Atrial Fibrillation Genomics: Discovery and Translation.
David H YooRolf BodmerKaren OcorrChristopher J LarsonAlexandre R ColasEvan D MusePublished in: Current cardiology reports (2021)
Rare familial forms of AF identified monogenic contributions to the development of AF. Genome-wide association studies (GWAS) further identified single-nucleotide polymorphisms (SNPs) suggesting polygenic and multiplex nature of this common disease. Polygenic risk scores accounting for the multitude of associated SNPs that each confer mildly elevated risk have been developed to translate genetic information into clinical practice, though shortcomings remain. Additionally, novel laboratory methods have been empowered by recent genetic findings to enhance drug discovery efforts. AF is increasingly recognized as a disease with a significant genetic component. With expanding sequencing technologies and accessibility, polygenic risk scores can help identify high risk individuals. Advancement in digital health tools, artificial intelligence and machine learning based on standard electrocardiograms, and genomic driven drug discovery may be integrated to deliver a sophisticated level of precision medicine in this modern era of emphasis on prevention. Randomized, prospective studies to demonstrate clinical benefits of these available tools are needed to validate this approach.
Keyphrases
- drug discovery
- atrial fibrillation
- artificial intelligence
- machine learning
- genome wide
- genome wide association
- big data
- clinical practice
- copy number
- public health
- deep learning
- high throughput
- healthcare
- clinical trial
- mental health
- heart failure
- randomized controlled trial
- small molecule
- dna methylation
- coronary artery disease
- open label
- catheter ablation
- oral anticoagulants
- percutaneous coronary intervention
- left atrial appendage
- double blind
- climate change
- left ventricular