An Introduction to Multiscale Methods and Localised Model Reduction - Part IV
Hausdorff Center for Mathematics via YouTube
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Explore advanced computational techniques for solving partial differential equations with multiscale coefficients in this comprehensive lecture from the Hausdorff Center for Mathematics. Delve into the challenges of modeling composite materials and uncertainty quantification scenarios where traditional homogenization methods fall short due to lack of scale separation. Learn how Generalized Finite Element Methods (GFEM) can incorporate local fine-scale information into approximation spaces, and discover how to embed these techniques within efficient localized model reduction frameworks. Master key methodologies including Multiscale FEM, Generalized Multiscale FEM, Localized Orthogonal Decomposition (LOD), and Multiscale-Spectral Generalized FEM for developing computational surrogates across high-dimensional parameter spaces. Understand the critical importance of capturing local multiscale behavior when explicit discretization with classical polynomial Finite Element Methods becomes computationally prohibitive, and gain insights into creating effective solutions for complex parametric PDEs with inherent multiscale variations.
Syllabus
Robert Scheichl: An Introduction to Multiscale Methods and Localised Model Reduction (Part IV)
Taught by
Hausdorff Center for Mathematics