Quantitative Regularity Theory for Anisotropic Non-Local Operators

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Auteur principal: SÉRGIO DE ANDRADE, PAULO
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Publié: Zenodo 2025
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author SÉRGIO DE ANDRADE, PAULO
author_facet SÉRGIO DE ANDRADE, PAULO
contents This paper investigates the quantitative regularity properties of solutions to partial differential equations driven by anisotropic non-local operators. Non-local operators, characterized by their integral nature, play a pivotal role in modeling diverse phenomena across physics, finance, and image processing. The inclusion of anisotropy, reflecting direction-dependent behavior, significantly complicates the analysis of solution smoothness. Our work develops a comprehensive framework to establish precise quantitative estimates for solutions in various function spaces, including Höldér and Sobolev spaces. We employ a combination of advanced harmonic analysis techniques, potential theory, and variational methods, carefully adapted to account for the intrinsic non-locality and directional preferences. The derived estimates provide explicit bounds on solution regularity, shedding light on how the anisotropy parameters influence the smoothness of solutions. These quantitative results are crucial for a deeper understanding of anisotropic anomalous diffusion processes and for guiding the development of numerical schemes with verifiable convergence rates.
format Recurso digital
id zenodo_https___doi_org_10_5281_zenodo_17689779
institution Zenodo
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publishDate 2025
publisher Zenodo
record_format zenodo
spellingShingle Quantitative Regularity Theory for Anisotropic Non-Local Operators
SÉRGIO DE ANDRADE, PAULO
This paper investigates the quantitative regularity properties of solutions to partial differential equations driven by anisotropic non-local operators. Non-local operators, characterized by their integral nature, play a pivotal role in modeling diverse phenomena across physics, finance, and image processing. The inclusion of anisotropy, reflecting direction-dependent behavior, significantly complicates the analysis of solution smoothness. Our work develops a comprehensive framework to establish precise quantitative estimates for solutions in various function spaces, including Höldér and Sobolev spaces. We employ a combination of advanced harmonic analysis techniques, potential theory, and variational methods, carefully adapted to account for the intrinsic non-locality and directional preferences. The derived estimates provide explicit bounds on solution regularity, shedding light on how the anisotropy parameters influence the smoothness of solutions. These quantitative results are crucial for a deeper understanding of anisotropic anomalous diffusion processes and for guiding the development of numerical schemes with verifiable convergence rates.
title Quantitative Regularity Theory for Anisotropic Non-Local Operators
url https://doi.org/10.5281/zenodo.17689779