The $p$-th dual Minkowski problem for the $k$-torsional rigidity corresponding to a $k$-Hessian equation

Fuente: arXiv
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Main Authors: Zhao, Xia, Zhao, Peibiao
Format: Preprint
Published: 2025
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author Zhao, Xia
Zhao, Peibiao
author_facet Zhao, Xia
Zhao, Peibiao
contents The study of the dual curvature measures [Y. Huang, E. Lutwak, D. Yang \& G. Y. Zhang, Acta. Math. 216 (2016): 325-388], which connects the cone-volume measure and Aleksandrov's integral curvature, and has created a precedent for the theoretical research of the dual Brunn-Minkowski theory. Motivated by the foregoing groundbreaking works, the present paper introduces the $p$-th dual $k$-torsional rigidity associated with a $k$-Hessian equation and establishes its Hadamard variational formula with $1\leq k\leq n-1$, which induces the $p$-th dual $k$-torsional measure. Further, based on the $p$-th dual $k$-torsional measure, this article, for the first time, proposes the $p$-th dual Minkowski problem of the $k$-torsional rigidity which can be equivalently converted to a nonlinear partial differential equation in smooth case: \begin{align}\label{eq01} f(x)=τ(|\nabla h|^2+h^2)^{\frac{p-n}{2}}h_Ω(x)|Du(ν^{-1}_Ω(x))|^{k+1}σ_{n-k}(h_{ij}(x)+h_Ω(x)δ_{ij}), \end{align} where $τ>0$ is a constant, $f$ is a positive smooth function defined on $S^{n-1}$ and $σ_{n-k}$ is the $(n-k)$-th elementary symmetric function of the principal curvature radii. We confirm the existence of smooth non-even solution to the $p$-th dual Minkowski problem of the $k$-torsional rigidity for $p<n-2$ by the method of a curvature flow which converges smoothly to the solution of equation (\ref{eq01}). Specially, a novel approach for the uniform lower bound estimation in the $C^0$ estimation for the solution to the curvature flow is presented with the help of invariant functional $Φ(Ω_t)$.
format Preprint
id arxiv_https___arxiv_org_abs_2510_25435
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle The $p$-th dual Minkowski problem for the $k$-torsional rigidity corresponding to a $k$-Hessian equation
Zhao, Xia
Zhao, Peibiao
Differential Geometry
Analysis of PDEs
52A20 \ \ 35K96\ \ 58J35
The study of the dual curvature measures [Y. Huang, E. Lutwak, D. Yang \& G. Y. Zhang, Acta. Math. 216 (2016): 325-388], which connects the cone-volume measure and Aleksandrov's integral curvature, and has created a precedent for the theoretical research of the dual Brunn-Minkowski theory. Motivated by the foregoing groundbreaking works, the present paper introduces the $p$-th dual $k$-torsional rigidity associated with a $k$-Hessian equation and establishes its Hadamard variational formula with $1\leq k\leq n-1$, which induces the $p$-th dual $k$-torsional measure. Further, based on the $p$-th dual $k$-torsional measure, this article, for the first time, proposes the $p$-th dual Minkowski problem of the $k$-torsional rigidity which can be equivalently converted to a nonlinear partial differential equation in smooth case: \begin{align}\label{eq01} f(x)=τ(|\nabla h|^2+h^2)^{\frac{p-n}{2}}h_Ω(x)|Du(ν^{-1}_Ω(x))|^{k+1}σ_{n-k}(h_{ij}(x)+h_Ω(x)δ_{ij}), \end{align} where $τ>0$ is a constant, $f$ is a positive smooth function defined on $S^{n-1}$ and $σ_{n-k}$ is the $(n-k)$-th elementary symmetric function of the principal curvature radii. We confirm the existence of smooth non-even solution to the $p$-th dual Minkowski problem of the $k$-torsional rigidity for $p<n-2$ by the method of a curvature flow which converges smoothly to the solution of equation (\ref{eq01}). Specially, a novel approach for the uniform lower bound estimation in the $C^0$ estimation for the solution to the curvature flow is presented with the help of invariant functional $Φ(Ω_t)$.
title The $p$-th dual Minkowski problem for the $k$-torsional rigidity corresponding to a $k$-Hessian equation
topic Differential Geometry
Analysis of PDEs
52A20 \ \ 35K96\ \ 58J35
url https://arxiv.org/abs/2510.25435