Parsa Rezaei

Work · With the Cal Poly Pomona Aerospace Engineering department

Turbine-Powered VTOL Platform

A VTOL airframe driven by twin JetCat P60 micro-turbines instead of electric rotors: over 13 kg of combined thrust and fixed-wing cruise speeds, while keeping multirotor agility for vertical take-off.

JetCat P60SE turbine engine mounted in a polycarbonate test enclosure on the lab bench
JetCat P60SE turbine engine mounted in a polycarbonate test enclosure on the lab bench

The problem

Electric multirotors trade endurance and payload for simplicity. Turbines offer both, but bring kerosene start sequencing, high-temperature structures and fuel-flow control that an electric flight stack has no concept of.

What I did

Integrated twin JetCat P60-SE turbines with a hybrid avionics stack: an ArduPilot VTOL flight controller extended with real-time fuel-flow PID.

Built the structure in high-temperature composites, carbon-fiber and Kevlar with ceramic thermal barriers, to survive exhaust adjacent to load-bearing members.

Sized the aerodynamics with XFOIL and AVL, checked with Ansys Fluent CFD, then validated on a thrust stand rather than trusting the model.

Result

A long-range, high-payload platform suited to rapid aerial mapping, heavy-lift logistics and propulsion research, with on-board data logging for post-flight analysis.

Get in touch
9 figures

From the report

Bench photographs and measured data from the project's own report.

The JetCat P60SE in its polycarbonate test enclosure
Servo actuation added to the engine throttle
Fuel pump plumbed into the engine feed
Fuel valve assembly
The JetCat engine control unit
Ground interface to the engine ECU
Engine throttle percentage against measured RPM
RPM through a full run, logged against time
Final vehicle design carrying four turbines