A discrete parametrized surface theory in R^3
Tim Hoffmann, Andrew O. Sageman-Furnas, Max Wardetzky

TL;DR
This paper introduces a comprehensive discrete surface theory in three-dimensional space that unifies various parametrizations, encompassing integrable and non-integrable geometries, and includes constant curvature surface families.
Contribution
It develops a unified discrete surface framework in R^3 that generalizes existing models and incorporates Lax representations and associated constant curvature surface families.
Findings
Unifies multiple discrete surface parametrizations.
Extends to non-integrable geometries.
Includes one-parameter families of constant curvature surfaces.
Abstract
We propose a discrete surface theory in that unites the most prevalent versions of discrete special parametrizations. This theory encapsulates a large class of discrete surfaces given by a Lax representation and, in particular, the one-parameter associated families of constant curvature surfaces. The theory is not restricted to integrable geometries, but extends to a general surface theory.
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Taxonomy
TopicsAdvanced Numerical Analysis Techniques · Geometric Analysis and Curvature Flows · Computational Geometry and Mesh Generation
