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双光子聚合在生物医学领域应用的知识领域与热点分析:一项文献计量学与可视化研究

Knowledge domain and hotspots analysis concerning applications of two-photon polymerization in biomedical field: A bibliometric and visualized study.

作者信息

Fu Hongxun, Jing Xian, Lin Jieqiong, Wang Liye, Jiang Hancheng, Yu Baojun, Sun Meiyan

机构信息

Key Laboratory of Micro/Nano and Ultra-precision Manufacturing, School of Mechatronic Engineering, Changchun University of Technology, Changchun, Jilin, China.

College of Pharmacy, University of Houston, Houston, TX, United States.

出版信息

Front Bioeng Biotechnol. 2022 Sep 30;10:1030377. doi: 10.3389/fbioe.2022.1030377. eCollection 2022.

Abstract

Two-photon polymerization (TPP) utilizes an optical nonlinear absorption process to initiate the polymerization of photopolymerizable materials. To date, it is the only technique capable of fabricating complex 3D microstructures with finely adjusted geometry on the cell and sub-cell scales. TPP shows a very promising potential in biomedical applications related to high-resolution features, including drug delivery, tissue engineering, microfluidic devices, and so forth. Therefore, it is of high significance to grasp the global scientific achievements in this field. An analysis of publications concerning the applications of TPP in the biomedical field was performed, and the knowledge domain, research hotspots, frontiers, and research directions in this topic were identified according to the research results. The publications concerning TPP applications in biomedical field were retrieved from WoSCC between 2003 and 2022, Bibliometrics and visual analysis employing CiteSpace software and R-language package Bibliometrix were performed in this study. A total of 415 publications regarding the TPP applications in the biomedical field were retrieved from WoSCC, including 377 articles, and 38 review articles. The studies pertaining to the biomedical applications of TPP began back in 2003 and showed an upward trend constantly. Especially in the recent 5 years, studies of TPP in biomedical field have increased rapidly, with the number of publications from 2017 to 2021 accounting for 52.29% of the total. In terms of output, China was the leading country and Chinese Acad Sci, Tech Inst Phys and Chem was the leading institution. The United States showed the closest cooperation with other countries. ACS applied materials and interfaces was the most prolific journal ( = 13), followed by Biofabrication ( = 11) and Optics express ( = 10). The journals having the top cited papers were Biomaterials, Advanced materials, and Applied physic letters. The most productive author was Aleksandr Ovsianikov (27 articles). Meanwhile, researchers who had close cooperation with other researchers were also prolific authors. "cell behavior", " (tissue engineering) scaffolds", "biomaterials," and "hydrogel" were the main co-occurrence keywords and "additional manufacturing", "3D printing," and "microstructures" were the recent burst keywords. The Keyword clusters, "stem cells," and "mucosal delivery", appeared recently. A paper reporting unprecedented high-resolution bull models fabricated by TPP was the most locally cited reference (cited 60 times). "Magnetic actuation" and "additive manufacturing" were recently co-cited reference clusters and an article concerning ultracompact compound lens systems manufactured by TPP was the latest burst reference. The applications of TPP in biomedical field is an interdisciplinary research topic and the development of this field requires the active collaboration of researchers and experts from all relevant disciplines. Bringing up a better utilization of TPP as an additive manufacturing technology to better serve the biomedical development has always been the research focus in this field. Research on stem cells behaviors and mucosal delivery based on microstructures fabricated using TPP were becoming new hotspots. And it can be predicted that using TPP as a sourcing technique to fabricate biomedical-related structures and devices is a new research direction. In addition, the research of functional polymers, such as magnetic-driven polymers, was the frontier topic of TPP biomedical applications.

摘要

双光子聚合(TPP)利用光学非线性吸收过程引发可光聚合材料的聚合反应。迄今为止,它是唯一能够在细胞和亚细胞尺度上制造具有精细调整几何形状的复杂三维微结构的技术。TPP在与高分辨率特征相关的生物医学应用中显示出非常有前景的潜力,包括药物递送、组织工程、微流控装置等。因此,掌握该领域的全球科学成就具有重要意义。对有关TPP在生物医学领域应用的出版物进行了分析,并根据研究结果确定了该主题的知识领域、研究热点、前沿和研究方向。本研究从2003年至2022年的Web of Science核心合集(WoSCC)中检索了有关TPP在生物医学领域应用的出版物,并使用CiteSpace软件和R语言包Bibliometrix进行了文献计量学和可视化分析。从WoSCC中总共检索到415篇关于TPP在生物医学领域应用的出版物,其中包括377篇文章和38篇综述文章。有关TPP生物医学应用的研究始于2003年,并呈持续上升趋势。特别是在最近5年中,生物医学领域中TPP的研究迅速增加,2017年至2021年的出版物数量占总数的52.29%。在产出方面,中国是领先国家,中国科学院理化技术研究所是领先机构。美国与其他国家的合作最为密切。《美国化学会应用材料与界面》是发文量最多的期刊(=13),其次是《生物制造》(=11)和《光学快报》(=10)。被引次数最多的论文发表在《生物材料》《先进材料》和《应用物理快报》上。发文量最多的作者是亚历山大·奥夫西安尼科夫(27篇文章)。同时,与其他研究人员密切合作的研究人员也是多产作者。“细胞行为”“(组织工程)支架”“生物材料”和“水凝胶”是主要的共现关键词,“增材制造”“3D打印”和“微结构”是最近的突发关键词。关键词聚类“干细胞”和“黏膜递送”最近出现。一篇报道用TPP制造出前所未有的高分辨率公牛模型的论文是被引用最多的本地参考文献(被引用60次)。“磁驱动”和“增材制造”是最近的共被引参考文献聚类,一篇关于用TPP制造超紧凑型复合透镜系统的文章是最新的突发参考文献。TPP在生物医学领域的应用是一个跨学科研究主题,该领域的发展需要所有相关学科的研究人员和专家积极合作。更好地利用TPP作为一种增材制造技术以更好地服务于生物医学发展一直是该领域的研究重点。基于用TPP制造的微结构对干细胞行为和黏膜递送的研究正成为新的热点。并且可以预测,将TPP用作制造生物医学相关结构和装置的来源技术是一个新的研究方向。此外,对功能聚合物,如磁驱动聚合物的研究是TPP生物医学应用的前沿课题。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/e0cb/9561250/225001183a96/fbioe-10-1030377-g001.jpg

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