activity
20202026
most citedA sharp interface approach for wetting dynamics of coated droplets and soft particles

9 citations · 19 across the 16 of their papers we have counts for

collaborators

20 papers

physics.flu-dyn2026

On the hydrodynamic behaviour of the immersed boundary -- lattice Boltzmann method for wetting problems

Elisa Bellantoni, Fabio Guglietta, Andreas Demou +6

We study the hydrodynamic behaviour of a mesoscale numerical model for wetting dynamics based on the immersed boundary - lattice Boltzmann (IBLB) method. This IBLB model features a…

physics.plasm-ph2026

A numerical study on plasma acceleration processes with ion dynamics at the sub-nanosecond timescale

G. Parise, A. Cianchi, M. Galletti +5

Plasma wakefield acceleration is a groundbreaking technique for accelerating particles, capable of sustaining gigavolt-per-meter accelerating fields. Understanding the physical mec…

physics.plasm-ph2025

Thermal wakefield structure in plasma acceleration processes: insights from fluid models and PIC simulations

Daniele Simeoni, Andrea Renato Rossi, Gianmarco Parise +2

We focus on the process of plasma acceleration in the presence of non-negligible thermal effects, wherein a driver of relativistic electrons perturbs a warm neutral plasma and gene…

physics.flu-dyn2025

A reduced model for droplet dynamics with interfacial viscosity

Fabio Guglietta, Diego Taglienti, Mauro Sbragaglia

We propose an extension of the phenomenological Maffettone-Minale (MM) model (P.L. Maffettone and M. Minale, J. Non-Newton. Fluid Mech. 78, 227-241 (1998)) to describe the time-dep…

physics.plasm-ph2025

A note on thermal effects in non-linear models for plasma-based acceleration

D. Simeoni, G. Parise, A. R. Rossi +3

We investigate the impact of a non-negligible background temperature on relativistic plasma wake-fields generated when a beam of charged particles passes through a neutral plasma a…

physics.flu-dyn2025

Lagrangian analysis of turbulent blood flow in the human left heart

Fabio Guglietta, Martino Andrea Scarpolini, Francesco Viola +1

We present a Lagrangian analysis of turbulent blood flow in the human left heart using high-fidelity simulations based on a patient-specific anatomical model. Leveraging a fully co…