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2023 ACMG Annual Clinical Genetics Meeting Digital ...
Assessing the Performance of Automated HPO Term Ex ...
Assessing the Performance of Automated HPO Term Extraction for Deep Phenotyping of Patients Receiving WES/WGS in a Clinical Diagnostic Laboratory
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The document discusses the use of Natural Language Processing (NLP) algorithms to automate the extraction of Human Phenotype Ontology (HPO) terms from patient clinical narrative notes. This process is important for creating a prioritized gene list for whole exome and whole genome sequencing (WES/WGS) analysis. The document presents the results of a study that assessed the performance of an NLP-assisted deep phenotyping and gene-ranking workflow in a clinical diagnostic laboratory setting.<br /><br />The study included 50 pediatric patients who underwent WES, and their clinical notes were processed using the EHR-Phenolyzer pipeline, which utilized NLP to extract HPO terms and generate a ranked gene list. The accuracy of the extracted HPO terms was compared to provider-submitted terms and other workflows.<br /><br />The results showed that the NLP-assisted workflow efficiently translated phenotypes into HPO terms and outperformed other workflows in ranking disease-causing variants at certain positions. On average, 27.8 HPO terms were extracted per case compared to an average of 7.3 features manually submitted by providers.<br /><br />Applying the optimized pipeline to 20 WGS datasets, the ranking system was able to prioritize genes with candidate disease-causing non-coding/intronic variants in 3 cases at positions <150th. The study also discovered 3 cases with pathogenic coding variants in genes that were poorly ranked, but these cases had atypical presentations or emerging evidence for the genes in the literature.<br /><br />Overall, the study demonstrates that NLP-assisted deep phenotyping can efficiently convert phenotypic features into HPO terms and improve the accuracy of gene-ranking algorithms. This method can be valuable in prioritizing non-coding/intronic variants in patients with previously undiagnostic WES results. Further human curation can further improve the accuracy of the extracted HPO terms.
Asset Subtitle
Presenting Author - Kai Lee Yap, PhD; Co-Author - Anthony Wong, PhD; Co-Author - Sachleen Tuteja, NA; Co-Author - Andrew Skol, PhD; Co-Author - Andy Drackley, MS, CGC; Co-Author - Alexander Ing, MS, CGC; Co-Author - Eleanor Hilton, MS, CGC; Co-Author - Michael Carroll, PhD; Co-Author - Christopher McCabe, BSc; Co-Author - Sabah Kadri, PhD; Co-Author - Pamela A. Rathbun; Co-Author - Katrin Leuer, PhD; Co-Author - Joel Charrow, MD;
Meta Tag
Exome sequencing
Genetic Testing
Genome sequencing
Genomic Methodologies
Genotype-Phenotype Correlations
Identification of Disease Genes
Methodology
NextGen Sequencing
Phenotype
Phenotypic delineation of disorders
Sequencing
Co-Author
Anthony Wong, PhD
Co-Author
Sachleen Tuteja, NA
Co-Author
Andrew Skol, PhD
Co-Author
Andy Drackley, MS, CGC
Co-Author
Alexander Ing, MS, CGC
Co-Author
Eleanor Hilton, MS, CGC
Co-Author
Michael Carroll, PhD
Co-Author
Christopher McCabe, BSc
Co-Author
Sabah Kadri, PhD
Co-Author
Pamela A. Rathbun
Co-Author
Katrin Leuer, PhD
Co-Author
Joel Charrow, MD
Presenting Author
Kai Lee Yap, PhD
Keywords
Natural Language Processing
NLP
Human Phenotype Ontology
HPO terms
patient clinical narrative notes
gene list
whole exome sequencing
whole genome sequencing
NLP-assisted deep phenotyping
gene-ranking workflow
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