RuAviation

The growing role of unmanned aerial systems (UAS) in high-intensity warfare has reshaped approaches to tactical operations. Next-generation systems combine reconnaissance, communications, and strike functions, enabling autonomy at the unit level. Roboavia* is developing such system architectures through the use of artificial intelligence (AI) and electronic warfare (EW)-resilient solutions.

The product line includes the “Sarych” reconnaissance UAV, the “Klin” loitering munition (LM), and a unified ground control station (GCS). These components were designed as an integrated system in which autonomous algorithms, communications, and mobile deployment are combined into a single functional complex. This approach reduces preparation time and simplifies operation in field conditions.

Innovative Technologies as the Basis for Superiority

Roboavia’s drones implement autonomous functions at the onboard application level. AI algorithms automatically detect, recognize, and track targets, and adjust flight paths according to wind and terrain conditions. This reduces operator workload and increases resilience to communication disruptions.

The “Klin” LM features several targeting modes. The daylight optical seeker uses an optical head operating in the visible spectrum, with AI responsible for target recognition, automatic tracking, and guidance. The thermal imaging seeker employs an infrared camera for detecting targets in low-visibility environments (smoke, fog, or night).

AI also manages automatic target tracking in this mode. The pre-programmed coordinate mode operates without an optical seeker; engagement is based on preset coordinates (GPS/GLONASS or other navigation systems). This mode offers greater resilience to EW interference. Similar algorithms are used in the “Sarych” UAV for flight stabilization, object tracking, and data relay.

Communication security solutions include covert data transmission resembling background radio noise, along with telemetry encryption. If satellite navigation is lost, the UAVs continue their mission, determining their position through terrain-based navigation.

The unified GCS enables control of all drone types via a single interface. Portable and compact, it can be deployed within minutes. When combined with the “Vector” pneumatic catapult launcher, the system achieves autonomous operation without dependence on runways.

Tactical Applications: From Reconnaissance to Strike

The “Sarych” performs reconnaissance, artillery fire adjustment, situational monitoring, and serves as a relay for signals and video streams from the “Klin” LM to the operator’s GCS. Its endurance exceeds six hours, with an operational ceiling of 16,400 feet (5,000 m) and a communication range of up to 75 miles (120 km). The UAV weighs no more than 31 lbs (14 kg) and can be deployed in about ten minutes.

The “Klin” loitering munition is designed to engage stationary and moving targets. It is available with three guidance options: optical, thermal, and coordinate. The warhead is a cumulative-fragmentation (shaped-charge + fragmentation) type weighing up to 11 lbs (5 kg). The system has a takeoff weight of 30 lbs (13.5 kg), a cruising speed of 67 mph (108 km/h), a dive speed of up to 186 mph (300 km/h), a ceiling of 6,500 feet (2,000 m), and an endurance exceeding 80 minutes.

Combined use of the “Sarych” and “Klin” creates a unified reconnaissance–strike cycle, integrating surveillance, targeting, and engagement in a single operational loop. This reduces the sensor-to-shooter time and minimizes dependence on external communication channels.

Comparison with the ZALA Aero Tandem

The shift from standalone reconnaissance UAVs to tactical “reconnaissance → targeting → strike” linkages has made interaction between systems within a unified architecture a decisive factor — not just the performance of individual aircraft. In this context, Roboavia competes not with a single product, but with proven tandems in which a reconnaissance UAV and a loitering munition operate as a coordinated pair, such as ZALA Aero’s Z-16 reconnaissance UAV and the “Lancet” LM.

In terms of mobility and deployment speed, Roboavia’s and ZALA’s solutions are comparable: both are optimized for rapid tactical-level deployment. Roboavia is building a comprehensive system architecture where the “Sarych” reconnaissance UAV, the “Klin” loitering munition, and the unified control station operate as an interconnected network. This reduces on-site equipment, speeds up commissioning, and enables a common interface for reconnaissance, relay, and strike functions. The entire system is designed for autonomous operation with minimal reliance on external infrastructure.

The ZALA Z-16 + “Lancet” tandem represents a more mature concept, based on serially produced and field-proven systems. The Z-16 performs reconnaissance, surveillance, and targeting, while the “Lancet” provides the strike capability. Its communication link is jam-resistant, and the LM is equipped with counter-EW and counter-air-defense systems, an intelligent navigation and communication module, and onboard AI for object recognition and priority target selection.

The systems are comparable in flight parameters and payload capacity, though the “Klin” offers longer loiter time, theoretically expanding its engagement range. ZALA benefits from established logistics, reliable supply chains, and combat-proven experience. The “Lancet” has the advantage of mass production, ongoing modernization, and multiple available modifications. As a result, Roboavia delivers greater configuration and integration flexibility, while ZALA provides reliable, time-tested combat assets.

In the area of EW resilience, the companies employ different approaches. Roboavia uses image-based terrain correlation and telemetry encryption. The Image-based Correlation / Visual Terrain Matching method determines the aircraft’s position and orientation when satellite navigation is unavailable or unreliable. The UAV compares current terrain imagery with a reference map or preloaded image database and determines its location by matching visual features.

ZALA employs electro-optical guidance and updated communication channels in newer “Lancet” versions. The actual effectiveness of these solutions depends on interference levels and tactical conditions, so objective assessment is only possible through field testing.

The future of tactical drones lies in enhanced autonomy, improved EW resilience, and integration with other robotic systems. By combining advanced algorithms and a universal control station, Roboavia’s system establishes a platform for next-generation intelligence, surveillance, reconnaissance, and strike (ISR) UAS, where decision speed and configuration flexibility will be decisive advantages.

* RoboAvia is a Russian developer and manufacturer of integrated solutions based on unmanned aerial systems (UAS). Its core focus is the creation of versatile unmanned aerial vehicles (UAVs) and the integration of proprietary engineering and software developments. The company positions itself as a provider of reliable, adaptable, and technologically advanced drones for a wide range of applications, supports serial production, and organizes client training. Service centers are located in Moscow, Crimea, and Rostov-on-Don.