About the Founder

Robavionix comes out of one person’s PhD research, not a committee’s whiteboard session.

From gas turbines to glitching drones

Before fault-tolerant flight control, there was a mechanical engineering degree, then a master’s in thermal power engineering — turbomachinery, blade cooling, gas turbine performance and diagnostics. The path from jet engines to sliding mode control on morphing-wing UAVs wasn’t a straight line, but it left a habit that shows up everywhere in this platform: an engineer’s instinct for building things that have to survive contact with a real, physical, unforgiving system — not just a simulation that behaves.

The PhD that built this curriculum

The research that eventually became L5 is a PhD at a UK university on fault-tolerant flight control for bio-inspired, morphing-wing aircraft — wings that change dihedral and sweep in flight, and the sliding-mode and LPV-based controllers that have to keep the aircraft flying when an actuator fails mid-manoeuvre. That work has been peer-reviewed and presented at several international control-systems conferences. It is the direct, un-textbook-ified source of L5’s LPV-SMC fault-tolerant controller, and of the fault-detection and control-allocation reconfiguration built into it.

Also: several years in a lecture hall

Alongside the PhD came years as a control-engineering and Industry 4.0 teaching assistant — running labs and one-to-one mentoring for 150+ undergraduates a year. That’s where the actual product idea came from, not from a market-research spreadsheet: watching, semester after semester, exactly where students hit the wall between “I can recite the Lyapunov argument” and “I have never once seen a controller actually fail.”

Robavionix exists to close that specific gap — on real hardware, safely, and as many times as it takes.

Questions about the research behind a specific level, or how it maps to your syllabus? Get in touch.