Tree knowledge structure for better insight: Capturing biomedical science-technology knowledge linkage with MeSH

IF 4.3 3区 材料科学 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC ACS Applied Electronic Materials Pub Date : 2024-07-31 DOI:10.1016/j.joi.2024.101568
Zhejun Zheng , Yaxue Ma , Zhichao Ba , Lei Pei
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Abstract

Measuring the knowledge linkage between science and technology (S&T) is crucial for understanding the interactions between S&T and assisting decision-makers in strategizing research and development investments. Conventional analyses of S&T knowledge linkage have frequently overlooked the semantic structure of knowledge elements thereby introducing biases in the measurements. To address this issue, this study introduces a novel method predicated on the tree semantic structure, which quantifies the S&T linkage by considering the hierarchy and category of knowledge elements within an ontological framework. In this method, knowledge trees are constructed to represent the core knowledge of S&T literature, incorporating hierarchically organized MeSH descriptors. These knowledge trees are subsequently utilized to measure the knowledge linkage between S&T by integrating intra-branch knowledge similarity and inter-branch knowledge distribution. An empirical analysis was conducted on a substantial corpus of scientific publications and patents within the biomedicine sector. The findings predominantly revealed a stronger knowledge linkage between S&T in recent years, relative to the early 2000 s. It was also observed that patents are more inclined to include broader concepts in their titles and abstracts, in contract to the more specific concepts found in scientific publications. S&T literatures have increasingly focused on knowledge related to diseases, equipment, and health care. To verify the reliability of the proposed method, validation was performed with alternative measurements of knowledge linkage. In comparison to single-feature-based linkage measurements and network-based approaches, our proposed method demonstrates superior adaptability in capturing S&T linkage, especially when there is a marked disparity in the sample sizes of S&T literature. This study not only enriches the measurements of S&T knowledge linkage, but also furnishes empirical insights into the evolving patterns of S&T linkage within the biomedical domain.

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树状知识结构,提高洞察力:用 MeSH 捕捉生物医学科学与技术知识的联系
衡量科学技术(S&T)之间的知识联系对于了解科学技术之间的相互作用以及协助决策者制定研发投资战略至关重要。传统的科技知识联系分析经常忽略知识要素的语义结构,从而在测量中产生偏差。为解决这一问题,本研究引入了一种基于树形语义结构的新方法,通过考虑本体框架内知识要素的层次和类别来量化科技联系。在这种方法中,通过构建知识树来表示科技文献的核心知识,并结合分层组织的 MeSH 描述符。这些知识树随后通过整合分支内知识相似性和分支间知识分布来衡量科技之间的知识联系。对生物医学领域的大量科学出版物和专利进行了实证分析。与科学出版物中的具体概念相比,专利更倾向于在标题和摘要中包含更广泛的概念。科技文献越来越关注与疾病、设备和医疗保健相关的知识。为了验证所建议方法的可靠性,我们使用其他知识关联测量方法进行了验证。与基于单一特征的联系测量方法和基于网络的方法相比,我们提出的方法在捕捉科技联系方面具有更强的适应性,尤其是在科技文献样本量存在明显差异的情况下。这项研究不仅丰富了科技知识关联的测量方法,还为生物医学领域科技关联的演变模式提供了经验性见解。
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来源期刊
CiteScore
7.20
自引率
4.30%
发文量
567
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