About the project
This project investigates bio-inspired fluid-structure interactions to improve wing resilience under unsteady conditions. By studying how insects adapt to dynamic environments, such as turbulence and surface interactions, we aim to develop innovative strategies for enhancing wing performance. The goal is to apply these insights to advanced, adaptive flight systems.
Are you passionate about aerodynamics and ready to break away from conventional airfoils and steady streamlines? Join us in exploring the world of unsteady, vortex-dominated flows, leveraging some of the best experimental facilities in the UK at the University of Southampton (UoS).
We offer two exciting projects inspired by the remarkable abilities of natural fliers like insects. The first project focuses on gust/ turbulence interactions with flapping wings, while the second explores surface locomotion, as seen in the water-treading motion of honeybee wings. Both areas hold significant potential for expanding the design and mission profiles of unmanned aerial/ hybrid vehicles. Using a custom-built robotic insect-like flapper built at UoS, you’ll investigate the complex fluid-structure interactions under diverse unsteady conditions, advancing the future of adaptive, resilient flight technologies.
We’re looking for motivated candidates with a background or strong interest in aerodynamics, control, experimentation, and data analysis. Skills in imaging techniques are a plus. Through this project, you’ll gain hands-on experience in motion control, unsteady fluid dynamics, experimentation, image/ signal processing, and more. You’ll also develop your skills in scientific writing, presentation, and planning, gaining international exposure along the way. Our extensive workshops will offer training in general manufacturing skills.
You’ll be joining a close-knit cohort of PhD students and postdocs within the larger Experimental Fluids Group at UoS who will support and enrich your journey, expanding your professional network and skillset in a collaborative, high-impact research environment.
