Zhongyi Hu

Dr. Zhongyi Hu

orcid

Research Focus & Metrics

Academic Career Length

20Years (2007-Present)

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

Representative Publications

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3 June 2023 in Biomimetics
Verified
Journal Article
Open access
PDF file
MXMinghai Xu
Minghai Xu
LCLi Cao
Li Cao
DLDongwan Lu
Dongwan Lu
ZHZhongyi Hu
Zhongyi Hu
YYYinggao Yue
Yinggao Yue
Image processing technology has always been a hot and difficult topic in the field of artificial intelligence. With the rise and development of machine learning and deep learning methods, swarm intelligence algorithms have become a hot research direction, and combining image processing technology with swarm intelligence algorithms has become a new and effective improvement method. Swarm intelligence algorithm refers to an intelligent computing method formed by simulating the evolutionary laws, behavior characteristics, and thinking patterns of insects, birds, natural phenomena, and other biological populations. It has efficient and parallel global optimization capabilities and strong optimization performance. In this paper, the ant colony algorithm, particle swarm optimization algorithm, sparrow search algorithm, bat algorithm, thimble colony algorithm, and other swarm intelligent optimization algorithms are deeply studied. The model, features, improvement strategies, and application fields of the algorithm in image processing, such as image segmentation, image matching, image classification, image feature extraction, and image edge detection, are comprehensively reviewed. The theoretical research, improvement strategies, and application research of image processing are comprehensively analyzed and compared. Combined with the current literature, the improvement methods of the above algorithms and the comprehensive improvement and application of image processing technology are analyzed and summarized. The representative algorithms of the swarm intelligence algorithm combined with image segmentation technology are extracted for list analysis and summary. Then, the unified framework, common characteristics, different differences of the swarm intelligence algorithm are summarized, existing problems are raised, and finally, the future trend is projected.

1 July 2020 in Expert Systems with Applications
Verified
Journal Article
Closed access
ZXZhangze Xu
Zhangze Xu
ZHZhongyi Hu
Zhongyi Hu
Ali Asghar HeidariAli Asghar Heidari
Ali Asghar Heidari
Mingjing WangMingjing Wang
Mingjing Wang
XZXuehua Zhao
Xuehua Zhao
XCXueding Cai
Xueding Cai

1 September 2021 in Computers in Biology and Medicine
Verified
Journal Article
Closed access
BSBeibei Shi
Beibei Shi
HYHua Ye
Hua Ye
LZLong Zheng
Long Zheng
JLJuncheng Lyu
Juncheng Lyu
CCCheng Chen
Cheng Chen
PWPeiliang Wu
Peiliang Wu

14 April 2023 in Computers in Biology and Medicine
Verified
Journal Article
Closed access
DLDongwan Lu
Dongwan Lu
YYYinggao Yue
Yinggao Yue
ZHZhongyi Hu
Zhongyi Hu
MXMinghai Xu
Minghai Xu
YTYinsheng Tong
Yinsheng Tong
HMHanjie Ma
Hanjie Ma

15 April 2021 in IEEE Transactions on Cognitive and Developmental Systems
Verified
Journal Article
Closed access
ZHZhongyi Hu
Zhongyi Hu
JWJun Wang
Jun Wang
CZChunxiang Zhang
Chunxiang Zhang
ZLZhenzhen Luo
Zhenzhen Luo
XLXiaoqing Luo
Xiaoqing Luo
JSJun Shi
Jun Shi
The resting-state functional magnetic resonance imaging (rs-fMRI) is a pivotal tool that can reveal brain dysfunction in the computer-aided diagnosis of the autism spectrum disorder (ASD). However, the instability of data collection devices, complexity of pathogenesis, and ambiguity in the causes of the disease always introduce considerable uncertainty in identifying ASD using rs-fMRI. Due to the strong ability of Takagi–Sugeno–Kang fuzzy inference systems (TSK FISs) in handling the uncertainty of knowledge and expression, we build an ASD classification model based on TSK FISs and further propose a novel multicenter ASD classification method FCG-MTGS-TSK. Specifically, the correlation information of multiple imaging centers is considered by introducing multitask group sparse learning, and the features across multiple imaging centers are thus jointly selected. An augmented lagrange multiplier (ALM) method is further developed to find the optimal solution of the model. Compared with the other existing methods, the proposed method has the advantages of strong interpretability and high classification accuracy. The experimental results also identify the most discriminative functional connectivity in multicenter ASD classification.

2 April 2022 in Computers in Biology and Medicine
Verified
Journal Article
Closed access
Mingjing WangMingjing Wang
Mingjing Wang
YLYingqi Liang
Yingqi Liang
ZHZhongyi Hu
Zhongyi Hu
SCSiyuan Chen
Siyuan Chen
BSBeibei Shi
Beibei Shi
XCXiaowei Chen
Xiaowei Chen