Noichl Maximilian
Faculty of Philosophy and Education, University of Vienna, Universitätsstraße 7, 1010 Vienna, Austria.
Faculty for Social Sciences and Economics, University of Bamberg, Feldkirchenstraße 21, 96045 Bamberg, Germany.
Synthese. 2023;201(3):107. doi: 10.1007/s11229-023-04057-x. Epub 2023 Mar 13.
A commonly held background assumption about the sciences is that they connect along borders characterized by ontological or explanatory relationships, usually given in the order of mathematics, physics, chemistry, biology, psychology, and the social sciences. Interdisciplinary work, in this picture, arises in the connecting regions of adjacent disciplines. Philosophical research into interdisciplinary model transfer has increasingly complicated this picture by highlighting additional connections orthogonal to it. But most of these works have been done through case studies, which due to their strong focus struggle to provide foundations for claims about large-scale relations between multiple scientific disciplines. As a supplement, in this contribution, we propose to philosophers of science the use of modern science mapping techniques to trace connections between modeling techniques in large literature samples. We explain in detail how these techniques work, and apply them to a large, contemporary, and multidisciplinary data set (n=383.961 articles). Through the comparison of textual to mathematical representations, we suggest formulaic structures that are particularly common among different disciplines and produce first results indicating the general strength and commonality of such relationships.
关于科学,一个普遍的背景假设是,它们沿着以本体论或解释性关系为特征的边界相互联系,这些关系通常按照数学、物理学、化学、生物学、心理学和社会科学的顺序排列。在这种情况下,跨学科工作出现在相邻学科的连接区域。对跨学科模型转移的哲学研究通过强调与之正交的额外联系,使这幅图景日益复杂。但这些工作大多是通过案例研究完成的,由于它们的重点过于突出,难以提供关于多个科学学科之间大规模关系的主张的基础。作为补充,在本论文中,我们向科学哲学家提议使用现代科学映射技术来追踪大型文献样本中建模技术之间的联系。我们详细解释了这些技术的工作原理,并将它们应用于一个大型、当代且多学科的数据集(n = 383,961篇文章)。通过文本表示与数学表示的比较,我们提出了在不同学科中特别常见的公式化结构,并得出了初步结果,表明了这种关系的总体强度和共性。