Human GeneticsBioinformaticsPeer-reviewed journal article
Predicting the impact of rare variants on RNA splicing in CAGI6
Jenny LordiD, Carolina Jaramillo OquendoiD, Htoo A. WaiiD, Andrew G. L. DouglasiD, David J. BunyaniD, Yaqiong WangiD, Zhiqiang HuiD, Zishuo ZengiD, Daniel DanišiD, Panagiotis KatsonisiD, Amanda M. WilliamsiD, Olivier LichtargeiD, Yu‐Chen ChangiD, Richard D. BagnalliD, Stephen M. MountiD, Brynja MatthíasardóttiriD, Chiao‐Feng LiniD, Thomas van Overeem HanseniD, Raphaël LemaniD, Alexandra MartinsiD, Claude HoudayeriD, Sophie KriegeriD, Constantina BakolitsaiD, Yisu PengiD, Akash Kamandula, , Diana BaralleiD
Abstract
BackgroundVariants which disrupt splicing are a frequent cause of rare disease that have been under-ascertained clinically. Accurate and efficient methods to predict a variants impact on splicing are needed to interpret the growing number of variants of unknown significance (VUS) identified by exome and genome sequencing. Here we present the results of the CAGI6 Splicing VUS challenge, which invited predictions of the splicing impact of 56 variants ascertained clinically and functionally validated to determine splicing impact. ResultsThe performance of 12 prediction methods, along with SpliceAI and CADD, was compared on the 56 functionally validated variants. The maximum overall accuracy achieved was 82% from two different approaches, one weighting SpliceAI scores by minor allele frequency, and one applying the recently published Splicing Prediction Pipeline (SPiP). SPiP performed optimally in terms of sensitivity, while an ensemble method combining multiple prediction tools and information from databases exceeded all others for specificity. ConclusionsSeveral challenge methods equalled or exceeded the performance of SpliceAI, with ultimate choice of prediction method likely to depend on experimental or clinical aims. One quarter of the variants were incorrectly predicted by at least 50% of the methods, highlighting the need for further improvements to splicing prediction methods for successful clinical application.
- organism: human
- assay: whole-exome sequencing
- research focus: variant effect prediction
- approach: statistical model
- Citations
- 11
- FWCI
- 3.17
- Field percentile
- top 8%
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