通过基于本体的注解创建结构化的AOP知识库。

Q2 Health Professions
Cataia Ives, Ivana Campia, Rong-Lin Wang, Clemens Wittwehr, Stephen Edwards
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引用次数: 48

摘要

不良后果途径框架越来越多地用于整合基于传统和新兴毒性测试范式产生的数据。随着AOP描述数量的增加,用可计算术语定义AOP的需求也在增加。材料和方法:在此,我们使用现有生物本体中的术语,对截至2016年12月4日收录在AOP-Wiki中的172个aop进行了全面注释。结果:使用称为事件组件的概念为AOP关键事件(ke)分配了本体术语,该概念由过程、对象和操作术语组成,每个术语都源自本体和其他受控词汇表。使用来自14个本体和受控词汇表的本体类对ke进行注释,总共使用809个事件组件对685个ke进行了注释。由此产生了一组七个约定,通过事件组件定义了ke的注释。讨论:AOP的扩展注释允许计算推理器在AOP开发和应用程序中提供帮助。此外,结合显式的生物对象将减少将定性AOP描述转换为可以支持计算建模的概念模型所需的时间。随着高通量基因组学成为高通量毒性测试领域中更重要的一部分,这里描述的用于注释关键事件的新方法也将促进AOP上下文中基因组学数据的可视化和分析。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Creating a Structured AOP Knowledgebase via Ontology-Based Annotations.

Creating a Structured AOP Knowledgebase via Ontology-Based Annotations.

Creating a Structured AOP Knowledgebase via Ontology-Based Annotations.

Creating a Structured AOP Knowledgebase via Ontology-Based Annotations.

Introduction: The Adverse Outcome Pathway framework is increasingly used to integrate data generated based on traditional and emerging toxicity testing paradigms. As the number of AOP descriptions has increased, so has the need to define the AOP in computable terms.

Materials and methods: Herein, we present a comprehensive annotation of 172 AOPs housed in the AOP-Wiki as of December 4, 2016 using terms from existing biological ontologies.

Results: AOP Key Events (KEs) were assigned ontology terms using a concept called the Event Component, which consists of a Process, an Object, and an Action term, with each term originating from ontologies and other controlled vocabularies. Annotation of KEs with ontology classes from fourteen ontologies and controlled vocabularies resulted in a total of 685 KEs being annotated with a total of 809 Event Components. A set of seven conventions resulted, defining the annotation of KEs via Event Components.

Discussion: This expanded annotation of AOPs allows computational reasoners to aid in both AOP development and applications. In addition, the incorporation of explicit biological objects will reduce the time required for converting a qualitative AOP description into a conceptual model that can support computational modeling. As high throughput genomics becomes a more important part of the high throughput toxicity testing landscape, the new approaches described here for annotating key events will also promote the visualization and analysis of genomics data in an AOP context.

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来源期刊
Applied In Vitro Toxicology
Applied In Vitro Toxicology Health Professions-Medical Laboratory Technology
CiteScore
2.70
自引率
0.00%
发文量
13
期刊介绍: Applied In Vitro Toxicology is a peer-reviewed journal providing the latest research on the application of alternative in vitro testing methods for predicting adverse effects in the pharmaceutical, chemical, and personal care industries. This Journal aims to address important issues facing the various chemical industries, including regulatory requirements; the reduction, refinement, and replacement of animal testing; new screening methods; evaluation of new cell and tissue models; and the most appropriate methods for assessing safety and satisfying regulatory demands. The Journal also delivers the latest views and opinions of developers of new models, end users of the models, academic laboratories that are inventing new tools, and regulatory agencies in the United States, Europe, Latin America, Australia and Asia. Applied In Vitro Toxicology is the journal that scientists involved with hazard identification and risk assessment will read to understand how new and existing in vitro methods are applied, and the questions for which these models provide answers. Applied In Vitro Toxicology coverage includes: -Applied in vitro toxicology industry standards -New technologies developed for applied in vitro toxicology -Data acquisition, cleaning, distribution, and best practices -Data protection, privacy, and policy -Business interests from research to product -The changing role of in vitro toxicology -Visualization and design principles of applied in vitro toxicology infrastructures -Physical interfaces and robotics -Opportunities around applied in vitro toxicology
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