precision guidance components and surveillance equipment. Simultaneously, strikes hit Optics Sairan, an affiliated division within IEI that specializes in optical elements and electronic subsystems used in ballistic missile guidance and radar technologies. Both facilities are part of a broader industrial ecosystem responsible for producing components essential to Iran’s missile and unmanned systems programs. In addition, Malek Ashtar University of Technology, a defense-linked academic and research institution operating under the Ministry of Defense, was also targeted. The university has long been associated with Iran’s missile development efforts and is subject to international sanctions due to its connections with the Islamic Revolutionary Guard Corps (IRGC). It functions under the Defense Technology and Science Research Center and contributes to research in missile systems, satellite technologies, metallurgy, and engineering disciplines relevant to military applications. Capabilities and Production Output Isfahan Optics Industries is responsible for designing and manufacturing a broad portfolio of optical systems and components. These include complex lenses, prisms, multilayer optical coatings, interference filters, collimators, and reticles. The facility also produces binoculars, long-range observation systems, periscopes for armored vehicles, and optical sights for firearms. Its electro-optical product line includes the Oghab series aerial imaging cameras for manned and unmanned aircraft, Fater series thermal imaging systems, Sadad series long-range surveillance cameras, and the Sadad 103 monitoring system. Additional systems include the Fadak 8 laser rangefinder, EOVP-4 aerial camera, electro-optical monitoring platforms, digital display systems for naval and aviation use, and air defense simulators. These systems are used across multiple branches of Iran’s armed forces, supporting reconnaissance, targeting, navigation, and fire-control functions. The facility’s output plays a central role in enabling precision engagement capabilities for ballistic missiles, cruise missiles, and unmanned aerial vehicles. Optics Sairan complements this production by focusing on specialized optical components and electronic devices that support missile guidance systems, including electro-optical seekers and radar-related subsystems. Role of Malek Ashtar University Malek Ashtar University provides the research and development foundation for many of these technologies. It operates training and research programs linked to missile development, including collaboration with the Aerospace Industries Organization. The institution supports advancements in guidance systems, materials science, propulsion-related technologies, and satellite applications. Its integration within the defense research structure allows it to bridge theoretical research and practical manufacturing, contributing directly to the development cycle of advanced military systems. Strategic and Operational Impact Defense analysts assess that the coordinated targeting of both production facilities and a central research institution reflects an effort to disrupt the full lifecycle of Iran’s precision weapons development—from initial research and design to manufacturing and deployment. The immediate impact is expected to be a disruption in the supply of electro-optical components critical for missile guidance systems. Many Iranian ballistic missiles, including variants of the Fateh series and newer systems such as the Qasem Basir, rely on electro-optical terminal seekers for precision targeting, particularly in environments where electronic warfare may degrade traditional guidance methods. Damage to Isfahan Optics Industries and Optics Sairan is likely to constrain the production of these seekers, as well as thermal imaging systems, laser rangefinders, and aerial reconnaissance cameras used across drones, missiles, and air defense platforms. This creates a bottleneck in manufacturing and reduces the ability to maintain and replenish operational stockpiles. The strikes are also expected to affect the production of surveillance and targeting systems used on unmanned aerial vehicles, armored vehicles, naval platforms, and helicopters, thereby impacting reconnaissance and strike capabilities. At the research level, damage to Malek Ashtar University is likely to slow the development of next-generation guidance technologies and related systems. This could delay ongoing projects linked to missile accuracy improvements, sensor integration, and advanced materials. Broader Defense Industrial Implications Iran Electronics Industries, through its network of subsidiaries, forms a core component of Iran’s defense supply chain for electronic and optical subsystems. The targeted facilities in Isfahan represent key nodes within this network, supplying critical technologies across multiple weapon platforms. The disruption of these facilities is expected to have cascading effects on Iran’s defense industrial base, particularly in areas requiring high-precision optical and electro-optical systems. It also limits the capacity to support external supply channels, including the provision of advanced systems to regional partners and allied groups. Overall, the strikes have introduced constraints on Iran’s ability to sustain and expand its precision-guided munitions capabilities and advanced sensor systems, with implications for both domestic military readiness and regional operational activities.

Epirus, General Dynamics Land Systems and Kodiak AI Unveil Autonomous Microwave-Based Counter-Drone Vehicle at AUSA 2026

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HUNTSVILLE, Alabama — March 24, 2026 : A U.S. defense industry team comprising Epirus, General Dynamics Land Systems (GDLS), and Kodiak AI has unveiled a new autonomous counter-unmanned aerial system (C-UAS) platform, the Leonidas Autonomous Ground Vehicle (AGV), at the Association of the U.S. Army (AUSA) Global Force Symposium & Exhibition. The system integrates a high-power microwave (HPM) weapon with an AI-enabled autonomous driving platform on a commercial truck chassis, creating a mobile, crewless solution designed for point defense, expeditionary missions, and homeland security applications. A full-scale prototype is being displayed at Booth 801 during the event. Platform Design and System Integration The Leonidas AGV is built on a commercial-grade Ford F-600 truck chassis and was developed as a rapid prototype through internal investment by the three companies. General Dynamics Land Systems acted as the lead system integrator, combining Epirus’ directed energy system with Kodiak AI’s autonomous driving technology. The integration process was completed in under four months, demonstrating a proof-of-concept approach using commercially derived technologies adapted for defense applications. At the core of the vehicle is Epirus’ Leonidas high-power microwave system, a software-defined, solid-state directed energy platform based on gallium nitride (GaN) semiconductors. The system uses directional phased-array antennas to emit electromagnetic energy capable of disrupting or disabling electronic components in unmanned aerial systems. Unlike kinetic air defense systems, the HPM approach does not rely on interceptors. It provides what developers describe as “unlimited magazine depth,” frequency-agile waveforms, and modular amplifier units that can be replaced in under eight minutes. The system has demonstrated effectiveness against a range of threats, including individual drones, swarm attacks, and fiber-optic guided first-person view (FPV) drones in live testing. Autonomous Mobility and Navigation The vehicle’s mobility is enabled by Kodiak AI’s “Kodiak Driver,” an autonomous driving system originally developed for commercial trucking. The platform incorporates modular SensorPods equipped with LiDAR, radar, and camera systems, providing full 360-degree situational awareness. The system includes redundant safety architecture across compute, power, steering, and braking systems. It supports operation across highways, off-road terrain, and mixed environments, enabling deployment in both structured and unstructured operational areas. The Leonidas AGV can operate fully autonomously or be remotely teleoperated. This allows operators to reposition the system dynamically, establish defensive perimeters, and maintain coverage without placing personnel in direct exposure to threats. Operational Roles and Use Cases The platform is designed to provide a mobile layer of counter-UAS defense across a range of mission sets. These include protection of military installations, forward operating bases, and expeditionary deployments, as well as homeland security roles such as securing airports, ports, energy infrastructure, rail networks, and major public events. Its autonomous capability enables rapid deployment to pre-planned intercept locations or continuous maneuvering along defensive perimeters. The system is intended to support scalable coverage while reducing reliance on personnel and minimizing logistical demands associated with traditional interceptor-based systems. Industry officials indicated that the Leonidas AGV could align with requirements from U.S. Army air defense programs and organizations such as Joint Interagency Task Force (JIATF) 401. Directed Energy Effects and Operational Advantages The high-power microwave system creates a close-range defensive layer by targeting the electronics of incoming threats rather than physically destroying them. This approach allows simultaneous engagement of multiple drones over a wide area while limiting collateral effects, making it suitable for operations in populated or infrastructure-dense environments. The system’s ability to counter saturation attacks addresses a growing challenge in modern conflicts, where low-cost drones are deployed in large numbers. By avoiding the use of expensive interceptors, the platform is positioned as a cost-effective alternative for sustained operations. Industry Statements Andy Lowery, Chief Executive Officer of Epirus, stated that the system is designed to address evolving aerial threats by combining directed energy with autonomous mobility, enabling rapid maneuver and engagement of drone swarms without increasing personnel requirements. Keith Barclay, Vice President and General Manager for U.S. Operations at General Dynamics Land Systems, said the program reflects efforts to accelerate integration of advanced technologies into operational platforms using commercially derived solutions. Don Burnette, Founder and Chief Executive Officer of Kodiak AI, noted that autonomous mobility enables new deployment concepts for defensive systems, allowing continuous protection of critical assets while reducing risk to personnel. Development Background and Future Plans The unveiling follows recent operational testing of Epirus’ standalone high-power microwave systems. Earlier versions were deployed in the Indo-Pacific during the U.S. Army’s Balikatan exercise, and a second-generation system completed testing with the Army in February 2026. The companies plan to continue development of the Leonidas AGV, including further operational demonstrations and evaluations for potential military and government customers throughout the year.

Oshkosh Defense Showcases L-MAV Autonomous Vehicle and 155mm SIGMA Cannon at AUSA Global Force

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HUNTSVILLE, Ala., — March 24, 2026 : Oshkosh Defense is presenting a range of integrated mobility, autonomy, and artillery solutions at the Association of the U.S. Army (AUSA) Global Force Symposium, being held from March 24 to 26 at the Von Braun Convention Center. The company’s exhibit focuses on production-ready platforms designed to accelerate deployment timelines, reduce program risk, and support the U.S. Army’s evolving operational requirements. The systems, displayed at booth 411, highlight Oshkosh Defense’s approach to combining mobility platforms with mission systems through modular architectures and scalable manufacturing. Drawing on capabilities from its parent company, Oshkosh Corporation, the firm is emphasizing engineering depth, electrification investments, and long-term sustainment strategies for military fleets. Autonomous L-MAV Platform A central component of the exhibit is the Light Multi-Mission Autonomous Vehicle (L-MAV), a modular and payload-agnostic platform derived from the U.S. Marine Corps’ ROGUE-Fires program. The L-MAV is designed as an autonomous ground carrier capable of supporting dispersed and high-risk operations without exposing personnel. The platform supports multiple mission profiles, including counter-unmanned aerial systems (C-UAS), electronic warfare, network extension, and autonomous resupply. It can transport ammunition, fuel, and essential supplies to forward positions while also serving as a mobile node for communications in environments lacking fixed infrastructure. The L-MAV features an open-architecture design that allows rapid integration of mission-specific payloads without requiring modifications to the base vehicle. Its adaptable powertrain supports hybrid-electric configurations, enabling silent drive and silent watch capabilities, improved fuel efficiency, and increased exportable power for onboard systems. At the symposium, the platform is being showcased with the AeroVironment Switchblade 600 loitering munition and Titan counter-UAS technology, demonstrating its ability to integrate strike and air defense capabilities within a single autonomous system. SIGMA Next-Generation Mobile Tactical Cannon Oshkosh Defense is also presenting the SIGMA Next-Generation Mobile Tactical Cannon, developed in partnership with Elbit Systems of America. The system is built on the Oshkosh Mobile Artillery Platform (MAP), a production-ready base already fielded by international customers. The SIGMA system is a 155mm/52-caliber wheeled self-propelled howitzer equipped with a fully automated 40-round magazine and autoloader. It is designed for rapid and precise fire missions, supporting “shoot-and-scoot” operations that can be completed in less than 60 seconds to reduce vulnerability to counter-battery fire. Mounted on a 10x10 wheeled platform, the system provides high off-road mobility and can carry heavy payloads while remaining compatible with brigade combat team maneuver requirements. It offers 360-degree firing capability and is positioned as the only American-made wheeled howitzer with a fully domestic supply chain. The SIGMA platform aligns with the U.S. Army’s Mobile Tactical Cannon objectives and is intended to provide a low-risk solution due to its production-ready status and scalable U.S.-based manufacturing and integration. Manufacturing and Integration Focus Oshkosh Defense stated that a key challenge in current military modernization efforts is transitioning from development to scaled production efficiently. The company is positioning its platforms as ready-to-field systems that can be rapidly integrated into existing force structures. “Modernization demands more than new systems. It requires production-ready mobility foundations that integrate quickly and scale responsibly,” said Pat Williams, Chief Programs Officer at Oshkosh Defense. “Our commercial manufacturing strength, and experience as a preferred integrator, allow us to deliver advanced capability quickly while maintaining the performance and reliability Soldiers deserve.” The company highlighted that its broader industrial base supports rapid integration, scalable production, and lifecycle sustainment. Its investments in autonomous technologies and hybrid-electric systems are intended to enhance operational flexibility across multi-domain environments. Operational Relevance Oshkosh Defense indicated that its integrated mobility solutions are designed to address the Army’s requirement for adaptable, rapidly deployable systems capable of operating across distributed and contested environments. By combining autonomous capability, modular mission systems, and proven mobility platforms, the company aims to bridge the gap between technological development and field deployment. The exhibit reflects a broader industry focus on delivering systems that can be quickly scaled and adapted to evolving mission needs while maintaining compatibility with existing operational frameworks.

Russian Navy to Standardize Nuclear Attack Submarine Fleet Around Yasen-Class Within a Decade

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MOSCOW — March 24, 2026 : The Russian Navy has outlined a long-term restructuring plan to transition its multipurpose nuclear-powered attack submarine fleet to a standardized composition built entirely around the Project 885 and 885M Yasen and Yasen-M classes over the next ten years, according to statements by Commander-in-Chief Admiral Alexander Moiseyev. In remarks published in an interview with the Krasnaya Zvezda newspaper and reiterated in recent public appearances, Moiseyev said the Yasen/Yasen-M program will replace all third-generation submarines currently in service, including the Project 971 (Akula), Project 945 (Sierra), and Project 949 (Oscar II) classes. The transition reflects a shift away from maintaining multiple Soviet-era designs toward a unified, modern platform for general-purpose undersea operations. Fleet Transition and Decommissioning Plan The restructuring will gradually phase out older submarines commissioned primarily between the late 1980s and mid-1990s. Among these, the Project 949 Oscar II class—originally designed to counter U.S. carrier strike groups—has become increasingly costly to maintain. Russia currently operates five Oscar II submarines, each with a submerged displacement of approximately 19,400 tons and armed with 24 P-700 Granit anti-ship cruise missiles. While these vessels were built for high-volume anti-ship strike roles, their size, maintenance requirements, and evolving threat environment have reduced their relative effectiveness compared to newer platforms. Similar considerations apply to the Akula and Sierra classes, which represent third-generation nuclear attack submarine designs. Yasen-Class Design and Industrial Base The Yasen and Yasen-M submarines are developed by the Malakhit Design Bureau in St. Petersburg and constructed at the Sevmash shipyard, part of the United Shipbuilding Corporation. The design incorporates a “one-and-a-half-hull” architecture intended to balance structural resilience with reduced acoustic signature. With a submerged displacement of approximately 13,800 tons, the Yasen-class submarines are smaller than the Oscar II but integrate more advanced systems across propulsion, stealth, and onboard electronics. Improvements include modern hydroacoustic suites, navigation systems, and communications infrastructure, enabling extended and covert deployments across multiple operational theaters. The Yasen-M variant introduces further refinements, including a reduced overall length of approximately 130 meters compared to 139.2 meters for the baseline Yasen design, a crew complement of around 64 personnel, and additional noise-reduction measures. Armament and Operational Capabilities Admiral Moiseyev stated that the Yasen-class submarines are equipped with the full range of the Russian Navy’s modern missile systems and underwater weapons. Each submarine is fitted with 32 vertical launch system (VLS) cells for cruise missiles, along with 10 torpedo tubes. The missile suite includes: Kalibr cruise missiles for land-attack, anti-ship, and anti-submarine missions Oniks supersonic anti-ship cruise missiles Zircon (3M22) hypersonic cruise missiles Integration of the Zircon system into operational submarines began in 2025. The submarine Perm is reported to be the first unit purpose-built to deploy Zircon as a primary armament. These capabilities allow the Yasen-class to conduct precision strikes against both naval and land-based targets while maintaining stand-off distance. Russian officials emphasize that the submarines are capable of long-duration, covert operations in any ocean region and are designed to engage a wide spectrum of targets, including carrier strike groups and strategic infrastructure. Current Fleet Status and Production Timeline The Russian Navy currently operates one baseline Yasen-class submarine, Severodvinsk, alongside five Yasen-M variants, including recently commissioned units such as Arkhangelsk. These submarines are deployed with both the Northern Fleet and the Pacific Fleet and are actively conducting assigned missions. Fleet expansion is ongoing. The seventh submarine, Ulyanovsk, is scheduled to enter service in 2026. Another unit, Perm, is expected to complete trials in the same timeframe before joining the Pacific Fleet. In total, five additional submarines are planned beyond those already in service or under construction, which would bring the total Yasen/Yasen-M fleet to 12 vessels. On July 24, 2025, President Vladimir Putin directed the continuation of serial production of the class, citing operational feedback gathered since the 2010s and identifying the Yasen program as the foundation of Russia’s future multipurpose submarine forces. Strategic Context and International Assessment The modernization of Russia’s submarine fleet comes amid broader assessments that, while segments of its surface fleet face readiness and maintenance challenges, its undersea capabilities are advancing at a faster pace. Western defense officials have taken note of the development. In December 2025, the United Kingdom’s First Sea Lord, Admiral Gwyn Jenkins, stated that the expansion and capability of the Yasen-class submarines could affect the balance of naval power in the Atlantic Ocean, particularly if current trends continue. Analysts have highlighted the combination of stealth, long-range precision strike capability, and hypersonic weapon integration as key factors shaping these assessments. Long-Term Outlook The planned transition to an all-Yasen-class attack submarine fleet represents a consolidation of Russia’s undersea warfare capabilities around a single, modern platform. By replacing legacy third-generation submarines with standardized fourth-generation designs, the Russian Navy aims to streamline maintenance, improve operational efficiency, and enhance overall combat capability. The program’s progress over the next decade, particularly in meeting construction timelines and integrating advanced weapon systems, will determine the scale and effectiveness of this transformation.

Lockheed Martin Completes First Vertical Launch of HELLFIRE Missile from GRIZZLY Container System

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GRAND PRAIRIE, Texas — March 24, 2026 : Lockheed Martin has completed the first integrated live-fire and vertical-launch test of a HELLFIRE missile from its newly developed GRIZZLY containerized launcher, marking a key step in the development of a rapidly deployable, low-observable precision strike system. The demonstration validated the system’s ability to load, target and vertically launch a missile directly from a standard 10-foot Tricon shipping container. According to the company, the test met all launch requirements and confirmed real-time trajectory performance, establishing baseline operational capability for the platform. System Design and Development Approach The GRIZZLY launcher has been developed using a combination of commercial off-the-shelf (COTS) materials and existing, field-proven weapon architectures. Central to the system is the integration of the M299 launcher, a widely deployed multi-platform launcher used across U.S. military rotary-wing aircraft, including the AH-64 Apache. The M299 system supports both HELLFIRE and Joint Air-to-Ground Missile (JAGM) families and is capable of firing multiple missile variants in any sequence. It is designed to operate across a wide range of environmental conditions and is already fielded across U.S. Army, Navy and Air Force platforms, as well as with allied forces. By leveraging this existing launcher architecture along with COTS components, Lockheed Martin completed the transition from concept to live-fire testing within six months. This accelerated development cycle reflects a design approach focused on reducing acquisition timelines, lowering production costs and minimizing logistical requirements compared to fully bespoke systems. Test Outcomes and Technical Validation The March 24 test campaign demonstrated several key system functions, including containerized loading, vertical launch execution and missile guidance performance. The launcher successfully executed a precision strike using a HELLFIRE missile, with telemetry confirming that trajectory parameters aligned with expected performance thresholds. The use of a containerized configuration did not affect launch integrity or missile performance, indicating compatibility between the enclosed launch architecture and the missile system. Data collected during the tests will be used to support further refinement and incremental capability enhancements. Operational Characteristics and Deployment Model The GRIZZLY system is designed as a containerized, expeditionary launcher that can be deployed using standard logistics infrastructure. Its compatibility with 10-foot Tricon containers enables transportation via commercial trucks, cargo aircraft and naval platforms without the need for specialized handling equipment. The containerized design also reduces the system’s visual signature, allowing it to blend into conventional logistics environments such as ports, storage facilities and forward operating bases. This low-observable profile enables flexible placement in both permissive and contested environments. The launcher is command-and-control (C2) and sensor agnostic, allowing integration with existing U.S. military targeting networks, including air-search radars and external sensor systems. This architecture eliminates the need for dedicated or proprietary sensor suites and supports interoperability across multiple services and operational domains. Role Within U.S. Military Operations The GRIZZLY launcher is intended to complement existing artillery, point-defense and missile-launch systems by providing a distributed precision fires capability. Its mobility and modularity allow forces to position launch units across a wide geographic area, supporting both offensive and defensive operations. The system’s distributed deployment model enables the establishment of localized strike and air defense coverage without reliance on fixed launch infrastructure. This approach enhances operational flexibility and supports expeditionary missions, particularly in scenarios involving dispersed or rapidly evolving threats. The ability to deploy multiple containerized launchers across different locations also contributes to a layered defense architecture while complicating adversary targeting and planning. Cost, Logistics and Sustainment Considerations Use of commercial off-the-shelf components and existing launcher technology reduces both acquisition and lifecycle costs. The reliance on proven systems such as the M299 simplifies maintenance and sustainment requirements while ensuring compatibility with current HELLFIRE and JAGM missile inventories. The reduced logistics footprint allows for easier transport, storage and deployment, making the system suitable for rapid-response scenarios. Additionally, the absence of complex infrastructure requirements supports deployment in austere or forward environments. Future Development and Program Outlook Lockheed Martin stated that data gathered from the live-fire test will support rapid insertion of product improvements as development continues. The company is working in coordination with the U.S. government to further refine the system and align it with evolving operational requirements. The GRIZZLY launcher is positioned as part of Lockheed Martin’s broader precision fires portfolio, extending the operational application of the M299 launcher system into ground-based, containerized configurations. Further testing and evaluation are expected to focus on system scalability, integration with joint command networks and expanded mission profiles, as the platform moves toward potential operational deployment.

CENTCOM Images Show B-52H Armed with 12 JASSM Payload on Day 20 of Operation Epic Fury, Contradicting Stockpile Depletion Claims

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WASHINGTON / TAMPA, — March 24, 2026 : Newly released imagery from U.S. Central Command (CENTCOM) indicates that the U.S. Air Force continues to deploy fully armed long-range strike packages in its ongoing campaign against Iran, despite earlier official statements highlighting constraints in precision-guided munition stockpiles. The photographs, captured on March 20, show a B-52H Stratofortress conducting aerial refueling while carrying a significant load of AGM-158 Joint Air-to-Surface Standoff Missiles (JASSM). The mission took place on Day 20 of Operation Epic Fury, which began on February 28, 2026, targeting Iranian command and control infrastructure, air defense systems, missile launch facilities, and naval assets. Operational Loadout and Platform Capabilities The released images clearly depict 12 JASSM missiles mounted on the bomber’s external underwing pylons, with six missiles attached to each wing. The B-52H platform is also equipped to carry an additional eight JASSMs internally using a rotary launcher system. In a maximum load configuration, a single B-52H can therefore carry up to 20 JASSM cruise missiles. Based on widely cited unit cost estimates, such a load represents approximately $30 million in munitions for a single sortie. The aircraft involved in the March 20 mission was operating as part of Bomber Task Force deployments from RAF Fairford in the United Kingdom, which has served as a forward operating location for long-range strike missions during the campaign. Context: Reported Shift in Munitions Usage Earlier assessments by the Center for Strategic and International Studies (CSIS) indicated that U.S. forces reached what was described as a “point of munitions transition” by Day 4 of Operation Epic Fury. According to that analysis, the pace of operations required a shift away from extensive use of high-cost, long-range standoff weapons toward more readily available, shorter-range munitions. This shift was later echoed in public remarks by U.S. Secretary of Defense Pete Hegseth, who stated that by Day 14 of the operation, only 1 percent of munitions being employed were classified as standoff systems. Open-source intelligence estimates suggest that more than half of the U.S. inventory of certain precision-guided munitions, including JASSM, has been expended during the initial weeks of the campaign. These estimates have contributed to broader discussions about industrial capacity and the availability of advanced weapons for potential future contingencies. Discrepancy in Stockpile Attribution In explaining the reported strain on munitions inventories, Secretary Hegseth previously attributed reduced stockpiles to prior military assistance to Ukraine. However, defense export records and foreign military sales data confirm that AGM-158 JASSM missiles have not been transferred to Ukraine. While discussions regarding a potential transfer of JASSM to support Ukrainian F-16 operations took place during 2024 and 2025, no deliveries were approved or executed. As a result, current U.S. JASSM stockpile levels are not directly linked to military aid to Ukraine. Continued Use of Standoff Strike Capability The March 20 imagery demonstrates that, despite the reported transition toward other munition types, U.S. forces continue to authorize and execute missions involving high-end standoff weapons when required. The AGM-158 JASSM is designed for long-range precision strikes against high-value, well-defended targets and is capable of penetrating advanced integrated air defense systems. Its continued deployment indicates that U.S. forces retain operational flexibility in selecting munitions based on target requirements. The B-52H remains a central platform in Operation Epic Fury, with multiple aircraft previously observed departing RAF Fairford carrying similar JASSM configurations during earlier phases of the campaign. CENTCOM has continued to release imagery and video documenting these operations, including taxiing and takeoff sequences, as part of its public communications. Ongoing Operations As of March 24, 2026, Operation Epic Fury has entered its fourth week. U.S. forces continue to conduct strikes against designated Iranian targets while managing munitions usage through a combination of standoff and shorter-range systems, depending on operational requirements. The latest imagery provides a visual data point indicating that, while stockpile pressures have been acknowledged, the capability to deploy fully loaded long-range strike packages remains in use within the current operational framework.

Russia Establishes Drone Control Stations in Belarus, Expands UAV Operations Toward Ukraine

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KYIV, — March 24, 2026 : Russia is expanding its operational infrastructure for long-range unmanned aerial vehicles (UAVs) by establishing additional ground control stations in occupied areas of Ukraine and within Belarus, according to Ukrainian officials and intelligence findings released this week. Ukrainian President Volodymyr Zelensky disclosed the development following a briefing from Lieutenant General Oleh Ivashchenko, head of Ukraine’s Main Directorate of Intelligence (HUR). Ivashchenko, who assumed the role on January 2, 2026, reported that at least four Russian drone control stations have been identified on Belarusian territory. Zelensky stated that Ukraine would respond to the development and confirmed that intelligence findings have been directed for dissemination among international partners and media outlets. Ukrainian authorities indicated that further technical details will be shared through official intelligence channels. Expansion of Drone Command Infrastructure According to the HUR assessment, the newly identified installations are part of a broader Russian effort to extend command-and-control capabilities for long-range strike drones, including Shahed-type systems—referred to in Russian service as Geranium-2. These systems rely on ground-based infrastructure for navigation, communication relay, and route planning. The establishment of control nodes in Belarus extends operational reach toward Ukraine’s northern and western regions, allowing Russian operators to maintain stable communications with UAVs over extended distances. Use of Belarusian Civilian Networks Evidence of Belarus being used as a platform for drone operations first emerged in late January 2026. Additional technical insight became available following a cyber operation conducted in February 2026 by the international intelligence group InformNapalm in cooperation with the Ukrainian cyber analytics center Fenix. The operation, which lasted more than six months, provided access to accounts belonging to dozens of Russian military personnel. Ukrainian analysts were able to observe drone control interfaces and monitoring systems used by operators. Intercepted data and internal communications indicate that, since at least mid-2025, Russian forces have integrated Belarusian civilian telecommunications infrastructure into UAV operations. Specifically, drones were equipped with modems and SIM cards configured to operate on Belarusian mobile roaming networks. This approach enabled the use of local cellular towers to maintain continuous data links during flight. The system allowed operators to map precise flight routes and sustain signal integrity across distances extending tens of kilometers into Ukrainian territory, particularly along the northern and western borders. Airspace Probing and NATO Concerns The intelligence data also indicates that these capabilities were tested beyond Ukrainian airspace. Ukrainian analysts reported that a series of drone incursions into Poland on the night of September 9–10, 2025—estimated at between 19 and 23 UAVs—were deliberate. Information shared with NATO partners concluded that the incident was intended to evaluate both a new routing method and the performance of Belarusian cellular infrastructure in supporting cross-border UAV operations. The findings suggest that the test was designed to assess the feasibility of future strikes targeting logistics routes and military supply corridors in Ukraine and neighboring NATO member states. Intelligence Sharing with Iran In parallel with developments in Eastern Europe, Ukrainian officials reported continued intelligence cooperation between Russia and Iran. Zelensky stated that Ukrainian intelligence possesses what he described as irrefutable evidence that Moscow is transferring sensitive intelligence data to Tehran. According to Ukrainian sources, the exchange involves information derived from Russia’s electronic warfare (EW) and signals intelligence (SIGINT) capabilities, as well as data collected through partnerships in the Middle East. Diplomatic Context Ukrainian officials also indicated that Russia recently attempted to leverage its intelligence-sharing relationship with Iran in discussions with the United States. Moscow reportedly proposed halting intelligence transfers to Iran in exchange for Washington ending intelligence support to Ukraine. The United States rejected the proposal, according to officials familiar with the discussions. Operational Implications The deployment of additional drone control stations in Belarus and occupied Ukrainian territory reflects an ongoing effort by Russia to enhance the reliability and range of its UAV operations. The use of civilian telecommunications infrastructure provides a method to extend communication coverage without relying solely on military systems. Ukrainian authorities assess that these developments will continue to influence operational dynamics along Ukraine’s northern and western regions, while also raising broader security concerns among neighboring countries and NATO partners.

GKN Aerospace Delivers First Upgraded RM12 Engine for Gripen Modernization Programme

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TROLLHÄTTAN, Sweden — March 24, 2026 : GKN Aerospace has delivered the first upgraded RM12 engine to the Swedish Armed Forces, marking the initial fielding milestone under the RM12 Enhanced Performance (RM12EP) programme aimed at modernizing propulsion systems for the Saab JAS 39 Gripen C/D fleet. The delivery follows a contract awarded by Sweden’s Defence Materiel Administration (FMV) valued at approximately £32 million (SEK 400 million), covering performance upgrades across the existing inventory of RM12 engines powering Gripen C/D aircraft. Programme Scope and Technical Upgrades The RM12EP programme, launched in 2019, is designed to extend the operational lifespan and improve key performance parameters of the RM12 engine, which is derived from the General Electric F404 adapted for single-engine fighter use. The upgrade package incorporates both hardware and software modifications. On the hardware side, the engines receive enhanced turbine components engineered to withstand higher thermal and operational loads while improving efficiency. Complementing this, updated engine control software has been integrated to optimize fuel flow and combustion performance. According to GKN Aerospace, these combined changes result in increased thrust output, longer intervals between maintenance cycles, and reduced life-cycle costs. The improvements are intended to sustain the operational effectiveness and cost efficiency of the Gripen C/D fleet as it continues in service. Industrial Execution and Manufacturing All upgrade activities under the RM12EP programme are being conducted at GKN Aerospace’s facility in Trollhättan, Sweden. The company serves as the type certificate holder and original equipment manufacturer (OEM) for the RM12 engine, with full responsibility for development, manufacturing, system support, and maintenance. GKN Aerospace also supports the RM16 engine used in the Gripen E/F variants, reinforcing its role across Sweden’s fighter propulsion ecosystem. The production of the first upgraded engine involved coordinated efforts across engineering, manufacturing, quality assurance, procurement, and logistics teams within the company. The programme is being executed in collaboration with key industry partners, including GE Aerospace and Saab, as well as FMV. A separate contract valued at approximately £2 million (SEK 23.6 million), awarded in 2023, supported the final development phase of the programme. This phase included ground-based testing at the Trollhättan facility and flight testing conducted in coordination with Saab and FMV. Fleet Sustainment and Operational Context The RM12EP initiative forms part of Sweden’s broader strategy to sustain the Gripen C/D fleet alongside the gradual introduction of the Gripen E/F. The C/D aircraft currently in service have accumulated between 11 and 23 years of operational use, depending on the platform. The RM12 engine itself has logged more than 300,000 flight hours across the Gripen fleet without any engine-related accidents or serious incidents, according to programme data. By enhancing performance and extending service intervals, the RM12EP upgrades are expected to support continued air defense readiness while managing long-term sustainment costs. Statements and Future Deliveries Stefan Oscarsson, Vice President of Governmental Solutions at GKN Aerospace, said the first upgraded engine delivery represents a step forward in improving the performance and endurance of the Gripen system. He noted the company’s longstanding partnership with the Swedish Air Force, which dates back nearly a century, and its continued role in supporting operational capability and future readiness. Additional upgraded RM12 engines are scheduled for delivery to the Swedish Armed Forces on a rolling basis in line with the programme timeline. GKN Aerospace will retain responsibility for ongoing operation and maintenance support of the upgraded engines as part of its lifecycle management role for the RM12 platform.

Pentagon Uses Five-Day Strike Pause to Reinforce Air Defenses, Address Carrier Strainn and Lower Oil Prices

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WASHINGTON, — March 24, 2026 : The United States has ordered a temporary five-day suspension of military strikes targeting Iranian energy infrastructure, as the administration balances ongoing diplomatic engagement with Tehran and immediate operational requirements across U.S. forces in the Middle East. The directive, authorized by President Donald Trump, applies specifically to Iranian oil, gas, and power facilities, while other military operations against Iranian targets continue. According to U.S. officials, the decision follows two days of direct and indirect discussions with Iranian representatives. In a public statement, Trump described the talks as “productive” and indicated they would continue throughout the week. The pause also comes after earlier warnings from Washington that Iran could face strikes on its power infrastructure if it failed to reopen the Strait of Hormuz to international shipping. Israeli authorities confirmed alignment with the U.S. position. Prime Minister Benjamin Netanyahu stated that Israel would continue its military campaign against Iran but would avoid energy-related targets during the five-day window. Israeli operations will instead focus on missile systems, nuclear-related facilities, and command-and-control infrastructure. The adjustment follows prior U.S. requests aimed at preventing further disruption to global energy markets. Energy Market Stability and Immediate Impact The suspension has already had measurable economic effects. Global crude oil prices declined by approximately 13% following the announcement, reflecting reduced risk to critical supply routes and infrastructure. Prior to the pause, Israeli strikes on Iranian energy assets, including the South Pars gas field, had contributed to heightened volatility and prompted retaliatory Iranian actions against energy facilities in Saudi Arabia, the United Arab Emirates, and Qatar. International energy agencies, including coordinated reserve releases, had already been working to stabilize markets amid concerns over potential disruptions in the Strait of Hormuz, a key global oil transit corridor. Operational Drivers Behind the Pause While diplomatic considerations were central to the decision, defense officials and analysts indicate that operational requirements played a significant role in timing the pause. The U.S. military is currently managing high demand on air and missile defense systems across the region. Interceptor inventories, particularly Patriot PAC-3 and Terminal High Altitude Area Defense (THAAD) systems, have been heavily utilized in countering Iranian missile and drone attacks. The five-day period is being used to transport, distribute, and reload interceptor stocks into operational theaters. Recent deployments include the transfer of Patriot systems from Europe and up to 48 THAAD interceptors from South Korea. These assets are intended to reinforce a layered air defense network protecting U.S. forces and allied infrastructure across the Arabian Peninsula. Officials emphasize that replenishing interceptor “magazines” is a necessary step before any potential resumption of strikes on Iranian energy facilities, which could trigger large-scale retaliatory attacks. Naval Readiness and Carrier Constraints The U.S. Navy is also addressing strain on its forward-deployed carrier strike groups. Two primary carriers supporting operations in the region—the USS Gerald R. Ford and USS Abraham Lincoln—are both experiencing operational pressures. The USS Gerald R. Ford recently sustained a non-combat fire on March 12 while operating in the Red Sea. The incident originated in its laundry area and required more than 30 hours to contain. Two sailors were injured, and over 600 crew members were displaced from their berthing spaces. Although the carrier’s nuclear propulsion and core flight systems remain operational, the vessel has diverted to Souda Bay, Crete, for repairs and is not expected to immediately resume Middle East operations. The USS Abraham Lincoln, also deployed in the region, has been operating beyond standard deployment timelines. Reports indicate ongoing maintenance demands and crew fatigue affecting sustained operational readiness. To maintain regional presence, the Pentagon is accelerating redeployment of additional naval aviation assets. This includes shifting forces from the Pacific theater, with particular focus on Japan-based units. The America-class amphibious assault ship USS Tripoli is among the platforms identified to help fill operational gaps and sustain air support capabilities. Regional Defense Posture and Risk Management The pause allows U.S. Central Command (CENTCOM) to strengthen defensive coverage across key areas, including energy infrastructure and commercial hubs in Gulf states. Iranian responses to earlier strikes have included ballistic missile and drone attacks targeting both military installations and energy facilities. Defense planners assess that any renewed targeting of Iranian oil and gas assets could lead to saturation attacks aimed at overwhelming regional air defenses. Ensuring sufficient interceptor availability and integrated defense coordination is therefore considered essential before escalation. At the same time, U.S. officials stress that the suspension is limited in scope and duration. Military operations against Iranian military and strategic targets continue, and no final decision has been announced regarding actions after the five-day period. Broader Strategic Context The temporary halt occurs amid an ongoing cycle of escalation between U.S.-Israeli forces and Iran. Recent weeks have seen strikes on Iranian military and nuclear-related infrastructure, followed by Iranian ballistic missile attacks, including strikes on Israeli territory and a U.S.-British facility at Diego Garcia. Iran has also issued warnings regarding further escalation if its energy sector is targeted again, raising concerns about broader regional conflict and global energy security. U.S. officials describe the current pause as a calibrated measure designed to support diplomatic efforts, stabilize energy markets, and address immediate military logistics without signaling a reduction in overall operational intent. No timeline has been provided for the outcome of ongoing discussions or the next phase of military planning following the suspension period.

Iran Rejects Rejects 15-Point US Plan, Sets Five Conditions to End Conflict

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Royal Navy’s Second Type 31 Frigate HMS Active Completes Float-Off at Babcock Rosyth Shipyard

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South Korea Rolls Out First Mass Production of KF-21 Boramae Fighter Jet, Targets 120 Aircraft by 2032

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Arabelle Solutions Selected to Supply Propulsion Turbines for France’s Next-Generation Carrier France Libre

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Shield AI, Destinus Complete Rapid Hivemind Integration on Hornet UAS in Spain Trials

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China Unveils ‘Atlas’ Drone Swarm System Controlling 96 Attack Drones with Fully Autonomous Strike Capability

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U.S.-Israeli Airstrikes Hit Iran’s Critical Electro-Optical and Missile Research Facilities in Isfahan

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Epirus, General Dynamics Land Systems and Kodiak AI Unveil Autonomous Microwave-Based Counter-Drone Vehicle at AUSA 2026

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Oshkosh Defense Showcases L-MAV Autonomous Vehicle and 155mm SIGMA Cannon at AUSA Global Force

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Russian Navy to Standardize Nuclear Attack Submarine Fleet Around Yasen-Class Within a Decade

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Lockheed Martin Completes First Vertical Launch of HELLFIRE Missile from GRIZZLY Container System

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CENTCOM Images Show B-52H Armed with 12 JASSM Payload on Day 20 of Operation Epic Fury, Contradicting Stockpile Depletion Claims

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Russia Establishes Drone Control Stations in Belarus, Expands UAV Operations Toward Ukraine

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GKN Aerospace Delivers First Upgraded RM12 Engine for Gripen Modernization Programme

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Pentagon Uses Five-Day Strike Pause to Reinforce Air Defenses, Address Carrier Strainn and Lower Oil Prices

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