Marco Berardi

Dr. Marco Berardi

CNR (Italian National Research Council), IRSA (Water Research Institute), Rome, Italy
orcid

Research Focus & Metrics

Academic Career Length

15Years (2012-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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10 December 2024 in Computer Methods in Applied Mechanics and Engineering
Verified
Journal Article
Open access
MBMarco Berardi
Marco Berardi
FDFabio V. Difonzo
Fabio V. Difonzo
MIMatteo Icardi
Matteo Icardi

1 April 2020 in Computers & Mathematics with Applications
Verified
Journal Article
Closed access
MBMarco Berardi
Marco Berardi
FDFabio Vito Difonzo
Fabio Vito Difonzo
LLLuciano Lopez
Luciano Lopez

1 May 2018 in Advances in Water Resources
Verified
Journal Article
Closed access
MBMarco Berardi
Marco Berardi
FDFabio Vito Difonzo
Fabio Vito Difonzo
MVMichele Vurro
Michele Vurro
LLLuciano Lopez
Luciano Lopez

1 January 2019 in Applied Numerical Mathematics
Verified
Journal Article
Closed access
MBMarco Berardi
Marco Berardi
FDFabio Vito Difonzo
Fabio Vito Difonzo
FNFilippo Notarnicola
Filippo Notarnicola
MVMichele Vurro
Michele Vurro

1 January 2022 in Journal of Computational Dynamics
Verified
Journal Article
Closed access
PDF file
MBMarco Berardi
Marco Berardi
FDFabio Vito Difonzo
Fabio Vito Difonzo
In this work we propose a new numerical scheme for solving Richards' equation within Gardner's framework and accomplishing mass conservation. In order to do so, we resort to Kirchhoff transformation of Richards' equation in mixed form, so to exploit specific Gardner model features, obtaining a linear second order partial differential equation. Then, leveraging the mass balance condition, we integrate both sides of the equation over a generic grid cell and discretize integrals using trapezoidal rule. This approach provides a linear non-homogeneous initial value problem with respect to the Kirchhoff transform variable, whose solution yields the sought numerical scheme. Such a scheme is proven to be \begin{document}$ l^{2} $\end{document}-stable and convergent to the exact solution under suitably conditions on step-sizes, retaining the order of convergence from the underlying quadrature formula.

1 November 2016 in Computer Physics Communications
Verified
Journal Article
Closed access
MBMarco Berardi
Marco Berardi
AAAndrea Andrisani
Andrea Andrisani
LLLuciano Lopez
Luciano Lopez
MVMichele Vurro
Michele Vurro