Dario Maggiolo
Dario Maggiolo is a researcher at the Division of Fluid Dynamics. His research focuses on the understanding of fluid-dynamic phenomena by means of numerical modeling, in particular, via the Lattice-Boltzmann method. Scientific areas of expertise comprise multiphase flows in porous media, reactive flows, phase change phenomena and fluid-microstructure interactions in multiphase systems. In 2019, he has been awarded the Marie Skłodowska-Curie Individual Fellowship 2019 with the project HyPoStruct.
Showing 12 publications
Particle based method and X-ray computed tomography for pore-scale flow characterization in VRFB electrodes
Laser-induced vapour bubble as a means for crystal nucleation in supersaturated solutions - Formulation of a numerical framework
Self-cleaning compact heat exchangers: The role of two-phase flow patterns in design and optimization
A novel multiphase DNS method for the resolution of Brownian motion in a weakly rarefied gas using a continuum framework
Pore trapping mechanisms in two-phase flows through fuel cells porous media
Numerical simulation of a laser-induced vapour bubble for crystal nucleation at low supersaturation levels
Self‐Cleaning Surfaces for Heat Recovery During Industrial Hydrocarbon‐Rich Gas Cooling: An Experimental and Numerical Study
Two-phase flow patterns and condensation on wetted surfaces for innovative self-cleaning heat exchangers: experiments and numerics
Detailed simulations of heterogeneous reactions in porous media using the Lattice Boltzmann Method
Finely resolved numerical simulations of reactive flow in porous media
Characterization of fluid-mechanic efficiency of porous electrodes using X-ray computed tomography and Lattice-Boltzmann simulations
Flow and dispersion in anisotropic porous media: A lattice-Boltzmann study
Showing 4 research projects
Water Management in Anion Exchange Membrane Fuel Cells
Interaction between micro and macro processes in battery-powered vehicles
HYPOSTRUCT: A key breakthrough in hydrogen fuel cells: enhancing macroscopic mass transport properties by tailoring the porous microstructure
Coated heat exchangers as self-cleaning producer gas condensers