
TL;DR
This paper introduces a rapid method for approximating distance functions to surfaces or lines by linking the problem to elliptic equations, improving computational efficiency.
Contribution
It proposes a novel, fast approach to approximate distance functions by connecting the problem to elliptic partial differential equations.
Findings
The method significantly speeds up distance computations.
It establishes a theoretical link between distance functions and elliptic problems.
The approach outperforms traditional approximation techniques.
Abstract
Computing the distance function to some surface or line is a problem that occurs very frequently. There are several ways of computing a relevant approximation of this function, using for example technique originating from the approximation of Hamilton Jacobi problems, or the fast sweeping method. Here we make a link with some elliptic problem and propose a very fast way to approximate the distance function.
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Taxonomy
TopicsAdvanced Numerical Analysis Techniques
