Yanmin Zhu

Prof. Dr. Yanmin Zhu

Department of Computer Science and Engineering, Shanghai Jiao Tong University, Shanghai 200240, China

Research Focus & Metrics

Academic Career Length

22Years (2005-Present)

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

Representative Publications

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21 December 2022 in ACM Transactions on Information Systems
Verified
Journal Article
Open access
TZTianzi Zang
Tianzi Zang
Yanmin ZhuYanmin Zhu
Yanmin Zhu
Haobing LiuHaobing Liu
Haobing Liu
RZRuohan Zhang
Ruohan Zhang
JYJiadi Yu
Jiadi Yu
Traditional recommendation systems are faced with two long-standing obstacles, namely data sparsity and cold-start problems, which promote the emergence and development of Cross-Domain Recommendation (CDR). The core idea of CDR is to leverage information collected from other domains to alleviate the two problems in one domain. Since the early 2010s, many efforts have been engaged for cross-domain recommendation. Recently, with the development of deep learning and neural networks, a large number of methods have emerged. However, there is a limited number of systematic surveys on CDR, especially regarding the latest proposed methods as well as the recommendation scenarios and recommendation tasks they address. In this survey article, we first proposed a two-level taxonomy of cross-domain recommendation that classifies different recommendation scenarios and recommendation tasks. We then introduce and summarize existing cross-domain recommendation approaches under different recommendation scenarios in a structured manner. We also organize datasets commonly used. We conclude this survey by providing several potential research directions about this field.

13 April 2016 in IEEE Access
Verified
Journal Article
Open access
ZFZhenni Feng
Zhenni Feng
Yanmin ZhuYanmin Zhu
Yanmin Zhu
Rapid advance of location acquisition technologies boosts the generation of trajectory data, which track the traces of moving objects. A trajectory is typically represented by a sequence of timestamped geographical locations. A wide spectrum of applications can benefit from the trajectory data mining. Bringing unprecedented opportunities, large-scale trajectory data also pose great challenges. In this paper, we survey various applications of trajectory data mining, e.g., path discovery, location prediction, movement behavior analysis, and so on. Furthermore, this paper reviews an extensive collection of existing trajectory data mining techniques and discusses them in a framework of trajectory data mining. This framework and the survey can be used as a guideline for designing future trajectory data mining solutions.


15 October 2019 in IEEE Transactions on Mobile Computing
Verified
Journal Article
Closed access
JYJiadi Yu
Jiadi Yu
LLLi Lu
Li Lu
YCYingying Chen
Yingying Chen
Yanmin ZhuYanmin Zhu
Yanmin Zhu
LKLinghe Kong
Linghe Kong

8 November 2023 in ACM Transactions on Information Systems
Verified
Journal Article
Open access
MJMengyuan Jing
Mengyuan Jing
Yanmin ZhuYanmin Zhu
Yanmin Zhu
TZTianzi Zang
Tianzi Zang
KWKe Wang
Ke Wang
Deep learning-based recommender systems have achieved remarkable success in recent years. However, these methods usually heavily rely on labeled data (i.e., user-item interactions), suffering from problems such as data sparsity and cold-start. Self-supervised learning, an emerging paradigm that extracts information from unlabeled data, provides insights into addressing these problems. Specifically, contrastive self-supervised learning, due to its flexibility and promising performance, has attracted considerable interest and recently become a dominant branch in self-supervised learning-based recommendation methods. In this survey, we provide an up-to-date and comprehensive review of current contrastive self-supervised learning-based recommendation methods. Firstly, we propose a unified framework for these methods. We then introduce a taxonomy based on the key components of the framework, including view generation strategy, contrastive task, and contrastive objective. For each component, we provide detailed descriptions and discussions to guide the choice of the appropriate method. Finally, we outline open issues and promising directions for future research.