Our principal research areas in computational physics, fluid mechanics, and energy systems.
We investigate the physical principles underlying biological flows and nature-inspired architectures, including transport through complex porous geometries.
The research also addresses bio-physical flows and the transport properties of complex biological geometries.
Multiscale simulation of complex flows with the Lattice Boltzmann Method, including multiphase, multicomponent and reacting flows, alongside high-performance computing applications.
Our original research portfolio includes multiphase flows, multicomponent and reacting flows, and high-performance numerical modeling of complex systems.
Numerical and experimental studies of the dynamics of moving or deformable structures interacting with fluids, including water-entry and hull-slamming phenomena.
Experimental research includes hull slamming, water-entry phenomena and the response of solid bodies interacting with liquid flows.
Analysis and modeling of fluid machinery and energy conversion systems, including fuel cells, microbial fuel cells, fluid transport, heat and mass transfer, multiphase flows and other energy technologies.
Modeling of flow-related biological phenomena and hemodynamics, as featured in the original research portfolio.
This line includes numerical studies of hemodynamics and fluid transport involving biological structures.
