Ernani Volpe
University of São Paulo
18 Papers
217 Citations
Ernani Volpe is an academic researcher from University of São Paulo. The author has contributed to research in topics: Boundary value problem & Adjoint equation. The author has an hindex of 6, co-authored 16 publications.
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Papers
Maximum entropy pdfs and the moment problem under near-Gaussian conditions
Ernani Volpe,D. Baganoff +1 more
TL;DR: In this paper, a class of continuous probability density functions (pdfs) that are generated by the maximum entropy method (mem) are discussed and a method for obtaining approximate solutions to the moment problem associated with this class of pdfs is presented.
30
Robust approaches for inverse problems based on Tsallis and Kaniadakis generalised statistics
Sérgio Luiz E. F. da Silva,Gustavo Zampier dos Santos Lima,Ernani Volpe,João M. de Araújo,Gilberto Corso +4 more
TL;DR: In this paper, the inverse problem theory was applied to solve the data-inversion problem based on the Boltzmann-Gibbs statistical mechanics by considering that the errors are Gaussian-like.
17
Characteristics‐based boundary conditions for the Euler adjoint problem
Abstract: Over the last decade, the adjoint method has been consolidated as one of the most versatile and successful tools for aerodynamic design. It has become a research area on its own, spawning a large variety of applications and a prolific literature. Yet, some relevant aspects of the method remain relatively less explored in the literature. Such is the case with the adjoint boundary problem. In particular for Euler flows, both fluid dynamic and adjoint equations entail complementary Riemann problems, and these yield boundary conditions that are fully consistent with well‐posedness. In the literature, this approach has been pursued solely in terms of Riemann variables. This work formulates the adjoint boundary problem so as to correspond precisely to that imposed on the flow, as it is given in terms of primitive variables. Test results have shown to be in agreement with the traditional approach for external flow problems. Copyright © 2012 John Wiley & Sons, Ltd.