Weighted Squared Volume Minimization (WSVM) for Generating Uniform Tetrahedral Meshes
Kaixin Yu, Yifu Wang, Peng Song, Xiangqiao Meng, Ying He, and Jianjun, Chen

TL;DR
This paper introduces WSVM, a novel algorithm for generating high-quality, uniform tetrahedral meshes by minimizing a weighted squared volume energy, improving mesh quality automatically without parameter tuning.
Contribution
The paper proposes a new energy-based algorithm, WSVM, that automatically produces uniform and high-quality tetrahedral meshes from surface models, outperforming existing methods.
Findings
WSVM produces meshes with fewer slivers and better uniformity.
The algorithm automatically optimizes mesh quality without parameter tuning.
Evaluations show consistent improvements over existing tetrahedral meshing techniques.
Abstract
This paper presents a new algorithm, Weighted Squared Volume Minimization (WSVM), for generating high-quality tetrahedral meshes from closed triangle meshes. Drawing inspiration from the principle of minimal surfaces that minimize squared surface area, WSVM employs a new energy function integrating weighted squared volumes for tetrahedral elements. When minimized with constant weights, this energy promotes uniform volumes among the tetrahedra. Adjusting the weights to account for local geometry further achieves uniform dihedral angles within the mesh. The algorithm begins with an initial tetrahedral mesh generated via Delaunay tetrahedralization and proceeds by sequentially minimizing volume-oriented and then dihedral angle-oriented energies. At each stage, it alternates between optimizing vertex positions and refining mesh connectivity through the iterative process. The algorithm…
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Taxonomy
TopicsComputational Geometry and Mesh Generation · Additive Manufacturing and 3D Printing Technologies · Innovations in Concrete and Construction Materials
