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中华肥胖与代谢病电子杂志 ›› 2025, Vol. 11 ›› Issue (04) : 282 -291. doi: 10.3877/cma.j.issn.2095-9605.2025.04.005

循证医学

基于文献计量学在肥胖减重与人工智能交叉领域研究进展与可视化解析
李晓鹏1, 韩世华1, 曾令永1, 吴佳宝1, 曾嘉乐1, 韩美如2,()   
  1. 1523660 东莞,广东药科大学东莞清溪医院内分泌科
    2523660 东莞,广东药科大学东莞清溪医院药剂科
  • 收稿日期:2025-07-30 出版日期:2025-11-30
  • 通信作者: 韩美如

Research progress and visual analysis of the intersection between obesity weight loss and artificial intelligence based on bibliometrics

Xiaopeng Li1, Shihua Han1, Lingyong Zeng1, Jiabao Wu1, Jiale Zeng1, Meiru Han2,()   

  1. 1Department of Endocrinology, Dongguan Qingxi Hospital, Guangdong Pharmaceutical University, Dongguan 523660, China
    2Department of pharmacy, Dongguan Qingxi Hospital, Guangdong Pharmaceutical University, Dongguan 523660, China
  • Received:2025-07-30 Published:2025-11-30
  • Corresponding author: Meiru Han
引用本文:

李晓鹏, 韩世华, 曾令永, 吴佳宝, 曾嘉乐, 韩美如. 基于文献计量学在肥胖减重与人工智能交叉领域研究进展与可视化解析[J/OL]. 中华肥胖与代谢病电子杂志, 2025, 11(04): 282-291.

Xiaopeng Li, Shihua Han, Lingyong Zeng, Jiabao Wu, Jiale Zeng, Meiru Han. Research progress and visual analysis of the intersection between obesity weight loss and artificial intelligence based on bibliometrics[J/OL]. Chinese Journal of Obesity and Metabolic Diseases(Electronic Edition), 2025, 11(04): 282-291.

目的

本文采用文献计量学分析手段,深入探讨肥胖管理与人工智能融合研究的知识结构变迁及其可视化表征,识别关键研究议题、发展脉络与前沿方向,为内分泌学临床应用及跨学科整合提供循证依据。

方法

以Web of Science核心数据库为数据源,运用"Obesity" OR "Weight Loss" AND "Artificial Intelligence" OR "Machine Learning"等检索策略,涵盖2011-2025年期间的Article与Review文献类型。借助CiteSpace工具开展分析,设定年度时间切片,采用Top 50 per slice筛选准则,构建词汇共现关系网、聚类谱系图、时间演进图及作者机构协作图谱。

结果

文献数量呈现指数级增长态势,历经初期积淀、中期快速发展及近期爆发式增长三个阶段。词汇共现网络包含651个节点与2935条连接,网络密度为0.0139,高频术语涵盖"obesity"(1 241次)、"machine learning"(403次);聚类结果揭示10个研究模块(Q=0.4151,S=0.6977),主要研究维度聚焦AI技术应用(深度学习)、机理阐释(代谢综合征)及治疗干预(减重手术)。时序演进显示研究重心从早期流行病学基础向中期临床应用萌芽,再到近期精准融合发展,如肠道菌群与AI预测模型结合。机构合作网络中Harvard University占据核心地位,中国科研院所展现追赶发展态势。

结论

该研究领域的知识演进体现了AI技术从风险评估向个性化治疗的模式革新,当前热点转向可解释性AI与多模态数据融合。未来研究应加强国际协作、推进临床随机对照研究验证,关注伦理规范与算法偏见问题,推动全球肥胖防治效能提升与精准医疗发展。

Objective

This paper employs bibliometric analysis to deeply explore the evolution of the knowledge structure and its visual representation in the integration of obesity management and artificial intelligence (AI), identify key research topics, development trajectories, and frontier directions, and provide evidence-based support for the clinical application of endocrinology and interdisciplinary integration.

Methods

Using the Web of Science core database as the data source, the search strategy of "Obesity" OR "Weight Loss" AND "Artificial Intelligence" OR "Machine Learning" was adopted, covering Article and Review types from 2011 to 2025. CiteSpace was utilized for analysis, with annual time slices set and the Top 50 per slice screening criterion applied to construct co-occurrence networks of terms, cluster lineage diagrams, temporal evolution diagrams, and author-institution collaboration maps.

Results

The number of documents showed an exponential growth trend, going through three stages: initial accumulation, rapid development in the middle period, and explosive growth in the recent period. The co-occurrence network of terms included 651 nodes and 2,935 connections, with a network density of 0.0139. High-frequency terms included "obesity" (1 241 times) and "machine learning" (403 times). The clustering results revealed 10 research modules (Q = 0.4151, S = 0.6977), with the main research dimensions focusing on the application of AI technology (deep learning), mechanism explanation (metabolic syndrome), and treatment intervention (weight loss surgery). The temporal evolution showed that the research focus shifted from the early epidemiological foundation to the budding of clinical application in the middle period, and then to the recent precise integration and development, such as the combination of gut microbiota and AI prediction models. In the institutional collaboration network, Harvard University held a core position, while Chinese research institutions demonstrated a catching-up development trend.

Conclusions

The knowledge evolution in this research field reflects the model innovation of AI technology from risk assessment to personalized treatment. Current hotspots have shifted to explainable AI and multimodal data fusion. Future research should strengthen international collaboration, promote clinical randomized controlled trials for validation, pay attention to ethical norms and algorithm bias issues, and enhance the global effectiveness of obesity prevention and treatment and the development of precision medicine.

图1 Web of Science数据库2011至2025年肥胖减重与人工智能研究发文量分布图
图2 Web of Science数据库2011至2025年肥胖减重与人工智能高频关键词共现图谱
表1 Web of Science数据库肥胖减重与人工智能高频关键词
图3 肥胖减重与人工智能关键词聚类和聚类峰峦图谱
图4 肥胖减重与人工智能关键词时区共现图谱
图5 肥胖减重与人工智能文献作者共现图谱
图6 肥胖减重与人工智能国家中心度呈现
图7 肥胖减重与人工智能研究机构共现图谱
表2 肥胖减重与人工智能研究机构TOP10
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