Rigidity of Entire Convex Self-Shrinking Solutions to Hessian Quotient Flows
Wenlong Wang

TL;DR
This paper proves that all entire smooth strictly convex self-shrinking solutions to Hessian quotient flows are quadratic, extending rigidity results to broader classes of equations including Kähler-Ricci flow solutions.
Contribution
It establishes a general rigidity theorem for entire convex self-shrinking solutions to Hessian quotient flows, including applications to Kähler-Ricci flow.
Findings
All such solutions are quadratic functions.
The method applies to a broader class of equations.
Rigidity results for solutions on a9^n under certain conditions.
Abstract
We prove that all entire smooth strictly convex self-shrinking solutions on to the Hessian quotient flows must be quadratic. This generalizes the rigidity theorem for entire self-shrinking solutions to the Lagrangian mean curvature flow in pseudo-Euclidean space due to Ding-Xin \cite{DX}. Moreover, we show that our argument works for a larger class of equations. In particular, we obtain rigidity results for entire self-shrinking solutions on to the K\"{a}hler-Ricci flow under certain conditions.
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Taxonomy
TopicsGeometric Analysis and Curvature Flows · Geometry and complex manifolds · Mathematical Dynamics and Fractals
