activity
20102022
most citedFurther study on periodic solutions of elliptic equations with a fractional Laplacian

1 citations · 1 across the 6 of their papers we have counts for

collaborators

6 papers

math.AP2022

Nonexistence of anti-symmetric solutions for fractional Hardy-Hénon System

Jiaqi Hu, Zhuoran Du

We study anti-symmetric solutions about the hyperplane to the following fractional Hardy-Hénon system $$ \left\{\begin{aligned} &(-Δ)^{s_1}u(x)=|x|^αv^p(x),\ \ x\in\mat…

math.AP2022

Classification of solutions to equations involving Higher-order fractional Laplacian

Zhuoran Du, Zhenping Feng, Jiaqi Hu +1

In this paper, we are concerned with the following equation involving higher-order fractional Lapalacian \begin{equation*} \left\{\begin{aligned} &(-Δ)^{p+{\fracα{2}}}u(x)=u_+^γ~~…

math.AP2022

Classification of solutions to several semi-linear polyharmonic equations and fractional equations

Zhuoran Du, Zhenping Feng, Yuan Li

We are concerned with the following semi-linear polyharmonic equation with integral constraint \begin{align} \left\{\begin{array}{rl} &(-Δ)^pu=u^γ_+ ~~ \mbox{ in }{\mathbb{R}^n},\\…

math.AP2017★ 1 cited

Further study on periodic solutions of elliptic equations with a fractional Laplacian

Zhuoran Du, Changfeng Gui

We obtain some existence theorems for periodic solutions to several linear equations involving fractional Laplacian. We also prove that the lower bound of all periods for semilinea…

math.AP2015

Asymptotic behavior of positive solutions to a degenerate elliptic equation in the upper half space with a nonlinear boundary condition

Zhuoran Du

We consider positive solutions of the problem \begin{equation} \left\{\begin{array}{l}-\mbox{div}(x_{n}^{a}\nabla u)=0\qquad \mbox{in}\;\;\mathbb{R}_+^n,\\ \frac{\partial u}{\parti…

math.AP2010

Properties of the extremal solution for a fourth-order elliptic problem

Baishun Lai, Zhuoran Du

Let denote the largest possible value of such that $$ \{{array}{lllllll} Δ^{2}u=\fracλ{(1-u)^{p}} & \{in}\ \ B, 0<u\leq 1 & \{in}\ \ B, u=\frac{\partial u}{\partial n…