Poland has officially taken delivery of its first three F-35 Lightning II aircraft, locally designated “Husarz,” marking a significant milestone in the country’s long-term military modernization program and reinforcing NATO’s airpower posture along its eastern flank.

The arrival of the aircraft represents one of the most consequential upgrades to the Polish Air Force in decades, transitioning Warsaw firmly into the fifth-generation fighter era. The delivery also underscores Poland’s accelerating defense integration with the United States and allied NATO forces amid heightened security tensions in Eastern Europe following Russia’s ongoing war in Ukraine.

The ceremonial handover brought together senior Polish government officials, military leadership, representatives from the United States, allied NATO members, and defense industry executives, including delegates from Lockheed Martin, the prime contractor for the F-35 program.

According to Lockheed Martin, the event symbolized both the operational arrival of the aircraft and the strengthening of Poland’s role within NATO’s collective defense framework.

“The arrival of the first F-35 combat aircraft in Poland represents an important milestone for the nation’s defense and for regional security across Europe,” said OJ Sanchez, President of Lockheed Martin Aeronautics. “Poland continues to demonstrate strong leadership within NATO through its commitment to modernization and interoperability with allied forces.”

Sanchez added that the company remains committed to supporting Poland as it develops full operational capability with the aircraft, which are widely regarded as the most advanced multirole fighters currently in service globally.

The newly delivered aircraft are expected to significantly enhance Poland’s ability to operate seamlessly alongside allied forces. The F-35’s advanced sensor fusion, stealth profile, and networked warfare capabilities are designed to penetrate contested airspace and coordinate with NATO assets across land, air, sea, space, and cyber domains.

Defense officials emphasized that Poland’s acquisition of the F-35 strengthens deterrence along NATO’s eastern flank, where alliance members remain focused on reinforcing air policing, rapid response readiness, and integrated air and missile defense.

Poland becomes the first country on NATO’s eastern frontier to operate the fifth-generation stealth platform, placing it among a small group of allied nations fielding the aircraft operationally.

The three aircraft—bearing serial numbers 3509, 3510, and 3511—were transported from the Lockheed Martin final assembly facility in Fort Worth, Texas, before crossing the Atlantic via a multi-leg ferry route that included a stopover in the Azores. The long-range transfer was supported by aerial refueling from a KC-46A Pegasus operated by the United States Air Force.

This delivery method reflects standard procedures for ferrying fifth-generation aircraft across intercontinental distances while maintaining operational safety margins and fuel efficiency through tanker support.

The jets are now based in central Poland, where infrastructure upgrades have been underway for several years to accommodate fifth-generation aircraft requirements, including secure data links, hardened shelters, and specialized maintenance facilities.

Polish Minister of National Defense Władysław Kosiniak-Kamysz described the arrival as a transformative moment for the country’s armed forces, releasing video footage showing the F-35s flying in formation escorted by Polish F-16 Fighting Falcon jets.

Kosiniak-Kamysz stated that Poland is entering “a new era” in air capability, emphasizing that the aircraft represent not only a technological leap but also the culmination of years of investment in pilot training, logistics, and defense infrastructure modernization.

Officials noted that Poland’s F-35 program reflects long-term planning aimed at ensuring interoperability with NATO allies while deterring potential regional threats.

The delivery follows an extended training and integration process for Polish pilots and ground crews. The first Polish F-35 aircraft was previously introduced into the training pipeline in the United States and deployed to Ebbing Air National Guard Base, where Polish pilots underwent advanced instruction alongside American instructors.

This training phase is considered critical for developing proficiency in fifth-generation operations, including sensor fusion tactics, electronic warfare coordination, and stealth mission planning.

The gradual buildup ensures that Poland will achieve full operational capability in a structured and phased manner over the coming years, rather than immediate frontline deployment.

The arrival of the F-35 marks a decisive shift away from Poland’s long-standing reliance on Soviet-era aircraft. The Polish Air Force recently retired its Sukhoi Su-22 fleet, which had been in service for approximately four decades. The retirement ceremony took place at Mirosławiec Air Base in September 2025, signaling the end of an era for Warsaw’s Cold War-era attack aviation capabilities.

In parallel, Poland has been transitioning toward Western and NATO-standard platforms, including the South Korean-supplied KAI FA-50 Fighting Eagle, which is intended to fill the capability gap left by retiring Soviet-designed platforms.

Earlier generations of Soviet-designed aircraft—including the MiG-21, MiG-23, and Su-7—were gradually phased out between the 1990s and early 2000s, reflecting Poland’s post-Cold War realignment toward Western defense systems following its accession to NATO.

Poland still operates a small number of MiG-29 Fulcrum aircraft, primarily acquired secondhand from former Warsaw Pact operators such as Germany and the Czech Republic.

However, these aircraft are nearing the end of their operational life, with maintenance becoming increasingly difficult due to aging airframes and limited availability of spare parts—exacerbated by international sanctions on Russia following its 2014 annexation of Crimea.

Poland has also actively supported Ukraine by transferring surplus MiG-29s to bolster Kyiv’s air capabilities in its defense against Russia’s full-scale invasion launched in 2022. While Warsaw has retained some of its F-16 fleet for national defense needs, it has progressively reduced its reliance on legacy Soviet systems.

Deputy Defense Minister Paweł Zalewski confirmed earlier in 2026 that additional MiG-29 aircraft were cleared for transfer to Ukraine, underscoring Warsaw’s continued military support for Kyiv.

Poland’s path to acquiring the F-35 began in earnest in the late 2010s as part of a broader effort to replace its aging MiG-29 and Su-22 fleets. By 2018, Polish defense planners had accelerated efforts to identify a fifth-generation solution capable of ensuring long-term air superiority and interoperability with NATO forces.

In 2019, the United States formally approved Poland’s request to purchase the F-35, and in 2020 Warsaw finalized a contract valued at approximately $4.6 billion for 32 aircraft. The deal represented one of the most significant defense acquisitions in Poland’s modern history.

The decision was driven by both strategic and operational considerations, including the need to counter advanced air defense systems and to ensure survivability in contested environments characterized by anti-access and area-denial (A2/AD) threats.

The importance of the F-35 acquisition was further underscored by Russia’s full-scale invasion of Ukraine in February 2022. The conflict reshaped NATO defense priorities, prompting member states along the alliance’s eastern flank to accelerate modernization efforts and expand readiness initiatives.

For Poland, the war reinforced the urgency of transitioning away from legacy Soviet platforms toward advanced NATO-compatible systems capable of operating in integrated multi-domain environments.

Defense analysts note that Poland’s F-35 fleet will play a central role in air policing, deterrence, and potential high-end conflict scenarios, particularly in coordination with allied air forces and integrated NATO command structures.

With the arrival of its first F-35A aircraft, Poland has entered a new phase in the evolution of its air force, transitioning from a mixed legacy fleet to a modern, network-centric force structure.

Over the coming years, additional deliveries will expand the fleet to its full contracted strength, while training, infrastructure development, and doctrinal adaptation continue to advance in parallel.

The introduction of the “Husarz” fighters is expected to significantly enhance Poland’s strategic autonomy within NATO’s collective defense framework, while also reinforcing deterrence across one of Europe’s most sensitive security regions.

India’s indigenous defence aviation sector has reached another important milestone as Hindustan Aeronautics Limited (HAL) officially confirmed that the prototype of its Rotary Unmanned Aerial Vehicle, designated RUAV-200, has been fully assembled and has now entered the critical ground testing phase ahead of its maiden flight.

The pilotless helicopter, widely referred to as a “Mule Drone,” is being developed to transform logistics operations for the Indian armed forces, especially in difficult mountainous regions where conventional supply operations remain dangerous, weather-dependent, and operationally expensive.

The RUAV-200 project represents a significant collaboration between HAL, Defence Research and Development Organisation through its Aeronautical Development Establishment (ADE), and Indian Institute of Technology Kanpur. Together, the organisations are attempting to bridge a long-standing operational gap in India’s high-altitude military logistics network.

Classified as a High-Altitude Logistics Drone (LD-HA), the RUAV-200 has been specifically engineered to autonomously transport supplies, ammunition, equipment, and emergency payloads to remote forward military posts situated in harsh environments such as the Himalayan frontier. The drone is expected to play a particularly valuable role along elevated border regions where human-operated helicopters face extreme risks from thin air, turbulent winds, icing conditions, and limited landing zones.

According to company officials, the aircraft has now progressed into an intensive series of ground evaluations designed to validate all major systems before the first flight attempt is authorised. Engineers are currently assessing engine reliability, rotor synchronisation, avionics integration, and communication stability. The testing campaign also includes verification of the autonomous flight control architecture that will allow the drone to operate independently during missions.

These tests are regarded as mandatory safety and performance benchmarks before HAL proceeds toward hover trials and full airborne evaluations.

One of the most technically distinctive aspects of the RUAV-200 is its coaxial twin-rotor configuration. Unlike traditional helicopters that utilise a single main rotor paired with a tail rotor, the RUAV-200 employs two large rotors mounted on the same axis that rotate in opposite directions.

This architecture provides several advantages for high-altitude military operations. By eliminating the tail rotor, the drone achieves greater stability and improved control during hover operations, particularly in unpredictable mountain wind conditions. The absence of a tail boom also reduces the overall footprint of the aircraft, enabling it to land in compact, uneven, or unprepared locations close to front-line troops.

The coaxial design additionally improves lifting efficiency in thin air conditions, a factor considered crucial for operations above 5,000 metres where conventional rotorcraft often experience severe performance degradation.

Powering the RUAV-200 is a petrol-driven aviation engine believed to be based on a lightweight rotary Wankel configuration. The engine is integrated with advanced onboard flight management systems designed to maintain consistent performance despite freezing temperatures and reduced atmospheric density encountered in high-altitude regions.

At the centre of the aircraft’s autonomous capability is a sophisticated digital flight control suite. The drone has been engineered to independently perform take-offs, waypoint navigation, hovering operations, cargo delivery, and landings without requiring continuous human piloting.

Supporting this autonomy is Full Authority Digital Engine Control (FADEC), an advanced engine management technology that automatically regulates power output and fuel efficiency according to altitude and atmospheric conditions. In extreme environments where engine instability can rapidly become dangerous, FADEC allows the RUAV-200 to sustain operational reliability during long-duration missions.

HAL’s broader strategic objective with the RUAV-200 is to significantly strengthen India’s military logistics chain while simultaneously reducing exposure of pilots and crew members to hazardous operational environments.

The drone has been designed with a maximum take-off weight of approximately 200 kilogrammes and can reportedly transport payloads of up to 40 kilogrammes depending on altitude and mission profile. While that payload capacity may appear modest compared to manned helicopters, defence planners believe such drones could become indispensable for routine supply missions involving medical kits, ammunition, communication equipment, food supplies, or emergency rescue materials.

Once operational, the RUAV-200 is projected to possess a range of nearly 400 kilometres under optimal conditions. Flight endurance is expected to vary between three and six hours depending on payload weight, mission altitude, and weather conditions.

The aircraft’s anticipated cruising speed of roughly 200 kilometres per hour would also allow rapid transportation of supplies across remote valleys and mountainous sectors that often remain inaccessible through road infrastructure during winter months.

A particularly notable feature of the RUAV-200 is its high service ceiling. HAL states that the drone is being engineered to operate at altitudes reaching 6,000 metres, or approximately 19,600 feet. Such capability places the aircraft among a specialised class of logistics drones capable of functioning in some of the world’s highest military deployment zones.

The drone is also expected to maintain functionality across an exceptionally wide temperature spectrum ranging from minus 35 degrees Celsius to 55 degrees Celsius. These environmental tolerances are essential for deployment across diverse Indian operational theatres, from icy Himalayan terrain to hot desert sectors.

Beyond logistics missions, the RUAV-200 may also emerge as a versatile intelligence and reconnaissance platform. Reports indicate that the aircraft can be equipped with electro-optical day and night surveillance cameras, enabling commanders to utilise the drone for intelligence, surveillance, and reconnaissance (ISR) missions during periods when it is not assigned to cargo transport.

This dual-role capability would provide substantial operational flexibility, particularly for border monitoring and battlefield awareness missions in inaccessible sectors.

Another major emphasis of the RUAV-200 programme is survivability within contested electronic warfare environments. To safeguard communications from enemy interference or jamming attempts, the drone incorporates an indigenously developed SLR-DC datalink system. Defence sources describe the communication architecture as highly resistant to electronic disruption, ensuring uninterrupted command connectivity during operations in hostile environments.

The development of a domestic secure datalink also aligns with India’s broader push toward strategic self-reliance in defence technologies and reduced dependence on imported communication systems.

Military analysts believe the RUAV-200 could become a foundational platform for future unmanned helicopter programmes within India’s expanding defence ecosystem. Although the current version is focused primarily on logistics and ISR applications, the underlying airframe and autonomous systems may eventually support armed variants capable of carrying precision-guided munitions or participating in network-centric combat operations.

Such developments would mirror global trends where unmanned rotorcraft are increasingly evolving beyond support functions into multi-role battlefield systems capable of surveillance, logistics, targeting, and strike coordination.

The RUAV-200 programme also reflects the accelerating momentum of India’s domestic drone sector, which has seen growing investment following heightened operational requirements along sensitive border regions. Recent geopolitical tensions and the logistical challenges of sustaining troops in high-altitude deployments have reinforced the strategic importance of autonomous aerial supply systems.

For HAL, the successful development of the RUAV-200 would further strengthen its role in India’s rapidly modernising aerospace industry. The company has already been central to several indigenous aviation programmes, including fighter aircraft, helicopters, and trainer platforms. Entry into autonomous rotary-wing logistics systems would mark another expansion of its technological portfolio.

The coming months are expected to be critical for the RUAV-200 project as engineers complete ground qualification procedures and prepare for the drone’s first flight trials. If successful, the platform could eventually provide the Indian military with a highly adaptable aerial logistics asset capable of operating where conventional helicopters remain constrained by terrain, weather, and operational risk.

As warfare increasingly shifts toward automation, autonomy, and distributed logistics networks, the RUAV-200 may ultimately become one of the key systems shaping the future of India’s high-altitude battlefield support infrastructure.

China’s confirmation that its export-configured J-10CE fighter jet has achieved its first combat victory marks a pivotal moment in modern aerial warfare, signalling both the maturation of Chinese aerospace engineering and a structural shift in the global fighter aircraft market amid intensifying great-power competition.

The announcement by the State Administration of Science, Technology and Industry for National Defense (SASTIND), which included the J-10CE’s battlefield performance among China’s Top 10 National Defence Science and Technology Achievements for 2025, represents the first official acknowledgement that a Chinese-exported combat aircraft has decisively engaged and defeated advanced Western-origin fighters in live combat.

“In mid-May, the country’s export-oriented J-10CE fighter jet achieved its first combat victory, shooting down multiple aircraft in air combat without suffering any losses itself,” SASTIND said in a statement. The wording is notable not only for its clarity, but also for the fact that it constitutes a state-endorsed validation of Chinese air-combat lethality, rather than an unverified foreign military claim or media report.

Amplified by state outlets including Xinhua and ECNS, the disclosure emerged from the brief yet highly consequential Indo-Pakistani aerial confrontation known as Operation Sindoor, an episode that compressed decades of theoretical debate over beyond-visual-range (BVR) combat into a matter of days.

According to Pakistani accounts, Pakistan Air Force (PAF) J-10CE fighters neutralised multiple Indian Air Force (IAF) aircraft without losses of their own. If accurate, the engagement represents the first instance in which Chinese avionics, sensors, missiles, and networked combat doctrine were tested against Western platforms in a peer-level air battle.

Pakistani Foreign Minister Ishaq Dar underscored the broader implications when he said that PAF fighters had brought down Rafales and that “they [the Chinese] were pleased,” a remark widely interpreted as evidence of how closely Beijing monitored the operational performance of its export flagship under real combat stress.

The implications extend far beyond the subcontinent. For dozens of air forces reassessing procurement strategies, the J-10CE’s combat debut reshapes calculations about cost-effective alternatives to Western fighters that increasingly exceed USD 100 million per unit.

More critically, China now possesses one of the most powerful marketing assets in the global arms trade: battlefield validation. Historically, real combat performance has been the single most influential factor driving fighter aircraft export success, often outweighing technical specifications on paper.

As geopolitical fragmentation deepens and arms embargoes proliferate, the J-10CE’s performance positions China as a credible, combat-proven supplier capable of challenging entrenched Western and Russian dominance across multiple regions.

The Chengdu J-10CE is the culmination of nearly four decades of Chinese aerospace ambition. Originally conceived during the Cold War as a lightweight interceptor, the J-10 has evolved into a multirole combat aircraft capable of contesting advanced fourth-plus-generation Western fighters.

Developed by Chengdu Aircraft Corporation under the Aviation Industry Corporation of China (AVIC), the programme reflects Beijing’s long-term strategy to eliminate reliance on foreign combat aircraft while building an export-oriented defence industrial base.

The export-configured J-10CE incorporates structural refinements, upgraded avionics architecture, and enhanced weapons integration compared with earlier domestic variants. These upgrades enable it to function as a fully networked node within modern sensor-fusion and integrated air-defence environments.

Powered by the WS-10B Taihang turbofan, producing roughly 113 kilonewtons of thrust with afterburner, the aircraft can exceed Mach 2.0 and achieve a combat radius of more than 1,150 kilometres. Its delta-canard design, paired with a digital fly-by-wire system, provides high manoeuvrability while preserving energy during BVR engagements.

Central to its sensor suite is the KLJ-7A active electronically scanned array (AESA) radar, reportedly capable of tracking multiple targets beyond 150 kilometres and guiding several missiles simultaneously via secure datalinks.

With 11 hardpoints and a payload capacity of up to seven tonnes, the J-10CE can carry advanced air-to-air missiles, precision-guided munitions, and stand-off weapons. Its integration with the PL-15 BVR missile—believed to have a range exceeding 200 kilometres—fundamentally alters engagement geometry by compressing adversary reaction time.

Crucially, all of this comes at an estimated unit cost of USD 40–50 million, dramatically undercutting Western rivals while offering comparable lethality on paper.

Pakistan’s decision to procure the J-10CE in 2020 followed a reassessment triggered by the 2019 Balakot crisis, when Islamabad identified gaps in its long-range air-combat deterrence relative to India’s acquisition of the Rafale.

By May 2025, the Pentagon’s China Military Power Report confirmed the delivery of 20 J-10CE aircraft to Pakistan, with a total order of 36 expected by early 2026. The fighter now forms a cornerstone of Pakistan’s evolving air doctrine, supplementing the JF-17 Thunder and enabling the retirement of ageing Mirage III and V fleets.

PAF Air Chief Marshal Zaheer Ahmed Baber Sidhu described the aircraft as a “strategic equaliser,” highlighting its role in restoring deterrence along the Line of Control.

Operational integration focused heavily on BVR proficiency, sensor fusion, and cooperative engagement with ground-based early warning and air-defence systems, including Chinese-supplied surface-to-air missiles. By 2022, operational squadrons had reportedly achieved full mission readiness.

Operation Sindoor in mid-May 2025 marked a rare real-world confrontation between Chinese-exported airpower and Western-origin fighters. Triggered by cross-border incidents and escalating retaliatory strikes, Indian aircraft—including Rafales—conducted deep penetration missions.

Pakistan scrambled J-10CEs to intercept, marking the first documented use of Chinese AESA-equipped fighters and long-range missiles against Western platforms in combat.

Pakistani officials claim a lopsided kill ratio, asserting that multiple Indian aircraft were downed without PAF losses. Indian responses were cautious, with anonymous sources acknowledging aircraft losses while attributing them to intelligence failures and underestimation of Pakistan’s BVR capabilities.

Fragments identified as PL-15 missiles recovered near crash sites have been cited as circumstantial evidence supporting Pakistani claims, though full independent verification remains limited.

Regardless of contested details, the engagement has altered perceptions. In South Asia, it compresses Indian decision-making timelines and reinforces Pakistan’s deterrence posture. Analysts say it raises questions about survivability in environments dominated by long-range sensors and missiles.

Beyond the region, the episode has implications for Taiwan, the Middle East, and Africa—areas where Chinese doctrine emphasises layered denial and long-range engagement.

For Beijing, the J-10CE’s validation strengthens defence diplomacy and bolsters claims of technological self-reliance. SASTIND explicitly noted that the achievement enhances the “international competitiveness” of Chinese aviation products.

Interest in the aircraft has reportedly intensified from Egypt, Uzbekistan, Indonesia, Iran, and Bangladesh, driven by budget constraints, sanctions risk, and the appeal of combat-proven systems without political conditionality.

China’s confirmation of the J-10CE’s maiden combat triumph marks a watershed in global air-combat history. It signals that Chinese aerospace systems have crossed a critical threshold—from theoretical challengers to combat-validated alternatives—reshaping assumptions about air superiority, deterrence, and the future balance of power in the global fighter market.

Beyond tactics, the episode underscores a broader shift: air dominance in the coming decades will hinge less on platform pedigree and more on the effectiveness of integrated, networked kill chains. For defence planners worldwide, the message is clear—the era of unchallenged Western monopoly in high-end air combat is drawing to a close.

The U.S. Navy’s first flight of the production-representative Boeing MQ-25 Stingray has officially slipped into early 2026, missing a long-projected 2025 milestone that senior officials had repeatedly described as crucial for the future of unmanned carrier aviation. The delay, confirmed by the Navy and Boeing and first reported by Aviation Week, underscores ongoing challenges in maturing the service’s first carrier-borne unmanned tanker—an aircraft expected to reshape carrier air wing operations for decades.

According to the Navy, the MQ-25 is now completing an extended series of ground evaluations, including structural checks, software validation, and systems certification. “The team is finalizing systems testing and flight clearance, with the first flight planned once certification is complete and weather permits,” the service stated. Boeing similarly noted that additional time is needed for “deliberate systems-level testing” and the approval of final airworthiness documentation before the aircraft can take to the sky.

In recent months, the MQ-25 team has pushed through several major pre-flight activities: structural tests on a static test article, initial engine runs, completion of flight-certified software, and command-and-control exercises using the Navy’s Unmanned Carrier Aviation Mission Control System (UMCS). Boeing emphasized the engine runs and UMCS integration as particularly significant, demonstrating that the ground infrastructure for fleet-wide unmanned operations is steadily maturing.

This upcoming flight will be the first for a production-representative MQ-25, a substantial step beyond the earlier T1 prototype that has already validated aerial refueling with the F/A-18F, F-35C, and E-2D. The new aircraft incorporates structural, avionics, and systems changes intended to meet long-term operational demands—including routine deck handling, sustained flight cycles, and future upgrades for autonomy and ISR mission sets.

The shift to 2026 follows a turbulent year marked by a federal government shutdown and labor strikes at Boeing’s MidAmerica and St. Louis facilities. Although neither Boeing nor the Navy directly attributed the slip to those events, both disruptions affected industrial momentum during key phases of assembly and test preparation. Throughout 2024 and into early 2025, leaders across Naval Air Systems Command (NAVAIR) and Boeing had insisted that a first flight before the end of 2025 remained within reach.

Vice Adm. Daniel Cheever, commander of Naval Air Forces, was emphatic earlier this year: “We will fly MQ-25 in 25… and get that thing on a carrier in 26,” he said at the WEST 2025 conference. Boeing’s program lead, Dan Gillian, echoed that optimism in April, saying, “The airplane, the system and the team are all saying this is going to happen this year.” But senior officials also cautioned that the timeline left little margin. NAVAIR chief Vice Adm. Carl Chebi remarked that meeting the 2025 target would require “a ton of work,” including tight configuration control, rapid issue resolution, and careful negotiation over which features to defer beyond the first flight.

Despite the latest delay, Navy officials continue to stress the strategic weight of the MQ-25 program. Described by Cheever as the system that “unlocks the future for manned–unmanned teaming on the aircraft carrier,” the Stingray is slated to be the Navy’s first operational unmanned aircraft to integrate fully into carrier deck cycles. Its introduction is expected to free a significant portion of F/A-18E/F Super Hornet sorties currently devoted to tanking—up to one-third, according to Navy data. With its Cobham ARS refueling pod, the MQ-25 is projected to deliver 14,000–16,000 lb of fuel at a radius of 500 nautical miles, significantly extending the reach and flexibility of carrier strike fighters.

Beyond refueling, the Stingray is also planned to support intelligence, surveillance, and reconnaissance missions. Early program documentation described potential carriage of SIGINT, EO/IR, and AIS sensors, along with recovery tanking to support cyclic carrier operations.

Yet the MQ-25’s development path remains complex. Pentagon acquisition reports show that several major milestones—including the first engineering and manufacturing development (EMD) flight and initial operational capability—have slipped by roughly two years over recent cycles. The GAO has warned repeatedly of cost risks, especially if low-rate initial production proceeds before adequate flight testing. The Navy’s FY2026 budget request includes $1.04 billion for procurement and RDT&E, funding three LRIP aircraft and continued UMCS development.

To support the program, Boeing opened a new $200-million production facility in Illinois in 2024, while the Navy installed UMCS aboard USS George H.W. Bush (CVN 77) and at shore-based sites. Test pilots have already demonstrated manned-unmanned teaming concepts linking F/A-18 crews with MQ-25 control systems—an early preview of the collaborative combat aircraft (CCA) operations envisioned for future carrier air wings.

For now, all eyes in Navy aviation are on early 2026, when the long-awaited first flight of the production MQ-25 will finally signal whether the program has regained stability—and whether the Navy’s broader unmanned carrier aviation ambitions remain on track.

The U.S. Air Force has received its 127th—and currently final—QF-16 full-scale aerial target (FSAT), closing a major chapter in one of the service’s most unusual but essential test and evaluation programs. Boeing Defense marked the milestone with a commemorative video featuring interviews with engineers, technicians, and program leaders who shepherded the F-16-to-drone conversion effort over its 15-year lifespan.

The QF-16 program began taking shape in the mid-2000s as the Air Force sought to replace its aging fleet of QF-4 Phantom II targets. Surplus F-16A and F-16C airframes, many approaching the end of their operational life, were identified as ideal candidates for conversion into optionally piloted drones capable of mimicking modern fighter threats. After a competitive tender, Boeing secured a $69.7 million production contract in 2010, initiating what would evolve into one of the most technically ambitious FSAT programs ever undertaken.

A QF-16 conducted the program’s first unmanned flight in 2012, and after several years of rigorous testing, the Air Force declared initial operating capability (IOC) in 2016—just as the venerable QF-4 fleet was retired. Designed to replicate contemporary adversary performance, the QF-16 preserved much of the original F-16’s flight envelope, including supersonic speed, 9G maneuverability, and operational ceilings of up to 55,000 feet. This allowed the aircraft to serve as an exceptionally realistic surrogate for training and missile-testing scenarios.

Although FSATs are expendable assets—many are intentionally destroyed during live-fire exercises—not all QF-16 missions end in a fireball. Many conduct non-destructive flights and return for reuse, extending the fleet’s service life. Boeing estimates it will continue supporting the QF-16 inventory for another 5 to 10 years, depending on attrition rates and operational demand. Alongside the QF-16, the Department of Defense also relies on smaller purpose-built targets such as the BQM-167A and BQM-177A for lower-cost training and weapons testing.

The final aircraft from the conversion line, designated QF-127, carries the original serial number 83-1079. Delivered new in 1984 as an F-16A, the jet once belonged to the North Dakota Air National Guard’s 178th Fighter Squadron, the “Happy Hooligans.” After its retirement from frontline service, it was transferred to the 309th Aerospace Maintenance and Regeneration Group (AMARG) in January 2007. Even in its new role as an unmanned target, the aircraft still bears faint traces of its past, including “Roughrider Country” and “North Dakota” markings on the fuselage—ghosts of its operational lineage.

AMARG acknowledged the aircraft’s departure with a social media post on November 21, 2025, marking another airframe’s transition from long-term storage to a new, expendable mission.

Early conversions were conducted at Cecil Airport in Jacksonville, Florida, before Boeing opened a second line at Davis-Monthan Air Force Base in 2020 to streamline work on airframes already stored in the adjacent “Boneyard.” The Florida facility closed in 2022 as the program consolidated at Davis-Monthan. Operational QF-16s now serve with the 82nd Aerial Targets Squadron, headquartered at Tyndall AFB, Florida, with additional operations at Holloman AFB, New Mexico.

Converting a stored F-16 into a QF-16 drone typically takes about six months. AMARG’s initial storage processes, which remove components such as the radar and M61 Vulcan cannon, simplify early steps. Engineers add ballast to compensate for absent systems and install a smoke-generating Visual Augmentation System in the cannon bay to improve visibility for range observers. The ACES II ejection seat remains intact, allowing the aircraft to fly with a pilot when necessary.

Additional modifications include an Automatic Flight Control Computer for unmanned flight, new antennas for the Vector Scoring System that tracks missile engagement accuracy, and a Flight Termination System designed to destroy the aircraft instantly if control is lost or safety is jeopardized. The FTS was extensively tested to ensure predictable breakup patterns within safe boundaries.

Over the years, QF-16s have faced a wide array of U.S. missiles—from AIM-9 Sidewinders and AIM-120 AMRAAMs to Stingers and even the new AIM-260 Joint Advanced Tactical Missile (JATM). Many have fulfilled their ultimate purpose, breaking apart in midair to validate the effectiveness of America’s most advanced weapons.

Whether the Air Force continues converting manned fighters into FSATs remains uncertain. As unmanned technologies mature, purpose-built drones could eventually take over roles historically filled by aircraft like the QF-16. But for now, the final converted F-16 stands as a symbolic end to a program that bridged generations of fighter technology—turning Cold War airframes into indispensable tools for the next era of aerial warfare.

Indonesia’s naval modernisation drive reached a decisive new phase this week as integration officially began on installing ASELSAN’s CENK 350-N Active Electronically Scanned Array (AESA) X-band radar aboard the country’s first Merah Putih-class frigate. The installation, captured in high-resolution shipyard photographs circulating widely among defence watchers, underscores Jakarta’s accelerating commitment to fielding state-of-the-art maritime combat systems amid rising Indo-Pacific tensions.

The move positions the Merah Putih-class not only as Indonesia’s most technologically advanced surface combatant but also as one of the most capable frigates in Southeast Asia—equipped with surveillance, air defence, anti-ship, and electronic-warfare capabilities more commonly associated with destroyer-grade warships.

The commencement of CENK 350-N integration marks a milestone for Indonesia’s long-term Minimum Essential Force (MEF) roadmap, reinforcing the country’s determination to secure maritime sovereignty across its 17,000 islands and vast exclusive economic zones.

Defence analysts describe the radar integration as “transformational,” both technologically and strategically. The fixed-face CENK 350-N AESA radar provides continuous 360-degree coverage with an instrumented detection range of 250 kilometres, offering the Indonesian Navy (TNI-AL) unprecedented situational awareness in contested waters such as the Natuna Sea and the broader South China Sea.

The radar’s incorporation also highlights Indonesia’s growing defence partnership with Türkiye, whose rapidly rising military-industrial base is reshaping procurement strategies across the Global South. For Indonesia, diversifying technology suppliers—beyond traditional Western partners—reflects a deliberate quest for strategic autonomy.

The Merah Putih-class frigate, derived from the United Kingdom’s proven Arrowhead 140 design, embodies modularity, adaptability, and long-term upgrade potential. Already selected by the Royal Navy for the Type 31 programme, the Arrowhead 140 hull offers abundant internal volume and power margins for advanced sensor and weapon integration.

Construction of Indonesia’s first Merah Putih frigate began in late 2024 at PT PAL’s Surabaya shipyard, part of a broader effort to localise shipbuilding capacity through technology transfer. The vessel is projected to enter service by 2028, with a second unit to follow—giving the TNI-AL a powerful pair of multi-role surface combatants capable of regional force projection.

With a full-load displacement of about 6,626 tonnes, a length of 140 metres, and a 19.75-metre beam, the frigate provides substantial real estate for advanced radar arrays, high-capacity vertical launch systems (VLS), and next-generation command-and-control systems. A CODAD propulsion arrangement enables top speeds of 28 knots, balancing endurance, efficiency, and rapid response capability.

Central to Indonesia’s variant is the ROKETSAN MIDLAS vertical launch system—configured for up to 64 missile cells, an exceptionally large payload for an ASEAN frigate.

ATMACA anti-ship missiles,

HISAR-D medium-range air-defence interceptors, and

SIPER Block 1-D long-range air-defence missiles.

The 64-cell configuration surpasses many regional frigates—placing the Merah Putih at the upper echelon of Southeast Asia’s naval firepower tier. Complementing the VLS suite are 57mm or 76mm main guns, Gökdeniz CIWS, and lightweight torpedoes. A full ASW suite, including the FERSAH hull-mounted sonar and an ASW helicopter deck/hangar, ensure the ship’s multi-domain combat capability.

At the centre of the frigate’s sensor architecture is the CENK 350-N AESA radar—one of ASELSAN’s most advanced naval sensing systems. Built using Gallium Nitride (GaN) semiconductors, the radar offers high power, superior Electronic Counter-Countermeasures (ECCM), and resilience in high-sea-state operations.

Four fixed AESA arrays delivering uninterrupted 360° coverage, eliminating blind zones common in rotating radar systems.

250 km instrumented range for tracking sea-skimming missiles, UAVs, stealth aircraft, and small surface vessels.

Multi-beam capability for simultaneous search, track, and target designation.

Direct integration with MIDLAS VLS for missile mid-course guidance updates.

The radar technology shares lineage with Türkiye’s high-end ÇAFRAD system, developed for the future TF-2000 air defence destroyer fleet. This ensures battle-tested algorithms and robust performance in saturation-threat scenarios.

The CENK 350-N is supported by the CENK 200-N (MAR-D) radar with a 100 km range for helicopter control and low-altitude surveillance. Future upgrade options include the CENK 400-N S-band AESA radar offering detection ranges up to 400 km—destroyer-class capability on a frigate hull.

Together, these sensors form one of the most advanced layered radar suites currently planned for any Southeast Asian navy.

HAVELSAN’s ADVENT Combat Management System (CMS) serves as the integration hub for sensors, weapons, EW systems, and communication interfaces aboard the Merah Putih-class. Designed for network-centric warfighting, ADVENT allows the frigate to function as a digital node within Indonesia’s expanding naval network—sharing data with submarines, drones, patrol ships, and joint-task-force partners.

Indonesia’s decision to deploy ADVENT on more than 40 naval platforms signals a doctrinal shift toward real-time, distributed maritime operations. This positions Indonesia alongside advanced navies pursuing integrated combat architectures.

Images from PT PAL show workers preparing the reinforced mast structure designed to support the power, weight, and thermal management demands of the CENK 350-N arrays.

Structural installation of radar modules

High-capacity cable routing to the CMS and power systems

Software synchronisation between ADVENT and radar subsystems

Electromagnetic compatibility testing

Harbour integration trials

Full sea trials under simulated combat profiles

The timeline aligns with Indonesia’s 2025 contract with ASELSAN, which includes radar arrays, IFF systems, data links, and the AKREP-200 fire-control system.

Türkiye’s defence exports to Indonesia now exceed USD 2 billion, spanning UAVs, radars, submarine systems, naval guns, and CMS technologies. The Merah Putih programme deepens this cooperation through structured technology transfer to PT PAL and local industry.

“The CENK 350-N brings destroyer-level sensing to frigate-sized vessels—an ideal solution for nations seeking high-end capability without escalating procurement costs.”

“By integrating Turkish technologies, we are boosting our blue-water capabilities while strengthening domestic industrial expertise.”

Regional analysts in Malaysia, Vietnam, Thailand, the Philippines, and Singapore are closely watching Indonesia’s progress. The 64-cell VLS, fixed AESA radar suite, and ADVENT CMS place the Merah Putih in a capability bracket normally occupied by high-end European or East Asian warships.

Compared with rotating radars such as Singapore’s Thales Herakles, the CENK 350-N offers superior performance in electronic-warfare-heavy conditions and missile-saturation environments.

Once operational, the Merah Putih-class will:

Function as a high-fidelity sensor and targeting node during exercises like Garuda Shield

Enhance Indonesia’s ability to detect incursions and grey-zone operations near the Natuna Seas

Strengthen ASEAN maritime security mechanisms

Serve as a counterweight to expanding Chinese naval influence

With integration now underway, Indonesia’s first Merah Putih-class frigate is on track to become one of Southeast Asia’s most formidable naval assets. Equipped with Turkish AESA radars, Western hull design, and a dense VLS configuration, the platform reflects a new era of hybrid, cost-effective, high-capability defence procurement.

As Indonesia and Türkiye deepen cooperation, the Merah Putih-class is emerging as a symbol of Jakarta’s maritime ambition, regional deterrence posture, and commitment to preserving strategic autonomy in an increasingly contested Indo-Pacific.

Turkey has entered a decisive new phase in its naval modernisation with the commissioning of TCG Hızırreis (S-331), the second submarine in the cutting-edge Reis-class fleet. The ceremony at Gölcük Naval Shipyard marks a watershed moment in Ankara’s maritime strategy at a time of accelerating geopolitical tensions in the Eastern Mediterranean and Black Sea.

The handover of TCG Hızırreis represents far more than an expansion of force structure. It confirms Turkey’s determination to strengthen its A2/AD (anti-access/area-denial) posture across contested waters shaped by energy rivalries, exclusive economic zone (EEZ) disputes, and growing great-power competition. With the region’s undersea domain becoming increasingly crowded and strategically vital, Ankara is positioning itself to secure long-term leverage beneath the waves.

The commissioning of TCG Hızırreis comes just over a year after the Navy inducted the lead vessel, TCG Piri Reis (S-330), in August 2024. Together, the two air-independent propulsion (AIP) submarines give Turkey a new asymmetric advantage: long-endurance covert operations without surfacing, making them exceptionally difficult for adversaries to detect.

The submarine was delivered through close cooperation between Germany’s ThyssenKrupp Marine Systems (TKMS) and Turkey’s Gölcük Naval Shipyard, a partnership that has gradually shifted integration expertise, systems management, and industrial capabilities into Turkish hands. The project is a central pillar of Turkey’s defence industrial evolution, contributing to Ankara’s broader ambition of advancing naval autonomy.

Valued at €2.06 billion (approximately USD 2.24 billion), the six-boat Reis-class programme is a cornerstone of Turkey’s “Blue Homeland” (Mavi Vatan) doctrine, which emphasises maritime sovereignty, sea-lane protection, and resource security across the Aegean, Mediterranean, and Black Sea.

Turkey’s submarine fleet has historically relied on German-built Type 209 diesel-electric boats, including the 209/1200 and Preveze-class 209/1400 variants. These platforms have been reliable but are now outpaced by the AIP-equipped submarines fielded by Greece, Israel, and other regional powers.

The transition to the Reis-class—based on the Type 214 design—marks a generational leap. Turkey selected the design through a competitive tender in 2008, choosing TKMS over France’s DCNS and Spain’s Navantia due to proven AIP performance and greater modularity.

The programme officially launched in 2011, with the keel of TCG Piri Reis laid in 2015. Its launch in 2019 signalled Ankara’s intent to accelerate naval modernisation, a pace maintained through the launches and sea trials of subsequent vessels. TCG Murat Reis (S-332) is currently in the outfitting phase, while other units progress through production.

The naming of the submarines—Piri Reis, Hızırreis, Murat Reis, Aydın Reis, Seydi Ali Reis, and Selman Reis—reflects Turkey’s national maritime heritage and honours legendary Ottoman naval commanders.

The Type 214TN submarines are designed for survivability and lethality in contested environments. At 68 metres long with a submerged displacement of over 2,000 tonnes, each submarine carries a crew of around 40 and is optimised for long-duration missions.

The defining feature is the hydrogen fuel-cell AIP system, allowing the submarine to remain submerged for up to three weeks, drastically reducing exposure to enemy detection systems. Its propulsion combines a highly silent Siemens Permasyn motor with MTU diesel engines for surfaced running, giving it submerged speeds exceeding 20 knots.

The hull features advanced acoustic-dampening coatings, minimising sonar reflections and making the platform one of the stealthiest in the region.

Eight 533mm torpedo tubes

DM2A4 Seehecht heavyweight torpedoes

Turkey’s indigenous Akya torpedo

Sub-Harpoon anti-ship missiles

Future integration of the submarine-launched variant of Turkey’s Atmaca missile

The potential future integration of land-attack cruise missiles could transform the submarine into a strategic deep-strike asset.

The vessel’s sensors include next-generation periscopes by Aselsan, sonar arrays by Atlas Elektronik, and an advanced electronic warfare suite. A Havelsan-integrated combat management system enables real-time data fusion and allows the submarine to function as part of a networked naval force, coordinating with unmanned surface and underwater vehicles.

The arrival of TCG Hızırreis comes at a time of heightened maritime friction. In the Eastern Mediterranean, Turkey’s disputes with Greece and Cyprus over EEZ boundaries and hydrocarbon exploration have intensified. The ability to deploy AIP submarines for extended stealth patrols gives Ankara a significant deterrent edge and complicates NATO and EU naval planning.

During the 2020 Oruç Reis crisis, Turkey recognised the strategic importance of undersea presence to protect exploration activities. The Reis-class directly addresses the shortcomings observed during that period, making Turkey’s submarine patrols both more persistent and more difficult to track.

In the Black Sea, Russia’s war in Ukraine has transformed the maritime environment. Turkey’s control of the Turkish Straits under the Montreux Convention already gives it major geopolitical leverage, but AIP submarines enhance its capacity to monitor Russian naval movements while strategically avoiding direct confrontation.

Admiral Ercüment Tatlıoğlu, Commander of the Turkish Navy, emphasised that the Reis-class will contribute to “long-term submarine deterrence capability,” signalling Turkey’s intent to sustain influence across multiple maritime theatres.

Turkey’s defence industry has rapidly expanded, with exports surpassing USD 6.3 billion in 2024. Companies such as STM, Aselsan, Roketsan, Havelsan, and Baykar now play central roles in the country’s military transformation.

The Reis-class submarines showcase Turkey’s ability to integrate indigenous systems into German-origin platforms, strengthening strategic autonomy and creating pathways for possible exports. Ankara could target Asian, Middle Eastern, or African markets with lower-cost alternatives to European or South Korean submarines.

Turkey’s maritime expansion is complemented by other high-profile defence products, including MILGEM corvettes exported to Pakistan and T129 ATAK helicopters sold to the Philippines.

The Reis-class is a stepping stone toward Turkey’s long-term ambition of designing and producing its own submarines under the MILDEN (Milli Denizaltı) programme. Construction began in January 2025, with Turkey aiming to field fully indigenous AIP-equipped submarines by the early 2030s. These may incorporate next-generation technologies such as advanced lithium-ion batteries or hybrid propulsion.

Admiral Tatlıoğlu has also expressed Turkey’s aspirations to eventually acquire nuclear-powered submarines, which would elevate the Turkish Navy to an elite tier of global naval capabilities.

Turkey’s rapid naval expansion has prompted responses from regional rivals. Greece is accelerating upgrades to its Papanikolis-class submarines and purchasing new frigates, while Israel and Egypt continue strengthening their fleets with Western platforms.

Operational challenges persist as well, especially in the shallow and geographically complex Aegean Sea, where submarine manoeuvrability, crew training, and situational awareness are critical. Turkey has increased investment in submarine simulators and conducted joint exercises with Pakistan to enhance proficiency.

The commissioning of TCG Hızırreis marks a pivotal milestone in Turkey’s transformation into a formidable undersea power. By combining imported precision engineering with growing indigenous innovation, Turkey is rapidly evolving from a regional maritime actor into a strategically influential naval force.

With unmatched endurance, stealth, and combat versatility, the Reis-class strengthens Turkey’s ability to safeguard maritime interests in some of the world’s most volatile waters. As the MILDEN programme matures and Ankara moves toward nuclear submarine aspirations, the Turkish Navy’s future may extend far beyond regional deterrence—toward a role as a global maritime stakeholder.

Australia is poised to become the first foreign military to field the AIM-260A Joint Advanced Tactical Missile (JATM), a landmark moment in Western airpower cooperation and a significant boost to Canberra’s frontline role in Indo-Pacific security. Washington is expected to grant final export approval within days, clearing the Royal Australian Air Force (RAAF) to induct one of the most sophisticated and secretive beyond-visual-range air-to-air missiles (BVRAAMs) ever produced.

The acquisition comes amid intensifying military competition across the Indo-Pacific, particularly in the air domain, where China’s rapid advances in long-range air-to-air missile technology—embodied by the PL-15 and PL-17—have challenged long-standing U.S. and allied advantages. For Australia, receiving the AIM-260 marks a decisive technological leap that reinforces its status as a core contributor to Western deterrence architectures.

The development of the AIM-260 JATM began in 2017, when the U.S. Department of Defense identified a widening capability gap in long-range aerial engagements. China’s introduction of the PL-15—reported to exceed 200 km in range—prompted the United States to pursue a next-generation weapon capable of outmatching it. The AIM-120 AMRAAM, the mainstay of Western air combat for three decades, was increasingly constrained by its range and energy profile in the face of competition from Chinese and emerging Russian systems.

Engineered by Lockheed Martin, the AIM-260 retains the AMRAAM’s dimensions to ensure seamless integration into the internal bays of fifth-generation fighters such as the F-22 Raptor and F-35 Lightning II. This design preserves the stealth profile of these aircraft while enabling drastically improved reach and lethality.

Although precise specifications remain highly classified, the missile is believed to employ a dual-pulse rocket motor, allowing it to maintain energy at extreme distances and engage maneuvering targets far outside the no-escape zones of current Western missiles. U.S. sources suggest the missile may reach speeds between Mach 4 and Mach 5, compressing enemy reaction times and giving American and allied pilots a decisive first-shot advantage.

Testing of the missile began in April 2020, followed by increasingly complex trials that integrated the weapon with multiple fighter platforms. By 2025, flight testing had expanded to include the F-22, F/A-18E/F Super Hornet, and the new F-15EX, demonstrating the Pentagon’s intent to make the AIM-260 a universal air-to-air weapon across the U.S. fighter fleet.

The U.S. Department of Defense has since designated the JATM as its highest air-delivered modernization priority, allocating nearly USD 1 billion in its FY2026 budget to accelerate production and phase out the AIM-120.

The AIM-260 enters a crowded and fast-evolving ecosystem of long-range air-to-air missiles driven largely by China’s rapid modernization. The PL-15, already operational on the J-20 stealth fighter and J-16 strike aircraft, is widely believed to be the main competitor to the AIM-120D. More alarming to Western planners is the PL-17, an ultra-long-range missile with an estimated 400 km reach designed to destroy high-value assets such as tankers, AWACS platforms, and ISR aircraft.

Europe’s Meteor missile, equipped with a throttleable ramjet, dominates certain engagement regimes with unmatched sustained energy—especially in the deep no-escape zone—but lacks the tailored stealth integration the AIM-260 offers across U.S. platforms.

Russia’s KS-172 concept, aimed at strategic asset destruction, further reinforces the urgency behind the JATM program.

A comparison of major BVRAAMs illustrates why the AIM-260 has become central to allied modernization:

The People’s Liberation Army Navy (PLAN) has entered a transformative new phase in its naval modernisation campaign with the commencement of maiden sea trials for the Sichuan, the first-in-class Type 076 amphibious assault ship. This next-generation platform is engineered to fuse amphibious warfare with fixed-wing drone carrier operations, electromagnetic launch technology, and advanced CATOBAR aviation—capabilities previously exclusive to full-sized aircraft carriers.

Carrying hull number 51, the Sichuan departed Shanghai’s Hudong-Zhonghua Shipyard on 14 November 2025, beginning its first full cycle of at-sea testing. The milestone marks a pivotal step in Beijing’s rapid naval expansion, which increasingly emphasises hybrid platforms capable of dominating contested maritime spaces from the East China Sea to the Indian Ocean.

The Type 076 is the first amphibious assault ship in the world built from inception to operate fixed-wing aircraft, including stealth unmanned combat aerial vehicles (UCAVs), via a full Electromagnetic Aircraft Launch System (EMALS) and arresting gear. These systems elevate the ship far beyond traditional helicopter-based amphibious platforms and into a hybrid category that merges the operational philosophies of landing helicopter docks (LHDs) with carrier-grade aviation.

Featuring a dual-island superstructure, integrated electric propulsion, and high-capacity aviation facilities, the Sichuan is designed to generate high-tempo launch and recovery cycles for drones and potentially future manned fighters. Its configuration draws inspiration from the U.S. Navy’s Ford-class carriers while retaining the amphibious heart of China’s Type 075 LHD.

At approximately 260 metres in length and with a beam of about 52 metres, the Sichuan is one of the largest amphibious assault ships ever built, with a displacement estimated between 40,000 and 50,000 tonnes. This places it in the same tonnage class as the U.S. America-class LHAs, but with far more expansive aviation capabilities due to EMALS.

China’s development of the Type 076 is rooted in a steady expansion of amphibious warfare capabilities:

• Type 071 LPDs (early 2000s): Provided China’s first true expeditionary amphibious lift capacity.

• Type 075 LHDs (late 2010s–2020s): Enabled multi-brigade landings, over-the-horizon assault, and large-scale helicopter operations.

However, the Type 075’s inability to launch fixed-wing aircraft—especially drones—proved limiting in high-intensity and long-range operations. The Type 076 emerged directly as a solution: a platform capable of deploying heavy UAVs and operating as a drone carrier while retaining full amphibious capacity.

The Sichuan’s EMALS is its most consequential innovation. While China has already fielded EMALS on the Type 003 Fujian supercarrier, integrating this technology onto an amphibious platform is unprecedented.

EMALS enables:

• Smooth acceleration of aircraft with reduced structural stress

• Launch of lightweight stealth drones

• Launch of heavier UCAVs carrying munitions

• Flexible sortie generation in all-weather conditions

A full-length 130-metre catapult trench forms the primary launch track, with a shorter secondary launch strip likely dedicated to smaller UAVs or light fixed-wing aircraft.

Supporting EMALS is a complete CATOBAR arresting system, enabling recovery of tailhook-equipped UAVs—again, a global first for an amphibious ship.

The Type 076 is expected to serve as the PLAN’s principal sea-based platform for stealth UCAVs, especially the GJ-11 Sharp Sword, a flying-wing drone designed for:

• Long-range reconnaissance

• Penetrating strike missions

• Electronic warfare

• Munitions delivery from internal bays

Mock-ups observed during construction suggest the ship’s hangars, elevators, and deck layout are optimised for GJ-11 operations. The vessel may also support limited operations of the J-35 carrier-based stealth fighter, but its primary aviation focus is unmanned.

Despite its aviation breakthroughs, the Type 076 retains core amphibious features:

• A well deck for launching LCACs and amphibious vehicles

• Troop capacity estimated at brigade scale

• A large internal aviation hangar

• Dual aircraft elevators

• A full flight deck supporting simultaneous helicopter operations

This ensures the ship can execute complex amphibious landings supported by long-range drone coverage and precision-strike UCAV missions—integrated operations that dramatically expand China’s expeditionary potential.

The Sichuan’s maiden sea trials are being carried out in the Yangtze River estuary, a controlled zone frequently used for PLAN ship testing. The first phase focuses on:

• Validation of the integrated electric propulsion system

• High-speed and low-speed manoeuvrability tests

• Crash-stop trials and endurance runs

• Stability analysis for the electrical network

• Stress-testing EMALS-related power loads

Because EMALS requires enormous, stable power output, these trials are critical before aviation testing can begin.

Lessons from the Type 003 Fujian’s ongoing EMALS trials have helped streamline the Type 076’s testing path.

Full drone aviation tests are expected to begin in 2026, beginning with static checks, deck handling trials, high-speed taxi runs, and eventual catapult launches of stealth UAVs.

The appearance of the Type 076 represents a significant strategic shift in the Indo-Pacific’s naval landscape. It introduces a new category of warship with the ability to:

• Conduct amphibious assaults

• Operate as a forward drone carrier

• Launch stealth UCAVs for deep-strike and ISR missions

• Provide persistent electronic warfare and reconnaissance coverage

• Saturate enemy defences with large numbers of unmanned systems

In a Taiwan conflict, the Type 076 could:

• Serve as a mobile UCAV strike hub

• Conduct suppressive EW against Taiwanese radar networks

• Enable amphibious landings under the cover of continuous unmanned operations

• Expand China’s ability to generate long-range precision strikes

In the South China Sea, it enhances China’s ability to:

For India, the ship poses new challenges in the Indian Ocean Region, especially regarding strategic chokepoints near the Andaman and Nicobar Islands.

Globally, the Type 076 narrows the capability gap with major naval powers and creates a hybrid model surpassing traditional LHDs. The U.S. America-class LHAs, for example, rely on V/STOL aviation, whereas the Type 076 can deploy a broad array of fixed-wing drones and potentially fighters.

China’s rapid shipbuilding pace, coupled with lower production costs, adds further weight to the program. Reports suggest a second Type 076 may already be under construction.

Next-generation versions of the Type 076 may introduce:

• Expanded EMALS capacities

• More advanced electric propulsion or nuclear power

• Deeper integration with autonomous drone swarms

• Advanced EW drones such as the Jiutian series

• AI-driven distributed strike capabilities

However, the platform faces challenges:

• Maintaining EMALS reliability at sea

• Mastering carrier-style deck operations

• Ensuring cyber resilience in a highly digitised system

• Training personnel for hybrid drone–amphibious missions

Regional alliances—including the Quad—are likely to respond with:

• Distributed maritime operations

• Greater investment in counter-drone systems

• Hypersonic strike capabilities

• Intensified joint naval exercises

The Sichuan’s maiden sea trials mark one of the most consequential milestones in China’s maritime history. By combining amphibious assault capabilities with next-generation UCAV operations and carrier-grade launch technology, the Type 076 redefines what amphibious ships can accomplish.

As the Indo-Pacific moves deeper into an era shaped by unmanned systems, electromagnetic launch technologies, and hybrid expeditionary forces, the Type 076 stands as a decisive symbol of China’s strategic ambition—and a harbinger of the future of naval warfare.

Thirty years after the thundering tanks and artillery of Operation Storm swept through the hills and towns of southern Croatia, crushing the self-declared Republic of Serbian Krajina (RSK) and bringing the Croatian War of Independence to its decisive end, the country marked the anniversary not just with solemn remembrance, but with a grand military parade — a thunderous display of Croatia’s newly transformed military power.

Held in the capital city of Zagreb, the event served as both a national celebration and a strategic signal to allies and rivals alike: Croatia has emerged from the scars of war as a modernized military power, integrated into NATO, and increasingly assertive on the regional stage. This year’s commemoration of Operation Storm was unlike any before it — a blend of history, politics, and high-tech ambition.

Operation Storm, which took place from August 4 to 7 in 1995, marked the final chapter of Croatia’s four-year war to free itself from the remnants of Yugoslav control and the Serbian-backed rebel enclaves within its borders. With the operation’s launch, some 150,000 Croatian troops surged into the breakaway RSK, seizing back nearly a third of the country’s territory in a lightning campaign that lasted just 84 hours.

By August 5 — now commemorated annually as the Day of Victory and Homeland Thanksgiving and the Day of Croatian Veterans — the symbolically significant town of Knin had fallen, and the war was all but over.

But the costs were steep. The offensive triggered a mass exodus of ethnic Serbs, with an estimated 200,000 fleeing Croatia. Accusations of war crimes committed by Croatian forces during and after the operation continue to stir regional tensions and legal battles at international tribunals. In Serbia, Operation Storm is mourned as a national tragedy.

Croatian President Zoran Milanović, however, struck a defiant tone ahead of the anniversary parade.

“We are celebrating victories; we don’t hate anyone,” he said. “We are fully aware – and I want those who come after us to be aware – that this is a victory of Croatian soldiers, the Croatian people, and the Croatian leadership of that time.”

The centerpiece of this year’s celebration was a large-scale military parade in Zagreb, showcasing the Croatian Armed Forces’ latest acquisitions — a transformation fueled by defense reforms, increased spending, and a shift towards NATO-standard capabilities.

Watched by tens of thousands of citizens lining Vukovar Street and attended by top military brass and foreign observers, the event was headlined by an impressive flyover of Croatia’s newest pride: the Rafale multirole fighter jets.

Nine of the twelve French-made Rafales, ordered in 2021 and fully delivered by early 2025, roared overhead in tight formation. Purchased from surplus stocks of the French Air and Space Force and upgraded to the F3-R standard, the aircraft represent the most ambitious and expensive modernization effort in the country’s military history.

The Rafales boast cutting-edge capabilities: active electronically scanned array (AESA) radars, electronic warfare suites, precision-guided munitions, and advanced air-to-air missiles. For a country whose air force previously relied on aging Soviet-era MiG-21s, the leap is revolutionary.

“This acquisition dramatically changes our strategic posture,” said Defense Minister Ivan Anušić. “With these aircraft, we move from short-range, second-generation systems to a 4.5-generation platform with full interoperability with our NATO allies.”

The Rafales weren’t the only stars of the parade. For the first time, Croatia publicly displayed two Leopard 2 main battle tanks, temporarily loaned from Germany as a teaser for a much larger acquisition plan.

In 2024, Croatia signed a Letter of Intent to purchase approximately 50 of the most advanced Leopard 2A8 tanks — a model so new that even the German Army has not yet fielded them. Anušić confirmed that Croatia would receive the tanks on the same timeline as Germany.

The parade also marked the debut appearance of the Bayraktar TB2, the battle-proven Turkish-made drone that has reshaped the dynamics of modern warfare in conflicts ranging from Nagorno-Karabakh to Ukraine. Though the TB2s remained grounded during the parade, their presence signaled Croatia’s commitment to integrating unmanned systems into its defense doctrine.

A deal finalized in 2024 will see six TB2s delivered to Croatia, equipped with reconnaissance optics and armed strike capabilities, along with a full package of control stations, radio systems, and training.

“These UAVs will greatly enhance our surveillance and response capabilities, especially in coastal and border regions,” Anušić explained.

One notable absence from the parade was the U.S.-made HIMARS (High Mobility Artillery Rocket System). Croatia agreed to purchase the system in 2024, but delivery timelines remain uncertain.

“The HIMARS is not coming yet. We asked the U.S., but we couldn’t reach an agreement in time,” the Defense Minister said. “What matters most is that the system arrives in our service within the next two years.”

Croatia has steadily increased its defense spending to reach 2% of GDP, meeting NATO’s long-standing target. That has allowed the government to invest heavily in new capabilities across all service branches — from new armored vehicles and aircraft to naval upgrades and cyber defense.

“The modernization effort is about much more than prestige,” said Igor Tabak, a security analyst at the OBRIS institute in Zagreb. “It’s about ensuring real interoperability with NATO forces and asserting Croatia’s role as a stable and capable actor in the region.”

Marinko Krešić, the head of the Croatian General Staff, emphasized that the parade was aimed not only at domestic audiences but also at international partners.

“We want to show our taxpayers where their money is going,” he told N1 television. “And we also want to show NATO and others that we are not a toy – we take our defense seriously.”

Croatia’s transformation from a war-torn state to a NATO and EU member with a rising military profile is rooted in the turbulent collapse of Yugoslavia in the early 1990s.

Once part of the Socialist Federal Republic of Yugoslavia alongside Serbia, Bosnia, Slovenia, and others, Croatia moved towards independence as the central state began to fracture under the weight of economic stagnation and growing nationalism.

The Croatian population, mostly ethnic Croats (about 78%) with a significant Serb minority (12%), held a referendum in May 1991, with 93% voting for independence. The move was boycotted by most Serbs, who feared marginalization in an independent Croatian state.

With backing from Serbia and the Yugoslav People’s Army (JNA), Serb rebels in Croatia declared the Republic of Serbian Krajina (RSK), occupying nearly a third of Croatian territory. The JNA, increasingly aligned with Serbian President Slobodan Milošević’s dream of a “Greater Serbia,” launched a series of offensives to carve out ethnically Serb territories.

Croatia, under President Franjo Tuđman, resisted — but was initially ill-equipped and outgunned. By late 1991, Serb and JNA forces controlled key highways, cities, and Adriatic ports, isolating the fledgling Croatian state.

A 1992 UN-brokered ceasefire temporarily froze the conflict, with peacekeepers deployed in Krajina. But real peace remained elusive.

Between 1992 and 1994, Croatia quietly rebuilt its army. It launched Operation Flash in May 1995, recapturing Western Slavonia and showcasing its growing strength.

Then came Operation Storm.

From August 4 to 7, 1995, over 150,000 Croatian troops launched a coordinated assault on the RSK. Backed by 400 tanks, 500 artillery pieces, and a small but effective air force, Croatian forces advanced swiftly on multiple fronts.

Their goal: to retake occupied territory and reassert control over the vital road and rail links between Zagreb and the Dalmatian coast.

The offensive shattered Serb resistance. Knin fell by August 5, and within days, the RSK collapsed entirely. Croatian troops reclaimed 10,400 square kilometers of territory.

It was the most significant Croatian military operation since World War II. The war, which had cost the lives of over 20,000 people and displaced hundreds of thousands, was effectively over.

But the operation remains controversial. Human rights groups allege that Croatian forces committed atrocities during and after the offensive. Serbia marks the anniversary with mourning and remembrance for the Serbs who fled or were killed.

In Croatia, Operation Storm is a symbol of resilience and sovereignty — a moment when a people fought for and reclaimed their homeland.

But critics warn that the anniversary must also be an opportunity for reflection.

“Victory is never simple,” said political scientist Milena Rakočević. “While Croatians rightfully celebrate their independence, the stories of displaced Serbs and the conduct of war must also be reckoned with. A mature democracy acknowledges both pride and pain.”

In recent years, efforts to reconcile with Serbia have faltered. Political leaders on both sides have traded barbs over how the war and its aftermath should be remembered.

Still, for most Croatians, the 30th anniversary was about pride — and about a military that no longer plays catch-up.

Since joining NATO in 2009 and the EU in 2013, Croatia has aligned itself with Western defense and political frameworks. It now plays an active role in regional peacekeeping and international military cooperation.

Its armed forces have participated in missions in Afghanistan, Mali, Kosovo, and the Baltic states. With its new fighter jets, tanks, and drones, Croatia’s military aims to project competence and capability.

The 2025 parade — with its Rafales, Leopards, and Bayraktars — was not just a show for citizens, but a message to Brussels, Washington, and even Belgrade.

Thirty years after war ripped it apart, Croatia stands transformed.

And as the Rafales roared above Vukovar Street, it was clear: the country no longer fights for survival, but for stature.