关键矿物知识查询系统

IF 2.6 Q2 COMPUTER SCIENCE, INTERDISCIPLINARY APPLICATIONS Applied Computing and Geosciences Pub Date : 2024-06-01 DOI:10.1016/j.acags.2024.100167
Armita Davarpanah , Hassan A. Babaie , W. Crawford Elliott
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引用次数: 0

摘要

关键矿物越来越多地用于先进的现代技术中。对这些矿物的勘探需要高效的机制来搜索有关这些重要资源的岩石成因和空间分布的最新地质知识。尽管目前基于文本的矿床分类方案有助于地球科学家了解这些关键矿物的形成过程和地点,但如果不进行大量的自然语言处理和知识建模,软件就无法轻松地对其进行查询。本体论可以通过逻辑结构明确说明散落在这些方案的文本和表格中的知识,以及关键矿物绘图倡议(CMMI)数据库,其结果可以自动处理和查询。本体论还可以通过推理从其中明确规定的知识中汲取新的知识。这些特性使本体成为数字知识存储、搜索和提取的最佳选择。关键矿物本体(CMO)是通过重复使用顶级基本形式本体(BFO)、中级通用核心本体(CCO)和关系本体(RO)的逻辑类和属性结构来描述的。CMO 采用最新的矿床分类方案和 CMMI 数据库模式,对关键矿物系统的知识进行正式建模。本体描述了在矿物系统的各种地质构造环境中形成不同矿床类型中临界矿物的地球化学和地质过程。本体对含有稀土元素的主矿物和含有其他类型元素的主矿物的属性进行了建模。CMO 还代表了特定关键矿物在工业产品制造中的用途、其替代品以及生产、进口和出口这些产品的国家。使用 Python 编程语言的查询系统可访问 CMO 中的知识模型,并允许用户通过交互式网页查询本体,从中提取不同类型的信息。本体和查询系统对矿石矿物学研究和关键矿物勘探非常有用。通过本体建模和查询系统提供的信息,用户可将其矿石样本数据归类为特定的矿床类型。
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Knowledge-based query system for the critical minerals

Critical minerals are increasingly used in advanced, modern technologies. Exploration for these minerals require efficient mechanisms to search for the latest geological knowledge about the petrogenesis and spatial distribution of these essential resources. Although the current text-based deposit classification schemes help geoscientists to understand how and where these critical minerals form, they cannot easily be queried by software without extensive natural language processing and knowledge modeling. Ontologies can explicitly specify the knowledge scattered in the texts and tables of these schemes and the Critical Minerals Mapping Initiative (CMMI) database by way of logical structures whose results can automatically be processed and queried. They can also draw new knowledge by inference from the ones that are explicitly specified in them. These qualities make ontologies a perfect choice for digital knowledge storage, search, and extraction. The Critical Minerals Ontology (CMO) is described herein by reusing the logical class and property structures of the top-level Basic Formal Ontology (BFO) and mid-level Common Core Ontologies (CCO) and Relation Ontology (RO). The CMO formally models the knowledge about the critical mineral systems using the latest deposit classification scheme and the CMMI database schema. The ontology specifies the geochemical and geological processes that operate in various geotectonic environments of mineral systems to form the critical minerals in different deposit types. It models the properties of both the host minerals that contain the rare-earth elements and those that bear other types of elements. The CMO also represents uses of specific critical minerals in the manufacturing of industrial products, their alternate substitutes, and countries that produce, import, and export them. A query system, applying the Python programming language, accesses the knowledge modeled in the CMO and allows users through interactive web pages to query the ontology and extract different types of information from it. The ontology and the query system are useful for research in ore mineralogy and critical mineral prospecting. The information modeled by the ontology and served by the query system allows users to classify their ore specimen data into specific deposit types.

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来源期刊
Applied Computing and Geosciences
Applied Computing and Geosciences Computer Science-General Computer Science
CiteScore
5.50
自引率
0.00%
发文量
23
审稿时长
5 weeks
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