TY - GEN N2 - Genomic screening is an increasingly important part of cancer care. Screening often detects somatic variants in the tumor sample of varied clinical significance: some are well understood, some are connected to only loose evidence, and some are unknown altogether. The purpose of this project was to construct a tool that could present state-of-the-art pathway information to genomics experts evaluating the clinical significance of variants. A web service was created that runs queries against the Reactome pathway database in search of common pathway activity between variants of a clinical case that are known to be pathogenic and those that are of unknown significance. It was integrated into the software infrastructure of a high-volume genomics lab at Providence St. Joseph?s Health. A very different approach to the same problem was attempted via the cloud database product Google BigQuery. The project so far has failed to be of clinical utility. Two areas of improvement could remedy that situation in future iterations: a more stable network visualization technique, and higher resolution mapping of novel variants to pathway databases via accounting for the effect of alterations on particular protein subdomains. In its current form the project was not able to reap the benefits of a graph database in particular. A simpler focus on a small number of ?canonical pathways? looks like a quicker path to a value-added user interface. DO - 10.6083/fq977v472 DO - DOI AB - Genomic screening is an increasingly important part of cancer care. Screening often detects somatic variants in the tumor sample of varied clinical significance: some are well understood, some are connected to only loose evidence, and some are unknown altogether. The purpose of this project was to construct a tool that could present state-of-the-art pathway information to genomics experts evaluating the clinical significance of variants. A web service was created that runs queries against the Reactome pathway database in search of common pathway activity between variants of a clinical case that are known to be pathogenic and those that are of unknown significance. It was integrated into the software infrastructure of a high-volume genomics lab at Providence St. Joseph?s Health. A very different approach to the same problem was attempted via the cloud database product Google BigQuery. The project so far has failed to be of clinical utility. Two areas of improvement could remedy that situation in future iterations: a more stable network visualization technique, and higher resolution mapping of novel variants to pathway databases via accounting for the effect of alterations on particular protein subdomains. In its current form the project was not able to reap the benefits of a graph database in particular. A simpler focus on a small number of ?canonical pathways? looks like a quicker path to a value-added user interface. AD - Oregon Health and Science University T1 - VarGraph: a decision support tool for variant classification using pathway databases DA - 2019 AU - Ball, David L1 - https://digitalcollections.ohsu.edu/record/7585/files/ball.david._2019.pdf PB - Oregon Health and Science University PB - Oregon Health and Science University PY - 2019 ID - 7585 L4 - https://digitalcollections.ohsu.edu/record/7585/files/ball.david._2019.pdf KW - Genomics KW - Software KW - Neoplasms KW - databases KW - genetic TI - VarGraph: a decision support tool for variant classification using pathway databases Y1 - 2019 L2 - https://digitalcollections.ohsu.edu/record/7585/files/ball.david._2019.pdf LK - https://digitalcollections.ohsu.edu/record/7585/files/ball.david._2019.pdf UR - https://digitalcollections.ohsu.edu/record/7585/files/ball.david._2019.pdf ER -