基于文献计量学的微生物电合成领域研究进展

Research progress in the field of microbial electrosynthesis by bibliometrics

  • 摘要: 为探究微生物电合成(MES)领域研究进展,基于Web of Science Core Collection(WOSCC)数据库,采用文献计量法,并运用CiteSpace、VOSviewer等可视化软件,对该领域2011—2025年的729篇相关文献展开系统分析。结果显示:在2011—2025年MES领域的发文趋势呈现出“技术萌芽期—加速发展期—成熟稳定期”的三阶段增长模式。中国虽拥有突出的科研发文量,但受到研究起步晚和发文时效性等客观因素影响,在高被引文献占比、篇均被引频次、作者影响力及国际合作网络紧密度等方面仍与欧美存在一定差距。当前MES领域研究热点主要集中在气体发酵与甲烷化利用、高值产物合成与链延长机制、电子传递机制与功能微生物调控3大方向。预计将进一步聚焦于链延长机制与析氢反应的深入探索。多学科深度交叉融合与研究人员的紧密协作,是推动MES领域发展的核心驱动力,其最终目标是将MES发展为规模化CO2固定与资源化利用的核心技术之一。

     

    Abstract: To study the research progress in the field of microbial electrosynthesis (MES), a bibliometric analysis with visualization tools (e.g., CiteSpace and VOSviewer) was conducted on 729 MES-related publications retrieved from the Web of Science Core Collection (WOSCC) database between 2011 and 2025. The results indicate that the publication trend in the MES field from 2011 to 2025 presents a three-stage growth pattern: "Technological emergence phase—Accelerated development phase—Maturation and stabilization phase". China has made remarkable contributions in terms of total publication output. However, due to objective factors (e.g., a later research onset and the timeliness of publications), China still lags behind Europe and the United States in several aspects, including the proportion of highly cited papers, average citations per article, author-level academic influence, and international collaboration network density Current research hotspots in MES focus on three key directions: gas fermentation and methanogenic valorization, value-added product synthesis and chain elongation mechanisms, and electron transfer pathways and functional microbial regulation. Future research will likely prioritize the in-depth elucidation of chain elongation processes and hydrogen evolution reactions. Overall, deep multidisciplinary integration and close researcher collaboration are key drivers for advancing MES. The ultimate goal is to establish MES as a core technology for large-scale CO2 fixation and resource recovery.

     

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