Kizilelma Turkiye’s Unmanned Fighter Jet Deep Technical Review of the Future of Air Combat

On December 28th, 2025, two jet powered unmanned aircraft took off into Turkish airspace and performed something no country had publicly demonstrated before. Flying at high subsonic speed, the two aircraft maintain close

formation without any human input, relying entirely on onboard artificial intelligence, sensors, and real-time data exchange. The aircraft were Bear's Kizilma unmanned fighters, and the flight marked the first fully autonomous

close formation mission conducted by combat capable jet powered [music] drones. While the event itself was brief, its implications were significant. Formation flight has long been one of the most complex challenges in aviation, even for piloted aircraft. For unmanned systems, the difficulty

increases dramatically, [music] especially at higher speeds where reaction times are compressed and margins for error are small. By demonstrating that two armed fighterclass unmanned aircraft could fly in close proximity without pilot control, BAR signaled that autonomous

air combat is moving from experimentation toward practical reality. Kizalema is not a continuation of earlier drone designs, but a departure from them. Unlike surveillance focused or lightly armed unmanned systems, it was conceived from the

beginning as a jet powered combat aircraft capable of operating in contested airspace. The concept traces back to Turkeykey's MOAS program, which began in the early 2010s as an effort to explore unmanned fighterclass platforms. That effort materialized publicly in

2022 when Kizalma was unveiled and completed its first flight in December of that year. Since then, the program has advanced at a notably rapid pace. Over the course of 3 years, Kizalma progressed from early prototype flights to high-speed testing, autonomous

takeoff and landing, naval compatibility trials, weapons integration, and air-to-air engagement demonstrations. By early 2026, five prototypes had flown with two aircraft already completed to serial production standards. Bear has

confirmed that the first operational deliveries to the Turkish armed forces will begin in the first quarter of 2026. In physical terms, Kizalema occupies a space traditionally associated with manned fighters. Comparable in size to an F-16, it features a low observable

airframe designed around internal weapon carriage. Canard Delta aerodynamics and twin caned vertical tails. Its maximum takeoff weight varies between roughly six and eight and a half tons depending on configuration and it is designed to

carry up to 1 and 1/2 tons of payload with a combat radius approaching 500 nautical miles and endurance of around 3 hours. The aircraft is intended for missions that go well beyond the reach of earlier Turkish drones. Performance has been a central focus of Kizalma's

development. Early test aircraft flew with lower thrust engines to validate flight control systems and aerodynamics. In January 2026, Bear confirmed that Kizalma had achieved a sustained cruise speed of Mach 0.8 during testing. This

places the aircraft firmly in the high subsonic category, allowing it to operate in the same operational tempo as modern fighter jets rather than lagging behind as a slower unmanned platform. This level of performance is essential to the roles Kaiselma is designed to

fulfill. At high subsonic speed, the aircraft can escort manned fighters, reposition rapidly across large areas, and operate inside contested airspace without becoming a limiting factor for the formation. Combined with afterburner capability, the aircraft gains the

ability to accelerate quickly, perform short deck operations from vessels such as the Turkish Navy's TCG Anodolu, and execute evasive maneuvers that complicate interception by adversary aircraft or air defenses. During 2025,

the aircraft conducted live firing tests with precisiong guided munitions and validated its air-to-air combat capability using the Gulk Dog beyond visual range missile. These tests were supported by the integration of the Morad ASA radar, electrooptical

targeting systems, and multi-ensor data fusion. In one demonstration, Kizalma detected, tracked, and engaged an aerial target autonomously, confirming that it can perform missions traditionally reserved for piloted fighters. Internal

weapon bays play a key role in reducing radar signature during such missions, supporting survivability in heavily defended environments. Underlying all of these capabilities is a high degree of autonomy. Kizalema is designed to perform every phase of flight

autonomously from taxi and takeoff to mission execution and landing. While human operators remain involved, particularly during launch and recovery, a single operator is considered sufficient during the mission itself. Triple redundant onboard computers

manage navigation, mission planning, sensor fusion, and flight safety, enabling the aircraft to adapt dynamically to changing conditions. The autonomous close formation flight conducted in late 2025 demonstrated that Kizalma can coordinate with other

aircraft, maintain spatial awareness, and share tactical data in real time, laying the groundwork for future multi-aircraft operations. In a global context, Kizalma occupies a space that many major powers are only now approaching. The United States continues

development of its collaborative combat aircraft and Skyborg initiatives, while Australia's MQ28 and America's XQ58 focus on loyal Wingman concepts optimized for high subsonic flight. China's comparable programs remain

largely undisclosed. As of early 2026, none of these efforts have publicly demonstrated fully autonomous close formation flight between combat capable unmanned fighter aircraft. In that sense, Kizalma represents one of the most mature examples of [music] a jet

powered unmanned fighter currently in testing. The delivery of Kizalma to the Turkish Air Force in 2026 carries implications that extend beyond the platform itself. For the first time, Turkey will field an unmanned system capable of conducting air-to-air combat

beyond visual range engagements and coordinated operations alongside manned fighters. This enables new approaches to air power where unmanned aircraft can absorb risk, extend sensor coverage, and increase the density of weapons and platforms in the air without exposing

pilots to the same level of danger. More broadly, Kizalema reflects a shift in how air forces are thinking about the future of combat aviation. Rather than replacing manned fighters, platforms like Kizalma are designed to complement them, acting as force multipliers within

aworked battle space. As autonomous systems continue to mature, the distinction between piloted and unpiloted aircraft will become less about capability and more about how risk, cost, and flexibility are managed. By the time Kizalema enters service,

autonomous air combat will no longer be a theoretical concept or a distant goal. It will be an operational reality shaped by real flight testing, real weapons integration, and real doctrine. In that context, Kizalma is best understood not as a dramatic leap into the unknown, but

as a deliberate and methodical step toward a future where unmanned fighters play a central role in modern air warfare. >> [music]