Deformations of curves with constant curvature
Mohammad Ghomi, Matteo Raffaelli

TL;DR
This paper proves that curves with constant curvature in Euclidean space satisfy a dense relative h-principle, leading to classification results for knots of constant curvature based on isotopy, homotopy, and self-linking invariants.
Contribution
It establishes a parametric $C^1$-dense relative $h$-principle for curves of constant curvature in Euclidean space, connecting geometric properties with topological classifications.
Findings
Curves of constant curvature satisfy the $C^1$-dense relative $h$-principle.
Knots of constant curvature in $R^3$ are classified by isotopy, homotopy, and self-linking numbers.
Two knots of constant curvature are isotopic or homotopic iff their invariants match.
Abstract
We prove that curves of constant curvature satisfy the parametric -dense relative -principle in the space of immersed curves with nonvanishing curvature in Euclidean space . It follows that two knots of constant curvature in are isotopic, resp. homotopic, through curves of constant curvature if and only if they are isotopic, resp. homotopic, and their self-linking numbers, resp. self-linking numbers mod , are equal.
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Taxonomy
TopicsAdvanced Numerical Analysis Techniques · Advanced Theoretical and Applied Studies in Material Sciences and Geometry · Advanced Mathematical Modeling in Engineering
