Paper · May 20, 2020
On Ecker's local integral quantity at infinity for ancient mean curvature flows
As on arXiv
Abstract
We point out that Ecker's local integral quantity agrees with Huisken's global integral quantity at infinity for ancient mean curvature flows if Huisken's one is finite on each time-slice. In particular, this means that the finiteness of Ecker's integral quantity at infinity implies the finiteness of the entropy at infinity.
- Submitted
- May 20, 2020
- Last revised
- Jun 18, 2020 (v2)
- Subjects
- math.DG
Comments: 11 pages. Corrected typos. Added some comments in Remark 1.4
Its neighbourhood
Connected papers
The 8 papers on this site closest to this one, judged by the topics they share, the words and phrases in their titles and abstracts, and their authors. They are not its citations, but a map of the work around it. Papers here go back to 2016, plus the canon.
-
Non-existence of eternal solutions to Lagrangian mean curvature flow with non-negative Ricci curvature
Topics Ancient solutions · Same author Keita Kunikawa
-
On the construction of closed nonconvex nonsoliton ancient mean curvature flows
Topics Ancient solutions
-
Ancient mean curvature flows from minimal hypersurfaces
Topics Ancient solutions
-
Ancient mean curvature flows and their spacetime tracks
Topics Ancient solutions
-
Construction of High Codimension Ancient Mean Curvature Flows
Topics Ancient solutions
-
Collapsing and noncollapsing in convex ancient mean curvature flow
Topics Ancient solutions
-
Ancient mean curvature flow asymptotic to a minimal quadratic cone
Topics Ancient solutions
-
Codimension Bounds and Rigidity of Ancient Mean Curvature Flows by the Tangent Flow at
Topics Ancient solutions
Read around it
Background reading
The guides for the topics of this paper: what each idea is, why it matters, and the papers to read first.
In the guidebook
- 11B.2Ancient Solutions and the Harnack Inequality
Comparing curvature across space and time.
- 12B.1κ-Solutions
Ancient, nonnegatively curved, noncollapsed: the models for singularities.
- 12B.2The Asymptotic Soliton and Three-Dimensional Shrinkers
Perelman's Proposition 11.2 proved with Morgan and Tian: the reduced-length bounds on κ-solutions, the limit of rescalings, the equality case, and the classification of shrinking solitons in dimensions two and three.