Implementation of Worsey-Farin splines with applications to solution transfer
Logan Larose, David Williams

TL;DR
This paper provides comprehensive implementation details for Worsey-Farin spline interpolation on tetrahedral meshes, demonstrating its effectiveness in solution transfer applications and analyzing accuracy, conservation, and visualization properties.
Contribution
It offers the first detailed implementation guide for WF-splines and evaluates their performance in solution transfer, including error estimates and conservation improvements.
Findings
WF-spline implementation details are now available for practical use.
Solution transfer using WF-splines is accurate and conservative with adaptive quadrature.
Numerical experiments confirm the effectiveness of the proposed methods.
Abstract
This work primarily focuses on providing full implementation details for Worsey-Farin (WF) spline interpolation over tetrahedral elements. While this spline space is not new and the theory has been covered in other works, there is a lack of explicit and comprehensive implementation details, which we hope to provide. In this paper, we also demonstrate the effectiveness of the WF-spline space through a simple target application: solution transfer. Moreover, we derive an error estimate for the WF spline-based, solution transfer process. We conduct numerical experiments quantifying the conservative nature and order of accuracy of the transfer process, and we present a qualitative evaluation of the visualization properties of the smoothed solution. Additionally, in our study of conservation, we demonstrate how adaptive numerical quadrature rules on the tetrahedron used in conjunction with…
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Taxonomy
TopicsAdvanced Numerical Analysis Techniques · Polynomial and algebraic computation · Numerical methods for differential equations
