Fang Yipeng, Dou Aizhen, Zhang Yunfei, Zhang Ying, Gao Ying, Xie Keliang
Department of Critical Care Medicine, Tianjin Medical University General Hospital, Tianjin, 300052, China.
Tianjin Hospital, Tianjin, 300052, China.
Shock. 2025 Sep 23. doi: 10.1097/SHK.0000000000002714.
Metabolic reprogramming has emerged as a central mechanism in sepsis pathogenesis, influencing immune responses, organ dysfunction, and therapeutic outcomes. This study conducts a comprehensive bibliometric analysis to map the research landscape, identify key trends, and highlight future directions in this field.
Based on the Science Citation Index Expanded database in Web of Science Core Collection (WOSCC) database, we retrieved and analyzed 672 English-language original research articles and reviews. Using R-bibliometrix, VOSviewer, and CiteSpace we performed a multidimensional analysis of academic output trends, geographical distribution, institutional and author collaboration networks, burst detection and the evolution of research hotspots.
The analysis reveals a consistent upward trend in both publication output and citation frequency within this research domain. The United States (24.3% of total publications) and China (23.4%) have emerged as the most productive contributing nations. Notably, the United States maintains superior academic influence as evidenced by its highest citation frequency. Among institutions, Wake Forest University in the United States holds a preeminent position, having published 54 high-impact articles in this field. The journals Frontiers in Immunology, Shock, and Critical Care, represent the premier academic platforms in this research domain. Immunometabolism, mitochondrial regulation, gut microbiota imbalance, epigenetic modifications, along with the mTOR/AMPK/HIF-1α axis and the Sirtuin family pathway has been identified as the key research hotspots. Novel therapeutic approaches targeting metabolic regulation are rapidly emerging, including pharmacological agents, natural compounds, stem cell-based therapies, and non-coding RNA interventions.
Research on metabolic reprogramming in sepsis shows promising prospects, with investigations into key mechanisms focusing on current research hotspots and the development of metabolism-targeted interventions emerging as critical priorities for future sepsis prevention and treatment strategies.
代谢重编程已成为脓毒症发病机制的核心机制,影响免疫反应、器官功能障碍和治疗结果。本研究进行了全面的文献计量分析,以描绘该研究领域的概况,确定关键趋势,并突出未来方向。
基于Web of Science核心合集(WOSCC)数据库中的科学引文索引扩展数据库,我们检索并分析了672篇英文原创研究文章和综述。使用R-bibliometrix、VOSviewer和CiteSpace,我们对学术产出趋势、地理分布、机构和作者合作网络、突发检测以及研究热点的演变进行了多维度分析。
分析显示该研究领域的出版物数量和引用频率均呈持续上升趋势。美国(占总出版物的24.3%)和中国(23.4%)已成为产出最多的贡献国家。值得注意的是,美国以其最高的引用频率保持着卓越的学术影响力。在机构方面,美国的维克森林大学占据着卓越地位,在该领域发表了54篇高影响力文章。《免疫学前沿》《休克》和《重症监护》等期刊代表了该研究领域的主要学术平台。免疫代谢、线粒体调节、肠道微生物群失衡、表观遗传修饰,以及mTOR/AMPK/HIF-1α轴和沉默调节蛋白家族途径已被确定为关键研究热点。针对代谢调节的新型治疗方法正在迅速涌现,包括药物制剂、天然化合物、基于干细胞的疗法和非编码RNA干预。
脓毒症代谢重编程的研究显示出有前景的前景,对关键机制的研究聚焦于当前的研究热点,而开发针对代谢的干预措施成为未来脓毒症预防和治疗策略的关键优先事项。