UAV/Drone engineering
Design across structure, propulsion, energy and aerodynamics without losing the relationships between them.
Introduction
UAV design requires decisions across multiple connected physical systems. Structural weight affects performance, propulsion influences energy demand, thermal conditions affect battery behaviour, and aerodynamics shapes overall efficiency.
eigenspacedesign brings these engineering considerations into a connected simulation environment, allowing teams to evaluate designs across interacting physics rather than treating each subsystem in isolation.
Engineering capabilities
Topology Optimisation
Create lightweight structural concepts while maintaining stiffness, load paths and practical manufacturing constraints.
Electromagnetic
Evaluate motor torque, efficiency, flux linkage and electromagnetic behaviour across propulsion systems.
Thermal & Battery
Evaluate energy, thermal behaviour, performance and operating conditions across the battery system.
CFD
Analyse aerodynamic behaviour, pressure distribution, flow performance and related design effects.
Engineering challenge
Explore design alternatives while balancing structural performance, propulsion, energy, thermal behaviour and aerodynamics.
One engineering foundation. Many industries
The same PhysicsAI-driven platform can extend beyond UAV and aerospace to solve increasingly complex engineering challenges.
Automotive
Optimise vehicle structures, thermal systems and aerodynamics through connected simulation.
Electric Mobility
Design better batteries and electric systems through physics-based simulation and exploration.
Additive Manufacturing
Create lightweight, manufacturable designs through topology optimisation and simulation.
Future Domains
Extend physics-driven engineering to new systems, industries and design challenges.