Haizhou Wang

Prof. Haizhou Wang


Research Focus & Metrics

Academic Career Length

7Years (2020-Present)

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

Representative Publications

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1 January 2021 in Knowledge-Based Systems
Verified
Journal Article
Closed access
YWYuhao Wu
Yuhao Wu
YFYuzhou Fang
Yuzhou Fang
SSShuaikang Shang
Shuaikang Shang
JJJing Jin
Jing Jin
LWLai Wei
Lai Wei
HWHaizhou Wang
Haizhou Wang

1 October 2021 in Computers & Security
Verified
Journal Article
Closed access
YJYifei Jian
Yifei Jian
HKHongbo Kuang
Hongbo Kuang
CRChenglong Ren
Chenglong Ren
ZMZicheng Ma
Zicheng Ma
HWHaizhou Wang
Haizhou Wang

17 August 2022 in Expert Systems with Applications
Verified
Journal Article
Closed access
TWTingke Wen
Tingke Wen
YXYuanxing Xiao
Yuanxing Xiao
AWAnqi Wang
Anqi Wang
HWHaizhou Wang
Haizhou Wang

14 January 2023 in Expert Systems with Applications
Verified
Journal Article
Closed access
YCYicheng Cai
Yicheng Cai
HWHaizhou Wang
Haizhou Wang
HYHuali Ye
Huali Ye
YJYanwen Jin
Yanwen Jin
WGWei Gao
Wei Gao

14 July 2022 in Expert Systems with Applications
Verified
Journal Article
Closed access
HWHaizhou Wang
Haizhou Wang
SWSen Wang
Sen Wang
YHYuHu Han
YuHu Han

4 November 2021 in IEEE Transactions on Cybernetics
Verified
Journal Article
Closed access
RTRui Tang
Rui Tang
ZMZhenxiong Miao
Zhenxiong Miao
SJShuyu Jiang
Shuyu Jiang
XCXinyu Chen
Xinyu Chen
HWHaizhou Wang
Haizhou Wang
WWWei Wang
Wei Wang
Online users are typically active on multiple social media networks (SMNs), which constitute a multiplex social network. With improvements in cybersecurity awareness, users increasingly choose different usernames and provide different profiles on different SMNs. Thus, it is becoming increasingly challenging to determine whether given accounts on different SMNs belong to the same user; this can be expressed as an interlayer link prediction problem in a multiplex network. To address the challenge of predicting interlayer links, feature or structure information is leveraged. Existing methods that use network embedding techniques to address this problem focus on learning a mapping function to unify all nodes into a common latent representation space for prediction; positional relationships between unmatched nodes and their common matched neighbors (CMNs) are not utilized. Furthermore, the layers are often modeled as unweighted graphs, ignoring the strengths of the relationships between nodes. To address these limitations, we propose a framework based on multiple types of consistency between embedding vectors (MulCEVs). In MulCEV, the traditional embedding-based method is applied to obtain the degree of consistency between the vectors representing the unmatched nodes, and a proposed distance consistency index based on the positions of nodes in each latent space provides additional clues for prediction. By associating these two types of consistency, the effective information in the latent spaces is fully utilized. In addition, MulCEV models the layers as weighted graphs to obtain representation. In this way, the higher the strength of the relationship between nodes, the more similar their embedding vectors in the latent representation space will be. The results of our experiments on several real-world and synthetic datasets demonstrate that the proposed MulCEV framework markedly outperforms current embedding-based methods, especially when the number of training iterations is small.