Developing FAIR Ontological Pathways: Linking Evidence of Movement in Lidar to Models of Human Behaviour

Q1 Social Sciences
L. Nuninger, Rachel Opitz, Philip Verhagen, T. Libourel, C. Laplaige, S. Leturcq, Nathanael Le Voguer, Catherine Fruchart, Žiga Kokalj, Xavier Rodier
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引用次数: 12

Abstract

This paper proposes an ontological approach to connect the archaeological topographic evidence for movement in the landscape which can be derived from interpretation and spatial analysis of airborne lidar data with models of movement derived from modeling exercises such as Agent Based Modelling or Cost Path Modelling. This computational ontology enables the investigation of movement and its topographic manifestations in the landscape at various spatio-temporal scales. It creates an explicit framework for accessing meaningful information about movement generated through research using both detection and modelling-led approaches. Developing explicit computational frameworks to provide meaningful context is critical, particularly as remote sensing and modelling projects increase in scale and complexity. The process of developing a computational ontology exposes a deeper underlying issue, and one applicable to many topics we address as archaeologists: if we begin to unpack the concept of ‘movement’ it is readily apparent that it is a complex phenomenon, like many human habits, and studying it requires drawing together a variety of types of physical evidence and multiple, often competing, theoretical models of human processes and practices. If we wish to make archaeological ‘data’ on movement available, how do we create appropriate contextual information – really useful metadata – so that this data can be incorporated into the variety of studies for which knowledge of movement is relevant? This is essentially the challenge posed broadly by the FAIR principles, and in particular by the principle of interoperability, which suggests that we “use a formal, accessible, shared, and broadly applicable language for knowledge representation”. Rather than simply seeking to fulfill the requirements of an arbitrary standard, attempting to meet the challenge of interoperability provides an impetus and opportunity to attempt to bridge the gap between data and model, and to reconsider how we conceive and represent knowledge in archaeological digital data and modelling projects. This kind of computational ontology, we suggest, can serve as the key for making the data from both these sources actually FAIR.
发展FAIR本体论路径:将激光雷达中的运动证据与人类行为模型联系起来
本文提出了一种本体论方法,将景观中运动的考古地形证据(可以从机载激光雷达数据的解释和空间分析中获得)与建模练习(如基于代理的建模或成本路径建模)产生的运动模型联系起来。这种计算本体论能够在不同的时空尺度上研究运动及其在景观中的地形表现。它创建了一个明确的框架,用于访问通过使用检测和建模方法进行研究而产生的有关运动的有意义的信息。开发明确的计算框架以提供有意义的背景是至关重要的,特别是在遥感和建模项目规模和复杂性增加的情况下。发展计算本体论的过程暴露了一个更深层次的潜在问题,一个适用于我们作为考古学家讨论的许多主题的问题:如果我们开始解开“运动”的概念,很明显,它是一个复杂的现象,就像许多人类习惯一样,研究它需要将各种类型的物理证据和人类过程和实践的多种(通常是相互竞争的)理论模型结合在一起。如果我们希望提供有关运动的考古“数据”,我们如何创建适当的上下文信息——真正有用的元数据——以便将这些数据纳入与运动知识相关的各种研究中?这本质上是FAIR原则,特别是互操作性原则所提出的挑战,它建议我们“使用正式的、可访问的、共享的、广泛适用的语言来表示知识”。而不是简单地寻求满足任意标准的要求,试图满足互操作性的挑战提供了一个动力和机会,试图弥合数据和模型之间的差距,并重新考虑我们如何在考古数字数据和建模项目中构思和表示知识。我们认为,这种计算本体可以作为使这两个来源的数据真正公平的关键。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
CiteScore
5.50
自引率
0.00%
发文量
12
审稿时长
19 weeks
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