#30 · ML / AI methods
Sparse and learned models move genetic association beyond single-locus additive effects
The four items share a shift from single-locus, marginal modeling toward multivariable statistical and machine learning frameworks applied to genome-wide markers or sequence. SSLPRS fits a polygenic risk score using a Spike-and-Slab LASSO prior and coordinate-ascent optimization on GWAS summary statistics, targeting sparse effect estimation. A benchmark of nine ML classifiers on gene-specific breast cancer missense variants identifies Extra Trees as the best performer, with interpretability and calibration analyses. STRAND introduces a 1B-parameter short-range transformer for exomic nucleotide decoding, evaluated on variant effect prediction and ClinVar. The end-to-end preprint instead maps SNP markers to images and text via latent encoding, validated on a strawberry diversity panel. What is new is the emphasis on sparsity, calibration, and learned representations, though the objectives differ: risk estimation, pathogenicity classification, sequence modeling, and direct phenotype-like prediction. Only the first directly addresses association testing.
Preprints
BiPETE: A Bi-Positional Embedding Transformer Encoder for Risk Assessment of Alcohol and Substance Use Disorder with Electronic Health Records
BiPETE transformer with dual positional encodings predicts alcohol and substance use disorder risk from EHRs, improving AUPRC.
ActiTect: A Generalizable Machine Learning Pipeline for REM Sleep Behavior Disorder Screening through Standardized Actigraphy
ActiTect: open-source ML pipeline detecting REM sleep behavior disorder from wrist actigraphy, with harmonized preprocessing and multi-cohort external…
BrainCSD: A Hierarchical Consistency-Driven MoE Foundation Model for Unified Connectome Synthesis and Multitask Brain Trait Prediction
BrainCSD is a hierarchical mixture-of-experts foundation model that synthesizes functional and structural connectome biomarkers from missing modalities and…
Explainable Deep Learning-based Classification of Wolff-Parkinson-White Electrocardiographic Signals
Explainable deep learning localizes WPW accessory pathways across 24 cardiac regions using synthetic ECGs from virtual hearts.
Topic history
| Date | Rank |
|---|---|
| #30 | |
| #40 | |
| #14 |