CAESAR
Combat aircraft engagement and strategic AI response
- Period
- Mar 2024 – Mar 2026
- Affiliation
- Defence R&D Organisation (DRDO) — collaboration
- Electronic warfare
- Sensor fusion
- Real-time ML
A collaboration with the Defence R&D Organisation on the machine-learning side of electronic support measures. What follows is the requirement set the work was scoped against; the implementation is not described here.
Operational requirements
Two broad requirements drive everything else:
- Detect enemy radars as early as possible.
- Deny them a detection — jam them, or otherwise avoid being seen.
Derived requirements
The broad pair decomposes into a chain, each stage feeding the next:
- Detection of radar pulses out of a noisy mixed-signal environment.
- Clustering of those pulses, separating interleaved sources.
- Track generation, deriving further parameters from each cluster.
- Classification of the radar behind each track.
- Localisation of that radar, accurately enough to act on.
- Jamming, by noise or deception, once a threat is identified.
Engineering constraints
- Real time. The pipeline runs on an embedded system under an RTOS — a correct answer that arrives late is a wrong answer.
- SWaP. Size, weight and power are fixed by the airframe, which bounds how much computation the models may ask for.
- Certification. Airborne software follows DO-178C, so the design has to stay auditable rather than merely accurate.
Workstreams
- Signal clustering over emitters
- Emitter classification
- Multi-sensor data fusion (MSDF)
- Target detection and tracking
- Voice analysis
- A pilot-facing dashboard presenting the fused picture