Convex Integration Theory without Integration
M\'elanie Theilli\`ere

TL;DR
This paper introduces a Corrugation Process as an alternative to traditional convex integration, defines Kuiper differential relations, and applies these concepts to construct self-similar solutions and explicit immersions, notably of the real projective plane.
Contribution
It develops a new Corrugation Process framework and introduces Kuiper differential relations, simplifying the construction of solutions with self-similarity and explicit geometric embeddings.
Findings
Proves the totally real relation is Kuiper.
Constructs a self-similar totally real isometric embedding.
Builds a new explicit immersion of the real projective plane in R^3.
Abstract
We replace the usual Convex Integration formula by a Corrugation Process and introduce the notion of Kuiper differential relations. This notion provides a natural framework for the construction of solutions with self-similarity properties. We consider the case of the totally real relation, we prove that it is Kuiper and we state a totally real isometric embedding theorem. We then show that the totally real isometric embeddings obtained by the Corrugation Process exhibits a self-similarity property. Kuiper relations also enable a uniform expression of the Corrugation Process that no longer involves integrals. This expression generalizes the ansatz used in arXiv:0905.0370 to generate isometric maps. We apply it to build a new explicit immersion of the real projective plane inside R^3.
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Taxonomy
TopicsHomotopy and Cohomology in Algebraic Topology · Polynomial and algebraic computation · Geometric Analysis and Curvature Flows
