Thermal
Offline benchmark
RGB + thermal late fusion on public Anti-UAV-RGBT sequences.
Public-dataset work, false-alert research, and separate sensor studies supporting the current RGB prototype. Operational performance remains to be established through controlled field trials.
These studies are not part of the live RGB detection path.
Offline benchmark
RGB + thermal late fusion on public Anti-UAV-RGBT sequences.
Research baseline
Baseline experiments on public audio data.
Research baseline
Baseline experiments on public radar datasets.
Separate prototype
Remote ID edge agent, kept separate from the RGB path.
Research
RGB + thermal late fusion has an offline result. Wider fusion is still in the research program.
Public Anti-UAV-RGBT sequence. This is an offline experiment, not a deployed capability.
Five layers are how the research approaches false alarms. Temporal persistence and human review run in the current prototype. Hard-negative mining, cross-modal confirmation, and contextual rules are the next experiments.
01
Planned
Mine difficult non-drone backgrounds — birds, aircraft, insects, clouds, wires, and site clutter — and test the detector against the scenes that cause false alerts.
02
In the prototype
An alert requires the target to persist across frames, instead of firing on a single detection.
03
Planned
Check whether a second, independent sensor cue agrees before an alert is kept, without giving up detection rate.
04
Planned
Score a track against motion and scene rules: speed, apparent size, and whether the path is physically plausible.
05
In the prototype
The review portal gives a person states to confirm, dismiss, or hold an alert, so workload can be counted in review minutes per shift.
The program moves from public-dataset baselines, to a Canadian field dataset, to a comparison of sensor combinations on the same operational metrics.
Phase 1
Establish honest per-sensor detection rates, false alarms per hour, and operational metrics on public datasets currently used in this repository (Anti-UAV, DroneRF, MMAUD).
Phase 2
Collect site-specific data: drones, birds, FPV targets, day/night/rain/snow, urban and industrial backgrounds, with certified pilots and privacy controls.
Phase 3
Compare sensor combinations at a fixed 90% detection rate. Measure false alarms per hour, first-alert time, track continuity, and annualized cost per coverage area.
Three public datasets anchor the baselines: Anti-UAV for RGB and thermal video, MMAUD for synchronized multimodal recordings, and DroneRF for RF classification.
RGB-T fusion baseline
318 RGB-thermal video pairs with bounding-box ground truth across diverse scenes including buildings, clouds, day/night conditions.
Multimodal fusion validation
Time-synchronized stereo cameras, mmWave radar, 4-node audio array, and 3D LiDARs — purpose-built for multimodal anti-UAV research.
RF sensing baseline
RF recordings from three drone models in multiple flight modes with background RF baselines for drone detection and classification.
RF work in the program is sensing and Remote ID reception. Test setups are planned against Innovation, Science and Economic Development Canada requirements for the spectrum in use.
Controlled flight testing will be planned under the applicable Canadian Aviation Regulations and site/airspace requirements.
Field-validation procedures will minimize unnecessary personal data capture and define retention, access, and deletion rules before deployment.
The research is being prepared for Canadian CUAS experimentation opportunities, including the 2027 IDEaS Urban Sandbox.
Interested in discussing a controlled RGB field test?
Discuss Field Validation