Research

My research interests combine the development and analysis of mathematical models and of the ensuing numerical methods for the simulation of natural phenomena. I consider my work to be at the interface between applied mathematics and applications, and my personal aspiration is to contribute with my expertise to the solution of problems with social and environmental impacts.

Overview of research themes
An overview of my research themes and philosophy

Numerical methods for PDEs on surfaces

Development of numerical methods adapted to the geometry for scalar-, vector- and tensor-valued PDEs on surfaces (intrinsic finite volumes, Discontinuous Galerkin, surface finite element, high-order virtual element methods), on both stationary and evolving surfaces.

Main collaborators: M.W. Farthing, G. Manzini, S. Praetorius, M. Putti, A. Reusken, G. Scovazzi, A. Voigt

Related projects: FOR3013: Vector and Tensor Valued Surface PDEs (DFG, PI A. Voigt), UniPD-SID-2016 - Approximation and discretization of PDEs on Manifolds for Environmental Modeling (PI M. Putti)

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From surface geometry to physical response

Modeling, simulation, and inverse design: two-phase fluid deformable surfaces and multicomponent lipid vesicles, studying the interplay between surface geometry, phase coarsening and hydrodynamics; direct and inverse problems for transport on surfaces.

Main collaborators: D. Grazioli, V. Krause, A. Larese, I. Nitschke, A. Simone, A. Voigt

Related projects: BLUE-HEAT: The Geometric Blueprint of Thermal Transport for Energy Innovation (PI E. Bachini), FOR3013: Vector and Tensor Valued Surface PDEs (DFG, PI A. Voigt)

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Intrinsic Shallow Water Equations

Modeling and development of numerical methods to solve the Intrinsic Shallow Water Equations (ISWE) on fixed and moving surfaces: finite volumes with Eulerian and Lagrangian-Eulerian approaches, discontinuous Galerkin schemes, continuous Galerkin with entropy-viscosity stabilization, including wetting-and-drying transitions and variable topography.


Coupled models & hydrological networks

Formulation and numerical solution of geometrically intrinsic models for coupled surface-subsurface hydrological applications; modeling of flow and transport in porous media with strong anisotropy; dynamics of river networks.

Main collaborators: G. Botter, M. Camporese, N. Durighetto, M. Ghinassi, A. Larese, M. Putti

Related projects: Metodi numerici integrati per la simulazione e la prevenzione del dissesto idrogeologico (INdAM-GNCS 2026), RETURN - multi-Risk sciEnce for resilienT commUnities undeR a changiNg climate (PNRR, Next-Generation EU), HYDROSEM - Fluvial and tidal meanders of the Venetian-Po plain (CARIPARO, PI M. Ghinassi)

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