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arXiv · 2601.16783

Minimal Graph Transformations and their Classification

Abstract

This paper presents a complete classification of minimal graph surfaces that admit graphical transformations into other minimal surfaces. These transformations are functions that map the height function of a minimal graph surface to another height function, which also describes a minimal graph surface. While trivial maps such as translations and reflections exist, we formulate and solve the Non-Trivial Minimal Graph Transformation Problem, governed by a coupled system of partial differential equations. A central result establishes the rigorous equivalence of this original system to a modified problem for a harmonic function. Through a complex variable approach and a weakening technique, the analysis is reduced to solving a fundamental ordinary differential equation parameterized by a real constant k. The explicit integration of this ordinary differential equation involves various elliptic integrals and identities of elliptic functions. Solving the ordinary differential equation for the three cases: when the constant k equals zero, when k is greater than zero, and when k is less than zero yields the full classification of all admissible surfaces and their associated transformations. This process yields several classes of minimal surfaces that, to the best of the author's knowledge, constitute new families of minimal surfaces.

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BibTeXRIS

Sam K Mathew. 2026-01-23. Minimal Graph Transformations and their Classification. https://arxiv.org/abs/2601.16783

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