Flight dynamics and air vehicles
Flight mechanics and aerial robotics at BAC advance the autonomy, dynamics and physical capabilities of next-generation aerial systems. By integrating advanced control theory, nonlinear flight dynamics, bioinspiration and physical interaction, we push the boundaries of unmanned and autonomous flight.
Why it matters
The technology boom and advances in AI are fundamentally redefining how we interact with our skies. BAC is at the forefront of these emerging technologies, exploring new capabilities in flight dynamics and unmanned aviation.
Ultimately, we aim to design next-generation autonomous air vehicles that will reshape multiple fields from smarter conservation, rapid humanitarian response and eco-friendly aviation.
What this theme focuses on
Our research brings together foundational aerospace and aerial robotics technology across several topics:
- Advanced flight control and autonomy: Developing high-level decision-making architectures, robust flight control and swarm intelligence for coordinated unmanned air vehicles (UAVs).
- Airborne Wind Energy: Development of improved control techniques to exploit the constrained flight dynamics features of AWE systems aimed at maximising their power generation efficiency.
- Nonlinear flight dynamics: Utilising bifurcation analysis, numerical modelling and multi-degree-of-freedom wind tunnel testing to understand and predict complex, nonlinear aerodynamic behaviours.
- Bioinspired flight and fluid interactions: Investigating how birds and insects navigate complex environmental flows to design small-scale UAVs with bio-inspired sensing, morphing wings and advanced turbulence-resilience aircraft.
- Physical robotics and environmental sensing: Integrating perception, energy-harvesting hardware and physical design to engineer autonomous aerial systems capable of contact-based manufacturing and rugged environmental sensing.
Example project
WildDrone
WildDrone is an international training network. The project enables doctoral students to gain the skills needed to use drones as a conservation tool for endangered African wildlife. By working across Europe and Africa, we aim to enhance wildlife conservation efforts by using autonomous drone technology to monitor wildlife populations.
Experts working in this area
- Professor Tom Richardson
- Dr Steve Bullock
- Professor Steve Burrow
- Dr Bahadir Kocer
- Professor Mark Lowenberg
- Dr Duc Nguyen
- Dr Shane Windsor
Frequently asked questions
Can BAC help me design unmanned flight vehicles?
Absolutely. The flight laboratory and associated offices are where we design, build, and bench test a variety of flying vehicles. The lab is fully equipped for drone development and assembly, including electronics development and integration, and is complemented by the extensive workshop facilities hosted by the Faculty of Science and Engineering.
What testing facilities are available?
Fenswood Farm is a 62-hectare research facility located 15 minutes' drive from the main campus. The farm has a large airspace for field testing drones, and a dedicated field robotics lab shared with the School of Physics. For more controlled testing, the Bristol Robotics Laboratory is the most comprehensive academic centre for multidisciplinary robotics research in the UK. It has one of the largest flight arenas, fully equipped with Vicon cameras to support the development and flight testing of control systems for agile vehicles and precision aerial manipulation.
Can BAC work with external partners?
Yes. We collaborate with industry, government and academic partners on all forms of design, flight testing and measurement.