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Bennett Chow

Bennett Chow

· ProfessorVerified

University of California, San Diego · Mathematics

Active 1985–2025

h-index29
Citations5.1k
Papers18731 last 5y
Funding$282k
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About

Bennett Chow is a professor in the Department of Mathematics at the University of California, San Diego. He holds a Ph.D. in Mathematics from Princeton University, obtained in 1986. His research areas include Geometric Analysis and Differential Geometry, with specific interests in Geometric Flows, both smooth and discrete. His work focuses on understanding the geometric structures and their evolution, contributing to the broader field of geometric analysis.

Research topics

  • Computer Science
  • Geometry
  • Mathematics
  • Physics
  • Mathematical analysis
  • Pure mathematics
  • Mathematical physics

Selected publications

  • Richard Streit Hamilton (1943–2024)

    Notices of the American Mathematical Society · 2025-10-01

    article
  • Correction to: Curvature growth of some 4-dimensional gradient Ricci soliton singularity models

    ArXiv.org · 2025-05-03

    preprintOpen access1st authorCorresponding

    This note corrects an error in the proof of Proposition 13 in arXiv:1903.09181 and simultaneously establishes a more general result. We prove that if $M $ is a compact connected oriented $4$-manifold with connected boundary $\partial M$, and if an unbounded number of disjoint copies of $M$ embed topologically and locally flatly in the interior of a compact $4$-manifold $N,$ then $\operatorname{Tor}H_1(\partial M;\mathbb{Z})$ is a direct double, i.e., $\operatorname{Tor}H_1(\partial M;\mathbb{Z})\cong A \oplus A$, with the linking pairing vanishing identically on the first summand, i.e., the linking pairing is split metabolic. This partially generalizes Hantzsche's theorem stating that the linking pairing for a closed $3$-manifold that embeds in $S^4$ is hyperbolic.

  • Lectures on Differential Geometry

    Graduate studies in mathematics · 2024 · 102 citations

    1st authorCorresponding
    • Computer Science
    • Geometry
    • Mathematics
  • Small improvements for a trio of estimates for Ricci solitons

    Proceedings of the American Mathematical Society · 2023-05-24

    preprint1st authorCorresponding

    In this note we discuss a trio of estimates for Ricci solitons that only provide glimpses of their asymptotic geometry. Namely, the results hold for some sequence of points tending to infinity in two of the cases, and for a net of points in the remaining case.

  • Aleksandrov reflection for extrinsic geometric flows of Euclidean hypersurfaces

    Advanced Nonlinear Studies · 2023-01-01 · 8 citations

    articleOpen access1st authorCorresponding

    Abstract We survey some ideas regarding the application of the Aleksandrov reflection method in partial differential equation to extrinsic geometric flows of Euclidean hypersurfaces. In this survey, we mention some related and important recent developments of others on the convergence of noncontracting flows and construction and classification of ancient flows.

  • Ricci Solitons in Low Dimensions

    Graduate studies in mathematics · 2023-08-09 · 5 citations

    book1st authorCorresponding
  • Lower bounds for the scalar curvatures of Ricci flow singularity models

    Journal für die reine und angewandte Mathematik (Crelles Journal) · 2022-12-14

    article

    Abstract In a series of papers, Bamler [5, 4, 6] further developed the high-dimensional theory of Hamilton’s Ricci flow to include new monotonicity formulas, a completely general compactness theorem, and a long-sought partial regularity theory analogous to Cheeger–Colding theory. In this paper we give an application of his theory to lower bounds for the scalar curvatures of singularity models for Ricci flow. In the case of 4-dimensional non-Ricci-flat steady soliton singularity models, we obtain as a consequence a quadratic decay lower bound for the scalar curvature.

  • Lower bounds for the scalar curvatures of Ricci flow singularity models

    arXiv (Cornell University) · 2022-08-28

    preprintOpen access

    In a series of papers, Bamler [Bam20a,Bam20b,Bam20c] further developed the high-dimensional theory of Hamilton's Ricci flow to include new monotonicity formulas, a completely general compactness theorem, and a long-sought partial regularity theory analogous to Cheeger--Colding theory. In this paper we give an application of his theory to lower bounds for the scalar curvatures of singularity models for Ricci flow. In the case of $4$-dimensional non-Ricci-flat steady soliton singularity models, we obtain as a consequence a quadratic decay lower bound for the scalar curvature.

  • On four-dimensional steady gradient Ricci solitons that dimension reduce

    Advances in Mathematics · 2022-04-06 · 12 citations

    article1st author
  • Li–Yau Inequalities in Geometric Analysis Dedicated to Professor Peter Li on the occasion of his 70th Birthday

    Journal of Geometric Analysis · 2022-08-24 · 4 citations

    article1st authorCorresponding

Recent grants

Frequent coauthors

  • Christine Guenther

    Pacific University

    67 shared
  • Dan Knopf

    65 shared
  • Lei Ni

    55 shared
  • Sun-Chin Chu

    National Chung Cheng University

    54 shared
  • Peng Lü

    Dalian University of Technology

    53 shared
  • David Glickenstein

    53 shared
  • Tom Ivey

    College of Charleston

    48 shared
  • James Isenberg

    University of Oregon

    48 shared
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