World 

TEHRAN — March 9, 2026 : Iran’s Assembly of Experts has formally appointed Mojtaba Khamenei as the third Supreme Leader of the Islamic Republic, succeeding his father Ali Khamenei, who was killed in a U.S.–Israeli strike on February 28 during the opening phase of the current regional conflict. The decision was confirmed during an extraordinary session of the 88-member clerical body on Monday in Tehran. The Assembly of Experts is constitutionally responsible for selecting and supervising Iran’s Supreme Leader. Iranian state media reported that senior political and military officials quickly pledged allegiance following the announcement.   Leadership Transition Amid Wartime Conditions Mojtaba Khamenei, 56, assumes the highest political and religious authority in Iran at a time of ongoing military confrontation involving Iran, the United States, and Israel. His appointment follows the death of his father during airstrikes targeting Iranian military installations and security compounds. Shortly after the selection was confirmed, the Islamic Revolutionary Guard Corps (IRGC) issued a statement pledging full loyalty to the new leader and affirming its “complete obedience and self-sacrifice” under his authority. Commanders of the Iranian armed forces and other senior officials also publicly recognized the transition. Iranian officials indicated that the selection process followed constitutional procedures and internal consultations within the Assembly of Experts. According to clerical sources cited in Iranian media, the choice reflected the leadership’s assessment of continuity in national security and foreign policy during the ongoing conflict.   Background and Education Born on September 8, 1969, in the northeastern city of Mashhad, Mojtaba Khamenei is the second of six children of Ali Khamenei. He completed his secondary education at the Alavi School in Tehran before pursuing advanced religious studies in the seminary city of Qom beginning in 1999. He holds the clerical rank of hojatoleslam, placing him among mid-ranking Shiite clerics. Unlike many senior figures within the Islamic Republic, Mojtaba Khamenei has never held a formal government office and has rarely appeared in public or delivered speeches. Despite the absence of an official position, analysts have long described him as an influential figure operating behind the scenes in Iranian political and security circles. He is widely believed to have maintained close relationships with senior commanders of the Islamic Revolutionary Guard Corps and other security institutions. Mojtaba Khamenei also briefly served in the military during the Iran-Iraq War while still a teenager.   Personal Losses in February Strike The leadership transition follows a series of personal losses for the new Supreme Leader during the February 28 strike on his father’s compound in Tehran. The attack, which occurred on the first day of the ongoing conflict, killed Ali Khamenei and several members of the family. Among those reported killed were Mojtaba Khamenei’s mother, Mansoureh Khojasteh Bagherzadeh, who died from wounds sustained during the bombing, and his wife, Zahra Haddad Adel. One of his sons was also reported killed in the strike, along with other relatives including a sister and a niece. Iranian sources stated that Mojtaba Khamenei survived the attack.   Long-Standing Succession Speculation For more than two decades, Mojtaba Khamenei had been viewed by political observers as a potential successor to his father. Reports from analysts and diplomatic sources frequently cited his connections to security institutions and his influence within conservative clerical networks. According to Mohsen Heydari Alekasir, members of the Assembly of Experts considered the strategic environment facing Iran when evaluating candidates. He stated that one of the factors in selecting the new leader was the expectation that Iran’s adversaries would strongly oppose the choice. Foreign policy analysts have suggested that Mojtaba Khamenei may adopt policies similar to or more hard-line than those of his predecessor, particularly in relation to the United States and Western governments.   International Reaction The appointment prompted immediate reactions from foreign governments. U.S. President Donald Trump publicly criticized the selection, describing Mojtaba Khamenei as an unacceptable choice and stating that Iran’s leadership would face continued pressure without changes in policy. Iranian officials rejected the remarks, reiterating that the leadership transition was an internal constitutional matter without external involvement. Meanwhile, Russia expressed support for the succession process, while China stated its opposition to any attempt to target Iran’s new leader.   Ongoing Conflict and Economic Pressure Mojtaba Khamenei assumes leadership during the second week of the ongoing regional conflict. Iranian forces have launched retaliatory strikes against Israel and targets in several Gulf states since the beginning of hostilities. The conflict has also affected global energy markets, with oil prices rising above $100 per barrel amid concerns over regional stability and potential disruptions to supply. Domestically, Iran continues to face economic pressure and political tensions, factors that analysts say will shape the early phase of Mojtaba Khamenei’s leadership.   Next Steps for the New Leadership As of Monday evening, Mojtaba Khamenei had not appeared publicly since the February 28 strike. Iranian state television broadcast images of gatherings in multiple cities where supporters carried portraits of Ali Khamenei and expressed support for the leadership transition. Iranian authorities have not announced a timeline for formal inauguration ceremonies or policy addresses. Officials stated that the new Supreme Leader will continue overseeing national security and foreign policy decisions in accordance with the framework established by the Islamic Republic’s constitution.  

Read More → Posted on 2026-03-09 12:47:47

 World 

VERGIATE, Italy — March 8, 2026 : Italian aerospace and defense company Leonardo has presented a new military tiltrotor aircraft concept known as the Advanced Tiltrotor Aircraft – Next Generation Military (ATA-NXM). The design represents a larger and significantly reconfigured successor to the company’s commercial tiltrotor program, the AW609, and is intended to address future military requirements for high-speed vertical take-off and landing aircraft. The concept was unveiled at Leonardo Helicopters’ facility in Vergiate, where company engineers outlined how the platform builds on experience gained from the AW609 program and the experimental Next Generation Civil Tiltrotor (NGCTR) demonstrator. The ATA-NXM introduces a new structural layout and increased payload capacity designed for military transport, logistics, and multi-mission roles.   Larger Size and Expanded Payload Capacity The ATA-NXM represents a major increase in scale compared with Leonardo’s existing tiltrotor aircraft. The AW609, originally developed for commercial transport missions, has a maximum take-off weight (MTOW) of approximately six tonnes. In contrast, Leonardo’s new concept targets a baseline MTOW between 11 and 13 tonnes. Engineering studies conducted by the company indicate that the aircraft architecture could be scaled across a wider weight range from roughly eight tonnes to 18 tonnes, depending on mission requirements and the availability of suitable turboshaft engines. This scalability is intended to allow the design to evolve into multiple variants tailored for different operational roles.   Revised Airframe Layout The ATA-NXM incorporates several structural changes compared with the AW609 in order to handle increased weight and improve performance. The aircraft features a canard configuration, with small forward wings positioned below the cockpit. These surfaces are intended to enhance pitch control and aerodynamic stability during both helicopter-mode and fixed-wing flight. At the rear of the aircraft, the design uses a V-tail configuration derived from the NGCTR demonstrator. The V-tail reduces structural complexity compared with a conventional tail assembly while maintaining directional and pitch control. Additional sponsons beneath the wings are included in the layout, providing space for systems and potentially supporting landing gear or additional equipment.   Centralized Transmission and Engine Placement A key structural change involves the placement of the engines and drivetrain components. In the AW609 configuration, engines are positioned at the wingtips, similar to earlier tiltrotor designs. In the ATA-NXM concept, the engines have been moved inward toward the fuselage on the inner section of each wing. This arrangement creates a centralized transmission layout, which reduces the amount of heavy mass located at the wing tips. By moving the engines closer to the aircraft’s centerline, Leonardo engineers aim to reduce structural stress on the wings, allowing lighter wing structures. Under the proposed configuration, the wings primarily house the propeller assemblies and transmission components, while the main engine mass remains closer to the fuselage. The revised layout is also expected to improve aerodynamic efficiency and simplify aspects of the drivetrain system.   Potential Operational Configuration According to Leonardo engineers, the revised structure could also support different internal layouts and mission configurations, including the possibility of incorporating a rear cargo ramp for troop transport or logistics operations. The aircraft’s design is intended to combine vertical take-off and landing capability with higher cruise speeds and longer range than conventional helicopters, characteristics that have drawn increasing interest from military planners.   Development Background The ATA-NXM concept builds on several ongoing Leonardo tiltrotor initiatives. The AW609 tiltrotor, originally developed as a commercial aircraft capable of vertical take-off with airplane-like cruise speed, has completed extensive flight testing. However, the aircraft has not yet received full certification from aviation regulators. Leonardo has also been developing the NGCTR demonstrator, a technology program funded through the European Union’s Clean Sky 2 research initiative. The demonstrator incorporates several advanced technologies, including composite airframe construction and morphing wing surfaces, and has already conducted initial flight tests. The engineering lessons from both programs have informed the conceptual architecture of the ATA-NXM.   Growing Interest in Military Tiltrotor Aircraft The unveiling of the ATA-NXM comes amid renewed global interest in tiltrotor technology for military applications. Tiltrotor aircraft combine helicopter-like vertical lift with the speed and range of fixed-wing aircraft, enabling faster troop transport and long-range missions without the need for conventional runways. Despite these advantages, tiltrotors have historically remained relatively uncommon due to their mechanical complexity, unique flight characteristics, and safety challenges associated with the tilt-rotor conversion mechanism. The first widely deployed operational tiltrotor was the V‑22 Osprey, developed for the United States military. More recently, the Bell V‑280 Valor—designated MV-75 by the U.S. Army—was selected under the Future Long Range Assault Aircraft (FLRAA) program to replace the UH‑60 Black Hawk utility helicopter. The newer tiltrotor design incorporates improvements such as reduced disk loading for better hover performance and improved autorotation capability, along with an upgraded transmission intended to enhance safety.   Strategic Positioning for Future Programs Leonardo has not announced a formal development schedule or production timeline for the ATA-NXM. The company also has not disclosed estimated program costs or detailed technical specifications beyond the conceptual configuration. However, the concept aligns with anticipated NATO and international requirements for high-speed rotorcraft, where tiltrotor designs are being evaluated for future transport and multi-role missions. European competitors are also exploring similar aircraft concepts. Airbus Helicopters has previously proposed high-speed rotorcraft designs that could compete in potential NATO programs. By presenting the ATA-NXM concept, Leonardo is positioning itself to participate in future military competitions that may require high-speed vertical-lift aircraft capable of combining helicopter flexibility with airplane-level cruise performance.

Read More → Posted on 2026-03-08 17:23:42

 World 

LONDON — March 8, 2026 : The United Kingdom’s Ministry of Defence (MOD) is accelerating efforts to develop a hypersonic weapon technology demonstrator by 2030, advancing a program that combines government-led research, international cooperation, and emerging private-sector innovation in Europe. According to information reported by the UK Defence Journal and confirmed through parliamentary responses, the MOD is restructuring its development approach to speed up progress on hypersonic strike capabilities. The initiative emphasizes rapid experimentation, early prototyping, and collaboration with industry and academic partners in order to move beyond traditional defence procurement timelines.   Accelerated Procurement and Early Program Phase The hypersonic initiative is currently in the Strategic Outline Case stage, the initial phase in the UK’s defence acquisition process that focuses on strategic justification and concept validation. As a result, total program costs and the final in-service date for a future operational system have not yet been determined. Defence Minister Luke Pollard, responding to a parliamentary question from Conservative MP James Cartlidge, confirmed that the MOD intends to deliver a hypersonic weapon demonstrator by 2030. The program is designed to test critical technologies required for future long-range strike systems capable of operating at hypersonic speeds, generally defined as Mach 5 and above. To accelerate progress, the MOD has adopted a more flexible procurement model. The strategy incorporates commercial contracting mechanisms, rapid procurement pathways, and partnerships with a wide network of suppliers, including universities, research institutions, and private technology firms.   Contracts and Industrial Participation In February 2026, the MOD awarded a £12 million engineering support contract to Amentum UK, with contributions from technology partners Ebeni and Synthetik. The contract focuses on system engineering, modelling, and flight-testing preparation for hypersonic platforms capable of operating in extreme temperature and speed environments. The work will support the development of prototype missile systems and validation of technologies necessary for future operational weapons. These activities are being conducted under the Hypersonic Technologies and Capability Development Framework (HTCDF), a £1 billion program established to coordinate the phased development of hypersonic technologies in the United Kingdom. The framework includes participation from more than 90 suppliers, over half of which are small and medium-sized enterprises, reflecting the government’s effort to broaden industrial involvement. The UK government has allocated over £400 million in the current financial year to hypersonic and long-range strike weapon development, including joint projects with international partners.   Propulsion Testing With the United States The MOD has also conducted joint hypersonic propulsion research with the United States. In April 2025, the UK announced the completion of a major testing campaign for a high-speed air-breathing propulsion system designed for a hypersonic cruise missile concept. During the six-week program, engineers conducted 233 engine test runs, validating performance characteristics necessary for sustained hypersonic flight. Air-breathing engines are designed to draw oxygen from the atmosphere rather than carry oxidizer onboard, allowing missiles to achieve longer ranges and improved efficiency compared with conventional rocket-powered designs. The propulsion research forms part of the Team Hypersonics (UK) program, which is working toward a full technology demonstrator by the end of the decade.   Private-Sector Hypersonic Test Flight Alongside government programs, European private industry has begun conducting independent hypersonic development. In February 2026, the Anglo-German defense startup Hypersonica completed the first privately funded European hypersonic missile test flight. The test took place at the Andøya Space Center in Norway, where the company launched its prototype missile, designated Scooter HS-1. According to company data, the prototype: Reached speeds exceeding Mach 6 (more than 7,400 km/h). Achieved a flight range of over 300 kilometers. Successfully completed ascent and descent phases through the atmosphere with all onboard systems operating nominally. Engineers reported that the test validated multiple subsystems operating under hypersonic flight conditions, including structural components, guidance systems, and thermal protection technologies. Hypersonica stated that development of the prototype progressed from initial design to flight testing in approximately nine months, demonstrating a rapid development cycle compared with traditional defense programs.   Modular Architecture and Cost Reduction A central feature of Hypersonica’s design is its modular missile architecture, which allows different subsystems to be replaced or upgraded without redesigning the entire platform. The company says this approach reduces development costs by more than 80 percent compared with conventional procurement models. The firm aims to conduct additional test flights to demonstrate advanced maneuverability, control systems, and mission-level performance required for operational hypersonic strike capability. Hypersonica’s roadmap targets the delivery of a European hypersonic strike system by 2029, aligning with NATO and UK timelines for the deployment of advanced long-range weapons.   Strategic Context The UK’s hypersonic initiative is also linked to broader international defense cooperation. London is coordinating research through NATO technology programs and the AUKUS security partnership, which includes the United States and Australia and supports collaboration on advanced military technologies. Despite increased investment and accelerated development strategies, the MOD has not yet made final decisions regarding future procurement, platform integration, or operational deployment of hypersonic weapons. For now, the program remains focused on technology maturation and demonstration, with the 2030 milestone intended to validate the core systems required for a future generation of high-speed strike capabilities.

Read More → Posted on 2026-03-08 17:17:17

 World 

KYIV — March 8, 2026 : A sharp increase in global fiber-optic cable prices has significantly altered the cost structure of manufacturing long-range strike drones, making satellite communication terminals such as those produced by Starlink more economical than fiber-optic control links in certain applications. The shift was outlined by Oleksiy Babenko, director of the Ukrainian drone manufacturer Vyriy, during a livestream broadcast on the Ukrainian defense outlet Militarnyi. According to Babenko, recent price increases for optical fiber—largely driven by supply conditions in China—have made fiber-optic guidance systems significantly more expensive for drones designed to operate over distances of several dozen kilometers.   Cost Comparison Between Fiber Links and Satellite Terminals During the broadcast, Babenko presented a cost comparison illustrating the shift in economic viability between the two communication methods. A Starlink satellite terminal currently costs approximately UAH 18,000. By comparison, a 35-kilometer spool of fiber-optic cable purchased at current market prices costs about $700, equivalent to roughly UAH 30,000, for the raw cable alone. This figure does not include additional costs such as connectors, protective housing, labor, or integration into the drone platform. Based on these figures, Babenko noted that integrating a satellite terminal into a drone platform has become the lower-cost option. Satellite connectivity also allows operators to control drones from distant locations rather than relying on a physical fiber-optic link trailing behind the aircraft.   hinese Production Dominance and Price Increases The increase in fiber prices is closely linked to supply conditions in China, which accounts for more than 60 percent of global optical fiber production. Price increases from Chinese suppliers began in early 2026 and have affected both civilian technology sectors and defense-related manufacturing. Prior to the surge, optical fiber typically cost $4 to $5 per kilometer. Prices have since increased to around $20 per kilometer, with some suppliers charging up to $30 per kilometer depending on specifications and delivery conditions. Manufacturers in both Ukraine and Russia that signed fixed-price supply contracts earlier are now facing higher material costs than originally anticipated. In some cases, companies are fulfilling previously agreed orders at a loss. Suppliers have also changed payment terms due to limited availability of raw materials, with many now requiring 100 percent prepayment before production begins.   Demand Pressures From Military and AI Infrastructure Industry analysts attribute the supply shortage to two major sources of demand that intensified during 2025. The first factor is the increased battlefield use of fiber-optic controlled First-Person View (FPV) drones. These systems use a physical optical cable to transmit video and control signals between the drone and the operator. Because the signal travels through the cable rather than radio frequencies, such drones are largely immune to electronic-warfare jamming. In recent combat operations, fiber-optic FPV drones with operational ranges of up to 50 kilometers have been deployed. Each system requires long spools of fiber-optic cable that unwind behind the drone during flight, contributing to large-scale consumption of optical fiber. The second factor is the rapid global expansion of artificial intelligence computing infrastructure. Large AI data centers rely heavily on optical connections between servers that contain high-performance graphics processing units (GPUs). Large computing clusters may require tens of thousands to millions of kilometers of optical fiber for internal data transmission. The simultaneous growth of these two sectors has significantly increased global demand for fiber-optic materials.   Russia’s Rapid Increase in Fiber Consumption Global consumption patterns shifted noticeably in 2025, particularly due to wartime demand. Russia alone consumed approximately 10.5 percent of total global fiber-optic production, equivalent to nearly 60 million kilometers of cable. Prior to the escalation of drone usage, Russia’s share of global consumption was typically below one percent. The increase was linked to the large-scale deployment of fiber-optic FPV drones and related communication infrastructure.   Loss of Russian Domestic Fiber Production Russia’s reliance on imported fiber has also been intensified by the loss of its only domestic production facility. The plant operated by Optic Fiber Systems in the city of Saransk was damaged during Ukrainian drone strikes in April and May 2025. The facility has remained offline since those attacks. Before the disruption, the Saransk plant produced approximately 4 million kilometers of optical fiber annually. Its output supplied roughly 20 to 24 Russian cable manufacturing factories, which processed the fiber into finished communication cables. With domestic production halted, Russian manufacturers now rely almost entirely on imported fiber, primarily from Chinese suppliers.   Ongoing Use of Fiber-Optic Drone Systems Despite rising costs, fiber-optic drone control systems continue to be used by both Ukrainian and Russian forces due to their resistance to electronic warfare interference. Among Ukrainian systems currently deployed is the General Chereshnya OPTIX line of FPV drones, which has been officially adopted for use by Ukrainian defense units and fielded across more than 20 combat formations. At the same time, wreckage recovered from some Russian drones has shown the integration of Starlink satellite terminals, indicating that satellite-based control links are also being tested or used in certain long-range drone applications.   Outlook for the Fiber-Optic Market Industry estimates indicate that pressure on the fiber-optic market is likely to continue for several years. Analysts expect supply shortages and elevated prices to persist until at least 2027, driven by sustained demand from both military systems and expanding AI computing infrastructure. As a result, drone developers are increasingly evaluating alternative communication methods—including satellite connectivity—for beyond-line-of-sight operations, while fiber-optic systems remain relevant in environments where electronic warfare can disrupt traditional radio communication links.

Read More → Posted on 2026-03-08 17:11:00

 World 

KYIV — March 8, 2026 : The United Arab Emirates, Qatar, and Kuwait have approached Ukrainian defense manufacturer TAF Industries with requests to purchase large quantities of interceptor drones designed to counter hostile unmanned aerial vehicles (UAVs). According to company officials, the United Arab Emirates has submitted a request for approximately 5,000 interceptor drones, while Qatar has requested 2,000 units. Kuwait has also expressed strong interest in acquiring similar systems, although the exact quantity under consideration has not been publicly specified. The requests remain at the inquiry stage and no contracts have been signed. Discussions are ongoing regarding system integration, operator training, delivery timelines, and the potential structure of future agreements.   Growing Interest in Counter-Drone Systems The inquiries from Gulf states reflect a broader shift in regional air-defense planning as countries seek more scalable and cost-efficient methods to counter the growing use of loitering munitions and one-way attack drones. In recent years, Iranian-designed Shahed-type loitering munitions have been increasingly deployed across multiple theaters in the Middle East. Their relatively low production cost and ability to be launched in large numbers have created operational challenges for conventional air-defense systems. Countries in the Persian Gulf have traditionally relied on advanced missile-based defense networks, including U.S.-made Patriot surface-to-air missile batteries, to protect critical infrastructure and urban areas. However, using multi-million-dollar interceptor missiles against low-cost drones—often costing only tens of thousands of dollars—has highlighted a significant economic imbalance. This dynamic has encouraged defense planners to explore alternative interception methods that can be deployed at scale while maintaining lower operational costs. Oleksandr Yakovenko, founder of TAF Industries, stated that Gulf states are not only interested in purchasing hardware but also in understanding how interceptor drones can be integrated into existing national defense networks. “They want to understand how to integrate our drones into the entire defense system,” Yakovenko said. “Now every country understands that it needs interception systems, because it is not enough to have something like Patriot.”   TAF Industries and Ukraine’s Drone Sector TAF Industries was established in 2022 and has grown rapidly during the ongoing war in Ukraine. The company has become one of the country’s largest drone manufacturers and currently produces more than 80,000 drones per month across over 30 product lines. Ukraine’s wartime demand for unmanned systems has accelerated innovation in both offensive and defensive drone technologies. Interceptor drones developed by Ukrainian companies have been widely used to counter Russian reconnaissance drones and Iranian-designed Shahed attack drones. Overall, Ukraine’s domestic drone sector has expanded significantly, with national interceptor drone production exceeding 1,500 units per day, according to industry estimates.   Interceptor Systems Under Consideration Two primary systems produced by TAF Industries are reportedly being considered by Gulf states: the Octopus-100 interceptor and the TAF I-10, an upgraded version of the Kolibri platform.   Octopus-100 Interceptor The Octopus-100 is the company’s higher-end automated interceptor drone designed to engage hostile UAVs with minimal operator input. It includes an automatic terminal guidance module that allows the system to lock onto and track aerial targets during the final stage of interception. The system has a combat radius of 30 kilometers, a maximum flight altitude of 4,500 meters, and can reach speeds exceeding 300 kilometers per hour. It has a flight endurance of approximately 15 minutes and carries a 1.2-kilogram payload. The drone is designed to operate both during the day and at night and can function in environments affected by electronic warfare (EW) interference. The Octopus-100 has been certified by Ukraine’s Ministry of Defence for serial production.   TAF I-10 (Kolibri Platform) The TAF I-10 interceptor is based on the company’s Kolibri FPV platform and is designed for manual operation by trained drone pilots. The system has a combat radius of approximately 15 kilometers, a maximum altitude of 3,000 meters, and can reach speeds exceeding 200 kilometers per hour. Its endurance can reach up to 25 minutes, and it carries a 0.5-kilogram payload. The drone uses secure communication channels and encrypted MilELRS protocols to maintain operational reliability in electronic warfare environments. Variants of the system can be equipped with daytime cameras, night-vision sensors, or digital targeting systems, depending on mission requirements. Manual FPV-based interceptors are typically used to visually acquire and strike hostile drones at close range, providing a relatively inexpensive method for countering incoming UAV threats.   Integration Into National Air Defense Systems According to TAF Industries, potential customers are evaluating how interceptor drones could be integrated into broader air-defense architectures alongside radar networks, electronic warfare systems, and missile-based interceptors. Rather than replacing existing missile defense platforms, interceptor drones are being considered as an additional layer of protection, particularly for engaging low-cost aerial threats such as reconnaissance drones and loitering munitions. This layered approach could allow missile systems to remain focused on higher-value targets such as ballistic missiles, cruise missiles, and large aircraft.   Training Requirements and Deployment Challenges While manufacturing capacity is sufficient to meet potential international demand, company officials say that training qualified operators represents the primary challenge for rapid deployment. Manually controlled interceptor drones require pilots capable of navigating high-speed aerial engagements against moving targets, often under electronic warfare conditions. Developing these skills requires specialized training programs and practical experience. Yakovenko noted that preparing personnel to operate and integrate interceptor systems within an existing national defense network can take several months. To support international customers, TAF Industries has begun expanding its operational footprint by establishing joint ventures across Europe and developing training programs that incorporate operational experience gained by Ukrainian forces during the war.   Regional Context The inquiries from the United Arab Emirates, Qatar, and Kuwait come amid continued concern among Gulf states about the vulnerability of energy infrastructure, ports, and urban centers to drone and missile attacks. Recent incidents involving Iranian-origin drones targeting regional facilities have increased demand for systems capable of countering large numbers of low-cost aerial threats. In parallel with the discussions involving TAF Industries, separate talks involving the United States and Qatar have also examined the potential use of Ukrainian interceptor technologies for counter-drone defense. At present, the requests from Gulf states remain preliminary and negotiations are continuing. TAF Industries has not disclosed potential contract values or delivery schedules. Further developments will depend on the outcome of technical evaluations, training arrangements, and integration planning with existing air-defense systems.

Read More → Posted on 2026-03-08 15:59:31

 World 

WASHINGTON — March 8, 2026 : The United States Department of Defense announced on March 6 that it has approved a $53.1 million contract modification for Lockheed Martin to expand production capacity for the AGM-158C Long Range Anti-Ship Missile. The funding will support the acquisition of manufacturing tooling and testing equipment required to increase output of the advanced maritime strike missile rather than directly purchasing additional completed missiles. The contract modification was awarded to Lockheed Martin’s Missiles and Fire Control division located in Orlando, Florida. According to the Department of Defense announcement, the award represents modification P00028 to an existing contract identified as FA8682-19-C-0008.   Contract Modification Details The modification provides $53,115,962 in additional funding to support Phase IV B activities associated with expanding production infrastructure for the LRASM program. Following the modification, the total cumulative value of the contract increased from $409,832,456 to $462,948,418. All work funded under this modification will be conducted at Lockheed Martin’s Orlando facility. The Department of Defense stated that the activities funded by the contract modification are expected to be completed by November 29, 2028. Funding for the modification was obligated from Fiscal Year 2025 U.S. Navy production funds at the time the award was issued. The contracting authority overseeing the agreement is the Air Force Life Cycle Management Center, which operates from Eglin Air Force Base.   Focus on Manufacturing Capacity The contract modification is aimed specifically at strengthening industrial capacity required to support future LRASM production increases. Rather than financing procurement of additional missiles in the short term, the investment will be used to acquire specialized tooling and test equipment necessary for higher production throughput. Pentagon procurement strategies in recent budget cycles have increasingly emphasized strengthening defense manufacturing infrastructure. This approach allows the U.S. military to expand output more rapidly when demand for precision weapons increases. Department of Defense budget documents indicate that procurement quantities for the LRASM are projected to rise significantly in the near term. The Fiscal Year 2025 defense budget outlines plans for LRASM purchases that are more than 70 percent higher than Fiscal Year 2024 procurement levels. In addition, the Department of Defense has established a multiyear procurement framework covering Fiscal Years 2024 through 2028, which authorizes the acquisition of 477 LRASM missiles.   LRASM System Overview The AGM-158C Long Range Anti-Ship Missile is a precision-guided cruise missile designed to engage high-value naval targets in contested maritime environments. The missile was developed as part of a joint program between the United States Navy and the United States Air Force to improve offensive anti-surface warfare capabilities. LRASM is derived from the AGM-158B Joint Air-to-Surface Standoff Missile-Extended Range platform and incorporates additional systems intended for maritime targeting in heavily defended environments. The missile features a semi-autonomous guidance architecture that combines multiple navigation and targeting technologies. These include GPS guidance, inertial navigation, an imaging infrared seeker, and passive radio-frequency sensors designed to identify and discriminate targets while operating in contested electronic warfare conditions. The missile has an estimated operational range of more than 200 nautical miles and carries a 1,000-pound blast-fragmentation warhead. LRASM measures approximately 14 feet in length and weighs about 2,760 pounds.   Operational Platforms LRASM is currently deployed on several U.S. strike platforms used for long-range maritime attack missions. Operational integration has been completed on the B-1B Lancer, which is capable of carrying up to 16 LRASM missiles internally. The missile is also integrated on the F/A-18E/F Super Hornet, where aircraft can carry up to four missiles. Additional integration efforts continue for other platforms, including the F-35 Lightning II, as part of ongoing modernization efforts for U.S. maritime strike forces.   Program Context The LRASM program was originally developed to address capability gaps in the United States’ ability to conduct long-range anti-ship operations against advanced adversaries operating within heavily defended naval environments. The latest contract modification reflects broader U.S. defense planning efforts aimed at ensuring that the industrial base supporting long-range precision weapons can sustain increased production levels over extended periods. By expanding tooling and test equipment capacity, the Department of Defense aims to ensure that manufacturing infrastructure is capable of supporting future procurement requirements for advanced maritime strike systems.

Read More → Posted on 2026-03-08 15:27:22

 World 

LONDON — March 8, 2026 : The United Kingdom has deployed four additional Royal Air Force (RAF) Eurofighter Typhoon FGR4 combat aircraft to Qatar as part of efforts to strengthen allied air defense coverage in the Middle East. The aircraft departed from RAF Coningsby in Lincolnshire and arrived at Dukhan Air Base in Qatar on March 6, 2026, expanding the UK’s existing Typhoon presence in the Gulf. The deployment is intended to reinforce the United Kingdom’s regional air operations and support the territorial air defense of Gulf partner states, particularly Bahrain and the United Arab Emirates (UAE). The move comes amid heightened regional security concerns and increased aerial threats involving drones and missiles across several Middle Eastern countries.   Deployment Details and Squadron Integration The four aircraft belong to No. 11 Squadron, one of the RAF’s frontline Typhoon units based at RAF Coningsby. Upon arrival in Qatar, the jets integrated with the existing RAF Typhoon detachment already operating in the region. They join four Typhoon aircraft previously forward-deployed in February 2026 by No. 12 Squadron, a joint United Kingdom–Qatar Typhoon squadron established to strengthen interoperability, shared operational procedures, and combined training between the RAF and the Qatar Emiri Air Force. Personnel from both squadrons will operate together from Dukhan Air Base, conducting coordinated air operations and maintaining a persistent defensive air presence over the Gulf region.   Operational Role and Air Defense Mission The RAF aircraft are tasked primarily with air policing, combat air patrols, and aerial interception missions aimed at protecting allied territory and monitoring potential aerial threats. Although the Typhoons transited from the United Kingdom to Qatar without live weapons, they will arm using pre-positioned theater stockpiles upon arrival. Their typical air-to-air configuration for high-intensity air defense operations includes: MBDA Meteor beyond-visual-range air-to-air missiles ASRAAM (Advanced Short Range Air-to-Air Missile) for close-range engagements The aircraft are also equipped with LITENING targeting pods, enabling intelligence, surveillance, target acquisition, and reconnaissance (ISTAR) capabilities. These systems allow the Typhoon to collect and relay real-time operational data during patrol missions. When required for extended missions, the Typhoons can operate with support from RAF Airbus A330 MRTT Voyager aerial refueling tankers, allowing longer endurance patrols across the Gulf region.   Strategic and Regional Context The deployment is conducted under the framework of the UK-Qatar Defence Assurance Agreement, which supports long-term defense cooperation, operational planning, and joint training between the two countries. British officials say the reinforcement of RAF air assets follows a series of recent aerial security incidents across the Middle East, including drone interceptions over Qatar, Jordan, and Iraq, as well as an attack targeting British military bases in Cyprus. The regional security environment has also seen increased operational activity by allied forces. The United States has expanded military operations against Iranian-linked threats under Operation Epic Fury, aimed at countering missile and drone attacks launched by Iran and affiliated groups across the region. Within this broader security framework, RAF Typhoons are expected to contribute to deterrence, surveillance, and rapid interception of hostile aerial threats directed at Gulf partner states.   Official Statement The UK Ministry of Defence emphasized the RAF’s ability to rapidly deploy additional combat aircraft when required. Group Captain Andy, Commander of the Air Wing at RAF Coningsby, said the deployment reflects the service’s readiness to reinforce allied operations overseas. “Deploying additional Typhoon aircraft demonstrates the RAF’s ability to respond rapidly and reinforce our existing air presence in the Middle East. Working alongside our partners from 12 Squadron and the Middle East, this deployment strengthens our collective capability and underlines the UK’s enduring commitment to regional security and stability,” he stated.   Aircraft Capabilities The Eurofighter Typhoon FGR4 serves as the RAF’s principal multi-role combat aircraft. Designed as a twin-engine, canard-delta wing fighter, the aircraft is capable of performing air superiority, air defense, air policing, and precision strike missions during a single sortie. Its advanced radar systems, high agility, and compatibility with modern air-to-air and precision-guided weapons allow it to conduct quick reaction alert duties and respond rapidly to aerial incursions.   Broader UK Defense Presence in the Gulf The reinforcement of RAF Typhoon aircraft in Qatar forms part of the United Kingdom’s wider defense commitments across the Gulf Cooperation Council (GCC) region. The UK maintains multiple military facilities and cooperative security arrangements with Gulf partners, including naval and air deployments designed to support regional stability. British defense officials have not released details regarding the duration of the deployment or potential future aircraft rotations, but confirmed that the Typhoons will remain available to support ongoing allied air defense missions in the region.  

Read More → Posted on 2026-03-08 15:07:13

 World 

MUSCAT, Oman — March 8, 2026 : A Chinese People’s Liberation Army Navy intelligence-gathering vessel, Liaowang-1, has been operating off the coast of Oman in the Gulf of Oman and the northern Indian Ocean, according to regional defense analysts and maritime monitoring data. The ship is assessed to be conducting extensive electronic and signals intelligence collection while monitoring United States and Israeli naval and air operations in the region. Analysts indicate that the vessel’s deployment allows China to map the electromagnetic environment across the Gulf of Oman and surrounding waters, potentially enabling the collection of radar emissions, communications signals, and other electronic signatures from military platforms operating in the area. Some defense observers assess that the gathered information could be relayed to Iranian defense networks, potentially improving Tehran’s situational awareness regarding allied movements. The deployment occurs amid continued U.S. and Israeli military activity across the broader Middle East, where naval task groups, reconnaissance aircraft, and strike platforms are operating in proximity to the Persian Gulf and Arabian Sea.   Dongdiao-Class Intelligence Platform Liaowang-1 is part of the Dongdiao-class auxiliary general intelligence ship series, commonly identified as the Type 815 family of vessels operated by the People’s Liberation Army Navy. Ships of this class are designed specifically for electronic intelligence (ELINT), signals intelligence (SIGINT), and telemetry collection during missile tests and military exercises. The vessel is visually recognizable due to the large spherical and cylindrical radomes mounted across its superstructure. These structures house sensitive antenna arrays, radar receivers, optical tracking equipment, and communications interception systems used to monitor electronic emissions across wide operational areas.   Key vessel specifications include: Length: approximately 130 meters (430 feet)   Beam: 16.4 meters (54 feet)   Draft: about 6.5 meters (21 feet)   Displacement: roughly 6,000 tonnes   Maximum speed: around 20 knots The ship carries only limited defensive armament. Typical equipment includes twin 37-millimeter and 25-millimeter anti-aircraft guns, along with close-in weapon systems (CIWS) and anti-submarine torpedo launchers intended for self-protection rather than offensive combat operations.   Electronic and Signals Intelligence Capabilities The primary operational role of Liaowang-1 is the interception and analysis of electronic emissions from military systems operating within its detection range. The ship’s onboard systems can detect radar signals, communication transmissions, and electronic signatures produced by aircraft, naval vessels, and missile systems. Defense analysts note that these capabilities allow the vessel to record detailed electronic profiles of foreign military assets. Such data can later be used to identify specific platforms, monitor operational patterns, and analyze electronic warfare characteristics. The sensor suite reportedly enables monitoring of advanced Western aircraft operating in the region, including the F-35 Lightning II, the F-22 Raptor, and the EA-18G Growler. Even when operating in low-observable configurations, these aircraft still produce electromagnetic emissions through radar, communications, and electronic warfare systems that can potentially be detected and analyzed by specialized intelligence platforms. Beyond aircraft monitoring, Dongdiao-class vessels are frequently used by the PLAN to track ballistic missile launches and gather telemetry data during missile tests. The ship’s systems can record missile trajectories and flight characteristics, information that can later be used for scientific analysis or weapons development.   Integration With China’s Satellite Networks Liaowang-1 also functions as a maritime node within China’s broader space-based tracking and navigation architecture. Through integration with the BeiDou Navigation Satellite System, the vessel can transmit collected intelligence data to command centers and other military platforms. This connectivity allows the ship to contribute to a real-time operational picture covering the Gulf of Oman, northern Arabian Sea, and surrounding areas. By combining satellite inputs with locally collected electronic signals, the vessel can help generate a detailed tactical map of regional air and maritime activity. Analysts assess that this capability allows long-range monitoring of aircraft flights, naval deployments, and missile activity across large areas of the Middle East and northern Indian Ocean.   Operational Impact in the Region The presence of the Chinese intelligence ship has implications for the operational environment in the region. By mapping radar frequencies and electronic signatures, such platforms can potentially reduce the effectiveness of surprise military operations by allowing adversaries to anticipate incoming aircraft or naval movements earlier than would otherwise be possible. If the information collected by the vessel were shared with Iranian defense authorities, it could improve the ability of Iranian air defense networks to detect approaching aircraft or missile launches before they reach Iranian airspace. Defense analysts note that intelligence-gathering ships are commonly deployed by major naval powers during periods of heightened military activity to observe exercises, track missile launches, and monitor communications patterns.   Constraints on Direct Military Action Despite the intelligence advantages created by the vessel’s presence, direct military action against Liaowang-1 is considered highly unlikely. The ship is operating in international waters, where maritime law permits surveillance and intelligence collection activities conducted by naval vessels. Any attack against a Chinese-flagged ship would constitute a direct military strike on Chinese sovereign assets, potentially escalating tensions between major powers. Additionally, regional monitoring suggests that the vessel may not be operating alone. Reports indicate that a Chinese naval surface action group is present in the wider area, including a Type 055 destroyer and a Type 052D destroyer. These warships are equipped with advanced air-defense and anti-ship missile systems capable of providing layered protection for high-value support vessels.   Broader Chinese Naval Activity The deployment of Liaowang-1 is consistent with China’s expanding naval presence across the Indian Ocean and adjacent maritime regions. Over the past decade, the People’s Liberation Army Navy has regularly dispatched intelligence ships and research vessels to monitor missile tests, military exercises, and naval movements conducted by other powers. Such operations reflect Beijing’s increasing emphasis on global maritime awareness and long-range intelligence collection as part of its broader naval modernization strategy. Chinese authorities have not issued an official statement regarding the mission of Liaowang-1 near Oman, and U.S. military officials have not publicly commented on the vessel’s presence. Maritime tracking data indicates the ship continues to operate in international waters off Oman’s coastline while conducting its surveillance activities.

Read More → Posted on 2026-03-08 14:37:39

 World 

TEL AVIV, — March 8, 2026 : The Israel Defense Forces (IDF) announced that Israeli Air Force strikes have destroyed the remaining fleet of Iranian F-14A Tomcat fighter aircraft at the 8th Tactical Fighter Base located near Isfahan International Airport in central Iran. In an official statement, the Israeli military said the operation targeted aviation infrastructure and aircraft storage areas at the base, which historically served as the main operating hub for Iran’s F-14 interceptor fleet. According to the IDF, the precision strikes eliminated all F-14 aircraft stationed at the installation, leading Israeli officials to assess that the Iranian Air Force no longer possesses operational Tomcat fighters. The military did not immediately release video footage or satellite imagery of the strike’s aftermath. Israeli officials stated that visual documentation is being prepared and will be released publicly once it has been processed.   Strike on the 8th Tactical Fighter Base The targeted installation, known as the 8th Tactical Fighter Base (TFB-8), is located adjacent to Isfahan International Airport and has long served as the central base for Iran’s F-14 fleet. The base hosts several fighter squadrons, including the 81st Tactical Fighter Squadron, 82nd Tactical Fighter Squadron, and 83rd Tactical Fighter Squadron, which historically operated the aircraft in the air-defense interceptor role. Israeli military officials described the base and the aircraft stationed there as active military assets supporting Iranian air operations. The strike focused specifically on aircraft positioned within the aviation compounds at the base. The operation forms part of a broader Israeli aerial campaign targeting Iranian military infrastructure that began on February 28, 2026. Israeli authorities have stated that the campaign is based on intelligence assessments identifying key aviation and missile-related facilities. Just days before the Isfahan operation, Israeli strikes also targeted Mehrabad International Airport in Tehran. In that attack, the IDF reported the destruction of 16 aircraft used by the Islamic Revolutionary Guard Corps (IRGC) Quds Force, along with several detection systems and air-defense assets located at the airport.   Iran’s Remaining F-14 Inventory Prior to the current conflict, defense assessments estimated that Iran possessed approximately 20 to 25 F-14 Tomcat airframes, although only a portion of them were believed to be fully operational at any given time. Iran originally acquired the aircraft during the 1970s under the government of Shah Mohammad Reza Pahlavi. At the time, the United States approved the sale of advanced interceptor aircraft to Iran to counter high-altitude reconnaissance flights conducted by Soviet MiG-25 aircraft along Iran’s northern borders. A total of 79 F-14A Tomcats were ordered, and dozens were delivered before the 1979 Islamic Revolution ended military cooperation between Washington and Tehran. After the revolution and the subsequent U.S. arms embargo, Iran lost access to official spare parts and technical support for the aircraft. Despite these restrictions, the Iranian Air Force managed to keep a limited number of Tomcats operational for decades. Iranian maintenance crews relied on domestic overhaul programs, reverse-engineered components, and the cannibalization of parts from non-operational aircraft to maintain the fleet.   Operational Role of the Aircraft Within the Iranian Air Force, the F-14 Tomcat served primarily as a long-range interceptor tasked with air defense and patrol missions. The aircraft’s radar and long-range missile capability historically allowed it to track and engage targets at extended distances, making it one of the most capable air-defense platforms in Iran’s inventory. Over time, however, the aircraft became increasingly difficult to maintain due to aging airframes and limited access to original components. The F-14 Tomcat originally entered service with the United States Navy in 1974 and remained in American service until its retirement in 2006. Following its retirement in the United States, Iran remained the only country known to operate the aircraft.   Awaiting Visual Confirmation Israeli officials have not disclosed the exact number of aircraft destroyed during the strike or the specific munitions used in the operation. The IDF also did not provide information on potential casualties or damage to other infrastructure at the base. Iranian authorities had not issued an official response to the Israeli claim at the time of publication. If the destruction of the aircraft is confirmed through forthcoming imagery, the strike would represent the end of operational service for the F-14 Tomcat worldwide and remove Iran’s remaining long-range interceptor platform from its air force inventory.

Read More → Posted on 2026-03-08 14:13:56

 World 

WASHINGTON — March 8, 2026 : Officials within the United States government are discussing potential contingency plans that include the seizure of Iran’s primary oil export hub, Kharg Island, along with a separate option involving the deployment of American special operations forces to secure Iran’s stockpile of highly enriched uranium. The discussions were first reported by Axios and are part of broader strategic deliberations linked to the regional conflict that began on February 28, 2026. According to the report, the proposed measures would aim to simultaneously disrupt Iran’s primary source of export revenue and reduce the risk of a rapid nuclear weapons breakout by securing sensitive nuclear materials located inside the country.   Strategic Importance of Kharg Island Kharg Island, located in the northern Persian Gulf off the Iranian coast, functions as the central hub of Iran’s crude oil export infrastructure. The facility handles approximately 90 percent of the country’s total crude exports, making it the most important logistical node in Iran’s energy supply chain. Crude oil produced in mainland Iranian fields is transported to the island through a system of five submarine pipelines connected to onshore production areas. Once the oil reaches Kharg Island, it is stored in a network of about 40 large storage tanks, which collectively provide 28 to 30 million barrels of storage capacity. The site’s storage capacity expanded in 2025, when an additional 2 million barrels were added. The island contains multiple loading jetties and remote mooring points capable of servicing very large crude carriers (VLCCs). At maximum operational capacity, the terminal can load up to 7 million barrels of crude oil per day, allowing simultaneous berthing for as many as 10 VLCC tankers. While the terminal has the technical capacity to load significantly higher volumes, actual exports have been lower in recent years. Iran’s crude oil exports through Kharg Island typically range between 1.3 million and 1.6 million barrels per day, although shipments have occasionally exceeded 2 million barrels per day. Iran’s total crude production currently averages around 3.3 million barrels per day, with an additional 1.3 million barrels per day consisting of condensate and other petroleum liquids. The majority of exported crude from Kharg Island is shipped to buyers in Asian markets. In 2023, Iran’s net oil export revenues were estimated at approximately $53 billion, highlighting the facility’s central role in generating foreign currency income for the country.   Infrastructure and Export Logistics Kharg Island’s infrastructure includes central pumping stations, pipeline distribution systems, tanker berths, and control facilities that support continuous loading operations for international tankers. Oil arriving from the mainland is directed into storage tanks before being transferred to export vessels. The island’s geographic location enables tankers to depart directly through the Persian Gulf and transit the Strait of Hormuz, one of the world’s most important maritime energy corridors. Because the majority of Iranian crude exports pass through this single terminal, control of Kharg Island would disrupt the existing logistics chain that supports most of the country’s energy shipments.   Proposed Operation to Secure Enriched Uranium In addition to the economic dimension involving Kharg Island, discussions reportedly include a separate operational concept focused on Iran’s nuclear program. The option under consideration involves the deployment of U.S. special operations forces inside Iran to locate and secure highly enriched uranium currently held by the country. The operation would target Iran’s stockpile of uranium enriched to approximately 60 percent purity. According to monitoring data from the International Atomic Energy Agency, Iran is believed to possess around 450 kilograms of uranium enriched to roughly 60 percent. This enrichment level is below the 90 percent threshold considered weapons-grade, but nuclear specialists note that material at this level can be further enriched relatively quickly if additional processing occurs. IAEA standards indicate that roughly 42 kilograms of uranium enriched to 60 percent represents the theoretical minimum quantity required to produce the fissile core of a nuclear device if it were further enriched. Based on this benchmark, a stockpile of 450 kilograms could contain enough material for approximately 10 to 11 nuclear weapons after additional enrichment. Iran’s overall inventory of enriched uranium across all enrichment levels is estimated to exceed 9,000 kilograms.   Status of the Discussions The proposals described in the report remain part of internal contingency planning and have not been implemented. No official statement from the U.S. Department of Defense or the White House has confirmed operational preparations to seize Kharg Island or conduct ground operations inside Iran. The discussions are taking place within the context of the broader regional conflict that began on February 28, 2026, which has involved military operations targeting Iranian infrastructure and capabilities. At present, the reported measures remain policy options under review rather than confirmed operational plans.  

Read More → Posted on 2026-03-08 14:01:05

 World 

TOKYO — March 8, 2026 : Japan has awarded a major defense contract to strengthen its national air and missile defense capabilities, with the Ministry of Defense confirming a domestic order for Patriot Advanced Capability-3 Missile Segment Enhancement (PAC-3 MSE) interceptors to equip the country’s Patriot air defense systems. The contract, published by the Acquisition, Technology and Logistics Agency (ATLA), was signed in December 2025 with Mitsubishi Heavy Industries, which serves as the sole qualified manufacturer of the PAC-3 missile within Japan. The agreement is valued at 43,439,880,000 yen, equivalent to approximately $275.33 million. The missiles are intended for deployment with the Japan Air Self‑Defense Force (JASDF), which operates Japan’s ground-based Patriot air defense network responsible for defending key military installations, major population centers, and critical infrastructure.   Expansion of Japan’s Patriot Air Defense Capability Japan maintains a layered missile defense architecture designed to counter regional threats, particularly ballistic and cruise missiles. Within this structure, the Patriot system forms the lower-tier interception layer responsible for terminal-phase engagement of incoming targets. As of early 2026, the JASDF operates 24 Patriot air defense batteries consisting of approximately 120 launchers. These units are organized into six anti-aircraft groups, each responsible for protecting strategically important areas across the Japanese archipelago. The new procurement is intended to support sustainment and modernization of this network by replenishing missile inventories and introducing the latest PAC-3 MSE interceptor configuration.   PAC-3 MSE Technical Characteristics The PAC-3 MSE (Missile Segment Enhancement) interceptor represents an advanced evolution of earlier Patriot missiles. Unlike legacy air defense missiles that rely on explosive fragmentation warheads, the PAC-3 MSE uses hit-to-kill kinetic interception, destroying incoming threats through direct collision at high velocity. Several design changes distinguish the MSE variant from previous PAC-3 configurations. The missile incorporates a larger dual-pulse solid rocket motor, enabling longer engagement ranges and higher maneuverability. It also features expanded aerodynamic control fins and upgraded thermal batteries, allowing improved performance against maneuvering targets. These modifications significantly increase the missile’s operational envelope, enhancing its ability to intercept tactical ballistic missiles, cruise missiles, and aircraft at greater distances and higher altitudes than earlier PAC-3 interceptors.   Mitsubishi Heavy Industries’ Role in Production Under the contract, Mitsubishi Heavy Industries will manufacture the PAC-3 MSE missiles domestically for the Japanese Ministry of Defense. The company has long served as the principal industrial partner for Patriot missile production in Japan and remains a key component supplier in the broader international Patriot program. Japan holds a unique position in the global Patriot supply chain due to its manufacturing responsibility for certain specialized components. Notably, Japanese industry is the only producer of gyroscopes used in the guidance systems of Patriot PAC-2 missiles. This role emerged after the United States lost domestic manufacturing capability for these components. When Washington sought to restart PAC-2 production, it requested assistance from Tokyo. On July 17, 2014, the Japanese government approved the export of these gyroscopes to the United States. Mitsubishi Heavy Industries has continued producing the components under license for the Japan Air Self-Defense Force, maintaining the industrial capacity necessary to support both domestic requirements and allied supply needs.   Transfers to Support U.S. Stockpile Requirements Japan has also contributed to allied missile inventories through direct transfers of Patriot interceptors. In November 2025, Japanese Defense Minister Minoru Kihara announced the completion of deliveries of Japanese-manufactured PAC-3 missiles to the United States. According to the Ministry of Defense, the transfer was intended to replenish American missile stockpiles that had been reduced due to the supply of weapons to partner nations, particularly Ukraine. The Japanese government confirmed that the transferred missiles would remain under U.S. control and would be used strictly to meet the operational requirements of American forces stationed in the Indo-Pacific region.   Parallel Missile Procurement Programs The PAC-3 MSE acquisition follows another recent order placed by the Japanese Ministry of Defense with Mitsubishi Heavy Industries for AAM-5B air-to-air missiles intended for Japanese fighter aircraft. Together, these procurements form part of Japan’s broader effort to sustain and upgrade its integrated air and missile defense capabilities amid evolving regional security conditions. The Acquisition, Technology and Logistics Agency did not disclose the number of PAC-3 MSE missiles included in the order or the expected delivery schedule in its contract announcement.  

Read More → Posted on 2026-03-08 13:44:29

 World 

WASHINGTON — March 8, 2026 : Boeing has commissioned the second full-size Orca Extra Large Uncrewed Undersea Vehicle (XLUUV) for the United States Navy, marking another milestone in the service’s effort to expand autonomous undersea capabilities. The newly completed vehicle, designated XLE2, was formally christened during a ceremony at Boeing’s manufacturing facility in Huntington Beach, California. The commissioning was publicly revealed in a LinkedIn post by Christine Clark, who shared images from the bottle-breaking ceremony that traditionally marks the launch of a naval vessel. XLE2 represents the second full-scale operational vehicle within the Orca program and the third overall delivery in the XLUUV family.   Autonomous Undersea Platform for Long-Duration Missions The Orca XLUUV is designed as a large, highly autonomous submarine drone capable of conducting long-duration underwater missions without the need for a crew or dedicated support vessel. The platform is intended to operate under the Navy’s Unmanned Undersea Squadrons (UUVRON), where each vehicle can be managed by a single operator. Unlike conventional unmanned underwater vehicles that often require specialized launch platforms, the Orca system is engineered to deploy and recover directly from pier-side facilities. This capability allows the vehicle to operate independently without a manned mothership, reducing logistical requirements and enabling greater operational flexibility. The system is intended to perform a range of undersea mission sets, including intelligence, surveillance and reconnaissance (ISR), mine warfare operations, seabed warfare tasks, and expeditionary support missions.   Size, Endurance and Payload Capacity The Orca class represents one of the largest uncrewed underwater vehicles developed for the U.S. military. Its physical dimensions and performance characteristics are significantly larger than most existing unmanned submarine platforms. The vehicle measures 85 feet (26 meters) in length and has a displacement of approximately 85 tons. It is powered by a hybrid electric propulsion system, enabling an operational endurance of roughly 6,500 nautical miles. A defining feature of the platform is its modular internal mission bay. Out of the vehicle’s total length, more than 33 feet (10 meters) is allocated for payload space. This modular compartment can carry up to eight tons of mission equipment, allowing the Navy to configure the system for different operational tasks. The modular architecture enables the integration of a variety of payloads, including sensors, surveillance equipment, mine warfare systems, and other specialized undersea mission packages.   Development History and Program Origins The Orca XLUUV program builds on Boeing’s earlier development of the Echo Voyager, a proof-of-concept unmanned submarine that demonstrated extended endurance and autonomous underwater operation. The Echo Voyager platform served as the technological foundation for the Orca system before Boeing secured the Navy’s production contract. In February 2019, the U.S. Navy awarded Boeing a $43 million contract to fabricate, test and deliver four Orca XLUUV vehicles along with associated support systems. One month later, in March 2019, the contract was expanded through a $46.7 million modification that added a fifth prototype vehicle. The combined value of the contract increased to approximately $274 million after subsequent adjustments. The Navy has stated that the long-term objective of the program is to field up to nine Orca vehicles, depending on operational requirements and future procurement decisions.   Sequence of Deliveries The Orca program has produced three vehicles so far. The first vehicle, XLE0, was a smaller testing asset designed specifically for evaluation and developmental trials. It was delivered to the Navy in December 2023 following acceptance testing. Prior to that delivery, the platform had already begun in-water testing during spring 2023 off the coast of Huntington Beach, California. Data gathered during those trials informed design adjustments and improvements for subsequent vehicles. The next delivery was XLE1, the first full-size operational Orca platform. Testing for this vehicle continued through 2025, focusing on validating autonomous navigation, mission systems integration, and long-endurance performance. The newly commissioned XLE2 follows approximately one year after the delivery of XLE1, representing the second operational vehicle in the class.   Program Delays and Revised Timelines Although development has progressed steadily, the Orca program has experienced significant scheduling delays since the original contract was issued. Initial program planning in 2019 anticipated that the first four vehicles would be delivered to the Navy by the end of 2022. That target was not met due to manufacturing challenges, integration complexity, and extended testing requirements. The timeline between successive deliveries illustrates the delays encountered during the program’s development phase. The gap between XLE0 (2023) and XLE1 (2024–2025) was approximately one and a half to two years. By contrast, the interval between XLE1 and XLE2 has narrowed to roughly one year, indicating a gradual improvement in production cadence. Earlier projections released in 2024 suggested that the remaining vehicles could be delivered within a year following the first operational Orca. However, those expectations were not realized, and the schedule for future hulls has not yet been publicly specified.   Pentagon Oversight and Future Outlook The U.S. Department of Defense has increased scrutiny on major defense acquisition programs in recent years, placing greater emphasis on adherence to initial delivery schedules and the reduction of manufacturing delays. This oversight could affect the future pace and procurement decisions associated with the Orca program. Despite the extended timeline, the Navy continues developmental and operational testing of the delivered vehicles. Boeing has stated that the Orca platform provides a new level of autonomy, endurance and payload flexibility for undersea missions. The vehicle’s open architecture design allows future upgrades and integration of new payloads, while its modular construction enables adaptation to evolving operational requirements. The Navy views the system as a key component in expanding autonomous undersea operations, particularly in contested maritime environments where persistent unmanned presence may be required for extended periods.  

Read More → Posted on 2026-03-08 13:33:42

 World 

WASHINGTON — March 8, 2026 : The United States has formally requested Ukraine’s assistance in countering Iranian-designed Shahed loitering munitions as Washington faces increasing drone threats against U.S. and allied assets in the Middle East. The request reflects Ukraine’s extensive operational experience defending against thousands of Shahed-type drones used by Russia during the ongoing war. The discussions, reported by Politico and confirmed by Ukrainian officials, form part of broader bilateral consultations between Washington and Kyiv that have continued for approximately a year. The talks include continued U.S. financial and military support for Ukraine alongside the sharing of practical counter-drone tactics, operational knowledge, and technology developed during Ukraine’s defense against Russian drone attacks.   Expanding U.S.–Ukraine Military Cooperation Ukrainian President Volodymyr Zelenskyy stated that Kyiv had received a specific request from the United States for assistance in countering Shahed drones threatening U.S. interests and partner infrastructure in the Middle East. According to Zelenskyy, Ukrainian authorities have been instructed to provide the necessary expertise and specialists while ensuring Ukraine’s own defensive requirements remain protected. Ukraine has accumulated extensive experience in intercepting Shahed drones over more than four years of conflict with Russia, which has deployed large numbers of Iranian-origin loitering munitions against Ukrainian cities, energy facilities, and military infrastructure. Ukrainian forces have developed a layered defense approach that includes mobile anti-aircraft guns, truck-mounted heavy machine guns, electronic warfare systems, interceptor drones, and short-range air defense missiles. The experience gained in detecting, tracking, and destroying slow-moving propeller-driven drones has become increasingly relevant for the United States and its regional partners, particularly as Iran and its allied groups continue to employ low-cost unmanned aerial systems across the Middle East.   Cost Challenges in Countering Shahed Drones One of the primary concerns facing the United States and allied militaries is the cost imbalance between the drones and the interceptors typically used to defeat them. Shahed-type drones are estimated to cost between $30,000 and $50,000, while many air defense interceptors currently used against them—such as Patriot PAC-2 or PAC-3 missiles—can cost several million dollars per shot. This disparity has driven efforts to develop alternative interception methods that rely on lower-cost systems capable of engaging large numbers of drones simultaneously. Ukrainian forces have experimented with several such approaches, including low-cost interceptor drones. Examples include the Ukrainian-developed Octopus interceptor drone, which costs approximately $3,000 per unit and has been licensed for production in the United Kingdom, and the Sting quadcopter, designed to collide with or detonate near incoming Shahed drones.   Deployment of the Merops Counter-Drone System As part of its response to growing drone threats, the U.S. Army is deploying the Merops counter-unmanned aerial system (C-UAS) to the Middle East. The system is designed to intercept incoming drones using dedicated interceptor drones rather than traditional missile systems. The Merops platform has been tested in operational environments in Ukraine and during live-fire exercises at NATO ranges in Europe, including facilities in Poland and Romania. According to reports from The Wall Street Journal, the system has already intercepted more than 1,000 Shahed-type drones during testing and operational trials. The platform is associated with Project Eagle, an initiative linked to former Google CEO Eric Schmidt, which focuses on developing low-cost drone interception technologies suitable for modern battlefield conditions.   Merops System Architecture and Components The Merops system is designed as a highly mobile, modular counter-drone platform capable of rapid deployment in field conditions. Its architecture typically includes several integrated components:   Radar Detection Unit The system relies on a compact ground-based radar array for early detection and tracking of incoming aerial targets. The radar identifies drones based on flight signatures and provides real-time tracking data to the command module.   Command and Control Module Operators manage the system through a command interface that integrates radar inputs, threat analysis software, and interceptor drone control systems. The system allows both manual operator control and semi-autonomous engagement modes.   AS3 Surveyor Interceptor Drones The primary interception mechanism of the Merops platform is the AS3 Surveyor interceptor drone, a propeller-driven unmanned aerial vehicle designed to pursue and destroy hostile drones.   Key specifications of the AS3 Surveyor interceptor include: Maximum speed: approximately 280 km/h (about 180 mph)   Operational altitude: up to around 16,000 feet   Propulsion: propeller-driven electric propulsion system   Guidance: artificial intelligence-assisted targeting combined with operator control   Target acquisition: infrared heat signatures, radar reflections, and radio-frequency emissions   Navigation capability: able to continue tracking targets even when satellite signals are disrupted or electronic communications are jammed The interceptor drone physically neutralizes hostile drones through collision or explosive proximity engagement, allowing the system to defeat targets without relying on expensive missile interceptors.   Mobility and Deployment Configuration The Merops system is designed to operate from a compact mobile platform. The entire system—including radar equipment, command systems, and interceptor drone launch units—can be mounted in the bed of a standard midsize pickup truck. This configuration allows rapid repositioning and deployment across dispersed locations such as military bases, ports, energy infrastructure, or temporary forward operating sites. The system’s mobility is intended to support distributed defense against drone swarms, which often approach targets from multiple directions simultaneously.   Ukrainian Operational Experience Ukrainian forces have reportedly operated and evaluated the Merops platform in environments characterized by heavy electronic warfare activity, including GPS jamming and communications disruption. These conditions have allowed developers to refine the system’s autonomous navigation and targeting capabilities. Because of this operational experience, Ukrainian personnel are expected to assist in training U.S. and allied operators on the system. Sources familiar with the program indicate that Ukrainian instructors may participate in training programs associated with Merops deployments in the Middle East.   Strategic Implications The U.S. request for Ukrainian expertise reflects a shift in the traditional flow of military assistance, where operational knowledge gained on the Ukrainian battlefield is now informing defensive strategies in other regions. By integrating interceptor drone systems such as Merops with existing radar and air defense networks, the United States aims to create a scalable and cost-efficient defense against mass drone attacks. The cooperation also highlights the growing role of drone-on-drone interception technologies as militaries adapt to the widespread use of inexpensive unmanned aerial systems in modern conflicts. While discussions between Washington and Kyiv continue, officials from both countries have not announced final details of any formal agreement governing the transfer of technology or personnel associated with the counter-drone cooperation.  

Read More → Posted on 2026-03-08 13:23:32

 World 

ABU DHABI — March 8, 2026 : The United Arab Emirates (UAE) has reportedly carried out its first direct military strike on Iranian territory during the ongoing regional conflict, according to reports published Sunday by Israeli media outlets. The reported attack targeted an Iranian desalination facility along the Persian Gulf coast, marking a potential escalation in the widening war that began on February 28. The initial report was published by the Israeli news outlet Ynet, which cited Israeli officials who said the Emirati Air Force conducted a precision strike against the facility as a response to repeated Iranian missile and drone attacks on the UAE. According to the report, the strike was intended as a limited retaliatory action and a strategic signal rather than the start of a sustained Emirati offensive campaign.   Reported Target and Location Some reports circulating in Israeli media, including references to Yediot Ahronot—Ynet’s parent publication—identified the targeted installation as a desalination plant located on Qeshm Island in Iran’s Hormozgan Province. Qeshm Island sits in the Persian Gulf near the Strait of Hormuz and hosts several desalination facilities that provide potable water to local communities in southern Iran. Israeli officials cited by Ynet stated that the strike was intended to demonstrate the UAE’s ability to reach strategic infrastructure inside Iran after days of Iranian attacks against Gulf states hosting U.S. military installations. No details were provided regarding the specific aircraft or weapons used in the reported strike. The UAE Air Force operates several aircraft capable of long-range precision attacks, including F-16 Fighting Falcon fighter jets and Mirage 2000 aircraft.   UAE Officials Deny Reports Despite the Israeli reports, officials in the UAE have denied that the country carried out a strike on Iranian civilian infrastructure. According to The Jerusalem Post and The Times of Israel, Emirati officials rejected claims that the UAE targeted a desalination facility. A UAE official told journalists that while the country reserves the right to defend itself against Iranian attacks, it would not strike civilian infrastructure. “We categorically deny this nonsense. The UAE would never target a civilian facility,” one Emirati source said, according to diplomatic correspondent Lazar Berman. The UAE Ministry of Defence also issued statements on social media indicating that its military operations remain defensive in nature and are focused on intercepting incoming threats rather than conducting offensive strikes inside Iranian territory. Iranian authorities have not issued specific statements regarding a strike on desalination infrastructure at the time of publication.   Iranian Missile and Drone Attacks on the UAE The reported Emirati action comes after several days of Iranian missile and drone attacks against Gulf states. On Sunday, UAE officials reported that Iran launched a new wave of attacks targeting Emirati territory. According to the UAE Ministry of Defence, the barrage consisted of 16 ballistic missiles and 117 unmanned aerial vehicles (UAVs). The ministry also confirmed that the death toll from recent Iranian strikes on the country has risen to four. Air defense systems across the UAE have been actively intercepting incoming projectiles since the conflict escalated. Officials said that sounds heard across several areas were linked to air defense operations engaging incoming missiles and drones. Reports indicate that since the start of the war, the UAE has faced hundreds of missile and drone threats launched by Iranian forces and allied groups.   Regional War and Military Campaign The conflict began on February 28, 2026, when the United States and Israel launched a coordinated campaign against Iranian military infrastructure, missile systems, and strategic assets. The military campaign, which includes large-scale airstrikes across Iran, is aimed at weakening Tehran’s missile capabilities and military networks. In response, Iran has launched retaliatory strikes targeting U.S. military installations and allied countries in the region. Missiles and drones have been fired at several Gulf states hosting American bases, including the UAE, Qatar, Bahrain, Kuwait, and Saudi Arabia. Across the region, thousands of targets have reportedly been struck since the start of the conflict.   Desalination Infrastructure as Strategic Targets The reported strike on a desalination facility has drawn attention because water infrastructure is considered a critical vulnerability in the Middle East. Countries across the Gulf region depend heavily on desalination plants for drinking water. The Gulf Cooperation Council (GCC) region accounts for roughly 40 percent of global desalinated water production and operates more than 400 desalination facilities. In the UAE, desalination provides approximately 42 percent of the country’s drinking water. Other regional states rely on the technology even more heavily, including Saudi Arabia (70 percent), Oman (86 percent), and Kuwait (around 90 percent). Because these plants supply essential drinking water and industrial needs, damage to desalination facilities could disrupt water supply for large populations and critical economic sectors.   Earlier Strikes Near UAE Water Infrastructure Iranian attacks earlier in the conflict have already raised concerns about water infrastructure in the Gulf. A previous Iranian strike targeted the Jebel Ali port area in Dubai, with debris landing about 12 miles from one of the world’s largest desalination complexes. The complex contains 43 desalination units capable of producing more than 160 billion gallons of potable water annually. Similar incidents involving nearby strikes or debris have been reported near other regional facilities, including the Fujairah F1 power and water plant in the UAE and the Doha West power and desalination complex in Kuwait.   Gulf States Coordinate Response The escalating attacks have prompted increased coordination among Gulf states. The Gulf Cooperation Council (GCC) held an emergency meeting in recent days and issued a statement affirming member states’ right to individual and collective self-defense under Article 51 of the United Nations Charter. As part of the response, GCC countries have increased joint air defense coordination and surveillance flights across the region. Western diplomats say that several Gulf states—including Saudi Arabia, the UAE, and Qatar—are considering limited or symbolic participation in strikes against Iranian targets if attacks on their territory continue.   Uncertainty Surrounds the Reported Strike Despite the Israeli reports, there remains no independent confirmation that the UAE conducted a strike inside Iran. UAE officials continue to emphasize that their military operations remain focused on defense and interception of incoming threats. Iranian authorities have also not publicly acknowledged any strike on a desalination facility. As the conflict continues to expand across the region, the question of whether Gulf states will move from defensive operations to direct strikes against Iranian territory remains a significant factor in the evolving military situation.

Read More → Posted on 2026-03-08 13:02:04

 World 

WASHINGTON — March 7, 2026 : The destruction of two key U.S. missile-defense radar systems in the Middle East has exposed significant challenges in restoring the region’s early-warning architecture. Replacing the AN/FPS-132 Upgraded Early Warning Radar in Qatar and the AN/TPS-59(V)3 tactical radar in Bahrain is expected to require substantial financial investment and multi-year manufacturing timelines, according to defense industry assessments. The two radars performed different but complementary roles in the regional missile-defense network that supports systems such as Terminal High Altitude Area Defense (THAAD) and Patriot interceptors. Their loss has highlighted vulnerabilities in the supply chain for advanced radar technology, particularly due to reliance on gallium-based semiconductor materials largely produced under Chinese control.   Strategic Early-Warning Radar in Qatar The AN/FPS-132 (Block 5) Upgraded Early Warning Radar (UEWR) located at Al Udeid Air Base in Qatar served as one of the most powerful ballistic-missile detection sensors in the region. Operated by the U.S. Space Force, the fixed-site radar provides long-range detection and tracking of ballistic missiles at distances of up to 5,000 kilometers. The system was installed in 2013 under a contract valued at approximately $1.1 billion and manufactured by Raytheon. It forms part of a global network of upgraded early-warning radars used to monitor intercontinental and regional ballistic-missile threats. Only a limited number of these radars exist worldwide. Approximately six UEWR installations operate globally, including sites in Thule, Greenland, Fylingdales in the United Kingdom, and several other strategic locations operated by the United States. Unlike mobile radar systems, the AN/FPS-132 is a large, fixed installation composed of multiple multi-story structures containing three large phased-array antenna faces. Each antenna face integrates thousands of transmit-receive modules, specialized power systems, cooling infrastructure, and hardened facilities designed to maintain continuous surveillance. Reconstructing such a system requires extensive site engineering, custom semiconductor manufacturing, antenna fabrication, and integration with existing missile-defense command networks. Industry estimates indicate that building a replacement radar could take between five and eight years, reflecting both the complexity of the system and the absence of rapid production capacity for such large strategic radars.   Tactical Air-Defense Radar in Bahrain The second system destroyed was the AN/TPS-59(V)3 long-range tactical radar, deployed in Bahrain as part of regional air-defense operations. The radar is manufactured by Lockheed Martin and is primarily operated by the U.S. Marine Corps, with additional units exported to Bahrain and Egypt. Unlike the fixed UEWR radar in Qatar, the AN/TPS-59 is a transportable L-band three-dimensional air-surveillance radar designed to detect and track aircraft, cruise missiles, and tactical ballistic missiles. The system has a maximum detection range of approximately 740 kilometers. Development of the AN/TPS-59 family began in the 1980s, and only a limited number of systems were produced. Estimates indicate that approximately 21 units of various AN/TPS-59 variants have been built since its introduction, with roughly 12 of the AN/TPS-59(V)3 configuration currently in active or reserve service. Although the radar is significantly smaller than the AN/FPS-132 and designed for mobility, replacing the destroyed unit is still expected to require 12 to 24 months. The estimated replacement cost ranges between $50 million and $75 million. The timeline reflects the limited production infrastructure for the system. Because the radar’s core design dates back several decades, a replacement unit would likely require modernization of electronics and software before deployment.   Role in Regional Missile Defense Both radar systems formed part of a layered missile-defense architecture across the Persian Gulf. The AN/FPS-132 provided deep-range ballistic-missile detection and early warning, allowing interceptor systems to receive tracking data well before incoming missiles approached defended areas. This extended detection range increased the available response time for defensive systems such as THAAD and Patriot batteries deployed across Gulf states. The AN/TPS-59(V)3, while shorter-range, provided theater-level surveillance and air-defense coordination. Its three-dimensional tracking capability enabled operators to monitor aircraft, cruise missiles, and ballistic missile trajectories while supporting Marine Corps air-defense operations and regional command networks. The destruction of both radars reduces the redundancy and coverage of the existing early-warning network. Interim measures may include reliance on other sensors in the region, allied radar systems, and mobile replacements until permanent installations are restored.   Gallium Nitride Semiconductor Supply Constraints A major factor affecting replacement timelines is the availability of specialized semiconductor materials required for modern radar systems. Both the AN/FPS-132 and AN/TPS-59 utilize gallium nitride (GaN) semiconductor technology within their phased-array transmit-receive modules. GaN devices allow radar systems to operate at higher voltages and temperatures than older gallium arsenide (GaAs) components. This capability increases power efficiency and enables radars to scan larger volumes of airspace while maintaining extended detection ranges. GaN technology is now widely used in several advanced U.S. defense systems, including the AN/SPY-6 naval radar and the AN/TPS-80 Ground/Air Task Oriented Radar (G/ATOR). However, the global supply chain for the raw material used to produce GaN devices remains heavily concentrated. China controls roughly 98 percent of the world’s primary gallium production, creating a significant dependency for industries that require the material. In late 2023, the Chinese government introduced export controls on gallium and germanium, citing national security considerations. These restrictions require exporters to obtain licenses before shipments can proceed. Because the United States currently has limited domestic gallium production and refining capacity, defense manufacturers must rely on alternative sources such as recycling gallium-containing scrap or purchasing from the small number of non-Chinese producers. These alternatives provide far smaller quantities than global demand requires. As a result, defense contractors such as Raytheon and Lockheed Martin face constraints when attempting to procure the large numbers of GaN semiconductor chips required for modern phased-array radar antennas.   Manufacturing and Integration Requirements Replacing the AN/FPS-132 radar requires rebuilding the entire facility, including antenna arrays, hardened support structures, cooling systems, electrical infrastructure, and command-and-control integration. Each antenna array contains thousands of semiconductor transmit-receive modules that must be fabricated, calibrated, and installed with high precision. Once construction is complete, the radar must undergo extensive testing to verify tracking accuracy, power performance, and integration with existing missile-defense networks. The AN/TPS-59 replacement process is less complex but still requires manufacturing new antenna arrays, electronics shelters, radar processing equipment, and power systems configured for current operational requirements.   Procurement Status As of March 2026, the U.S. Department of Defense has not publicly released a formal procurement timeline or contract announcement for replacing the destroyed radars. Industry assessments indicate that material supply constraints, particularly gallium availability, represent the most significant bottleneck affecting production schedules. Until sufficient semiconductor components are secured, manufacturers may face delays in rebuilding the specialized radar arrays required for both systems. Restoration of the full missile-defense sensor network in the Gulf region will therefore depend not only on funding and construction capacity, but also on the availability of critical semiconductor materials used in modern radar technology.  

Read More → Posted on 2026-03-07 18:23:55