The European Materials and Modelling Ontology (EMMO) has recently been advanced in the computational molecular engineering and multiscale modelling communities as a top-level ontology, aiming to support semantic interoperability and data integration solutions, e.g., for research data infrastructures. The present work explores how top-level ontologies that are based on the same paradigm - the same set of fundamental postulates - as the EMMO can be applied to models of physical systems and their use in computational engineering practice. This paradigm, which combines mereology (in its extension as mereotopology) and semiotics (following Peirce's approach), is here referred to as mereosemiotics. Multiple conceivable ways of implementing mereosemiotics are compared, and the design space consisting of the possible types of top-level ontologies following this paradigm is characterized.
翻译:欧洲材料和模型本体学(EMMO)最近作为顶级本体学在计算分子工程和多尺度建模界中得到了发展,目的是支持语义互操作性和数据整合解决方案,例如用于研究数据基础设施;目前的工作探讨了如何将基于相同模式的顶级本体学――与EMMO相同的一套基本假设—适用于物理系统模型及其在计算工程实践中的应用,这一模式将简易学(作为纯生物学的延伸)和半科学(按照皮尔斯的方法)结合起来,在此被称为“一流的流行病学”。对执行微表层学的多种可设想方法进行了比较,并确定了设计空间,根据这一模式,可能由顶级本体学类型构成的设计空间。