From current capability to the platforms we're building next.
End-to-end design and build of UAS platforms tailored to operational requirements. Our focus is hostile-environment performance and mission-critical reliability — systems that keep working when GPS, comms, or conditions in the field do not cooperate.
Conventional tactical drones are expensive to risk and vulnerable to electronic warfare — jamming and spoofing. Our architecture is built to address both.
Couples a 60GHz FMCW radar chip with an STM32 MCU, correcting IMU drift by calculating speed and altitude from ground reflections — no satellite link required.
Electronics are sourced exclusively from allied nations (NATO, Taiwan, Japan), avoiding espionage risk and vetoed hardware.
| Module / Component | Operational Specification |
|---|---|
| Core MCU | Calculates velocity, acceleration, and inclination via IMU, and altitude via barometer. |
| Comms | 2.4GHz RX (control) and 5.8GHz VTX (video), enabling FPV operation beyond direct line of sight. |
| Modular Sensors | Interchangeable slots for Doppler radar and LiDAR, covering topography and obstacle detection. |
| Power Management | LDO + buck converter, with GPIO-controlled load switches to cut LiDAR power mid-flight and conserve battery. |
| Drive System | Dual ESC using 12 N-channel MOSFETs / gate drivers for dual motors and servo control. |
Drone-based airborne surveys — magnetometry, LiDAR, gamma-ray spectrometry — processed with machine learning for terrain analysis and threat assessment.
Full-cycle airborne data collection and reporting for defence and civil protection clients, from flight planning through delivered analysis.
Tell us what you need the platform to do, and we'll tell you what's achievable.