Drone
The airframe and actuation layer — the physical interface to the world.
Building India's indigenous indoor robotics platform — engineering the autonomy that begins exactly where satellite navigation ends.
Validating perception, SLAM, and mission planning entirely inside simulated GPS-denied environments.
NIDAR AirMouse — the first public proof that the stack survives an unknown, real environment.
Opening the autonomy stack to research partners across academia and industry.
Productizing the platform for search and rescue, inspection, and mapping.
Coordinated multi-agent autonomy operating without any external positioning signal.
An indigenous robotics platform, deployed wherever the map runs out.
The airframe and actuation layer — the physical interface to the world.
Stereo and depth sensing that replaces GPS as the primary reference.
Simultaneous localization and mapping, built in real time with no prior map.
Continuous position estimation inside an unmapped, GPS-denied space.
Path planning and obstacle avoidance through unknown terrain.
Autonomous task sequencing from takeoff to reported exit.
Identifying and tagging points of interest inside the environment.
Mission telemetry and reporting, back to the human operator.
The current objective: a complete, repeatable NIDAR simulation run — mapped, navigated, and reported end to end.
Hover a stage for detail.
Core pipeline validated in Gazebo and RViz.
Hardware integration and first physical test flights.
Public demonstration at the NIDAR AirMouse Competition.
Seed round to scale the engineering team.
Indigenous flight controller and sensor integration.
Opening the platform to academic and industry partners.
First deployment of the autonomy platform beyond the lab.
This is not a sponsorship ask. It's a partnership in indigenous autonomy research.