Ying Huang 0001

dblp:62/2964-1 · DBLP profile ↗
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6ranked-venue papers in the field
2as first author
5since 2021 · last 2025
0000-0001-8862-0092ORCID · conflict

Domains — venue-derived; a paper can count in several

Knowledge Engineering, Semantic Web & Information Systems · 5 (2 first)Other / Interdisciplinary · 1
YearPublicationVenuePosition
2025 A Pareto Front searching algorithm based on reinforcement learning for constrained multiobjective optimization
Yuelin Qu, Wei Li 0078, Ying Huang 0001
Inf. Sci.4
2024 PC-SSRDE: A paradigm crossover-based differential evolution algorithm with search space reduction
Ying Huang 0001, Liang Xing, Baolei Li, Benben Zhou
Inf. Sci.1
2024 An adaptive archive differential evolution with non-linear population size reduction and selective pressure
Benben Zhou, Ying Huang 0001
Inf. Sci.2
2022 Adaptive complex network topology with fitness distance correlation framework for particle swarm optimization
abstract
The particle swarm optimization algorithm is an effective tool to solve various optimization problems due to the small number of parameters and the simple learning strategy. However, the updated strategy from the basic PSO mainly aims to learn the global optimal particles, and it often leads to premature convergence with poor solution accuracy. An adaptive complex network topology with a fitness distance correlation for the particle swarm optimization algorithm is proposed (CNAPSO). Using the CNAPSO algorithm, it is concluded that different network topologies have different degrees of dispersion in the process of particle swarm optimization search. Therefore, the adaptive strategy with the fitness distance correlation proposes to effectively balance the global exploration and local exploitation capabilities, which is the particle swarm adaptive network neighborhood topology. The neighborhood topology construction strategy with a complex network is used to construct the neighborhood topology for each particle. Therefore, the local optimal particles in the neighborhood participate in the search process of particle swarm optimization and eliminate the situation of only learning the global optimal particles. Moreover, it improves the solution accuracy of the particle swarm optimization algorithm. In addition, to avoid the particle swarm falling into premature convergence, this study introduces a random drift strategy to make the particles drift slightly and reduces the risk of premature convergence. The experimental results on twenty-four benchmark functions show that CNAPSO has great improvements in the accuracy of the solution and the speed of convergence compared with the six representative PSO algorithms.
Wei Li 0078, Bo Sun 0012, Ying Huang 0001, Soroosh Mahmoodi
Int. J. Intell. Syst.3
2022 A differential evolution algorithm with ternary search tree for solving the three-dimensional packing problem
Ying Huang 0001, Ling Lai, Wei Li 0078, Hui Wang 0002
Inf. Sci.1
2020 Multipopulation cooperative particle swarm optimization with a mixed mutation strategy
Wei Li 0078, Xiang Meng 0001, Ying Huang 0001, Zhang-Hua Fu
Inf. Sci.3