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Cesar S. Lopez-Monsalvo

Researcher at Universidad Autónoma Metropolitana

Publications -  53
Citations -  537

Cesar S. Lopez-Monsalvo is an academic researcher from Universidad Autónoma Metropolitana. The author has contributed to research in topics: Geometrothermodynamics & Legendre polynomials. The author has an hindex of 12, co-authored 50 publications receiving 474 citations. Previous affiliations of Cesar S. Lopez-Monsalvo include University of Southampton & National Autonomous University of Mexico.

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Contact symmetries and Hamiltonian thermodynamics

TL;DR: In this paper, the role of gauge transformations and Legendre symmetries for metric contact manifolds and their significance in thermodynamics is investigated. And the authors use contact Hamiltonian dynamics to represent thermodynamic processes in a way that resembles the classical Hamiltonian formulation of conservative mechanics.
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Thermal dynamics in general relativity

TL;DR: In this paper, a relativistic model for heat conduction is proposed, based on a convective variational approach to multi-fluid systems where the entropy is treated as a distinct dynamical entity.
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The conformal metric structure of Geometrothermodynamics

TL;DR: In this article, a thorough analysis on the invariance of the most widely used metrics in the Geometrothermodynamics program is presented, focusing on the curvature of the space of equilibrium states under a change of fundamental representation.
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A consistent first-order model for relativistic heat flow

TL;DR: In this paper, the authors revisited the problem of heat conduction in relativistic fluids, associated with issues concerning both stability and causality, and provided an analysis of the dynamics of the system, obtaining the conditions that must be satisfied in order to avoid instabilities and acausal signal propagation.
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Para-Sasakian geometry in thermodynamic fluctuation theory

TL;DR: In this paper, the authors tie concepts derived from statistical mechanics, information theory and contact Riemannian geometry within a single consistent formalism for thermodynamic fluctuation theory, and derive the concrete relations characterizing the geometry of the thermodynamic phase space stemming from the relative entropy and the Fisher-Rao information matrix.