Riccardo Scala
University of Lisbon
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Publication
Featured researches published by Riccardo Scala.
Journal of Nonlinear Science | 2017
Elisabetta Rocca; Riccardo Scala
In this paper, we study the rigorous sharp interface limit of a diffuse interface model related to the dynamics of tumor growth, when a parameter
Journal of Nonlinear Science | 2018
Riccardo Scala; Nicolas Van Goethem
Methods and applications of analysis | 2016
Riccardo Scala; Nicolas Van Goethem
\varepsilon
Archive | 2014
Riccardo Scala; Nicolas Van Goethem
European Journal of Applied Mathematics | 2017
Riccardo Scala; Giulio Schimperna
ε, representing the interface thickness between the tumorous and non-tumorous cells, tends to zero. More in particular, we analyze here a gradient-flow-type model arising from a modification of the recently introduced model for tumor growth dynamics in Hawkins-Daruud et al. (Int J Numer Math Biomed Eng 28:3–24, 2011) (cf. also Hilhorst et al. Math Models Methods Appl Sci 25:1011–1043, 2015). Exploiting the techniques related to both gradient flows and gamma convergence, we recover a condition on the interface
arXiv: Analysis of PDEs | 2016
Riccardo Scala; Giulio Schimperna
Weierstrass Institute for Applied Analysis and Stochastics: Preprint 2094 | 2015
Elena Bonetti; Elisabetta Rocca; Giulio Schimperna; Riccardo Scala
\Gamma
Nonlinear Analysis-real World Applications | 2017
Matteo Negri; Riccardo Scala
Mathematics and Mechanics of Complex Systems | 2016
Riccardo Scala; Nicolas Van Goethem
Γ relating the chemical and double-well potentials, the mean curvature, and the normal velocity.
Archive | 2015
Riccardo Scala; Nicolas Van Goethem
In this paper, we provide an existence result for the energetic evolution of a set of dislocation lines in a three-dimensional single crystal. The variational problem consists of a polyconvex stored elastic energy plus a dislocation energy and some higher-order terms. The dislocations are modeled by means of integral one-currents. Moreover, we discuss a novel dissipation structure for such currents, namely the flat distance, that will serve to drive the evolution of the dislocation clusters.