Predictor-corrector, BGN-based parametric finite element methods for surface diffusion
We present a novel parametric finite element approach for simulating the surface diffusion of curves and surfaces. Our core strategy incorporates a predictor-corrector time-stepping method, which enhances the classical first-order temporal accuracy to achieve second-order accuracy. Notably, our new...
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Zusammenfassung: | We present a novel parametric finite element approach for simulating the
surface diffusion of curves and surfaces. Our core strategy incorporates a
predictor-corrector time-stepping method, which enhances the classical
first-order temporal accuracy to achieve second-order accuracy. Notably, our
new method eliminates the necessity for mesh regularization techniques, setting
it apart from previously proposed second-order schemes by the authors (J.
Comput. Phys. 514 (2024) 113220). Moreover, it maintains the long-term mesh
equidistribution property of the first-order scheme. The proposed techniques
are readily adaptable to other geometric flows, such as (area-preserving) curve
shortening flow and surface diffusion with anisotropic surface energy.
Comprehensive numerical experiments have been conducted to validate the
accuracy and efficiency of our proposed methods, demonstrating their
superiority over previous schemes. |
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DOI: | 10.48550/arxiv.2412.10887 |