Lorenzo Giacomelli's Personal Homepage Research Publications Invited Lectures Short CV Teaching First Year's Courses (I) Textbooks (I) Advanced Courses |
Lorenzo Giacomelli
is Full Professor of Mathematical Analysis at the
School of Engineering in Sapienza. At the same school, he has been
Assistant Professor from 1999 to 2005 and Associate Professor from 2005 to 2021.
He graduated in Mathematics
in 1995 (U. Florence) and obtained a PhD in
Mathematics in 2000 (Sapienza). He has taken part in National and
European research projects (PRIN, TMR, RTN, ITN) and
he has coordinated National and local ones (GNAMPA,
Sapienza). He has tought post-graduate courses
at SISSA (Trieste), the University of Bonn, and
Sapienza. He has visited various scientific
institutions, among which IPAM (Los Angeles), PIMS
(Vancouver), BIRS (Banff), MPI-MIS (Leipzig), Fields
Institute (Toronto), and the universities of Valencia,
Bonn, Koln, Warsaw, and California at Berkeley. Lists
of his publications and invited lectures are available
on this site.
He is mainly interested in the mathematical analysis of nonlinear partial differential equations (PDEs), with a focus on the interplay with applications: the collaboration with experts during the development of the model, the analysis of solutions' behavior with respect to questions which naturally stem from the phenomenon described by the model, and the feed-back of the results. In particular, he has been working on (systems of) degenerate parabolic PDEs -arising from fluid dynamics, material science, and image processing- in which presence of multiple scales and/or the evolution of interfaces and singularities play an essential role: "thin-film" type equations, Hele-Shaw flows, Cahn-Hilliard type equations, the Kuramoto-Sivashinsky equation, gradient plasticity theories, 1-harmonic flows on manifolds, flux-saturated diffusion equations, and forward-backward parabolic equations. In these frameworks, his contributions mainly concern well-posedness (existence, uniqueness, non-uniqueness phenomena, regularity of solutions) and qualitative behaviour of solutions (asymptotics, scaling laws, evolution of interfaces and singularities). |