Automated ontology generation framework powered by linked biomedical ontologies for disease-drug domain. (October 2018)

• Record Type: Journal Article
• Authors: Alobaidi, Mazen; Malik, Khalid Mahmood; Hussain, Maqbool
• Is Part Of: Computer methods and programs in biomedicine. Volume 165(2018)
• Page Start: 117
• Page End: 128
• Publication Date: 2018-10
• Subjects: Semantic web -- Ontology generation -- Linked biomedical ontologies; Medicine -- Computer programs -- Periodicals; Biology -- Computer programs -- Periodicals; Computers -- Periodicals; Medicine -- Periodicals; Médecine -- Logiciels -- Périodiques; Biologie -- Logiciels -- Périodiques; Biology -- Computer programs; Medicine -- Computer programs; Periodicals; Electronic journals; 610.28
• DOI: 10.1016/j.cmpb.2018.08.010
• Languages: English
• ISSNs: 0169-2607

Abstract

Highlights: First attempt towards using Linked Biomedical Ontologies for automated ontology generation. Proposed a framework that leverages natural language processing, semantic enrichment, and linked biomedical ontologies to build a formal ontology. Our evaluation shows competitive results in most of the tasks of ontology generation compared to those obtained by existing frameworks. Our proposed framework shows that LBO is a promising source of knowledge for the construction of well-defined ontologies. Abstract: Objective and background: The exponential growth of the unstructured data available in biomedical literature, and Electronic Health Record (EHR), requires powerful novel technologies and architectures to unlock the information hidden in the unstructured data. The success of smart healthcare applications such as clinical decision support systems, disease diagnosis systems, and healthcare management systems depends on knowledge that is understandable by machines to interpret and infer new knowledge from it. In this regard, ontological data models are expected to play a vital role to organize, integrate, and make informative inferences with the knowledge implicit in that unstructured data and represent the resultant knowledge in a form that machines can understand. However, constructing such models is challenging because they demand intensive labor, domain experts, and ontology engineers. Such requirements impose a limit on the scale or scope of ontological data models. We present a framework that will allow mitigating the time-intensity to build ontologies and achieve machine interoperability. Methods: Empowered by linked biomedical ontologies, our proposed novel Automated Ontology Generation Framework consists of five major modules: a) Text Processing using compute on demand approach. b) Medical Semantic Annotation using N-Gram, ontology linking and classification algorithms, c) Relation Extraction using graph method and Syntactic Patterns, d), Semantic Enrichment using RDF mining, e) Domain Inference Engine to build the formal ontology. Results: Quantitative evaluations show 84.78% recall, 53.35% precision, and 67.70% F-measure in terms of disease-drug concepts identification; 85.51% recall, 69.61% precision, and F-measure 76.74% with respect to taxonomic relation extraction; and 77.20% recall, 40.10% precision, and F-measure 52.78% with respect to biomedical non-taxonomic relation extraction. Conclusion : We present an automated ontology generation framework that is empowered by Linked Biomedical Ontologies. This framework integrates various natural language processing, semantic enrichment, syntactic pattern, and graph algorithm based techniques. Moreover, it shows that using Linked Biomedical Ontologies enables a promising solution to the problem of automating the process of disease-drug ontology generation.