most citedComparison Methods for a Keller--Segel-type Model of Pattern Formations with Density-suppressed Motilities

16 citations · 32 across the 6 of their papers we have counts for

collaborators

7 papers

math.AP20201 cited

Boundedness and Exponential Stabilization in a Parabolic-Elliptic Keller--Segel Model with Signal-dependent Motilities for Local Sensing Chemotaxis

Jie Jiang

In this paper we consider the initial Neumann boundary value problem for a degenerate Keller--Segel model which features a signal-dependent non-increasing motility function. The ma…

math.AP20208 cited

Boundedness of Classical Solutions to a Degenerate Keller--Segel Type Model with Signal-dependent Motilities

Kentaro Fujie, Jie Jiang

In this paper, we consider the initial Neumann boundary value problem for a degenerate kinetic model of Keller--Segel type. The system features a signal-dependent decreasing motili…

math.AP20201 cited

Global Existence of Weak Solutions to a Signal-dependent Keller-Segel Model for Local Sensing Chemotaxis

Haixia Li, Jie Jiang

This paper is devoted to global existence of weak solutions to the following degenerate kinetic model of chemotaxis \begin{equation} \begin{cases}\label{chemo0} u_t=Δ(γ(v)u) τv_{t}…

math.AP2020

On a Repulsion Keller--Segel System with a Logarithmic Sensitivity

Jie Jiang

In this paper, we study the initial-boundary value problem of a repulsion Keller--Segel system with a logarithmic sensitivity modeling the reinforced random walk. By establishing a…

math.AP202016 cited

Comparison Methods for a Keller--Segel-type Model of Pattern Formations with Density-suppressed Motilities

Kentarou Fujie, Jie Jiang

This paper is concerned with global existence as well as infinite-time blowups of classical solutions to the following fully parabolic kinetic system \begin{equation} \begin{cases}…

math.AP20206 cited

Global Existence for a Kinetic Model of Pattern Formation with Density-suppressed Motilities

Kentarou Fujie, Jie Jiang

In this paper, we consider global existence of classical solutions to the following kinetic model of pattern formation \begin{equation} \begin{cases} u_t=Δ(γ(v)u)+μu(1-u) -Δv+v=u \…