The landscape of unmanned aerial warfare shifted recently as the Turkish defense manufacturer Baykar demonstrated a technical world first. Two prototypes of the Kizilelma, a jet-powered Unmanned Combat Aerial Vehicle or UCAV, completed a fully autonomous close-formation flight. This maneuver utilized advanced smart fleet autonomy algorithms to maintain synchronized positions and execute tactical maneuvers without direct human intervention. The event took place at a Turkish flight test center, where the platforms followed a designated patrol route while performing dynamic adjustments in real-time. This achievement marks a transition from individual drone operations toward a sophisticated, networked “smart fleet” architecture.
Close-formation flight is a challenging task even for experienced human pilots because it requires constant, minute adjustments to throttle and control surfaces to counter atmospheric turbulence and aerodynamic interference from the lead aircraft. Transferring this capability to an autonomous system necessitates high-frequency data exchange and rapid onboard processing. Baykar notes that these drones did not simply follow a pre-programmed path but used adaptive algorithms to respond to the movements of their counterparts. This capability provides a glimpse into future air defense strategies where groups of unmanned jets operate as a single, cohesive unit to saturate enemy defenses or provide persistent overwatch.
Technical Foundations of Smart Fleet Autonomy
The success of the Kizilelma close-formation flight relies on Baykar’s proprietary fleet autonomy software. Unlike traditional drones that operate as isolated units with a dedicated ground control station or GCS, the smart fleet structure treats multiple aircraft as nodes in a distributed network. In this model, the drones share telemetry, sensor data, and intent. The autonomy algorithms allow the aircraft to calculate their relative distance and velocity vectors many times per second.
Such a system must manage “station-keeping,” which is the ability to maintain a fixed position relative to another moving object. This involves solving complex optimization problems to minimize the deviation from the intended formation while ensuring collision avoidance. By moving these decision-making processes “onboard,” Baykar has reduced the latency issues associated with remote control. While the technical team monitored the operational procedures from the ground, the aircraft themselves handled the tactical flight physics. This decentralized control is a prerequisite for operating in environments where electronic warfare or jamming might sever the link between a drone and its human operator.
Combat Capabilities and the BVRAAM Integration
The recent formation flight follows another substantial milestone for the Kizilelma program. In earlier testing, the platform demonstrated its offensive potential by becoming the first UCAV to detect and neutralize an aerial target using a Beyond-Visual-Range Air-to-Air Missile, or BVRAAM. For this test, the drone utilized the Murad Active Electronically Scanned Array (AESA) radar developed by the Turkish electronics firm Aselsan. The radar identified the threat, and the Kizilelma launched a Gökdoğan missile to intercept the target.
Integration with AESA radar is a notable advantage. AESA systems use hundreds of small transmitter and receiver modules to steer radio beams electronically. This allows the radar to track multiple targets simultaneously while remaining difficult for enemy sensors to detect. Combining this sensor suite with an autonomous jet platform enables the Kizilelma to perform air-to-air missions that were previously the exclusive domain of manned fighter jets. The ability to carry out these strikes autonomously demonstrates that the platform can function not just as a support asset, but as a primary combatant in high-intensity air superiority missions.
Platform Specifications and Design Philosophies
The Kizilelma is designed as a low-observable, supersonic-capable platform (in its later variants) with a deep focus on carrier-based operations. It features a canard-delta wing configuration, which provides high maneuverability and efficient lift during takeoff and landing. The design specifically accommodates the requirements of the TCG Anadolu, Turkey’s amphibious assault ship, which functions as a drone carrier.
| Feature | Specification (Kizilelma-A) | Details |
| Engine Type | Ivchenko-Progress AI-25TLT | Turbofan (Subsonic variant) |
| Maximum Takeoff Weight | 6,000 kg | Includes internal and external stores |
| Payload Capacity | 1,500 kg | Supports precision-guided munitions |
| Service Ceiling | 45,000 ft | Optimized for high-altitude ISR and strike |
| Combat Radius | 500 nm | Extendable with external tanks |
| Radar | Aselsan Murad | AESA technology for multi-target tracking |
Baykar has developed several iterations of the jet. The Kizilelma-A utilizes the subsonic AI-25TLT engine, while the Kizilelma-B is expected to incorporate the AI-322F afterburning engine to achieve supersonic speeds. A supersonic UCAV offers tactical advantages in intercepting fast-moving cruise missiles or responding rapidly to time-sensitive targets. The airframe also incorporates low-RCS (Radar Cross Section) features, such as an internal weapons bay and angled surfaces, to reduce its detectability on enemy radar screens.
Trade-offs in Autonomous Fleet Operations
While the move toward autonomous fleets offers clear advantages, it also introduces specific engineering and ethical trade-offs. One primary challenge is “algorithmic transparency.” As fleet autonomy becomes more complex, understanding why a group of drones made a specific tactical decision becomes harder for human supervisors. Engineers must implement “explainable AI” frameworks to ensure that the drones remain predictable in a combat theater.
Another trade-off involves the “cost-to-capability” ratio. A jet-powered UCAV like the Kizilelma is significantly more expensive than a propeller-driven TB2. However, the success of the Kizilelma where slower drones would be easily intercepted. The “smart fleet” approach mitigates costs by allowing a single manned aircraft to lead several autonomous wingmen, effectively multiplying the force of a traditional squadron without the need for additional human pilots. This “loyal wingman” concept is a global trend, but Baykar’s focus on UCAV-to-UCAV autonomy suggests they are preparing for scenarios where no manned aircraft are present in the immediate vicinity of the strike zone.
Global Market Position and Strategic Impact
Baykar has emerged as a dominant force in the global export market for unmanned systems. The company plans to export the Kizilelma and its other platforms to 37 countries, reinforcing its footprint in the defense sectors of Europe, Africa, and the Middle East. This widespread adoption suggests that Turkish hardware is increasingly viewed as a viable alternative to more expensive or restricted American and European systems.
The successful demonstration of autonomous formation flight shows that Turkish defense technology is no longer just catching up to global standards but is setting them in specific domains. The ability to develop these systems in-house, from the airframe to the autonomy algorithms and the radar, provides Turkey with a high degree of strategic autonomy. It ensures that the country can maintain its defense capabilities even in the face of international sanctions or supply chain disruptions.
The Kizilelma program represents the pinnacle of this self-sufficiency. By proving that two unmanned jets can fly in close proximity and coordinate their movements without human guidance, Baykar has solved a major hurdle in the quest for fully autonomous warfare. This technical achievement demonstrates that the future of air power will likely be defined by networked, intelligent fleets capable of executing complex missions with precision and speed.
