Sees what air defense cannot
Long-wave radars treat plastic and composite airframes as transparent. W-band millimetre waves reflect off them, resolving the smallest UAVs at extreme low altitude.
Distributed air defense · Counter-UAS
A continuous radar field over infrastructure that already exists.
TRIADX develops millimetre-wave sensing, ultra-precise rotary platforms and the algorithmic layer that fuses them into a networked response to low-flying unmanned threats.
- 77–80 GHz
- W-band millimetre sensing
- ≤ 1 000 m
- Target range per node
- ±0.005°
- Rotary platform accuracy
- 4–8 ms
- Control loop latency
Thesis
Cheap plastic aircraft broke the economics of air defense.
Million-dollar interceptors cannot answer mass-produced drones. Our answer is detection-first, distributed and priced against the threat.
Elevation solves geometry
Ground radars are bounded by relief and earth curvature. Sensors lifted to 30–50 m on existing towers expand the field of view exponentially and erase low-altitude blind spots.
Infrastructure already built
Cellular base stations supply the mast, the fibre backhaul and uninterruptible power. Zero field communications deployment — a continuous radar field over existing footprint.
Sensor node
ROS_RADAR_CV
A compact 4D W-band radar that works where optics degrade — night, dust, fog and difficult lighting. More than a sensor: a controlled stack with operator GUI, replay, structured evidence and PTZ cueing.
- Band
- W-band, 77–80 GHz
- Output
- 4D point cloud — x/y/z, radial velocity, RCS, motion flag
- Stack
- ROS2 — PointCloud2, TargetState, live & replay
- Evidence
- Structured logs, .det recordings, backend target truth
- Cueing
- PTZ slaving through a dedicated driver
Actuation
DPP-15 rotary platform
A dual-axis platform precise enough to slave directly to radar coordinates. Open architecture allows fully autonomous target tracking, bypassing human reaction time.
- Precision
- ±0.005° — under 25 arc seconds, backlash-free gearboxes
- Speed
- Up to 180°/sec on both axes, jerk-free acceleration
- Payload
- 15 kg — optics, laser or small arms. Unit mass ~12 kg
- Latency
- 4–8 ms control latency over Modbus TCP / Ethernet
Algorithmic unity
Isolated sensors fused into one unbroken track.
A finite state machine predicts trajectory and hands the target from tower to tower over fibre, holding the lock across the whole network.
- 01
Threat
Low-flying UAV follows the terrain contour.
- 02
Detection
Tower radar registers the composite target and builds a 4D profile.
- 03
Transfer
Track data moves over existing fibre with no perceptible delay.
- 04
Control
An FSM fuses the tracks and aims the rotary platform autonomously.
- 05
Neutralisation
The matching echelon engages and destroys the target.
Layered response
Four echelons, one field.
Echelon IUp to 30 km
Autonomous interceptor swarms
AI-driven groups with independent target identification. One operator commands the whole swarm through swarm logic.
Echelon IIUp to 10 km
High-speed FPV interceptors
Anti-aircraft FPV platforms capable of autonomous engagement or operator-controlled kinetic strikes.
Echelon III500 m – 3 km
Automated kinetic turrets
Operating without human intervention on the unified radar field and the precision of the 2D rotary platforms.
Echelon IV100 – 500 m
Stationary laser neutralisation
The final perimeter — burning out optical sensors or structural joints of drones that breach critical zones.
A single continuous sensor field commands and coordinates all four echelons simultaneously — thousands of dollars per engagement instead of millions per shot.
Deployment
Proven hardware. Zero-cycle infrastructure.
No new towers, no new cable. Start with a single pilot node — radar, PTZ, Jetson and operator GUI — measured on false alarms per hour, detection continuity, target-to-camera latency and reacquisition after loss.