K2 Kamikaze UAV

K2 Kamikaze UAV is a kamikaze unmanned aerial vehicle platform developed by Baykar using indigenous resources and equipped with artificial intelligence-supported autonomous swarm flight capability. Designed as part of a strategy to develop cost-effective defense solutions, the system has been specifically engineered for precision strike missions against critical targets, featuring long range, high warhead capacity, and advanced autonomy algorithms. The platform distinguishes itself from同类 systems through its ability to conduct coordinated swarm operations, navigate in GNSS-denied environments, and carry munitions with high destructive power.

Development Process and Testing

The K2 Kamikaze UAV is one of the indigenous kamikaze UAV projects developed by Baykar. The platform was publicly unveiled on March 12 2026 following flight tests. Test activities were conducted from Baykar’s Flight Training and Test Center in Keşan, Edirne, with multiple aircraft performing multi-vehicle flight and formation tests over the Saros Gulf for two days.

In the test scenarios, five K2 Kamikaze UAVs operated simultaneously and executed various formation flight patterns. The platforms demonstrated coordinated flight capabilities by implementing different swarm configurations including “right echelon”, “line”, “V”, “Turan”, and “wall” formations. Powered by AI-based sensor and software systems, the UAVs autonomously determined their positions within the swarm, maintained their relative positions with respect to other aircraft, and successfully completed mission scenarios.

The next phase of R&D efforts plans to introduce a version of the platform capable of returning to base after delivering its payload, enabling reuse and repeat missions.

Technical Specifications and Capabilities

The K2 Kamikaze UAV stands out among同类 systems due to its high warhead capacity and extended range. The platform has a maximum takeoff weight of 800 kilograms and can carry a 200-kilogram warhead, making it designed as a strike platform capable of engaging targets requiring high destructive power.

The UAV has a range exceeding 2000 kilometers and can achieve a maximum speed of over 200 km/h. Its endurance of more than 13 hours enables the execution of long-range strategic missions. The K2 Kamikaze UAV is capable of takeoff and landing from short and unprepared runways, providing logistical flexibility in field operations.

^{K2 Kamikaze UAV Technical Specifications and Capabilities Table (Baykar)}

Artificial Intelligence and Autonomy Capabilities

One of the most distinctive features of the K2 Kamikaze UAV is its AI-supported swarm autonomy and vision-based navigation system. Equipped with onboard sensors and algorithms, the platform enables coordinated mission sharing among multiple UAVs, allowing simultaneous execution of complex operations by large numbers of aircraft. This approach aims to introduce a new operational concept to the kamikaze UAV category, which has traditionally been defined in literature as “expendable” platforms.

K2 Kamikaze UAV (Baykar Technologies)

The platform is also capable of autonomously performing navigation, target detection, and engagement processes through AI-based image processing algorithms. The EO/IR gimbal camera system provides the UAV with both reconnaissance and surveillance capabilities as well as visual target lock-on. This enables precise target identification and accurate strikes based on visual data.

Navigation in Electronic Warfare Environments

The navigation architecture of the K2 Kamikaze UAV is designed to operate effectively in electronic warfare environments where global positioning systems are unavailable or subject to intense jamming. The platform uses its downward-facing night-vision camera and gimbal system to visually analyze terrain features and estimate its position. This enables the UAV to maintain autonomous navigation toward its target even when GNSS signals are completely denied, relying solely on vision-based terrain mapping. The UAV can be controlled via both line-of-sight (LOS) and beyond-line-of-sight (BLOS) satellite data links, ensuring operational flexibility during long-range missions.