Jin Wang

Ms. Jin Wang


Research Focus & Metrics

Academic Career Length

5Years (2022-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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9 September 2024 in Fractal and Fractional
Verified
Journal Article
Open access
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CYChengyan Yang
Chengyan Yang
JWJin Wang
Jin Wang
MJMuwei Jian
Muwei Jian
JDJiashu Dai
Jiashu Dai
This paper studies synchronization behaviors of two sorts of non-linear fractional-order complex spatio-temporal networks modeled by hyperbolic space-varying PDEs (FCSNHSPDEs), respectively, with time-invariant delays and time-varying delays, including one delayed coupling. One distributed controller with space-varying control gains is firstly designed. For time-invariant delayed cases, sufficient conditions for synchronization of FCSNHSPDEs are presented via LMIs, which have no relation to time delays. For time-varying delayed cases, synchronization conditions of FCSNHSPDEs are presented via spatial algebraic LMIs (SALMIs), which are related to time delay varying speeds. Finally, two examples show the validity of the control approaches.

4 November 2022 in Mathematics
Verified
Journal Article
Open access
PDF file
CYChuanhai Yang
Chuanhai Yang
JWJin Wang
Jin Wang
SMShengfa Miao
Shengfa Miao
BZBin Zhao
Bin Zhao
MJMuwei Jian
Muwei Jian
CYChengdong Yang
Chengdong Yang
This paper studies the leaderless consensus of the stochastic multi-agent systems based on partial differential equations–ordinary differential equations (PDE-ODEs). Compared with the traditional state coupling, the most significant difference between this paper is that the space state coupling is designed. Two boundary couplings are investigated in this article, respectively, collocated boundary measurement and distributed boundary measurement. Using the Lyapunov directed method, sufficient conditions for the stochastic multi-agent system to achieve consensus can be obtained. Finally, two simulation examples show the feasibility of the proposed spatial boundary couplings.