The Problem: Thermal Inertia
Existing thermal beacons rely on passive cooling. Once the heating element is activated, it remains hot for hundreds of milliseconds. This "thermal tail" causes a blurred signal (ghosting) that prevents high-frequency pulsing.
- AI Confusion: Modules fail to distinguish beacons from environmental hotspots (e.g., fires).
- No Swarm ID: Multi-target identification becomes impossible without distinct temporal patterns.
- Poor Covertness: The beacon remains a persistent thermal target for longer than necessary.
The Innovation: Active Quench
PHOENIX-IR integrates a zero-mass Film heater directly interlinked with a high-power Cooler and a high-static-pressure heatsink.
Tactical & Industrial Operations
Core scenarios utilizing High-Frequency Temporal Signatures
Covert "Friend-or-Foe" (IFF) for AI Drones
The Problem Standard strobes are visible to NIR. Constant heat looks like environmental noise.
The Solution Pulsing at specific frequencies (e.g. 15Hz) in the LWIR spectrum.
Application Drone AI ignores static heat, locking onto the 15Hz pixel group for covert identification.
Optical Wireless Comms (OWC)
The Problem Standard IR LEDs are easily blocked by fog or smoke in RF-Denied areas.
The Solution LWIR penetrates smoke and haze much better than visible light.
Application High-speed Peltier-quenched cooling allows for "Thermal Morse Code" telemetry transfer.
Precision Landing for Autonomous Systems
The Problem Visible light beacons are blinded by smoke reflection during emergencies.
The Solution LWIR beacons cut directly through absolute darkness and smoke.
Application AI uses Temporal Signature timing to accurately calculate distance and approach angle.
Search & Rescue in "Cluttered" Environments
The Problem Human body signatures (37°C) are lost against warm backgrounds like forest fires.
The Solution Beacon instantly spikes to 200°C and drops to 20°C.
Application AI performs "Temporal Filtering," deleting static fire from the image to isolate the beacon.
Tactical Decoy Systems
The Problem Heat-seeking sensors track the specific "shimmer" of vehicle engines.
The Solution Using Peltier+Heater to accurately simulate engine Thermal Modulation.
Application Rapid temperature cycling tricks AI seekers into tracking the decoy instead of the real target.
Covert Marking for Augmented Reality
The Problem Marking restricted paths invisibly in high-security facilities.
The Solution Fast-pulsing thermal markers undetectable by naked eye.
Application Thermal AR goggles translate the specific pulse into glowing digital icons overlaid on real vision.
Advanced Institutional Use Cases
Expanding capabilities into domains passive heaters cannot address, aligned directly with EU funding targets.
Data Generation for AI Training
Dataset Ground Truth
AI struggles to distinguish drones from static noise in low-res thermal images. The Beacon acts as a "High-Confidence Labeler", emitting a unique frequency code during training to enable auto-labeling of vast video datasets based on perfect reference data.
Swarm ID via Frequency Division
Frequency Division IFF
In a swarm of drones, AI must identify each specific drone to coordinate maneuvers. Each drone carries a Beacon set to a different frequency (10Hz, 12Hz, 14Hz). The C2 maps the swarm in real-time without detectable RF signals.
Signature Simulation of Hypersonic Threats
HGV Simulation Target
Sensor testing against Hypersonic Glide Vehicles (HGV) is extremely expensive. Due to its extreme transition speed (10°C/ms), the Beacon can simulate the thermal fluctuation of a hypersonic warhead on range targets for calibrating new defense systems.
Nav in GPS-Denied Environments
Thermal Visual Odometry
In areas with heavy electronic jamming, drones lose orientation. Beacons placed at known geographic points act as "thermal navigation lighthouses." Drone AI calculates distance and approach angle based on pulse size and frequency.
Thermal Marking for Demining Systems
Tactical Perimeter Area Marking
Robotic mine-clearing systems must delineate "clear" zones in environments filled with smoke or dust. Beacons placed on the ground by the robot create a "glowing" (in LWIR) corridor visible only to the thermal cameras of following vehicles, avoiding the use of physical markers that could be moved or obscured.