利用技术挖掘描述纳米医学研究的转化创新途径

Jing Ma, Donghua Zhu, D. Farrell, Michael D. Chang, P. Grodzinski, Natalie Abrams, A. Porter
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引用次数: 0

摘要

技术发现从实验室到床边的临床转化是一个缓慢而渐进的过程。捕捉技术发展的早期事件可以为了解生物医学创新的本质及其瓶颈提供关键见解。然而,现有资料的庞大数量对系统地评估现有能力构成了重大障碍。纳米医学涉及纳米技术的医学应用,它完美地体现了转化研究面临的挑战。在本研究中,我们探索了利用研究文献中发现的可观察标记物,使用简化的技术挖掘方法识别转化创新途径的可行性。该框架包括三个部分:1)从标题和摘要中提取特征术语;2)用翻译阶段和应用标记标注研究论文;3)主题变化、转化阶段和创新途径的分析。我们应用这一策略来分析一组23,982条PubMed记录,这些记录涉及金纳米结构(GNSs),这些纳米结构已经在广泛的生物医学应用中得到了广泛的研究。这些研究根据其预期临床应用、研究领域、疾病和转化阶段进行分类。我们的研究结果表明,全球导航系统在癌症、治疗应用和动物试验领域的研究显著增加。此外,这些标签与特征术语一起用于构建三种生物医学应用的创新路径图:治疗、体外检测或成像。本文所描述的框架对学术研究人员、资助机构以及制药和医疗设备公司都很有用,可以促进对转化准备情况和未来研究规划的评估
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Delineating Translational Innovation Pathways for Nanomedical Research Using Tech Mining
Clinical translation of technological discoveries from bench to bedside has been a slow and incremental process. Capturing early events in technology development can provide key insights into the nature of biomedical innovation and its bottlenecks. The sheer volume of the available information, however, presents a significant barrier to a systematic assessment of current capabilities. Nanomedicine, which deals with medical applications of nanotechnology, perfectly exemplifies the challenges facing translational research. In this study, we have explored the feasibility of using a streamlined tech mining approach for identification of translational innovation pathways using observable markers found in research literature. The framework contains three sections: 1) extraction of feature terms from titles and abstracts; 2) tagging research articles with translational stages and application markers; and 3) analysis of topical changes, translational phases, and innovation pathways. We applied this strategy to analyze a set of 23,982 PubMed records that involved gold nanostructures (GNSs), which have been extensively studied in a wide range of biomedical applications. The studies were classified based on their intended clinical application, research field, disease, and translational stage. Our results have identified a significant increase in GNSs studies in the areas of cancer, therapeutic applications, and animal testing. Additionally, the tags along with feature terms were used to build innovation pathway maps for three types of biomedical applications: treatment, in vitro detection, or imaging. The framework described in this paper can be useful for academic researchers, funding agencies, as well as pharmaceutical and medical device companies to facilitate assessment of translational readiness and future research planning
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