Yingxiong Li

Prof. Yingxiong Li


Research Focus & Metrics

Academic Career Length

3Years (2024-Present)

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

Representative Publications

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2 May 2024 in Structure and Infrastructure Engineering
Verified
Journal Article
Closed access
YZYulin Zhan
Yulin Zhan
ZLZhilun Li
Zhilun Li
FYFanfan Yue
Fanfan Yue
YWYudong Wang
Yudong Wang
CLChudong Liu
Chudong Liu
YLYingxiong Li
Yingxiong Li
1. Prestressed normal-strength concrete is among the most common materials for infrastructures like bridges or railway sleepers. However, normal concrete is prone to degradation when exposed to adv...

25 January 2026 in Advances in Bridge Engineering
Verified
Journal Article
Open access
PDF file
YSYuehan Sun
Yuehan Sun
PNP.L. Ng
P.L. Ng
YHYan Huang
Yan Huang
YWYudong Wang
Yudong Wang
JSJunhu Shao
Junhu Shao
YLYingxiong Li
Yingxiong Li
The dampers of cable-stayed bridges play a crucial role in bridge seismic resistance. Traditional research requires a large number of trial calculations of damper parameters, and the application of machine learning methods to optimize the seismic performance of dampers in cable-stayed bridges has a great significance. This article is based on the parameter analysis data of dampers for a single tower cable-stayed bridge. Firstly, the advantages and disadvantages of central composite design and comprehensive experimental method were compared and analyzed. Then, the response surface fitting method was optimized using support vector egression. Finally, the optimal damper parameters were studied using particle swarm optimization algorithm. Analysis shows that there is significant nonlinearity in the structural response under earthquake action. The use of support vector machines and particle swarm optimization algorithms can accurately and efficiently fit and optimize damper parameters. From this, it can be concluded that the machine learning method combining support vector machine and particle swarm optimization has good accuracy and applicability in optimizing the seismic performance of cable-stayed bridge dampers, and can be further extended to other research fields.