Towards a Lagrange-Newton approach for PDE constrained shape optimization
Volker H. Schulz, Martin Siebenborn, Kathrin Welker

TL;DR
This paper extends a Riemannian framework for shape optimization to a Lagrange-Newton method, enabling more efficient PDE constrained shape optimization by leveraging geometric structures.
Contribution
It introduces a Lagrange-Newton approach on Riemannian vector bundles for PDE constrained shape optimization, expanding previous Riemannian methods.
Findings
Extension of Riemannian shape optimization to Lagrange-Newton methods
Implementation demonstrated on a simple numerical example
Potential for improved efficiency in PDE constrained shape optimization
Abstract
The novel Riemannian view on shape optimization developed in [Schulz, FoCM, 2014] is extended to a Lagrange-Newton approach for PDE constrained shape optimization problems. The extension is based on optimization on Riemannian vector space bundles and exemplified for a simple numerical example.
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Taxonomy
TopicsTopology Optimization in Engineering · Composite Material Mechanics · Advanced Mathematical Modeling in Engineering
