Compactness and rigidity of self-shrinking surfaces
Tang-Kai Lee

TL;DR
This paper establishes a compactness theorem for low-entropy self-shrinking surfaces in higher codimension, advancing understanding of their structure and existence of entropy minimizers.
Contribution
It introduces a measure-theoretical approach to prove compactness and existence results for self-shrinkers with low entropy in higher codimension.
Findings
Proved a compactness theorem for low-entropy self-shrinkers
Established the existence of entropy minimizers among self-shrinkers
Improved rigidity results for self-shrinking surfaces
Abstract
The entropy functional introduced by Colding and Minicozzi plays a fundamental role in the analysis of mean curvature flow. However, unlike the hypersurface case, relatively little about the entropy is known in the higher-codimension case. In this note, we use measure-theoretical techniques and rigidity results for self-shrinkers to prove a compactness theorem for a family of self-shrinking surfaces with low entropy. Based on this, we prove the existence of entropy minimizers among self-shrinking surfaces and improve some rigidity results.
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Taxonomy
TopicsGeometric Analysis and Curvature Flows · Mathematical Dynamics and Fractals · Geometry and complex manifolds
