A planned single perimeter mast designed to watch every corner of the sky with four independent sensor phenomenologies. The engineering goal: no drone class, no fibre-optic FPV, and no RF-silent threat slips through. Under active development.
Design goal: detect RF-linked drones — DJI, Autel, ELRS, encrypted hoppers — as the primary detection layer. Performance subject to evaluation.
Design goal: track drones with a radar cross-section independent of RF emissions. Intended as the layer that handles jammed / RF-silent threats.
Design goal: optical + thermal visual PID as the layer intended to defeat fibre-optic FPVs by seeing them directly.
Design goal: detect small quiet quadcopters in urban clutter where RF and radar struggle — the last-metre layer.
Every value in this table is a design target. No standards conformance or certification has yet been obtained.
| Enclosure | IP66 TARGET · POWDER-COATED AL |
| Standards | MIL-STD-810H / 461G TARGET · NOT YET TESTED |
| Operating temperature | –20 °C to +55 °C DESIGN TARGET |
| Power | PoE++ 90 W TARGET |
| Communications | SFP+ fibre TARGET · CANDIDATE |
| Time synchronisation | IEEE 1588 PTPv2 TARGET |
| Mast | 6 m Al / CFRP TARGET |
| Edge compute | NVIDIA Jetson-class TARGET · CANDIDATE |
| Cyber | UAE NESA / IEC 62443-4-2 TARGET · NOT YET CERTIFIED |
No RF link? The EO/IR and acoustic layers are being designed to see the drone directly. Target optical PID: 5 km.
No protocol match? The radar and optical layers are being designed to track frequency-agnostically.
Each mast is intended to track multiple targets simultaneously; the RASAD network will share the picture in real time via HARAS.
RASAD is being designed to report encrypted tracks over mTLS to any RADI HARAS appliance. The planned Open C-UAS API will allow each RASAD to cue into third-party C2 systems — with no vendor lock-in. Specific third-party integrations named on partner sites are targets pending signed agreements.




