On the rate of convergence of the rescaled mean curvature flow
Rory Martin-Hagemayer, Natasa Sesum

TL;DR
This paper investigates how quickly solutions to the rescaled mean curvature flow approach self-similar shrinkers, establishing that super-exponential convergence implies the solution is a shrinker itself.
Contribution
It provides an upper bound estimate on the convergence rate to shrinkers and characterizes solutions with super-exponential convergence as shrinkers.
Findings
Solutions converging faster than any exponential rate are shrinkers.
The paper establishes an upper bound on convergence speed to self-similar solutions.
Super-exponential convergence implies the solution is a shrinker.
Abstract
We estimate from above the rate at which a solution to the rescaled mean curvature flow on a closed hypersurface may converge to a limit self-similar solution, i.e. a shrinker. Our main result implies that any solution which converges to a shrinker faster than any fixed exponential rate must itself be shrinker itself.
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Taxonomy
TopicsGeometric Analysis and Curvature Flows · Geometry and complex manifolds · Mathematical Dynamics and Fractals
