An optimally stable approximation of reactive transport using discrete test and infinite trial spaces

Renelt, Lukas; Ohlberger, Mario; Engwer, Christian

Research article in edited proceedings (conference) | Peer reviewed

Abstract

In this contribution we propose an optimally stable ultraweak Petrov-Galerkin variational formulation and subsequent discretization for stationary reactive transport problems. The discretization is exclusively based on the choice of discrete approximate test spaces, while the trial space is a priori infinite dimensional. The solution in the trial space or even only functional evaluations of the solution are obtained in a post-processing step. We detail the theoretical framework and demonstrate its usage in a numerical experiment that is motivated from modeling of catalytic filters.

Details about the publication

EditorsFranck, Emmanuel; Fuhrmann, Jürgen;, Michel-Dansac, Victor; Navoret, Laurent
Book titleFinite Volumes for Complex Applications X—Volume 2, Hyperbolic and Related Problems (Volume 2)
Page range289-298
PublisherSpringer
Place of publicationCham
Title of seriesSpringer Proceedings in Mathematics & Statistics (ISSN: 2194-1017)
StatusPublished
Release year2023 (13/10/2023)
Language in which the publication is writtenEnglish
Conference International Conference on Finite Volumes for Complex Applications, Strasbourg, France
ISBN978-3-031-40860-1
Keywordsoptimal stability; reactive transport; ultraweak formulation

Authors from the University of Münster

Engwer, Christian
Ohlberger, Mario
Renelt, Lukas

Projects the publication originates from

Duration: 01/04/2020 - 31/12/2023
Funded by: Federal Ministry of Research, Technology and Space
Type of project: Participation in federally funded joint project
Duration: 01/01/2019 - 31/12/2025 | 1st Funding period
Funded by: DFG - Cluster of Excellence
Type of project: Main DFG-project hosted at University of Münster

Talks on the publication

An optimally stable numerical scheme for reactive transport
Renelt, Lukas (31/10/2023)
Posterpresentation at Finite Volumes for Complex Applications 10 (FVCA10), Strasbourg
Type of talk: scientific Talk

Doctorates the publication originates from

Numerical methods for Friedrichs’ systems: Approximation theory, localized training and inherently stable model order reduction
Candidate: Renelt, Lukas | Supervisors: Ohlberger, Mario; Engwer, Christian | Reviewers: Ohlberger, Mario; Engwer, Christian; Vohralík; Martin
Period of time: 01/02/2021 - 10/01/2025
Doctoral examination procedure finished at: Doctoral examination procedure at University of Münster